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llvm-6502/lib/Target/ARM/ARMScheduleA9.td
Andrew Trick 6c9712fecb New machine model for cortex-a9. Schedule for resources and latency. 
Schedule more conservatively to account for stalls on floating point
resources and latency. Use the AGU resource to model latency stalls
since it's shared between FP and LD/ST instructions. This might not be
completely accurate but should work well in practice.

git-svn-id: https://llvm.org/svn/llvm-project/llvm/trunk@198125 91177308-0d34-0410-b5e6-96231b3b80d8
2013-12-28 21:57:05 +00:00

2530 lines
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TableGen
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//=- ARMScheduleA9.td - ARM Cortex-A9 Scheduling Definitions -*- tablegen -*-=//
//
// The LLVM Compiler Infrastructure
//
// This file is distributed under the University of Illinois Open Source
// License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
//
// This file defines the itinerary class data for the ARM Cortex A9 processors.
//
//===----------------------------------------------------------------------===//
// ===---------------------------------------------------------------------===//
// This section contains legacy support for itineraries. This is
// required until SD and PostRA schedulers are replaced by MachineScheduler.
//
// Ad-hoc scheduling information derived from pretty vague "Cortex-A9 Technical
// Reference Manual".
//
// Functional units
def A9_Issue0 : FuncUnit; // Issue 0
def A9_Issue1 : FuncUnit; // Issue 1
def A9_Branch : FuncUnit; // Branch
def A9_ALU0 : FuncUnit; // ALU / MUL pipeline 0
def A9_ALU1 : FuncUnit; // ALU pipeline 1
def A9_AGU : FuncUnit; // Address generation unit for ld / st
def A9_NPipe : FuncUnit; // NEON pipeline
def A9_MUX0 : FuncUnit; // AGU + NEON/FPU multiplexer
def A9_LSUnit : FuncUnit; // L/S Unit
def A9_DRegsVFP: FuncUnit; // FP register set, VFP side
def A9_DRegsN : FuncUnit; // FP register set, NEON side
// Bypasses
def A9_LdBypass : Bypass;
def CortexA9Itineraries : ProcessorItineraries<
[A9_Issue0, A9_Issue1, A9_Branch, A9_ALU0, A9_ALU1, A9_AGU, A9_NPipe, A9_MUX0,
A9_LSUnit, A9_DRegsVFP, A9_DRegsN],
[A9_LdBypass], [
// Two fully-pipelined integer ALU pipelines
//
// Move instructions, unconditional
InstrItinData<IIC_iMOVi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1]>,
InstrItinData<IIC_iMOVr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iMOVsi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iMOVsr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>], [2, 1, 1]>,
InstrItinData<IIC_iMOVix2 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [2]>,
InstrItinData<IIC_iMOVix2addpc,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>,
InstrStage<1, [A9_ALU0, A9_ALU1]>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [3]>,
InstrItinData<IIC_iMOVix2ld,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>,
InstrStage<1, [A9_ALU0, A9_ALU1]>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>], [5]>,
//
// MVN instructions
InstrItinData<IIC_iMVNi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[1]>,
InstrItinData<IIC_iMVNr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[1, 1], [NoBypass, A9_LdBypass]>,
InstrItinData<IIC_iMVNsi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>],
[2, 1]>,
InstrItinData<IIC_iMVNsr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0, A9_ALU1]>],
[3, 1, 1]>,
//
// No operand cycles
InstrItinData<IIC_iALUx , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>]>,
//
// Binary Instructions that produce a result
InstrItinData<IIC_iALUi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[1, 1], [NoBypass, A9_LdBypass]>,
InstrItinData<IIC_iALUr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[1, 1, 1], [NoBypass, A9_LdBypass, A9_LdBypass]>,
InstrItinData<IIC_iALUsi, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>],
[2, 1, 1], [NoBypass, A9_LdBypass, NoBypass]>,
InstrItinData<IIC_iALUsir,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>],
[2, 1, 1], [NoBypass, NoBypass, A9_LdBypass]>,
InstrItinData<IIC_iALUsr, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0, A9_ALU1]>],
[3, 1, 1, 1],
[NoBypass, A9_LdBypass, NoBypass, NoBypass]>,
//
// Bitwise Instructions that produce a result
InstrItinData<IIC_iBITi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iBITr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1, 1]>,
InstrItinData<IIC_iBITsi, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>], [2, 1, 1]>,
InstrItinData<IIC_iBITsr, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0, A9_ALU1]>], [3, 1, 1, 1]>,
//
// Unary Instructions that produce a result
// CLZ, RBIT, etc.
InstrItinData<IIC_iUNAr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
// BFC, BFI, UBFX, SBFX
InstrItinData<IIC_iUNAsi, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>], [2, 1]>,
//
// Zero and sign extension instructions
InstrItinData<IIC_iEXTr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [2, 1]>,
InstrItinData<IIC_iEXTAr, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>], [3, 1, 1]>,
InstrItinData<IIC_iEXTAsr,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0, A9_ALU1]>], [3, 1, 1, 1]>,
//
// Compare instructions
InstrItinData<IIC_iCMPi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[1], [A9_LdBypass]>,
InstrItinData<IIC_iCMPr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[1, 1], [A9_LdBypass, A9_LdBypass]>,
InstrItinData<IIC_iCMPsi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>],
[1, 1], [A9_LdBypass, NoBypass]>,
InstrItinData<IIC_iCMPsr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0, A9_ALU1]>],
[1, 1, 1], [A9_LdBypass, NoBypass, NoBypass]>,
//
// Test instructions
InstrItinData<IIC_iTSTi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1]>,
InstrItinData<IIC_iTSTr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iTSTsi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iTSTsr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0, A9_ALU1]>], [1, 1, 1]>,
//
// Move instructions, conditional
// FIXME: Correctly model the extra input dep on the destination.
InstrItinData<IIC_iCMOVi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1]>,
InstrItinData<IIC_iCMOVr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iCMOVsi , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [1, 1]>,
InstrItinData<IIC_iCMOVsr , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0, A9_ALU1]>], [2, 1, 1]>,
InstrItinData<IIC_iCMOVix2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>,
InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_ALU0, A9_ALU1]>], [2]>,
// Integer multiply pipeline
//
InstrItinData<IIC_iMUL16 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0]>], [3, 1, 1]>,
InstrItinData<IIC_iMAC16 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0]>],
[3, 1, 1, 1]>,
InstrItinData<IIC_iMUL32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0]>], [4, 1, 1]>,
InstrItinData<IIC_iMAC32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<2, [A9_ALU0]>],
[4, 1, 1, 1]>,
InstrItinData<IIC_iMUL64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0]>], [4, 5, 1, 1]>,
InstrItinData<IIC_iMAC64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<3, [A9_ALU0]>],
[4, 5, 1, 1]>,
// Integer load pipeline
// FIXME: The timings are some rough approximations
//
// Immediate offset
InstrItinData<IIC_iLoad_i , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_bh_i, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[4, 1], [A9_LdBypass]>,
// FIXME: If address is 64-bit aligned, AGU cycles is 1.
InstrItinData<IIC_iLoad_d_i , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 3, 1], [A9_LdBypass]>,
//
// Register offset
InstrItinData<IIC_iLoad_r , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 1, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_bh_r, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[4, 1, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_d_r , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 3, 1, 1], [A9_LdBypass]>,
//
// Scaled register offset
InstrItinData<IIC_iLoad_si , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit], 0>],
[4, 1, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_bh_si,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[5, 1, 1], [A9_LdBypass]>,
//
// Immediate offset with update
InstrItinData<IIC_iLoad_iu , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 2, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_bh_iu,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[4, 3, 1], [A9_LdBypass]>,
//
// Register offset with update
InstrItinData<IIC_iLoad_ru , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 2, 1, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_bh_ru,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[4, 3, 1, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_d_ru, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[3, 3, 1, 1], [A9_LdBypass]>,
//
// Scaled register offset with update
InstrItinData<IIC_iLoad_siu , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[4, 3, 1, 1], [A9_LdBypass]>,
InstrItinData<IIC_iLoad_bh_siu,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[5, 4, 1, 1], [A9_LdBypass]>,
//
// Load multiple, def is the 5th operand.
// FIXME: This assumes 3 to 4 registers.
InstrItinData<IIC_iLoad_m , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1, 3],
[NoBypass, NoBypass, NoBypass, NoBypass, A9_LdBypass],
-1>, // dynamic uops
//
// Load multiple + update, defs are the 1st and 5th operands.
InstrItinData<IIC_iLoad_mu , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1, 3],
[NoBypass, NoBypass, NoBypass, NoBypass, A9_LdBypass],
-1>, // dynamic uops
//
// Load multiple plus branch
InstrItinData<IIC_iLoad_mBr, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 1>,
InstrStage<2, [A9_LSUnit]>,
InstrStage<1, [A9_Branch]>],
[1, 2, 1, 1, 3],
[NoBypass, NoBypass, NoBypass, NoBypass, A9_LdBypass],
-1>, // dynamic uops
//
// Pop, def is the 3rd operand.
InstrItinData<IIC_iPop , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 3],
[NoBypass, NoBypass, A9_LdBypass],
-1>, // dynamic uops
//
// Pop + branch, def is the 3rd operand.
