Files
mercury/compiler/context.m
Zoltan Somogyi 6df9a05856 This diff cleans up a bunch of modules. It has no algorithmic changes
Estimated hours taken: 10
Branches: main

This diff cleans up a bunch of modules. It has no algorithmic changes
other than in the formatting of error messages.

compiler/error_util.m:
	Delete the obsolete predicate append_punctuation, since the suffix
	format component can now do more, and do it more easily.

compiler/goal_util.m:
compiler/hlds_goal.m:
compiler/hlds_llds.m:
compiler/instmap.m:
compiler/const_prop.m:
	Change the argument order of some the predicates exported by these
	modules to make them easier to use with state variable syntax.

compiler/*.m:
	Convert a bunch of these modules to four space indentation, and fix
	departures from our coding style.

	Conform to the changed argument order above.

	Use suffixes instead of append_punctuation.

library/string.m:
	Add string.foldl2.

tests/invalid/circ_*.err_exp:
tests/warnings/unused_args_*.exp:
	Expect the updated error messages, which format sym_names consistently
	the same way as other messages.
2005-08-30 04:12:17 +00:00

609 lines
23 KiB
Mathematica

%-----------------------------------------------------------------------------%
% Copyright (C) 1998-2000, 2003-2005 The University of Melbourne.
% This file may only be copied under the terms of the GNU General
% Public License - see the file COPYING in the Mercury distribution.
%-----------------------------------------------------------------------------%
% File: context.m
% Main author: stayl
%
% Magic context transformation, used to transform queries for evaluation
% by the Aditi deductive database. This is an alternative to the supplementary
% magic set transformation implemented by magic.m - the two transformations
% are mutually exclusive.
%
% The transformation applies to predicates which are not mutually recursive
% and which are made up only of exit rules and linear recursive rules,
% e.g. ancestor.
%
% The special property of these predicates is that the magic predicate
% contains all the answers, so we if add some plumbing to pair the
% magic tuple with the input tuple from which it was derived, we get the
% set of answers to the query.
%
% We should do some preprocessing on the goal to attempt to put it
% into a form which is recognizable as linear. Also, some transformations
% (e.g. deforestation) can take linear rules and make them non-linear.
%
% See David Kemp's PhD thesis (available from http://www.cs.mu.oz.au/~kemp).
%-----------------------------------------------------------------------------%
:- module aditi_backend__context.
:- interface.
:- import_module aditi_backend__magic_util.
:- import_module hlds__hlds_goal.
:- import_module hlds__hlds_pred.
:- import_module parse_tree__prog_data.
:- import_module list.
% context__process_disjuncts(OrigPredProcId, Inputs, Outputs,
% Disjuncts0, Disjuncts).
%
% OrigPredProcId is the pred_proc_id from the original program
% before the preprocessing pass. Inputs and Outputs are the
% original inputs and outputs of the procedure, not including
% the input closures added in the preprocessing pass.
:- pred context__process_disjuncts(pred_proc_id::in, list(prog_var)::in,
list(prog_var)::in, list(hlds_goal)::in, list(hlds_goal)::out,
magic_info::in, magic_info::out) is det.
%-----------------------------------------------------------------------------%
:- implementation.
:- import_module hlds__goal_util.
:- import_module hlds__hlds_data.
:- import_module hlds__hlds_module.
:- import_module hlds__instmap.
:- import_module mdbcomp__prim_data.
:- import_module assoc_list.
:- import_module bool.
:- import_module map.
:- import_module require.
:- import_module set.
:- import_module std_util.
:- import_module term.
:- import_module varset.
context__process_disjuncts(OldPredProcId, Inputs, Outputs,
Disjuncts0, Disjuncts) -->
list__map_foldl(
context__categorize_rule(OldPredProcId, Inputs, Outputs),
Disjuncts0, ContextRules),
context__transform_rules(OldPredProcId, ContextRules,
Inputs, Outputs, [], Disjuncts).
