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Author SHA1 Message Date
nils polek
509dc5e947 Added the correct version to --version funktion 2024-01-14 15:28:46 +00:00
nils polek
c6ae64250d Added a nja and njc goal to Makefile 2024-01-14 15:24:31 +00:00
nils polek
ffc04172ae Added a Makefile for better use 2024-01-14 13:47:08 +00:00
Nils Polek
f5cab7c013 Testing 2023-12-09 17:48:51 +01:00
de248a5943 update x 2023-12-09 17:19:43 +01:00
4994bd6071 add call and ret function
add drop (idk if it is working right)
add prog5 and prog6
2023-12-07 03:01:24 +01:00
0b042fb912 fix jmp not working
fix arithmetic operations
add prog3 and prog4
add debug to instructions
2023-12-07 00:05:36 +01:00
nils polek
77cae7467e Added Instruktions 2023-12-06 18:03:07 +01:00
6ea2a7e735 move programs to a separate folder
fix pushg, popg, pushl and popl
2023-12-04 02:39:23 +01:00
8a89c6bf70 add prog1 and prog2, asm and bin files 2023-12-04 01:21:36 +01:00
88271c91ca fix prog1.bin not working
add debug parameter
add nja-mac
2023-12-04 01:20:41 +01:00
131 changed files with 488 additions and 37185 deletions

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.DS_Store vendored

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1
.gitignore vendored
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@ -3,3 +3,4 @@ cmake-build-debug
njvm
njvm.dSYM
njvm.exe
njvm2

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@ -5,22 +5,5 @@ set(CMAKE_C_STANDARD 99)
add_compile_options(-g -Wall -pedantic)
add_executable(njvm njvm.c
njvm.h)
# Include directories for njvm executable
target_include_directories(njvm PRIVATE ${CMAKE_CURRENT_SOURCE_DIR}/bigint/build/include)
# Add the library
add_library(bigint STATIC ${CMAKE_SOURCE_DIR}/bigint/src/bigint.c
support.c
GC.c
heap.c
heap.h)
# Include directories for the bigint library
target_include_directories(bigint PUBLIC ${CMAKE_CURRENT_SOURCE_DIR}/bigint/build/include)
# Link the executable with the library
target_link_libraries(njvm PRIVATE bigint)
add_executable(ninja njvm.c
SDA.c)

99
GC.c
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@ -1,99 +0,0 @@
#ifndef GC
#define GC
#include <stdlib.h>
#include <stdio.h>
#include <string.h>
#include "stackslot.c"
#include "stack.c"
#include "bigint.h"
#include "instruktion.c"
#include "record.c"
#include "SDA.c"
typedef struct {
unsigned int freiZeiger;
unsigned int size;
unsigned char *data;
} *heapPartRef;
// SDA
struct sda sda;
// Stack
struct stack stack;
#define SIZE 1000;
//Register
struct stack reg;
//heapPartRef primary;
//heapPartRef secondary;
//unsigned int heapSize;
//void initHeap(int size){
// heapSize = 2 * sizeof (unsigned int) + size;
// if ((primary = malloc(heapSize)) == NULL) perror("malloc");
// if ((secondary = malloc(heapSize)) == NULL) perror("malloc");
//}
//
//
//// nimmt obj und copier es in den secondary Speicher
//void copy(ObjRef obj){
// if(obj->brokenHeart == true) return;
// obj->brokenHeart = true;
// if (IS_PRIMITIVE(obj)){
// if(obj->size > secondary->size-secondary->freiZeiger) perror("Heap is to Small");
// obj->forward_pointer = memcpy((void *) secondary->data[secondary->freiZeiger], obj, obj->size);
// secondary->freiZeiger += obj->size;
// } else {
// if(sizeof(*obj) + (GET_ELEMENT_COUNT(obj) * sizeof(void *)) > secondary->size-secondary->freiZeiger) perror("Heap is to Small");
// GET_ELEMENT_COUNT(obj);
// obj->forward_pointer = memcpy((void *) secondary->data[secondary->freiZeiger], obj, sizeof(*obj) + (GET_ELEMENT_COUNT(obj) * sizeof(void *)));
// secondary->freiZeiger += sizeof(*obj) + (GET_ELEMENT_COUNT(obj) * sizeof(void *));
// for (int i = 0; i < GET_ELEMENT_COUNT(obj); ++i) {
// copy(getField(obj,i));
// }
// }
//}
//
//void runGC(){
// int rootSize = *sda.size + *reg.size + *stack.size + 4;
// ObjRef* rootObjs = malloc(sizeof(ObjRef) * rootSize);
// if(rootObjs == NULL) perror("malloc");
// int counter = 0;
// //Bip
// rootObjs[0] = bip.op1;
// rootObjs[counter++] = bip.op2;
// rootObjs[counter++] = bip.res;
// rootObjs[counter++] = bip.rem;
// //SDA
// for (int i = 0; i < *sda.size; ++i) {
// rootObjs[counter++] = sda.sda[i];
// }
// //REG
// for (int i = 0; i < *reg.size; ++i) {
// rootObjs[counter++] = reg.stack[i].u.objRef;
// }
// //STACK
// for (int i = 0; i < *stack.size; ++i) {
// rootObjs[counter++] = stack.stack[i].u.objRef;
// }
//
// for (int i = 0; i < rootSize; ++i) {
// if(rootObjs[i] == NULL) continue;
// copy(rootObjs[i]);
// }
// heapPartRef temp = primary;
// primary = secondary;
// secondary = temp;
//
//}
//
//void *alloc(size_t size){
// if(primary->size-primary->freiZeiger < size){
// runGC();
// }
// primary->freiZeiger += size;
// return (void *) primary->data[primary->freiZeiger - size];
//}
#endif

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@ -1,12 +1,29 @@
# Makefile for a simple C program
build:
cd ./bigint; make; cd ..
gcc -g -Wall -Ibigint/build/include -o support.o -c support.c
gcc -g -Wall -Ibigint/build/include -o njvm.o -c njvm.c
gcc -g -Wall -Lbigint/build/lib -o njvm njvm.o support.o -lbigint
run: build
./njvm prog.bin
# Compiler
CC = gcc
debug: build
./njvm --debug prog.bin
# Compiler flags
CFLAGS = -g -Wall -std=c99 -pedantic
# Source file
SRC = njvm.c
# Executable name
TARGET = njvm
# Default target
all:
$(CC) $(CFLAGS) -o $(TARGET) $(SRC)
# Clean up
clean:
rm -f $(OBJ) $(TARGET)
run: all
./$(TARGET)
nja: ./nja/nja$(V)
./nja/nja$(V) $(IN) $(OUT)
njc: ./njc/njc$(V)
./njc/njc$(V) $(IN) $(OUT)

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@ -1,43 +0,0 @@
# Makefile for a simple C program
# Compiler
CC = gcc
# program to Run
F = prog.bin
# Compiler flags
CFLAGS = -g -Wall -Ibigint/build/include
LDFLAGS = -g -Wall -Lbigint/build/lib
# Source file
SRC = njvm.c
# Executable name
TARGET = njvm
njvm.o:
$(CC) $(CFLAGS) -o njvm.o -c njvm.c
support.o:
$(CC) $(CFLAGS) -o support.o -c support.c
# Default target
all: njvm.o support.o
$(CC) $(LDFLAGS) -o $(TARGET) njvm.o support.o -lbigint
# Clean up
clean:
rm -f $(OBJ) $(TARGET)
debug: all
./$(TARGET) --debug $(F)
run: all
./$(TARGET) $(F)
nja: ./nja/nja$(V)
./nja/nja$(V) $(IN) $(OUT)
njc: ./njc/njc$(V)
./njc/njc$(V) $(IN) $(OUT)

22
SDA.c
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@ -4,24 +4,24 @@
#ifndef SDA
#define SDA
#include <stdio.h>
#include "stackslot.c"
struct sda {
int *size;
ObjRef *sda;
unsigned int *sda;
int size;
};
ObjRef getSDA(int i, struct sda s) {
return s.sda[i];
int getSDA(unsigned int offset, struct sda *sda) {
return sda->sda[offset];
}
void setSDA(int point, ObjRef val, struct sda s) {
if (val == NULL) perror("Value is null");
s.sda[point] = val;
void setSDA(unsigned int offset, int value, struct sda *sda) {
sda->sda[offset] = value;
}
void printSDA(struct sda s) {
for (int i = 0; i < *s.size; i++) {
printf("%i\n", *(int *)getSDA(i, s)->data);
void printSDA(struct sda *sda) {
printf("SDA:\n");
for (int i = 0; i < sda->size; ++i) {
printf("[%d] = %d\n", i, sda->sda[i]);
}
}

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a.out

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@ -1,22 +0,0 @@
#
# Makefile for big integer library and test
#
DIRS = src tst
all: clean
for i in $(DIRS) ; do \
$(MAKE) -C $$i install ; \
done
clean:
for i in $(DIRS) ; do \
$(MAKE) -C $$i clean ; \
done
rm -rf ./build
rm -f *~
dist: clean
(cd .. ; \
tar -cvf bigint.tar bigint ; \
gzip -f bigint.tar)

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@ -1,92 +0,0 @@
The "bigint" Package
====================
1. What is it?
--------------
This package implements a multiple-precision integer arithmetic package,
i.e., a collection of functions which can calculate with integers having
arbitrarily many digits. The algorithms are taken from [D. Knuth: The
Art of Computer Programming, Vol. 2, Seminumerical Algorithms], the
implementation language is C.
2. "Multiple Precision" - how does it work?
-------------------------------------------
Each integer number is represented as an array of digits. The array
is large enough to hold the number of digits necessary to represent
the number. Each digit occupies a single byte, so the number base of
this representation is 256. Addition, subtraction, and multiplication
work as we all have learned it: perform the desired operation digit
by digit, starting from the least significant digit, and observing
any "carries" from one place to the next higher one. Division is a
little bit more complicated because there is a certain amount of
guesswork involved. Knuth gives a formal treatment of this guesswork.
3. How do I use it?
-------------------
Because every big integer may have a differently sized array to hold
its digits, these structures are dynamically allocated on the heap of
the C runtime system, and accessed by pointers. If you want to perform
an arithmetic operation on one or two big integers, you have to load
the corresponding pointers into a structure called BIP ("Big Integer
Processor"), and call the arithmetic function. When the function has
returned, the pointer to the result of the operation can be found in
another component of the BIP. The following functions are available:
int bigSgn(void); /* sign */
int bigCmp(void); /* comparison */
void bigNeg(void); /* negation */
void bigAdd(void); /* addition */
void bigSub(void); /* subtraction */
void bigMul(void); /* multiplication */
void bigDiv(void); /* division */
void bigFromInt(int n); /* conversion int --> big */
int bigToInt(void); /* conversion big --> int */
void bigRead(FILE *in); /* read a big integer */
void bigPrint(FILE *out); /* print a big integer */
void bigDump(FILE *out, BigObjRef bigObjRef); /* dump a big integer */
Some of these functions accept or return ordinary integers. For the
exact definition of each function's interface, please see the comments
in the function's source.
4. What else is needed?
-----------------------
The library tries to detect fatal errors in using its functions (e.g.,
null pointers to operands) as well as internal errors (which "cannot
happen"). In either case a user-supplied error routine is called, which
is supposed to print an error message and then to terminate the program.
The library does not attempt to manage memory. For this purpose, it
relies on a user-supplied function "void* newPrimObject(int dataSize)",
which should allocate sufficiently many bytes and return a pointer to
a created object. In addition, the library needs to access a data field
- that implements the size-as-needed cocept - within the created object,
to actualy manage the data structures that represent the values of the
integer number. For this, the following function can be used:
void * getPrimObjectDataPointer(void * obj){
ObjRef oo = ((ObjRef) (obj));
return oo->data;
}
This function must also be a user-supplied function that must be
implemented by the program that wants to use this library.
For details about these three user-supplied functions take a look in
the file "support.c" in the directory "tst".
5. What is in the directory "tst"?
----------------------------------
Well, you may have guessed it already: these are test cases for the
library. You can learn how to link against the library by inspecting
the "Makefile" for the tests, and you can find a simple implementation
of the support library.

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@ -1,60 +0,0 @@
/*
* bigint.h -- big integer library
*/
#ifndef _BIGINT_H_
#define _BIGINT_H_
/* object representation */
typedef void* BigObjRef;
#include <stdio.h>
typedef struct {
int nd; /* number of digits; array may be bigger */
/* nd = 0 exactly when number = 0 */
unsigned char sign; /* one of BIG_NEGATIVE or BIG_POSITIVE */
/* zero always has BIG_POSITIVE here */
unsigned char digits[1]; /* the digits proper; number base is 256 */
/* LS digit first; MS digit is not zero */
} Big;
#include "support.h"
/* big integer processor registers */
typedef struct {
BigObjRef op1; /* first (or single) operand */
BigObjRef op2; /* second operand (if present) */
BigObjRef res; /* result of operation */
BigObjRef rem; /* remainder in case of division */
} BIP;
extern BIP bip; /* registers of the processor */
/* big integer processor functions */
int bigSgn(void); /* sign */
int bigCmp(void); /* comparison */
void bigNeg(void); /* negation */
void bigAdd(void); /* addition */
void bigSub(void); /* subtraction */
void bigMul(void); /* multiplication */
void bigDiv(void); /* division */
void bigFromInt(int n); /* conversion int --> big */
int bigToInt(void); /* conversion big --> int */
void bigRead(FILE *in); /* read a big integer */
void bigPrint(FILE *out); /* print a big integer */
void bigDump(FILE *out, BigObjRef bigObjRef); /* dump a big integer object */
#endif /* _BIGINT_H_ */

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@ -1,15 +0,0 @@
/*
* support.h -- object representation and support functions
*/
#ifndef _SUPPORT_H_
#define _SUPPORT_H_
/* support functions */
void fatalError(char *msg); /* print a message and exit */
void * newPrimObject(int dataSize); /* create a new primitive object */
void * getPrimObjectDataPointer(void * primObject);
#endif /* _SUPPORT_H_ */

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@ -1,26 +0,0 @@
#
# Makefile for big integer library
#
BUILD = ../build
CC = gcc
CFLAGS = -g -Wall
all: support.h bigint.h libbigint.a
install: all
mkdir -p $(BUILD)/include
cp support.h $(BUILD)/include
cp bigint.h $(BUILD)/include
mkdir -p $(BUILD)/lib
cp libbigint.a $(BUILD)/lib
libbigint.a: bigint.o
ar -crs libbigint.a bigint.o
bigint.o: bigint.c bigint.h support.h
$(CC) $(CFLAGS) -o bigint.o -c bigint.c
clean:
rm -f *~ bigint.o libbigint.a