InstrItinData<IIC_iPop_Br, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<2, [A9_LSUnit]>,
InstrStage<1, [A9_Branch]>],
[1, 1, 3],
[NoBypass, NoBypass, A9_LdBypass],
-1>, // dynamic uops
//
// iLoadi + iALUr for t2LDRpci_pic.
InstrItinData<IIC_iLoadiALU, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>,
InstrStage<1, [A9_ALU0, A9_ALU1]>],
[2, 1]>,
// Integer store pipeline
///
// Immediate offset
InstrItinData<IIC_iStore_i , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>], [1, 1]>,
InstrItinData<IIC_iStore_bh_i,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>], [1, 1]>,
// FIXME: If address is 64-bit aligned, AGU cycles is 1.
InstrItinData<IIC_iStore_d_i, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>], [1, 1]>,
//
// Register offset
InstrItinData<IIC_iStore_r , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>], [1, 1, 1]>,
InstrItinData<IIC_iStore_bh_r,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>], [1, 1, 1]>,
InstrItinData<IIC_iStore_d_r, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>], [1, 1, 1]>,
//
// Scaled register offset
InstrItinData<IIC_iStore_si , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>], [1, 1, 1]>,
InstrItinData<IIC_iStore_bh_si,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>], [1, 1, 1]>,
//
// Immediate offset with update
InstrItinData<IIC_iStore_iu , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>], [2, 1, 1]>,
InstrItinData<IIC_iStore_bh_iu,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>], [3, 1, 1]>,
//
// Register offset with update
InstrItinData<IIC_iStore_ru , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1]>,
InstrItinData<IIC_iStore_bh_ru,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>],
[3, 1, 1, 1]>,
InstrItinData<IIC_iStore_d_ru, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>],
[3, 1, 1, 1]>,
//
// Scaled register offset with update
InstrItinData<IIC_iStore_siu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1]>,
InstrItinData<IIC_iStore_bh_siu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_AGU], 1>,
InstrStage<1, [A9_LSUnit]>],
[3, 1, 1, 1]>,
//
// Store multiple
InstrItinData<IIC_iStore_m , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<2, [A9_LSUnit]>],
[], [], -1>, // dynamic uops
//
// Store multiple + update
InstrItinData<IIC_iStore_mu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_AGU], 0>,
InstrStage<2, [A9_LSUnit]>],
[2], [], -1>, // dynamic uops
//
// Preload
InstrItinData<IIC_Preload, [InstrStage<1, [A9_Issue0, A9_Issue1]>], [1, 1]>,
// Branch
//
// no delay slots, so the latency of a branch is unimportant
InstrItinData<IIC_Br , [InstrStage<1, [A9_Issue0], 0>,
InstrStage<1, [A9_Issue1], 0>,
InstrStage<1, [A9_Branch]>]>,
// VFP and NEON shares the same register file. This means that every VFP
// instruction should wait for full completion of the consecutive NEON
// instruction and vice-versa. We model this behavior with two artificial FUs:
// DRegsVFP and DRegsVFP.
//
// Every VFP instruction:
// - Acquires DRegsVFP resource for 1 cycle
// - Reserves DRegsN resource for the whole duration (including time to
// register file writeback!).
// Every NEON instruction does the same but with FUs swapped.
//
// Since the reserved FU cannot be acquired, this models precisely
// "cross-domain" stalls.
// VFP
// Issue through integer pipeline, and execute in NEON unit.
// FP Special Register to Integer Register File Move
InstrItinData<IIC_fpSTAT , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1]>,
//
// Single-precision FP Unary
InstrItinData<IIC_fpUNA32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
// Extra latency cycles since wbck is 2 cycles
InstrStage<3, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1]>,
//
// Double-precision FP Unary
InstrItinData<IIC_fpUNA64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
// Extra latency cycles since wbck is 2 cycles
InstrStage<3, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1]>,
//
// Single-precision FP Compare
InstrItinData<IIC_fpCMP32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
// Extra latency cycles since wbck is 4 cycles
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1]>,
//
// Double-precision FP Compare
InstrItinData<IIC_fpCMP64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
// Extra latency cycles since wbck is 4 cycles
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1]>,
//
// Single to Double FP Convert
InstrItinData<IIC_fpCVTSD , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Double to Single FP Convert
InstrItinData<IIC_fpCVTDS , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Single to Half FP Convert
InstrItinData<IIC_fpCVTSH , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Half to Single FP Convert
InstrItinData<IIC_fpCVTHS , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<3, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 1]>,
//
// Single-Precision FP to Integer Convert
InstrItinData<IIC_fpCVTSI , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Double-Precision FP to Integer Convert
InstrItinData<IIC_fpCVTDI , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Integer to Single-Precision FP Convert
InstrItinData<IIC_fpCVTIS , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Integer to Double-Precision FP Convert
InstrItinData<IIC_fpCVTID , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Single-precision FP ALU
InstrItinData<IIC_fpALU32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1, 1]>,
//
// Double-precision FP ALU
InstrItinData<IIC_fpALU64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<5, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1, 1]>,
//
// Single-precision FP Multiply
InstrItinData<IIC_fpMUL32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<6, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[5, 1, 1]>,
//
// Double-precision FP Multiply
InstrItinData<IIC_fpMUL64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<7, [A9_DRegsN], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 1, 1]>,
//
// Single-precision FP MAC
InstrItinData<IIC_fpMAC32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<9, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[8, 1, 1, 1]>,
//
// Double-precision FP MAC
InstrItinData<IIC_fpMAC64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<10, [A9_DRegsN], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[9, 1, 1, 1]>,
//
// Single-precision Fused FP MAC
InstrItinData<IIC_fpFMAC32, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<9, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[8, 1, 1, 1]>,
//
// Double-precision Fused FP MAC
InstrItinData<IIC_fpFMAC64, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<10, [A9_DRegsN], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[9, 1, 1, 1]>,
//
// Single-precision FP DIV
InstrItinData<IIC_fpDIV32 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<16, [A9_DRegsN], 0, Reserved>,
InstrStage<10, [A9_NPipe]>],
[15, 1, 1]>,
//
// Double-precision FP DIV
InstrItinData<IIC_fpDIV64 , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<26, [A9_DRegsN], 0, Reserved>,
InstrStage<20, [A9_NPipe]>],
[25, 1, 1]>,
//
// Single-precision FP SQRT
InstrItinData<IIC_fpSQRT32, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<18, [A9_DRegsN], 0, Reserved>,
InstrStage<13, [A9_NPipe]>],
[17, 1]>,
//
// Double-precision FP SQRT
InstrItinData<IIC_fpSQRT64, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<33, [A9_DRegsN], 0, Reserved>,
InstrStage<28, [A9_NPipe]>],
[32, 1]>,
//
// Integer to Single-precision Move
InstrItinData<IIC_fpMOVIS, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
// Extra 1 latency cycle since wbck is 2 cycles
InstrStage<3, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1]>,
//
// Integer to Double-precision Move
InstrItinData<IIC_fpMOVID, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
// Extra 1 latency cycle since wbck is 2 cycles
InstrStage<3, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1, 1]>,
//
// Single-precision to Integer Move
//
// On A9 move-from-VFP is free to issue with no stall if other VFP
// operations are in flight. I assume it still can't dual-issue though.
InstrItinData<IIC_fpMOVSI, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>],
[2, 1]>,
//
// Double-precision to Integer Move
//
// On A9 move-from-VFP is free to issue with no stall if other VFP
// operations are in flight. I assume it still can't dual-issue though.
InstrItinData<IIC_fpMOVDI, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>],
[2, 1, 1]>,
//
// Single-precision FP Load
InstrItinData<IIC_fpLoad32, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1]>,
//
// Double-precision FP Load
// FIXME: Result latency is 1 if address is 64-bit aligned.
InstrItinData<IIC_fpLoad64, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1]>,
//
// FP Load Multiple
// FIXME: assumes 2 doubles which requires 2 LS cycles.
InstrItinData<IIC_fpLoad_m, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1], [], -1>, // dynamic uops
//
// FP Load Multiple + update
// FIXME: assumes 2 doubles which requires 2 LS cycles.
InstrItinData<IIC_fpLoad_mu,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1], [], -1>, // dynamic uops
//
// Single-precision FP Store
InstrItinData<IIC_fpStore32,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1]>,
//
// Double-precision FP Store
InstrItinData<IIC_fpStore64,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1]>,
//
// FP Store Multiple
// FIXME: assumes 2 doubles which requires 2 LS cycles.
InstrItinData<IIC_fpStore_m,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1], [], -1>, // dynamic uops
//
// FP Store Multiple + update
// FIXME: assumes 2 doubles which requires 2 LS cycles.