%-----------------------------------------------------------------------------%
:- pred context__categorize_rule(pred_proc_id::in, list(prog_var)::in,
list(prog_var)::in, hlds_goal::in,
pair(context_rule, hlds_goal_info)::out,
magic_info::in, magic_info::out) is det.
context__categorize_rule(OldPredProcId, InputArgs, OutputArgs, Goal,
ContextRule - GoalInfo) -->
{ goal_to_conj_list(Goal, GoalList) },
magic_info_get_module_info(ModuleInfo),
{ Goal = _ - GoalInfo },
{ goal_info_get_context(GoalInfo, Context) },
magic_info_get_pred_map(PredMap),
{ context__get_db_calls(ModuleInfo, PredMap, GoalList,
[], [], CallList, AfterGoals) },
{ context__categorize_call_list(Context, OldPredProcId, InputArgs,
OutputArgs, CallList, AfterGoals, ContextRule) }.
%-----------------------------------------------------------------------------%
:- pred context__get_db_calls(module_info::in, magic_map::in,
list(hlds_goal)::in, list(hlds_goal)::in, db_call_list::in,
db_call_list::out, list(hlds_goal)::out) is det.
context__get_db_calls(_, _, [], RevGoals, Calls0, Calls, AfterGoals) :-
list__reverse(Calls0, Calls),
list__reverse(RevGoals, AfterGoals).
context__get_db_calls(ModuleInfo, MagicMap, [Goal | Goals],
RevBeforeGoals, Calls0, Calls, AfterGoals) :-
(
magic_util__goal_is_aditi_call(ModuleInfo, MagicMap,
Goal, Call, AfterCallGoals)
->
list__reverse(RevBeforeGoals, BeforeGoals),
Calls1 = [BeforeGoals - Call | Calls0],
list__reverse(AfterCallGoals, RevAfterCallGoals),
context__get_db_calls(ModuleInfo, MagicMap, Goals,
RevAfterCallGoals, Calls1, Calls, AfterGoals)
;
context__get_db_calls(ModuleInfo, MagicMap, Goals,
[Goal | RevBeforeGoals], Calls0, Calls, AfterGoals)
).
%-----------------------------------------------------------------------------%
%-----------------------------------------------------------------------------%
:- type context_rule
---> non_linear(assoc_list(linearity_error, prog_context))
; exit(db_call_list, list(hlds_goal))
; left_linear(db_call, db_call_list, list(hlds_goal))
; right_linear(db_call_list, list(hlds_goal), db_call)
; multi_linear(db_call_list, list(hlds_goal), db_call)
.
% Non-recursive goals, recursive call.
:- type db_call_list == assoc_list(list(hlds_goal), db_call).
:- pred context__categorize_call_list(term__context::in, pred_proc_id::in,
list(prog_var)::in, list(prog_var)::in, db_call_list::in,
list(hlds_goal)::in, context_rule::out) is det.
context__categorize_call_list(Context, PredProcId, InputArgs, OutputArgs,
Calls, AfterGoals, Result) :-
(
\+ (
list__member(_ - Call, Calls),
magic_util__db_call_pred_proc_id(Call, PredProcId)
)
->
Result = exit(Calls, AfterGoals)
;
context__check_left_linear_rule(PredProcId, InputArgs,
OutputArgs, Calls, AfterGoals, LeftResult),
% If context__check_left_linear_rule came up with reasons
% for the rule not being left-linear, it couldn't be
% right- or multi-linear.
( LeftResult = non_linear([]) ->
context__check_right_or_multi_linear_rule(Context,
PredProcId, InputArgs, OutputArgs, Calls,
AfterGoals, Result)
;
Result = LeftResult
)
).
%-----------------------------------------------------------------------------%
:- pred context__check_left_linear_rule(pred_proc_id::in, list(prog_var)::in,
list(prog_var)::in, db_call_list::in,
list(hlds_goal)::in, context_rule::out) is det.
context__check_left_linear_rule(PredProcId, InputArgs,
_OutputArgs, Calls, AfterGoals, LeftResult) :-
(
% Check whether the rule is left-linear.
