implementation module check
import StdEnv
import syntax, typesupport, parse, checksupport, utilities, checktypes, transform, predef
import explicitimports, comparedefimp, checkFunctionBodies, containers, compilerSwitches
import genericsupport
import typereify
// import RWSDebug
cUndef :== (-1)
cDummyArray :== {}
isMainModule :: ModuleKind -> Bool
isMainModule MK_Main = True
isMainModule _ = False
checkGenericDefs :: !Index !(Optional (CopiedDefinitions, Int)) !*{#GenericDef} !*{#CheckedTypeDef} !*{#ClassDef} !*{#DclModule} !*Heaps !*CheckState
-> (!*{#GenericDef}, !*{#CheckedTypeDef}, !*{#ClassDef}, !*{#DclModule}, !*Heaps, !*CheckState)
checkGenericDefs mod_index opt_icl_info gen_defs type_defs class_defs modules heaps cs
= check_generics 0 mod_index opt_icl_info gen_defs type_defs class_defs modules heaps cs
where
check_generics index mod_index opt_icl_info gen_defs type_defs class_defs modules heaps cs
# (n_generics, gen_defs) = usize gen_defs
| index == n_generics
= (gen_defs, type_defs, class_defs, modules, heaps, cs)
# (gen_defs, type_defs, class_defs, modules, heaps, cs)
= check_generic_def index mod_index opt_icl_info gen_defs type_defs class_defs modules heaps cs
= check_generics (inc index) mod_index opt_icl_info gen_defs type_defs class_defs modules heaps cs
check_generic_def index mod_index opt_icl_info gen_defs type_defs class_defs modules heaps cs
| has_to_be_checked mod_index index opt_icl_info
= check_generic index mod_index gen_defs type_defs class_defs modules heaps cs
//---> ("check_generic", mod_index, index)
= (gen_defs, type_defs, class_defs, modules, heaps, cs)
//---> ("skipped check_generic", mod_index, index)
has_to_be_checked module_index generic_index No
= True
has_to_be_checked module_index generic_index (Yes ({copied_generic_defs}, n_cached_dcl_mods))
= not (module_index < n_cached_dcl_mods && generic_index < size copied_generic_defs && copied_generic_defs.[generic_index])
check_generic index mod_index gen_defs type_defs class_defs modules heaps cs
#(gen_def=:{gen_ident, gen_pos}, gen_defs) = gen_defs ! [index]
# cs = pushErrorAdmin (newPosition gen_ident gen_pos) cs
# (gen_def, heaps) = alloc_gen_info gen_def heaps
# (gen_def, type_defs, class_defs, modules, heaps, cs)
= check_generic_type gen_def mod_index type_defs class_defs modules heaps cs
//# (heaps, cs) = check_generic_vars gen_def heaps cs
# gen_defs = {gen_defs & [index] = gen_def}
# (cs=:{cs_x}) = popErrorAdmin cs
#! cs = { cs & cs_x = {cs_x & x_needed_modules = cs_x.x_needed_modules bitor cNeedStdGeneric}}
= (gen_defs, type_defs, class_defs, modules, heaps, cs)
//---> ("check_generic", gen_ident, gen_def.gen_vars, gen_def.gen_type)
alloc_gen_info gen_def heaps=:{hp_generic_heap}
# initial_info =
{ gen_classes = createArray 32 []
, gen_var_kinds = []
}
# (gen_info_ptr, hp_generic_heap) = newPtr initial_info hp_generic_heap
= ( {gen_def & gen_info_ptr = gen_info_ptr},
{heaps & hp_generic_heap = hp_generic_heap})
check_generic_vars {gen_vars,gen_type} heaps=:{hp_type_heaps=hp_type_heaps=:{th_vars}} cs
#! types = [gen_type.st_result:gen_type.st_args]
#! th_vars = performOnTypeVars mark_var types th_vars
#! (th_vars,cs) = foldSt check_var_marked gen_vars (th_vars,cs)
#! th_vars = performOnTypeVars initializeToTVI_Empty types th_vars
= ({heaps & hp_type_heaps={hp_type_heaps&th_vars=th_vars}}, cs)
where
mark_var _ {tv_ident,tv_info_ptr} th_vars
= writePtr tv_info_ptr TVI_Used th_vars
check_var_marked {tv_ident,tv_info_ptr} (th_vars,cs=:{cs_error})
#! (tv_info, th_vars) = readPtr tv_info_ptr th_vars
#! cs_error = case tv_info of
TVI_Empty -> checkError tv_ident "generic variable not used" cs_error
TVI_Used -> cs_error
= (th_vars, {cs & cs_error = cs_error})
check_generic_type gen_def=:{gen_type, gen_vars, gen_ident, gen_pos} module_index type_defs class_defs modules heaps=:{hp_type_heaps} cs
#! (checked_gen_type, _, type_defs, class_defs, modules, hp_type_heaps, cs) =
checkFunctionType module_index gen_type SP_None type_defs class_defs modules hp_type_heaps cs
#! (checked_gen_vars, cs) = check_generic_vars gen_vars checked_gen_type.st_vars cs
#! checked_gen_type = { checked_gen_type & st_vars = move_gen_vars checked_gen_vars checked_gen_type.st_vars}
#! (hp_type_heaps, cs) = check_no_generic_vars_in_contexts checked_gen_type checked_gen_vars hp_type_heaps cs
= ( {gen_def & gen_type = checked_gen_type, gen_vars = checked_gen_vars}
, type_defs
, class_defs
, modules
, {heaps & hp_type_heaps = hp_type_heaps}
, cs
)
//---> ("check_genric_type", gen_vars, checked_gen_vars, checked_gen_type)
where
check_generic_vars gen_vars st_vars cs=:{cs_error}
# (gen_vars, _, cs_error) = foldSt check_generic_var gen_vars ([], st_vars, cs_error)
= (reverse gen_vars, {cs & cs_error = cs_error})
// make sure generic variables are first
move_gen_vars gen_vars st_vars
= gen_vars ++ (removeMembers st_vars gen_vars)
check_generic_var gv (acc_gvs, [], error)
= (acc_gvs, [], checkError gv.tv_ident "generic variable not used" error)
check_generic_var gv (acc_gvs, [tv:tvs], error)
| gv.tv_ident.id_name == tv.tv_ident.id_name
= ([tv:acc_gvs], tvs, error)
# (acc_gvs, tvs, error) = check_generic_var gv (acc_gvs, tvs, error)
= (acc_gvs, [tv:tvs], error)
// returns reversed variable list
add_vars_to_symbol_table gen_vars type_heaps=:{th_vars} cs=:{cs_error, cs_symbol_table}
#! (rev_gen_vars,cs_symbol_table,th_vars, cs_error)
= foldSt add_var_to_symbol_table gen_vars ([],cs.cs_symbol_table,th_vars, cs_error)
= ( rev_gen_vars,
{type_heaps & th_vars = th_vars},
{cs & cs_error = cs_error, cs_symbol_table = cs_symbol_table})
add_var_to_symbol_table :: !TypeVar !(![TypeVar], !*SymbolTable, !*TypeVarHeap, !*ErrorAdmin)
-> (![TypeVar],!*SymbolTable,!*TypeVarHeap,!*ErrorAdmin)
add_var_to_symbol_table tv=:{tv_ident={id_name,id_info}} (rev_class_args, symbol_table, th_vars, error)
#! (entry, symbol_table) = readPtr id_info symbol_table
| entry.ste_kind == STE_Empty || entry.ste_def_level < cGlobalScope
# (new_var_ptr, th_vars) = newPtr TVI_Empty th_vars
# symbol_table = NewEntry symbol_table id_info (STE_TypeVariable new_var_ptr) NoIndex cGlobalScope entry
= ([{ tv & tv_info_ptr = new_var_ptr} : rev_class_args], symbol_table, th_vars, error)
= (rev_class_args, symbol_table, th_vars, checkError id_name "generic variable already defined" error)
// also reverses variable list (but does not make coffe)
remove_vars_from_symbol_table rev_gen_vars cs=:{cs_symbol_table}
#! (gen_vars, cs_symbol_table) = foldSt remove_var_from_symbol_table rev_gen_vars ([], cs_symbol_table)
= (gen_vars, { cs & cs_symbol_table = cs_symbol_table})
remove_var_from_symbol_table tv=:{tv_ident={id_name,id_info}} (gen_vars, symbol_table)
#! (entry, symbol_table) = readPtr id_info symbol_table
#! symbol_table = writePtr id_info entry.ste_previous symbol_table
=([tv:gen_vars], symbol_table)
check_no_generic_vars_in_contexts :: !SymbolType ![TypeVar] !*TypeHeaps !*CheckState -> (!*TypeHeaps, !*CheckState)
check_no_generic_vars_in_contexts gen_type gen_vars th=:{th_vars} cs=:{cs_error}
#! th_vars = clear_type_vars gen_type.st_vars th_vars
#! th_vars = mark_type_vars_used gen_vars th_vars
#! (th_vars, cs_error) = check_type_vars_not_used gen_type.st_context th_vars cs_error
#! th_vars = clear_type_vars gen_type.st_vars th_vars
= ({th & th_vars = th_vars}, {cs & cs_error = cs_error})
where
mark_type_vars_used gen_vars th_vars
= foldSt (write_type_var_info TVI_Used) gen_vars th_vars
clear_type_vars gen_vars th_vars
= foldSt (write_type_var_info TVI_Empty) gen_vars th_vars
write_type_var_info tvi {tv_ident, tv_info_ptr} th_vars
= writePtr tv_info_ptr tvi th_vars
check_type_vars_not_used :: ![TypeContext] !*TypeVarHeap !*ErrorAdmin -> (!*TypeVarHeap, !*ErrorAdmin)
check_type_vars_not_used contexts th_vars cs_error
# types = flatten [tc_types \\ {tc_types} <- contexts]
# atypes = [{at_type=t,at_attribute=TA_None} \\ t <- types]
= performOnTypeVars check_type_var_not_used atypes (th_vars, cs_error)
check_type_var_not_used attr tv=:{tv_ident, tv_info_ptr} (th_vars, cs_error)
#! (tv_info, th_vars) = readPtr tv_info_ptr th_vars
= case tv_info of
TVI_Empty
-> (th_vars, cs_error)
TVI_Used
#! cs_error = checkError tv_ident "context restrictions on generic variables are not allowed" cs_error
-> (th_vars, cs_error)
_ -> abort ("check_no_generic_vars_in_contexts: wrong TVI" ---> (tv, tv_info))
checkGenericCaseDefs :: !Index !*{#GenericCaseDef} !*{#GenericDef} !u:{#CheckedTypeDef} !*{#DclModule} !*Heaps !*CheckState
-> (!*{#GenericCaseDef}, !*{#GenericDef}, !u:{#CheckedTypeDef}, !*{#DclModule},!.Heaps,!.CheckState)
checkGenericCaseDefs mod_index gen_case_defs generic_defs type_defs modules heaps cs
= check_instances 0 mod_index gen_case_defs generic_defs type_defs modules heaps cs
where
check_instances index mod_index gen_case_defs generic_defs type_defs modules heaps cs
# (n_gc, gen_inst_defs) = usize gen_case_defs
| index == n_gc
= (gen_case_defs, generic_defs, type_defs, modules, heaps, cs)
# (gen_case_defs, generic_defs, type_defs, modules, heaps, cs)
= check_instance index mod_index gen_case_defs generic_defs type_defs modules heaps cs
= check_instances (inc index) mod_index gen_case_defs generic_defs type_defs modules heaps cs
check_instance index mod_index gen_case_defs generic_defs type_defs modules heaps cs
#! (case_def=:{gc_ident,gc_gident,gc_pos,gc_type}, gen_case_defs) = gen_case_defs ! [index]
#! cs = pushErrorAdmin (newPosition gc_ident gc_pos) cs
#! (gc_type, gc_type_cons, type_defs, modules, heaps, cs)
= check_instance_type mod_index gc_type type_defs modules heaps cs
#! (generic_gi, cs) = get_generic_index gc_gident mod_index cs
| not cs.cs_error.ea_ok
# cs = popErrorAdmin cs
= (gen_case_defs, generic_defs, type_defs, modules, heaps, cs)
#! case_def =
{ case_def
& gc_generic = generic_gi
, gc_type = gc_type
, gc_type_cons = gc_type_cons
}
#! gen_case_defs = { gen_case_defs & [index] = case_def }
#! (cs=:{cs_x}) = popErrorAdmin cs
#! cs = { cs & cs_x = {cs_x & x_needed_modules = cs_x.x_needed_modules bitor cNeedStdGeneric}}
= (gen_case_defs, generic_defs, type_defs, modules, heaps, cs)
//---> ("check_generic_case", gc_ident, gc_type_cons)
check_instance_type module_index (TA type_cons []) type_defs modules heaps=:{hp_type_heaps} cs
# (entry, cs_symbol_table) = readPtr type_cons.type_ident.id_info cs.cs_symbol_table
# cs = {cs & cs_symbol_table = cs_symbol_table}
# (type_index, type_module) = retrieveGlobalDefinition entry STE_Type module_index
| type_index == NotFound
# cs_error = checkError type_cons.type_ident "generic argument type undefined" cs.cs_error
= (TA type_cons [], TypeConsSymb type_cons, type_defs, modules,{heaps&hp_type_heaps = hp_type_heaps}, {cs&cs_error=cs_error})
# (type_def, type_defs, modules)
= getTypeDef module_index {glob_module=type_module, glob_object=type_index} type_defs modules
# type_cons = { type_cons & type_index = { glob_object = type_index, glob_module = type_module }}
| type_synonym_with_arguments type_def.td_rhs type_def.td_arity
# cs = {cs & cs_error = checkError type_def.td_ident "synonym type not allowed" cs.cs_error}
= (TA type_cons [], TypeConsSymb type_cons, type_defs, modules,{heaps&hp_type_heaps = hp_type_heaps}, cs)
= (TA type_cons [], TypeConsSymb type_cons, type_defs, modules,{heaps&hp_type_heaps = hp_type_heaps}, cs)
where
type_synonym_with_arguments (SynType _) arity
= arity>0
type_synonym_with_arguments _ _
= False
check_instance_type module_index (TB b) type_defs modules heaps cs
= (TB b, TypeConsBasic b, type_defs, modules,heaps, cs)
check_instance_type module_index TArrow type_defs modules heaps cs
= (TArrow, TypeConsArrow, type_defs, modules, heaps , cs)
// General instance ..
check_instance_type module_index (TV tv) type_defs modules heaps=:{hp_type_heaps} cs
# (tv_info_ptr, th_vars) = newPtr TVI_Empty hp_type_heaps.th_vars
# tv = {tv & tv_info_ptr = tv_info_ptr}
= ( TV tv, TypeConsVar tv, type_defs, modules
, {heaps& hp_type_heaps = {hp_type_heaps & th_vars = th_vars}}, cs)
// .. General instance
check_instance_type module_index ins_type type_defs modules heaps cs=:{cs_error}
# cs_error = checkError {id_name="<>",id_info=nilPtr} "invalid generic type argument" cs_error
= (ins_type, TypeConsArrow, type_defs, modules, heaps, {cs & cs_error=cs_error})
get_generic_index :: !Ident !Index !*CheckState -> (!GlobalIndex, !*CheckState)
get_generic_index {id_name,id_info} mod_index cs=:{cs_symbol_table}
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
# cs = {cs & cs_symbol_table = cs_symbol_table}
= case ste.ste_kind of
STE_Generic
-> ({gi_module=mod_index,gi_index = ste.ste_index}, cs)
STE_Imported STE_Generic imported_generic_module
-> ({gi_module=imported_generic_module,gi_index = ste.ste_index}, cs)
_ -> //abort "--------------" ---> ("STE_Kind", ste.ste_kind)
( {gi_module=NoIndex,gi_index = NoIndex}
, {cs & cs_error = checkError id_name "generic undefined" cs.cs_error})
checkTypeClasses :: !Index !(Optional (CopiedDefinitions, Int)) !*{#ClassDef} !*{#MemberDef} !*{#CheckedTypeDef} !*{#DclModule} !*Heaps !*CheckState
-> (!*{#ClassDef}, !*{#MemberDef}, !*{#CheckedTypeDef}, !*{#DclModule}, !*Heaps, !*CheckState)
checkTypeClasses module_index opt_icl_info class_defs member_defs type_defs modules heaps=:{hp_type_heaps} cs
#! n_classes = size class_defs
# (class_defs,member_defs,type_defs,modules,hp_type_heaps,cs)
= iFoldSt (check_type_class module_index opt_icl_info) 0 n_classes (class_defs, member_defs, type_defs, modules, hp_type_heaps, cs)
= (class_defs,member_defs,type_defs,modules,{heaps & hp_type_heaps = hp_type_heaps},cs)
where
check_type_class module_index opt_icl_info class_index (class_defs, member_defs, type_defs, modules, type_heaps, cs=:{cs_symbol_table,cs_error})
| has_to_be_checked module_index opt_icl_info class_index
# (class_def=:{class_ident,class_pos,class_args,class_context,class_members}, class_defs) = class_defs![class_index]
cs = {cs & cs_error = setErrorAdmin (newPosition class_ident class_pos) cs_error }
(class_args, class_context, type_defs, class_defs, modules, type_heaps, cs)
= checkSuperClasses class_args class_context module_index type_defs class_defs modules type_heaps cs
class_defs = { class_defs & [class_index] = { class_def & class_context = class_context, class_args = class_args }}
member_defs = set_classes_in_member_defs 0 class_members {glob_object = class_index, glob_module = module_index} member_defs
= (class_defs, member_defs, type_defs, modules, type_heaps, cs)
= (class_defs, member_defs, type_defs, modules, type_heaps, cs)
has_to_be_checked module_index No class_index
= True
has_to_be_checked module_index (Yes ({copied_class_defs}, n_cached_dcl_mods)) class_index
= not (module_index < n_cached_dcl_mods && class_index < size copied_class_defs && copied_class_defs.[class_index])
set_classes_in_member_defs mem_offset class_members glob_class_index member_defs
| mem_offset == size class_members
= member_defs
# {ds_index} = class_members.[mem_offset]
# (member_def, member_defs) = member_defs![ds_index]
= set_classes_in_member_defs (inc mem_offset) class_members glob_class_index { member_defs & [ds_index] = { member_def & me_class = glob_class_index }}
checkSpecial :: !Index !FunType !Index !SpecialSubstitution !(!Index, ![FunType], !*Heaps,!*PredefinedSymbols,!*ErrorAdmin)
-> (!Special, !(!Index, ![FunType], !*Heaps,!*PredefinedSymbols, !*ErrorAdmin))
checkSpecial mod_index fun_type=:{ft_type} fun_index subst (next_inst_index, special_types, heaps, predef_symbols,error)
# (special_type, hp_type_heaps, error) = substitute_type ft_type subst heaps.hp_type_heaps error
(spec_types, predef_symbols, error) = checkAndCollectTypesOfContextsOfSpecials special_type.st_context predef_symbols error
ft_type = { special_type & st_context = [] }
(new_info_ptr, hp_var_heap) = newPtr VI_Empty heaps.hp_var_heap
= ( { spec_index = { glob_module = mod_index, glob_object = next_inst_index }, spec_types = spec_types, spec_vars = subst.ss_vars, spec_attrs = subst.ss_attrs },
((inc next_inst_index), [{ fun_type & ft_type = ft_type, ft_specials = SP_FunIndex fun_index, ft_type_ptr = new_info_ptr} : special_types ],
{ heaps & hp_type_heaps = hp_type_heaps, hp_var_heap = hp_var_heap }, predef_symbols, error))
where
substitute_type st=:{st_vars,st_attr_vars,st_args,st_result,st_context,st_attr_env} environment type_heaps error
# (st_vars, st_attr_vars, [st_result : st_args], st_context, st_attr_env, _, type_heaps, error)
= instantiateTypes st_vars st_attr_vars [ st_result : st_args ] st_context st_attr_env environment [] type_heaps error
= ({st & st_vars = st_vars, st_args = st_args, st_result = st_result, st_attr_vars = st_attr_vars,
st_context = st_context, st_attr_env = st_attr_env }, type_heaps, error)
checkDclFunctions :: !Index !Index ![FunType] !v:{#CheckedTypeDef} !x:{#ClassDef} !v:{#.DclModule} !*Heaps !*CheckState
-> (!Index, ![FunType], ![FunType], !v:{#CheckedTypeDef}, !x:{#ClassDef}, !v:{#DclModule}, !*Heaps, !*CheckState)
checkDclFunctions module_index first_inst_index fun_types type_defs class_defs modules heaps cs
= check_dcl_functions module_index fun_types 0 first_inst_index [] [] type_defs class_defs modules heaps cs
where
check_dcl_functions :: !Index ![FunType] !Index !Index ![FunType] ![FunType] !v:{#CheckedTypeDef} !x:{#ClassDef} !v:{#DclModule} !*Heaps !*CheckState
-> (!Index, ![FunType], ![FunType],!v:{#CheckedTypeDef}, !x:{#ClassDef}, !v:{#DclModule}, !*Heaps, !*CheckState)
check_dcl_functions module_index [] fun_index next_inst_index collected_funtypes collected_instances type_defs class_defs modules heaps cs
= (next_inst_index, collected_funtypes, collected_instances, type_defs, class_defs, modules, heaps, cs)
check_dcl_functions module_index [fun_type=:{ft_ident,ft_type,ft_pos,ft_specials} : fun_types] fun_index
next_inst_index collected_funtypes collected_instances type_defs class_defs modules heaps cs
# position = newPosition ft_ident ft_pos
cs = { cs & cs_error = setErrorAdmin position cs.cs_error }
(ft_type, ft_specials, type_defs, class_defs, modules, hp_type_heaps, cs)
= checkFunctionType module_index ft_type ft_specials type_defs class_defs modules heaps.hp_type_heaps cs
(spec_types, next_inst_index, collected_instances, heaps, cs_predef_symbols,cs_error)
= check_specials module_index { fun_type & ft_type = ft_type } fun_index ft_specials next_inst_index collected_instances
{ heaps & hp_type_heaps = hp_type_heaps } cs.cs_predef_symbols cs.cs_error
(new_info_ptr, hp_var_heap) = newPtr VI_Empty heaps.hp_var_heap
= check_dcl_functions module_index fun_types (inc fun_index) next_inst_index [
{ fun_type & ft_type = ft_type, ft_specials = spec_types, ft_type_ptr = new_info_ptr } : collected_funtypes]
collected_instances type_defs class_defs modules { heaps & hp_var_heap = hp_var_heap } { cs & cs_predef_symbols=cs_predef_symbols,cs_error = cs_error }
check_specials :: !Index !FunType !Index !Specials !Index ![FunType] !*Heaps !*PredefinedSymbols !*ErrorAdmin
-> (!Specials, !Index, ![FunType], !*Heaps, !*PredefinedSymbols, !*ErrorAdmin)
check_specials mod_index fun_type fun_index (SP_Substitutions substs) next_inst_index all_instances heaps predef_symbols error
# (list_of_specials, (next_inst_index, all_instances, heaps, cs_predef_symbols,cs_error))
= mapSt (checkSpecial mod_index fun_type fun_index) substs (next_inst_index, all_instances, heaps, predef_symbols,error)
= (SP_ContextTypes list_of_specials, next_inst_index, all_instances, heaps, cs_predef_symbols,cs_error)
check_specials mod_index fun_type fun_index SP_None next_inst_index all_instances heaps predef_symbols error
= (SP_None, next_inst_index, all_instances, heaps, predef_symbols,error)
checkSpecialsOfInstances :: !Index !Index ![ClassInstance] !Index ![ClassInstance] ![FunType] {# FunType} *{! [Special] } !*Heaps !*PredefinedSymbols !*ErrorAdmin
-> (!Index, ![ClassInstance], ![FunType], !*{! [Special]}, !*Heaps, !*PredefinedSymbols,!*ErrorAdmin)
checkSpecialsOfInstances mod_index first_mem_index [class_inst=:{ins_members,ins_specials} : class_insts] next_inst_index all_class_instances all_specials
new_inst_defs all_spec_types heaps predef_symbols error
= case ins_specials of
SP_TypeOffset type_offset
# (next_inst_index, rev_mem_specials, all_specials, all_spec_types, heaps,predef_symbols, error)
= check_and_build_members mod_index first_mem_index 0 ins_members type_offset next_inst_index [] all_specials new_inst_defs all_spec_types heaps predef_symbols error
class_inst = { class_inst & ins_members = { mem \\ mem <- reverse rev_mem_specials } }
-> checkSpecialsOfInstances mod_index first_mem_index class_insts next_inst_index [class_inst : all_class_instances]
all_specials new_inst_defs all_spec_types heaps predef_symbols error
SP_None
-> checkSpecialsOfInstances mod_index first_mem_index class_insts next_inst_index [class_inst : all_class_instances]
all_specials new_inst_defs all_spec_types heaps predef_symbols error
where
check_and_build_members :: !Index !Index !Int {# DefinedSymbol} !Int !Index ![DefinedSymbol] ![FunType] !{#FunType} !*{! [Special]} !*Heaps !*PredefinedSymbols !*ErrorAdmin
-> (!Index, ![DefinedSymbol], ![FunType], !*{! [Special]}, !*Heaps, !*PredefinedSymbols,!*ErrorAdmin)
check_and_build_members mod_index first_mem_index member_offset ins_members type_offset next_inst_index rev_mem_specials all_specials inst_spec_defs
all_spec_types heaps predef_symbols error
| member_offset < size ins_members
# member = ins_members.[member_offset]
member_index = member.ds_index
spec_member_index = member_index - first_mem_index
# (spec_types, all_spec_types) = all_spec_types![spec_member_index]
# mem_inst = inst_spec_defs.[spec_member_index]
(SP_Substitutions specials) = mem_inst.ft_specials
env = specials !! type_offset
member = { member & ds_index = next_inst_index }
(spec_type, (next_inst_index, all_specials, heaps, predef_symbols,error))
= checkSpecial mod_index mem_inst member_index env (next_inst_index, all_specials, heaps, predef_symbols,error)
all_spec_types = { all_spec_types & [spec_member_index] = [ spec_type : spec_types] }
= check_and_build_members mod_index first_mem_index (inc member_offset) ins_members type_offset next_inst_index [ member : rev_mem_specials ]
all_specials inst_spec_defs all_spec_types heaps predef_symbols error
= (next_inst_index, rev_mem_specials, all_specials, all_spec_types, heaps, predef_symbols,error)
checkSpecialsOfInstances mod_index first_mem_index [] next_inst_index all_class_instances all_specials inst_spec_defs all_spec_types heaps predef_symbols error
= (next_inst_index, all_class_instances, all_specials, all_spec_types, heaps, predef_symbols,error)
checkMemberTypes :: !Index !(Optional (CopiedDefinitions, Int)) !*{#MemberDef} !*{#CheckedTypeDef} !*{#ClassDef} !*{#DclModule} !*Heaps !*CheckState
-> (!*{#MemberDef}, !*{#CheckedTypeDef}, !*{#ClassDef}, !*{#DclModule}, !*Heaps, !*CheckState)
checkMemberTypes module_index opt_icl_info member_defs type_defs class_defs modules heaps=:{hp_type_heaps,hp_var_heap} cs
#! nr_of_members = size member_defs
# (mds,tds,cds,modules,hp_type_heaps,hp_var_heap,cs)
= iFoldSt (check_class_member module_index opt_icl_info) 0 nr_of_members (member_defs, type_defs, class_defs, modules, hp_type_heaps, hp_var_heap, cs)
= (mds,tds,cds,modules,{heaps & hp_type_heaps = hp_type_heaps,hp_var_heap = hp_var_heap},cs)
where
check_class_member module_index opt_icl_info member_index (member_defs, type_defs, class_defs, modules, type_heaps, var_heap, cs)
# (member_def=:{me_ident,me_type,me_pos,me_class}, member_defs) = member_defs![member_index]
| has_to_be_checked opt_icl_info me_class
# position = newPosition me_ident me_pos
cs = { cs & cs_error = setErrorAdmin position cs.cs_error }
(me_type, type_defs, class_defs, modules, type_heaps, cs)
= checkMemberType module_index me_type type_defs class_defs modules type_heaps cs
me_class_vars = [ type_var \\ (TV type_var) <- (hd me_type.st_context).tc_types ]
(me_type_ptr, var_heap) = newPtr VI_Empty var_heap
= ({ member_defs & [member_index] = { member_def & me_type = me_type, me_class_vars = me_class_vars, me_type_ptr = me_type_ptr }},
type_defs, class_defs, modules, type_heaps, var_heap, cs)
= (member_defs, type_defs, class_defs, modules, type_heaps, var_heap, cs)
has_to_be_checked No glob_class_index
= True
has_to_be_checked (Yes ({copied_class_defs}, n_cached_dcl_mods)) {glob_module,glob_object}
= not (glob_module < n_cached_dcl_mods && glob_object < size copied_class_defs && copied_class_defs.[glob_object])
:: InstanceSymbols =
{ is_type_defs :: !.{# CheckedTypeDef}
, is_class_defs :: !.{# ClassDef}
, is_member_defs :: !.{# MemberDef}
, is_modules :: !.{# DclModule}
}
checkInstanceDefs :: !Index !*{#ClassInstance} !u:{#CheckedTypeDef} !u:{#ClassDef} !u:{#MemberDef} !u:{#DclModule} !*Heaps !*CheckState
-> (!.{#ClassInstance},!u:{#CheckedTypeDef},!u:{#ClassDef},!u:{#MemberDef}, !u:{#DclModule},!.Heaps,!.CheckState)
checkInstanceDefs mod_index instance_defs type_defs class_defs member_defs modules heaps=:{hp_type_heaps} cs
# is = { is_type_defs = type_defs, is_class_defs = class_defs, is_member_defs = member_defs, is_modules = modules }
(instance_defs, is, hp_type_heaps, cs) = check_instance_defs 0 mod_index instance_defs is hp_type_heaps cs
= (instance_defs, is.is_type_defs, is.is_class_defs, is.is_member_defs, is.is_modules, {heaps & hp_type_heaps = hp_type_heaps}, cs)
where
check_instance_defs :: !Index !Index !*{# ClassInstance} !u:InstanceSymbols !*TypeHeaps !*CheckState
-> (!*{# ClassInstance},!u:InstanceSymbols,!*TypeHeaps,!*CheckState)
check_instance_defs inst_index mod_index instance_defs is type_heaps cs
| inst_index < size instance_defs
# (instance_def, instance_defs) = instance_defs![inst_index]
(instance_def, is, type_heaps, cs) = check_instance mod_index instance_def is type_heaps cs
= check_instance_defs (inc inst_index) mod_index { instance_defs & [inst_index] = instance_def } is type_heaps cs
= (instance_defs, is, type_heaps, cs)
check_instance :: !Index !ClassInstance !u:InstanceSymbols !*TypeHeaps !*CheckState -> (!ClassInstance, !u:InstanceSymbols, !*TypeHeaps, !*CheckState)
check_instance module_index
ins=:{ins_class={glob_object = class_ident =: {ds_ident = {id_name,id_info},ds_arity}},ins_type,ins_specials,ins_pos,ins_ident}
is=:{is_class_defs,is_modules} type_heaps cs=:{cs_symbol_table}
# (entry, cs_symbol_table) = readPtr id_info cs_symbol_table
# cs = pushErrorAdmin (newPosition ins_ident ins_pos) { cs & cs_symbol_table = cs_symbol_table }
# (ins, is, type_heaps, cs) = case entry.ste_kind of
STE_Class
# (class_def, is) = class_by_index entry.ste_index is
-> check_class_instance class_def module_index entry.ste_index module_index ins is type_heaps cs
STE_Imported STE_Class decl_index
# (class_def, is) = class_by_module_index decl_index entry.ste_index is
-> check_class_instance class_def module_index entry.ste_index decl_index ins is type_heaps cs
ste -> (ins, is, type_heaps, { cs & cs_error = checkError id_name "class undefined" cs.cs_error })
= (ins, is, type_heaps, popErrorAdmin cs)
where
class_by_index class_index is=:{is_class_defs}
# (class_def, is_class_defs) = is_class_defs![class_index]
= (class_def, {is & is_class_defs = is_class_defs})
class_by_module_index decl_index class_index is=:{is_modules}
# (dcl_mod, is_modules) = is_modules![decl_index]
class_def = dcl_mod.dcl_common.com_class_defs.[class_index]
= (class_def, {is & is_modules = is_modules })
check_class_instance :: ClassDef !Index !Index !Index !ClassInstance !u:InstanceSymbols !*TypeHeaps !*CheckState
-> (!ClassInstance, !u:InstanceSymbols, !*TypeHeaps, !*CheckState)
check_class_instance class_def module_index class_index class_mod_index
ins=:{ins_class={glob_object = class_ident =: {ds_ident = {id_name,id_info},ds_arity}},ins_type,ins_specials,ins_pos,ins_ident}
is=:{is_class_defs,is_modules} type_heaps cs=:{cs_symbol_table}
| class_def.class_arity == ds_arity
# ins_class = { glob_object = { class_ident & ds_index = class_index }, glob_module = class_mod_index}
(ins_type, ins_specials, is_type_defs, is_class_defs, is_modules, type_heaps, cs)