InstrItinData<IIC_fpStore_mu,[InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsVFP], 0, Required>,
InstrStage<2, [A9_DRegsN], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1], [], -1>, // dynamic uops
// NEON
// VLD1
InstrItinData<IIC_VLD1, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1]>,
// VLD1x2
InstrItinData<IIC_VLD1x2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 1]>,
// VLD1x3
InstrItinData<IIC_VLD1x3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 2, 1]>,
// VLD1x4
InstrItinData<IIC_VLD1x4, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 2, 2, 1]>,
// VLD1u
InstrItinData<IIC_VLD1u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 2, 1]>,
// VLD1x2u
InstrItinData<IIC_VLD1x2u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 2, 1]>,
// VLD1x3u
InstrItinData<IIC_VLD1x3u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 2, 2, 1]>,
// VLD1x4u
InstrItinData<IIC_VLD1x4u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 2, 2, 2, 1]>,
//
// VLD1ln
InstrItinData<IIC_VLD1ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[3, 1, 1, 1]>,
//
// VLD1lnu
InstrItinData<IIC_VLD1lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[3, 2, 1, 1, 1, 1]>,
//
// VLD1dup
InstrItinData<IIC_VLD1dup, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1]>,
//
// VLD1dupu
InstrItinData<IIC_VLD1dupu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 2, 1, 1]>,
//
// VLD2
InstrItinData<IIC_VLD2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 2, 1]>,
//
// VLD2x2
InstrItinData<IIC_VLD2x2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 3, 2, 3, 1]>,
//
// VLD2ln
InstrItinData<IIC_VLD2ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[3, 3, 1, 1, 1, 1]>,
//
// VLD2u
InstrItinData<IIC_VLD2u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 2, 2, 1, 1, 1]>,
//
// VLD2x2u
InstrItinData<IIC_VLD2x2u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 3, 2, 3, 2, 1]>,
//
// VLD2lnu
InstrItinData<IIC_VLD2lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[3, 3, 2, 1, 1, 1, 1, 1]>,
//
// VLD2dup
InstrItinData<IIC_VLD2dup, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 2, 1]>,
//
// VLD2dupu
InstrItinData<IIC_VLD2dupu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 2, 2, 1, 1]>,
//
// VLD3
InstrItinData<IIC_VLD3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<9,[A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[3, 3, 4, 1]>,
//
// VLD3ln
InstrItinData<IIC_VLD3ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<11,[A9_DRegsVFP], 0, Reserved>,
InstrStage<5, [A9_NPipe], 0>,
InstrStage<5, [A9_LSUnit]>],
[5, 5, 6, 1, 1, 1, 1, 2]>,
//
// VLD3u
InstrItinData<IIC_VLD3u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<9,[A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[3, 3, 4, 2, 1]>,
//
// VLD3lnu
InstrItinData<IIC_VLD3lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<11,[A9_DRegsVFP], 0, Reserved>,
InstrStage<5, [A9_NPipe], 0>,
InstrStage<5, [A9_LSUnit]>],
[5, 5, 6, 2, 1, 1, 1, 1, 1, 2]>,
//
// VLD3dup
InstrItinData<IIC_VLD3dup, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[3, 3, 4, 1]>,
//
// VLD3dupu
InstrItinData<IIC_VLD3dupu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[3, 3, 4, 2, 1, 1]>,
//
// VLD4
InstrItinData<IIC_VLD4, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<9,[A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[3, 3, 4, 4, 1]>,
//
// VLD4ln
InstrItinData<IIC_VLD4ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<10,[A9_DRegsVFP], 0, Reserved>,
InstrStage<4, [A9_NPipe], 0>,
InstrStage<4, [A9_LSUnit]>],
[4, 4, 5, 5, 1, 1, 1, 1, 2, 2]>,
//
// VLD4u
InstrItinData<IIC_VLD4u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<9,[A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[3, 3, 4, 4, 2, 1]>,
//
// VLD4lnu
InstrItinData<IIC_VLD4lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<10,[A9_DRegsVFP], 0, Reserved>,
InstrStage<4, [A9_NPipe], 0>,
InstrStage<4, [A9_LSUnit]>],
[4, 4, 5, 5, 2, 1, 1, 1, 1, 1, 2, 2]>,
//
// VLD4dup
InstrItinData<IIC_VLD4dup, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 2, 3, 3, 1]>,
//
// VLD4dupu
InstrItinData<IIC_VLD4dupu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 2, 3, 3, 2, 1, 1]>,
//
// VST1
InstrItinData<IIC_VST1, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 1]>,
//
// VST1x2
InstrItinData<IIC_VST1x2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 1, 1]>,
//
// VST1x3
InstrItinData<IIC_VST1x3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1, 2]>,
//
// VST1x4
InstrItinData<IIC_VST1x4, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1, 2, 2]>,
//
// VST1u
InstrItinData<IIC_VST1u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1, 1]>,
//
// VST1x2u
InstrItinData<IIC_VST1x2u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1]>,
//
// VST1x3u
InstrItinData<IIC_VST1x3u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2]>,
//
// VST1x4u
InstrItinData<IIC_VST1x4u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2, 2]>,
//
// VST1ln
InstrItinData<IIC_VST1ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 1]>,
//
// VST1lnu
InstrItinData<IIC_VST1lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1, 1]>,
//
// VST2
InstrItinData<IIC_VST2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 1, 1]>,
//
// VST2x2
InstrItinData<IIC_VST2x2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[1, 1, 1, 1, 2, 2]>,
//
// VST2u
InstrItinData<IIC_VST2u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1]>,
//
// VST2x2u
InstrItinData<IIC_VST2x2u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2, 2]>,
//
// VST2ln
InstrItinData<IIC_VST2ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[1, 1, 1, 1]>,
//
// VST2lnu
InstrItinData<IIC_VST2lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe], 0>,
InstrStage<1, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1]>,
//
// VST3
InstrItinData<IIC_VST3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1, 2]>,
//
// VST3u
InstrItinData<IIC_VST3u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2]>,
//
// VST3ln
InstrItinData<IIC_VST3ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[1, 1, 1, 1, 2]>,
//
// VST3lnu
InstrItinData<IIC_VST3lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe], 0>,
InstrStage<3, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2]>,
//
// VST4
InstrItinData<IIC_VST4, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1, 2, 2]>,
//
// VST4u
InstrItinData<IIC_VST4u, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2, 2]>,
//
// VST4ln
InstrItinData<IIC_VST4ln, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[1, 1, 1, 1, 2, 2]>,
//
// VST4lnu
InstrItinData<IIC_VST4lnu, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<2, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe], 0>,
InstrStage<2, [A9_LSUnit]>],
[2, 1, 1, 1, 1, 1, 2, 2]>,
//
// Double-register Integer Unary
InstrItinData<IIC_VUNAiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 2]>,
//
// Quad-register Integer Unary
InstrItinData<IIC_VUNAiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 2]>,
//
// Double-register Integer Q-Unary
InstrItinData<IIC_VQUNAiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Quad-register Integer CountQ-Unary
InstrItinData<IIC_VQUNAiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1]>,
//
// Double-register Integer Binary
InstrItinData<IIC_VBINiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 2, 2]>,
//
// Quad-register Integer Binary
InstrItinData<IIC_VBINiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 2, 2]>,
//
// Double-register Integer Subtract
InstrItinData<IIC_VSUBiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 2, 1]>,
//
// Quad-register Integer Subtract
InstrItinData<IIC_VSUBiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 2, 1]>,
//
// Double-register Integer Shift
InstrItinData<IIC_VSHLiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 1, 1]>,
//
// Quad-register Integer Shift
InstrItinData<IIC_VSHLiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 1, 1]>,
//
// Double-register Integer Shift (4 cycle)
InstrItinData<IIC_VSHLi4D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1, 1]>,
//
// Quad-register Integer Shift (4 cycle)
InstrItinData<IIC_VSHLi4Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 1, 1]>,
//
// Double-register Integer Binary (4 cycle)
InstrItinData<IIC_VBINi4D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 2, 2]>,
//
// Quad-register Integer Binary (4 cycle)
InstrItinData<IIC_VBINi4Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 2, 2]>,
//
// Double-register Integer Subtract (4 cycle)
InstrItinData<IIC_VSUBi4D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 2, 1]>,
//
// Quad-register Integer Subtract (4 cycle)
InstrItinData<IIC_VSUBi4Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[4, 2, 1]>,
//
// Double-register Integer Count
InstrItinData<IIC_VCNTiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 2, 2]>,
//
// Quad-register Integer Count
// Result written in N3, but that is relative to the last cycle of multicycle,
// so we use 4 for those cases
InstrItinData<IIC_VCNTiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[4, 2, 2]>,
//
// Double-register Absolute Difference and Accumulate
InstrItinData<IIC_VABAD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[6, 3, 2, 1]>,
//
// Quad-register Absolute Difference and Accumulate
InstrItinData<IIC_VABAQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 3, 2, 1]>,
//
// Double-register Integer Pair Add Long
InstrItinData<IIC_VPALiD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[6, 3, 1]>,
//
// Quad-register Integer Pair Add Long
InstrItinData<IIC_VPALiQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 3, 1]>,
//
// Double-register Integer Multiply (.8, .16)
InstrItinData<IIC_VMULi16D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[6, 2, 2]>,
//
// Quad-register Integer Multiply (.8, .16)
InstrItinData<IIC_VMULi16Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[7, 2, 2]>,
//
// Double-register Integer Multiply (.32)
InstrItinData<IIC_VMULi32D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[7, 2, 1]>,
//
// Quad-register Integer Multiply (.32)
InstrItinData<IIC_VMULi32Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 9 cycles
InstrStage<10, [A9_DRegsVFP], 0, Reserved>,
InstrStage<4, [A9_NPipe]>],
[9, 2, 1]>,
//
// Double-register Integer Multiply-Accumulate (.8, .16)
InstrItinData<IIC_VMACi16D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[6, 3, 2, 2]>,
//
// Double-register Integer Multiply-Accumulate (.32)
InstrItinData<IIC_VMACi32D, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[7, 3, 2, 1]>,
//
// Quad-register Integer Multiply-Accumulate (.8, .16)
InstrItinData<IIC_VMACi16Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[7, 3, 2, 2]>,
//
// Quad-register Integer Multiply-Accumulate (.32)
InstrItinData<IIC_VMACi32Q, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 9 cycles
InstrStage<10, [A9_DRegsVFP], 0, Reserved>,
InstrStage<4, [A9_NPipe]>],
[9, 3, 2, 1]>,
//
// Move
InstrItinData<IIC_VMOV, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<1, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1,1]>,
//
// Move Immediate
InstrItinData<IIC_VMOVImm, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3]>,
//
// Double-register Permute Move
InstrItinData<IIC_VMOVD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 1]>,
//
// Quad-register Permute Move
InstrItinData<IIC_VMOVQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 1]>,
//
// Integer to Single-precision Move
InstrItinData<IIC_VMOVIS , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1]>,
//
// Integer to Double-precision Move
InstrItinData<IIC_VMOVID , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[1, 1, 1]>,
//
// Single-precision to Integer Move
InstrItinData<IIC_VMOVSI , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 1]>,
//
// Double-precision to Integer Move
InstrItinData<IIC_VMOVDI , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<3, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 2, 1]>,
//
// Integer to Lane Move
InstrItinData<IIC_VMOVISL , [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
InstrStage<4, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 1, 1]>,
//
// Vector narrow move
InstrItinData<IIC_VMOVN, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[3, 1]>,
//
// Double-register FP Unary
InstrItinData<IIC_VUNAD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[5, 2]>,
//
// Quad-register FP Unary
// Result written in N5, but that is relative to the last cycle of multicycle,
// so we use 6 for those cases
InstrItinData<IIC_VUNAQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 2]>,
//
// Double-register FP Binary
// FIXME: We're using this itin for many instructions and [2, 2] here is too
// optimistic.
