Beispiel #1
0
void do_gpu_sha(){
	int i;
	uint32_t digest[8*STRIDE];
	uint32_t block[20*STRIDE] = {0};

	block[(72/4)*STRIDE] = 0x9FEF014;
	block[(76/4)*STRIDE] = 0x2a400100;

	sha256cl_context ctx;
	sha256_init(0,&ctx);

	sha256_starts(0,&ctx);
	sha256_update(0,&ctx,block,80);
	sha256_finish(0,&ctx,digest);

	for(i=0; i < 8; i++)
		printf("%8.8X",D_REF(digest,7-i,0));
	printf("\n");

	sha256_starts(0,&ctx);
	sha256_update(0,&ctx,digest,32);
	sha256_finish(0,&ctx,digest);

	for(i=0; i < 8; i++)
		printf("%8.8X",D_REF(digest,7-i,0));
	printf("\n");
}
Beispiel #2
0
/***********************************************************************
**
**	Get_Obj_Mods -- return a block of modified words from an object
**
***********************************************************************/
REBVAL *Get_Obj_Mods(REBFRM *frame, REBVAL **inter_block)
{
	REBVAL *obj  = D_ARG(1);
	REBVAL *words, *val;
	REBFRM *frm  = VAL_OBJ_FRAME(obj);
	REBSER *ser  = Make_Block(2);
	REBOOL clear = D_REF(2);
	//DISABLE_GC;

	val   = BLK_HEAD(frm->values);
	words = BLK_HEAD(frm->words);
	for (; NOT_END(val); val++, words++)
		if (!(VAL_FLAGS(val) & FLAGS_CLEAN)) {
			Append_Val(ser, words);
			if (clear) VAL_FLAGS(val) |= FLAGS_CLEAN;
		}
	if (!STR_LEN(ser)) {
		ENABLE_GC;
		goto is_none;
	}

	Bind_Block(frm, BLK_HEAD(ser), FALSE);
	VAL_SERIES(Temp_Blk_Value) = ser;
	//ENABLE_GC;
	return Temp_Blk_Value;
}
Beispiel #3
0
*/  REBCNT Get_Round_Flags(REBVAL *ds)
/*
**		1 n [number! money! time!] "The value to round"
**		2 /to "Return the nearest multiple of the scale parameter"
**		3	scale [number! money! time!] "Must be a non-zero value"
**		4 /even      "Halves round toward even results"
**		5 /down      "Round toward zero, ignoring discarded digits. (truncate)"
**		6 /half-down "Halves round toward zero"
**		7 /floor     "Round in negative direction"
**		8 /ceiling   "Round in positive direction"
**		9 /half-ceiling "Halves round in positive direction"
**
***********************************************************************/
{
	REBCNT flags = 0;

	if (D_REF(2)) SET_FLAG(flags, RF_TO);
	if (D_REF(4)) SET_FLAG(flags, RF_EVEN);
	if (D_REF(5)) SET_FLAG(flags, RF_DOWN);
	if (D_REF(6)) SET_FLAG(flags, RF_HALF_DOWN);
	if (D_REF(7)) SET_FLAG(flags, RF_FLOOR);
	if (D_REF(8)) SET_FLAG(flags, RF_CEILING);
	if (D_REF(9)) SET_FLAG(flags, RF_HALF_CEILING);

	return flags;
}
Beispiel #4
0
//
//  Find_Refines: C
// 
// Scans the stack for function refinements that have been
// specified in the mask (each as a bit) and are being used.
//
REBCNT Find_Refines(struct Reb_Frame *frame_, REBCNT mask)
{
    REBINT n;
    REBCNT result = 0;

