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Merge branch 'main' of github.com:davidharrishmc/riscv-wally

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This commit is contained in:
Ross Thompson 2022-12-21 16:13:09 -06:00
commit de161c675c
18 changed files with 44 additions and 33 deletions
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2
fpga/constraints/debug2.xdc
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@ -316,7 +316,7 @@ connect_debug_port u_ila_0/probe60 [get_nets [list wallypipelinedsoc/core/hzu/IF
create_debug_port u_ila_0 probe create_debug_port u_ila_0 probe
set_property port_width 1 [get_debug_ports u_ila_0/probe61] set_property port_width 1 [get_debug_ports u_ila_0/probe61]
set_property PROBE_TYPE DATA_AND_TRIGGER [get_debug_ports u_ila_0/probe61] set_property PROBE_TYPE DATA_AND_TRIGGER [get_debug_ports u_ila_0/probe61]
connect_debug_port u_ila_0/probe61 [get_nets [list wallypipelinedsoc/core/hzu/FStallD ]] connect_debug_port u_ila_0/probe61 [get_nets [list wallypipelinedsoc/core/hzu/FPUStallD ]]
create_debug_port u_ila_0 probe create_debug_port u_ila_0 probe
set_property port_width 1 [get_debug_ports u_ila_0/probe62] set_property port_width 1 [get_debug_ports u_ila_0/probe62]

12
fpga/generator/Makefile
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@ -1,13 +1,13 @@
dst := IP dst := IP
# vcu118 # vcu118
#export XILINX_PART := xcvu9p-flga2104-2L-e export XILINX_PART := xcvu9p-flga2104-2L-e
#export XILINX_BOARD := xilinx.com:vcu118:part0:2.4 export XILINX_BOARD := xilinx.com:vcu118:part0:2.4
#export board := vcu118 export board := vcu118
# vcu108 # vcu108
export XILINX_PART := xcvu095-ffva2104-2-e #export XILINX_PART := xcvu095-ffva2104-2-e
export XILINX_BOARD := xilinx.com:vcu108:part0:1.2 #export XILINX_BOARD := xilinx.com:vcu108:part0:1.2
export board := vcu108 #export board := vcu108
all: FPGA all: FPGA

4
pipelined/src/fpu/fdivsqrt/fdivsqrtpostproc.sv
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@ -127,10 +127,10 @@ module fdivsqrtpostproc(
always_comb always_comb
if (RemOpM) begin if (RemOpM) begin
NormShiftM = (m + (`DIVBLEN)'(`DIVa)); NormShiftM = (m + (`DIVBLEN+1)'(`DIVa));
PreResultM = IntRemM; PreResultM = IntRemM;
end else begin end else begin
NormShiftM = ((`DIVBLEN)'(`DIVb) - (n << `LOGR)); NormShiftM = ((`DIVBLEN+1)'(`DIVb) - (n << `LOGR));
PreResultM = {3'b000, IntQuotM}; PreResultM = {3'b000, IntQuotM};
end end