= checkInstanceType module_index ins_class ins_type ins_specials
is.is_type_defs is.is_class_defs is.is_modules type_heaps cs
is = { is & is_type_defs = is_type_defs, is_class_defs = is_class_defs, is_modules = is_modules }
= ({ins & ins_class = ins_class, ins_type = ins_type, ins_specials = ins_specials}, is, type_heaps, cs)
// otherwise
= ( ins, is, type_heaps
, { cs & cs_error = checkError id_name ("wrong arity: expected "+++toString class_def.class_arity+++" found "+++toString ds_arity) cs.cs_error }
)
checkIclInstances :: !Index !*CommonDefs !u:{# DclModule} !*VarHeap !*TypeHeaps !*CheckState
-> (![(Index,SymbolType)], !*CommonDefs, !u:{# DclModule}, !*VarHeap , !*TypeHeaps, !*CheckState)
checkIclInstances mod_index icl_common=:{com_instance_defs,com_class_defs,com_member_defs,com_generic_defs,com_type_defs} modules var_heap type_heaps cs=:{cs_error}
| cs_error.ea_ok
# (instance_types, com_instance_defs, com_class_defs, com_member_defs, com_generic_defs, com_type_defs, modules, var_heap, type_heaps, cs)
= check_icl_instances 0 mod_index [] com_instance_defs com_class_defs com_member_defs /*AA*/com_generic_defs com_type_defs modules var_heap type_heaps cs
= (instance_types, { icl_common & com_instance_defs = com_instance_defs,com_class_defs = com_class_defs,com_member_defs = com_member_defs, /*AA*/com_generic_defs = com_generic_defs, com_type_defs = com_type_defs },
modules, var_heap, type_heaps, cs)
= ([], icl_common, modules, var_heap, type_heaps, cs)
where
check_icl_instances :: !Index !Index ![(Index,SymbolType)] !x:{# ClassInstance} !w:{# ClassDef} !v:{# MemberDef} /*AA*/!w:{# GenericDef} !nerd:{# CheckedTypeDef} !u:{# DclModule}
!*VarHeap !*TypeHeaps !*CheckState
-> (![(Index,SymbolType)], !x:{# ClassInstance}, !w:{# ClassDef}, !v:{# MemberDef}, /*AA*/!w:{# GenericDef}, !nerd:{# CheckedTypeDef}, !u:{# DclModule}, !*VarHeap, !*TypeHeaps, !*CheckState)
check_icl_instances inst_index mod_index instance_types instance_defs class_defs member_defs generic_defs type_defs modules var_heap type_heaps cs
| inst_index < size instance_defs
# (instance_def=:{ins_ident, ins_pos}, instance_defs) = instance_defs![inst_index]
# (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs) =
check_class_instance instance_def mod_index instance_types class_defs member_defs generic_defs type_defs modules var_heap type_heaps cs
= check_icl_instances (inc inst_index) mod_index instance_types instance_defs class_defs member_defs generic_defs type_defs modules var_heap type_heaps cs
// otherwise
= (instance_types, instance_defs, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
check_class_instance {ins_pos,ins_class,ins_members,ins_type} mod_index instance_types class_defs member_defs generic_defs type_defs modules var_heap type_heaps cs
# ({class_members,class_ident}, class_defs, modules) = getClassDef ins_class mod_index class_defs modules
class_size = size class_members
| class_size == size ins_members
# (instance_types, member_defs, type_defs, modules, var_heap, type_heaps, cs)
= check_icl_instance_members mod_index ins_class.glob_module
0 class_size ins_members class_members class_ident ins_pos ins_type instance_types member_defs type_defs modules var_heap type_heaps cs
= (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
// otherwise
# cs = { cs & cs_error = checkErrorWithIdentPos (newPosition class_ident ins_pos) "different number of members specified" cs.cs_error }
= (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
/*
check_generic_instance {ins_class, ins_members, ins_generate} mod_index instance_types class_defs member_defs generic_defs type_defs modules var_heap type_heaps cs
# ({gen_ident, gen_member_ident}, generic_defs, modules) = getGenericDef ins_class mod_index generic_defs modules
//| ins_generate
// = (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
| size ins_members <> 1
# cs = { cs & cs_error = checkError gen_ident "generic instance must have one member" cs.cs_error }
= (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
# member_name = ins_members.[0].ds_ident
| member_name <> gen_member_ident
# cs = { cs & cs_error = checkError member_name "wrong member name" cs.cs_error }
= (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
// otherwise
= (instance_types, class_defs, member_defs, generic_defs, type_defs, modules, var_heap, type_heaps, cs)
*/
check_icl_instance_members :: !Index !Index !Int !Int !{#DefinedSymbol} !{#DefinedSymbol} Ident !Position !InstanceType ![(Index,SymbolType)]
!v:{# MemberDef} !blah:{# CheckedTypeDef} !u:{# DclModule} !*VarHeap !*TypeHeaps !*CheckState
-> (![(Index,SymbolType)], !v:{# MemberDef}, !blah:{# CheckedTypeDef}, !u:{# DclModule},!*VarHeap, !*TypeHeaps, !*CheckState)
check_icl_instance_members module_index member_mod_index mem_offset class_size ins_members class_members
class_ident ins_pos ins_type instance_types member_defs type_defs modules var_heap type_heaps cs=:{cs_x={x_main_dcl_module_n}}
| mem_offset == class_size
= (instance_types, member_defs, type_defs, modules, var_heap, type_heaps, cs)
# ins_member = ins_members.[mem_offset]
class_member = class_members.[mem_offset]
cs = setErrorAdmin (newPosition class_ident ins_pos) cs
| ins_member.ds_ident <> class_member.ds_ident
= check_icl_instance_members module_index member_mod_index (inc mem_offset) class_size ins_members class_members class_ident ins_pos ins_type
instance_types member_defs type_defs modules var_heap type_heaps
{ cs & cs_error = checkError class_member.ds_ident "instance of class member expected" cs.cs_error}
| ins_member.ds_arity <> class_member.ds_arity
= check_icl_instance_members module_index member_mod_index (inc mem_offset) class_size ins_members class_members class_ident ins_pos ins_type
instance_types member_defs type_defs modules var_heap type_heaps
{ cs & cs_error = checkError class_member.ds_ident "used with wrong arity" cs.cs_error}
# ({me_ident, me_type,me_class_vars,me_pos}, member_defs, modules) = getMemberDef member_mod_index class_member.ds_index module_index member_defs modules
(instance_type, _, type_heaps, Yes (modules, type_defs), cs_error)
= determineTypeOfMemberInstance me_type me_class_vars ins_type SP_None type_heaps (Yes (modules, type_defs, x_main_dcl_module_n)) cs.cs_error
(st_context, var_heap) = initializeContextVariables instance_type.st_context var_heap
= check_icl_instance_members module_index member_mod_index (inc mem_offset) class_size ins_members class_members class_ident ins_pos ins_type
[ (ins_member.ds_index, { instance_type & st_context = st_context }) : instance_types ] member_defs type_defs modules var_heap type_heaps { cs & cs_error = cs_error }
getClassDef :: !(Global DefinedSymbol) !Int !u:{#ClassDef} !v:{#DclModule} -> (!ClassDef,!u:{#ClassDef},!v:{#DclModule})
getClassDef {glob_module, glob_object={ds_ident, ds_index}} mod_index class_defs modules
| glob_module == mod_index
# (class_def, class_defs) = class_defs![ds_index]
= (class_def, class_defs, modules)
# (dcl_mod, modules) = modules![glob_module]
= (dcl_mod.dcl_common.com_class_defs.[ds_index], class_defs, modules)
getMemberDef :: !Int Int !Int !u:{#MemberDef} !v:{#DclModule} -> (!MemberDef,!u:{#MemberDef},!v:{#DclModule})
getMemberDef mem_mod mem_index mod_index member_defs modules
| mem_mod == mod_index
# (member_def,member_defs) = member_defs![mem_index]
= (member_def, member_defs, modules)
# (dcl_mod,modules) = modules![mem_mod]
= (dcl_mod.dcl_common.com_member_defs.[mem_index], member_defs, modules)
/*
getGenericDef :: !(Global DefinedSymbol) !Int !u:{#GenericDef} !v:{#DclModule} -> (!GenericDef,!u:{#GenericDef},!v:{#DclModule})
getGenericDef {glob_module, glob_object={ds_ident, ds_index}} mod_index generic_defs modules
| glob_module == mod_index
# (generic_def, generic_defs) = generic_defs![ds_index]
= (generic_def, generic_defs, modules)
# (dcl_mod, modules) = modules![glob_module]
= (dcl_mod.dcl_common.com_generic_defs.[ds_index], generic_defs, modules)
*/
instantiateTypes :: ![TypeVar] ![AttributeVar] ![AType] ![TypeContext] ![AttrInequality] !SpecialSubstitution ![SpecialSubstitution] !*TypeHeaps !*ErrorAdmin
-> (![TypeVar], ![AttributeVar], ![AType], ![TypeContext], ![AttrInequality], ![SpecialSubstitution], !*TypeHeaps, !*ErrorAdmin)
instantiateTypes old_type_vars old_attr_vars types type_contexts attr_env {ss_environ, ss_vars, ss_attrs, ss_context} special_subst_list type_heaps=:{th_vars, th_attrs} error
# th_vars = clear_vars old_type_vars th_vars
(new_type_vars, th_vars) = foldSt build_var_subst ss_vars ([], th_vars)
(new_attr_vars, th_attrs) = foldSt build_attr_var_subst ss_attrs ([], th_attrs)
type_heaps = foldSt build_type_subst ss_environ { type_heaps & th_vars = th_vars, th_attrs = th_attrs }
(new_ss_context, type_heaps) = substitute ss_context type_heaps
(inst_vars, th_vars) = foldSt determine_free_var old_type_vars (new_type_vars, type_heaps.th_vars)
(inst_attr_vars, th_attrs) = foldSt build_attr_var_subst old_attr_vars (new_attr_vars, type_heaps.th_attrs)
(inst_types, (ok2, type_heaps)) = mapSt substitue_arg_type types (True, { type_heaps & th_vars = th_vars, th_attrs = th_attrs })
// (ok2, inst_types, type_heaps) = substitute types { type_heaps & th_vars = th_vars, th_attrs = th_attrs }
(inst_contexts, type_heaps) = substitute type_contexts type_heaps
(inst_attr_env, type_heaps) = substitute attr_env type_heaps
(special_subst_list, th_vars) = mapSt adjust_special_subst special_subst_list type_heaps.th_vars
= (inst_vars, inst_attr_vars, inst_types, new_ss_context ++ inst_contexts, inst_attr_env, special_subst_list, { type_heaps & th_vars = th_vars }, error)
where
clear_vars type_vars type_var_heap = foldSt (\tv -> writePtr tv.tv_info_ptr TVI_Empty) type_vars type_var_heap
determine_free_var tv=:{tv_info_ptr} (free_vars, type_var_heap)
# (type_var_info, type_var_heap) = readPtr tv_info_ptr type_var_heap
= case type_var_info of
TVI_Empty
-> build_var_subst tv (free_vars, type_var_heap)
_
-> (free_vars, type_var_heap)
build_type_subst {bind_src,bind_dst} type_heaps
# (bind_src, type_heaps) = substitute bind_src type_heaps
// RWS ...
/*
FIXME: this is a patch for the following incorrect function type (in a dcl module)
f :: a | c a b special
a=[], b = Int
a=T, b = Char
The type variable b doesn't occur in f's type, but this is checked in a later
phase. Probably it's a better solution to change the order of checking.
*/
| isNilPtr bind_dst.tv_info_ptr
= type_heaps
// ... RWS
= { type_heaps & th_vars = writePtr bind_dst.tv_info_ptr (TVI_Type bind_src) type_heaps.th_vars}
substitue_arg_type at=:{at_type = TFA type_vars type} (was_ok, type_heaps)
# (fresh_type_vars, type_heaps) = foldSt build_avar_subst type_vars ([], type_heaps)
(new_at, type_heaps) = substitute {at & at_type = type} type_heaps
= ({ new_at & at_type = TFA fresh_type_vars new_at.at_type}, (was_ok, type_heaps))
substitue_arg_type type (was_ok, type_heaps)
# (type, type_heaps) = substitute type type_heaps
= (type, (was_ok, type_heaps))
build_var_subst var (free_vars, type_var_heap)
# (new_info_ptr, type_var_heap) = newPtr TVI_Empty type_var_heap
new_fv = { var & tv_info_ptr = new_info_ptr}
= ([ new_fv : free_vars ], writePtr var.tv_info_ptr (TVI_Type (TV new_fv)) type_var_heap)
build_avar_subst atv=:{atv_variable,atv_attribute} (free_vars, type_heaps)
# (new_info_ptr, th_vars) = newPtr TVI_Empty type_heaps.th_vars
new_fv = { atv_variable & tv_info_ptr = new_info_ptr}
th_vars = th_vars <:= (atv_variable.tv_info_ptr, TVI_Type (TV new_fv))
(new_attr, th_attrs) = build_attr_subst atv_attribute type_heaps.th_attrs
= ([ { atv & atv_variable = new_fv, atv_attribute = new_attr } : free_vars], { type_heaps & th_vars = th_vars, th_attrs = th_attrs })
where
build_attr_subst (TA_Var avar) attr_var_heap
# (new_info_ptr, attr_var_heap) = newPtr AVI_Empty attr_var_heap
new_attr = { avar & av_info_ptr = new_info_ptr}
= (TA_Var new_attr, attr_var_heap <:= (avar.av_info_ptr, AVI_Attr (TA_Var new_attr)))
build_attr_subst attr attr_var_heap
= (attr, attr_var_heap)
build_attr_var_subst attr (free_attrs, attr_var_heap)
# (new_info_ptr, attr_var_heap) = newPtr AVI_Empty attr_var_heap
new_attr = { attr & av_info_ptr = new_info_ptr}
= ([new_attr : free_attrs], writePtr attr.av_info_ptr (AVI_Attr (TA_Var new_attr)) attr_var_heap)
adjust_special_subst special_subst=:{ss_environ} type_var_heap
# (ss_environ, type_var_heap) = mapSt adjust_special_bind ss_environ type_var_heap
= ({ special_subst & ss_environ = ss_environ }, type_var_heap)
adjust_special_bind bind=:{bind_dst={tv_info_ptr}} type_var_heap
# (TVI_Type (TV new_tv), type_var_heap) = readPtr tv_info_ptr type_var_heap
= ({ bind & bind_dst = new_tv }, type_var_heap)
determineTypeOfMemberInstance :: !SymbolType ![TypeVar] !InstanceType !Specials !*TypeHeaps !u:(Optional (v:{#DclModule}, w:{#CheckedTypeDef}, Index)) !*ErrorAdmin
-> (!SymbolType, !Specials, !*TypeHeaps, !u:Optional (v:{#DclModule}, w:{#CheckedTypeDef}), !*ErrorAdmin)
determineTypeOfMemberInstance mem_st class_vars {it_types,it_vars,it_attr_vars,it_context} specials type_heaps opt_modules error
# env = { ss_environ = foldl2 (\binds var type -> [ {bind_src = type, bind_dst = var} : binds]) [] class_vars it_types,
ss_context = it_context, ss_vars = it_vars, ss_attrs = it_attr_vars}
(st, specials, type_heaps, error)
= determine_type_of_member_instance mem_st env specials type_heaps error
(type_heaps, opt_modules, error)
= check_attribution_consistency mem_st type_heaps opt_modules error
= (st, specials, type_heaps, opt_modules, error)
where
determine_type_of_member_instance mem_st=:{st_context} env (SP_Substitutions substs) type_heaps error
# (mem_st, substs, type_heaps, error)
= substitute_symbol_type { mem_st & st_context = tl st_context } env substs type_heaps error
= (mem_st, SP_Substitutions substs, type_heaps, error)
determine_type_of_member_instance mem_st=:{st_context} env SP_None type_heaps error
# (mem_st, _, type_heaps, error)
= substitute_symbol_type { mem_st & st_context = tl st_context } env [] type_heaps error
= (mem_st, SP_None, type_heaps, error)
substitute_symbol_type st=:{st_vars,st_attr_vars,st_args,st_result,st_context,st_attr_env} environment specials type_heaps error
# (st_vars, st_attr_vars, [st_result : st_args], st_context, st_attr_env, specials, type_heaps, error)
= instantiateTypes st_vars st_attr_vars [ st_result : st_args ] st_context st_attr_env environment specials type_heaps error
= ({st & st_vars = st_vars, st_args = st_args, st_result = st_result, st_attr_vars = st_attr_vars,
st_context = st_context, st_attr_env = st_attr_env }, specials, type_heaps, error)
check_attribution_consistency {st_args, st_result} type_heaps No error
= (type_heaps, No, error)
check_attribution_consistency {st_args, st_result} type_heaps=:{th_vars} (Yes (modules, type_defs, x_main_dcl_module_n)) error
// it is assumed that all type vars bindings done in instantiateTypes are still valid
# (_, th_vars, modules, type_defs, error)
= foldSt (foldATypeSt (check_it x_main_dcl_module_n) (\_ st -> st))
[st_result:st_args]
(False, th_vars, modules, type_defs, error)
= ({ type_heaps & th_vars = th_vars }, Yes (modules, type_defs), error)
check_it _ {at_attribute} (error_already_given, th_vars, modules, type_defs, error)
| at_attribute==TA_Unique || error_already_given
= (error_already_given, th_vars, modules, type_defs, error)
// otherwise GOTO next alternative
check_it x_main_dcl_module_n {at_type=TV tv} (_, th_vars, modules, type_defs, error)
= must_not_be_essentially_unique x_main_dcl_module_n tv th_vars modules type_defs error
check_it x_main_dcl_module_n {at_type= (CV tv) :@: _} (_, th_vars, modules, type_defs, error)
= must_not_be_essentially_unique x_main_dcl_module_n tv th_vars modules type_defs error
check_it _ _ state
= state
must_not_be_essentially_unique x_main_dcl_module_n {tv_ident, tv_info_ptr} th_vars modules type_defs error
# (TVI_Type type, th_vars) = readPtr tv_info_ptr th_vars
= case type of
TA {type_ident, type_index} _
-> must_not_be_essentially_unique_for_TA type_ident type_index th_vars
TAS {type_ident, type_index} _ _
-> must_not_be_essentially_unique_for_TA type_ident type_index th_vars
_
-> (False, th_vars, modules, type_defs, error)
where
must_not_be_essentially_unique_for_TA type_ident type_index th_vars
# (type_def, type_defs, modules)
= getTypeDef x_main_dcl_module_n type_index type_defs modules
= case type_def.td_attribute of
TA_Unique
-> (True, th_vars, modules, type_defs,
checkError type_ident
( "is unique but instanciates class variable "
+++tv_ident.id_name
+++" that is non uniquely used in a member type"
) error
)
_
-> (False, th_vars, modules, type_defs, error)
getTypeDef :: !Index !(Global Index) !v:{#CheckedTypeDef} !w:{#DclModule}
-> (!CheckedTypeDef, !v:{#CheckedTypeDef}, !w:{#DclModule})
getTypeDef x_main_dcl_module_n {glob_module,glob_object} type_defs modules
| glob_module==x_main_dcl_module_n
# (type_def, type_defs) = type_defs![glob_object]
= (type_def, type_defs, modules)
# (type_def, modules) = modules![glob_module].dcl_common.com_type_defs.[glob_object]
= (type_def, type_defs, modules)
determineTypesOfDclInstances :: !Index !Index !*{#ClassInstance} !*{# ClassDef} !*{# MemberDef}
!*{#DclModule} !*TypeHeaps !*VarHeap !*CheckState
-> (![FunType], !Index, ![ClassInstance], !*{#ClassInstance}, !*{# ClassDef}, !*{# MemberDef}, !*{#DclModule}, !*TypeHeaps, !*VarHeap, !*CheckState)
determineTypesOfDclInstances first_memb_inst_index mod_index com_instance_defs com_class_defs com_member_defs
modules type_heaps var_heap cs=:{cs_error,cs_predef_symbols,cs_x={x_main_dcl_module_n}}
| cs_error.ea_ok
#! nr_of_class_instances = size com_instance_defs
# (memb_inst_defs, next_mem_inst_index, all_class_specials, com_class_defs, com_member_defs, modules, com_instance_defs, type_heaps, var_heap, cs_predef_symbols,cs_error)
= determine_types_of_dcl_instances x_main_dcl_module_n 0 nr_of_class_instances first_memb_inst_index mod_index [] com_class_defs com_member_defs
modules com_instance_defs type_heaps var_heap cs_predef_symbols cs_error
= (memb_inst_defs, next_mem_inst_index, all_class_specials, com_instance_defs, com_class_defs,
com_member_defs, modules, type_heaps, var_heap, { cs & cs_predef_symbols=cs_predef_symbols,cs_error = cs_error })
= ([], first_memb_inst_index, [], com_instance_defs, com_class_defs, com_member_defs, modules, type_heaps, var_heap, cs)
where
determine_types_of_dcl_instances :: !Index !Index !Index !Index !Index ![ClassInstance] !v:{#ClassDef} !w:{#MemberDef}
!x:{#DclModule} !*{#ClassInstance} !*TypeHeaps !*VarHeap !*PredefinedSymbols !*ErrorAdmin
-> (![FunType], !Index, ![ClassInstance], !v:{#ClassDef}, !w:{#MemberDef}, !x:{#DclModule}, !*{#ClassInstance}, !*TypeHeaps, !*VarHeap, !*PredefinedSymbols,!*ErrorAdmin)
determine_types_of_dcl_instances x_main_dcl_module_n inst_index next_class_inst_index next_mem_inst_index mod_index all_class_specials
class_defs member_defs modules instance_defs type_heaps var_heap predef_symbols error
| inst_index < size instance_defs
# (instance_def=:{ins_class,ins_pos,ins_type,ins_specials}, instance_defs) = instance_defs![inst_index]
# ({class_ident, class_members}, class_defs, modules) = getClassDef ins_class mod_index class_defs modules
class_size = size class_members
(ins_members, memb_inst_defs1, member_defs, modules, type_heaps, var_heap, error)
= determine_dcl_instance_symbols_and_types x_main_dcl_module_n next_mem_inst_index 0 mod_index ins_class.glob_module class_size class_members
ins_type ins_specials class_ident ins_pos member_defs modules type_heaps var_heap error
instance_def = { instance_def & ins_members = { member \\ member <- ins_members }}
(ins_specials, next_class_inst_index, all_class_specials, type_heaps, predef_symbols,error)
= check_instance_specials mod_index instance_def inst_index ins_specials next_class_inst_index all_class_specials type_heaps predef_symbols error
(memb_inst_defs2, next_mem_inst_index, all_class_specials, class_defs, member_defs, modules, instance_defs, type_heaps, var_heap, predef_symbols,error)
= determine_types_of_dcl_instances x_main_dcl_module_n (inc inst_index) next_class_inst_index (next_mem_inst_index + class_size) mod_index all_class_specials
class_defs member_defs modules { instance_defs & [inst_index] = { instance_def & ins_specials = ins_specials }} type_heaps var_heap predef_symbols error
= (memb_inst_defs1 ++ memb_inst_defs2, next_mem_inst_index, all_class_specials, class_defs, member_defs, modules, instance_defs, type_heaps, var_heap, predef_symbols,error)
= ([], next_mem_inst_index, all_class_specials, class_defs, member_defs, modules, instance_defs, type_heaps, var_heap, predef_symbols,error)
determine_dcl_instance_symbols_and_types :: !Index !Index !Index !Index !Index !Int !{#DefinedSymbol} !InstanceType !Specials Ident !Position
!w:{#MemberDef} !u:{#DclModule} !*TypeHeaps !*VarHeap !*ErrorAdmin
-> (![DefinedSymbol], ![FunType], !w:{#MemberDef}, !u:{#DclModule}, !*TypeHeaps, !*VarHeap, !.ErrorAdmin)
determine_dcl_instance_symbols_and_types x_main_dcl_module_n first_inst_index mem_offset module_index member_mod_index class_size class_members
ins_type ins_specials class_ident ins_pos member_defs modules type_heaps var_heap cs_error
| mem_offset == class_size
= ([], [], member_defs, modules, type_heaps, var_heap, cs_error)
# class_member = class_members.[mem_offset]
({me_ident,me_type,me_priority,me_class_vars}, member_defs, modules) = getMemberDef member_mod_index class_member.ds_index module_index member_defs modules
cs_error = pushErrorAdmin (newPosition class_ident ins_pos) cs_error
(instance_type, new_ins_specials, type_heaps, Yes (modules, _), cs_error)
= determineTypeOfMemberInstance me_type me_class_vars ins_type ins_specials type_heaps (Yes (modules, {}, cUndef)) cs_error
cs_error = popErrorAdmin cs_error
(new_info_ptr, var_heap) = newPtr VI_Empty var_heap
inst_def = MakeNewFunctionType me_ident me_type.st_arity me_priority instance_type ins_pos new_ins_specials new_info_ptr
(inst_symbols, memb_inst_defs, member_defs, modules, type_heaps, var_heap, cs_error)
= determine_dcl_instance_symbols_and_types x_main_dcl_module_n first_inst_index (inc mem_offset) module_index member_mod_index
class_size class_members ins_type ins_specials class_ident ins_pos member_defs modules type_heaps var_heap cs_error
= ([{ class_member & ds_index = first_inst_index + mem_offset } : inst_symbols], [inst_def : memb_inst_defs], member_defs, modules, type_heaps, var_heap, cs_error)
check_instance_specials :: !Index !ClassInstance !Index !Specials !Index ![ClassInstance] !*TypeHeaps !*PredefinedSymbols !*ErrorAdmin
-> (!Specials, !Index, ![ClassInstance], !*TypeHeaps, !*PredefinedSymbols,!*ErrorAdmin)
check_instance_specials mod_index inst_type inst_index (SP_Substitutions substs) next_inst_index all_instances type_heaps predef_symbols error
# (list_of_specials, next_inst_index, all_instances, type_heaps, predef_symbols,error)
= check_specials mod_index inst_type 0 substs [] next_inst_index all_instances type_heaps predef_symbols error
= (SP_ContextTypes list_of_specials, next_inst_index, all_instances, type_heaps, predef_symbols, error)
where
check_specials mod_index inst=:{ins_type} type_offset [ subst : substs ] list_of_specials next_inst_index all_instances type_heaps predef_symbols error
# (special_type, type_heaps, error) = substitute_instance_type ins_type subst type_heaps error
(spec_types, predef_symbols,error) = checkAndCollectTypesOfContextsOfSpecials special_type.it_context predef_symbols error
special = { spec_index = { glob_module = mod_index, glob_object = next_inst_index }, spec_types = spec_types,
spec_vars = subst.ss_vars, spec_attrs = subst.ss_attrs }
= check_specials mod_index inst (inc type_offset) substs [ special : list_of_specials ] (inc next_inst_index)
[{ inst & ins_type = { special_type & it_context = [] }, ins_specials = SP_TypeOffset type_offset} : all_instances ] type_heaps predef_symbols error
where
substitute_instance_type :: !InstanceType !SpecialSubstitution !*TypeHeaps !*ErrorAdmin -> (!InstanceType,!*TypeHeaps,!.ErrorAdmin)
substitute_instance_type it=:{it_vars,it_attr_vars,it_types,it_context} environment type_heaps cs_error
# (it_vars, it_attr_vars, it_atypes, it_context, _, _, type_heaps, cs_error)
= instantiateTypes it_vars it_attr_vars [MakeAttributedType type \\ type <- it_types] it_context [] environment [] type_heaps cs_error
= ({it & it_vars = it_vars, it_types = [ at_type \\ {at_type} <- it_atypes ], it_attr_vars = it_attr_vars, it_context = it_context }, type_heaps, cs_error)
check_specials mod_index inst=:{ins_type} type_offset [] list_of_specials next_inst_index all_instances type_heaps predef_symbols error
= (list_of_specials, next_inst_index, all_instances, type_heaps, predef_symbols, error)
check_instance_specials mod_index fun_type fun_index SP_None next_inst_index all_instances type_heaps predef_symbols error
= (SP_None, next_inst_index, all_instances, type_heaps, predef_symbols,error)
mapSt2 f l s1 s2 :== map_st2 l s1 s2
where
map_st2 [x : xs] s1 s2
# (x, s1,s2) = f x s1 s2
(xs, s1,s2) = map_st2 xs s1 s2
#! s1 = s1
#! s2 = s2
= ([x : xs], s1,s2)
map_st2 [] s1 s2
= ([], s1,s2)
mapY2St f l s :== map_y2_st l s
where
map_y2_st [x : xs] s
# (x, y, s) = f x s
(xs, ys, s) = map_y2_st xs s
#! s = s
= ([x : xs], [y : ys], s)
map_y2_st [] s
#! s = s
= ([], [], s)
checkAndCollectTypesOfContextsOfSpecials :: [TypeContext] *PredefinedSymbols *ErrorAdmin -> (![[Type]],!*PredefinedSymbols,!*ErrorAdmin);
checkAndCollectTypesOfContextsOfSpecials type_contexts predef_symbols error
= mapSt2 check_and_collect_context_types_of_special type_contexts predef_symbols error
where
check_and_collect_context_types_of_special {tc_class=TCClass {glob_object={ds_ident,ds_index},glob_module},tc_types} predef_symbols error
| hasNoTypeVariables tc_types
= (tc_types, predef_symbols,error)
# {pds_def,pds_module} = predef_symbols.[PD_ArrayClass]
| glob_module==pds_module && ds_index==pds_def && is_lazy_or_strict_array tc_types predef_symbols
= (tc_types, predef_symbols,error)
# {pds_def,pds_module} = predef_symbols.[PD_ListClass]
| glob_module==pds_module && ds_index==pds_def && is_lazy_or_strict_list tc_types predef_symbols
= (tc_types, predef_symbols,error)
= (tc_types, predef_symbols,checkError ds_ident.id_name "illegal specialization" error)
check_and_collect_context_types_of_special {tc_class=TCGeneric {gtc_generic},tc_types} predef_symbols error
= (tc_types, predef_symbols,checkError gtc_generic.glob_object.ds_ident.id_name "genenric specials are illegal" error)
hasNoTypeVariables []
= True
hasNoTypeVariables [TV tvar : types]
= False
hasNoTypeVariables [ _ : types]
= hasNoTypeVariables types
is_lazy_or_strict_array [TA {type_index={glob_module,glob_object}} [],TV var] predef_symbols
# {pds_def,pds_module} = predef_symbols.[PD_LazyArrayType]
| glob_module==pds_module && glob_object==pds_def
= True
# {pds_def,pds_module} = predef_symbols.[PD_StrictArrayType]
| glob_module==pds_module && glob_object==pds_def
= True
= False
is_lazy_or_strict_array _ predef_symbols
= False
is_lazy_or_strict_list [TA {type_index={glob_module,glob_object}} [],TV var] predef_symbols
# {pds_def,pds_module} = predef_symbols.[PD_ListType]
| glob_module==pds_module && glob_object==pds_def
= True
# {pds_def,pds_module} = predef_symbols.[PD_StrictListType]
| glob_module==pds_module && glob_object==pds_def
= True
# {pds_def,pds_module} = predef_symbols.[PD_TailStrictListType]
| glob_module==pds_module && glob_object==pds_def
= True
# {pds_def,pds_module} = predef_symbols.[PD_StrictTailStrictListType]
| glob_module==pds_module && glob_object==pds_def
= True
= False
is_lazy_or_strict_list _ predef_symbols
= False
initializeContextVariables :: ![TypeContext] !*VarHeap -> (![TypeContext], !*VarHeap)
initializeContextVariables contexts var_heap
= mapSt add_variable_to_context contexts var_heap
where
add_variable_to_context context var_heap
# (new_info_ptr, var_heap) = newPtr VI_Empty var_heap
= ({ context & tc_var = new_info_ptr}, var_heap)