Calls = [[] - Call | OtherCalls],
magic_util__db_call_pred_proc_id(Call, PredProcId),
\+ (
list__member(_ - OtherCall, OtherCalls),
magic_util__db_call_pred_proc_id(OtherCall, PredProcId)
)
->
magic_util__db_call_input_args(Call, CallInputs),
% The inputs to the recursive call must be the
% inputs to the procedure.
( CallInputs = InputArgs ->
Errors0 = []
;
magic_util__db_call_context(Call, Context),
Errors0 = [inputs_to_recursive_call - Context]
),
% None of the inputs may occur in the other goals in the rule.
set__list_to_set(InputArgs, InputSet),
list__foldl(context__check_db_call_nonlocals(InputSet),
OtherCalls, Errors0, Errors),
( Errors = [] ->
LeftResult = left_linear(Call, OtherCalls, AfterGoals)
;
LeftResult = non_linear(Errors)
)
;
LeftResult = non_linear([])
).
%-----------------------------------------------------------------------------%
:- pred context__check_right_or_multi_linear_rule(prog_context::in,
pred_proc_id::in, list(prog_var)::in, list(prog_var)::in,
db_call_list::in, list(hlds_goal)::in, context_rule::out) is det.
context__check_right_or_multi_linear_rule(RuleContext, PredProcId, InputArgs,
OutputArgs, Calls, AfterGoals, Result) :-
(
AfterGoals = [],
list__reverse(Calls, RevCalls),
RevCalls = [NonRecGoals - Call | OtherRevCalls]
->
% The outputs of the last call must be the outputs of
% the procedure.
magic_util__db_call_output_args(Call, Outputs),
( Outputs = OutputArgs ->
Errors0 = []
;
magic_util__db_call_context(Call, Context),
Errors0 = [outputs_of_recursive_call - Context]
),
list__reverse(OtherRevCalls, OtherCalls),
(
\+ (
list__member(_ - OtherCall, OtherCalls),
magic_util__db_call_pred_proc_id(OtherCall,
PredProcId)
)
->
% The rule is right linear.
( Errors0 = [] ->
Result = right_linear(OtherCalls,
NonRecGoals, Call)
;
Result = non_linear(Errors0)
)
;
context__check_multi_calls(PredProcId, InputArgs,
OtherCalls, Errors0, Errors),
( Errors = [] ->
Result = multi_linear(OtherCalls,
NonRecGoals, Call)
;
Result = non_linear(Errors)
)
)
;
Result = non_linear([end_goals_not_recursive - RuleContext])
).
:- pred context__check_multi_calls(pred_proc_id::in, list(prog_var)::in,
db_call_list::in, assoc_list(linearity_error, prog_context)::in,
assoc_list(linearity_error, prog_context)::out) is det.
context__check_multi_calls(_, _, [], Errors, Errors).
context__check_multi_calls(PredProcId, InputArgs, [BeforeGoals - Call | Calls],
Errors0, Errors) :-
set__list_to_set(InputArgs, InputSet),
( magic_util__db_call_pred_proc_id(Call, PredProcId) ->
magic_util__db_call_input_args(Call, Inputs),
( Inputs = InputArgs ->
Errors1 = Errors0
;
magic_util__db_call_context(Call, Context),
Errors1 = [inputs_to_recursive_call - Context
| Errors0]
)
;
magic_util__db_call_nonlocals(Call, NonLocals),
magic_util__db_call_context(Call, Context),
context__check_nonlocals(Context, InputSet, NonLocals,
Errors0, Errors1)
),
list__foldl(context__check_goal_nonlocals(InputSet), BeforeGoals,
Errors1, Errors2),
context__check_multi_calls(PredProcId, InputArgs, Calls,
Errors2, Errors).
%-----------------------------------------------------------------------------%
:- pred context__check_db_call_nonlocals(set(prog_var)::in,
pair(list(hlds_goal), db_call)::in,
assoc_list(linearity_error, prog_context)::in,
assoc_list(linearity_error, prog_context)::out) is det.
context__check_db_call_nonlocals(Inputs, BeforeGoals - Call,
Errors0, Errors) :-
magic_util__db_call_nonlocals(Call, NonLocals),
magic_util__db_call_context(Call, Context),
context__check_nonlocals(Context, Inputs, NonLocals, Errors0, Errors1),
list__foldl(context__check_goal_nonlocals(Inputs), BeforeGoals,
Errors1, Errors).