InstrItinData<IIC_VBIND, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[5, 2, 2]>,
//
// VPADD, etc.
InstrItinData<IIC_VPBIND, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[5, 1, 1]>,
//
// Double-register FP VMUL
InstrItinData<IIC_VFMULD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[5, 2, 1]>,
//
// Quad-register FP Binary
// Result written in N5, but that is relative to the last cycle of multicycle,
// so we use 6 for those cases
// FIXME: We're using this itin for many instructions and [2, 2] here is too
// optimistic.
InstrItinData<IIC_VBINQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 2, 2]>,
//
// Quad-register FP VMUL
InstrItinData<IIC_VFMULQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[6, 2, 1]>,
//
// Double-register FP Multiple-Accumulate
InstrItinData<IIC_VMACD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 3, 2, 1]>,
//
// Quad-register FP Multiple-Accumulate
// Result written in N9, but that is relative to the last cycle of multicycle,
// so we use 10 for those cases
InstrItinData<IIC_VMACQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 9 cycles
InstrStage<10, [A9_DRegsVFP], 0, Reserved>,
InstrStage<4, [A9_NPipe]>],
[8, 4, 2, 1]>,
//
// Double-register Fused FP Multiple-Accumulate
InstrItinData<IIC_VFMACD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[6, 3, 2, 1]>,
//
// Quad-register Fused FP Multiple-Accumulate
// Result written in N9, but that is relative to the last cycle of multicycle,
// so we use 10 for those cases
InstrItinData<IIC_VFMACQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 9 cycles
InstrStage<10, [A9_DRegsVFP], 0, Reserved>,
InstrStage<4, [A9_NPipe]>],
[8, 4, 2, 1]>,
//
// Double-register Reciprical Step
InstrItinData<IIC_VRECSD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 10 cycles
InstrStage<11, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[9, 2, 2]>,
//
// Quad-register Reciprical Step
InstrItinData<IIC_VRECSQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 11 cycles
InstrStage<12, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[10, 2, 2]>,
//
// Double-register Permute
InstrItinData<IIC_VPERMD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 2, 1, 1]>,
//
// Quad-register Permute
// Result written in N2, but that is relative to the last cycle of multicycle,
// so we use 3 for those cases
InstrItinData<IIC_VPERMQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 3, 1, 1]>,
//
// Quad-register Permute (3 cycle issue)
// Result written in N2, but that is relative to the last cycle of multicycle,
// so we use 4 for those cases
InstrItinData<IIC_VPERMQ3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 8 cycles
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe]>],
[4, 4, 1, 1]>,
//
// Double-register VEXT
InstrItinData<IIC_VEXTD, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 6 cycles
InstrStage<7, [A9_DRegsVFP], 0, Reserved>,
InstrStage<1, [A9_NPipe]>],
[2, 1, 1]>,
//
// Quad-register VEXT
InstrItinData<IIC_VEXTQ, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 1, 2]>,
//
// VTB
InstrItinData<IIC_VTB1, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 2, 1]>,
InstrItinData<IIC_VTB2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 2, 2, 1]>,
InstrItinData<IIC_VTB3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<2, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 8 cycles
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe]>],
[4, 2, 2, 3, 1]>,
InstrItinData<IIC_VTB4, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 8 cycles
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe]>],
[4, 2, 2, 3, 3, 1]>,
//
// VTBX
InstrItinData<IIC_VTBX1, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 1, 2, 1]>,
InstrItinData<IIC_VTBX2, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 7 cycles
InstrStage<8, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[3, 1, 2, 2, 1]>,
InstrItinData<IIC_VTBX3, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 8 cycles
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<3, [A9_NPipe]>],
[4, 1, 2, 2, 3, 1]>,
InstrItinData<IIC_VTBX4, [InstrStage<1, [A9_Issue0, A9_Issue1], 0>,
InstrStage<1, [A9_MUX0], 0>,
InstrStage<1, [A9_DRegsN], 0, Required>,
// Extra latency cycles since wbck is 8 cycles
InstrStage<9, [A9_DRegsVFP], 0, Reserved>,
InstrStage<2, [A9_NPipe]>],
[4, 1, 2, 2, 3, 3, 1]>
]>;
// ===---------------------------------------------------------------------===//
// The following definitions describe the simpler per-operand machine model.
// This works with MachineScheduler and will eventually replace itineraries.
class A9WriteLMOpsListType<list<WriteSequence> writes> {
list <WriteSequence> Writes = writes;
SchedMachineModel SchedModel = ?;
}
// Cortex-A9 machine model for scheduling and other instruction cost heuristics.
def CortexA9Model : SchedMachineModel {
let IssueWidth = 2; // 2 micro-ops are dispatched per cycle.
let MicroOpBufferSize = 56; // Based on available renamed registers.
let LoadLatency = 2; // Optimistic load latency assuming bypass.
// This is overriden by OperandCycles if the
// Itineraries are queried instead.
let MispredictPenalty = 8; // Based on estimate of pipeline depth.
let Itineraries = CortexA9Itineraries;
// FIXME: Many vector operations were never given an itinerary. We
// haven't mapped these to the new model either.
let CompleteModel = 0;
}
//===----------------------------------------------------------------------===//
// Define each kind of processor resource and number available.
//
// The AGU unit has BufferSize=1 so that the latency between operations
// that use it are considered to stall other operations.
//
// The FP unit has BufferSize=0 so that it is a hard dispatch
// hazard. No instruction may be dispatched while the unit is reserved.
let SchedModel = CortexA9Model in {
def A9UnitALU : ProcResource<2>;
def A9UnitMul : ProcResource<1> { let Super = A9UnitALU; }
def A9UnitAGU : ProcResource<1> { let BufferSize = 1; }
def A9UnitLS : ProcResource<1>;
def A9UnitFP : ProcResource<1> { let BufferSize = 0; }
def A9UnitB : ProcResource<1>;
//===----------------------------------------------------------------------===//
// Define scheduler read/write types with their resources and latency on A9.
