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Searched
refs:assignment
(Results
51 - 75
of
95
) sorted by null
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/external/mesa3d/src/glsl/
ast_function.cpp
251
ir_assignment *
assignment
local
253
post_call_conversions.push_tail(
assignment
);
664
ir_instruction *
assignment
= new(ctx) ir_assignment(lhs, rhs, NULL);
local
665
instructions->push_tail(
assignment
);
788
/* Mask of fields to be written in the
assignment
.
826
/* Mask of fields to be written in the
assignment
.
854
* Generate
assignment
of a portion of a vector to a portion of a matrix column
856
* \param src_base First component of the source to be used in
assignment
886
/* Mask of fields to be written in the
assignment
.
[
all
...]
/external/elfutils/src/src/
ldscript.c
119
static struct
assignment
*new_assignment (const char *variable,
246
struct
assignment
*
assignment
;
member in union:YYSTYPE
622
"outputsections", "outputsection", "
assignment
", "inputsections",
[
all
...]
ldgeneric.c
[
all
...]
/frameworks/compile/mclinker/lib/Object/
ObjectLinker.cpp
35
#include "mcld/Script/
Assignment
.h"
545
case
Assignment
::HIDDEN:
548
case
Assignment
::DEFAULT:
559
case
Assignment
::PROVIDE_HIDDEN:
562
case
Assignment
::PROVIDE:
575
// Set symbol of this
assignment
.
749
Assignment
&
assignment
= (*assign).second;
local
754
scriptSymsFinalized &=
assignment
.assign(evaluator);
758
symbol->setValue(
assignment
.symbol().value())
[
all
...]
/external/v8/test/mjsunit/
array-slice.js
272
// via indexed
assignment
.
object-define-property.js
[
all
...]
strict-mode.js
223
//
Assignment
to eval or arguments
233
// Compound
assignment
to eval or arguments
[
all
...]
/ndk/build/core/
default-build-commands.mk
116
# IMPORTANT: The following definitions must use lazy
assignment
because
/external/mesa3d/src/gallium/drivers/r600/
r600_asm.c
604
struct r600_bytecode_alu *
assignment
[5])
611
assignment
[i] = NULL;
621
else if (
assignment
[chan])
627
if (
assignment
[4]) {
631
assignment
[4] = alu;
633
if (
assignment
[chan]) {
637
assignment
[chan] = alu;
[
all
...]
/external/v8/test/mjsunit/harmony/
private.js
228
// Set the even symbols via
assignment
.
/external/v8/test/mjsunit/es6/
symbols.js
277
// Set the even symbols via
assignment
.
/prebuilts/tools/common/m2/repository/com/beust/jcommander/1.27/
jcommander-1.27.jar
/external/libvorbis/doc/
03-codebook.tex
239
When determining 'lowest possible value' in the
assignment
definition
/prebuilts/misc/common/ecj/
ecj.jar
/prebuilts/python/darwin-x86/2.7.5/lib/python2.7/pydoc_data/
topics.py
3
'
assignment
': '\nAssignment statements\n*********************\n\nAssignment statements are used to (re)bind names to values and to\nmodify attributes or items of mutable objects:\n\n assignment_stmt ::= (target_list "=")+ (expression_list | yield_expression)\n target_list ::= target ("," target)* [","]\n target ::= identifier\n | "(" target_list ")"\n | "[" target_list "]"\n | attributeref\n | subscription\n | slicing\n\n(See section *Primaries* for the syntax definitions for the last three\nsymbols.)\n\nAn
assignment
statement evaluates the expression list (remember that\nthis can be a single expression or a comma-separated list, the latter\nyielding a tuple) and assigns the single resulting object to each of\nthe target lists, from left to right.\n\nAssignment is defined recursively depending on the form of the target\n(list). When a target is part of a mutable object (an attribute\nreference, subscription or slicing), the mutable object must\nultimately perform the
assignment
and decide about its validity, and\nmay raise an exception if the
assignment
is unacceptable. The rules\nobserved by various types and the exceptions raised are given with the\ndefinition of the object types (see section *The standard type\nhierarchy*).\n\nAssignment of an object to a target list is recursively defined as\nfollows.\n\n* If the target list is a single target: The object is assigned to\n that target.\n\n* If the target list is a comma-separated list of targets: The object\n must be an iterable with the same number of items as there are\n targets in the target list, and the items are assigned, from left to\n right, to the corresponding targets.\n\nAssignment of an object to a single target is recursively defined as\nfollows.\n\n* If the target is an identifier (name):\n\n * If the name does not occur in a ``global`` statement in the\n current code block: the name is bound to the object in the current\n local namespace.