    REBINT max = D_ARGC;

    for (n = 0; n < max; n++) {
        if ((mask & (1 << n) && D_REF(n + 1)))
            result |= 1 << n;
    }
    return result;
}
Beispiel #5
0
*/	REBCNT Find_Refines(REBVAL *ds, REBCNT mask)
/*
**		Scans the stack for function refinements that have been
**		specified in the mask (each as a bit) and are being used.
**
***********************************************************************/
{
	REBINT n;
	REBCNT result = 0;
	REBINT len = DS_ARGC;

	for (n = 0; n < len; n++) {
		if ((mask & (1 << n) && D_REF(n+1)))
			result |= 1 << n;
	}
	return result;
}
Beispiel #6
0
//  
//  "Returns the union of two data sets."
//  
//      set1 [any-array! any-string! binary! bitset! typeset!] "first set"
//      set2 [any-array! any-string! binary! bitset! typeset!] "second set"
//      /case "Use case-sensitive comparison"
//      /skip "Treat the series as records of fixed size"
//      size [integer!]
//  ]
//
REBNATIVE(union)
{
    REBVAL *val1 = D_ARG(1);
    REBVAL *val2 = D_ARG(2);

    const REBOOL cased = D_REF(3);
    const REBOOL skip = D_REF(4) ? Int32s(D_ARG(5), 1) : 1;

    if (IS_BITSET(val1) || IS_BITSET(val2)) {
        if (VAL_TYPE(val1) != VAL_TYPE(val2))
            fail (Error_Unexpected_Type(VAL_TYPE(val1), VAL_TYPE(val2)));

        Val_Init_Bitset(D_OUT, Xandor_Binary(A_OR, val1, val2));
        return R_OUT;
    }

    if (IS_TYPESET(val1) || IS_TYPESET(val2)) {
        if (VAL_TYPE(val1) != VAL_TYPE(val2))
            fail (Error_Unexpected_Type(VAL_TYPE(val1), VAL_TYPE(val2)));

        *D_OUT = *val1;
Beispiel #7
0
*/	static REBINT Do_Set_Operation(struct Reb_Call *call_, REBCNT flags)
/*
**		Do set operations on a series.
**
***********************************************************************/
{
	REBVAL *val;
	REBVAL *val1;
	REBVAL *val2 = 0;
	REBSER *ser;
	REBSER *hser = 0;	// hash table for series
	REBSER *retser;		// return series
	REBSER *hret;		// hash table for return series
	REBCNT i;
	REBINT h = TRUE;
	REBCNT skip = 1;	// record size
	REBCNT cased = 0;	// case sensitive when TRUE

	SET_NONE(D_OUT);
	val1 = D_ARG(1);
	i = 2;

	// Check for second series argument:
	if (flags != SET_OP_UNIQUE) {
		val2 = D_ARG(i++);
		if (VAL_TYPE(val1) != VAL_TYPE(val2))
			raise Error_Unexpected_Type(VAL_TYPE(val1), VAL_TYPE(val2));
	}

	// Refinements /case and /skip N
	cased = D_REF(i++); // cased
	if (D_REF(i++)) skip = Int32s(D_ARG(i), 1);

	switch (VAL_TYPE(val1)) {

	case REB_BLOCK:
		i = VAL_LEN(val1);
		// Setup result block:
		if (GET_FLAG(flags, SOP_BOTH)) i += VAL_LEN(val2);
		retser = BUF_EMIT;			// use preallocated shared block
		Resize_Series(retser, i);
		hret = Make_Hash_Sequence(i);	// allocated

		// Optimization note: !!
		// This code could be optimized for small blocks by not hashing them
		// and extending Find_Key to do a FIND on the value itself w/o the hash.

		do {
			// Check what is in series1 but not in series2:
			if (GET_FLAG(flags, SOP_CHECK))
				hser = Hash_Block(val2, cased);

			// Iterate over first series:
			ser = VAL_SERIES(val1);
			i = VAL_INDEX(val1);
			for (; val = BLK_SKIP(ser, i), i < SERIES_TAIL(ser); i += skip) {
				if (GET_FLAG(flags, SOP_CHECK)) {
					h = Find_Key(VAL_SERIES(val2), hser, val, skip, cased, 1) >= 0;
					if (GET_FLAG(flags, SOP_INVERT)) h = !h;
				}
				if (h) Find_Key(retser, hret, val, skip, cased, 2);
			}

