diff --git a/pr/340/docs/help.html b/pr/340/docs/help.html index 99d8cb979..cda0c7f93 100644 --- a/pr/340/docs/help.html +++ b/pr/340/docs/help.html @@ -1 +1 @@ -Help

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\ No newline at end of file diff --git a/pr/340/docs/iroh_quinn_proto/coding/trait.Encodable.html b/pr/340/docs/iroh_quinn_proto/coding/trait.Encodable.html index 58e2959a7..15abe79cf 100644 --- a/pr/340/docs/iroh_quinn_proto/coding/trait.Encodable.html +++ b/pr/340/docs/iroh_quinn_proto/coding/trait.Encodable.html @@ -3,4 +3,4 @@ fn encode<B: BufMut>(&self, buf: &mut B); }
Expand description

Infallible encoding of QUIC primitives.

Required Methods§

Source

fn encode<B: BufMut>(&self, buf: &mut B)

Append the encoding of self to the provided buffer.

-

Dyn Compatibility§

This trait is not dyn compatible.

In older versions of Rust, dyn compatibility was called "object safety", so this trait is not object safe.

Implementations on Foreign Types§

Source§

impl Encodable for u8

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for u16

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for u32

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for u64

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for Ipv4Addr

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for Ipv6Addr

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Implementors§

Source§

impl Encodable for FrameType

Source§

impl Encodable for MaybeFrame

Source§

impl Encodable for Datagram

Source§

impl Encodable for PathId

Source§

impl Encodable for StreamId

Source§

impl Encodable for Code

Source§

impl Encodable for VarInt

\ No newline at end of file +

Dyn Compatibility§

This trait is not dyn compatible.

In older versions of Rust, dyn compatibility was called "object safety", so this trait is not object safe.

Implementations on Foreign Types§

Source§

impl Encodable for u8

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for u16

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for u32

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for u64

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for Ipv4Addr

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Source§

impl Encodable for Ipv6Addr

Source§

fn encode<B: BufMut>(&self, buf: &mut B)

Implementors§

Source§

impl Encodable for FrameType

Source§

impl Encodable for MaybeFrame

Source§

impl Encodable for Datagram

Source§

impl Encodable for PathId

Source§

impl Encodable for StreamId

Source§

impl Encodable for Code

Source§

impl Encodable for VarInt

\ No newline at end of file diff --git a/pr/340/docs/iroh_quinn_proto/struct.Datagram.html b/pr/340/docs/iroh_quinn_proto/struct.Datagram.html index ed210214b..5471fe7fa 100644 --- a/pr/340/docs/iroh_quinn_proto/struct.Datagram.html +++ b/pr/340/docs/iroh_quinn_proto/struct.Datagram.html @@ -1,8 +1,8 @@ -Datagram in iroh_quinn_proto - Rust

Datagram

iroh_quinn_proto

Struct Datagram 

Source 
pub struct Datagram {
+Datagram in iroh_quinn_proto - Rust
Datagram
iroh_quinn_proto
Struct Datagram 
Source 
pub struct Datagram {
     pub data: Bytes,
 }
Expand description
An unreliable datagram