7
pipelined/src/fpu/fma/fma.sv
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@ -37,9 +37,7 @@ module fma(
input logic XZero, YZero, ZZero, // is the input zero input logic XZero, YZero, ZZero, // is the input zero
input logic [2:0] OpCtrl, // 000 = fmadd (X*Y)+Z, 001 = fmsub (X*Y)-Z, 010 = fnmsub -(X*Y)+Z, 011 = fnmadd -(X*Y)-Z, 100 = fmul (X*Y) input logic [2:0] OpCtrl, // 000 = fmadd (X*Y)+Z, 001 = fmsub (X*Y)-Z, 010 = fnmsub -(X*Y)+Z, 011 = fnmadd -(X*Y)-Z, 100 = fmul (X*Y)
input logic [`FMTBITS-1:0] Fmt, // format of the result single double half or quad input logic [`FMTBITS-1:0] Fmt, // format of the result single double half or quad
output logic [`NE+1:0] Pe, // the product's exponent B(NE+2.0) format; adds 2 bits to allow for size of number and negative sign
output logic ZmSticky, // sticky bit that is calculated during alignment output logic ZmSticky, // sticky bit that is calculated during alignment
output logic KillProd, // set the product to zero before addition if the product is too small to matter
output logic [3*`NF+5:0] Sm, // the positive sum's significand output logic [3*`NF+5:0] Sm, // the positive sum's significand
output logic InvA, // Was A inverted for effective subtraction (P-A or -P+A) output logic InvA, // Was A inverted for effective subtraction (P-A or -P+A)
output logic As, // the aligned addend's sign (modified Z sign for other opperations) output logic As, // the aligned addend's sign (modified Z sign for other opperations)
@ -47,12 +45,15 @@ module fma(
output logic Ss, // the sum's sign output logic Ss, // the sum's sign
output logic [`NE+1:0] Se, output logic [`NE+1:0] Se,
output logic [$clog2(3*`NF+7)-1:0] SCnt // normalization shift count output logic [$clog2(3*`NF+7)-1:0] SCnt // normalization shift count
); );
logic [2*`NF+1:0] Pm; // the product's significand in U(2.2Nf) format logic [2*`NF+1:0] Pm; // the product's significand in U(2.2Nf) format
logic [3*`NF+5:0] Am; // addend aligned's mantissa for addition in U(NF+5.2NF+1) logic [3*`NF+5:0] Am; // addend aligned's mantissa for addition in U(NF+5.2NF+1)
logic [3*`NF+5:0] AmInv; // aligned addend's mantissa possibly inverted logic [3*`NF+5:0] AmInv; // aligned addend's mantissa possibly inverted
logic [2*`NF+1:0] PmKilled; // the product's mantissa possibly killed logic [2*`NF+1:0] PmKilled; // the product's mantissa possibly killed
logic KillProd; // set the product to zero before addition if the product is too small to matter
logic [`NE+1:0] Pe; // the product's exponent B(NE+2.0) format; adds 2 bits to allow for size of number and negative sign
/////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////
// Calculate the product // Calculate the product
// - When multipliying two fp numbers, add the exponents // - When multipliying two fp numbers, add the exponents

