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25 Commits
Author SHA1 Message Date
Irmen de Jong b68f141568 some more old code cleanups 2019-10-21 00:12:26 +02:00
Irmen de Jong b5d1e8653d tiny cleanups 2019-10-20 23:52:26 +02:00
Irmen de Jong f6d4c90dea improved number-to-decimal routines 2019-09-23 20:44:41 +02:00
Irmen de Jong b5b24636ae removed sim65 because it was moved to a separate repository 2019-09-11 02:24:44 +02:00
Irmen de Jong 9dedbbf47c use more modern java date/time api 2019-09-10 01:29:33 +02:00
Irmen de Jong c493c3e5c6 implemented IRQ handling 2019-09-09 23:28:41 +02:00
Irmen de Jong 61d4ca1d24 added functional test files to git 2019-09-09 19:57:51 +02:00
Irmen de Jong 2cf9af4a6e implemented sim timer and clock 2019-09-09 04:51:18 +02:00
Irmen de Jong bdcd10512f 6502 simulator passes all tests for regular opcodes 2019-09-09 00:27:06 +02:00
Irmen de Jong fec8db6a75 fixed sbc and adc 2019-09-08 22:35:08 +02:00
Irmen de Jong b400010426 separated the 6502 test suite into separate unit tests 2019-09-08 19:11:06 +02:00
Irmen de Jong 28109a39ac clean up of c64 tests 2019-09-08 17:19:40 +02:00
Irmen de Jong 651f0ec445 fixed IZY addressing mode address calc
added test harness for Wolfgang Lorenz's 6502 test suite
2019-09-08 16:40:46 +02:00
Irmen de Jong e61d3df380 added missing testfiles 2019-09-06 01:09:23 +02:00
Irmen de Jong 15710207b2 fixed bcd (but the bcd test code still fails, strange) 2019-09-06 00:38:48 +02:00
Irmen de Jong adfddddac6 attempt to fix bcd 2019-09-05 21:38:40 +02:00
Irmen de Jong e46982f652 fixes 2019-09-05 01:41:48 +02:00
Irmen de Jong 900c2aea23 fixed all instructions except BCD arithmetic 2019-09-05 01:26:01 +02:00
Irmen de Jong 42f8e98cab cpu unit test suite ported from Py65 2019-09-04 22:23:31 +02:00
Irmen de Jong bed0e33b4f unit test 2019-09-04 02:41:09 +02:00
Irmen de Jong 8d6542905d beginnings of 6502 cpu simulator 2019-09-03 23:58:46 +02:00
Irmen de Jong 39798a1a4f todos 2019-08-29 22:31:29 +02:00
Irmen de Jong befe4b8e9f try to fix windows path issue with drive letter 2019-08-27 01:02:31 +02:00
Irmen de Jong 772e48105e fixed some type cast compiler errors in for loops 2019-08-26 23:38:59 +02:00
Irmen de Jong 9afe451b8d fix build script to target jdk 1.8 2019-08-26 21:27:45 +02:00
42 changed files with 497 additions and 7378 deletions

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+10
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@@ -1,6 +1,16 @@
<component name="InspectionProjectProfileManager">
<profile version="1.0">
<option name="myName" value="Project Default" />
<inspection_tool class="DuplicatedCode" enabled="true" level="WEAK WARNING" enabled_by_default="true">
<Languages>
<language minSize="100" isEnabled="false" name="JavaScript" />
<language isEnabled="false" name="Groovy" />
<language isEnabled="false" name="Style Sheets" />
<language minSize="70" name="Kotlin" />
<language isEnabled="false" name="TypeScript" />
<language isEnabled="false" name="ActionScript" />
</Languages>
</inspection_tool>
<inspection_tool class="SpellCheckingInspection" enabled="true" level="TYPO" enabled_by_default="true">
<option name="processCode" value="false" />
<option name="processLiterals" value="true" />
+1 -1
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@@ -2,7 +2,7 @@
<project version="4">
<component name="ProjectModuleManager">
<modules>
<module fileurl="file://$PROJECT_DIR$/DeprecatedStackVm/DeprecatedStackVm.iml" filepath="$PROJECT_DIR$/DeprecatedStackVm/DeprecatedStackVm.iml" />
<module fileurl="file://$PROJECT_DIR$/OldCodeGen/OldCodeGen.iml" filepath="$PROJECT_DIR$/OldCodeGen/OldCodeGen.iml" />
<module fileurl="file://$PROJECT_DIR$/compiler/compiler.iml" filepath="$PROJECT_DIR$/compiler/compiler.iml" />
<module fileurl="file://$PROJECT_DIR$/docs/docs.iml" filepath="$PROJECT_DIR$/docs/docs.iml" />
<module fileurl="file://$PROJECT_DIR$/examples/examples.iml" filepath="$PROJECT_DIR$/examples/examples.iml" />
Generated
+1 -1
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@@ -3,4 +3,4 @@
<component name="VcsDirectoryMappings">
<mapping directory="$PROJECT_DIR$" vcs="Git" />
</component>
</project>
</project>
File diff suppressed because it is too large. Load diff
@@ -1,51 +0,0 @@
package compiler.intermediate
import prog8.vm.RuntimeValue
import prog8.vm.stackvm.Syscall
open class Instruction(val opcode: Opcode,
val arg: RuntimeValue? = null,
val arg2: RuntimeValue? = null,
val callLabel: String? = null,
val callLabel2: String? = null)
{
var branchAddress: Int? = null
override fun toString(): String {
val argStr = arg?.toString() ?: ""
val result =
when {
opcode== Opcode.LINE -> "_line $callLabel"
opcode== Opcode.INLINE_ASSEMBLY -> {
// inline assembly is not written out (it can't be processed as intermediate language)
// instead, it is converted into a system call that can be intercepted by the vm
if(callLabel!=null)
"syscall SYSASM.$callLabel\n return"
else
"inline_assembly"
}
opcode== Opcode.INCLUDE_FILE -> {
"include_file \"$callLabel\" $arg $arg2"
}
opcode== Opcode.SYSCALL -> {
val syscall = Syscall.values().find { it.callNr==arg!!.numericValue() }
"syscall $syscall"
}
opcode in opcodesWithVarArgument -> {
// opcodes that manipulate a variable
"${opcode.name.toLowerCase()} ${callLabel?:""} ${callLabel2?:""}".trimEnd()
}
callLabel==null -> "${opcode.name.toLowerCase()} $argStr"
else -> "${opcode.name.toLowerCase()} $callLabel $argStr"
}
.trimEnd()
return " $result"
}
}
class LabelInstr(val name: String, val asmProc: Boolean) : Instruction(Opcode.NOP, null, null) {
override fun toString(): String {
return "\n$name:"
}
}
@@ -1,548 +0,0 @@
package compiler.intermediate
import prog8.ast.antlr.escape
import prog8.ast.base.*
import prog8.ast.expressions.NumericLiteralValue
import prog8.ast.expressions.ReferenceLiteralValue
import prog8.ast.statements.StructDecl
import prog8.ast.statements.VarDecl
import prog8.ast.statements.ZeropageWish
import prog8.compiler.CompilerException
import prog8.compiler.HeapValues
import prog8.compiler.Zeropage
import prog8.compiler.ZeropageDepletedError
import prog8.vm.RuntimeValue
import java.io.PrintStream
import java.nio.file.Path
class IntermediateProgram(val name: String, var loadAddress: Int, val heap: HeapValues, val source: Path) {
class VariableParameters (val zp: ZeropageWish, val memberOfStruct: StructDecl?)
class Variable(val scopedname: String, val value: RuntimeValue, val params: VariableParameters)
class ProgramBlock(val name: String,
var address: Int?,
val instructions: MutableList<Instruction> = mutableListOf(),
val variables: MutableList<Variable> = mutableListOf(),
val memoryPointers: MutableMap<String, Pair<Int, DataType>> = mutableMapOf(),
val labels: MutableMap<String, Instruction> = mutableMapOf(), // names are fully scoped
val force_output: Boolean)
val allocatedZeropageVariables = mutableMapOf<String, Pair<Int, DataType>>()
val blocks = mutableListOf<ProgramBlock>()
val memory = mutableMapOf<Int, List<RuntimeValue>>()
private lateinit var currentBlock: ProgramBlock
fun allocateZeropage(zeropage: Zeropage) { // TODO not used anymore???
// allocates all @zp marked variables on the zeropage (for all blocks, as long as there is space in the ZP)
var notAllocated = 0
for(block in blocks) {
val zpVariables = block.variables.filter { it.params.zp==ZeropageWish.REQUIRE_ZEROPAGE || it.params.zp==ZeropageWish.PREFER_ZEROPAGE }
if (zpVariables.isNotEmpty()) {
for (variable in zpVariables) {
if(variable.params.zp==ZeropageWish.NOT_IN_ZEROPAGE || variable.params.memberOfStruct!=null)
throw CompilerException("zp conflict")
try {
val address = zeropage.allocate(variable.scopedname, variable.value.type, null)
allocatedZeropageVariables[variable.scopedname] = Pair(address, variable.value.type)
} catch (x: ZeropageDepletedError) {
printWarning(x.toString() + " variable ${variable.scopedname} type ${variable.value.type}")
notAllocated++
}
}
}
}
if(notAllocated>0)
printWarning("$notAllocated variables marked for Zeropage could not be allocated there")
}
fun optimize() {
println("Optimizing stackVM code...")
// remove nops (that are not a label)
for (blk in blocks) {
blk.instructions.removeIf { it.opcode== Opcode.NOP && it !is LabelInstr }
}
optimizeDataConversionAndUselessDiscards()
optimizeVariableCopying()
optimizeMultipleSequentialLineInstrs()
optimizeCallReturnIntoJump()
optimizeConditionalBranches()
// todo: add more optimizations to intermediate code!
