fpu refractoring

This commit is contained in:
Dolu1990 2021-02-10 12:16:44 +01:00
parent 1fe993ad10
commit 889cc5fde2
2 changed files with 165 additions and 480 deletions

View File

@ -16,8 +16,6 @@ case class FpuCore( portCount : Int, p : FpuParameter) extends Component{
val port = Vec(slave(FpuPort(p)), portCount)
}
// io.port(0).completion.flag.setAsDirectionLess.allowDirectionLessIo
val portCountWidth = log2Up(portCount)
val Source = HardType(UInt(portCountWidth bits))
val exponentOne = (1 << p.internalExponentSize-1) - 1
@ -30,7 +28,6 @@ case class FpuCore( portCount : Int, p : FpuParameter) extends Component{
val opcode = p.Opcode()
val rs1, rs2, rs3 = p.rfAddress()
val rd = p.rfAddress()
val value = Bits(32 bits)
val arg = p.Arg()
val roundMode = FpuRoundMode()
}
@ -41,7 +38,6 @@ case class FpuCore( portCount : Int, p : FpuParameter) extends Component{
val lockId = lockIdType()
val rs1, rs2, rs3 = p.internalFloating()
val rd = p.rfAddress()
val value = Bits(32 bits)
val arg = p.Arg()
val roundMode = FpuRoundMode()
}
@ -138,16 +134,6 @@ case class FpuCore( portCount : Int, p : FpuParameter) extends Component{
val increments = ArrayBuffer[Bool]()
// def increment(): Unit ={
// //This is a SpinalHDL trick which allow to go back in time
// val swapContext = dslBody.swap()
// val cond = False
// swapContext.appendBack()
//
// cond := True
// incs += cond
// }
afterElaboration{
port.completion.count := increments.map(_.asUInt.resize(log2Up(increments.size + 1))).reduceBalancedTree(_ + _)
}
@ -236,7 +222,6 @@ case class FpuCore( portCount : Int, p : FpuParameter) extends Component{
output.source := s1.source
output.opcode := s1.opcode
output.lockId := s1LockId
output.value := s1.value
output.arg := s1.arg
output.roundMode := s1.roundMode
output.rd := s1.rd
@ -384,11 +369,6 @@ case class FpuCore( portCount : Int, p : FpuParameter) extends Component{
i2fZero := input.value(31 downto 0) === 0
}
} otherwise {
// when(input.i2f){
// input.value.getDrivingReg(0, 32 bits) := input.value(0, 32 bits) |<< 1
// } otherwise {
// input.value.getDrivingReg(0, 23 bits) := input.value(0, 23 bits) |<< 1
// }
done := True
}
}

View File

@ -431,23 +431,6 @@ class FpuTest extends FunSuite{
(Random.nextDouble() * (Math.pow(2.0, exp)) * (if(Random.nextBoolean()) -1.0 else 1.0)).toFloat
}
def testAdd(a : Float, b : Float, rounding : FpuRoundMode.E = FpuRoundMode.RNE): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
load(rs1, a)
load(rs2, b)
add(rd,rs1,rs2, rounding)
storeFloat(rd){v =>
val a_ = clamp(a)
val b_ = clamp(b)
val ref = Clib.math.addF32(a,b, rounding.position)
println(f"${a}%.19f + $b%.19f = $v, $ref $rounding")
println(f"${f2b(a).toHexString} + ${f2b(b).toHexString}")
assert(checkFloatExact(ref, v))
}
}
def testBinaryOp(op : (Int,Int,Int,FpuRoundMode.E) => Unit, a : Float, b : Float, ref : Float, flag : Int, rounding : FpuRoundMode.E, opName : String): Unit ={
val rs = new RegAllocator()
@ -463,32 +446,9 @@ class FpuTest extends FunSuite{