17
pipelined/src/fpu/fpu.sv
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@ -108,10 +108,8 @@ module fpu (
// Fma Signals // Fma Signals
logic [3*`NF+5:0] SmE, SmM; logic [3*`NF+5:0] SmE, SmM;
logic [`NE+1:0] PeE, PeM;
logic ZmStickyE, ZmStickyM; logic ZmStickyE, ZmStickyM;
logic [`NE+1:0] SeE,SeM; logic [`NE+1:0] SeE,SeM;
logic KillProdE, KillProdM;
logic InvAE, InvAM; logic InvAE, InvAM;
logic AsE, AsM; logic AsE, AsM;
logic PsE, PsM; logic PsE, PsM;
@ -256,9 +254,9 @@ module fpu (
.XZero(XZeroE), .YZero(YZeroE), .ZZero(ZZeroE), .XZero(XZeroE), .YZero(YZeroE), .ZZero(ZZeroE),
.OpCtrl(OpCtrlE), .Fmt(FmtE), .OpCtrl(OpCtrlE), .Fmt(FmtE),
.As(AsE), .Ps(PsE), .Ss(SsE), .Se(SeE), .As(AsE), .Ps(PsE), .Ss(SsE), .Se(SeE),
.Sm(SmE), .Pe(PeE), .Sm(SmE),
.InvA(InvAE), .SCnt(SCntE), .InvA(InvAE), .SCnt(SCntE),
.ZmSticky(ZmStickyE), .KillProd(KillProdE)); .ZmSticky(ZmStickyE));
// divide and squareroot // divide and squareroot
// - fdiv // - fdiv
@ -353,10 +351,9 @@ module fpu (
{XsM, YsM, XZeroM, YZeroM, ZZeroM, XInfM, YInfM, ZInfM, XNaNM, YNaNM, ZNaNM, XSNaNM, YSNaNM, ZSNaNM, ZDenormM}); {XsM, YsM, XZeroM, YZeroM, ZZeroM, XInfM, YInfM, ZInfM, XNaNM, YNaNM, ZNaNM, XSNaNM, YSNaNM, ZSNaNM, ZDenormM});
flopenrc #(1) EMRegCmpFlg (clk, reset, FlushM, ~StallM, PreNVE, PreNVM); flopenrc #(1) EMRegCmpFlg (clk, reset, FlushM, ~StallM, PreNVE, PreNVM);
flopenrc #(3*`NF+6) EMRegFma2(clk, reset, FlushM, ~StallM, SmE, SmM); flopenrc #(3*`NF+6) EMRegFma2(clk, reset, FlushM, ~StallM, SmE, SmM);
flopenrc #(`NE+2) EMRegFma3(clk, reset, FlushM, ~StallM, PeE, PeM); flopenrc #($clog2(3*`NF+7)+7+`NE) EMRegFma4(clk, reset, FlushM, ~StallM,
flopenrc #($clog2(3*`NF+7)+8+`NE) EMRegFma4(clk, reset, FlushM, ~StallM, {ZmStickyE, InvAE, SCntE, AsE, PsE, SsE, SeE},
{ZmStickyE, KillProdE, InvAE, SCntE, AsE, PsE, SsE, SeE}, {ZmStickyM, InvAM, SCntM, AsM, PsM, SsM, SeM});
{ZmStickyM, KillProdM, InvAM, SCntM, AsM, PsM, SsM, SeM});
flopenrc #(`NE+`LOGCVTLEN+`CVTLEN+4) EMRegCvt(clk, reset, FlushM, ~StallM, flopenrc #(`NE+`LOGCVTLEN+`CVTLEN+4) EMRegCvt(clk, reset, FlushM, ~StallM,
{CeE, CvtShiftAmtE, CvtResDenormUfE, CsE, IntZeroE, CvtLzcInE}, {CeE, CvtShiftAmtE, CvtResDenormUfE, CsE, IntZeroE, CvtLzcInE},
{CeM, CvtShiftAmtM, CvtResDenormUfM, CsM, IntZeroM, CvtLzcInM}); {CeM, CvtShiftAmtM, CvtResDenormUfM, CsM, IntZeroM, CvtLzcInM});
@ -375,8 +372,8 @@ module fpu (
assign FpLoadStoreM = FResSelM[1]; assign FpLoadStoreM = FResSelM[1];
postprocess postprocess(.Xs(XsM), .Ys(YsM), .Ze(ZeM), .Xm(XmM), .Ym(YmM), .Zm(ZmM), .Frm(FrmM), .Fmt(FmtM), .FmaPe(PeM), postprocess postprocess(.Xs(XsM), .Ys(YsM), .Ze(ZeM), .Xm(XmM), .Ym(YmM), .Zm(ZmM), .Frm(FrmM), .Fmt(FmtM),
.FmaZmS(ZmStickyM), .FmaKillProd(KillProdM), .XZero(XZeroM), .YZero(YZeroM), .ZZero(ZZeroM), .XInf(XInfM), .YInf(YInfM), .DivQm(QmM), .FmaSs(SsM), .FmaZmS(ZmStickyM), .XZero(XZeroM), .YZero(YZeroM), .ZZero(ZZeroM), .XInf(XInfM), .YInf(YInfM), .DivQm(QmM), .FmaSs(SsM),
.ZInf(ZInfM), .XNaN(XNaNM), .YNaN(YNaNM), .ZNaN(ZNaNM), .XSNaN(XSNaNM), .YSNaN(YSNaNM), .ZSNaN(ZSNaNM), .FmaSm(SmM), .DivQe(QeM), /*.DivDone(DivDoneM), */ .ZInf(ZInfM), .XNaN(XNaNM), .YNaN(YNaNM), .ZNaN(ZNaNM), .XSNaN(XSNaNM), .YSNaN(YSNaNM), .ZSNaN(ZSNaNM), .FmaSm(SmM), .DivQe(QeM), /*.DivDone(DivDoneM), */
.ZDenorm(ZDenormM), .FmaAs(AsM), .FmaPs(PsM), .OpCtrl(OpCtrlM), .FmaSCnt(SCntM), .FmaSe(SeM), .ZDenorm(ZDenormM), .FmaAs(AsM), .FmaPs(PsM), .OpCtrl(OpCtrlM), .FmaSCnt(SCntM), .FmaSe(SeM),
.CvtCe(CeM), .CvtResDenormUf(CvtResDenormUfM),.CvtShiftAmt(CvtShiftAmtM), .CvtCs(CsM), .ToInt(FWriteIntM), .DivS(DivSM), .CvtCe(CeM), .CvtResDenormUf(CvtResDenormUfM),.CvtShiftAmt(CvtShiftAmtM), .CvtCs(CsM), .ToInt(FWriteIntM), .DivS(DivSM),