\n\n * Otherwise: the name is bound to the object in the current global\n namespace.\n\n The name is rebound if it was already bound. This may cause the\n reference count for the object previously bound to the name to reach\n zero, causing the object to be deallocated and its destructor (if it\n has one) to be called.\n\n* If the target is a target list enclosed in parentheses or in square\n brackets: The object must be an iterable with the same number of\n items as there are targets in the target list, and its items are\n assigned, from left to right, to the corresponding targets.\n\n* If the target is an attribute reference: The primary expression in\n the reference is evaluated. It should yield an object with\n assignable attributes; if this is not the case, ``TypeError`` is\n raised. That object is then asked to assign the assigned object to\n the given attribute; if it cannot perform the
assignment
, it raises\n an exception (usually but not necessarily ``AttributeError``).\n\n Note: If the object is a class instance and the attribute reference\n occurs on both sides of the
assignment
operator, the RHS expression,\n ``a.x`` can access either an instance attribute or (if no instance\n attribute exists) a class attribute. The LHS target ``a.x`` is\n always set as an instance attribute, creating it if necessary.\n Thus, the two occurrences of ``a.x`` do not necessarily refer to the\n same attribute: if the RHS expression refers to a class attribute,\n the LHS creates a new instance attribute as the target of the\n
assignment
:\n\n class Cls:\n x = 3 # class variable\n inst = Cls()\n inst.x = inst.x + 1 # writes inst.x as 4 leaving Cls.x as 3\n\n This description does not necessarily apply to descriptor\n attributes, such as properties created with ``property()``.\n\n* If the target is a subscription: The primary expression in the\n reference is evaluated. It should yield either a mutable sequence\n object (such as a list) or a mapping object (such as a dictionary).\n Next, the subscript expression is evaluated.\n\n If the primary is a mutable sequence object (such as a list), the\n subscript must yield a plain integer. If it is negative, the\n sequence\'s length is added to it. The resulting value must be a\n nonnegative integer less than the sequence\'s length, and the\n sequence is asked to assign the assigned object to its item with\n that index. If the index is out of range, ``IndexError`` is raised\n (
assignment
to a subscripted sequence cannot add new items to a\n list).\n\n If the primary is a mapping object (such as a dictionary), the\n subscript must have a type compatible with the mapping\'s key type,\n and the mapping is then asked to create a key/datum pair which maps\n the subscript to the assigned object. This can either replace an\n existing key/value pair with the same key value, or insert a new\n key/value pair (if no key with the same value existed).\n\n* If the target is a slicing: The primary expression in the reference\n is evaluated. It should yield a mutable sequence object (such as a\n list). The assigned object should be a sequence object of the same\n type. Next, the lower and upper bound expressions are evaluated,\n insofar they are present; defaults are zero and the sequence\'s\n length. The bounds should evaluate to (small) integers. If either\n bound is negative, the sequence\'s length is added to it. The\n resulting bounds are clipped to lie between zero and the sequence\'s\n length, inclusive. Finally, the sequence object is asked to replace\n the slice with the items of the assigned sequence. The length of\n the slice may be different from the length of the assigned sequence,\n thus changing the length of the target sequence, if the object\n allows it.\n\n**CPython implementation detail:** In the current implementation, the\nsyntax for targets is taken to be the same as for expressions, and\ninvalid syntax is rejected during the code generation phase, causing\nless detailed error messages.\n\nWARNING: Although the definition of
assignment
implies that overlaps\nbetween the left-hand side and the right-hand side are \'safe\' (for\nexample ``a, b = b, a`` swaps two variables), overlaps *within* the\ncollection of assigned-to variables are not safe! For instance, the\nfollowing program prints ``[0, 2]``:\n\n x = [0, 1]\n i = 0\n i, x[i] = 1, 2\n print x\n\n\nAugmented
assignment
statements\n===============================\n\nAugmented assignment is the combination, in a singl (…)
[
all
...]