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@ -1,987 +0,0 @@
/*
* bigint.c -- big integer library
*/
#include <stdio.h>
#include <ctype.h>
#include "bigint.h"
/**************************************************************/
/* debugging */
#define DIV_CHK_01 0
#define DIV_CHK_02 0
#define DIV_CHK_03 0
#define DIV_CHK_04 0
#define DIV_CHK_05 0
#define DIV_CHK_06 0
#define DIV_CHK_07 0
#define DIV_CHK_08 0
#define DIV_CHK_09 0
#define DIV_CHK_10 0
#define DIV_CHK_11 0
/**************************************************************/
/* big integer representation */
#define BIG_NEGATIVE ((unsigned char) 0)
#define BIG_POSITIVE ((unsigned char) 1)
#define BIG_PTR(bigObjRef) ((Big *) (getPrimObjectDataPointer(bigObjRef)))
#define GET_ND(bigObjRef) (BIG_PTR(bigObjRef)->nd)
#define SET_ND(bigObjRef, val) (BIG_PTR(bigObjRef)->nd = (val))
#define GET_SIGN(bigObjRef) (BIG_PTR(bigObjRef)->sign)
#define SET_SIGN(bigObjRef, val) (BIG_PTR(bigObjRef)->sign = (val))
#define GET_DIGIT(bigObjRef, i) (BIG_PTR(bigObjRef)->digits[i])
#define SET_DIGIT(bigObjRef, i, val) (BIG_PTR(bigObjRef)->digits[i] = (val))
/**************************************************************/
/* global data */
/*
* registers of the big integer processor
*/
BIP bip = {
NULL, /* op1 */
NULL, /* op2 */
NULL, /* res */
NULL, /* rem */
};
/**************************************************************/
/*
* construct a new big integer object
*
* number of digits is given by parameter
* a reference to a proper object is returned
* but no component of the big integer is set
*
* ATTENTION: All object references stored in
* places other than the bip registers may become
* invalid as soon as this function is called!
*/
static BigObjRef newBig(int nd) {
int dataSize;
BigObjRef bigObjRef;
dataSize = sizeof(int) + 1 + nd;
bigObjRef = newPrimObject(dataSize);
return bigObjRef;
}
/**************************************************************/
/* big integer unsigned arithmetic */
/*
* exchange bip.op1 and bip.op2
*/
static void bigXchg(void) {
BigObjRef tmp;
tmp = bip.op1;
bip.op1 = bip.op2;
bip.op2 = tmp;
}
/*
* big integer unsigned comparison
*
* operands in bip.op1 and bip.op2
* result is < 0, = 0, or > 0 if and only if the
* same relation holds for bip.op1 and bip.op2
*/
static int bigUcmp(void) {
int nd1;
int nd2;
int diff;
/* compare sizes */
nd1 = GET_ND(bip.op1);
nd2 = GET_ND(bip.op2);
if (nd1 != nd2) {
/* sizes are different: we know the bigger number */
return nd1 - nd2;
}
/* sizes are equal: we must look at the digits */
while (nd1--) {
diff = (int) GET_DIGIT(bip.op1, nd1) -
(int) GET_DIGIT(bip.op2, nd1);
if (diff != 0) {
return diff;
}
}
/* the numbers are equal */
return 0;
}
/*
* big integer unsigned addition
*
* operands in bip.op1 and bip.op2
* result in bip.res
*/
static void bigUadd(void) {
int nd1;
int nd2;
int i;
unsigned short carry;
unsigned short aux;
int xchgFlag;
/* make sure op1 has at least as many digits as op2 */
nd1 = GET_ND(bip.op1);
nd2 = GET_ND(bip.op2);
if (nd1 < nd2) {
/* exchange operands */
bigXchg();
i = nd1;
nd1 = nd2;
nd2 = i;
xchgFlag = 1;
} else {
/* don't exchange operands */
xchgFlag = 0;
}
/* allocate result */
bip.res = newBig(nd1 + 1);
/* copy op2 to result */
for (i = 0; i < nd2; i++) {
SET_DIGIT(bip.res, i, GET_DIGIT(bip.op2, i));
}
/* fill result with 0 up to size of op1 */
for (; i < nd1; i++) {
SET_DIGIT(bip.res, i, 0);
}
/* res = op1 + res */
carry = 0x00;
for (i = 0; i < nd1; i++) {
aux = (unsigned short) GET_DIGIT(bip.op1, i) +
(unsigned short) GET_DIGIT(bip.res, i) +
carry;
SET_DIGIT(bip.res, i, aux & 0xFF);
carry = aux >> 8;
}
SET_DIGIT(bip.res, i, carry);
/* determine actual size of result */
i = nd1 + 1;
while (--i >= 0 && GET_DIGIT(bip.res, i) == 0) ;
SET_ND(bip.res, i + 1);
/* restore operands */
if (xchgFlag) {
bigXchg();
}
}
/*
* big integer unsigned subtraction
*
* operands in bip.op1 and bip.op2
* result in bip.res, must not be negative
*/
static void bigUsub(void) {
int nd1;
int nd2;
int i;
unsigned short carry;
unsigned short aux;
/* op1 must have at least as many digits as op2 */
nd1 = GET_ND(bip.op1);
nd2 = GET_ND(bip.op2);
if (nd1 < nd2) {
/* unsigned subtraction would yield negative result */
fatalError("internal library error #1 - THIS SHOULD NEVER HAPPEN!");
}
/* allocate result */
bip.res = newBig(nd1);
/* copy op2 to result */
for (i = 0; i < nd2; i++) {
SET_DIGIT(bip.res, i, GET_DIGIT(bip.op2, i));
}
/* fill result with 0 up to size of op1 */
for (; i < nd1; i++) {
SET_DIGIT(bip.res, i, 0);
}
/* res = op1 - res */
carry = 0x01;
for (i = 0; i < nd1; i++) {
aux = (unsigned short) GET_DIGIT(bip.op1, i) -
(unsigned short) GET_DIGIT(bip.res, i) +
carry + 0xFF;
SET_DIGIT(bip.res, i, aux & 0xFF);
carry = aux >> 8;
}
if (carry != 0x01) {
/* unsigned subtraction would yield negative result */
fatalError("internal library error #2 - THIS SHOULD NEVER HAPPEN!");
}
/* determine actual size of result */
i = nd1;
while (--i >= 0 && GET_DIGIT(bip.res, i) == 0) ;
SET_ND(bip.res, i + 1);
}
/*
* big integer unsigned multiplication
*
* operands in bip.op1 and bip.op2
* result in bip.res
*/
static void bigUmul(void) {
int nd1;
int nd2;
int i, j, k;
unsigned short carry;
unsigned short aux;
/* get sizes of operands */
nd1 = GET_ND(bip.op1);
nd2 = GET_ND(bip.op2);
/* allocate result */
bip.res = newBig(nd1 + nd2);
/* reset lower nd1 digits of result */
for (i = 0; i < nd1; i++) {
SET_DIGIT(bip.res, i, 0);
}
/* res = op1 * op2 */
for (j = 0; j < nd2; j++) {
carry = 0x00;
for (k = j, i = 0; i < nd1; k++, i++) {
aux = (unsigned short) GET_DIGIT(bip.op1, i) *
(unsigned short) GET_DIGIT(bip.op2, j) +
(unsigned short) GET_DIGIT(bip.res, k) +
carry;
SET_DIGIT(bip.res, k, aux & 0xFF);
carry = aux >> 8;
}
SET_DIGIT(bip.res, k, carry);
}
/* determine actual size of result */
i = nd1 + nd2;
while (--i >= 0 && GET_DIGIT(bip.res, i) == 0) ;
SET_ND(bip.res, i + 1);
}
/*
* big integer unsigned division by single digit divisor
*
* dividend in bip.rem, divisor in parameter
* quotient in bip.rem, remainder is returned
*/
static unsigned char bigUdiv1(unsigned char divisor) {
BigObjRef tmp;
int nd;
int i;
unsigned short d, r;
unsigned short aux;
/* get size of dividend */
nd = GET_ND(bip.rem);
/* check for division by zero */
d = (unsigned short) divisor;
if (d == 0) {
fatalError("internal library error #3 - THIS SHOULD NEVER HAPPEN!");
}
/* allocate result */
tmp = newBig(nd);
/* tmp = dividend / divisor, r = dividend % divisor */
r = 0;
for (i = nd - 1; i >= 0; i--) {
aux = (r << 8) | (unsigned short) GET_DIGIT(bip.rem, i);
SET_DIGIT(tmp, i, aux / d);
r = aux % d;
}
/* determine actual size of quotient */
i = nd;
while (--i >= 0 && GET_DIGIT(tmp, i) == 0) ;
SET_ND(tmp, i + 1);
/* store quotient */
bip.rem = tmp;
/* return remainder */
return (unsigned char) r;
}
/*
* big integer unsigned division
*
* dividend in bip.op1, divisor in bip.op2
* quotient in bip.res, remainder in bip.rem
*/
static void bigUdiv(void) {
BigObjRef tmp;
int nd1;
int nd2;
int nd3;
int i, j, k, l;
unsigned char r;
unsigned short scale;
unsigned short carry;
unsigned short aux;
unsigned short qhat;
unsigned short v1, v2;
unsigned short uj0, uj1, uj2, two;
/* get sizes of operands */
nd1 = GET_ND(bip.op1);
nd2 = GET_ND(bip.op2);
/* check for division by zero */
if (nd2 == 0) {
fatalError("division by zero");
}
/* check for small dividend */
if (bigUcmp() < 0) {
/* res = 0 */
bip.res = newBig(0);
SET_ND(bip.res, 0);
/* rem = op1; BUT THIS HAS TO BE A COPY! */
bip.rem = newBig(nd1);
for (i = 0; i < nd1; i++) {
SET_DIGIT(bip.rem, i, GET_DIGIT(bip.op1, i));
}
SET_ND(bip.rem, nd1);
return;
}
/* check for single digit divisor */
if (nd2 == 1) {
/* yes - use simple division by single digit divisor */
bip.rem = bip.op1;
r = bigUdiv1(GET_DIGIT(bip.op2, 0));
bip.res = bip.rem;
if (r == 0) {
bip.rem = newBig(0);
SET_ND(bip.rem, 0);
} else {
bip.rem = newBig(1);
SET_ND(bip.rem, 1);
SET_DIGIT(bip.rem, 0, r);
}
return;
}
/*
* now for the general case
*/
#if DIV_CHK_01
printf("div_chk #01: division, general case\n");
printf(" dividend = ");
bigDump(stdout, bip.op1);
printf("\n");
printf(" divisor = ");
bigDump(stdout, bip.op2);
printf("\n");
#endif
/* determine scale factor for normalization */
scale = (unsigned short) 256 /
((unsigned short) GET_DIGIT(bip.op2, nd2 - 1) + 1);
#if DIV_CHK_02
printf("div_chk #02: scale factor = %02X\n", scale);
#endif
/* normalize dividend, result is in bip.rem */
bip.rem = newBig(nd1 + 1);
carry = 0x00;
for (i = 0; i < nd1; i++) {
aux = (unsigned short) GET_DIGIT(bip.op1, i) * scale +
carry;
SET_DIGIT(bip.rem, i, aux & 0xFF);
carry = aux >> 8;
}
SET_DIGIT(bip.rem, i, carry);
SET_ND(bip.rem, nd1 + 1);
#if DIV_CHK_03
printf("div_chk #03: normalized dividend = ");
bigDump(stdout, bip.rem);
printf("\n");
#endif
/* normalize divisor, result is in bip.res */
bip.res = newBig(nd2);
carry = 0x00;
for (i = 0; i < nd2; i++) {
aux = (unsigned short) GET_DIGIT(bip.op2, i) * scale +
carry;
SET_DIGIT(bip.res, i, aux & 0xFF);
carry = aux >> 8;
}
if (carry != 0x00) {
/* overflow in divisor normalization */
fatalError("internal library error #4 - THIS SHOULD NEVER HAPPEN!");
}
SET_ND(bip.res, nd2);
#if DIV_CHK_04
printf("div_chk #04: normalized divisor = ");
bigDump(stdout, bip.res);
printf("\n");
#endif
/* allocate quotient */
nd3 = nd1 - nd2 + 1;
tmp = newBig(nd3);
/* extract the two most significand digits of divisor */
v1 = (unsigned short) GET_DIGIT(bip.res, nd2 - 1);
v2 = (unsigned short) GET_DIGIT(bip.res, nd2 - 2);
/* loop on digits of dividend and compute digits of quotient */
/* j is index into dividend, k is index into quotient */
for (j = nd1, k = nd3 - 1; k >= 0; j--, k--) {
#if DIV_CHK_05
printf("div_chk #05: j = %d, k = %d\n", j, k);
#endif
/* calculate qhat */
uj0 = (unsigned short) GET_DIGIT(bip.rem, j);
uj1 = (unsigned short) GET_DIGIT(bip.rem, j - 1);
uj2 = (unsigned short) GET_DIGIT(bip.rem, j - 2);
two = (uj0 << 8) | uj1;
if (uj0 == v1) {
qhat = (unsigned short) 255;
#if DIV_CHK_06
printf("div_chk #06a: qhat = %02X\n", qhat);
#endif
} else {
qhat = two / v1;
#if DIV_CHK_06
printf("div_chk #06b: qhat = %02X\n", qhat);
#endif
}
while (qhat * v2 > (((two - qhat * v1) << 8) | uj2)) {
qhat--;
#if DIV_CHK_07
printf("div_chk #07: qhat decremented, is now %02X\n", qhat);
#endif
}
/* multiply and subtract */
/* l is index into dividend, i is index into divisor */
carry = 0xFF;
for (l = j - nd2, i = 0; i < nd2; l++, i++) {
aux = (unsigned short) GET_DIGIT(bip.rem, l) -
(unsigned short) GET_DIGIT(bip.res, i) * qhat +
carry + 0xFE01;
SET_DIGIT(bip.rem, l, aux & 0xFF);
carry = aux >> 8;
}
aux = (unsigned short) GET_DIGIT(bip.rem, l) +
carry + 0xFE01;
SET_DIGIT(bip.rem, l, aux & 0xFF);
carry = aux >> 8;
#if DIV_CHK_08
printf("div_chk #08: remainder = ");
bigDump(stdout, bip.rem);
printf("\n");
#endif
/* test remainder and possibly add back */
if (carry != 0xFF) {
/* qhat is one too large */
qhat--;
#if DIV_CHK_09
printf("div_chk #09: qhat final correction, is now %02X\n", qhat);
#endif
/* add back */
/* l is index into dividend, i is index into divisor */
carry = 0x00;
for (l = j - nd2, i = 0; i < nd2; l++, i++) {
aux = (unsigned short) GET_DIGIT(bip.rem, l) +
(unsigned short) GET_DIGIT(bip.res, i) +
carry;
SET_DIGIT(bip.rem, l, aux & 0xFF);
carry = aux >> 8;
}
aux = (unsigned short) GET_DIGIT(bip.rem, l) +
carry;
SET_DIGIT(bip.rem, l, aux & 0xFF);
carry = aux >> 8;
if (carry != 0x01) {
/* missing carry in add-back sum */
fatalError("internal library error #5 - THIS SHOULD NEVER HAPPEN!");
}
#if DIV_CHK_10
printf("div_chk #10: remainder = ");
bigDump(stdout, bip.rem);
printf("\n");
#endif
}
/* store quotient digit */
SET_DIGIT(tmp, k, qhat);
#if DIV_CHK_11
printf("div_chk #11: quotient digit = %02X\n", qhat);
#endif
}
/* finish quotient */
i = nd3;
while (--i >= 0 && GET_DIGIT(tmp, i) == 0) ;
SET_ND(tmp, i + 1);
bip.res = tmp;
/* finish and unnormalize remainder */
i = nd1 + 1;
while (--i >= 0 && GET_DIGIT(bip.rem, i) == 0) ;
SET_ND(bip.rem, i + 1);
r = bigUdiv1(scale);
if (r != 0) {
/* non-zero remainder in unnormalization */
fatalError("internal library error #6 - THIS SHOULD NEVER HAPPEN!");
}
}
/**************************************************************/
/* nil reference exception */
static void nilRefException(void) {
fatalError("big integer library detected illegal nil reference");
}
/**************************************************************/
/* big integer arithmetic */
/*
* big integer sign
*
* operand in bip.op1
* result is < 0, = 0, or > 0 if and only if
* the same relation holds for bip.op1
*/
int bigSgn(void) {
if (bip.op1 == NULL) {
nilRefException();
}
if (GET_ND(bip.op1) == 0) {
return 0;
}
if (GET_SIGN(bip.op1) == BIG_POSITIVE) {
return 1;
} else {
return -1;
}
}
/*
* big integer comparison
*
* operands in bip.op1 and bip.op2
* result is < 0, = 0, or > 0 if and only if the
* same relation holds for bip.op1 and bip.op2
*/
int bigCmp(void) {
if (bip.op1 == NULL ||
bip.op2 == NULL) {
nilRefException();
}
if (GET_SIGN(bip.op1) == BIG_POSITIVE) {
if (GET_SIGN(bip.op2) == BIG_POSITIVE) {
/* op1 >= 0 and op2 >= 0 */
return bigUcmp();
} else {
/* op1 >= 0 and op2 < 0 */
return 1;
}
} else {
if (GET_SIGN(bip.op2) == BIG_POSITIVE) {
/* op1 < 0 and op2 >= 0 */
return -1;
} else {
/* op1 < 0 and op2 < 0 */
return -bigUcmp();
}
}
}
/*
* big integer negation
*
* operand in bip.op1
* result in bip.res
*/
void bigNeg(void) {
int nd;
int i;
if (bip.op1 == NULL) {
nilRefException();
}
/* make copy of operand */
nd = GET_ND(bip.op1);
bip.res = newBig(nd);
for (i = 0; i < nd; i++) {
SET_DIGIT(bip.res, i, GET_DIGIT(bip.op1, i));
}
SET_ND(bip.res, nd);
/* store inverted sign */
if (GET_SIGN(bip.op1) == BIG_NEGATIVE || nd == 0) {
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
SET_SIGN(bip.res, BIG_NEGATIVE);
}
}
/*
* big integer addition
*
* operands in bip.op1 and bip.op2
* result in bip.res
*/
void bigAdd(void) {
if (bip.op1 == NULL ||
bip.op2 == NULL) {
nilRefException();
}
if (GET_SIGN(bip.op1) == BIG_POSITIVE) {
if (GET_SIGN(bip.op2) == BIG_POSITIVE) {
/* op1 >= 0 and op2 >= 0 */
bigUadd();
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
/* op1 >= 0 and op2 < 0 */
if (bigUcmp() >= 0) {
/* |op1| >= |op2| */
bigUsub();
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
/* |op1| < |op2| */
bigXchg();
bigUsub();
SET_SIGN(bip.res, BIG_NEGATIVE);
bigXchg();
}
}
} else {
if (GET_SIGN(bip.op2) == BIG_POSITIVE) {
/* op1 < 0 and op2 >= 0 */
if (bigUcmp() <= 0) {
/* |op1| <= |op2| */
bigXchg();
bigUsub();
SET_SIGN(bip.res, BIG_POSITIVE);
bigXchg();
} else {
/* |op1| > |op2| */
bigUsub();
SET_SIGN(bip.res, BIG_NEGATIVE);
}
} else {
/* op1 < 0 and op2 < 0 */
bigUadd();
SET_SIGN(bip.res, BIG_NEGATIVE);
}
}
}
/*
* big integer subtraction
*
* operands in bip.op1 and bip.op2
* result in bip.res
*/
void bigSub(void) {
if (bip.op1 == NULL ||
bip.op2 == NULL) {
nilRefException();
}
if (GET_SIGN(bip.op1) == BIG_POSITIVE) {
if (GET_SIGN(bip.op2) == BIG_POSITIVE) {
/* op1 >= 0 and op2 >= 0 */
if (bigUcmp() >= 0) {
/* |op1| >= |op2| */
bigUsub();
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
/* |op1| < |op2| */
bigXchg();
bigUsub();
SET_SIGN(bip.res, BIG_NEGATIVE);
bigXchg();
}
} else {
/* op1 >= 0 and op2 < 0 */
bigUadd();
SET_SIGN(bip.res, BIG_POSITIVE);
}
} else {
if (GET_SIGN(bip.op2) == BIG_POSITIVE) {
/* op1 < 0 and op2 >= 0 */
bigUadd();
SET_SIGN(bip.res, BIG_NEGATIVE);
} else {
/* op1 < 0 and op2 < 0 */
if (bigUcmp() <= 0) {
/* |op1| <= |op2| */
bigXchg();
bigUsub();
SET_SIGN(bip.res, BIG_POSITIVE);
bigXchg();
} else {
/* |op1| > |op2| */
bigUsub();
SET_SIGN(bip.res, BIG_NEGATIVE);
}
}
}
}
/*
* big integer multiplication
*
* operands in bip.op1 and bip.op2
* result in bip.res
*/
void bigMul(void) {
if (bip.op1 == NULL ||
bip.op2 == NULL) {
nilRefException();
}
bigUmul();
if (GET_SIGN(bip.op1) == GET_SIGN(bip.op2) || GET_ND(bip.res) == 0) {
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
SET_SIGN(bip.res, BIG_NEGATIVE);
}
}
/*
* big integer division, truncating towards zero
*
* dividend in bip.op1, divisor in bip.op2
* quotient in bip.res, remainder in bip.rem
*/
void bigDiv(void) {
if (bip.op1 == NULL ||
bip.op2 == NULL) {
nilRefException();
}
bigUdiv();
if (GET_SIGN(bip.op1) == GET_SIGN(bip.op2) || GET_ND(bip.res) == 0) {
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
SET_SIGN(bip.res, BIG_NEGATIVE);
}
if (GET_SIGN(bip.op1) == BIG_POSITIVE || GET_ND(bip.rem) == 0) {
SET_SIGN(bip.rem, BIG_POSITIVE);
} else {
SET_SIGN(bip.rem, BIG_NEGATIVE);
}
}
/**************************************************************/
/* big integer conversions */
/*
* conversion int --> big
*
* operand in parameter
* result in bip.res
*/
void bigFromInt(int n) {
int i;
bip.res = newBig(sizeof(int));
if (n < 0) {
n = -n;
SET_SIGN(bip.res, BIG_NEGATIVE);
} else {
SET_SIGN(bip.res, BIG_POSITIVE);
}
for (i = 0; i < sizeof(int); i++) {
SET_DIGIT(bip.res, i, n & 0xFF);
n >>= 8;
}
while (--i >= 0 && GET_DIGIT(bip.res, i) == 0) ;
SET_ND(bip.res, i + 1);
}
/*
* conversion big --> int
*
* operand in bip.op1
* result is returned
*/
int bigToInt(void) {
int nd;
int i;
int res;
if (bip.op1 == NULL) {
nilRefException();
}
nd = GET_ND(bip.op1);
if (nd > 4 ||
(nd == 4 && GET_DIGIT(bip.op1, 3) >= 0x80)) {
fatalError("big integer too big for conversion to int");
}
res = 0;
for (i = nd - 1; i >= 0; i--) {
res <<= 8;
res |= (unsigned int) GET_DIGIT(bip.op1, i);
}
if (GET_SIGN(bip.op1) == BIG_NEGATIVE) {
res = -res;
}
return res;
}
/**************************************************************/
/* big integer I/O */
/*
* read a big integer
*
* stream to read from in parameter
* result in bip.res
*/
void bigRead(FILE *in) {
int c;
int positive;
c = fgetc(in);
while (isspace(c)) {
c = fgetc(in);
}
if (c == '-') {
positive = 0;
c = fgetc(in);
} else {
positive = 1;
if (c == '+') {
c = fgetc(in);
}
}
if (!isdigit(c)) {
fatalError("no digits in input");
}
bigFromInt(10);
bip.rem = bip.res;
bigFromInt(0);
while (isdigit(c)) {
bip.op1 = bip.res;
bip.op2 = bip.rem;
bigUmul();
bip.op1 = bip.res;
bigFromInt(c - '0');
bip.op2 = bip.res;
bigUadd();
c = fgetc(in);
}
ungetc(c, in);
if (positive || GET_ND(bip.res) == 0) {
SET_SIGN(bip.res, BIG_POSITIVE);
} else {
SET_SIGN(bip.res, BIG_NEGATIVE);
}
}
/*
* print a big integer
*
* stream to write to in parameter
* number to print in bip.op1
*/
void bigPrint(FILE *out) {
int nd;
unsigned char r;
int skipZero;
if (bip.op1 == NULL) {
nilRefException();
}
nd = GET_ND(bip.op1);
if (nd == 0) {
fprintf(out, "0");
return;
}
if (GET_SIGN(bip.op1) == BIG_NEGATIVE) {
fprintf(out, "-");
}
/* number of digits in base 10 = number of digits
in base 256 * log10(256), and log10(256) < 2.5 */
nd = 2 * nd + nd / 2;
bip.rem = bip.op1;
bigFromInt(10);
bip.op2 = bip.res;
bigFromInt(1);
while (nd != 0) {
bip.op1 = bip.res;
bigUmul();
nd--;
}
bip.op1 = bip.rem;
bip.op2 = bip.res;
skipZero = 1;
do {
bigUdiv();
if (GET_ND(bip.res) == 0) {
if (!skipZero) {
fprintf(out, "0");
}
} else {
if (GET_ND(bip.res) != 1) {
fatalError("internal library error #7 - THIS SHOULD NEVER HAPPEN!");
}
fprintf(out, "%c", GET_DIGIT(bip.res, 0) + '0');
skipZero = 0;
}
bip.op1 = bip.rem;
bip.rem = bip.op2;
r = bigUdiv1(10);
bip.op2 = bip.rem;
} while (r == 0);
}
/**************************************************************/
/* debugging */
/*
* dump a big integer object
*/
void bigDump(FILE *out, BigObjRef bigObjRef) {
int nd;
unsigned char sign;
int i;
if (bigObjRef == NULL) {
nilRefException();
}
nd = GET_ND(bigObjRef);
sign = GET_SIGN(bigObjRef);
fprintf(out, "[%d %c", nd, sign == BIG_POSITIVE ? '+' : '-');
for (i = 0; i < nd; i++) {
fprintf(out, " %02X", GET_DIGIT(bigObjRef, i));
}
fprintf(out, "]");
}