ident_for_errors_from_fun_symb_and_fun_kind :: Ident FunKind -> Ident;
ident_for_errors_from_fun_symb_and_fun_kind {id_name} (FK_Function fun_name_is_location_dependent)
| fun_name_is_location_dependent && size id_name>0
# beautiful_name = if (id_name.[0]==backslash) "lambda" "comprehension"
= { id_name=beautiful_name, id_info=nilPtr }
ident_for_errors_from_fun_symb_and_fun_kind fun_ident _
= fun_ident
// check that there are no strict lets, mark top-level cases as explicit
class checkMacro a :: !Bool !a !*ErrorAdmin -> (!a, !*ErrorAdmin)
instance checkMacro [a] | checkMacro a where
checkMacro topLevel l ea
= mapSt (checkMacro topLevel) l ea
instance checkMacro FunctionBody where
checkMacro topLevel (CheckedBody body) ea
# (body, ea)
= checkMacro topLevel body ea
= (CheckedBody body, ea)
instance checkMacro CheckedBody where
checkMacro topLevel body=:{cb_rhs} ea
# (cb_rhs, ea)
= checkMacro topLevel cb_rhs ea
= ({body & cb_rhs = cb_rhs}, ea)
instance checkMacro CheckedAlternative where
checkMacro topLevel alt=:{ca_rhs} ea
# (ca_rhs, ea)
= checkMacro topLevel ca_rhs ea
= ({alt & ca_rhs = ca_rhs}, ea)
instance checkMacro Expression where
checkMacro topLevel (Let lad) ea
# (lad, ea)
= checkMacro topLevel lad ea
= (Let lad, ea)
checkMacro topLevel (Case kees) ea
# (kees, ea)
= checkMacro topLevel kees ea
= (Case kees, ea)
checkMacro _ expr ea
= (expr, ea)
instance checkMacro Let where
checkMacro topLevel lad=:{let_strict_binds, let_expr} ea
# ea
= check_strict_binds let_strict_binds ea
# (let_expr, ea)
= checkMacro topLevel let_expr ea
= ({lad & let_expr = let_expr}, ea)
where
check_strict_binds [] ea
= ea
check_strict_binds _ ea
= checkError "#! not allowed in macros" "" ea
instance checkMacro Case where
checkMacro topLevel kees=:{case_guards, case_explicit} ea
# (case_guards, ea)
= checkMacro False case_guards ea
= ({kees & case_guards = case_guards,case_explicit = topLevel || case_explicit}, ea)
instance checkMacro CasePatterns where
checkMacro topLevel (AlgebraicPatterns type patterns) ea
# (patterns, ea)
= checkMacro topLevel patterns ea
= (AlgebraicPatterns type patterns, ea)
checkMacro topLevel (BasicPatterns type patterns) ea
# (patterns, ea)
= checkMacro topLevel patterns ea
= (BasicPatterns type patterns, ea)
checkMacro topLevel (NewTypePatterns type patterns) ea
# (patterns, ea) = checkMacro topLevel patterns ea
= (NewTypePatterns type patterns, ea)
checkMacro topLevel (DynamicPatterns patterns) ea
# (patterns, ea)
= checkMacro topLevel patterns ea
= (DynamicPatterns patterns, ea)
checkMacro topLevel (OverloadedListPatterns type decons patterns) ea
# (patterns, ea)
= checkMacro topLevel patterns ea
= (OverloadedListPatterns type decons patterns, ea)
checkMacro _ NoPattern ea
= (NoPattern, ea)
instance checkMacro AlgebraicPattern where
checkMacro topLevel pattern=:{ap_expr} ea
# (ap_expr, ea)
= checkMacro topLevel ap_expr ea
= ({pattern & ap_expr = ap_expr}, ea)
instance checkMacro BasicPattern where
checkMacro topLevel pattern=:{bp_expr} ea
# (bp_expr, ea)
= checkMacro topLevel bp_expr ea
= ({pattern & bp_expr = bp_expr}, ea)
instance checkMacro DynamicPattern where
checkMacro topLevel pattern=:{dp_rhs} ea
# (dp_rhs, ea)
= checkMacro topLevel dp_rhs ea
= ({pattern & dp_rhs = dp_rhs}, ea)
checkFunctionBodyIfMacro :: !FunKind !FunctionBody !*ErrorAdmin -> (!FunctionBody, !*ErrorAdmin)
checkFunctionBodyIfMacro FK_Macro def ea
= checkMacro True def ea
checkFunctionBodyIfMacro _ def ea
= (def, ea)
checkFunction :: !FunDef !Index !FunctionOrMacroIndex !Level !Int !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!FunDef,!*{#FunDef},!*ExpressionInfo,!*Heaps,!*CheckState);
checkFunction fun_def=:{fun_ident,fun_pos,fun_body,fun_type,fun_kind} mod_index fun_index def_level local_functions_index_offset
fun_defs e_info=:{ef_type_defs,ef_modules,ef_class_defs,ef_is_macro_fun} heaps=:{hp_var_heap,hp_expression_heap,hp_type_heaps,hp_generic_heap} cs=:{cs_error}
# function_ident_for_errors = ident_for_errors_from_fun_symb_and_fun_kind fun_ident fun_kind
# cs = {cs & cs_error = pushErrorAdmin (newPosition function_ident_for_errors fun_pos) cs_error}
(fun_type, ef_type_defs, ef_class_defs, ef_modules, hp_var_heap, hp_type_heaps, cs)
= check_function_type fun_type mod_index (fun_kind == FK_Caf) ef_type_defs ef_class_defs ef_modules hp_var_heap hp_type_heaps cs
e_info = { e_info & ef_type_defs = ef_type_defs, ef_class_defs = ef_class_defs, ef_modules = ef_modules }
e_state = { es_var_heap = hp_var_heap, es_expr_heap = hp_expression_heap, es_type_heaps = hp_type_heaps,es_generic_heap=hp_generic_heap,
es_dynamics = [], es_calls = [], es_fun_defs = fun_defs}
e_input = { ei_expr_level = inc def_level, ei_fun_index = fun_index, ei_fun_level = inc def_level, ei_mod_index = mod_index, ei_local_functions_index_offset=local_functions_index_offset }
(fun_body, free_vars, e_state, e_info, cs) = checkFunctionBodies fun_body function_ident_for_errors e_input e_state e_info cs
# {es_fun_defs,es_calls,es_var_heap,es_expr_heap,es_type_heaps,es_generic_heap,es_dynamics} = e_state
(ef_type_defs, ef_modules, es_type_heaps, es_expr_heap, cs) =
checkDynamicTypes mod_index es_dynamics fun_type e_info.ef_type_defs e_info.ef_modules es_type_heaps es_expr_heap cs
(fun_body, cs_error) = checkFunctionBodyIfMacro fun_kind fun_body cs.cs_error
cs = { cs & cs_error = popErrorAdmin cs_error }
fi_properties = (if ef_is_macro_fun FI_IsMacroFun 0) bitor (has_type fun_type)
fun_info = { fun_def.fun_info & fi_calls = es_calls, fi_def_level = def_level, fi_free_vars = free_vars, fi_dynamics = es_dynamics,
fi_properties = fi_properties }
fun_def = { fun_def & fun_body = fun_body, fun_info = fun_info, fun_type = fun_type}
(fun_defs,macro_defs,cs_symbol_table) = remove_calls_from_symbol_table fun_index def_level es_calls e_state.es_fun_defs e_info.ef_macro_defs cs.cs_symbol_table
= (fun_def,fun_defs,
{ e_info & ef_type_defs = ef_type_defs, ef_modules = ef_modules,ef_macro_defs=macro_defs },
{ heaps & hp_var_heap = es_var_heap, hp_expression_heap = es_expr_heap, hp_type_heaps = es_type_heaps,hp_generic_heap=es_generic_heap },
{ cs & cs_symbol_table = cs_symbol_table })
where
has_type (Yes _) = FI_HasTypeSpec
has_type no = 0
check_function_type (Yes ft) module_index is_caf type_defs class_defs modules var_heap type_heaps cs
# (ft, _, type_defs, class_defs, modules, type_heaps, cs) = checkFunctionType module_index ft SP_None type_defs class_defs modules type_heaps cs
cs = (if is_caf (check_caf_uniqueness ft.st_result.at_attribute) id) cs
(st_context, var_heap) = initializeContextVariables ft.st_context var_heap
= (Yes { ft & st_context = st_context } , type_defs, class_defs, modules, var_heap, type_heaps, cs)
where
check_caf_uniqueness TA_None cs
= cs
check_caf_uniqueness TA_Multi cs
= cs
check_caf_uniqueness _ cs
= {cs & cs_error = checkError "result type of CAF must be non-unique " "" cs.cs_error}
check_function_type No module_index _ type_defs class_defs modules var_heap type_heaps cs
= (No, type_defs, class_defs, modules, var_heap, type_heaps, cs)
remove_calls_from_symbol_table fun_index fun_level [FunCall fc_index fc_level : fun_calls] fun_defs macro_defs symbol_table
| fc_level <= fun_level
# (id_info, fun_defs) = fun_defs![fc_index].fun_ident.id_info
# (entry, symbol_table) = readPtr id_info symbol_table
# symbol_table = remove_call entry.ste_kind fun_index entry id_info symbol_table
= remove_calls_from_symbol_table fun_index fun_level fun_calls fun_defs macro_defs symbol_table
= remove_calls_from_symbol_table fun_index fun_level fun_calls fun_defs macro_defs symbol_table
remove_calls_from_symbol_table fun_index fun_level [MacroCall module_index fc_index fc_level : fun_calls] fun_defs macro_defs symbol_table
| fc_level == -1
= remove_calls_from_symbol_table fun_index fun_level fun_calls fun_defs macro_defs symbol_table
| fc_level <= fun_level
# (id_info, macro_defs) = macro_defs![module_index,fc_index].fun_ident.id_info
# (entry, symbol_table) = readPtr id_info symbol_table
# symbol_table = remove_call entry.ste_kind fun_index entry id_info symbol_table
= remove_calls_from_symbol_table fun_index fun_level fun_calls fun_defs macro_defs symbol_table
= remove_calls_from_symbol_table fun_index fun_level fun_calls fun_defs macro_defs symbol_table
remove_calls_from_symbol_table fun_index fun_level [DclFunCall _ _ : fun_calls] fun_defs macro_defs symbol_table
= remove_calls_from_symbol_table fun_index fun_level fun_calls fun_defs macro_defs symbol_table
remove_calls_from_symbol_table fun_index fun_level [] fun_defs macro_defs symbol_table
= (fun_defs,macro_defs,symbol_table)
remove_call (STE_FunctionOrMacro [x:xs]) fun_index entry id_info symbol_table
| fun_index==x
= symbol_table <:= (id_info,{ entry & ste_kind = STE_FunctionOrMacro xs})
remove_call (STE_DclMacroOrLocalMacroFunction [x:xs]) fun_index entry id_info symbol_table
| fun_index==x
= symbol_table <:= (id_info,{ entry & ste_kind = STE_DclMacroOrLocalMacroFunction xs})
remove_call (STE_Imported (STE_DclMacroOrLocalMacroFunction [x:xs]) mod_index) fun_index entry id_info symbol_table
| fun_index==x
= symbol_table <:= (id_info,{ entry & ste_kind = (STE_Imported (STE_DclMacroOrLocalMacroFunction xs) mod_index)})
checkGlobalFunctionsInRanges:: ![IndexRange] !Index !Int !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!*{#FunDef},!*ExpressionInfo,!*Heaps,!*CheckState)
checkGlobalFunctionsInRanges [{ir_from,ir_to}:ranges] mod_index local_functions_index_offset fun_defs e_info heaps cs
# (fun_defs, e_info, heaps, cs)
= checkFunctions mod_index cGlobalScope ir_from ir_to local_functions_index_offset fun_defs e_info heaps cs;
= checkGlobalFunctionsInRanges ranges mod_index local_functions_index_offset fun_defs e_info heaps cs;
checkGlobalFunctionsInRanges [] mod_index local_functions_index_offset fun_defs e_info heaps cs
= (fun_defs, e_info, heaps, cs)
checkFunctions :: !Index !Level !Index !Index !Int !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!*{#FunDef},!*ExpressionInfo,!*Heaps,!*CheckState)
checkFunctions mod_index level fun_index to_index local_functions_index_offset fun_defs e_info heaps cs
| fun_index == to_index
= (fun_defs, e_info, heaps, cs)
# (fun_def,fun_defs) = fun_defs![fun_index]
# (fun_def,fun_defs, e_info, heaps, cs) = checkFunction fun_def mod_index (FunctionOrIclMacroIndex fun_index) level local_functions_index_offset fun_defs e_info heaps cs
# fun_defs = { fun_defs & [fun_index] = fun_def }
= checkFunctions mod_index level (inc fun_index) to_index local_functions_index_offset fun_defs e_info heaps cs
checkDclMacros :: !Index !Level !Index !Index !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!*{#FunDef},!*ExpressionInfo,!*Heaps,!*CheckState)
checkDclMacros mod_index level fun_index to_index fun_defs e_info heaps cs
| fun_index == to_index
= (fun_defs, e_info, heaps, cs)
# (macro_def,e_info) = e_info!ef_macro_defs.[mod_index,fun_index]
# (macro_def,fun_defs, e_info, heaps, cs) = checkFunction macro_def mod_index (DclMacroIndex mod_index fun_index) level 0 fun_defs e_info heaps cs
# e_info = { e_info & ef_macro_defs.[mod_index,fun_index] = macro_def }
= checkDclMacros mod_index level (inc fun_index) to_index fun_defs e_info heaps cs
get_predef_symbols_for_transform :: *PredefinedSymbols -> (!PredefSymbolsForTransform,!.PredefinedSymbols)
// clean 2.0 does not allow this, clean 1.3 does:
// get_predef_symbols_for_transform cs_predef_symbols=:{[PD_DummyForStrictAliasFun]=predef_alias_dummy,[PD_AndOp]=predef_and,[PD_OrOp]=predef_or}
get_predef_symbols_for_transform cs_predef_symbols
# (predef_alias_dummy,cs_predef_symbols) = cs_predef_symbols![PD_DummyForStrictAliasFun]
# (predef_and,cs_predef_symbols) = cs_predef_symbols![PD_AndOp]
# (predef_or,cs_predef_symbols) = cs_predef_symbols![PD_OrOp]
= ({predef_alias_dummy=predef_alias_dummy,predef_and=predef_and,predef_or=predef_or},cs_predef_symbols)
checkAndPartitionateDclMacros :: !Index !IndexRange !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!*{#FunDef},!*ExpressionInfo,!*Heaps,!*CheckState);
checkAndPartitionateDclMacros mod_index range fun_defs e_info=:{ef_is_macro_fun=ef_is_macro_fun_old} heaps cs
# (fun_defs, e_info, heaps=:{hp_var_heap, hp_expression_heap}, cs=:{cs_symbol_table, cs_predef_symbols, cs_error})
= checkDclMacros mod_index cGlobalScope range.ir_from range.ir_to fun_defs { e_info & ef_is_macro_fun=True } heaps cs
(e_info=:{ef_macro_defs}) = { e_info & ef_is_macro_fun=ef_is_macro_fun_old }
# (predef_symbols_for_transform, cs_predef_symbols) = get_predef_symbols_for_transform cs_predef_symbols
(fun_defs, macro_defs, hp_var_heap, hp_expression_heap, cs_symbol_table, cs_error)
= partitionateDclMacros range mod_index predef_symbols_for_transform fun_defs ef_macro_defs hp_var_heap hp_expression_heap cs_symbol_table cs_error
= (fun_defs, { e_info & ef_macro_defs=macro_defs }, {heaps & hp_var_heap = hp_var_heap, hp_expression_heap = hp_expression_heap},
{ cs & cs_symbol_table = cs_symbol_table, cs_predef_symbols = cs_predef_symbols, cs_error = cs_error })
checkAndPartitionateIclMacros :: !Index !IndexRange !Int !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!*{#FunDef},!*ExpressionInfo,!*Heaps,!*CheckState);
checkAndPartitionateIclMacros mod_index range local_functions_index_offset fun_defs e_info=:{ef_is_macro_fun=ef_is_macro_fun_old} heaps cs
# (fun_defs, e_info, heaps=:{hp_var_heap, hp_expression_heap}, cs=:{cs_symbol_table, cs_predef_symbols, cs_error})
= checkFunctions mod_index cGlobalScope range.ir_from range.ir_to local_functions_index_offset fun_defs { e_info & ef_is_macro_fun=True } heaps cs
(e_info=:{ef_macro_defs}) = { e_info & ef_is_macro_fun=ef_is_macro_fun_old }
# (predef_symbols_for_transform, cs_predef_symbols) = get_predef_symbols_for_transform cs_predef_symbols
(fun_defs, macro_defs, hp_var_heap, hp_expression_heap, cs_symbol_table, cs_error)
= partitionateIclMacros range mod_index predef_symbols_for_transform fun_defs ef_macro_defs hp_var_heap hp_expression_heap cs_symbol_table cs_error
= (fun_defs, { e_info & ef_macro_defs=macro_defs }, {heaps & hp_var_heap = hp_var_heap, hp_expression_heap = hp_expression_heap},
{ cs & cs_symbol_table = cs_symbol_table, cs_predef_symbols = cs_predef_symbols, cs_error = cs_error })
checkInstanceBodies :: ![IndexRange] !Int !*{#FunDef} !*ExpressionInfo !*Heaps !*CheckState
-> (!*{#FunDef},!*ExpressionInfo,!*Heaps, !*CheckState);
checkInstanceBodies icl_instances_ranges local_functions_index_offset fun_defs e_info heaps cs=:{cs_x}
= checkGlobalFunctionsInRanges icl_instances_ranges cs_x.x_main_dcl_module_n local_functions_index_offset fun_defs e_info heaps cs
instance < FunDef
where
(<) fd1 fd2 = fd1.fun_ident.id_name < fd2.fun_ident.id_name
createCommonDefinitions :: (CollectedDefinitions ClassInstance) -> .CommonDefs;
createCommonDefinitions {def_types,def_constructors,def_selectors,def_classes,def_members,def_instances, def_generics,def_generic_cases}
= { com_type_defs = { type \\ type <- def_types }
, com_cons_defs = { cons \\ cons <- def_constructors }
, com_selector_defs = { sel \\ sel <- def_selectors }
, com_class_defs = { class_def \\ class_def <- def_classes }
, com_member_defs = { member \\ member <- def_members }
, com_instance_defs = { next_instance \\ next_instance <- def_instances }
, com_generic_defs = { gen \\ gen <- def_generics }
, com_gencase_defs = { gi \\ gi <- def_generic_cases}
}
array_plus_list a [] = a
array_plus_list a l = arrayPlusList a l
checkCommonDefinitions :: !(Optional (CopiedDefinitions, Int)) !Index !*CommonDefs !*{# DclModule} !*Heaps !*CheckState
-> (!DictionaryInfo,!*CommonDefs,!*{# DclModule},!*Heaps, !*CheckState)
checkCommonDefinitions opt_icl_info module_index common modules heaps cs
# (com_type_defs, com_cons_defs, com_selector_defs, modules, heaps, cs)
= checkTypeDefs module_index opt_icl_info
common.com_type_defs common.com_cons_defs common.com_selector_defs modules heaps cs
(com_class_defs, com_member_defs, com_type_defs, modules, heaps, cs)
= checkTypeClasses module_index opt_icl_info common.com_class_defs common.com_member_defs com_type_defs modules heaps cs
(com_member_defs, com_type_defs, com_class_defs, modules, heaps, cs)
= checkMemberTypes module_index opt_icl_info com_member_defs com_type_defs com_class_defs modules heaps cs
(com_instance_defs, com_type_defs, com_class_defs, com_member_defs, modules, heaps, cs)
= checkInstanceDefs module_index common.com_instance_defs com_type_defs com_class_defs com_member_defs modules heaps cs
(com_generic_defs, com_type_defs, com_class_defs, modules, heaps, cs)
= checkGenericDefs module_index opt_icl_info common.com_generic_defs com_type_defs com_class_defs modules heaps cs
(com_gencase_defs, com_generic_defs, com_type_defs, modules, heaps, cs)
= checkGenericCaseDefs module_index common.com_gencase_defs com_generic_defs com_type_defs modules heaps cs
| cs.cs_error.ea_ok
# (size_com_type_defs,com_type_defs) = usize com_type_defs
(size_com_selector_defs,com_selector_defs) = usize com_selector_defs
(size_com_cons_defs,com_cons_defs) = usize com_cons_defs
{hp_var_heap, hp_type_heaps=hp_type_heaps=:{th_vars} } = heaps
is_dcl = case opt_icl_info of No -> True ; Yes _ -> False
(new_type_defs, new_selector_defs, new_cons_defs,dictionary_info,com_type_defs,com_selector_defs, com_cons_defs, com_class_defs, modules, th_vars, hp_var_heap, cs_symbol_table)
= createClassDictionaries is_dcl module_index size_com_type_defs size_com_selector_defs size_com_cons_defs
com_type_defs com_selector_defs com_cons_defs com_class_defs modules th_vars hp_var_heap cs.cs_symbol_table
com_type_defs = array_plus_list com_type_defs new_type_defs
com_selector_defs = array_plus_list com_selector_defs new_selector_defs
com_cons_defs = array_plus_list com_cons_defs new_cons_defs
common = {common & com_type_defs = com_type_defs, com_cons_defs = com_cons_defs, com_selector_defs = com_selector_defs, com_class_defs = com_class_defs,
com_member_defs = com_member_defs, com_instance_defs = com_instance_defs,
com_generic_defs = com_generic_defs, com_gencase_defs = com_gencase_defs}
heaps = {heaps & hp_var_heap=hp_var_heap,hp_type_heaps={hp_type_heaps & th_vars=th_vars}}
= (dictionary_info,common, modules, heaps, { cs & cs_symbol_table = cs_symbol_table })
# dictionary_info = { n_dictionary_types=0, n_dictionary_constructors=0, n_dictionary_selectors=0 }
common = {common & com_type_defs = com_type_defs, com_cons_defs = com_cons_defs, com_selector_defs = com_selector_defs, com_class_defs = com_class_defs,
com_member_defs = com_member_defs, com_instance_defs = com_instance_defs,
com_generic_defs = com_generic_defs, com_gencase_defs = com_gencase_defs}
= (dictionary_info,common, modules, heaps, cs)
collectCommonfinitions :: !(CollectedDefinitions ClassInstance) -> (!*{# Int}, ![Declaration])
collectCommonfinitions {def_types,def_constructors,def_selectors,def_classes,def_members,def_instances, def_generic_cases, def_generics}
// MW: the order in which the declarations appear in the returned list is essential (explicit imports)
# sizes = createArray cConversionTableSize 0
(size, defs) = foldSt cons_def_to_dcl def_constructors (0, [])
sizes = { sizes & [cConstructorDefs] = size }
(size, defs) = foldSt selector_def_to_dcl def_selectors (0, defs)
sizes = { sizes & [cSelectorDefs] = size }
(size, defs) = foldSt type_def_to_dcl def_types (0, defs)
sizes = { sizes & [cTypeDefs] = size }
(size, defs) = foldSt member_def_to_dcl def_members (0, defs)
sizes = { sizes & [cMemberDefs] = size }
(size, defs) = foldSt class_def_to_dcl def_classes (0, defs)
sizes = { sizes & [cClassDefs] = size }
(size, defs) = foldSt instance_def_to_dcl def_instances (0, defs)
sizes = { sizes & [cInstanceDefs] = size }
(size, defs) = foldSt generic_def_to_dcl def_generics (0, defs)
sizes = { sizes & [cGenericDefs] = size }
(size, defs) = foldSt gen_case_def_to_dcl def_generic_cases (0, defs)
sizes = { sizes & [cGenericCaseDefs] = size }
= (sizes, defs)
where
type_def_to_dcl {td_ident, td_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = td_ident, decl_pos = td_pos, decl_kind = STE_Type, decl_index = decl_index } : decls])
cons_def_to_dcl {cons_ident, cons_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = cons_ident, decl_pos = cons_pos, decl_kind = STE_Constructor, decl_index = decl_index } : decls])
selector_def_to_dcl {sd_ident, sd_field, sd_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = sd_field, decl_pos = sd_pos, decl_kind = STE_Field sd_ident, decl_index = decl_index } : decls])
class_def_to_dcl {class_ident, class_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = class_ident, decl_pos = class_pos, decl_kind = STE_Class, decl_index = decl_index } : decls])
member_def_to_dcl {me_ident, me_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = me_ident, decl_pos = me_pos, decl_kind = STE_Member, decl_index = decl_index } : decls])
instance_def_to_dcl {ins_ident, ins_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = ins_ident, decl_pos = ins_pos, decl_kind = STE_Instance, decl_index = decl_index } : decls])
generic_def_to_dcl {gen_ident, gen_member_ident, gen_type, gen_pos} (decl_index, decls)
# generic_decl = Declaration { decl_ident = gen_ident, decl_pos = gen_pos, decl_kind = STE_Generic, decl_index = decl_index }
# member_decl = Declaration { decl_ident = gen_member_ident, decl_pos = gen_pos, decl_kind = STE_Generic, decl_index = decl_index }
= (inc decl_index, [generic_decl, member_decl : decls])
gen_case_def_to_dcl {gc_ident, gc_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = gc_ident, decl_pos = gc_pos, decl_kind = STE_GenericCase, decl_index = decl_index } : decls])
collectMacros {ir_from,ir_to} macro_defs sizes_defs
= collectGlobalFunctions cMacroDefs ir_from ir_to macro_defs sizes_defs
collectFunctionTypes fun_types (sizes, defs)
# (size, defs) = foldSt fun_type_to_dcl fun_types (0, defs)
= ({ sizes & [cFunctionDefs] = size }, defs)
where
fun_type_to_dcl {ft_ident, ft_pos} (decl_index, decls)
= (inc decl_index, [Declaration { decl_ident = ft_ident, decl_pos = ft_pos, decl_kind = STE_DclFunction, decl_index = decl_index } : decls])
collectGlobalFunctions def_index from_index to_index fun_defs (sizes, defs)
# (defs, fun_defs) = iFoldSt fun_def_to_decl from_index to_index (defs, fun_defs)
= (fun_defs, ({ sizes & [def_index] = to_index - from_index }, defs))
where
fun_def_to_decl decl_index (defs, fun_defs)
# ({fun_ident, fun_pos}, fun_defs) = fun_defs![decl_index]
= ([Declaration { decl_ident = fun_ident, decl_pos = fun_pos, decl_kind = STE_FunctionOrMacro [], decl_index = decl_index } : defs], fun_defs)
collectDclMacros {ir_from=from_index,ir_to=to_index} fun_defs (sizes, defs)
# (defs, fun_defs) = iFoldSt macro_def_to_dcl from_index to_index (defs, fun_defs)
= (fun_defs, ({ sizes & [cMacroDefs] = to_index - from_index }, defs))
where
macro_def_to_dcl decl_index (defs, fun_defs)
# ({fun_ident, fun_pos}, fun_defs) = fun_defs![decl_index]
= ([Declaration { decl_ident = fun_ident, decl_pos = fun_pos, decl_kind = STE_DclMacroOrLocalMacroFunction [], decl_index = decl_index } : defs], fun_defs)
gimme_a_strict_array_type :: !u:{!.a} -> v:{!.a}, [u<=v]
gimme_a_strict_array_type a = a
create_icl_to_dcl_index_table :: !ModuleKind !{#Int} !Int !(Optional {#{#Int}}) !*{#DclModule} !*{#FunDef}
-> (!Optional {#{#Int}},!Optional {#{#Int}}, !.{#DclModule},!*{#FunDef})
create_icl_to_dcl_index_table MK_Main icl_sizes main_dcl_module_n dcl_conversions modules fun_defs
= (No,No,modules,fun_defs)
create_icl_to_dcl_index_table _ icl_sizes main_dcl_module_n old_conversions modules fun_defs
#! (size_icl_functions,fun_defs) = usize fun_defs
#! icl_sizes = make_icl_sizes
with
make_icl_sizes :: *{#Int}
make_icl_sizes => {{icl_sizes.[i] \\ i<-[0..cMacroDefs-1]} & [cFunctionDefs]=size_icl_functions}
#! (dcl_mod,modules) = modules![main_dcl_module_n]
#! dictionary_info=dcl_mod.dcl_dictionary_info
# (Yes conversion_table) = old_conversions
#! icl_to_dcl_index_table = {create_icl_to_dcl_index_table_for_kind table_size dcl_to_icl_table table_kind dictionary_info \\ table_kind<-[0..] & table_size <-: icl_sizes & dcl_to_icl_table <-: conversion_table }
#! modules = {modules & [main_dcl_module_n].dcl_macro_conversions=Yes conversion_table.[cMacroDefs]}
= (Yes icl_to_dcl_index_table,old_conversions,modules,fun_defs)
recompute_icl_to_dcl_index_table_for_functions No dcl_icl_conversions n_functions
= No
recompute_icl_to_dcl_index_table_for_functions (Yes icl_to_dcl_index_table) (Yes dcl_icl_conversions) n_functions
# icl_to_dcl_index_table_for_functions = create_icl_to_dcl_index_table_for_kind n_functions dcl_icl_conversions cFunctionDefs {n_dictionary_types=0, n_dictionary_constructors=0, n_dictionary_selectors=0}
# icl_to_dcl_index_table = {{t\\t<-:icl_to_dcl_index_table} & [cFunctionDefs] = icl_to_dcl_index_table_for_functions}
= Yes icl_to_dcl_index_table
create_icl_to_dcl_index_table_for_kind :: !Int !{#Int} Int DictionaryInfo -> {#Int}
create_icl_to_dcl_index_table_for_kind table_size dcl_to_icl_table table_kind dcl_dictionary_info
# icl_to_dcl_index_table_for_kind = {createArray table_size NoIndex & [dcl_to_icl_table.[decl_index]]=decl_index \\ decl_index<- [0..size dcl_to_icl_table-1]}
#! max_index=size icl_to_dcl_index_table_for_kind-1
# free_position_index = if (table_kind==cTypeDefs) (max_index+dcl_dictionary_info.n_dictionary_types)
(if (table_kind==cSelectorDefs) (max_index+dcl_dictionary_info.n_dictionary_selectors)
(if (table_kind==cConstructorDefs) (max_index+dcl_dictionary_info.n_dictionary_constructors)
max_index))
# icl_to_dcl_index_table_for_kind = number_NoIndex_elements max_index free_position_index icl_to_dcl_index_table_for_kind
with
number_NoIndex_elements :: Int Int *{#Int} -> .{#Int};
number_NoIndex_elements index free_position_index icl_to_dcl_index_table_for_kind
| index>=0
| icl_to_dcl_index_table_for_kind.[index]==NoIndex
= number_NoIndex_elements (index-1) (free_position_index-1) {icl_to_dcl_index_table_for_kind & [index]=free_position_index}
= number_NoIndex_elements (index-1) free_position_index icl_to_dcl_index_table_for_kind
= icl_to_dcl_index_table_for_kind
= icl_to_dcl_index_table_for_kind
renumber_member_indexes_of_class_instances No class_instances
= class_instances
renumber_member_indexes_of_class_instances (Yes icl_to_dcl_index_table) class_instances
= renumber_member_indexes_of_class_instances 0 class_instances
where
function_conversion_table = icl_to_dcl_index_table.[cFunctionDefs]
renumber_member_indexes_of_class_instances class_inst_index class_instances
| class_inst_index < size class_instances
# (class_instance,class_instances) = class_instances![class_inst_index]
# new_members = {{icl_member & ds_index=function_conversion_table.[icl_member.ds_index]} \\ icl_member<-:class_instance.ins_members}
# class_instances = {class_instances & [class_inst_index]={class_instance & ins_members=new_members}}
= renumber_member_indexes_of_class_instances (class_inst_index+1) class_instances
= class_instances
renumber_members_of_gencases No gencases
= gencases
renumber_members_of_gencases (Yes icl_to_dcl_index_table) gencases
= renumber 0 gencases
where
function_conversion_table = icl_to_dcl_index_table.[cFunctionDefs]
renumber gencase_index gencases
| gencase_index < size gencases
# (gencase=:{gc_body = GCB_FunIndex icl_index}, gencases) = gencases ! [gencase_index]
# dcl_index = function_conversion_table.[icl_index]
# gencase = { gencase & gc_body = GCB_FunIndex dcl_index }
# gencases = { gencases & [gencase_index] = gencase }
= renumber (inc gencase_index) gencases
= gencases
renumber_type_fun_indices :: (Optional {{#Int}}) *{#CheckedTypeDef} -> *{#CheckedTypeDef}
renumber_type_fun_indices No type_defs
= type_defs
renumber_type_fun_indices (Yes conversion_table) type_defs
# (n, type_defs) = usize type_defs
= renumber 0 n conversion_table.[cFunctionDefs] type_defs
where
renumber :: Int Int {# Int} *{#CheckedTypeDef} -> *{#CheckedTypeDef}
renumber i n conversion type_defs
| i < n
# (type_def, type_defs) = type_defs![i]
# icl_index = type_def.td_fun_index
| icl_index <> NoIndex && icl_index < size conversion
