p.To.Offset = 0
		p.To.Sym = nil
		p1 := obj.Appendp(p, c.newprog)
		p1.As = AADD
		p1.From.Type = obj.TYPE_CONST
		p1.From.Offset = offset
		p1.To.Type = obj.TYPE_REG
		p1.To.Reg = REG_R12
		p2 := obj.Appendp(p1, c.newprog)
		p2.As = AMOVD
		p2.From.Type = obj.TYPE_REG
		p2.From.Reg = REG_R12
		p2.To.Type = obj.TYPE_REG
		p2.To.Reg = REG_LR
		p3 := obj.Appendp(p2, c.newprog)
		p3.As = obj.ACALL

// just before the body of the inlined function.
func (fi *FuncInfo) AddInlMark(p *Prog, id int32) {
	fi.InlMarks = append(fi.InlMarks, InlMark{p: p, id: id})
}

// AddSpill appends a spill record to the list for FuncInfo fi
func (fi *FuncInfo) AddSpill(s RegSpill) {
	fi.spills = append(fi.spills, s)
}

// Record the type symbol for an auto variable so that the linker
// an emit DWARF type information for the type.

                append(value.toString());
            } else {
                appendValues((Object[]) value);
            }
        } else if (value instanceof String) {
            append("'");
            append(value.toString());
            append("'");
        } else {
            append(value.toString());
        }
        return this;
    }

    /**

	_ = append(f0(), f2 /* ERROR "multiple-value f2" */ ()...)

	// variadic user-defined function
	append_(f0())
	append_(f0(), f0()...)
	append_(f1())
	append_(f2 /* ERRORx `cannot use .* in argument` */ ())
	append_(f2()... /* ERROR "cannot use ..." */ )
	append_(f0(), f1 /* ERROR "multiple-value f1" */ ())
	append_(f0(), f2 /* ERROR "multiple-value f2" */ ())

	case '\n':
		buf = append(buf, `\n`...)
	case '\r':
		buf = append(buf, `\r`...)
	case '\t':
		buf = append(buf, `\t`...)
	case '\v':
		buf = append(buf, `\v`...)
	default:
		switch {
		case r < ' ' || r == 0x7f:
			buf = append(buf, `\x`...)
			buf = append(buf, lowerhex[byte(r)>>4])
			buf = append(buf, lowerhex[byte(r)&0xF])
		case !utf8.ValidRune(r):
			r = 0xFFFD
			fallthrough

	_ = append(s, "foo"...)
	_ = append(S(s), "foo" /* ERRORx `cannot use .* in argument to append` */ )
	_ = append(S(s), "foo"...)
	_ = append(s, t /* ERROR "cannot use t" */ )
	_ = append(s, t...)
	_ = append(s, T("foo")...)
	_ = append(S(s), t /* ERROR "cannot use t" */ )
	_ = append(S(s), t...)
	_ = append(S(s), T("foo")...)
	_ = append([]string{}, t /* ERROR "cannot use t" */ , "foo")
	_ = append([]T{}, t, "foo")
}

	p.doPrintf(format, a)
	s := string(p.buf)
	p.free()
	return s
}

// Appendf formats according to a format specifier, appends the result to the byte
// slice, and returns the updated slice.
func Appendf(b []byte, format string, a ...any) []byte {
	p := newPrinter()
	p.doPrintf(format, a)
	b = append(b, p.buf...)
	p.free()
	return b
}

// These routines do not take a format string

            append(this.path, parts);
        }
        append(path, parts);
        String newPath = join(leadingSlash, trailingSlash, parts);
        return new ExternalResourceName(encodedRoot, newPath);
    }

    /**
     * Appends the given text to the end of this path.
     */
    public ExternalResourceName append(String path) {

			if summary.Start != nil {
				rawEvents = append(rawEvents, summary.Start)
			}
			if summary.End != nil {
				rawEvents = append(rawEvents, summary.End)
			}
			rawEvents = append(rawEvents, summary.Logs...)
			for _, r := range summary.Regions {
				if r.Start != nil {
					rawEvents = append(rawEvents, r.Start)
				}
				if r.End != nil {
					rawEvents = append(rawEvents, r.End)
				}
			}

	if x >= 0x1000 {
		b = append(b, digits[x>>12])
	}
	if x >= 0x100 {
		b = append(b, digits[x>>8&0xf])
	}
	if x >= 0x10 {
		b = append(b, digits[x>>4&0xf])
	}
	return append(b, digits[x&0xf])
}

// appendHexPad appends the fully padded hex string representation of x to b.
func appendHexPad(b []byte, x uint16) []byte {