{"abc\nd\t ", "abc", "d\t "},
}

func TestGetLine(t *testing.T) {
	for i, test := range getLineTests {
		x, y := getLine([]byte(test.in))
		if string(x) != test.out1 || string(y) != test.out2 {
			t.Errorf("#%d got:%+v,%+v want:%s,%s", i, x, y, test.out1, test.out2)
		}
	}
}

func TestDecode(t *testing.T) {
	result, remainder := Decode([]byte(pemData))
	if !reflect.DeepEqual(result, certificate) {

	defer func() {
		timeSpent := time.Since(start)

		// Close pipe, restore stdout, get output.
		w.Close()
		os.Stdout = stdout
		out := <-outC

		err := recover()
		ok = eg.processRunResult(out, timeSpent, finished, err)
	}()

	// Run example.
	eg.F()
	finished = true
	return

// Test the solution, silently.

package main

type T chan uint64

func M(f uint64) (in, out T) {
	in = make(T, 100)
	out = make(T, 100)
	go func(in, out T, f uint64) {
		for {
			out <- f*<-in
		}
	}(in, out, f)
	return in, out
}


func min(xs []uint64) uint64 {
	m := xs[0]
	for i := 1; i < len(xs); i++ {
		if xs[i] < m {
			m = xs[i]
		}
	}

func machoRewriteUuid(ctxt *Link, exef *os.File, exem *macho.File, outexe string) error {
	outf, err := os.OpenFile(outexe, os.O_RDWR|os.O_CREATE|os.O_TRUNC, 0755)
	if err != nil {
		return err
	}
	defer outf.Close()

	// Copy over the file.
	if _, err := io.Copy(outf, exef); err != nil {
		return err
	}

	// Locate the portion of the binary containing the load commands.

  let results = (outs quant_RealValueType);
}

// A DequantizeCast op (dcast) represents the inverse of a qcast,
// converting back from a quantized to quantizable (expressed) type.
//
// Like qcasts, a dcast is allowed to have both its operand and result
// as non quantized types. This facilitates transformations and marks edges
// where the computation must be carried out in the expressed type.
//

	SUBVU	R9, R5, R7
	AND	$7, R7
	BNE	R7, out1

	// if less than 8 bytes, do byte copying
	SGTU	$8, R6, R7
	BNE	R7, out1

	// do one byte at a time until 8-aligned
	AND	$7, R9, R8
	BEQ	R8, words1
	ADDV	$-1, R5
	MOVB	(R5), R7
	ADDV	$-1, R9
	MOVB	R7, (R9)
	JMP	-6(PC)

words1:
	// do 8 bytes at a time if there is room
	ADDV	$7, R4, R6 // R6 is start pointer+7

	SUBVU	R6, R2, R4
	AND	$7, R4
	BNE	R4, out1

	// if less than 8 bytes, do byte copying
	SGTU	$8, R3, R4
	BNE	R4, out1

	// do one byte at a time until 8-aligned
	AND	$7, R6, R5
	BEQ	R5, words1
	ADDV	$-1, R2
	MOVB	(R2), R4
	ADDV	$-1, R6
	MOVB	R4, (R6)
	JMP	-6(PC)

words1:
	// do 8 bytes at a time if there is room
	ADDV	$7, R1, R3 // R3 is start pointer+7

	SGTU	R6, R3, R5

  let results = (outs quant_RealValueType);
}

// A DequantizeCast op (dcast) represents the inverse of a qcast,
// converting back from a quantized to quantizable (expressed) type.
//
// Like qcasts, a dcast is allowed to have both its operand and result
// as non quantized types. This facilitates transformations and marks edges
// where the computation must be carried out in the expressed type.
//

		w.Close()
		os.Stdout, os.Stderr = stdout, stderr
		out := <-outC

		// report any errors
		tstr := fmt.Sprintf("(%.2f seconds)", dt.Seconds())
		if g, e := strings.TrimSpace(out), strings.TrimSpace(eg.Output); g != e {
			fmt.Printf("--- FAIL: %s %s\ngot:\n%s\nwant:\n%s\n",
				eg.Name, tstr, g, e)
			ok = false
		} else if *chatty {
			fmt.Printf("--- PASS: %s %s\n", eg.Name, tstr)
		}
	}

				fmt.Fprintf(w, "\t// %0*b\n", size, e.out[i])
				if e.name == "RotateLeft" && e.out2[i] != nil {
					fmt.Fprintf(w, "\t// %0*b\n", size, e.out2[i])
				}
			default:
				fmt.Fprintf(w, "\tfmt.Printf(\"%s(%%0%db) = %%d\\n\", %d, bits.%s(%d))\n", f, size, e.in, f, e.in)
				fmt.Fprintf(w, "\t// Output:\n")
				fmt.Fprintf(w, "\t// %s(%0*b) = %d\n", f, size, e.in, e.out[i])
			}
			fmt.Fprintf(w, "}\n")
		}
	}