if *restore {
		// Restore sp saved by cgocallback during
		// unwind of g's stack (see comment at top of file).
		mp := acquirem()
		sched := &mp.g0.sched
		sched.sp = *(*uintptr)(unsafe.Pointer(sched.sp + alignUp(sys.MinFrameSize, sys.StackAlign)))

		// Do the accounting that cgocall will not have a chance to do
		// during an unwind.
		//
		// In the case where a Go call originates from C, ncgo is 0

	}
	if n&(n-1) != 0 {
		throw("stack size not a power of 2")
	}
	if stackDebug >= 1 {
		print("stackalloc ", n, "\n")
	}

	if debug.efence != 0 || stackFromSystem != 0 {
		n = uint32(alignUp(uintptr(n), physPageSize))
		v := sysAlloc(uintptr(n), &memstats.stacks_sys)
		if v == nil {
			throw("out of memory (stackalloc)")
		}
		return stack{uintptr(v), uintptr(v) + uintptr(n)}
	}

// Lock is a no-op used by -copylocks checker from `go vet`.
func (*noCopy) Lock()   {}
func (*noCopy) Unlock() {}

// align64 may be added to structs that must be 64-bit aligned.
// This struct is recognized by a special case in the compiler
// and will not work if copied to any other package.

	var intRegs, floatRegs uint64
	for _, field := range fields {
		typ := field.Type

		// The alignment of a struct type is the maximum alignment of its
		// field types.
		if align := typ.align; align > maxAlign {
			maxAlign = align
		}

		// Each field needs its own registers.
		// We sum in uint64 to avoid possible overflows.
		intRegs += uint64(typ.intRegs)
		floatRegs += uint64(typ.floatRegs)
	}

By conflict resolution, we select the `1.1` platform, which has a constraint on `core:1.1`.
Then we conflict resolve between `core:1.0` and `core:1.1`, which means that `core` and `lib` are now aligned properly.

NOTE: This behavior is enforced for published components only if you use Gradle Module Metadata.

[[sec:align-versions-unpublished]]
== Aligning versions of modules not published with Gradle

	}
	return (*InterfaceType)(unsafe.Pointer(t))
}

// Size returns the size of data with type t.
func (t *Type) Size() uintptr { return t.Size_ }

// Align returns the alignment of data with type t.
func (t *Type) Align() int { return int(t.Align_) }

func (t *Type) FieldAlign() int { return int(t.FieldAlign_) }

type InterfaceType struct {
	Type
	PkgPath Name      // import path

    }

    @RequiredFeature(feature = GradleMetadataResolveRunner.REPOSITORY_TYPE, value = "maven")
    @Issue("nebula-plugins/gradle-nebula-integration#51")
    def "force to higher patch version should bring the rest of aligned group up"() {
        given:
        "repository simulating Jackson situation" {
            path 'com.amazonaws:aws-java-sdk-core:1.11.438 -> org:cbor:2.6.7'

		// at the top.
		a.stackBytes = align(a.stackBytes, uintptr(t.Align()))
		return nil
	}
	// Hold a copy of "a" so that we can roll back if
	// register assignment fails.
	aOld := *a
	if !a.regAssign(t, 0) {
		// Register assignment failed. Roll back any changes
		// and stack-assign.
		*a = aOld
		a.stackAssign(t.Size(), uintptr(t.Align()))
		return &a.steps[len(a.steps)-1]
	}
	return nil

// of a field of that type within a struct. This case is the same as the
// value returned by [reflect.TypeOf](s.f).FieldAlign().
// The return value of Alignof is a Go constant if the type of the argument
// does not have variable size.
// (See the description of [Sizeof] for a definition of variable sized types.)
func Alignof(x ArbitraryType) uintptr

				}
			} else {
				// non-empty cell
				useTabs = false
				if b.flags&AlignRight == 0 { // align left
					b.write0(b.buf[pos : pos+c.size])
					pos += c.size
					if j < len(b.widths) {
						b.writePadding(c.width, b.widths[j], false)
					}
				} else { // align right
					if j < len(b.widths) {
						b.writePadding(c.width, b.widths[j], false)
					}