SMPDataFlowAnalysis.cpp

SMPDefsFlags[NN_vcvttps2dq] = false;           // Convert With Truncation Packed Single-Precision Floating-Point Values to Packed Doubleword Integers
SMPDefsFlags[NN_vcvttsd2si] = false;           // Convert with Truncation Scalar Double-Precision Floating-Point Value to Doubleword Integer
SMPDefsFlags[NN_vcvttss2si] = false;           // Scalar Single-FP to signed INT32 conversion (truncate)
SMPDefsFlags[NN_vdivpd] = false;               // Divide Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vdivps] = false;               // Packed Single-FP Divide
SMPDefsFlags[NN_vdivsd] = false;               // Divide Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vdivss] = false;               // Scalar Single-FP Divide
SMPDefsFlags[NN_vdppd] = false;                // Dot Product of Packed Double Precision Floating-Point Values
SMPDefsFlags[NN_vdpps] = false;                // Dot Product of Packed Single Precision Floating-Point Values
SMPDefsFlags[NN_vextractf128] = false;         // Extract Packed Floating-Point Values
SMPDefsFlags[NN_vextracti128] = false;         // Extract Packed Integer Values
SMPDefsFlags[NN_vextractps] = false;           // Extract Packed Floating-Point Values
SMPDefsFlags[NN_vfmadd132pd] = false;          // Fused Multiply-Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd132ps] = false;          // Fused Multiply-Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd132sd] = false;          // Fused Multiply-Add of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd132ss] = false;          // Fused Multiply-Add of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd213pd] = false;          // Fused Multiply-Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd213ps] = false;          // Fused Multiply-Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd213sd] = false;          // Fused Multiply-Add of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd213ss] = false;          // Fused Multiply-Add of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd231pd] = false;          // Fused Multiply-Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd231ps] = false;          // Fused Multiply-Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd231sd] = false;          // Fused Multiply-Add of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmadd231ss] = false;          // Fused Multiply-Add of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmaddsub132pd] = false;       // Fused Multiply-Alternating Add/Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmaddsub132ps] = false;       // Fused Multiply-Alternating Add/Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmaddsub213pd] = false;       // Fused Multiply-Alternating Add/Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmaddsub213ps] = false;       // Fused Multiply-Alternating Add/Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmaddsub231pd] = false;       // Fused Multiply-Alternating Add/Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmaddsub231ps] = false;       // Fused Multiply-Alternating Add/Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub132pd] = false;          // Fused Multiply-Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub132ps] = false;          // Fused Multiply-Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub132sd] = false;          // Fused Multiply-Subtract of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub132ss] = false;          // Fused Multiply-Subtract of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub213pd] = false;          // Fused Multiply-Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub213ps] = false;          // Fused Multiply-Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub213sd] = false;          // Fused Multiply-Subtract of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub213ss] = false;          // Fused Multiply-Subtract of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub231pd] = false;          // Fused Multiply-Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub231ps] = false;          // Fused Multiply-Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub231sd] = false;          // Fused Multiply-Subtract of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsub231ss] = false;          // Fused Multiply-Subtract of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsubadd132pd] = false;       // Fused Multiply-Alternating Subtract/Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsubadd132ps] = false;       // Fused Multiply-Alternating Subtract/Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsubadd213pd] = false;       // Fused Multiply-Alternating Subtract/Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsubadd213ps] = false;       // Fused Multiply-Alternating Subtract/Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsubadd231pd] = false;       // Fused Multiply-Alternating Subtract/Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfmsubadd231ps] = false;       // Fused Multiply-Alternating Subtract/Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd132pd] = false;         // Fused Negative Multiply-Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd132ps] = false;         // Fused Negative Multiply-Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd132sd] = false;         // Fused Negative Multiply-Add of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd132ss] = false;         // Fused Negative Multiply-Add of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd213pd] = false;         // Fused Negative Multiply-Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd213ps] = false;         // Fused Negative Multiply-Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd213sd] = false;         // Fused Negative Multiply-Add of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd213ss] = false;         // Fused Negative Multiply-Add of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd231pd] = false;         // Fused Negative Multiply-Add of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd231ps] = false;         // Fused Negative Multiply-Add of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd231sd] = false;         // Fused Negative Multiply-Add of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmadd231ss] = false;         // Fused Negative Multiply-Add of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub132pd] = false;         // Fused Negative Multiply-Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub132ps] = false;         // Fused Negative Multiply-Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub132sd] = false;         // Fused Negative Multiply-Subtract of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub132ss] = false;         // Fused Negative Multiply-Subtract of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub213pd] = false;         // Fused Negative Multiply-Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub213ps] = false;         // Fused Negative Multiply-Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub213sd] = false;         // Fused Negative Multiply-Subtract of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub213ss] = false;         // Fused Negative Multiply-Subtract of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub231pd] = false;         // Fused Negative Multiply-Subtract of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub231ps] = false;         // Fused Negative Multiply-Subtract of Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub231sd] = false;         // Fused Negative Multiply-Subtract of Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vfnmsub231ss] = false;         // Fused Negative Multiply-Subtract of Scalar Single-Precision Floating-Point Values
SMPDefsFlags[NN_vgatherdps] = false;           // Gather Packed SP FP Values Using Signed Dword Indices
SMPDefsFlags[NN_vgatherdpd] = false;           // Gather Packed DP FP Values Using Signed Dword Indices
SMPDefsFlags[NN_vgatherqps] = false;           // Gather Packed SP FP Values Using Signed Qword Indices
SMPDefsFlags[NN_vgatherqpd] = false;           // Gather Packed DP FP Values Using Signed Qword Indices
SMPDefsFlags[NN_vhaddpd] = false;              // Add horizontally packed DP FP numbers
SMPDefsFlags[NN_vhaddps] = false;              // Add horizontally packed SP FP numbers
SMPDefsFlags[NN_vhsubpd] = false;              // Sub horizontally packed DP FP numbers
SMPDefsFlags[NN_vhsubps] = false;              // Sub horizontally packed SP FP numbers
SMPDefsFlags[NN_vinsertf128] = false;          // Insert Packed Floating-Point Values
SMPDefsFlags[NN_vinserti128] = false;          // Insert Packed Integer Values
SMPDefsFlags[NN_vinsertps] = false;            // Insert Packed Single Precision Floating-Point Value
SMPDefsFlags[NN_vlddqu] = false;               // Load Unaligned Packed Integer Values
SMPDefsFlags[NN_vldmxcsr] = false;             // Load Streaming SIMD Extensions Technology Control/Status Register
SMPDefsFlags[NN_vmaskmovdqu] = false;          // Store Selected Bytes of Double Quadword with NT Hint
SMPDefsFlags[NN_vmaskmovpd] = false;           // Conditionally Load Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmaskmovps] = false;           // Conditionally Load Packed Single-Precision Floating-Point Values
