void oci8_do_parse_connect_string(VALUE conn_str, VALUE *user, VALUE *pass, VALUE *dbname, VALUE *mode)
{
static VALUE re = Qnil;
if (NIL_P(re)) {
re = rb_eval_string(CONN_STR_REGEX);
rb_global_variable(&re);
}
OCI8SafeStringValue(conn_str);
if (RTEST(rb_reg_match(re, conn_str))) {
*user = rb_reg_nth_match(1, rb_backref_get());
*pass = rb_reg_nth_match(2, rb_backref_get());
*dbname = rb_reg_nth_match(3, rb_backref_get());
*mode = rb_reg_nth_match(4, rb_backref_get());
if (RSTRING_LEN(*user) == 0 && RSTRING_LEN(*pass) == 0) {
/* external credential */
*user = Qnil;
*pass = Qnil;
}
if (!NIL_P(*mode)) {
char *ptr;
SafeStringValue(*mode);
ptr = RSTRING_PTR(*mode);
if (strcasecmp(ptr, "SYSDBA") == 0) {
*mode = sym_SYSDBA;
} else if (strcasecmp(ptr, "SYSOPER") == 0) {
*mode = sym_SYSOPER;
}
}
} else {
rb_raise(rb_eArgError, "invalid connect string \"%s\" (expect \"username/password[@(tns_name|//host[:port]/service_name)][ as (sysdba|sysoper)]\"", RSTRING_PTR(conn_str));
}
}
PRIMITIVE VALUE
vm_get_special(char code)
{
VALUE backref = rb_backref_get();
if (backref == Qnil) {
return Qnil;
}
VALUE val;
switch (code) {
case '&':
val = rb_reg_last_match(backref);
break;
case '`':
val = rb_reg_match_pre(backref);
break;
case '\'':
val = rb_reg_match_post(backref);
break;
case '+':
val = rb_reg_match_last(backref);
break;
default:
// Boundaries check is done in rb_reg_nth_match().
val = rb_reg_nth_match((int)code, backref);
break;
}
return val;
}
/*
* call-seq:
* str.to_c -> complex
*
* Returns a complex which denotes the string form. The parser
* ignores leading whitespaces and trailing garbage. Any digit
* sequences can be separated by an underscore. Returns zero for null
* or garbage string.
*
* For example:
*
* '9'.to_c #=> (9+0i)
* '2.5'.to_c #=> (2.5+0i)
* '2.5/1'.to_c #=> ((5/2)+0i)
* '-3/2'.to_c #=> ((-3/2)+0i)
* '-i'.to_c #=> (0-1i)
* '45i'.to_c #=> (0+45i)
* '3-4i'.to_c #=> (3-4i)
* '-4e2-4e-2i'.to_c #=> (-400.0-0.04i)
* '-0.0-0.0i'.to_c #=> (-0.0-0.0i)
* '1/2+3/4i'.to_c #=> ((1/2)+(3/4)*i)
* 'ruby'.to_c #=> (0+0i)
*/
static VALUE
string_to_c(VALUE self)
{
VALUE s, a, backref;
backref = rb_backref_get();
rb_match_busy(backref);
s = f_gsub(self, underscores_pat, an_underscore);
a = string_to_c_internal(s);
rb_backref_set(backref);
if (!NIL_P(RARRAY_PTR(a)[0]))
return RARRAY_PTR(a)[0];
return rb_complex_new1(INT2FIX(0));
}
static VALUE
nucomp_s_convert(int argc, VALUE *argv, VALUE klass)
{
VALUE a1, a2, backref;
rb_scan_args(argc, argv, "11", &a1, &a2);
if (NIL_P(a1) || (argc == 2 && NIL_P(a2)))
rb_raise(rb_eTypeError, "can't convert nil into Complex");
backref = rb_backref_get();
rb_match_busy(backref);
if (RB_TYPE_P(a1, T_STRING)) {
a1 = string_to_c_strict(a1);
}
if (RB_TYPE_P(a2, T_STRING)) {
a2 = string_to_c_strict(a2);
}
rb_backref_set(backref);
if (RB_TYPE_P(a1, T_COMPLEX)) {
{
get_dat1(a1);
if (k_exact_zero_p(dat->imag))
a1 = dat->real;