// Consume an issue slot, but no processor resources. This is useful when all
// other writes associated with the operand have NumMicroOps = 0.
def A9WriteIssue : SchedWriteRes<[]> { let Latency = 0; }
// Write an integer register.
def A9WriteI : SchedWriteRes<[A9UnitALU]>;
// Write an integer shifted-by register
def A9WriteIsr : SchedWriteRes<[A9UnitALU]> { let Latency = 2; }
// Basic ALU.
def A9WriteALU : SchedWriteRes<[A9UnitALU]>;
// ALU with operand shifted by immediate.
def : WriteRes<WriteALUsi, [A9UnitALU]> { let Latency = 2; }
// ALU with operand shifted by register.
def A9WriteALUsr : SchedWriteRes<[A9UnitALU]> { let Latency = 3; }
// Multiplication
def A9WriteM : SchedWriteRes<[A9UnitMul, A9UnitMul]> { let Latency = 4; }
def A9WriteMHi : SchedWriteRes<[A9UnitMul]> { let Latency = 5;
let NumMicroOps = 0; }
def A9WriteM16 : SchedWriteRes<[A9UnitMul]> { let Latency = 3; }
def A9WriteM16Hi : SchedWriteRes<[A9UnitMul]> { let Latency = 4;
let NumMicroOps = 0; }
// Floating-point
// Only one FP or AGU instruction may issue per cycle. We model this
// by having FP instructions consume the AGU resource.
def A9WriteF : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 4; }
def A9WriteFMov : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 1; }
def A9WriteFMulS : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 5; }
def A9WriteFMulD : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 6; }
def A9WriteFMAS : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 8; }
def A9WriteFMAD : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 9; }
def A9WriteFDivS : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 15; }
def A9WriteFDivD : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 25; }
def A9WriteFSqrtS : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 17; }
def A9WriteFSqrtD : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 32; }
// NEON has an odd mix of latencies. Simply name the write types by latency.
def A9WriteV1 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 1; }
def A9WriteV2 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 2; }
def A9WriteV3 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 3; }
def A9WriteV4 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 4; }
def A9WriteV5 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 5; }
def A9WriteV6 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 6; }
def A9WriteV7 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 7; }
def A9WriteV9 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 9; }
def A9WriteV10 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> { let Latency = 10; }
// Reserve A9UnitFP for 2 consecutive cycles.
def A9Write2V4 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> {
let Latency = 4;
let ResourceCycles = [2];
}
def A9Write2V7 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> {
let Latency = 7;
let ResourceCycles = [2];
}
def A9Write2V9 : SchedWriteRes<[A9UnitFP, A9UnitAGU]> {
let Latency = 9;
let ResourceCycles = [2];
}
// Branches don't have a def operand but still consume resources.
def A9WriteB : SchedWriteRes<[A9UnitB]>;
// Address generation.
def A9WriteAdr : SchedWriteRes<[A9UnitAGU]> { let NumMicroOps = 0; }
// Load Integer.
def A9WriteL : SchedWriteRes<[A9UnitLS]> { let Latency = 3; }
// Load the upper 32-bits using the same micro-op.
def A9WriteLHi : SchedWriteRes<[]> { let Latency = 3;
let NumMicroOps = 0; }
// Offset shifted by register.
def A9WriteLsi : SchedWriteRes<[A9UnitLS]> { let Latency = 4; }
// Load (and zero extend) a byte.
def A9WriteLb : SchedWriteRes<[A9UnitLS]> { let Latency = 4; }
def A9WriteLbsi : SchedWriteRes<[A9UnitLS]> { let Latency = 5; }
// Load or Store Float, aligned.
def A9WriteLSfp : SchedWriteRes<[A9UnitLS, A9UnitFP]> { let Latency = 1; }
// Store Integer.
def A9WriteS : SchedWriteRes<[A9UnitLS]>;
//===----------------------------------------------------------------------===//
// Define resources dynamically for load multiple variants.
// Define helpers for extra latency without consuming resources.
def A9WriteCycle1 : SchedWriteRes<[]> { let Latency = 1; let NumMicroOps = 0; }
foreach NumCycles = 2-8 in {
def A9WriteCycle#NumCycles : WriteSequence<[A9WriteCycle1], NumCycles>;
} // foreach NumCycles
// Define address generation sequences and predicates for 8 flavors of LDMs.
foreach NumAddr = 1-8 in {
// Define A9WriteAdr1-8 as a sequence of A9WriteAdr with additive
// latency for instructions that generate multiple loads or stores.
def A9WriteAdr#NumAddr : WriteSequence<[A9WriteAdr], NumAddr>;
// Define a predicate to select the LDM based on number of memory addresses.
def A9LMAdr#NumAddr#Pred :
SchedPredicate<"(TII->getNumLDMAddresses(MI)+1)/2 == "#NumAddr>;
} // foreach NumAddr
// Fall-back for unknown LDMs.
def A9LMUnknownPred : SchedPredicate<"TII->getNumLDMAddresses(MI) == 0">;
// LDM/VLDM/VLDn address generation latency & resources.
// Dynamically select the A9WriteAdrN sequence using a predicate.
def A9WriteLMAdr : SchedWriteVariant<[
SchedVar<A9LMAdr1Pred, [A9WriteAdr1]>,
SchedVar<A9LMAdr2Pred, [A9WriteAdr2]>,
SchedVar<A9LMAdr3Pred, [A9WriteAdr3]>,
SchedVar<A9LMAdr4Pred, [A9WriteAdr4]>,
SchedVar<A9LMAdr5Pred, [A9WriteAdr5]>,
SchedVar<A9LMAdr6Pred, [A9WriteAdr6]>,
SchedVar<A9LMAdr7Pred, [A9WriteAdr7]>,
SchedVar<A9LMAdr8Pred, [A9WriteAdr8]>,
// For unknown LDM/VLDM/VSTM, assume 2 32-bit registers.
SchedVar<A9LMUnknownPred, [A9WriteAdr2]>]>;
// Define LDM Resources.
// These take no issue resource, so they can be combined with other
// writes like WriteB.
// A9WriteLMLo takes a single LS resource and 2 cycles.
def A9WriteLMLo : SchedWriteRes<[A9UnitLS]> { let Latency = 2;
let NumMicroOps = 0; }
// Assuming aligned access, the upper half of each pair is free with
// the same latency.
def A9WriteLMHi : SchedWriteRes<[]> { let Latency = 2;
let NumMicroOps = 0; }
// Each A9WriteL#N variant adds N cycles of latency without consuming
// additional resources.
foreach NumAddr = 1-8 in {
def A9WriteL#NumAddr : WriteSequence<
[A9WriteLMLo, !cast<SchedWrite>("A9WriteCycle"#NumAddr)]>;
def A9WriteL#NumAddr#Hi : WriteSequence<
[A9WriteLMHi, !cast<SchedWrite>("A9WriteCycle"#NumAddr)]>;
}
//===----------------------------------------------------------------------===//
// LDM: Load multiple into 32-bit integer registers.
def A9WriteLMOpsList : A9WriteLMOpsListType<
[A9WriteL1, A9WriteL1Hi,
A9WriteL2, A9WriteL2Hi,
A9WriteL3, A9WriteL3Hi,
A9WriteL4, A9WriteL4Hi,
A9WriteL5, A9WriteL5Hi,
A9WriteL6, A9WriteL6Hi,
A9WriteL7, A9WriteL7Hi,
A9WriteL8, A9WriteL8Hi]>;
// A9WriteLM variants expand into a pair of writes for each 64-bit
// value loaded. When the number of registers is odd, the last
// A9WriteLnHi is naturally ignored because the instruction has no
// following def operands. These variants take no issue resource, so
// they may need to be part of a WriteSequence that includes A9WriteIssue.
def A9WriteLM : SchedWriteVariant<[
SchedVar<A9LMAdr1Pred, A9WriteLMOpsList.Writes[0-1]>,
SchedVar<A9LMAdr2Pred, A9WriteLMOpsList.Writes[0-3]>,
SchedVar<A9LMAdr3Pred, A9WriteLMOpsList.Writes[0-5]>,
SchedVar<A9LMAdr4Pred, A9WriteLMOpsList.Writes[0-7]>,
SchedVar<A9LMAdr5Pred, A9WriteLMOpsList.Writes[0-9]>,
SchedVar<A9LMAdr6Pred, A9WriteLMOpsList.Writes[0-11]>,
SchedVar<A9LMAdr7Pred, A9WriteLMOpsList.Writes[0-13]>,
SchedVar<A9LMAdr8Pred, A9WriteLMOpsList.Writes[0-15]>,
// For unknown LDMs, define the maximum number of writes, but only
// make the first two consume resources.
SchedVar<A9LMUnknownPred, [A9WriteL1, A9WriteL1Hi,
A9WriteL2, A9WriteL2Hi,
A9WriteL3Hi, A9WriteL3Hi,
A9WriteL4Hi, A9WriteL4Hi,
A9WriteL5Hi, A9WriteL5Hi,
A9WriteL6Hi, A9WriteL6Hi,
A9WriteL7Hi, A9WriteL7Hi,
A9WriteL8Hi, A9WriteL8Hi]>]> {
let Variadic = 1;
}
//===----------------------------------------------------------------------===//
// VFP Load/Store Multiple Variants, and NEON VLDn/VSTn support.
// A9WriteLfpOp is the same as A9WriteLSfp but takes no issue resources
// so can be used in WriteSequences for in single-issue instructions that
// encapsulate multiple loads.
def A9WriteLfpOp : SchedWriteRes<[A9UnitLS, A9UnitFP]> {
let Latency = 1;
let NumMicroOps = 0;
}
foreach NumAddr = 1-8 in {
// Helper for A9WriteLfp1-8: A sequence of fp loads with no micro-ops.
def A9WriteLfp#NumAddr#Seq : WriteSequence<[A9WriteLfpOp], NumAddr>;
// A9WriteLfp1-8 definitions are statically expanded into a sequence of
// A9WriteLfpOps with additive latency that takes a single issue slot.
// Used directly to describe NEON VLDn.
def A9WriteLfp#NumAddr : WriteSequence<
[A9WriteIssue, !cast<SchedWrite>("A9WriteLfp"#NumAddr#Seq)]>;
// A9WriteLfp1-8Mov adds a cycle of latency and FP resource for
// permuting loaded values.
def A9WriteLfp#NumAddr#Mov : WriteSequence<
[A9WriteF, !cast<SchedWrite>("A9WriteLfp"#NumAddr#Seq)]>;
} // foreach NumAddr
// Define VLDM/VSTM PreRA resources.
