"Param(Ellipsis)",
    )


def test_param_repr_number():
    assert repr(Param(1)) == "Param(1)"


def test_param_repr_list():
    assert repr(Param([])) == "Param([])"


def test_path_repr():
    assert repr(Path()) == IsOneOf(
        "Path(PydanticUndefined)",
        # TODO: remove when deprecating Pydantic v1
        "Path(Ellipsis)",
    )

namespace tensorflow {
namespace ops {
namespace {

constexpr absl::string_view kEllipsis = "...";

// Returns the axis (possibly negative) corresponding to a label.
//
// Returns the axis index of the axis label if it is before an ellipsis (or if
// the ellipsis is not present), and the negative index if it occurs after the
// ellipsis. E.g. index of `b` in `ab...cd`, is `1`, but that of `c` is `-2`.
//

			tok(n.TokPos, len(n.Tok.String())))

	case *ast.CallExpr:
		children = append(children,
			tok(n.Lparen, len("(")),
			tok(n.Rparen, len(")")))
		if n.Ellipsis != 0 {
			children = append(children, tok(n.Ellipsis, len("...")))
		}

	case *ast.CaseClause:
		if n.List == nil {
			children = append(children,
				tok(n.Case, len("default")))
		} else {
			children = append(children,

// hasDots reports whether the last argument in the call is followed by ...
func hasDots(call *ast.CallExpr) bool { return call.Ellipsis.IsValid() }

// dddErrPos returns the positioner for reporting an invalid ... use in a call.
func dddErrPos(call *ast.CallExpr) positioner { return atPos(call.Ellipsis) }

// argErrPos returns positioner for reporting an invalid argument count.

	}
	.searchFormBox {
		margin-top: 4em;
	}
	#result .info {
		display: none;
	}
	#result .more {
		display: block;
	}
	#result .description {
		overflow: hidden;
		text-overflow: ellipsis;
		white-space: nowrap;
	}

		Obj     *Object   // denoted object, or nil. Deprecated: see Object.
	}

	// An Ellipsis node stands for the "..." type in a
	// parameter list or the "..." length in an array type.
	//
	Ellipsis struct {
		Ellipsis token.Pos // position of "..."
		Elt      Expr      // ellipsis element type (parameter lists only); or nil
	}

	// A BasicLit node represents a literal of basic type.

	}

	lparen := p.expect(token.LPAREN)
	p.exprLev++
	var list []ast.Expr
	var ellipsis token.Pos
	for p.tok != token.RPAREN && p.tok != token.EOF && !ellipsis.IsValid() {
		list = append(list, p.parseRhs())
		if p.tok == token.ELLIPSIS {
			ellipsis = p.pos
			p.next()
		}
		if p.tok != token.COMMA {
			break
		}
		p.next()
	}
	p.exprLev--

	}

	// If didn't parse enough, expand ellipsis.
	if i < 16 {
		if ellipsis < 0 {
			return Addr{}, parseAddrError{in: in, msg: "address string too short"}
		}
		n := 16 - i
		for j := i - 1; j >= ellipsis; j-- {
			ip[j+n] = ip[j]
		}
		clear(ip[ellipsis : ellipsis+n])
	} else if ellipsis >= 0 {
		// Ellipsis must represent at least one 0 group.

	if p.trace {
		defer un(trace(p, "ArrayType"))
	}

	if len == nil {
		p.exprLev++
		// always permit ellipsis for more fault-tolerant parsing
		if p.tok == token.ELLIPSIS {
			len = &ast.Ellipsis{Ellipsis: p.pos}
			p.next()
		} else if p.tok != token.RBRACK {
			len = p.parseRhs()
		}
		p.exprLev--
	}
	if p.tok == token.COMMA {

		return true
	case callExprType:
		// For calls, the Ellipsis fields (token.Pos) must
		// match since that is how f(x) and f(x...) are different.
		// Check them here but fall through for the remaining fields.
		p := pattern.Interface().(*ast.CallExpr)
		v := val.Interface().(*ast.CallExpr)
		if p.Ellipsis.IsValid() != v.Ellipsis.IsValid() {
			return false
		}
	}

	p := reflect.Indirect(pattern)