// a5  | R8          | R8
// a6  | R9          | R9
//
// r1  | AX          | AX
// r2  | BX          | DX
// err | CX          | part of AX
//
// Note that this differs from "standard" ABI convention, which would pass 4th
// arg in CX, not R10.
TEXT ·Syscall6<ABIInternal>(SB),NOSPLIT,$0
	// a6 already in R9.
	// a5 already in R8.
	MOVQ	SI, R10 // a4
	MOVQ	DI, DX  // a3
	MOVQ	CX, SI  // a2
	MOVQ	BX, DI  // a1

	// adds support for resizing container terminals.
	StreamProtocolV3Name = "v3.channel.k8s.io"

	// The SPDY subprotocol "v4.channel.k8s.io" is used for remote command
	// attachment/execution. It is the 4th version of the subprotocol and
	// adds support for exit codes.
	StreamProtocolV4Name = "v4.channel.k8s.io"

	// The subprotocol "v5.channel.k8s.io" is used for remote command

# Gradle Kotlin DSL C4 Model

Core link:https://c4model.com/#coreDiagrams[C4 Model] diagrams for the Gradle Kotlin DSL.

NOTE: The optional 4th level, UML diagrams, isn't provided, favoring the source code and inspection tools.

## Level 1: System Context diagram

A developer uses the Gradle Kotlin DSL either via Gradle directly or in an IDE that uses the Kotlin DSL support via Gradle.

  %5 = "tf.AddV2"(%strides, %strides) {device = ""} : (tensor<3xi32>, tensor<3xi32>) -> tensor<3xi32>

  return %0 : tensor<8x4x14x14x16xf32>
}

// Check that the constants that are input to XlaConvV2's 3rd, 4th, 5th, 6th
// and 7th arguments are cloned with same value.
// CHECK-DAG: %[[STRIDES:.*]] = "tf.Const"()
// CHECK-SAME: value = dense<[3, 1, 1]> : tensor<3xi32>
// CHECK-DAG: %[[STRIDES_COPY:.*]] = "tf.Const"()

[
  {
    "comment": "Label with hyphens in 3rd and 4th position",
    "input": "aa--",
    "output": "aa--"
  },
  {
    "input": "a†--",
    "output": "xn--a---kp0a"
  },
  {
    "input": "ab--c",
    "output": "ab--c"
  },
  {
    "comment": "Label with leading hyphen",
    "input": "-x",
    "output": "-x"
  },
  {
    "input": "-†",
    "output": "xn----xhn"
  },
  {
    "input": "-x.xn--zca",

        ordinal == NumberUtil.ordinal(input)

        where:
        input | ordinal
        0     | "0th"
        1     | "1st"
        2     | "2nd"
        3     | "3rd"
        4     | "4th"
        10    | "10th"
        11    | "11th"
        12    | "12th"
        13    | "13th"
        14    | "14th"
        20    | "20th"
        21    | "21st"
        22    | "22nd"

when it creates a k8s cluster. This parameter is used as the 3rd octet for the
public IP v4 addresses when a load balancer is created. The default value is 255.
The first two octets are determined by the docker network created by `KinD`, the 4th octet
is hard coded as 200-240. As you might have guessed, for each k8s cluster one can
create at most 40 public IP v4 addresses.

The `ip-space` parameter is not required when you create just one cluster, however, when

	MOVD 0(R7), R2

	//  arg 3 --> R3
	CMP  R8, $0
	BEQ  docall
	SUB  $1, R8
	ADD  $8, R7
	MOVD 0(R7), R3

	CMP  R8, $0
	BEQ  docall
	MOVD $2176+16, R6 // starting LE stack address-8 to store 4th argument

repeat:
	ADD  $8, R7
	MOVD 0(R7), R0      // advance arg pointer by 8 byte
	ADD  $8, R6         // advance LE argument address by 8 byte
	MOVD R0, (R4)(R6*1) // copy argument from go-slice to le-frame

				s1, ss1 = b, ss0
			} else {
				return false
			}
		} else {
			return false
		}
	}
	ss := ss0

	// s0 and s1 are equal with b if the corresponding block is missing
	// (2nd, 3rd and 4th case in the figure).

	for _, v := range ss.Values {
		if v.Op == OpPhi && v.Uses > 0 && v.Args[i0] != v.Args[i1] {
			return false
		}
	}

	// We do not need to redirect the Preds of s0 and s1 to ss,

	MOVD	48(R0), R5	// a6
	MOVD	8(R0), R0	// a1

	// If fn is declared as vararg, we have to pass the vararg arguments on the stack.
	// See syscall above. The only function this applies to is openat, for which the 4th
	// arg must be on the stack.
	MOVD	R3, (RSP)

	BL	(R12)

	MOVD	8(RSP), R2	// pop structure pointer
	ADD	$16, RSP
	MOVD	R0, 56(R2)	// save r1
	MOVD	R1, 64(R2)	// save r2
	CMPW	$-1, R0
	BNE	ok