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@ -1,60 +0,0 @@
/*
* bigint.h -- big integer library
*/
#ifndef _BIGINT_H_
#define _BIGINT_H_
/* object representation */
typedef void* BigObjRef;
#include <stdio.h>
typedef struct {
int nd; /* number of digits; array may be bigger */
/* nd = 0 exactly when number = 0 */
unsigned char sign; /* one of BIG_NEGATIVE or BIG_POSITIVE */
/* zero always has BIG_POSITIVE here */
unsigned char digits[1]; /* the digits proper; number base is 256 */
/* LS digit first; MS digit is not zero */
} Big;
#include "support.h"
/* big integer processor registers */
typedef struct {
BigObjRef op1; /* first (or single) operand */
BigObjRef op2; /* second operand (if present) */
BigObjRef res; /* result of operation */
BigObjRef rem; /* remainder in case of division */
} BIP;
extern BIP bip; /* registers of the processor */
/* big integer processor functions */
int bigSgn(void); /* sign */
int bigCmp(void); /* comparison */
void bigNeg(void); /* negation */
void bigAdd(void); /* addition */
void bigSub(void); /* subtraction */
void bigMul(void); /* multiplication */
void bigDiv(void); /* division */
void bigFromInt(int n); /* conversion int --> big */
int bigToInt(void); /* conversion big --> int */
void bigRead(FILE *in); /* read a big integer */
void bigPrint(FILE *out); /* print a big integer */
void bigDump(FILE *out, BigObjRef bigObjRef); /* dump a big integer object */
#endif /* _BIGINT_H_ */

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@ -1,15 +0,0 @@
/*
* support.h -- object representation and support functions
*/
#ifndef _SUPPORT_H_
#define _SUPPORT_H_
/* support functions */
void fatalError(char *msg); /* print a message and exit */
void * newPrimObject(int dataSize); /* create a new primitive object */
void * getPrimObjectDataPointer(void * primObject);
#endif /* _SUPPORT_H_ */

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@ -1,28 +0,0 @@
#
# Makefile for big integer test
#
BUILD = ../build
CC = gcc
CFLAGS = -g -Wall -I$(BUILD)/include
LDFLAGS = -g -Wall -L$(BUILD)/lib
LDLIBS = -lbigint
all: testbip
install: all
mkdir -p $(BUILD)/bin
cp testbip $(BUILD)/bin
testbip: testbip.o support.o
$(CC) $(LDFLAGS) -o testbip testbip.o support.o $(LDLIBS)
testbip.o: testbip.c
$(CC) $(CFLAGS) -o testbip.o -c testbip.c
support.o: support.c
$(CC) $(CFLAGS) -o support.o -c support.c
clean:
rm -f *~ testbip.o support.o testbip

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@ -1,55 +0,0 @@
/*
* support.c -- support functions for big integer library
*/
#include <stdio.h>
#include <stdlib.h>
#include "support.h"
typedef struct {
unsigned int size; /* byte count of payload data */
unsigned char data[1]; /* payload data, size as needed */
} *ObjRef;
/*
* This routine is called in case a fatal error has occurred.
* It should print the error message and terminate the program.
*/
void fatalError(char *msg) {
printf("Fatal error: %s\n", msg);
exit(1);
}
/*
* This function is called whenever a new primitive object with
* a certain amount of internal memory is needed. It should return
* an object reference to a regular object, which contains a freely
* usable memory area of at least the requested size (measured in
* bytes). The memory area need not be initialized in any way.
*
* Note that this function may move all objects in memory at will
* (due to, e.g., garbage collection), as long as the pointers in
* the global "bip" structure point to the correct objects when
* the function returns.
*/
void * newPrimObject(int dataSize) {
ObjRef bigObjRef;
int size = sizeof(unsigned int) + dataSize * sizeof(unsigned char);
bigObjRef = malloc(size);
bigObjRef->size = size;
if (bigObjRef == NULL) {
fatalError("newPrimObject() got no memory");
}
bigObjRef->size = size;
return bigObjRef;
}
void * getPrimObjectDataPointer(void * obj){
ObjRef oo = ((ObjRef) (obj));
return oo->data;
}

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@ -6,13 +6,13 @@
#include <stdlib.h>
#include "program.c"
unsigned int fromFile(char *path, struct program program) {
unsigned int fromFile(char *path, struct program *program) {
unsigned int countInstructions;
unsigned int staticVars;
FILE *fptr;
fptr = fopen(path, "r");
if (fptr == NULL) {
printf("Error: cannot open code file %s", path);
printf("Error: cannot open code file %s\n", path);
exit(EXIT_FAILURE);
}
unsigned int buffer[4];

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@ -1,3 +0,0 @@
-Ibigint/build/include
-Lbigint/build/lib
-lbigint

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@ -1,7 +1,5 @@
#ifndef CONSTS
#define CONSTS
#define VERSION 8
#define VERSION 4
#endif /* ifndef CONSTS
#define CONSTS
#define VERSION 2; */
#endif

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@ -1,55 +0,0 @@
#ifndef DEBUGMENU
#define DEBUGMENU
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include "stack.c"
#include "stack.c"
void inspect(struct stack s, int fp){
//todo Does not work dont know why
char input[20];
char ref[20];
char refStr[20];
printf("DEBUG [inspect]: stack, datam object?");
fgets(input,20,stdin);
if (input[0] == 's') printStack(s, fp);
if (input[0] == 'd'){/* todo */ }
if (input[0] == 'o'){
scanf("%19s",ref);
ObjRefContainer container;
for (int i = 0; i<= container.size; i++) {
sprintf(refStr, "%p", (void *)&container.refs[i]);
if(strcmp(ref, refStr) == 0) printf("Adress exists\n");
else printf("Adress doeas not exist\n");
printf("%s",refStr);
}
}
}
void list(void){
//todo
}
void breakpoint(int *bp){
printf("BREAKPOINT: ");
char input[20];
fgets(input,20,stdin);
*bp = atoi(input);
}
void debugMenu(int fp, struct stack stack, int* debug, int point, int* bp){
char input[20];
while (true) {
printf("DEBUG(%i): inspect, list, breakpoint, run, step, quit?",point);
fgets(input, 20, stdin);
printf("%s",input);
if(input[0] == 'i') {inspect(stack,fp);}
if(input[0] == 'l') list();
if(input[0] == 'b') breakpoint(bp);
if(input[0] == 's') break;
if(input[0] == 'r') {*debug = 0; break;};
if(input[0] == 'q') exit(0);
strcpy(input, "");
}
}
#endif /* ifndef DEBUGMENU */

