// up to the next level
	needed int32
}

// set sets the code and length of an hcode.
func (h *hcode) set(code uint16, length uint16) {
	h.len = length
	h.code = code
}

func maxNode() literalNode { return literalNode{math.MaxUint16, math.MaxInt32} }

func newHuffmanEncoder(size int) *huffmanEncoder {
	return &huffmanEncoder{codes: make([]hcode, size)}
}

                )
                .build()
        );
        MutableModelNode mapNode = modelNode.getLink(name);
        assert mapNode != null;
        return mapNode;
    }

    public static <T> ModelMap<T> toView(MutableModelNode mapNode, ModelType<T> elementModelType) {
        mapNode.ensureUsable();
        return mapNode.asMutable(
                ModelTypes.modelMap(elementModelType),
                RuleContext.get()

    setDefault(int.class, 32);
    setDefault(String.class, "abcd");
    setDefault(Method.class, AbstractPackageSanityTests.class.getDeclaredMethods()[0]);
    setDefault(MapMode.class, MapMode.READ_ONLY);
    setDefault(CharsetEncoder.class, Charsets.UTF_8.newEncoder());
  }

type writer interface {
	io.ByteWriter
	Flush() error
}

const (
	// A code is a 12 bit value, stored as a uint32 when encoding to avoid
	// type conversions when shifting bits.
	maxCode     = 1<<12 - 1
	invalidCode = 1<<32 - 1
	// There are 1<<12 possible codes, which is an upper bound on the number of
	// valid hash table entries at any given point in time. tableSize is 4x that.
	tableSize = 4 * 1 << 12

				}
				code++
				x++
			}
		}

		// Derive minCodes, maxCodes, and valsIndices.
		var c, index int32
		for i, n := range nCodes {
			if n == 0 {
				h.minCodes[i] = -1
				h.maxCodes[i] = -1
				h.valsIndices[i] = -1
			} else {
				h.minCodes[i] = c
				h.maxCodes[i] = c + n - 1
				h.valsIndices[i] = index
				c += n
				index += n
			}
			c <<= 1
		}

    setDefault(int.class, 32);
    setDefault(String.class, "abcd");
    setDefault(Method.class, AbstractPackageSanityTests.class.getDeclaredMethods()[0]);
    setDefault(MapMode.class, MapMode.READ_ONLY);
    setDefault(CharsetEncoder.class, Charsets.UTF_8.newEncoder());
  }

	c.NodeStatusReportFrequency.Duration = 5 * time.Minute
	c.SyncFrequency.Duration = 10 * time.Second
	c.EvictionPressureTransitionPeriod.Duration = 5 * time.Minute
	c.MaxPods = int32(opt.MaxPods)
	c.PodsPerCore = int32(opt.PodsPerCore)
	c.ClusterDNS = []string{}
	c.ImageGCHighThresholdPercent = 90
	c.ImageGCLowThresholdPercent = 80
	c.ProviderID = fmt.Sprintf("kubemark://%v", opt.NodeName)

logging:
  flushFrequency: 5s
  format: text
  options:
    json:
      infoBufferSize: "0"
    text:
      infoBufferSize: "0"
  verbosity: 0
makeIPTablesUtilChains: true
maxOpenFiles: 1000000
maxPods: 110
memoryManagerPolicy: None
memorySwap: {}
memoryThrottlingFactor: 0.9
nodeLeaseDurationSeconds: 40
nodeStatusMaxImages: 50
nodeStatusReportFrequency: 5m0s
nodeStatusUpdateFrequency: 10s
oomScoreAdj: -999

			Cause:   err,
		}
	}

	list := make([]madmin.KMSAPI, 0, len(APIs))
	for _, api := range APIs {
		list = append(list, madmin.KMSAPI{
			Method:  api.Method,
			Path:    api.Path,
			MaxBody: api.MaxBody,
			Timeout: int64(api.Timeout.Truncate(time.Second).Seconds()),
		})
	}
	return list, nil
}

// Stat returns the current KES status containing a
// list of KES endpoints and the default key ID.

logging:
  flushFrequency: 5s
  format: text
  options:
    json:
      infoBufferSize: "0"
    text:
      infoBufferSize: "0"
  verbosity: 0
makeIPTablesUtilChains: true
maxOpenFiles: 1000000
maxPods: 110
memoryManagerPolicy: None
memorySwap: {}
memoryThrottlingFactor: 0.9
nodeLeaseDurationSeconds: 40
nodeStatusMaxImages: 50
nodeStatusReportFrequency: 5m0s
nodeStatusUpdateFrequency: 10s
oomScoreAdj: -999