SMPDefsFlags[NN_vmaxpd] = false;               // Return Maximum Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmaxps] = false;               // Packed Single-FP Maximum
SMPDefsFlags[NN_vmaxsd] = false;               // Return Maximum Scalar Double-Precision Floating-Point Value
SMPDefsFlags[NN_vmaxss] = false;               // Scalar Single-FP Maximum
SMPDefsFlags[NN_vminpd] = false;               // Return Minimum Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vminps] = false;               // Packed Single-FP Minimum
SMPDefsFlags[NN_vminsd] = false;               // Return Minimum Scalar Double-Precision Floating-Point Value
SMPDefsFlags[NN_vminss] = false;               // Scalar Single-FP Minimum
SMPDefsFlags[NN_vmovapd] = false;              // Move Aligned Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmovaps] = false;              // Move Aligned Four Packed Single-FP
SMPDefsFlags[NN_vmovd] = false;                // Move 32 bits
SMPDefsFlags[NN_vmovddup] = false;             // Move One Double-FP and Duplicate
SMPDefsFlags[NN_vmovdqa] = false;              // Move Aligned Double Quadword
SMPDefsFlags[NN_vmovdqu] = false;              // Move Unaligned Double Quadword
SMPDefsFlags[NN_vmovhlps] = false;             // Move High to Low Packed Single-FP
SMPDefsFlags[NN_vmovhpd] = false;              // Move High Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmovhps] = false;              // Move High Packed Single-FP
SMPDefsFlags[NN_vmovlhps] = false;             // Move Low to High Packed Single-FP
SMPDefsFlags[NN_vmovlpd] = false;              // Move Low Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmovlps] = false;              // Move Low Packed Single-FP
SMPDefsFlags[NN_vmovmskpd] = false;            // Extract Packed Double-Precision Floating-Point Sign Mask
SMPDefsFlags[NN_vmovmskps] = false;            // Move Mask to Register
SMPDefsFlags[NN_vmovntdq] = false;             // Store Double Quadword Using Non-Temporal Hint
SMPDefsFlags[NN_vmovntdqa] = false;            // Load Double Quadword Non-Temporal Aligned Hint
SMPDefsFlags[NN_vmovntpd] = false;             // Store Packed Double-Precision Floating-Point Values Using Non-Temporal Hint
SMPDefsFlags[NN_vmovntps] = false;             // Move Aligned Four Packed Single-FP Non Temporal
SMPDefsFlags[NN_vmovntsd] = false;             // Move Non-Temporal Scalar Double-Precision Floating-Point
SMPDefsFlags[NN_vmovntss] = false;             // Move Non-Temporal Scalar Single-Precision Floating-Point
SMPDefsFlags[NN_vmovq] = false;                // Move 64 bits
SMPDefsFlags[NN_vmovsd] = false;               // Move Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmovshdup] = false;            // Move Packed Single-FP High and Duplicate
SMPDefsFlags[NN_vmovsldup] = false;            // Move Packed Single-FP Low and Duplicate
SMPDefsFlags[NN_vmovss] = false;               // Move Scalar Single-FP
SMPDefsFlags[NN_vmovupd] = false;              // Move Unaligned Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmovups] = false;              // Move Unaligned Four Packed Single-FP
SMPDefsFlags[NN_vmpsadbw] = false;             // Compute Multiple Packed Sums of Absolute Difference
SMPDefsFlags[NN_vmulpd] = false;               // Multiply Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmulps] = false;               // Packed Single-FP Multiply
SMPDefsFlags[NN_vmulsd] = false;               // Multiply Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vmulss] = false;               // Scalar Single-FP Multiply
SMPDefsFlags[NN_vorpd] = false;                // Bitwise Logical OR of Double-Precision Floating-Point Values
SMPDefsFlags[NN_vorps] = false;                // Bitwise Logical OR for Single-FP Data
SMPDefsFlags[NN_vpabsb] = false;               // Packed Absolute Value Byte
SMPDefsFlags[NN_vpabsd] = false;               // Packed Absolute Value Doubleword
SMPDefsFlags[NN_vpabsw] = false;               // Packed Absolute Value Word
SMPDefsFlags[NN_vpackssdw] = false;            // Pack with Signed Saturation (Dword->Word)
SMPDefsFlags[NN_vpacksswb] = false;            // Pack with Signed Saturation (Word->Byte)
SMPDefsFlags[NN_vpackusdw] = false;            // Pack with Unsigned Saturation
SMPDefsFlags[NN_vpackuswb] = false;            // Pack with Unsigned Saturation (Word->Byte)
SMPDefsFlags[NN_vpaddb] = false;               // Packed Add Byte
SMPDefsFlags[NN_vpaddd] = false;               // Packed Add Dword
SMPDefsFlags[NN_vpaddq] = false;               // Add Packed Quadword Integers
SMPDefsFlags[NN_vpaddsb] = false;              // Packed Add with Saturation (Byte)
SMPDefsFlags[NN_vpaddsw] = false;              // Packed Add with Saturation (Word)
SMPDefsFlags[NN_vpaddusb] = false;             // Packed Add Unsigned with Saturation (Byte)
SMPDefsFlags[NN_vpaddusw] = false;             // Packed Add Unsigned with Saturation (Word)
SMPDefsFlags[NN_vpaddw] = false;               // Packed Add Word
SMPDefsFlags[NN_vpalignr] = false;             // Packed Align Right
SMPDefsFlags[NN_vpand] = false;                // Bitwise Logical And
SMPDefsFlags[NN_vpandn] = false;               // Bitwise Logical And Not
SMPDefsFlags[NN_vpavgb] = false;               // Packed Average (Byte)
SMPDefsFlags[NN_vpavgw] = false;               // Packed Average (Word)
SMPDefsFlags[NN_vpblendd] = false;             // Blend Packed Dwords
SMPDefsFlags[NN_vpblendvb] = false;            // Variable Blend Packed Bytes
SMPDefsFlags[NN_vpblendw] = false;             // Blend Packed Words
SMPDefsFlags[NN_vpbroadcastb] = false;         // Broadcast a Byte Integer
SMPDefsFlags[NN_vpbroadcastd] = false;         // Broadcast a Dword Integer
SMPDefsFlags[NN_vpbroadcastq] = false;         // Broadcast a Qword Integer
SMPDefsFlags[NN_vpbroadcastw] = false;         // Broadcast a Word Integer
SMPDefsFlags[NN_vpclmulqdq] = false;           // Carry-Less Multiplication Quadword
SMPDefsFlags[NN_vpcmpeqb] = false;             // Packed Compare for Equal (Byte)
SMPDefsFlags[NN_vpcmpeqd] = false;             // Packed Compare for Equal (Dword)
SMPDefsFlags[NN_vpcmpeqq] = false;             // Compare Packed Qword Data for Equal
SMPDefsFlags[NN_vpcmpeqw] = false;             // Packed Compare for Equal (Word)
SMPDefsFlags[NN_vpcmpestri] = false;           // Packed Compare Explicit Length Strings, Return Index
SMPDefsFlags[NN_vpcmpestrm] = false;           // Packed Compare Explicit Length Strings, Return Mask
SMPDefsFlags[NN_vpcmpgtb] = false;             // Packed Compare for Greater Than (Byte)
SMPDefsFlags[NN_vpcmpgtd] = false;             // Packed Compare for Greater Than (Dword)
SMPDefsFlags[NN_vpcmpgtq] = false;             // Compare Packed Data for Greater Than
SMPDefsFlags[NN_vpcmpgtw] = false;             // Packed Compare for Greater Than (Word)
SMPDefsFlags[NN_vpcmpistri] = false;           // Packed Compare Implicit Length Strings, Return Index
SMPDefsFlags[NN_vpcmpistrm] = false;           // Packed Compare Implicit Length Strings, Return Mask
SMPDefsFlags[NN_vperm2f128] = false;           // Permute Floating-Point Values
SMPDefsFlags[NN_vperm2i128] = false;           // Permute Integer Values
SMPDefsFlags[NN_vpermd] = false;               // Full Doublewords Element Permutation
SMPDefsFlags[NN_vpermilpd] = false;            // Permute Double-Precision Floating-Point Values
SMPDefsFlags[NN_vpermilps] = false;            // Permute Single-Precision Floating-Point Values
SMPDefsFlags[NN_vpermpd] = false;              // Permute Double-Precision Floating-Point Elements
SMPDefsFlags[NN_vpermps] = false;              // Permute Single-Precision Floating-Point Elements
SMPDefsFlags[NN_vpermq] = false;               // Qwords Element Permutation
SMPDefsFlags[NN_vpextrb] = false;              // Extract Byte
SMPDefsFlags[NN_vpextrd] = false;              // Extract Dword
SMPDefsFlags[NN_vpextrq] = false;              // Extract Qword
SMPDefsFlags[NN_vpextrw] = false;              // Extract Word
SMPDefsFlags[NN_vpgatherdd] = false;           // Gather Packed Dword Values Using Signed Dword Indices
SMPDefsFlags[NN_vpgatherdq] = false;           // Gather Packed Qword Values Using Signed Dword Indices
SMPDefsFlags[NN_vpgatherqd] = false;           // Gather Packed Dword Values Using Signed Qword Indices
SMPDefsFlags[NN_vpgatherqq] = false;           // Gather Packed Qword Values Using Signed Qword Indices
SMPDefsFlags[NN_vphaddd] = false;              // Packed Horizontal Add Doubleword
SMPDefsFlags[NN_vphaddsw] = false;          // Packed Horizontal Add and Saturate
SMPDefsFlags[NN_vphaddw] = false;           // Packed Horizontal Add Word
SMPDefsFlags[NN_vphminposuw] = false;       // Packed Horizontal Word Minimum
SMPDefsFlags[NN_vphsubd] = false;           // Packed Horizontal Subtract Doubleword
SMPDefsFlags[NN_vphsubsw] = false;          // Packed Horizontal Subtract and Saturate
SMPDefsFlags[NN_vphsubw] = false;           // Packed Horizontal Subtract Word
SMPDefsFlags[NN_vpinsrb] = false;           // Insert Byte
SMPDefsFlags[NN_vpinsrd] = false;           // Insert Dword