# dcl_index = conversion.[icl_index]
# type_def = { type_def & td_fun_index = dcl_index }
# type_defs = { type_defs & [i] = type_def }
= renumber (inc i) n conversion type_defs
// otherwise
= renumber (inc i) n conversion type_defs
// otherwise
= type_defs
renumber_icl_definitions_as_dcl_definitions :: !(Optional {{#Int}}) !{#Int} IndexRange !Int ![Declaration] !*{#DclModule} !*CommonDefs !*{#FunDef}
-> (![Declaration],!.{#DclModule},!.CommonDefs,!*{#FunDef})
renumber_icl_definitions_as_dcl_definitions No icl_sizes icl_global_function_range main_dcl_module_n icl_decl_symbols modules cdefs fun_defs
= (icl_decl_symbols,modules,cdefs,fun_defs)
renumber_icl_definitions_as_dcl_definitions (Yes icl_to_dcl_index_table) icl_sizes icl_global_function_range main_dcl_module_n icl_decl_symbols modules cdefs fun_defs
# (size_icl_functions,fun_defs) = usize fun_defs
# icl_sizes = {{icl_sizes.[i] \\ i<-[0..cMacroDefs-1]} & [cFunctionDefs]=size_icl_functions}
# (icl_decl_symbols,cdefs) = renumber_icl_decl_symbols icl_decl_symbols cdefs
with
renumber_icl_decl_symbols [] cdefs
= ([],cdefs)
renumber_icl_decl_symbols [icl_decl_symbol : icl_decl_symbols] cdefs
# (icl_decl_symbol,cdefs) = renumber_icl_decl_symbol icl_decl_symbol cdefs
# (icl_decl_symbols,cdefs) = renumber_icl_decl_symbols icl_decl_symbols cdefs
= ([icl_decl_symbol : icl_decl_symbols],cdefs)
where
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Type, decl_index}) cdefs
# (type_def,cdefs) = cdefs!com_type_defs.[decl_index]
# type_def = renumber_type_def type_def
# cdefs={cdefs & com_type_defs.[decl_index]=type_def}
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cTypeDefs,decl_index]},cdefs)
where
renumber_type_def td=:{td_rhs = AlgType conses}
# conses = [{cons & ds_index=icl_to_dcl_index_table.[cConstructorDefs,cons.ds_index]} \\ cons <- conses]
= { td & td_rhs = AlgType conses}
renumber_type_def td=:{td_rhs = RecordType rt=:{rt_constructor,rt_fields,rt_is_boxed_record}}
# rt_constructor = {rt_constructor & ds_index=icl_to_dcl_index_table.[cConstructorDefs,rt_constructor.ds_index]}
# rt_fields = {{field & fs_index=icl_to_dcl_index_table.[cSelectorDefs,field.fs_index]} \\ field <-: rt_fields}
= {td & td_rhs=RecordType {rt_constructor=rt_constructor,rt_fields=rt_fields,rt_is_boxed_record=rt_is_boxed_record}}
renumber_type_def td=:{td_rhs = NewType cons}
= { td & td_rhs = NewType {cons & ds_index=icl_to_dcl_index_table.[cConstructorDefs,cons.ds_index]} }
renumber_type_def td
= td
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Constructor, decl_index}) cdefs
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cConstructorDefs,decl_index]},cdefs)
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Field _, decl_index}) cdefs
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cSelectorDefs,decl_index]},cdefs)
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Member, decl_index}) cdefs
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cMemberDefs,decl_index]},cdefs)
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Class, decl_index}) cdefs
# (class_def,cdefs) = cdefs!com_class_defs.[decl_index]
# class_members = {{class_member & ds_index=icl_to_dcl_index_table.[cMemberDefs,class_member.ds_index]} \\ class_member <-: class_def.class_members}
# class_def = {class_def & class_members=class_members}
# cdefs = {cdefs & com_class_defs.[decl_index] =class_def}
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cClassDefs,decl_index]},cdefs)
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Instance, decl_index}) cdefs
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cInstanceDefs,decl_index]},cdefs)
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_Generic, decl_index}) cdefs
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cGenericDefs,decl_index]},cdefs)
renumber_icl_decl_symbol (Declaration icl_decl_symbol=:{decl_kind = STE_GenericCase, decl_index}) cdefs
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cGenericCaseDefs,decl_index]},cdefs)
//---> ("renumber generic case", icl_decl_symbol.decl_ident, decl_index, icl_to_dcl_index_table.[cGenericCaseDefs,decl_index])
renumber_icl_decl_symbol icl_decl=:(Declaration icl_decl_symbol=:{decl_kind=STE_FunctionOrMacro _, decl_index}) cdefs
// | decl_index>=icl_global_function_range.ir_from && decl_index<icl_global_function_range.ir_to
= (Declaration {icl_decl_symbol & decl_index=icl_to_dcl_index_table.[cFunctionDefs,decl_index]},cdefs)
// = (icl_decl,cdefs)
renumber_icl_decl_symbol icl_decl_symbol cdefs
= (icl_decl_symbol,cdefs)
# (dcl_mod,modules) = modules![main_dcl_module_n]
# {n_dictionary_types,n_dictionary_selectors,n_dictionary_constructors}=dcl_mod.dcl_dictionary_info
# cdefs=reorder_common_definitions cdefs
with
reorder_common_definitions {com_type_defs,com_cons_defs,com_selector_defs,com_class_defs,com_member_defs,com_instance_defs,com_generic_defs,com_gencase_defs}
# dummy_ident = {id_name="",id_info=nilPtr}
# com_type_defs=reorder_and_enlarge_array com_type_defs n_dictionary_types icl_to_dcl_index_table.[cTypeDefs]
{td_ident=dummy_ident,td_index= -1,td_arity=0,td_args=[],td_attrs=[],td_context=[],td_rhs=UnknownType,td_attribute=TA_None,td_pos=NoPos,td_used_types=[],
td_fun_index = NoIndex}
# dummy_symbol_type={st_vars=[],st_args=[],st_args_strictness=NotStrict,st_arity=0,st_result={at_attribute=TA_None,at_type=TE},st_context=[],st_attr_vars=[],st_attr_env=[]}
# com_selector_defs=reorder_and_enlarge_array com_selector_defs n_dictionary_selectors icl_to_dcl_index_table.[cSelectorDefs]
{sd_ident=dummy_ident,sd_field=dummy_ident,sd_type=dummy_symbol_type,sd_exi_vars=[],sd_field_nr=0,sd_type_index=0,sd_type_ptr=nilPtr,sd_pos=NoPos}
# com_cons_defs=reorder_and_enlarge_array com_cons_defs n_dictionary_constructors icl_to_dcl_index_table.[cConstructorDefs]
{cons_ident=dummy_ident,cons_type=dummy_symbol_type,cons_priority=NoPrio,cons_number= -1,cons_type_index= -1,cons_exi_vars=[],cons_type_ptr=nilPtr,cons_pos=NoPos}
# com_class_defs=reorder_array com_class_defs icl_to_dcl_index_table.[cClassDefs]
# com_member_defs=reorder_array com_member_defs icl_to_dcl_index_table.[cMemberDefs]
# com_instance_defs=reorder_array com_instance_defs icl_to_dcl_index_table.[cInstanceDefs]
# com_generic_defs=reorder_array com_generic_defs icl_to_dcl_index_table.[cGenericDefs]
# com_gencase_defs=reorder_array com_gencase_defs icl_to_dcl_index_table.[cGenericCaseDefs]
= {
com_type_defs=com_type_defs,com_cons_defs=com_cons_defs,com_selector_defs=com_selector_defs,
com_class_defs=com_class_defs,com_member_defs=com_member_defs,com_instance_defs=com_instance_defs,
com_generic_defs=com_generic_defs,com_gencase_defs=com_gencase_defs
}
# fun_defs = reorder_array fun_defs icl_to_dcl_index_table.[cFunctionDefs]
= (icl_decl_symbols,modules,cdefs,fun_defs)
where
reorder_array array index_array
# new_array={e\\e<-:array}
= {new_array & [index_array.[i]]=e \\ e<-:array & i<-[0..]}
reorder_and_enlarge_array array n_extra_elements index_array dummy_element
# new_array=createArray (size array+n_extra_elements) dummy_element
= {new_array & [index_array.[i]] = e \\ e<-:array & i<-[0..]}
combineDclAndIclModule :: ModuleKind *{#DclModule} [Declaration] (CollectedDefinitions a) *{#Int} *CheckState
-> (!CopiedDefinitions,!Optional {#{#Int}},!*{#DclModule},![Declaration],!CollectedDefinitions a, !*{#Int}, !*CheckState);
combineDclAndIclModule MK_Main modules icl_decl_symbols icl_definitions icl_sizes cs
= ({ copied_type_defs = {}, copied_class_defs = {}, copied_generic_defs = {}}, No, modules, icl_decl_symbols, icl_definitions, icl_sizes, cs)
combineDclAndIclModule _ modules icl_decl_symbols icl_definitions icl_sizes cs
#! main_dcl_module_n=cs.cs_x.x_main_dcl_module_n
# (dcl_mod=:{dcl_declared={dcls_local},dcl_macros, dcl_sizes, dcl_common}, modules) = modules![main_dcl_module_n]
cs = addGlobalDefinitionsToSymbolTable icl_decl_symbols cs
(moved_dcl_defs,dcl_cons_and_member_defs,conversion_table, icl_sizes, icl_decl_symbols, cs)
= foldSt (add_to_conversion_table dcl_macros.ir_from dcl_common) dcls_local ([],[],{ createArray size NoIndex \\ size <-: dcl_sizes }, icl_sizes, icl_decl_symbols, cs)
(new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, (cop_td_indexes, cop_cd_indexes, cop_gd_indexes), conversion_table, icl_sizes, icl_decl_symbols, cs)
= foldSt (add_dcl_definition dcl_common) moved_dcl_defs ([], [], [], [], [], [], ([], [],[]), conversion_table, icl_sizes, icl_decl_symbols, cs)
(new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,symbol_table,errors)
= foldSt (add_all_dcl_cons_and_members_to_conversion_table dcl_common) dcl_cons_and_member_defs (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs.cs_symbol_table,cs.cs_error)
new_cons_defs = reverse new_cons_defs
new_member_defs = reverse new_member_defs
symbol_table = removeDeclarationsFromSymbolTable icl_decl_symbols cGlobalScope symbol_table
# n_dcl_classes = dcl_sizes.[cClassDefs]
# n_dcl_types = dcl_sizes.[cTypeDefs]
# n_dcl_generics = dcl_sizes.[cGenericDefs]
# copied_type_defs = mark_copied_definitions n_dcl_types cop_td_indexes
# copied_class_defs = mark_copied_definitions n_dcl_classes cop_cd_indexes
# copied_generic_defs = mark_copied_definitions n_dcl_generics cop_gd_indexes
= ( { copied_type_defs = copied_type_defs
, copied_class_defs = copied_class_defs
, copied_generic_defs = copied_generic_defs
}
, Yes conversion_table
, { modules & [main_dcl_module_n] = { dcl_mod & dcl_macro_conversions = Yes conversion_table.[cMacroDefs] }}
, icl_decl_symbols
, { icl_definitions
& def_types = my_append icl_definitions.def_types new_type_defs
, def_constructors = my_append icl_definitions.def_constructors new_cons_defs
, def_selectors = my_append icl_definitions.def_selectors new_selector_defs
, def_classes = my_append icl_definitions.def_classes new_class_defs
, def_members = my_append icl_definitions.def_members new_member_defs
, def_generics = my_append icl_definitions.def_generics new_generic_defs
}
, icl_sizes
, { cs & cs_symbol_table = symbol_table, cs_error=errors }
)
where
mark_copied_definitions :: !Int ![Index] -> *{# Bool}
mark_copied_definitions nr_of_defs not_to_be_checked
# marks = createArray nr_of_defs False
= foldSt mark_def not_to_be_checked marks
where
mark_def index marks = { marks & [index] = True }
add_to_conversion_table first_macro_index dcl_common decl=:(Declaration {decl_ident=decl_ident=:{id_info},decl_kind,decl_index,decl_pos})
(moved_dcl_defs,dcl_cons_and_member_defs, conversion_table, icl_sizes, icl_defs, cs)
# (entry=:{ste_kind,ste_index,ste_def_level}, cs_symbol_table) = readPtr id_info cs.cs_symbol_table
| ste_kind == STE_Empty
# def_index = toInt decl_kind
| def_index == cConstructorDefs || def_index == cMemberDefs
= (moved_dcl_defs,[decl:dcl_cons_and_member_defs],conversion_table, icl_sizes, icl_defs, { cs & cs_symbol_table = cs_symbol_table })
| can_be_only_in_dcl def_index && not (def_index==cTypeDefs && is_abstract_type dcl_common.com_type_defs decl_index)
# (conversion_table, icl_sizes, icl_defs, cs_symbol_table)
= add_dcl_declaration id_info entry decl def_index decl_index (conversion_table, icl_sizes, icl_defs, cs_symbol_table)
= ([ decl : moved_dcl_defs ],dcl_cons_and_member_defs,conversion_table, icl_sizes, icl_defs, { cs & cs_symbol_table = cs_symbol_table })
| def_index == cMacroDefs
# (conversion_table, icl_defs, cs_symbol_table)
= add_macro_declaration id_info entry decl (decl_index - first_macro_index) /*decl_index*/ (conversion_table, icl_defs, cs_symbol_table)
= (moved_dcl_defs /* [ decl : moved_dcl_defs ] */,dcl_cons_and_member_defs,conversion_table, icl_sizes, icl_defs, { cs & cs_symbol_table = cs_symbol_table })
# cs_error = checkError "undefined in implementation module" "" (setErrorAdmin (newPosition decl_ident decl_pos) cs.cs_error)
= (moved_dcl_defs,dcl_cons_and_member_defs,conversion_table, icl_sizes, icl_defs, { cs & cs_error = cs_error, cs_symbol_table = cs_symbol_table })
| ste_def_level == cGlobalScope && ste_kind == decl_kind
# def_index = toInt decl_kind
# decl_index = if (def_index == cMacroDefs) (decl_index - first_macro_index) decl_index
= (moved_dcl_defs,dcl_cons_and_member_defs,{ conversion_table & [def_index].[decl_index] = ste_index }, icl_sizes, icl_defs, { cs & cs_symbol_table = cs_symbol_table })
# cs_error = checkError "conflicting definition in implementation module" "" (setErrorAdmin (newPosition decl_ident decl_pos) cs.cs_error)
= (moved_dcl_defs,dcl_cons_and_member_defs,conversion_table, icl_sizes, icl_defs, { cs & cs_error = cs_error, cs_symbol_table = cs_symbol_table })
can_be_only_in_dcl def_kind
= def_kind == cTypeDefs || def_kind == cSelectorDefs || def_kind == cClassDefs || def_kind == cGenericDefs
is_abstract_type com_type_defs decl_index
= case com_type_defs.[decl_index].td_rhs of (AbstractType _) -> True ; (AbstractSynType _ _) -> True ; _ -> False
add_dcl_declaration info_ptr entry (Declaration dcl) def_index decl_index (conversion_table, icl_sizes, icl_defs, symbol_table)
# (icl_index, icl_sizes) = icl_sizes![def_index]
= ( { conversion_table & [def_index].[decl_index] = icl_index }
, { icl_sizes & [def_index] = inc icl_index }
, [ Declaration { dcl & decl_index = icl_index } : icl_defs ]
, NewEntry symbol_table info_ptr dcl.decl_kind icl_index cGlobalScope entry
)
add_macro_declaration info_ptr entry decl=:(Declaration dcl) decl_index /*icl_index*/ (conversion_table, icl_defs, symbol_table)
= ( { conversion_table & [cMacroDefs].[decl_index] = -1 /*icl_index*/ }
, [ decl /* Declaration { dcl & decl_index = icl_index } */ : icl_defs ]
, NewEntry symbol_table info_ptr dcl.decl_kind dcl.decl_index /*icl_index*/ cGlobalScope entry
)
add_dcl_definition {com_type_defs,com_cons_defs} dcl=:(Declaration {decl_kind = STE_Type, decl_index})
(new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, (cop_td_indexes, cop_cd_indexes, cop_gd_indexes), conversion_table, icl_sizes, icl_decl_symbols, cs)
# type_def = com_type_defs.[decl_index]
(new_type_defs,new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,cs) = add_type_def type_def new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
cop_td_indexes = [decl_index : cop_td_indexes]
= (new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, (cop_td_indexes, cop_cd_indexes, cop_gd_indexes), conversion_table, icl_sizes, icl_decl_symbols, cs)
where
add_type_def td=:{td_pos, td_rhs = AlgType conses} new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
# (conses,(new_cons_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)) = copy_and_redirect_cons_symbols com_cons_defs td_pos conses (new_cons_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
= ([ { td & td_rhs = AlgType conses} : new_type_defs ],new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
where
copy_and_redirect_cons_symbols com_cons_defs td_pos [cons:conses] (new_cons_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
# (dcl_cons_index,cons,(conversion_table,icl_sizes,icl_decl_symbols,cs)) = copy_and_redirect_symbol STE_Constructor td_pos cons (conversion_table,icl_sizes,icl_decl_symbols,cs)
# new_cons_defs = if (dcl_cons_index==(-1)) new_cons_defs [ com_cons_defs.[dcl_cons_index] : new_cons_defs ]
# (conses,st) = copy_and_redirect_cons_symbols com_cons_defs td_pos conses (new_cons_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
= ([cons:conses],st)
copy_and_redirect_cons_symbols com_cons_defs td_pos [] (new_cons_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
= ([],(new_cons_defs,conversion_table,icl_sizes,icl_decl_symbols,cs))
add_type_def td=:{td_pos, td_rhs = RecordType rt=:{rt_constructor,rt_fields}} new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
# (dcl_cons_index,rt_constructor,(conversion_table,icl_sizes,icl_decl_symbols,cs)) = copy_and_redirect_symbol STE_Constructor td_pos rt_constructor (conversion_table,icl_sizes,icl_decl_symbols,cs)
# new_cons_defs = if (dcl_cons_index==(-1)) new_cons_defs [ com_cons_defs.[dcl_cons_index] : new_cons_defs ]
# (rt_fields, cs) = redirect_field_symbols td_pos rt_fields cs
= ([ { td & td_rhs = RecordType { rt & rt_constructor = rt_constructor, rt_fields = rt_fields }} : new_type_defs ],new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
add_type_def td=:{td_pos, td_rhs = NewType cons} new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
# (dcl_cons_index,cons,(conversion_table,icl_sizes,icl_decl_symbols,cs)) = copy_and_redirect_symbol STE_Constructor td_pos cons (conversion_table,icl_sizes,icl_decl_symbols,cs)
# new_cons_defs = if (dcl_cons_index==(-1)) new_cons_defs [ com_cons_defs.[dcl_cons_index] : new_cons_defs ]
= ([ { td & td_rhs = NewType cons} : new_type_defs ],new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
add_type_def td=:{td_ident, td_pos, td_rhs = AbstractType _} new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
# cs_error = checkError "abstract type not defined in implementation module" ""
(setErrorAdmin (newPosition td_ident td_pos) cs.cs_error)
= (new_type_defs,new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,{ cs & cs_error = cs_error })
add_type_def td=:{td_ident, td_pos, td_rhs = AbstractSynType _ _} new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
# cs_error = checkError "abstract type not defined in implementation module" ""
(setErrorAdmin (newPosition td_ident td_pos) cs.cs_error)
= (new_type_defs,new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,{ cs & cs_error = cs_error })
add_type_def td new_type_defs new_cons_defs new_selector_defs conversion_table icl_sizes icl_decl_symbols cs
= ([td : new_type_defs],new_cons_defs,new_selector_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
redirect_field_symbols pos fields cs
# new_fields = { field \\ field <-: fields }
= iFoldSt (redirect_field_symbol pos fields) 0 (size fields) (new_fields, cs)
where
redirect_field_symbol pos fields field_nr (new_fields, cs)
# field = fields.[field_nr]
({ste_kind,ste_index}, cs_symbol_table) = readPtr field.fs_ident.id_info cs.cs_symbol_table
| is_field ste_kind
= ({ new_fields & [field_nr] = { field & fs_index = ste_index }}, { cs & cs_symbol_table = cs_symbol_table })
# cs_error = checkError "conflicting definition in implementation module" "" (setErrorAdmin (newPosition field.fs_ident pos) cs.cs_error)
= (new_fields, { cs & cs_error = cs_error, cs_symbol_table = cs_symbol_table })
is_field (STE_Field _) = True
is_field _ = False
add_dcl_definition {com_selector_defs} dcl=:(Declaration {decl_kind = STE_Field _, decl_index})
(new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, copied_defs, conversion_table, icl_sizes, icl_decl_symbols, cs)
= (new_type_defs, new_class_defs, new_cons_defs, [ com_selector_defs.[decl_index] : new_selector_defs ], new_member_defs, new_generic_defs, copied_defs, conversion_table, icl_sizes, icl_decl_symbols, cs)
add_dcl_definition {com_class_defs,com_member_defs} dcl=:(Declaration {decl_kind = STE_Class, decl_index, decl_pos})
(new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, (cop_td_indexes, cop_cd_indexes, cop_gd_indexes), conversion_table, icl_sizes, icl_decl_symbols, cs)
# class_def = com_class_defs.[decl_index]
cop_cd_indexes = [decl_index : cop_cd_indexes]
(new_class_defs,new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs) = add_class_def decl_pos class_def new_class_defs new_member_defs conversion_table icl_sizes icl_decl_symbols cs
= (new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, (cop_td_indexes, cop_cd_indexes, cop_gd_indexes), conversion_table, icl_sizes, icl_decl_symbols, cs)
where
add_class_def decl_pos cd=:{class_members} new_class_defs new_member_defs conversion_table icl_sizes icl_decl_symbols cs
# (new_class_members,(new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)) = copy_and_redirect_member_symbols 0 com_member_defs decl_pos (new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
= ([{cd & class_members={cm \\ cm<-new_class_members}}:new_class_defs],new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
where
copy_and_redirect_member_symbols member_index com_member_defs td_pos (new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
| member_index<size class_members
# member=class_members.[member_index]
# (dcl_member_index,member,(conversion_table,icl_sizes,icl_decl_symbols,cs)) = copy_and_redirect_symbol STE_Member td_pos member (conversion_table,icl_sizes,icl_decl_symbols,cs)
# new_member_defs = if (dcl_member_index==(-1)) new_member_defs [ com_member_defs.[dcl_member_index] : new_member_defs ]
# (members,st) = copy_and_redirect_member_symbols (member_index+1) com_member_defs td_pos (new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs)
= ([member:members],st)
= ([],(new_member_defs,conversion_table,icl_sizes,icl_decl_symbols,cs))
add_dcl_definition {com_generic_defs} dcl=:(Declaration {decl_kind = STE_Generic, decl_index, decl_pos})
(new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, new_generic_defs, copied_defs, conversion_table, icl_sizes, icl_decl_symbols, cs)
# generic_def = com_generic_defs.[decl_index]
# (cop_td_indexes, cop_cd_indexes, cop_gd_indexes) = copied_defs
# copied_defs = (cop_td_indexes, cop_cd_indexes, [decl_index:cop_gd_indexes])
= (new_type_defs, new_class_defs, new_cons_defs, new_selector_defs, new_member_defs, [generic_def:new_generic_defs], copied_defs, conversion_table, icl_sizes, icl_decl_symbols, cs)
add_dcl_definition _ _ result = result
copy_and_redirect_symbol req_kind pos ds=:{ds_ident=ds_ident=:{id_info},ds_index} (conversion_table,icl_sizes,icl_defs,cs)
# (entry=:{ste_kind,ste_index}, cs_symbol_table) = readPtr id_info cs.cs_symbol_table
| ste_kind == STE_Empty
# def_index = toInt req_kind
# (icl_index, icl_sizes) = icl_sizes![def_index]
# conversion_table = { conversion_table & [def_index].[ds_index] = icl_index }
# icl_sizes = { icl_sizes & [def_index] = inc icl_index }
# icl_defs = [ Declaration { decl_ident=ds_ident,decl_index=icl_index,decl_kind=req_kind,decl_pos=pos} : icl_defs ]
# cs_symbol_table = NewEntry cs_symbol_table id_info req_kind icl_index cGlobalScope entry
= (ds_index,{ ds & ds_index = icl_index }, (conversion_table,icl_sizes,icl_defs,{ cs & cs_symbol_table = cs_symbol_table }))
# cs_error = checkError "conflicting definition in implementation module" "" (setErrorAdmin (newPosition ds_ident pos) cs.cs_error)
= (-1,{ ds & ds_index = ste_index }, (conversion_table,icl_sizes,icl_defs,{ cs & cs_error = cs_error, cs_symbol_table = cs_symbol_table }))
add_all_dcl_cons_and_members_to_conversion_table dcl_common decl=:(Declaration {decl_ident=decl_ident=:{id_info},decl_kind=STE_Constructor,decl_index,decl_pos}) (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
| conversion_table.[cConstructorDefs].[decl_index]>=0
= (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
# (entry=:{ste_kind,ste_index}, symbol_table) = readPtr id_info symbol_table
| ste_kind == STE_Empty
# (conversion_table,icl_sizes,icl_defs,symbol_table)
= add_dcl_declaration id_info entry decl cConstructorDefs decl_index (conversion_table,icl_sizes,icl_defs,symbol_table)
= ([dcl_common.com_cons_defs.[decl_index] : new_cons_defs],new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
# errors = checkErrorWithIdentPos (newPosition decl_ident decl_pos) " constructor already defined" errors
= (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
add_all_dcl_cons_and_members_to_conversion_table dcl_common decl=:(Declaration {decl_ident=decl_ident=:{id_info},decl_kind=STE_Member,decl_index,decl_pos}) (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
| conversion_table.[cMemberDefs].[decl_index]>=0
= (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
# (entry=:{ste_kind,ste_index}, symbol_table) = readPtr id_info symbol_table
| ste_kind == STE_Empty
# (conversion_table,icl_sizes,icl_defs,symbol_table)
= add_dcl_declaration id_info entry decl cMemberDefs decl_index (conversion_table,icl_sizes,icl_defs,symbol_table)
= (new_cons_defs,[dcl_common.com_member_defs.[decl_index] : new_member_defs],conversion_table,icl_sizes,icl_defs,symbol_table,errors)
# errors = checkErrorWithIdentPos (newPosition decl_ident decl_pos) " member already defined" errors
= (new_cons_defs,new_member_defs,conversion_table,icl_sizes,icl_defs,symbol_table,errors)
my_append front []
= front
my_append front back
= front ++ back
replace_icl_macros_by_dcl_macros :: ModuleKind IndexRange [Declaration] *{#DclModule} *CheckState -> (![Declaration],!*{#DclModule},!*CheckState);
replace_icl_macros_by_dcl_macros MK_Main icl_macro_index_range decls dcl_modules cs
= (decls,dcl_modules,cs)
replace_icl_macros_by_dcl_macros _ {ir_from=first_icl_macro_index,ir_to=end_icl_macro_index} decls dcl_modules cs
#! main_dcl_module_n=cs.cs_x.x_main_dcl_module_n
# ({dcl_macros={ir_from=first_macro_n},dcl_macro_conversions},dcl_modules) = dcl_modules![main_dcl_module_n]
| case dcl_macro_conversions of No -> True ; _ -> False
= (decls,dcl_modules,cs)
# (Yes dcl_to_icl_table) = dcl_macro_conversions
# macro_renumber_table = create_icl_to_dcl_index_table_for_macros dcl_to_icl_table
with
create_icl_to_dcl_index_table_for_macros :: !{#Int} -> {#Int}
create_icl_to_dcl_index_table_for_macros dcl_to_icl_table
# macro_renumber_table = createArray (end_icl_macro_index-first_icl_macro_index) NoIndex
# size_dcl_to_icl_table = size dcl_to_icl_table
# macro_renumber_table = fill_macro_renumber_table 0 macro_renumber_table
with
fill_macro_renumber_table decl_index macro_renumber_table
| decl_index<size_dcl_to_icl_table
# i=dcl_to_icl_table.[decl_index]
| i>=first_icl_macro_index && i<end_icl_macro_index
= fill_macro_renumber_table (decl_index+1) {macro_renumber_table & [i-first_icl_macro_index]=decl_index}
= fill_macro_renumber_table (decl_index+1) macro_renumber_table // for a macro that only occurs in the dcl module and not in the icl module
= macro_renumber_table
= macro_renumber_table
# decls = replace_icl_macros_by_dcl_macros decls
with
replace_icl_macros_by_dcl_macros [decl=:(Declaration decl_record=:{decl_kind=STE_FunctionOrMacro _,decl_index}):decls]
# dcl_n=macro_renumber_table.[decl_index-first_icl_macro_index]
# decls = replace_icl_macros_by_dcl_macros decls;
| decl_index>=first_icl_macro_index && decl_index<end_icl_macro_index && dcl_n<>NoIndex
// | trace_tn ("replace_icl_macros_by_dcl_macros "+++toString decl_record.decl_ident+++" "+++toString decl_index+++" "+++toString (first_macro_n+dcl_n))
= [Declaration {decl_record & decl_kind=STE_DclMacroOrLocalMacroFunction [], decl_index=first_macro_n+dcl_n} : decls]
= [decl : decls]
replace_icl_macros_by_dcl_macros [decl:decls]
= [decl : replace_icl_macros_by_dcl_macros decls]
replace_icl_macros_by_dcl_macros []
= []
= (decls,dcl_modules,cs)
(<=<) infixl
(<=<) state fun :== fun state
checkDclModules :: [.(Import .ImportDeclaration)] *{#.DclModule} *{#.FunDef} *{#*{#.FunDef}} *Heaps *CheckState
-> (Int,[ExplicitImport],.[{#Char}],{!{!.ExplImpInfo}}, .{# DclModule},.{# FunDef}, {#.{# FunDef}},.Heaps,.CheckState)
checkDclModules imports_of_icl_mod dcl_modules icl_functions macro_defs heaps cs=:{cs_symbol_table}
#! nr_of_dcl_modules = size dcl_modules
# (bitvect, dependencies, dcl_modules, cs_symbol_table)
= iFoldSt add_dependencies 0 nr_of_dcl_modules
(bitvectCreate (nr_of_dcl_modules+1), gimme_a_strict_array_type (createArray (nr_of_dcl_modules+1) []),
dcl_modules, cs_symbol_table)
index_of_icl_module = nr_of_dcl_modules
(dependencies_of_icl_mod, (_, cs_symbol_table))
= mapFilterYesSt get_opt_dependency imports_of_icl_mod (bitvect, cs_symbol_table)
(directly_imported_dcl_modules,dcl_modules)
= mapSt (\mod_index dcl_modules -> dcl_modules![mod_index].dcl_name.id_name)
dependencies_of_icl_mod dcl_modules
dependencies = { dependencies & [index_of_icl_module] = dependencies_of_icl_mod }
module_dag = { dag_nr_of_nodes = nr_of_dcl_modules+1, dag_get_children = select dependencies }
components = partitionateDAG module_dag [cs.cs_x.x_main_dcl_module_n,index_of_icl_module]
// | False--->("biggest component:", m axList (map length components))
// = undef
