assert isinstance(algebraic_properties, str)
assert isinstance(const_expr, str)
assert len(input_sizes) == len(input_types)
- assert 0 <= output_size <= 4
+ assert 0 <= output_size <= 4 or (output_size == 8) or (output_size == 16)
for size in input_sizes:
assert 0 <= size <= 4
if output_size != 0:
tint = "int"
tbool = "bool"
tbool1 = "bool1"
+tbool8 = "bool8"
+tbool16 = "bool16"
tbool32 = "bool32"
tuint = "uint"
tuint16 = "uint16"
+tfloat16 = "float16"
tfloat32 = "float32"
tint32 = "int32"
tuint32 = "uint32"
if type_has_size(type_):
return [type_size(type_)]
elif type_ == 'bool':
- return [1, 32]
+ return [1, 8, 16, 32]
elif type_ == 'float':
return [16, 32, 64]
else:
dst_bit_size),
dst_t + str(dst_bit_size), src_t, conv_expr)
+# Special opcode that is the same as f2f16 except that it is safe to remove it
+# if the result is immediately converted back to float32 again. This is
+# generated as part of the precision lowering pass. mp stands for medium
+# precision.
+unop_numeric_convert("f2fmp", tfloat16, tfloat, opcodes["f2f16"].const_expr)
# Unary floating-point rounding operations.
}
""")
+unop("uclz", tuint32, """
+int bit;
+for (bit = bit_size - 1; bit >= 0; bit--) {
+ if ((src0 & (1u << bit)) != 0)
+ break;
+}
+dst = (unsigned)(31 - bit);
+""")
+
unop("ifind_msb", tint32, """
dst = -1;
for (int bit = 31; bit >= 0; bit--) {
# AMD_gcn_shader extended instructions
unop_horiz("cube_face_coord", 2, tfloat32, 3, tfloat32, """
dst.x = dst.y = 0.0;
-float absX = fabs(src0.x);
-float absY = fabs(src0.y);
-float absZ = fabs(src0.z);
+float absX = fabsf(src0.x);
+float absY = fabsf(src0.y);
+float absZ = fabsf(src0.z);
float ma = 0.0;
if (absX >= absY && absX >= absZ) { ma = 2 * src0.x; }
""")
unop_horiz("cube_face_index", 1, tfloat32, 3, tfloat32, """
-float absX = fabs(src0.x);
-float absY = fabs(src0.y);
-float absZ = fabs(src0.z);
+float absX = fabsf(src0.x);
+float absY = fabsf(src0.y);
+float absZ = fabsf(src0.z);
if (src0.x >= 0 && absX >= absY && absX >= absZ) dst.x = 0;
if (src0.x < 0 && absX >= absY && absX >= absZ) dst.x = 1;
if (src0.y >= 0 && absY >= absX && absY >= absZ) dst.x = 2;
def binop_compare(name, ty, alg_props, const_expr):
binop_convert(name, tbool1, ty, alg_props, const_expr)
+def binop_compare8(name, ty, alg_props, const_expr):
+ binop_convert(name, tbool8, ty, alg_props, const_expr)
+
+def binop_compare16(name, ty, alg_props, const_expr):
+ binop_convert(name, tbool16, ty, alg_props, const_expr)
+
def binop_compare32(name, ty, alg_props, const_expr):
binop_convert(name, tbool32, ty, alg_props, const_expr)
+def binop_compare_all_sizes(name, ty, alg_props, const_expr):
+ binop_compare(name, ty, alg_props, const_expr)
+ binop_compare8(name + "8", ty, alg_props, const_expr)
+ binop_compare16(name + "16", ty, alg_props, const_expr)
+ binop_compare32(name + "32", ty, alg_props, const_expr)
+
def binop_horiz(name, out_size, out_type, src1_size, src1_type, src2_size,
src2_type, const_expr):
opcode(name, out_size, out_type, [src1_size, src2_size], [src1_type, src2_type],
[4, 4], [src_type, src_type], False, _2src_commutative,
final(reduce_(reduce_(src0, src1), reduce_(src2, src3))))
+def binop_reduce_all_sizes(name, output_size, src_type, prereduce_expr,
+ reduce_expr, final_expr):
+ binop_reduce(name, output_size, tbool1, src_type,
+ prereduce_expr, reduce_expr, final_expr)
+ binop_reduce("b8" + name[1:], output_size, tbool8, src_type,
+ prereduce_expr, reduce_expr, final_expr)
+ binop_reduce("b16" + name[1:], output_size, tbool16, src_type,
+ prereduce_expr, reduce_expr, final_expr)
+ binop_reduce("b32" + name[1:], output_size, tbool32, src_type,
+ prereduce_expr, reduce_expr, final_expr)
+
binop("fadd", tfloat, _2src_commutative + associative,"""
if (nir_is_rounding_mode_rtz(execution_mode, bit_size)) {
if (bit_size == 64)
}
""")
binop("isub", tint, "", "src0 - src1")
+binop_convert("uabs_isub", tuint, tint, "", """
+ src1 > src0 ? (uint64_t) src1 - (uint64_t) src0
+ : (uint64_t) src0 - (uint64_t) src1
+""")
+binop("uabs_usub", tuint, "", "(src1 > src0) ? (src1 - src0) : (src0 - src1)")
binop("fmul", tfloat, _2src_commutative + associative, """
if (nir_is_rounding_mode_rtz(execution_mode, bit_size)) {
dst = ((uint64_t)src0 & mask) * ((uint64_t)src1 & mask);
""")
+# Multiply 32-bits with low 16-bits.