 
Fields§
§data: Bytes
Payload

-
Trait Implementations§
Source§
impl Clone for Datagram
Source§
fn clone(&self) -> Datagram
Returns a duplicate of the value. Read more
1.0.0 · Source§
fn clone_from(&mut self, source: &Self)
Performs copy-assignment from source. Read more
Source§
impl Debug for Datagram
Source§
fn fmt(&self, f: &mut Formatter<'_>) -> Result
Formats the value using the given formatter. Read more
Source§
impl Display for Datagram
Source§
fn fmt(&self, __derive_more_f: &mut Formatter<'_>) -> Result
Formats the value using the given formatter. Read more
Source§
impl Encodable for Datagram
Source§
fn encode<B: BufMut>(&self, out: &mut B)
Append the encoding of self to the provided buffer.
Auto Trait Implementations§
Blanket Implementations§
Source§
impl<T> Any for T
where
+
Trait Implementations§
Source§
impl Clone for Datagram
Source§
fn clone(&self) -> Datagram
Returns a duplicate of the value. Read more
1.0.0 · Source§
fn clone_from(&mut self, source: &Self)
Performs copy-assignment from source. Read more
Source§
impl Debug for Datagram
Source§
fn fmt(&self, f: &mut Formatter<'_>) -> Result
Formats the value using the given formatter. Read more
Source§
impl Display for Datagram
Source§
fn fmt(&self, __derive_more_f: &mut Formatter<'_>) -> Result
Formats the value using the given formatter. Read more
Source§
impl Encodable for Datagram
Source§
fn encode<B: BufMut>(&self, out: &mut B)
Append the encoding of self to the provided buffer.
Auto Trait Implementations§
Blanket Implementations§
Source§
impl<T> Any for T
where
     T: 'static + ?Sized,
Source§
fn type_id(&self) -> TypeId
Gets the TypeId of self. Read more
Source§
impl<T> Borrow<T> for T
where
     T: ?Sized,
Source§
fn borrow(&self) -> &T
Immutably borrows from an owned value. Read more
Source§
impl<T> BorrowMut<T> for T
where
     T: ?Sized,
Source§
fn borrow_mut(&mut self) -> &mut T
Mutably borrows from an owned value. Read more
Source§
impl<T> CloneToUninit for T
where
diff --git a/pr/340/docs/settings.html b/pr/340/docs/settings.html
index abf467830..1adf3f67d 100644
--- a/pr/340/docs/settings.html
+++ b/pr/340/docs/settings.html
@@ -1 +1 @@
-Settings
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\ No newline at end of file
+Settings
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diff --git a/pr/340/docs/src/iroh_quinn_proto/frame.rs.html b/pr/340/docs/src/iroh_quinn_proto/frame.rs.html
index f6a52cdce..08cdf39f5 100644
--- a/pr/340/docs/src/iroh_quinn_proto/frame.rs.html
+++ b/pr/340/docs/src/iroh_quinn_proto/frame.rs.html
@@ -1001,1905 +1001,1911 @@
 1001            any::<ArrayRangeSet>(),
 1002            any::<Option<EcnCounts>>(),
 1003        )
-1004            .prop_map(|(path_id, delay, ranges, ecn)| Self {
-1005                path_id,
-1006                largest: ranges.max().unwrap(),
-1007                delay,
-1008                ranges,
-1009                ecn,
-1010            })
-1011            .boxed()
-1012    }
-1013}
-1014
-1015impl PathAck {
-1016    pub(crate) fn into_ack(self) -> (Ack, PathId) {
-1017        let ack = Ack {
-1018            largest: self.largest,
-1019            delay: self.delay,
-1020            ranges: self.ranges,
-1021            ecn: self.ecn,
-1022        };
-1023
-1024        (ack, self.path_id)
-1025    }
+1004            .prop_filter("ranges must be non empty", |(_, _, ranges, _)| {
+1005                !ranges.is_empty()
+1006            })
+1007            .prop_map(|(path_id, delay, ranges, ecn)| Self {
+1008                path_id,
+1009                largest: ranges.max().expect("ranges must be non empty"),
+1010                delay,
+1011                ranges,
+1012                ecn,
+1013            })
+1014            .boxed()
+1015    }
+1016}
+1017
+1018impl PathAck {
+1019    pub(crate) fn into_ack(self) -> (Ack, PathId) {
+1020        let ack = Ack {
+1021            largest: self.largest,
+1022            delay: self.delay,
+1023            ranges: self.ranges,
+1024            ecn: self.ecn,
+1025        };
 1026
-1027    fn get_type(&self) -> FrameType {
-1028        if self.ecn.is_some() {
-1029            FrameType::PathAckEcn
-1030        } else {
-1031            FrameType::PathAck
-1032        }
-1033    }
-1034
-1035    pub(crate) fn encoder<'a>(
-1036        path_id: PathId,
-1037        delay: u64,
-1038        ranges: &'a ArrayRangeSet,
-1039        ecn: Option<&'a EcnCounts>,
-1040    ) -> PathAckEncoder<'a> {
-1041        PathAckEncoder {
-1042            path_id,
-1043            delay,
-1044            ranges,
-1045            ecn,
-1046        }
-1047    }
-1048}
-1049
-1050#[derive(derive_more::Display)]
-1051#[display("{} path_id: {path_id} ranges: {ranges:?} delay: {delay}µs", self.get_type())]
-1052pub(crate) struct PathAckEncoder<'a> {
-1053    pub(super) path_id: PathId,
-1054    pub(super) delay: u64,
-1055    pub(super) ranges: &'a ArrayRangeSet,
-1056    pub(super) ecn: Option<&'a EcnCounts>,
-1057}
-1058
-1059impl<'a> PathAckEncoder<'a> {
-1060    const fn get_type(&self) -> FrameType {
-1061        match self.ecn.is_some() {
-1062            true => FrameType::PathAckEcn,
-1063            false => FrameType::PathAck,
-1064        }
-1065    }
-1066}
-1067
-1068impl<'a> Encodable for PathAckEncoder<'a> {
-1069    /// Encode [`Self`] into the given buffer
-1070    ///
-1071    /// The [`FrameType`] will be either [`FrameType::PathAckEcn`] or [`FrameType::PathAck`]
-1072    /// depending on whether [`EcnCounts`] are provided.
+1027        (ack, self.path_id)
+1028    }
+1029
+1030    fn get_type(&self) -> FrameType {
+1031        if self.ecn.is_some() {
+1032            FrameType::PathAckEcn
+1033        } else {
+1034            FrameType::PathAck
+1035        }
+1036    }
+1037
+1038    pub(crate) fn encoder<'a>(
+1039        path_id: PathId,
+1040        delay: u64,
+1041        ranges: &'a ArrayRangeSet,
+1042        ecn: Option<&'a EcnCounts>,
+1043    ) -> PathAckEncoder<'a> {
+1044        PathAckEncoder {
+1045            path_id,
+1046            delay,
+1047            ranges,
+1048            ecn,
+1049        }
+1050    }
+1051}
+1052
+1053#[derive(derive_more::Display)]
+1054#[display("{} path_id: {path_id} ranges: {ranges:?} delay: {delay}µs", self.get_type())]
+1055pub(crate) struct PathAckEncoder<'a> {
+1056    pub(super) path_id: PathId,
+1057    pub(super) delay: u64,
+1058    pub(super) ranges: &'a ArrayRangeSet,
+1059    pub(super) ecn: Option<&'a EcnCounts>,
+1060}
+1061
+1062impl<'a> PathAckEncoder<'a> {
+1063    const fn get_type(&self) -> FrameType {
+1064        match self.ecn.is_some() {
+1065            true => FrameType::PathAckEcn,
+1066            false => FrameType::PathAck,
+1067        }
+1068    }
+1069}
+1070
+1071impl<'a> Encodable for PathAckEncoder<'a> {
+1072    /// Encode [`Self`] into the given buffer
 1073    ///
-1074    /// PANICS: if `ranges` is empty.