SMPDefsFlags[NN_vpinsrq] = false;           // Insert Qword
SMPDefsFlags[NN_vpinsrw] = false;           // Insert Word
SMPDefsFlags[NN_vpmaddubsw] = false;        // Multiply and Add Packed Signed and Unsigned Bytes
SMPDefsFlags[NN_vpmaddwd] = false;          // Packed Multiply and Add
SMPDefsFlags[NN_vpmaskmovd] = false;        // Conditionally Store Dword Values Using Mask
SMPDefsFlags[NN_vpmaskmovq] = false;        // Conditionally Store Qword Values Using Mask
SMPDefsFlags[NN_vpmaxsb] = false;           // Maximum of Packed Signed Byte Integers
SMPDefsFlags[NN_vpmaxsd] = false;           // Maximum of Packed Signed Dword Integers
SMPDefsFlags[NN_vpmaxsw] = false;           // Packed Signed Integer Word Maximum
SMPDefsFlags[NN_vpmaxub] = false;           // Packed Unsigned Integer Byte Maximum
SMPDefsFlags[NN_vpmaxud] = false;           // Maximum of Packed Unsigned Dword Integers
SMPDefsFlags[NN_vpmaxuw] = false;           // Maximum of Packed Word Integers
SMPDefsFlags[NN_vpminsb] = false;           // Minimum of Packed Signed Byte Integers
SMPDefsFlags[NN_vpminsd] = false;           // Minimum of Packed Signed Dword Integers
SMPDefsFlags[NN_vpminsw] = false;           // Packed Signed Integer Word Minimum
SMPDefsFlags[NN_vpminub] = false;           // Packed Unsigned Integer Byte Minimum
SMPDefsFlags[NN_vpminud] = false;           // Minimum of Packed Unsigned Dword Integers
SMPDefsFlags[NN_vpminuw] = false;           // Minimum of Packed Word Integers
SMPDefsFlags[NN_vpmovmskb] = false;         // Move Byte Mask to Integer
SMPDefsFlags[NN_vpmovsxbd] = false;         // Packed Move with Sign Extend
SMPDefsFlags[NN_vpmovsxbq] = false;         // Packed Move with Sign Extend
SMPDefsFlags[NN_vpmovsxbw] = false;         // Packed Move with Sign Extend
SMPDefsFlags[NN_vpmovsxdq] = false;         // Packed Move with Sign Extend
SMPDefsFlags[NN_vpmovsxwd] = false;         // Packed Move with Sign Extend
SMPDefsFlags[NN_vpmovsxwq] = false;         // Packed Move with Sign Extend
SMPDefsFlags[NN_vpmovzxbd] = false;         // Packed Move with Zero Extend
SMPDefsFlags[NN_vpmovzxbq] = false;         // Packed Move with Zero Extend
SMPDefsFlags[NN_vpmovzxbw] = false;         // Packed Move with Zero Extend
SMPDefsFlags[NN_vpmovzxdq] = false;         // Packed Move with Zero Extend
SMPDefsFlags[NN_vpmovzxwd] = false;         // Packed Move with Zero Extend
SMPDefsFlags[NN_vpmovzxwq] = false;         // Packed Move with Zero Extend
SMPDefsFlags[NN_vpmuldq] = false;           // Multiply Packed Signed Dword Integers
SMPDefsFlags[NN_vpmulhrsw] = false;         // Packed Multiply High with Round and Scale
SMPDefsFlags[NN_vpmulhuw] = false;          // Packed Multiply High Unsigned
SMPDefsFlags[NN_vpmulhw] = false;           // Packed Multiply High
SMPDefsFlags[NN_vpmulld] = false;           // Multiply Packed Signed Dword Integers and Store Low Result
SMPDefsFlags[NN_vpmullw] = false;           // Packed Multiply Low
SMPDefsFlags[NN_vpmuludq] = false;          // Multiply Packed Unsigned Doubleword Integers
SMPDefsFlags[NN_vpor] = false;              // Bitwise Logical Or
SMPDefsFlags[NN_vpsadbw] = false;           // Packed Sum of Absolute Differences
SMPDefsFlags[NN_vpshufb] = false;           // Packed Shuffle Bytes
SMPDefsFlags[NN_vpshufd] = false;           // Shuffle Packed Doublewords
SMPDefsFlags[NN_vpshufhw] = false;          // Shuffle Packed High Words
SMPDefsFlags[NN_vpshuflw] = false;          // Shuffle Packed Low Words
SMPDefsFlags[NN_vpsignb] = false;           // Packed SIGN Byte
SMPDefsFlags[NN_vpsignd] = false;           // Packed SIGN Doubleword
SMPDefsFlags[NN_vpsignw] = false;           // Packed SIGN Word
SMPDefsFlags[NN_vpslld] = false;            // Packed Shift Left Logical (Dword)
SMPDefsFlags[NN_vpslldq] = false;           // Shift Double Quadword Left Logical
SMPDefsFlags[NN_vpsllq] = false;            // Packed Shift Left Logical (Qword)
SMPDefsFlags[NN_vpsllvd] = false;           // Variable Bit Shift Left Logical (Dword)
SMPDefsFlags[NN_vpsllvq] = false;           // Variable Bit Shift Left Logical (Qword)
SMPDefsFlags[NN_vpsllw] = false;            // Packed Shift Left Logical (Word)
SMPDefsFlags[NN_vpsrad] = false;            // Packed Shift Right Arithmetic (Dword)
SMPDefsFlags[NN_vpsravd] = false;           // Variable Bit Shift Right Arithmetic
SMPDefsFlags[NN_vpsraw] = false;            // Packed Shift Right Arithmetic (Word)
SMPDefsFlags[NN_vpsrld] = false;            // Packed Shift Right Logical (Dword)
SMPDefsFlags[NN_vpsrldq] = false;           // Shift Double Quadword Right Logical (Qword)
SMPDefsFlags[NN_vpsrlq] = false;            // Packed Shift Right Logical (Qword)
SMPDefsFlags[NN_vpsrlvd] = false;           // Variable Bit Shift Right Logical (Dword)
SMPDefsFlags[NN_vpsrlvq] = false;           // Variable Bit Shift Right Logical (Qword)
SMPDefsFlags[NN_vpsrlw] = false;            // Packed Shift Right Logical (Word)
SMPDefsFlags[NN_vpsubb] = false;            // Packed Subtract Byte
SMPDefsFlags[NN_vpsubd] = false;            // Packed Subtract Dword
SMPDefsFlags[NN_vpsubq] = false;            // Subtract Packed Quadword Integers
SMPDefsFlags[NN_vpsubsb] = false;           // Packed Subtract with Saturation (Byte)
SMPDefsFlags[NN_vpsubsw] = false;           // Packed Subtract with Saturation (Word)
SMPDefsFlags[NN_vpsubusb] = false;          // Packed Subtract Unsigned with Saturation (Byte)
SMPDefsFlags[NN_vpsubusw] = false;          // Packed Subtract Unsigned with Saturation (Word)
SMPDefsFlags[NN_vpsubw] = false;            // Packed Subtract Word
SMPDefsFlags[NN_vptest] = false;            // Logical Compare
SMPDefsFlags[NN_vpunpckhbw] = false;        // Unpack High Packed Data (Byte->Word)
SMPDefsFlags[NN_vpunpckhdq] = false;        // Unpack High Packed Data (Dword->Qword)
SMPDefsFlags[NN_vpunpckhqdq] = false;       // Unpack High Packed Data (Qword->Xmmword)
SMPDefsFlags[NN_vpunpckhwd] = false;        // Unpack High Packed Data (Word->Dword)
SMPDefsFlags[NN_vpunpcklbw] = false;        // Unpack Low Packed Data (Byte->Word)
SMPDefsFlags[NN_vpunpckldq] = false;        // Unpack Low Packed Data (Dword->Qword)
SMPDefsFlags[NN_vpunpcklqdq] = false;       // Unpack Low Packed Data (Qword->Xmmword)
SMPDefsFlags[NN_vpunpcklwd] = false;        // Unpack Low Packed Data (Word->Dword)
SMPDefsFlags[NN_vpxor] = false;             // Bitwise Logical Exclusive Or
SMPDefsFlags[NN_vrcpps] = false;            // Packed Single-FP Reciprocal
SMPDefsFlags[NN_vrcpss] = false;            // Scalar Single-FP Reciprocal
SMPDefsFlags[NN_vroundpd] = false;          // Round Packed Double Precision Floating-Point Values
SMPDefsFlags[NN_vroundps] = false;          // Round Packed Single Precision Floating-Point Values
SMPDefsFlags[NN_vroundsd] = false;          // Round Scalar Double Precision Floating-Point Values
SMPDefsFlags[NN_vroundss] = false;          // Round Scalar Single Precision Floating-Point Values
SMPDefsFlags[NN_vrsqrtps] = false;          // Packed Single-FP Square Root Reciprocal
SMPDefsFlags[NN_vrsqrtss] = false;          // Scalar Single-FP Square Root Reciprocal
SMPDefsFlags[NN_vshufpd] = false;           // Shuffle Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vshufps] = false;           // Shuffle Single-FP
SMPDefsFlags[NN_vsqrtpd] = false;           // Compute Square Roots of Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vsqrtps] = false;           // Packed Single-FP Square Root
SMPDefsFlags[NN_vsqrtsd] = false;           // Compute Square Rootof Scalar Double-Precision Floating-Point Value
SMPDefsFlags[NN_vsqrtss] = false;           // Scalar Single-FP Square Root
SMPDefsFlags[NN_vstmxcsr] = false;          // Store Streaming SIMD Extensions Technology Control/Status Register
SMPDefsFlags[NN_vsubpd] = false;            // Subtract Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vsubps] = false;            // Packed Single-FP Subtract
SMPDefsFlags[NN_vsubsd] = false;            // Subtract Scalar Double-Precision Floating-Point Values
SMPDefsFlags[NN_vsubss] = false;            // Scalar Single-FP Subtract
SMPDefsFlags[NN_vtestpd] = false;           // Packed Double-Precision Floating-Point Bit Test
SMPDefsFlags[NN_vtestps] = false;           // Packed Single-Precision Floating-Point Bit Test
SMPDefsFlags[NN_vucomisd] = false;          // Unordered Compare Scalar Ordered Double-Precision Floating-Point Values and Set EFLAGS
SMPDefsFlags[NN_vucomiss] = false;          // Scalar Unordered Single-FP Compare and Set EFLAGS
SMPDefsFlags[NN_vunpckhpd] = false;         // Unpack and Interleave High Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vunpckhps] = false;         // Unpack High Packed Single-FP Data
SMPDefsFlags[NN_vunpcklpd] = false;         // Unpack and Interleave Low Packed Double-Precision Floating-Point Values
SMPDefsFlags[NN_vunpcklps] = false;         // Unpack Low Packed Single-FP Data
SMPDefsFlags[NN_vxorpd] = false;            // Bitwise Logical OR of Double-Precision Floating-Point Values
SMPDefsFlags[NN_vxorps] = false;            // Bitwise Logical XOR for Single-FP Data
SMPDefsFlags[NN_vzeroall] = false;          // Zero All YMM Registers
SMPDefsFlags[NN_vzeroupper] = false;        // Zero Upper Bits of YMM Registers

