[chore] update dependencies, bump to Go 1.19.1 (#826)

* update dependencies, bump Go version to 1.19

* bump test image Go version

* update golangci-lint

* update gotosocial-drone-build

* sign

* linting, go fmt

* update swagger docs

* update swagger docs

* whitespace

* update contributing.md

* fuckin whoopsie doopsie

* linterino, linteroni

* fix followrequest test not starting processor

* fix other api/client tests not starting processor

* fix remaining tests where processor not started

* bump go-runners version

* don't check last-webfingered-at, processor may have updated this

* update swagger command

* update bun to latest version

* fix embed to work the same as before with new bun

Signed-off-by: kim <grufwub@gmail.com>
Co-authored-by: tsmethurst <tobi.smethurst@protonmail.com>

vendor/golang.org/x/net/http2/write.go

@@ -0,0 +1,370 @@
+// Copyright 2014 The Go Authors. All rights reserved.
+// Use of this source code is governed by a BSD-style
+// license that can be found in the LICENSE file.
+
+package http2
+
+import (
+	"bytes"
+	"fmt"
+	"log"
+	"net/http"
+	"net/url"
+
+	"golang.org/x/net/http/httpguts"
+	"golang.org/x/net/http2/hpack"
+)
+
+// writeFramer is implemented by any type that is used to write frames.
+type writeFramer interface {
+	writeFrame(writeContext) error
+
+	// staysWithinBuffer reports whether this writer promises that
+	// it will only write less than or equal to size bytes, and it
+	// won't Flush the write context.
+	staysWithinBuffer(size int) bool
+}
+
+// writeContext is the interface needed by the various frame writer
+// types below. All the writeFrame methods below are scheduled via the
+// frame writing scheduler (see writeScheduler in writesched.go).
+//
+// This interface is implemented by *serverConn.
+//
+// TODO: decide whether to a) use this in the client code (which didn't
+// end up using this yet, because it has a simpler design, not
+// currently implementing priorities), or b) delete this and
+// make the server code a bit more concrete.
+type writeContext interface {
+	Framer() *Framer
+	Flush() error
+	CloseConn() error
+	// HeaderEncoder returns an HPACK encoder that writes to the
+	// returned buffer.
+	HeaderEncoder() (*hpack.Encoder, *bytes.Buffer)
+}
+
+// writeEndsStream reports whether w writes a frame that will transition
+// the stream to a half-closed local state. This returns false for RST_STREAM,
+// which closes the entire stream (not just the local half).
+func writeEndsStream(w writeFramer) bool {
+	switch v := w.(type) {
+	case *writeData:
+		return v.endStream
+	case *writeResHeaders:
+		return v.endStream
+	case nil:
+		// This can only happen if the caller reuses w after it's
+		// been intentionally nil'ed out to prevent use. Keep this
+		// here to catch future refactoring breaking it.
+		panic("writeEndsStream called on nil writeFramer")
+	}
+	return false
+}
+
+type flushFrameWriter struct{}
+
+func (flushFrameWriter) writeFrame(ctx writeContext) error {
+	return ctx.Flush()
+}
+
+func (flushFrameWriter) staysWithinBuffer(max int) bool { return false }
+
+type writeSettings []Setting
+
+func (s writeSettings) staysWithinBuffer(max int) bool {
+	const settingSize = 6 // uint16 + uint32
+	return frameHeaderLen+settingSize*len(s) <= max
+
+}
+
+func (s writeSettings) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WriteSettings([]Setting(s)...)
+}
+
+type writeGoAway struct {
+	maxStreamID uint32
+	code        ErrCode
+}
+
+func (p *writeGoAway) writeFrame(ctx writeContext) error {
+	err := ctx.Framer().WriteGoAway(p.maxStreamID, p.code, nil)
+	ctx.Flush() // ignore error: we're hanging up on them anyway
+	return err
+}
+
+func (*writeGoAway) staysWithinBuffer(max int) bool { return false } // flushes
+
+type writeData struct {
+	streamID  uint32
+	p         []byte
+	endStream bool
+}
+
+func (w *writeData) String() string {
+	return fmt.Sprintf("writeData(stream=%d, p=%d, endStream=%v)", w.streamID, len(w.p), w.endStream)
+}
+