-1075    fn encode<W: BufMut>(&self, buf: &mut W) {
-1076        let PathAckEncoder {
-1077            path_id,
-1078            delay,
-1079            ranges,
-1080            ecn,
-1081        } = self;
-1082        let mut rest = ranges.iter().rev();
-1083        let first = rest
-1084            .next()
-1085            .expect("Caller has verified ranges is non empty");
-1086        let largest = first.end - 1;
-1087        let first_size = first.end - first.start;
-1088        let kind = match ecn.is_some() {
-1089            true => FrameType::PathAckEcn,
-1090            false => FrameType::PathAck,
-1091        };
-1092        buf.write(kind);
-1093        buf.write(*path_id);
-1094        buf.write_var(largest);
-1095        buf.write_var(*delay);
-1096        buf.write_var(ranges.len() as u64 - 1);
-1097        buf.write_var(first_size - 1);
-1098        let mut prev = first.start;
-1099        for block in rest {
-1100            let size = block.end - block.start;
-1101            buf.write_var(prev - block.end - 1);
-1102            buf.write_var(size - 1);
-1103            prev = block.start;
-1104        }
-1105        if let Some(x) = ecn {
-1106            x.encode(buf)
+1074    /// The [`FrameType`] will be either [`FrameType::PathAckEcn`] or [`FrameType::PathAck`]
+1075    /// depending on whether [`EcnCounts`] are provided.
+1076    ///
+1077    /// PANICS: if `ranges` is empty.
+1078    fn encode<W: BufMut>(&self, buf: &mut W) {
+1079        let PathAckEncoder {
+1080            path_id,
+1081            delay,
+1082            ranges,
+1083            ecn,
+1084        } = self;
+1085        let mut rest = ranges.iter().rev();
+1086        let first = rest
+1087            .next()
+1088            .expect("Caller has verified ranges is non empty");
+1089        let largest = first.end - 1;
+1090        let first_size = first.end - first.start;
+1091        let kind = match ecn.is_some() {
+1092            true => FrameType::PathAckEcn,
+1093            false => FrameType::PathAck,
+1094        };
+1095        buf.write(kind);
+1096        buf.write(*path_id);
+1097        buf.write_var(largest);
+1098        buf.write_var(*delay);
+1099        buf.write_var(ranges.len() as u64 - 1);
+1100        buf.write_var(first_size - 1);
+1101        let mut prev = first.start;
+1102        for block in rest {
+1103            let size = block.end - block.start;
+1104            buf.write_var(prev - block.end - 1);
+1105            buf.write_var(size - 1);
+1106            prev = block.start;
 1107        }
-1108    }
-1109}
-1110
-1111#[derive(Debug, Clone, Eq, PartialEq)]
-1112pub(crate) struct Ack {
-1113    pub largest: u64,
-1114    pub delay: u64,
-1115    pub ranges: ArrayRangeSet,
-1116    pub ecn: Option<EcnCounts>,
-1117}
-1118
-1119#[cfg(test)]
-1120impl proptest::arbitrary::Arbitrary for Ack {
-1121    type Parameters = ();
-1122    type Strategy = proptest::strategy::BoxedStrategy<Self>;
-1123
-1124    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
-1125        use proptest::prelude::*;
-1126        (
-1127            varint_u64(),
-1128            any::<ArrayRangeSet>(),
-1129            any::<Option<EcnCounts>>(),
-1130        )
-1131            .prop_map(|(delay, ranges, ecn)| Self {
-1132                largest: ranges.max().unwrap(),
-1133                delay,
-1134                ranges,
-1135                ecn,
+1108        if let Some(x) = ecn {
+1109            x.encode(buf)
+1110        }
+1111    }
+1112}
+1113
+1114#[derive(Debug, Clone, Eq, PartialEq)]
+1115pub(crate) struct Ack {
+1116    pub largest: u64,
+1117    pub delay: u64,
+1118    pub ranges: ArrayRangeSet,
+1119    pub ecn: Option<EcnCounts>,
+1120}
+1121
+1122#[cfg(test)]
+1123impl proptest::arbitrary::Arbitrary for Ack {
+1124    type Parameters = ();
+1125    type Strategy = proptest::strategy::BoxedStrategy<Self>;
+1126
+1127    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
+1128        use proptest::prelude::*;
+1129        (
+1130            varint_u64(),
+1131            any::<ArrayRangeSet>(),
+1132            any::<Option<EcnCounts>>(),
+1133        )
+1134            .prop_filter("ranges must be non empty", |(_, ranges, _)| {
+1135                !ranges.is_empty()
 1136            })
-1137            .boxed()
-1138    }
-1139}
-1140
-1141impl Ack {
-1142    pub(crate) fn encoder<'a>(
-1143        delay: u64,
-1144        ranges: &'a ArrayRangeSet,
-1145        ecn: Option<&'a EcnCounts>,
-1146    ) -> AckEncoder<'a> {
-1147        AckEncoder { delay, ranges, ecn }
-1148    }
-1149
-1150    pub(crate) fn iter(&self) -> impl DoubleEndedIterator<Item = Range<u64>> + '_ {
-1151        self.ranges.iter()
-1152    }
-1153
-1154    pub(crate) const fn get_type(&self) -> FrameType {
-1155        if self.ecn.is_some() {
-1156            FrameType::AckEcn
-1157        } else {
-1158            FrameType::Ack
-1159        }
-1160    }
-1161}
-1162
-1163#[derive(derive_more::Display)]
-1164#[display("{} ranges: {ranges:?} delay: {delay}µs", self.get_type())]
-1165pub(crate) struct AckEncoder<'a> {
-1166    pub(crate) delay: u64,
-1167    pub(crate) ranges: &'a ArrayRangeSet,
-1168    pub(crate) ecn: Option<&'a EcnCounts>,
-1169}
-1170
-1171impl<'a> AckEncoder<'a> {
-1172    const fn get_type(&self) -> FrameType {
-1173        match self.ecn.is_some() {
-1174            true => FrameType::AckEcn,
-1175            false => FrameType::Ack,
-1176        }
-1177    }
-1178}
-1179
-1180impl<'a> Encodable for AckEncoder<'a> {
-1181    fn encode<W: BufMut>(&self, buf: &mut W) {
-1182        let AckEncoder { delay, ranges, ecn } = self;
-1183        let mut rest = ranges.iter().rev();
-1184        let first = rest.next().unwrap();
-1185        let largest = first.end - 1;
-1186        let first_size = first.end - first.start;
-1187        let kind = match ecn.is_some() {
-1188            true => FrameType::AckEcn,
-1189            false => FrameType::Ack,
-1190        };
-1191        buf.write(kind);
-1192        buf.write_var(largest);
-1193        buf.write_var(*delay);
-1194        buf.write_var(ranges.len() as u64 - 1);
-1195        buf.write_var(first_size - 1);
-1196        let mut prev = first.start;
-1197        for block in rest {
-1198            let size = block.end - block.start;
-1199            buf.write_var(prev - block.end - 1);
-1200            buf.write_var(size - 1);
-1201            prev = block.start;
-1202        }
-1203        if let Some(x) = ecn {
-1204            x.encode(buf)
-1205        }
-1206    }
-1207}
-1208
-1209#[cfg_attr(test, derive(Arbitrary))]
-1210#[derive(Debug, Copy, Clone, Eq, PartialEq)]
-1211pub(crate) struct EcnCounts {
-1212    #[cfg_attr(test, strategy(varint_u64()))]
-1213    pub ect0: u64,
-1214    #[cfg_attr(test, strategy(varint_u64()))]
-1215    pub ect1: u64,
-1216    #[cfg_attr(test, strategy(varint_u64()))]