2
pipelined/src/fpu/postproc/fmashiftcalc.sv
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@ -32,10 +32,8 @@
module fmashiftcalc( module fmashiftcalc(
input logic [3*`NF+5:0] FmaSm, // the positive sum input logic [3*`NF+5:0] FmaSm, // the positive sum
input logic [`NE-1:0] Ze, // exponent of Z input logic [`NE-1:0] Ze, // exponent of Z
input logic [`NE+1:0] FmaPe, // X exponent + Y exponent - bias
input logic [$clog2(3*`NF+7)-1:0] FmaSCnt, // normalization shift count input logic [$clog2(3*`NF+7)-1:0] FmaSCnt, // normalization shift count
input logic [`FMTBITS-1:0] Fmt, // precision 1 = double 0 = single input logic [`FMTBITS-1:0] Fmt, // precision 1 = double 0 = single
input logic FmaKillProd, // is the product set to zero
input logic [`NE+1:0] FmaSe, input logic [`NE+1:0] FmaSe,
output logic [`NE+1:0] NormSumExp, // exponent of the normalized sum not taking into account denormal or zero results output logic [`NE+1:0] NormSumExp, // exponent of the normalized sum not taking into account denormal or zero results
output logic FmaSZero, // is the result denormalized - calculated before LZA corection output logic FmaSZero, // is the result denormalized - calculated before LZA corection

