*
 * Since buildscript classpath instrumentation also uses artifact transforms, we can avoid
 * re-instrumenting jars by applying this mutator.
 *
 * In other words, this mutator can be applied to a scenario that tests performance of artifact transforms,
 * but does not want to test impact of re-instrumenting jars.
 *
 * This mutator could be also moved to the gradle-profiler.

// created and it does not perform any graph transformation. If `exported_names`
// is std::nullopt, all signatures will be imported. Otherwise, only names
// in `exported_names` are imported.
//
// Note that the word `Lite` means it is a lighter version compared to
// ConvertSavedModelV1ToMlir(), and is not related to TFLite.
//
// TODO(b/179683149): Rename this class to avoid confusion with TFLite.

// 8(FP) is p.len
//12(FP) is p.cap
//
// Stack frame
#define p_end	end-4(SP)	// pointer to the end of data
#define p_data	data-8(SP)	// current data pointer
#define buf	buffer-(8+4*16)(SP)	//16 words temporary buffer
		// 3 words at 4..12(R13) for called routine parameters

TEXT	·block(SB), NOSPLIT, $84-16
	MOVW	p+4(FP), Rdata	// pointer to the data
	MOVW	p_len+8(FP), Rt0	// number of bytes
	ADD	Rdata, Rt0

my @posixclasses = (
	"[:alnum:]",
	"[:alpha:]",
	"[:ascii:]",
	"[:blank:]",
	"[:cntrl:]",
	"[:digit:]",
	"[:graph:]",
	"[:lower:]",
	"[:print:]",
	"[:punct:]",
	"[:space:]",
	"[:upper:]",
	"[:word:]",
	"[:xdigit:]",
);

my @perlclasses = (
	"\\d",
	"\\s",
	"\\w",
);

my %overrides = (
	# Prior to Perl 5.18, \s did not match vertical tab.
	# RE2 preserves that original behaviour.

// which can express repetition compactly. In either form, the
// information is used by the runtime to initialize the heap bitmap,
// and for large types (like 128 or more words), they are roughly the
// same speed. GC programs are never much larger and often more
// compact. (If large arrays are involved, they can be arbitrarily
// more compact.)
//

  node->AddAttr(kXlaInternalScopeAttr, scope);
}

// NB! We append a new scope as suffix to the _XlaInternalScope attribute
// instead of overriding the old value.  In other words, appending scope B to
// scope A creates the conjunction of the scopes A and B (i.e, A & B) and,
// in effect, the node gets both the old and new scopes.  As a unique scope

	if want := []int{2, 9, 5, 1, 4, 1, 3}; !Equal(odd, want) {
		t.Errorf("Reverse(odd) = %v, want %v", odd, want)
	}

	words := strings.Fields("one two three")
	Reverse(words)
	if want := strings.Fields("three two one"); !Equal(words, want) {
		t.Errorf("Reverse(words) = %v, want %v", words, want)
	}

	singleton := []string{"one"}
	Reverse(singleton)
	if want := []string{"one"}; !Equal(singleton, want) {

	ASCV

	ASGT
	ASGTU

	ASLL
	ASQRTD
	ASQRTF
	ASRA
	ASRL
	AROTR
	ASUB
	ASUBD
	ASUBF

	ASUBU
	ASUBW
	ADBAR
	ASYSCALL

	ATEQ
	ATNE

	AWORD

	AXOR

	AMASKEQZ
	AMASKNEZ

	// 64-bit
	AMOVV
	AMOVVL
	AMOVVR

	ASLLV
	ASRAV
	ASRLV
	AROTRV
	ADIVV
	ADIVVU

	AREMV
	AREMVU

	AMULV

    ```Python hl_lines="1"
    async def needy_dependency(fresh_value: str = Depends(get_value, use_cache=False)):
        return {"fresh_value": fresh_value}
    ```

## Recap

Apart from all the fancy words used here, the **Dependency Injection** system is quite simple.

Just functions that look the same as the *path operation functions*.

		for _, tt := range tests {
			rows.raw = rows.raw[:0]
			test(tt.name, tt.in, tt.want)
		}
	})

	// The numbers below are only valid for 64-bit interface word sizes,
	// and gc. With 32-bit words there are more convT2E allocs, and
	// with gccgo, only pointers currently go in interface data.
	// So only care on amd64 gc for now.
	measureAllocs := false
	switch runtime.GOARCH {