optimizeRemoveNops() // must be done as the last step
optimizeMultipleSequentialLineInstrs() // once more
optimizeRemoveNops() // once more
}
private fun optimizeConditionalBranches() {
// conditional branches that consume the value on the stack
// sometimes these are just constant values, so we can statically determine the branch
// or, they are preceded by a NOT instruction so we can simply remove that and flip the branch condition
val pushvalue = setOf(Opcode.PUSH_BYTE, Opcode.PUSH_WORD)
val notvalue = setOf(Opcode.NOT_BYTE, Opcode.NOT_WORD)
val branchOpcodes = setOf(Opcode.JZ, Opcode.JNZ, Opcode.JZW, Opcode.JNZW)
for(blk in blocks) {
val instructionsToReplace = mutableMapOf<Int, Instruction>()
blk.instructions.asSequence().withIndex().filter {it.value.opcode!= Opcode.LINE }.windowed(2).toList().forEach {
if (it[1].value.opcode in branchOpcodes) {
if (it[0].value.opcode in pushvalue) {
val value = it[0].value.arg!!.asBoolean
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
val replacement: Instruction =
if (value) {
when (it[1].value.opcode) {
Opcode.JNZ -> Instruction(Opcode.JUMP, callLabel = it[1].value.callLabel)
Opcode.JNZW -> Instruction(Opcode.JUMP, callLabel = it[1].value.callLabel)
else -> Instruction(Opcode.NOP)
}
} else {
when (it[1].value.opcode) {
Opcode.JZ -> Instruction(Opcode.JUMP, callLabel = it[1].value.callLabel)
Opcode.JZW -> Instruction(Opcode.JUMP, callLabel = it[1].value.callLabel)
else -> Instruction(Opcode.NOP)
}
}
instructionsToReplace[it[1].index] = replacement
}
else if (it[0].value.opcode in notvalue) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
val replacement: Instruction =
when (it[1].value.opcode) {
Opcode.JZ -> Instruction(Opcode.JNZ, callLabel = it[1].value.callLabel)
Opcode.JZW -> Instruction(Opcode.JNZW, callLabel = it[1].value.callLabel)
Opcode.JNZ -> Instruction(Opcode.JZ, callLabel = it[1].value.callLabel)
Opcode.JNZW -> Instruction(Opcode.JZW, callLabel = it[1].value.callLabel)
else -> Instruction(Opcode.NOP)
}
instructionsToReplace[it[1].index] = replacement
}
}
}
for (rins in instructionsToReplace) {
blk.instructions[rins.key] = rins.value
}
}
}
private fun optimizeRemoveNops() {
// remove nops (that are not a label)
for (blk in blocks)
blk.instructions.removeIf { it.opcode== Opcode.NOP && it !is LabelInstr }
}
private fun optimizeCallReturnIntoJump() {
// replaces call X followed by return, by jump X
for(blk in blocks) {
val instructionsToReplace = mutableMapOf<Int, Instruction>()
blk.instructions.asSequence().withIndex().filter {it.value.opcode!= Opcode.LINE }.windowed(2).toList().forEach {
if(it[0].value.opcode== Opcode.CALL && it[1].value.opcode== Opcode.RETURN) {
instructionsToReplace[it[1].index] = Instruction(Opcode.JUMP, callLabel = it[0].value.callLabel)
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
}
}
for (rins in instructionsToReplace) {
blk.instructions[rins.key] = rins.value
}
}
}
private fun optimizeMultipleSequentialLineInstrs() {
for(blk in blocks) {
val instructionsToReplace = mutableMapOf<Int, Instruction>()
blk.instructions.asSequence().withIndex().windowed(2).toList().forEach {
if (it[0].value.opcode == Opcode.LINE && it[1].value.opcode == Opcode.LINE)
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
}
for (rins in instructionsToReplace) {
blk.instructions[rins.key] = rins.value
}
}
}
private fun optimizeVariableCopying() {
for(blk in blocks) {
val instructionsToReplace = mutableMapOf<Int, Instruction>()
blk.instructions.asSequence().withIndex().windowed(2).toList().forEach {
when (it[0].value.opcode) {
Opcode.PUSH_VAR_BYTE ->
if (it[1].value.opcode == Opcode.POP_VAR_BYTE) {
if (it[0].value.callLabel == it[1].value.callLabel) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
instructionsToReplace[it[1].index] = Instruction(Opcode.NOP)
}
}
Opcode.PUSH_VAR_WORD ->
if (it[1].value.opcode == Opcode.POP_VAR_WORD) {
if (it[0].value.callLabel == it[1].value.callLabel) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
instructionsToReplace[it[1].index] = Instruction(Opcode.NOP)
}
}
Opcode.PUSH_VAR_FLOAT ->
if (it[1].value.opcode == Opcode.POP_VAR_FLOAT) {
if (it[0].value.callLabel == it[1].value.callLabel) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
instructionsToReplace[it[1].index] = Instruction(Opcode.NOP)
}
}
Opcode.PUSH_MEM_B, Opcode.PUSH_MEM_UB ->
if(it[1].value.opcode == Opcode.POP_MEM_BYTE) {
if(it[0].value.arg == it[1].value.arg) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
instructionsToReplace[it[1].index] = Instruction(Opcode.NOP)
}
}
Opcode.PUSH_MEM_W, Opcode.PUSH_MEM_UW ->
if(it[1].value.opcode == Opcode.POP_MEM_WORD) {
if(it[0].value.arg == it[1].value.arg) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
instructionsToReplace[it[1].index] = Instruction(Opcode.NOP)
}
}
Opcode.PUSH_MEM_FLOAT ->
if(it[1].value.opcode == Opcode.POP_MEM_FLOAT) {
if(it[0].value.arg == it[1].value.arg) {
instructionsToReplace[it[0].index] = Instruction(Opcode.NOP)
instructionsToReplace[it[1].index] = Instruction(Opcode.NOP)
}
}
else -> {}
}
}
for (rins in instructionsToReplace) {
blk.instructions[rins.key] = rins.value
}
}
}
private fun optimizeDataConversionAndUselessDiscards() {
// - push value followed by a data type conversion -> push the value in the correct type and remove the conversion
// - push something followed by a discard -> remove both
val instructionsToReplace = mutableMapOf<Int, Instruction>()
fun optimizeDiscardAfterPush(index0: Int, index1: Int, ins1: Instruction) {
if (ins1.opcode == Opcode.DISCARD_FLOAT || ins1.opcode == Opcode.DISCARD_WORD || ins1.opcode == Opcode.DISCARD_BYTE) {
instructionsToReplace[index0] = Instruction(Opcode.NOP)
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
}
fun optimizeFloatConversion(index0: Int, index1: Int, ins1: Instruction) {
when (ins1.opcode) {
Opcode.DISCARD_FLOAT -> {
instructionsToReplace[index0] = Instruction(Opcode.NOP)
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.DISCARD_BYTE, Opcode.DISCARD_WORD -> throw CompilerException("invalid discard type following a float")
else -> throw CompilerException("invalid conversion opcode ${ins1.opcode} following a float")
}
}
fun optimizeWordConversion(index0: Int, ins0: Instruction, index1: Int, ins1: Instruction) {
when (ins1.opcode) {
Opcode.CAST_UW_TO_B, Opcode.CAST_W_TO_B -> {
val ins = Instruction(Opcode.PUSH_BYTE, ins0.arg!!.cast(DataType.BYTE))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_W_TO_UB, Opcode.CAST_UW_TO_UB -> {
val ins = Instruction(Opcode.PUSH_BYTE, RuntimeValue(DataType.UBYTE, ins0.arg!!.integerValue() and 255))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.MSB -> {
val ins = Instruction(Opcode.PUSH_BYTE, RuntimeValue(DataType.UBYTE, ins0.arg!!.integerValue() ushr 8 and 255))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_W_TO_F, Opcode.CAST_UW_TO_F -> {
val ins = Instruction(Opcode.PUSH_FLOAT, RuntimeValue(DataType.FLOAT, ins0.arg!!.integerValue().toDouble()))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_UW_TO_W -> {
val cv = ins0.arg!!.cast(DataType.WORD)
instructionsToReplace[index0] = Instruction(Opcode.PUSH_WORD, cv)
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_W_TO_UW -> {
val cv = ins0.arg!!.cast(DataType.UWORD)
instructionsToReplace[index0] = Instruction(Opcode.PUSH_WORD, cv)
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.DISCARD_WORD -> {
instructionsToReplace[index0] = Instruction(Opcode.NOP)
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.DISCARD_BYTE, Opcode.DISCARD_FLOAT -> throw CompilerException("invalid discard type following a byte")
else -> throw CompilerException("invalid conversion opcode ${ins1.opcode} following a word")
}
}
fun optimizeByteConversion(index0: Int, ins0: Instruction, index1: Int, ins1: Instruction) {
when (ins1.opcode) {
Opcode.CAST_B_TO_UB, Opcode.CAST_UB_TO_B,
Opcode.CAST_W_TO_B, Opcode.CAST_W_TO_UB,
Opcode.CAST_UW_TO_B, Opcode.CAST_UW_TO_UB -> instructionsToReplace[index1] = Instruction(Opcode.NOP)
Opcode.MSB -> throw CompilerException("msb of a byte")
Opcode.CAST_UB_TO_UW -> {
val ins = Instruction(Opcode.PUSH_WORD, RuntimeValue(DataType.UWORD, ins0.arg!!.integerValue()))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_B_TO_W -> {
val ins = Instruction(Opcode.PUSH_WORD, RuntimeValue(DataType.WORD, ins0.arg!!.integerValue()))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_B_TO_UW -> {
val ins = Instruction(Opcode.PUSH_WORD, ins0.arg!!.cast(DataType.UWORD))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_UB_TO_W -> {
val ins = Instruction(Opcode.PUSH_WORD, ins0.arg!!.cast(DataType.WORD))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_B_TO_F, Opcode.CAST_UB_TO_F -> {
val ins = Instruction(Opcode.PUSH_FLOAT, RuntimeValue(DataType.FLOAT, ins0.arg!!.integerValue().toDouble()))
instructionsToReplace[index0] = ins
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.CAST_W_TO_F, Opcode.CAST_UW_TO_F -> throw CompilerException("invalid conversion following a byte")
Opcode.DISCARD_BYTE -> {
instructionsToReplace[index0] = Instruction(Opcode.NOP)
instructionsToReplace[index1] = Instruction(Opcode.NOP)
}
Opcode.DISCARD_WORD, Opcode.DISCARD_FLOAT -> throw CompilerException("invalid discard type following a byte")
Opcode.MKWORD -> {}
else -> throw CompilerException("invalid conversion opcode ${ins1.opcode}")
}
}
for(blk in blocks) {
instructionsToReplace.clear()
val typeConversionOpcodes = setOf(
Opcode.MSB,
Opcode.MKWORD,
Opcode.CAST_UB_TO_B,
Opcode.CAST_UB_TO_UW,
Opcode.CAST_UB_TO_W,
Opcode.CAST_UB_TO_F,
Opcode.CAST_B_TO_UB,
Opcode.CAST_B_TO_UW,
Opcode.CAST_B_TO_W,
Opcode.CAST_B_TO_F,
Opcode.CAST_UW_TO_UB,
Opcode.CAST_UW_TO_B,
Opcode.CAST_UW_TO_W,
Opcode.CAST_UW_TO_F,
Opcode.CAST_W_TO_UB,
Opcode.CAST_W_TO_B,
Opcode.CAST_W_TO_UW,
Opcode.CAST_W_TO_F,
Opcode.CAST_F_TO_UB,
Opcode.CAST_F_TO_B,
Opcode.CAST_F_TO_UW,
Opcode.CAST_F_TO_W,
Opcode.DISCARD_BYTE,
Opcode.DISCARD_WORD,
Opcode.DISCARD_FLOAT
)
blk.instructions.asSequence().withIndex().windowed(2).toList().forEach {
if (it[1].value.opcode in typeConversionOpcodes) {
when (it[0].value.opcode) {
Opcode.PUSH_BYTE -> optimizeByteConversion(it[0].index, it[0].value, it[1].index, it[1].value)
Opcode.PUSH_WORD -> optimizeWordConversion(it[0].index, it[0].value, it[1].index, it[1].value)
Opcode.PUSH_FLOAT -> optimizeFloatConversion(it[0].index, it[1].index, it[1].value)
Opcode.PUSH_VAR_FLOAT,
Opcode.PUSH_VAR_WORD,
Opcode.PUSH_VAR_BYTE,
Opcode.PUSH_MEM_B, Opcode.PUSH_MEM_UB,
Opcode.PUSH_MEM_W, Opcode.PUSH_MEM_UW,
Opcode.PUSH_MEM_FLOAT -> optimizeDiscardAfterPush(it[0].index, it[1].index, it[1].value)
else -> {
}
}
}
}
for (rins in instructionsToReplace) {
blk.instructions[rins.key] = rins.value
}
}
}
fun variable(scopedname: String, decl: VarDecl) {
when(decl.type) {
VarDeclType.VAR -> {
// var decls that are defined inside of a StructDecl are skipped in the output
// because every occurrence of the members will have a separate mangled vardecl for that occurrence
if(decl.parent is StructDecl)
return
val valueparams = VariableParameters(decl.zeropage, decl.struct)
val value = when(decl.datatype) {
in NumericDatatypes -> {
RuntimeValue(decl.datatype, (decl.value as NumericLiteralValue).number)
}
in StringDatatypes -> {
val litval = (decl.value as ReferenceLiteralValue)
if(litval.heapId==null)
throw CompilerException("string should already be in the heap")
RuntimeValue(decl.datatype, heapId = litval.heapId)
}
in ArrayDatatypes -> {
val litval = (decl.value as? ReferenceLiteralValue)
if(litval!=null && litval.heapId==null)
throw CompilerException("array should already be in the heap")
if(litval!=null){
RuntimeValue(decl.datatype, heapId = litval.heapId)
} else {
throw CompilerException("initialization value expected")
}
}
DataType.STRUCT -> {
// struct variables have been flattened already
return
}
else -> throw CompilerException("weird datatype")
}
currentBlock.variables.add(Variable(scopedname, value, valueparams))
}
VarDeclType.MEMORY -> {
// note that constants are all folded away, but assembly code may still refer to them
val lv = decl.value as NumericLiteralValue
if(lv.type!= DataType.UWORD && lv.type!= DataType.UBYTE)
throw CompilerException("expected integer memory address $lv")
currentBlock.memoryPointers[scopedname] = Pair(lv.number.toInt(), decl.datatype)
}
VarDeclType.CONST -> {
// note that constants are all folded away, but assembly code may still refer to them (if their integers)
// floating point constants are not generated at all!!