// Transactional Synchronization Extensions

SMPDefsFlags[NN_xabort] = false;               // Transaction Abort
SMPDefsFlags[NN_xbegin] = false;               // Transaction Begin
SMPDefsFlags[NN_xend] = false;                 // Transaction End
SMPDefsFlags[NN_xtest] = false;                // Test If In Transactional Execution

// Virtual PC synthetic instructions

SMPDefsFlags[NN_vmgetinfo] = false;            // Virtual PC - Get VM Information
SMPDefsFlags[NN_vmsetinfo] = false;            // Virtual PC - Set VM Information
SMPDefsFlags[NN_vmdxdsbl] = false;             // Virtual PC - Disable Direct Execution
SMPDefsFlags[NN_vmdxenbl] = false;             // Virtual PC - Enable Direct Execution
SMPDefsFlags[NN_vmcpuid] = false;              // Virtual PC - Virtualized CPU Information
SMPDefsFlags[NN_vmhlt] = false;                // Virtual PC - Halt
SMPDefsFlags[NN_vmsplaf] = false;              // Virtual PC - Spin Lock Acquisition Failed
SMPDefsFlags[NN_vmpushfd] = false;             // Virtual PC - Push virtualized flags register
SMPDefsFlags[NN_vmpopfd] = false;              // Virtual PC - Pop virtualized flags register
SMPDefsFlags[NN_vmcli] = false;                // Virtual PC - Clear Interrupt Flag
SMPDefsFlags[NN_vmsti] = false;                // Virtual PC - Set Interrupt Flag
SMPDefsFlags[NN_vmiretd] = false;              // Virtual PC - Return From Interrupt
SMPDefsFlags[NN_vmsgdt] = false;               // Virtual PC - Store Global Descriptor Table
SMPDefsFlags[NN_vmsidt] = false;               // Virtual PC - Store Interrupt Descriptor Table
SMPDefsFlags[NN_vmsldt] = false;               // Virtual PC - Store Local Descriptor Table
SMPDefsFlags[NN_vmstr] = false;                // Virtual PC - Store Task Register
SMPDefsFlags[NN_vmsdte] = false;               // Virtual PC - Store to Descriptor Table Entry
SMPDefsFlags[NN_vpcext] = false;               // Virtual PC - ISA extension

#endif // 599 < IDA_SDK_VERSION

SMPDefsFlags[NN_last] = false;

  return;

} // end InitSMPDefsFlags()

// Initialize the SMPUsesFlags[] array to define how we emit
//   optimizing annotations.
void InitSMPUsesFlags(void) {
	// Default value is false. Few instructions use the flags.
	(void) memset(SMPUsesFlags, false, sizeof(SMPUsesFlags));

SMPUsesFlags[NN_null] = true;            // Unknown Operation
SMPUsesFlags[NN_aaa] = true;                 // ASCII adjust after addition
SMPUsesFlags[NN_aas] = true;				 // ASCII adjust after subtraction
SMPUsesFlags[NN_adc] = true;                 // Add with Carry
SMPUsesFlags[NN_cmps] = true;                // Compare Strings (uses DF direction flag)
SMPUsesFlags[NN_daa] = true;                 // Decimal Adjust AL after Addition
SMPUsesFlags[NN_das] = true;                 // Decimal Adjust AL after Subtraction
SMPUsesFlags[NN_ins] = true;                 // Input Byte(s) from Port to String        
SMPUsesFlags[NN_into] = true;                // Call to Interrupt Procedure if Overflow Flag = 1
SMPUsesFlags[NN_ja] = true;                  // Jump if Above (CF=0 & ZF=0)
SMPUsesFlags[NN_jae] = true;                 // Jump if Above or Equal (CF=0)
SMPUsesFlags[NN_jb] = true;                  // Jump if Below (CF=1)
SMPUsesFlags[NN_jbe] = true;                 // Jump if Below or Equal (CF=1 | ZF=1)
SMPUsesFlags[NN_jc] = true;                  // Jump if Carry (CF=1)
SMPUsesFlags[NN_jcxz] = true;                // Jump if CX is 0
SMPUsesFlags[NN_jecxz] = true;               // Jump if ECX is 0
SMPUsesFlags[NN_jrcxz] = true;               // Jump if RCX is 0
SMPUsesFlags[NN_je] = true;                  // Jump if Equal (ZF=1)
SMPUsesFlags[NN_jg] = true;                  // Jump if Greater (ZF=0 & SF=OF)
SMPUsesFlags[NN_jge] = true;                 // Jump if Greater or Equal (SF=OF)
SMPUsesFlags[NN_jl] = true;                  // Jump if Less (SF!=OF)
SMPUsesFlags[NN_jle] = true;                 // Jump if Less or Equal (ZF=1 | SF!=OF)
SMPUsesFlags[NN_jna] = true;                 // Jump if Not Above (CF=1 | ZF=1)
SMPUsesFlags[NN_jnae] = true;                // Jump if Not Above or Equal (CF=1)
SMPUsesFlags[NN_jnb] = true;                 // Jump if Not Below (CF=0)
SMPUsesFlags[NN_jnbe] = true;                // Jump if Not Below or Equal (CF=0 & ZF=0)
SMPUsesFlags[NN_jnc] = true;                 // Jump if Not Carry (CF=0)
SMPUsesFlags[NN_jne] = true;                 // Jump if Not Equal (ZF=0)
SMPUsesFlags[NN_jng] = true;                 // Jump if Not Greater (ZF=1 | SF!=OF)
SMPUsesFlags[NN_jnge] = true;                // Jump if Not Greater or Equal (SF!=OF)
SMPUsesFlags[NN_jnl] = true;                 // Jump if Not Less (SF=OF)
SMPUsesFlags[NN_jnle] = true;                // Jump if Not Less or Equal (ZF=0 & SF=OF)
SMPUsesFlags[NN_jno] = true;                 // Jump if Not Overflow (OF=0)
SMPUsesFlags[NN_jnp] = true;                 // Jump if Not Parity (PF=0)
SMPUsesFlags[NN_jns] = true;                 // Jump if Not Sign (SF=0)
SMPUsesFlags[NN_jnz] = true;                 // Jump if Not Zero (ZF=0)
SMPUsesFlags[NN_jo] = true;                  // Jump if Overflow (OF=1)
SMPUsesFlags[NN_jp] = true;                  // Jump if Parity (PF=1)
SMPUsesFlags[NN_jpe] = true;                 // Jump if Parity Even (PF=1)
SMPUsesFlags[NN_jpo] = true;                 // Jump if Parity Odd  (PF=0)
SMPUsesFlags[NN_js] = true;                  // Jump if Sign (SF=1)
SMPUsesFlags[NN_jz] = true;                  // Jump if Zero (ZF=1)
SMPUsesFlags[NN_lahf] = true;                // Load Flags into AH Register
SMPUsesFlags[NN_lods] = true;                // Load String
SMPUsesFlags[NN_loopwe] = true;              // Loop while CX != 0 and ZF=1
SMPUsesFlags[NN_loope] = true;               // Loop while rCX != 0 and ZF=1
SMPUsesFlags[NN_loopde] = true;              // Loop while ECX != 0 and ZF=1
SMPUsesFlags[NN_loopqe] = true;              // Loop while RCX != 0 and ZF=1
SMPUsesFlags[NN_loopwne] = true;             // Loop while CX != 0 and ZF=0
SMPUsesFlags[NN_loopne] = true;              // Loop while rCX != 0 and ZF=0
SMPUsesFlags[NN_loopdne] = true;             // Loop while ECX != 0 and ZF=0
SMPUsesFlags[NN_loopqne] = true;             // Loop while RCX != 0 and ZF=0
SMPUsesFlags[NN_movs] = true;  		         // Move String (uses flags if REP prefix)
SMPUsesFlags[NN_outs] = true;                // Output Byte(s) to Port
SMPUsesFlags[NN_pushfw] = true;              // Push Flags Register onto the Stack
SMPUsesFlags[NN_pushf] = true;               // Push Flags Register onto the Stack
SMPUsesFlags[NN_pushfd] = true;              // Push Flags Register onto the Stack (use32)
SMPUsesFlags[NN_pushfq] = true;              // Push Flags Register onto the Stack (use64)
SMPUsesFlags[NN_rcl] = true;                 // Rotate Through Carry Left
SMPUsesFlags[NN_rcr] = true;                 // Rotate Through Carry Right
SMPUsesFlags[NN_repe] = true;                // Repeat String Operation while ZF=1
SMPUsesFlags[NN_repne] = true;               // Repeat String Operation while ZF=0
SMPUsesFlags[NN_sbb] = true;                 // Integer Subtraction with Borrow
SMPUsesFlags[NN_scas] = true;                // Compare String (uses DF direction flag)
SMPUsesFlags[NN_seta] = true;                // Set Byte if Above (CF=0 & ZF=0)
SMPUsesFlags[NN_setae] = true;               // Set Byte if Above or Equal (CF=0)
SMPUsesFlags[NN_setb] = true;                // Set Byte if Below (CF=1)
SMPUsesFlags[NN_setbe] = true;               // Set Byte if Below or Equal (CF=1 | ZF=1)
SMPUsesFlags[NN_setc] = true;                // Set Byte if Carry (CF=1)
SMPUsesFlags[NN_sete] = true;                // Set Byte if Equal (ZF=1)
SMPUsesFlags[NN_setg] = true;                // Set Byte if Greater (ZF=0 & SF=OF)
SMPUsesFlags[NN_setge] = true;               // Set Byte if Greater or Equal (SF=OF)
SMPUsesFlags[NN_setl] = true;                // Set Byte if Less (SF!=OF)
SMPUsesFlags[NN_setle] = true;               // Set Byte if Less or Equal (ZF=1 | SF!=OF)
SMPUsesFlags[NN_setna] = true;               // Set Byte if Not Above (CF=1 | ZF=1)
SMPUsesFlags[NN_setnae] = true;              // Set Byte if Not Above or Equal (CF=1)
SMPUsesFlags[NN_setnb] = true;               // Set Byte if Not Below (CF=0)
SMPUsesFlags[NN_setnbe] = true;              // Set Byte if Not Below or Equal (CF=0 & ZF=0)
SMPUsesFlags[NN_setnc] = true;               // Set Byte if Not Carry (CF=0)
SMPUsesFlags[NN_setne] = true;               // Set Byte if Not Equal (ZF=0)
SMPUsesFlags[NN_setng] = true;               // Set Byte if Not Greater (ZF=1 | SF!=OF)
SMPUsesFlags[NN_setnge] = true;              // Set Byte if Not Greater or Equal (SF!=OF)
SMPUsesFlags[NN_setnl] = true;               // Set Byte if Not Less (SF=OF)
SMPUsesFlags[NN_setnle] = true;              // Set Byte if Not Less or Equal (ZF=0 & SF=OF)
SMPUsesFlags[NN_setno] = true;               // Set Byte if Not Overflow (OF=0)
SMPUsesFlags[NN_setnp] = true;               // Set Byte if Not Parity (PF=0)
SMPUsesFlags[NN_setns] = true;               // Set Byte if Not Sign (SF=0)
SMPUsesFlags[NN_setnz] = true;               // Set Byte if Not Zero (ZF=0)
SMPUsesFlags[NN_seto] = true;                // Set Byte if Overflow (OF=1)
SMPUsesFlags[NN_setp] = true;                // Set Byte if Parity (PF=1)
SMPUsesFlags[NN_setpe] = true;               // Set Byte if Parity Even (PF=1)
SMPUsesFlags[NN_setpo] = true;               // Set Byte if Parity Odd  (PF=0)
SMPUsesFlags[NN_sets] = true;                // Set Byte if Sign (SF=1)
SMPUsesFlags[NN_setz] = true;                // Set Byte if Zero (ZF=1)
SMPUsesFlags[NN_stos] = true;                // Store String

