t.Fatalf("Indent error: %v", err)
	}
	b := buf.Bytes()
	if len(b) == len(jsonBig) {
		// jsonBig is compact (no unnecessary spaces);
		// indenting should make it bigger
		t.Fatalf("Indent did not expand the input")
	}

	// should be idempotent
	var buf1 bytes.Buffer
	if err := Indent(&buf1, b, "", "\t"); err != nil {
		t.Fatalf("Indent error: %v", err)
	}

      - tutorial/security/simple-oauth2.md
      - tutorial/security/oauth2-jwt.md
    - tutorial/middleware.md
    - tutorial/cors.md
    - tutorial/sql-databases.md
    - tutorial/bigger-applications.md
    - tutorial/background-tasks.md
    - tutorial/metadata.md
    - tutorial/static-files.md
    - tutorial/testing.md
    - tutorial/debugging.md
  - Advanced User Guide:

// Ed25519 (implemented by package crypto/ed25519) should be used instead. Keys
// with 1024-bit moduli (L1024N160 parameters) are cryptographically weak, while
// bigger keys are not widely supported. Note that FIPS 186-5 no longer approves
// DSA for signature generation.
package dsa

import (
	"errors"
	"io"
	"math/big"

	"crypto/internal/randutil"
)

	// This is a little dirty: we grab the slice from the bytes.Buffer and massage
	// it by hand.
	message := b.Bytes()
	messageLen := len(message) - maxLength
	// Length cannot be bigger than the decoder can handle.
	if messageLen >= tooBig {
		enc.setError(errors.New("gob: encoder: message too big"))
		return
	}
	// Encode the length.
	enc.countState.b.Reset()

	// most commonly for GC work bufs. Since this can get fairly high, depending
	// on scheduling and what GOMAXPROCS is, give a lot of slack up-front.
	//
	// Add a little more slack too if the page size is bigger than the runtime page size.
	// "big" could end up unaligned on its ends, forcing the scavenger to skip at worst
	// 2x pages.
	slack := uint64(bigBytes / 2)
	pageSize := uint64(os.Getpagesize())
	if pageSize > 8<<10 {

   }
}
```

### SpaceToDepth Trigger Condition

Space to depth will only be triggered when batch size is small and the first
convolution channel size is small. Stride of the convolution should be bigger
than 1 as well. A cost model will be built that takes input shape and host cost
into consideration to trigger the transformation. There will be a flag to
disable this feature as well.

	// The loop should only execute one iteration in the common case.
	var p []runtime.MemProfileRecord
	n, ok := runtime.MemProfile(nil, true)
	for {
		// Allocate room for a slightly bigger profile,
		// in case a few more entries have been added
		// since the call to MemProfile.
		p = make([]runtime.MemProfileRecord, n+50)
		n, ok = runtime.MemProfile(p, true)
		if ok {
			p = p[0:n]
			break

	checkListPointers(t, l, []*Element{e})
	l.MoveToFront(e)
	checkListPointers(t, l, []*Element{e})
	l.MoveToBack(e)
	checkListPointers(t, l, []*Element{e})
	l.Remove(e)
	checkListPointers(t, l, []*Element{})

	// Bigger list
	e2 := l.PushFront(2)
	e1 := l.PushFront(1)
	e3 := l.PushBack(3)
	e4 := l.PushBack("banana")
	checkListPointers(t, l, []*Element{e1, e2, e3, e4})

	l.Remove(e2)

	// Fill buffers
	b := globalBytePoolCap.Load().Get()
	shardSize := int(e.ShardSize())
	if cap(b) < len(readers)*shardSize {
		// We should always have enough capacity, but older objects may be bigger.
		globalBytePoolCap.Load().Put(b)
		b = nil
	} else {
		// Seed the buffers.
		for i := range bufs {
			bufs[i] = b[i*shardSize : (i+1)*shardSize]
		}
	}

	return &parallelReader{

	l.MoveToFront(e)
	a.CheckListPointers(l, []*(a.Element[string]){e})
	l.MoveToBack(e)
	a.CheckListPointers(l, []*(a.Element[string]){e})
	l.Remove(e)
	a.CheckListPointers(l, []*(a.Element[string]){})

	// Bigger list
	l2 := a.New[int]()
	e2 := l2.PushFront(2)
	e1 := l2.PushFront(1)
	e3 := l2.PushBack(3)
	e4 := l2.PushBack(600)
	a.CheckListPointers(l2, []*(a.Element[int]){e1, e2, e3, e4})

	l2.Remove(e2)