:- pred context__check_goal_nonlocals(set(prog_var)::in, hlds_goal::in,
assoc_list(linearity_error, prog_context)::in,
assoc_list(linearity_error, prog_context)::out) is det.
context__check_goal_nonlocals(Inputs, _ - GoalInfo, Errors0, Errors) :-
goal_info_get_nonlocals(GoalInfo, NonLocals),
goal_info_get_context(GoalInfo, Context),
context__check_nonlocals(Context, Inputs, NonLocals, Errors0, Errors).
:- pred context__check_nonlocals(term__context::in, set(prog_var)::in,
set(prog_var)::in, assoc_list(linearity_error, prog_context)::in,
assoc_list(linearity_error, prog_context)::out) is det.
context__check_nonlocals(Context, Inputs, NonLocals, Errors0, Errors) :-
set__intersect(Inputs, NonLocals, Intersection),
( set__empty(Intersection) ->
Errors = Errors0
;
Errors = [inputs_occur_in_other_goals - Context | Errors0]
).
%-----------------------------------------------------------------------------%
%-----------------------------------------------------------------------------%
:- pred context__transform_rules(pred_proc_id::in,
assoc_list(context_rule, hlds_goal_info)::in,
list(prog_var)::in, list(prog_var)::in, list(hlds_goal)::in,
list(hlds_goal)::out, magic_info::in, magic_info::out) is det.
context__transform_rules(_, [], _, _, RevGoals, Goals) -->
{ list__reverse(RevGoals, Goals) }.
context__transform_rules(OldPredProcId, [Rule | Rules], Inputs, Outputs,
Disjuncts0, Disjuncts) -->
context__transform_rule(OldPredProcId, Rule,
Inputs, Outputs, Disjuncts0, Disjuncts1),
context__transform_rules(OldPredProcId, Rules, Inputs, Outputs,
Disjuncts1, Disjuncts).
:- pred context__transform_rule(pred_proc_id::in,
pair(context_rule, hlds_goal_info)::in,
list(prog_var)::in, list(prog_var)::in, list(hlds_goal)::in,
list(hlds_goal)::out, magic_info::in, magic_info::out) is det.
context__transform_rule(PredProcId, exit(CallList0, AfterGoals0) - GoalInfo,
Inputs, Outputs, Disjuncts0, [Disjunct | Disjuncts0]) -->
context__create_magic_call(MagicCall, yes, Subn, _),
{ context__rename_vars_in_call_list(CallList0,
Subn, CallList) },
{ goal_util__rename_vars_in_goals(no, Subn, AfterGoals0, AfterGoals) },
magic_info_get_magic_vars(Vars),
{ list__condense([Vars, Inputs, Outputs], NonLocals0) },
{ set__list_to_set(NonLocals0, NonLocals) },
{ list__reverse(CallList, RevCallList) },
context__factor_goal_list(PredProcId, MagicCall, RevCallList,
NonLocals, FactoredGoal),
{ list__append(FactoredGoal, AfterGoals, GoalList) },
{ conj_list_to_goal(GoalList, GoalInfo, Disjunct) }.
context__transform_rule(_, non_linear(Errors) - _, _, _,
Disjuncts, Disjuncts) -->
list__foldl(context__add_linearity_error, Errors).
context__transform_rule(PredProcId,
left_linear(Call, CallList, AfterGoals) - GoalInfo,
Inputs, Outputs, Disjuncts0, [Disjunct | Disjuncts0]) -->
% For a left-linear rule, just factor the rule into
% a form that rl_gen.m can handle.