# (nr_of_components, component_numbers)
= getComponentNumbers components module_dag.dag_nr_of_nodes
reversed_dag1 = reverseDAG module_dag
reversed_dag = { module_dag & dag_get_children = select reversed_dag1 }
components_importing_module_a = groupify reversed_dag component_numbers nr_of_components
// module i is imported by components with _component_ numbers components_importing_module_a.[i]
components_array = gimme_a_strict_array_type { component \\ component <- components }
(expl_imp_symbols_in_components, expl_imp_indices, (dcl_modules, cs_symbol_table))
= mapY2St (get_expl_imp_symbols_of_component imports_of_icl_mod) components (dcl_modules, cs_symbol_table)
expl_imp_infos
= { { ExplImpInfo expl_imp_symbol ikhEmpty
\\ expl_imp_symbol <- expl_imp_symbols_in_component
}
\\ expl_imp_symbols_in_component<-expl_imp_symbols_in_components }
// eii_declaring_modules will be updated later
cs = { cs & cs_symbol_table = cs_symbol_table }
nr_of_icl_component = component_numbers.[index_of_icl_module]
(_, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
= unsafeFold2St (checkDclComponent components_array components_importing_module_a) (reverse expl_imp_indices) (reverse components)
(nr_of_components-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
// # cs = cs--->"------------------------------------"
= (nr_of_icl_component, hd expl_imp_indices!!nr_of_icl_component, directly_imported_dcl_modules,
expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
where
add_dependencies mod_index (bitvect, dependencies, dcl_modules, cs_symbol_table)
// all i: not bitvect.[i]
| mod_index==cPredefinedModuleIndex
= (bitvect, dependencies, dcl_modules, cs_symbol_table)
# ({dcl_name}, dcl_modules)
= dcl_modules![mod_index]
({ste_kind, ste_index}, cs_symbol_table)
= readPtr dcl_name.id_info cs_symbol_table
= case ste_kind of
STE_Module {mod_imports}
# (dependencies_of_mod, (bitvect, cs_symbol_table))
= mapFilterYesSt get_opt_dependency mod_imports (bitvect, cs_symbol_table)
(bitvect, cs_symbol_table)
= foldSt set_to_false mod_imports (bitvect, cs_symbol_table)
-> (bitvect, { dependencies & [mod_index] = dependencies_of_mod }, dcl_modules, cs_symbol_table)
STE_ClosedModule
-> (bitvect, { dependencies & [mod_index] = [] }, dcl_modules, cs_symbol_table)
get_opt_dependency {import_module} (already_visited, cs_symbol_table)
# ({ste_index}, cs_symbol_table)
= readPtr import_module.id_info cs_symbol_table
| bitvectSelect ste_index already_visited
= (No, (already_visited, cs_symbol_table))
= (Yes ste_index, (bitvectSet ste_index already_visited, cs_symbol_table))
set_to_false :: (Import x) !(!*LargeBitvect, !u:SymbolTable) -> (!.LargeBitvect, !u:SymbolTable)
set_to_false {import_module} (bitvect, cs_symbol_table)
#! ste_index = (sreadPtr import_module.id_info cs_symbol_table).ste_index
= (bitvectReset ste_index bitvect, cs_symbol_table)
get_expl_imp_symbols_of_component imports_of_icl_mod component (dcl_modules, cs_symbol_table)
# (expl_imp_symbols, _, expl_imp_indices, dcl_modules, cs_symbol_table)
= foldSt (get_expl_imp_symbols_of_module imports_of_icl_mod) component ([], 0, [], dcl_modules, cs_symbol_table)
cs_symbol_table = foldSt restoreHeap expl_imp_symbols cs_symbol_table
= (reverse expl_imp_symbols, reverse expl_imp_indices, (dcl_modules, cs_symbol_table))
get_expl_imp_symbols_of_module imports_of_icl_mod mod_index (expl_imp_symbols_accu, nr_of_expl_imp_symbols, expl_imp_indices_accu, dcl_modules, cs_symbol_table)
#! siz = size dcl_modules
# (mod_imports, dcl_modules, cs_symbol_table)
= get_mod_imports (mod_index==siz) imports_of_icl_mod dcl_modules cs_symbol_table
(expl_imp_symbols_accu, nr_of_expl_imp_symbols, expl_imp_indices, cs_symbol_table)
= foldSt get_expl_imp_symbols mod_imports (expl_imp_symbols_accu, nr_of_expl_imp_symbols, [], cs_symbol_table)
= (expl_imp_symbols_accu, nr_of_expl_imp_symbols, [expl_imp_indices:expl_imp_indices_accu],dcl_modules, cs_symbol_table)
where
get_mod_imports is_icl_mod=:False _ dcl_modules cs_symbol_table
# ({dcl_name}, dcl_modules) = dcl_modules![mod_index]
({ste_kind}, cs_symbol_table) = readPtr dcl_name.id_info cs_symbol_table
= case ste_kind of
STE_Module {mod_imports}
-> (mod_imports, dcl_modules, cs_symbol_table)
STE_ClosedModule
-> ([], dcl_modules, cs_symbol_table)
get_mod_imports _ imports_of_icl_mod dcl_modules cs_symbol_table
= (imports_of_icl_mod, dcl_modules, cs_symbol_table)
get_expl_imp_symbols {import_module,import_symbols,import_file_position,import_qualified} (expl_imp_symbols_accu, nr_of_expl_imp_symbols, expl_imp_indices_accu, cs_symbol_table)
# (expl_imp_symbols_accu, nr_of_expl_imp_symbols, expl_imp_indices, cs_symbol_table)
= foldSt get_expl_imp_symbol import_symbols (expl_imp_symbols_accu, nr_of_expl_imp_symbols, [], cs_symbol_table)
({ste_index}, cs_symbol_table) = readPtr import_module.id_info cs_symbol_table
explicit_import = {ei_module_n=ste_index, ei_position=import_file_position,
ei_symbols=expl_imp_indices, ei_qualified=import_qualified}
= (expl_imp_symbols_accu, nr_of_expl_imp_symbols, [explicit_import:expl_imp_indices_accu], cs_symbol_table)
get_expl_imp_symbol imp_decl=:(ID_Function ident) state
= get_symbol imp_decl ident state
get_expl_imp_symbol imp_decl=:(ID_Class ident _) state
= get_symbol imp_decl ident state
get_expl_imp_symbol imp_decl=:(ID_Type ident _) state
= get_symbol imp_decl ident state
get_expl_imp_symbol imp_decl=:(ID_Record ident _) state
= get_symbol imp_decl ident state
get_expl_imp_symbol imp_decl=:(ID_Instance class_ident instance_ident _) state
= get_symbol imp_decl instance_ident state
get_expl_imp_symbol (ID_Generic generic_ident ident) state
= get_symbol (ID_Function ident) ident
(get_symbol (ID_Function generic_ident) generic_ident state)
get_symbol :: ImportDeclaration !Ident !*([Ident],Int,[ImportNrAndIdents],*(Heap SymbolTableEntry)) -> ([Ident],Int,[ImportNrAndIdents],.(Heap SymbolTableEntry))
get_symbol imp_decl ident=:{id_info} (expl_imp_symbols_accu, nr_of_expl_imp_symbols, expl_imp_indices_accu, cs_symbol_table)
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
= case ste.ste_kind of
STE_ExplImpSymbol expl_imp_symbols_nr
# ini = { ini_symbol_nr = expl_imp_symbols_nr, ini_imp_decl = imp_decl }
-> (expl_imp_symbols_accu, nr_of_expl_imp_symbols, [ini:expl_imp_indices_accu], cs_symbol_table)
STE_Empty
# cs_symbol_table = writePtr id_info { ste & ste_kind = STE_ExplImpSymbol nr_of_expl_imp_symbols, ste_previous = ste } cs_symbol_table
ini = { ini_symbol_nr = nr_of_expl_imp_symbols, ini_imp_decl = imp_decl }
-> ([ident:expl_imp_symbols_accu], nr_of_expl_imp_symbols+1,[ini:expl_imp_indices_accu], cs_symbol_table)
checkDclComponent :: !{![Int]} !{![Int]} ![[ExplicitImport]] ![Int]
!(!Int, !*ExplImpInfos, !*{# DclModule},!*{# FunDef},!*{#*{#FunDef}},!*Heaps,!*CheckState)
-> (!Int, !*ExplImpInfos, !.{# DclModule},!.{# FunDef},!*{#*{#FunDef}},!.Heaps,!.CheckState)
checkDclComponent components_array components_importing_module_a expl_imp_indices mod_indices
(component_nr, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs=:{cs_x})
| not cs.cs_error.ea_ok || hd mod_indices==size dcl_modules // the icl module!
= (component_nr-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
// | False--->("checkDclComponent", mod_indices, size dcl_modules) = undef
# ({dcl_name=dcl_name_of_first_mod_in_component}, dcl_modules)
= dcl_modules![hd mod_indices]
# ({ste_kind}, cs_symbol_table)
= readPtr dcl_name_of_first_mod_in_component.id_info cs.cs_symbol_table
cs = { cs & cs_symbol_table = cs_symbol_table }
= case ste_kind of
STE_ClosedModule
// this component has been already checked during the previous icl module's compilation
# (expl_imp_infos, dcl_modules, cs_symbol_table)
= foldSt (just_update_expl_imp_info components_array components_importing_module_a) mod_indices (expl_imp_infos, dcl_modules, cs.cs_symbol_table)
-> (component_nr-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps,
{ cs & cs_symbol_table = cs_symbol_table })
STE_Module _
# is_on_cycle
= case mod_indices of
[_] -> False
_ -> True
cs_error = fold2St check_whether_module_imports_itself expl_imp_indices mod_indices cs.cs_error
cs = { cs & cs_error = cs_error }
| not cs.cs_error.ea_ok
-> (component_nr-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
# (expl_imp_infos, dcl_modules, cs)
= case is_on_cycle of
True
-> collect_expl_imp_info component_nr mod_indices (expl_imp_infos, dcl_modules, cs)
False
-> (expl_imp_infos, dcl_modules, cs)
#! nr_of_modules = size dcl_modules
# modules_in_component_set = foldSt bitvectSet mod_indices (bitvectCreate nr_of_modules)
(dcl_imported_module_numbers, dcl_modules)
= foldSt (\imports_per_module state
-> foldSt compute_used_module_nrs imports_per_module state)
expl_imp_indices
(foldSt addNr mod_indices EndNumbers, dcl_modules)
expl_imp_indices_ikh = fold2St (ikhInsert` False) mod_indices expl_imp_indices ikhEmpty
(expl_imp_info, expl_imp_infos)
= replace expl_imp_infos component_nr cDummyArray
(imports, (dcl_modules, _, expl_imp_info, cs))
= mapSt (solveExplicitImports expl_imp_indices_ikh modules_in_component_set) mod_indices
(dcl_modules, bitvectCreate nr_of_modules, expl_imp_info, cs)
| not cs.cs_error.ea_ok
-> (component_nr-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
# imports_ikh
= fold2St (ikhInsert` False) mod_indices imports ikhEmpty
// maps the module indices of all modules in the actual component to all explicit
// imports of that module
(dcls_common_defs, (dcl_modules, cs))
= mapSt (createCommonDefinitionsWithinComponent is_on_cycle) mod_indices (dcl_modules, cs)
(afterwards_info, (expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs))
= map2St (checkDclModuleWithinComponent dcl_imported_module_numbers component_nr is_on_cycle modules_in_component_set components_importing_module_a imports_ikh)
mod_indices dcls_common_defs (expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
| not cs.cs_error.ea_ok
-> (component_nr-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
# (dcl_modules, icl_functions,macro_defs,heaps, cs)
= case is_on_cycle of
False
-> (dcl_modules, icl_functions, macro_defs,heaps, cs)
True
# (dcl_modules, icl_functions, macro_defs,hp_expression_heap, cs)
= fold2St check_expl_imp_completeness_of_dcl_mod_within_non_trivial_component
mod_indices imports
(dcl_modules, icl_functions,macro_defs,heaps.hp_expression_heap, cs)
-> (dcl_modules, icl_functions, macro_defs,{ heaps & hp_expression_heap = hp_expression_heap }, cs)
(dcl_modules, heaps, cs)
= fold2St checkInstancesOfDclModule mod_indices afterwards_info (dcl_modules, heaps, cs)
-> (component_nr-1, expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs)
where
check_whether_module_imports_itself expl_imp_indices_for_module mod_index cs_error
= foldSt (check_that mod_index) expl_imp_indices_for_module cs_error
where
check_that mod_index {ei_module_n=imported_mod_index, ei_position} cs_error
| mod_index==imported_mod_index
= checkErrorWithIdentPos (newPosition import_ident ei_position)
"a dcl module cannot import from itself" cs_error
= cs_error
collect_expl_imp_info component_nr mod_indices (expl_imp_infos, dcl_modules, cs)
# (changed_symbols, (expl_imp_infos, cs_symbol_table))
= markExplImpSymbols component_nr (expl_imp_infos, cs.cs_symbol_table)
(expl_imp_infos, dcl_modules, cs_symbol_table)
= foldSt collect_expl_imp_info_per_module mod_indices (expl_imp_infos, dcl_modules, cs_symbol_table)
cs_symbol_table
= foldSt restoreHeap changed_symbols cs_symbol_table
= (expl_imp_infos, dcl_modules, { cs & cs_symbol_table = cs_symbol_table })
collect_expl_imp_info_per_module mod_index (expl_imp_infos, dcl_modules, cs_symbol_table)
# (dcls_local_for_import, dcl_modules)
= dcl_modules![mod_index].dcl_declared.dcls_local_for_import
(dcl_modules, expl_imp_infos, cs_symbol_table)
= foldlArraySt (update_expl_imp_for_marked_local_symbol mod_index)
dcls_local_for_import (dcl_modules, expl_imp_infos, cs_symbol_table)
= (expl_imp_infos, dcl_modules, cs_symbol_table)
just_update_expl_imp_info components_array components_importing_module_a mod_index (expl_imp_infos, dcl_modules, cs_symbol_table)
# ({dcls_local_for_import, dcls_import}, dcl_modules) = dcl_modules![mod_index].dcl_declared
= updateExplImpInfoForCachedModule components_importing_module_a.[mod_index] mod_index dcls_import dcls_local_for_import expl_imp_infos dcl_modules cs_symbol_table
check_expl_imp_completeness_of_dcl_mod_within_non_trivial_component mod_index {si_explicit,si_qualified_explicit} (dcl_modules, icl_functions,macro_defs,hp_expression_heap, cs)
# ({dcl_declared}, dcl_modules) = dcl_modules![mod_index]
({dcls_local_for_import, dcls_import}) = dcl_declared
cs = addDeclarationsOfDclModToSymbolTable mod_index dcls_local_for_import dcls_import cs
(dcl_modules, icl_functions,macro_defs,hp_expression_heap, cs=:{cs_symbol_table})
= checkExplicitImportCompleteness si_explicit si_qualified_explicit dcl_modules icl_functions macro_defs hp_expression_heap cs
cs_symbol_table = removeImportsAndLocalsOfModuleFromSymbolTable dcl_declared cs.cs_symbol_table
= (dcl_modules, icl_functions,macro_defs,hp_expression_heap, { cs & cs_symbol_table = cs_symbol_table })
compute_used_module_nrs {ei_module_n=mod_index} (mod_nr_accu, dcl_modules)
| inNumberSet mod_index mod_nr_accu
= (mod_nr_accu, dcl_modules)
# ({dcl_imported_module_numbers}, dcl_modules)
= dcl_modules![mod_index]
= (addNr mod_index (numberSetUnion dcl_imported_module_numbers mod_nr_accu),
dcl_modules)
createCommonDefinitionsWithinComponent :: Bool Int *(!*{#.DclModule},*CheckState) -> (*CommonDefs,(*{#DclModule},*CheckState))
createCommonDefinitionsWithinComponent is_on_cycle mod_index (dcl_modules, cs=:{cs_symbol_table})
# (dcl_mod=:{dcl_name}, dcl_modules) = dcl_modules![mod_index]
(mod_entry, cs_symbol_table) = readPtr dcl_name.id_info cs_symbol_table
({ ste_kind = STE_Module mod, ste_index }) = mod_entry
cs = { cs & cs_symbol_table = cs_symbol_table}
# dcl_common = createCommonDefinitions mod.mod_defs
#! first_type_index = size dcl_common.com_type_defs
# dcl_common = {dcl_common & com_class_defs = number_class_dictionaries 0 dcl_common.com_class_defs first_type_index}
with
number_class_dictionaries class_index class_defs index_type
| class_index < size class_defs
# class_defs = { class_defs & [class_index].class_dictionary.ds_index = index_type }
= number_class_dictionaries (inc class_index) class_defs (inc index_type)
= class_defs
| not is_on_cycle
= (dcl_common, (dcl_modules, cs))
# (dcl_common,dcl_common2) = copy_common_defs dcl_common
# dcl_modules = {dcl_modules & [mod_index].dcl_common=dcl_common2}
= (dcl_common, (dcl_modules, cs))
with
copy_common_defs :: !*CommonDefs -> (!*CommonDefs,!*CommonDefs)
copy_common_defs {com_type_defs,com_cons_defs,com_selector_defs,com_class_defs,com_member_defs,com_instance_defs,com_generic_defs,com_gencase_defs}
# (type_defs1,type_defs2) = arrayCopy com_type_defs
# (cons_defs1,cons_defs2) = arrayCopy com_cons_defs
# (selector_defs1,selector_defs2) = arrayCopy com_selector_defs
# (class_defs1,class_defs2) = arrayCopy com_class_defs
# (member_defs1,member_defs2) = arrayCopy com_member_defs
# (instance_defs1,instance_defs2) = arrayCopy com_instance_defs
# (generic_defs1,generic_defs2) = arrayCopy com_generic_defs
# (gencase_defs1,gencase_defs2) = arrayCopy com_gencase_defs
= ({com_type_defs=type_defs1,com_cons_defs=cons_defs1,com_selector_defs=selector_defs1,com_class_defs=class_defs1,com_member_defs=member_defs1,com_instance_defs=instance_defs1,com_generic_defs=generic_defs1,com_gencase_defs=gencase_defs1},
{com_type_defs=type_defs2,com_cons_defs=cons_defs2,com_selector_defs=selector_defs2,com_class_defs=class_defs2,com_member_defs=member_defs2,com_instance_defs=instance_defs2,com_generic_defs=generic_defs2,com_gencase_defs=gencase_defs2})
checkDclModuleWithinComponent :: .NumberSet Int Bool {#.Int} {![.Int]} (IntKeyHashtable SolvedImports) Int *CommonDefs
*(*{!*{!*ExplImpInfo}},*{#.DclModule},*{#.FunDef},*{#*{#.FunDef}},*Heaps,*CheckState)
-> ((Int,Int,[FunType]),({!{!.ExplImpInfo}},.{# DclModule},.{# FunDef}, {#.{# FunDef}},.Heaps,.CheckState))
checkDclModuleWithinComponent dcl_imported_module_numbers component_nr is_on_cycle modules_in_component_set components_importing_module_a imports_ikh
mod_index dcl_common
(expl_imp_infos, dcl_modules, icl_functions, macro_defs, heaps, cs=:{cs_symbol_table})
# ({dcl_name}, dcl_modules) = dcl_modules![mod_index]
(mod_entry, cs_symbol_table) = readPtr dcl_name.id_info cs_symbol_table
({ ste_kind = STE_Module mod, ste_index }) = mod_entry
cs = { cs & cs_symbol_table = writePtr dcl_name.id_info { mod_entry & ste_kind = STE_ClosedModule } cs_symbol_table}
{mod_ident,mod_defs={def_macro_indices,def_funtypes}} = mod
= checkDclModule2 dcl_imported_module_numbers components_importing_module_a.[mod_index] imports_ikh component_nr is_on_cycle modules_in_component_set False
mod_ident dcl_common def_macro_indices def_funtypes ste_index expl_imp_infos dcl_modules icl_functions macro_defs heaps cs
renumber_icl_module :: ModuleKind IndexRange IndexRange IndexRange IndexRange Index Int {#Int} (Optional {#{#Int}}) IndexRange *{#FunDef} *CommonDefs [Declaration] *{#DclModule} *ErrorAdmin
-> (![IndexRange],![IndexRange],![IndexRange], ![IndexRange], !Int,!Index,!IndexRange,!*{#FunDef},!*CommonDefs,![Declaration],!*{#DclModule}, *ErrorAdmin);
renumber_icl_module mod_type icl_global_function_range icl_instance_range icl_generic_range icl_type_fun_range nr_of_functions main_dcl_module_n icl_sizes dcl_conversions def_macro_indices icl_functions icl_common local_defs dcl_modules error
# (optional_icl_to_dcl_index_table,optional_old_conversion_table,dcl_modules,icl_functions)
= create_icl_to_dcl_index_table mod_type icl_sizes main_dcl_module_n dcl_conversions dcl_modules icl_functions
# (dcl_mod, dcl_modules) = dcl_modules![main_dcl_module_n]
# icl_functions = add_dummy_specialized_functions mod_type dcl_mod icl_functions
# class_instances = icl_common.com_instance_defs
# gencase_defs = icl_common.com_gencase_defs
# type_defs = icl_common.com_type_defs
# (dcl_icl_conversions, class_instances, gencase_defs, type_defs, error)
= add_dcl_instances_to_conversion_table
optional_old_conversion_table nr_of_functions dcl_mod class_instances gencase_defs type_defs error
| not error.ea_ok
= ([],[],[],[], 0,0,def_macro_indices,icl_functions,
{icl_common & com_instance_defs=class_instances, com_gencase_defs=gencase_defs,
com_type_defs=type_defs},
local_defs,dcl_modules,error)
# (n_functions,icl_functions) = usize icl_functions
# optional_icl_to_dcl_index_table = recompute_icl_to_dcl_index_table_for_functions optional_icl_to_dcl_index_table dcl_icl_conversions n_functions
# class_instances = renumber_member_indexes_of_class_instances optional_icl_to_dcl_index_table class_instances
# gencase_defs = renumber_members_of_gencases optional_icl_to_dcl_index_table gencase_defs
# type_defs = renumber_type_fun_indices optional_icl_to_dcl_index_table type_defs
# icl_common =
{ icl_common
& com_instance_defs = class_instances
, com_gencase_defs = gencase_defs
, com_type_defs = type_defs
}
# (local_defs,dcl_modules,icl_common,icl_functions)
= renumber_icl_definitions_as_dcl_definitions optional_icl_to_dcl_index_table icl_sizes icl_global_function_range main_dcl_module_n local_defs dcl_modules icl_common icl_functions
# (dcl_mod, dcl_modules) = dcl_modules![main_dcl_module_n]
#! dcl_instances = dcl_mod.dcl_instances
#! n_exported_global_functions=dcl_mod.dcl_sizes.[cFunctionDefs]
#! first_not_exported_global_function_index = size dcl_mod.dcl_functions
# n_dcl_instances = dcl_instances.ir_to-dcl_instances.ir_from
#! dcl_specials = dcl_mod.dcl_specials
# n_dcl_specials = dcl_specials.ir_to-dcl_specials.ir_from
# dcl_gencases = dcl_mod.dcl_gencases
# n_dcl_gencases = dcl_gencases.ir_to-dcl_gencases.ir_from
# dcl_type_funs = dcl_mod.dcl_type_funs
# n_dcl_type_funs = dcl_type_funs.ir_to-dcl_type_funs.ir_from
# local_functions_index_offset = n_dcl_instances + n_dcl_gencases + n_dcl_specials + n_dcl_type_funs
# dcl_mod = case dcl_mod of
dcl_mod=:{dcl_macro_conversions=Yes conversion_table}
# new_macro_conversions = {if (old_icl_macro_index==(-1)) old_icl_macro_index (old_icl_macro_index+local_functions_index_offset) \\ old_icl_macro_index<-:conversion_table}
-> {dcl_mod & dcl_macro_conversions=Yes new_macro_conversions}
dcl_mod
-> dcl_mod
# dcl_modules = {dcl_modules & [main_dcl_module_n]=dcl_mod}
# n_global_functions=icl_global_function_range.ir_to
# n_not_exported_global_functions=n_global_functions-n_exported_global_functions
# end_not_exported_global_functions_range=first_not_exported_global_function_index+n_not_exported_global_functions
# icl_global_functions_ranges = [{ir_from=icl_global_function_range.ir_from,ir_to=n_exported_global_functions},
{ir_from=first_not_exported_global_function_index,ir_to=end_not_exported_global_functions_range}
]
# first_macro_index = def_macro_indices.ir_from+local_functions_index_offset
# end_macro_indexes = def_macro_indices.ir_to+local_functions_index_offset
# def_macro_indices={ir_from=first_macro_index,ir_to=end_macro_indexes}
# n_dcl_specials_and_gencases = n_dcl_specials + n_dcl_gencases
# not_exported_instance_range =
{ ir_from=icl_instance_range.ir_from + n_dcl_instances + n_dcl_specials_and_gencases + n_dcl_type_funs
, ir_to = icl_instance_range.ir_to + n_dcl_specials_and_gencases + n_dcl_type_funs
}
# icl_instances_ranges = [dcl_instances, not_exported_instance_range]
# not_exported_generic_range =
{ ir_from =icl_generic_range.ir_from + n_dcl_specials_and_gencases + n_dcl_type_funs
, ir_to = icl_generic_range.ir_to + n_dcl_specials + n_dcl_type_funs
}
# icl_generic_ranges = [dcl_gencases, not_exported_generic_range]
# n_not_exported_type_funs
= (icl_type_fun_range.ir_to - icl_type_fun_range.ir_from) - n_dcl_type_funs
# not_exported_type_fun_range =
{ ir_from = not_exported_generic_range.ir_to
, ir_to = not_exported_generic_range.ir_to + n_not_exported_type_funs
}
# icl_type_fun_ranges = [dcl_type_funs, not_exported_type_fun_range]
# dcl_global = {ir_from=icl_global_function_range.ir_from,ir_to=n_exported_global_functions}
# dcl_ranges =
[dcl_global, dcl_instances, dcl_gencases, dcl_type_funs, dcl_specials]
# icl_global = {ir_from=first_not_exported_global_function_index,ir_to=end_not_exported_global_functions_range}
# icl_ranges =
[icl_global, not_exported_instance_range, not_exported_generic_range]
= (icl_global_functions_ranges, icl_instances_ranges, icl_generic_ranges, icl_type_fun_ranges, n_exported_global_functions,local_functions_index_offset,def_macro_indices,icl_functions,icl_common,local_defs,dcl_modules, error)
where
add_dummy_specialized_functions MK_Main dcl_mod icl_functions
= icl_functions
add_dummy_specialized_functions _ {dcl_specials={ir_from,ir_to}} icl_functions
# n_specials = ir_to-ir_from
| n_specials==0
= icl_functions
# dummy_function = {fun_ident={id_name="",id_info=nilPtr},fun_arity= -1,fun_priority=NoPrio,fun_body=NoBody,fun_type=No,fun_pos=NoPos,fun_kind=FK_Unknown,fun_lifted=0,fun_info=EmptyFunInfo}
= arrayPlusList icl_functions [dummy_function \\ i<-[0..n_specials-1]]
add_dcl_instances_to_conversion_table :: (Optional {#{#Int}}) !Index !DclModule !*{# ClassInstance} !*{# GenericCaseDef} !*{# CheckedTypeDef} *ErrorAdmin
-> (!*Optional *{#Index},!*{# ClassInstance}, !*{# GenericCaseDef}, !*{# CheckedTypeDef},*ErrorAdmin)
add_dcl_instances_to_conversion_table optional_old_conversion_table first_free_index
dcl_mod=:{dcl_specials,dcl_functions,dcl_common,dcl_macro_conversions,dcl_type_funs}
icl_instances icl_gencases icl_type_defs error
= case dcl_macro_conversions of
Yes _
# (new_conversion_table, icl_instances, icl_gencases, icl_type_defs, error)
= build_conversion_table_for_instances_of_dcl_mod dcl_specials first_free_index optional_old_conversion_table
dcl_functions dcl_common.com_instance_defs icl_instances dcl_common.com_gencase_defs icl_gencases
dcl_common.com_type_defs icl_type_defs error
-> (Yes new_conversion_table,icl_instances, icl_gencases, icl_type_defs, error)
No
-> (No, icl_instances, icl_gencases, icl_type_defs, error)
where
build_conversion_table_for_instances_of_dcl_mod dcl_specials=:{ir_from,ir_to} first_free_index optional_old_conversion_table dcl_functions
dcl_instances icl_instances dcl_gencases icl_gencases dcl_types icl_type_defs error
#! nr_of_dcl_functions = size dcl_functions
# (Yes old_conversion_table) = optional_old_conversion_table
#! dcl_instances_table = old_conversion_table.[cInstanceDefs]
#! dcl_gencase_table = old_conversion_table.[cGenericCaseDefs]
#! dcl_function_table = old_conversion_table.[cFunctionDefs]
#! dcl_type_table = old_conversion_table.[cTypeDefs]
#! new_table = { createArray nr_of_dcl_functions NoIndex & [i] = icl_index \\ icl_index <-: dcl_function_table & i <- [0..] }
#! index_diff = first_free_index - ir_from
#! new_table = { new_table & [i] = i + index_diff \\ i <- [ir_from .. ir_to - 1] }
#! (new_table, icl_instances, error)
= build_conversion_table_for_instances 0 dcl_instances dcl_instances_table icl_instances new_table error
#! (new_table, icl_gencases, error)
= build_conversion_table_for_generic_cases 0 dcl_gencases dcl_gencase_table icl_gencases new_table error
#! (new_table, icl_type_defs)
= fill_conversion_table_for_type_funs 0 dcl_types icl_type_defs dcl_type_table new_table
= (new_table, icl_instances, icl_gencases, icl_type_defs, error)
build_conversion_table_for_generic_cases dcl_index dcl_gencases gencase_table icl_gencases new_table error
| dcl_index < size gencase_table
#! (new_table, icl_gencases, error)
= build_conversion_table_for_generic_case dcl_index dcl_gencases gencase_table icl_gencases new_table error
= build_conversion_table_for_generic_cases (inc dcl_index) dcl_gencases gencase_table icl_gencases new_table error
= (new_table, icl_gencases, error)
build_conversion_table_for_generic_case dcl_index dcl_gencases gencase_table icl_gencases new_table error
#! icl_index = gencase_table.[dcl_index]
#! (icl_gencase, icl_gencases) = icl_gencases ! [icl_index]
#! dcl_gencase = dcl_gencases.[dcl_index]
# (GCB_FunIndex icl_fun) = icl_gencase.gc_body
# (GCB_FunIndex dcl_fun) = dcl_gencase.gc_body
#! new_table = { new_table & [dcl_fun] = icl_fun }
= (new_table, icl_gencases, error)
build_conversion_table_for_instances dcl_class_inst_index dcl_instances class_instances_table icl_instances new_table error
| dcl_class_inst_index < size class_instances_table
# icl_index = class_instances_table.[dcl_class_inst_index]
# (icl_instance, icl_instances) = icl_instances![icl_index]
dcl_members = dcl_instances.[dcl_class_inst_index].ins_members
icl_members = icl_instance.ins_members
| size dcl_members == size icl_members
# new_table = build_conversion_table_for_instances_of_members 0 dcl_members icl_members new_table
= build_conversion_table_for_instances (inc dcl_class_inst_index) dcl_instances class_instances_table icl_instances new_table error
# error = checkErrorWithIdentPos (newPosition icl_instance.ins_ident icl_instance.ins_pos) "incorrect number of members specified" error
= build_conversion_table_for_instances (inc dcl_class_inst_index) dcl_instances class_instances_table icl_instances new_table error
= (new_table, icl_instances,error)
build_conversion_table_for_instances_of_members mem_index dcl_members icl_members new_table
| mem_index < size dcl_members
# dcl_member = dcl_members.[mem_index]
# icl_member = icl_members.[mem_index]
# new_table = {new_table & [dcl_member.ds_index] = icl_member.ds_index}
= build_conversion_table_for_instances_of_members (inc mem_index) dcl_members icl_members new_table
= new_table
fill_conversion_table_for_type_funs dcl_type_index dcl_types icl_type_defs type_conversions new_table
| dcl_type_index >= size dcl_types
= (new_table, icl_type_defs)
# dcl_type_fun_index = dcl_types.[dcl_type_index].td_fun_index
| dcl_type_fun_index == NoIndex || dcl_types.[dcl_type_index].td_fun_index == NoIndex
= fill_conversion_table_for_type_funs (inc dcl_type_index) dcl_types icl_type_defs type_conversions new_table
// sanity check ...