-1217    pub ce: u64,
-1218}
-1219
-1220impl std::ops::AddAssign<EcnCodepoint> for EcnCounts {
-1221    fn add_assign(&mut self, rhs: EcnCodepoint) {
-1222        match rhs {
-1223            EcnCodepoint::Ect0 => {
-1224                self.ect0 += 1;
-1225            }
-1226            EcnCodepoint::Ect1 => {
-1227                self.ect1 += 1;
-1228            }
-1229            EcnCodepoint::Ce => {
-1230                self.ce += 1;
+1137            .prop_map(|(delay, ranges, ecn)| Self {
+1138                largest: ranges.max().expect("ranges must be non empty"),
+1139                delay,
+1140                ranges,
+1141                ecn,
+1142            })
+1143            .boxed()
+1144    }
+1145}
+1146
+1147impl Ack {
+1148    pub(crate) fn encoder<'a>(
+1149        delay: u64,
+1150        ranges: &'a ArrayRangeSet,
+1151        ecn: Option<&'a EcnCounts>,
+1152    ) -> AckEncoder<'a> {
+1153        AckEncoder { delay, ranges, ecn }
+1154    }
+1155
+1156    pub(crate) fn iter(&self) -> impl DoubleEndedIterator<Item = Range<u64>> + '_ {
+1157        self.ranges.iter()
+1158    }
+1159
+1160    pub(crate) const fn get_type(&self) -> FrameType {
+1161        if self.ecn.is_some() {
+1162            FrameType::AckEcn
+1163        } else {
+1164            FrameType::Ack
+1165        }
+1166    }
+1167}
+1168
+1169#[derive(derive_more::Display)]
+1170#[display("{} ranges: {ranges:?} delay: {delay}µs", self.get_type())]
+1171pub(crate) struct AckEncoder<'a> {
+1172    pub(crate) delay: u64,
+1173    pub(crate) ranges: &'a ArrayRangeSet,
+1174    pub(crate) ecn: Option<&'a EcnCounts>,
+1175}
+1176
+1177impl<'a> AckEncoder<'a> {
+1178    const fn get_type(&self) -> FrameType {
+1179        match self.ecn.is_some() {
+1180            true => FrameType::AckEcn,
+1181            false => FrameType::Ack,
+1182        }
+1183    }
+1184}
+1185
+1186impl<'a> Encodable for AckEncoder<'a> {
+1187    fn encode<W: BufMut>(&self, buf: &mut W) {
+1188        let AckEncoder { delay, ranges, ecn } = self;
+1189        let mut rest = ranges.iter().rev();
+1190        let first = rest.next().unwrap();
+1191        let largest = first.end - 1;
+1192        let first_size = first.end - first.start;
+1193        let kind = match ecn.is_some() {
+1194            true => FrameType::AckEcn,
+1195            false => FrameType::Ack,
+1196        };
+1197        buf.write(kind);
+1198        buf.write_var(largest);
+1199        buf.write_var(*delay);
+1200        buf.write_var(ranges.len() as u64 - 1);
+1201        buf.write_var(first_size - 1);
+1202        let mut prev = first.start;
+1203        for block in rest {
+1204            let size = block.end - block.start;
+1205            buf.write_var(prev - block.end - 1);
+1206            buf.write_var(size - 1);
+1207            prev = block.start;
+1208        }
+1209        if let Some(x) = ecn {
+1210            x.encode(buf)
+1211        }
+1212    }
+1213}
+1214
+1215#[cfg_attr(test, derive(Arbitrary))]
+1216#[derive(Debug, Copy, Clone, Eq, PartialEq)]
+1217pub(crate) struct EcnCounts {
+1218    #[cfg_attr(test, strategy(varint_u64()))]
+1219    pub ect0: u64,
+1220    #[cfg_attr(test, strategy(varint_u64()))]
+1221    pub ect1: u64,
+1222    #[cfg_attr(test, strategy(varint_u64()))]
+1223    pub ce: u64,
+1224}
+1225
+1226impl std::ops::AddAssign<EcnCodepoint> for EcnCounts {
+1227    fn add_assign(&mut self, rhs: EcnCodepoint) {
+1228        match rhs {
+1229            EcnCodepoint::Ect0 => {
+1230                self.ect0 += 1;
 1231            }
-1232        }
-1233    }
-1234}
-1235
-1236impl EcnCounts {
-1237    pub(crate) const ZERO: Self = Self {
-1238        ect0: 0,
-1239        ect1: 0,
-1240        ce: 0,
-1241    };
-1242}
-1243
-1244impl Encodable for EcnCounts {
-1245    fn encode<W: BufMut>(&self, out: &mut W) {
-1246        out.write_var(self.ect0);
-1247        out.write_var(self.ect1);
-1248        out.write_var(self.ce);
-1249    }
-1250}
-1251
-1252#[derive(Debug, Clone)]
-1253#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
-1254pub(crate) struct Stream {
-1255    pub(crate) id: StreamId,
-1256    #[cfg_attr(test, strategy(varint_u64()))]
-1257    pub(crate) offset: u64,
-1258    pub(crate) fin: bool,
-1259    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..100), Bytes::from)))]
-1260    pub(crate) data: Bytes,
-1261}
-1262
-1263impl FrameStruct for Stream {
-1264    const SIZE_BOUND: usize = 1 + 8 + 8 + 8;
-1265}
-1266
-1267/// Metadata from a stream frame
-1268#[derive(Debug, Clone, derive_more::Display)]
-1269#[display("STREAM id: {id} off: {} len: {} fin: {fin}", offsets.start, offsets.end - offsets.start)]
-1270pub(crate) struct StreamMeta {
-1271    pub(crate) id: StreamId,
-1272    pub(crate) offsets: Range<u64>,
-1273    pub(crate) fin: bool,
-1274}
-1275
-1276// This manual implementation exists because `Default` is not implemented for `StreamId`
-1277impl Default for StreamMeta {
-1278    fn default() -> Self {
-1279        Self {
-1280            id: StreamId(0),
-1281            offsets: 0..0,
-1282            fin: false,
-1283        }
-1284    }
-1285}
-1286
-1287impl StreamMeta {
-1288    pub(crate) fn encoder(self, encode_length: bool) -> StreamMetaEncoder {
-1289        StreamMetaEncoder {
-1290            meta: self,
-1291            encode_length,
-1292        }
-1293    }
-1294
-1295    const fn get_type(&self, encode_length: bool) -> StreamInfo {
-1296        let mut ty = *StreamInfo::VALUES.start();
-1297        if self.offsets.start != 0 {
-1298            ty |= 0x04;
-1299        }
-1300        if encode_length {
-1301            ty |= 0x02;
-1302        }
-1303        if self.fin {
-1304            ty |= 0x01;
+1232            EcnCodepoint::Ect1 => {
+1233                self.ect1 += 1;
+1234            }
+1235            EcnCodepoint::Ce => {
+1236                self.ce += 1;
+1237            }
+1238        }
+1239    }
+1240}
+1241
+1242impl EcnCounts {
+1243    pub(crate) const ZERO: Self = Self {
+1244        ect0: 0,
+1245        ect1: 0,
+1246        ce: 0,
+1247    };
+1248}
+1249
+1250impl Encodable for EcnCounts {
+1251    fn encode<W: BufMut>(&self, out: &mut W) {
+1252        out.write_var(self.ect0);
+1253        out.write_var(self.ect1);
+1254        out.write_var(self.ce);
+1255    }
+1256}
+1257
+1258#[derive(Debug, Clone)]
+1259#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
+1260pub(crate) struct Stream {
+1261    pub(crate) id: StreamId,
+1262    #[cfg_attr(test, strategy(varint_u64()))]
+1263    pub(crate) offset: u64,
+1264    pub(crate) fin: bool,
+1265    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..100), Bytes::from)))]
+1266    pub(crate) data: Bytes,
+1267}
+1268
+1269impl FrameStruct for Stream {
+1270    const SIZE_BOUND: usize = 1 + 8 + 8 + 8;
+1271}
+1272
+1273/// Metadata from a stream frame