// A9WriteLMfpPreRA are dynamically expanded into the correct
// A9WriteLfp1-8 sequence based on a predicate. This supports the
// preRA VLDM variants in which all 64-bit loads are written to the
// same tuple of either single or double precision registers.
def A9WriteLMfpPreRA : SchedWriteVariant<[
SchedVar<A9LMAdr1Pred, [A9WriteLfp1]>,
SchedVar<A9LMAdr2Pred, [A9WriteLfp2]>,
SchedVar<A9LMAdr3Pred, [A9WriteLfp3]>,
SchedVar<A9LMAdr4Pred, [A9WriteLfp4]>,
SchedVar<A9LMAdr5Pred, [A9WriteLfp5]>,
SchedVar<A9LMAdr6Pred, [A9WriteLfp6]>,
SchedVar<A9LMAdr7Pred, [A9WriteLfp7]>,
SchedVar<A9LMAdr8Pred, [A9WriteLfp8]>,
// For unknown VLDM/VSTM PreRA, assume 2xS registers.
SchedVar<A9LMUnknownPred, [A9WriteLfp2]>]>;
// Define VLDM/VSTM PostRA Resources.
// A9WriteLMfpLo takes a LS and FP resource and one issue slot but no latency.
def A9WriteLMfpLo : SchedWriteRes<[A9UnitLS, A9UnitFP]> { let Latency = 0; }
foreach NumAddr = 1-8 in {
// Each A9WriteL#N variant adds N cycles of latency without consuming
// additional resources.
def A9WriteLMfp#NumAddr : WriteSequence<
[A9WriteLMfpLo, !cast<SchedWrite>("A9WriteCycle"#NumAddr)]>;
// Assuming aligned access, the upper half of each pair is free with
// the same latency.
def A9WriteLMfp#NumAddr#Hi : WriteSequence<
[A9WriteLMHi, !cast<SchedWrite>("A9WriteCycle"#NumAddr)]>;
} // foreach NumAddr
// VLDM PostRA Variants. These variants expand A9WriteLMfpPostRA into a
// pair of writes for each 64-bit data loaded. When the number of
// registers is odd, the last WriteLMfpnHi is naturally ignored because
// the instruction has no following def operands.
def A9WriteLMfpPostRAOpsList : A9WriteLMOpsListType<
[A9WriteLMfp1, A9WriteLMfp2, // 0-1
A9WriteLMfp3, A9WriteLMfp4, // 2-3
A9WriteLMfp5, A9WriteLMfp6, // 4-5
A9WriteLMfp7, A9WriteLMfp8, // 6-7
A9WriteLMfp1Hi, // 8-8
A9WriteLMfp2Hi, A9WriteLMfp2Hi, // 9-10
A9WriteLMfp3Hi, A9WriteLMfp3Hi, // 11-12
A9WriteLMfp4Hi, A9WriteLMfp4Hi, // 13-14
A9WriteLMfp5Hi, A9WriteLMfp5Hi, // 15-16
A9WriteLMfp6Hi, A9WriteLMfp6Hi, // 17-18
A9WriteLMfp7Hi, A9WriteLMfp7Hi, // 19-20
A9WriteLMfp8Hi, A9WriteLMfp8Hi]>; // 21-22
def A9WriteLMfpPostRA : SchedWriteVariant<[
SchedVar<A9LMAdr1Pred, A9WriteLMfpPostRAOpsList.Writes[0-0, 8-8]>,
SchedVar<A9LMAdr2Pred, A9WriteLMfpPostRAOpsList.Writes[0-1, 9-10]>,
SchedVar<A9LMAdr3Pred, A9WriteLMfpPostRAOpsList.Writes[0-2, 10-12]>,
SchedVar<A9LMAdr4Pred, A9WriteLMfpPostRAOpsList.Writes[0-3, 11-14]>,
SchedVar<A9LMAdr5Pred, A9WriteLMfpPostRAOpsList.Writes[0-4, 12-16]>,
SchedVar<A9LMAdr6Pred, A9WriteLMfpPostRAOpsList.Writes[0-5, 13-18]>,
SchedVar<A9LMAdr7Pred, A9WriteLMfpPostRAOpsList.Writes[0-6, 14-20]>,
SchedVar<A9LMAdr8Pred, A9WriteLMfpPostRAOpsList.Writes[0-7, 15-22]>,
// For unknown LDMs, define the maximum number of writes, but only
// make the first two consume resources. We are optimizing for the case
// where the operands are DPRs, and this determines the first eight
// types. The remaining eight types are filled to cover the case
// where the operands are SPRs.
SchedVar<A9LMUnknownPred, [A9WriteLMfp1, A9WriteLMfp2,
A9WriteLMfp3Hi, A9WriteLMfp4Hi,
A9WriteLMfp5Hi, A9WriteLMfp6Hi,
A9WriteLMfp7Hi, A9WriteLMfp8Hi,
A9WriteLMfp5Hi, A9WriteLMfp5Hi,
A9WriteLMfp6Hi, A9WriteLMfp6Hi,
A9WriteLMfp7Hi, A9WriteLMfp7Hi,
A9WriteLMfp8Hi, A9WriteLMfp8Hi]>]> {
let Variadic = 1;
}
// Distinguish between our multiple MI-level forms of the same
// VLDM/VSTM instructions.
def A9PreRA : SchedPredicate<
"TargetRegisterInfo::isVirtualRegister(MI->getOperand(0).getReg())">;
def A9PostRA : SchedPredicate<
"TargetRegisterInfo::isPhysicalRegister(MI->getOperand(0).getReg())">;
// VLDM represents all destination registers as a single register
// tuple, unlike LDM. So the number of write operands is not variadic.
def A9WriteLMfp : SchedWriteVariant<[
SchedVar<A9PreRA, [A9WriteLMfpPreRA]>,
SchedVar<A9PostRA, [A9WriteLMfpPostRA]>]>;
//===----------------------------------------------------------------------===//
// Resources for other (non-LDM/VLDM) Variants.
// These mov immediate writers are unconditionally expanded with
// additive latency.
def A9WriteI2 : WriteSequence<[A9WriteI, A9WriteI]>;
def A9WriteI2pc : WriteSequence<[A9WriteI, A9WriteI, WriteALU]>;
def A9WriteI2ld : WriteSequence<[A9WriteI, A9WriteI, A9WriteL]>;
// Some ALU operations can read loaded integer values one cycle early.
def A9ReadALU : SchedReadAdvance<1,
[A9WriteL, A9WriteLHi, A9WriteLsi, A9WriteLb, A9WriteLbsi,
A9WriteL1, A9WriteL2, A9WriteL3, A9WriteL4,
A9WriteL5, A9WriteL6, A9WriteL7, A9WriteL8,
A9WriteL1Hi, A9WriteL2Hi, A9WriteL3Hi, A9WriteL4Hi,
A9WriteL5Hi, A9WriteL6Hi, A9WriteL7Hi, A9WriteL8Hi]>;
// Read types for operands that are unconditionally read in cycle N
// after the instruction issues, decreases producer latency by N-1.
def A9Read2 : SchedReadAdvance<1>;
def A9Read3 : SchedReadAdvance<2>;
def A9Read4 : SchedReadAdvance<3>;
//===----------------------------------------------------------------------===//
// Map itinerary classes to scheduler read/write resources per operand.
//
// For ARM, we piggyback scheduler resources on the Itinerary classes
// to avoid perturbing the existing instruction definitions.
// This table follows the ARM Cortex-A9 Technical Reference Manuals,
// mostly in order.
def :ItinRW<[WriteALU], [IIC_iMOVi,IIC_iMOVr,IIC_iMOVsi,
IIC_iMVNi,IIC_iMVNsi,
IIC_iCMOVi,IIC_iCMOVr,IIC_iCMOVsi]>;
def :ItinRW<[WriteALU, A9ReadALU],[IIC_iMVNr]>;
def :ItinRW<[A9WriteIsr], [IIC_iMOVsr,IIC_iMVNsr,IIC_iCMOVsr]>;
def :ItinRW<[A9WriteI2], [IIC_iMOVix2,IIC_iCMOVix2]>;
def :ItinRW<[A9WriteI2pc], [IIC_iMOVix2addpc]>;
def :ItinRW<[A9WriteI2ld], [IIC_iMOVix2ld]>;
def :ItinRW<[WriteALU], [IIC_iBITi,IIC_iBITr,IIC_iUNAr,IIC_iTSTi,IIC_iTSTr]>;
def :ItinRW<[WriteALU, A9ReadALU], [IIC_iALUi, IIC_iCMPi, IIC_iCMPsi]>;
def :ItinRW<[WriteALU, A9ReadALU, A9ReadALU],[IIC_iALUr,IIC_iCMPr]>;
def :ItinRW<[WriteALUsi], [IIC_iBITsi,IIC_iUNAsi,IIC_iEXTr,IIC_iTSTsi]>;
def :ItinRW<[WriteALUsi, A9ReadALU], [IIC_iALUsi]>;
def :ItinRW<[WriteALUsi, ReadDefault, A9ReadALU], [IIC_iALUsir]>; // RSB
def :ItinRW<[A9WriteALUsr], [IIC_iBITsr,IIC_iTSTsr,IIC_iEXTAr,IIC_iEXTAsr]>;
def :ItinRW<[A9WriteALUsr, A9ReadALU], [IIC_iALUsr,IIC_iCMPsr]>;
// A9WriteHi ignored for MUL32.
