p = alignUp(p, align)
		p2 := sysReserve(unsafe.Pointer(p), size)
		if p != uintptr(p2) {
			// Must have raced. Try again.
			sysFreeOS(p2, size)
			if retries++; retries == 100 {
				throw("failed to allocate aligned heap memory; too many retries")
			}
			goto retry
		}
		// Success.
		return p2, size
	default:
		// Trim off the unaligned parts.
		pAligned := alignUp(p, align)

	} else if minimum > maxPagesPerPhysPage {
		print("runtime: min = ", minimum, "\n")
		throw("min too large")
	}
	// max may not be min-aligned, so we might accidentally truncate to
	// a max value which causes us to return a non-min-aligned value.
	// To prevent this, align max up to a multiple of min (which is always
	// a power of 2). This also prevents max from ever being less than

	// On some platforms we need to provide physical page aligned stack
	// allocations. Where the page size is less than the physical page
	// size, we already manage to do this by default.
	needPhysPageAlign := physPageAlignedStacks && typ == spanAllocStack && pageSize < physPageSize

	// If the allocation is small enough, try the page cache!
	// The page cache does not support aligned allocations, so we cannot use

        // Aligned modules
        def firstAligned = mavenRepo.module('org.aligned', 'aligned1', '1.0').dependsOn(intermediate20).publish()
        mavenRepo.module('org.aligned', 'aligned1', '2.0').dependsOn(intermediate20).publish()
        def otherAligned = mavenRepo.module('org.aligned', 'aligned2', '2.0').publish()

        // Roots

			if span.spanclass.sizeclass() != 0 {
				throw("GCProg for type that isn't large")
			}
			spaceNeeded := alignUp(unsafe.Sizeof(_type{}), goarch.PtrSize)
			heapBitsOff := spaceNeeded
			spaceNeeded += alignUp(typ.PtrBytes/goarch.PtrSize/8, goarch.PtrSize)
			npages := alignUp(spaceNeeded, pageSize) / pageSize
			var progSpan *mspan
			systemstack(func() {

//
//go:nowritebarrierrec
func greyobject(obj, base, off uintptr, span *mspan, gcw *gcWork, objIndex uintptr) {
	// obj should be start of allocation, and so must be at least pointer-aligned.
	if obj&(goarch.PtrSize-1) != 0 {
		throw("greyobject: obj not pointer-aligned")
	}
	mbits := span.markBitsForIndex(objIndex)

	if useCheckmark {
		if setCheckmark(obj, base, off, mbits) {
			// Already marked.
			return
		}

	src := unsafe.Slice((*byte)(unsafe.Pointer(selfRelativeSD)), sdLen)
	// SECURITY_DESCRIPTOR has pointers in it, which means checkptr expects for it to
	// be aligned properly. When we're copying a Windows-allocated struct to a
	// Go-allocated one, make sure that the Go allocation is aligned to the
	// pointer size.
	const psize = int(unsafe.Sizeof(uintptr(0)))
	alloc := make([]uintptr, (sdLen+psize-1)/psize)

	// Assert ctxt is zero. See func save.
	MOVQ	(g_sched+gobuf_ctxt)(R14), R9
	TESTQ	R9, R9
	JZ	2(PC)
	CALL	runtime·abort(SB)
	RET

// func asmcgocall_no_g(fn, arg unsafe.Pointer)
// Call fn(arg) aligned appropriately for the gcc ABI.
// Called on a system stack, and there may be no g yet (during needm).
TEXT ·asmcgocall_no_g(SB),NOSPLIT,$32-16
	MOVQ	fn+0(FP), AX
	MOVQ	arg+8(FP), BX
	MOVQ	SP, DX

		ehdr.Shentsize = ELF32SHDRSIZE /* Must be ELF32SHDRSIZE */
	}
}

// Make sure PT_LOAD is aligned properly and
// that there is no gap,
// correct ELF loaders will do this implicitly,
// but buggy ELF loaders like the one in some
// versions of QEMU and UPX won't.
func fixElfPhdr(e *ElfPhdr) {
	frag := int(e.Vaddr & (e.Align - 1))

	e.Off -= uint64(frag)
	e.Vaddr -= uint64(frag)
	e.Paddr -= uint64(frag)

}

func TestAutoAligned64(t *testing.T) {
	var signed struct {
		_ uint32
		i Int64
	}
	if o := reflect.TypeOf(&signed).Elem().Field(1).Offset; o != 8 {
		t.Fatalf("Int64 offset = %d, want 8", o)
	}
	if p := reflect.ValueOf(&signed).Elem().Field(1).Addr().Pointer(); p&7 != 0 {
		t.Fatalf("Int64 pointer = %#x, want 8-aligned", p)
	}

	var unsigned struct {
		_ uint32
		i Uint64