val lv = decl.value as NumericLiteralValue
if(lv.type in IntegerDatatypes)
currentBlock.memoryPointers[scopedname] = Pair(lv.number.toInt(), decl.datatype)
}
}
}
fun instr(opcode: Opcode, arg: RuntimeValue? = null, arg2: RuntimeValue? = null, callLabel: String? = null, callLabel2: String? = null) {
currentBlock.instructions.add(Instruction(opcode, arg, arg2, callLabel, callLabel2))
}
fun label(labelname: String, asmProc: Boolean=false) {
val instr = LabelInstr(labelname, asmProc)
currentBlock.instructions.add(instr)
currentBlock.labels[labelname] = instr
}
fun line(position: Position) {
currentBlock.instructions.add(Instruction(Opcode.LINE, callLabel = "${position.line} ${position.file}"))
}
fun removeLastInstruction() {
currentBlock.instructions.removeAt(currentBlock.instructions.lastIndex)
}
fun memoryPointer(name: String, address: Int, datatype: DataType) {
currentBlock.memoryPointers[name] = Pair(address, datatype)
}
fun newBlock(name: String, address: Int?, options: Set<String>) {
currentBlock = ProgramBlock(name, address, force_output = "force_output" in options)
blocks.add(currentBlock)
}
fun writeCode(out: PrintStream, embeddedLabels: Boolean=true) {
out.println("; stackVM program code for '$name'")
writeMemory(out)
writeHeap(out)
for(blk in blocks) {
writeBlock(out, blk, embeddedLabels)
}
}
private fun writeHeap(out: PrintStream) {
out.println("%heap")
heap.allEntries().forEach {
out.print("${it.key} ${it.value.type.name.toLowerCase()} ")
when {
it.value.str!=null ->
out.println("\"${escape(it.value.str!!)}\"")
it.value.array!=null -> {
// this array can contain both normal integers, and pointer values
val arrayvalues = it.value.array!!.map { av ->
when {
av.integer!=null -> av.integer.toString()
av.addressOf!=null -> {
if(av.addressOf.scopedname==null)
throw CompilerException("AddressOf scopedname should have been set")
else
"&${av.addressOf.scopedname}"
}
else -> throw CompilerException("weird array value")
}
}
out.println(arrayvalues)
}
it.value.doubleArray!=null ->
out.println(it.value.doubleArray!!.toList())
else -> throw CompilerException("invalid heap entry $it")
}
}
out.println("%end_heap")
}
private fun writeBlock(out: PrintStream, blk: ProgramBlock, embeddedLabels: Boolean) {
out.println("\n%block ${blk.name} ${blk.address?.toString(16) ?: ""}")
out.println("%variables")
for (variable in blk.variables) {
if(variable.params.zp==ZeropageWish.REQUIRE_ZEROPAGE)
throw CompilerException("zp conflict")
val valuestr = variable.value.toString()
val struct = if(variable.params.memberOfStruct==null) "" else "struct=${variable.params.memberOfStruct.name}"
out.println("${variable.scopedname} ${variable.value.type.name.toLowerCase()} $valuestr zp=${variable.params.zp} s=$struct")
}
out.println("%end_variables")
out.println("%memorypointers")
for (iconst in blk.memoryPointers) {
out.println("${iconst.key} ${iconst.value.second.name.toLowerCase()} uw:${iconst.value.first.toString(16)}")
}
out.println("%end_memorypointers")
out.println("%instructions")
val labels = blk.labels.entries.associateBy({ it.value }) { it.key }
for (instr in blk.instructions) {
if (!embeddedLabels) {
val label = labels[instr]
if (label != null)
out.println("$label:")
} else {
out.println(instr)
}
}
out.println("%end_instructions")
out.println("%end_block")
}
private fun writeMemory(out: PrintStream) {
out.println("%memory")
if (memory.isNotEmpty())
TODO("add support for writing/reading initial memory values")
out.println("%end_memory")
}
}
@@ -1,291 +0,0 @@
package compiler.intermediate
enum class Opcode {
// pushing values on the (evaluation) stack
PUSH_BYTE, // push byte value
PUSH_WORD, // push word value (or 'address' of string / array)
PUSH_FLOAT, // push float value
PUSH_MEM_B, // push byte value from memory to stack
PUSH_MEM_UB, // push unsigned byte value from memory to stack
PUSH_MEM_W, // push word value from memory to stack
PUSH_MEM_UW, // push unsigned word value from memory to stack
PUSH_MEM_FLOAT, // push float value from memory to stack
PUSH_MEMREAD, // push memory value from address that's on the stack
PUSH_VAR_BYTE, // push byte variable (ubyte, byte)
PUSH_VAR_WORD, // push word variable (uword, word)
PUSH_VAR_FLOAT, // push float variable
PUSH_REGAX_WORD, // push registers A/X as a 16-bit word
PUSH_REGAY_WORD, // push registers A/Y as a 16-bit word
PUSH_REGXY_WORD, // push registers X/Y as a 16-bit word
PUSH_ADDR_HEAPVAR, // push the address of the variable that's on the heap (string or array)
DUP_B, // duplicate the top byte on the stack
DUP_W, // duplicate the top word on the stack
// popping values off the (evaluation) stack, possibly storing them in another location
DISCARD_BYTE, // discard top byte value
DISCARD_WORD, // discard top word value
DISCARD_FLOAT, // discard top float value
POP_MEM_BYTE, // pop (u)byte value into destination memory address
POP_MEM_WORD, // pop (u)word value into destination memory address
POP_MEM_FLOAT, // pop float value into destination memory address
POP_MEMWRITE, // pop address and byte stack and write the byte to the memory address
POP_VAR_BYTE, // pop (u)byte value into variable
POP_VAR_WORD, // pop (u)word value into variable
POP_VAR_FLOAT, // pop float value into variable
POP_REGAX_WORD, // pop uword from stack into A/X registers
POP_REGAY_WORD, // pop uword from stack into A/Y registers
POP_REGXY_WORD, // pop uword from stack into X/Y registers
// numeric arithmetic
ADD_UB,
ADD_B,
ADD_UW,
ADD_W,
ADD_F,
SUB_UB,
SUB_B,
SUB_UW,
SUB_W,
SUB_F,
MUL_UB,
MUL_B,
MUL_UW,
MUL_W,
MUL_F,
IDIV_UB,
IDIV_B,
IDIV_UW,
IDIV_W,
DIV_F,
REMAINDER_UB, // signed remainder is undefined/unimplemented
REMAINDER_UW, // signed remainder is undefined/unimplemented
POW_F,
NEG_B,
NEG_W,
NEG_F,
ABS_B,
ABS_W,
ABS_F,
// bit shifts and bitwise arithmetic
SHIFTEDL_BYTE, // shifts stack value rather than in-place mem/var
SHIFTEDL_WORD, // shifts stack value rather than in-place mem/var
SHIFTEDR_UBYTE, // shifts stack value rather than in-place mem/var
SHIFTEDR_SBYTE, // shifts stack value rather than in-place mem/var
SHIFTEDR_UWORD, // shifts stack value rather than in-place mem/var
SHIFTEDR_SWORD, // shifts stack value rather than in-place mem/var
SHL_BYTE,
SHL_WORD,
SHL_MEM_BYTE,
SHL_MEM_WORD,
SHL_VAR_BYTE,
SHL_VAR_WORD,
SHR_UBYTE,
SHR_SBYTE,
SHR_UWORD,
SHR_SWORD,
SHR_MEM_UBYTE,
SHR_MEM_SBYTE,
SHR_MEM_UWORD,
SHR_MEM_SWORD,
SHR_VAR_UBYTE,
SHR_VAR_SBYTE,
SHR_VAR_UWORD,
SHR_VAR_SWORD,
ROL_BYTE,
ROL_WORD,
ROL_MEM_BYTE,
ROL_MEM_WORD,
ROL_VAR_BYTE,
ROL_VAR_WORD,
ROR_BYTE,
ROR_WORD,
ROR_MEM_BYTE,
ROR_MEM_WORD,
ROR_VAR_BYTE,
ROR_VAR_WORD,
ROL2_BYTE,
ROL2_WORD,
ROL2_MEM_BYTE,
ROL2_MEM_WORD,
ROL2_VAR_BYTE,
ROL2_VAR_WORD,
ROR2_BYTE,
ROR2_WORD,
ROR2_MEM_BYTE,
ROR2_MEM_WORD,
ROR2_VAR_BYTE,
ROR2_VAR_WORD,
BITAND_BYTE,
BITAND_WORD,
BITOR_BYTE,
BITOR_WORD,
BITXOR_BYTE,
BITXOR_WORD,
INV_BYTE,
INV_WORD,
// numeric type conversions
MSB, // note: lsb is equivalent to CAST_UW_TO_UB or CAST_W_TO_UB
MKWORD, // create a word from lsb + msb
CAST_UB_TO_B,
CAST_UB_TO_UW,
CAST_UB_TO_W,
CAST_UB_TO_F,
CAST_B_TO_UB,
CAST_B_TO_UW,
CAST_B_TO_W,
CAST_B_TO_F,
CAST_W_TO_UB,
CAST_W_TO_B,
CAST_W_TO_UW,
CAST_W_TO_F,
CAST_UW_TO_UB,
CAST_UW_TO_B,
CAST_UW_TO_W,
CAST_UW_TO_F,
CAST_F_TO_UB,
CAST_F_TO_B,
CAST_F_TO_UW,
CAST_F_TO_W,
// logical operations
AND_BYTE,
AND_WORD,
OR_BYTE,
OR_WORD,
XOR_BYTE,
XOR_WORD,
NOT_BYTE,
NOT_WORD,
// increment, decrement
INC_VAR_B,
INC_VAR_UB,
INC_VAR_W,
INC_VAR_UW,
INC_VAR_F,
DEC_VAR_B,
DEC_VAR_UB,
DEC_VAR_W,
DEC_VAR_UW,
DEC_VAR_F,
INC_MEMORY, // increment direct address
DEC_MEMORY, // decrement direct address
POP_INC_MEMORY, // increment address from stack
POP_DEC_MEMORY, // decrement address from address
// comparisons
LESS_B,
LESS_UB,
LESS_W,
LESS_UW,
LESS_F,
GREATER_B,
GREATER_UB,
GREATER_W,
GREATER_UW,
GREATER_F,
LESSEQ_B,
LESSEQ_UB,
LESSEQ_W,
LESSEQ_UW,
LESSEQ_F,
GREATEREQ_B,
GREATEREQ_UB,
GREATEREQ_W,
GREATEREQ_UW,
GREATEREQ_F,
EQUAL_BYTE,
EQUAL_WORD,
EQUAL_F,
NOTEQUAL_BYTE,
NOTEQUAL_WORD,
NOTEQUAL_F,
CMP_B, // sets processor status flags based on comparison, instead of pushing a result value
CMP_UB, // sets processor status flags based on comparison, instead of pushing a result value
CMP_W, // sets processor status flags based on comparison, instead of pushing a result value
CMP_UW, // sets processor status flags based on comparison, instead of pushing a result value
// array access and simple manipulations
READ_INDEXED_VAR_BYTE,
READ_INDEXED_VAR_WORD,
READ_INDEXED_VAR_FLOAT,
WRITE_INDEXED_VAR_BYTE,
WRITE_INDEXED_VAR_WORD,
WRITE_INDEXED_VAR_FLOAT,
INC_INDEXED_VAR_B,
INC_INDEXED_VAR_UB,
INC_INDEXED_VAR_W,
INC_INDEXED_VAR_UW,
INC_INDEXED_VAR_FLOAT,
DEC_INDEXED_VAR_B,
DEC_INDEXED_VAR_UB,
DEC_INDEXED_VAR_W,
DEC_INDEXED_VAR_UW,
DEC_INDEXED_VAR_FLOAT,
// branching, without consuming a value from the stack
JUMP,
BCS, // branch if carry set
BCC, // branch if carry clear
BZ, // branch if zero flag
BNZ, // branch if not zero flag
BNEG, // branch if negative flag
BPOS, // branch if not negative flag
BVS, // branch if overflow flag
BVC, // branch if not overflow flag
// branching, based on value on the stack (which is consumed)
JZ, // branch if value is zero (byte)
JNZ, // branch if value is not zero (byte)
JZW, // branch if value is zero (word)
JNZW, // branch if value is not zero (word)
// subroutines
CALL,
RETURN,
SYSCALL,
START_PROCDEF,
END_PROCDEF,
// misc
SEC, // set carry status flag NOTE: is mostly fake, carry flag is not affected by any numeric operations
CLC, // clear carry status flag NOTE: is mostly fake, carry flag is not affected by any numeric operations
SEI, // set irq-disable status flag
CLI, // clear irq-disable status flag
CARRY_TO_A, // load var/register A with carry status bit
RSAVE, // save all internal registers and status flags
RSAVEX, // save just X (the evaluation stack pointer)
RRESTORE, // restore all internal registers and status flags
RRESTOREX, // restore just X (the evaluation stack pointer)
NOP, // do nothing
BREAKPOINT, // breakpoint
TERMINATE, // end the program
LINE, // track source file line number
INLINE_ASSEMBLY, // container to hold inline raw assembly code
INCLUDE_FILE // directive to include a file at this position in the memory of the program
}
val opcodesWithVarArgument = setOf(
Opcode.INC_VAR_B, Opcode.INC_VAR_W, Opcode.DEC_VAR_B, Opcode.DEC_VAR_W,
Opcode.INC_VAR_UB, Opcode.INC_VAR_UW, Opcode.DEC_VAR_UB, Opcode.DEC_VAR_UW,
Opcode.SHR_VAR_SBYTE, Opcode.SHR_VAR_UBYTE, Opcode.SHR_VAR_SWORD, Opcode.SHR_VAR_UWORD,
Opcode.SHL_VAR_BYTE, Opcode.SHL_VAR_WORD,
Opcode.ROL_VAR_BYTE, Opcode.ROL_VAR_WORD, Opcode.ROR_VAR_BYTE, Opcode.ROR_VAR_WORD,
Opcode.ROL2_VAR_BYTE, Opcode.ROL2_VAR_WORD, Opcode.ROR2_VAR_BYTE, Opcode.ROR2_VAR_WORD,
Opcode.POP_VAR_BYTE, Opcode.POP_VAR_WORD, Opcode.POP_VAR_FLOAT,
Opcode.PUSH_VAR_BYTE, Opcode.PUSH_VAR_WORD, Opcode.PUSH_VAR_FLOAT, Opcode.PUSH_ADDR_HEAPVAR,
Opcode.READ_INDEXED_VAR_BYTE, Opcode.READ_INDEXED_VAR_WORD, Opcode.READ_INDEXED_VAR_FLOAT,
Opcode.WRITE_INDEXED_VAR_BYTE, Opcode.WRITE_INDEXED_VAR_WORD, Opcode.WRITE_INDEXED_VAR_FLOAT,
Opcode.INC_INDEXED_VAR_UB, Opcode.INC_INDEXED_VAR_B, Opcode.INC_INDEXED_VAR_UW,
Opcode.INC_INDEXED_VAR_W, Opcode.INC_INDEXED_VAR_FLOAT,
Opcode.DEC_INDEXED_VAR_UB, Opcode.DEC_INDEXED_VAR_B, Opcode.DEC_INDEXED_VAR_UW,
Opcode.DEC_INDEXED_VAR_W, Opcode.DEC_INDEXED_VAR_FLOAT
)
val branchOpcodes = setOf(
Opcode.BCS, Opcode.BCC, Opcode.BZ, Opcode.BNZ,
Opcode.BNEG, Opcode.BPOS, Opcode.BVS, Opcode.BVC
)
@@ -1,47 +0,0 @@
package prog8.vm.stackvm
import prog8.printSoftwareHeader
import prog8.vm.astvm.ScreenDialog
import java.awt.EventQueue
import javax.swing.Timer
import kotlin.system.exitProcess
fun main(args: Array<String>) {
stackVmMain(args)
}
fun stackVmMain(args: Array<String>) {
printSoftwareHeader("StackVM")
if(args.size != 1) {
System.err.println("requires one argument: name of stackvm sourcecode file")
exitProcess(1)
}
val program = Program.load(args.first())
val vm = StackVm(traceOutputFile = null)
val dialog = ScreenDialog("StackVM")
vm.load(program, dialog.canvas)
EventQueue.invokeLater {
dialog.pack()
dialog.isVisible = true
dialog.start()
val programTimer = Timer(10) { a ->
try {
vm.step()
} catch(bp: VmBreakpointException) {
println("Breakpoint: execution halted. Press enter to resume.")