def :ItinRW<[A9WriteM, A9WriteMHi], [IIC_iMUL32,IIC_iMAC32,
IIC_iMUL64,IIC_iMAC64]>;
// FIXME: SMLALxx needs itin classes
def :ItinRW<[A9WriteM16, A9WriteM16Hi], [IIC_iMUL16,IIC_iMAC16]>;
// TODO: For floating-point ops, we model the pipeline forwarding
// latencies here. WAW latencies are sometimes longer.
def :ItinRW<[A9WriteFMov], [IIC_fpSTAT, IIC_fpMOVIS, IIC_fpMOVID, IIC_fpMOVSI,
IIC_fpUNA32, IIC_fpUNA64,
IIC_fpCMP32, IIC_fpCMP64]>;
def :ItinRW<[A9WriteFMov, A9WriteFMov], [IIC_fpMOVDI]>;
def :ItinRW<[A9WriteF], [IIC_fpCVTSD, IIC_fpCVTDS, IIC_fpCVTSH, IIC_fpCVTHS,
IIC_fpCVTIS, IIC_fpCVTID, IIC_fpCVTSI, IIC_fpCVTDI,
IIC_fpALU32, IIC_fpALU64]>;
def :ItinRW<[A9WriteFMulS], [IIC_fpMUL32]>;
def :ItinRW<[A9WriteFMulD], [IIC_fpMUL64]>;
def :ItinRW<[A9WriteFMAS], [IIC_fpMAC32]>;
def :ItinRW<[A9WriteFMAD], [IIC_fpMAC64]>;
def :ItinRW<[A9WriteFDivS], [IIC_fpDIV32]>;
def :ItinRW<[A9WriteFDivD], [IIC_fpDIV64]>;
def :ItinRW<[A9WriteFSqrtS], [IIC_fpSQRT32]>;
def :ItinRW<[A9WriteFSqrtD], [IIC_fpSQRT64]>;
def :ItinRW<[A9WriteB], [IIC_Br]>;
// A9 PLD is processed in a dedicated unit.
def :ItinRW<[], [IIC_Preload]>;
// Note: We must assume that loads are aligned, since the machine
// model cannot know this statically and A9 ignores alignment hints.
// A9WriteAdr consumes AGU regardless address writeback. But it's
// latency is only relevant for users of an updated address.
def :ItinRW<[A9WriteL, A9WriteAdr], [IIC_iLoad_i,IIC_iLoad_r,
IIC_iLoad_iu,IIC_iLoad_ru]>;
def :ItinRW<[A9WriteLsi, A9WriteAdr], [IIC_iLoad_si,IIC_iLoad_siu]>;
def :ItinRW<[A9WriteLb, A9WriteAdr2], [IIC_iLoad_bh_i,IIC_iLoad_bh_r,
IIC_iLoad_bh_iu,IIC_iLoad_bh_ru]>;
def :ItinRW<[A9WriteLbsi, A9WriteAdr2], [IIC_iLoad_bh_si,IIC_iLoad_bh_siu]>;
def :ItinRW<[A9WriteL, A9WriteLHi, A9WriteAdr], [IIC_iLoad_d_i,IIC_iLoad_d_r,
IIC_iLoad_d_ru]>;
// Store either has no def operands, or the one def for address writeback.
def :ItinRW<[A9WriteAdr, A9WriteS], [IIC_iStore_i, IIC_iStore_r,
IIC_iStore_iu, IIC_iStore_ru,
IIC_iStore_d_i, IIC_iStore_d_r,
IIC_iStore_d_ru]>;
def :ItinRW<[A9WriteAdr2, A9WriteS], [IIC_iStore_si, IIC_iStore_siu,
IIC_iStore_bh_i, IIC_iStore_bh_r,
IIC_iStore_bh_iu, IIC_iStore_bh_ru]>;
def :ItinRW<[A9WriteAdr3, A9WriteS], [IIC_iStore_bh_si, IIC_iStore_bh_siu]>;
// A9WriteML will be expanded into a separate write for each def
// operand. Address generation consumes resources, but A9WriteLMAdr
// is listed after all def operands, so has no effective latency.
//
// Note: A9WriteLM expands into an even number of def operands. The
// actual number of def operands may be less by one.
def :ItinRW<[A9WriteLM, A9WriteLMAdr, A9WriteIssue], [IIC_iLoad_m, IIC_iPop]>;
// Load multiple with address writeback has an extra def operand in
// front of the loaded registers.
//
// Reuse the load-multiple variants for store-multiple because the
// resources are identical, For stores only the address writeback
// has a def operand so the WriteL latencies are unused.
def :ItinRW<[A9WriteLMAdr, A9WriteLM, A9WriteIssue], [IIC_iLoad_mu,
IIC_iStore_m,
IIC_iStore_mu]>;
def :ItinRW<[A9WriteLM, A9WriteLMAdr, A9WriteB], [IIC_iLoad_mBr, IIC_iPop_Br]>;
def :ItinRW<[A9WriteL, A9WriteAdr, WriteALU], [IIC_iLoadiALU]>;
def :ItinRW<[A9WriteLSfp, A9WriteAdr], [IIC_fpLoad32, IIC_fpLoad64]>;
def :ItinRW<[A9WriteLMfp, A9WriteLMAdr], [IIC_fpLoad_m]>;
def :ItinRW<[A9WriteLMAdr, A9WriteLMfp], [IIC_fpLoad_mu]>;
def :ItinRW<[A9WriteAdr, A9WriteLSfp], [IIC_fpStore32, IIC_fpStore64,
IIC_fpStore_m, IIC_fpStore_mu]>;
// Note: Unlike VLDM, VLD1 expects the writeback operand after the
// normal writes.
def :ItinRW<[A9WriteLfp1, A9WriteAdr1], [IIC_VLD1, IIC_VLD1u,
IIC_VLD1x2, IIC_VLD1x2u]>;
def :ItinRW<[A9WriteLfp2, A9WriteAdr2], [IIC_VLD1x3, IIC_VLD1x3u,
IIC_VLD1x4, IIC_VLD1x4u,
IIC_VLD4dup, IIC_VLD4dupu]>;
def :ItinRW<[A9WriteLfp1Mov, A9WriteAdr1], [IIC_VLD1dup, IIC_VLD1dupu,
IIC_VLD2, IIC_VLD2u,
IIC_VLD2dup, IIC_VLD2dupu]>;
def :ItinRW<[A9WriteLfp2Mov, A9WriteAdr1], [IIC_VLD1ln, IIC_VLD1lnu,
IIC_VLD2x2, IIC_VLD2x2u,
IIC_VLD2ln, IIC_VLD2lnu]>;
def :ItinRW<[A9WriteLfp3Mov, A9WriteAdr3], [IIC_VLD3, IIC_VLD3u,
IIC_VLD3dup, IIC_VLD3dupu]>;
def :ItinRW<[A9WriteLfp4Mov, A9WriteAdr4], [IIC_VLD4, IIC_VLD4u,
IIC_VLD4ln, IIC_VLD4lnu]>;
def :ItinRW<[A9WriteLfp5Mov, A9WriteAdr5], [IIC_VLD3ln, IIC_VLD3lnu]>;
// Vector stores use similar resources to vector loads, so use the
// same write types. The address write must be first for stores with
// address writeback.
def :ItinRW<[A9WriteAdr1, A9WriteLfp1], [IIC_VST1, IIC_VST1u,
IIC_VST1x2, IIC_VST1x2u,
IIC_VST1ln, IIC_VST1lnu,
IIC_VST2, IIC_VST2u,
IIC_VST2x2, IIC_VST2x2u,
IIC_VST2ln, IIC_VST2lnu]>;
def :ItinRW<[A9WriteAdr2, A9WriteLfp2], [IIC_VST1x3, IIC_VST1x3u,
IIC_VST1x4, IIC_VST1x4u,
IIC_VST3, IIC_VST3u,
IIC_VST3ln, IIC_VST3lnu,
IIC_VST4, IIC_VST4u,
IIC_VST4ln, IIC_VST4lnu]>;
// NEON moves.
def :ItinRW<[A9WriteV2], [IIC_VMOVSI, IIC_VMOVDI, IIC_VMOVD, IIC_VMOVQ]>;
def :ItinRW<[A9WriteV1], [IIC_VMOV, IIC_VMOVIS, IIC_VMOVID]>;
def :ItinRW<[A9WriteV3], [IIC_VMOVISL, IIC_VMOVN]>;
// NEON integer arithmetic
//
// VADD/VAND/VORR/VEOR/VBIC/VORN/VBIT/VBIF/VBSL
def :ItinRW<[A9WriteV3, A9Read2, A9Read2], [IIC_VBINiD, IIC_VBINiQ]>;
// VSUB/VMVN/VCLSD/VCLZD/VCNTD
def :ItinRW<[A9WriteV3, A9Read2], [IIC_VSUBiD, IIC_VSUBiQ, IIC_VCNTiD]>;
// VADDL/VSUBL/VNEG are mapped later under IIC_SHLi.
