fdb6a5cfa3
This is a regression in functionality and performance, but a much better foundation for the future of the project (I think). It can run basic apps under an SSA interpreter but doesn't support some of the features required to do real 360 apps yet.
544 lines
14 KiB
C++
544 lines
14 KiB
C++
/*
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******************************************************************************
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* Xenia : Xbox 360 Emulator Research Project *
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******************************************************************************
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* Copyright 2013 Ben Vanik. All rights reserved. *
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* Released under the BSD license - see LICENSE in the root for more details. *
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******************************************************************************
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*/
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#include <alloy/frontend/ppc/ppc_emit-private.h>
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#include <alloy/frontend/ppc/ppc_context.h>
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#include <alloy/frontend/ppc/ppc_function_builder.h>
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using namespace alloy::frontend::ppc;
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using namespace alloy::hir;
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using namespace alloy::runtime;
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namespace alloy {
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namespace frontend {
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namespace ppc {
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// Good source of information:
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// http://mamedev.org/source/src/emu/cpu/powerpc/ppc_ops.c
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// The correctness of that code is not reflected here yet -_-
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// Enable rounding numbers to single precision as required.
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// This adds a bunch of work per operation and I'm not sure it's required.
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#define ROUND_TO_SINGLE
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// Floating-point arithmetic (A-8)
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XEEMITTER(faddx, 0xFC00002A, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA) + (frB)
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Value* v = f.Add(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRB));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(faddsx, 0xEC00002A, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA) + (frB)
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Value* v = f.Add(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRB));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fdivx, 0xFC000024, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- frA / frB
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Value* v = f.Div(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRB));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fdivsx, 0xEC000024, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- frA / frB
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Value* v = f.Div(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRB));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fmulx, 0xFC000032, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA) x (frC)
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Value* v = f.Mul(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRC));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fmulsx, 0xEC000032, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA) x (frC)
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Value* v = f.Mul(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRC));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fresx, 0xEC000030, A )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(frsqrtex, 0xFC000034, A )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(fsubx, 0xFC000028, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA) - (frB)
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Value* v = f.Sub(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRB));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fsubsx, 0xEC000028, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA) - (frB)
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Value* v = f.Sub(f.LoadFPR(i.A.FRA), f.LoadFPR(i.A.FRB));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fselx, 0xFC00002E, A )(PPCFunctionBuilder& f, InstrData& i) {
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// if (frA) >= 0.0
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// then frD <- (frC)
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// else frD <- (frB)
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Value* ge = f.CompareSGE(f.LoadFPR(i.A.FRA), f.LoadConstant(0.0));
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Value* v = f.Select(ge, f.LoadFPR(i.A.FRC), f.LoadFPR(i.A.FRB));
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f.StoreFPR(i.A.FRT, v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fsqrtx, 0xFC00002C, A )(PPCFunctionBuilder& f, InstrData& i) {
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// Double precision:
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// frD <- sqrt(frB)
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Value* v = f.Sqrt(f.LoadFPR(i.A.FRA));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fsqrtsx, 0xEC00002C, A )(PPCFunctionBuilder& f, InstrData& i) {
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// Single precision:
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// frD <- sqrt(frB)
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Value* v = f.Sqrt(f.LoadFPR(i.A.FRA));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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// Floating-point multiply-add (A-9)
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XEEMITTER(fmaddx, 0xFC00003A, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA x frC) + frB
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Value* v = f.MulAdd(
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f.LoadFPR(i.A.FRA),
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f.LoadFPR(i.A.FRC),
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f.LoadFPR(i.A.FRB));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fmaddsx, 0xEC00003A, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA x frC) + frB
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Value* v = f.MulAdd(
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f.LoadFPR(i.A.FRA),
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f.LoadFPR(i.A.FRC),
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f.LoadFPR(i.A.FRB));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fmsubx, 0xFC000038, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA x frC) - frB
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Value* v = f.MulSub(
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f.LoadFPR(i.A.FRA),
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f.LoadFPR(i.A.FRC),
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f.LoadFPR(i.A.FRB));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fmsubsx, 0xEC000038, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- (frA x frC) - frB
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Value* v = f.MulSub(
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f.LoadFPR(i.A.FRA),
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f.LoadFPR(i.A.FRC),
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f.LoadFPR(i.A.FRB));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fnmaddx, 0xFC00003E, A )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(fnmaddsx, 0xEC00003E, A )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(fnmsubx, 0xFC00003C, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- -([frA x frC] - frB)
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Value* v = f.Neg(f.MulSub(
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f.LoadFPR(i.A.FRA),
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f.LoadFPR(i.A.FRC),
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f.LoadFPR(i.A.FRB)));
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fnmsubsx, 0xEC00003C, A )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- -([frA x frC] - frB)
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Value* v = f.Neg(f.MulSub(
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f.LoadFPR(i.A.FRA),
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f.LoadFPR(i.A.FRC),
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f.LoadFPR(i.A.FRB)));
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v = f.Convert(f.Convert(v, FLOAT32_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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// Floating-point rounding and conversion (A-10)
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XEEMITTER(fcfidx, 0xFC00069C, X )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- signed_int64_to_double( frB )
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Value* v = f.Convert(
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f.Cast(f.LoadFPR(i.A.FRB), INT64_TYPE),
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FLOAT64_TYPE);
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f.StoreFPR(i.A.FRT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fctidx, 0xFC00065C, X )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- double_to_signed_int64( frB )
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// TODO(benvanik): pull from FPSCR[RN]
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RoundMode round_mode = ROUND_TO_ZERO;
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Value* v = f.Convert(f.LoadFPR(i.X.RB), INT64_TYPE, round_mode);
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v = f.Cast(v, FLOAT64_TYPE);
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f.StoreFPR(i.X.RT, v);
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// f.UpdateFPRF(v);
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if (i.X.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fctidzx, 0xFC00065E, X )(PPCFunctionBuilder& f, InstrData& i) {
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// TODO(benvanik): assuming round to zero is always set, is that ok?
