// SetBytes sets e = v, where v is a big-endian 28-byte encoding, and returns e.
// If v is not 28 bytes or it encodes a value higher than 2^224 - 2^96 + 1,
// SetBytes returns nil and an error, and e is unchanged.
func (e *P224Element) SetBytes(v []byte) (*P224Element, error) {
	if len(v) != p224ElementLen {
		return nil, errors.New("invalid P224Element encoding")
	}

	// Check for non-canonical encodings (p + k, 2p + k, etc.) by comparing to

	// the encoding of -1 mod p, so p - 1, the highest canonical encoding.
	var minusOneEncoding = new(P256Element).Sub(
		new(P256Element), new(P256Element).One()).Bytes()
	for i := range v {
		if v[i] < minusOneEncoding[i] {
			break
		}
		if v[i] > minusOneEncoding[i] {
			return nil, errors.New("invalid P256Element encoding")
		}
	}

	var in [p256ElementLen]byte
	copy(in[:], v)
	p256InvertEndianness(in[:])

	//
	// For NIST curves, this decodes an uncompressed point according to SEC 1,
	// Version 2.0, Section 2.3.4. Compressed encodings and the point at
	// infinity are rejected.
	//
	// For X25519, this only checks the u-coordinate length. Adversarially
	// selected public keys can cause ECDH to return an error.
	NewPublicKey(key []byte) (*PublicKey, error)

	// ecdh performs an ECDH exchange and returns the shared secret. It's exposed

// and then returns the bool value.
//
// For simple, 2-alternative encodings, the idiomatic way to call Bool
// is something like:
//
//	if w.Bool(x != 0) {
//		// alternative #1
//	} else {
//		// alternative #2
//	}
//
// For multi-alternative encodings, use Code instead.
func (w *Encoder) Bool(b bool) bool {
	w.Sync(SyncBool)
	var x byte
	if b {
		x = 1

	return ok
}

// parseTransferEncoding sets t.Chunked based on the Transfer-Encoding header.
func (t *transferReader) parseTransferEncoding() error {
	raw, present := t.Header["Transfer-Encoding"]
	if !present {
		return nil
	}
	delete(t.Header, "Transfer-Encoding")

	// Issue 12785; ignore Transfer-Encoding on HTTP/1.0 requests.
	if !t.protoAtLeast(1, 1) {
		return nil
	}

 * when snapshotting inputs. Two files with the same contents but different line endings
 * will be considered equivalent.
 *
 * Line ending normalization is only supported with ASCII encoding and its supersets (i.e.
 * UTF-8, ISO-8859-1, etc).  Other encodings (e.g. UTF-16) will be treated as binary files
 * and will not be subject to line ending normalization.
 *

	return out
}

var feOne = new(field.Element).One()

// SetBytes sets v = x, where x is a 32-byte encoding of v. If x does not
// represent a valid point on the curve, SetBytes returns nil and an error and
// the receiver is unchanged. Otherwise, SetBytes returns v.
//
// Note that SetBytes accepts all non-canonical encodings of valid points.
// That is, it follows decoding rules that match most implementations in

	io, reflect
	< internal/saferio;

	# encodings
	# core ones do not use fmt.
	io, strconv, slices
	< encoding;

	encoding, reflect
	< encoding/binary
	< encoding/base32, encoding/base64;

	FMT, encoding < flag;

	fmt !< encoding/base32, encoding/base64;

	FMT, encoding/base32, encoding/base64, internal/saferio
	< encoding/ascii85, encoding/csv, encoding/gob, encoding/hex,

		o &= 0x7f
		if i != 0 {
			o |= 0x80
		}
		dst = append(dst, o)
	}
	return dst
}

// MarshalText implements [encoding.TextMarshaler]
func (o OID) MarshalText() ([]byte, error) {
	return []byte(o.String()), nil
}

// UnmarshalText implements [encoding.TextUnmarshaler]
func (o *OID) UnmarshalText(text []byte) error {
	return o.unmarshalOIDText(string(text))
}

			req: &http.Request{
				Header: http.Header{
					"Accept-Encoding": []string{"gzip"},
				},
				URL: &url.URL{Path: "/path"},
			},
			wantCode: http.StatusOK,
			wantHeaders: http.Header{
				"Content-Type":     []string{"application/json"},
				"Content-Encoding": []string{"gzip"},
				"Vary":             []string{"Accept-Encoding"},
			},
		}
	}