// ...
// VHADD/VRHADD/VQADD/VTST/VADH/VRADH
def :ItinRW<[A9WriteV4, A9Read2, A9Read2], [IIC_VBINi4D, IIC_VBINi4Q]>;
// VSBH/VRSBH/VHSUB/VQSUB/VABD/VCEQ/VCGE/VCGT/VMAX/VMIN/VPMAX/VPMIN/VABDL
def :ItinRW<[A9WriteV4, A9Read2], [IIC_VSUBi4D, IIC_VSUBi4Q]>;
// VQNEG/VQABS
def :ItinRW<[A9WriteV4], [IIC_VQUNAiD, IIC_VQUNAiQ]>;
// VABS
def :ItinRW<[A9WriteV4, A9Read2], [IIC_VUNAiD, IIC_VUNAiQ]>;
// VPADD/VPADDL are mapped later under IIC_SHLi.
// ...
// VCLSQ/VCLZQ/VCNTQ, takes two cycles.
def :ItinRW<[A9Write2V4, A9Read3], [IIC_VCNTiQ]>;
// VMOVimm/VMVNimm/VORRimm/VBICimm
def :ItinRW<[A9WriteV3], [IIC_VMOVImm]>;
def :ItinRW<[A9WriteV6, A9Read3, A9Read2], [IIC_VABAD, IIC_VABAQ]>;
def :ItinRW<[A9WriteV6, A9Read3], [IIC_VPALiD, IIC_VPALiQ]>;
// NEON integer multiply
//
// Note: these don't quite match the timing docs, but they do match
// the original A9 itinerary.
def :ItinRW<[A9WriteV6, A9Read2, A9Read2], [IIC_VMULi16D]>;
def :ItinRW<[A9WriteV7, A9Read2, A9Read2], [IIC_VMULi16Q]>;
def :ItinRW<[A9Write2V7, A9Read2], [IIC_VMULi32D]>;
def :ItinRW<[A9Write2V9, A9Read2], [IIC_VMULi32Q]>;
def :ItinRW<[A9WriteV6, A9Read3, A9Read2, A9Read2], [IIC_VMACi16D]>;
def :ItinRW<[A9WriteV7, A9Read3, A9Read2, A9Read2], [IIC_VMACi16Q]>;
def :ItinRW<[A9Write2V7, A9Read3, A9Read2], [IIC_VMACi32D]>;
def :ItinRW<[A9Write2V9, A9Read3, A9Read2], [IIC_VMACi32Q]>;
// NEON integer shift
// TODO: Q,Q,Q shifts should actually reserve FP for 2 cycles.
def :ItinRW<[A9WriteV3], [IIC_VSHLiD, IIC_VSHLiQ]>;
def :ItinRW<[A9WriteV4], [IIC_VSHLi4D, IIC_VSHLi4Q]>;
// NEON permute
def :ItinRW<[A9WriteV2, A9WriteV2], [IIC_VPERMD, IIC_VPERMQ, IIC_VEXTD]>;
def :ItinRW<[A9WriteV3, A9WriteV4, ReadDefault, A9Read2],
[IIC_VPERMQ3, IIC_VEXTQ]>;
def :ItinRW<[A9WriteV3, A9Read2], [IIC_VTB1]>;
def :ItinRW<[A9WriteV3, A9Read2, A9Read2], [IIC_VTB2]>;
def :ItinRW<[A9WriteV4, A9Read2, A9Read2, A9Read3], [IIC_VTB3]>;
def :ItinRW<[A9WriteV4, A9Read2, A9Read2, A9Read3, A9Read3], [IIC_VTB4]>;
def :ItinRW<[A9WriteV3, ReadDefault, A9Read2], [IIC_VTBX1]>;
def :ItinRW<[A9WriteV3, ReadDefault, A9Read2, A9Read2], [IIC_VTBX2]>;
def :ItinRW<[A9WriteV4, ReadDefault, A9Read2, A9Read2, A9Read3], [IIC_VTBX3]>;
def :ItinRW<[A9WriteV4, ReadDefault, A9Read2, A9Read2, A9Read3, A9Read3],
[IIC_VTBX4]>;
// NEON floating-point
def :ItinRW<[A9WriteV5, A9Read2, A9Read2], [IIC_VBIND]>;
def :ItinRW<[A9WriteV6, A9Read2, A9Read2], [IIC_VBINQ]>;
def :ItinRW<[A9WriteV5, A9Read2], [IIC_VUNAD, IIC_VFMULD]>;
def :ItinRW<[A9WriteV6, A9Read2], [IIC_VUNAQ, IIC_VFMULQ]>;
def :ItinRW<[A9WriteV9, A9Read3, A9Read2], [IIC_VMACD, IIC_VFMACD]>;
def :ItinRW<[A9WriteV10, A9Read3, A9Read2], [IIC_VMACQ, IIC_VFMACQ]>;
def :ItinRW<[A9WriteV9, A9Read2, A9Read2], [IIC_VRECSD]>;
def :ItinRW<[A9WriteV10, A9Read2, A9Read2], [IIC_VRECSQ]>;
// Map SchedRWs that are identical for cortexa9 to existing resources.
def : SchedAlias<WriteALU, A9WriteALU>;
def : SchedAlias<WriteALUsr, A9WriteALUsr>;
def : SchedAlias<WriteALUSsr, A9WriteALUsr>;
def : SchedAlias<ReadALU, A9ReadALU>;
def : SchedAlias<ReadALUsr, A9ReadALU>;
def : InstRW< [WriteALU],
(instregex "ANDri", "ORRri", "EORri", "BICri", "ANDrr", "ORRrr", "EORrr",
"BICrr")>;
def : InstRW< [WriteALUsi], (instregex "ANDrsi", "ORRrsi", "EORrsi", "BICrsi")>;
def : InstRW< [WriteALUsr], (instregex "ANDrsr", "ORRrsr", "EORrsr", "BICrsr")>;
def : SchedAlias<WriteCMP, A9WriteALU>;
def : SchedAlias<WriteCMPsi, A9WriteALU>;
def : SchedAlias<WriteCMPsr, A9WriteALU>;
def : InstRW< [A9WriteIsr], (instregex "MOVsr", "MOVsi", "MVNsr", "MOVCCsi",
"MOVCCsr")>;
def : InstRW< [WriteALU, A9ReadALU], (instregex "MVNr")>;
def : InstRW< [A9WriteI2], (instregex "MOVCCi32imm", "MOVi32imm",
"MOV_ga_dyn")>;
def : InstRW< [A9WriteI2pc], (instregex "MOV_ga_pcrel")>;
def : InstRW< [A9WriteI2ld], (instregex "MOV_ga_pcrel_ldr")>;
def : InstRW< [WriteALU], (instregex "SEL")>;
def : InstRW< [WriteALUsi], (instregex "BFC", "BFI", "UBFX", "SBFX")>;
def : InstRW< [A9WriteM],
(instregex "MUL", "MULv5", "SMMUL", "SMMULR", "MLA", "MLAv5", "MLS",
"SMMLA", "SMMLAR", "SMMLS", "SMMLSR")>;
def : InstRW< [A9WriteM, A9WriteMHi],
(instregex "SMULL", "SMULLv5", "UMULL", "UMULLv5", "SMLAL$", "UMLAL",
"UMAAL", "SMLALv5", "UMLALv5", "UMAALv5", "SMLALBB", "SMLALBT", "SMLALTB",
"SMLALTT")>;
// FIXME: These instructions used to have NoItinerary. Just copied the one from above.
def : InstRW< [A9WriteM, A9WriteMHi],
(instregex "SMLAD", "SMLADX", "SMLALD", "SMLALDX", "SMLSD", "SMLSDX",
"SMLSLD", "SMLLDX", "SMUAD", "SMUADX", "SMUSD", "SMUSDX")>;
def : InstRW<[A9WriteM16, A9WriteM16Hi],
(instregex "SMULBB", "SMULBT", "SMULTB", "SMULTT", "SMULWB", "SMULWT")>;
def : InstRW<[A9WriteM16, A9WriteM16Hi],
(instregex "SMLABB", "SMLABT", "SMLATB", "SMLATT", "SMLAWB", "SMLAWT")>;
def : InstRW<[A9WriteL], (instregex "LDRi12", "PICLDR$")>;
def : InstRW<[A9WriteLsi], (instregex "LDRrs")>;
def : InstRW<[A9WriteLb],
(instregex "LDRBi12", "PICLDRH", "PICLDRB", "PICLDRSH", "PICLDRSB",
"LDRH", "LDRSH", "LDRSB")>;
def : InstRW<[A9WriteLbsi], (instregex "LDRrs")>;
def : WriteRes<WriteDiv, []> { let Latency = 0; }
def : WriteRes<WriteBr, [A9UnitB]>;
def : WriteRes<WriteBrL, [A9UnitB]>;
def : WriteRes<WriteBrTbl, [A9UnitB]>;
def : WriteRes<WritePreLd, []>;
def : SchedAlias<WriteCvtFP, A9WriteF>;
def : WriteRes<WriteNoop, []> { let Latency = 0; let NumMicroOps = 0; }
} // SchedModel = CortexA9Model
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