			// Iterate over second series?
			if ((i = GET_FLAG(flags, SOP_BOTH))) {
				val = val1;
				val1 = val2;
				val2 = val;
				CLR_FLAG(flags, SOP_BOTH);
			}

			if (GET_FLAG(flags, SOP_CHECK))
				Free_Series(hser);
		} while (i);

		if (hret)
			Free_Series(hret);

		Val_Init_Block(D_OUT, Copy_Array_Shallow(retser));
		RESET_TAIL(retser); // required - allow reuse

		break;

	case REB_BINARY:
		cased = TRUE;
		SET_TYPE(D_OUT, REB_BINARY);
	case REB_STRING:
		i = VAL_LEN(val1);
		// Setup result block:
		if (GET_FLAG(flags, SOP_BOTH)) i += VAL_LEN(val2);

		retser = BUF_MOLD;
		Reset_Buffer(retser, i);
		RESET_TAIL(retser);

		do {
			REBUNI uc;

			cased = cased ? AM_FIND_CASE : 0;

			// Iterate over first series:
			ser = VAL_SERIES(val1);
			i = VAL_INDEX(val1);
			for (; i < SERIES_TAIL(ser); i += skip) {
				uc = GET_ANY_CHAR(ser, i);
				if (GET_FLAG(flags, SOP_CHECK)) {
					h = Find_Str_Char(VAL_SERIES(val2), 0, VAL_INDEX(val2), VAL_TAIL(val2), skip, uc, cased) != NOT_FOUND;
					if (GET_FLAG(flags, SOP_INVERT)) h = !h;
				}
				if (h && (Find_Str_Char(retser, 0, 0, SERIES_TAIL(retser), skip, uc, cased) == NOT_FOUND)) {
					Append_String(retser, ser, i, skip);
				}
			}

			// Iterate over second series?
			if ((i = GET_FLAG(flags, SOP_BOTH))) {
				val = val1;
				val1 = val2;
				val2 = val;
				CLR_FLAG(flags, SOP_BOTH);
			}
		} while (i);

		ser = Copy_String(retser, 0, -1);
		if (IS_BINARY(D_OUT))
			Val_Init_Binary(D_OUT, ser);
		else
			Val_Init_String(D_OUT, ser);
		break;

	case REB_BITSET:
		switch (flags) {
		case SET_OP_UNIQUE:
			return R_ARG1;
		case SET_OP_UNION:
			i = A_OR;
			break;
		case SET_OP_INTERSECT:
			i = A_AND;
			break;
		case SET_OP_DIFFERENCE:
			i = A_XOR;
			break;
		case SET_OP_EXCLUDE:
			i = 0; // special case
			break;
		}
		ser = Xandor_Binary(i, val1, val2);
		Val_Init_Bitset(D_OUT, ser);
		break;

	case REB_TYPESET:
		switch (flags) {
		case SET_OP_UNIQUE:
			break;
		case SET_OP_UNION:
			VAL_TYPESET(val1) |= VAL_TYPESET(val2);
			break;
		case SET_OP_INTERSECT:
			VAL_TYPESET(val1) &= VAL_TYPESET(val2);
			break;
		case SET_OP_DIFFERENCE:
			VAL_TYPESET(val1) ^= VAL_TYPESET(val2);
			break;
		case SET_OP_EXCLUDE:
			VAL_TYPESET(val1) &= ~VAL_TYPESET(val2);
			break;
		}
		return R_ARG1;

	default:
		raise Error_Invalid_Arg(val1);
	}

	return R_OUT;
}
Beispiel #8
0
*/	static REB_R File_Actor(struct Reb_Call *call_, REBSER *port, REBCNT action)
/*
**		Internal port handler for files.
**
***********************************************************************/
{
	REBVAL *spec;
	REBVAL *path;
	REBREQ *file = 0;
	REBCNT args = 0;
	REBCNT len;
	REBOOL opened = FALSE;	// had to be opened (shortcut case)

	//Print("FILE ACTION: %r", Get_Action_Word(action));

	Validate_Port(port, action);

	*D_OUT = *D_ARG(1);