+func (w *writeData) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WriteData(w.streamID, w.endStream, w.p)
+}
+
+func (w *writeData) staysWithinBuffer(max int) bool {
+	return frameHeaderLen+len(w.p) <= max
+}
+
+// handlerPanicRST is the message sent from handler goroutines when
+// the handler panics.
+type handlerPanicRST struct {
+	StreamID uint32
+}
+
+func (hp handlerPanicRST) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WriteRSTStream(hp.StreamID, ErrCodeInternal)
+}
+
+func (hp handlerPanicRST) staysWithinBuffer(max int) bool { return frameHeaderLen+4 <= max }
+
+func (se StreamError) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WriteRSTStream(se.StreamID, se.Code)
+}
+
+func (se StreamError) staysWithinBuffer(max int) bool { return frameHeaderLen+4 <= max }
+
+type writePingAck struct{ pf *PingFrame }
+
+func (w writePingAck) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WritePing(true, w.pf.Data)
+}
+
+func (w writePingAck) staysWithinBuffer(max int) bool { return frameHeaderLen+len(w.pf.Data) <= max }
+
+type writeSettingsAck struct{}
+
+func (writeSettingsAck) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WriteSettingsAck()
+}
+
+func (writeSettingsAck) staysWithinBuffer(max int) bool { return frameHeaderLen <= max }
+
+// splitHeaderBlock splits headerBlock into fragments so that each fragment fits
+// in a single frame, then calls fn for each fragment. firstFrag/lastFrag are true
+// for the first/last fragment, respectively.
+func splitHeaderBlock(ctx writeContext, headerBlock []byte, fn func(ctx writeContext, frag []byte, firstFrag, lastFrag bool) error) error {
+	// For now we're lazy and just pick the minimum MAX_FRAME_SIZE
+	// that all peers must support (16KB). Later we could care
+	// more and send larger frames if the peer advertised it, but
+	// there's little point. Most headers are small anyway (so we
+	// generally won't have CONTINUATION frames), and extra frames
+	// only waste 9 bytes anyway.
+	const maxFrameSize = 16384
+
+	first := true
+	for len(headerBlock) > 0 {
+		frag := headerBlock
+		if len(frag) > maxFrameSize {
+			frag = frag[:maxFrameSize]
+		}
+		headerBlock = headerBlock[len(frag):]
+		if err := fn(ctx, frag, first, len(headerBlock) == 0); err != nil {
+			return err
+		}
+		first = false
+	}
+	return nil
+}
+
+// writeResHeaders is a request to write a HEADERS and 0+ CONTINUATION frames
+// for HTTP response headers or trailers from a server handler.
+type writeResHeaders struct {
+	streamID    uint32
+	httpResCode int         // 0 means no ":status" line
+	h           http.Header // may be nil
+	trailers    []string    // if non-nil, which keys of h to write. nil means all.
+	endStream   bool
+
+	date          string
+	contentType   string
+	contentLength string
+}
+
+func encKV(enc *hpack.Encoder, k, v string) {
+	if VerboseLogs {
+		log.Printf("http2: server encoding header %q = %q", k, v)
+	}
+	enc.WriteField(hpack.HeaderField{Name: k, Value: v})
+}
+
+func (w *writeResHeaders) staysWithinBuffer(max int) bool {
+	// TODO: this is a common one. It'd be nice to return true
+	// here and get into the fast path if we could be clever and
+	// calculate the size fast enough, or at least a conservative
+	// upper bound that usually fires. (Maybe if w.h and
+	// w.trailers are nil, so we don't need to enumerate it.)
+	// Otherwise I'm afraid that just calculating the length to
+	// answer this question would be slower than the ~2µs benefit.
+	return false
+}
+
+func (w *writeResHeaders) writeFrame(ctx writeContext) error {
+	enc, buf := ctx.HeaderEncoder()
+	buf.Reset()
+
+	if w.httpResCode != 0 {
+		encKV(enc, ":status", httpCodeString(w.httpResCode))
+	}
+
+	encodeHeaders(enc, w.h, w.trailers)
+
+	if w.contentType != "" {
+		encKV(enc, "content-type", w.contentType)
+	}
+	if w.contentLength != "" {
+		encKV(enc, "content-length", w.contentLength)
+	}
+	if w.date != "" {
+		encKV(enc, "date", w.date)
+	}
+
+	headerBlock := buf.Bytes()
+	if len(headerBlock) == 0 && w.trailers == nil {
+		panic("unexpected empty hpack")
+	}
+