flagMatch(flag, ref, f"## ${opName} ${a} $b $ref $rounding")
}
def testAddExact(a : Float, b : Float, ref : Float, flag : Int, rounding : FpuRoundMode.E): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
load(rs1, a)
load(rs2, b)
add(rd,rs1,rs2, rounding)
storeFloat(rd){v =>
assert(f2b(v) == f2b(ref), f"## ${a} + $b = $v, $ref $rounding")
}
}
def testMulExact(a : Float, b : Float, ref : Float, flag : Int, rounding : FpuRoundMode.E): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
load(rs1, a)
load(rs2, b)
mul(rd,rs1,rs2, rounding)
storeFloat(rd){v =>
assert(f2b(v) == f2b(ref), f"## ${a} * $b = $v, $ref $rounding")
}
}
def testTransfer(a : Float, iSrc : Boolean, iDst : Boolean): Unit ={
def testTransferRaw(a : Float, iSrc : Boolean, iDst : Boolean): Unit ={
val rd = Random.nextInt(32)
def handle(v : Float): Unit ={
@ -503,7 +463,7 @@ class FpuTest extends FunSuite{
flagMatch(0, f"$a")
}
def testClass(a : Float) : Unit = {
def testClassRaw(a : Float) : Unit = {
val rd = Random.nextInt(32)
@ -525,28 +485,8 @@ class FpuTest extends FunSuite{
}
}
def testMul(a : Float, b : Float): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
load(rs1, a)
load(rs2, b)
mul(rd,rs1,rs2)
storeFloat(rd){v =>
val refUnclamped = a*b
val refClamped = clamp(clamp(a)*clamp(b))
val ref = if(refClamped.isNaN) refUnclamped else refClamped
println(f"$a * $b = $v, $ref")
var checkIt = true
if(v == 0.0f && ref.abs == b2f(0x00800000)) checkIt = false //Rounding
if(checkIt) assert(checkFloat(ref, v))
}
}
def testFma(a : Float, b : Float, c : Float): Unit ={
def testFmaRaw(a : Float, b : Float, c : Float): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
@ -564,7 +504,7 @@ class FpuTest extends FunSuite{
}
def testDiv(a : Float, b : Float): Unit ={
def testDivRaw(a : Float, b : Float): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
@ -582,7 +522,7 @@ class FpuTest extends FunSuite{
}
}
def testSqrt(a : Float): Unit ={
def testSqrtRaw(a : Float): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
@ -628,27 +568,7 @@ class FpuTest extends FunSuite{
}
}
def testF2i(a : Float, signed : Boolean): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
load(rs1, a)
f2i(rs1, signed){rsp =>
if(signed) {
val ref = a.toInt
val v = (rsp.value.toBigInt & 0xFFFFFFFFl).toInt
println(f"f2i($a) = $v, $ref")
if (a.abs < 1024 * 1024) assert(v == ref)
assert(checkFloat(v, ref))
} else {
val ref = a.toLong.min(0xFFFFFFFFl)
val v = (rsp.value.toBigInt & 0xFFFFFFFFl).toLong
println(f"f2i($a) = $v, $ref")
if (a.abs < 1024 * 1024) assert(v == ref)
assert(checkFloat(v, ref))
}
}
}
def testF2iExact(a : Float, ref : Int, flag : Int, signed : Boolean, rounding : FpuRoundMode.E): Unit ={
val rs = new RegAllocator()
@ -677,18 +597,7 @@ class FpuTest extends FunSuite{
}
def testI2f(a : Int, signed : Boolean): Unit ={
val rs = new RegAllocator()
val rd = Random.nextInt(32)
i2f(rd, a, signed)
storeFloat(rd){v =>
val aLong = if(signed) a.toLong else a.toLong & 0xFFFFFFFFl