| dcl_type_index < 0 // == NoIndex
= abort ("check, fill_conversion_table_for_type_funs: too small dcl conversion "
+++ dcl_types.[dcl_type_index].td_ident.id_name)
| dcl_type_index >= size type_conversions
= abort ("check, fill_conversion_table_for_type_funs: too large dcl conversion "
+++ dcl_types.[dcl_type_index].td_ident.id_name)
# icl_type_index = type_conversions.[dcl_type_index]
// sanity check ...
| icl_type_index < 0 // == NoIndex
= abort ("check, fill_conversion_table_for_type_funs: no icl type index "
+++ dcl_types.[dcl_type_index].td_ident.id_name)
| icl_type_index >= size icl_type_defs
= abort ("check, fill_conversion_table_for_type_funs: too large icl type index "
+++ dcl_types.[dcl_type_index].td_ident.id_name)
// ... sanity check
# (icl_type_fun_index,icl_type_defs) = icl_type_defs![icl_type_index].td_fun_index
| dcl_type_fun_index == NoIndex
// sanity check ...
| icl_type_fun_index <> NoIndex
= abort ("check, fill_conversion_table_for_type_funs: indices mismatch icl ")
// +++ icl_types.[icl_type_index].td_ident.id_name)
// ... sanity check
= fill_conversion_table_for_type_funs (inc dcl_type_index) dcl_types icl_type_defs type_conversions new_table
// otherwise
// sanity check ...
| icl_type_fun_index == NoIndex
= abort ("check, fill_conversion_table_for_type_funs: indices mismatch dcl ")
// +++ dcl_types.[dcl_type_index].td_ident.id_name)
| new_table.[dcl_type_fun_index] <> NoIndex
= abort ("check, fill_conversion_table_for_type_funs: entry already occupied ")
// +++ dcl_types.[dcl_type_index].td_ident.id_name)
/// ... sanity check
# new_table = {new_table & [dcl_type_fun_index] = icl_type_fun_index}
= fill_conversion_table_for_type_funs (inc dcl_type_index) dcl_types icl_type_defs type_conversions new_table
checkModule :: !Bool !ScannedModule !IndexRange ![FunDef] !Int !(Optional ScannedModule) ![ScannedModule] !{#DclModule} !*{#*{#FunDef}} !*PredefinedSymbols !*SymbolTable !*File !*Heaps
-> (!Bool, *IclModule, *{#DclModule}, *{!Group}, !*{#*{#FunDef}},!Int, !*Heaps, !*PredefinedSymbols, !*SymbolTable, *File, [String])
checkModule support_dynamics {mod_defs,mod_ident,mod_type,mod_imports,mod_imported_objects,mod_foreign_exports,mod_modification_time} icl_global_function_range fun_defs dcl_module_n_in_cache
optional_dcl_mod scanned_modules dcl_modules cached_dcl_macros predef_symbols symbol_table err_file heaps
# nr_of_cached_modules = size dcl_modules
# (optional_pre_def_mod,predef_symbols)
= case nr_of_cached_modules of
0 # (predef_mod,predef_symbols) = buildPredefinedModule support_dynamics predef_symbols
-> (Yes predef_mod,predef_symbols)
_ -> (No,predef_symbols)
# (nr_of_functions,first_inst_index,first_gen_inst_index, local_defs,icl_functions,macro_defs,init_dcl_modules,main_dcl_module_n,cdefs,sizes,cs)
= check_module1 mod_defs icl_global_function_range fun_defs optional_dcl_mod optional_pre_def_mod scanned_modules dcl_modules cached_dcl_macros dcl_module_n_in_cache predef_symbols symbol_table err_file
# icl_instance_range = {ir_from = first_inst_index, ir_to = first_gen_inst_index}
# icl_generic_range = {ir_from = first_gen_inst_index, ir_to = nr_of_functions}
= check_module2 mod_ident mod_modification_time mod_imported_objects mod_imports mod_foreign_exports mod_type icl_global_function_range icl_instance_range icl_generic_range nr_of_cached_modules optional_pre_def_mod local_defs support_dynamics icl_functions macro_defs init_dcl_modules cdefs sizes heaps cs
check_module1 cdefs icl_global_function_range fun_defs optional_dcl_mod optional_pre_def_mod scanned_modules dcl_modules cached_dcl_macros dcl_module_n_in_cache predef_symbols symbol_table err_file
# error = {ea_file = err_file, ea_loc = [], ea_ok = True }
first_inst_index = length fun_defs
(inst_fun_defs, def_instances) = convert_class_instances cdefs.def_instances first_inst_index
first_gen_inst_index = first_inst_index + length inst_fun_defs
(gen_inst_fun_defs, def_generic_cases) = convert_generic_instances cdefs.def_generic_cases first_gen_inst_index
icl_functions = { next_fun \\ next_fun <- fun_defs ++ inst_fun_defs ++ gen_inst_fun_defs}
cdefs = { cdefs & def_instances = def_instances, def_generic_cases = def_generic_cases }
#! nr_of_functions = size icl_functions
# sizes_and_local_defs = collectCommonfinitions cdefs
(icl_functions, sizes_and_local_defs) = collectGlobalFunctions cFunctionDefs icl_global_function_range.ir_from icl_global_function_range.ir_to icl_functions sizes_and_local_defs
(icl_functions, (sizes, local_defs)) = collectMacros cdefs.def_macro_indices icl_functions sizes_and_local_defs
# nr_of_cached_modules = size dcl_modules
main_dcl_module_n = if (dcl_module_n_in_cache<>NoIndex) dcl_module_n_in_cache nr_of_cached_modules
cs = { cs_symbol_table = symbol_table, cs_predef_symbols = predef_symbols, cs_error = error, cs_x= {x_needed_modules=0,x_main_dcl_module_n=main_dcl_module_n, x_check_dynamic_types = False}}
(scanned_modules,macro_defs,cs) = add_dcl_module_predef_module_and_modules_to_symbol_table optional_dcl_mod optional_pre_def_mod scanned_modules nr_of_cached_modules cs
macro_defs = make_macro_def_array cached_dcl_macros macro_defs
init_new_dcl_modules = gimme_a_strict_array_type { initialDclModule scanned_module module_n \\ scanned_module <- scanned_modules & module_n<-[nr_of_cached_modules..]}
init_dcl_modules = { if (i<size dcl_modules)
dcl_modules.[i]
init_new_dcl_modules.[i-size dcl_modules]
\\ i<-[0..size dcl_modules+size init_new_dcl_modules-1]}
= (nr_of_functions,first_inst_index,first_gen_inst_index,local_defs,icl_functions,macro_defs,init_dcl_modules,main_dcl_module_n,cdefs,sizes,cs)
where
add_dcl_module_predef_module_and_modules_to_symbol_table (Yes dcl_mod) optional_predef_mod modules mod_index cs
# (mod_sizes_and_defs,dcl_macro_defs,cs) = add_module_to_symbol_table dcl_mod mod_index cs
(mods, macro_defs, cs) = add_predef_module_and_modules_to_symbol_table optional_predef_mod modules (inc mod_index) cs
= ([mod_sizes_and_defs:mods], [dcl_macro_defs:macro_defs], cs)
add_dcl_module_predef_module_and_modules_to_symbol_table No optional_predef_mod modules mod_index cs
= add_predef_module_and_modules_to_symbol_table optional_predef_mod modules mod_index cs
add_predef_module_and_modules_to_symbol_table (Yes predef_mod) modules mod_index cs
# (mod_sizes_and_defs,dcl_macro_defs,cs) = add_module_to_symbol_table predef_mod mod_index cs
(mods, macro_defs, cs) = add_modules_to_symbol_table modules (inc mod_index) cs
= ([mod_sizes_and_defs:mods],[dcl_macro_defs:macro_defs], cs)
add_predef_module_and_modules_to_symbol_table No modules mod_index cs
= add_modules_to_symbol_table modules mod_index cs
add_modules_to_symbol_table [] mod_index cs=:{cs_predef_symbols,cs_symbol_table,cs_x}
# (cs_predef_symbols, cs_symbol_table) = (cs_predef_symbols, cs_symbol_table)
<=< adjust_predefined_module_symbol PD_StdArray
<=< adjust_predefined_module_symbol PD_StdEnum
<=< adjust_predefined_module_symbol PD_StdBool
<=< adjust_predefined_module_symbol PD_StdStrictLists
<=< adjust_predefined_module_symbol PD_StdDynamic
<=< adjust_predefined_module_symbol PD_StdGeneric
<=< adjust_predefined_module_symbol PD_CleanTypes
<=< adjust_predefined_module_symbol PD_StdMisc
<=< adjust_predefined_module_symbol PD_PredefinedModule
= ([], [], { cs & cs_predef_symbols = cs_predef_symbols, cs_symbol_table = cs_symbol_table})
where
adjust_predefined_module_symbol :: !Index !(!*PredefinedSymbols, !*SymbolTable) -> (!*PredefinedSymbols, !*SymbolTable)
adjust_predefined_module_symbol predef_index (pre_def_symbols, symbol_table)
# (mod_symb, pre_def_symbols) = pre_def_symbols![predef_index]
# (mod_entry, symbol_table) = readPtr predefined_idents.[predef_index].id_info symbol_table
= case mod_entry.ste_kind of
STE_Module _
-> ({ pre_def_symbols & [predef_index] = { mod_symb & pds_module = cs_x.x_main_dcl_module_n, pds_def = mod_entry.ste_index }}, symbol_table)
_
-> (pre_def_symbols, symbol_table)
add_modules_to_symbol_table [mod : mods] mod_index cs
# (mod_sizes_and_defs,dcl_macro_defs,cs) = add_module_to_symbol_table mod mod_index cs
(mods, macro_defs, cs) = add_modules_to_symbol_table mods (inc mod_index) cs
= ([mod_sizes_and_defs:mods],[dcl_macro_defs:macro_defs], cs)
add_module_to_symbol_table mod=:{mod_defs} mod_index cs=:{cs_symbol_table, cs_error}
# def_instances = convert_class_instances mod_defs.def_instances
# def_generic_cases = convert_generic_instances mod_defs.def_generic_cases
mod_defs = { mod_defs & def_instances = def_instances, def_generic_cases = def_generic_cases }
sizes_and_defs = collectFunctionTypes mod_defs.def_funtypes (collectCommonfinitions mod_defs)
dcl_macro_defs={macro_def \\ macro_def<-mod_defs.def_macros}
(dcl_macro_defs, (sizes, defs)) = collectDclMacros mod_defs.def_macro_indices dcl_macro_defs sizes_and_defs
mod = { mod & mod_defs = mod_defs }
(cs_symbol_table, cs_error) = addDefToSymbolTable cGlobalScope mod_index mod.mod_ident (STE_Module mod) cs_symbol_table cs_error
= ((mod,sizes,defs),dcl_macro_defs,{ cs & cs_symbol_table = cs_symbol_table, cs_error = cs_error })
where
convert_class_instances :: ![ParsedInstance a] -> [ClassInstance]
convert_class_instances [pi : pins]
= [ParsedInstanceToClassInstance pi {} : convert_class_instances pins]
convert_class_instances []
= []
convert_generic_instances :: ![GenericCaseDef] -> [GenericCaseDef]
convert_generic_instances gcs
// TODO: check what to do here
= gcs //[{ gc & gc_body = gc.gc_body } \\ gc <- gcs]
convert_class_instances :: .[ParsedInstance FunDef] Int -> (!.[FunDef],!.[ClassInstance]);
convert_class_instances [pi=:{pi_members} : pins] next_fun_index
# ins_members = sort pi_members
(member_symbols, next_fun_index) = determine_indexes_of_members ins_members next_fun_index
(next_fun_defs, cins) = convert_class_instances pins next_fun_index
= (ins_members ++ next_fun_defs, [ParsedInstanceToClassInstance pi { member \\ member <- member_symbols} : cins])
convert_class_instances [] next_fun_index
= ([], [])
convert_generic_instances :: !.[GenericCaseDef] !Int -> (!.[FunDef], !.[GenericCaseDef])
convert_generic_instances [gc=:{gc_ident, gc_body=GCB_FunDef fun_def} : gcs] next_fun_index
# (fun_defs, gcs) = convert_generic_instances gcs (inc next_fun_index)
# gc = { gc & gc_body = GCB_FunIndex next_fun_index }
= ([fun_def : fun_defs], [gc:gcs])
//---> ("convert generic case: user defined function", gc.gc_ident, gc.gc_type_cons, next_fun_index)
convert_generic_instances [gc=:{gc_ident,gc_pos, gc_type_cons, gc_body=GCB_None} : gcs] next_fun_index
# (fun_defs, gcs) = convert_generic_instances gcs (inc next_fun_index)
# fun_def =
{ fun_ident = genericIdentToFunIdent gc_ident gc_type_cons
, fun_arity = 0
, fun_priority = NoPrio
, fun_body = GeneratedBody
, fun_type = No
, fun_pos = gc_pos
, fun_kind = FK_Unknown
, fun_lifted = 0
, fun_info = EmptyFunInfo
}
# gc = { gc & gc_body = GCB_FunIndex next_fun_index }
= ([fun_def:fun_defs], [gc:gcs])
//---> ("convert generic case: function to derive ", gc.gc_ident, gc.gc_type_cons, next_fun_index)
convert_generic_instances [] next_fun_index
= ([], [])
determine_indexes_of_members [{fun_ident,fun_arity}:members] next_fun_index
#! (member_symbols, last_fun_index) = determine_indexes_of_members members (inc next_fun_index)
= ([{ds_ident = fun_ident, ds_index = next_fun_index, ds_arity = fun_arity} : member_symbols], last_fun_index)
determine_indexes_of_members [] next_fun_index
= ([], next_fun_index)
make_macro_def_array :: *{#*{#FunDef}} *[*{#FunDef}] -> *{#*{#FunDef}}
make_macro_def_array cached_dcl_macros macro_defs
#! size_cached_dcl_macros=size cached_dcl_macros
#! n_modules=length macro_defs+size_cached_dcl_macros
# a={{} \\ i<-[0..n_modules-1]}
# a=move_cached_macros_to_macro_def_array 0 size_cached_dcl_macros {} cached_dcl_macros a
= fill_macro_def_array size_cached_dcl_macros macro_defs a
where
move_cached_macros_to_macro_def_array :: Int Int !*{#FunDef} !*{#*{#FunDef}} !*{#*{#FunDef}} -> *{#*{#FunDef}}
move_cached_macros_to_macro_def_array i size_cached_dcl_macros empty_array cached_dcl_macros a
| i==size_cached_dcl_macros
= a
# (cached_macros,cached_dcl_macros) = replace cached_dcl_macros i empty_array
# (empty_array,a) = replace a i cached_macros
= move_cached_macros_to_macro_def_array (i+1) size_cached_dcl_macros empty_array cached_dcl_macros a
fill_macro_def_array i [] a
= a
fill_macro_def_array i [dcl_macro_defs:macro_defs] a
= fill_macro_def_array (i+1) macro_defs {a & [i]=dcl_macro_defs}
check_module2 :: Ident {#Char} [.ImportedObject] .[Import ImportDeclaration] [ParsedForeignExport] .ModuleKind !.IndexRange !.IndexRange !.IndexRange !Int
(Optional (Module a)) [Declaration] Bool *{#FunDef} *{#*{#FunDef}} *{#DclModule} (CollectedDefinitions ClassInstance)
*{#.Int} *Heaps *CheckState
-> (!Bool,.IclModule,!.{#DclModule},.{!Group},!*{#*{#FunDef}},!Int,!.Heaps,!.{#PredefinedSymbol},!.Heap SymbolTableEntry,!.File,[String]);
check_module2 mod_ident mod_modification_time mod_imported_objects mod_imports mod_foreign_exports mod_type icl_global_function_range icl_instance_range icl_generic_range nr_of_cached_modules optional_pre_def_mod local_defs support_dynamics icl_functions macro_defs init_dcl_modules cdefs sizes heaps cs
# (main_dcl_module_n,cs)=cs!cs_x.x_main_dcl_module_n
(copied_dcl_defs, dcl_conversions, dcl_modules, local_defs, cdefs, icl_sizes, cs)
= combineDclAndIclModule mod_type init_dcl_modules local_defs cdefs sizes cs
| not cs.cs_error.ea_ok
= (False, abort "evaluated error 1 (check.icl)", {}, {}, {}, cs.cs_x.x_main_dcl_module_n,heaps, cs.cs_predef_symbols, cs.cs_symbol_table, cs.cs_error.ea_file, [])
# icl_common = createCommonDefinitions cdefs
(dcl_modules, icl_functions, macro_defs, heaps, cs)
= check_predefined_module optional_pre_def_mod support_dynamics dcl_modules icl_functions macro_defs heaps cs
(nr_of_icl_component, expl_imp_indices, directly_imported_dcl_modules,
expl_imp_info, dcl_modules, icl_functions, macro_defs, heaps, cs)
= checkDclModules mod_imports dcl_modules icl_functions macro_defs heaps cs
| not cs.cs_error.ea_ok
= (False, abort "evaluated error 2 (check.icl)", {}, {}, {}, cs.cs_x.x_main_dcl_module_n,heaps, cs.cs_predef_symbols, cs.cs_symbol_table, cs.cs_error.ea_file, [])
# cs_symbol_table = cs.cs_symbol_table
# cs_predef_symbols = cs.cs_predef_symbols
# hp_var_heap = heaps.hp_var_heap
# (icl_type_fun_range, dcl_modules, icl_functions, icl_common,
cs_predef_symbols, hp_var_heap, cs_symbol_table)
= if support_dynamics
(addTypeFunctions mod_ident nr_of_cached_modules dcl_modules
icl_functions icl_common
cs_predef_symbols hp_var_heap cs_symbol_table)
({ir_from=0,ir_to=0}, dcl_modules, icl_functions, icl_common,
cs_predef_symbols, hp_var_heap, cs_symbol_table)
# cs = {cs & cs_symbol_table=cs_symbol_table, cs_predef_symbols=cs_predef_symbols}
# heaps = {heaps & hp_var_heap=hp_var_heap}
# (nr_of_functions, icl_functions) = usize icl_functions
# def_macro_indices=cdefs.def_macro_indices
# (icl_global_functions_ranges,icl_instances_ranges, icl_generic_ranges,icl_type_fun_ranges, n_exported_global_functions,local_functions_index_offset,def_macro_indices,icl_functions,icl_common,local_defs,dcl_modules, error)
= renumber_icl_module mod_type icl_global_function_range icl_instance_range icl_generic_range icl_type_fun_range nr_of_functions main_dcl_module_n icl_sizes dcl_conversions def_macro_indices icl_functions icl_common local_defs dcl_modules cs.cs_error
| not error.ea_ok
= (False, abort "evaluated error 3 (check.icl)", {}, {}, {}, cs.cs_x.x_main_dcl_module_n,heaps, cs.cs_predef_symbols, cs.cs_symbol_table, error.ea_file, [])
# (imported_module_numbers_of_main_dcl_mod, dcl_modules) = dcl_modules![main_dcl_module_n].dcl_imported_module_numbers
(imported_module_numbers, dcl_modules)
= foldSt compute_used_module_nrs expl_imp_indices (addNr cPredefinedModuleIndex imported_module_numbers_of_main_dcl_mod, dcl_modules)
cs = { cs & cs_error=error,cs_x.x_needed_modules = 0 }
(nr_of_modules, dcl_modules) = usize dcl_modules
(dcl_macros, dcl_modules) = dcl_modules![main_dcl_module_n].dcl_macros
expl_imp_indices_ikh = ikhInsert` False nr_of_modules expl_imp_indices ikhEmpty
modules_in_component_set = bitvectCreate nr_of_modules
(imports, (dcl_modules, _, _, cs))
= solveExplicitImports expl_imp_indices_ikh modules_in_component_set nr_of_modules
(dcl_modules, bitvectCreate nr_of_modules, expl_imp_info.[nr_of_icl_component], cs)
imports_ikh = ikhInsert` False nr_of_modules imports ikhEmpty
// maps the module indices of all modules in the actual component to all explicit
// imports of that module
(local_defs,dcl_modules,cs) = replace_icl_macros_by_dcl_macros mod_type def_macro_indices local_defs dcl_modules cs
cs = addGlobalDefinitionsToSymbolTable local_defs cs
(dcls_import_list, dcl_modules, cs)
= addImportedSymbolsToSymbolTable nr_of_modules (Yes dcl_macros) modules_in_component_set imports_ikh dcl_modules cs
qualified_explicit_imports = (ikhSearch` nr_of_modules imports_ikh).si_qualified_explicit
(dcl_modules, icl_functions,macro_defs,hp_expression_heap, cs)
= checkExplicitImportCompleteness imports.si_explicit qualified_explicit_imports dcl_modules icl_functions macro_defs heaps.hp_expression_heap cs
(modified_ste_kinds,symbol_table,dcl_modules)
= store_qualified_explicit_imports_in_symbol_table qualified_explicit_imports [] cs.cs_symbol_table dcl_modules
cs = {cs & cs_symbol_table=symbol_table}
heaps = { heaps & hp_expression_heap=hp_expression_heap }
icl_imported = { el \\ el<-dcls_import_list }
(_,icl_common, dcl_modules, heaps=:{hp_var_heap, hp_type_heaps}, cs)
= checkCommonDefinitions (Yes (copied_dcl_defs, nr_of_cached_modules)) main_dcl_module_n icl_common dcl_modules heaps cs
(instance_types, icl_common, dcl_modules, hp_var_heap, hp_type_heaps, cs)
= checkIclInstances main_dcl_module_n icl_common dcl_modules hp_var_heap hp_type_heaps cs
heaps = { heaps & hp_type_heaps = hp_type_heaps, hp_var_heap = hp_var_heap }
e_info = { ef_type_defs = icl_common.com_type_defs, ef_selector_defs = icl_common.com_selector_defs, ef_class_defs = icl_common.com_class_defs,
ef_cons_defs = icl_common.com_cons_defs, ef_member_defs = icl_common.com_member_defs, ef_generic_defs = icl_common.com_generic_defs,
ef_modules = dcl_modules, ef_macro_defs=macro_defs, ef_is_macro_fun = False }
# (icl_functions, e_info, heaps, cs) = checkAndPartitionateIclMacros main_dcl_module_n def_macro_indices local_functions_index_offset icl_functions e_info heaps cs
(icl_functions, e_info, heaps, cs) = checkGlobalFunctionsInRanges icl_global_functions_ranges main_dcl_module_n local_functions_index_offset icl_functions e_info heaps cs
cs = check_start_rule mod_type mod_ident icl_global_functions_ranges cs
(icl_functions, e_info, heaps, cs)
= checkGlobalFunctionsInRanges icl_generic_ranges main_dcl_module_n local_functions_index_offset icl_functions e_info heaps cs
(icl_functions, e_info, heaps, cs)
= checkInstanceBodies icl_instances_ranges local_functions_index_offset icl_functions e_info heaps cs
(icl_functions, e_info, heaps, cs)
= checkGlobalFunctionsInRanges icl_type_fun_ranges main_dcl_module_n local_functions_index_offset icl_functions e_info heaps cs
(foreign_exports,icl_functions,cs) = checkForeignExports mod_foreign_exports icl_global_functions_ranges icl_functions cs
cs = check_dynamics_used_without_support_dynamics support_dynamics mod_ident cs
cs = check_needed_modules_are_imported mod_ident ".icl" cs
{cs_symbol_table, cs_predef_symbols, cs_error,cs_x } = cs
(icl_functions, hp_type_heaps, cs_error)
= foldSt checkSpecifiedInstanceType instance_types (icl_functions, heaps.hp_type_heaps, cs_error)
heaps = { heaps & hp_type_heaps = hp_type_heaps }
cs_symbol_table = restore_module_ste_kinds_in_symbol_table modified_ste_kinds cs_symbol_table
cs_symbol_table = removeDeclarationsFromSymbolTable local_defs cGlobalScope cs_symbol_table
cs_symbol_table = foldlArraySt removeImportedSymbolsFromSymbolTable icl_imported cs_symbol_table
dcl_modules = e_info.ef_modules
| cs_error.ea_ok
# {hp_var_heap,hp_type_heaps=hp_type_heaps=:{th_vars},hp_expression_heap} = heaps
# class_instances = icl_common.com_instance_defs
(icl_specials,dcl_modules, icl_functions, var_heap, th_vars, expr_heap)
= collect_specialized_functions_in_dcl_module mod_type nr_of_functions main_dcl_module_n dcl_modules icl_functions hp_var_heap th_vars hp_expression_heap
icl_functions = copy_instance_types instance_types icl_functions
(dcl_modules, class_instances, icl_functions, cs_predef_symbols)
= adjust_instance_types_of_array_functions_in_std_array_icl dcl_modules class_instances icl_functions main_dcl_module_n cs_predef_symbols
icl_common = { icl_common & com_type_defs = e_info.ef_type_defs, com_selector_defs = e_info.ef_selector_defs, com_class_defs = e_info.ef_class_defs,
com_cons_defs = e_info.ef_cons_defs, com_member_defs = e_info.ef_member_defs,
com_generic_defs = e_info.ef_generic_defs, com_instance_defs = class_instances }
local_function_indices = {ir_from=icl_global_function_range.ir_to+local_functions_index_offset,
ir_to=def_macro_indices.ir_from}
icl_function_indices = { ifi_global_function_indices = icl_global_functions_ranges,
ifi_local_function_indices = local_function_indices,
ifi_instance_indices = icl_instances_ranges, ifi_specials_indices = icl_specials,
ifi_gencase_indices = icl_generic_ranges, ifi_type_function_indices = icl_type_fun_ranges }
icl_mod = { icl_name = mod_ident, icl_functions = icl_functions, icl_function_indices = icl_function_indices,
icl_common = icl_common, icl_import = icl_imported, icl_qualified_imports = qualified_explicit_imports,
icl_imported_objects = mod_imported_objects, icl_foreign_exports = foreign_exports,
icl_used_module_numbers = imported_module_numbers, icl_copied_from_dcl = copied_dcl_defs,
icl_modification_time = mod_modification_time }
heaps = { heaps & hp_var_heap = var_heap, hp_expression_heap = expr_heap, hp_type_heaps = {hp_type_heaps & th_vars = th_vars}}
(main_dcl_module, dcl_modules) = dcl_modules![main_dcl_module_n]
(icl_mod, macro_defs, heaps, cs_error)
= compareDefImp main_dcl_module_n main_dcl_module n_exported_global_functions icl_mod e_info.ef_macro_defs heaps cs_error
# (predef_symbols_for_transform, cs_predef_symbols) = get_predef_symbols_for_transform cs_predef_symbols
(groups, icl_functions, macro_defs, var_heap, expr_heap, cs_symbol_table, cs_error)
= partitionateAndLiftFunctions (icl_global_functions_ranges++icl_instances_ranges++icl_generic_ranges++icl_type_fun_ranges)
main_dcl_module_n predef_symbols_for_transform icl_mod.icl_functions macro_defs
heaps.hp_var_heap heaps.hp_expression_heap cs_symbol_table cs_error
# heaps = {heaps & hp_var_heap=var_heap,hp_expression_heap=expr_heap}
# icl_mod = {icl_mod & icl_functions=icl_functions}
= (cs_error.ea_ok, icl_mod, dcl_modules, groups, macro_defs, cs_x.x_main_dcl_module_n, heaps, cs_predef_symbols, cs_symbol_table, cs_error.ea_file, directly_imported_dcl_modules)
# icl_common = { icl_common & com_type_defs = e_info.ef_type_defs, com_selector_defs = e_info.ef_selector_defs, com_class_defs = e_info.ef_class_defs,
com_cons_defs = e_info.ef_cons_defs, com_member_defs = e_info.ef_member_defs, com_generic_defs = e_info.ef_generic_defs }
icl_function_indices = { ifi_global_function_indices = icl_global_functions_ranges,
ifi_local_function_indices = {ir_from=0,ir_to=0},
ifi_instance_indices = icl_instances_ranges,
ifi_specials_indices = {ir_from = nr_of_functions, ir_to = nr_of_functions},
ifi_gencase_indices = icl_generic_ranges, ifi_type_function_indices = icl_type_fun_ranges }
icl_mod = { icl_name = mod_ident, icl_functions = icl_functions, icl_function_indices = icl_function_indices,
icl_common = icl_common, icl_import = icl_imported, icl_qualified_imports = qualified_explicit_imports,
icl_imported_objects = mod_imported_objects, icl_foreign_exports = foreign_exports,
icl_used_module_numbers = imported_module_numbers, icl_copied_from_dcl = copied_dcl_defs,
icl_modification_time = mod_modification_time }
= (False, icl_mod, dcl_modules, {}, {}, cs_x.x_main_dcl_module_n,heaps, cs_predef_symbols, cs_symbol_table, cs_error.ea_file, directly_imported_dcl_modules)
where
check_start_rule mod_kind mod_ident icl_global_functions_ranges cs=:{cs_symbol_table,cs_x}
# ({ste_kind, ste_index}, cs_symbol_table) = readPtr predefined_idents.[PD_Start].id_info cs_symbol_table
cs = { cs & cs_symbol_table = cs_symbol_table }
= case ste_kind of
STE_FunctionOrMacro _
| index_in_ranges ste_index icl_global_functions_ranges
-> { cs & cs_predef_symbols.[PD_Start] = { pds_def = ste_index, pds_module = cs_x.x_main_dcl_module_n }}
where
index_in_ranges index [{ir_from, ir_to}:ranges]
= (index>=ir_from && index < ir_to) || index_in_ranges index ranges;
index_in_ranges index []
= False
STE_Imported STE_DclFunction mod_index
-> { cs & cs_predef_symbols.[PD_Start] = { pds_def = ste_index, pds_module = mod_index }}
_
-> case mod_kind of
MK_Main
# pos = newPosition predefined_idents.[PD_Start] (LinePos (mod_ident.id_name+++".icl") 1)
-> { cs & cs_error = checkErrorWithIdentPos pos " has not been declared" cs.cs_error }
_
-> cs
check_predefined_module (Yes {mod_ident={id_info}}) support_dynamics modules macro_and_fun_defs macro_defs heaps cs=:{cs_symbol_table}
# (entry, cs_symbol_table) = readPtr id_info cs_symbol_table
# cs = { cs & cs_symbol_table = cs_symbol_table <:= (id_info, { entry & ste_kind = STE_ClosedModule })}
{ste_kind = STE_Module mod, ste_index} = entry
solved_imports = { si_explicit=[], si_qualified_explicit=[], si_implicit=[] }
imports_ikh = ikhInsert` False cPredefinedModuleIndex solved_imports ikhEmpty
(deferred_stuff, (_, modules, macro_and_fun_defs, macro_defs, heaps, cs))
= checkPredefinedDclModule EndNumbers [] imports_ikh cUndef False cDummyArray support_dynamics mod ste_index cDummyArray modules macro_and_fun_defs macro_defs heaps cs
(modules, heaps, cs)
= checkInstancesOfDclModule cPredefinedModuleIndex deferred_stuff (modules, heaps, cs)
({dcl_declared={dcls_import,dcls_local,dcls_local_for_import}}, modules) = modules![ste_index]
= (modules, macro_and_fun_defs, macro_defs, heaps,
addDeclarationsOfDclModToSymbolTable ste_index dcls_local_for_import dcls_import cs)