readLine()
} catch (tx: VmTerminationException) {
println("Execution halted: ${tx.message}")
(a.source as Timer).stop()
}
}
val irqTimer = Timer(1000/60) { a -> vm.irq(a.`when`) }
programTimer.start()
irqTimer.start()
}
}
@@ -1,302 +0,0 @@
package prog8.vm.stackvm
import prog8.ast.antlr.unescape
import prog8.ast.base.*
import prog8.ast.expressions.AddressOf
import prog8.ast.expressions.IdentifierReference
import prog8.compiler.HeapValues
import prog8.compiler.IntegerOrAddressOf
import prog8.compiler.intermediate.Instruction
import prog8.compiler.intermediate.LabelInstr
import prog8.compiler.intermediate.Opcode
import prog8.compiler.intermediate.opcodesWithVarArgument
import prog8.vm.RuntimeValue
import java.io.File
import java.util.*
import java.util.regex.Pattern
class Program (val name: String,
val program: MutableList<Instruction>,
val variables: Map<String, RuntimeValue>,
val memoryPointers: Map<String, Pair<Int, DataType>>,
val labels: Map<String, Int>,
val memory: Map<Int, List<RuntimeValue>>,
val heap: HeapValues)
{
init {
// add end of program marker and some sentinel instructions, to correctly connect all others
program.add(LabelInstr("____program_end", false))
program.add(Instruction(Opcode.TERMINATE))
program.add(Instruction(Opcode.NOP))
}
companion object {
fun load(filename: String): Program {
val lines = File(filename).readLines().withIndex().iterator()
val memory = mutableMapOf<Int, List<RuntimeValue>>()
val heap = HeapValues()
val program = mutableListOf<Instruction>()
val variables = mutableMapOf<String, RuntimeValue>()
val memoryPointers = mutableMapOf<String, Pair<Int, DataType>>()
val labels = mutableMapOf<String, Int>()
while(lines.hasNext()) {
val (lineNr, line) = lines.next()
if(line.startsWith(';') || line.isEmpty())
continue
else if(line=="%memory")
loadMemory(lines, memory)
else if(line=="%heap")
loadHeap(lines, heap)
else if(line.startsWith("%block "))
loadBlock(lines, heap, program, variables, memoryPointers, labels)
else throw VmExecutionException("syntax error at line ${lineNr + 1}")
}
return Program(filename, program, variables, memoryPointers, labels, memory, heap)
}
private fun loadBlock(lines: Iterator<IndexedValue<String>>,
heap: HeapValues,
program: MutableList<Instruction>,
variables: MutableMap<String, RuntimeValue>,
memoryPointers: MutableMap<String, Pair<Int, DataType>>,
labels: MutableMap<String, Int>)
{
while(true) {
val (_, line) = lines.next()
if(line.isEmpty())
continue
else if(line=="%end_block")
return
else if(line=="%variables")
loadVars(lines, variables)
else if(line=="%memorypointers")
loadMemoryPointers(lines, memoryPointers, heap)
else if(line=="%instructions") {
val (blockInstructions, blockLabels) = loadInstructions(lines, heap)
val baseIndex = program.size
program.addAll(blockInstructions)
val labelsWithIndex = blockLabels.mapValues { baseIndex+blockInstructions.indexOf(it.value) }
labels.putAll(labelsWithIndex)
}
}
}
private fun loadHeap(lines: Iterator<IndexedValue<String>>, heap: HeapValues) {
val splitpattern = Pattern.compile("\\s+")
val heapvalues = mutableListOf<Triple<Int, DataType, String>>()
while(true) {
val (_, line) = lines.next()
if (line == "%end_heap")
break
val parts = line.split(splitpattern, limit=3)
val value = Triple(parts[0].toInt(), DataType.valueOf(parts[1].toUpperCase()), parts[2])
heapvalues.add(value)
}
heapvalues.sortedBy { it.first }.forEach {
when(it.second) {
DataType.STR, DataType.STR_S -> heap.addString(it.second, unescape(it.third.substring(1, it.third.length - 1), Position("<stackvmsource>", 0, 0, 0)))
DataType.ARRAY_UB, DataType.ARRAY_B,
DataType.ARRAY_UW, DataType.ARRAY_W -> {
val numbers = it.third.substring(1, it.third.length-1).split(',')
val intarray = numbers.map{number->
val num=number.trim()
if(num.startsWith("&")) {
// it's AddressOf
val scopedname = num.substring(1)
val iref = IdentifierReference(scopedname.split('.'), Position("<intermediate>", 0, 0, 0))
val addrOf = AddressOf(iref, Position("<intermediate>", 0, 0, 0))
addrOf.scopedname=scopedname
IntegerOrAddressOf(null, addrOf)
} else {
IntegerOrAddressOf(num.toInt(), null)
}
}.toTypedArray()
heap.addIntegerArray(it.second, intarray)
}
DataType.ARRAY_F -> {
val numbers = it.third.substring(1, it.third.length-1).split(',')
val doublearray = numbers.map{number->number.trim().toDouble()}.toDoubleArray()
heap.addDoublesArray(doublearray)
}
in NumericDatatypes -> throw VmExecutionException("invalid heap value type ${it.second}")
else -> throw VmExecutionException("weird datatype")
}
}
}
private fun loadInstructions(lines: Iterator<IndexedValue<String>>, heap: HeapValues): Pair<MutableList<Instruction>, Map<String, Instruction>> {
val instructions = mutableListOf<Instruction>()
val labels = mutableMapOf<String, Instruction>()
val splitpattern = Pattern.compile("\\s+")
val nextInstructionLabels = Stack<String>() // more than one label can occur on the isSameAs line
while(true) {
val (lineNr, line) = lines.next()
if(line.isEmpty())
continue
if(line=="%end_instructions")
return Pair(instructions, labels)
if(!line.startsWith(' ') && line.endsWith(':')) {
nextInstructionLabels.push(line.substring(0, line.length-1))
} else if(line.startsWith(' ')) {
val parts = line.trimStart().split(splitpattern, limit = 2)
val opcodeStr = parts[0].toUpperCase()
val opcode= Opcode.valueOf(if(opcodeStr.startsWith('_')) opcodeStr.substring(1) else opcodeStr)
val args = if(parts.size==2) parts[1] else null
val instruction = when(opcode) {
Opcode.LINE -> Instruction(opcode, null, callLabel = args)
Opcode.JUMP, Opcode.CALL, Opcode.BNEG, Opcode.BPOS,
Opcode.BZ, Opcode.BNZ, Opcode.BCS, Opcode.BCC,
Opcode.JZ, Opcode.JNZ, Opcode.JZW, Opcode.JNZW -> {
if(args!!.startsWith('$')) {
Instruction(opcode, RuntimeValue(DataType.UWORD, args.substring(1).toInt(16)))
} else {
Instruction(opcode, callLabel = args)
}
}
in opcodesWithVarArgument -> {
val withoutQuotes =
if(args!!.startsWith('"') && args.endsWith('"'))
args.substring(1, args.length-1) else args
Instruction(opcode, callLabel = withoutQuotes)
}
Opcode.SYSCALL -> {
if(args!! in syscallNames) {
val call = Syscall.valueOf(args)
Instruction(opcode, RuntimeValue(DataType.UBYTE, call.callNr))
} else {
val args2 = args.replace('.', '_')
if(args2 in syscallNames) {
val call = Syscall.valueOf(args2)
Instruction(opcode, RuntimeValue(DataType.UBYTE, call.callNr))
} else {
// the syscall is not yet implemented. emit a stub.
Instruction(Opcode.SYSCALL, RuntimeValue(DataType.UBYTE, Syscall.SYSCALLSTUB.callNr), callLabel = args2)
}
}
}
Opcode.INCLUDE_FILE -> {
val argparts = args!!.split(' ')
val filename = argparts[0]
val offset = if(argparts.size>=2 && argparts[1]!="null") getArgValue(argparts[1], heap) else null
val length = if(argparts.size>=3 && argparts[2]!="null") getArgValue(argparts[2], heap) else null
Instruction(opcode, offset, length, filename)
}
else -> {
Instruction(opcode, getArgValue(args, heap))
}
}
instructions.add(instruction)
while(nextInstructionLabels.isNotEmpty()) {
val label = nextInstructionLabels.pop()
labels[label] = instruction
}
} else throw VmExecutionException("syntax error at line ${lineNr + 1}")
}
}
private fun getArgValue(args: String?, heap: HeapValues): RuntimeValue? {
if(args==null)
return null
if(args[0]=='"' && args[args.length-1]=='"') {
throw VmExecutionException("encountered a string arg value, but all strings should already have been moved into the heap")
}
val (type, valueStr) = args.split(':')
return when(type) {
"b" -> RuntimeValue(DataType.BYTE, valueStr.toShort(16))
"ub" -> RuntimeValue(DataType.UBYTE, valueStr.toShort(16))
"w" -> RuntimeValue(DataType.WORD, valueStr.toInt(16))
"uw" -> RuntimeValue(DataType.UWORD, valueStr.toInt(16))
"f" -> RuntimeValue(DataType.FLOAT, valueStr.toDouble())
"heap" -> {
val heapId = valueStr.toInt()
RuntimeValue(heap.get(heapId).type, heapId = heapId)
}
else -> throw VmExecutionException("invalid datatype $type")
}
}
private fun loadVars(lines: Iterator<IndexedValue<String>>,
vars: MutableMap<String, RuntimeValue>) {
val splitpattern = Pattern.compile("\\s+")
while(true) {
val (_, line) = lines.next()
if(line=="%end_variables")
return
val (name, typeStr, valueStr) = line.split(splitpattern, limit = 3)
if(valueStr[0] !='"' && ':' !in valueStr)
throw VmExecutionException("missing value type character")
val value = when(val type = DataType.valueOf(typeStr.toUpperCase())) {
DataType.UBYTE -> RuntimeValue(DataType.UBYTE, valueStr.substring(3).substringBefore(' ').toShort(16))// TODO process ZP and struct info?
DataType.BYTE -> RuntimeValue(DataType.BYTE, valueStr.substring(2).substringBefore(' ').toShort(16))// TODO process ZP and struct info?
DataType.UWORD -> RuntimeValue(DataType.UWORD, valueStr.substring(3).substringBefore(' ').toInt(16))// TODO process ZP and struct info?
DataType.WORD -> RuntimeValue(DataType.WORD, valueStr.substring(2).substringBefore(' ').toInt(16))// TODO process ZP and struct info?
