"fmt.Printf":   true,
	"fmt.Println":  true,
	"fmt.Sprint":   true,
	"fmt.Sprintf":  true,
	"fmt.Sprintln": true,

	"runtime/trace.Logf": true,

	"log.Print":             true,
	"log.Printf":            true,
	"log.Println":           true,
	"log.Fatal":             true,
	"log.Fatalf":            true,
	"log.Fatalln":           true,
	"log.Panic":             true,
	"log.Panicf":            true,

	fmt.Printf("%v", &stringerv)
	fmt.Printf("%T", &stringerv)
	fmt.Printf("%s", &embeddedStringerv)
	fmt.Printf("%v", &embeddedStringerv)
	fmt.Printf("%T", &embeddedStringerv)
	fmt.Printf("%v", notstringerv)
	fmt.Printf("%T", notstringerv)
	fmt.Printf("%q", stringerarrayv)
	fmt.Printf("%v", stringerarrayv)
	fmt.Printf("%s", stringerarrayv)
	fmt.Printf("%v", notstringerarrayv)
	fmt.Printf("%T", notstringerarrayv)

	}
	return b
}

// A printer collects the state during printing of a file or expression.
type printer struct {
	bytes.Buffer           // output buffer
	comment      []Comment // pending end-of-line comments
	margin       int       // left margin (indent), a number of tabs
}

// printf prints to the buffer.
func (p *printer) printf(format string, args ...interface{}) {
	fmt.Fprintf(p, format, args...)
}

		}
	}()

	// print x
	if x == nil {
		p.printf("nil\n")
		return
	}
	p.print(reflect.ValueOf(x))
	p.printf("\n")

	return
}

// Print prints x to standard output, skipping nil fields.
// Print(fset, x) is the same as Fprint(os.Stdout, fset, x, NotNilFilter).
func Print(fset *token.FileSet, x any) error {
	return Fprint(os.Stdout, fset, x, NotNilFilter)
}

	// 21 bytes written.
}

// Print, Println, and Printf lay out their arguments differently. In this example
// we can compare their behaviors. Println always adds blanks between the items it
// prints, while Print adds blanks only between non-string arguments and Printf
// does exactly what it is told.
// Sprint, Sprintln, Sprintf, Fprint, Fprintln, and Fprintf behave the same as

				if first {
					p.printf("\n")
					first = false
				}
				p.printf("%s: ", name)
				p.dump(x.Field(i), nil)
				p.printf("\n")
			}
		}

		p.indent--
		p.printf("}")

	default:
		switch x := x.Interface().(type) {
		case string:
			// print strings in quotes
			p.printf("%q", x)
		default:
			p.printf("%v", x)
		}
	}
}

// Package printf defines an Analyzer that checks consistency
// of Printf format strings and arguments.
//
// # Analyzer printf
//
// printf: check consistency of Printf format strings and arguments
//
// The check applies to calls of the formatting functions such as
// [fmt.Printf] and [fmt.Sprintf], as well as any detected wrappers of
// those functions such as [log.Printf]. It reports a variety of

	printf("import \"math\"\n");
	printf("\n");
	printf("var (\n");
	printf("\tnan     = math.NaN()\n");
	printf("\tinf     = math.Inf(1)\n");
	printf("\tzero    = 0.0\n");
	printf(")\n");
	printf("\n");
	printf("var tests = []struct {\n");
	printf("\tf, g complex128\n");
	printf("\tout  complex128\n");
	printf("}{\n");

	for(i=0; i<nelem(f); i++)
	for(j=0; j<nelem(f); j++)
	for(k=0; k<nelem(f); k++)
	for(l=0; l<nelem(f); l++) {

func main() {
	fmt.Printf("package main\n")
	fmt.Printf("import \"fmt\"\n")
	fmt.Printf("var failed = false\n")

	f1 := testMul(17, 32)
	f2 := testMul(131, 64)

	fmt.Printf("func main() {\n")
	fmt.Println(f1)
	fmt.Println(f2)
	fmt.Printf("if failed {\n	panic(\"multiplication failed\")\n}\n")
	fmt.Printf("}\n")

	if d.cmd == debugDumpMode && !suppressOutput {
		if !d.preambleEmitted {
			fmt.Printf("\nPackage path: %s\n", d.pkgImportPath)
			fmt.Printf("Package name: %s\n", d.pkgName)
			fmt.Printf("Module path: %s\n", d.modulePath)
			d.preambleEmitted = true
		}
		fmt.Printf("\nFunc: %s\n", fd.Funcname)
		fmt.Printf("Srcfile: %s\n", fd.Srcfile)
		fmt.Printf("Literal: %v\n", fd.Lit)
	}
	for i := 0; i < len(fd.Units); i++ {