val ref = if(signed) a.toFloat else (a.toLong & 0xFFFFFFFFl).toFloat
println(f"i2f($aLong) = $v, $ref")
if(ref.abs < (1 << 22)) assert(v === ref)
assert(checkFloat(v, ref))
}
}
def testI2fExact(a : Int, b : Float, f : Int, signed : Boolean, rounding : FpuRoundMode.E): Unit ={
val rs = new RegAllocator()
@ -705,23 +614,6 @@ class FpuTest extends FunSuite{
}
def testCmp(a : Float, b : Float): Unit ={
val rs = new RegAllocator()
val rs1, rs2, rs3 = rs.allocate()
val rd = Random.nextInt(32)
load(rs1, a)
load(rs2, b)
cmp(rs1, rs2){rsp =>
var ref = if(a < b) 1 else 0
if(a.isNaN || b.isNaN){
ref = 0
}
val v = rsp.value.toBigInt
println(f"$a < $b = $v, $ref")
assert(v === ref)
}
}
def testCmpExact(a : Float, b : Float, ref : Int, flag : Int, arg : Int): Unit ={
val rs = new RegAllocator()
@ -735,15 +627,15 @@ class FpuTest extends FunSuite{
}
flagMatch(flag,f"$a < $b $ref $flag ${f2b(a).toHexString} ${f2b(b).toHexString}")
}
def testLe(a : Float, b : Float, ref : Int, flag : Int) = testCmpExact(a,b,ref,flag, 0)
def testEq(a : Float, b : Float, ref : Int, flag : Int) = testCmpExact(a,b,ref,flag, 2)
def testLt(a : Float, b : Float, ref : Int, flag : Int) = testCmpExact(a,b,ref,flag, 1)
def testLeRaw(a : Float, b : Float, ref : Int, flag : Int) = testCmpExact(a,b,ref,flag, 0)
def testEqRaw(a : Float, b : Float, ref : Int, flag : Int) = testCmpExact(a,b,ref,flag, 2)
def testLtRaw(a : Float, b : Float, ref : Int, flag : Int) = testCmpExact(a,b,ref,flag, 1)
// def testFmv_x_w(a : Float): Unit ={
// val rs = new RegAllocator()
// val rs1, rs2, rs3 = rs.allocate()
// val rd = Random.nextInt(32)
// load(rs1, a)
// load(rs1, a)tes
// fmv_x_w(rs1){rsp =>
// val ref = f2b(a).toLong & 0xFFFFFFFFl
// val v = rsp.value.toBigInt
@ -791,19 +683,19 @@ class FpuTest extends FunSuite{
flagMatch(flag, f"minmax($a $b $arg)")
}
def testMin(a : Float, b : Float) = testMinMaxExact(a,b,0)
def testMax(a : Float, b : Float) = testMinMaxExact(a,b,1)
def testMinExact(a : Float, b : Float) : Unit = testMinMaxExact(a,b,0)
def testMaxExact(a : Float, b : Float) : Unit = testMinMaxExact(a,b,1)
def testSgnj(a : Float, b : Float): Unit ={
def testSgnjRaw(a : Float, b : Float): Unit ={
val ref = b2f((f2b(a) & ~0x80000000) | f2b(b) & 0x80000000)
testBinaryOp(sgnj,a,b,ref,0, null,"sgnj")
}
def testSgnjn(a : Float, b : Float): Unit ={
def testSgnjnRaw(a : Float, b : Float): Unit ={
val ref = b2f((f2b(a) & ~0x80000000) | ((f2b(b) & 0x80000000) ^ 0x80000000))
testBinaryOp(sgnjn,a,b,ref,0, null,"sgnjn")
}
def testSgnjx(a : Float, b : Float): Unit ={
def testSgnjxRaw(a : Float, b : Float): Unit ={
val ref = b2f(f2b(a) ^ (f2b(b) & 0x80000000))
testBinaryOp(sgnjx,a,b,ref,0, null,"sgnjx")
}
@ -853,122 +745,176 @@ class FpuTest extends FunSuite{
for(i <- 0 until 1000){
testFma(randomFloat(), randomFloat(), randomFloat())
def testFma() : Unit = {
testFmaRaw(randomFloat(), randomFloat(), randomFloat())
flagClear()
}
def testLe() : Unit = {
val (a,b,i,f) = f32.le.RAW.f32_f32_i32