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return InstrEmit_fctidx(f, i);
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}
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XEEMITTER(fctiwx, 0xFC00001C, X )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- double_to_signed_int32( frB )
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// TODO(benvanik): pull from FPSCR[RN]
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RoundMode round_mode = ROUND_TO_ZERO;
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Value* v = f.Convert(f.LoadFPR(i.X.RB), INT32_TYPE, round_mode);
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v = f.Cast(f.ZeroExtend(v, INT64_TYPE), FLOAT64_TYPE);
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f.StoreFPR(i.X.RT, v);
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// f.UpdateFPRF(v);
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if (i.A.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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XEEMITTER(fctiwzx, 0xFC00001E, X )(PPCFunctionBuilder& f, InstrData& i) {
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// TODO(benvanik): assuming round to zero is always set, is that ok?
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return InstrEmit_fctiwx(f, i);
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}
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XEEMITTER(frspx, 0xFC000018, X )(PPCFunctionBuilder& f, InstrData& i) {
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// frD <- Round_single(frB)
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// TODO(benvanik): pull from FPSCR[RN]
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RoundMode round_mode = ROUND_TO_ZERO;
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Value* v = f.Convert(f.LoadFPR(i.X.RB), FLOAT32_TYPE, round_mode);
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v = f.Convert(v, FLOAT64_TYPE);
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f.StoreFPR(i.X.RT, v);
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// f.UpdateFPRF(v);
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if (i.X.Rc) {
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//e.update_cr_with_cond(1, v);
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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return 0;
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}
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// Floating-point compare (A-11)
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int InstrEmit_fcmpx_(PPCFunctionBuilder& f, InstrData& i, bool ordered) {
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// if (FRA) is a NaN or (FRB) is a NaN then
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// c <- 0b0001
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// else if (FRA) < (FRB) then
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// c <- 0b1000
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// else if (FRA) > (FRB) then
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// c <- 0b0100
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// else {
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// c <- 0b0010
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// }
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// FPCC <- c
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// CR[4*BF:4*BF+3] <- c
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// if (FRA) is an SNaN or (FRB) is an SNaN then
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// VXSNAN <- 1
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// TODO(benvanik): update FPCC for mffsx/etc
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// TODO(benvanik): update VXSNAN
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const uint32_t crf = i.X.RT >> 2;
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// f.UpdateFPRF(v);
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f.UpdateCR(crf, f.LoadFPR(i.X.RA), f.LoadFPR(i.X.RB), true);
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return 0;
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}
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XEEMITTER(fcmpo, 0xFC000040, X )(PPCFunctionBuilder& f, InstrData& i) {
