command, args, retcode, stdout, stderr)
	}
	return stdout, stderr, retcode, nil
}

// RunSubCommand is a utility function for kubeadm testing that executes a Cobra sub command
func RunSubCommand(t *testing.T, subCmds []*cobra.Command, command string, output io.Writer, args ...string) error {
	subCmd := getSubCommand(t, subCmds, command)
	subCmd.SetOut(output)
	subCmd.SetArgs(args)

		}
		tmpl(&commentWriter{W: w}, documentationTemplate, cmds)
		fmt.Fprintln(w, "package main")
		return
	}

	cmd := base.Go
Args:
	for i, arg := range args {
		for _, sub := range cmd.Commands {
			if sub.Name() == arg {
				cmd = sub
				continue Args
			}
		}

		// helpSuccess is the help command using as many args as possible that would succeed.
		helpSuccess := "go help"
		if i > 0 {

	return "(" + strconv.Itoa(p.X) + "," + strconv.Itoa(p.Y) + ")"
}

// Add returns the vector p+q.
func (p Point) Add(q Point) Point {
	return Point{p.X + q.X, p.Y + q.Y}
}

// Sub returns the vector p-q.
func (p Point) Sub(q Point) Point {
	return Point{p.X - q.X, p.Y - q.Y}
}

// Mul returns the vector p*k.
func (p Point) Mul(k int) Point {
	return Point{p.X * k, p.Y * k}
}

// Div returns the vector p/k.

		return true
	case DIVD, DIVDCC, DIVDU, DIVDUCC, DIVDE, DIVDECC, DIVDEU, DIVDEUCC, DIVDO, DIVDOCC, DIVDUO, DIVDUOCC:
		return true
	case MODUD, MODSD, MODUW, MODSW:
		return true
	case FADD, FADDS, FSUB, FSUBS, FMUL, FMULS, FDIV, FDIVS, FMADD, FMADDS, FMSUB, FMSUBS, FNMADD, FNMADDS, FNMSUB, FNMSUBS, FMULSCC:
		return true
	case FADDCC, FADDSCC, FSUBCC, FMULCC, FDIVCC, FDIVSCC:
		return true

		parent := &common{name: tc.parent}
		if tc.parent != "" {
			parent.level = 1
		}
		if n, ok, partial := m.fullName(parent, tc.sub); ok != tc.ok || partial != tc.partial {
			t.Errorf("for pattern %q, fullName(parent=%q, sub=%q) = %q, ok %v partial %v; want ok %v partial %v",
				tc.pattern, tc.parent, tc.sub, n, ok, partial, tc.ok, tc.partial)
		}
	}
}

var namingTestCases = []struct{ name, want string }{
	// Uniqueness

				p.From.Name = obj.NAME_EXTERN
				p.From.Offset = 0
			}
		}
	}

	// Rewrite SUB constants into ADD.
	switch p.As {
	case ASUBC:
		if p.From.Type == obj.TYPE_CONST && isint32(-p.From.Offset) {
			p.From.Offset = -p.From.Offset
			p.As = AADDC
		}

	case ASUB:
		if p.From.Type == obj.TYPE_CONST && isint32(-p.From.Offset) {
			p.From.Offset = -p.From.Offset
			p.As = AADD
		}

		ir.ODIV,
		ir.ODOT,
		ir.ODOTTYPE,
		ir.OLITERAL,
		ir.OLSH,
		ir.OMOD,
		ir.OMUL,
		ir.ONEG,
		ir.ONIL,
		ir.OOR,
		ir.OOROR,
		ir.OPAREN,
		ir.OPLUS,
		ir.ORSH,
		ir.OSUB,
		ir.OXOR:
		return false
	}

	// Be conservative.
	return true
}

// expand append(l1, l2...) to
//
//	init {
//	  s := l1
//	  newLen := s.len + l2.len

		// It is sufficient to look at the first sub-error only.
		msg := err.desc[0].msg
		if strings.Index(msg, "invalid operand") > 0 || strings.Index(msg, "invalid type") > 0 {
			return
		}
	}

	if check.conf._Trace {
		check.trace(err.posn().Pos(), "ERROR: %s (code = %d)", err.desc[0].msg, err.code)
	}

	// In go/types, if there is a sub-error with a valid position,

	AORIS
	AREM
	AREMU
	ARFI
	ARLWMI
	ARLWMICC
	ARLWNM
	ARLWNMCC
	ACLRLSLWI
	ASLW
	ASLWCC
	ASRW
	ASRAW
	ASRAWCC
	ASRWCC
	ASTBCCC
	ASTHCCC
	ASTSW
	ASTWCCC
	ASUB
	ASUBCC
	ASUBVCC
	ASUBC
	ASUBCCC
	ASUBCV
	ASUBCVCC
	ASUBME
	ASUBMECC
	ASUBMEVCC
	ASUBMEV
	ASUBV
	ASUBE
	ASUBECC
	ASUBEV
	ASUBEVCC
	ASUBZE
	ASUBZECC

}

func (trh *timingRatioHistogramInner) Sub(deltaNumerator float64) {
	trh.Add(-deltaNumerator)
}

func (trh *timingRatioHistogramInner) Inc() {
	trh.Add(1)
}

func (trh *timingRatioHistogramInner) Dec() {
	trh.Add(-1)
}

func (trh *timingRatioHistogramInner) SetToCurrentTime() {
	trh.Set(float64(trh.nowFunc().Sub(time.Unix(0, 0))))
}