	// Validate PORT fields:
	spec = BLK_SKIP(port, STD_PORT_SPEC);
	if (!IS_OBJECT(spec)) Trap1_DEAD_END(RE_INVALID_SPEC, spec);
	path = Obj_Value(spec, STD_PORT_SPEC_HEAD_REF);
	if (!path) Trap1_DEAD_END(RE_INVALID_SPEC, spec);

	if (IS_URL(path)) path = Obj_Value(spec, STD_PORT_SPEC_HEAD_PATH);
	else if (!IS_FILE(path)) Trap1_DEAD_END(RE_INVALID_SPEC, path);

	// Get or setup internal state data:
	file = (REBREQ*)Use_Port_State(port, RDI_FILE, sizeof(*file));

	switch (action) {

	case A_READ:
		args = Find_Refines(call_, ALL_READ_REFS);

		// Handle the READ %file shortcut case:
		if (!IS_OPEN(file)) {
			REBCNT nargs = AM_OPEN_READ;
			if (args & AM_READ_SEEK) nargs |= AM_OPEN_SEEK;
			Setup_File(file, nargs, path);
			Open_File_Port(port, file, path);
			opened = TRUE;
		}

		if (args & AM_READ_SEEK) Set_Seek(file, D_ARG(ARG_READ_INDEX));
		len = Set_Length(
			file, D_REF(ARG_READ_PART) ? VAL_INT64(D_ARG(ARG_READ_LENGTH)) : -1
		);
		Read_File_Port(D_OUT, port, file, path, args, len);

		if (opened) {
			OS_DO_DEVICE(file, RDC_CLOSE);
			Cleanup_File(file);
		}

		if (file->error) Trap_Port_DEAD_END(RE_READ_ERROR, port, file->error);
		break;

	case A_APPEND:
		if (!(IS_BINARY(D_ARG(2)) || IS_STRING(D_ARG(2)) || IS_BLOCK(D_ARG(2))))
			Trap1_DEAD_END(RE_INVALID_ARG, D_ARG(2));
		file->special.file.index = file->special.file.size;
		SET_FLAG(file->modes, RFM_RESEEK);

	case A_WRITE:
		args = Find_Refines(call_, ALL_WRITE_REFS);
		spec = D_ARG(2); // data (binary, string, or block)

		// Handle the READ %file shortcut case:
		if (!IS_OPEN(file)) {
			REBCNT nargs = AM_OPEN_WRITE;
			if (args & AM_WRITE_SEEK || args & AM_WRITE_APPEND) nargs |= AM_OPEN_SEEK;
			else nargs |= AM_OPEN_NEW;
			Setup_File(file, nargs, path);
			Open_File_Port(port, file, path);
			opened = TRUE;
		}
		else {
			if (!GET_FLAG(file->modes, RFM_WRITE)) Trap1_DEAD_END(RE_READ_ONLY, path);
		}

		// Setup for /append or /seek:
		if (args & AM_WRITE_APPEND) {
			file->special.file.index = -1; // append
			SET_FLAG(file->modes, RFM_RESEEK);
		}
		if (args & AM_WRITE_SEEK) Set_Seek(file, D_ARG(ARG_WRITE_INDEX));

		// Determine length. Clip /PART to size of string if needed.
		len = VAL_LEN(spec);
		if (args & AM_WRITE_PART) {
			REBCNT n = Int32s(D_ARG(ARG_WRITE_LENGTH), 0);
			if (n <= len) len = n;
		}

		Write_File_Port(file, spec, len, args);

		if (opened) {
			OS_DO_DEVICE(file, RDC_CLOSE);
			Cleanup_File(file);
		}

		if (file->error) Trap1_DEAD_END(RE_WRITE_ERROR, path);
		break;

	case A_OPEN:
		args = Find_Refines(call_, ALL_OPEN_REFS);
		// Default file modes if not specified:
		if (!(args & (AM_OPEN_READ | AM_OPEN_WRITE))) args |= (AM_OPEN_READ | AM_OPEN_WRITE);
		Setup_File(file, args, path);
		Open_File_Port(port, file, path); // !!! needs to change file modes to R/O if necessary
		break;