8301
factor.asm

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794
factor.nj
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@ -1,794 +0,0 @@
//
// factor.nj -- factorize the numbers 10^n+1, n = 1..30
//
//--------------------------------------------------------------
// handle list of factors
type List = record {
Integer value;
List next;
};
List addToList(Integer value, List next) {
local List newList;
newList = new(List);
newList.value = value;
newList.next = next;
return newList;
}
List sortList(List list) {
local List result;
local List element;
local List p;
result = nil;
while (list != nil) {
element = list;
list = list.next;
if (result == nil || element.value < result.value) {
element.next = result;
result = element;
} else {
p = result;
while (p.next != nil && element.value >= p.next.value) {
p = p.next;
}
element.next = p.next;
p.next = element;
}
}
return result;
}
void showList(List list) {
if (list == nil) {
writeString("1");
} else {
while (true) {
writeInteger(list.value);
list = list.next;
if (list == nil) {
break;
}
writeString(" * ");
}
}
writeString("\n");
}
Integer evalList(List list) {
local Integer result;
result = 1;
while (list != nil) {
result = result * list.value;
list = list.next;
}
return result;
}
List fuseLists(List list1, List list2) {
local List element;
while (list1 != nil) {
element = list1;
list1 = list1.next;
element.next = list2;
list2 = element;
}
return list2;
}
//--------------------------------------------------------------
// compute 10^n+1
Integer computeTarget(Integer n) {
local Integer x;
local Integer i;
x = 1;
i = 0;
while (i < n) {
x = x * 10;
i = i + 1;
}
x = x + 1;
return x;
}
void testComputeTarget() {
writeString("computeTarget()\n");
writeString("---------------\n");
writeString("target(1) = ");
writeInteger(computeTarget(1));
writeString("\n");
writeString("target(2) = ");
writeInteger(computeTarget(2));
writeString("\n");
writeString("target(3) = ");
writeInteger(computeTarget(3));
writeString("\n");
writeString("target(4) = ");
writeInteger(computeTarget(4));
writeString("\n");
writeString("\n");
}
//--------------------------------------------------------------
// build a table of small primes
global Integer smallPrimesLimit;
global Integer[] primes;
global Integer numPrimes;
void showSmallPrimes() {
local Integer i;
local Integer k;
i = 0;
k = 0;
while (i < numPrimes) {
writeInteger(primes[i]);
writeString(" ");
k = k + 1;
if (k == 8) {
k = 0;
writeString("\n");
}
i = i + 1;
}
if (k != 0) {
writeString("\n");
}
}
void enterSmallPrime(Integer p) {
local Integer n;
local Integer[] a;
local Integer i;
if (sizeof(primes) == numPrimes) {
n = 2 * numPrimes;
a = new(Integer[n]);
i = 0;
while (i < numPrimes) {
a[i] = primes[i];
i = i + 1;
}
primes = a;
}
primes[numPrimes] = p;
numPrimes = numPrimes + 1;
}
Boolean isPrime(Integer n) {
local Integer t;
t = 3;
while (t * t <= n) {
if (n % t == 0) {
return false;
}
t = t + 2;
}
return true;
}
void calcSmallPrimes(Integer limit) {
local Integer i;
smallPrimesLimit = limit;
primes = new(Integer[256]);
numPrimes = 0;
enterSmallPrime(2);
enterSmallPrime(3);
i = 5;
while (true) {
if (i > smallPrimesLimit) {
break;
}
if (isPrime(i)) {
enterSmallPrime(i);
}
i = i + 2;
if (i > smallPrimesLimit) {
break;
}
if (isPrime(i)) {
enterSmallPrime(i);
}
i = i + 4;
}
}
void testCalcSmallPrimes() {
writeString("calcSmallPrimes()\n");
writeString("-----------------\n");
writeString("primes less than or equal to 100:\n");
calcSmallPrimes(100);
showSmallPrimes();
writeString("number of primes less than or equal to 100: ");
writeInteger(numPrimes);
writeString("\n");
calcSmallPrimes(1000);
writeString("number of primes less than or equal to 1000: ");
writeInteger(numPrimes);
writeString("\n");
calcSmallPrimes(10000);
writeString("number of primes less than or equal to 10000: ");
writeInteger(numPrimes);
writeString("\n");
calcSmallPrimes(100000);
writeString("number of primes less than or equal to 100000: ");
writeInteger(numPrimes);
writeString("\n");
writeString("\n");
}
//--------------------------------------------------------------
// try to find a small prime factor of a given number
Integer smallPrimeFactor(Integer n) {
local Integer i;
i = 0;
while (i < numPrimes) {
if (n % primes[i] == 0) {
// prime factor found
return primes[i];
}
i = i + 1;
}
// no prime factor less than or equal to smallPrimesLimit found
return 0;
}
void testSmallPrimeFactor() {
calcSmallPrimes(10000);
writeString("smallPrimeFactor()\n");
writeString("------------------\n");
writeString("small prime factor of 2: ");
writeInteger(smallPrimeFactor(2));
writeString("\n");
writeString("small prime factor of 222: ");
writeInteger(smallPrimeFactor(222));
writeString("\n");
writeString("small prime factor of 17*19*23: ");
writeInteger(smallPrimeFactor(17*19*23));
writeString("\n");
writeString("small prime factor of 7919: ");
writeInteger(smallPrimeFactor(7919));
writeString("\n");
writeString("small prime factor of 987654323: ");
writeInteger(smallPrimeFactor(987654323));
writeString("\n");
writeString("\n");
}
//--------------------------------------------------------------
// compute b^n mod m
Integer powerMod(Integer b, Integer n, Integer m) {
local Integer a;
a = 1;
while (n != 0) {
if (n % 2 == 0) {
b = (b * b) % m;
n = n / 2;
} else {
a = (a * b) % m;
n = n - 1;
}
}
return a;
}
void testPowerMod() {
writeString("powerMod()\n");
writeString("----------\n");
writeString("2^16 mod 7: ");
writeInteger(powerMod(2, 16, 7));
writeString("\n");
writeString("3^10 mod 19: ");
writeInteger(powerMod(3, 10, 19));
writeString("\n");
writeString("123^987654323 mod 987654323: ");
writeInteger(powerMod(123, 987654323, 987654323));
writeString("\n");
writeString("\n");
}
//--------------------------------------------------------------
// compute greatest common divisor
Integer GCD(Integer a, Integer b) {
local Integer r;
if (a < 0) {
a = -a;
}
if (b < 0) {
b = -b;
}
while (b != 0) {
r = a % b;
a = b;
b = r;
}
return a;
}
void testGCD() {
writeString("GCD()\n");
writeString("-----\n");
writeString("GCD(3*5*5*11*37, 2*2*5*37*53) = ");
writeInteger(GCD(3*5*5*11*37, 2*2*5*37*53));
writeString("\n");
writeString("\n");
}
//--------------------------------------------------------------
// Rabin-Miller test
Boolean isComposite(Integer n) {
local Integer q;
local Integer t;
local Integer i;
local Integer a;
local Integer e;
local Integer b;
q = n - 1;
t = 0;
while (q % 2 == 0) {
q = q / 2;
t = t + 1;
}
i = 0;
while (i < 20) {
a = primes[i];
if (a >= n) {
break;
}
e = 0;
b = powerMod(a, q, n);
if (b != 1) {
while (b != 1 && b != n - 1 && e <= t - 2) {
b = (b * b) % n;
e = e + 1;
}
if (b != n - 1) {
return true;
}
}
i = i + 1;
}
return false;
}
void testIsComposite() {
local Integer n;
local Integer k;
writeString("isComposite()\n");
writeString("-------------\n");
writeString("odd numbers in [3..99] which are probably prime:\n");
n = 3;
k = 0;
while (n < 100) {
if (!isComposite(n)) {
writeInteger(n);
writeString(" ");
k = k + 1;
if (k == 8) {
k = 0;
writeString("\n");
}
}
n = n + 2;
}
if (k != 0) {
writeString("\n");
}
n = 1234567;
while (n < 1234607) {
writeInteger(n);
writeString(" is ");
if (isComposite(n)) {
writeString("definitely composite\n");
} else {
writeString("probably prime\n");
}
n = n + 2;
}
writeString("\n");
}
//--------------------------------------------------------------
Boolean provePrime(Integer n) {
// not implemented yet
return false;
}
void testProvePrime() {
writeString("provePrime()\n");
writeString("------------\n");
writeString("<not implemented yet>\n");
writeString("\n");
}
//--------------------------------------------------------------
// Pollard's rho method
Integer findFactor1(Integer n) {
local Integer y;
local Integer x;
local Integer x1;
local Integer k;
local Integer l;
local Integer p;
local Integer c;
local Integer g;
local Integer r;
y = 2;
x = 2;
x1 = 2;
k = 1;
l = 1;
p = 1;
c = 0;
while (true) {
x = (x * x + 1) % n;
p = (p * (x1 - x)) % n;
c = c + 1;
if (c == 20) {
g = GCD(p, n);
if (g > 1) {
break;
}
y = x;
c = 0;
}
k = k - 1;
if (k == 0) {
g = GCD(p, n);
if (g > 1) {
break;
}
x1 = x;
k = l;
l = 2 * l;
r = 0;
while (r < k) {
x = (x * x + 1) % n;
r = r + 1;
}
y = x;
c = 0;
}
}
do {
y = (y * y + 1) % n;
g = GCD(x1 - y, n);
} while (g == 1);
if (g < n) {
return g;
} else {
return 0;
}
}
Integer findFactor2(Integer n) {
local Integer y;
local Integer x;
local Integer x1;
local Integer k;
local Integer l;
local Integer p;
local Integer c;
local Integer g;
local Integer r;
y = 2;
x = 2;
x1 = 2;
k = 1;
l = 1;
p = 1;
c = 0;
while (true) {
x = (x * x - 1) % n;
p = (p * (x1 - x)) % n;
c = c + 1;
if (c == 20) {
g = GCD(p, n);
if (g > 1) {
break;
}
y = x;
c = 0;
}
k = k - 1;
if (k == 0) {
g = GCD(p, n);
if (g > 1) {
break;
}
x1 = x;
k = l;
l = 2 * l;
r = 0;
while (r < k) {
x = (x * x - 1) % n;
r = r + 1;
}
y = x;
c = 0;
}
}
do {
y = (y * y - 1) % n;
g = GCD(x1 - y, n);
} while (g == 1);
if (g < n) {
return g;
} else {
return 0;
}
}
Integer findFactor3(Integer n) {
local Integer y;
local Integer x;
local Integer x1;
local Integer k;
local Integer l;
local Integer p;
local Integer c;
local Integer g;
local Integer r;
y = 2;
x = 2;
x1 = 2;
k = 1;
l = 1;
p = 1;
c = 0;
while (true) {
x = (x * x + 3) % n;
p = (p * (x1 - x)) % n;
c = c + 1;
if (c == 20) {
g = GCD(p, n);
if (g > 1) {
break;
}
y = x;
c = 0;
}
k = k - 1;
if (k == 0) {
g = GCD(p, n);
if (g > 1) {
break;
}
x1 = x;
k = l;
l = 2 * l;
r = 0;
while (r < k) {
x = (x * x + 3) % n;
r = r + 1;
}
y = x;
c = 0;
}
}
do {
y = (y * y + 3) % n;
g = GCD(x1 - y, n);
} while (g == 1);
if (g < n) {
return g;
} else {
return 0;
}
}
Integer findFactor(Integer n) {
local Integer r;
r = findFactor1(n);
if (r != 0) {
return r;
}
r = findFactor2(n);
if (r != 0) {
return r;
}
r = findFactor3(n);
return r;
}
void testFindFactor() {
writeString("findFactor()\n");
writeString("------------\n");
writeString("5*5*5 = ");
writeInteger(5*5*5);
writeString(" is a multiple of ");
writeInteger(findFactor(5*5*5));
writeString("\n");
writeString("4421*5743*7699 = ");
writeInteger(4421*5743*7699);
writeString(" is a multiple of ");
writeInteger(findFactor(4421*5743*7699));
writeString("\n");
writeInteger(9999000099990001);
writeString(" is a multiple of ");
writeInteger(findFactor(9999000099990001));
writeString("\n");
writeString("\n");
}
//--------------------------------------------------------------
List factorize(Integer x, Boolean verbose) {
local List factors;
local Integer f;
local Integer f1;
local Integer f2;
local List moreFactors;
if (verbose) {
writeString("factorize(");
writeInteger(x);
writeString(")\n");
}
factors = nil;
while (x > 1) {
f = smallPrimeFactor(x);
if (f == 0) {
// no small prime factor found
if (x < smallPrimesLimit * smallPrimesLimit) {
// we know that x is prime
f = x;
} else {
// we don't know anything
break;
}
}
if (verbose) {
writeString("detected small prime factor ");
writeInteger(f);
writeString("\n");
}
factors = addToList(f, factors);
x = x / f;
}
if (x == 1) {
// x has been completely factorized
if (verbose) {
writeString("the number has been completely factorized\n");
}
return factors;
}
if (verbose) {
writeString("interim result:\n the remaining factor ");
writeInteger(x);
writeString("\n doesn't have any prime factors < ");
writeInteger(smallPrimesLimit);
writeString("\n ");
}
if (isComposite(x)) {
// x is definitely composite
if (verbose) {
writeString("but is definitely composite\n");
}
f1 = findFactor(x);
if (f1 == 0) {
// cannot factorize x, give up
writeString("cannot factorize ");
writeInteger(x);
writeString(", giving up\n");
factors = addToList(x, factors);
} else {
// x = f1 * f2
f2 = x / f1;
if (verbose) {
writeString("this number can be split into ");
writeInteger(f1);
writeString(" and ");
writeInteger(f2);
writeString("\n");
}
moreFactors = factorize(f1, verbose);
factors = fuseLists(moreFactors, factors);
moreFactors = factorize(f2, verbose);
factors = fuseLists(moreFactors, factors);
}
} else {
// x is very probably prime
if (verbose) {
writeString("and is very probably prime\n");
}
if (provePrime(x)) {
if (verbose) {
writeString("the primality of ");
writeInteger(x);
writeString(" has been proven\n");
}
} else {
writeString("cannot prove the primality of ");
writeInteger(x);
writeString(", giving up\n");
}
factors = addToList(x, factors);
}
return factors;
}
void testFactorize(Boolean verbose) {
local List factors;
writeString("factorize()\n");
writeString("-----------\n");
calcSmallPrimes(7);
showSmallPrimes();
writeString("3*5*7*7*141*49 = \n");
factors = factorize(3*5*7*7*141*49, verbose);
showList(sortList(factors));
writeString("\n");
}
//--------------------------------------------------------------
void showBar() {
writeString("---------------------------------");
writeString("-------------------------------\n");
}
void run(Boolean verbose) {
local Integer i;
local Integer x;
local List factors;
local Integer y;
calcSmallPrimes(10000);
showBar();
i = 1;
while (i <= 30) {
writeString("10^");
writeInteger(i);
writeString("+1 = ");
x = computeTarget(i);
writeInteger(x);
writeString(" = \n");
factors = factorize(x, verbose);
factors = sortList(factors);
showList(factors);
writeString("check: product = ");
y = evalList(factors);
writeInteger(y);
writeString("\n");
showBar();
i = i+ 1;
}
}
//--------------------------------------------------------------
void tests(Boolean verbose) {
writeString("\nTests\n");
writeString("=====\n\n");
testComputeTarget();
testCalcSmallPrimes();
testSmallPrimeFactor();
testPowerMod();
testGCD();
testIsComposite();
testProvePrime();
testFindFactor();
testFactorize(verbose);
}
//--------------------------------------------------------------
void main() {
//tests(true);
run(true);
}

33
heap.c
View File

@ -1,33 +0,0 @@
//
// Created by Elias Bennour on 28.01.24.
//
#ifndef HEAP
#define HEAP
#include <stdlib.h>
#include <stdio.h>
int maxHeapSize = 8192 * 1024;
void* my_malloc(size_t size) {
static size_t total_allocated = 0;
if (total_allocated + size > maxHeapSize) {
perror("Memory limit exceeded\n");
exit(1);
}
void* ptr = malloc(size);
if (ptr != NULL) {
total_allocated += size;
}
return ptr;
}
void initHeap(int size) {
maxHeapSize = size;
}
#endif //NINJA_NJVM_H