testLeRaw(a,b,i, f)
}
def testLt() : Unit = {
val (a,b,i,f) = f32.lt.RAW.f32_f32_i32
testLtRaw(a,b,i, f)
}
def testEq() : Unit = {
val (a,b,i,f) = f32.eq.RAW.f32_f32_i32
testEqRaw(a,b,i, f)
}
def testF2ui() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.f2ui(rounding).f32_i32
testF2iExact(a,b, f, false, rounding)
}
def testF2i() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.f2i(rounding).f32_i32
testF2iExact(a,b, f, true, rounding)
}
def testDiv() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,r,f) = f32.div(rounding).f32_f32_f32
testDivExact(a, b, r, f, rounding)
flagClear()
}
def testSqrt() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,r,f) = f32.sqrt(rounding).f32_f32
testSqrtExact(a, r, f, rounding)
flagClear()
}
def testSgnj() : Unit = {
testSgnjRaw(b2f(Random.nextInt()), b2f(Random.nextInt()))
testSgnjnRaw(b2f(Random.nextInt()), b2f(Random.nextInt()))
testSgnjxRaw(b2f(Random.nextInt()), b2f(Random.nextInt()))
val (a,b,r,f) = f32.sgnj.RAW.f32_f32_i32
testSgnjRaw(a, b)
testSgnjnRaw(a, b)
testSgnjxRaw(a, b)
}
def testTransfer() : Unit = {
val (a,b,r,f) = f32.transfer.RAW.f32_f32_i32
testTransferRaw(a, Random.nextBoolean(), Random.nextBoolean())
}
def testClass() : Unit = {
val (a,b,r,f) = f32.fclass.RAW.f32_f32_i32
testClassRaw(a)
}
def testMin() : Unit = {
val (a,b,r,f) = f32.min.RAW.f32_f32_f32
testMinExact(a,b)
}
def testMax() : Unit = {
val (a,b,r,f) = f32.max.RAW.f32_f32_f32
testMaxExact(a,b)
}
def testUI2f() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.i2f(rounding).i32_f32
testI2fExact(a,b,f, true, rounding)
}
def testI2f() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.ui2f(rounding).i32_f32
testI2fExact(a,b,f, false, rounding)
}
def testMul() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,c,f) = f32.mul(rounding).f32_f32_f32
testBinaryOp(mul,a,b,c,f, rounding,"mul")
}
def testAdd() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,c,f) = f32.add(rounding).f32_f32_f32
testBinaryOp(add,a,b,c,f, rounding,"add")
}
def testSub() : Unit = {
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,c,f) = f32.sub(rounding).f32_f32_f32
testBinaryOp(sub,a,b,c,f, rounding,"sub")
}
val f32Tests = List[() => Unit](testSub, testAdd, testMul, testI2f, testUI2f, testMin, testMax, testSgnj, testTransfer, testDiv, testSqrt, testF2i, testF2ui, testLe, testEq, testLt, testClass, testFma)
for(i <- 0 until 1000) testFma()
flagClear()
println("fma done") //TODO
testF2iExact(-2.14748365E9f, -2147483648, 0, true, FpuRoundMode.RDN)
testEq(Float.PositiveInfinity,Float.PositiveInfinity,1, 0)
testEq(0f, 0f,1, 0)
testEqRaw(Float.PositiveInfinity,Float.PositiveInfinity,1, 0)
testEqRaw(0f, 0f,1, 0)
for(_ <- 0 until 10000){
val (a,b,i,f) = f32.le.RAW.f32_f32_i32
testLe(a,b,i, f)
}
for(_ <- 0 until 10000){
val (a,b,i,f) = f32.lt.RAW.f32_f32_i32
testLt(a,b,i, f)
}
for(r <- 0 until 10000){
val (a,b,i,f) = f32.eq.RAW.f32_f32_i32
testEq(a,b,i, f)
if(r % 100000 == 0) println(r)
}
for(_ <- 0 until 10000) testLe()
