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  /frameworks/av/media/libstagefright/codecs/m4v_h263/enc/src/
fastquant_inline.h 62 __inline int32 coeff_dequant(int32 q_value, int32 QPx2, int32 Addition, int32 tmp)
70 coeff = q_value * QPx2 - Addition;
76 coeff = q_value * QPx2 + Addition;
202 __inline int32 coeff_dequant(int32 q_value, int32 QPx2, int32 Addition, int32 tmp)
210 sublt coeff, coeff, Addition
211 addge coeff, coeff, Addition
298 __inline int32 coeff_dequant(int32 q_value, int32 QPx2, int32 Addition, int32 tmp)
306 sublt coeff, coeff, Addition
307 addge coeff, coeff, Addition
483 __inline int32 coeff_dequant(int32 q_value, int32 QPx2, int32 Addition, int32 tmp
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fastquant.cpp 130 fast bitmaprow mask and borrowed Addition method instead of ifs from , ).
157 Int Addition = QuantParam->Addition;
238 coeff = coeff_dequant(q_value, QPx2, Addition, tmp);
276 Int Addition = QuantParam->Addition;
400 coeff = coeff_dequant(q_value, QPx2, Addition, tmp);
448 Int Addition = QuantParam->Addition;
483 coeff = coeff_dequant(scale_q, QP, Addition, tmp)
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fastcodemb.h 48 Int Addition;
mp4lib_int.h 468 Int Addition;
fastcodemb.cpp 95 QuantParam.Addition = QP - 1 + (QP & 0x1);
  /external/google-breakpad/src/common/
test_assembler_unittest.cc 233 TEST(Addition, LabelConstant) {
243 TEST(Addition, ConstantLabel) {
253 TEST(Addition, KnownLabelConstant) {
265 TEST(Addition, ConstantKnownLabel) {
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  /external/syzkaller/vendor/google.golang.org/genproto/googleapis/iam/v1/
policy.pb.go 28 // Addition of a Binding.
  /external/libchrome/crypto/
p224_unittest.cc 797 TEST(P224, Addition) {
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  /external/mockito/lib/
byte-buddy-1.8.15.jar 
  /device/linaro/bootloader/edk2/AppPkg/Applications/Python/Python-2.7.10/Lib/pydoc_data/
topics.py 10 'binary': u'\nBinary arithmetic operations\n****************************\n\nThe binary arithmetic operations have the conventional priority\nlevels. Note that some of these operations also apply to certain non-\nnumeric types. Apart from the power operator, there are only two\nlevels, one for multiplicative operators and one for additive\noperators:\n\n m_expr ::= u_expr | m_expr "*" u_expr | m_expr "//" u_expr | m_expr "/" u_expr\n | m_expr "%" u_expr\n a_expr ::= m_expr | a_expr "+" m_expr | a_expr "-" m_expr\n\nThe "*" (multiplication) operator yields the product of its arguments.\nThe arguments must either both be numbers, or one argument must be an\ninteger (plain or long) and the other must be a sequence. In the\nformer case, the numbers are converted to a common type and then\nmultiplied together. In the latter case, sequence repetition is\nperformed; a negative repetition factor yields an empty sequence.\n\nThe "/" (division) and "//" (floor division) operators yield the\nquotient of their arguments. The numeric arguments are first\nconverted to a common type. Plain or long integer division yields an\ninteger of the same type; the result is that of mathematical division\nwith the \'floor\' function applied to the result. Division by zero\nraises the "ZeroDivisionError" exception.\n\nThe "%" (modulo) operator yields the remainder from the division of\nthe first argument by the second. The numeric arguments are first\nconverted to a common type. A zero right argument raises the\n"ZeroDivisionError" exception. The arguments may be floating point\nnumbers, e.g., "3.14%0.7" equals "0.34" (since "3.14" equals "4*0.7 +\n0.34".) The modulo operator always yields a result with the same sign\nas its second operand (or zero); the absolute value of the result is\nstrictly smaller than the absolute value of the second operand [2].\n\nThe integer division and modulo operators are connected by the\nfollowing identity: "x == (x/y)*y + (x%y)". Integer division and\nmodulo are also connected with the built-in function "divmod()":\n"divmod(x, y) == (x/y, x%y)". These identities don\'t hold for\nfloating point numbers; there similar identities hold approximately\nwhere "x/y" is replaced by "floor(x/y)" or "floor(x/y) - 1" [3].\n\nIn addition to performing the modulo operation on numbers, the "%"\noperator is also overloaded by string and unicode objects to perform\nstring formatting (also known as interpolation). The syntax for string\nformatting is described in the Python Library Reference, section\nString Formatting Operations.\n\nDeprecated since version 2.3: The floor division operator, the modulo\noperator, and the "divmod()" function are no longer defined for\ncomplex numbers. Instead, convert to a floating point number using\nthe "abs()" function if appropriate.\n\nThe "+" (addition) operator yields the sum of its arguments. The\narguments must either both be numbers or both sequences of the same\ntype. In the former case, the numbers are converted to a common type\nand then added together. In the latter case, the sequences are\nconcatenated.\n\nThe "-" (subtraction) operator yields the difference of its arguments.\nThe numeric arguments are first converted to a common type.\n',
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