sect := ldr.NewSection()
	sect.Rwx = uint8(rwx)
	sect.Name = name
	sect.Seg = seg
	sect.Align = int32(arch.PtrSize) // everything is at least pointer-aligned
	seg.Sections = append(seg.Sections, sect)
	return sect
}

func usage() {
	fmt.Fprintf(os.Stderr, "usage: link [options] main.o\n")
	objabi.Flagprint(os.Stderr)

	min := int32(thearch.Minalign)
	align := ldr.SymAlign(s)
	if align >= min {
		return align
	} else if align != 0 {
		return min
	}
	align = int32(thearch.Maxalign)
	ssz := ldr.SymSize(s)
	for int64(align) > ssz && align > min {
		align >>= 1
	}
	ldr.SetSymAlign(s, align)
	return align
}

- [`KT-66208`](https://youtrack.jetbrains.com/issue/KT-66208) PowerAssert: some built-in operators are not aligned correctly for some values
- [`KT-65810`](https://youtrack.jetbrains.com/issue/KT-65810) PowerAssert: Infix transformation doesn't capture full context
- [`KT-65640`](https://youtrack.jetbrains.com/issue/KT-65640) PowerAssert: Infix function not aligned correctly

			repr = append(repr, ';')
		}

		comparable = comparable && (ft.Equal != nil)

		offset := align(size, uintptr(ft.Align_))
		if offset < size {
			panic("reflect.StructOf: struct size would exceed virtual address space")
		}
		if ft.Align_ > typalign {
			typalign = ft.Align_
		}
		size = offset + ft.Size_
		if size < offset {

		}
		t.Go = c.int8
		t.Align = 1

	case *dwarf.EnumType:
		if t.Align = t.Size; t.Align >= c.ptrSize {
			t.Align = c.ptrSize
		}
		t.C.Set("enum " + dt.EnumName)
		signed := 0
		t.EnumValues = make(map[string]int64)
		for _, ev := range dt.Val {
			t.EnumValues[ev.Name] = ev.Val
			if ev.Val < 0 {
				signed = signedDelta
			}
		}

    return input_tensor.reshape(input_tensor.getType().cloneWith(
        output_shape, input_tensor.getElementType()));
  }

  // MLIR implementation pads elements < 8 bits to 8 bits and pads non byte
  // aligned to the nearest byte. So this is allowed.
  const char* raw_input = input_tensor.getRawData().data();
  const int element_byte_size =
      input_tensor.getElementType().getIntOrFloatBitWidth() / 8;

	var y S0
	assert(unsafe.Alignof(y.a) == 1)
	assert(unsafe.Alignof(y.b) == 4)
	assert(unsafe.Alignof(y.c) == 8)
	assert(unsafe.Alignof(y.d) == 1)
	assert(unsafe.Alignof(y.e) == 8)

	var s []byte
	_ = unsafe.Alignof(s)
	_ = unsafe.Alignof(s... /* ERROR "invalid use of ..." */ )
}

func Alignof2() {
	f1 := func() (x int32) { return }
	f2 := func() (x, y int32) { return }

// gotypesalias setting with the GODEBUG environment variable.
// For gotypesalias=1, alias declarations produce an Alias type.
// Otherwise, the alias information is only in the type name,
// which points directly to the actual (aliased) type.
type Alias struct {
	obj     *TypeName      // corresponding declared alias object
	orig    *Alias         // original, uninstantiated alias
	tparams *TypeParamList // type parameters, or nil

// gotypesalias setting with the GODEBUG environment variable.
// For gotypesalias=1, alias declarations produce an Alias type.
// Otherwise, the alias information is only in the type name,
// which points directly to the actual (aliased) type.
type Alias struct {
	obj     *TypeName      // corresponding declared alias object
	orig    *Alias         // original, uninstantiated alias
	tparams *TypeParamList // type parameters, or nil

	alias := func(pkg, fn, pkg2, fn2 string, archs ...*sys.Arch) {
		aliased := false
		for _, a := range archs {
			if b, ok := intrinsics[intrinsicKey{a, pkg2, fn2}]; ok {
				intrinsics[intrinsicKey{a, pkg, fn}] = b
				aliased = true
			}
		}
		if !aliased {
			panic(fmt.Sprintf("attempted to alias undefined intrinsic: %s.%s", pkg, fn))
		}
	}