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Quellcode-Bibliothek© Kompilation durch diese Firma[Weder Korrektheit noch Funktionsfähigkeit der Software werden zugesichert.]Datei: Sprache: C |
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/*
* Copyright (c) 2002, 2022, Oracle and/or its affiliates. All rights reserved. * Copyright (c) 2012, 2022 SAP SE. All rights reserved. * DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS FILE HEADER. * * This code is free software; you can redistribute it and/or modify it * under the terms of the GNU General Public License version 2 only, as * published by the Free Software Foundation. * * This code is distributed in the hope that it will be useful, but WITHOUT * ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or * FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License * version 2 for more details (a copy is included in the LICENSE file that * accompanied this code). * * You should have received a copy of the GNU General Public License version * 2 along with this work; if not, write to the Free Software Foundation, * Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA. * * Please contact Oracle, 500 Oracle Parkway, Redwood Shores, CA 94065 USA * or visit www.oracle.com if you need additional information or have any * questions. * */ #ifndef CPU_PPC_ASSEMBLER_PPC_HPP #define CPU_PPC_ASSEMBLER_PPC_HPP #include "asm/assembler.hpp" #include "asm/register.hpp" // Address is an abstraction used to represent a memory location // as used in assembler instructions. // PPC instructions grok either baseReg + indexReg or baseReg + disp. class Address { private: Register _base; // Base register. Register _index; // Index register. intptr_t _disp; // Displacement. public: Address(Register b, Register i, address d = 0) : _base(b), _index(i), _disp((intptr_t)d) { assert(i == noreg || d == 0, "can't have both"); } Address(Register b, address d = 0) : _base(b), _index(noreg), _disp((intptr_t)d) {} Address(Register b, ByteSize d) : _base(b), _index(noreg), _disp((intptr_t)d) {} Address(Register b, intptr_t d) : _base(b), _index(noreg), _disp(d) {} Address(Register b, RegisterOrConstant roc) : _base(b), _index(noreg), _disp(0) { if (roc.is_constant()) _disp = roc.as_constant(); else _index = roc.as_register(); } Address() : _base(noreg), _index(noreg), _disp(0) {} // accessors Register base() const { return _base; } Register index() const { return _index; } int disp() const { return (int)_disp; } bool is_const() const { return _base == noreg && _index == noreg; } }; class AddressLiteral { private: address _address; RelocationHolder _rspec; RelocationHolder rspec_from_rtype(relocInfo::relocType rtype, address addr) { switch (rtype) { case relocInfo::external_word_type: return external_word_Relocation::spec(addr); case relocInfo::internal_word_type: return internal_word_Relocation::spec(addr); case relocInfo::opt_virtual_call_type: return opt_virtual_call_Relocation::spec(); case relocInfo::static_call_type: return static_call_Relocation::spec(); case relocInfo::runtime_call_type: return runtime_call_Relocation::spec(); case relocInfo::none: return RelocationHolder(); default: ShouldNotReachHere(); return RelocationHolder(); } } protected: // creation AddressLiteral() : _address(NULL), _rspec(NULL) {} public: AddressLiteral(address addr, RelocationHolder const& rspec) : _address(addr), _rspec(rspec) {} AddressLiteral(address addr, relocInfo::relocType rtype = relocInfo::none) : _address((address) addr), _rspec(rspec_from_rtype(rtype, (address) addr)) {} AddressLiteral(oop* addr, relocInfo::relocType rtype = relocInfo::none) : _address((address) addr), _rspec(rspec_from_rtype(rtype, (address) addr)) {} intptr_t value() const { return (intptr_t) _address; } const RelocationHolder& rspec() const { return _rspec; } }; // Argument is an abstraction used to represent an outgoing // actual argument or an incoming formal parameter, whether // it resides in memory or in a register, in a manner consistent // with the PPC Application Binary Interface, or ABI. This is // often referred to as the native or C calling convention. class Argument { private: int _number; // The number of the argument. public: enum { // Only 8 registers may contain integer parameters. n_register_parameters = 8, // Can have up to 8 floating registers. n_float_register_parameters = 8, // PPC C calling conventions. // The first eight arguments are passed in int regs if they are int. n_int_register_parameters_c = 8, // The first thirteen float arguments are passed in float regs. n_float_register_parameters_c = 13, // Only the first 8 parameters are not placed on the stack. Aix disassembly // shows that xlC places all float args after argument 8 on the stack AND // in a register. This is not documented, but we follow this convention, too. n_regs_not_on_stack_c = 8, n_int_register_parameters_j = 8, // duplicates num_java_iarg_registers n_float_register_parameters_j = 13, // num_java_farg_registers }; // creation Argument(int number) : _number(number) {} int number() const { return _number; } // Locating register-based arguments: bool is_register() const { return _number < n_register_parameters; } Register as_register() const { assert(is_register(), "must be a register argument"); return as_Register(number() + R3_ARG1->encoding()); } }; #if !defined(ABI_ELFv2) // A ppc64 function descriptor. struct FunctionDescriptor { private: address _entry; address _toc; address _env; public: inline address entry() const { return _entry; } inline address toc() const { return _toc; } inline address env() const { return _env; } inline void set_entry(address entry) { _entry = entry; } inline void set_toc( address toc) { _toc = toc; } inline void set_env( address env) { _env = env; } inline static ByteSize entry_offset() { return byte_offset_of(FunctionDescriptor, _entr inline static ByteSize toc_offset() { return byte_offset_of(FunctionDescriptor, _toc); } inline static ByteSize env_offset() { return byte_offset_of(FunctionDescriptor, _env); } // Friend functions can be called without loading toc and env. enum { friend_toc = 0xcafe, friend_env = 0xc0de }; inline bool is_friend_function() const { return (toc() == (address) friend_toc) && (env() == (address) friend_env); } // Constructor for stack-allocated instances. FunctionDescriptor() { _entry = (address) 0xbad; _toc = (address) 0xbad; _env = (address) 0xbad; } }; #endif // The PPC Assembler: Pure assembler doing NO optimizations on the // instruction level; i.e., what you write is what you get. The // Assembler is generating code into a CodeBuffer. class Assembler : public AbstractAssembler { protected: // Displacement routines static int patched_branch(int dest_pos, int inst, int inst_pos); static int branch_destination(int inst, int pos); friend class AbstractAssembler; // Code patchers need various routines like inv_wdisp() friend class NativeInstruction; friend class NativeGeneralJump; friend class Relocation; public: enum shifts { XO_21_29_SHIFT = 2, XO_21_30_SHIFT = 1, XO_27_29_SHIFT = 