check_predefined_module No support_dynamics modules macro_and_fun_defs macro_defs heaps cs
= (modules, macro_and_fun_defs, macro_defs, heaps, cs)
collect_specialized_functions_in_dcl_module :: ModuleKind !Index !Int !*{# DclModule} !*{# FunDef} !*VarHeap !*TypeVarHeap !*ExpressionHeap
-> (!IndexRange,!*{# DclModule},!*{# FunDef},!*VarHeap,!*TypeVarHeap,!*ExpressionHeap)
collect_specialized_functions_in_dcl_module MK_Main first_free_index main_dcl_module_n modules icl_functions var_heap type_var_heap expr_heap
= ({ir_from=first_free_index,ir_to=first_free_index},modules, icl_functions, var_heap, type_var_heap, expr_heap)
collect_specialized_functions_in_dcl_module _ first_free_index main_dcl_module_n modules icl_functions var_heap type_var_heap expr_heap
# (dcl_mod, modules) = modules![main_dcl_module_n]
# {dcl_specials=dcl_specials=:{ir_from,ir_to},dcl_functions,dcl_common} = dcl_mod
# (icl_functions, (var_heap, type_var_heap, expr_heap))
= collect_specialized_functions ir_from ir_to dcl_functions (icl_functions, (var_heap, type_var_heap, expr_heap))
= (dcl_specials,modules, icl_functions, var_heap, type_var_heap, expr_heap)
where
collect_specialized_functions spec_index last_index dcl_fun_types (icl_functions, heaps)
| spec_index < last_index
# {ft_type,ft_specials = SP_FunIndex decl_index} = dcl_fun_types.[spec_index]
// icl_index = conversion_table.[decl_index]
icl_index = decl_index
(icl_fun, icl_functions) = icl_functions![icl_index]
(new_fun_def, heaps) = build_function spec_index icl_fun icl_index ft_type heaps
(icl_functions, heaps) = collect_specialized_functions (inc spec_index) last_index dcl_fun_types (icl_functions, heaps)
# icl_functions = {icl_functions & [spec_index]=new_fun_def}
= (icl_functions, heaps)
= (icl_functions, heaps)
build_function new_fun_index fun_def=:{fun_ident, fun_body = CheckedBody {cb_args}, fun_info} fun_index fun_type
(var_heap, type_var_heap, expr_heap)
# (tb_args, var_heap) = mapSt new_free_var cb_args var_heap
(app_args, expr_heap) = mapSt new_bound_var tb_args expr_heap
(app_info_ptr, expr_heap) = newPtr EI_Empty expr_heap
tb_rhs = App { app_symb = { symb_ident = fun_ident,
symb_kind = SK_Function { glob_module = main_dcl_module_n, glob_object = fun_index }},
app_args = app_args,
app_info_ptr = app_info_ptr }
= ({ fun_def & fun_body = TransformedBody {tb_args = tb_args, tb_rhs = tb_rhs}, fun_type = Yes fun_type,
fun_info = { EmptyFunInfo & fi_calls = [FunCall fun_index cGlobalScope] }},
(var_heap, type_var_heap, expr_heap))
new_bound_var :: !FreeVar !*ExpressionHeap -> (!Expression, !*ExpressionHeap)
new_bound_var {fv_ident,fv_info_ptr} expr_heap
# (var_expr_ptr, expr_heap) = newPtr EI_Empty expr_heap
= (Var { var_ident = fv_ident, var_info_ptr = fv_info_ptr, var_expr_ptr = var_expr_ptr }, expr_heap)
new_free_var :: !FreeVar *VarHeap -> (!FreeVar, !*VarHeap)
new_free_var fv var_heap
# (fv_info_ptr, var_heap) = newPtr VI_Empty var_heap
= ({ fv & fv_info_ptr = fv_info_ptr, fv_def_level = NotALevel, fv_count = 0}, var_heap)
copy_instance_types :: [(Index,SymbolType)] !*{# FunDef} -> *{# FunDef}
copy_instance_types types fun_defs
= foldl copy_instance_type fun_defs types
copy_instance_type fun_defs (index, symbol_type)
# (inst_def, fun_defs) = fun_defs![index]
= { fun_defs & [index] = { inst_def & fun_type = Yes symbol_type }}
adjust_instance_types_of_array_functions_in_std_array_icl dcl_modules class_instances fun_defs main_dcl_module_n predef_symbols
# ({pds_def}, predef_symbols) = predef_symbols![PD_StdArray]
| pds_def == main_dcl_module_n
#! nr_of_instances = size class_instances
# ({dcl_common}, dcl_modules) = dcl_modules![main_dcl_module_n]
({pds_def}, predef_symbols) = predef_symbols![PD_ArrayClass]
(offset_table, _, predef_symbols) = arrayFunOffsetToPD_IndexTable dcl_common.com_member_defs predef_symbols
(class_instances, fun_defs, predef_symbols)
= iFoldSt (adjust_instance_types_of_array_functions pds_def offset_table) 0 nr_of_instances
(class_instances, fun_defs, predef_symbols)
= (dcl_modules, class_instances, fun_defs, predef_symbols)
= (dcl_modules, class_instances, fun_defs, predef_symbols)
where
adjust_instance_types_of_array_functions :: !Index !{#.Index} !Int !*(!u:{# ClassInstance},!*{# FunDef},!v:{#PredefinedSymbol})
-> (!u:{# ClassInstance},!*{# FunDef},!v:{#PredefinedSymbol})
adjust_instance_types_of_array_functions array_class_index offset_table inst_index (class_instances, fun_defs, predef_symbols)
# ({ins_class={glob_module,glob_object={ds_index}},ins_type,ins_members}, class_instances) = class_instances![inst_index]
| glob_module == main_dcl_module_n && ds_index == array_class_index && elemTypeIsStrict ins_type.it_types predef_symbols
# fun_defs = iFoldSt (make_instance_strict ins_members offset_table) 0 (size ins_members) fun_defs
= (class_instances, fun_defs, predef_symbols)
= (class_instances, fun_defs, predef_symbols)
make_instance_strict :: !{#DefinedSymbol} !{#Index} !Int !*{# FunDef} -> *{# FunDef}
make_instance_strict instances offset_table ins_offset instance_defs
# {ds_index} = instances.[ins_offset]
(inst_def, instance_defs) = instance_defs![ds_index]
(Yes symbol_type) = inst_def.fun_type
= { instance_defs & [ds_index] = { inst_def & fun_type = Yes (makeElemTypeOfArrayFunctionStrict symbol_type ins_offset offset_table) } }
checkSpecifiedInstanceType (index_of_member_fun, derived_symbol_type) (icl_functions, type_heaps, cs_error)
# ({fun_type, fun_pos, fun_ident}, icl_functions) = icl_functions![index_of_member_fun]
# (cs_error, type_heaps)
= case fun_type of
No
-> (cs_error, type_heaps)
Yes specified_symbol_type
| not cs_error.ea_ok
-> (cs_error, type_heaps)
# (err_code, type_heaps)
= symbolTypesCorrespond specified_symbol_type derived_symbol_type type_heaps
| err_code==CEC_Ok
-> (cs_error, type_heaps)
# cs_error = pushErrorAdmin (newPosition fun_ident fun_pos) cs_error
luxurious_explanation
= case err_code of
CEC_ResultNotOK -> "result type"
CEC_ArgNrNotOk -> "nr or arguments"
CEC_ContextNotOK -> "context"
CEC_AttrEnvNotOK -> "attribute environment"
1 -> "first argument"
2 -> "second argument"
3 -> "third argument"
_ -> toString err_code+++"th argument"
cs_error = checkError "the specified member type is incorrect (" (luxurious_explanation+++" not ok)") cs_error
-> ( popErrorAdmin cs_error, type_heaps)
= (icl_functions, type_heaps, cs_error)
checkForeignExports :: [ParsedForeignExport] [IndexRange] *{#FunDef} *CheckState -> (![ForeignExport],!*{#FunDef},!*CheckState)
checkForeignExports [{pfe_ident=pfe_ident=:{id_name,id_info},pfe_line,pfe_file,pfe_stdcall}:foreign_exports] icl_global_functions_ranges fun_defs cs
# ({ste_kind,ste_index},cs_symbol_table) = readPtr id_info cs.cs_symbol_table
# cs = { cs & cs_symbol_table = cs_symbol_table }
# (foreign_export_fundef_index,fun_defs,cs) = check_foreign_export ste_kind icl_global_functions_ranges fun_defs cs
with
check_foreign_export (STE_FunctionOrMacro _) [{ir_from, ir_to}:_] fun_defs cs
| ste_index>=ir_from && ste_index<ir_to
# ({fun_type,fun_ident,fun_pos},fun_defs) = fun_defs![ste_index]
# (foreign_export_fundef_index,cs) = case fun_type of
No
-> ([],cs)
Yes {st_args,st_args_strictness,st_arity,st_result,st_context}
| not (isEmpty st_context)
-> ([],{cs & cs_error = checkErrorWithIdentPos (newPosition fun_ident fun_pos) "error in type of foreign exported function (context not allowed)" cs.cs_error})
| not (first_n_are_strict st_arity st_args_strictness)
-> ([],{cs & cs_error = checkErrorWithIdentPos (newPosition fun_ident fun_pos) "error in type of foreign exported function (strictness annotation missing)" cs.cs_error})
-> ([{fe_fd_index=ste_index,fe_stdcall=pfe_stdcall}],cs)
= (foreign_export_fundef_index,fun_defs,cs)
check_foreign_export (STE_FunctionOrMacro _) [_,{ir_from, ir_to}:_] fun_defs cs
| ste_index>=ir_from && ste_index<ir_to
# ident_pos = { ip_ident=pfe_ident,ip_line=pfe_line,ip_file=pfe_file }
= ([],fun_defs,{cs & cs_error = checkErrorWithIdentPos ident_pos "has not been exported" cs.cs_error})
check_foreign_export _ _ fun_defs cs
# ident_pos = { ip_ident=pfe_ident,ip_line=pfe_line,ip_file=pfe_file }
= ([],fun_defs,{cs & cs_error = checkErrorWithIdentPos ident_pos "has not been declared" cs.cs_error})
# (foreign_export_fundef_indexes,fun_defs,cs) = checkForeignExports foreign_exports icl_global_functions_ranges fun_defs cs
= (foreign_export_fundef_index++foreign_export_fundef_indexes,fun_defs,cs)
checkForeignExports [] icl_global_functions_ranges fun_defs cs
= ([],fun_defs,cs)
checkForeignExportedFunctionTypes :: ![ForeignExport] !*ErrorAdmin !p:PredefinedSymbols !*{#FunDef}
-> (!*ErrorAdmin,!p:PredefinedSymbols,!*{#FunDef})
checkForeignExportedFunctionTypes [{fe_fd_index}:icl_foreign_exports] error_admin predefined_symbols fun_defs
| not (check_foreign_export_type st_result.at_type)
# error_admin = checkErrorWithIdentPos (newPosition fun_ident fun_pos) "error in result type for foreign exported function" error_admin
= checkForeignExportedFunctionTypes icl_foreign_exports error_admin predefined_symbols fun_defs2
| not (check_foreign_export_types st_args)
# error_admin = checkErrorWithIdentPos (newPosition fun_ident fun_pos) "error in argument type for foreign exported function" error_admin
= checkForeignExportedFunctionTypes icl_foreign_exports error_admin predefined_symbols fun_defs2
= checkForeignExportedFunctionTypes icl_foreign_exports error_admin predefined_symbols fun_defs2
where
({fun_type=Yes {st_args,st_result},fun_ident,fun_pos},fun_defs2) = fun_defs![fe_fd_index]
check_foreign_export_types [{at_type}:argument_types]
= check_foreign_export_type at_type && check_foreign_export_types argument_types
check_foreign_export_types []
= True
check_foreign_export_type (TB BT_Int)
= True
check_foreign_export_type (TB BT_Real)
= True
check_foreign_export_type (TB (BT_String _))
= True
check_foreign_export_type (TA {type_index={glob_module,glob_object},type_arity} [{at_type=TB basic_type}])
| predefined_symbols.[PD_UnboxedArrayType].pds_def==glob_object &&
predefined_symbols.[PD_UnboxedArrayType].pds_module==glob_module
= case basic_type of
BT_Char -> True
BT_Int -> True
BT_Real -> True
_ -> False
= False
check_foreign_export_type (TAS {type_arity,type_index={glob_object,glob_module}} arguments strictness)
= glob_module==cPredefinedModuleIndex && glob_object==PD_Arity2TupleTypeIndex+(type_arity-2)
&& first_n_are_strict type_arity strictness && check_foreign_export_types arguments
check_foreign_export_type _
= False
checkForeignExportedFunctionTypes [] error_admin predefined_symbols fun_defs
= (error_admin,predefined_symbols,fun_defs)
check_dynamics_used_without_support_dynamics support_dynamics mod_ident cs
| not support_dynamics && (cs.cs_x.x_needed_modules bitand cNeedStdDynamic)<>0
# error_location = { ip_ident = {id_name="",id_info=nilPtr}/*mod_ident*/, ip_line = 1, ip_file = mod_ident.id_name+++".icl"}
= {cs & cs_error = popErrorAdmin (checkError "" ("dynamic used but support for dynamics not enabled") (pushErrorAdmin error_location cs.cs_error))}
= cs
check_needed_modules_are_imported mod_ident extension cs=:{cs_x={x_needed_modules}}
# cs = case x_needed_modules bitand cNeedStdGeneric of
0 -> cs
_ -> check_it PD_StdGeneric mod_ident "" extension cs
# cs = case x_needed_modules bitand cNeedStdDynamic of
0 -> cs
_ -> check_it PD_StdDynamic mod_ident "" extension cs
# cs = case x_needed_modules bitand cStdArrayImportMissing of
0 -> cs
_ -> missing_import_error PD_StdArray mod_ident " (needed for array denotations)" extension cs
# cs = case x_needed_modules bitand cStdEnumImportMissing of
0 -> cs
_ -> missing_import_error PD_StdEnum mod_ident " (needed for [..] expressions)" extension cs
# cs = case x_needed_modules bitand cNeedStdStrictLists of
0 -> cs
_ -> check_it PD_StdStrictLists mod_ident " (needed for strict lists)" extension cs
= cs
where
check_it pd mod_ident explanation extension cs=:{cs_symbol_table}
# pds_ident = predefined_idents.[pd]
# ({ste_kind}, cs_symbol_table) = readPtr pds_ident.id_info cs_symbol_table
cs = { cs & cs_symbol_table = cs_symbol_table }
= case ste_kind of
STE_ClosedModule
-> cs
_
-> missing_import_error pd mod_ident explanation extension cs
missing_import_error pd mod_ident explanation extension cs
# pds_ident = predefined_idents.[pd]
error_location = { ip_ident = mod_ident, ip_line = 1, ip_file = mod_ident.id_name+++extension}
cs_error = pushErrorAdmin error_location cs.cs_error
cs_error = checkError pds_ident ("not imported"+++explanation) cs_error
cs_error = popErrorAdmin cs_error
= { cs & cs_error = cs_error }
// MV ...
switched_off_Clean_feature pd mod_ident explanation extension cs=:{cs_symbol_table}
# ident = predefined_idents.[pd]
# error_location = { ip_ident = mod_ident, ip_line = 1, ip_file = mod_ident.id_name+++extension}
cs_error = pushErrorAdmin error_location cs.cs_error
cs_error = checkError ident ("not supported"+++explanation) cs_error
cs_error = popErrorAdmin cs_error
= { cs & cs_error = cs_error}
// ... MV
arrayFunOffsetToPD_IndexTable :: !w:{# MemberDef} !v:{# PredefinedSymbol} -> (!{# Index}, !x:{#MemberDef}, !v:{#PredefinedSymbol}) , [w<=x]
arrayFunOffsetToPD_IndexTable member_defs predef_symbols
#! nr_of_array_functions = size member_defs
= iFoldSt offset_to_PD_index PD_CreateArrayFun (PD_CreateArrayFun + nr_of_array_functions)
(createArray nr_of_array_functions NoIndex, member_defs, predef_symbols)
where
offset_to_PD_index pd_index (table, member_defs, predef_symbols)
# ({pds_def}, predef_symbols) = predef_symbols![pd_index]
# ({me_offset}, member_defs) = member_defs![pds_def]
= ({ table & [me_offset] = pd_index }, member_defs, predef_symbols)
elemTypeIsStrict [TA {type_index={glob_object,glob_module}} _ : _] predef_symbols
= glob_module == predef_symbols.[PD_PredefinedModule].pds_def &&
(glob_object == predef_symbols.[PD_StrictArrayType].pds_def || glob_object == predef_symbols.[PD_UnboxedArrayType].pds_def)
elemTypeIsStrict [TAS {type_index={glob_object,glob_module}} _ _ : _] predef_symbols
= glob_module == predef_symbols.[PD_PredefinedModule].pds_def &&
(glob_object == predef_symbols.[PD_StrictArrayType].pds_def || glob_object == predef_symbols.[PD_UnboxedArrayType].pds_def)
makeElemTypeOfArrayFunctionStrict :: !SymbolType !Index !{# Index} -> SymbolType
makeElemTypeOfArrayFunctionStrict st=:{st_args,st_args_strictness,st_result} me_offset offset_table
# array_fun_kind = offset_table.[me_offset]
| array_fun_kind == PD_UnqArraySelectFun
= case st_result.at_type of
TA tuple elems
-> { st & st_result = { st_result & at_type = TAS tuple elems (Strict 1)}}
TAS tuple elems strictness
-> { st & st_result = { st_result & at_type = TAS tuple elems (add_strictness 0 strictness)}}
| array_fun_kind == PD_ArrayUpdateFun
# [array, index, elem: _] = st_args
= { st & st_args_strictness=add_strictness 2 st_args_strictness,st_args = [array, index, elem ] }
| array_fun_kind == PD_CreateArrayFun
# [array, elem: _] = st_args
= { st & st_args_strictness=add_strictness 1 st_args_strictness,st_args = [array, elem ] }
| array_fun_kind == PD_ArrayReplaceFun
# [arg_array, index, elem: _] = st_args
= case st_result.at_type of
TA tuple elems
-> { st & st_args_strictness=add_strictness 2 st_args_strictness,st_args = [arg_array, index, elem],
st_result = { st_result & at_type = TAS tuple elems (Strict 1)}}
TAS tuple elems strictness
-> { st & st_args_strictness=add_strictness 2 st_args_strictness,st_args = [arg_array, index, elem],
st_result = { st_result & at_type = TAS tuple elems (add_strictness 0 strictness)}}
= st
initialDclModule ({mod_ident, mod_modification_time, mod_defs=mod_defs=:{def_funtypes,def_macro_indices}, mod_type}, sizes, all_defs) module_n
# dcl_common= createCommonDefinitions mod_defs
= { dcl_name = mod_ident
, dcl_functions = { function \\ function <- mod_defs.def_funtypes }
, dcl_macros = def_macro_indices
, dcl_instances = { ir_from = 0, ir_to = 0}
, dcl_specials = { ir_from = 0, ir_to = 0 }
, dcl_gencases = { ir_from = 0, ir_to = 0 }
, dcl_type_funs = { ir_from = 0, ir_to = 0 }
, dcl_common = dcl_common
, dcl_sizes = sizes
, dcl_dictionary_info = { n_dictionary_types=0,n_dictionary_constructors=0,n_dictionary_selectors=0 }
, dcl_declared =
{
dcls_import = {}
, dcls_local = all_defs
, dcls_local_for_import = {local_declaration_for_import decl module_n \\ decl<-all_defs}
}
, dcl_macro_conversions = No
, dcl_module_kind = mod_type
, dcl_modification_time = mod_modification_time
, dcl_imported_module_numbers = EndNumbers
}
addImportedSymbolsToSymbolTable :: Int (Optional IndexRange) {#Int} (IntKeyHashtable SolvedImports) !*{#DclModule} *CheckState
-> ([Declaration],*{#DclModule},*CheckState)
addImportedSymbolsToSymbolTable importing_mod opt_macro_range modules_in_component_set imports_ikh dcl_modules cs
#! nr_of_dcl_modules = size dcl_modules
# {si_explicit, si_implicit} = ikhSearch` importing_mod imports_ikh
(decls_accu, visited_modules, dcl_modules, cs)
= foldSt (add_impl_imported_symbols_with_new_error_pos opt_macro_range importing_mod
modules_in_component_set imports_ikh)
si_implicit ([], bitvectCreate nr_of_dcl_modules, dcl_modules, cs)
= foldSt (add_expl_imported_symbols_with_new_error_pos opt_macro_range importing_mod) si_explicit (decls_accu, dcl_modules, cs)
where
add_impl_imported_symbols_with_new_error_pos opt_macro_range importing_mod modules_in_component_set imports_ikh
(mod_index, position) (decls_accu, visited_modules, dcl_modules, cs)
# cs = pushErrorAdmin (newPosition import_ident position) cs
(decls_accu, visited_modules, dcl_modules, cs)
= add_impl_imported_symbols opt_macro_range importing_mod modules_in_component_set imports_ikh
mod_index (decls_accu, visited_modules, dcl_modules, cs)
= (decls_accu, visited_modules, dcl_modules, popErrorAdmin cs)
add_impl_imported_symbols opt_macro_range importing_mod modules_in_component_set imports_ikh mod_index
(decls_accu, visited_modules, dcl_modules, cs)
| bitvectSelect mod_index visited_modules
= (decls_accu, visited_modules, dcl_modules, cs)
# visited_modules = bitvectSet mod_index visited_modules
({ dcls_import, dcls_local_for_import }, dcl_modules)
= dcl_modules![mod_index].dcl_declared
(decls_accu, cs)
= foldlArraySt (add_declaration opt_macro_range importing_mod)
dcls_local_for_import (decls_accu, cs)
| not (bitvectSelect mod_index modules_in_component_set)
// this module is outside of the actual component. All imported symbols are
// already known
# (decls_accu, cs)
= foldlArraySt (add_declaration opt_macro_range importing_mod)
dcls_import (decls_accu, cs)
= (decls_accu, visited_modules, dcl_modules, cs)
# {si_explicit, si_implicit} = ikhSearch` mod_index imports_ikh
(decls_accu, cs)
= foldSt (\(decls, _) state ->
foldSt (\decl state -> add_declaration opt_macro_range importing_mod decl state)
decls state)
si_explicit (decls_accu, cs)
= foldSt (\(mod_index, _) state
-> add_impl_imported_symbols opt_macro_range importing_mod modules_in_component_set
imports_ikh mod_index state)
si_implicit
(decls_accu, visited_modules, dcl_modules, cs)
add_expl_imported_symbols_with_new_error_pos opt_macro_range importing_mod (decls, position) (decls_accu, dcl_modules, cs)
# cs = pushErrorAdmin (newPosition import_ident position) cs
(decls_accu, dcl_modules, cs) = foldSt (add_expl_imp_declaration opt_macro_range importing_mod) decls (decls_accu, dcl_modules, cs)
= (decls_accu, dcl_modules, popErrorAdmin cs)
add_declaration :: (Optional IndexRange) Int Declaration *([Declaration],*CheckState) -> (![Declaration],!*CheckState)
add_declaration opt_dcl_macro_range importing_mod declaration (decls_accu, cs)
# (not_already_imported, cs)
= add_declaration_to_symbol_table opt_dcl_macro_range declaration importing_mod cs
| not_already_imported
= ([declaration:decls_accu], cs)
= (decls_accu, cs)
add_expl_imp_declaration opt_dcl_macro_range importing_mod declaration (decls_accu, dcl_modules, cs)
# (not_already_imported, cs)
= add_declaration_to_symbol_table opt_dcl_macro_range declaration importing_mod cs
| not_already_imported
= ([declaration:decls_accu], dcl_modules, cs)
= (decls_accu, dcl_modules, cs)
add_declaration_to_symbol_table opt_dcl_macro_range (Declaration {decl_kind=STE_FunctionOrMacro _, decl_ident, decl_index}) _ cs
= addImportedFunctionOrMacro opt_dcl_macro_range decl_ident decl_index cs
add_declaration_to_symbol_table yes_for_icl_module (Declaration {decl_kind=decl_kind=:STE_Imported def_kind def_mod, decl_ident, decl_index, decl_pos}) importing_mod cs
= addSymbol yes_for_icl_module decl_ident decl_pos decl_kind def_kind decl_index def_mod importing_mod cs
updateExplImpInfo :: [Int] Index {!Declaration} {!Declaration} u:{#DclModule} {!{!*ExplImpInfo}} *SymbolTable
-> (u:{#DclModule},!{!{!.ExplImpInfo}},.SymbolTable)
updateExplImpInfo components_importing_module mod_index dcls_import dcls_local_for_import dcl_modules expl_imp_infos cs_symbol_table
# (changed_symbols, (expl_imp_infos, cs_symbol_table))
= mapSt markExplImpSymbols components_importing_module (expl_imp_infos, cs_symbol_table)
(dcl_modules, expl_imp_infos, cs_symbol_table)
= update_expl_imp_for_marked_symbols mod_index dcls_local_for_import (dcl_modules, expl_imp_infos, cs_symbol_table)
(dcl_modules, expl_imp_infos, cs_symbol_table)
= update_expl_imp_for_marked_symbols mod_index dcls_import (dcl_modules, expl_imp_infos, cs_symbol_table)
cs_symbol_table
= foldSt (\l cs_symbol_table->foldSt restoreHeap l cs_symbol_table) changed_symbols cs_symbol_table
= (dcl_modules, expl_imp_infos, cs_symbol_table)
updateExplImpInfoForCachedModule :: [Int] Index {!Declaration} {!Declaration} {!{!*ExplImpInfo}} u:{#DclModule} *SymbolTable
-> (!{!{!.ExplImpInfo}},u:{#DclModule},.SymbolTable)
updateExplImpInfoForCachedModule components_importing_module mod_index dcls_import dcls_local_for_import expl_imp_infos dcl_modules cs_symbol_table
# (changed_symbols, (expl_imp_infos, cs_symbol_table))
= mapSt markExplImpSymbols components_importing_module (expl_imp_infos, cs_symbol_table)
dcl_modules__cs_symbol_table = mark_belongings_of_expl_imp_symbols dcls_local_for_import (dcl_modules, cs_symbol_table)
(dcl_modules, cs_symbol_table) = mark_belongings_of_expl_imp_symbols dcls_import dcl_modules__cs_symbol_table
cs_symbol_table = mark_belongings_of_expl_imp_symbols_as_exported dcls_local_for_import cs_symbol_table
cs_symbol_table = mark_belongings_of_expl_imp_symbols_as_exported dcls_import cs_symbol_table
(dcl_modules, expl_imp_infos, cs_symbol_table)
= update_expl_imp_for_marked_symbols mod_index dcls_local_for_import (dcl_modules, expl_imp_infos, cs_symbol_table)
(dcl_modules, expl_imp_infos, cs_symbol_table)
= update_expl_imp_for_marked_symbols mod_index dcls_import (dcl_modules, expl_imp_infos, cs_symbol_table)
dcl_modules__cs_symbol_table
= unmark_belongings_of_expl_imp_symbols dcls_local_for_import (dcl_modules, cs_symbol_table)
(dcl_modules, cs_symbol_table)
= unmark_belongings_of_expl_imp_symbols dcls_import dcl_modules__cs_symbol_table
cs_symbol_table = foldSt (\l cs_symbol_table->foldSt restoreHeap l cs_symbol_table) changed_symbols cs_symbol_table
= (expl_imp_infos, dcl_modules, cs_symbol_table)
where
mark_belongings_of_expl_imp_symbols decls (dcl_modules, cs_symbol_table)
= foldlArraySt mark_belongings_of_expl_imp_symbol decls (dcl_modules, cs_symbol_table)
where
mark_belongings_of_expl_imp_symbol decl=:(Declaration {decl_ident={id_info}}) (dcl_modules, cs_symbol_table)
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
= case ste of
({ste_kind=STE_ExplImpComponentNrs component_numbers})
# (all_belonging_symbols, dcl_modules) = getBelongingSymbols decl dcl_modules
-> (dcl_modules, foldlBelongingSymbols mark_belonging_symbol all_belonging_symbols cs_symbol_table)
where
mark_belonging_symbol {id_info} cs_symbol_table
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
= case ste.ste_kind of
STE_Empty
-> writePtr id_info {ste & ste_kind=STE_BelongingSymbolForExportedSymbol} cs_symbol_table
_
-> cs_symbol_table
_
-> (dcl_modules, cs_symbol_table)
mark_belongings_of_expl_imp_symbols_as_exported decls cs_symbol_table
= foldlArraySt mark_belonging_of_expl_imp_marked_symbol_as_exported decls cs_symbol_table
where
mark_belonging_of_expl_imp_marked_symbol_as_exported decl=:(Declaration {decl_ident={id_info}}) cs_symbol_table
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
= case ste.ste_kind of
STE_BelongingSymbolForExportedSymbol
-> writePtr id_info {ste & ste_kind=STE_BelongingSymbolExported} cs_symbol_table
_
-> cs_symbol_table
unmark_belongings_of_expl_imp_symbols decls (dcl_modules, cs_symbol_table)
= foldlArraySt unmark_belongings_of_expl_imp_symbol decls (dcl_modules, cs_symbol_table)
where
unmark_belongings_of_expl_imp_symbol decl=:(Declaration {decl_ident={id_info}}) (dcl_modules, cs_symbol_table)
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
= case ste of
({ste_kind=STE_ExplImpComponentNrs component_numbers})
# (all_belonging_symbols, dcl_modules) = getBelongingSymbols decl dcl_modules
-> (dcl_modules, foldlBelongingSymbols unmark_belonging_symbol all_belonging_symbols cs_symbol_table)
where
unmark_belonging_symbol {id_info} cs_symbol_table
# (ste, cs_symbol_table) = readPtr id_info cs_symbol_table
= case ste.ste_kind of
STE_BelongingSymbolExported
-> writePtr id_info {ste & ste_kind=STE_Empty} cs_symbol_table
STE_BelongingSymbolForExportedSymbol
-> writePtr id_info {ste & ste_kind=STE_Empty} cs_symbol_table
_
-> cs_symbol_table
_
-> (dcl_modules, cs_symbol_table)
foldlBelongingSymbols f bs st
:== case bs of
BS_Constructors constructors
-> foldSt (\{ds_ident} st -> f ds_ident st) constructors st
BS_Fields fields
-> foldlArraySt (\{fs_ident} st -> f fs_ident st) fields st
BS_Members members
-> foldlArraySt (\{ds_ident} st -> f ds_ident st) members st
BS_Nothing
-> st
/*
ste_kind_to_string :: STE_Kind -> String
ste_kind_to_string ste_kind = case ste_kind of
STE_FunctionOrMacro _
-> "STE_FunctionOrMacro"
STE_Type
-> "STE_Type"
STE_Constructor
-> "STE_Constructor"
STE_Selector _
-> "STE_Selector"
STE_Field _
-> "STE_Field"
STE_Class
-> "STE_Class"
STE_Member
-> "STE_Member"
STE_Instance
-> "STE_Instance"
STE_Variable _
-> "STE_Variable"
STE_TypeVariable _
-> "STE_TypeVariable"
STE_TypeAttribute _
-> "STE_TypeAttribute"
STE_BoundTypeVariable _