4
pipelined/src/fpu/postproc/postprocess.sv
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@ -48,10 +48,8 @@ module postprocess (
input logic FmaAs, // the modified Z sign - depends on instruction input logic FmaAs, // the modified Z sign - depends on instruction
input logic FmaPs, // the product's sign input logic FmaPs, // the product's sign
input logic [`NE+1:0] FmaSe, input logic [`NE+1:0] FmaSe,
input logic [`NE+1:0] FmaPe, // Product exponent
input logic [3*`NF+5:0] FmaSm, // the positive sum input logic [3*`NF+5:0] FmaSm, // the positive sum
input logic FmaZmS, // sticky bit that is calculated during alignment input logic FmaZmS, // sticky bit that is calculated during alignment
input logic FmaKillProd, // set the product to zero before addition if the product is too small to matter
input logic FmaSs, input logic FmaSs,
input logic [$clog2(3*`NF+7)-1:0] FmaSCnt, // the normalization shift count input logic [$clog2(3*`NF+7)-1:0] FmaSCnt, // the normalization shift count
//divide signals //divide signals
@ -148,7 +146,7 @@ module postprocess (
cvtshiftcalc cvtshiftcalc(.ToInt, .CvtCe, .CvtResDenormUf, .Xm, .CvtLzcIn, cvtshiftcalc cvtshiftcalc(.ToInt, .CvtCe, .CvtResDenormUf, .Xm, .CvtLzcIn,
.XZero, .IntToFp, .OutFmt, .CvtResUf, .CvtShiftIn); .XZero, .IntToFp, .OutFmt, .CvtResUf, .CvtShiftIn);
fmashiftcalc fmashiftcalc(.FmaSm, .Ze, .FmaPe, .FmaSCnt, .Fmt, .FmaKillProd, .NormSumExp, .FmaSe, fmashiftcalc fmashiftcalc(.FmaSm, .Ze, .FmaSCnt, .Fmt, .NormSumExp, .FmaSe,
.FmaSZero, .FmaPreResultDenorm, .FmaShiftAmt, .FmaShiftIn); .FmaSZero, .FmaPreResultDenorm, .FmaShiftAmt, .FmaShiftIn);
divshiftcalc divshiftcalc(.Fmt, .Sqrt, .DivQe, .DivQm, .DivResDenorm, .DivDenormShiftPos, .DivShiftAmt, .DivShiftIn); divshiftcalc divshiftcalc(.Fmt, .Sqrt, .DivQe, .DivQm, .DivResDenorm, .DivDenormShiftPos, .DivShiftAmt, .DivShiftIn);

2
pipelined/src/privileged/csr.sv
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@ -233,7 +233,7 @@ module csr #(parameter
.STATUS_TVM, .CSRWriteValM, .PrivilegeModeW, .STATUS_TVM, .CSRWriteValM, .PrivilegeModeW,
.CSRSReadValM, .STVEC_REGW, .SEPC_REGW, .CSRSReadValM, .STVEC_REGW, .SEPC_REGW,
.SCOUNTEREN_REGW, .SCOUNTEREN_REGW,
.SATP_REGW, .MIP_REGW, .MIE_REGW, .SATP_REGW, .MIP_REGW, .MIE_REGW, .MIDELEG_REGW,
.WriteSSTATUSM, .IllegalCSRSAccessM); .WriteSSTATUSM, .IllegalCSRSAccessM);
csru csru(.clk, .reset, .InstrValidNotFlushedM, .StallW, csru csru(.clk, .reset, .InstrValidNotFlushedM, .StallW,
.CSRUWriteM, .CSRAdrM, .CSRWriteValM, .STATUS_FS, .CSRUReadValM, .CSRUWriteM, .CSRAdrM, .CSRWriteValM, .STATUS_FS, .CSRUReadValM,

4
pipelined/src/privileged/csrm.sv
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@ -151,8 +151,8 @@ module csrm #(parameter
// CSRs // CSRs
flopenr #(`XLEN) MTVECreg(clk, reset, WriteMTVECM, {CSRWriteValM[`XLEN-1:2], 1'b0, CSRWriteValM[0]}, MTVEC_REGW); flopenr #(`XLEN) MTVECreg(clk, reset, WriteMTVECM, {CSRWriteValM[`XLEN-1:2], 1'b0, CSRWriteValM[0]}, MTVEC_REGW);
if (`S_SUPPORTED) begin:deleg // DELEG registers should exist if (`S_SUPPORTED) begin:deleg // DELEG registers should exist
flopenr #(`XLEN) MEDELEGreg(clk, reset, WriteMEDELEGM, CSRWriteValM & MEDELEG_MASK /*12'h7FF*/, MEDELEG_REGW); flopenr #(`XLEN) MEDELEGreg(clk, reset, WriteMEDELEGM, CSRWriteValM & MEDELEG_MASK, MEDELEG_REGW);
flopenr #(12) MIDELEGreg(clk, reset, WriteMIDELEGM, CSRWriteValM[11:0] & MIDELEG_MASK /*12'h222*/, MIDELEG_REGW); flopenr #(12) MIDELEGreg(clk, reset, WriteMIDELEGM, CSRWriteValM[11:0] & MIDELEG_MASK, MIDELEG_REGW);
end else assign {MEDELEG_REGW, MIDELEG_REGW} = 0; end else assign {MEDELEG_REGW, MIDELEG_REGW} = 0;
flopenr #(`XLEN) MSCRATCHreg(clk, reset, WriteMSCRATCHM, CSRWriteValM, MSCRATCH_REGW); flopenr #(`XLEN) MSCRATCHreg(clk, reset, WriteMSCRATCHM, CSRWriteValM, MSCRATCH_REGW);