+binop("imul_32x16", tint32, "", "src0 * (int16_t) src1")
+binop("umul_32x16", tuint32, "", "src0 * (uint16_t) src1")
binop("fdiv", tfloat, "", "src0 / src1")
binop("idiv", tint, "", "src1 == 0 ? 0 : (src0 / src1)")
# these integer-aware comparisons return a boolean (0 or ~0)
-binop_compare("flt", tfloat, "", "src0 < src1")
-binop_compare("fge", tfloat, "", "src0 >= src1")
-binop_compare("feq", tfloat, _2src_commutative, "src0 == src1")
-binop_compare("fne", tfloat, _2src_commutative, "src0 != src1")
-binop_compare("ilt", tint, "", "src0 < src1")
-binop_compare("ige", tint, "", "src0 >= src1")
-binop_compare("ieq", tint, _2src_commutative, "src0 == src1")
-binop_compare("ine", tint, _2src_commutative, "src0 != src1")
-binop_compare("ult", tuint, "", "src0 < src1")
-binop_compare("uge", tuint, "", "src0 >= src1")
-binop_compare32("flt32", tfloat, "", "src0 < src1")
-binop_compare32("fge32", tfloat, "", "src0 >= src1")
-binop_compare32("feq32", tfloat, _2src_commutative, "src0 == src1")
-binop_compare32("fne32", tfloat, _2src_commutative, "src0 != src1")
-binop_compare32("ilt32", tint, "", "src0 < src1")
-binop_compare32("ige32", tint, "", "src0 >= src1")
-binop_compare32("ieq32", tint, _2src_commutative, "src0 == src1")
-binop_compare32("ine32", tint, _2src_commutative, "src0 != src1")
-binop_compare32("ult32", tuint, "", "src0 < src1")
-binop_compare32("uge32", tuint, "", "src0 >= src1")
+binop_compare_all_sizes("flt", tfloat, "", "src0 < src1")
+binop_compare_all_sizes("fge", tfloat, "", "src0 >= src1")
+binop_compare_all_sizes("feq", tfloat, _2src_commutative, "src0 == src1")
+binop_compare_all_sizes("fne", tfloat, _2src_commutative, "src0 != src1")
+binop_compare_all_sizes("ilt", tint, "", "src0 < src1")
+binop_compare_all_sizes("ige", tint, "", "src0 >= src1")
+binop_compare_all_sizes("ieq", tint, _2src_commutative, "src0 == src1")
+binop_compare_all_sizes("ine", tint, _2src_commutative, "src0 != src1")
+binop_compare_all_sizes("ult", tuint, "", "src0 < src1")
+binop_compare_all_sizes("uge", tuint, "", "src0 >= src1")
# integer-aware GLSL-style comparisons that compare floats and ints
-binop_reduce("ball_fequal", 1, tbool1, tfloat, "{src0} == {src1}",
- "{src0} && {src1}", "{src}")
-binop_reduce("bany_fnequal", 1, tbool1, tfloat, "{src0} != {src1}",
- "{src0} || {src1}", "{src}")
-binop_reduce("ball_iequal", 1, tbool1, tint, "{src0} == {src1}",
- "{src0} && {src1}", "{src}")
-binop_reduce("bany_inequal", 1, tbool1, tint, "{src0} != {src1}",
- "{src0} || {src1}", "{src}")
-
-binop_reduce("b32all_fequal", 1, tbool32, tfloat, "{src0} == {src1}",
- "{src0} && {src1}", "{src}")
-binop_reduce("b32any_fnequal", 1, tbool32, tfloat, "{src0} != {src1}",
- "{src0} || {src1}", "{src}")
-binop_reduce("b32all_iequal", 1, tbool32, tint, "{src0} == {src1}",
- "{src0} && {src1}", "{src}")
-binop_reduce("b32any_inequal", 1, tbool32, tint, "{src0} != {src1}",
- "{src0} || {src1}", "{src}")
+binop_reduce_all_sizes("ball_fequal", 1, tfloat, "{src0} == {src1}",
+ "{src0} && {src1}", "{src}")
+binop_reduce_all_sizes("bany_fnequal", 1, tfloat, "{src0} != {src1}",
+ "{src0} || {src1}", "{src}")
+binop_reduce_all_sizes("ball_iequal", 1, tint, "{src0} == {src1}",
+ "{src0} && {src1}", "{src}")
+binop_reduce_all_sizes("bany_inequal", 1, tint, "{src0} != {src1}",