2, XO_30_31_SHIFT = 0, SPR_5_9_SHIFT = 11u, // SPR_5_9 field in bits 11 -- 15 SPR_0_4_SHIFT = 16u, // SPR_0_4 field in bits 16 -- 20 RS_SHIFT = 21u, // RS field in bits 21 -- 25 OPCODE_SHIFT = 26u, // opcode in bits 26 -- 31 // Shift counts in prefix word PRE_TYPE_SHIFT = 24u, // Prefix type in bits 24 -- 25 PRE_ST1_SHIFT = 23u, // ST1 field in bits 23 -- 23 PRE_R_SHIFT = 20u, // R-bit in bits 20 -- 20 PRE_ST4_SHIFT = 20u, // ST4 field in bits 23 -- 20 }; enum opcdxos_masks { XL_FORM_OPCODE_MASK = (63u << OPCODE_SHIFT) | (1023u << 1), ADDI_OPCODE_MASK = (63u << OPCODE_SHIFT), ADDIS_OPCODE_MASK = (63u << OPCODE_SHIFT), BXX_OPCODE_MASK = (63u << OPCODE_SHIFT), BCXX_OPCODE_MASK = (63u << OPCODE_SHIFT), // trap instructions TDI_OPCODE_MASK = (63u << OPCODE_SHIFT), TWI_OPCODE_MASK = (63u << OPCODE_SHIFT), TD_OPCODE_MASK = (63u << OPCODE_SHIFT) | (1023u << 1), TW_OPCODE_MASK = (63u << OPCODE_SHIFT) | (1023u << 1), LD_OPCODE_MASK = (63u << OPCODE_SHIFT) | (3u << XO_30_31_SHIFT), // DS-FORM STD_OPCODE_MASK = LD_OPCODE_MASK, STDU_OPCODE_MASK = STD_OPCODE_MASK, STDX_OPCODE_MASK = (63u << OPCODE_SHIFT) | (1023u << 1), STDUX_OPCODE_MASK = STDX_OPCODE_MASK, STW_OPCODE_MASK = (63u << OPCODE_SHIFT), STWU_OPCODE_MASK = STW_OPCODE_MASK, STWX_OPCODE_MASK = (63u << OPCODE_SHIFT) | (1023u << 1), STWUX_OPCODE_MASK = STWX_OPCODE_MASK, MTCTR_OPCODE_MASK = ~(31u << RS_SHIFT), ORI_OPCODE_MASK = (63u << OPCODE_SHIFT), ORIS_OPCODE_MASK = (63u << OPCODE_SHIFT), RLDICR_OPCODE_MASK = (63u << OPCODE_SHIFT) | (7u << XO_27_29_SHIFT) }; enum opcdxos { ADD_OPCODE = (31u << OPCODE_SHIFT | 266u << 1), ADDC_OPCODE = (31u << OPCODE_SHIFT | 10u << 1), ADDI_OPCODE = (14u << OPCODE_SHIFT), ADDIS_OPCODE = (15u << OPCODE_SHIFT), ADDIC__OPCODE = (13u << OPCODE_SHIFT), ADDE_OPCODE = (31u << OPCODE_SHIFT | 138u << 1), ADDME_OPCODE = (31u << OPCODE_SHIFT | 234u << 1), ADDZE_OPCODE = (31u << OPCODE_SHIFT | 202u << 1), SUBF_OPCODE = (31u << OPCODE_SHIFT | 40u << 1), SUBFC_OPCODE = (31u << OPCODE_SHIFT | 8u << 1), SUBFE_OPCODE = (31u << OPCODE_SHIFT | 136u << 1), SUBFIC_OPCODE = (8u << OPCODE_SHIFT), SUBFME_OPCODE = (31u << OPCODE_SHIFT | 232u << 1), SUBFZE_OPCODE = (31u << OPCODE_SHIFT | 200u << 1), DIVW_OPCODE = (31u << OPCODE_SHIFT | 491u << 1), DIVWU_OPCODE = (31u << OPCODE_SHIFT | 459u << 1), MULLW_OPCODE = (31u << OPCODE_SHIFT | 235u << 1), MULHW_OPCODE = (31u << OPCODE_SHIFT | 75u << 1), MULHWU_OPCODE = (31u << OPCODE_SHIFT | 11u << 1), MULLI_OPCODE = (7u << OPCODE_SHIFT), AND_OPCODE = (31u << OPCODE_SHIFT | 28u << 1), ANDI_OPCODE = (28u << OPCODE_SHIFT), ANDIS_OPCODE = (29u << OPCODE_SHIFT), ANDC_OPCODE = (31u << OPCODE_SHIFT | 60u << 1), ORC_OPCODE = (31u << OPCODE_SHIFT | 412u << 1), OR_OPCODE = (31u << OPCODE_SHIFT | 444u << 1), ORI_OPCODE = (24u << OPCODE_SHIFT), ORIS_OPCODE = (25u << OPCODE_SHIFT), XOR_OPCODE = (31u << OPCODE_SHIFT | 316u << 1), XORI_OPCODE = (26u << OPCODE_SHIFT), XORIS_OPCODE = (27u << OPCODE_SHIFT), NEG_OPCODE = (31u << OPCODE_SHIFT | 104u << 1), RLWINM_OPCODE = (21u << OPCODE_SHIFT), CLRRWI_OPCODE = RLWINM_OPCODE, CLRLWI_OPCODE = RLWINM_OPCODE, RLWIMI_OPCODE = (20u << OPCODE_SHIFT), SLW_OPCODE = (31u << OPCODE_SHIFT | 24u << 1), SLWI_OPCODE = RLWINM_OPCODE, SRW_OPCODE = (31u << OPCODE_SHIFT | 536u << 1), SRWI_OPCODE = RLWINM_OPCODE, SRAW_OPCODE = (31u << OPCODE_SHIFT | 792u << 1), SRAWI_OPCODE = (31u << OPCODE_SHIFT | 824u << 1), CMP_OPCODE = (31u << OPCODE_SHIFT | 0u << 1), CMPI_OPCODE = (11u << OPCODE_SHIFT), CMPL_OPCODE = (31u << OPCODE_SHIFT | 32u << 1), CMPLI_OPCODE = (10u << OPCODE_SHIFT), CMPRB_OPCODE = (31u << OPCODE_SHIFT | 192u << 1), CMPEQB_OPCODE = (31u << OPCODE_SHIFT | 224u << 1), ISEL_OPCODE = (31u << OPCODE_SHIFT | 15u << 1), // Special purpose registers MTSPR_OPCODE = (31u << OPCODE_SHIFT | 467u << 1), MFSPR_OPCODE = (31u << OPCODE_SHIFT | 339u << 1), MTXER_OPCODE = (MTSPR_OPCODE | 1 << SPR_0_4_SHIFT), MFXER_OPCODE = (MFSPR_OPCODE | 1 << SPR_0_4_SHIFT), MTDSCR_OPCODE = (MTSPR_OPCODE | 3 << SPR_0_4_SHIFT), MFDSCR_OPCODE = (MFSPR_OPCODE | 3 << SPR_0_4_SHIFT), MTLR_OPCODE = (MTSPR_OPCODE | 8 << SPR_0_4_SHIFT), MFLR_OPCODE = (MFSPR_OPCODE | 8 << SPR_0_4_SHIFT), MTCTR_OPCODE = (MTSPR_OPCODE | 9 << SPR_0_4_SHIFT), MFCTR_OPCODE = (MFSPR_OPCODE | 9 << SPR_0_4_SHIFT), // Attention: Higher and lower half are inserted in reversed order. MTTFHAR_OPCODE = (MTSPR_OPCODE | 4 << SPR_5_9_SHIFT | 0 << SPR_0_4_SHIFT), MFTFHAR_OPCODE = (MFSPR_OPCODE | 4 << SPR_5_9_SHIFT | 0 << SPR_0_4_SHIFT), MTTFIAR_OPCODE = (MTSPR_OPCODE | 4 << SPR_5_9_SHIFT | 1 << SPR_0_4_SHIFT), MFTFIAR_OPCODE = (MFSPR_OPCODE | 4 << SPR_5_9_SHIFT | 1 << SPR_0_4_SHIFT), MTTEXASR_OPCODE = (MTSPR_OPCODE | 4 << SPR_5_9_SHIFT | 2 << SPR_0_4_SHIFT), MFTEXASR_OPCODE = (MFSPR_OPCODE | 4 << SPR_5_9_SHIFT | 2 << SPR_0_4_SHIFT), MTTEXASRU_OPCODE = (MTSPR_OPCODE | 4 << SPR_5_9_SHIFT | 3 << SPR_0_4_SHIFT), MFTEXASRU_OPCODE = (MFSPR_OPCODE | 4 << SPR_5_9_SHIFT | 3 << SPR_0_4_SHIFT), MTVRSAVE_OPCODE = (MTSPR_OPCODE | 8 << SPR_5_9_SHIFT | 0 << SPR_0_4_SHIFT), MFVRSAVE_OPCODE = (MFSPR_OPCODE | 8 << SPR_5_9_SHIFT | 0 << SPR_0_4_SHIFT), MFTB_OPCODE = (MFSPR_OPCODE | 8 << SPR_5_9_SHIFT | 12 << SPR_0_4_SHIFT), MTCRF_OPCODE = (31u << OPCODE_SHIFT | 144u << 1), MFCR_OPCODE = (31u << OPCODE_SHIFT | 19u << 1), MCRF_OPCODE = (19u << OPCODE_SHIFT | 0u << 1), MCRXRX_OPCODE = (31u << OPCODE_SHIFT | 576u << 1), SETB_OPCODE = (31u << OPCODE_SHIFT | 128u << 1), SETBC_OPCODE = (31u << OPCODE_SHIFT | 384u << 1), SETNBC_OPCODE = (31u << OPCODE_SHIFT | 448u << 1), // condition register logic instructions CRAND_OPCODE = (19u << OPCODE_SHIFT | 257u << 1), CRNAND_OPCODE = (19u << OPCODE_SHIFT | 225u << 1), CROR_OPCODE = (19u << OPCODE_SHIFT | 449u << 1), CRXOR_OPCODE = (19u << OPCODE_SHIFT | 193u << 1), CRNOR_OPCODE = (19u << OPCODE_SHIFT | 33u << 1), CREQV_OPCODE = (19u << OPCODE_SHIFT | 289u << 1), CRANDC_OPCODE = (19u << OPCODE_SHIFT | 129u << 1), CRORC_OPCODE = (19u << OPCODE_SHIFT | 417u << 1), BCLR_OPCODE = (19u << OPCODE_SHIFT | 16u << 1), BXX_OPCODE = (18u << OPCODE_SHIFT), BCXX_OPCODE = (16u << OPCODE_SHIFT), // CTR-related opcodes BCCTR_OPCODE = (19u << OPCODE_SHIFT | 528u << 1), LWZ_OPCODE = (32u << OPCODE_SHIFT), LWZX_OPCODE = (31u << OPCODE_SHIFT | 23u << 1), LWZU_OPCODE = (33u << OPCODE_SHIFT), LWBRX_OPCODE = (31u << OPCODE_SHIFT | 534 << 1), LHA_OPCODE = (42u << OPCODE_SHIFT), LHAX_OPCODE = (31u << OPCODE_SHIFT | 343u << 1), LHAU_OPCODE = (43u << OPCODE_SHIFT), LHZ_OPCODE = (40u << OPCODE_SHIFT), LHZX_OPCODE = (31u << OPCODE_SHIFT | 279u << 1), LHZU_OPCODE = (41u << OPCODE_SHIFT), LHBRX_OPCODE = (31u << OPCODE_SHIFT | 790 << 1), LBZ_OPCODE = (34u << OPCODE_SHIFT), LBZX_OPCODE = (31u << OPCODE_SHIFT | 87u << 1), LBZU_OPCODE = (35u << OPCODE_SHIFT), STW_OPCODE = (36u << OPCODE_SHIFT), STWX_OPCODE = (31u << OPCODE_SHIFT | 151u << 1), STWU_OPCODE = (37u << OPCODE_SHIFT), STWUX_OPCODE = (31u << OPCODE_SHIFT | 183u << 1), STWBRX_OPCODE = (31u << OPCODE_SHIFT | 662u << 1), STH_OPCODE = (44u << OPCODE_SHIFT), STHX_OPCODE = (31u << OPCODE_SHIFT | 407u << 1), STHU_OPCODE = (45u << OPCODE_SHIFT), STHBRX_OPCODE = (31u << OPCODE_SHIFT | 918u << 1), STB_OPCODE = (38u << OPCODE_SHIFT), STBX_OPCODE = (31u << OPCODE_SHIFT | 215u << 1), STBU_OPCODE = (39u << OPCODE_SHIFT), EXTSB_OPCODE = (31u << OPCODE_SHIFT | 954u << 1), EXTSH_OPCODE = (31u << OPCODE_SHIFT | 922u << 1), EXTSW_OPCODE = (31u << OPCODE_SHIFT | 986u << 1), // X-FORM // 32 bit opcode encodings LWA_OPCODE = (58u << OPCODE_SHIFT | 2u << XO_30_31_SHIFT), // DS-FORM LWAX_OPCODE = (31u << OPCODE_SHIFT | 341u << XO_21_30_SHIFT), // X-FORM CNTLZW_OPCODE = (31u << OPCODE_SHIFT | 26u << XO_21_30_SHIFT), // X-FORM CNTTZW_OPCODE = (31u << OPCODE_SHIFT | 538u << XO_21_30_SHIFT), // X-FORM // 64 bit opcode encodings LD_OPCODE = (58u << OPCODE_SHIFT | 0u << XO_30_31_SHIFT), // DS-FORM LDU_OPCODE = (58u << OPCODE_SHIFT | 1u << XO_30_31_SHIFT), // DS-FORM LDX_OPCODE = (31u << OPCODE_SHIFT | 21u << XO_21_30_SHIFT), // X-FORM LDBRX_OPCODE = (31u << OPCODE_SHIFT | 532u << 1), // X-FORM STD_OPCODE = (62u << OPCODE_SHIFT | 0u << XO_30_31_SHIFT), // DS-FORM STDU_OPCODE = (62u << OPCODE_SHIFT | 1u << XO_30_31_SHIFT), // DS-FORM STDUX_OPCODE = (31u << OPCODE_SHIFT | 181u << 1), // X-FORM STDX_OPCODE = (31u << OPCODE_SHIFT | 149u << XO_21_30_SHIFT), // X-FORM STDBRX_OPCODE = (31u << OPCODE_SHIFT | 660u << 1), // X-FORM RLDICR_OPCODE = (30u << OPCODE_SHIFT | 1u << XO_27_29_SHIFT), // MD-FORM RLDICL_OPCODE = (30u << OPCODE_SHIFT | 0u << XO_27_29_SHIFT), // MD-FORM RLDIC_OPCODE = (30u << OPCODE_SHIFT | 2u << XO_27_29_SHIFT), // MD-FORM RLDIMI_OPCODE = (30u << OPCODE_SHIFT | 3u << XO_27_29_SHIFT), // MD-FORM SRADI_OPCODE = (31u << OPCODE_SHIFT | 413u << XO_21_29_SHIFT), // XS-FORM SLD_OPCODE = (31u << OPCODE_SHIFT | 27u << 1), // X-FORM SRD_OPCODE = (31u << OPCODE_SHIFT | 539u << 1), // X-FORM SRAD_OPCODE = (31u << OPCODE_SHIFT | 794u << 1), // X-FORM MULLD_OPCODE = (31u << OPCODE_SHIFT | 233u << 1), // XO-FORM MULHD_OPCODE = (31u << OPCODE_SHIFT | 73u << 1), // XO-FORM MULHDU_OPCODE = (31u << OPCODE_SHIFT | 9u << 1), // XO-FORM DIVD_OPCODE = (31u << OPCODE_SHIFT | 489u << 1), // XO-FORM DIVDU_OPCODE = (31u << OPCODE_SHIFT | 457u << 1), // XO-FORM CNTLZD_OPCODE = (31u << OPCODE_SHIFT | 58u << XO_21_30_SHIFT), // X-FORM CNTTZD_OPCODE = (31u << OPCODE_SHIFT | 570u << XO_21_30_SHIFT), // X-FORM NAND_OPCODE = (31u << OPCODE_SHIFT | 476u << XO_21_30_SHIFT), // X-FORM NOR_OPCODE = (31u << OPCODE_SHIFT | 124u << XO_21_30_SHIFT), // X-FORM // Byte reverse opcodes (introduced with Power10) BRH_OPCODE = (31u << OPCODE_SHIFT | 219u << 1), // X-FORM BRW_OPCODE = (31u << OPCODE_SHIFT | 155u << 1), // X-FORM BRD_OPCODE = (31u << OPCODE_SHIFT | 187u << 1), // X-FORM // opcodes only used for floating arithmetic FADD_OPCODE = (63u << OPCODE_SHIFT | 21u << 1), FADDS_OPCODE = (59u << OPCODE_SHIFT | 21u << 1), FCMPU_OPCODE = (63u << OPCODE_SHIFT | 00u << 1), FDIV_OPCODE = (63u << OPCODE_SHIFT | 18u << 1), FDIVS_OPCODE = (59u << OPCODE_SHIFT | 18u << 1), FMR_OPCODE = (63u << OPCODE_SHIFT | 72u << 1), FRIN_OPCODE = (63u << OPCODE_SHIFT | 392u << 1), FRIP_OPCODE = (63u << OPCODE_SHIFT | 456u << 1), FRIM_OPCODE = (63u << OPCODE_SHIFT | 488u << 1), // These are special Power6 opcodes, reused for "lfdepx" and "stfdepx" // on Power7. Do not use. // MFFGPR_OPCODE = (31u << OPCODE_SHIFT | 607u << 1), // MFTGPR_OPCODE = (31u << OPCODE_SHIFT | 735u << 1), CMPB_OPCODE = (31u << OPCODE_SHIFT | 508 << 1), POPCNTB_OPCODE = (31u << OPCODE_SHIFT | 122 << 1), POPCNTW_OPCODE = (31u << OPCODE_SHIFT | 378 << 1), POPCNTD_OPCODE = (31u << OPCODE_SHIFT | 506 << 1), FABS_OPCODE = (63u << OPCODE_SHIFT | 264u << 1), FNABS_OPCODE = (63u << OPCODE_SHIFT | 136u << 1), FMUL_OPCODE = (63u << OPCODE_SHIFT | 25u << 1), FMULS_OPCODE = (59u << OPCODE_SHIFT | 25u << 1), FNEG_OPCODE = (63u << OPCODE_SHIFT | 40u << 1), FSUB_OPCODE = (63u << OPCODE_SHIFT | 20u << 1), FSUBS_OPCODE = (59u << OPCODE_SHIFT | 20u << 1), // PPC64-internal FPU conversion opcodes FCFID_OPCODE = (63u << OPCODE_SHIFT | 846u << 1), FCFIDS_OPCODE = (59u << OPCODE_SHIFT | 846u << 1), FCTID_OPCODE = (63u << OPCODE_SHIFT | 814u << 1), FCTIDZ_OPCODE = (63u << OPCODE_SHIFT | 815u << 1), FCTIW_OPCODE = (63u << OPCODE_SHIFT | 14u << 1), FCTIWZ_OPCODE = (63u << OPCODE_SHIFT | 15u << 1), FRSP_OPCODE = (63u << OPCODE_SHIFT | 12u << 1), // Fused multiply-accumulate instructions. FMADD_OPCODE = (63u << OPCODE_SHIFT | 29u << 1), FMADDS_OPCODE = (59u << OPCODE_SHIFT | 29u << 1), FMSUB_OPCODE = (63u << OPCODE_SHIFT | 28u << 1), FMSUBS_OPCODE = (59u << OPCODE_SHIFT | 28u << 1), FNMADD_OPCODE = (63u << OPCODE_SHIFT | 31u << 1), FNMADDS_OPCODE = (59u << OPCODE_SHIFT | 31u << 1), FNMSUB_OPCODE = (63u << OPCODE_SHIFT | 30u << 1), FNMSUBS_OPCODE = (59u << OPCODE_SHIFT | 30u << 1), LFD_OPCODE = (50u << OPCODE_SHIFT | 00u << 1), LFDU_OPCODE = (51u << OPCODE_SHIFT | 00u << 1), LFDX_OPCODE = (31u << OPCODE_SHIFT | 599u << 1), LFS_OPCODE = (48u << OPCODE_SHIFT | 00u << 1), LFSU_OPCODE = (49u << OPCODE_SHIFT | 00u << 1), LFSX_OPCODE = (31u << OPCODE_SHIFT | 535u << 1), STFD_OPCODE = (54u << OPCODE_SHIFT | 00u << 1), STFDU_OPCODE = (55u << OPCODE_SHIFT | 00u << 1), STFDX_OPCODE = (31u << OPCODE_SHIFT | 727u << 1), STFS_OPCODE = (52u << OPCODE_SHIFT | 00u << 1), STFSU_OPCODE = (53u << OPCODE_SHIFT | 00u << 1), STFSX_OPCODE = (31u << OPCODE_SHIFT | 663u << 1), FSQRT_OPCODE = (63u << OPCODE_SHIFT | 22u << 1), // A-FORM FSQRTS_OPCODE = (59u << OPCODE_SHIFT | 22u << 1), // A-FORM // Vector instruction support for >= Power6 // Vector Storage Access LVEBX_OPCODE = (31u << OPCODE_SHIFT | 7u << 1), LVEHX_OPCODE = (31u << OPCODE_SHIFT | 39u << 1), LVEWX_OPCODE = (31u << OPCODE_SHIFT | 71u << 1), LVX_OPCODE = (31u << OPCODE_SHIFT | 103u << 1), LVXL_OPCODE = (31u << OPCODE_SHIFT | 359u << 1), STVEBX_OPCODE = (31u << OPCODE_SHIFT | 135u << 1), STVEHX_OPCODE = (31u << OPCODE_SHIFT | 167u << 1), STVEWX_OPCODE = (31u << OPCODE_SHIFT | 199u << 1), STVX_OPCODE = (31u << OPCODE_SHIFT | 231u << 1), STVXL_OPCODE = (31u << OPCODE_SHIFT | 487u << 1), LVSL_OPCODE = (31u << OPCODE_SHIFT | 6u << 1), LVSR_OPCODE = (31u << OPCODE_SHIFT | 38u << 1), // Vector-Scalar (VSX) instruction support. LXV_OPCODE = (61u << OPCODE_SHIFT | 1u ), LXVL_OPCODE = (31u << OPCODE_SHIFT | 269u << 1), STXV_OPCODE = (61u << OPCODE_SHIFT | 5u ), STXVL_OPCODE = (31u << OPCODE_SHIFT | 397u << 1), LXVD2X_OPCODE = (31u << OPCODE_SHIFT | 844u << 1), STXVD2X_OPCODE = (31u << OPCODE_SHIFT | 972u << 1), MTVSRD_OPCODE = (31u << OPCODE_SHIFT | 179u << 1), MTVSRDD_OPCODE = (31u << OPCODE_SHIFT | 435u << 1), MTVSRWZ_OPCODE = (31u << OPCODE_SHIFT | 243u << 1), MFVSRD_OPCODE = (31u << OPCODE_SHIFT | 51u << 1), MTVSRWA_OPCODE = (31u << OPCODE_SHIFT | 211u << 1), MFVSRWZ_OPCODE = (31u << OPCODE_SHIFT | 115u << 1), XXPERMDI_OPCODE= (60u << OPCODE_SHIFT | 10u << 3), XXMRGHW_OPCODE = (60u << OPCODE_SHIFT | 18u << 3), XXMRGLW_OPCODE = (60u << OPCODE_SHIFT | 50u << 3), XXSPLTW_OPCODE = (60u << OPCODE_SHIFT | 164u << 2), XXLAND_OPCODE = (60u << OPCODE_SHIFT | 130u << 3), XXLOR_OPCODE = (60u << OPCODE_SHIFT | 146u << 3), XXLXOR_OPCODE = (60u << OPCODE_SHIFT | 154u << 3), XXLEQV_OPCODE = (60u << OPCODE_SHIFT | 186u << 