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return InstrEmit_fcmpx_(f, i, true);
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}
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XEEMITTER(fcmpu, 0xFC000000, X )(PPCFunctionBuilder& f, InstrData& i) {
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return InstrEmit_fcmpx_(f, i, false);
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}
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// Floating-point status and control register (A
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XEEMITTER(mcrfs, 0xFC000080, X )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(mffsx, 0xFC00048E, X )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(mtfsb0x, 0xFC00008C, X )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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}
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XEEMITTER(mtfsb1x, 0xFC00004C, X )(PPCFunctionBuilder& f, InstrData& i) {
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XEINSTRNOTIMPLEMENTED();
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return 1;
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|
}
|
|
|
|
XEEMITTER(mtfsfx, 0xFC00058E, XFL)(PPCFunctionBuilder& f, InstrData& i) {
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|
XEINSTRNOTIMPLEMENTED();
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|
return 1;
|
|
}
|
|
|
|
XEEMITTER(mtfsfix, 0xFC00010C, X )(PPCFunctionBuilder& f, InstrData& i) {
|
|
XEINSTRNOTIMPLEMENTED();
|
|
return 1;
|
|
}
|
|
|
|
|
|
// Floating-point move (A-21)
|
|
|
|
XEEMITTER(fabsx, 0xFC000210, X )(PPCFunctionBuilder& f, InstrData& i) {
|
|
// frD <- abs(frB)
|
|
Value* v = f.Abs(f.LoadFPR(i.X.RB));
|
|
f.StoreFPR(i.X.RT, v);
|
|
if (i.X.Rc) {
|
|
//e.update_cr_with_cond(1, v);
|
|
XEINSTRNOTIMPLEMENTED();
|
|
return 1;
|
|
}
|
|
return 0;
|
|
}
|
|
|
|
XEEMITTER(fmrx, 0xFC000090, X )(PPCFunctionBuilder& f, InstrData& i) {
|
|
// frD <- (frB)
|
|
Value* v = f.LoadFPR(i.X.RB);
|
|
f.StoreFPR(i.X.RT, v);
|
|
if (i.X.Rc) {
|
|
//e.update_cr_with_cond(1, v);
|
|
XEINSTRNOTIMPLEMENTED();
|
|
return 1;
|
|
}
|
|
return 0;
|
|
}
|
|
|
|
XEEMITTER(fnabsx, 0xFC000110, X )(PPCFunctionBuilder& f, InstrData& i) {
|
|
XEINSTRNOTIMPLEMENTED();
|
|
return 1;
|
|
}
|
|
|
|
XEEMITTER(fnegx, 0xFC000050, X )(PPCFunctionBuilder& f, InstrData& i) {
|
|
// frD <- ¬ frB[0] || frB[1-63]
|
|
Value* v = f.Neg(f.LoadFPR(i.X.RB));
|
|
f.StoreFPR(i.X.RT, v);
|
|
if (i.X.Rc) {
|
|
//e.update_cr_with_cond(1, v);
|
|
XEINSTRNOTIMPLEMENTED();
|
|
return 1;
|
|
}
|
|
return 0;
|
|
}
|
|
|
|
|
|
void RegisterEmitCategoryFPU() {
|
|
XEREGISTERINSTR(faddx, 0xFC00002A);
|
|
XEREGISTERINSTR(faddsx, 0xEC00002A);
|
|
XEREGISTERINSTR(fdivx, 0xFC000024);
|
|
XEREGISTERINSTR(fdivsx, 0xEC000024);
|
|
XEREGISTERINSTR(fmulx, 0xFC000032);
|
|
XEREGISTERINSTR(fmulsx, 0xEC000032);
|
|
XEREGISTERINSTR(fresx, 0xEC000030);
|
|
XEREGISTERINSTR(frsqrtex, 0xFC000034);
|
|
XEREGISTERINSTR(fsubx, 0xFC000028);
|
|
XEREGISTERINSTR(fsubsx, 0xEC000028);
|
|
XEREGISTERINSTR(fselx, 0xFC00002E);
|
|
XEREGISTERINSTR(fsqrtx, 0xFC00002C);
|
|
XEREGISTERINSTR(fsqrtsx, 0xEC00002C);
|
|
XEREGISTERINSTR(fmaddx, 0xFC00003A);
|
|
XEREGISTERINSTR(fmaddsx, 0xEC00003A);
|
|
XEREGISTERINSTR(fmsubx, 0xFC000038);
|
|
XEREGISTERINSTR(fmsubsx, 0xEC000038);
|
|
XEREGISTERINSTR(fnmaddx, 0xFC00003E);
|
|
XEREGISTERINSTR(fnmaddsx, 0xEC00003E);
|
|
XEREGISTERINSTR(fnmsubx, 0xFC00003C);
|
|
XEREGISTERINSTR(fnmsubsx, 0xEC00003C);
|
|
XEREGISTERINSTR(fcfidx, 0xFC00069C);
|
|
XEREGISTERINSTR(fctidx, 0xFC00065C);
|
|
XEREGISTERINSTR(fctidzx, 0xFC00065E);
|
|
XEREGISTERINSTR(fctiwx, 0xFC00001C);
|
|
XEREGISTERINSTR(fctiwzx, 0xFC00001E);
|
|
XEREGISTERINSTR(frspx, 0xFC000018);
|
|
XEREGISTERINSTR(fcmpo, 0xFC000040);
|
|
XEREGISTERINSTR(fcmpu, 0xFC000000);
|
|
XEREGISTERINSTR(mcrfs, 0xFC000080);
|
|
XEREGISTERINSTR(mffsx, 0xFC00048E);
|
|
XEREGISTERINSTR(mtfsb0x, 0xFC00008C);
|
|
XEREGISTERINSTR(mtfsb1x, 0xFC00004C);
|
|
XEREGISTERINSTR(mtfsfx, 0xFC00058E);
|
|
XEREGISTERINSTR(mtfsfix, 0xFC00010C);
|
|
XEREGISTERINSTR(fabsx, 0xFC000210);
|
|
XEREGISTERINSTR(fmrx, 0xFC000090);
|
|
XEREGISTERINSTR(fnabsx, 0xFC000110);
|
|
XEREGISTERINSTR(fnegx, 0xFC000050);
|
|
}
|
|
|
|
|
|
} // namespace ppc
|
|
} // namespace frontend
|
|
} // namespace alloy
|