//
//      486 instructions
//

//
//      Pentium instructions
//

#if 0
SMPUsesFlags[NN_cpuid] = true;               // Get CPU ID
SMPUsesFlags[NN_cmpxchg8b] = true;           // Compare and Exchange Eight Bytes
#endif

//
//      Pentium Pro instructions
//

SMPUsesFlags[NN_cmova] = true;               // Move if Above (CF=0 & ZF=0)
SMPUsesFlags[NN_cmovb] = true;               // Move if Below (CF=1)
SMPUsesFlags[NN_cmovbe] = true;              // Move if Below or Equal (CF=1 | ZF=1)
SMPUsesFlags[NN_cmovg] = true;               // Move if Greater (ZF=0 & SF=OF)
SMPUsesFlags[NN_cmovge] = true;              // Move if Greater or Equal (SF=OF)
SMPUsesFlags[NN_cmovl] = true;               // Move if Less (SF!=OF)
SMPUsesFlags[NN_cmovle] = true;              // Move if Less or Equal (ZF=1 | SF!=OF)
SMPUsesFlags[NN_cmovnb] = true;              // Move if Not Below (CF=0)
SMPUsesFlags[NN_cmovno] = true;              // Move if Not Overflow (OF=0)
SMPUsesFlags[NN_cmovnp] = true;              // Move if Not Parity (PF=0)
SMPUsesFlags[NN_cmovns] = true;              // Move if Not Sign (SF=0)
SMPUsesFlags[NN_cmovnz] = true;              // Move if Not Zero (ZF=0)
SMPUsesFlags[NN_cmovo] = true;               // Move if Overflow (OF=1)
SMPUsesFlags[NN_cmovp] = true;               // Move if Parity (PF=1)
SMPUsesFlags[NN_cmovs] = true;               // Move if Sign (SF=1)
SMPUsesFlags[NN_cmovz] = true;               // Move if Zero (ZF=1)
SMPUsesFlags[NN_fcmovb] = true;              // Floating Move if Below          
SMPUsesFlags[NN_fcmove] = true;              // Floating Move if Equal          
SMPUsesFlags[NN_fcmovbe] = true;             // Floating Move if Below or Equal 
SMPUsesFlags[NN_fcmovu] = true;              // Floating Move if Unordered      
SMPUsesFlags[NN_fcmovnb] = true;             // Floating Move if Not Below      
SMPUsesFlags[NN_fcmovne] = true;             // Floating Move if Not Equal      
SMPUsesFlags[NN_fcmovnbe] = true;            // Floating Move if Not Below or Equal
SMPUsesFlags[NN_fcmovnu] = true;             // Floating Move if Not Unordered     

//
//      FPP instructions
//


//
//      80387 instructions
//


//
//      Instructions added 28.02.96
//

SMPUsesFlags[NN_setalc] = true;              // Set AL to Carry Flag      

//
//      MMX instructions
//


//
//      Undocumented Deschutes processor instructions
//


//      Pentium II instructions


//      3DNow! instructions


//      Pentium III instructions


// Pentium III Pseudo instructions


// AMD K7 instructions

// Revisit AMD if we port to it.

// Undocumented FP instructions (thanks to norbert.juffa@adm.com)

// Pentium 4 instructions



// AMD syscall/sysret instructions  NOTE: not AMD, found in Intel manual

// AMD64 instructions    NOTE: not AMD, found in Intel manual


// New Pentium instructions (SSE3)


// Missing AMD64 instructions  NOTE: also found in Intel manual


// SSE3 instructions


// SSSE3 instructions


// VMX instructions

// Added with x86-64

// Geode LX 3DNow! extensions

// SSE2 pseudoinstructions

// SSSE4.1 instructions

// SSSE4.2 instructions

// AMD SSE4a instructions

// xsave/xrstor instructions

// Intel Safer Mode Extensions (SMX)

// AMD-V Virtualization ISA Extension

// VMX+ instructions

// Intel Atom instructions

// Intel AES instructions

// Carryless multiplication

// Returns modified by operand size prefixes

// RDRAND support

// new GPR instructions

SMPUsesFlags[NN_adcx] = true;                 // Unsigned Integer Addition of Two Operands with Carry Flag
SMPUsesFlags[NN_adox] = true;                 // Unsigned Integer Addition of Two Operands with Overflow Flag

// new AVX instructions

// Transactional Synchronization Extensions

// Virtual PC synthetic instructions

SMPUsesFlags[NN_last] = false;

  return;

} // end InitSMPUsesFlags()


// Initialize the SMPTypeCategory[] array to define how we infer
//   numeric or pointer operand types for optimizing annotations.
void InitTypeCategory(void) {
	// Default category is 0, no type inference without knowing context.
	(void) memset(SMPTypeCategory, 0, sizeof(SMPTypeCategory));
	// Category 1 instructions will need no mmStrata instrumentation
	//  and are irrelevant to our type system, so we do not attempt
	//  to make type inferences. Many of these operate on numeric
	//  operands such as floating point or MMX/SSE registers. mmStrata
	//  assumes that such registers are always numeric, so we do not
	//  need annotations informing mmStrata that FP/MMX/SSE regs are numeric.
	// Category 2 instructions always have a result type of 'n' (number).
	// Category 3 instructions have a result type of 'n' (number)
	//  whenever the second source operand is an operand of type 'n'.
	//  NOTE: MOV is the only current example, and this will take some thought if 
    //   other examples arise.
	// Category 4 instructions have a result type identical to the 1st source operand type.
	//  NOTE: This is currently set for single-operand instructions such as
	//   INC, DEC. As a result, these are treated pretty much as if
	//   they were category 1 instructions, as there is no metadata update,
	//   even if the operand is a memory operand.
	//   If new instructions are added to this category that are not single
	//   operand and do require some updating, the category should be split.
	// Category 5 instructions have a result type identical to the 1st source operand
	//  type whenever the 2nd source operand is an operand of type 'n' & vice versa.
	//  Examples are add, sub, adc, and sbb. There are subtle exceptions
	//  handled in the SMPInstr::EmitTypeAnnotations() method.
	// Category 6 instructions always have a result type of 'p' (pointer).
	// Category 7 instructions are category 2 instructions with two destinations,
	//  such as multiply and divide instructions that affect EDX:EAX. There are
	//  forms of these instructions that only have one destination, so they have
	//  to be distinguished via the operand info.
    // Category 8 instructions implicitly write a numeric value to EDX:EAX, but
    //  EDX and EAX are not listed as operands. RDTSC, RDPMC, RDMSR, and other
    //  instructions that copy machine registers into EDX:EAX are category 8.
	//  Some instructions in category 8 also write to ECX.
    // Category 9 instructions are floating point instructions that either
    //  have a memory destination (treat as category 13) or a FP reg destination
    //  (treat as category 1, as FP regs are always 'n' and ignored in our system).
	// Category 10 instructions have 'n' results if the sources are all 'n';
	//  we cannot infer the type of the result if the sources are of mixed types.
	//  Bitwise OR and AND and LEA (load effective address) are examples.
	// Category 11 instructions need to have their types and locations on the stack
	//  frame tracked, e.g. push and pop instructions. No direct type inference.
	// Category 12 instructions are similar to category 10, except that we do not
	//  output 'n' annotations when all sources are 'n'; rather, the instruction can
	//  be simply ignored (not instrumented by mmStrata) in that case. Conditional
	//  exchange instructions are examples; we do or do not
	//  move a numeric value into a register that already has numeric metadata.
	// Category 13 instructions imply that their memory destination is 'n'.
	// Category 14 instructions imply that their reg or memory source operand is 'n';
	//  if source is not memory, they are category 1 (inferences, but no instrumentation).
	//  There should never be a memory destination (usual destination is fpreg or flags).
	// Category 15 instructions always have 'n' source AND destination operands;
	//  if addressed using indirect or indexed addressing, they are a subset of category 0
	//  (must be instrumented by mmStrata to keep index in bounds). Memory destinations
	//  are common in this category.