+1274#[derive(Debug, Clone, derive_more::Display)]
+1275#[display("STREAM id: {id} off: {} len: {} fin: {fin}", offsets.start, offsets.end - offsets.start)]
+1276pub(crate) struct StreamMeta {
+1277    pub(crate) id: StreamId,
+1278    pub(crate) offsets: Range<u64>,
+1279    pub(crate) fin: bool,
+1280}
+1281
+1282// This manual implementation exists because `Default` is not implemented for `StreamId`
+1283impl Default for StreamMeta {
+1284    fn default() -> Self {
+1285        Self {
+1286            id: StreamId(0),
+1287            offsets: 0..0,
+1288            fin: false,
+1289        }
+1290    }
+1291}
+1292
+1293impl StreamMeta {
+1294    pub(crate) fn encoder(self, encode_length: bool) -> StreamMetaEncoder {
+1295        StreamMetaEncoder {
+1296            meta: self,
+1297            encode_length,
+1298        }
+1299    }
+1300
+1301    const fn get_type(&self, encode_length: bool) -> StreamInfo {
+1302        let mut ty = *StreamInfo::VALUES.start();
+1303        if self.offsets.start != 0 {
+1304            ty |= 0x04;
 1305        }
-1306        StreamInfo(ty as u8)
-1307    }
-1308}
-1309
-1310#[derive(derive_more::Display)]
-1311#[display("{meta}")]
-1312pub(crate) struct StreamMetaEncoder {
-1313    pub(crate) meta: StreamMeta,
-1314    encode_length: bool,
-1315}
-1316
-1317impl StreamMetaEncoder {
-1318    const fn get_type(&self) -> FrameType {
-1319        FrameType::Stream(self.meta.get_type(self.encode_length))
-1320    }
+1306        if encode_length {
+1307            ty |= 0x02;
+1308        }
+1309        if self.fin {
+1310            ty |= 0x01;
+1311        }
+1312        StreamInfo(ty as u8)
+1313    }
+1314}
+1315
+1316#[derive(derive_more::Display)]
+1317#[display("{meta}")]
+1318pub(crate) struct StreamMetaEncoder {
+1319    pub(crate) meta: StreamMeta,
+1320    encode_length: bool,
 1321}
 1322
-1323impl Encodable for StreamMetaEncoder {
-1324    fn encode<W: BufMut>(&self, out: &mut W) {
-1325        let Self {
-1326            meta,
-1327            encode_length,
-1328        } = self;
-1329        out.write_var(meta.get_type(*encode_length).0 as u64); // 1 byte
-1330        out.write(meta.id); // <=8 bytes
-1331        if meta.offsets.start != 0 {
-1332            out.write_var(meta.offsets.start); // <=8 bytes
-1333        }
-1334        if *encode_length {
-1335            out.write_var(meta.offsets.end - meta.offsets.start); // <=8 bytes
-1336        }
-1337    }
-1338}
-1339
-1340/// A vector of [`StreamMeta`] with optimization for the single element case
-1341pub(crate) type StreamMetaVec = TinyVec<[StreamMeta; 1]>;
-1342
-1343#[derive(Debug, Clone, derive_more::Display)]
-1344#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
-1345#[display("CRYPTO off: {offset} len = {}", data.len())]
-1346pub(crate) struct Crypto {
-1347    #[cfg_attr(test, strategy(varint_u64()))]
-1348    pub(crate) offset: u64,
-1349    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..1024), Bytes::from)))]
-1350    pub(crate) data: Bytes,
-1351}
-1352
-1353impl Crypto {
-1354    pub(crate) const SIZE_BOUND: usize = 17;
-1355
-1356    const fn get_type(&self) -> FrameType {
-1357        FrameType::Crypto
-1358    }
-1359}
-1360
-1361impl Encodable for Crypto {
-1362    fn encode<W: BufMut>(&self, out: &mut W) {
-1363        out.write(FrameType::Crypto);
-1364        out.write_var(self.offset);
-1365        out.write_var(self.data.len() as u64);
-1366        out.put_slice(&self.data);
-1367    }
-1368}
-1369
-1370#[derive(Debug, Clone, derive_more::Display)]
-1371#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
-1372#[display("NEW_TOKEN")]
-1373pub(crate) struct NewToken {
-1374    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..1024), Bytes::from)))]
-1375    pub(crate) token: Bytes,
-1376}
-1377
-1378impl Encodable for NewToken {
-1379    fn encode<W: BufMut>(&self, out: &mut W) {
-1380        out.write(FrameType::NewToken);
-1381        out.write_var(self.token.len() as u64);
-1382        out.put_slice(&self.token);
-1383    }
-1384}
-1385
-1386impl NewToken {
-1387    pub(crate) fn size(&self) -> usize {
-1388        1 + VarInt::from_u64(self.token.len() as u64).unwrap().size() + self.token.len()
+1323impl StreamMetaEncoder {
+1324    const fn get_type(&self) -> FrameType {
+1325        FrameType::Stream(self.meta.get_type(self.encode_length))
+1326    }
+1327}
+1328
+1329impl Encodable for StreamMetaEncoder {
+1330    fn encode<W: BufMut>(&self, out: &mut W) {
+1331        let Self {
+1332            meta,
+1333            encode_length,
+1334        } = self;
+1335        out.write_var(meta.get_type(*encode_length).0 as u64); // 1 byte
+1336        out.write(meta.id); // <=8 bytes
+1337        if meta.offsets.start != 0 {
+1338            out.write_var(meta.offsets.start); // <=8 bytes
+1339        }
+1340        if *encode_length {
+1341            out.write_var(meta.offsets.end - meta.offsets.start); // <=8 bytes
+1342        }
+1343    }
+1344}
+1345
+1346/// A vector of [`StreamMeta`] with optimization for the single element case
+1347pub(crate) type StreamMetaVec = TinyVec<[StreamMeta; 1]>;
+1348
+1349#[derive(Debug, Clone, derive_more::Display)]
+1350#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
+1351#[display("CRYPTO off: {offset} len = {}", data.len())]
+1352pub(crate) struct Crypto {
+1353    #[cfg_attr(test, strategy(varint_u64()))]
+1354    pub(crate) offset: u64,
+1355    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..1024), Bytes::from)))]
+1356    pub(crate) data: Bytes,
+1357}
+1358
+1359impl Crypto {
+1360    pub(crate) const SIZE_BOUND: usize = 17;
+1361
+1362    const fn get_type(&self) -> FrameType {
+1363        FrameType::Crypto
+1364    }
+1365}
+1366
+1367impl Encodable for Crypto {
+1368    fn encode<W: BufMut>(&self, out: &mut W) {
+1369        out.write(FrameType::Crypto);
+1370        out.write_var(self.offset);
+1371        out.write_var(self.data.len() as u64);
+1372        out.put_slice(&self.data);
+1373    }
+1374}
+1375
+1376#[derive(Debug, Clone, derive_more::Display)]
+1377#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
+1378#[display("NEW_TOKEN")]
+1379pub(crate) struct NewToken {
+1380    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..1024), Bytes::from)))]
+1381    pub(crate) token: Bytes,
+1382}
+1383
+1384impl Encodable for NewToken {
+1385    fn encode<W: BufMut>(&self, out: &mut W) {
+1386        out.write(FrameType::NewToken);
+1387        out.write_var(self.token.len() as u64);
+1388        out.put_slice(&self.token);
 1389    }
-1390
-1391    const fn get_type(&self) -> FrameType {
-1392        FrameType::NewToken
-1393    }
-1394}
-1395
-1396#[derive(Debug, Clone, derive_more::Display)]
-1397#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
-1398#[display("MAX_PATH_ID path_id: {_0}")]
-1399pub(crate) struct MaxPathId(pub(crate) PathId);
