}

def MarkInputOutputAliasesPass : Pass<"tf-device-mark-input-output-aliases", "ModuleOp"> {
  let summary = "Marks device cluster inputs-output pairs that read/write to the same variable as aliases";

  let description = [{
    This pass analyzes the inputs and outputs to device cluster and marks those
    input-output pairs as aliases (using `tf.aliasing_output` attribute) which read

						!u.nify(f.typ, g.typ, emode, p) {
						return false
					}
				}
				return true
			}
		}

	case *Pointer:
		// Two pointer types unify if their base types unify.
		if y, ok := y.(*Pointer); ok {
			return u.nify(x.base, y.base, emode, p)
		}

	case *Tuple:
		// Two tuples types unify if they have the same number of elements
		// and the types of corresponding elements unify.

// In addition, to support lookup by IP address, they will have *alias* names for each IP the resource represents.
// There may be multiple aliases for the same resource (examples: service in multiple networks, or a dual-stack workload).
// Aliases are keyed by network/IP address. Example: "default/1.2.3.4".
//
// In some cases, we do not know the IP address of a Workload. For instance, we may simply know

						!u.nify(f.typ, g.typ, emode, p) {
						return false
					}
				}
				return true
			}
		}

	case *Pointer:
		// Two pointer types unify if their base types unify.
		if y, ok := y.(*Pointer); ok {
			return u.nify(x.base, y.base, emode, p)
		}

	case *Tuple:
		// Two tuples types unify if they have the same number of elements
		// and the types of corresponding elements unify.

		var min, max uint64
		if unsigned {
			min, _ = constant.Uint64Val(n.Cases[0])
			max, _ = constant.Uint64Val(n.Cases[len(n.Cases)-1])
		} else {
			mn, _ := constant.Int64Val(n.Cases[0])
			mx, _ := constant.Int64Val(n.Cases[len(n.Cases)-1])
			min = uint64(mn)
			max = uint64(mx)
		}
		// Compare idx-min with max-min, to see if we can use the jump table.

//
//	x = x[1:]
//
// it is important to generate code like:
//
//	base, len, cap = pieces of x[1:]
//	OpVarDef x
//	x = {base, len, cap}
//
// If instead the generated code looked like:
//
//	OpVarDef x
//	base, len, cap = pieces of x[1:]
//	x = {base, len, cap}
//
// then the liveness analysis would decide the previous value of x was

# Get gateway ip string (the first address) based on pod cidr.
# For Windows nodes the pod gateway IP address is the first address in the pod
# CIDR for the host.
function Get_Gateway_From_CIDR([string] $cidr) {
  $network=Get_NetworkDecimal_From_CIDR($cidr)
  $gateway=ConvertTo_DottedDecimalIP($network+1)
  return $gateway
}

# Get endpoint gateway ip string (the second address) based on pod cidr.

		// updated during the eviciton (due to either node resource pressure or
		// node graceful shutdown). We do not re-generate the conditions based
		// on the container statuses as they are added based on one-time events.
		cType := v1.DisruptionTarget
		if _, condition := podutil.GetPodConditionFromList(oldPodStatus.Conditions, cType); condition != nil {

[source,kotlin]
----
plugins {
    base
}

base {
    archivesName.set("gradle")
    distsDirectory.set(layout.buildDirectory.dir("custom-dist"))
    libsDirectory.set(layout.buildDirectory.dir("custom-libs"))
}
----
=====
[.multi-language-sample]
=====
.build.gradle
[source,groovy]
----
plugins {
    id 'base'
}

base {
    archivesName = "gradle"

//
//	//go:generate -command xxx args...
//
// specifies, for the remainder of this source file only, that the
// string xxx represents the command identified by the arguments. This
// can be used to create aliases or to handle multiword generators.
// For example,
//
//	//go:generate -command foo go tool foo
//
// specifies that the command "foo" represents the generator
// "go tool foo".
//