	// NOTE: The Memory Monitor SDT needs just three categories, corresponding
	//  to categories 0, 1, and all others. For all categories > 1, the
	//  annotation should tell the SDT exactly how to update its metadata.
	//  For example, a division instruction will write type 'n' (NUM) as
	//  the metadata for result registers EDX:EAX. So, the annotation should
	//  list 'n', EDX, EAX, and a terminator of ZZ. CWD (convert word to
	//  doubleword) should have a list of n EAX ZZ.

SMPTypeCategory[NN_null] = 0;            // Unknown Operation
SMPTypeCategory[NN_aaa] = 2;                 // ASCII Adjust after Addition
SMPTypeCategory[NN_aad] = 2;                 // ASCII Adjust AX before Division
SMPTypeCategory[NN_aam] = 2;                 // ASCII Adjust AX after Multiply
SMPTypeCategory[NN_aas] = 2;                 // ASCII Adjust AL after Subtraction
SMPTypeCategory[NN_adc] = 5;                 // Add with Carry
SMPTypeCategory[NN_add] = 5;                 // Add
SMPTypeCategory[NN_and] = 10;                // Logical AND
SMPTypeCategory[NN_arpl] = 1;                // Adjust RPL Field of Selector
SMPTypeCategory[NN_bound] = 1;               // Check Array Index Against Bounds
SMPTypeCategory[NN_bsf] = 2;                 // Bit Scan Forward
SMPTypeCategory[NN_bsr] = 2;                 // Bit Scan Reverse
SMPTypeCategory[NN_bt] = 10;                  // Bit Test
SMPTypeCategory[NN_btc] = 10;                 // Bit Test and Complement
SMPTypeCategory[NN_btr] = 10;                 // Bit Test and Reset
SMPTypeCategory[NN_bts] = 10;                 // Bit Test and Set
SMPTypeCategory[NN_call] = 1;                // Call Procedure
SMPTypeCategory[NN_callfi] = 1;              // Indirect Call Far Procedure
SMPTypeCategory[NN_callni] = 1;              // Indirect Call Near Procedure
SMPTypeCategory[NN_cbw] = 2;                 // AL -> AX (with sign)            ** No ops?
SMPTypeCategory[NN_cwde] = 2;                // AX -> EAX (with sign)           **
SMPTypeCategory[NN_cdqe] = 2;                // EAX -> RAX (with sign)          **
SMPTypeCategory[NN_clc] = 1;                 // Clear Carry Flag
SMPTypeCategory[NN_cld] = 1;                 // Clear Direction Flag
SMPTypeCategory[NN_cli] = 1;                 // Clear Interrupt Flag
SMPTypeCategory[NN_clts] = 1;                // Clear Task-Switched Flag in CR0
SMPTypeCategory[NN_cmc] = 1;                 // Complement Carry Flag
SMPTypeCategory[NN_cmp] = 1;                 // Compare Two Operands
SMPTypeCategory[NN_cmps] = 14;                // Compare Strings
SMPTypeCategory[NN_cwd] = 2;                 // AX -> DX:AX (with sign)
SMPTypeCategory[NN_cdq] = 2;                 // EAX -> EDX:EAX (with sign)
SMPTypeCategory[NN_cqo] = 2;                 // RAX -> RDX:RAX (with sign)
SMPTypeCategory[NN_daa] = 2;                 // Decimal Adjust AL after Addition
SMPTypeCategory[NN_das] = 2;                 // Decimal Adjust AL after Subtraction
SMPTypeCategory[NN_dec] = 4;                 // Decrement by 1
SMPTypeCategory[NN_div] = 7;                 // Unsigned Divide
SMPTypeCategory[NN_enterw] = 0;              // Make Stack Frame for Procedure Parameters  **
SMPTypeCategory[NN_enter] = 0;               // Make Stack Frame for Procedure Parameters  **
SMPTypeCategory[NN_enterd] = 0;              // Make Stack Frame for Procedure Parameters  **
SMPTypeCategory[NN_enterq] = 0;              // Make Stack Frame for Procedure Parameters  **
SMPTypeCategory[NN_hlt] = 0;                 // Halt
SMPTypeCategory[NN_idiv] = 7;                // Signed Divide
SMPTypeCategory[NN_imul] = 7;                // Signed Multiply
SMPTypeCategory[NN_in] = 0;                  // Input from Port                         **
SMPTypeCategory[NN_inc] = 4;                 // Increment by 1
SMPTypeCategory[NN_ins] = 2;                 // Input Byte(s) from Port to String       **
SMPTypeCategory[NN_int] = 0;                 // Call to Interrupt Procedure
SMPTypeCategory[NN_into] = 0;                // Call to Interrupt Procedure if Overflow Flag = 1
SMPTypeCategory[NN_int3] = 0;                // Trap to Debugger
SMPTypeCategory[NN_iretw] = 0;               // Interrupt Return
SMPTypeCategory[NN_iret] = 0;                // Interrupt Return
SMPTypeCategory[NN_iretd] = 0;               // Interrupt Return (use32)
SMPTypeCategory[NN_iretq] = 0;               // Interrupt Return (use64)
SMPTypeCategory[NN_ja] = 1;                  // Jump if Above (CF=0 & ZF=0)
SMPTypeCategory[NN_jae] = 1;                 // Jump if Above or Equal (CF=0)
SMPTypeCategory[NN_jb] = 1;                  // Jump if Below (CF=1)
SMPTypeCategory[NN_jbe] = 1;                 // Jump if Below or Equal (CF=1 | ZF=1)
SMPTypeCategory[NN_jc] = 1;                  // Jump if Carry (CF=1)
SMPTypeCategory[NN_jcxz] = 1;                // Jump if CX is 0
SMPTypeCategory[NN_jecxz] = 1;               // Jump if ECX is 0
SMPTypeCategory[NN_jrcxz] = 1;               // Jump if RCX is 0
SMPTypeCategory[NN_je] = 1;                  // Jump if Equal (ZF=1)
SMPTypeCategory[NN_jg] = 1;                  // Jump if Greater (ZF=0 & SF=OF)
SMPTypeCategory[NN_jge] = 1;                 // Jump if Greater or Equal (SF=OF)
SMPTypeCategory[NN_jl] = 1;                  // Jump if Less (SF!=OF)
SMPTypeCategory[NN_jle] = 1;                 // Jump if Less or Equal (ZF=1 | SF!=OF)
SMPTypeCategory[NN_jna] = 1;                 // Jump if Not Above (CF=1 | ZF=1)
SMPTypeCategory[NN_jnae] = 1;                // Jump if Not Above or Equal (CF=1)
SMPTypeCategory[NN_jnb] = 1;                 // Jump if Not Below (CF=0)
SMPTypeCategory[NN_jnbe] = 1;                // Jump if Not Below or Equal (CF=0 & ZF=0)
SMPTypeCategory[NN_jnc] = 1;                 // Jump if Not Carry (CF=0)
SMPTypeCategory[NN_jne] = 1;                 // Jump if Not Equal (ZF=0)
SMPTypeCategory[NN_jng] = 1;                 // Jump if Not Greater (ZF=1 | SF!=OF)
SMPTypeCategory[NN_jnge] = 1;                // Jump if Not Greater or Equal (SF!=OF)
SMPTypeCategory[NN_jnl] = 1;                 // Jump if Not Less (SF=OF)
SMPTypeCategory[NN_jnle] = 1;                // Jump if Not Less or Equal (ZF=0 & SF=OF)
SMPTypeCategory[NN_jno] = 1;                 // Jump if Not Overflow (OF=0)
SMPTypeCategory[NN_jnp] = 1;                 // Jump if Not Parity (PF=0)
SMPTypeCategory[NN_jns] = 1;                 // Jump if Not Sign (SF=0)
SMPTypeCategory[NN_jnz] = 1;                 // Jump if Not Zero (ZF=0)
SMPTypeCategory[NN_jo] = 1;                  // Jump if Overflow (OF=1)
SMPTypeCategory[NN_jp] = 1;                  // Jump if Parity (PF=1)
SMPTypeCategory[NN_jpe] = 1;                 // Jump if Parity Even (PF=1)
SMPTypeCategory[NN_jpo] = 1;                 // Jump if Parity Odd  (PF=0)
SMPTypeCategory[NN_js] = 1;                  // Jump if Sign (SF=1)
SMPTypeCategory[NN_jz] = 1;                  // Jump if Zero (ZF=1)
SMPTypeCategory[NN_jmp] = 1;                 // Jump
SMPTypeCategory[NN_jmpfi] = 1;               // Indirect Far Jump
SMPTypeCategory[NN_jmpni] = 1;               // Indirect Near Jump
SMPTypeCategory[NN_jmpshort] = 1;            // Jump Short (not used)
SMPTypeCategory[NN_lahf] = 2;                // Load Flags into AH Register
SMPTypeCategory[NN_lar] = 2;                 // Load Access Rights Byte
SMPTypeCategory[NN_lea] = 10;                // Load Effective Address           **
SMPTypeCategory[NN_leavew] = 0;              // High Level Procedure Exit        **
SMPTypeCategory[NN_leave] = 0;               // High Level Procedure Exit        **
SMPTypeCategory[NN_leaved] = 0;              // High Level Procedure Exit        **
SMPTypeCategory[NN_leaveq] = 0;              // High Level Procedure Exit        **
SMPTypeCategory[NN_lgdt] = 0;                // Load Global Descriptor Table Register
SMPTypeCategory[NN_lidt] = 0;                // Load Interrupt Descriptor Table Register
SMPTypeCategory[NN_lgs] = 6;                 // Load Full Pointer to GS:xx
SMPTypeCategory[NN_lss] = 6;                 // Load Full Pointer to SS:xx
SMPTypeCategory[NN_lds] = 6;                 // Load Full Pointer to DS:xx
SMPTypeCategory[NN_les] = 6;                 // Load Full Pointer to ES:xx
SMPTypeCategory[NN_lfs] = 6;                 // Load Full Pointer to FS:xx
SMPTypeCategory[NN_lldt] = 0;                // Load Local Descriptor Table Register
SMPTypeCategory[NN_lmsw] = 1;                // Load Machine Status Word
SMPTypeCategory[NN_lock] = 1;                // Assert LOCK# Signal Prefix
