Unary operation: ZeroExtend

        :param new_length: New length after zero-extension
        :return: A new StridedInterval
193549
def zero_extend(self, new_length):
        
        si = self.copy()
        si._bits = new_length

        return si
1111030
int newElement() {
		int element = m_firstFree;
		if (element == -1) {
			if (m_last == m_capacity) {
				long newcap = m_capacity != 0 ? (((long) m_capacity + 1) * 3 / 2)
						: (long) 1;
				if (newcap > Integer.MAX_VALUE)
					newcap = Integer.MAX_VALUE;// cannot grow past 2gb elements
												// presently

				if (newcap == m_capacity)
					throw new IndexOutOfBoundsException();

				grow_(newcap);
			}

			element = ((m_last / m_blockSize) << m_blockPower)
					+ (m_last % m_blockSize) * m_realStride;
			m_last++;
		} else {
			m_firstFree = m_buffer[element >> m_blockPower][element
					& m_blockMask];
		}

		m_size++;
		int ar[] = m_buffer[element >> m_blockPower];
		int ind = element & m_blockMask;
		for (int i = 0; i < m_stride; i++) {
			ar[ind + i] = -1;
		}
		return element;
	}
972180
def readView(self, newLength=None):
        
        if newLength is None:
            newLength = self.len
        result = self.peekView(newLength)
        self.skip(newLength)
        return result
1351507
def replace_zeros(self, val, zero_thresh=0.0):
        
        new_data = self.data.copy()
        new_data[new_data <= zero_thresh] = val
        return type(self)(new_data.astype(self.data.dtype), frame=self._frame)
628273
function(returnNew) {
      var length = this.length();

      // Collect a ratio to shrink the x and y coords
      var invertedLength = (length < Number.MIN_VALUE) ? 0 : 1/length;

      if (!returnNew) {
        // Convert the coords to be greater than zero
        // but smaller than or equal to 1.0
        return this.set(this.x * invertedLength, this.y * invertedLength);
      } else {
        return new Vec2(this.x * invertedLength, this.y * invertedLength);
      }
    }
219594
def agnostic_extend(self, new_length):
        
        '''
        In a sign-agnostic implementation of strided-intervals a number can be signed or unsigned both.
        Given a SI, we must pay attention how we extend its lower bound and upper bound.
        Assuming that the lower bound is in the left emishpere (positive number).
        Let's assume first that the SI is signed and its upper bound is in the right emisphere. Extending it with leading
        1s (i.e., its MSB)  is correct given that its values would be preserved.
        On the other hand if the number is unsigned we should not replicate its MSB, since this would increase the value
        of the upper bound in the new interval. In this case the correct approach would be to add 0 in front of the number,
        i.e., moving it to the left emisphere. But this approach wouldn't be correct in the first scenario (signed SI).
        The solution in this case is extend the upper bound with 1s. This gives us an overapproximation of the original
        SI.

        Extending this intuition, the implementation follows the below rules:
        (UB: upper bound, LB: lower bound, RE: right emisphere, LE: left emisphere)
        1* UB:LE and LB:LE: add leading 0s (sound).
        2* UB:RE and LB:RE and the LB is closer to the north pole: add leading 0s to LB and leading 1s to the UB (sound)
        3* UB:RE and LB:RE and UB is closer to the north pole: add leading 1s to LB and UB both (sound).
        4* UB:LE and LB:RE: add leading 0s to UB and leading 0s to LB (sound).
        5* UB:RE and LB:LE: add leading 0s to LB and leading 1s to UB (sound).
        6* UB:RE and LB:RE and LB = UB: add leading 0s to LB and 1s to UB and add stride from LB to UB ****
        '''

        si = self.copy()
        si._bits = new_length

        leading_1_lb = False
        leading_1_ub = False

        ub_msb = self._get_msb(self.upper_bound, self.bits)
        lb_msb = self._get_msb(self.lower_bound, self.bits)
        #the only one which chages the stride
        case_6 = False