}
}
if (RB_TYPE_P(a2, T_COMPLEX)) {
{
get_dat1(a2);
if (k_exact_zero_p(dat->imag))
a2 = dat->real;
}
}
if (RB_TYPE_P(a1, T_COMPLEX)) {
if (argc == 1 || (k_exact_zero_p(a2)))
return a1;
}
if (argc == 1) {
if (k_numeric_p(a1) && !f_real_p(a1))
return a1;
/* should raise exception for consistency */
if (!k_numeric_p(a1))
return rb_convert_type(a1, T_COMPLEX, "Complex", "to_c");
}
else {
if ((k_numeric_p(a1) && k_numeric_p(a2)) &&
(!f_real_p(a1) || !f_real_p(a2)))
return f_add(a1,
f_mul(a2,
f_complex_new_bang2(rb_cComplex, ZERO, ONE)));
}
{
VALUE argv2[2];
argv2[0] = a1;
argv2[1] = a2;
return nucomp_s_new(argc, argv2, klass);
}
}
VALUE regexp_spec_backref_get(VALUE self) {
return rb_backref_get();
}
/* @overload gsub(pattern, replacement)
*
* Returns the receiver with all matches of PATTERN replaced by REPLACEMENT,
* inheriting any taint and untrust from the receiver and from REPLACEMENT.
*
* The REPLACEMENT is used as a specification for what to replace matches
* with:
*
* <table>
* <thead>
* <tr><th>Specification</th><th>Replacement</th></tr>
* </thead>
* <tbody>
* <tr>
* <td><code>\1</code>, <code>\2</code>, …, <code>\</code><em>n</em></td>
* <td>Numbered sub-match <em>n</em></td>
* </tr>
* <tr>
* <td><code>\k<</code><em>name</em><code>></code></td>
* <td>Named sub-match <em>name</em></td>
* </tr>
* </tbody>
* </table>
*
* The Regexp special variables `$&`, `$'`, <code>$\`</code>, `$1`, `$2`, …,
* `$`_n_ are updated accordingly.
*
* @param [Regexp, #to_str] pattern
* @param [#to_str] replacement
* @return [U::String]
*
* @overload gsub(pattern, replacements)
*
* Returns the receiver with all matches of PATTERN replaced by
* REPLACEMENTS#[_match_], where _match_ is the matched substring, inheriting
* any taint and untrust from the receiver and from the
* REPLACEMENTS#[_match_]es, as well as any taint on REPLACEMENTS.
*
* The Regexp special variables `$&`, `$'`, <code>$\`</code>, `$1`, `$2`, …,
* `$`_n_ are updated accordingly.
*
* @param [Regexp, #to_str] pattern
* @param [#to_hash] replacements
* @raise [RuntimeError] If any replacement is the result being constructed
* @raise [Exception] Any error raised by REPLACEMENTS#default, if it gets
* called
* @return [U::String]
*
* @overload gsub(pattern){ |match| … }
*
* Returns the receiver with all matches of PATTERN replaced by the results
* of the given block, inheriting any taint and untrust from the receiver and
* from the results of the given block.
*
* The Regexp special variables `$&`, `$'`, <code>$\`</code>, `$1`, `$2`, …,
* `$`_n_ are updated accordingly.
*
* @param [Regexp, #to_str] pattern
* @yieldparam [U::String] match
* @yieldreturn [#to_str]
* @return [U::String]
*
* @overload gsub(pattern)
*
* Returns an Enumerator over the matches of PATTERN in the receiver.
*
* The Regexp special variables `$&`, `$'`, <code>$\`</code>, `$1`, `$2`, …,
* `$`_n_ will be updated accordingly.