4
pipelined/src/privileged/csrs.sv
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@ -61,7 +61,7 @@ module csrs #(parameter
(* mark_debug = "true" *) output logic [`XLEN-1:0] SEPC_REGW, (* mark_debug = "true" *) output logic [`XLEN-1:0] SEPC_REGW,
output logic [31:0] SCOUNTEREN_REGW, output logic [31:0] SCOUNTEREN_REGW,
output logic [`XLEN-1:0] SATP_REGW, output logic [`XLEN-1:0] SATP_REGW,
(* mark_debug = "true" *) input logic [11:0] MIP_REGW, MIE_REGW, (* mark_debug = "true" *) input logic [11:0] MIP_REGW, MIE_REGW, MIDELEG_REGW,
output logic WriteSSTATUSM, output logic WriteSSTATUSM,
output logic IllegalCSRSAccessM output logic IllegalCSRSAccessM
); );
@ -102,7 +102,7 @@ module csrs #(parameter
case (CSRAdrM) case (CSRAdrM)
SSTATUS: CSRSReadValM = SSTATUS_REGW; SSTATUS: CSRSReadValM = SSTATUS_REGW;
STVEC: CSRSReadValM = STVEC_REGW; STVEC: CSRSReadValM = STVEC_REGW;
SIP: CSRSReadValM = {{(`XLEN-12){1'b0}}, MIP_REGW & 12'h222}; // only read supervisor fields SIP: CSRSReadValM = {{(`XLEN-12){1'b0}}, MIP_REGW & 12'h222 & MIDELEG_REGW}; // only read supervisor fields // *** and with MIDELEG instead of 222
SIE: CSRSReadValM = {{(`XLEN-12){1'b0}}, MIE_REGW & 12'h222}; // only read supervisor fields SIE: CSRSReadValM = {{(`XLEN-12){1'b0}}, MIE_REGW & 12'h222}; // only read supervisor fields
SSCRATCH: CSRSReadValM = SSCRATCH_REGW; SSCRATCH: CSRSReadValM = SSCRATCH_REGW;
SEPC: CSRSReadValM = SEPC_REGW; SEPC: CSRSReadValM = SEPC_REGW;

1
tests/riscof/Makefile
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@ -8,6 +8,7 @@ wally_workdir = $(work)/wally-riscv-arch-test
current_dir = $(shell pwd) current_dir = $(shell pwd)
#XLEN ?= 64 #XLEN ?= 64
#all: root wally32 wally64
all: root arch32 wally32 wally32e arch64 wally64 all: root arch32 wally32 wally32e arch64 wally64
root: root:

6
tests/wally-riscv-arch-test/riscv-test-suite/rv32i_m/privilege/src/WALLY-TEST-LIB-32.h
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@ -1295,6 +1295,12 @@ write_pmpaddr_end:
addi a6, a6, 4 addi a6, a6, 4
j test_loop j test_loop
write_mideleg:
// writes the value in t4 to the mideleg register
// Doesn't log anything
csrw mideleg, t4
j test_loop
executable_test: executable_test:
// Execute the code at the address in t3, returning the value in t2. // Execute the code at the address in t3, returning the value in t2.
// Assumes the code modifies t2, to become the value stored in t4 for this test. // Assumes the code modifies t2, to become the value stored in t4 for this test.