+	return splitHeaderBlock(ctx, headerBlock, w.writeHeaderBlock)
+}
+
+func (w *writeResHeaders) writeHeaderBlock(ctx writeContext, frag []byte, firstFrag, lastFrag bool) error {
+	if firstFrag {
+		return ctx.Framer().WriteHeaders(HeadersFrameParam{
+			StreamID:      w.streamID,
+			BlockFragment: frag,
+			EndStream:     w.endStream,
+			EndHeaders:    lastFrag,
+		})
+	} else {
+		return ctx.Framer().WriteContinuation(w.streamID, lastFrag, frag)
+	}
+}
+
+// writePushPromise is a request to write a PUSH_PROMISE and 0+ CONTINUATION frames.
+type writePushPromise struct {
+	streamID uint32   // pusher stream
+	method   string   // for :method
+	url      *url.URL // for :scheme, :authority, :path
+	h        http.Header
+
+	// Creates an ID for a pushed stream. This runs on serveG just before
+	// the frame is written. The returned ID is copied to promisedID.
+	allocatePromisedID func() (uint32, error)
+	promisedID         uint32
+}
+
+func (w *writePushPromise) staysWithinBuffer(max int) bool {
+	// TODO: see writeResHeaders.staysWithinBuffer
+	return false
+}
+
+func (w *writePushPromise) writeFrame(ctx writeContext) error {
+	enc, buf := ctx.HeaderEncoder()
+	buf.Reset()
+
+	encKV(enc, ":method", w.method)
+	encKV(enc, ":scheme", w.url.Scheme)
+	encKV(enc, ":authority", w.url.Host)
+	encKV(enc, ":path", w.url.RequestURI())
+	encodeHeaders(enc, w.h, nil)
+
+	headerBlock := buf.Bytes()
+	if len(headerBlock) == 0 {
+		panic("unexpected empty hpack")
+	}
+
+	return splitHeaderBlock(ctx, headerBlock, w.writeHeaderBlock)
+}
+
+func (w *writePushPromise) writeHeaderBlock(ctx writeContext, frag []byte, firstFrag, lastFrag bool) error {
+	if firstFrag {
+		return ctx.Framer().WritePushPromise(PushPromiseParam{
+			StreamID:      w.streamID,
+			PromiseID:     w.promisedID,
+			BlockFragment: frag,
+			EndHeaders:    lastFrag,
+		})
+	} else {
+		return ctx.Framer().WriteContinuation(w.streamID, lastFrag, frag)
+	}
+}
+
+type write100ContinueHeadersFrame struct {
+	streamID uint32
+}
+
+func (w write100ContinueHeadersFrame) writeFrame(ctx writeContext) error {
+	enc, buf := ctx.HeaderEncoder()
+	buf.Reset()
+	encKV(enc, ":status", "100")
+	return ctx.Framer().WriteHeaders(HeadersFrameParam{
+		StreamID:      w.streamID,
+		BlockFragment: buf.Bytes(),
+		EndStream:     false,
+		EndHeaders:    true,
+	})
+}
+
+func (w write100ContinueHeadersFrame) staysWithinBuffer(max int) bool {
+	// Sloppy but conservative:
+	return 9+2*(len(":status")+len("100")) <= max
+}
+
+type writeWindowUpdate struct {
+	streamID uint32 // or 0 for conn-level
+	n        uint32
+}
+
+func (wu writeWindowUpdate) staysWithinBuffer(max int) bool { return frameHeaderLen+4 <= max }
+
+func (wu writeWindowUpdate) writeFrame(ctx writeContext) error {
+	return ctx.Framer().WriteWindowUpdate(wu.streamID, wu.n)
+}
+
+// encodeHeaders encodes an http.Header. If keys is not nil, then (k, h[k])
+// is encoded only if k is in keys.
+func encodeHeaders(enc *hpack.Encoder, h http.Header, keys []string) {
+	if keys == nil {
+		sorter := sorterPool.Get().(*sorter)
+		// Using defer here, since the returned keys from the
+		// sorter.Keys method is only valid until the sorter
+		// is returned:
+		defer sorterPool.Put(sorter)
+		keys = sorter.Keys(h)
+	}
+	for _, k := range keys {
+		vv := h[k]
+		k, ascii := lowerHeader(k)
+		if !ascii {
+			// Skip writing invalid headers. Per RFC 7540, Section 8.1.2, header
+			// field names have to be ASCII characters (just as in HTTP/1.x).
+			continue
+		}
+		if !validWireHeaderFieldName(k) {
+			// Skip it as backup paranoia. Per
+			// golang.org/issue/14048, these should
+			// already be rejected at a higher level.
+			continue
+		}
+		isTE := k == "transfer-encoding"
+		for _, v := range vv {
+			if !httpguts.ValidHeaderFieldValue(v) {
+				// TODO: return an error? golang.org/issue/14048
+				// For now just omit it.
+				continue
+			}
+			// TODO: more of "8.1.2.2 Connection-Specific Header Fields"
+			if isTE && v != "trailers" {
+				continue
+			}
+			encKV(enc, k, v)
+		}
+	}
+}