for(_ <- 0 until 10000) testLt()
for(_ <- 0 until 10000) testEq()
println("Cmp done")
for(_ <- 0 until 1000000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.f2ui(rounding).f32_i32
testF2iExact(a,b, f, false, rounding)
}
for(_ <- 0 until 1000000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.f2i(rounding).f32_i32
testF2iExact(a,b, f, true, rounding)
}
for(_ <- 0 until 10000) testF2ui()
for(_ <- 0 until 10000) testF2i()
println("f2i done")
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,r,f) = f32.div(rounding).f32_f32_f32
testDivExact(a, b, r, f, rounding)
}
for(_ <- 0 until 10000) testDiv()
println("f32 div done")
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,r,f) = f32.sqrt(rounding).f32_f32
testSqrtExact(a, r, f, rounding)
}
for(_ <- 0 until 10000) testSqrt()
println("f32 sqrt done")
flagClear()
for(_ <- 0 until 10000){
testSgnj(b2f(Random.nextInt()), b2f(Random.nextInt()))
testSgnjn(b2f(Random.nextInt()), b2f(Random.nextInt()))
testSgnjx(b2f(Random.nextInt()), b2f(Random.nextInt()))
val (a,b,r,f) = f32.sgnj.RAW.f32_f32_i32
testSgnj(a, b)
testSgnjn(a, b)
testSgnjx(a, b)
}
for(_ <- 0 until 10000) testSgnj()
println("f32 sgnj done")
for(_ <- 0 until 10000){
testTransfer(b2f(Random.nextInt()), Random.nextBoolean(), Random.nextBoolean())
}
for(_ <- 0 until 10000){
val (a,b,r,f) = f32.transfer.RAW.f32_f32_i32
testTransfer(a, Random.nextBoolean(), Random.nextBoolean())
}
for(_ <- 0 until 10000) testTransfer()
println("f32 load/store/rf transfer done")
for(_ <- 0 until 10000){
testClass(b2f(Random.nextInt()))
}
for(_ <- 0 until 10000){
val (a,b,r,f) = f32.fclass.RAW.f32_f32_i32
testClass(a)
}
for(_ <- 0 until 10000) testClass()
println("f32 class done")
for(_ <- 0 until 10000){
val (a,b,r,f) = f32.min.RAW.f32_f32_f32
testMin(a,b)
}
for(_ <- 0 until 10000){
val (a,b,r,f) = f32.max.RAW.f32_f32_f32
testMax(a,b)
}
for(_ <- 0 until 10000) testMin()
for(_ <- 0 until 10000) testMax()
println("minMax done")
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.i2f(rounding).i32_f32
testI2fExact(a,b,f, true, rounding)
}
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,f) = f32.ui2f(rounding).i32_f32
testI2fExact(a,b,f, false, rounding)
}
for(_ <- 0 until 10000) testUI2f()
for(_ <- 0 until 10000) testI2f()
println("i2f done")
testBinaryOp(mul,1.469368E-39f, 7.9999995f, 1.17549435E-38f,3, FpuRoundMode.RUP,"mul")
@ -986,26 +932,15 @@ class FpuTest extends FunSuite{
testBinaryOp(mul, 1.1754955E-38f, 0.999999f, 1.17549435E-38f, 3, FpuRoundMode.RUP, "mul")
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,c,f) = f32.mul(rounding).f32_f32_f32
testBinaryOp(mul,a,b,c,f, rounding,"mul")
}
for(_ <- 0 until 10000) testMul()
println("Mul done")
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,c,f) = f32.add(rounding).f32_f32_f32
testBinaryOp(add,a,b,c,f, rounding,"add")
}
for(_ <- 0 until 10000){
val rounding = FpuRoundMode.elements.randomPick()
val (a,b,c,f) = f32.sub(rounding).f32_f32_f32
testBinaryOp(sub,a,b,c,f, rounding,"sub")