-1400
-1401impl MaxPathId {
-1402    pub(crate) const SIZE_BOUND: usize =
-1403        FrameType::MaxPathId.size() + VarInt(u32::MAX as u64).size();
-1404
-1405    const fn get_type(&self) -> FrameType {
-1406        FrameType::MaxPathId
-1407    }
-1408}
-1409
-1410impl Decodable for MaxPathId {
-1411    fn decode<B: Buf>(buf: &mut B) -> coding::Result<Self> {
-1412        Ok(Self(buf.get()?))
+1390}
+1391
+1392impl NewToken {
+1393    pub(crate) fn size(&self) -> usize {
+1394        1 + VarInt::from_u64(self.token.len() as u64).unwrap().size() + self.token.len()
+1395    }
+1396
+1397    const fn get_type(&self) -> FrameType {
+1398        FrameType::NewToken
+1399    }
+1400}
+1401
+1402#[derive(Debug, Clone, derive_more::Display)]
+1403#[cfg_attr(test, derive(Arbitrary, PartialEq, Eq))]
+1404#[display("MAX_PATH_ID path_id: {_0}")]
+1405pub(crate) struct MaxPathId(pub(crate) PathId);
+1406
+1407impl MaxPathId {
+1408    pub(crate) const SIZE_BOUND: usize =
+1409        FrameType::MaxPathId.size() + VarInt(u32::MAX as u64).size();
+1410
+1411    const fn get_type(&self) -> FrameType {
+1412        FrameType::MaxPathId
 1413    }
 1414}
 1415
-1416impl Encodable for MaxPathId {
-1417    fn encode<B: BufMut>(&self, buf: &mut B) {
-1418        buf.write(FrameType::MaxPathId);
-1419        buf.write(self.0);
-1420    }
-1421}
-1422
-1423#[derive(Debug, Clone, PartialEq, Eq, derive_more::Display)]
-1424#[cfg_attr(test, derive(Arbitrary))]
-1425#[display("PATHS_BLOCKED remote_max_path_id: {_0}")]
-1426pub(crate) struct PathsBlocked(pub(crate) PathId);
-1427
-1428impl PathsBlocked {
-1429    pub(crate) const SIZE_BOUND: usize =
-1430        FrameType::PathsBlocked.size() + VarInt(u32::MAX as u64).size();
-1431
-1432    const fn get_type(&self) -> FrameType {
-1433        FrameType::PathsBlocked
-1434    }
-1435}
-1436
-1437impl Encodable for PathsBlocked {
-1438    fn encode<B: BufMut>(&self, buf: &mut B) {
-1439        buf.write(FrameType::PathsBlocked);
-1440        buf.write(self.0);
-1441    }
-1442}
-1443
-1444impl Decodable for PathsBlocked {
-1445    /// Decode [`Self`] from the buffer, provided that the frame type has been verified
-1446    fn decode<B: Buf>(buf: &mut B) -> coding::Result<Self> {
-1447        Ok(Self(buf.get()?))
-1448    }
-1449}
-1450
-1451#[derive(Debug, Clone, PartialEq, Eq, derive_more::Display)]
-1452#[cfg_attr(test, derive(Arbitrary))]
-1453#[display("PATH_CIDS_BLOCKED path_id: {path_id} next_seq: {next_seq}")]
-1454pub(crate) struct PathCidsBlocked {
-1455    pub(crate) path_id: PathId,
-1456    pub(crate) next_seq: VarInt,
-1457}
-1458
-1459impl PathCidsBlocked {
-1460    pub(crate) const SIZE_BOUND: usize =
-1461        FrameType::PathCidsBlocked.size() + VarInt(u32::MAX as u64).size() + VarInt::MAX.size();
-1462
-1463    const fn get_type(&self) -> FrameType {
-1464        FrameType::PathCidsBlocked
-1465    }
-1466}
-1467
-1468impl Decodable for PathCidsBlocked {
-1469    fn decode<R: Buf>(buf: &mut R) -> coding::Result<Self> {
-1470        Ok(Self {
-1471            path_id: buf.get()?,
-1472            next_seq: buf.get()?,
-1473        })
-1474    }
-1475}
-1476
-1477impl Encodable for PathCidsBlocked {
-1478    fn encode<W: BufMut>(&self, buf: &mut W) {
-1479        buf.write(FrameType::PathCidsBlocked);
-1480        buf.write(self.path_id);
-1481        buf.write(self.next_seq);
-1482    }
-1483}
-1484
-1485pub(crate) struct Iter {
-1486    bytes: Bytes,
-1487    last_ty: MaybeFrame,
-1488}
-1489
-1490impl Iter {
-1491    pub(crate) fn new(payload: Bytes) -> Result<Self, TransportError> {
-1492        if payload.is_empty() {
-1493            // "An endpoint MUST treat receipt of a packet containing no frames as a
-1494            // connection error of type PROTOCOL_VIOLATION."
-1495            // https://www.rfc-editor.org/rfc/rfc9000.html#name-frames-and-frame-types
-1496            return Err(TransportError::PROTOCOL_VIOLATION(
-1497                "packet payload is empty",
-1498            ));
-1499        }
-1500
-1501        Ok(Self {
-1502            bytes: payload,
-1503            last_ty: MaybeFrame::None,
-1504        })
-1505    }
+1416impl Decodable for MaxPathId {
+1417    fn decode<B: Buf>(buf: &mut B) -> coding::Result<Self> {
+1418        Ok(Self(buf.get()?))
+1419    }
+1420}
+1421
+1422impl Encodable for MaxPathId {
+1423    fn encode<B: BufMut>(&self, buf: &mut B) {
+1424        buf.write(FrameType::MaxPathId);
+1425        buf.write(self.0);
+1426    }
+1427}
+1428
+1429#[derive(Debug, Clone, PartialEq, Eq, derive_more::Display)]
+1430#[cfg_attr(test, derive(Arbitrary))]
+1431#[display("PATHS_BLOCKED remote_max_path_id: {_0}")]
+1432pub(crate) struct PathsBlocked(pub(crate) PathId);
+1433
+1434impl PathsBlocked {
+1435    pub(crate) const SIZE_BOUND: usize =
+1436        FrameType::PathsBlocked.size() + VarInt(u32::MAX as u64).size();
+1437
+1438    const fn get_type(&self) -> FrameType {
+1439        FrameType::PathsBlocked
+1440    }
+1441}
+1442
+1443impl Encodable for PathsBlocked {
+1444    fn encode<B: BufMut>(&self, buf: &mut B) {
+1445        buf.write(FrameType::PathsBlocked);
+1446        buf.write(self.0);
+1447    }
+1448}
+1449
+1450impl Decodable for PathsBlocked {
+1451    /// Decode [`Self`] from the buffer, provided that the frame type has been verified
+1452    fn decode<B: Buf>(buf: &mut B) -> coding::Result<Self> {
+1453        Ok(Self(buf.get()?))
+1454    }
+1455}
+1456
+1457#[derive(Debug, Clone, PartialEq, Eq, derive_more::Display)]
+1458#[cfg_attr(test, derive(Arbitrary))]
+1459#[display("PATH_CIDS_BLOCKED path_id: {path_id} next_seq: {next_seq}")]
+1460pub(crate) struct PathCidsBlocked {
+1461    pub(crate) path_id: PathId,
+1462    pub(crate) next_seq: VarInt,
+1463}
+1464
+1465impl PathCidsBlocked {
+1466    pub(crate) const SIZE_BOUND: usize =
+1467        FrameType::PathCidsBlocked.size() + VarInt(u32::MAX as u64).size() + VarInt::MAX.size();
+1468
+1469    const fn get_type(&self) -> FrameType {
+1470        FrameType::PathCidsBlocked
+1471    }
+1472}
+1473
+1474impl Decodable for PathCidsBlocked {
+1475    fn decode<R: Buf>(buf: &mut R) -> coding::Result<Self> {
+1476        Ok(Self {
+1477            path_id: buf.get()?,
+1478            next_seq: buf.get()?,
+1479        })
+1480    }
+1481}
+1482
+1483impl Encodable for PathCidsBlocked {
+1484    fn encode<W: BufMut>(&self, buf: &mut W) {
+1485        buf.write(FrameType::PathCidsBlocked);
+1486        buf.write(self.path_id);
+1487        buf.write(self.next_seq);
+1488    }
+1489}
+1490
+1491pub(crate) struct Iter {
+1492    bytes: Bytes,
+1493    last_ty: MaybeFrame,
+1494}
+1495
+1496impl Iter {
+1497    pub(crate) fn new(payload: Bytes) -> Result<Self, TransportError> {
+1498        if payload.is_empty() {
+1499            // "An endpoint MUST treat receipt of a packet containing no frames as a
