{name: "ADCQconst", argLength: 2, reg: gp1flags1flags, typ: "(UInt64,Flags)", asm: "ADCQ", aux: "Int32", resultInArg0: true}, // r = arg0+auxint+carry(arg1)

		// The following 4 add opcodes return the low 64 bits of the difference in the first result and
		// the borrow (if the result is negative) in the carry flag.
		{name: "SUBQborrow", argLength: 2, reg: gp21flags, typ: "(UInt64,Flags)", asm: "SUBQ", resultInArg0: true},                    // r = arg0-arg1

//
// On Windows it wraps os.Rename, which (as of 2019-06-04) uses MoveFileEx with
// MOVEFILE_REPLACE_EXISTING.
//
// Windows also provides a different system call, ReplaceFile,
// that provides similar semantics, but perhaps preserves more metadata. (The
// documentation on the differences between the two is very sparse.)
//
// Empirical error rates with MoveFileEx are lower under modest concurrency, so

 * limitations under the License.
 */

package org.gradle.internal.instantiation.generator;

/**
 * Encapsulates the differences, due to backwards compatibility, in instantiation for several different types.
 */
interface ConstructorSelector {
    /**
     * Allows this selector to veto the parameters to use with the given constructor.
     */

   * To maintain this code, make a change for the strong reference type. Then, cut and paste, and
   * replace "Strong" with "Soft" or "Weak" within the pasted text. The primary difference is that
   * strong entries store the key reference directly while soft and weak entries delegate to their
   * respective superclasses.
   */

  /** Used for strongly-referenced keys. */

<p>
<code>B0</code> and <code>B1</code> are different because they are new types
created by distinct <a href="#Type_definitions">type definitions</a>;
<code>func(int, float64) *B0</code> and <code>func(x int, y float64) *[]string</code>
are different because <code>B0</code> is different from <code>[]string</code>;
and <code>P1</code> and <code>P2</code> are different because they are different
type parameters.

</pre>

<p>
<code>B0</code> and <code>B1</code> are different because they are new types
created by distinct <a href="#Type_definitions">type definitions</a>;
<code>func(int, float64) *B0</code> and <code>func(x int, y float64) *[]string</code>
are different because <code>B0</code> is different from <code>[]string</code>.
</p>


<h3 id="Assignability">Assignability</h3>

<p>

To add a new type, add in the necessary include statement at the top of the
file (if it is not already there) and add in a type alias line. Note that if
your type is significantly different on different architectures, you may need
some `#if/#elif` macros in your include statements.

### mkerrors.sh

This script is used to generate the system's various constants. This doesn't

     *   Ps are types of value parameters;
     *   R is the return type of the function.
     * Depending on the function's attributes, such as `suspend` or reflective access, different functional type,
     * such as `SuspendFunction`, `KFunction`, or `KSuspendFunction`, will be constructed.
     */
    public fun KtFunction.getFunctionalType(): KaType =

	{types.TFLOAT32, types.TFLOAT64}: {ssa.OpCvt32Fto64F, ssa.OpCopy, types.TFLOAT64},
}

// this map is used only for 32-bit arch, and only includes the difference
// on 32-bit arch, don't use int64<->float conversion for uint32
var fpConvOpToSSA32 = map[twoTypes]twoOpsAndType{
	{types.TUINT32, types.TFLOAT32}: {ssa.OpCopy, ssa.OpCvt32Uto32F, types.TUINT32},

    validations:
      required: true

  - type: markdown
    attributes:
      value: >
        Comparing two approaches to a use case side by side can make it easier to examine the
        differences between them.


        Additionally, it's very useful to us if you can provide a "straw API" — what the
        method signatures would look like, for example, even if the method and class names are still