*
* @param [Regexp, #to_str] pattern
* @return [Enumerator] */
VALUE
rb_u_string_gsub(int argc, VALUE *argv, VALUE self)
{
VALUE pattern, replacement;
VALUE replacements = Qnil;
bool use_block = false;
bool tainted = false;
if (argc == 1) {
RETURN_ENUMERATOR(self, argc, argv);
use_block = true;
}
if (rb_scan_args(argc, argv, "11", &pattern, &replacement) == 2) {
replacements = rb_check_convert_type(replacement, T_HASH,
"Hash", "to_hash");
if (NIL_P(replacements))
StringValue(replacement);
if (OBJ_TAINTED(replacement))
tainted = true;
}
pattern = rb_u_pattern_argument(pattern, true);
VALUE str = rb_str_to_str(self);
long begin = rb_reg_search(pattern, str, 0, 0);
if (begin < 0)
return self;
const char *base = RSTRING_PTR(str);
const char *p = base;
const char *end = RSTRING_END(str);
VALUE substituted = rb_u_str_buf_new(RSTRING_LEN(str) + 30);
do {
VALUE match = rb_backref_get();
struct re_registers *registers = RMATCH_REGS(match);
VALUE result;
if (use_block || !NIL_P(replacements)) {
if (use_block) {
VALUE ustr = rb_u_string_new_rb(rb_reg_nth_match(0, match));
result = rb_u_string_object_as_string(rb_yield(ustr));
} else {
VALUE ustr = rb_u_string_new_c(self,
base + registers->beg[0],
registers->end[0] - registers->beg[0]);
result = rb_u_string_object_as_string(rb_hash_aref(replacements, ustr));
}
if (result == substituted)
rb_u_raise(rb_eRuntimeError,
"result of block is string being built; please try not to cheat");
} else
result =
#ifdef HAVE_RB_REG_REGSUB4
rb_reg_regsub(replacement, str, registers, pattern);
#else
rb_reg_regsub(replacement, str, registers);
#endif
if (OBJ_TAINTED(result))
tainted = true;
const struct rb_u_string *value = RVAL2USTRING_ANY(result);
rb_str_buf_cat(substituted, p, registers->beg[0] - (p - base));
rb_str_buf_cat(substituted, USTRING_STR(value), USTRING_LENGTH(value));
OBJ_INFECT(substituted, result);
p = base + registers->end[0];
if (registers->beg[0] == registers->end[0])
p = u_next(p);
if (p >= end)
break;
begin = rb_reg_search(pattern, str, registers->end[0], 0);
} while (begin >= 0);
if (p < end)
rb_str_buf_cat(substituted, p, end - p);
rb_reg_search(pattern, str, end - p, 0);
RBASIC(substituted)->klass = rb_obj_class(str);
OBJ_INFECT(substituted, str);
if (tainted)
OBJ_TAINT(substituted);
return rb_u_string_new_rb(substituted);
}
static VALUE
nurat_s_convert(VALUE klass, SEL sel, int argc, VALUE *argv)
{
VALUE a1, a2, backref;
rb_scan_args(argc, argv, "11", &a1, &a2);
if (NIL_P(a1) || (argc == 2 && NIL_P(a2)))
rb_raise(rb_eTypeError, "can't convert nil into Rational");
switch (TYPE(a1)) {
case T_COMPLEX:
if (k_exact_zero_p(RCOMPLEX(a1)->imag))
a1 = RCOMPLEX(a1)->real;
}
switch (TYPE(a2)) {
case T_COMPLEX:
if (k_exact_zero_p(RCOMPLEX(a2)->imag))
a2 = RCOMPLEX(a2)->real;
}
backref = rb_backref_get();
rb_match_busy(backref);
switch (TYPE(a1)) {
case T_FIXNUM:
case T_BIGNUM:
break;
case T_FLOAT:
a1 = f_to_r(a1);
break;