+ "{src0} || {src1}", "{src}")
# non-integer-aware GLSL-style comparisons that return 0.0 or 1.0
opcode("fdph_replicated", 4, tfloat, [3, 4], [tfloat, tfloat], False, "",
"src0.x * src1.x + src0.y * src1.y + src0.z * src1.z + src1.w")
-binop("fmin", tfloat, "", "fmin(src0, src1)")
+binop("fmin", tfloat, _2src_commutative + associative, "fmin(src0, src1)")
binop("imin", tint, _2src_commutative + associative, "src1 > src0 ? src0 : src1")
binop("umin", tuint, _2src_commutative + associative, "src1 > src0 ? src0 : src1")
-binop("fmax", tfloat, "", "fmax(src0, src1)")
+binop("fmax", tfloat, _2src_commutative + associative, "fmax(src0, src1)")
binop("imax", tint, _2src_commutative + associative, "src1 > src0 ? src1 : src0")
binop("umax", tuint, _2src_commutative + associative, "src1 > src0 ? src1 : src0")
triop("umed3", tuint, "", "MAX2(MIN2(MAX2(src0, src1), src2), MIN2(src0, src1))")
opcode("bcsel", 0, tuint, [0, 0, 0],
- [tbool1, tuint, tuint], False, "", "src0 ? src1 : src2")
+ [tbool1, tuint, tuint], False, "", "src0 ? src1 : src2")
+opcode("b8csel", 0, tuint, [0, 0, 0],
+ [tbool8, tuint, tuint], False, "", "src0 ? src1 : src2")
+opcode("b16csel", 0, tuint, [0, 0, 0],
+ [tbool16, tuint, tuint], False, "", "src0 ? src1 : src2")
opcode("b32csel", 0, tuint, [0, 0, 0],
[tbool32, tuint, tuint], False, "", "src0 ? src1 : src2")
dst.w = src3.x;
""")
+opcode("vec8", 8, tuint,
+ [1] * 8, [tuint] * 8,
+ False, "", """
+dst.x = src0.x;
+dst.y = src1.x;
+dst.z = src2.x;
+dst.w = src3.x;
+dst.e = src4.x;
+dst.f = src5.x;
+dst.g = src6.x;
+dst.h = src7.x;
+""")
+
+opcode("vec16", 16, tuint,
+ [1] * 16, [tuint] * 16,
+ False, "", """
+dst.x = src0.x;
+dst.y = src1.x;
+dst.z = src2.x;
+dst.w = src3.x;
+dst.e = src4.x;
+dst.f = src5.x;
+dst.g = src6.x;
+dst.h = src7.x;
+dst.i = src8.x;
+dst.j = src9.x;
+dst.k = src10.x;
+dst.l = src11.x;
+dst.m = src12.x;
+dst.n = src13.x;
+dst.o = src14.x;
+dst.p = src15.x;
+""")
+
+# An integer multiply instruction for address calculation. This is
+# similar to imul, except that the results are undefined in case of
+# overflow. Overflow is defined according to the size of the variable
+# being dereferenced.
+#
+# This relaxed definition, compared to imul, allows an optimization
+# pass to propagate bounds (ie, from an load/store intrinsic) to the
+# sources, such that lower precision integer multiplies can be used.
+# This is useful on hw that has 24b or perhaps 16b integer multiply
+# instructions.
+binop("amul", tint, _2src_commutative + associative, "src0 * src1")
+
# ir3-specific instruction that maps directly to mul-add shift high mix,
# (IMADSH_MIX16 i.e. ah * bl << 16 + c). It is used for lowering integer
# multiplication (imul) on Freedreno backend..
[1, 1, 1], [tint32, tint32, tint32], False, "", """
dst.x = ((((src0.x & 0xffff0000) >> 16) * (src1.x & 0x0000ffff)) << 16) + src2.x;
""")
+
+# ir3-specific instruction that maps directly to ir3 mad.s24.
+#
+# 24b multiply into 32b result (with sign extension) plus 32b int
+triop("imad24_ir3", tint32, _2src_commutative,
+ "(((int32_t)src0 << 8) >> 8) * (((int32_t)src1 << 8) >> 8) + src2")
+
+# 24b multiply into 32b result (with sign extension)
+binop("imul24", tint32, _2src_commutative + associative,
+ "(((int32_t)src0 << 8) >> 8) * (((int32_t)src1 << 8) >> 8)")
projects / mesa.git / blobdiff