/prebuilts/python/linux-x86/2.7.5/lib/python2.7/pydoc_data/
topics.py
3
'
assignment
': '\nAssignment statements\n*********************\n\nAssignment statements are used to (re)bind names to values and to\nmodify attributes or items of mutable objects:\n\n assignment_stmt ::= (target_list "=")+ (expression_list | yield_expression)\n target_list ::= target ("," target)* [","]\n target ::= identifier\n | "(" target_list ")"\n | "[" target_list "]"\n | attributeref\n | subscription\n | slicing\n\n(See section *Primaries* for the syntax definitions for the last three\nsymbols.)\n\nAn
assignment
statement evaluates the expression list (remember that\nthis can be a single expression or a comma-separated list, the latter\nyielding a tuple) and assigns the single resulting object to each of\nthe target lists, from left to right.\n\nAssignment is defined recursively depending on the form of the target\n(list). When a target is part of a mutable object (an attribute\nreference, subscription or slicing), the mutable object must\nultimately perform the
assignment
and decide about its validity, and\nmay raise an exception if the
assignment
is unacceptable. The rules\nobserved by various types and the exceptions raised are given with the\ndefinition of the object types (see section *The standard type\nhierarchy*).\n\nAssignment of an object to a target list is recursively defined as\nfollows.\n\n* If the target list is a single target: The object is assigned to\n that target.\n\n* If the target list is a comma-separated list of targets: The object\n must be an iterable with the same number of items as there are\n targets in the target list, and the items are assigned, from left to\n right, to the corresponding targets.\n\nAssignment of an object to a single target is recursively defined as\nfollows.\n\n* If the target is an identifier (name):\n\n * If the name does not occur in a ``global`` statement in the\n current code block: the name is bound to the object in the current\n local namespace.\n\n * Otherwise: the name is bound to the object in the current global\n namespace.\n\n The name is rebound if it was already bound. This may cause the\n reference count for the object previously bound to the name to reach\n zero, causing the object to be deallocated and its destructor (if it\n has one) to be called.\n\n* If the target is a target list enclosed in parentheses or in square\n brackets: The object must be an iterable with the same number of\n items as there are targets in the target list, and its items are\n assigned, from left to right, to the corresponding targets.\n\n* If the target is an attribute reference: The primary expression in\n the reference is evaluated. It should yield an object with\n assignable attributes; if this is not the case, ``TypeError`` is\n raised. That object is then asked to assign the assigned object to\n the given attribute; if it cannot perform the
assignment
, it raises\n an exception (usually but not necessarily ``AttributeError``).\n\n Note: If the object is a class instance and the attribute reference\n occurs on both sides of the
assignment
operator, the RHS expression,\n ``a.x`` can access either an instance attribute or (if no instance\n attribute exists) a class attribute. The LHS target ``a.x`` is\n always set as an instance attribute, creating it if necessary.\n Thus, the two occurrences of ``a.x`` do not necessarily refer to the\n same attribute: if the RHS expression refers to a class attribute,\n the LHS creates a new instance attribute as the target of the\n
assignment