+1500            // connection error of type PROTOCOL_VIOLATION."
+1501            // https://www.rfc-editor.org/rfc/rfc9000.html#name-frames-and-frame-types
+1502            return Err(TransportError::PROTOCOL_VIOLATION(
+1503                "packet payload is empty",
+1504            ));
+1505        }
 1506
-1507    fn take_len(&mut self) -> Result<Bytes, UnexpectedEnd> {
-1508        let len = self.bytes.get_var()?;
-1509        if len > self.bytes.remaining() as u64 {
-1510            return Err(UnexpectedEnd);
-1511        }
-1512        Ok(self.bytes.split_to(len as usize))
-1513    }
-1514
-1515    #[track_caller]
-1516    fn try_next(&mut self) -> Result<Frame, IterErr> {
-1517        self.last_ty = self.bytes.get()?;
-1518
-1519        let ty = match self.last_ty {
-1520            MaybeFrame::None => FrameType::Padding,
-1521            MaybeFrame::Unknown(_other) => return Err(IterErr::InvalidFrameId),
-1522            MaybeFrame::Known(frame_type) => frame_type,
-1523        };
-1524        Ok(match ty {
-1525            FrameType::Padding => Frame::Padding,
-1526            FrameType::ResetStream => Frame::ResetStream(ResetStream {
-1527                id: self.bytes.get()?,
-1528                error_code: self.bytes.get()?,
-1529                final_offset: self.bytes.get()?,
-1530            }),
-1531            FrameType::ConnectionClose => Frame::Close(Close::Connection(ConnectionClose {
-1532                error_code: self.bytes.get()?,
-1533                frame_type: self.bytes.get()?,
-1534                reason: self.take_len()?,
-1535            })),
-1536            FrameType::ApplicationClose => Frame::Close(Close::Application(ApplicationClose {
-1537                error_code: self.bytes.get()?,
-1538                reason: self.take_len()?,
-1539            })),
-1540            FrameType::MaxData => Frame::MaxData(self.bytes.get()?),
-1541            FrameType::MaxStreamData => Frame::MaxStreamData(self.bytes.get()?),
-1542            FrameType::MaxStreamsBidi => Frame::MaxStreams(MaxStreams {
-1543                dir: Dir::Bi,
-1544                count: self.bytes.get_var()?,
-1545            }),
-1546            FrameType::MaxStreamsUni => Frame::MaxStreams(MaxStreams {
-1547                dir: Dir::Uni,
-1548                count: self.bytes.get_var()?,
-1549            }),
-1550            FrameType::Ping => Frame::Ping,
-1551            FrameType::DataBlocked => Frame::DataBlocked(DataBlocked(self.bytes.get_var()?)),
-1552            FrameType::StreamDataBlocked => Frame::StreamDataBlocked(StreamDataBlocked {
-1553                id: self.bytes.get()?,
-1554                offset: self.bytes.get_var()?,
+1507        Ok(Self {
+1508            bytes: payload,
+1509            last_ty: MaybeFrame::None,
+1510        })
+1511    }
+1512
+1513    fn take_len(&mut self) -> Result<Bytes, UnexpectedEnd> {
+1514        let len = self.bytes.get_var()?;
+1515        if len > self.bytes.remaining() as u64 {
+1516            return Err(UnexpectedEnd);
+1517        }
+1518        Ok(self.bytes.split_to(len as usize))
+1519    }
+1520
+1521    #[track_caller]
+1522    fn try_next(&mut self) -> Result<Frame, IterErr> {
+1523        self.last_ty = self.bytes.get()?;
+1524
+1525        let ty = match self.last_ty {
+1526            MaybeFrame::None => FrameType::Padding,
+1527            MaybeFrame::Unknown(_other) => return Err(IterErr::InvalidFrameId),
+1528            MaybeFrame::Known(frame_type) => frame_type,
+1529        };
+1530        Ok(match ty {
+1531            FrameType::Padding => Frame::Padding,
+1532            FrameType::ResetStream => Frame::ResetStream(ResetStream {
+1533                id: self.bytes.get()?,
+1534                error_code: self.bytes.get()?,
+1535                final_offset: self.bytes.get()?,
+1536            }),
+1537            FrameType::ConnectionClose => Frame::Close(Close::Connection(ConnectionClose {
+1538                error_code: self.bytes.get()?,
+1539                frame_type: self.bytes.get()?,
+1540                reason: self.take_len()?,
+1541            })),
+1542            FrameType::ApplicationClose => Frame::Close(Close::Application(ApplicationClose {
+1543                error_code: self.bytes.get()?,
+1544                reason: self.take_len()?,
+1545            })),
+1546            FrameType::MaxData => Frame::MaxData(self.bytes.get()?),
+1547            FrameType::MaxStreamData => Frame::MaxStreamData(self.bytes.get()?),
+1548            FrameType::MaxStreamsBidi => Frame::MaxStreams(MaxStreams {
+1549                dir: Dir::Bi,
+1550                count: self.bytes.get_var()?,
+1551            }),
+1552            FrameType::MaxStreamsUni => Frame::MaxStreams(MaxStreams {
+1553                dir: Dir::Uni,
+1554                count: self.bytes.get_var()?,
 1555            }),
-1556            FrameType::StreamsBlockedBidi => Frame::StreamsBlocked(StreamsBlocked {
-1557                dir: Dir::Bi,
-1558                limit: self.bytes.get_var()?,
-1559            }),
-1560            FrameType::StreamsBlockedUni => Frame::StreamsBlocked(StreamsBlocked {
-1561                dir: Dir::Uni,
-1562                limit: self.bytes.get_var()?,
-1563            }),
-1564            FrameType::StopSending => Frame::StopSending(StopSending {
-1565                id: self.bytes.get()?,
-1566                error_code: self.bytes.get()?,
-1567            }),
-1568            FrameType::RetireConnectionId | FrameType::PathRetireConnectionId => {
-1569                Frame::RetireConnectionId(RetireConnectionId::decode(
-1570                    &mut self.bytes,
-1571                    ty == FrameType::PathRetireConnectionId,
-1572                )?)
-1573            }
-1574            FrameType::Ack => {
-1575                let largest = self.bytes.get_var()?;
-1576                let delay = self.bytes.get_var()?;
-1577                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
-1578                Frame::Ack(Ack {
-1579                    delay,
-1580                    largest,
-1581                    ranges,
-1582                    ecn: None,
-1583                })
-1584            }
-1585            FrameType::AckEcn => {
-1586                let largest = self.bytes.get_var()?;
-1587                let delay = self.bytes.get_var()?;
-1588                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
-1589                let ecn = Some(EcnCounts {
-1590                    ect0: self.bytes.get_var()?,
-1591                    ect1: self.bytes.get_var()?,
-1592                    ce: self.bytes.get_var()?,
-1593                });
-1594
-1595                Frame::Ack(Ack {
-1596                    delay,
-1597                    largest,
-1598                    ranges,
-1599                    ecn,
-1600                })
-1601            }
-1602            FrameType::PathAck => {