	case A_COPY:
		if (!IS_OPEN(file)) Trap1_DEAD_END(RE_NOT_OPEN, path); //!!!! wrong msg
		len = Set_Length(file, D_REF(2) ? VAL_INT64(D_ARG(3)) : -1);
		Read_File_Port(D_OUT, port, file, path, args, len);
		break;

	case A_OPENQ:
		if (IS_OPEN(file)) return R_TRUE;
		return R_FALSE;

	case A_CLOSE:
		if (IS_OPEN(file)) {
			OS_DO_DEVICE(file, RDC_CLOSE);
			Cleanup_File(file);
		}
		break;

	case A_DELETE:
		if (IS_OPEN(file)) Trap1_DEAD_END(RE_NO_DELETE, path);
		Setup_File(file, 0, path);
		if (OS_DO_DEVICE(file, RDC_DELETE) < 0 ) Trap1_DEAD_END(RE_NO_DELETE, path);
		break;

	case A_RENAME:
		if (IS_OPEN(file)) Trap1_DEAD_END(RE_NO_RENAME, path);
		else {
			REBSER *target;

			Setup_File(file, 0, path);

			// Convert file name to OS format:
			if (!(target = Value_To_OS_Path(D_ARG(2), TRUE)))
				Trap1_DEAD_END(RE_BAD_FILE_PATH, D_ARG(2));
			file->common.data = BIN_DATA(target);
			OS_DO_DEVICE(file, RDC_RENAME);
			Free_Series(target);
			if (file->error) Trap1_DEAD_END(RE_NO_RENAME, path);
		}
		break;

	case A_CREATE:
		// !!! should it leave file open???
		if (!IS_OPEN(file)) {
			Setup_File(file, AM_OPEN_WRITE | AM_OPEN_NEW, path);
			if (OS_DO_DEVICE(file, RDC_CREATE) < 0) Trap_Port_DEAD_END(RE_CANNOT_OPEN, port, file->error);
			OS_DO_DEVICE(file, RDC_CLOSE);
		}
		break;

	case A_QUERY:
		if (!IS_OPEN(file)) {
			Setup_File(file, 0, path);
			if (OS_DO_DEVICE(file, RDC_QUERY) < 0) return R_NONE;
		}
		Ret_Query_File(port, file, D_OUT);
		// !!! free file path?
		break;

	case A_MODIFY:
		Set_Mode_Value(file, Get_Mode_Id(D_ARG(2)), D_ARG(3));
		if (!IS_OPEN(file)) {
			Setup_File(file, 0, path);
			if (OS_DO_DEVICE(file, RDC_MODIFY) < 0) return R_NONE;
		}
		return R_TRUE;
		break;

	case A_INDEXQ:
		SET_INTEGER(D_OUT, file->special.file.index + 1);
		break;

	case A_LENGTHQ:
		SET_INTEGER(D_OUT, file->special.file.size - file->special.file.index); // !clip at zero
		break;

	case A_HEAD:
		file->special.file.index = 0;
		goto seeked;

    case A_TAIL:
		file->special.file.index = file->special.file.size;
		goto seeked;

	case A_NEXT:
		file->special.file.index++;
		goto seeked;

	case A_BACK:
		if (file->special.file.index > 0) file->special.file.index--;
		goto seeked;

	case A_SKIP:
		file->special.file.index += Get_Num_Arg(D_ARG(2));
		goto seeked;

    case A_HEADQ:
		DECIDE(file->special.file.index == 0);

    case A_TAILQ:
		DECIDE(file->special.file.index >= file->special.file.size);

    case A_PASTQ:
		DECIDE(file->special.file.index > file->special.file.size);

	case A_CLEAR:
		// !! check for write enabled?
		SET_FLAG(file->modes, RFM_RESEEK);
		SET_FLAG(file->modes, RFM_TRUNCATE);
		file->length = 0;
		if (OS_DO_DEVICE(file, RDC_WRITE) < 0) Trap1_DEAD_END(RE_WRITE_ERROR, path);
		break;