:\n\n class Cls:\n x = 3 # class variable\n inst = Cls()\n inst.x = inst.x + 1 # writes inst.x as 4 leaving Cls.x as 3\n\n This description does not necessarily apply to descriptor\n attributes, such as properties created with ``property()``.\n\n* If the target is a subscription: The primary expression in the\n reference is evaluated. It should yield either a mutable sequence\n object (such as a list) or a mapping object (such as a dictionary).\n Next, the subscript expression is evaluated.\n\n If the primary is a mutable sequence object (such as a list), the\n subscript must yield a plain integer. If it is negative, the\n sequence\'s length is added to it. The resulting value must be a\n nonnegative integer less than the sequence\'s length, and the\n sequence is asked to assign the assigned object to its item with\n that index. If the index is out of range, ``IndexError`` is raised\n (
assignment
to a subscripted sequence cannot add new items to a\n list).\n\n If the primary is a mapping object (such as a dictionary), the\n subscript must have a type compatible with the mapping\'s key type,\n and the mapping is then asked to create a key/datum pair which maps\n the subscript to the assigned object. This can either replace an\n existing key/value pair with the same key value, or insert a new\n key/value pair (if no key with the same value existed).\n\n* If the target is a slicing: The primary expression in the reference\n is evaluated. It should yield a mutable sequence object (such as a\n list). The assigned object should be a sequence object of the same\n type. Next, the lower and upper bound expressions are evaluated,\n insofar they are present; defaults are zero and the sequence\'s\n length. The bounds should evaluate to (small) integers. If either\n bound is negative, the sequence\'s length is added to it. The\n resulting bounds are clipped to lie between zero and the sequence\'s\n length, inclusive. Finally, the sequence object is asked to replace\n the slice with the items of the assigned sequence. The length of\n the slice may be different from the length of the assigned sequence,\n thus changing the length of the target sequence, if the object\n allows it.\n\n**CPython implementation detail:** In the current implementation, the\nsyntax for targets is taken to be the same as for expressions, and\ninvalid syntax is rejected during the code generation phase, causing\nless detailed error messages.\n\nWARNING: Although the definition of
assignment
implies that overlaps\nbetween the left-hand side and the right-hand side are \'safe\' (for\nexample ``a, b = b, a`` swaps two variables), overlaps *within* the\ncollection of assigned-to variables are not safe! For instance, the\nfollowing program prints ``[0, 2]``:\n\n x = [0, 1]\n i = 0\n i, x[i] = 1, 2\n print x\n\n\nAugmented
assignment
statements\n===============================\n\nAugmented assignment is the combination, in a singl (…)
[
all
...]
/external/eclipse-basebuilder/basebuilder-3.6.2/org.eclipse.releng.basebuilder/plugins/
org.eclipse.jdt.core_3.6.2.v_A76_R36x.jar
org.apache.jasper_5.5.17.v201004212143.jar
/prebuilts/eclipse/mavenplugins/tycho/tycho-dependencies-m2repo/org/eclipse/tycho/org.eclipse.jdt.core/3.9.1.v20130905-0837/
org.eclipse.jdt.core-3.9.1.v20130905-0837.jar
/prebuilts/tools/common/m2/repository/com/google/dexmaker/dexmaker/1.0/
dexmaker-1.0.jar
/prebuilts/devtools/tools/lib/
ecj-4.4.jar
/prebuilts/tools/common/m2/repository/org/eclipse/jdt/core/compiler/ecj/4.2.2/
ecj-4.2.2.jar
/prebuilts/tools/common/m2/repository/org/eclipse/jdt/core/compiler/ecj/4.4/
ecj-4.4.jar
/prebuilts/tools/common/m2/repository/org/eclipse/jdt/core/compiler/ecj/4.4.2/
ecj-4.4.2.jar
/prebuilts/tools/common/offline-m2/org/eclipse/jdt/core/compiler/ecj/4.4/
ecj-4.4.jar
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