3), XVDIVSP_OPCODE = (60u << OPCODE_SHIFT | 88u << 3), XXBRD_OPCODE = (60u << OPCODE_SHIFT | 475u << 2 | 23u << 16), // XX2-FORM XXBRW_OPCODE = (60u << OPCODE_SHIFT | 475u << 2 | 15u << 16), // XX2-FORM XXPERM_OPCODE = (60u << OPCODE_SHIFT | 26u << 3), XXSEL_OPCODE = (60u << OPCODE_SHIFT | 3u << 4), XXSPLTIB_OPCODE= (60u << OPCODE_SHIFT | 360u << 1), XVDIVDP_OPCODE = (60u << OPCODE_SHIFT | 120u << 3), XVABSSP_OPCODE = (60u << OPCODE_SHIFT | 409u << 2), XVABSDP_OPCODE = (60u << OPCODE_SHIFT | 473u << 2), XVNEGSP_OPCODE = (60u << OPCODE_SHIFT | 441u << 2), XVNEGDP_OPCODE = (60u << OPCODE_SHIFT | 505u << 2), XVSQRTSP_OPCODE= (60u << OPCODE_SHIFT | 139u << 2), XVSQRTDP_OPCODE= (60u << OPCODE_SHIFT | 203u << 2), XSCVDPSPN_OPCODE=(60u << OPCODE_SHIFT | 267u << 2), XVADDDP_OPCODE = (60u << OPCODE_SHIFT | 96u << 3), XVSUBDP_OPCODE = (60u << OPCODE_SHIFT | 104u << 3), XVMULSP_OPCODE = (60u << OPCODE_SHIFT | 80u << 3), XVMULDP_OPCODE = (60u << OPCODE_SHIFT | 112u << 3), XVMADDASP_OPCODE=(60u << OPCODE_SHIFT | 65u << 3), XVMADDADP_OPCODE=(60u << OPCODE_SHIFT | 97u << 3), XVMSUBASP_OPCODE=(60u << OPCODE_SHIFT | 81u << 3), XVMSUBADP_OPCODE=(60u << OPCODE_SHIFT | 113u << 3), XVNMSUBASP_OPCODE=(60u<< OPCODE_SHIFT | 209u << 3), XVNMSUBADP_OPCODE=(60u<< OPCODE_SHIFT | 241u << 3), XVRDPI_OPCODE = (60u << OPCODE_SHIFT | 201u << 2), XVRDPIC_OPCODE = (60u << OPCODE_SHIFT | 235u << 2), XVRDPIM_OPCODE = (60u << OPCODE_SHIFT | 249u << 2), XVRDPIP_OPCODE = (60u << OPCODE_SHIFT | 233u << 2), // Deliver A Random Number (introduced with POWER9) DARN_OPCODE = (31u << OPCODE_SHIFT | 755u << 1), // Vector Permute and Formatting VPKPX_OPCODE = (4u << OPCODE_SHIFT | 782u ), VPKSHSS_OPCODE = (4u << OPCODE_SHIFT | 398u ), VPKSWSS_OPCODE = (4u << OPCODE_SHIFT | 462u ), VPKSHUS_OPCODE = (4u << OPCODE_SHIFT | 270u ), VPKSWUS_OPCODE = (4u << OPCODE_SHIFT | 334u ), VPKUHUM_OPCODE = (4u << OPCODE_SHIFT | 14u ), VPKUWUM_OPCODE = (4u << OPCODE_SHIFT | 78u ), VPKUHUS_OPCODE = (4u << OPCODE_SHIFT | 142u ), VPKUWUS_OPCODE = (4u << OPCODE_SHIFT | 206u ), VUPKHPX_OPCODE = (4u << OPCODE_SHIFT | 846u ), VUPKHSB_OPCODE = (4u << OPCODE_SHIFT | 526u ), VUPKHSH_OPCODE = (4u << OPCODE_SHIFT | 590u ), VUPKLPX_OPCODE = (4u << OPCODE_SHIFT | 974u ), VUPKLSB_OPCODE = (4u << OPCODE_SHIFT | 654u ), VUPKLSH_OPCODE = (4u << OPCODE_SHIFT | 718u ), VMRGHB_OPCODE = (4u << OPCODE_SHIFT | 12u ), VMRGHW_OPCODE = (4u << OPCODE_SHIFT | 140u ), VMRGHH_OPCODE = (4u << OPCODE_SHIFT | 76u ), VMRGLB_OPCODE = (4u << OPCODE_SHIFT | 268u ), VMRGLW_OPCODE = (4u << OPCODE_SHIFT | 396u ), VMRGLH_OPCODE = (4u << OPCODE_SHIFT | 332u ), VSPLT_OPCODE = (4u << OPCODE_SHIFT | 524u ), VSPLTH_OPCODE = (4u << OPCODE_SHIFT | 588u ), VSPLTW_OPCODE = (4u << OPCODE_SHIFT | 652u ), VSPLTISB_OPCODE= (4u << OPCODE_SHIFT | 780u ), VSPLTISH_OPCODE= (4u << OPCODE_SHIFT | 844u ), VSPLTISW_OPCODE= (4u << OPCODE_SHIFT | 908u ), VPEXTD_OPCODE = (4u << OPCODE_SHIFT | 1421u ), VPERM_OPCODE = (4u << OPCODE_SHIFT | 43u ), VSEL_OPCODE = (4u << OPCODE_SHIFT | 42u ), VSL_OPCODE = (4u << OPCODE_SHIFT | 452u ), VSLDOI_OPCODE = (4u << OPCODE_SHIFT | 44u ), VSLO_OPCODE = (4u << OPCODE_SHIFT | 1036u ), VSR_OPCODE = (4u << OPCODE_SHIFT | 708u ), VSRO_OPCODE = (4u << OPCODE_SHIFT | 1100u ), // Vector Integer VADDCUW_OPCODE = (4u << OPCODE_SHIFT | 384u ), VADDSHS_OPCODE = (4u << OPCODE_SHIFT | 832u ), VADDSBS_OPCODE = (4u << OPCODE_SHIFT | 768u ), VADDSWS_OPCODE = (4u << OPCODE_SHIFT | 896u ), VADDUBM_OPCODE = (4u << OPCODE_SHIFT | 0u ), VADDUWM_OPCODE = (4u << OPCODE_SHIFT | 128u ), VADDUHM_OPCODE = (4u << OPCODE_SHIFT | 64u ), VADDUDM_OPCODE = (4u << OPCODE_SHIFT | 192u ), VADDUBS_OPCODE = (4u << OPCODE_SHIFT | 512u ), VADDUWS_OPCODE = (4u << OPCODE_SHIFT | 640u ), VADDUHS_OPCODE = (4u << OPCODE_SHIFT | 576u ), VADDFP_OPCODE = (4u << OPCODE_SHIFT | 10u ), VSUBCUW_OPCODE = (4u << OPCODE_SHIFT | 1408u ), VSUBSHS_OPCODE = (4u << OPCODE_SHIFT | 1856u ), VSUBSBS_OPCODE = (4u << OPCODE_SHIFT | 1792u ), VSUBSWS_OPCODE = (4u << OPCODE_SHIFT | 1920u ), VSUBUBM_OPCODE = (4u << OPCODE_SHIFT | 1024u ), VSUBUWM_OPCODE = (4u << OPCODE_SHIFT | 1152u ), VSUBUHM_OPCODE = (4u << OPCODE_SHIFT | 1088u ), VSUBUDM_OPCODE = (4u << OPCODE_SHIFT | 1216u ), VSUBUBS_OPCODE = (4u << OPCODE_SHIFT | 1536u ), VSUBUWS_OPCODE = (4u << OPCODE_SHIFT | 1664u ), VSUBUHS_OPCODE = (4u << OPCODE_SHIFT | 1600u ), VSUBFP_OPCODE = (4u << OPCODE_SHIFT | 74u ), VMULESB_OPCODE = (4u << OPCODE_SHIFT | 776u ), VMULEUB_OPCODE = (4u << OPCODE_SHIFT | 520u ), VMULESH_OPCODE = (4u << OPCODE_SHIFT | 840u ), VMULEUH_OPCODE = (4u << OPCODE_SHIFT | 584u ), VMULOSB_OPCODE = (4u << OPCODE_SHIFT | 264u ), VMULOUB_OPCODE = (4u << OPCODE_SHIFT | 8u ), VMULOSH_OPCODE = (4u << OPCODE_SHIFT | 328u ), VMULOSW_OPCODE = (4u << OPCODE_SHIFT | 392u ), VMULOUH_OPCODE = (4u << OPCODE_SHIFT | 72u ), VMULUWM_OPCODE = (4u << OPCODE_SHIFT | 137u ), VMHADDSHS_OPCODE=(4u << OPCODE_SHIFT | 32u ), VMHRADDSHS_OPCODE=(4u << OPCODE_SHIFT | 33u ), VMLADDUHM_OPCODE=(4u << OPCODE_SHIFT | 34u ), VMSUBUHM_OPCODE= (4u << OPCODE_SHIFT | 36u ), VMSUMMBM_OPCODE= (4u << OPCODE_SHIFT | 37u ), VMSUMSHM_OPCODE= (4u << OPCODE_SHIFT | 40u ), VMSUMSHS_OPCODE= (4u << OPCODE_SHIFT | 41u ), VMSUMUHM_OPCODE= (4u << OPCODE_SHIFT | 38u ), VMSUMUHS_OPCODE= (4u << OPCODE_SHIFT | 39u ), VMADDFP_OPCODE = (4u << OPCODE_SHIFT | 46u ), VSUMSWS_OPCODE = (4u << OPCODE_SHIFT | 1928u ), VSUM2SWS_OPCODE= (4u << OPCODE_SHIFT | 1672u ), VSUM4SBS_OPCODE= (4u << OPCODE_SHIFT | 1800u ), VSUM4UBS_OPCODE= (4u << OPCODE_SHIFT | 1544u ), VSUM4SHS_OPCODE= (4u << OPCODE_SHIFT | 1608u ), VAVGSB_OPCODE = (4u << OPCODE_SHIFT | 1282u ), VAVGSW_OPCODE = (4u << OPCODE_SHIFT | 1410u ), VAVGSH_OPCODE = (4u << OPCODE_SHIFT | 1346u ), VAVGUB_OPCODE = (4u << OPCODE_SHIFT | 1026u ), VAVGUW_OPCODE = (4u << OPCODE_SHIFT | 1154u ), VAVGUH_OPCODE = (4u << OPCODE_SHIFT | 1090u ), VMAXSB_OPCODE = (4u << OPCODE_SHIFT | 258u ), VMAXSW_OPCODE = (4u << OPCODE_SHIFT | 386u ), VMAXSH_OPCODE = (4u << OPCODE_SHIFT | 322u ), VMAXUB_OPCODE = (4u << OPCODE_SHIFT | 2u ), VMAXUW_OPCODE = (4u << OPCODE_SHIFT | 130u ), VMAXUH_OPCODE = (4u << OPCODE_SHIFT | 66u ), VMINSB_OPCODE = (4u << OPCODE_SHIFT | 770u ), VMINSW_OPCODE = (4u << OPCODE_SHIFT | 898u ), VMINSH_OPCODE = (4u << OPCODE_SHIFT | 834u ), VMINUB_OPCODE = (4u << OPCODE_SHIFT | 514u ), VMINUW_OPCODE = (4u << OPCODE_SHIFT | 642u ), VMINUH_OPCODE = (4u << OPCODE_SHIFT | 578u ), VCMPEQUB_OPCODE= (4u << OPCODE_SHIFT | 6u ), VCMPEQUH_OPCODE= (4u << OPCODE_SHIFT | 70u ), VCMPEQUW_OPCODE= (4u << OPCODE_SHIFT | 134u ), VCMPGTSH_OPCODE= (4u << OPCODE_SHIFT | 838u ), VCMPGTSB_OPCODE= (4u << OPCODE_SHIFT | 774u ), VCMPGTSW_OPCODE= (4u << OPCODE_SHIFT | 902u ), VCMPGTUB_OPCODE= (4u << OPCODE_SHIFT | 518u ), VCMPGTUH_OPCODE= (4u << OPCODE_SHIFT | 582u ), VCMPGTUW_OPCODE= (4u << OPCODE_SHIFT | 646u ), VAND_OPCODE = (4u << OPCODE_SHIFT | 1028u ), VANDC_OPCODE = (4u << OPCODE_SHIFT | 1092u ), VNOR_OPCODE = (4u << OPCODE_SHIFT | 1284u ), VOR_OPCODE = (4u << OPCODE_SHIFT | 1156u ), VXOR_OPCODE = (4u << OPCODE_SHIFT | 1220u ), VRLD_OPCODE = (4u << OPCODE_SHIFT | 196u ), VRLB_OPCODE = (4u << OPCODE_SHIFT | 4u ), VRLW_OPCODE = (4u << OPCODE_SHIFT | 132u ), VRLH_OPCODE = (4u << OPCODE_SHIFT | 68u ), VSLB_OPCODE = (4u << OPCODE_SHIFT | 260u ), VSKW_OPCODE = (4u << OPCODE_SHIFT | 388u ), VSLH_OPCODE = (4u << OPCODE_SHIFT | 324u ), VSRB_OPCODE = (4u << OPCODE_SHIFT | 516u ), VSRW_OPCODE = (4u << OPCODE_SHIFT | 644u ), VSRH_OPCODE = (4u << OPCODE_SHIFT | 580u ), VSRAB_OPCODE = (4u << OPCODE_SHIFT | 772u ), VSRAW_OPCODE = (4u << OPCODE_SHIFT | 900u ), VSRAH_OPCODE = (4u << OPCODE_SHIFT | 836u ), VPOPCNTB_OPCODE= (4u << OPCODE_SHIFT | 1795u ), VPOPCNTH_OPCODE= (4u << OPCODE_SHIFT | 1859u ), VPOPCNTW_OPCODE= (4u << OPCODE_SHIFT | 1923u ), VPOPCNTD_OPCODE= (4u << OPCODE_SHIFT | 1987u ), // Vector Floating-Point // not implemented yet // Vector Status and Control MTVSCR_OPCODE = (4u << OPCODE_SHIFT | 1604u ), MFVSCR_OPCODE = (4u << OPCODE_SHIFT | 1540u ), // AES (introduced with Power 8) VCIPHER_OPCODE = (4u << OPCODE_SHIFT | 1288u), VCIPHERLAST_OPCODE = (4u << OPCODE_SHIFT | 1289u), VNCIPHER_OPCODE = (4u << OPCODE_SHIFT | 1352u), VNCIPHERLAST_OPCODE = (4u << OPCODE_SHIFT | 1353u), VSBOX_OPCODE = (4u << OPCODE_SHIFT | 1480u), // SHA (introduced with Power 8) VSHASIGMAD_OPCODE = (4u << OPCODE_SHIFT | 1730u), VSHASIGMAW_OPCODE = (4u << OPCODE_SHIFT | 1666u), // Vector Binary Polynomial Multiplication (introduced with Power 8) VPMSUMB_OPCODE = (4u << OPCODE_SHIFT | 1032u), VPMSUMD_OPCODE = (4u << OPCODE_SHIFT | 1224u), VPMSUMH_OPCODE = (4u << OPCODE_SHIFT | 1096u), VPMSUMW_OPCODE = (4u << OPCODE_SHIFT | 1160u), // Vector Permute and Xor (introduced with Power 8) VPERMXOR_OPCODE = (4u << OPCODE_SHIFT | 45u), // Transactional Memory instructions (introduced with Power 8) TBEGIN_OPCODE = (31u << OPCODE_SHIFT | 654u << 1), TEND_OPCODE = (31u << OPCODE_SHIFT | 686u << 1), TABORT_OPCODE = (31u << OPCODE_SHIFT | 910u << 1), TABORTWC_OPCODE = (31u << OPCODE_SHIFT | 782u << 1), TABORTWCI_OPCODE = (31u << OPCODE_SHIFT | 846u << 1), TABORTDC_OPCODE = (31u << OPCODE_SHIFT | 814u << 1), TABORTDCI_OPCODE = (31u << OPCODE_SHIFT | 878u << 1), TSR_OPCODE = (31u << OPCODE_SHIFT | 750u << 1), TCHECK_OPCODE = (31u << OPCODE_SHIFT | 718u << 1), // Icache and dcache related instructions DCBA_OPCODE = (31u << OPCODE_SHIFT | 758u << 1), DCBZ_OPCODE = (31u << OPCODE_SHIFT | 1014u << 1), DCBST_OPCODE = (31u << OPCODE_SHIFT | 54u << 1), DCBF_OPCODE = (31u << OPCODE_SHIFT | 86u << 1), DCBT_OPCODE = (31u << OPCODE_SHIFT | 278u << 1), DCBTST_OPCODE = (31u << OPCODE_SHIFT | 246u << 1), ICBI_OPCODE = (31u << OPCODE_SHIFT | 982u << 1), // Instruction synchronization ISYNC_OPCODE = (19u << OPCODE_SHIFT | 150u << 1), // Memory barriers SYNC_OPCODE = (31u << OPCODE_SHIFT | 598u << 1), EIEIO_OPCODE = (31u << OPCODE_SHIFT | 854u << 1), // Wait instructions for polling. WAIT_OPCODE = (31u << OPCODE_SHIFT | 62u << 1), // Trap instructions TDI_OPCODE = (2u << OPCODE_SHIFT), TWI_OPCODE = (3u << OPCODE_SHIFT), TD_OPCODE = (31u << OPCODE_SHIFT | 68u << 1), TW_OPCODE = (31u << OPCODE_SHIFT | 4u << 1), // Atomics. LBARX_OPCODE = (31u << OPCODE_SHIFT | 52u << 1), LHARX_OPCODE = (31u << OPCODE_SHIFT | 116u << 1), LWARX_OPCODE = (31u << OPCODE_SHIFT | 20u << 1), LDARX_OPCODE = (31u << OPCODE_SHIFT | 84u << 1), LQARX_OPCODE = (31u << OPCODE_SHIFT | 276u << 1), STBCX_OPCODE = (31u << OPCODE_SHIFT | 694u << 1), STHCX_OPCODE = (31u << OPCODE_SHIFT | 726u << 1), STWCX_OPCODE = (31u << OPCODE_SHIFT | 150u << 1), STDCX_OPCODE = (31u << OPCODE_SHIFT | 214u << 1), STQCX_OPCODE = (31u << OPCODE_SHIFT | 182u << 1) }; enum opcdeos_mask { // Mask for prefix primary opcode field PREFIX_OPCODE_MASK = (63u << OPCODE_SHIFT), // Mask for prefix opcode and type fields PREFIX_OPCODE_TYPE_MASK = (63u << OPCODE_SHIFT) | (3u << PRE_TYPE_SHIFT), // Masks for type 00/10 and type 01/11, including opcode, type, and st fieds PREFIX_OPCODE_TYPEx0_MASK = PREFIX_OPCODE_TYPE_MASK | ( 1u << PRE_ST1_SHIFT), PREFIX_OPCODE_TYPEx1_MASK = PREFIX_OPCODE_TYPE_MASK | (15u << PRE_ST4_SHIFT), // Masks for each instructions PADDI_PREFIX_OPCODE_MASK = PREFIX_OPCODE_TYPEx0_MASK, PADDI_SUFFIX_OPCODE_MASK = ADDI_OPCODE_MASK, }; enum opcdeos { PREFIX_PRIMARY_OPCODE = (1u << OPCODE_SHIFT), // Prefixed addi/li PADDI_PREFIX_OPCODE = PREFIX_PRIMARY_OPCODE | (2u << PRE_TYPE_SHIFT), PADDI_SUFFIX_OPCODE = ADDI_OPCODE, // xxpermx XXPERMX_PREFIX_OPCODE = PREFIX_PRIMARY_OPCODE | (1u << PRE_TYPE_SHIFT), XXPERMX_SUFFIX_OPCODE = (34u << OPCODE_SHIFT), }; // Trap instructions TO bits enum trap_to_bits { // single bits traptoLessThanSigned = 1 << 4, // 0, left end traptoGreaterThanSigned = 1 << 3, traptoEqual = 1 << 2, traptoLessThanUnsigned = 1 << 1, traptoGreaterThanUnsigned = 1 << 0, // 4, right end // compound ones traptoUnconditional = (traptoLessThanSigned | traptoGreaterThanSigned | traptoEqual | traptoLessThanUnsigned | traptoGreaterThanUnsigned) }; // Branch hints BH field enum branch_hint_bh { // bclr cases: bhintbhBCLRisReturn = 0, bhintbhBCLRisNotReturnButSame = 1, bhintbhBCLRisNotPredictable = 3, // bcctr cases: bhintbhBCCTRisNotReturnButSame = 0, bhintbhBCCTRisNotPredictable = 3 }; // Branch prediction hints AT field enum branch_hint_at { bhintatNoHint = 0, // at=00 bhintatIsNotTaken = 2, // at=10 bhintatIsTaken = 3 // at=11 }; // Branch prediction hints enum branch_hint_concept { // Use the same encoding as branch_hint_at to simply code. bhintNoHint = bhintatNoHint, bhintIsNotTaken = bhintatIsNotTaken, bhintIsTaken = bhintatIsTaken }; // Used in BO field of branch instruction. enum branch_condition { bcondCRbiIs0 = 4, // bo=001at bcondCRbiIs1 = 12, // bo=011at bcondAlways = 20 // bo=10100 }; // Branch condition with combined prediction hints. enum branch_condition_with_hint { bcondCRbiIs0_bhintNoHint = bcondCRbiIs0 | bhintatNoHint, bcondCRbiIs0_bhintIsNotTaken = bcondCRbiIs0 | bhintatIsNotTaken, bcondCRbiIs0_bhintIsTaken = bcondCRbiIs0 | bhintatIsTaken, bcondCRbiIs1_bhintNoHint = bcondCRbiIs1 | bhintatNoHint, bcondCRbiIs1_bhintIsNotTaken = bcondCRbiIs1 | bhintatIsNotTaken, bcondCRbiIs1_bhintIsTaken = bcondCRbiIs1 | bhintatIsTaken, }; // Elemental Memory Barriers (>=Power 8) enum Elemental_Membar_mask_bits { StoreStore = 1 << 0, StoreLoad = 1 << 1, LoadStore = 1 << 2, LoadLoad = 1 << 3 }; // Branch prediction hints. inline static int add_bhint_to_boint(const int bhint, const int boint) { switch (boint) { case bcondCRbiIs0: case bcondCRbiIs1: // branch_hint and branch_hint_at have same encodings assert( (int)bhintNoHint == (int)bhintatNoHint && (int)bhintIsNotTaken == (int)bhintatIsNotTaken && (int)bhintIsTaken == (int)bhintatIsTaken, "wrong encodings"); assert((bhint & 0x03) == bhint, "wrong encodings"); return (boint & ~0x03) | bhint; case bcondAlways: // no branch_hint return boint; default: ShouldNotReachHere(); return 0; } } // Extract bcond from boint. inline static int inv_boint_bcond(const int boint) { int r_bcond = boint & ~0x03; assert(r_bcond == bcondCRbiIs0 || r_bcond == bcondCRbiIs1 || r_bcond == bcondAlways, "bad branch condition"); return r_bcond; } // Extract bhint from boint. inline static int