parrotcode: Scalar Abstract Superclass | |
Contents | PMCs |
src/pmc/scalar.pmc - Scalar Abstract Superclass
These are the vtable functions for the scalar base PMC class
void morph(INTVAL type)
void assign_pmc(PMC *value)
*value
,
calling the appropriate set_*
method according to the type of *value
.PMC *clone()
PMC *subtract(PMC *value, PMC *dest)
void add(PMC *value, PMC *dest)
void add_int(INTVAL value, PMC *dest)
void add_float(FLOATVAL value, PMC *dest)
value
to the number and returns the result in *dest
.
If dest
is NULL it's created.void i_add(PMC *value)
void i_add(INTVAL value)
void i_add(FLOATVAL value)
value
to SELF
inplace.PMC *subtract(PMC *value, PMC *dest)
PMC *subtract_int(INTVAL value, PMC *dest)
PMC *subtract_float(FLOATVAL value, PMC *dest)
value
from the number and returns the result in *dest
.
If dest
doesn't exist a new Float
is created.void i_subtract(PMC *value)
void i_subtract_int(INTVAL value)
void i_subtract_float(FLOATVAL value)
value
from SELF
inplace.PMC *multiply(PMC *value, PMC *dest)
PMC *multiply_int(INTVAL value, PMC *dest)
PMC *multiply_float(FLOATVAL value, PMC *dest)
value
and returns the result in *dest
.PMC *divide(PMC *value, PMC *dest)
PMC *divide_int(INTVAL value, PMC *dest)
PMC *divide_float(FLOATVAL value, PMC *dest)
value
and returns the result in *dest
.void i_divide(PMC *value)
void i_divide_int(INTVAL value)
void i_divide_float(FLOATVAL value)
SELF
by value
inplace.PMC *floor_divide(PMC *value, PMC *dest)
PMC *floor_divide_int(INTVAL value, PMC *dest)
PMC *floor_divide_float(FLOATVAL value, PMC *dest)
value
and returns the result in *dest
.void i_floor_divide(PMC *value)
void i_floor_divide_int(INTVAL value)
void i_floor_divide_float(FLOATVAL value)
SELF
by value
inplace.PMC *cmodulus(PMC *value, PMC *dest)
PMC *cmodulus(INTVAL value, PMC *dest)
PMC *cmodulus(FLOATVAL value, PMC *dest)
mod
value
and returns the result in dest
.void i_cmodulus(PMC *value)
void i_cmodulus(INTVAL value)
void i_cmodulus(FLOATVAL value)
mod
value
and returns the result in dest
.PMC *modulus(PMC *value, PMC *dest)
PMC *modulus(INTVAL value, PMC *dest)
PMC *modulus(FLOATVAL value, PMC *dest)
mod
value
and returns the result in dest
.
See also ops/math.ops.void i_modulus(PMC *value)
void i_modulus(INTVAL value)
void i_modulus(FLOATVAL value)
PMC *pow(PMC *value, PMC *dest)
PMC *pow_int(INTVAL value, PMC *dest)
PMC *pow_float(FLOATVAL value, PMC *dest)
SELF pow value
and returns the result in dest
.
See also ops/math.ops.void i_pow(PMC *value)
void i_pow_int(INTVAL value)
void i_pow_float(FLOATVAL value)
PMC *neg(PMC *dest)
void i_neg()
dest
to the negated value of SELF
.PMC *bitwise_or(PMC *value, PMC *dest)
PMC *bitwise_or_int(INTVAL value, PMC *dest)
*dest
the bitwise OR
of the scalar and value
.void i_bitwise_or(PMC *value)
void i_bitwise_or_int(INTVAL value)
PMC *bitwise_and(PMC *value, PMC *dest)
PMC *bitwise_and_int(INTVAL value, PMC *dest)
*dest
the bitwise AND
of the scalar and value
.void i_bitwise_and(PMC *value)
void i_bitwise_and_int(INTVAL value)
void bitwise_xor(PMC *value, PMC *dest)
void bitwise_xor_int(INTVAL value, PMC *dest)
*dest
the bitwise XOR
of the scalar and *value
.void i_bitwise_xor(PMC *value)
void i_bitwise_xor_int(INTVAL value)
PMC *bitwise_not(PMC *dest)
void i_bitwise_not()
*dest
the bitwise negation of the scalar and value
.PMC *bitwise_shr(PMC *value, PMC *dest)
PMC *bitwise_shr_int(INTVAL value, PMC *dest)
*dest
the arithmetic shift right of the scalar by value
.
A negative value
shifts left.
The destination may become a BigInt
as a result (but only if the shift amount is less than zero).void i_bitwise_shr(PMC *value)
void i_bitwise_shr_int(INTVAL value)
value
shifts left.
SELF may become a BigInt
as a result (but only if the shift amount is less than zero).PMC *bitwise_lsr(PMC *value, PMC *dest)
PMC *bitwise_lsr_int(INTVAL value, PMC *dest)
*dest
the logical shift right of the scalar by *value
.void i_bitwise_lsr(PMC *value)
void i_bitwise_lsr_int(INTVAL value)
PMC *bitwise_shl(PMC *value, PMC *dest)
PMC *bitwise_shl_int(INTVAL value, PMC *dest)
*dest
the shift left of the scalar by *value
.
A negative value
shifts right.
The destination may become a BigInt
as a result.void i_bitwise_shl(PMC *value)
void i_bitwise_shl_int(INTVAL value)
value
shifts right.
SELF may become a BigInt
as a result.PMC *concatenate(PMC *value, PMC *dest)
PMC *concatenate_str(STRING *value, PMC *dest)
*dest
the result of concatenating the scalar and *value
.void concatenate(PMC *value)
void concatenate_str(STRING *value)
value
in place.PMC *repeat(PMC *value, PMC *dest)
PMC *repeat_int(INTVAL value, PMC *dest)
*dest
the result of repeating the scalar value
times.void i_repeat(PMC *value)
void i_repeat_int(INTVAL value)
SELF
in place value
times.INTVAL cmp_num(PMC *value)
*value
.INTVAL cmp_string(PMC *value)
*value
.PMC *logical_or(PMC *value, PMC *dest)
OR
of SELF
and value
,
i.e.
returns SELF
it is true or value
: dest
is alway ignored. PMC *logical_and(PMC *value, PMC *dest)
AND
of SELF
and value
,
i.e.
returns value
if SELF
is true else SELF
.
dest
is always ignored.PMC *logical_xor(PMC *value, PMC *dest)
XOR
of SELF
and *value
.PMC *logical_not(PMC *dest)
void i_logical_not()
*dest
the result of the logical negation of the scalar and *value
.INTVAL defined()
STRING *substr_str(INTVAL offset, INTVAL length)
length
of the scalar starting at offset
.void share_ro()
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