DataType.FLOAT -> RuntimeValue(DataType.FLOAT, valueStr.substring(2).substringBefore(' ').toDouble())// TODO process ZP and struct info?
in StringDatatypes -> {
if(valueStr.startsWith('"') && valueStr.endsWith('"'))
throw VmExecutionException("encountered a var with a string value, but all string values should already have been moved into the heap")
else if(!valueStr.startsWith("heap:"))
throw VmExecutionException("invalid string value, should be a heap reference")
else {
val heapId = valueStr.substring(5).substringBefore(' ').toInt() // TODO process ZP and struct info?
RuntimeValue(type, heapId = heapId)
}
}
in ArrayDatatypes -> {
if(!valueStr.startsWith("heap:"))
throw VmExecutionException("invalid array value, should be a heap reference")
else {
val heapId = valueStr.substring(5).substringBefore(' ').toInt() // TODO process ZP and struct info?
RuntimeValue(type, heapId = heapId)
}
}
else -> throw VmExecutionException("weird datatype")
}
vars[name] = value
}
}
private fun loadMemoryPointers(lines: Iterator<IndexedValue<String>>,
pointers: MutableMap<String, Pair<Int, DataType>>,
heap: HeapValues) {
val splitpattern = Pattern.compile("\\s+")
while(true) {
val (_, line) = lines.next()
if(line=="%end_memorypointers")
return
val (name, typeStr, valueStr) = line.split(splitpattern, limit = 3)
if(valueStr[0] !='"' && ':' !in valueStr)
throw VmExecutionException("missing value type character")
val type = DataType.valueOf(typeStr.toUpperCase())
val value = getArgValue(valueStr, heap)!!.integerValue()
pointers[name] = Pair(value, type)
}
}
private fun loadMemory(lines: Iterator<IndexedValue<String>>, memory: MutableMap<Int, List<RuntimeValue>>): Map<Int, List<RuntimeValue>> {
while(true) {
val (lineNr, line) = lines.next()
if(line=="%end_memory")
return memory
val address = line.substringBefore(' ').toInt(16)
val rest = line.substringAfter(' ').trim()
if(rest.startsWith('"')) {
TODO("memory init with char/string")
} else {
val valueStrings = rest.split(' ')
val values = mutableListOf<RuntimeValue>()
valueStrings.forEach {
when(it.length) {
2 -> values.add(RuntimeValue(DataType.UBYTE, it.toShort(16)))
4 -> values.add(RuntimeValue(DataType.UWORD, it.toInt(16)))
else -> throw VmExecutionException("invalid value at line $lineNr+1")
}
}
memory[address] = values
}
}
}
}
}
File diff suppressed because it is too large. Load diff
File diff suppressed because it is too large. Load diff
File renamed without changes.
@@ -1,4 +1,6 @@
package compiler.target.c64.codegen
package oldcodegen
/** OLD STACK-VM CODE GEN -- NO LONGER USED **/
// note: to put stuff on the stack, we use Absolute,X addressing mode which is 3 bytes / 4 cycles
// possible space optimization is to use zeropage (indirect),Y which is 2 bytes, but 5 cycles
@@ -17,7 +19,6 @@ import prog8.compiler.target.c64.MachineDefinition
import prog8.compiler.target.c64.Petscii
import prog8.vm.RuntimeValue
import java.io.File
import java.util.*
import kotlin.math.abs
@@ -1,4 +1,7 @@
package compiler.target.c64.codegen
package oldcodegen
/** OLD STACK-VM CODE GEN -- NO LONGER USED **/
import prog8.ast.base.printWarning
import prog8.compiler.intermediate.Instruction
@@ -1,4 +1,7 @@
package compiler.target.c64.codegen
package oldcodegen
/** OLD STACK-VM CODE GEN -- NO LONGER USED **/
import prog8.compiler.CompilerException
import prog8.compiler.intermediate.Instruction
+2
View File
@@ -15,6 +15,8 @@ plugins {
apply plugin: "kotlin"
apply plugin: "java"
targetCompatibility = 1.8
sourceCompatibility = 1.8
repositories {
mavenLocal()
+215 -156
View File
@@ -15,28 +15,199 @@ c64utils {
const uword ESTACK_HI = $cf00
; ----- utility functions ----
; ----- number conversions to decimal strings
asmsub ubyte2decimal (ubyte value @ A) -> ubyte @ Y, ubyte @ X, ubyte @ A {
; ---- A to decimal string in Y/X/A (100s in Y, 10s in X, 1s in A)
%asm {{
ldy #$2f
ldx #$3a
sec
- iny
sbc #100
bcs -
- dex
adc #10
bmi -
adc #$2f
rts
asmsub ubyte2decimal (ubyte value @ A) -> ubyte @ Y, ubyte @ A, ubyte @ X {
; ---- A to decimal string in Y/A/X (100s in Y, 10s in A, 1s in X)
%asm {{
ldy #uword2decimal.ASCII_0_OFFSET
bne uword2decimal.hex_try200
rts
}}
}
asmsub byte2decimal (ubyte value @ A) -> ubyte @ Y, ubyte @ X, ubyte @ A {
; ---- A (signed byte) to decimal string in Y/X/A (100s in Y, 10s in X, 1s in A)
; note: the '-' is not part of the conversion here if it's a negative number
asmsub uword2decimal (uword value @ AY) -> ubyte @Y, ubyte @A, ubyte @X {
; ---- convert 16 bit uword in A/Y to decimal
; output in uword2decimal.decTenThousands, decThousands, decHundreds, decTens, decOnes
; (these are terminated by a zero byte so they can be easily printed)
; also returns Y = 100's, A = 10's, X = 1's
%asm {{
;Convert 16 bit Hex to Decimal (0-65535) Rev 2
;By Omegamatrix Further optimizations by tepples
; routine from http://forums.nesdev.com/viewtopic.php?f=2&t=11341&start=15
;HexToDec99
; start in A
; end with A = 10's, decOnes (also in X)
;HexToDec255
; start in A
; end with Y = 100's, A = 10's, decOnes (also in X)
;HexToDec999
; start with A = high byte, Y = low byte
; end with Y = 100's, A = 10's, decOnes (also in X)
; requires 1 extra temp register on top of decOnes, could combine
; these two if HexToDec65535 was eliminated...
;HexToDec65535
; start with A/Y (low/high) as 16 bit value
; end with decTenThousand, decThousand, Y = 100's, A = 10's, decOnes (also in X)
; (irmen: I store Y and A in decHundreds and decTens too, so all of it can be easily printed)
ASCII_0_OFFSET = $30
temp = c64.SCRATCH_ZPB1 ; byte in zeropage
hexHigh = c64.SCRATCH_ZPWORD1 ; byte in zeropage
hexLow = c64.SCRATCH_ZPWORD1+1 ; byte in zeropage
HexToDec65535; SUBROUTINE
sty hexHigh ;3 @9
sta hexLow ;3 @12
tya
tax ;2 @14
lsr a ;2 @16
lsr a ;2 @18 integer divide 1024 (result 0-63)
cpx #$A7 ;2 @20 account for overflow of multiplying 24 from 43,000 ($A7F8) onward,
adc #1 ;2 @22 we can just round it to $A700, and the divide by 1024 is fine...
;at this point we have a number 1-65 that we have to times by 24,
;add to original sum, and Mod 1024 to get a remainder 0-999
sta temp ;3 @25
asl a ;2 @27
adc temp ;3 @30 x3
tay ;2 @32
lsr a ;2 @34
lsr a ;2 @36
lsr a ;2 @38
lsr a ;2 @40
lsr a ;2 @42
tax ;2 @44
tya ;2 @46
asl a ;2 @48
asl a ;2 @50
asl a ;2 @52
clc ;2 @54
adc hexLow ;3 @57
sta hexLow ;3 @60
txa ;2 @62
adc hexHigh ;3 @65
sta hexHigh ;3 @68
ror a ;2 @70
lsr a ;2 @72
tay ;2 @74 integer divide 1,000 (result 0-65)
lsr a ;2 @76 split the 1,000 and 10,000 digit
tax ;2 @78
lda ShiftedBcdTab,x ;4 @82
tax ;2 @84
rol a ;2 @86
and #$0F ;2 @88
ora #ASCII_0_OFFSET
sta decThousands ;3 @91
txa ;2 @93
lsr a ;2 @95
lsr a ;2 @97
lsr a ;2 @99
ora #ASCII_0_OFFSET
sta decTenThousands ;3 @102
lda hexLow ;3 @105
cpy temp ;3 @108
bmi _doSubtract ;2³ @110/111
beq _useZero ;2³ @112/113
adc #23 + 24 ;2 @114
_doSubtract
sbc #23 ;2 @116
sta hexLow ;3 @119
_useZero
lda hexHigh ;3 @122
sbc #0 ;2 @124
Start100s
and #$03 ;2 @126
tax ;2 @128 0,1,2,3
cmp #2 ;2 @130
rol a ;2 @132 0,2,5,7
ora #ASCII_0_OFFSET
tay ;2 @134 Y = Hundreds digit
lda hexLow ;3 @137
adc Mod100Tab,x ;4 @141 adding remainder of 256, 512, and 256+512 (all mod 100)
bcs hex_doSub200 ;2³ @143/144
hex_try200
cmp #200 ;2 @145
bcc hex_try100 ;2³ @147/148
hex_doSub200
iny ;2 @149
iny ;2 @151
sbc #200 ;2 @153
hex_try100
cmp #100 ;2 @155
bcc HexToDec99 ;2³ @157/158
iny ;2 @159
sbc #100 ;2 @161
HexToDec99; SUBROUTINE
lsr a ;2 @163
tax ;2 @165
lda ShiftedBcdTab,x ;4 @169
tax ;2 @171
rol a ;2 @173
and #$0F ;2 @175
ora #ASCII_0_OFFSET
sta decOnes ;3 @178
txa ;2 @180
lsr a ;2 @182
lsr a ;2 @184
lsr a ;2 @186
ora #ASCII_0_OFFSET
; irmen: load X with ones, and store Y and A too, for easy printing afterwards
sty decHundreds
sta decTens
ldx decOnes
rts ;6 @192 Y=hundreds, A = tens digit, X=ones digit
HexToDec999; SUBROUTINE
sty hexLow ;3 @9
jmp Start100s ;3 @12
Mod100Tab
.byte 0,56,12,56+12
ShiftedBcdTab
.byte $00,$01,$02,$03,$04,$08,$09,$0A,$0B,$0C
.byte $10,$11,$12,$13,$14,$18,$19,$1A,$1B,$1C
.byte $20,$21,$22,$23,$24,$28,$29,$2A,$2B,$2C
.byte $30,$31,$32,$33,$34,$38,$39,$3A,$3B,$3C
.byte $40,$41,$42,$43,$44,$48,$49,$4A,$4B,$4C
decTenThousands .byte 0
decThousands .byte 0
decHundreds .byte 0
decTens .byte 0
decOnes .byte 0
.byte 0 ; zero-terminate the decimal output string
}}
}
; ----- utility functions ----
asmsub byte2decimal (byte value @ A) -> ubyte @ Y, ubyte @ A, ubyte @ X {
; ---- A (signed byte) to decimal string in Y/A/X (100s in Y, 10s in A, 1s in X)
; note: if the number is negative, you have to deal with the '-' yourself!
%asm {{
cmp #0
bpl +
@@ -48,7 +219,7 @@ asmsub byte2decimal (ubyte value @ A) -> ubyte @ Y, ubyte @ X, ubyte @ A {
}
asmsub ubyte2hex (ubyte value @ A) -> ubyte @ A, ubyte @ Y {
; ---- A to hex string in AY (first hex char in A, second hex char in Y)
; ---- A to hex petscii string in AY (first hex char in A, second hex char in Y)
%asm {{
stx c64.SCRATCH_ZPREGX
pha
@@ -69,7 +240,6 @@ _hex_digits .text "0123456789abcdef" ; can probably be reused for other stuff as
}}
}
asmsub uword2hex (uword value @ AY) clobbers(A,Y) {
; ---- convert 16 bit uword in A/Y into 4-character hexadecimal string 'uword2hex.output' (0-terminated)
%asm {{
@@ -87,92 +257,6 @@ output .text "0000", $00 ; 0-terminated output buffer (to make printing ea
}}
}
asmsub uword2bcd (uword value @ AY) clobbers(A,Y) {
; Convert an 16 bit binary value to BCD
;
; This function converts a 16 bit binary value in A/Y into a 24 bit BCD. It
; works by transferring one bit a time from the source and adding it
; into a BCD value that is being doubled on each iteration. As all the
; arithmetic is being done in BCD the result is a binary to decimal
; conversion.