SMPTypeCategory[NN_lods] = 0;                // Load String
SMPTypeCategory[NN_loopw] = 1;               // Loop while ECX != 0
SMPTypeCategory[NN_loop] = 1;                // Loop while CX != 0
SMPTypeCategory[NN_loopd] = 1;               // Loop while ECX != 0
SMPTypeCategory[NN_loopq] = 1;               // Loop while RCX != 0
SMPTypeCategory[NN_loopwe] = 1;              // Loop while CX != 0 and ZF=1
SMPTypeCategory[NN_loope] = 1;               // Loop while rCX != 0 and ZF=1
SMPTypeCategory[NN_loopde] = 1;              // Loop while ECX != 0 and ZF=1
SMPTypeCategory[NN_loopqe] = 1;              // Loop while RCX != 0 and ZF=1
SMPTypeCategory[NN_loopwne] = 1;             // Loop while CX != 0 and ZF=0
SMPTypeCategory[NN_loopne] = 1;              // Loop while rCX != 0 and ZF=0
SMPTypeCategory[NN_loopdne] = 1;             // Loop while ECX != 0 and ZF=0
SMPTypeCategory[NN_loopqne] = 1;             // Loop while RCX != 0 and ZF=0
SMPTypeCategory[NN_lsl] = 6;                 // Load Segment Limit
SMPTypeCategory[NN_ltr] = 1;                 // Load Task Register
SMPTypeCategory[NN_mov] = 3;                 // Move Data
SMPTypeCategory[NN_movsp] = 3;               // Move to/from Special Registers
SMPTypeCategory[NN_movs] = 0;                // Move Byte(s) from String to String
SMPTypeCategory[NN_movsx] = 3;               // Move with Sign-Extend
SMPTypeCategory[NN_movzx] = 3;               // Move with Zero-Extend
SMPTypeCategory[NN_mul] = 7;                 // Unsigned Multiplication of AL or AX
SMPTypeCategory[NN_neg] = 2;                 // Two's Complement Negation   !!!!****!!!! Change this when mmStrata handles NEGATEDPTR type.
SMPTypeCategory[NN_nop] = 1;                 // No Operation
SMPTypeCategory[NN_not] = 2;                 // One's Complement Negation
SMPTypeCategory[NN_or] = 10;                  // Logical Inclusive OR
SMPTypeCategory[NN_out] = 0;                 // Output to Port
SMPTypeCategory[NN_outs] = 0;                // Output Byte(s) to Port
SMPTypeCategory[NN_pop] = 11;                 // Pop a word from the Stack
SMPTypeCategory[NN_popaw] = 11;               // Pop all General Registers
SMPTypeCategory[NN_popa] = 11;                // Pop all General Registers
SMPTypeCategory[NN_popad] = 11;               // Pop all General Registers (use32)
SMPTypeCategory[NN_popaq] = 11;               // Pop all General Registers (use64)
SMPTypeCategory[NN_popfw] = 11;               // Pop Stack into Flags Register         **
SMPTypeCategory[NN_popf] = 11;                // Pop Stack into Flags Register         **
SMPTypeCategory[NN_popfd] = 11;               // Pop Stack into Eflags Register        **
SMPTypeCategory[NN_popfq] = 11;               // Pop Stack into Rflags Register        **
SMPTypeCategory[NN_push] = 11;                // Push Operand onto the Stack
SMPTypeCategory[NN_pushaw] = 11;              // Push all General Registers
SMPTypeCategory[NN_pusha] = 11;               // Push all General Registers
SMPTypeCategory[NN_pushad] = 11;              // Push all General Registers (use32)
SMPTypeCategory[NN_pushaq] = 11;              // Push all General Registers (use64)
SMPTypeCategory[NN_pushfw] = 11;              // Push Flags Register onto the Stack
SMPTypeCategory[NN_pushf] = 11;               // Push Flags Register onto the Stack
SMPTypeCategory[NN_pushfd] = 11;              // Push Flags Register onto the Stack (use32)
SMPTypeCategory[NN_pushfq] = 11;              // Push Flags Register onto the Stack (use64)
SMPTypeCategory[NN_rcl] = 2;                 // Rotate Through Carry Left
SMPTypeCategory[NN_rcr] = 2;                 // Rotate Through Carry Right
SMPTypeCategory[NN_rol] = 2;                 // Rotate Left
SMPTypeCategory[NN_ror] = 2;                 // Rotate Right
SMPTypeCategory[NN_rep] = 0;                 // Repeat String Operation
SMPTypeCategory[NN_repe] = 0;                // Repeat String Operation while ZF=1
SMPTypeCategory[NN_repne] = 0;               // Repeat String Operation while ZF=0
SMPTypeCategory[NN_retn] = 0;                // Return Near from Procedure
SMPTypeCategory[NN_retf] = 0;                // Return Far from Procedure
SMPTypeCategory[NN_sahf] = 14;                // Store AH into Flags Register
SMPTypeCategory[NN_sal] = 2;                 // Shift Arithmetic Left
SMPTypeCategory[NN_sar] = 2;                 // Shift Arithmetic Right
SMPTypeCategory[NN_shl] = 2;                 // Shift Logical Left
SMPTypeCategory[NN_shr] = 2;                 // Shift Logical Right
SMPTypeCategory[NN_sbb] = 5;                 // Integer Subtraction with Borrow
SMPTypeCategory[NN_scas] = 14;                // Compare String
SMPTypeCategory[NN_seta] = 2;                // Set Byte if Above (CF=0 & ZF=0)
SMPTypeCategory[NN_setae] = 2;               // Set Byte if Above or Equal (CF=0)
SMPTypeCategory[NN_setb] = 2;                // Set Byte if Below (CF=1)
SMPTypeCategory[NN_setbe] = 2;               // Set Byte if Below or Equal (CF=1 | ZF=1)
SMPTypeCategory[NN_setc] = 2;                // Set Byte if Carry (CF=1)
SMPTypeCategory[NN_sete] = 2;                // Set Byte if Equal (ZF=1)
SMPTypeCategory[NN_setg] = 2;                // Set Byte if Greater (ZF=0 & SF=OF)
SMPTypeCategory[NN_setge] = 2;               // Set Byte if Greater or Equal (SF=OF)
SMPTypeCategory[NN_setl] = 2;                // Set Byte if Less (SF!=OF)
SMPTypeCategory[NN_setle] = 2;               // Set Byte if Less or Equal (ZF=1 | SF!=OF)
SMPTypeCategory[NN_setna] = 2;               // Set Byte if Not Above (CF=1 | ZF=1)
SMPTypeCategory[NN_setnae] = 2;              // Set Byte if Not Above or Equal (CF=1)
SMPTypeCategory[NN_setnb] = 2;               // Set Byte if Not Below (CF=0)
SMPTypeCategory[NN_setnbe] = 2;              // Set Byte if Not Below or Equal (CF=0 & ZF=0)
SMPTypeCategory[NN_setnc] = 2;               // Set Byte if Not Carry (CF=0)
SMPTypeCategory[NN_setne] = 2;               // Set Byte if Not Equal (ZF=0)
SMPTypeCategory[NN_setng] = 2;               // Set Byte if Not Greater (ZF=1 | SF!=OF)
SMPTypeCategory[NN_setnge] = 2;              // Set Byte if Not Greater or Equal (SF!=OF)
SMPTypeCategory[NN_setnl] = 2;               // Set Byte if Not Less (SF=OF)
SMPTypeCategory[NN_setnle] = 2;              // Set Byte if Not Less or Equal (ZF=0 & SF=OF)
SMPTypeCategory[NN_setno] = 2;               // Set Byte if Not Overflow (OF=0)
SMPTypeCategory[NN_setnp] = 2;               // Set Byte if Not Parity (PF=0)
SMPTypeCategory[NN_setns] = 2;               // Set Byte if Not Sign (SF=0)
SMPTypeCategory[NN_setnz] = 2;               // Set Byte if Not Zero (ZF=0)
SMPTypeCategory[NN_seto] = 2;                // Set Byte if Overflow (OF=1)
SMPTypeCategory[NN_setp] = 2;                // Set Byte if Parity (PF=1)
SMPTypeCategory[NN_setpe] = 2;               // Set Byte if Parity Even (PF=1)
SMPTypeCategory[NN_setpo] = 2;               // Set Byte if Parity Odd  (PF=0)
SMPTypeCategory[NN_sets] = 2;                // Set Byte if Sign (SF=1)
SMPTypeCategory[NN_setz] = 2;                // Set Byte if Zero (ZF=1)
SMPTypeCategory[NN_sgdt] = 0;                // Store Global Descriptor Table Register
SMPTypeCategory[NN_sidt] = 0;                // Store Interrupt Descriptor Table Register
SMPTypeCategory[NN_shld] = 2;                // Double Precision Shift Left
SMPTypeCategory[NN_shrd] = 2;                // Double Precision Shift Right
SMPTypeCategory[NN_sldt] = 6;                // Store Local Descriptor Table Register
SMPTypeCategory[NN_smsw] = 2;                // Store Machine Status Word
SMPTypeCategory[NN_stc] = 1;                 // Set Carry Flag
SMPTypeCategory[NN_std] = 1;                 // Set Direction Flag
SMPTypeCategory[NN_sti] = 1;                 // Set Interrupt Flag
SMPTypeCategory[NN_stos] = 0;                // Store String
SMPTypeCategory[NN_str] = 6;                 // Store Task Register
SMPTypeCategory[NN_sub] = 5;                 // Integer Subtraction
SMPTypeCategory[NN_test] = 1;                // Logical Compare
SMPTypeCategory[NN_verr] = 1;                // Verify a Segment for Reading
SMPTypeCategory[NN_verw] = 1;                // Verify a Segment for Writing
SMPTypeCategory[NN_wait] = 1;                // Wait until BUSY# Pin is Inactive (HIGH)
SMPTypeCategory[NN_xchg] = 12;               // Exchange Register/Memory with Register
SMPTypeCategory[NN_xlat] = 0;                // Table Lookup Translation
SMPTypeCategory[NN_xor] = 2;                 // Logical Exclusive OR