inv_boint_bhint(const int boint) { int r_bhint = boint & 0x03; assert(r_bhint == bhintatNoHint || r_bhint == bhintatIsNotTaken || r_bhint == bhintatIsTaken, "bad branch hint"); return r_bhint; } // Calculate opposite of given bcond. inline static int opposite_bcond(const int bcond) { switch (bcond) { case bcondCRbiIs0: return bcondCRbiIs1; case bcondCRbiIs1: return bcondCRbiIs0; default: ShouldNotReachHere(); return 0; } } // Calculate opposite of given bhint. inline static int opposite_bhint(const int bhint) { switch (bhint) { case bhintatNoHint: return bhintatNoHint; case bhintatIsNotTaken: return bhintatIsTaken; case bhintatIsTaken: return bhintatIsNotTaken; default: ShouldNotReachHere(); return 0; } } // PPC branch instructions enum ppcops { b_op = 18, bc_op = 16, bcr_op = 19 }; enum Condition { negative = 0, less = 0, positive = 1, greater = 1, zero = 2, equal = 2, summary_overflow = 3, }; public: // Helper functions for groups of instructions enum Predict { pt = 1, pn = 0 }; // pt = predict taken //---< calculate length of instruction >--- // With PPC64 being a RISC architecture, this always is BytesPerInstWord // instruction must start at passed address static unsigned int instr_len(unsigned char *instr) { return BytesPerInstWord; } //---< longest instructions >--- static unsigned int instr_maxlen() { return BytesPerInstWord; } // Test if x is within signed immediate range for nbits. static bool is_simm(int x, unsigned int nbits) { assert(0 < nbits && nbits < 32, "out of bounds"); const int min = -(((int)1) << nbits-1); const int maxplus1 = (((int)1) << nbits-1); return min <= x && x < maxplus1; } static bool is_simm(jlong x, unsigned int nbits) { assert(0 < nbits && nbits < 64, "out of bounds"); const jlong min = -(((jlong)1) << nbits-1); const jlong maxplus1 = (((jlong)1) << nbits-1); return min <= x && x < maxplus1; } // Test if x is within unsigned immediate range for nbits. static bool is_uimm(int x, unsigned int nbits) { assert(0 < nbits && nbits < 32, "out of bounds"); const unsigned int maxplus1 = (((unsigned int)1) << nbits); return (unsigned int)x < maxplus1; } static bool is_uimm(jlong x, unsigned int nbits) { assert(0 < nbits && nbits < 64, "out of bounds"); const julong maxplus1 = (((julong)1) << nbits); return (julong)x < maxplus1; } protected: // helpers // X is supposed to fit in a field "nbits" wide // and be sign-extended. Check the range. static void assert_signed_range(intptr_t x, int nbits) { assert(nbits == 32 || (-(1 << nbits-1) <= x && x < (1 << nbits-1)), "value out of range"); } static void assert_signed_word_disp_range(intptr_t x, int nbits) { assert((x & 3) == 0, "not word aligned"); assert_signed_range(x, nbits + 2); } static void assert_unsigned_const(int x, int nbits) { assert(juint(x) < juint(1 << nbits), "unsigned constant out of range"); } static int fmask(juint hi_bit, juint lo_bit) { assert(hi_bit >= lo_bit && hi_bit < 32, "bad bits"); return (1 << ( hi_bit-lo_bit + 1 )) - 1; } // inverse of u_field static int inv_u_field(int x, int hi_bit, int lo_bit) { juint r = juint(x) >> lo_bit; r &= fmask(hi_bit, lo_bit); return int(r); } // signed version: extract from field and sign-extend static int inv_s_field_ppc(int x, int hi_bit, int lo_bit) { x = x << (31-hi_bit); x = x >> (31-hi_bit+lo_bit); return x; } static int u_field(int x, int hi_bit, int lo_bit) { assert((x & ~fmask(hi_bit, lo_bit)) == 0, "value out of range"); int r = x << lo_bit; assert(inv_u_field(r, hi_bit, lo_bit) == x, "just checking"); return r; } // Same as u_field for signed values static int s_field(int x, int hi_bit, int lo_bit) { int nbits = hi_bit - lo_bit + 1; assert(nbits == 32 || (-(1 << nbits-1) <= x && x < (1 << nbits-1)), "value out of range"); x &= fmask(hi_bit, lo_bit); int r = x << lo_bit; return r; } // inv_op for ppc instructions static int inv_op_ppc(int x) { return inv_u_field(x, 31, 26); } // Determine target address from li, bd field of branch instruction. static intptr_t inv_li_field(int x) { intptr_t r = inv_s_field_ppc(x, 25, 2); r = (r << 2); return r; } static intptr_t inv_bd_field(int x, intptr_t pos) { intptr_t r = inv_s_field_ppc(x, 15, 2); r = (r << 2) + pos; return r; } #define inv_opp_u_field(x, hi_bit, lo_bit) inv_u_field(x, 31-(lo_bit), 31-(hi_bit)) #define inv_opp_s_field(x, hi_bit, lo_bit) inv_s_field_ppc(x, 31-(lo_bit), 31-(hi_bit) // Extract instruction fields from instruction words. public: static int inv_ra_field(int x) { return inv_opp_u_field(x, 15, 11); } static int inv_rb_field(int x) { return inv_opp_u_field(x, 20, 16); } static int inv_rt_field(int x) { return inv_opp_u_field(x, 10, 6); } static int inv_rta_field(int x) { return inv_opp_u_field(x, 15, 11); } static int inv_rs_field(int x) { return inv_opp_u_field(x, 10, 6); } // Ds uses opp_s_field(x, 31, 16), but lowest 2 bits must be 0. // Inv_ds_field uses range (x, 29, 16) but shifts by 2 to ensure that lowest bits are 0. static int inv_ds_field(int x) { return inv_opp_s_field(x, 29, 16) << 2; } static int inv_d1_field(int x) { return inv_opp_s_field(x, 31, 16); } static int inv_si_field(int x) { return inv_opp_s_field(x, 31, 16); } static int inv_to_field(int x) { return inv_opp_u_field(x, 10, 6); } static int inv_lk_field(int x) { return inv_opp_u_field(x, 31, 31); } static int inv_bo_field(int x) { return inv_opp_u_field(x, 10, 6); } static int inv_bi_field(int x) { return inv_opp_u_field(x, 15, 11); } // For extended opcodes (prefixed instructions) introduced with Power 10 static long inv_r_eo( int x) { return inv_opp_u_field(x, 11, 11); } static long inv_type( int x) { return inv_opp_u_field(x, 7, 6); } static long inv_st_x0( int x) { return inv_opp_u_field(x, 8, 8); } static long inv_st_x1( int x) { return inv_opp_u_field(x, 11, 8); } // - 8LS:D/MLS:D Formats static long inv_d0_eo( long x) { return inv_opp_u_field(x, 31, 14); } // - 8RR:XX4/8RR:D Formats static long inv_imm0_eo(int x) { return inv_opp_u_field(x, 31, 16); } static long inv_uimm_eo(int x) { return inv_opp_u_field(x, 31, 29); } static long inv_imm_eo( int x) { return inv_opp_u_field(x, 31, 24); } #define opp_u_field(x, hi_bit, lo_bit) u_field(x, 31-(lo_bit), 31-(hi_bit)) #define opp_s_field(x, hi_bit, lo_bit) s_field(x, 31-(lo_bit), 31-(hi_bit)) // instruction fields static int aa( int x) { return opp_u_field(x, 30, 30); } static int ba( int x) { return opp_u_field(x, 15, 11); } static int bb( int x) { return opp_u_field(x, 20, 16); } static int bc( int x) { return opp_u_field(x, 25, 21); } static int bd( int x) { return opp_s_field(x, 29, 16); } static int bf( ConditionRegister cr) { return bf(cr->encoding()); } static int bf( int x) { return opp_u_field(x, 8, 6); } static int bfa(ConditionRegister cr) { return bfa(cr->encoding()); } static int bfa( int x) { return opp_u_field(x, 13, 11); } static int bh( int x) { return opp_u_field(x, 20, 19); } static int bi( int x) { return opp_u_field(x, 15, 11); } static int bi0(ConditionRegister cr, Condition c) { return (cr->encoding() << 2) | c; } static int bo( int x) { return opp_u_field(x, 10, 6); } static int bt( int x) { return