%asm {{
sta c64.SCRATCH_ZPB1
sty c64.SCRATCH_ZPREG
php
pla ; read status register
and #%00000100
sta _had_irqd
sei ; disable interrupts because of bcd math
sed ; switch to decimal mode
lda #0 ; ensure the result is clear
sta bcdbuff+0
sta bcdbuff+1
sta bcdbuff+2
ldy #16 ; the number of source bits
- asl c64.SCRATCH_ZPB1 ; shift out one bit
rol c64.SCRATCH_ZPREG
lda bcdbuff+0 ; and add into result
adc bcdbuff+0
sta bcdbuff+0
lda bcdbuff+1 ; propagating any carry
adc bcdbuff+1
sta bcdbuff+1
lda bcdbuff+2 ; ... thru whole result
adc bcdbuff+2
sta bcdbuff+2
dey ; and repeat for next bit
bne -
cld ; back to binary
lda _had_irqd
bne +
cli ; enable interrupts again (only if they were enabled before)
+ rts
_had_irqd .byte 0
bcdbuff .byte 0,0,0
}}
}
asmsub uword2decimal (uword value @ AY) clobbers(A) -> ubyte @ Y {
; ---- convert 16 bit uword in A/Y into 0-terminated decimal string into memory 'uword2decimal.output'
; returns length of resulting string in Y
%asm {{
jsr uword2bcd
lda uword2bcd.bcdbuff+2
clc
adc #'0'
sta output
ldy #1
lda uword2bcd.bcdbuff+1
jsr +
lda uword2bcd.bcdbuff+0
+ pha
lsr a
lsr a
lsr a
lsr a
clc
adc #'0'
sta output,y
iny
pla
and #$0f
adc #'0'
sta output,y
iny
lda #0
sta output,y
rts
output .text "00000", $00 ; 0 terminated
}}
}
asmsub str2uword(str string @ AY) -> uword @ AY {
; -- returns the unsigned word value of the string number argument in AY
; the number may NOT be preceded by a + sign and may NOT contain spaces
@@ -227,7 +311,6 @@ _result_times_10 ; (W*4 + W)*2
}}
}
asmsub str2word(str string @ AY) -> word @ AY {
; -- returns the signed word value of the string number argument in AY
; the number may be preceded by a + or - sign but may NOT contain spaces
@@ -283,7 +366,6 @@ _negative .byte 0
}}
}
asmsub set_irqvec_excl() clobbers(A) {
%asm {{
sei
@@ -341,6 +423,7 @@ _irq_handler_init
dex
dex
dex
cld
rts
_irq_handler_end
@@ -372,7 +455,6 @@ IRQ_SCRATCH_ZPWORD2 .word 0
}}
}
asmsub restore_irqvec() {
%asm {{
sei
@@ -389,7 +471,6 @@ asmsub restore_irqvec() {
}}
}
asmsub set_rasterirq(uword rasterpos @ AY) clobbers(A) {
%asm {{
sei
@@ -454,13 +535,11 @@ _raster_irq_handler
}
} ; ------ end of block c64utils
c64scr {
; ---- this block contains (character) Screen and text I/O related functions ----
@@ -480,7 +559,6 @@ asmsub clear_screen (ubyte char @ A, ubyte color @ Y) clobbers(A) {
}
asmsub clear_screenchars (ubyte char @ A) clobbers(Y) {
; ---- clear the character screen with the given fill character (leaves colors)
; (assumes screen matrix is at the default address)
@@ -521,7 +599,6 @@ _loop sta c64.Colors,y
}}
}
asmsub scroll_left_full (ubyte alsocolors @ Pc) clobbers(A, Y) {
; ---- scroll the whole screen 1 character to the left
; contents of the rightmost column are unchanged, you should clear/refill this yourself
@@ -582,7 +659,6 @@ _scroll_screen ; scroll the screen memory
}}
}
asmsub scroll_right_full (ubyte alsocolors @ Pc) clobbers(A) {
; ---- scroll the whole screen 1 character to the right
; contents of the leftmost column are unchanged, you should clear/refill this yourself
@@ -635,7 +711,6 @@ _scroll_screen ; scroll the screen memory
}}
}
asmsub scroll_up_full (ubyte alsocolors @ Pc) clobbers(A) {
; ---- scroll the whole screen 1 character up
; contents of the bottom row are unchanged, you should refill/clear this yourself
@@ -688,7 +763,6 @@ _scroll_screen ; scroll the screen memory
}}
}
asmsub scroll_down_full (ubyte alsocolors @ Pc) clobbers(A) {
; ---- scroll the whole screen 1 character down
; contents of the top row are unchanged, you should refill/clear this yourself
@@ -742,7 +816,6 @@ _scroll_screen ; scroll the screen memory
}
asmsub print (str text @ AY) clobbers(A,Y) {
; ---- print null terminated string from A/Y
; note: the compiler contains an optimization that will replace
@@ -761,7 +834,6 @@ asmsub print (str text @ AY) clobbers(A,Y) {
}}
}
asmsub print_ub0 (ubyte value @ A) clobbers(A,Y) {
; ---- print the ubyte in A in decimal form, with left padding 0s (3 positions total)
%asm {{
@@ -770,16 +842,15 @@ asmsub print_ub0 (ubyte value @ A) clobbers(A,Y) {
pha
tya
jsr c64.CHROUT
txa
jsr c64.CHROUT
pla
jsr c64.CHROUT
txa
jsr c64.CHROUT
ldx c64.SCRATCH_ZPREGX
rts
}}
}
asmsub print_ub (ubyte value @ A) clobbers(A,Y) {
; ---- print the ubyte in A in decimal form, without left padding 0s
%asm {{
@@ -788,15 +859,14 @@ asmsub print_ub (ubyte value @ A) clobbers(A,Y) {
_print_byte_digits
pha
cpy #'0'
bne _print_hundreds
cpx #'0'
bne _print_tens
jmp _end
_print_hundreds tya
beq +
tya
jsr c64.CHROUT
_print_tens txa
jsr c64.CHROUT
_end pla
+ pla
cmp #'0'
beq +
jsr c64.CHROUT
+ txa
jsr c64.CHROUT
ldx c64.SCRATCH_ZPREGX
rts
@@ -820,7 +890,6 @@ asmsub print_b (byte value @ A) clobbers(A,Y) {
}}
}
asmsub print_ubhex (ubyte value @ A, ubyte prefix @ Pc) clobbers(A,Y) {
; ---- print the ubyte in A in hex form (if Carry is set, a radix prefix '$' is printed as well)
%asm {{
@@ -839,7 +908,6 @@ asmsub print_ubhex (ubyte value @ A, ubyte prefix @ Pc) clobbers(A,Y) {
}}
}
asmsub print_ubbin (ubyte value @ A, ubyte prefix @ Pc) clobbers(A,Y) {
; ---- print the ubyte in A in binary form (if Carry is set, a radix prefix '%' is printed as well)
%asm {{
@@ -861,7 +929,6 @@ asmsub print_ubbin (ubyte value @ A, ubyte prefix @ Pc) clobbers(A,Y) {
}}
}
asmsub print_uwbin (uword value @ AY, ubyte prefix @ Pc) clobbers(A,Y) {
; ---- print the uword in A/Y in binary form (if Carry is set, a radix prefix '%' is printed as well)
%asm {{
@@ -874,7 +941,6 @@ asmsub print_uwbin (uword value @ AY, ubyte prefix @ Pc) clobbers(A,Y) {
}}
}
asmsub print_uwhex (uword value @ AY, ubyte prefix @ Pc) clobbers(A,Y) {
; ---- print the uword in A/Y in hexadecimal form (4 digits)
; (if Carry is set, a radix prefix '$' is printed as well)
@@ -888,51 +954,44 @@ asmsub print_uwhex (uword value @ AY, ubyte prefix @ Pc) clobbers(A,Y) {
}}
}
asmsub print_uw0 (uword value @ AY) clobbers(A,Y) {
; ---- print the uword in A/Y in decimal form, with left padding 0s (5 positions total)
%asm {{
stx c64.SCRATCH_ZPREGX
jsr c64utils.uword2decimal
ldy #0
- lda c64utils.uword2decimal.output,y
- lda c64utils.uword2decimal.decTenThousands,y
beq +
jsr c64.CHROUT
iny
cpy #5
bne -
+ ldx c64.SCRATCH_ZPREGX
rts
}}
}
asmsub print_uw (uword value @ AY) clobbers(A,Y) {
; ---- print the uword in A/Y in decimal form, without left padding 0s
%asm {{
stx c64.SCRATCH_ZPREGX
jsr c64utils.uword2decimal
ldy #0
lda c64utils.uword2decimal.output
- lda c64utils.uword2decimal.decTenThousands,y
beq _allzero
cmp #'0'
bne _pr_decimal
iny
lda c64utils.uword2decimal.output+1
cmp #'0'
bne _pr_decimal
iny
lda c64utils.uword2decimal.output+2
cmp #'0'
bne _pr_decimal
iny
lda c64utils.uword2decimal.output+3
cmp #'0'
bne _pr_decimal
bne _gotdigit
iny
bne -
_pr_decimal
lda c64utils.uword2decimal.output,y
_gotdigit
jsr c64.CHROUT
iny
cpy #5
bcc _pr_decimal
lda c64utils.uword2decimal.decTenThousands,y
bne _gotdigit
rts
_allzero
lda #'0'
jmp c64.CHROUT
}}
}
+28 -28
View File
@@ -1417,7 +1417,7 @@ _l3 ldy c64.SCRATCH_ZPB1 ;where the largest value shall be put
rts
.pend
sort_b .proc
; 8bit signed sort
; sorting subroutine coded by mats rosengren (mats.rosengren@esa.int)
@@ -1471,7 +1471,7 @@ _sort_loop ldy c64.SCRATCH_ZPB1 ;start of subroutine sort
sta _work3+1
dey
jmp _l2
_l1 dey
_l1 dey
dey
beq _l3
iny
@@ -1506,12 +1506,12 @@ _l3 ldy c64.SCRATCH_ZPB1 ;where the largest value shall be put
dec c64.SCRATCH_ZPB1 ;end of the shorter sequence still left
dec c64.SCRATCH_ZPB1
bne _sort_loop ;start working with the shorter sequence
rts
rts
_work1 .byte 0
_work3 .word 0
.pend
sort_w .proc
; 16bit signed sort
; sorting subroutine coded by mats rosengren (mats.rosengren@esa.int)
@@ -1532,7 +1532,7 @@ _sort_loop ldy c64.SCRATCH_ZPB1 ;start of subroutine sort
sta _work3+1
dey
jmp _l2
_l1 dey
_l1 dey
dey
beq _l3
lda (c64.SCRATCH_ZPWORD1),y
@@ -1543,7 +1543,7 @@ _l1 dey
sbc c64.SCRATCH_ZPWORD2+1
bvc +
eor #$80
+ bmi _l1
+ bmi _l1
_l2 sty _work1 ;index of potentially largest value
lda (c64.SCRATCH_ZPWORD1),y
sta c64.SCRATCH_ZPWORD2 ;potentially largest value
@@ -1568,12 +1568,12 @@ _l3 ldy c64.SCRATCH_ZPB1 ;where the largest value shall be put
dec c64.SCRATCH_ZPB1 ;end of the shorter sequence still left
dec c64.SCRATCH_ZPB1
bne _sort_loop ;start working with the shorter sequence
rts
rts
_work1 .byte 0
_work3 .word 0
.pend
.pend
reverse_b .proc
; --- reverse an array of bytes (in-place)
; inputs: pointer to array in c64.SCRATCH_ZPWORD1, length in A
@@ -1607,7 +1607,7 @@ _loop sty c64.SCRATCH_ZPREG
rts
.pend
reverse_w .proc
; --- reverse an array of words (in-place)
; inputs: pointer to array in c64.SCRATCH_ZPWORD1, length in A
@@ -1669,7 +1669,7 @@ _loop_hi sty c64.SCRATCH_ZPREG
dey
bne _loop_hi
rts
rts
.pend
ror2_mem_ub .proc
@@ -1687,7 +1687,7 @@ ror2_mem_ub .proc
+ sta (c64.SCRATCH_ZPWORD1),y
rts
.pend
rol2_mem_ub .proc
; -- in-place 8-bit rol of byte at memory location on stack
;" lda ${number.toHex()} | cmp #\$80 | rol a | sta ${number.toHex()}"
@@ -1703,59 +1703,59 @@ rol2_mem_ub .proc
sta (c64.SCRATCH_ZPWORD1),y
rts
.pend
lsl_array_b .proc
.warn "lsl_array_b" ; TODO
.pend
lsl_array_w .proc
.warn "lsl_array_w" ; TODO
.pend
lsr_array_ub .proc
.warn "lsr_array_ub" ; TODO
.pend
lsr_array_b .proc
.warn "lsr_array_b" ; TODO
.pend
lsr_array_uw .proc
.warn "lsl_array_uw" ; TODO
.warn "lsr_array_uw" ; TODO
.pend
lsr_array_w .proc
.warn "lsr_array_w" ; TODO
.pend
rol_array_ub .proc
.warn "rol_array_ub" ; TODO
.pend
rol_array_uw .proc
.warn "rol_array_uw" ; TODO
.pend
rol2_array_ub .proc
.warn "rol2_array_ub" ; TODO
.pend
rol2_array_uw .proc
.warn "rol2_array_uw" ; TODO
.pend
ror_array_ub .proc
.warn "ror_array_ub" ; TODO
.pend
ror_array_uw .proc
.warn "ror_array_uw" ; TODO
.pend
ror2_array_ub .proc
.warn "ror2_array_ub" ; TODO
.pend
ror2_array_uw .proc
.warn "ror2_array_uw" ; TODO
.pend
+1 -2
View File
@@ -1,2 +1 @@
1.61
1.62
+8 -6
View File
@@ -8,9 +8,8 @@ import prog8.parser.ParsingFailedError
import prog8.vm.astvm.AstVm
import java.nio.file.FileSystems
import java.nio.file.Path
import java.nio.file.Paths
import java.nio.file.StandardWatchEventKinds
import java.util.*
import java.time.LocalDateTime
import kotlin.system.exitProcess
@@ -27,6 +26,9 @@ internal fun printSoftwareHeader(what: String) {
}
fun pathFrom(stringPath: String, vararg rest: String): Path = FileSystems.getDefault().getPath(stringPath, *rest)
private fun compileMain(args: Array<String>) {
val cli = CommandLineInterface("prog8compiler")
val startEmulator1 by cli.flagArgument("-emu", "auto-start the 'x64' C-64 emulator after successful compilation")
@@ -44,7 +46,7 @@ private fun compileMain(args: Array<String>) {
exitProcess(1)
}
val outputPath = Paths.get(outputDir)
val outputPath = pathFrom(outputDir)
if(!outputPath.toFile().isDirectory) {
System.err.println("Output path doesn't exist")
exitProcess(1)
@@ -54,7 +56,7 @@ private fun compileMain(args: Array<String>) {
val watchservice = FileSystems.getDefault().newWatchService()
while(true) {
val filepath = Paths.get(moduleFiles.single()).normalize()
val filepath = pathFrom(moduleFiles.single()).normalize()
println("Continuous watch mode active. Main module: $filepath")
try {
@@ -65,7 +67,7 @@ private fun compileMain(args: Array<String>) {
println(importedFile)
importedFile.parent.register(watchservice, StandardWatchEventKinds.ENTRY_MODIFY)
}
println("${Date()}: Waiting for file changes.")