}
for(_ <- 0 until 10000) testAdd()
for(_ <- 0 until 10000) testSub()
println("Add done")
@ -1018,241 +953,11 @@ class FpuTest extends FunSuite{
waitUntil(cmdQueue.isEmpty)
dut.clockDomain.waitSampling(1000)
simSuccess()
//TODO test and fix a - b rounding
foreachRounding(testAdd(1.0f, b2f(0x3f800001), _)) //1.00001
foreachRounding(testAdd(4.0f, b2f(0x3f800001), _)) //1.00001
for(_ <- 0 until 10000; a = randomFloat(); b = randomFloat()) foreachRounding(testAdd(a.abs, b.abs,_)) //TODO negative
testAdd(b2f(0x3f800000), b2f(0x3f800000-1))
testAdd(1.1f, 2.3f)
testAdd(1.2f, -1.2f)
testAdd(-1.2f, 1.2f)
testAdd(0.0f, -1.2f)
testAdd(-0.0f, -1.2f)
testAdd(1.2f, -0f)
testAdd(1.2f, 0f)
testAdd(1.1f, Float.MinPositiveValue)
for(a <- fAll; _ <- 0 until 50) testAdd(a, randomFloat())
for(b <- fAll; _ <- 0 until 50) testAdd(randomFloat(), b)
for(a <- fAll; b <- fAll) testAdd(a, b)
for(_ <- 0 until 1000) testAdd(randomFloat(), randomFloat())
// testTransfer(1.17549435082e-38f)
// testTransfer(1.4E-45f)
// testTransfer(3.44383110592e-41f)
//TODO bring back those tests and test overflow / underflow (F2I)
// testF2i(16.0f , false)
// testF2i(18.0f , false)
// testF2i(1200.0f, false)
// testF2i(1.0f , false)
// testF2i(0.0f , false)
// testF2i(1024*1024*1024*2l , false)
// testF2i(1024*1024*4095l , false)
// testF2i(1024*1024*5000l , false)
//
// val f2iUnsigned = ((0l to 32l) ++ (4060 to 4095).map(_*1024*1024l)).map(_.toFloat) ++ List(-0.0f)
// val f2iSigned = ((-32 to 32) ++ ((2030 to 2047)++(-2047 to -2030)).map(_*1024*1024)).map(_.toFloat) ++ List(-0.0f)
// for(f <- f2iUnsigned) testF2i(f, false)
// for(f <- f2iSigned) testF2i(f, true)
// for(f <- fAll) testF2i(f, false)
// for(f <- fAll) testF2i(f, true)
// for(_ <- 0 until 1000) testF2i(Random.nextFloat(), Random.nextBoolean())
// testTransfer(1.2f)
testMul(1.2f, 2.5f)
testMul(b2f(0x00400000), 16.0f)
testMul(b2f(0x00100000), 16.0f)
testMul(b2f(0x00180000), 16.0f)
testMul(b2f(0x00000004), 16.0f)
testMul(b2f(0x00000040), 16.0f)
testMul(b2f(0x00000041), 16.0f)
testMul(b2f(0x00000001), b2f(0x00000001))
testMul(1.0f, b2f(0x00000001))
testMul(0.5f, b2f(0x00000001))
// dut.clockDomain.waitSampling(1000)
// simSuccess()
testMul(1.2f, 0f)
for(a <- fAll; _ <- 0 until 50) testMul(a, randomFloat())
for(b <- fAll; _ <- 0 until 50) testMul(randomFloat(), b)
for(a <- fAll; b <- fAll) testMul(a, b)
for(_ <- 0 until 1000) testMul(randomFloat(), randomFloat())
// testTransfer(1.765f)
// testFmv_w_x(f2b(7.234f))
testI2f(64, false)
for(i <- iUnsigned) testI2f(i, false)
for(i <- iSigned) testI2f(i, true)
for(_ <- 0 until 1000) testI2f(Random.nextInt(), Random.nextBoolean())
testCmp(0.0f, 1.2f )
testCmp(1.2f, 0.0f )
testCmp(0.0f, -0.0f )
testCmp(-0.0f, 0.0f )
for(a <- fAll; _ <- 0 until 50) testCmp(a, randomFloat())
for(b <- fAll; _ <- 0 until 50) testCmp(randomFloat(), b)
for(a <- fAll; b <- fAll) testCmp(a, b)
for(_ <- 0 until 1000) testCmp(randomFloat(), randomFloat())
testSqrt(1.2f)
testSqrt(0.0f)