        # LB:RE cases
        if lb_msb == 1:
            #2
            if ub_msb == 1 and self.upper_bound > self.lower_bound:
                leading_1_ub = True
            #3
            if ub_msb == 1 and self.lower_bound > self.upper_bound:
                leading_1_ub = True
                leading_1_lb = True
            #6
            if ub_msb == 1 and self.lower_bound == self.upper_bound:
                leading_1_ub = True
                case_6 = True
        #5
        elif ub_msb == 1:
            leading_1_ub = True

        if leading_1_lb:
            mask = (2 ** new_length - 1) - (2 ** self.bits - 1)
            si._lower_bound |= mask
        if leading_1_ub:
            mask = (2 ** new_length - 1) - (2 ** self.bits - 1)
            si._upper_bound |= mask
        if case_6:
            si.stride = si.upper_bound - si.lower_bound

        return si
9421
function zeros(arg0, datatype) {
    var A;
    if (Array.isArray(arg0)) {
        A = new ndarray_1.NDArray({ shape: arg0, datatype: datatype });
    }
    else {
        A = new ndarray_1.NDArray({ shape: [arg0], datatype: datatype });
    }
    A.fill(0);
    return A;
}
290755
def peekView(self, newLength):
        
        # Note: In Python 2.7, memoryviews can't be written to
        # by the struct module. (BUG)
        return memoryview(self.buf)[self.offset:self.offset + newLength]
667403
public static GrowQueue_B zeros( int length ) {
		GrowQueue_B out = new GrowQueue_B(length);
		out.size = length;
		return out;
	}
1035494
def ctypes2numpy(cptr, length, dtype):
    
    if not isinstance(cptr, ctypes.POINTER(ctypes.c_float)):
        raise RuntimeError('expected float pointer')
    res = np.zeros(length, dtype=dtype)
    if not ctypes.memmove(res.ctypes.data, cptr, length * res.strides[0]):
        raise RuntimeError('memmove failed')
    return res
7023
def zext(self, width):
        
        width = operator.index(width)
        if width < self._width:
            raise ValueError('zero extending to a smaller width')
        return BinWord(width, self._val)
1009704
def _wrapped_overflow_add(a, b):
        

        if a.is_integer and a.lower_bound == 0:
            # Special case: if `a` or `b` is a zero
            card_self = 0
        else:
            card_self = StridedInterval._wrapped_cardinality(a.lower_bound, a.upper_bound, a.bits)

        if b.is_integer and b.lower_bound == 0:
            # Special case: if `a` or `b` is a zero
            card_b = 0
        else:
            card_b = StridedInterval._wrapped_cardinality(b.lower_bound, b.upper_bound, b.bits)

        return (card_self + card_b) > (StridedInterval.max_int(a.bits) + 1)
1169085
def new(self, length, fp, manage_fp, offset):
        # type: (int, BinaryIO, bool, int) -> None
        '''
        
        '''
        if self._initialized:
            raise pycdlibexception.PyCdlibInternalError('Inode is already initialized')

        self.data_length = length

        self.data_fp = fp
        self.manage_fp = manage_fp
        self.fp_offset = offset
        self.original_data_location = self.DATA_IN_EXTERNAL_FP

        self._initialized = True
664034
def unbounded(self):
        
        max = self.max
        if max is None:
            max = '1'
        if max.isdigit():
            return (int(max) > 1)
        else:
            return max == 'unbounded'
854898
function addLeadingZeros(numField, length) {
		while (numField.toString().length < length) {
			numField = '0' + numField.toString();
		}

		return numField;
	}
330017
public static Vector zero(int length) {
        return length > 1000 ? SparseVector.zero(length) : DenseVector.zero(length);
    }
1235853
def equal_length(*args):
    
    for i, arg in enumerate(args):
        if not isinstance(arg, Sized):
            raise ExpectedTypeError(arg, ["Sized"])
        if i >= 1 and len(arg) != len(args[0]):
            raise DifferentLengthError(args, arg)