opp_u_field(x, 10, 6); } static int d1( int x) { return opp_s_field(x, 31, 16); } static int ds( int x) { assert((x & 0x3) == 0, "unaligned offset"); return opp_s_field(x, static int eh( int x) { return opp_u_field(x, 31, 31); } static int flm( int x) { return opp_u_field(x, 14, 7); } static int fra( FloatRegister r) { return fra(r->encoding());} static int frb( FloatRegister r) { return frb(r->encoding());} static int frc( FloatRegister r) { return frc(r->encoding());} static int frs( FloatRegister r) { return frs(r->encoding());} static int frt( FloatRegister r) { return frt(r->encoding());} static int fra( int x) { return opp_u_field(x, 15, 11); } static int frb( int x) { return opp_u_field(x, 20, 16); } static int frc( int x) { return opp_u_field(x, 25, 21); } static int frs( int x) { return opp_u_field(x, 10, 6); } static int frt( int x) { return opp_u_field(x, 10, 6); } static int fxm( int x) { return opp_u_field(x, 19, 12); } static int imm8( int x) { return opp_u_field(uimm(x, 8), 20, 13); } static int l10( int x) { assert(x == 0 || x == 1, "must be 0 or 1"); return opp_u_field(x, 10, 10 static int l14( int x) { return opp_u_field(x, 15, 14); } static int l15( int x) { return opp_u_field(x, 15, 15); } static int l910( int x) { return opp_u_field(x, 10, 9); } static int e1215( int x) { return opp_u_field(x, 15, 12); } static int lev( int x) { return opp_u_field(x, 26, 20); } static int li( int x) { return opp_s_field(x, 29, 6); } static int lk( int x) { return opp_u_field(x, 31, 31); } static int mb2125( int x) { return opp_u_field(x, 25, 21); } static int me2630( int x) { return opp_u_field(x, 30, 26); } static int mb2126( int x) { return opp_u_field(((x & 0x1f) << 1) | ((x & 0x20) >> 5), 26, 21); } static int me2126( int x) { return mb2126(x); } static int nb( int x) { return opp_u_field(x, 20, 16); } //static int opcd( int x) { return opp_u_field(x, 5, 0); } // is contained in our opcodes static int oe( int x) { return opp_u_field(x, 21, 21); } static int ra( Register r) { return ra(r->encoding()); } static int ra( int x) { return opp_u_field(x, 15, 11); } static int rb( Register r) { return rb(r->encoding()); } static int rb( int x) { return opp_u_field(x, 20, 16); } static int rc( int x) { return opp_u_field(x, 31, 31); } static int rs( Register r) { return rs(r->encoding()); } static int rs( int x) { return opp_u_field(x, 10, 6); } // we don't want to use R0 in memory accesses, because it has value `0' then static int ra0mem( Register r) { assert(r != R0, "cannot use register R0 in memory access static int ra0mem( int x) { assert(x != 0, "cannot use register 0 in memory access"); retu // register r is target static int rt( Register r) { return rs(r); } static int rt( int x) { return rs(x); } static int rta( Register r) { return ra(r); } static int rta0mem( Register r) { rta(r); return ra0mem(r); } static int sh1620( int x) { return opp_u_field(x, 20, 16); } static int sh30( int x) { return opp_u_field(x, 30, 30); } static int sh162030( int x) { return sh1620(x & 0x1f) | sh30((x & 0x20) >> 5); } static int si( int x) { return opp_s_field(x, 31, 16); } static int spr( int x) { return opp_u_field(x, 20, 11); } static int sr( int x) { return opp_u_field(x, 15, 12); } static int tbr( int x) { return opp_u_field(x, 20, 11); } static int th( int x) { return opp_u_field(x, 10, 7); } static int thct( int x) { assert((x&8) == 0, "must be valid cache specification"); retur static int thds( int x) { assert((x&8) == 8, "must be valid stream specification"); retu static int to( int x) { return opp_u_field(x, 10, 6); } static int u( int x) { return opp_u_field(x, 19, 16); } static int ui( int x) { return opp_u_field(x, 31, 16); } // Support vector instructions for >= Power6. static int vra( int x) { return opp_u_field(x, 15, 11); } static int vrb( int x) { return opp_u_field(x, 20, 16); } static int vrc( int x) { return opp_u_field(x, 25, 21); } static int vrs( int x) { return opp_u_field(x, 10, 6); } static int vrt( int x) { return opp_u_field(x, 10, 6); } static int vra( VectorRegister r) { return vra(r->encoding());} static int vrb( VectorRegister r) { return vrb(r->encoding());} static int vrc( VectorRegister r) { return vrc(r->encoding());} static int vrs( VectorRegister r) { return vrs(r->encoding());} static int vrt( VectorRegister r) { return vrt(r->encoding());} // Only used on SHA sigma instructions (VX-form) static int vst( int x) { return opp_u_field(x, 16, 16); } static int vsix( int x) { return opp_u_field(x, 20, 17); } // Support Vector-Scalar (VSX) instructions. static int vsra( int x) { return opp_u_field(x & 0x1F, 15, 11) | opp_u_field((x & 0x20) >> static int vsrb( int x) { return opp_u_field(x & 0x1F, 20, 16) | opp_u_field((x & 0x20) >> static int vsrc( int x) { return opp_u_field(x & 0x1F, 25, 21) | opp_u_field((x & 0x20) >> static int vsrs( int x) { return opp_u_field(x & 0x1F, 10, 6) | opp_u_field((x & 0x20) >> 5 static int vsrt( int x) { return vsrs(x); } static int vsdm( int x) { return opp_u_field(x, 23, 22); } static int vsrs_dq( int x) { return opp_u_field(x & 0x1F, 10, 6) | opp_u_field((x & 0x2 static int vsrt_dq( int x) { return vsrs_dq(x); } static int vsra( VectorSRegister r) { return vsra(r->encoding());} static int vsrb( VectorSRegister r) { return vsrb(r->encoding());} static int vsrc( VectorSRegister r) { return vsrc(r->encoding());} static int vsrs( VectorSRegister r) { return vsrs(r->encoding());} static int vsrt( VectorSRegister r) { return vsrt(r->encoding());} static int vsrs_dq(VectorSRegister r) { return vsrs_dq(r->encoding());} static int vsrt_dq(VectorSRegister r) { return vsrt_dq(r->encoding());} static int vsplt_uim( int x) { return opp_u_field(x, 15, 12); } // for vsplt* instructions static int vsplti_sim(int x) { return opp_u_field(x, 15, 11); } // for vsplti* instructions static int vsldoi_shb(int x) { return opp_u_field(x, 25, 22); } // for vsldoi instruction static int vcmp_rc( int x) { return opp_u_field(x, 21, 21); } // for vcmp* instructions static int xxsplt_uim(int x) { return opp_u_field(x, 15, 14); } // for xxsplt* instructions // For extended opcodes (prefixed instructions) introduced with Power 10 static long r_eo( int x) { return opp_u_field(x, 11, 11); } static long type( int x) { return opp_u_field(x, 7, 6); } static long st_x0( int x) { return opp_u_field(x, 8, 8); } static long st_x1( int x) { return opp_u_field(x, 11, 8); } // - 8LS:D/MLS:D Formats static long d0_eo( long x) { return opp_u_field((x >> 16) & 0x3FFFF, 31, 14); } static long d1_eo( long x) { return opp_u_field(x & 0xFFFF, 31, 16); } static long s0_eo( long x) { return d0_eo(x); } static long s1_eo( long x) { return d1_eo(x); } // - 8RR:XX4/8RR:D Formats static long imm0_eo( int x) { return opp_u_field(x >> 16, 31, 16); } static long imm1_eo( int x) { return opp_u_field(x & 0xFFFF, 31, 16); } static long uimm_eo( int x) { return opp_u_field(x, 31, 29); } static long imm_eo( int x) { return opp_u_field(x, 31, 24); } //static int xo1( int x) { return opp_u_field(x, 29, 21); }// is contained in our opcodes //static int xo2( int x) { return opp_u_field(x, 30, 21); }// is contained in our opcodes //static int xo3( int x) { return opp_u_field(x, 30, 22); }// is contained in our opcodes //static int xo4( int x) { return opp_u_field(x, 30, 26); }// is contained in our opcodes //static int xo5( int x) { return opp_u_field(x, 29, 27); }// is contained in our opcodes //static int xo6( int x) { return opp_u_field(x, 30, 27); }// is contained in our opcodes //static int xo7( int x) { return opp_u_field(x, 31, 30); }// is contained in our opcodes protected: // Compute relative address for branch. static intptr_t disp(intptr_t x, intptr_t off) { int xx = x - off; xx = xx >> 2; return xx; } public: // signed immediate, in low bits, nbits long static int simm(int x, int nbits) { assert_signed_range(x, nbits); return x & ((1 << nbits) - 1); } // unsigned immediate, in low bits, nbits long static int uimm(int x, int nbits) { assert_unsigned_const(x, nbits); return x & ((1 << nbits) - 1); } static void set_imm(int* instr, short s) { // imm is always in the lower 16 bits of the instruction, // so this is endian-neutral. Same for the get_imm below. uint32_t w = *(uint32_t *)instr; *instr = (int)((w & ~0x0000FFFF) | (s & 0x0000FFFF)); } static int get_imm(address a, int instruction_number) { return (short)((int *)a)[instruction_number]; } static inline int hi16_signed( int x) { return (int)(int16_t)(x >> 16); } static inline int lo16_unsigned(int x) { return x & 0xffff; } protected: // Extract the top 32 bits in a 64 bit word. static int32_t hi32(int64_t x) { int32_t r = int32_t((uint64_t)x >> 32); return r; } public: static inline unsigned int align_addr(unsigned int addr, unsigned int a) { return ((addr + (a - 1)) & ~(a - 1)); } static inline bool is_aligned(unsigned int addr, unsigned int a) { return (0 == addr % a); } void flush() { AbstractAssembler::flush(); } inline void emit_int32(int); // shadows AbstractAssembler::emit_int32 inline void emit_data(int); inline void emit_data(int, RelocationHolder const&); inline void emit_data(int, relocInfo::relocType rtype); // Emit an address. inline address emit_addr(const address addr = NULL); #if !defined(ABI_ELFv2) // Emit a function descriptor with the specified entry point, TOC, // and ENV. If the entry point is NULL, the descriptor will point // just past the descriptor. // Use values from friend functions as defaults. inline address emit_fd(address entry = NULL, address toc = (address) FunctionDescriptor::friend_toc, address env = (address) FunctionDescriptor::friend_env); #endif //////////////////////////////////////////////////////////////////////////////// // PPC instructions //////////////////////////////////////////////////////////////////////////////// // Memory instructions use r0 as hard coded 0, e.g. to simulate loading // immediates. The normal instruction encoders enforce that r0 is not // passed to them. Use either extended mnemonics encoders or the special ra0 // versions. // Issue an illegal instruction. inline void illtrap(); static inline bool is_illtrap(address instr_addr); // PPC 1, section 3.3.8, Fixed-Point Arithmetic Instructions inline void addi( Register d, Register a, int si16); inline void addis(Register d, Register a, int si16); // Prefixed add immediate, introduced by POWER10 inline void paddi(Register d, Register a, long si34, bool r); inline void pli( Register d, long si34); private: inline void addi_r0ok( Register d, Register a, int si16); inline void addis_r0ok(Register d, Register a, int si16); inline void paddi_r0ok(Register d, Register a, long si34, bool r); public: inline void addic_( Register d, Register a, int si16); inline void subfic( Register d, Register a, int si16); inline void add( Register d, Register a, Register b); inline void add_( Register d, Register a, Register b); inline void subf( Register d, Register a, Register b); // d = b - a "Sub_from", as in ppc spec. inline void sub( Register d, Register a, Register b); // d = a - b Swap operands of subf for readabi inline void subf_( Register d, Register a, Register b); inline void addc( Register d, Register a, Register b); inline void addc_( Register d, Register a, Register b); inline void subfc( Register d, Register a, Register b); inline void subfc_( Register d, Register a, Register b); inline void adde( Register d, Register a, Register b); inline void adde_( Register d, Register a, Register b); inline void subfe( Register d, Register a, Register b); inline void subfe_( Register d, Register a, Register b); inline void addme( Register d, Register a); inline void addme_( Register d, Register a); inline void subfme( Register d, Register a); inline void subfme_(Register d, Register a); inline void addze( Register d, Register a); inline void addze_( Register d, Register a); inline void subfze( Register d, Register a); inline void subfze_(Register d, Register a); inline void neg( Register d, Register a); inline void neg_( Register d, Register a); inline void mulli( Register d, Register a, int si16); inline void mulld( Register d, Register a, Register b); inline void mulld_( Register d, Register a, Register b); inline void mullw( Register d, Register a, Register b); inline void mullw_( Register d, Register a, Register b); inline void mulhw( Register d, Register a, Register b); inline void mulhw_( Register d, Register a, Register b); inline void mulhwu( Register d, Register a, Register b); inline void mulhwu_(Register d, Register a, Register b); inline void mulhd( Register d, Register a, Register b); inline void mulhd_( Register d, Register a, Register b); inline void mulhdu( Register d, Register a, Register b); inline void mulhdu_(Register d, Register a, Register b); inline void divd( Register d, Register a, Register b); inline void divd_( Register d, Register a, Register b); inline void divw( Register d, Register a, Register b); inline void divw_( Register d, Register a, Register b); inline void divdu( Register d, Register a, Register b); inline void divdu_( Register d, Register a, Register b); inline void divwu( Register d, Register a, Register b); inline void divwu_( Register d, Register a, Register b); // Fixed-Point Arithmetic Instructions with Overflow detection inline void addo( Register d, Register a, Register b); inline void addo_( Register d, Register a, Register b); inline void subfo( Register d, Register a, Register b); inline void subfo_( Register d, Register a, Register b); inline void addco( Register d, Register a, Register b); inline void addco_( Register d, Register a, Register b); inline void subfco( Register d, Register a, Register b); inline void subfco_( Register d, Register a, Register b); inline void addeo( Register d, Register a, Register b); inline void addeo_( Register d, Register a, Register b); inline void subfeo( Register d, Register a, Register b); inline void subfeo_( Register d, Register a, Register b); --> -------------------- --> maximum size reached --> -------------------- ¤ Dauer der Verarbeitung: 0.103 Sekunden (vorverarbeitet) ¤ |
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