for(a <- fAll) testSqrt(a)
for(_ <- 0 until 1000) testSqrt(randomFloat())
testDiv(0.0f, 1.2f )
testDiv(1.2f, 0.0f )
testDiv(0.0f, 0.0f )
for(a <- fAll; _ <- 0 until 50) testDiv(a, randomFloat())
for(b <- fAll; _ <- 0 until 50) testDiv(randomFloat(), b)
for(a <- fAll; b <- fAll) testDiv(a, b)
for(_ <- 0 until 1000) testDiv(randomFloat(), randomFloat())
// dut.clockDomain.waitSampling(10000000)
// testFmv_x_w(1.246f)
// testFmv_w_x(f2b(7.234f))
testSgnj(1.0f, 2.0f)
testSgnj(1.5f, 2.0f)
testSgnj(1.5f, 3.5f)
testSgnj(1.5f, 1.5f)
testSgnj(1.5f, -1.5f)
testSgnj(-1.5f, 1.5f)
testSgnj(-1.5f, -1.5f)
testSgnj(1.5f, -3.5f)
//TODO Test corner cases
for(signed <- List(false, true)) {
testI2f(17, signed)
testI2f(12, signed)
testI2f(512, signed)
testI2f(1, signed)
}
testI2f(-17, true)
testI2f(-12, true)
testI2f(-512, true)
testI2f(-1, true)
// waitUntil(cmdQueue.isEmpty)
// dut.clockDomain.waitSampling(1000)
// simFailure()
// simSuccess()
//TODO Test corner cases
testCmp(1.0f, 2.0f)
testCmp(1.5f, 2.0f)
testCmp(1.5f, 3.5f)
testCmp(1.5f, 1.5f)
testCmp(1.5f, -1.5f)
testCmp(-1.5f, 1.5f)
testCmp(-1.5f, -1.5f)
testCmp(1.5f, -3.5f)
//TODO Test corner cases
for(signed <- List(false, true)) {
testF2i(16.0f, signed)
testF2i(18.0f, signed)
testF2i(1200.0f, signed)
testF2i(1.0f, signed)
}
testF2i(-16.0f, true)
testF2i(-18.0f, true)
testF2i(-1200.0f, true)
testF2i(-1.0f, true)
testAdd(0.1f, 1.6f)
testSqrt(1.5625f)
testSqrt(1.5625f*2)
testSqrt(1.8f)
testSqrt(4.4f)
testSqrt(0.3f)
testSqrt(1.5625f*2)
testSqrt(b2f(0x3f7ffffe))
testSqrt(b2f(0x3f7fffff))
testSqrt(b2f(0x3f800000))
testSqrt(b2f(0x3f800001))
testSqrt(b2f(0x3f800002))
testSqrt(b2f(0x3f800003))
testMul(0.1f, 1.6f)
testFma(1.1f, 2.2f, 3.0f)
testDiv(1.0f, 1.1f)
testDiv(1.0f, 1.5f)
testDiv(1.0f, 1.9f)
testDiv(1.1f, 1.9f)
testDiv(1.0f, b2f(0x3f7ffffe))
testDiv(1.0f, b2f(0x3f7fffff))
testDiv(1.0f, b2f(0x3f800000))
testDiv(1.0f, b2f(0x3f800001))
testDiv(1.0f, b2f(0x3f800002))
for(i <- 0 until 1000){
testMul(randomFloat(), randomFloat())
}
for(i <- 0 until 1000){
testFma(randomFloat(), randomFloat(), randomFloat())
}
for(i <- 0 until 1000){
testDiv(randomFloat(), randomFloat())
}
for(i <- 0 until 1000){
testSqrt(Math.abs(randomFloat()))
}
for(i <- 0 until 1000){
testCmp(randomFloat(), randomFloat())
}
for(i <- 0 until 1000){
val tests = ArrayBuffer[() => Unit]()
tests += (() =>{testAdd(randomFloat(), randomFloat())})
tests += (() =>{testMul(randomFloat(), randomFloat())})
tests += (() =>{testFma(randomFloat(), randomFloat(), randomFloat())})
tests += (() =>{testDiv(randomFloat(), randomFloat())})
tests += (() =>{testSqrt(randomFloat().abs)})
tests += (() =>{testCmp(randomFloat(), randomFloat())})
// tests += (() =>{testFmv_x_w(randomFloat())})
// tests += (() =>{testFmv_w_x(f2b(randomFloat()))})
// tests += (() =>{testMin(randomFloat(), randomFloat())})
tests += (() =>{testSgnj(randomFloat(), randomFloat())})
tests.randomPick().apply()
}
for(i <- 0 until 1000) f32Tests.randomPick()()
waitUntil(cpu.rspQueue.isEmpty)
}