if err := d.literalStore(item, kv, true); err != nil {
					return err
				}
				kv = kv.Elem()
			} else {
				switch kt.Kind() {
				case reflect.String:
					kv = reflect.New(kt).Elem()
					kv.SetString(string(key))
				case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64:
					s := string(key)
					n, err := strconv.ParseInt(s, 10, 64)
					if err != nil || kt.OverflowInt(n) {

		}
	case reflect.String:
		numChars := rand.Intn(complexSize)
		codePoints := make([]rune, numChars)
		for i := 0; i < numChars; i++ {
			codePoints[i] = rune(rand.Intn(0x10ffff))
		}
		v.SetString(string(codePoints))
	case reflect.Struct:
		n := v.NumField()
		// Divide sizeLeft evenly among the struct fields.
		sizeLeft := size
		if n > sizeLeft {
			sizeLeft = 1
		} else if n > 0 {

	if re.Kind() == Unknown || im.Kind() == Unknown {
		return unknownVal{}
	}
	return complexVal{re, im}
}

func makeFloatFromLiteral(lit string) Value {
	if f, ok := newFloat().SetString(lit); ok {
		if smallFloat(f) {
			// ok to use rationals
			if f.Sign() == 0 {
				// Issue 20228: If the float underflowed to zero, parse just "0".

				field.Set(reflect.ValueOf(&boolVal))
				w++
			case ipTablesValuePtrType:
				field.Set(reflect.ValueOf(&IPTablesValue{Negated: negated, Value: words[w+1]}))
				w += 2
			default:
				field.SetString(words[w+1])
				w += 2
			}
		} else if strict {
			return nil, fmt.Errorf("unrecognized parameter %q", words[w])
		} else {
			// skip
			w++
		}

		negated = false
	}

 func (v <type 1>) SetLen (n <type -11>);
 func (v <type 1>) SetMapIndex (key <type 1>, val <type 1>);
 func (v <type 1>) SetUint (x <type -8>);
 func (v <type 1>) SetPointer (x <type 7>);
 func (v <type 1>) SetString (x <type -16>);
 func (v <type 1>) Slice (beg <type -11>, end <type -11>) <type 1>;
 func (v <type 1>) String () <type -16>;
 func (v <type 1>) TryRecv () (x <type 1>, ok <type -15>);

				break
			}
			buf = append(buf, byte(word))
			word >>= 8
		}
	}

	v.SetBytes(buf[:32])
	return v
}

func (v *Element) fromDecimal(s string) *Element {
	n, ok := new(big.Int).SetString(s, 10)
	if !ok {
		panic("not a valid decimal: " + s)
	}
	return v.fromBig(n)
}

// toBig returns v as a big.Int.
func (v *Element) toBig() *big.Int {
	buf := v.Bytes()

	v := reflect.ValueOf(&a).Elem() // a should not escape, no error printed
	v.SetInt(int64(x))
	return int(v.Int())
}

func set5(v reflect.Value, x string) { // ERROR "v does not escape" "leaking param: x$"
	v.SetString(x)
}

func set6(v reflect.Value, x []byte) { // ERROR "v does not escape" "leaking param: x$"
	v.SetBytes(x)
}

func set7(v reflect.Value, x unsafe.Pointer) { // ERROR "v does not escape" "leaking param: x$"

	rb.f = *formTable[f]
	rb.src.setBytes(src)
	rb.nsrc = len(src)
	rb.ss = 0
}

func (rb *reorderBuffer) initString(f Form, src string) {
	rb.f = *formTable[f]
	rb.src.setString(src)
	rb.nsrc = len(src)
	rb.ss = 0
}

func (rb *reorderBuffer) setFlusher(out []byte, f func(*reorderBuffer) bool) {
	rb.out = out
	rb.flushF = f
}

	}

	if r0.Cmp(r1) == 0 {
		t.Errorf("two signatures of the same message produced the same nonce")
	}
}

func fromHex(s string) *big.Int {
	r, ok := new(big.Int).SetString(s, 16)
	if !ok {
		panic("bad hex")
	}
	return r
}

func TestVectors(t *testing.T) {
	// This test runs the full set of NIST test vectors from

	rb.f = *formTable[f]
	rb.src.setBytes(src)
	rb.nsrc = len(src)
	rb.ss = 0
}

func (rb *reorderBuffer) initString(f Form, src string) {
	rb.f = *formTable[f]
	rb.src.setString(src)
	rb.nsrc = len(src)
	rb.ss = 0
}

func (rb *reorderBuffer) setFlusher(out []byte, f func(*reorderBuffer) bool) {
	rb.out = out
	rb.flushF = f
}