12
heap.h
View File

@ -1,12 +0,0 @@
//
// Created by Elias Bennour on 28.01.24.
//
#ifndef NINJA_HEAP_H
#define NINJA_HEAP_H
#include <stdlib.h>
void* my_malloc(size_t size);
#endif //NINJA_HEAP_H

View File

@ -2,11 +2,8 @@
#define INSREUKTION
#define IMMEDIATE(x) ((x) & 0x00FFFFFF)
#define MSB (1 << (8 * sizeof(unsigned int) - 1))
#define IS_PRIMITIVE(objRef) (((objRef)->size & MSB) == 0)
#define SIGN_EXTEND(i) ((i) & 0x00800000 ? (i) | 0xFF000000 : (i))
#define GET_ELEMENT_COUNT(objRef) ((objRef)->size & ~MSB)
#define GET_REFS_PTR(objRef) ((ObjRef *) (objRef)-> data)
#define HALT 0
#define PUSHC 1
@ -37,18 +34,5 @@
#define CALL 26
#define RET 27
#define DROP 28
#define PUSHR 29
#define POPR 30
#define DUP 31
#define NEW 32
#define GETF 33
#define PUTF 34
#define NEWA 35
#define GETFA 36
#define PUTFA 37
#define GETSZ 38
#define PUSHN 39
#define REFEQ 40
#define REFNE 41
#endif /* ifndef INSREUKTION */

View File

@ -1,778 +0,0 @@
//
// version
//
.vers 8
//
// execution framework
//
__start:
call _main
call _exit
__stop:
jmp __stop
//
// Integer readInteger()
//
_readInteger:
asf 0
rdint
popr
rsf
ret
//
// void writeInteger(Integer)
//
_writeInteger:
asf 0
pushl -3
wrint
rsf
ret
//
// Character readCharacter()
//
_readCharacter:
asf 0
rdchr
popr
rsf
ret
//
// void writeCharacter(Character)
//
_writeCharacter:
asf 0
pushl -3
wrchr
rsf
ret
//
// Integer char2int(Character)
//
_char2int:
asf 0
pushl -3
popr
rsf
ret
//
// Character int2char(Integer)
//
_int2char:
asf 0
pushl -3
popr
rsf
ret
//
// void exit()
//
_exit:
asf 0
halt
rsf
ret
//
// void writeString(String)
//
_writeString:
asf 1
pushc 0
popl 0
jmp _writeString_L2
_writeString_L1:
pushl -3
pushl 0
getfa
call _writeCharacter
drop 1
pushl 0
pushc 1
add
popl 0
_writeString_L2:
pushl 0
pushl -3
getsz
lt
brt _writeString_L1
rsf
ret
//
// Integer gcd(Integer, Integer)
//
_gcd:
asf 1
jmp __2
__1:
pushl -4
pushl -3
mod
popl 0
pushl -3
popl -4
pushl 0
popl -3
__2:
pushl -3
pushc 0
ne
brt __1
__3:
pushl -4
popr
jmp __0
__0:
rsf
ret
//
// record { Integer num; Integer den; } newFraction(Integer, Integer)
//
_newFraction:
asf 4
pushl -4
pushc 0
lt
brf __5
pushc 0
pushl -4
sub
popl 0
jmp __6
__5:
pushl -4
popl 0
__6:
pushl -3
pushc 0
lt
brf __7
pushc 0
pushl -3
sub
popl 1
jmp __8
__7:
pushl -3
popl 1
__8:
pushl 0
pushl 1
call _gcd
drop 2
pushr
popl 2
new 2
popl 3
pushl -4
pushc 0
lt
pushl -3
pushc 0
lt
ne
brf __9
pushl 3
pushc 0
pushl 0
sub
pushl 2
div
putf 0
jmp __10
__9:
pushl 3
pushl 0
pushl 2
div
putf 0
__10:
pushl 3
pushl 1
pushl 2
div
putf 1
pushl 3
popr
jmp __4
__4:
rsf
ret
//
// void writeFraction(record { Integer num; Integer den; })
//
_writeFraction:
asf 0
pushl -3
getf 0
call _writeInteger
drop 1
pushc 1
newa
dup
pushc 0
pushc 47
putfa
call _writeString
drop 1
pushl -3
getf 1
call _writeInteger
drop 1
__11:
rsf
ret
//
// record { Integer num; Integer den; } negFraction(record { Integer num; Integer den; })
//
_negFraction:
asf 0
pushc 0
pushl -3
getf 0
sub
pushl -3
getf 1
call _newFraction
drop 2
pushr
popr
jmp __12
__12:
rsf
ret
//
// record { Integer num; Integer den; } addFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_addFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -3
getf 0
pushl -4
getf 1
mul
add
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __13
__13:
rsf
ret
//
// record { Integer num; Integer den; } subFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_subFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -3
getf 0
pushl -4
getf 1
mul
sub
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __14
__14:
rsf
ret
//
// record { Integer num; Integer den; } mulFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_mulFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 0
mul
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __15
__15:
rsf
ret
//
// record { Integer num; Integer den; } divFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_divFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -4
getf 1
pushl -3
getf 0
mul
call _newFraction
drop 2
pushr
popr
jmp __16
__16:
rsf
ret
//
// Fraction[][] newMatrix(record { Integer num; Integer den; }, record { Integer num; Integer den; }, record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_newMatrix:
asf 1
pushc 2
newa
popl 0
pushl 0
pushc 0
pushc 2
newa
putfa
pushl 0
pushc 1
pushc 2
newa
putfa
pushl 0
pushc 0
getfa
pushc 0
pushl -6
putfa
pushl 0
pushc 0
getfa
pushc 1
pushl -5
putfa
pushl 0
pushc 1
getfa
pushc 0
pushl -4
putfa
pushl 0
pushc 1
getfa
pushc 1
pushl -3
putfa
pushl 0
popr
jmp __17
__17:
rsf
ret
//
// void writeMatrix(Fraction[][])
//
_writeMatrix:
asf 2
pushc 0
popl 0
jmp __20
__19:
pushc 0
popl 1
jmp __23
__22:
pushl -3
pushl 0
getfa
pushl 1
getfa
call _writeFraction
drop 1
pushc 2
newa
dup
pushc 0
pushc 32
putfa
dup
pushc 1
pushc 32
putfa
call _writeString
drop 1
pushl 1
pushc 1
add
popl 1
__23:
pushl 1
pushl -3
pushl 0
getfa
getsz
lt
brt __22
__24:
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
pushl 0
pushc 1
add
popl 0
__20:
pushl 0
pushl -3
getsz
lt
brt __19
__21:
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
__18:
rsf
ret
//
// Fraction[][] invertMatrix(Fraction[][])
//
_invertMatrix:
asf 1
pushl -3
pushc 0
getfa
pushc 0
getfa
pushl -3
pushc 1
getfa
pushc 1
getfa
call _mulFraction
drop 2
pushr
pushl -3
pushc 0
getfa
pushc 1
getfa
pushl -3
pushc 1
getfa
pushc 0
getfa
call _mulFraction
drop 2
pushr
call _subFraction
drop 2
pushr
popl 0
pushl 0
getf 0
pushc 0
eq
brf __26
pushc 33
newa
dup
pushc 0
pushc 101
putfa
dup
pushc 1
pushc 114
putfa
dup
pushc 2
pushc 114
putfa
dup
pushc 3
pushc 111
putfa
dup
pushc 4
pushc 114
putfa
dup
pushc 5
pushc 58
putfa
dup
pushc 6
pushc 32
putfa
dup
pushc 7
pushc 109
putfa
dup
pushc 8
pushc 97
putfa
dup
pushc 9
pushc 116
putfa
dup
pushc 10
pushc 114
putfa
dup
pushc 11
pushc 105
putfa
dup
pushc 12
pushc 120
putfa
dup
pushc 13
pushc 32
putfa
dup
pushc 14
pushc 99
putfa
dup
pushc 15
pushc 97
putfa
dup
pushc 16
pushc 110
putfa
dup
pushc 17
pushc 110
putfa
dup
pushc 18
pushc 111
putfa
dup
pushc 19
pushc 116
putfa
dup
pushc 20
pushc 32
putfa
dup
pushc 21
pushc 98
putfa
dup
pushc 22
pushc 101
putfa
dup
pushc 23
pushc 32
putfa
dup
pushc 24
pushc 105
putfa
dup
pushc 25
pushc 110
putfa
dup
pushc 26
pushc 118
putfa
dup
pushc 27
pushc 101
putfa
dup
pushc 28
pushc 114
putfa
dup
pushc 29
pushc 116
putfa
dup
pushc 30
pushc 101
putfa
dup
pushc 31
pushc 100
putfa
dup
pushc 32
pushc 10
putfa
call _writeString
drop 1
call _exit
__26:
pushl -3
pushc 1
getfa
pushc 1
getfa
pushl 0
call _divFraction
drop 2
pushr
pushl -3
pushc 0
getfa
pushc 1
getfa
call _negFraction
drop 1
pushr
pushl 0
call _divFraction
drop 2
pushr
pushl -3
pushc 1
getfa
pushc 0
getfa
call _negFraction
drop 1
pushr
pushl 0
call _divFraction
drop 2
pushr
pushl -3
pushc 0
getfa
pushc 0
getfa
pushl 0
call _divFraction
drop 2
pushr
call _newMatrix
drop 4
pushr
popr
jmp __25
__25:
rsf
ret
//
// void main()
//
_main:
asf 3
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
pushc 7
pushc 1
call _newFraction
drop 2
pushr
pushc 4
pushc 1
call _newFraction
drop 2
pushr
pushc 6
pushc 1
call _newFraction
drop 2
pushr
pushc 5
pushc 1
call _newFraction
drop 2
pushr
call _newMatrix
drop 4
pushr
popl 0
pushl 0
call _writeMatrix
drop 1
pushl 0
call _invertMatrix
drop 1
pushr
popl 1
pushl 1
call _writeMatrix
drop 1
pushl 1
call _invertMatrix
drop 1
pushr
popl 2
pushl 2
call _writeMatrix
drop 1
__27:
rsf
ret

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146
matinv.nj
View File

@ -1,146 +0,0 @@
//
// matinv.nj -- invert 2x2 matrices of fractions
//
//--------------------------------------------------------------
// greatest common divisor
Integer gcd(Integer a, Integer b) {
local Integer h;
while (b != 0) {
h = a % b;
a = b;
b = h;
}
return a;
}
//--------------------------------------------------------------
// fractions
type Fraction = record {
Integer num;
Integer den;
};
Fraction newFraction(Integer num, Integer den) {
local Integer n;
local Integer d;
local Integer g;
local Fraction r;
if (num < 0) {
n = -num;
} else {
n = num;
}
if (den < 0) {
d = -den;
} else {
d = den;
}
g = gcd(n, d);
r = new(Fraction);
if ((num < 0) != (den < 0)) {
r.num = -n / g;
} else {
r.num = n / g;
}
r.den = d / g;
return r;
}
void writeFraction(Fraction f) {
writeInteger(f.num);
writeString("/");
writeInteger(f.den);
}
Fraction negFraction(Fraction f) {
return newFraction(-f.num, f.den);
}
Fraction addFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.den + f2.num * f1.den, f1.den * f2.den);
}
Fraction subFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.den - f2.num * f1.den, f1.den * f2.den);
}
Fraction mulFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.num, f1.den * f2.den);
}
Fraction divFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.den, f1.den * f2.num);
}
//--------------------------------------------------------------
// 2x2 matrices of fractions
type Matrix = Fraction[][];
Matrix newMatrix(Fraction a00, Fraction a01,
Fraction a10, Fraction a11) {
local Matrix m;
m = new(Fraction[2][]);
m[0] = new(Fraction[2]);
m[1] = new(Fraction[2]);
m[0][0] = a00;
m[0][1] = a01;
m[1][0] = a10;
m[1][1] = a11;
return m;
}
void writeMatrix(Matrix m) {
local Integer i;
local Integer j;
i = 0;
while (i < sizeof(m)) {
j = 0;
while (j < sizeof(m[i])) {
writeFraction(m[i][j]);
writeString(" ");
j = j + 1;
}
writeString("\n");
i = i + 1;
}
writeString("\n");
}
Matrix invertMatrix(Matrix m) {
local Fraction det;
det = subFraction(mulFraction(m[0][0], m[1][1]),
mulFraction(m[0][1], m[1][0]));
if (det.num == 0) {
writeString("error: matrix cannot be inverted\n");
exit();
}
return newMatrix(
divFraction(m[1][1], det), divFraction(negFraction(m[0][1]), det),
divFraction(negFraction(m[1][0]), det), divFraction(m[0][0], det)
);
}
//--------------------------------------------------------------
void main() {
local Matrix matrix;
local Matrix result1;
local Matrix result2;
writeString("\n");
matrix = newMatrix(
newFraction(7, 1), newFraction(4, 1),
newFraction(6, 1), newFraction(5, 1)
);
writeMatrix(matrix);
result1 = invertMatrix(matrix);
writeMatrix(result1);
result2 = invertMatrix(result1);
writeMatrix(result2);
}

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11070
njlisp.asm

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2580
njlisp.nj

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njvm?inline=false.2 → njvm-3 Normal file → Executable file