{ Call = db_call(_, _ - RecGoalInfo, _, Args0, _, _, _) },
magic_info_get_magic_vars(MagicVars),
{ list__append(MagicVars, Args0, Args) },
magic_info_get_pred_info(PredInfo),
{ PredModule = pred_info_module(PredInfo) },
{ PredName = pred_info_name(PredInfo) },
magic_info_get_curr_pred_proc_id(proc(PredId, ProcId)),
{ CallGoal = call(PredId, ProcId, Args, not_builtin, no,
qualified(PredModule, PredName)) - RecGoalInfo },
magic_info_get_magic_vars(Vars),
{ list__condense([Vars, Inputs, Outputs], NonLocals0) },
{ set__list_to_set(NonLocals0, NonLocals) },
{ list__reverse(CallList, RevCallList) },
context__factor_goal_list(PredProcId, CallGoal, RevCallList,
NonLocals, FactoredGoal),
{ list__append(FactoredGoal, AfterGoals, GoalList) },
{ conj_list_to_goal(GoalList, GoalInfo, Disjunct) }.
context__transform_rule(PredProcId, right_linear(CallList, Goals, Call) - _,
Inputs, Outputs, Disjuncts, Disjuncts) -->
context__create_magic_call(MagicCall, no, _, MagicInputArgs),
{ magic_util__db_call_nonlocals(Call, CallNonLocals) },
{ goal_list_nonlocals(Goals, GoalNonLocals) },
magic_info_get_magic_vars(Vars),
{ list__condense([Vars, Inputs, Outputs], NonLocals) },
{ set__insert_list(CallNonLocals, NonLocals, NonLocals1) },
{ set__insert_list(NonLocals1, MagicInputArgs, NonLocals2) },
{ set__union(NonLocals2, GoalNonLocals, NonLocals3) },
magic_util__restrict_nonlocals(NonLocals3, AllNonLocals),
% Put the goal into a form that rl_gen.m can handle.
context__factor_goal_list(PredProcId, MagicCall, CallList,
AllNonLocals, FactoredGoal),
% Add the rule to the context magic predicate.
{ magic_util__db_call_input_args(Call, CallInputs) },
{ list__append(MagicInputArgs, CallInputs, MagicArgs) },
magic_info_get_curr_pred_proc_id(PredProcId1),
{ list__append(FactoredGoal, Goals, AllGoals) },
{ goal_list_instmap_delta(AllGoals, Delta) },
{ goal_list_determinism(AllGoals, Det) },
{ goal_info_init(AllNonLocals, Delta, Det, pure, MagicRuleInfo) },
{ conj_list_to_goal(AllGoals, MagicRuleInfo, MagicGoal) },
magic_util__add_to_magic_predicate(PredProcId1, MagicGoal, MagicArgs).
context__transform_rule(PredProcId,
multi_linear(CallList0, Goals0, LastCall) - _GoalInfo,
Inputs, Outputs, Disjuncts, Disjuncts) -->
magic_info_get_magic_vars(Vars),
{ magic_util__db_call_nonlocals(LastCall, CallNonLocals) },
{ list__condense([Vars, Inputs, Outputs], NonLocals0) },
{ set__insert_list(CallNonLocals, NonLocals0, NonLocals1) },
magic_util__restrict_nonlocals(NonLocals1, NonLocals2),
% No call to the magic predicate is necessary, because the
% internal recursive calls produce the input.
% Pull the first recursive call to the front of the list.
% XXX this could introduce inefficiency because the
% constraints on the call are not taken as well.
{ context__get_first_recursive_call(PredProcId,
CallList0, [], CallList, FirstRecCall0, AfterGoals) },
{ list__append(Goals0, AfterGoals, Goals1) },
% Update the called pred_proc_id.