	/* Not yet implemented:
		A_AT,					// 38
		A_PICK,					// 41
		A_PATH,					// 42
		A_PATH_SET,				// 43
		A_FIND,					// 44
		A_SELECT,				// 45
		A_TAKE,					// 49
		A_INSERT,				// 50
		A_REMOVE,				// 52
		A_CHANGE,				// 53
		A_POKE,					// 54
		A_QUERY,				// 64
		A_FLUSH,				// 65
	*/

	default:
		Trap_Action_DEAD_END(REB_PORT, action);
	}

	return R_OUT;

seeked:
	SET_FLAG(file->modes, RFM_RESEEK);
	return R_ARG1;

is_true:
	return R_TRUE;

is_false:
	return R_FALSE;
}
Beispiel #9
0
//
//  Series_Common_Action_Returns: C
// 
// This routine is called to handle actions on ANY-SERIES! that can be taken
// care of without knowing what specific kind of series it is.  So generally
// index manipulation, and things like LENGTH/etc.
//
// The strange name is to convey the result in an if statement, in the same
// spirit as the `if (XXX_Throws(...)) { /* handle throw */ }` pattern.
//
REBOOL Series_Common_Action_Returns(
    REB_R *r, // `r_out` would be slightly confusing, considering R_OUT
    REBFRM *frame_,
    REBSYM action
) {
    REBVAL *value = D_ARG(1);
    REBVAL *arg = D_ARGC > 1 ? D_ARG(2) : NULL;

    REBINT index = cast(REBINT, VAL_INDEX(value));
    REBINT tail = cast(REBINT, VAL_LEN_HEAD(value));
    REBINT len = 0;

    switch (action) {

    //-- Navigation:

    case SYM_HEAD:
        VAL_INDEX(value) = 0;
        break;

    case SYM_TAIL:
        VAL_INDEX(value) = (REBCNT)tail;
        break;

    case SYM_HEAD_Q:
        *r = (index == 0) ? R_TRUE : R_FALSE;
        return TRUE; // handled

    case SYM_TAIL_Q:
        *r = (index >= tail) ? R_TRUE : R_FALSE;
        return TRUE; // handled

    case SYM_PAST_Q:
        *r = (index > tail) ? R_TRUE : R_FALSE;
        return TRUE; // handled

    case SYM_NEXT:
        if (index < tail) VAL_INDEX(value)++;
        break;

    case SYM_BACK:
        if (index > 0) VAL_INDEX(value)--;
        break;

    case SYM_SKIP:
    case SYM_AT:
        len = Get_Num_From_Arg(arg);
        {
            REBI64 i = (REBI64)index + (REBI64)len;
            if (action == SYM_SKIP) {
                if (IS_LOGIC(arg)) i--;
            } else { // A_AT
                if (len > 0) i--;
            }
            if (i > (REBI64)tail) i = (REBI64)tail;
            else if (i < 0) i = 0;
            VAL_INDEX(value) = (REBCNT)i;
        }
        break;

    case SYM_INDEX_OF:
        SET_INTEGER(D_OUT, cast(REBI64, index) + 1);
        *r = R_OUT;
        return TRUE; // handled

    case SYM_LENGTH:
        SET_INTEGER(D_OUT, tail > index ? tail - index : 0);
        *r = R_OUT;
        return TRUE; // handled

    case SYM_REMOVE:
        // /PART length
        FAIL_IF_LOCKED_SERIES(VAL_SERIES(value));
        len = D_REF(2) ? Partial(value, 0, D_ARG(3)) : 1;
        index = cast(REBINT, VAL_INDEX(value));
        if (index < tail && len != 0)
            Remove_Series(VAL_SERIES(value), VAL_INDEX(value), len);
        break;

    case SYM_ADD:         // Join_Strings(value, arg);
    case SYM_SUBTRACT:    // "test this" - 10
    case SYM_MULTIPLY:    // "t" * 4 = "tttt"
    case SYM_DIVIDE:
    case SYM_REMAINDER:
    case SYM_POWER:
    case SYM_ODD_Q:
    case SYM_EVEN_Q:
    case SYM_ABSOLUTE:
        fail (Error_Illegal_Action(VAL_TYPE(value), action));

    default:
        return FALSE; // not a common operation, not handled
    }

    *D_OUT = *value;
    *r = R_OUT;
    return TRUE; // handled
}