names     []LocalSlot

	nArgSlot, // Number of Values sourced to arg slot
	nNotNeed, // Number of Values not needing a stack slot
	nNamedSlot, // Number of Values using a named stack slot
	nReuse, // Number of values reusing a stack slot
	nAuto, // Number of autos allocated for stack slots.
	nSelfInterfere int32 // Number of self-interferences
}

func newStackAllocState(f *Func) *stackAllocState {

			Table: clause.Table{Name: association.Relationship.JoinTable.Table},
			ON:    clause.Where{Exprs: queryConds},
		}}})
	} else {
		tx.Clauses(clause.Where{Exprs: queryConds})
	}

	return tx

			}
			if r.eof || c == '\n' {
				r.syntaxError()
			}
			if c == '\\' {
				r.nextByte(false)
			}
		}
	default:
		r.syntaxError()
	}
}

// readImport reads an import clause - optional identifier followed by quoted string -
// from the input.
func (r *importReader) readImport() {
	c := r.peekByte(true)
	if c == '.' {
		r.peek = 0
	} else if isIdent(c) {
		r.readIdent()
	}

	}
}

// symRefAttrs parses an optional function symbol attribute clause for
// the function symbol 'name', logging an error for a malformed
// attribute clause if 'issueError' is true. The return value is a
// (boolean, ABI) pair indicating that the named symbol is either
// static or a particular ABI specification.
//
// The expected form of the attribute clause is:
//
// empty,           yielding (false, obj.ABI0)

	ft := f.Nname.Type()
	if ft.NumRecvs() != 0 {
		base.ErrorfAt(f.Pos(), 0, "makeABIWrapper support for wrapping methods not implemented")
		return
	}

	// Reuse f's types.Sym to create a new ODCLFUNC/function.
	// TODO(mdempsky): Means we can't set sym.Def in Declfunc, ugh.
	fn := ir.NewFunc(pos, pos, f.Sym(), types.NewSignature(nil,
		typecheck.NewFuncParams(ft.Params()),

			if v == root {
				v.Aux = cv.Type // widen store type
				v.Pos = pos
				v.SetArg(0, ptr)
				v.SetArg(1, cv)
				v.SetArg(2, mem)
			} else {
				clobber(v)
				v.Type = types.Types[types.TBOOL] // erase memory type
			}
		}
		return true
	}

	// Check for consecutive loads as the source of the stores.
	var loadMem *Value
	var loadBase BaseAddress
	var loadIdx int64

func queryReuse(ctx context.Context, path, query, current string, allowed AllowedFunc, reuse map[module.Version]*modinfo.ModulePublic) (*modfetch.RevInfo, error) {
	var info *modfetch.RevInfo
	err := modfetch.TryProxies(func(proxy string) (err error) {
		info, err = queryProxy(ctx, proxy, path, query, current, allowed, reuse)
		return err
	})
	return info, err
}

// checkReuse checks whether a revision of a given module

		err := runSignalForwardingTest(t, "2")
		if err == nil {
			continue
		}

		// If the signal is delivered to a C thread, as expected,
		// the Go signal handler will disable itself and re-raise
		// the signal, causing the program to die with SIGSEGV.
		//
		// It is also possible that the signal will be
		// delivered to a Go thread, such as a GC thread.

	//
	//     node               declared object
	//
	//     *syntax.ImportDecl    *PkgName for imports without renames
	//     *syntax.CaseClause    type-specific *Var for each type switch case clause (incl. default)
	//     *syntax.Field         anonymous parameter *Var (incl. unnamed results)
	//
	Implicits map[syntax.Node]Object

	// Selections maps selector expressions (excluding qualified identifiers)

		t.Fatalf("Can't find a deleted record")
	}

	beforeCallTimes := p.AfterFindCallTimes
	if DB.Where("Code = ?", "unique_code").Find(&p).Error != nil {
		t.Fatalf("Find don't raise error when record not found")
	}

	if p.AfterFindCallTimes != beforeCallTimes {
		t.Fatalf("AfterFind should not be called")
	}
}

func TestCallbacksWithErrors(t *testing.T) {