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503
njvm.c
View File

@ -1,340 +1,303 @@
#ifndef NJVM
#define NJVM
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include "consts.c"
#include "instruktion.c"
#include "code.c"
#include "stack.c"
#include "program.c"
#include "codeReader.c"
#include "debugMenu.c"
#include "bigint.h"
#include "record.c"
#include "GC.c"
#include "heap.c"
// Debug
int debug = 0;
#include "SDA.c"
// Program
struct program program;
struct program *program;
unsigned fp;
// SDA
int fp;
int debug = 0;
void version(void) {
printf("Ninja Virtual Machine version %i (compiled %s, %s)\n", 0, __DATE__, __TIME__);
printf("Ninja Virtual Machine version %i (compiled %s, %s)\n", VERSION, __DATE__, __TIME__);
}
void help(void) {
printf("Usage: ./njvm [options] <code file>\n\t--debug\tstart virtual machine in debug mode\n\t--version\tshow version and exit\n\t--help\t\tshow this help and exit\n");
}
void execute(struct program program) {
int bp = -1;
int i;
void execute(struct program *program, struct sda *sda) {
struct stack stack;
stack.size = 1000;
stack.currentFrame = 0;
struct stack callStack;
callStack.size = 1000;
callStack.currentFrame = 0;
for (int i = 0; i < stack.size; ++i) {
struct stackFrame *frame = malloc(sizeof(struct stackFrame));
frame->fp = malloc(sizeof(int) * stack.size);
frame->sp = malloc(sizeof(int) * stack.size);
frame->bp = NULL;
stack.frames[i] = frame;
}
for (int i = 0; i < callStack.size; ++i) {
struct stackFrame *frame = malloc(sizeof(struct stackFrame));
frame->fp = malloc(sizeof(int) * stack.size);
frame->sp = malloc(sizeof(int) * stack.size);
frame->bp = NULL;
callStack.frames[i] = frame;
}
struct stackFrame *currentFrame = NULL;
//struct stackFrame *currentCallFrame = NULL;
unsigned int tmp;
int intInput;
char charInput;
StackSlot tempSlot;
ObjRef tempObj;
ObjRef tempObj2;
int tempInt;
for (i = 0; i < *program.size; ++i) {
if (debug == 1 || bp == i) debugMenu(fp, stack, &debug, i, &bp);
if(debug == 1) printf("(%i)",i);
switch (program.program[i] >> 24) {
for (int i = 0; i < program->size; ++i) {
unsigned int instruction = program->program[i];
if (i >= program->size) {
printf("Error: Jump out of program memory\n");
goto end;
}
switch (instruction >> 24) {
case HALT:
if (debug == 1) printf("halt\n");
goto end;
case PUSHC:
if (debug == 1) printf("pushc: %i\n", IMMEDIATE(program.program[i]));
bigFromInt(SIGN_EXTEND(IMMEDIATE(program.program[i])));
push(stack, stackSlotWithObjRef(bip.res));
if (debug == 1) printf("PUSHC %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
push(&stack, SIGN_EXTEND(IMMEDIATE(instruction)));
break;
case ADD:
if (debug == 1) printf("add: %i + %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigAdd();
push(stack, stackSlotWithObjRef(bip.res));
if (debug == 1) printf("ADD\n");
push(&stack, pop(&stack) + pop(&stack));
break;
case SUB:
if (debug == 1) printf("sub: %i - %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigSub();
push(stack, stackSlotWithObjRef(bip.res));
tmp = pop(&stack);
if (debug == 1) printf("SUB\n");
if (debug == 1) printf("tmp: %d\n", tmp);
push(&stack, pop(&stack) - tmp);
break;
case MUL:
if (debug == 1) printf("mul: %i * %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigMul();
push(stack, stackSlotWithObjRef(bip.res));
if (debug == 1) printf("MUL\n");
push(&stack, pop(&stack) * pop(&stack));
break;
case DIV:
if (debug == 1) printf("div: %i / %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigDiv();
push(stack, stackSlotWithObjRef(bip.res));
tmp = pop(&stack);
if (debug == 1) printf("DIV\n");
if (debug == 1) printf("tmp: %d\n", tmp);
push(&stack, pop(&stack) / tmp);
break;
case MOD:
if (debug == 1) printf("mod: %i %% %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigDiv();
push(stack, stackSlotWithObjRef(bip.rem));
tmp = pop(&stack);
if (debug == 1) printf("MOD\n");
if (debug == 1) printf("tmp: %d\n", tmp);
push(&stack, pop(&stack) % tmp);
break;
case RDINT:
if (debug == 1) printf("rdint\n");
bigRead(stdin);
push(stack, stackSlotWithObjRef(bip.res));
if (debug == 1) printf("pushed %i\n", peek(stack, 1));
scanf("%i", &intInput);
if (debug == 1) printf("RDINT %d\n", intInput);
push(&stack, intInput);
break;
case WRINT:
if (debug == 1) printf("wrint: %i\n", peek(stack, 1));
bip.op1 = pop(stack).u.objRef;
bigPrint(stdout);
if (debug == 1) printf("WRINT\n");
printf("%i", pop(&stack));
break;
case RDCHR:
if (debug == 1) printf("rdchr\n");
scanf("%c", &charInput);
bigFromInt(charInput);
push(stack, stackSlotWithObjRef(bip.res));
if (debug == 1) printf("pushed %c\n", charInput);
if (debug == 1) printf("RDCHR %c\n", charInput);
push(&stack, charInput);
break;
case WRCHR:
if (debug == 1) printf("wrchr: %c\n", peek(stack, 1));
bip.op1 = pop(stack).u.objRef;
printf("%c", bigToInt());
if (debug == 1) printf("WRCHR\n");
printf("%c", pop(&stack));
break;
case PUSHG:
if (debug == 1) printf("pushg: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
push(stack, stackSlotWithObjRef(getSDA(SIGN_EXTEND(IMMEDIATE(program.program[i])), sda)));
if (debug == 1) printf("PUSHG %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
currentFrame = stack.frames[stack.currentFrame];
currentFrame->bp = currentFrame->sp;
*currentFrame->sp++ = getSDA(SIGN_EXTEND(IMMEDIATE(instruction)), sda);
break;
case POPG:
if (debug == 1) printf("popg: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
setSDA(SIGN_EXTEND(IMMEDIATE(program.program[i])), pop(stack).u.objRef, sda);
if (debug == 1) printf("POPG %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
currentFrame = stack.frames[stack.currentFrame];
currentFrame->bp = currentFrame->sp;
setSDA(SIGN_EXTEND(IMMEDIATE(instruction)), pop(&stack), sda);
break;
case ASF:
if (debug == 1) printf("asf: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
push(stack, stackSlotWitchNumber(fp));
fp = *stack.current;
*stack.current = *stack.current + SIGN_EXTEND(IMMEDIATE(program.program[i]));
if (debug == 1) printf("ASF %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
currentFrame = stack.frames[stack.currentFrame];
push(&stack, *currentFrame->sp);
*currentFrame->sp = stack.currentFrame;
currentFrame->bp = currentFrame->sp;
stack.currentFrame += SIGN_EXTEND(IMMEDIATE(instruction));
break;
case RSF:
if (debug == 1) printf("rsf: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
*stack.current = fp;
if (debug == 1) printf("pop: %i\n", peek(stack, 1));
tempSlot = pop(stack);
fp = tempSlot.u.number;
break;
case POPL:
if (debug == 1) printf("popl: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
stack.stack[fp + SIGN_EXTEND(IMMEDIATE(program.program[i]))] = pop(stack);
if (debug == 1) printf("RSF\n");
stack.currentFrame = pop(&stack);
currentFrame = stack.frames[stack.currentFrame];
currentFrame->bp = NULL;
break;
case PUSHL:
if (debug == 1) printf("pushl: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
push(stack, stack.stack[fp + SIGN_EXTEND(IMMEDIATE(program.program[i]))]);
printf("PUSHL %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
currentFrame = stack.frames[stack.currentFrame];
currentFrame->bp = currentFrame->sp;
int x = SIGN_EXTEND(IMMEDIATE(instruction));
push(&stack, currentFrame->fp[x]);
break;
case NE:
if (debug == 1) printf("ne: %i != %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigFromInt(bigCmp() != 0);
push(stack, stackSlotWithObjRef(bip.res));
case POPL:
if (debug == 1) printf("POPL %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
currentFrame = stack.frames[stack.currentFrame];
currentFrame->fp[SIGN_EXTEND(IMMEDIATE(instruction))] = pop(&stack);
break;
case EQ:
if (debug == 1) printf("eq: %i == %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigFromInt(bigCmp() == 0);
push(stack, stackSlotWithObjRef(bip.res));
break;
case LT:
if (debug == 1) printf("lt: %i < %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigFromInt(bigCmp() < 0);
push(stack, stackSlotWithObjRef(bip.res));
break;
case LE:
if (debug == 1) printf("le: %i <= %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigFromInt(bigCmp() <= 0);
push(stack, stackSlotWithObjRef(bip.res));
break;
case GT:
if (debug == 1) printf("gt: %i > %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigFromInt(bigCmp() > 0);
push(stack, stackSlotWithObjRef(bip.res));
break;
case GE:
if (debug == 1) printf("ge: %i >= %i\n", peek(stack, 2), peek(stack, 1));
bip.op2 = pop(stack).u.objRef;
bip.op1 = pop(stack).u.objRef;
bigFromInt(bigCmp() >= 0);
push(stack, stackSlotWithObjRef(bip.res));
break;
case BRF:
if (debug == 1) printf("brf: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
if (debug == 1) printf("pop: %i\n", peek(stack, 1));
bip.op1 = pop(stack).u.objRef;
int b = bigToInt();
if (b == false) {
i = SIGN_EXTEND(IMMEDIATE(program.program[i])) - 1;
if (debug == 1) printf("new i: %i\n", i);
} else if (b != true) {
printf("Error: brf: %i\n", b);
exit(EXIT_FAILURE);
if (debug == 1) printf("EQ\n");
if (pop(&stack) == pop(&stack)) {
push(&stack, 1);
} else {
push(&stack, 0);
}
break;
case BRT:
if (debug == 1) printf("brt: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
if (debug == 1) printf("pop: %i\n", peek(stack, 1));
bip.op1 = pop(stack).u.objRef;
b = bigToInt();
if (b == true) {
i = SIGN_EXTEND(IMMEDIATE(program.program[i])) - 1;
if (debug == 1) printf("new i: %i\n", i);
} else if (b != false) {
printf("Error: brt: %i\n", b);
exit(EXIT_FAILURE);
case NE:
if (debug == 1) printf("NE\n");
if (pop(&stack) != pop(&stack)) {
push(&stack, 1);
} else {
push(&stack, 0);
}
break;
case LT:
if (debug == 1) printf("LT\n");
tmp = pop(&stack);
if (pop(&stack) < tmp) {
push(&stack, 1);
} else {
push(&stack, 0);
}
break;
case LE:
if (debug == 1) printf("LE\n");
tmp = pop(&stack);
if (pop(&stack) <= tmp) {
push(&stack, 1);
} else {
push(&stack, 0);
}
break;
case GT:
if (debug == 1) printf("GT\n");
if (debug == 1) printf("peek(1): %d\n", peek(&stack, 1));
if (debug == 1) printf("peek(2): %d\n", peek(&stack, 2));
if (debug == 1) printf("peek(1) > peek(2): %d\n", peek(&stack, 2) > peek(&stack, 1));
tmp = pop(&stack);
if (pop(&stack) > tmp) {
push(&stack, 1);
} else {
push(&stack, 0);
}
break;
case GE:
if (debug == 1) printf("GE\n");
tmp = pop(&stack);
if (pop(&stack) >= tmp) {
push(&stack, 1);
} else {
push(&stack, 0);
}
break;
case JMP:
if (debug == 1) printf("jmp: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
i = SIGN_EXTEND(IMMEDIATE(program.program[i])) - 1;
if (debug == 1) printf("new i: %i\n", i);
if (debug == 1) printf("JMP %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
int j = SIGN_EXTEND(IMMEDIATE(program->program[i]));
if (debug == 1) printf("JMP %d\n", j);
if (j-- >= program->size) {
printf("Error: Jump out of program memory\n");
goto end;
}
i = j;
break;
case BRF: // branch on false
if (debug == 1) printf("BRF %d\nStack: %d\n", SIGN_EXTEND(IMMEDIATE(instruction)), pop(&stack));
if (pop(&stack) == 0) {
int j = SIGN_EXTEND(IMMEDIATE(program->program[i]));
if (j-- >= program->size) {
printf("Error: BRF out of program memory\n");
goto end;
}
i = j;
}
break;
case BRT:
if (debug == 1) printf("BRT %d\n", SIGN_EXTEND(IMMEDIATE(instruction)));
if (pop(&stack) == 1) {
int j = SIGN_EXTEND(IMMEDIATE(program->program[i]));
if (j-- >= program->size) {
printf("Error: BRT out of program memory\n");
goto end;
}
i = j;
}
break;
case CALL:
if (debug == 1) printf("call: %i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
push(stack, stackSlotWitchNumber(i));
if (debug == 1) printf("push: %i\n", i + 1);
i = SIGN_EXTEND(IMMEDIATE(program.program[i])) - 1;
if (debug == 1) printf("new i: %i\n", i);
tmp = SIGN_EXTEND(IMMEDIATE(program->program[i]));
if (j-- >= program->size) {
printf("Error: Call out of program memory\n");
goto end;
}
push(&callStack, i + 1);
i = tmp;
break;
case RET:
if (debug == 1) printf("ret\n");
if (debug == 1) printf("pop: %i\n", peek(stack, 1));
i = getIntValfromStackSlot(pop(stack));
if (debug == 1) printf("new i: %i\n", i);
if (debug == 1) printf("RET\n");
tmp = pop(&callStack);
if (tmp-- >= program->size) {
printf("Error: Return out of program memory\n");
goto end;
}
i = tmp;
break;
case DROP:
if (debug == 1) printf("drop\n");
*stack.current = *stack.current - SIGN_EXTEND(IMMEDIATE(program.program[i]));
break;
case DUP:
if (debug == 1) printf("dup\n");
tempObj = pop(stack).u.objRef;
push(stack, stackSlotWithObjRef(tempObj));
push(stack, stackSlotWithObjRef(tempObj));
break;
case POPR:
if (debug == 1) printf("popr\n");
push(reg, pop(stack));
break;
case PUSHR:
if (debug == 1) printf("pushr\n");
push(stack, pop(reg));
break;
case NEW:
if (debug == 1) printf("new\t%i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
push(stack, stackSlotWithObjRef(newRecord(SIGN_EXTEND(IMMEDIATE(program.program[i])))));
break;
case GETF:
if (debug == 1) printf("getf\n");
tempObj = pop(stack).u.objRef;
push(stack, stackSlotWithObjRef(getField(tempObj,SIGN_EXTEND(IMMEDIATE(program.program[i])))));
break;
case PUTF:
if (debug == 1) printf("putf\t%i\n", SIGN_EXTEND(IMMEDIATE(program.program[i])));
tempObj = pop(stack).u.objRef;
tempObj2 = pop(stack).u.objRef;
setField(tempObj2, SIGN_EXTEND(IMMEDIATE(program.program[i])),tempObj);
break;
case NEWA:
if(debug == 1) printf("newa\n");
bip.op1 = pop(stack).u.objRef;
push(stack, stackSlotWithObjRef(newRecord(bigToInt())));
break;
case GETFA:
if(debug == 1) printf("getfa\n");
bip.op1 = pop(stack).u.objRef;
tempInt = bigToInt();
tempObj = pop(stack).u.objRef;
push(stack, stackSlotWithObjRef(getField(tempObj,bigToInt())));
break;
case PUTFA:
if (debug == 1) printf("putfa\n");
tempObj = pop(stack).u.objRef; // Value
tempObj2 = pop(stack).u.objRef; // Index
bip.op1 = tempObj2;
tempInt = bigToInt();
setField(pop(stack).u.objRef, tempInt,tempObj);
break;
case GETSZ:
if (debug == 1) printf("getsz\n");
tempObj = pop(stack).u.objRef;
if(IS_PRIMITIVE(tempObj)) bigFromInt(-1);
else bigFromInt(GET_ELEMENT_COUNT(tempObj));
push(stack, stackSlotWithObjRef(bip.res));
break;
case PUSHN:
if (debug == 1) printf("pushn\n");
push(stack, stackSlotWithObjRef(NULL));
break;
case REFEQ:
if (debug == 1) printf("refeq\n");
if(pop(stack).u.objRef == pop(stack).u.objRef) bigFromInt(true);
else bigFromInt(false);
push(stack, stackSlotWithObjRef(bip.res));
break;
case REFNE:
if (debug == 1) printf("refeq\n");
if(pop(stack).u.objRef != pop(stack).u.objRef) bigFromInt(true);
else bigFromInt(false);
push(stack, stackSlotWithObjRef(bip.res));
tmp = SIGN_EXTEND(IMMEDIATE(instruction));
if (debug == 1) printf("DROP %d\n", tmp);
for (int b = 0; b < tmp; ++b) {
pop(&stack);
}
break;
}
}
end:
return;
}
// run prog2.bin
void tests(void) {
printf("Test started\n");
/*struct sda *sda = malloc(sizeof(struct sda));
unsigned int s[1000];
sda->size = 1000;
sda->sda = s;
fromFile("prog2.bin", program);
execute(program, (struct sda *) &sda);*/
printf("Test finished\n");
}
int main(int argc, char *argv[]) {
// Initialize the Stack
struct stack stack;
int size = SIZE;
int current = 0;
stack.size = &size;
stack.current = &current;
stack.stack = malloc(size * 1024);
if (stack.stack == NULL) {
perror("malloc");
}
// Initialize the registery
int rSize = 100000;
int rCurrent = 0;
StackSlot r[100000];
reg.size = &rSize;
reg.current = &rCurrent;
reg.stack = r;
stack.size = size;
stack.currentFrame = 0;
// Initialize ProgrammSpeicher
int psize = 100000;
int saveProgram = 0;
unsigned int p[100000];
program.size = &psize;
program.program = p;
program.saveProgram = &saveProgram;
int psize = SIZE;
unsigned int p[1000];
program = malloc(sizeof(struct program));
program->size = psize;
program->program = p;
// Initialize runtime variables
int run = 0;
int sizeSDA;
@ -348,14 +311,6 @@ int main(int argc, char *argv[]) {
} else if (strcmp(argv[i], "--help") == 0) {
help();
return 0;
} else if (strcmp(argv[i], "--stack") == 0) {
i++;
// TODO: implement stack size
} else if (strcmp(argv[i], "--heap") == 0) {
i++;
initHeap(atoi(argv[i]) * 1024);
} else if (strcmp(argv[i], "--gcpurge") == 0) {
// TODO: implement gcpurge
} else {
sizeSDA = fromFile(argv[i], program);
run = 1;
@ -363,22 +318,28 @@ int main(int argc, char *argv[]) {
}
}
/*
* Debug mode
*/
if (debug) {
tests();
}
/*
* Run program
*/
if (run) {
printf("Ninja Virtual Machine started\n");
ObjRef s[sizeSDA];
sda.size = &sizeSDA;
sda.sda = s;
struct sda *sda = malloc(sizeof(struct sda));
unsigned int s[sizeSDA];
sda->size = sizeSDA;
sda->sda = s;
if (debug == 1) printProgram(program);
execute(program);
execute(program, (struct sda *) &sda);
printf("Ninja Virtual Machine stopped\n");
} else {
printf("Error: no code file specified\n");
return 1;
}
return 0;
}
#endif /* ifndef NJVM */

