/* PSPP - a program for statistical analysis.
- Copyright (C) 1997-9, 2000, 2006 Free Software Foundation, Inc.
+ Copyright (C) 1997-9, 2000, 2006, 2010 Free Software Foundation, Inc.
This program is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
{
/* Convert numeric to boolean. */
if (do_coercion)
- *node = expr_allocate_unary (e, OP_NUM_TO_BOOLEAN, *node);
+ {
+ union any_node *op_name;
+
+ op_name = expr_allocate_string (e, ss_cstr (operator_name));
+ *node = expr_allocate_binary (e, OP_NUM_TO_BOOLEAN, *node,
+ op_name);
+ }
return true;
}
break;
}
if (op_count > 1 && chain_warning != NULL)
- msg (SW, chain_warning);
+ msg (SW, "%s", chain_warning);
return node;
}
parse_or (struct lexer *lexer, struct expression *e)
{
static const struct operator op =
- { T_OR, OP_OR, "logical disjunction (\"OR\")" };
+ { T_OR, OP_OR, "logical disjunction (`OR')" };
return parse_binary_operators (lexer, e, parse_and (lexer, e), &op, 1, parse_and, NULL);
}
parse_and (struct lexer *lexer, struct expression *e)
{
static const struct operator op =
- { T_AND, OP_AND, "logical conjunction (\"AND\")" };
+ { T_AND, OP_AND, "logical conjunction (`AND')" };
return parse_binary_operators (lexer, e, parse_not (lexer, e),
&op, 1, parse_not, NULL);
parse_not (struct lexer *lexer, struct expression *e)
{
static const struct operator op
- = { T_NOT, OP_NOT, "logical negation (\"NOT\")" };
+ = { T_NOT, OP_NOT, "logical negation (`NOT')" };
return parse_inverting_unary_operator (lexer, e, &op, parse_rel);
}
parse_rel (struct lexer *lexer, struct expression *e)
{
const char *chain_warning =
- _("Chaining relational operators (e.g. \"a < b < c\") will "
+ _("Chaining relational operators (e.g. `a < b < c') will "
"not produce the mathematically expected result. "
"Use the AND logical operator to fix the problem "
- "(e.g. \"a < b AND b < c\"). "
+ "(e.g. `a < b AND b < c'). "
"If chaining is really intended, parentheses will disable "
- "this warning (e.g. \"(a < b) < c\".)");
+ "this warning (e.g. `(a < b) < c'.)");
union any_node *node = parse_add (lexer, e);
{
static const struct operator ops[] =
{
- { '=', OP_EQ, "numeric equality (\"=\")" },
- { T_EQ, OP_EQ, "numeric equality (\"EQ\")" },
- { T_GE, OP_GE, "numeric greater-than-or-equal-to (\">=\")" },
- { T_GT, OP_GT, "numeric greater than (\">\")" },
- { T_LE, OP_LE, "numeric less-than-or-equal-to (\"<=\")" },
- { T_LT, OP_LT, "numeric less than (\"<\")" },
- { T_NE, OP_NE, "numeric inequality (\"<>\")" },
+ { '=', OP_EQ, "numeric equality (`=')" },
+ { T_EQ, OP_EQ, "numeric equality (`EQ')" },
+ { T_GE, OP_GE, "numeric greater-than-or-equal-to (`>=')" },
+ { T_GT, OP_GT, "numeric greater than (`>')" },
+ { T_LE, OP_LE, "numeric less-than-or-equal-to (`<=')" },
+ { T_LT, OP_LT, "numeric less than (`<')" },
+ { T_NE, OP_NE, "numeric inequality (`<>')" },
};
return parse_binary_operators (lexer, e, node, ops,
{
static const struct operator ops[] =
{
- { '=', OP_EQ_STRING, "string equality (\"=\")" },
- { T_EQ, OP_EQ_STRING, "string equality (\"EQ\")" },
- { T_GE, OP_GE_STRING, "string greater-than-or-equal-to (\">=\")" },
- { T_GT, OP_GT_STRING, "string greater than (\">\")" },
- { T_LE, OP_LE_STRING, "string less-than-or-equal-to (\"<=\")" },
- { T_LT, OP_LT_STRING, "string less than (\"<\")" },
- { T_NE, OP_NE_STRING, "string inequality (\"<>\")" },