case T_STRING:
a1 = string_to_r_strict(a1);
break;
}
switch (TYPE(a2)) {
case T_FIXNUM:
case T_BIGNUM:
break;
case T_FLOAT:
a2 = f_to_r(a2);
break;
case T_STRING:
a2 = string_to_r_strict(a2);
break;
}
rb_backref_set(backref);
switch (TYPE(a1)) {
case T_RATIONAL:
if (argc == 1 || (k_exact_one_p(a2)))
return a1;
}
if (argc == 1) {
if (!(k_numeric_p(a1) && k_integer_p(a1)))
return rb_convert_type(a1, T_RATIONAL, "Rational", "to_r");
}
else {
if ((k_numeric_p(a1) && k_numeric_p(a2)) &&
(!f_integer_p(a1) || !f_integer_p(a2)))
return f_div(a1, a2);
}
{
VALUE argv2[2];
argv2[0] = a1;
argv2[1] = a2;
return nurat_s_new(argc, argv2, klass);
}
}
static VALUE
nurat_s_convert(int argc, VALUE *argv, VALUE klass)
{
VALUE a1, a2, backref;
rb_scan_args(argc, argv, "11", &a1, &a2);
switch (TYPE(a1)) {
case T_COMPLEX:
if (k_exact_p(RCOMPLEX(a1)->imag) && f_zero_p(RCOMPLEX(a1)->imag))
a1 = RCOMPLEX(a1)->real;
}
switch (TYPE(a2)) {
case T_COMPLEX:
if (k_exact_p(RCOMPLEX(a2)->imag) && f_zero_p(RCOMPLEX(a2)->imag))
a2 = RCOMPLEX(a2)->real;
}
backref = rb_backref_get();
rb_match_busy(backref);
switch (TYPE(a1)) {
case T_FIXNUM:
case T_BIGNUM:
break;
case T_FLOAT:
a1 = f_to_r(a1);
break;
case T_STRING:
a1 = string_to_r_strict(a1);
break;
}
switch (TYPE(a2)) {
case T_FIXNUM:
case T_BIGNUM:
break;
case T_FLOAT:
a2 = f_to_r(a2);
break;
case T_STRING:
a2 = string_to_r_strict(a2);
break;
}
rb_backref_set(backref);
switch (TYPE(a1)) {
case T_RATIONAL:
if (argc == 1 || (k_exact_p(a2) && f_one_p(a2)))
return a1;
}
if (argc == 1) {
if (k_numeric_p(a1) && !f_integer_p(a1))
return a1;
}
else {
if ((k_numeric_p(a1) && k_numeric_p(a2)) &&
(!f_integer_p(a1) || !f_integer_p(a2)))
return f_div(a1, a2);
}
{
VALUE argv2[2];
argv2[0] = a1;
argv2[1] = a2;
return nurat_s_new(argc, argv2, klass);
}
}
static VALUE
nucomp_s_convert(int argc, VALUE *argv, VALUE klass)
{
VALUE a1, a2, backref;
rb_scan_args(argc, argv, "11", &a1, &a2);
backref = rb_backref_get();
rb_match_busy(backref);
switch (TYPE(a1)) {
case T_FIXNUM:
case T_BIGNUM:
case T_FLOAT:
break;
case T_STRING:
a1 = string_to_c_strict(a1);
break;
}
switch (TYPE(a2)) {
case T_FIXNUM:
case T_BIGNUM:
case T_FLOAT:
break;
case T_STRING:
a2 = string_to_c_strict(a2);
break;
}
rb_backref_set(backref);
switch (TYPE(a1)) {
case T_COMPLEX:
{
get_dat1(a1);
if (k_exact_p(dat->imag) && f_zero_p(dat->imag))
a1 = dat->real;
}
}
switch (TYPE(a2)) {
case T_COMPLEX:
{
get_dat1(a2);
if (k_exact_p(dat->imag) && f_zero_p(dat->imag))
a2 = dat->real;
}
}
switch (TYPE(a1)) {
case T_COMPLEX:
if (argc == 1 || (k_exact_p(a2) && f_zero_p(a2)))
return a1;
}
if (argc == 1) {
if (k_numeric_p(a1) && !f_real_p(a1))
return a1;
}
else {
if ((k_numeric_p(a1) && k_numeric_p(a2)) &&
(!f_real_p(a1) || !f_real_p(a2)))
return f_add(a1,
f_mul(a2,
f_complex_new_bang2(rb_cComplex, ZERO, ONE)));
}
{
VALUE argv2[2];
argv2[0] = a1;
argv2[1] = a2;
return nucomp_s_new(argc, argv2, klass);
}
}