{ FirstRecCall0 = db_call(_, _ - RecGoalInfo, _, Args0, _, _, _) },
magic_info_get_pred_info(PredInfo),
{ PredModule = pred_info_module(PredInfo) },
{ PredName = pred_info_name(PredInfo) },
magic_info_get_curr_pred_proc_id(proc(PredId, ProcId)),
magic_info_get_magic_vars(MagicVars),
{ list__append(MagicVars, Args0, Args) },
{ RecGoal = call(PredId, ProcId, Args, not_builtin, no,
qualified(PredModule, PredName)) - RecGoalInfo },
{ list__reverse(CallList, RevCallList) },
context__factor_goal_list(PredProcId, RecGoal,
RevCallList, NonLocals2, FactoredGoal),
{ magic_util__db_call_input_args(FirstRecCall0, CallInputs) },
{ magic_util__db_call_input_args(LastCall, NewInputs) },
magic_info_get_magic_vars(InputRels),
{ list__condense([InputRels, CallInputs, NewInputs], MagicArgs) },
{ list__append(FactoredGoal, Goals1, AllGoals) },
{ goal_list_instmap_delta(AllGoals, Delta) },
{ goal_list_determinism(AllGoals, Det) },
{ goal_info_init(NonLocals2, Delta, Det, pure, MagicRuleInfo) },
{ conj_list_to_goal(AllGoals, MagicRuleInfo, MagicGoal) },
magic_info_get_curr_pred_proc_id(PredProcId1),
magic_util__add_to_magic_predicate(PredProcId1, MagicGoal, MagicArgs).
:- pred context__get_first_recursive_call(pred_proc_id::in, db_call_list::in,
db_call_list::in, db_call_list::out, db_call::out,
list(hlds_goal)::out) is det.
context__get_first_recursive_call(_, [], _, _, _, _) :-
error("context__get_first_recursive_call: no recursive call").
context__get_first_recursive_call(PredProcId,
[BeforeGoals1 - Call1 | CallList0],
RevCallList0, CallList, RecCall, Goals) :-
( magic_util__db_call_pred_proc_id(Call1, PredProcId) ->
RecCall = Call1,
( CallList0 = [BeforeGoals2 - Call2 | CallList1] ->
list__append(BeforeGoals1, BeforeGoals2, BeforeGoals),
CallList2 = [BeforeGoals - Call2 | CallList1],
list__reverse(RevCallList0, CallList3),
list__append(CallList3, CallList2, CallList),
Goals = []
;
list__reverse(RevCallList0, CallList),
Goals = BeforeGoals1
)
;
context__get_first_recursive_call(PredProcId, CallList0,
[BeforeGoals1 - Call1 | RevCallList0],
CallList, RecCall, Goals)
).
%
:- pred context__factor_goal_list(pred_proc_id::in, hlds_goal::in,
db_call_list::in, set(prog_var)::in, list(hlds_goal)::out,
magic_info::in, magic_info::out) is det.
context__factor_goal_list(_, FirstCall, [], _, [FirstCall]) --> [].
context__factor_goal_list(PredProcId, FirstCall,
[BeforeGoals - Call | CallList], NonLocals, SetupCall) -->
{ magic_util__db_call_nonlocals(Call, CallNonLocals) },
{ goal_list_nonlocals(BeforeGoals, GoalsNonLocals) },
{ set__union(NonLocals, CallNonLocals, NonLocals1) },
{ set__union(NonLocals1, GoalsNonLocals, NonLocals2) },
magic_util__restrict_nonlocals(NonLocals2, NonLocals3),
context__factor_goal_list(PredProcId, FirstCall, CallList,
NonLocals3, Goal1),
{ list__append(Goal1, BeforeGoals, InputGoals) },
( { magic_util__db_call_pred_proc_id(Call, PredProcId) } ->
%
% If the call is recursive, we must be processing
% a multi-linear rule. In that case, convert the
% inputs to outputs and create some test unifications.
% Due to the restrictions on interior calls in multi-linear
% rules, there can be no extra input to add to the magic
% predicate.