BIN
njvm.o

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BIN
njvm2

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BIN
njvm6

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@ -1,12 +0,0 @@
#ifndef OBJREF
#define OBJREF
#include <stdbool.h>
typedef struct ObjRef{
unsigned int size;
unsigned char data[1];
} *ObjRef;
#endif /* ifndef OBJREF
#define OBJREF */

8301
prog.asm

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BIN
prog.bin

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@ -9,23 +9,21 @@
#include <stdio.h>
struct program {
int *size;
unsigned int *program;
int *saveProgram;
int size;
};
void copyToProgram(const unsigned int codeToCopy[], int size, struct program program) {
void copyToProgram(const unsigned int codeToCopy[], int size, struct program *program) {
for (int i = 0; i < size; ++i) {
program.program[i] = codeToCopy[i];
program->program[i] = codeToCopy[i];
}
*program.size = size;
*program.saveProgram = 1;
program->size = size;
}
void printProgram(struct program program) {
void printProgram(struct program *program) {
char c[10];
for (int i = 0; i < *program.size; i++) {
switch (program.program[i] >> 24) {
for (int i = 0; i < program->size; i++) {
switch (program->program[i] >> 24) {
case PUSHC:
strcpy(c, "pushc");
break;
@ -86,9 +84,6 @@ void printProgram(struct program program) {
case LT:
strcpy(c,"lt");
break;
case LE:
strcpy(c, "le");
break;
case GT:
strcpy(c,"gt");
break;
@ -113,20 +108,11 @@ void printProgram(struct program program) {
case DROP:
strcpy(c,"drop");
break;
case PUSHR:
strcpy(c, "pushr");
break;
case POPR:
strcpy(c, "popr");
break;
case DUP:
strcpy(c, "dup");
break;
default:
strcpy(c, "ERROR");
break;
}
IMMEDIATE(program.program[i]) ? printf("%03i:\t%s\t%i\n", i, c, SIGN_EXTEND(IMMEDIATE(program.program[i]))) : printf(
IMMEDIATE(program->program[i]) ? printf("%03i:\t%s\t%i\n", i, c, SIGN_EXTEND(IMMEDIATE(program->program[i]))) : printf(
"%03i:\t%s\n", i, c);
}
}

View File

@ -1,778 +0,0 @@
//
// version
//
.vers 7
//
// execution framework
//
__start:
call _main
call _exit
__stop:
jmp __stop
//
// Integer readInteger()
//
_readInteger:
asf 0
rdint
popr
rsf
ret
//
// void writeInteger(Integer)
//
_writeInteger:
asf 0
pushl -3
wrint
rsf
ret
//
// Character readCharacter()
//
_readCharacter:
asf 0
rdchr
popr
rsf
ret
//
// void writeCharacter(Character)
//
_writeCharacter:
asf 0
pushl -3
wrchr
rsf
ret
//
// Integer char2int(Character)
//
_char2int:
asf 0
pushl -3
popr
rsf
ret
//
// Character int2char(Integer)
//
_int2char:
asf 0
pushl -3
popr
rsf
ret
//
// void exit()
//
_exit:
asf 0
halt
rsf
ret
//
// void writeString(String)
//
_writeString:
asf 1
pushc 0
popl 0
jmp _writeString_L2
_writeString_L1:
pushl -3
pushl 0
getfa
call _writeCharacter
drop 1
pushl 0
pushc 1
add
popl 0
_writeString_L2:
pushl 0
pushl -3
getsz
lt
brt _writeString_L1
rsf
ret
//
// Integer gcd(Integer, Integer)
//
_gcd:
asf 1
jmp __2
__1:
pushl -4
pushl -3
mod
popl 0
pushl -3
popl -4
pushl 0
popl -3
__2:
pushl -3
pushc 0
ne
brt __1
__3:
pushl -4
popr
jmp __0
__0:
rsf
ret
//
// record { Integer num; Integer den; } newFraction(Integer, Integer)
//
_newFraction:
asf 4
pushl -4
pushc 0
lt
brf __5
pushc 0
pushl -4
sub
popl 0
jmp __6
__5:
pushl -4
popl 0
__6:
pushl -3
pushc 0
lt
brf __7
pushc 0
pushl -3
sub
popl 1
jmp __8
__7:
pushl -3
popl 1
__8:
pushl 0
pushl 1
call _gcd
drop 2
pushr
popl 2
new 2
popl 3
pushl -4
pushc 0
lt
pushl -3
pushc 0
lt
ne
brf __9
pushl 3
pushc 0
pushl 0
sub
pushl 2
div
putf 0
jmp __10
__9:
pushl 3
pushl 0
pushl 2
div
putf 0
__10:
pushl 3
pushl 1
pushl 2
div
putf 1
pushl 3
popr
jmp __4
__4:
rsf
ret
//
// void writeFraction(record { Integer num; Integer den; })
//
_writeFraction:
asf 0
pushl -3
getf 0
call _writeInteger
drop 1
pushc 1
newa
dup
pushc 0
pushc 47
putfa
call _writeString
drop 1
pushl -3
getf 1
call _writeInteger
drop 1
__11:
rsf
ret
//
// record { Integer num; Integer den; } negFraction(record { Integer num; Integer den; })
//
_negFraction:
asf 0
pushc 0
pushl -3
getf 0
sub
pushl -3
getf 1
call _newFraction
drop 2
pushr
popr
jmp __12
__12:
rsf
ret
//
// record { Integer num; Integer den; } addFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_addFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -3
getf 0
pushl -4
getf 1
mul
add
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __13
__13:
rsf
ret
//
// record { Integer num; Integer den; } subFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_subFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -3
getf 0
pushl -4
getf 1
mul
sub
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __14
__14:
rsf
ret
//
// record { Integer num; Integer den; } mulFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_mulFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 0
mul
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __15
__15:
rsf
ret
//
// record { Integer num; Integer den; } divFraction(record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_divFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -4
getf 1
pushl -3
getf 0
mul
call _newFraction
drop 2
pushr
popr
jmp __16
__16:
rsf
ret
//
// Fraction[][] newMatrix(record { Integer num; Integer den; }, record { Integer num; Integer den; }, record { Integer num; Integer den; }, record { Integer num; Integer den; })
//
_newMatrix:
asf 1
pushc 2
newa
popl 0
pushl 0
pushc 0
pushc 2
newa
putfa
pushl 0
pushc 1
pushc 2
newa
putfa
pushl 0
pushc 0
getfa
pushc 0
pushl -6
putfa
pushl 0
pushc 0
getfa
pushc 1
pushl -5
putfa
pushl 0
pushc 1
getfa
pushc 0
pushl -4
putfa
pushl 0
pushc 1
getfa
pushc 1
pushl -3
putfa
pushl 0
popr
jmp __17
__17:
rsf
ret
//
// void writeMatrix(Fraction[][])
//
_writeMatrix:
asf 2
pushc 0
popl 0
jmp __20
__19:
pushc 0
popl 1
jmp __23
__22:
pushl -3
pushl 0
getfa
pushl 1
getfa
call _writeFraction
drop 1
pushc 2
newa
dup
pushc 0
pushc 32
putfa
dup
pushc 1
pushc 32
putfa
call _writeString
drop 1
pushl 1
pushc 1
add
popl 1
__23:
pushl 1
pushl -3
pushl 0
getfa
getsz
lt
brt __22
__24:
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
pushl 0
pushc 1
add
popl 0
__20:
pushl 0
pushl -3
getsz
lt
brt __19
__21:
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
__18:
rsf
ret
//
// Fraction[][] invertMatrix(Fraction[][])
//
_invertMatrix:
asf 1
pushl -3
pushc 0
getfa
pushc 0
getfa
pushl -3
pushc 1
getfa
pushc 1
getfa
call _mulFraction
drop 2
pushr
pushl -3
pushc 0
getfa
pushc 1
getfa
pushl -3
pushc 1
getfa
pushc 0
getfa
call _mulFraction
drop 2
pushr
call _subFraction
drop 2
pushr
popl 0
pushl 0
getf 0
pushc 0
eq
brf __26
pushc 33
newa
dup
pushc 0
pushc 101
putfa
dup
pushc 1
pushc 114
putfa
dup
pushc 2
pushc 114
putfa
dup
pushc 3
pushc 111
putfa
dup
pushc 4
pushc 114
putfa
dup
pushc 5
pushc 58
putfa
dup
pushc 6
pushc 32
putfa
dup
pushc 7
pushc 109
putfa
dup
pushc 8
pushc 97
putfa
dup
pushc 9
pushc 116
putfa
dup
pushc 10
pushc 114
putfa
dup
pushc 11
pushc 105
putfa
dup
pushc 12
pushc 120
putfa
dup
pushc 13
pushc 32
putfa
dup
pushc 14
pushc 99
putfa
dup
pushc 15
pushc 97
putfa
dup
pushc 16
pushc 110
putfa
dup
pushc 17
pushc 110
putfa
dup
pushc 18
pushc 111
putfa
dup
pushc 19
pushc 116
putfa
dup
pushc 20
pushc 32
putfa
dup
pushc 21
pushc 98
putfa
dup
pushc 22
pushc 101
putfa
dup
pushc 23
pushc 32
putfa
dup
pushc 24
pushc 105
putfa
dup
pushc 25
pushc 110
putfa
dup
pushc 26
pushc 118
putfa
dup
pushc 27
pushc 101
putfa
dup
pushc 28
pushc 114
putfa
dup
pushc 29
pushc 116
putfa
dup
pushc 30
pushc 101
putfa
dup
pushc 31
pushc 100
putfa
dup
pushc 32
pushc 10
putfa
call _writeString
drop 1
call _exit
__26:
pushl -3
pushc 1
getfa
pushc 1
getfa
pushl 0
call _divFraction
drop 2
pushr
pushl -3
pushc 0
getfa
pushc 1
getfa
call _negFraction
drop 1
pushr
pushl 0
call _divFraction
drop 2
pushr
pushl -3
pushc 1
getfa
pushc 0
getfa
call _negFraction
drop 1
pushr
pushl 0
call _divFraction
drop 2
pushr
pushl -3
pushc 0
getfa
pushc 0
getfa
pushl 0
call _divFraction
drop 2
pushr
call _newMatrix
drop 4
pushr
popr
jmp __25
__25:
rsf
ret
//
// void main()
//
_main:
asf 3
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
pushc 7
pushc 1
call _newFraction
drop 2
pushr
pushc 4
pushc 1
call _newFraction
drop 2
pushr
pushc 6
pushc 1
call _newFraction
drop 2
pushr
pushc 5
pushc 1
call _newFraction
drop 2
pushr
call _newMatrix
drop 4
pushr
popl 0
pushl 0
call _writeMatrix
drop 1
pushl 0
call _invertMatrix
drop 1
pushr
popl 1
pushl 1
call _writeMatrix
drop 1
pushl 1
call _invertMatrix
drop 1
pushr
popl 2
pushl 2
call _writeMatrix
drop 1
__27:
rsf
ret

View File

@ -1,146 +0,0 @@
//
// matinv.nj -- invert 2x2 matrices of fractions
//
//--------------------------------------------------------------
// greatest common divisor
Integer gcd(Integer a, Integer b) {
local Integer h;
while (b != 0) {
h = a % b;
a = b;
b = h;
}
return a;
}
//--------------------------------------------------------------
// fractions
type Fraction = record {
Integer num;
Integer den;
};
Fraction newFraction(Integer num, Integer den) {
local Integer n;
local Integer d;
local Integer g;
local Fraction r;
if (num < 0) {
n = -num;
} else {
n = num;
}
if (den < 0) {
d = -den;
} else {
d = den;
}
g = gcd(n, d);
r = new(Fraction);
if ((num < 0) != (den < 0)) {
r.num = -n / g;
} else {
r.num = n / g;
}
r.den = d / g;
return r;
}
void writeFraction(Fraction f) {
writeInteger(f.num);
writeString("/");
writeInteger(f.den);
}
Fraction negFraction(Fraction f) {
return newFraction(-f.num, f.den);
}
Fraction addFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.den + f2.num * f1.den, f1.den * f2.den);
}
Fraction subFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.den - f2.num * f1.den, f1.den * f2.den);
}
Fraction mulFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.num, f1.den * f2.den);
}
Fraction divFraction(Fraction f1, Fraction f2) {
return newFraction(f1.num * f2.den, f1.den * f2.num);
}
//--------------------------------------------------------------
// 2x2 matrices of fractions
type Matrix = Fraction[][];
Matrix newMatrix(Fraction a00, Fraction a01,
Fraction a10, Fraction a11) {
local Matrix m;
m = new(Fraction[2][]);
m[0] = new(Fraction[2]);
m[1] = new(Fraction[2]);
m[0][0] = a00;
m[0][1] = a01;
m[1][0] = a10;
m[1][1] = a11;
return m;
}
void writeMatrix(Matrix m) {
local Integer i;
local Integer j;
i = 0;
while (i < sizeof(m)) {
j = 0;
while (j < sizeof(m[i])) {
writeFraction(m[i][j]);
writeString(" ");
j = j + 1;
}
writeString("\n");
i = i + 1;
}
writeString("\n");
}
Matrix invertMatrix(Matrix m) {
local Fraction det;
det = subFraction(mulFraction(m[0][0], m[1][1]),
mulFraction(m[0][1], m[1][0]));
if (det.num == 0) {
writeString("error: matrix cannot be inverted\n");
exit();
}
return newMatrix(
divFraction(m[1][1], det), divFraction(negFraction(m[0][1]), det),
divFraction(negFraction(m[1][0]), det), divFraction(m[0][0], det)
);
}
//--------------------------------------------------------------
void main() {
local Matrix matrix;
local Matrix result1;
local Matrix result2;
writeString("\n");
matrix = newMatrix(
newFraction(7, 1), newFraction(4, 1),
newFraction(6, 1), newFraction(5, 1)
);
writeMatrix(matrix);
result1 = invertMatrix(matrix);
writeMatrix(result1);
result2 = invertMatrix(result1);
writeMatrix(result2);
}

View File

@ -1,26 +0,0 @@
_subFraction:
asf 0
pushl -4
getf 0
pushl -3
getf 1
mul
pushl -3
getf 0
pushl -4
getf 1
mul
sub
pushl -4
getf 1
pushl -3
getf 1
mul
call _newFraction
drop 2
pushr
popr
jmp __14
__14:
rsf
ret

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View File

@ -1,15 +1,11 @@
pushc 3
pushc 4
eq
wrint
add
pushc 10
wrchr
pushc 6
pushc 6
eq
sub
mul
wrint
pushc 10
wrchr
halt

BIN
programs/prog-test-1.bin Normal file

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9
programs/prog-test-2.asm Normal file
View File

@ -0,0 +1,9 @@
pushc -2
rdint
mul
pushc 3
add
wrint
pushc '\n'
wrchr
halt

BIN
programs/prog-test-2.bin Normal file

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5
programs/prog-test-3.asm Normal file
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@ -0,0 +1,5 @@
rdchr
wrint
pushc '\n'
wrchr
halt

