}

	if len(lhs) != cr {
		if r, ok := rhs[0].(*ir.CallExpr); ok && len(rhs) == 1 {
			if r.Type() != nil {
				base.ErrorfAt(stmt.Pos(), errors.WrongAssignCount, "assignment mismatch: %d variable%s but %v returns %d value%s", len(lhs), plural(len(lhs)), r.Fun, cr, plural(cr))
			}
		} else {

		for _, pattern := range e.Patterns {
			files, ok := base.Flag.Cfg.Embed.Patterns[pattern]
			if !ok {
				base.ErrorfAt(e.Pos, 0, "invalid go:embed: build system did not map pattern: %s", pattern)
			}
			for _, file := range files {
				if base.Flag.Cfg.Embed.Files[file] == "" {
					base.ErrorfAt(e.Pos, 0, "invalid go:embed: build system did not map file: %s", file)
					continue
				}
				if !have[file] {

		default:
			base.ErrorfAt(f.Pos(), 0, "go:wasmimport %s %s: unsupported parameter type %s", f.WasmImport.Module, f.WasmImport.Name, t.String())
		}
		wfs[i].Offset = p.FrameOffset(result)
	}
	return wfs
}

func resultsToWasmFields(f *ir.Func, result *abi.ABIParamResultInfo, abiParams []abi.ABIParamAssignment) []obj.WasmField {
	if len(abiParams) > 1 {

			funcs[fn] = nowritebarrierrecCall{}
			q.PushRight(fn.Nname)
		}
		// Check go:nowritebarrier functions.
		if fn.Pragma&ir.Nowritebarrier != 0 && fn.WBPos.IsKnown() {
			base.ErrorfAt(fn.WBPos, 0, "write barrier prohibited")
		}
	}

	// Perform a BFS of the call graph from all
	// go:nowritebarrierrec functions.
	enqueue := func(src, target *ir.Func, pos src.XPos) {

// assertion?
func FuncPC(pos src.XPos, n Node, wantABI obj.ABI) Node {
	if !n.Type().IsInterface() {
		base.ErrorfAt(pos, 0, "internal/abi.FuncPC%s expects an interface value, got %v", wantABI, n.Type())
	}

	if fn := IsIfaceOfFunc(n); fn != nil {
		name := fn.Nname
		abi := fn.ABI
		if abi != wantABI {
			base.ErrorfAt(pos, 0, "internal/abi.FuncPC%s expects an %v function, %s is defined as %v", wantABI, wantABI, name.Sym().Name, abi)

	addMethod := func(m *Field, explicit bool) {
		switch prev := seen[m.Sym]; {
		case prev == nil:
			seen[m.Sym] = m
		case !explicit && Identical(m.Type, prev.Type):
			return
		default:
			base.ErrorfAt(m.Pos, errors.DuplicateDecl, "duplicate method %s", m.Sym.Name)
		}
		methods = append(methods, m)
	}

	{
		methods := t.Methods()
		sort.SliceStable(methods, func(i, j int) bool {

	})
	for _, large := range largeStackFrames {
		if large.callee != 0 {
			base.ErrorfAt(large.pos, 0, "stack frame too large (>1GB): %d MB locals + %d MB args + %d MB callee", large.locals>>20, large.args>>20, large.callee>>20)
		} else {
			base.ErrorfAt(large.pos, 0, "stack frame too large (>1GB): %d MB locals + %d MB args", large.locals>>20, large.args>>20)
		}
	}

	// causing a cryptic error message by the linker. Check for oversize objects here
	// and provide a useful error message instead.
	if int64(len(t)) > 2e9 {
		base.ErrorfAt(pos, 0, "%v with length %v is too big", what, len(t))
		return 0
	}

	s.WriteString(base.Ctxt, int64(off), len(t), t)
	return off + len(t)
}

var (

			}()
		}
	}()

	var lines uint
	var m posMap
	for _, p := range noders {
		for e := range p.err {
			base.ErrorfAt(m.makeXPos(e.Pos), 0, "%s", e.Msg)
		}
		if p.file == nil {
			base.ErrorExit()
		}
		lines += p.file.EOF.Line()
	}
	base.Timer.AddEvent(int64(lines), "lines")

	unified(m, noders)
}

		n.SetType(nil)
		return n
	}
	op, why := convertOp(n.X.Op() == ir.OLITERAL, t, n.Type())
	if op == ir.OXXX {
		// Due to //go:nointerface, we may be stricter than types2 here (#63333).
		base.ErrorfAt(n.Pos(), errors.InvalidConversion, "cannot convert %L to type %v%s", n.X, n.Type(), why)
		n.SetType(nil)
		return n
	}

	n.SetOp(op)
	switch n.Op() {
	case ir.OCONVNOP:
		if t.Kind() == n.Type().Kind() {