%
{ Call = db_call(_, _ - GoalInfo0, _, Args, InputArgs, _, _) },
magic_info_get_curr_pred_proc_id(proc(PredId, ProcId)),
magic_info_get_magic_proc_info(MagicProcInfo),
{ map__lookup(MagicProcInfo, proc(PredId, ProcId),
ThisProcInfo) },
{ ThisProcInfo = magic_proc_info(OldArgModes, _, _, _, _) },
magic_info_get_module_info(ModuleInfo0),
magic_info_get_proc_info(ProcInfo0),
{ magic_util__create_input_test_unifications(ModuleInfo0,
Args, InputArgs, OldArgModes, NewArgs, [], Tests,
GoalInfo0, GoalInfo1, ProcInfo0, ProcInfo) },
magic_info_set_proc_info(ProcInfo),
{ goal_info_get_nonlocals(GoalInfo1, GoalNonLocals1) },
magic_util__restrict_nonlocals(GoalNonLocals1, GoalNonLocals),
{ goal_info_set_nonlocals(GoalNonLocals, GoalInfo1,GoalInfo) },
magic_info_get_pred_info(PredInfo),
{ PredModule = pred_info_module(PredInfo) },
{ PredName = pred_info_name(PredInfo) },
magic_info_get_magic_vars(MagicVars),
{ list__append(MagicVars, NewArgs, AllArgs) },
{ RecGoal = call(PredId, ProcId, AllArgs, not_builtin, no,
qualified(PredModule, PredName)) - GoalInfo },
{ SetupCall = [RecGoal | Tests] }
;
% The call is non-recursive, do the usual thing to set it up.
magic_util__setup_call(InputGoals, Call, NonLocals, SetupCall)
).
:- pred context__create_magic_call(hlds_goal::out, bool::in,
map(prog_var, prog_var)::out, list(prog_var)::out,
magic_info::in, magic_info::out) is det.
context__create_magic_call(MagicCall, RenameInputs, Subn, MagicInputArgs) -->
magic_util__magic_call_info(MagicPredId, MagicProcId, PredName,
InputRels, InputArgs, MagicOutputModes),
magic_info_get_proc_info(ProcInfo0),
{ proc_info_vartypes(ProcInfo0, VarTypes0) },
{ map__apply_to_list(InputArgs, VarTypes0, InputTypes) },
{ proc_info_create_vars_from_types(InputTypes, NewInputArgs,
ProcInfo0, ProcInfo) },
magic_info_set_proc_info(ProcInfo),
( { RenameInputs = yes } ->
{ map__from_corresponding_lists(InputArgs,
NewInputArgs, Subn) },
{ list__append(InputRels, InputArgs, MagicInputArgs) },
{ list__append(MagicInputArgs, NewInputArgs, MagicArgs) },
{ list__append(InputArgs, NewInputArgs, AllInputArgs) }
;
{ map__init(Subn) },
{ list__append(InputRels, NewInputArgs, MagicInputArgs) },
{ list__append(MagicInputArgs, InputArgs, MagicArgs) },
{ list__append(NewInputArgs, InputArgs, AllInputArgs) }
),
{ set__list_to_set(MagicArgs, NonLocals) },
{ list__append(MagicOutputModes, MagicOutputModes, AllOutputModes) },
magic_info_get_module_info(ModuleInfo),
{ instmap_delta_from_mode_list(AllInputArgs, AllOutputModes,
ModuleInfo, InstMapDelta) },
{ goal_info_init(NonLocals, InstMapDelta, nondet, pure, GoalInfo) },
{ MagicCall = call(MagicPredId, MagicProcId, MagicArgs,
not_builtin, no, PredName) - GoalInfo }.
%-----------------------------------------------------------------------------%
:- pred context__rename_vars_in_call_list(db_call_list::in,
map(prog_var, prog_var)::in, db_call_list::out) is det.
context__rename_vars_in_call_list([], _, []).
context__rename_vars_in_call_list([Goals0 - Call0 | Calls0],
Subn, [Goals - Call | Calls]) :-
goal_util__rename_vars_in_goals(no, Subn, Goals0, Goals),
magic_util__rename_vars_in_db_call(Call0, Subn, Call),
context__rename_vars_in_call_list(Calls0, Subn, Calls).
%-----------------------------------------------------------------------------%
:- pred context__add_linearity_error(pair(linearity_error, prog_context)::in,
magic_info::in, magic_info::out) is det.
context__add_linearity_error(Error - Context) -->
magic_info_get_curr_pred_proc_id(PredProcId),
magic_info_get_errors(Errors0),
{ set__insert(Errors0, context_error(Error, PredProcId) - Context,
Errors) },
magic_info_set_errors(Errors).
%-----------------------------------------------------------------------------%
%-----------------------------------------------------------------------------%