+ { '=', OP_EQ_STRING, "string equality (`=')" },
+ { T_EQ, OP_EQ_STRING, "string equality (`EQ')" },
+ { T_GE, OP_GE_STRING, "string greater-than-or-equal-to (`>=')" },
+ { T_GT, OP_GT_STRING, "string greater than (`>')" },
+ { T_LE, OP_LE_STRING, "string less-than-or-equal-to (`<=')" },
+ { T_LT, OP_LT_STRING, "string less than (`<')" },
+ { T_NE, OP_NE_STRING, "string inequality (`<>')" },
};
return parse_binary_operators (lexer, e, node, ops,
{
static const struct operator ops[] =
{
- { '+', OP_ADD, "addition (\"+\")" },
- { '-', OP_SUB, "subtraction (\"-\")" },
+ { '+', OP_ADD, "addition (`+')" },
+ { '-', OP_SUB, "subtraction (`-')" },
};
return parse_binary_operators (lexer, e, parse_mul (lexer, e),
{
static const struct operator ops[] =
{
- { '*', OP_MUL, "multiplication (\"*\")" },
- { '/', OP_DIV, "division (\"/\")" },
+ { '*', OP_MUL, "multiplication (`*')" },
+ { '/', OP_DIV, "division (`/')" },
};
return parse_binary_operators (lexer, e, parse_neg (lexer, e),
static union any_node *
parse_neg (struct lexer *lexer, struct expression *e)
{
- static const struct operator op = { '-', OP_NEG, "negation (\"-\")" };
+ static const struct operator op = { '-', OP_NEG, "negation (`-')" };
return parse_inverting_unary_operator (lexer, e, &op, parse_exp);
}
parse_exp (struct lexer *lexer, struct expression *e)
{
static const struct operator op =
- { T_EXP, OP_POW, "exponentiation (\"**\")" };
+ { T_EXP, OP_POW, "exponentiation (`**')" };
const char *chain_warning =
- _("The exponentiation operator (\"**\") is left-associative, "
+ _("The exponentiation operator (`**') is left-associative, "
"even though right-associative semantics are more useful. "
- "That is, \"a**b**c\" equals \"(a**b)**c\", not as \"a**(b**c)\". "
+ "That is, `a**b**c' equals `(a**b)**c', not as `a**(b**c)'. "
"To disable this warning, insert parentheses.");
return parse_binary_operators (lexer, e, parse_primary (lexer, e), &op, 1,
+ tm->tm_sec);
}
else if (lex_match_id (lexer, "$LENGTH"))
- return expr_allocate_number (e, get_viewlength ());
+ return expr_allocate_number (e, settings_get_viewlength ());
else if (lex_match_id (lexer, "$WIDTH"))
- return expr_allocate_number (e, get_viewwidth ());
+ return expr_allocate_number (e, settings_get_viewwidth ());
else
{
msg (SE, _("Unknown system variable %s."), lex_tokid (lexer));
union any_node *node;
lex_get (lexer);
node = parse_or (lexer, e);
- if (node != NULL && !lex_match (lexer, ')'))
- {
- lex_error (lexer, _("expecting `)'"));
- return NULL;
- }
+ if (node != NULL && !lex_force_match (lexer, ')'))
+ return NULL;
return node;
}
default:
- lex_error (lexer, _("in expression"));
+ lex_error (lexer, NULL);
return NULL;
}
}
&& array_arg_cnt % f->array_granularity != 0)
{
if (f->array_granularity == 2)
- msg (SE, _("%s must have even number of arguments in list."),
+ msg (SE, _("%s must have an even number of arguments in list."),
f->prototype);
else
msg (SE, _("%s must have multiple of %d arguments in list."),
if (!validate_function_args (f, arg_cnt, min_valid))
goto fail;
- if ((f->flags & OPF_EXTENSION) && get_syntax () == COMPATIBLE)
+ if ((f->flags & OPF_EXTENSION) && settings_get_syntax () == COMPATIBLE)
msg (SW, _("%s is a PSPP extension."), f->prototype);
if (f->flags & OPF_UNIMPLEMENTED)
{
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