gp.inMarkAssist = false
		}
	}
}

// gcAssistAlloc1 is the part of gcAssistAlloc that runs on the system
// stack. This is a separate function to make it easier to see that
// we're not capturing anything from the user stack, since the user
// stack may move while we're in this function.
//
// gcAssistAlloc1 indicates whether this assist completed the mark
// phase by setting gp.param to non-nil. This can't be communicated on

type multiSorter struct {
	pods []*v1.Pod
	cmp  []cmpFunc
}

// Sort sorts the argument slice according to the less functions passed to OrderedBy.
func (ms *multiSorter) Sort(pods []*v1.Pod) {
	ms.pods = pods
	sort.Sort(ms)
}

// OrderedBy returns a Sorter that sorts using the cmp functions, in order.
// Call its Sort method to sort the data.
func orderedBy(cmp ...cmpFunc) *multiSorter {
	return &multiSorter{

		return 1
	}

	return 0
}

// For detection of capabilities on a system.
// Is function descriptor f a valid function?
func isValidLeFunc(f uintptr) error {
	ret := funcptrtest(f, "")
	if ret != 0 {
		return fmt.Errorf("Bad pointer, not an LE function ")
	}
	return nil
}

// Retrieve function name from descriptor
func getLeFuncName(f uintptr) (string, error) {

        resolveFragmentOfCall: Boolean,
    ): List<KaCallCandidateInfo> {
        // If a function call is resolved to an implicit invoke call, the FirImplicitInvokeCall will have the `invoke()` function as the
        // callee and the variable as the explicit receiver. To correctly get all candidates, we need to get the original function
        // call's explicit receiver (if there is any) and callee (i.e., the variable).

				b.Values[j] = v
			}
			j++
		}
		if pendingLines.get(b.Pos) == int32(b.ID) {
			b.Pos = b.Pos.WithIsStmt()
			pendingLines.remove(b.Pos)
		}
		b.truncateValues(j)
	}
}

// Common functions called from rewriting rules

func is64BitFloat(t *types.Type) bool {
	return t.Size() == 8 && t.IsFloat()
}

func is32BitFloat(t *types.Type) bool {
	return t.Size() == 4 && t.IsFloat()
}

	// The assembly output contains the concatenated dump of multiple functions.
	// the first line of each function begins at column 0, while the rest is
	// indented by a tabulation. These data structures help us index the
	// output by function.
	functionMarkers := make([]int, 1)
	lineFuncMap := make(map[string]int)

	lines := strings.Split(outStr, "\n")

	rs1    uint32    // Source register 1
	rs2    uint32    // Source register 2
	rs3    uint32    // Source register 3
	imm    int64     // Immediate
	funct3 uint32    // Function 3
	funct7 uint32    // Function 7 (or Function 2)
}

func (ins *instruction) String() string {
	if ins.p == nil {
		return ins.as.String()
	}
	var suffix string
	if ins.p.As != ins.as {

    var_name: (String) string for name of environment variable, e.g. "TF_MYVAR".
    var_default: (String) default value string.
    ask_for_var: (String) string for how to ask for user input.
    check_success: (Function) function that takes one argument and returns a
      boolean. Should return True if the value provided is considered valid. May
      contain a complex error message if error_msg does not provide enough

			err = e
		}
	case ct == "multipart/form-data":
		// handled by ParseMultipartForm (which is calling us, or should be)
		// TODO(bradfitz): there are too many possible
		// orders to call too many functions here.
		// Clean this up and write more tests.
		// request_test.go contains the start of this,
		// in TestParseMultipartFormOrder and others.
	}
	return
}

            buildList {
                // Collect constructors
                findAvailableConstructors(scope, name).mapTo(this) { AvailableSymbol(it, importKind) }

                // Collect functions
                scope.getFunctions(name).mapTo(this) { AvailableSymbol(it, importKind) }
            }
        }
    }