}

		p.pkgCache[pkgPathOff] = pkg

		nameIndex := make(map[string]uint64)
		for nSyms := r.uint64(); nSyms > 0; nSyms-- {
			name := p.stringAt(r.uint64())
			nameIndex[name] = r.uint64()
		}

		p.pkgIndex[pkg] = nameIndex
		pkgList[i] = pkg
	}

	localpkg := pkgList[0]

	names := make([]string, 0, len(p.pkgIndex[localpkg]))

        val value = readByteString()
        headerList.add(Header(name, value))
      }

      @Throws(IOException::class)
      private fun readLiteralHeaderWithIncrementalIndexingIndexedName(nameIndex: Int) {
        val name = getName(nameIndex)
        val value = readByteString()
        insertIntoDynamicTable(-1, Header(name, value))
      }

      @Throws(IOException::class)

		extend = string(rest[1 : len(rest)-1])
	}

	// Now we can build up a useful data structure.
	// First the zone information.
	//	utcoff[4] isdst[1] nameindex[1]
	nzone := n[NZone]
	if nzone == 0 {
		// Reject tzdata files with no zones. There's nothing useful in them.
		// This also avoids a panic later when we add and then use a fake transition (golang.org/issue/29437).

	jmcTZIndex        ID = 402
	jvIndex           ID = 403
	jwIndex           ID = 404
	kaIndex           ID = 405
	kaGEIndex         ID = 406
	kabIndex          ID = 407
	kabDZIndex        ID = 408
	kajIndex          ID = 409
	kamIndex          ID = 410
	kamKEIndex        ID = 411
	kcgIndex          ID = 412
	kdeIndex          ID = 413
	kdeTZIndex        ID = 414
	keaIndex          ID = 415

package compact

var (
	und = Tag{}

	Und Tag = Tag{}

	Afrikaans            Tag = Tag{language: afIndex, locale: afIndex}
	Amharic              Tag = Tag{language: amIndex, locale: amIndex}
	Arabic               Tag = Tag{language: arIndex, locale: arIndex}
	ModernStandardArabic Tag = Tag{language: ar001Index, locale: ar001Index}
	Azerbaijani          Tag = Tag{language: azIndex, locale: azIndex}

   * monitor.
   */
  private E extract() {
    final E[] items = this.items;
    E x = items[takeIndex];
    items[takeIndex] = null;
    takeIndex = inc(takeIndex);
    --count;
    return x;
  }

  /**
   * Utility for remove and iterator.remove: Delete item at position i. Call only when occupying
   * monitor.
   */

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

package c

import (
	"./a"
	"./b"
)

type HandlerFunc func(*string)

func RouterInit() {
	//home API
	homeIndex := &a.IndexController{}
	GET("/home/index/index", homeIndex.Index)
	//admin API
	adminIndex := &b.IndexController{}
	GET("/admin/index/index", adminIndex.Index)
	return
}

func GET(path string, handlers ...HandlerFunc) {
	return

		}

		// Trick a compiler into generating conditional move instead of branch,
		// by making both loads unconditional.
		l, r := node.left, node.right

		if bit == 1 {
			nodeIndex = l
		} else {
			nodeIndex = r
		}

		if nodeIndex == invalidNodeValue {
			// We found a leaf. Use the value of bit to decide
			// whether is a left or a right value.
			l, r := node.leftValue, node.rightValue
			if bit == 1 {
				v = l

	numExhaustedZones := 0
	nodeIndex := 0
	for len(nodesList) < nt.numNodes {
		if numExhaustedZones >= len(nt.zones) { // all zones are exhausted.
			return nodesList, errors.New("all zones exhausted before reaching count of nodes expected")
		}
		for zoneIndex := 0; zoneIndex < len(nt.zones); zoneIndex++ {
			na := nt.tree[nt.zones[zoneIndex]]
			if nodeIndex >= len(na) { // If the zone is exhausted, continue

				}
			}
		}
	}

	if w.nameIdx == nil {
		w.nameIdx = make(map[*TypeName]int)
	}
	w.nameIdx[obj] = idx
	return idx
}

// typeParamVertex returns the index of the vertex representing tpar.
func (w *monoGraph) typeParamVertex(tpar *TypeParam) int {
	if x, ok := w.canon[tpar]; ok {
		tpar = x
	}

	obj := tpar.Obj()

	if idx, ok := w.nameIdx[obj]; ok {
		return idx
	}