BIN
programs/prog-test-3.bin Normal file

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@ -1,28 +0,0 @@
//
// prog02.asm -- call/ret with args, but without ret value
//
asf 3
pushc 11
pushc 33
call proc
drop 2
rsf
halt
proc:
asf 2
pushl -4
wrint
pushc '\n'
wrchr
pushc 22
wrint
pushc '\n'
wrchr
pushl -3
wrint
pushc '\n'
wrchr
rsf
ret

View File

@ -1,32 +0,0 @@
//
// prog04.asm -- call/ret with args, and with ret value
//
asf 3
pushc 11
wrint
pushc '\n'
wrchr
pushc 11
pushc 33
call proc
drop 2
pushr
wrint
pushc '\n'
wrchr
pushc 33
wrint
pushc '\n'
wrchr
rsf
halt
proc:
asf 2
pushl -3
pushl -4
sub
popr
rsf
ret

View File

@ -1,31 +0,0 @@
//
// prog1.asm -- an assembler example with global variables
//
// global Integer x;
// global Integer y;
// x = 2;
// y = x + 3;
// x = 7 * y + x;
// writeInteger(x + -33);
// writeCharacter('\n');
pushc 2
popg 0
pushg 0
pushc 3
add
popg 1
pushc 7
pushg 1
mul
pushg 0
add
popg 0
pushg 0
pushc -33
add
wrint
pushc '\n'
wrchr
halt

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@ -1,9 +1,61 @@
pushc 1
asf 2
asf 4
pushc 23
asf 3
rsf
rsf
rsf
//
// prog1.asm -- an assembler example with global variables
//
//
// compute the gcd of two positive numbers
//
// global Integer x;
// global Integer y;
// x = readInteger();
// y = readInteger();
// while (x != y) {
// if (x > y) {
// x = x - y;
// } else {
// y = y - x;
// }
// }
// writeInteger(x);
// writeCharacter('\n');
// x = readInteger();
rdint
popg 0
// y = readInteger();
rdint
popg 1
// while ...
L1:
// x != y
pushg 0 // 4
pushg 1
ne
brf L2
// if ...
pushg 0
pushg 1
gt
brf L3
// x = x - y
pushg 0
pushg 1
sub
popg 0
jmp L4
L3:
// y = y - x
pushg 1 // 17
pushg 0
sub
popg 1
L4:
jmp L1 // 21
L2:
// writeInteger(x);
pushg 0 // 22
wrint
// writeCharacter('\n');
pushc '\n'
wrchr
halt

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@ -1,12 +1,12 @@
//
// prog1.asm -- an assembler example with global variables
// prog2.asm -- an assembler example with local variables
//
//
// compute the gcd of two positive numbers
//
// global Integer x;
// global Integer y;
// local Integer x;
// local Integer y;
// x = readInteger();
// y = readInteger();
// while (x != y) {
@ -19,43 +19,45 @@
// writeInteger(x);
// writeCharacter('\n');
asf 2
// x = readInteger();
rdint
popg 0
popl 0
// y = readInteger();
rdint
popg 1
popl 1
// while ...
L1:
// x != y
pushg 0
pushg 1
pushl 0
pushl 1
ne
brf L2
// if ...
pushg 0
pushg 1
pushl 0
pushl 1
gt
brf L3
// x = x - y
pushg 0
pushg 1
pushl 0
pushl 1
sub
popg 0
popl 0
jmp L4
L3:
// y = y - x
pushg 1
pushg 0
pushl 1
pushl 0
sub
popg 1
popl 1
L4:
jmp L1
L2:
// writeInteger(x);
pushg 0
pushl 0
wrint
// writeCharacter('\n');
pushc '\n'
wrchr
rsf
halt

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View File

@ -1,63 +1,35 @@
//
// prog2.asm -- an assembler example with local variables
// prog01.asm -- call/ret without args, and without ret value
//
//
// compute the gcd of two positive numbers
//
// local Integer x;
// local Integer y;
// x = readInteger();
// y = readInteger();
// while (x != y) {
// if (x > y) {
// x = x - y;
// } else {
// y = y - x;
// }
// }
// writeInteger(x);
// writeCharacter('\n');
asf 2
// x = readInteger();
rdint
popl 0
// y = readInteger();
rdint
popl 1
// while ...
L1:
// x != y
pushl 0
pushl 1
ne
brf L2
// if ...
pushl 0
pushl 1
gt
brf L3
// x = x - y
pushl 0
pushl 1
sub
popl 0
jmp L4
L3:
// y = y - x
pushl 1
pushl 0
sub
popl 1
L4:
jmp L1
L2:
// writeInteger(x);
pushl 0
asf 3
pushc 11
wrint
pushc '\n'
wrchr
call proc
pushc 44
wrint
// writeCharacter('\n');
pushc '\n'
wrchr
rsf
halt
proc:
asf 2
pushc 22
wrint
pushc '\n'
wrchr
call proctwo
rsf
ret
proctwo:
asf 2
pushc 33
wrint
pushc '\n'
wrchr
rsf
ret

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View File

@ -1,61 +1,28 @@
//
// prog1.asm -- an assembler example with global variables
// prog02.asm -- call/ret with args, but without ret value
//
//
// compute the gcd of two positive numbers
//
// global Integer x;
// global Integer y;
// x = readInteger();
// y = readInteger();
// while (x != y) {
// if (x > y) {
// x = x - y;
// } else {
// y = y - x;
// }
// }
// writeInteger(x);
// writeCharacter('\n');
asf 3
pushc 11
pushc 33
call proc
drop 2
rsf
halt
// x = readInteger();
rdint
popg 0
// y = readInteger();
rdint
popg 1
// while ...
L1:
// x != y
pushg 0
pushg 1
ne
brf L2
// if ...
pushg 0
pushg 1
gt
brf L3
// x = x - y
pushg 0
pushg 1
sub
popg 0
jmp L4
L3:
// y = y - x
pushg 1
pushg 0
sub
popg 1
L4:
jmp L1
L2:
// writeInteger(x);
pushg 0
proc:
asf 2
pushl -4
wrint
// writeCharacter('\n');
pushc '\n'
wrchr
halt
pushc 22
wrint
pushc '\n'
wrchr
pushl -3
wrint
pushc '\n'
wrchr
rsf
ret

View File

@ -1,16 +1,27 @@
//
// prog04.asm -- call/ret with args, and with ret value
// prog02.asm -- call/ret with args, but without ret value
//
pushc 12
rdint
mul
wrint
asf 3
pushc 11
pushc 33
call proc
drop 2
rsf
halt
proc:
asf 1
asf 2
pushl 4
wrint
pushc '\n'
wrchr
pushc 22
wrint
pushc '\n'
wrchr
pushl 3
wrint
pushc '\n'
wrchr
rsf

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View File

@ -1,55 +0,0 @@
//
// Created by Nils Polek on 23.01.24.
//
#ifndef RECORD
#define RECORD
#include "stackslot.c"
#include "instruktion.c"
ObjRef newRecord(int size){
ObjRef record;
unsigned int objSize;
objSize = sizeof(*record) + (size * sizeof(void *));
if((record = my_malloc(objSize)) == NULL){
perror("malloc");
}
record->size = MSB;
record->size = record->size + size;
for(int i = 0; i < size; i++) {
GET_REFS_PTR(record)[i] = NULL;
}
return record;
}
int getSize(ObjRef arr){
if(arr == NULL) return 0;
return GET_ELEMENT_COUNT(arr);
}
ObjRef getField(ObjRef arr, int point){
if(arr == NULL) perror("Record is null");
if(0 > point || point > getSize(arr)){
printf("Index %i out of bounds for length %i\n",point, getSize(arr));
}
return *(ObjRef *)GET_REFS_PTR(arr)[point]->data;
}
void setField(ObjRef arr, int point, ObjRef value){
bool isNull = false;
if(value == NULL) isNull = true;
if(0 > point || point >= getSize(arr)){
printf("Index %i out of bounds for length %i\n",point, getSize(arr));
exit(EXIT_FAILURE);
}
if(arr == NULL) perror("Record is null");
if(IS_PRIMITIVE(arr)) perror("Record is a primitive");
int size;
if (isNull) size = sizeof(void *);
else {
if (IS_PRIMITIVE(value))
size = value->size;
else
size = sizeof(*value) + (GET_ELEMENT_COUNT(value) * sizeof(void *));
}
if((GET_REFS_PTR(arr)[point] = my_malloc(size)) == NULL) perror("malloc");
GET_REFS_PTR(arr)[point] ->size = size;
* (ObjRef *)GET_REFS_PTR(arr)[point]->data = value;
}
#endif

87
stack.c
View File

@ -3,79 +3,46 @@
//
#ifndef STACK
#define STACK
#define SIZE 1000
#include <stdio.h>
#include <stdlib.h>
#include "stackslot.c"
struct stack {
int* size;
int* current;
StackSlot *stack;
struct stackFrame {
int *fp; // Frame pointer
int *sp; // Stack pointer
int *bp; // Base pointer
};
typedef struct {
unsigned int size;
ObjRef *refs;
}ObjRefContainer;
struct stack {
int size;
int currentFrame;
struct stackFrame *frames[SIZE];
};
void printStack(struct stack stack, int fp) {
printf("Stack\nSize:\t\t%i\nCurrent:\t%i\n", *stack.size, *stack.current);
for (int i = *stack.current -1; i >= 0; --i) {
printf("%i\t",i);
if(stack.stack[i].u.objRef == NULL) printf("|NULL|");
else
if(stack.stack[i].isObjRef){
printf("|%p|", (void *)stack.stack[i].u.objRef);
if(stack.stack[i].u.objRef->size == sizeof(int))
printf("(%i)",*(int *)stack.stack[i].u.objRef->data);
}else {
printf("|%i|", getIntValfromStackSlot(stack.stack[i]));
}
if(fp == i) printf("<-\tFP\n");
else if(*stack.current == i) printf("<-\tSP\n");
else printf("\n");
void printStack(struct stack *stack) {
printf("Stack:\n");
for (int i = 0; i < stack->size; ++i) {
printf("[%d] = %d\n", i, stack->frames[stack->currentFrame]->sp[i]);
}
}
//ObjRefContainer getRefs(struct stack stack){
// ObjRefContainer continer;
// int counter = 0;
// for (int i = 0; i <= *stack.current; i++) {
// if(stack.stack[i].isObjRef == true) counter++;
// }
// continer.size = counter;
// ObjRef *list = (ObjRef *)malloc(counter * sizeof(ObjRef));
// for (int i = 0; i<= *stack.current; i++)
// if(stack.stack[i].isObjRef == true)
// list[counter--] = stack.stack[i].u.objRef;
// continer.refs = list;
// return continer;
//}
void push(struct stack s, StackSlot value) {
if (*s.current >= *s.size) {
printf("Stack Overflow\n");
exit(EXIT_FAILURE);
}
s.stack[*s.current] = value;
*s.current=*s.current + 1;
void push(struct stack *stack, unsigned int value) {
struct stackFrame *currentFrame = stack->frames[stack->currentFrame];
*(currentFrame->sp) = value;
currentFrame->sp++;
}
StackSlot pop(struct stack s) {
if (*s.current == 0) {
printf("Stack Underflow\n");
exit(EXIT_FAILURE);
}
*s.current = *s.current -1;
return s.stack[*s.current];
int pop(struct stack *stack) {
struct stackFrame *currentFrame = stack->frames[stack->currentFrame];
currentFrame->sp--;
return *(currentFrame->sp);
}
int peek(struct stack s, int steps) {
if (*s.current - steps < 0) {
printf("Stack Underflow\n");
exit(EXIT_FAILURE);
}
return getIntValfromStackSlot(s.stack[*s.current - steps]);
int peek(struct stack *stack, int steps) { // peek is pop without removing the value
struct stackFrame *currentFrame = stack->frames[stack->currentFrame];
return *(currentFrame->sp - steps);
}
#endif

View File

@ -1,67 +0,0 @@
#ifndef STACKSLOT
#define STACKSLOT
#include <stdbool.h>
#include <stdio.h>
#include <stdlib.h>
#include "objref.c"
#include "heap.h"
typedef int Object;
typedef struct {
bool isObjRef;
union {
ObjRef objRef;
int number;
} u;
} StackSlot;
ObjRef getIntObj(int val) {
ObjRef intObject;
unsigned int objSize = sizeof(ObjRef) + sizeof(int);
if ((intObject = my_malloc(objSize)) == NULL) {
perror("malloc");
}
*(int *) intObject->data = val;
intObject->size = objSize;
return intObject;
}
int getValFromIntObj(ObjRef iref) {
if (iref == NULL) perror("ObjRef is null");
return *(int *) iref->data;
}
int getIntValfromStackSlot(StackSlot s) {
if (s.isObjRef) {
return *(int *) s.u.objRef->data;
}
return s.u.number;
}
void setValIntObj(ObjRef iref, int val) {
if (iref == NULL) perror("ObjRef is null");
iref->size = sizeof(int)+sizeof(ObjRef);
*(int *) iref->data = val;
}
StackSlot stackSlotWithObjRef(ObjRef val) {
StackSlot *stackSlot;
stackSlot = my_malloc(sizeof(StackSlot));
if(stackSlot == NULL) perror("malloc");
stackSlot->isObjRef = true;
stackSlot->u.objRef = val;
return *stackSlot;
}
StackSlot stackSlotWitchNumber(int val) {
StackSlot *stackSlot;
stackSlot = my_malloc(sizeof(StackSlot));
if(stackSlot == NULL) perror("malloc");
stackSlot->isObjRef = false;
stackSlot->u.number = val;
return *stackSlot;
}
#endif

View File

@ -1,28 +0,0 @@
#include "support.h"
#include <stdio.h>
#include <stdlib.h>
#include "objref.c"
#include "heap.h"
void fatalError(char *msg){
printf("Fatal error: %s\n", msg);
exit(1);
}
void * newPrimObject(int dataSize) {
ObjRef bigObjRef;
bigObjRef = my_malloc(sizeof(unsigned int) +
dataSize * sizeof(unsigned char));
if (bigObjRef == NULL) {
fatalError("newPrimObject() got no memory");
}
bigObjRef->size = sizeof(unsigned int) + dataSize * sizeof(unsigned char);
return bigObjRef;
}
void * getPrimObjectDataPointer(void * obj){
ObjRef oo = ((ObjRef) (obj));
return oo->data;
}

BIN
support.o

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155
test.asm
View File

@ -1,155 +0,0 @@
//
// version
//
.vers 7
//
// execution framework
//
__start:
call _main
call _exit
__stop:
jmp __stop
//
// Integer readInteger()
//
_readInteger:
asf 0
rdint
popr
rsf
ret
//
// void writeInteger(Integer)
//
_writeInteger:
asf 0
pushl -3
wrint
rsf
ret
//
// Character readCharacter()
//
_readCharacter:
asf 0
rdchr
popr
rsf
ret
//
// void writeCharacter(Character)
//
_writeCharacter:
asf 0
pushl -3
wrchr
rsf
ret
//
// Integer char2int(Character)
//
_char2int:
asf 0
pushl -3
popr
rsf
ret
//
// Character int2char(Integer)
//
_int2char:
asf 0
pushl -3
popr
rsf
ret
//
// void exit()
//
_exit:
asf 0
halt
rsf
ret
//
// void writeString(String)
//
_writeString:
asf 1
pushc 0
popl 0
jmp _writeString_L2
_writeString_L1:
pushl -3
pushl 0
getfa
call _writeCharacter
drop 1
pushl 0
pushc 1
add
popl 0
_writeString_L2:
pushl 0
pushl -3
getsz
lt
brt _writeString_L1
rsf
ret
//
// void main()
//
_main:
asf 2
new 2
popl 1
pushl 1
pushc 5
putf 0
pushl 1
getf 0
popl 0
pushl 1
pushc 2
pushl 0
mul
putf 1
pushl 1
getf 0
call _writeInteger
drop 1
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
pushl 1
getf 1
call _writeInteger
drop 1
pushc 1
newa
dup
pushc 0
pushc 10
putfa
call _writeString
drop 1
__0:
rsf
ret

View File

@ -1,3 +0,0 @@
void main(){
}

BIN
test/.DS_Store vendored

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