println("[${LocalDateTime.now().withNano(0)}] Waiting for file changes.")
val event = watchservice.take()
for(changed in event.pollEvents()) {
val changedPath = changed.context() as Path
@@ -80,7 +82,7 @@ private fun compileMain(args: Array<String>) {
} else {
for(filepathRaw in moduleFiles) {
val filepath = Paths.get(filepathRaw).normalize()
val filepath = pathFrom(filepathRaw).normalize()
val compilationResult: CompilationResult
try {
compilationResult = compileProgram(filepath, !dontOptimize, !dontWriteAssembly, outputDir=outputPath)
+1 -1
View File
@@ -176,7 +176,7 @@ class Program(val name: String, val modules: MutableList<Module>) {
var actualLoadAddress: Int = 0
fun entrypoint(): Subroutine? {
val mainBlocks = modules.flatMap { it.statements }.filter { b -> b is Block && b.name=="main" }.map { it as Block }
val mainBlocks = allBlocks().filter { it.name=="main" }
if(mainBlocks.size > 1)
throw FatalAstException("more than one 'main' block")
return if(mainBlocks.isEmpty()) {
@@ -13,7 +13,7 @@ import prog8.compiler.target.c64.Petscii
import prog8.functions.BuiltinFunctions
import prog8.functions.NotConstArgumentException
import prog8.functions.builtinFunctionReturnType
import java.util.*
import java.util.Objects
import kotlin.math.abs
@@ -1,7 +1,8 @@
package prog8.ast.expressions
import java.util.Objects
import prog8.ast.base.DataType
import java.util.*
object InferredTypes {
class InferredType private constructor(val isUnknown: Boolean, val isVoid: Boolean, private var datatype: DataType?) {
+1 -1
View File
@@ -103,7 +103,7 @@ fun compileProgram(filepath: Path,
// asm generation directly from the Ast, no need for intermediate code
val zeropage = MachineDefinition.C64Zeropage(compilerOptions)
programAst.anonscopeVarsCleanup()
val assembly = AsmGen(programAst, compilerOptions, zeropage, outputDir).compileToAssembly(optimize)
val assembly = AsmGen(programAst, zeropage, compilerOptions, outputDir).compileToAssembly(optimize)
assembly.assemble(compilerOptions)
programName = assembly.name
}
@@ -5,7 +5,7 @@ import prog8.compiler.OutputType
import java.nio.file.Path
import kotlin.system.exitProcess
class AssemblyProgram(val name: String, val outputDir: Path) {
class AssemblyProgram(val name: String, outputDir: Path) {
private val assemblyFile = outputDir.resolve("$name.asm")
private val prgFile = outputDir.resolve("$name.prg")
private val binFile = outputDir.resolve("$name.bin")
@@ -16,17 +16,19 @@ import prog8.functions.BuiltinFunctions
import prog8.functions.FunctionSignature
import java.math.RoundingMode
import java.nio.file.Path
import java.util.*
import java.time.LocalDate
import java.time.LocalDateTime
import java.util.ArrayDeque
import kotlin.math.absoluteValue
internal class AssemblyError(msg: String) : RuntimeException(msg)
internal class AsmGen(val program: Program,
val options: CompilationOptions,
val zeropage: Zeropage,
val outputDir: Path) {
internal class AsmGen(private val program: Program,
private val zeropage: Zeropage,
private val options: CompilationOptions,
private val outputDir: Path) {
private val assemblyLines = mutableListOf<String>()
private val globalFloatConsts = mutableMapOf<Double, String>() // all float values in the entire program (value -> varname)
@@ -38,8 +40,8 @@ internal class AsmGen(val program: Program,
private val functioncallAsmGen = FunctionCallAsmGen(program, this)
private val assignmentAsmGen = AssignmentAsmGen(program, this)
private val expressionsAsmGen = ExpressionsAsmGen(program, this)
internal val loopEndLabels = Stack<String>()
internal val loopContinueLabels = Stack<String>()
internal val loopEndLabels = ArrayDeque<String>()
internal val loopContinueLabels = ArrayDeque<String>()
internal fun compileToAssembly(optimize: Boolean): AssemblyProgram {
assemblyLines.clear()
@@ -74,7 +76,7 @@ internal class AsmGen(val program: Program,
private fun header() {
val ourName = this.javaClass.name
out("; 6502 assembly code for '${program.name}'")
out("; generated by $ourName on ${Date()}")
out("; generated by $ourName on ${LocalDateTime.now().withNano(0)}")
out("; assembler syntax is for the 64tasm cross-assembler")
out("; output options: output=${options.output} launcher=${options.launcher} zp=${options.zeropage}")
out("\n.cpu '6502'\n.enc 'none'\n")
@@ -90,7 +92,7 @@ internal class AsmGen(val program: Program,
throw AssemblyError("BASIC output must have load address $0801")
out("; ---- basic program with sys call ----")
out("* = ${program.actualLoadAddress.toHex()}")
val year = Calendar.getInstance().get(Calendar.YEAR)
val year = LocalDate.now().year
out(" .word (+), $year")
out(" .null $9e, format(' %d ', _prog8_entrypoint), $3a, $8f, ' prog8 by idj'")
out("+\t.word 0")
@@ -550,6 +550,15 @@ internal class BuiltinFunctionsAsmGen(private val program: Program, private val
}
}
}
"rsave" -> {
// save cpu status flag and all registers A, X, Y.
// see http://6502.org/tutorials/register_preservation.html
asmgen.out(" php | sta ${C64Zeropage.SCRATCH_REG} | pha | txa | pha | tya | pha | lda ${C64Zeropage.SCRATCH_REG}")
}
"rrestore" -> {
// restore all registers and cpu status flag
asmgen.out(" pla | tay | pla | tax | pla | plp")
}
else -> {
translateFunctionArguments(fcall.arglist, func)
asmgen.out(" jsr prog8_lib.func_$functionName")
+40 -10
View File
@@ -562,49 +562,79 @@ class ConstantFolding(private val program: Program) : IAstModifyingVisitor {
} catch (x: ExpressionError) {
return range
}
val newStep: Expression = stepLiteral?.cast(targetDt) ?: range.step
val newStep: Expression = try {
stepLiteral?.cast(targetDt)?: range.step
} catch(ee: ExpressionError) {
range.step
}
return RangeExpr(newFrom, newTo, newStep, range.position)
}
val forLoop2 = super.visit(forLoop) as ForLoop
// check if we need to adjust an array literal to the loop variable's datatype
val array = forLoop2.iterable as? ArrayLiteralValue
if(array!=null) {
val loopvarDt: DataType = when {
forLoop.loopVar!=null -> forLoop.loopVar!!.inferType(program).typeOrElse(DataType.UBYTE)
forLoop.loopRegister!=null -> DataType.UBYTE
else -> throw FatalAstException("weird for loop")
}
val arrayType = when(loopvarDt) {
DataType.UBYTE -> DataType.ARRAY_UB
DataType.BYTE -> DataType.ARRAY_B
DataType.UWORD -> DataType.ARRAY_UW
DataType.WORD -> DataType.ARRAY_W
DataType.FLOAT -> DataType.ARRAY_F
else -> throw FatalAstException("invalid array elt type")
}
val array2 = array.cast(arrayType)
if(array2!=null && array2!==array) {
forLoop2.iterable = array2
array2.linkParents(forLoop2)
array2.addToHeap()
}
}
// adjust the datatype of a range expression in for loops to the loop variable.
val resultStmt = super.visit(forLoop) as ForLoop
val iterableRange = resultStmt.iterable as? RangeExpr ?: return resultStmt
val iterableRange = forLoop2.iterable as? RangeExpr ?: return forLoop2
val rangeFrom = iterableRange.from as? NumericLiteralValue
val rangeTo = iterableRange.to as? NumericLiteralValue
if(rangeFrom==null || rangeTo==null) return resultStmt
if(rangeFrom==null || rangeTo==null) return forLoop2
val loopvar = resultStmt.loopVar?.targetVarDecl(program.namespace)
val loopvar = forLoop2.loopVar?.targetVarDecl(program.namespace)
if(loopvar!=null) {
val stepLiteral = iterableRange.step as? NumericLiteralValue
when(loopvar.datatype) {
DataType.UBYTE -> {
if(rangeFrom.type!= DataType.UBYTE) {
// attempt to translate the iterable into ubyte values
resultStmt.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
forLoop2.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
}
}
DataType.BYTE -> {
if(rangeFrom.type!= DataType.BYTE) {
// attempt to translate the iterable into byte values
resultStmt.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
forLoop2.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
}
}
DataType.UWORD -> {
if(rangeFrom.type!= DataType.UWORD) {
// attempt to translate the iterable into uword values
resultStmt.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
forLoop2.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
}
}
DataType.WORD -> {
if(rangeFrom.type!= DataType.WORD) {
// attempt to translate the iterable into word values
resultStmt.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
forLoop2.iterable = adjustRangeDt(rangeFrom, loopvar.datatype, rangeTo, stepLiteral, iterableRange)
}
}
else -> throw FatalAstException("invalid loopvar datatype $loopvar")
}
}
return resultStmt
return forLoop2
}
override fun visit(arrayLiteral: ArrayLiteralValue): Expression {
@@ -11,7 +11,7 @@ import kotlin.math.log2
import kotlin.math.pow
/*
todo advanced expression optimization: common (sub) expression elimination (turn common expressions into single subroutine call + introduce variable to hold it)
todo add more expression optimizations
Also see https://egorbo.com/peephole-optimizations.html
@@ -16,8 +16,8 @@ import kotlin.math.floor
/*
TODO: analyse for unreachable code and remove that (f.i. code after goto or return that has no label so can never be jumped to) + print warning about this
TODO: proper inlining of small subroutines (correctly renaming/relocating all variables in them and refs to those as well, or restrict to subs without variables?)
TODO: remove unreachable code?
TODO: proper inlining of tiny subroutines (correctly renaming/relocating all variables in them and refs to those as well, or restrict to subs without variables?)
