return framework.QueueSkip, nil
}

// isFit checks if the pod fits the node. If the node is nil, it returns false.
// It constructs a fake NodeInfo object for the node and checks if the pod fits the node.
func isFit(pod *v1.Pod, node *v1.Node) bool {
	if node == nil {
		return false
	}
	nodeInfo := framework.NewNodeInfo()
	nodeInfo.SetNode(node)
	return len(Fits(pod, nodeInfo)) == 0
}

            Usage producerValue = details.getProducerValue();
            if (consumerValue == null) {
                // consumer didn't express any preferences, everything fits
                details.compatible();
                return;
            }
            if (consumerValue.getName().equals(Usage.JAVA_API)) {

	}{
		{
			pod: &v1.Pod{},
			nodeInfo: framework.NewNodeInfo(
				newResourcePod(framework.Resource{MilliCPU: 10, Memory: 20})),
			name:                      "no resources requested always fits",
			wantInsufficientResources: []InsufficientResource{},
		},
		{
			pod: newResourcePod(framework.Resource{MilliCPU: 1, Memory: 1}),
			nodeInfo: framework.NewNodeInfo(

//	1..0  mapped category
//
// See the definitions below for a more detailed description of the various
// bits.
type info uint16

const (
	catSmallMask = 0x3
	catBigMask   = 0xF8
	indexShift   = 3
	xorBit       = 0x4    // interpret the index as an xor pattern
	inlineXOR    = 0xE000 // These bits are set if the XOR pattern is inlined.

	joinShift = 8
	joinMask  = 0x07

	// Attributes
	attributesMask = 0x1800

//
//   - converting from the [Value] types as provided by the sql package
//     into a database table's specific column type and making sure it
//     fits, such as making sure a particular int64 fits in a
//     table's uint16 column.
//
//   - converting a value as given from the database into one of the
//     driver [Value] types.
//

		if err != nil {
			return 0, false
		}
		e, err1 := strconv.Atoi(exp)
		if err1 != nil {
			println("bad e", exp)
			return 0, false
		}
		v := float64(n)
		// We expect that v*pow2(e) fits in a float64,
		// but pow2(e) by itself may not. Be careful.
		if e <= -1000 {
			v *= pow2(-1000)
			e += 1000
			for e < 0 {
				v /= 2
				e++
			}
			return v, true
		}
		if e >= 1000 {

	C_16CON    /* Any constant which fits into 16 bits. Can be signed or unsigned */
	C_U31CON   /* 31 bit unsigned constant */
	C_S32CON   /* 32 bit signed constant */
	C_U32CON   /* 32 bit unsigned constant */
	C_32CON    /* Any constant which fits into 32 bits. Can be signed or unsigned */
	C_S34CON   /* 34 bit signed constant */
	C_64CON    /* Any constant which fits into 64 bits. Can be signed or unsigned */

// license that can be found in the LICENSE file.

package field

import "math/bits"

// uint128 holds a 128-bit number as two 64-bit limbs, for use with the
// bits.Mul64 and bits.Add64 intrinsics.
type uint128 struct {
	lo, hi uint64
}

// mul64 returns a * b.
func mul64(a, b uint64) uint128 {
	hi, lo := bits.Mul64(a, b)
	return uint128{lo, hi}
}

// addMul64 returns v + a * b.

  static final int ARRAY_MASK = 0x0ffff;
  static final Random RANDOM_SOURCE = new Random(314159265358979L);
  static final int MAX_EXPONENT = 100;

  /*
   * Duplicated from LongMath.
   * binomial(biggestBinomials[k], k) fits in a long, but not
   * binomial(biggestBinomials[k] + 1, k).
   */
  static final int[] biggestBinomials = {
    Integer.MAX_VALUE,
    Integer.MAX_VALUE,
    Integer.MAX_VALUE,
    3810779,
    121977,

        This means we actually have to execute the code block in order to find the rule information within.
        This is also problematic because it means we have to serialize this information into some form that fits into annotations.

        Later, we will extract all the “up-front” information we need to know during compile time.