}

var sumZZ = []argZZ{
	{NewInt(0), NewInt(0), NewInt(0)},
	{NewInt(1), NewInt(1), NewInt(0)},
	{NewInt(1111111110), NewInt(123456789), NewInt(987654321)},
	{NewInt(-1), NewInt(-1), NewInt(0)},
	{NewInt(864197532), NewInt(-123456789), NewInt(987654321)},
	{NewInt(-1111111110), NewInt(-123456789), NewInt(-987654321)},
}

var prodZZ = []argZZ{
	{NewInt(0), NewInt(0), NewInt(0)},
	{NewInt(0), NewInt(1), NewInt(0)},

		b.WriteString("56789012")   // longer than BufSize
		tw.check(t, "12345678", "") // but not enough (after filling the partially-filled buffer)
		b.Flush()
		tw.check(t, "123456789012", "")
	}
	{
		tw := &teststringwriter{}
		b := NewWriterSize(tw, BufSize)
		b.WriteString("123456789")   // long string, empty buffer:
		tw.check(t, "", "123456789") // use WriteString
	}
	{
		tw := &teststringwriter{}

        Proxy(Proxy.Type.HTTP, InetSocketAddress.createUnresolved("proxy.example.com", 1003)),
        InetSocketAddress(ipv4Address, 5678),
      ).toString(),
    ).isEqualTo("example.com:1003 via proxy 1.2.3.4:5678")
  }

  @Test fun routeToStringIpv6() {
    val ipv6Address =
      InetAddress.getByAddress(
        byteArrayOf(0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 1),
      )
    assertThat(

	{"%d%s", "123abc", args(&i, &s), args(123, "abc"), ""},
	{"%c%c%c", "2\u50c2X", args(&r1, &r2, &r3), args('2', '\u50c2', 'X'), ""},
	{"%5s%d", " 1234567 ", args(&s, &i), args("12345", 67), ""},
	{"%5s%d", " 12 34 567 ", args(&s, &i), args("12", 34), ""},

	// Custom scanners.
	{"%e%f", "eefffff", args(&x, &y), args(Xs("ee"), Xs("fffff")), ""},

	}
	return tile, nil
}

// To limit the size of any particular directory listing,
// we encode the (possibly very large) number N
// by encoding three digits at a time.
// For example, 123456789 encodes as x123/x456/789.
// Each directory has at most 1000 each xNNN, NNN, and NNN.p children,
// so there are at most 3000 entries in any one directory.
const pathBase = 1000

			5,
			"not enough cpus available to satisfy request: requested=5, available=4",
			cpuset.New(),
		},
		{
			"take zero cpus from single socket with HT",
			topoSingleSocketHT,
			cpuset.New(0, 1, 2, 3, 4, 5, 6, 7),
			0,
			"",
			cpuset.New(),
		},
		{
			"take one cpu from single socket with HT",
			topoSingleSocketHT,
			cpuset.New(0, 1, 2, 3, 4, 5, 6, 7),
			1,
			"",
			cpuset.New(0),

	{_Name, "bar９８７６", 0, 0},
	{_Name, "ŝ", 0, 0},
	{_Name, "ŝfoo", 0, 0},

	// literal samples
	{_Literal, "0", 0, 0},
	{_Literal, "1", 0, 0},
	{_Literal, "12345", 0, 0},
	{_Literal, "123456789012345678890123456789012345678890", 0, 0},
	{_Literal, "01234567", 0, 0},
	{_Literal, "0_1_234_567", 0, 0},
	{_Literal, "0X0", 0, 0},
	{_Literal, "0xcafebabe", 0, 0},
	{_Literal, "0x_cafe_babe", 0, 0},
	{_Literal, "0O0", 0, 0},

				Conditions: []v1.ReplicationControllerCondition{
					{
						Type:               v1.ReplicationControllerReplicaFailure,
						Status:             v1.ConditionTrue,
						LastTransitionTime: metav1.NewTime(time.Unix(123456789, 0)),
						Reason:             "Reason",
						Message:            "Message",
					},
				},
			},
		},
	}

	// Add some fuzzed RCs.

//     <target-dir>/k8s -> ..data/k8s
//
//     The data directory itself is a link to a timestamped directory with
//     the real data:
//     <target-dir>/..data          -> ..2016_02_01_15_04_05.12345678/
//     NOTE(claudiub): We need to create these symlinks AFTER we've finished creating and
//     linking everything else. On Windows, if a target does not exist, the created symlink

		}
	}
}

type funNN func(z, x, y nat) nat
type argNN struct {
	z, x, y nat
}

var sumNN = []argNN{
	{},
	{nat{1}, nil, nat{1}},
	{nat{1111111110}, nat{123456789}, nat{987654321}},
	{nat{0, 0, 0, 1}, nil, nat{0, 0, 0, 1}},
	{nat{0, 0, 0, 1111111110}, nat{0, 0, 0, 123456789}, nat{0, 0, 0, 987654321}},
	{nat{0, 0, 0, 1}, nat{0, 0, _M}, nat{0, 0, 1}},
}

var prodNN = []argNN{