ruleml_assert_items(Items),
!,
list_ws("</Assert>")
- ; partial_string("<Assert mapClosure=\"universal\">"),
+ ; "<Assert mapClosure=\"universal\">",
{ Items \== [] },
ruleml_assert_items(Items),
!,
- partial_string("</Assert>")
+ "</Assert>"
).
; { true }
),
list_ws("</Query>")
- ; partial_string("<Query closure=\"existential\">"),
+ ; "<Query closure=\"existential\">",
{ Item = (?- Item0) },
ruleml_condition(Item0),
- partial_string("</Query>")
+ "</Query>"
).
{ Items = (true, true) }
),
list_ws("</And>")
- ; partial_string("<And>"),
+ ; "<And>",
( { Items = (true, true) } ->
{ true }
; { Items = (true, Item0) } ->
{ unfold_commas(Items, ItemsList) },
ruleml_item_conjunction(ItemsList)
),
- partial_string("</And>")
+ "</And>"
).
/*
{ Items = (false ; false) }
),
list_ws("</Or>")
- ; partial_string("<Or>"),
+ ; "<Or>",
( { Items = (false ; false) } ->
{ true }
; { Items = (false ; Item0) } ->
{ unfold_semicolons(Items, ItemsList) },
ruleml_item_disjunction(ItemsList)
),
- partial_string("</Or>")
+ "</Or>"
).
acyclic_term(Plex) },
( { functor(Plex, ('.'), 2) } ->
{ split_plex(Plex, PlexItems, RepoVar) },
- partial_string("<Plex>"),
+ "<Plex>",
ruleml_items(PlexItems),
( { RepoVar \== [] } ->
- partial_string("<repo>"),
+ "<repo>",
ruleml_var(RepoVar),
- partial_string("</repo>")
+ "</repo>"
; { true }
),
- partial_string("</Plex>")
+ "</Plex>"
; { Plex == [] } ->
- partial_string("<Plex/>")
+ "<Plex/>"
)
).
ruleml_condition(NafItem),
{ Item = (\+ NafItem) },
list_ws("</Naf>")
- ; partial_string("<Naf>"),
+ ; "<Naf>",
{ Item = (\+ NafItem) },
ruleml_condition(NafItem),
- partial_string("</Naf>")
+ "</Naf>"
).
{ Item =.. [Name | Args] }
; { Item =.. [Name | Args] },
{ Name \== (','), Name \== (';') },
- partial_string("<Atom>"),
- partial_string("<Rel>"),
+ "<Atom>",
+ "<Rel>",
prolog_symbol(Name),
- partial_string("</Rel>"),
+ "</Rel>",
ruleml_items(Args),
- partial_string("</Atom>")
+ "</Atom>"
).
/*
),
list_ws("</Expr>")
; { Item =.. [Name | Args] },
- partial_string("<Expr>"),
- partial_string("<Fun>"),
+ "<Expr>",
+ "<Fun>",
prolog_symbol(Name),
- partial_string("</Fun>"),
+ "</Fun>",
( { Args = [(InnerArgs | RepoItem)] } ->
{ InnerArgs = (_,_) -> unfold_commas(InnerArgs, InnerArgsList)
; InnerArgsList = [InnerArgs] },
ruleml_items(InnerArgsList),
- partial_string("<repo>"),
+ "<repo>",
ruleml_item(RepoItem),
- partial_string("</repo>")
+ "</repo>"
; ruleml_items(Args)
),
- partial_string("</Expr>")
+ "</Expr>"
).
list_ws("</Ind>"),
{ atom_chars(Name, Cs) }
; { atom(Name) },
- partial_string("<Ind>"),
+ "<Ind>",
{ atom_chars(Name, Cs) },
ruleml_ind_helper(Cs),
- partial_string("</Ind>")
+ "</Ind>"
).
{ Var = '$V'(VarName) },
list_ws("</Var>")
; { Var = '$V'(VarName) },
- partial_string("<Var>"),
+ "<Var>",
{ atom_chars(VarName, VarChars) },
ruleml_var_contents(VarChars),
- partial_string("</Var>")
+ "</Var>"
).
ruleml_data_contents(Type, Cs),
{ constant_chars(Type, Name, Cs) },
list_ws("</Data>")
- ; partial_string("<Data xsi:type=\""),
+ ; "<Data xsi:type=\"",
{ constant_chars(Type, Name, Cs) },
prolog_symbol(Type),
- partial_string("\">"),
+ "\">",
ruleml_data_contents(Type, Cs),
- partial_string("</Data>")
+ "</Data>"
).
/*
list_ws("</Implies>"),
{ Rule = ( Head :- Body ) }
; { Rule = ( Head :- Body ) },
- partial_string("<Implies>"),
- partial_string("<then>"),
+ "<Implies>",
+ "<then>",
ruleml_implies_head(Head),
- partial_string("</then>"),
- partial_string("<if>"),
+ "</then>",
+ "<if>",
ruleml_condition(Body),
- partial_string("</if>"),
- partial_string("</Implies>")
+ "</if>",
+ "</Implies>"
).
list_ws("</Equal>"),
{ Equal = (Left = Right) }
; { Equal = (Left = Right) },
- partial_string("<Equal>"),
+ "<Equal>",
ruleml_equal_item(Left),
ruleml_equal_item(Right),
- partial_string("</Equal>")
+ "</Equal>"
).