1
tests/wally-riscv-arch-test/riscv-test-suite/rv32i_m/privilege/src/WALLY-plic-01.S
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@ -784,6 +784,7 @@ test_cases:
# =========== S-mode enable tests (7.X) =========== # =========== S-mode enable tests (7.X) ===========
.4byte 0x0, 0x222, write_mideleg # delegate supervisor interrupts to S mode
.4byte 0x0, 0x0, goto_s_mode # go to s-mode. 0xb written to output .4byte 0x0, 0x0, goto_s_mode # go to s-mode. 0xb written to output
.4byte PLIC_THRESH0, 0x00000000, write32_test # set m-mode threshold to 0 .4byte PLIC_THRESH0, 0x00000000, write32_test # set m-mode threshold to 0
.4byte PLIC_THRESH1, 0x00000000, write32_test # set s-mode threshold to 0 .4byte PLIC_THRESH1, 0x00000000, write32_test # set s-mode threshold to 0

1
tests/wally-riscv-arch-test/riscv-test-suite/rv32i_m/privilege/src/WALLY-plic-s-01.S
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@ -102,6 +102,7 @@ test_cases:
# =========== Enter Supervisor Mode =========== # =========== Enter Supervisor Mode ===========
.4byte 0x0, 0x222, write_mideleg # delegate supervisor interrupts to S mode
.4byte 0x0, 0x0, goto_s_mode # Enter supervisor mode .4byte 0x0, 0x0, goto_s_mode # Enter supervisor mode
# =========== Test interrupt enables and priorities =========== # =========== Test interrupt enables and priorities ===========

6
tests/wally-riscv-arch-test/riscv-test-suite/rv64i_m/privilege/src/WALLY-TEST-LIB-64.h
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@ -1335,6 +1335,12 @@ write_pmpaddr_end:
addi a6, a6, 8 addi a6, a6, 8
j test_loop j test_loop
write_mideleg:
// writes the value in t4 to the mideleg register
// Doesn't log anything
csrw mideleg, t4
j test_loop
executable_test: executable_test:
// Execute the code at the address in t3, returning the value in t2. // Execute the code at the address in t3, returning the value in t2.
// Assumes the code modifies t2, to become the value stored in t4 for this test. // Assumes the code modifies t2, to become the value stored in t4 for this test.

1
tests/wally-riscv-arch-test/riscv-test-suite/rv64i_m/privilege/src/WALLY-plic-01.S
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@ -784,6 +784,7 @@ test_cases:
# =========== S-mode enable tests (7.X) =========== # =========== S-mode enable tests (7.X) ===========
.8byte 0x0, 0x222, write_mideleg # delegate supervisor interrupts to S mode
.8byte 0x0, 0x0, goto_s_mode # go to s-mode. 0xb written to output .8byte 0x0, 0x0, goto_s_mode # go to s-mode. 0xb written to output
.8byte PLIC_THRESH0, 0x00000000, write32_test # set m-mode threshold to 0 .8byte PLIC_THRESH0, 0x00000000, write32_test # set m-mode threshold to 0
.8byte PLIC_THRESH1, 0x00000000, write32_test # set s-mode threshold to 0 .8byte PLIC_THRESH1, 0x00000000, write32_test # set s-mode threshold to 0

1
tests/wally-riscv-arch-test/riscv-test-suite/rv64i_m/privilege/src/WALLY-plic-s-01.S
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@ -102,6 +102,7 @@ test_cases:
# =========== Enter Supervisor Mode =========== # =========== Enter Supervisor Mode ===========
.8byte 0x0, 0x222, write_mideleg # delegate supervisor interrupts to S mode
.8byte 0x0, 0x0, goto_s_mode # Enter supervisor mode .8byte 0x0, 0x0, goto_s_mode # Enter supervisor mode
# =========== Test interrupt enables and priorities =========== # =========== Test interrupt enables and priorities ===========