-> "STE_BoundTypeVariable"
STE_Imported ste_kind2 _
-> "STE_Imported "+++ste_kind_to_string ste_kind2
STE_DclFunction
-> "STE_DclFunction"
STE_Module _
-> "STE_Module"
STE_ClosedModule
-> "STE_ClosedModule"
STE_Empty
-> "STE_Empty"
STE_DictType _
-> "STE_DictType"
STE_DictCons _
-> "STE_DictCons"
STE_DictField _
-> "STE_DictField"
STE_Called _
-> "STE_Called"
STE_ExplImpSymbol _
-> "STE_ExplImpSymbol"
STE_ExplImpComponentNrs _ _
-> "STE_ExplImpComponentNrs"
STE_BelongingSymbol _
-> "STE_BelongingSymbol"
*/
update_expl_imp_for_marked_symbols mod_index decls (dcl_modules, expl_imp_infos, cs_symbol_table)
= foldlArraySt (update_expl_imp_for_marked_symbol mod_index) decls (dcl_modules, expl_imp_infos, cs_symbol_table)
where
update_expl_imp_for_marked_symbol mod_index decl=:(Declaration {decl_ident}) (dcl_modules, expl_imp_infos, cs_symbol_table)
# (ste, cs_symbol_table) = readPtr decl_ident.id_info cs_symbol_table
= updateExplImpForMarkedSymbol mod_index decl ste dcl_modules expl_imp_infos cs_symbol_table
update_expl_imp_for_marked_local_symbol mod_index decl=:(Declaration {decl_ident}) (dcl_modules, expl_imp_infos, cs_symbol_table)
# (ste, cs_symbol_table) = readPtr decl_ident.id_info cs_symbol_table
= updateExplImpForMarkedLocalSymbol mod_index decl ste dcl_modules expl_imp_infos cs_symbol_table
where
updateExplImpForMarkedLocalSymbol :: !Index Declaration !SymbolTableEntry !u:{#DclModule} !{!{!*ExplImpInfo}} !*SymbolTable
-> (!u:{#DclModule}, !{!{!.ExplImpInfo}}, !.SymbolTable)
updateExplImpForMarkedLocalSymbol mod_index decl {ste_kind=STE_ExplImpComponentNrs component_numbers}
dcl_modules expl_imp_infos cs_symbol_table
= foldSt (addExplImpInfo mod_index decl) component_numbers (dcl_modules, expl_imp_infos, cs_symbol_table)
where
addExplImpInfo :: !Index Declaration !ComponentNrAndIndex !(!u:{#DclModule}, !{!{!*ExplImpInfo}}, !v:SymbolTable)
-> (!u:{#DclModule}, !{!{!.ExplImpInfo}}, !v:SymbolTable)
addExplImpInfo mod_index decl { cai_component_nr, cai_index } (dcl_modules, expl_imp_infos, cs_symbol_table)
# (ExplImpInfo eii_ident eii_declaring_modules, expl_imp_infos)
= replaceTwoDimArrElt cai_component_nr cai_index TemporarilyFetchedAway expl_imp_infos
(all_belongs, dcl_modules) = getBelongingSymbols decl dcl_modules
di_belonging = nsFromTo (nrOfBelongingSymbols all_belongs)
di = { di_decl = decl, di_belonging = di_belonging }
new_expl_imp_info = ExplImpInfo eii_ident (ikhInsert` False mod_index di eii_declaring_modules)
= (dcl_modules, { expl_imp_infos & [cai_component_nr,cai_index] = new_expl_imp_info }, cs_symbol_table)
updateExplImpForMarkedLocalSymbol _ _ entry dcl_modules expl_imp_infos cs_symbol_table
= (dcl_modules, expl_imp_infos, cs_symbol_table)
checkInstancesOfDclModule :: !.Int !(!.Int,.Int,.[FunType]) !(!*{#DclModule},!*Heaps,!*CheckState)
-> (!.{#DclModule},!.Heaps,!.CheckState);
checkInstancesOfDclModule mod_index (nr_of_dcl_functions_and_instances, nr_of_dcl_funs_insts_and_specs, rev_special_defs) (dcl_modules, heaps=:{hp_type_heaps, hp_var_heap}, cs=:{cs_error})
# (dcl_mod=:{dcl_functions, dcl_common}, dcl_modules) = dcl_modules![mod_index]
nr_of_dcl_functions = size dcl_functions
(memb_inst_defs, nr_of_dcl_functions_and_instances2, rev_spec_class_inst,
com_instance_defs, com_class_defs, com_member_defs, dcl_modules, hp_type_heaps, hp_var_heap, cs)
= determineTypesOfDclInstances nr_of_dcl_functions mod_index
{d \\ d<-:dcl_common.com_instance_defs}
{d \\ d<-:dcl_common.com_class_defs}
{d \\ d<-:dcl_common.com_member_defs}
dcl_modules hp_type_heaps hp_var_heap { cs & cs_error = cs_error }
heaps
= { heaps & hp_type_heaps = hp_type_heaps, hp_var_heap = hp_var_heap }
(nr_of_dcl_funs_insts_and_specs, new_class_instances, rev_special_defs, all_spec_types, heaps, cs_predef_symbols,cs_error)
= checkSpecialsOfInstances mod_index nr_of_dcl_functions rev_spec_class_inst nr_of_dcl_funs_insts_and_specs []
rev_special_defs { mem \\ mem <- memb_inst_defs } { [] \\ mem <- memb_inst_defs } heaps cs.cs_predef_symbols cs.cs_error
#! (nr_of_dcl_funs_insts_specs_and_gencases, gen_funs, com_gencase_defs, heaps)
= create_gencase_funtypes nr_of_dcl_funs_insts_and_specs {d \\ d<-:dcl_common.com_gencase_defs} heaps
# dcl_functions
= arrayPlusList dcl_functions
( [ { mem_inst & ft_specials = if (isEmpty spec_types) SP_None (SP_ContextTypes spec_types) }
\\ mem_inst <- memb_inst_defs & spec_types <-: all_spec_types
]
++ reverse rev_special_defs
++ gen_funs
)
# cs = { cs & cs_predef_symbols=cs_predef_symbols,cs_error = cs_error}
#! mod_index_of_std_array = cs.cs_predef_symbols.[PD_StdArray].pds_def
# (com_member_defs, com_instance_defs, dcl_functions, cs)
= case mod_index_of_std_array==mod_index of
False
-> (com_member_defs, com_instance_defs, dcl_functions, cs)
True
-> adjust_instance_types_of_array_functions_in_std_array_dcl mod_index
com_member_defs com_instance_defs dcl_functions cs
#! dcl_mod = { dcl_mod & dcl_functions = dcl_functions,
dcl_specials = { ir_from = nr_of_dcl_functions_and_instances,
ir_to = nr_of_dcl_funs_insts_and_specs },
dcl_gencases = { ir_from = nr_of_dcl_funs_insts_and_specs
, ir_to = nr_of_dcl_funs_insts_specs_and_gencases},
dcl_common =
{ dcl_common
& com_instance_defs = array_plus_list com_instance_defs new_class_instances
, com_class_defs = com_class_defs
, com_member_defs = com_member_defs
, com_gencase_defs = com_gencase_defs
}}
// TODO: update the instance range or create another, generic function range
dcl_modules = { dcl_modules & [mod_index] = dcl_mod }
= (dcl_modules, heaps, cs)
where
create_gencase_funtypes :: !Index !*{#GenericCaseDef} !*Heaps
-> (!Index, ![FunType], !*{#GenericCaseDef}, !*Heaps)
create_gencase_funtypes fun_index gencase_defs heaps
#! (fun_index, new_funs, gencase_defs, hp_var_heap)
= create_funs 0 fun_index gencase_defs heaps.hp_var_heap
= (fun_index, new_funs, gencase_defs, {heaps & hp_var_heap = hp_var_heap})
where
create_funs gc_index fun_index gencase_defs hp_var_heap
| gc_index == size gencase_defs
= (fun_index, [], gencase_defs, hp_var_heap)
#! (fun, gencase_defs,hp_var_heap)
= create_fun gc_index fun_index gencase_defs hp_var_heap
#! (fun_index, funs, gencase_defs,hp_var_heap)
= create_funs (inc gc_index) (inc fun_index) gencase_defs hp_var_heap
= (fun_index, [fun:funs], gencase_defs, hp_var_heap)
create_fun gc_index fun_index gencase_defs hp_var_heap
# (gencase_def=:{gc_ident, gc_pos, gc_type_cons}, gencase_defs) = gencase_defs ! [gc_index]
# gencase_def = { gencase_def & gc_body = GCB_FunIndex fun_index }
# gencase_defs = {gencase_defs & [gc_index] = gencase_def}
#! fun_ident = genericIdentToFunIdent gc_ident gc_type_cons
#! (var_info_ptr, hp_var_heap) = newPtr VI_Empty hp_var_heap
#! fun =
{ ft_ident = fun_ident
, ft_arity = 0
, ft_priority = NoPrio
, ft_type = {st_vars=[],st_attr_vars=[],st_arity=0,st_args=[],st_result={at_type=TE,at_attribute=TA_Multi},st_attr_env=[],st_context=[],st_args_strictness=NotStrict}
, ft_pos = gc_pos
, ft_specials = SP_None
, ft_type_ptr = var_info_ptr
}
= (fun, gencase_defs, hp_var_heap)
//---> ("create_gencase_funtypes", gc_ident, gc_type_cons, gc_index, fun_index)
adjust_instance_types_of_array_functions_in_std_array_dcl array_mod_index class_members class_instances fun_types cs=:{cs_predef_symbols}
#! nr_of_instances = size class_instances
# ({pds_def}, cs_predef_symbols) = cs_predef_symbols![PD_ArrayClass]
(offset_table, class_members, cs_predef_symbols) = arrayFunOffsetToPD_IndexTable class_members cs_predef_symbols
(class_instances, fun_types, cs_predef_symbols)
= iFoldSt (adjust_instance_types_of_array_functions array_mod_index pds_def offset_table) 0 nr_of_instances
(class_instances, fun_types, cs_predef_symbols)
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols })
where
adjust_instance_types_of_array_functions :: .Index !Index !{#.Index} !Int !*(!u:{# ClassInstance},!*{# FunType},!v:{#PredefinedSymbol})
-> (!u:{# ClassInstance},!*{# FunType},!v:{#PredefinedSymbol})
adjust_instance_types_of_array_functions array_mod_index array_class_index offset_table inst_index (class_instances, fun_types, predef_symbols)
# ({ins_class={glob_module,glob_object={ds_index}},ins_type,ins_members}, class_instances) = class_instances![inst_index]
| glob_module == array_mod_index && ds_index == array_class_index && elemTypeIsStrict ins_type.it_types predef_symbols
# fun_types = iFoldSt (make_instance_strict ins_members offset_table) 0 (size ins_members) fun_types
= (class_instances, fun_types, predef_symbols)
= (class_instances, fun_types, predef_symbols)
make_instance_strict :: !{#DefinedSymbol} !{#Index} !Int !*{# FunType} -> *{# FunType}
make_instance_strict instances offset_table ins_offset instance_defs
# {ds_index} = instances.[ins_offset]
(inst_def, instance_defs) = instance_defs![ds_index]
(Yes symbol_type) = inst_def.ft_type
= { instance_defs & [ds_index] = { inst_def & ft_type = makeElemTypeOfArrayFunctionStrict inst_def.ft_type ins_offset offset_table } }
checkPredefinedDclModule :: !NumberSet ![Int] !(IntKeyHashtable SolvedImports) !Int !Bool !LargeBitvect !Bool
!(Module (CollectedDefinitions ClassInstance)) !Index !*ExplImpInfos !*{#DclModule} !*{#FunDef} !*{#*{#FunDef}} !*Heaps !*CheckState
-> (!(!Int,!Index,![FunType]), !(!*ExplImpInfos, !*{#DclModule}, !*{#FunDef},!*{#*{#FunDef}},!*Heaps, !*CheckState))
checkPredefinedDclModule dcl_imported_module_numbers components_importing_module imports_ikh component_nr is_on_cycle modules_in_component_set support_dynamics
mod=:{mod_ident,mod_defs=mod_defs=:{def_macro_indices,def_funtypes}} mod_index expl_imp_info modules icl_functions macro_defs heaps cs
# dcl_common = createCommonDefinitions mod_defs
#! first_type_index = size dcl_common.com_type_defs
# dcl_common = {dcl_common & com_class_defs = number_class_dictionaries 0 dcl_common.com_class_defs first_type_index}
with
number_class_dictionaries class_index class_defs index_type
| class_index < size class_defs
# class_defs = { class_defs & [class_index].class_dictionary.ds_index = index_type }
= number_class_dictionaries (inc class_index) class_defs (inc index_type)
= class_defs
= checkDclModule2 dcl_imported_module_numbers components_importing_module imports_ikh component_nr is_on_cycle modules_in_component_set support_dynamics
mod_ident dcl_common def_macro_indices def_funtypes mod_index expl_imp_info modules icl_functions macro_defs heaps cs
checkDclModule2 :: !NumberSet ![Int] !(IntKeyHashtable SolvedImports) !Int !Bool !LargeBitvect !Bool
!Ident *CommonDefs !IndexRange ![FunType] !Index !*ExplImpInfos !*{#DclModule} !*{#FunDef} !*{#*{#FunDef}} !*Heaps !*CheckState
-> (!(!Int,!Index,![FunType]), !(!*ExplImpInfos, !*{#DclModule}, !*{#FunDef},!*{#*{#FunDef}},!*Heaps, !*CheckState))
checkDclModule2 dcl_imported_module_numbers components_importing_module imports_ikh component_nr is_on_cycle modules_in_component_set tc_class_defined
mod_ident dcl_common dcl_macros dcl_funtypes mod_index expl_imp_info modules icl_functions macro_defs heaps cs
# (dcl_mod, modules) = modules![mod_index]
dcl_defined = dcl_mod.dcl_declared.dcls_local
cs = addGlobalDefinitionsToSymbolTable dcl_defined cs
(dcls_import_list, modules, cs)
= addImportedSymbolsToSymbolTable mod_index No modules_in_component_set imports_ikh modules cs
qualified_explicit_imports = (ikhSearch` mod_index imports_ikh).si_qualified_explicit
(modified_ste_kinds,symbol_table,modules)
= store_qualified_explicit_imports_in_symbol_table qualified_explicit_imports [] cs.cs_symbol_table modules
cs = {cs & cs_symbol_table=symbol_table}
dcls_import = { el \\ el<-dcls_import_list }
cs = { cs & cs_x.x_needed_modules = 0 }
nr_of_dcl_functions = size dcl_mod.dcl_functions
# (dictionary_info,dcl_common, modules, heaps, cs)
= checkCommonDefinitions No mod_index dcl_common modules heaps cs
# dcl_mod = {dcl_mod & dcl_dictionary_info=dictionary_info}
| not cs.cs_error.ea_ok
# cs_symbol_table = restore_module_ste_kinds_in_symbol_table modified_ste_kinds cs.cs_symbol_table
# cs_symbol_table = removeDeclarationsFromSymbolTable dcl_defined cModuleScope cs_symbol_table
# cs_symbol_table = foldlArraySt removeImportedSymbolsFromSymbolTable dcls_import cs_symbol_table
= ((0, 0, []), (expl_imp_info, modules, icl_functions, macro_defs, heaps, {cs & cs_symbol_table = cs_symbol_table}))
#!nr_of_members = count_members mod_index dcl_common.com_instance_defs dcl_common.com_class_defs modules
# nr_of_dcl_functions_and_instances = nr_of_dcl_functions+nr_of_members
(nr_of_dcl_funs_insts_and_specs, rev_function_list, rev_special_defs, com_type_defs, com_class_defs, modules, heaps, cs)
= checkDclFunctions mod_index nr_of_dcl_functions_and_instances dcl_funtypes
dcl_common.com_type_defs dcl_common.com_class_defs modules heaps cs
dcl_functions = { function \\ function <- reverse rev_function_list }
com_member_defs = dcl_common.com_member_defs
e_info = { ef_type_defs = com_type_defs, ef_selector_defs = dcl_common.com_selector_defs, ef_class_defs = com_class_defs,
ef_cons_defs = dcl_common.com_cons_defs, ef_member_defs = com_member_defs, ef_generic_defs = dcl_common.com_generic_defs,
ef_modules = modules, ef_macro_defs=macro_defs, ef_is_macro_fun = False }
(icl_functions, e_info=:{ef_modules=modules,ef_macro_defs=macro_defs}, heaps=:{hp_expression_heap}, cs)
= checkAndPartitionateDclMacros mod_index dcl_macros icl_functions e_info heaps cs
cs = check_needed_modules_are_imported mod_ident ".dcl" cs
com_instance_defs = dcl_common.com_instance_defs
(ef_member_defs, com_instance_defs, dcl_functions, cs)
= adjust_predefined_symbols mod_index e_info.ef_member_defs com_instance_defs dcl_functions cs
(modules, icl_functions, macro_defs, hp_expression_heap, cs)
= case is_on_cycle of
False
# {si_explicit,si_qualified_explicit} = ikhSearch` mod_index imports_ikh
-> checkExplicitImportCompleteness si_explicit si_qualified_explicit modules icl_functions macro_defs hp_expression_heap cs
True
-> (modules, icl_functions, macro_defs, hp_expression_heap, cs)
heaps = { heaps & hp_expression_heap = hp_expression_heap }
dcl_common = { dcl_common & com_type_defs = e_info.ef_type_defs, com_selector_defs = e_info.ef_selector_defs, com_class_defs = e_info.ef_class_defs,
com_instance_defs = com_instance_defs, com_cons_defs = e_info.ef_cons_defs, com_member_defs = e_info.ef_member_defs,
com_generic_defs = e_info.ef_generic_defs
}
(modules, expl_imp_info, cs_symbol_table)
= updateExplImpInfo components_importing_module mod_index dcls_import dcl_mod.dcl_declared.dcls_local_for_import modules expl_imp_info cs.cs_symbol_table
cs_symbol_table = restore_module_ste_kinds_in_symbol_table modified_ste_kinds cs_symbol_table
cs_symbol_table = removeDeclarationsFromSymbolTable dcl_defined cModuleScope cs_symbol_table
cs_symbol_table = foldlArraySt removeImportedSymbolsFromSymbolTable dcls_import cs_symbol_table
dcl_mod = { dcl_mod & dcl_declared = { dcl_mod.dcl_declared & dcls_import = dcls_import },
dcl_common = dcl_common, dcl_functions = dcl_functions,
dcl_instances = { ir_from = nr_of_dcl_functions, ir_to = nr_of_dcl_functions_and_instances },
dcl_specials = { ir_from = cUndef, ir_to = cUndef },
dcl_gencases = { ir_from = cUndef, ir_to = cUndef },
dcl_imported_module_numbers = dcl_imported_module_numbers}
= ((nr_of_dcl_functions_and_instances, nr_of_dcl_funs_insts_and_specs, rev_special_defs),
(expl_imp_info, { modules & [ mod_index ] = dcl_mod }, icl_functions, macro_defs, heaps, { cs & cs_symbol_table = cs_symbol_table }))
where
adjust_predefined_symbols mod_index class_members class_instances fun_types cs=:{cs_predef_symbols}
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_StdArray]
| pre_mod.pds_def == mod_index
# cs = { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjust_predef_symbols PD_CreateArrayFun PD_UnqArraySizeFun mod_index STE_Member
<=< adjustPredefSymbol PD_ArrayClass mod_index STE_Class
= (class_members, class_instances, fun_types, cs)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_PredefinedModule]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjustPredefSymbolAndCheckIndex PD_StringType mod_index PD_StringTypeIndex STE_Type
<=< adjust_predef_symbols PD_ListType PD_OverloadedListType mod_index STE_Type
<=< adjust_predef_symbols_and_check_indices PD_Arity2TupleType PD_Arity32TupleType PD_Arity2TupleTypeIndex mod_index STE_Type
<=< adjust_predef_symbols PD_LazyArrayType PD_UnboxedArrayType mod_index STE_Type
<=< adjust_predef_symbols PD_ConsSymbol PD_Arity32TupleSymbol mod_index STE_Constructor
<=< (if tc_class_defined (adjustPredefSymbol PD_TypeCodeClass mod_index STE_Class) (\x->x))
<=< (if tc_class_defined (adjustPredefSymbol PD_TypeCodeMember mod_index STE_Member) (\x->x))
<=< adjustPredefSymbol PD_DummyForStrictAliasFun mod_index STE_DclFunction)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_StdBool]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjustPredefSymbol PD_AndOp mod_index STE_DclFunction
<=< adjustPredefSymbol PD_OrOp mod_index STE_DclFunction)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_StdStrictLists]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjust_predef_symbols PD_cons PD_decons_uts mod_index STE_Member
<=< adjust_predef_symbols PD_nil PD_nil_uts mod_index STE_DclFunction
<=< adjust_predef_symbols PD_ListClass PD_UTSListClass mod_index STE_Class)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_StdDynamic]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjustPredefSymbol PD_Dyn_DynamicTemp mod_index STE_Type
<=< adjustPredefSymbol PD_Dyn_TypeCode mod_index STE_Type
<=< adjustPredefSymbol PD_Dyn_UnificationEnvironment mod_index STE_Type
<=< adjust_predef_symbols PD_Dyn_TypeScheme PD_Dyn__TypeFixedVar mod_index STE_Constructor
<=< adjust_predef_symbols PD_Dyn_initial_unification_environment PD_Dyn_normalise mod_index STE_DclFunction
<=< adjust_predef_symbols PD_Dyn_TypeCodeConstructorInt PD_Dyn_TypeCodeConstructor_UnboxedArray mod_index STE_DclFunction
<=< adjustPredefSymbol PD_Dyn__to_TypeCodeConstructor mod_index STE_DclFunction)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_StdGeneric]
# type_bimap = predefined_idents.[PD_TypeBimap]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjust_predef_symbols PD_TypeBimap PD_TypeGenericDict mod_index STE_Type
<=< adjustPredefSymbol PD_map_to mod_index (STE_Field type_bimap)
<=< adjustPredefSymbol PD_map_from mod_index (STE_Field type_bimap)
<=< adjust_predef_symbols PD_ConsBimap PD_CGenTypeApp mod_index STE_Constructor
<=< adjustPredefSymbol PD_GenericBimap mod_index STE_Generic
<=< adjustPredefSymbol PD_bimapId mod_index STE_DclFunction
)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_StdMisc]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjustPredefSymbol PD_abort mod_index STE_DclFunction
<=< adjustPredefSymbol PD_undef mod_index STE_DclFunction)
# (pre_mod, cs_predef_symbols) = cs_predef_symbols![PD_CleanTypes]
| pre_mod.pds_def == mod_index
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols}
<=< adjustPredefSymbol PD_CTTypeDef mod_index STE_Type
<=< adjustPredefSymbol PD_CTAlgType mod_index STE_Constructor
<=< adjustPredefSymbol PD_CTRecordType mod_index STE_Constructor
<=< adjustPredefSymbol PD_CTSynType mod_index STE_Constructor
<=< adjustPredefSymbol PD_CTPredefined mod_index STE_Constructor
<=< adjustPredefSymbol PD_CTConsDef mod_index STE_Type
<=< adjustPredefSymbol PD__CTToCons mod_index STE_DclFunction
<=< adjustPredefSymbol PD_CTFieldDef mod_index STE_Type )
= (class_members, class_instances, fun_types, { cs & cs_predef_symbols = cs_predef_symbols})
where
unused
= { id_name = "unused", id_info = nilPtr }
adjust_predef_symbols next_symb last_symb mod_index symb_kind cs
| next_symb > last_symb
= cs
= cs
<=< adjustPredefSymbol next_symb mod_index symb_kind
<=< adjust_predef_symbols (inc next_symb) last_symb mod_index symb_kind
adjust_predef_symbols_and_check_indices next_symb last_symb type_index mod_index symb_kind cs
| next_symb > last_symb
= cs
= cs
<=< adjustPredefSymbolAndCheckIndex next_symb mod_index type_index symb_kind
<=< adjust_predef_symbols_and_check_indices (inc next_symb) last_symb (inc type_index) mod_index symb_kind
count_members :: !Index !{# ClassInstance} !{# ClassDef} !{# DclModule} -> Int
count_members mod_index com_instance_defs com_class_defs modules
# (sum, _, _)
= foldlArraySt (count_members_of_instance mod_index) com_instance_defs (0, com_class_defs, modules)
= sum
count_members_of_instance mod_index {ins_class} (sum, com_class_defs, modules)
# ({class_members}, com_class_defs, modules)
= getClassDef ins_class mod_index com_class_defs modules
= (size class_members + sum, com_class_defs, modules)
adjustPredefSymbol predef_index mod_index symb_kind cs=:{cs_symbol_table,cs_error}
# pre_id = predefined_idents.[predef_index]
#! pre_index = determine_index_of_symbol (sreadPtr pre_id.id_info cs_symbol_table) symb_kind
| pre_index <> NoIndex
= { cs & cs_predef_symbols.[predef_index] = { pds_def = pre_index, pds_module = mod_index }}
//---> ("predef_index", predef_index, size predefined_idents)
= { cs & cs_error = checkError pre_id " function not defined" cs_error }
where
determine_index_of_symbol {ste_kind, ste_index} symb_kind
| ste_kind == symb_kind
= ste_index
= NoIndex
adjustPredefSymbolAndCheckIndex predef_index mod_index symbol_index symb_kind cs=:{cs_symbol_table,cs_error}
# pre_id = predefined_idents.[predef_index]
#! pre_index = determine_index_of_symbol (sreadPtr pre_id.id_info cs_symbol_table) symb_kind
| pre_index == symbol_index
= { cs & cs_predef_symbols.[predef_index] = { pds_def = pre_index, pds_module = mod_index }}
= { cs & cs_error = checkError pre_id " function not defined or wrong index in predef" cs_error }
where
determine_index_of_symbol {ste_kind, ste_index} symb_kind
| ste_kind == symb_kind
= ste_index
= NoIndex
NewEntry symbol_table symb_ptr def_kind def_index level previous :==
symbol_table <:= (symb_ptr,{ ste_kind = def_kind, ste_index = def_index, ste_def_level = level, ste_previous = previous })
instance <<< AuxiliaryPattern
where
(<<<) file (AP_Algebraic symbol index patterns var)
= file <<< symbol <<< ' ' <<< patterns
(<<<) file (AP_Variable ident var_ptr var)
= file <<< ident
(<<<) file (AP_Basic val var)
= file <<< val
(<<<) file (AP_Constant kind symbol prio)
= file <<< symbol
(<<<) file (AP_WildCard _)
= file <<< '_'
(<<<) file AP_Empty
= file <<< "<?>"
instance <<< Priority
where
(<<<) file (Prio ass prio) = file <<< "##" <<< prio <<< ass <<< "##"
(<<<) file NoPrio = file <<< "#"
instance <<< Assoc
where
(<<<) file LeftAssoc = file <<< 'L'
(<<<) file RightAssoc = file <<< 'R'
(<<<) file _ = file
instance <<< DefinedSymbol
where
(<<<) file { ds_index, ds_ident } = file <<< ds_ident <<< '.' <<< ds_index
instance <<< Declarations
where
// (<<<) file { dcls_import, dcls_local } = file <<< "I:" <<< dcls_import <<< "L:" <<< dcls_local
(<<<) file { dcls_import, dcls_local } = file <<< "I:" <<< /*dcls_import <<< */ "L:" <<< dcls_local
instance <<< Specials
where
(<<<) file (SP_ParsedSubstitutions _) = file <<< "SP_ParsedSubstitutions"
(<<<) file (SP_Substitutions substs) = file <<< "SP_Substitutions " <<< substs
(<<<) file (SP_ContextTypes specials) = file <<< "SP_ContextTypes " <<< specials
(<<<) file (SP_FunIndex _) = file <<< "SP_ParsedSubstitutions"
(<<<) file SP_None = file <<< "SP_None"
instance <<< Special
where
(<<<) file {spec_types} = file <<< spec_types
instance <<< SpecialSubstitution
where
(<<<) file {ss_environ} = file <<< ss_environ
instance <<< (Ptr a)
where
(<<<) file ptr = file <<< "[[" <<< ptrToInt ptr <<< "]]"
:: NodeNr :== Int
:: ComponentNr :== Int
:: NodesToComponents :== {#ComponentNr} // mapping from node numbers to component numbers
getComponentNumbers :: ![[NodeNr]] !Int -> (!Int, !.{#ComponentNr})
getComponentNumbers components nr_of_nodes
# nodes_to_components
= createArray nr_of_nodes cUndef
= foldSt get_component_numbers components (0, nodes_to_components)
where
get_component_numbers component (component_nr, nodes_to_components)
= ( component_nr+1
, foldSt (\node_nr nodes_to_components -> { nodes_to_components & [node_nr] = component_nr })
component nodes_to_components
)
reverseDAG :: !DAG -> {![NodeNr]}
reverseDAG { dag_nr_of_nodes, dag_get_children }
# reversed_children
= createArray dag_nr_of_nodes []
= iFoldSt reverse_arrows_of_node 0 dag_nr_of_nodes reversed_children
where
reverse_arrows_of_node parent_node_nr reversed_children
# children
= dag_get_children parent_node_nr
= foldSt (reverse_arrow parent_node_nr) children reversed_children
reverse_arrow parent_node_nr child_node_nr reversed_children
# (current_parents, reversed_children)
= reversed_children![child_node_nr]
= { reversed_children & [child_node_nr] = [parent_node_nr : current_parents] }
groupify :: !DAG !{#ComponentNr} !Int -> .{![ComponentNr]}
groupify { dag_nr_of_nodes, dag_get_children } component_numbers nr_of_components
# visited_array
= createArray nr_of_components False
node_to_components
= createArray dag_nr_of_nodes []
= snd (iFoldSt (groupifyPerNode component_numbers) 0 dag_nr_of_nodes (visited_array, node_to_components))
where
groupifyPerNode component_numbers node_nr (visited_array, node_to_components)
// all i: not visited.[i]
# children
= dag_get_children node_nr
(visited_array, visited_list, node_to_components)
= foldSt (groupifyPerArrow component_numbers node_nr) children (visited_array, [], node_to_components)
visited_array
= foldSt (\i visited_array->{ visited_array & [i] = False }) visited_list visited_array
= (visited_array, node_to_components)
groupifyPerArrow :: !{#ComponentNr} !Int !Int !(!*{#Bool}, ![Int], !*{![ComponentNr]})
-> (!.{#Bool}, ![Int], !.{![ComponentNr]})
groupifyPerArrow component_numbers node_nr child_node_nr (visited_array, visited_list, node_to_components)
# child_component_number
= component_numbers.[child_node_nr]
| visited_array.[child_component_number] || child_component_number==component_numbers.[node_nr]
= (visited_array, visited_list, node_to_components)
# (current_components, node_to_components)
= node_to_components![node_nr]
= ({ visited_array & [child_component_number] = True }, [child_component_number : visited_list],
{ node_to_components & [node_nr] = [child_component_number:current_components] })