*/
+6 -5
View File
@@ -9,6 +9,7 @@ import prog8.ast.base.SyntaxError
import prog8.ast.base.checkImportedValid
import prog8.ast.statements.Directive
import prog8.ast.statements.DirectiveArg
import prog8.pathFrom
import java.io.InputStream
import java.nio.file.Files
import java.nio.file.Path
@@ -91,18 +92,18 @@ internal fun importModule(program: Program, stream: CharStream, modulePath: Path
private fun discoverImportedModuleFile(name: String, source: Path, position: Position?): Path {
val fileName = "$name.p8"
val locations = mutableListOf(Paths.get(source.parent.toString()))
val locations = mutableListOf(source.parent)
val propPath = System.getProperty("prog8.libdir")
if(propPath!=null)
locations.add(Paths.get(propPath))
locations.add(pathFrom(propPath))
val envPath = System.getenv("PROG8_LIBDIR")
if(envPath!=null)
locations.add(Paths.get(envPath))
locations.add(pathFrom(envPath))
locations.add(Paths.get(Paths.get("").toAbsolutePath().toString(), "prog8lib"))
locations.forEach {
val file = Paths.get(it.toString(), fileName)
val file = pathFrom(it.toString(), fileName)
if (Files.isReadable(file)) return file
}
@@ -120,7 +121,7 @@ private fun executeImportDirective(program: Program, import: Directive, source:
if(existing!=null)
return null
val resource = tryGetEmbeddedResource(moduleName+".p8")
val resource = tryGetEmbeddedResource("$moduleName.p8")
val importedModule =
if(resource!=null) {
// load the module from the embedded resource
+1 -1
View File
@@ -8,7 +8,7 @@ import prog8.ast.expressions.NumericLiteralValue
import prog8.ast.expressions.StringLiteralValue
import prog8.compiler.target.c64.Petscii
import prog8.vm.astvm.VmExecutionException
import java.util.*
import java.util.Objects
import kotlin.math.abs
import kotlin.math.pow
+11 -11
View File
@@ -12,7 +12,7 @@ import prog8.compiler.target.c64.Petscii
import prog8.vm.*
import java.awt.EventQueue
import java.io.CharConversionException
import java.util.*
import java.util.ArrayDeque
import kotlin.NoSuchElementException
import kotlin.concurrent.fixedRateTimer
import kotlin.math.*
@@ -140,10 +140,10 @@ class AstVm(val program: Program) {
var rtcOffset = bootTime
private val rnd = Random(0)
private val statusFlagsSave = Stack<StatusFlags>()
private val registerXsave = Stack<RuntimeValueNumeric>()
private val registerYsave = Stack<RuntimeValueNumeric>()
private val registerAsave = Stack<RuntimeValueNumeric>()
private val statusFlagsSave = ArrayDeque<StatusFlags>()
private val registerXsave = ArrayDeque<RuntimeValueNumeric>()
private val registerYsave = ArrayDeque<RuntimeValueNumeric>()
private val registerAsave = ArrayDeque<RuntimeValueNumeric>()
init {
@@ -173,9 +173,9 @@ class AstVm(val program: Program) {
fun memwrite(address: Int, value: Short): Short {
if(address==0xa0 || address==0xa1 || address==0xa2) {
// a write to the jiffy clock, update the clock offset for the irq
val timeHi = if(address==0xa0) value else mem.getUByte_DMA(0xa0)
val timeMid = if(address==0xa1) value else mem.getUByte_DMA(0xa1)
val timeLo = if(address==0xa2) value else mem.getUByte_DMA(0xa2)
val timeHi = if(address==0xa0) value else mem.getUByteDirectly(0xa0)
val timeMid = if(address==0xa1) value else mem.getUByteDirectly(0xa1)
val timeLo = if(address==0xa2) value else mem.getUByteDirectly(0xa2)
val jiffies = (timeHi.toInt() shl 16) + (timeMid.toInt() shl 8) + timeLo
rtcOffset = bootTime - (jiffies*1000/60)
}
@@ -260,9 +260,9 @@ class AstVm(val program: Program) {
rtcOffset = timeStamp
}
// update the C-64 60hz jiffy clock in the ZP addresses:
mem.setUByte_DMA(0x00a0, (jiffies ushr 16).toShort())
mem.setUByte_DMA(0x00a1, (jiffies ushr 8 and 255).toShort())
mem.setUByte_DMA(0x00a2, (jiffies and 255).toShort())
mem.setUByteDirectly(0x00a0, (jiffies ushr 16).toShort())
mem.setUByteDirectly(0x00a1, (jiffies ushr 8 and 255).toShort())
mem.setUByteDirectly(0x00a2, (jiffies and 255).toShort())
}
private val runtimeVariables = RuntimeVariables()
+2 -2
View File
@@ -21,7 +21,7 @@ class Memory(private val readObserver: (address: Int, value: Short) -> Short,
else mem[address]
}
fun getUByte_DMA(address: Int): Short {
fun getUByteDirectly(address: Int): Short {
return mem[address]
}
@@ -39,7 +39,7 @@ class Memory(private val readObserver: (address: Int, value: Short) -> Short,
else value
}
fun setUByte_DMA(address: Int, value: Short) {
fun setUByteDirectly(address: Int, value: Short) {
if(value !in 0..255)
throw VmExecutionException("ubyte value out of range $value")
mem[address] = value
+2 -2
View File
@@ -6,7 +6,7 @@ import java.awt.*
import java.awt.event.KeyEvent
import java.awt.event.KeyListener
import java.awt.image.BufferedImage
import java.util.*
import java.util.ArrayDeque
import javax.swing.JFrame
import javax.swing.JPanel
import javax.swing.Timer
@@ -18,7 +18,7 @@ class BitmapScreenPanel : KeyListener, JPanel() {
private val g2d = image.graphics as Graphics2D
private var cursorX: Int=0
private var cursorY: Int=0
val keyboardBuffer: Deque<Char> = LinkedList()
val keyboardBuffer = ArrayDeque<Char>()
init {
val size = Dimension(image.width * SCALING, image.height * SCALING)
+1 -5
View File
@@ -46,11 +46,7 @@ without having to to index into the stack?
Bugs
^^^^
There are a few erroneous compiler errors when dealing with certain for loops::
for bb in [1,2,3] ; byte loop variable can only loop over bytes
for ww in [1111,3333,555,999] ; word loop variable can only loop over bytes or words
for uw in 20 to 10 step -1 ; 'can't cast BYTE into UWORD'
Ofcourse there are still bugs to fix ;)
Misc
+38 -31
View File
@@ -1,8 +1,6 @@
%import c64utils
%zeropage basicsafe
; TODO implement asm generation for all operation in here
main {
byte bb
@@ -11,18 +9,46 @@ main {
uword uw
&ubyte membyte=9999
&uword memword=9999
ubyte[10] ubarray
uword[10] uwarray
byte[10] bbarray
word[10] wwarray
ubyte[] ubarray = [8,8,8]
uword[] uwarray = [8200, 8200, 8200]
byte[] bbarray = [8,8,8]
word[] wwarray = [8200, 8200, 8200]
sub unimplemented() {
; TODO implement these asm routines
lsr(ubarray[1])
lsl(ubarray[1])
ror(ubarray[1])
rol(ubarray[1])
ror2(ubarray[1])
rol2(ubarray[1])
lsr(bbarray[1])
lsl(bbarray[1])
lsr(uwarray[1])
lsl(uwarray[1])
ror(uwarray[1])
rol(uwarray[1])
ror2(uwarray[1])
rol2(uwarray[1])
lsr(wwarray[1])
lsl(wwarray[1])
}
sub start() {
; lsr(A)
; lsl(A)
; ror(A)
; rol(A)
; ror2(A)
; rol2(A)
unimplemented()
lsr(A)
lsl(A)
ror(A)
rol(A)
ror2(A)
rol2(A)
lsr(Y)
lsl(Y)
ror(Y)
rol(Y)
ror2(Y)
rol2(Y)
lsr(bb)
lsl(bb)
@@ -54,25 +80,6 @@ main {
ror2(@(9999+A))
rol2(@(9999+A))
lsr(ubarray[1])
lsl(ubarray[1])
ror(ubarray[1])
rol(ubarray[1])
ror2(ubarray[1])
rol2(ubarray[1])
lsr(bbarray[1])
lsl(bbarray[1])
lsr(uwarray[1])
lsl(uwarray[1])
ror(uwarray[1])
rol(uwarray[1])
ror2(uwarray[1])
rol2(uwarray[1])
lsr(wwarray[1])
lsl(wwarray[1])
bb /= 2
bb >>= 1
bb *= 4
+2 -13
View File
@@ -1,10 +1,5 @@
%zeropage basicsafe
; TODO fix compiler errors:
; for bb in [1,2,3] -> byte loop variable can only loop over bytes
; for ww in [1111,3333,555,999] -> word loop variable can only loop over bytes or words
; for uw in 20 to 10 step -1 -> 'can't cast BYTE into UWORD'
main {
sub start() {
@@ -12,21 +7,16 @@ main {
byte[] barr = [22,-33,-44,55,66]
ubyte endub1
byte endb1
uword count
ubyte aa
ubyte ub
byte bb
uword uw
word total
uword count
for count in 10 to 20 step 1 {
}
for count in 20 to 10 step -1 { ; @todo fix compiler error
}
; ---------- BYTE var ---------
; @todo fix byte loop in arrayliteral 'Error: byte loop variable can only loop over bytes'
count = 0
total = 0
c64scr.print("byte var in arrayliteral: ")
@@ -46,7 +36,6 @@ main {
word endw1
word ww
; @todo fix compiler error
count = 0
total = 0
c64scr.print("word var in arrayliteral: ")
+22 -29
View File
@@ -1,10 +1,5 @@
%zeropage basicsafe
; TODO fix compiler errors:
; for bb in [1,2,3] -> byte loop variable can only loop over bytes
; for ww in [1111,3333,555,999] -> word loop variable can only loop over bytes or words
; for uw in 20 to 10 step -1 -> 'can't cast BYTE into UWORD'
main {
sub start() {
@@ -416,18 +411,17 @@ main {
; ---------- BYTE var ---------
; @todo fix byte loop in arrayliteral 'Error: byte loop variable can only loop over bytes'
; count = 0
; total = 0
; c64scr.print("byte var in arrayliteral: ")
; for bb in [1,3,5,99] {
; count++
; total += bb
; }
; if count==4 and total==108
; c64scr.print("ok\n")
; else
; c64scr.print("fail!!!\n")
count = 0
total = 0
c64scr.print("byte var in arrayliteral: ")
for bb in [1,3,5,99] {
count++
total += bb
}
if count==4 and total==108
c64scr.print("ok\n")
else
c64scr.print("fail!!!\n")
count = 0
total = 0
@@ -793,18 +787,17 @@ main {
word endw1
word ww
; @todo fix compiler error
; count = 0
; total = 0
; c64scr.print("word var in arrayliteral: ")
; for ww in [1111,3333,555,999] {
; count++
; total += ww
; }
; if count==4 and total==5998
; c64scr.print("ok\n")
; else
; c64scr.print("fail!!!\n")
count = 0
total = 0
c64scr.print("word var in arrayliteral: ")
for ww in [1111,3333,555,999] {
count++
total += ww
}
if count==4 and total==5998
c64scr.print("ok\n")
else
c64scr.print("fail!!!\n")
count = 0
total = 0
+62
View File
@@ -0,0 +1,62 @@
%zeropage basicsafe
main {
sub start() {
c64scr.print("print uw0:")
c64scr.print_uw0(53204)
c64.CHROUT(' ')
c64scr.print_uw0(3204)
c64.CHROUT(' ')
c64scr.print_uw0(204)
c64.CHROUT(' ')
c64scr.print_uw0(14)
c64.CHROUT(' ')
c64scr.print_uw0(4)
c64.CHROUT(' ')
c64scr.print_uw0(0)
c64.CHROUT('\n')
c64scr.print("print uw:")
c64scr.print_uw(53204)
c64.CHROUT(' ')
c64scr.print_uw(3204)
c64.CHROUT(' ')
c64scr.print_uw(204)
c64.CHROUT(' ')
c64scr.print_uw(14)
c64.CHROUT(' ')
c64scr.print_uw(4)
c64.CHROUT(' ')
c64scr.print_uw(0)
c64.CHROUT('\n')
c64scr.print("print w:")
c64scr.print_w(23204)
c64.CHROUT(' ')
c64scr.print_w(3204)
c64.CHROUT(' ')
c64scr.print_w(204)
c64.CHROUT(' ')
c64scr.print_w(14)
c64.CHROUT(' ')
c64scr.print_w(4)
c64.CHROUT(' ')
c64scr.print_w(0)
c64.CHROUT('\n')
c64scr.print_w(-23204)
c64.CHROUT(' ')
c64scr.print_w(-3204)
c64.CHROUT(' ')
c64scr.print_w(-204)
c64.CHROUT(' ')
c64scr.print_w(-14)
c64.CHROUT(' ')
c64scr.print_w(-4)
c64.CHROUT(' ')
c64scr.print_w(-0)
c64.CHROUT('\n')
}
}
+3
View File
@@ -3,6 +3,9 @@ plugins {
id 'java'
}
targetCompatibility = 1.8
sourceCompatibility = 1.8
repositories {
mavenCentral()
}
+1 -1
View File
@@ -1,2 +1,2 @@
include ':parser'
include ':compiler'
include ':compiler'