def generate_sin(a):
gid = clrt.get_global_id(0)
n = clrt.get_global_size(0)
r = c_float(gid) / c_float(n)
x = r * c_float(16.0) * c_float(3.1415)
a[gid].x = c_float(r * 2.0) - c_float(1.0)
a[gid].y = clrt.native_sin(x)
def generate_sin(a):
gid = clrt.get_global_id(0)
n = clrt.get_global_size(0)
r = c_float(gid) / c_float(n)
x = r * c_float(16.0) * c_float(3.1415)
a[gid].x = c_float(r * 2.0) - c_float(1.0)
a[gid].y = clrt.native_sin(x)
def generate_sin(a):
gid = clrt.get_global_id(0)
n = clrt.get_global_size(0)
r = cl.cl_float(gid) / cl.cl_float(n)
# sin wave with 8 peaks
y = r * cl.cl_float(16.0 * 3.1415)
# x is a range from -1 to 1
a[gid].x = r * 2.0 - 1.0
# y is sin wave
a[gid].y = clrt.native_sin(y)
def generate_sin(a):
gid = clrt.get_global_id(0)
n = clrt.get_global_size(0)
r = c_float(gid) / c_float(n)
# sin wave with 8 peaks
y = r * c_float(16.0 * 3.1415)
# x is a range from -1 to 1
a[gid].x = r * 2.0 - 1.0
# y is sin wave
a[gid].y = clrt.native_sin(y)
def generate_sin(a):
gid = clrt.get_global_id(0)
n = clrt.get_global_size(0)
r = c_float(gid) / c_float(n)
# sin wave with 16 occilations
x = r * c_float(16.0 * 3.1415)
# x is a range from -1 to 1
a[gid].x = r * 2.0 - 1.0
# y is sin wave
a[gid].y = clrt.native_sin(x)