//
//      486 instructions
//

SMPTypeCategory[NN_cmpxchg] = 12;             // Compare and Exchange
SMPTypeCategory[NN_bswap] = 1;               // Swap bytes in register
SMPTypeCategory[NN_xadd] = 12;                // t<-dest; dest<-src+dest; src<-t
SMPTypeCategory[NN_invd] = 1;                // Invalidate Data Cache
SMPTypeCategory[NN_wbinvd] = 1;              // Invalidate Data Cache (write changes)
SMPTypeCategory[NN_invlpg] = 1;              // Invalidate TLB entry

//
//      Pentium instructions
//

SMPTypeCategory[NN_rdmsr] = 8;               // Read Machine Status Register
SMPTypeCategory[NN_wrmsr] = 1;               // Write Machine Status Register
SMPTypeCategory[NN_cpuid] = 8;               // Get CPU ID
SMPTypeCategory[NN_cmpxchg8b] = 12;           // Compare and Exchange Eight Bytes
SMPTypeCategory[NN_rdtsc] = 8;               // Read Time Stamp Counter
SMPTypeCategory[NN_rsm] = 1;                 // Resume from System Management Mode

//
//      Pentium Pro instructions
//

SMPTypeCategory[NN_cmova] = 0;               // Move if Above (CF=0 & ZF=0)
SMPTypeCategory[NN_cmovb] = 0;               // Move if Below (CF=1)
SMPTypeCategory[NN_cmovbe] = 0;              // Move if Below or Equal (CF=1 | ZF=1)
SMPTypeCategory[NN_cmovg] = 0;               // Move if Greater (ZF=0 & SF=OF)
SMPTypeCategory[NN_cmovge] = 0;              // Move if Greater or Equal (SF=OF)
SMPTypeCategory[NN_cmovl] = 0;               // Move if Less (SF!=OF)
SMPTypeCategory[NN_cmovle] = 0;              // Move if Less or Equal (ZF=1 | SF!=OF)
SMPTypeCategory[NN_cmovnb] = 0;              // Move if Not Below (CF=0)
SMPTypeCategory[NN_cmovno] = 0;              // Move if Not Overflow (OF=0)
SMPTypeCategory[NN_cmovnp] = 0;              // Move if Not Parity (PF=0)
SMPTypeCategory[NN_cmovns] = 0;              // Move if Not Sign (SF=0)
SMPTypeCategory[NN_cmovnz] = 0;              // Move if Not Zero (ZF=0)
SMPTypeCategory[NN_cmovo] = 0;               // Move if Overflow (OF=1)
SMPTypeCategory[NN_cmovp] = 0;               // Move if Parity (PF=1)
SMPTypeCategory[NN_cmovs] = 0;               // Move if Sign (SF=1)
SMPTypeCategory[NN_cmovz] = 0;               // Move if Zero (ZF=1)
SMPTypeCategory[NN_fcmovb] = 1;              // Floating Move if Below          
SMPTypeCategory[NN_fcmove] = 1;              // Floating Move if Equal          
SMPTypeCategory[NN_fcmovbe] = 1;             // Floating Move if Below or Equal 
SMPTypeCategory[NN_fcmovu] = 1;              // Floating Move if Unordered      
SMPTypeCategory[NN_fcmovnb] = 1;             // Floating Move if Not Below      
SMPTypeCategory[NN_fcmovne] = 1;             // Floating Move if Not Equal      
SMPTypeCategory[NN_fcmovnbe] = 1;            // Floating Move if Not Below or Equal
SMPTypeCategory[NN_fcmovnu] = 1;             // Floating Move if Not Unordered     
SMPTypeCategory[NN_fcomi] = 1;               // FP Compare, result in EFLAGS
SMPTypeCategory[NN_fucomi] = 1;              // FP Unordered Compare, result in EFLAGS
SMPTypeCategory[NN_fcomip] = 1;              // FP Compare, result in EFLAGS, pop stack
SMPTypeCategory[NN_fucomip] = 1;             // FP Unordered Compare, result in EFLAGS, pop stack
SMPTypeCategory[NN_rdpmc] = 8;               // Read Performance Monitor Counter

//
//      FPP instructions
//

SMPTypeCategory[NN_fld] = 14;                 // Load Real             ** Infer src is 'n'
SMPTypeCategory[NN_fst] = 9;                 // Store Real            
SMPTypeCategory[NN_fstp] = 9;                // Store Real and Pop   
SMPTypeCategory[NN_fxch] = 1;                // Exchange Registers
SMPTypeCategory[NN_fild] = 14;                // Load Integer          ** Infer src is 'n'
SMPTypeCategory[NN_fist] = 13;                // Store Integer
SMPTypeCategory[NN_fistp] = 13;               // Store Integer and Pop
SMPTypeCategory[NN_fbld] = 1;                // Load BCD
SMPTypeCategory[NN_fbstp] = 13;               // Store BCD and Pop
SMPTypeCategory[NN_fadd] = 14;                // Add Real
SMPTypeCategory[NN_faddp] = 14;               // Add Real and Pop
SMPTypeCategory[NN_fiadd] = 14;               // Add Integer
SMPTypeCategory[NN_fsub] = 14;                // Subtract Real
SMPTypeCategory[NN_fsubp] = 14;               // Subtract Real and Pop
SMPTypeCategory[NN_fisub] = 14;               // Subtract Integer
SMPTypeCategory[NN_fsubr] = 14;               // Subtract Real Reversed
SMPTypeCategory[NN_fsubrp] = 14;              // Subtract Real Reversed and Pop
SMPTypeCategory[NN_fisubr] = 14;              // Subtract Integer Reversed
SMPTypeCategory[NN_fmul] = 14;                // Multiply Real
SMPTypeCategory[NN_fmulp] = 14;               // Multiply Real and Pop
SMPTypeCategory[NN_fimul] = 14;               // Multiply Integer
SMPTypeCategory[NN_fdiv] = 14;                // Divide Real
SMPTypeCategory[NN_fdivp] = 14;               // Divide Real and Pop
SMPTypeCategory[NN_fidiv] = 14;               // Divide Integer
SMPTypeCategory[NN_fdivr] = 14;               // Divide Real Reversed
SMPTypeCategory[NN_fdivrp] = 14;              // Divide Real Reversed and Pop
SMPTypeCategory[NN_fidivr] = 14;              // Divide Integer Reversed
SMPTypeCategory[NN_fsqrt] = 1;               // Square Root
SMPTypeCategory[NN_fscale] = 1;              // Scale:  st(0) <- st(0) * 2^st(1)
SMPTypeCategory[NN_fprem] = 1;               // Partial Remainder
SMPTypeCategory[NN_frndint] = 1;             // Round to Integer
SMPTypeCategory[NN_fxtract] = 1;             // Extract exponent and significand
SMPTypeCategory[NN_fabs] = 1;                // Absolute value
SMPTypeCategory[NN_fchs] = 1;                // Change Sign
SMPTypeCategory[NN_fcom] = 1;                // Compare Real
SMPTypeCategory[NN_fcomp] = 1;               // Compare Real and Pop
SMPTypeCategory[NN_fcompp] = 1;              // Compare Real and Pop Twice
SMPTypeCategory[NN_ficom] = 1;               // Compare Integer
SMPTypeCategory[NN_ficomp] = 1;              // Compare Integer and Pop
SMPTypeCategory[NN_ftst] = 1;                // Test
SMPTypeCategory[NN_fxam] = 1;                // Examine
SMPTypeCategory[NN_fptan] = 1;               // Partial tangent
SMPTypeCategory[NN_fpatan] = 1;              // Partial arctangent
SMPTypeCategory[NN_f2xm1] = 1;               // 2^x - 1
SMPTypeCategory[NN_fyl2x] = 1;               // Y * lg2(X)
SMPTypeCategory[NN_fyl2xp1] = 1;             // Y * lg2(X+1)
SMPTypeCategory[NN_fldz] = 1;                // Load +0.0
SMPTypeCategory[NN_fld1] = 1;                // Load +1.0
SMPTypeCategory[NN_fldpi] = 1;               // Load PI=3.14...
SMPTypeCategory[NN_fldl2t] = 1;              // Load lg2(10)
SMPTypeCategory[NN_fldl2e] = 1;              // Load lg2(e)
SMPTypeCategory[NN_fldlg2] = 1;              // Load lg10(2)
SMPTypeCategory[NN_fldln2] = 1;              // Load ln(2)
SMPTypeCategory[NN_finit] = 1;               // Initialize Processor