-1603                let path_id = self.bytes.get()?;
-1604                let largest = self.bytes.get_var()?;
-1605                let delay = self.bytes.get_var()?;
-1606                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
-1607                Frame::PathAck(PathAck {
-1608                    path_id,
-1609                    delay,
-1610                    largest,
-1611                    ranges,
-1612                    ecn: None,
-1613                })
-1614            }
-1615            FrameType::PathAckEcn => {
-1616                let path_id = self.bytes.get()?;
-1617                let largest = self.bytes.get_var()?;
-1618                let delay = self.bytes.get_var()?;
-1619                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
-1620                let ecn = Some(EcnCounts {
-1621                    ect0: self.bytes.get_var()?,
-1622                    ect1: self.bytes.get_var()?,
-1623                    ce: self.bytes.get_var()?,
-1624                });
-1625                Frame::PathAck(PathAck {
-1626                    path_id,
-1627                    delay,
-1628                    largest,
-1629                    ranges,
-1630                    ecn,
-1631                })
-1632            }
-1633            FrameType::PathChallenge => Frame::PathChallenge(self.bytes.get()?),
-1634            FrameType::PathResponse => Frame::PathResponse(self.bytes.get()?),
-1635            FrameType::NewConnectionId | FrameType::PathNewConnectionId => {
-1636                let read_path = ty == FrameType::PathNewConnectionId;
-1637                Frame::NewConnectionId(NewConnectionId::read(&mut self.bytes, read_path)?)
+1556            FrameType::Ping => Frame::Ping,
+1557            FrameType::DataBlocked => Frame::DataBlocked(DataBlocked(self.bytes.get_var()?)),
+1558            FrameType::StreamDataBlocked => Frame::StreamDataBlocked(StreamDataBlocked {
+1559                id: self.bytes.get()?,
+1560                offset: self.bytes.get_var()?,
+1561            }),
+1562            FrameType::StreamsBlockedBidi => Frame::StreamsBlocked(StreamsBlocked {
+1563                dir: Dir::Bi,
+1564                limit: self.bytes.get_var()?,
+1565            }),
+1566            FrameType::StreamsBlockedUni => Frame::StreamsBlocked(StreamsBlocked {
+1567                dir: Dir::Uni,
+1568                limit: self.bytes.get_var()?,
+1569            }),
+1570            FrameType::StopSending => Frame::StopSending(StopSending {
+1571                id: self.bytes.get()?,
+1572                error_code: self.bytes.get()?,
+1573            }),
+1574            FrameType::RetireConnectionId | FrameType::PathRetireConnectionId => {
+1575                Frame::RetireConnectionId(RetireConnectionId::decode(
+1576                    &mut self.bytes,
+1577                    ty == FrameType::PathRetireConnectionId,
+1578                )?)
+1579            }
+1580            FrameType::Ack => {
+1581                let largest = self.bytes.get_var()?;
+1582                let delay = self.bytes.get_var()?;
+1583                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
+1584                Frame::Ack(Ack {
+1585                    delay,
+1586                    largest,
+1587                    ranges,
+1588                    ecn: None,
+1589                })
+1590            }
+1591            FrameType::AckEcn => {
+1592                let largest = self.bytes.get_var()?;
+1593                let delay = self.bytes.get_var()?;
+1594                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
+1595                let ecn = Some(EcnCounts {
+1596                    ect0: self.bytes.get_var()?,
+1597                    ect1: self.bytes.get_var()?,
+1598                    ce: self.bytes.get_var()?,
+1599                });
+1600
+1601                Frame::Ack(Ack {
+1602                    delay,
+1603                    largest,
+1604                    ranges,
+1605                    ecn,
+1606                })
+1607            }
+1608            FrameType::PathAck => {
+1609                let path_id = self.bytes.get()?;
+1610                let largest = self.bytes.get_var()?;
+1611                let delay = self.bytes.get_var()?;
+1612                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
+1613                Frame::PathAck(PathAck {
+1614                    path_id,
+1615                    delay,
+1616                    largest,
+1617                    ranges,
+1618                    ecn: None,
+1619                })
+1620            }
+1621            FrameType::PathAckEcn => {
+1622                let path_id = self.bytes.get()?;
+1623                let largest = self.bytes.get_var()?;
+1624                let delay = self.bytes.get_var()?;
+1625                let ranges = read_ack_blocks(&mut self.bytes, largest)?;
+1626                let ecn = Some(EcnCounts {
+1627                    ect0: self.bytes.get_var()?,
+1628                    ect1: self.bytes.get_var()?,
+1629                    ce: self.bytes.get_var()?,
+1630                });
+1631                Frame::PathAck(PathAck {
+1632                    path_id,
+1633                    delay,
+1634                    largest,
+1635                    ranges,
+1636                    ecn,
+1637                })
 1638            }
-1639            FrameType::Crypto => Frame::Crypto(Crypto {
-1640                offset: self.bytes.get_var()?,
-1641                data: self.take_len()?,
-1642            }),
-1643            FrameType::NewToken => Frame::NewToken(NewToken {
-1644                token: self.take_len()?,
-1645            }),
-1646            FrameType::HandshakeDone => Frame::HandshakeDone,
-1647            FrameType::AckFrequency => Frame::AckFrequency(AckFrequency {
-1648                sequence: self.bytes.get()?,
-1649                ack_eliciting_threshold: self.bytes.get()?,
-1650                request_max_ack_delay: self.bytes.get()?,
-1651                reordering_threshold: self.bytes.get()?,
-1652            }),
-1653            FrameType::ImmediateAck => Frame::ImmediateAck,
-1654            FrameType::ObservedIpv4Addr | FrameType::ObservedIpv6Addr => {
-1655                let is_ipv6 = ty == FrameType::ObservedIpv6Addr;
-1656                let observed = ObservedAddr::read(&mut self.bytes, is_ipv6)?;
-1657                Frame::ObservedAddr(observed)
-1658            }
-1659            FrameType::PathAbandon => Frame::PathAbandon(PathAbandon::decode(&mut self.bytes)?),
-1660            FrameType::PathStatusAvailable => {
-1661                Frame::PathStatusAvailable(PathStatusAvailable::decode(&mut self.bytes)?)
-1662            }
-1663            FrameType::PathStatusBackup => {
-1664                Frame::PathStatusBackup(PathStatusBackup::decode(&mut self.bytes)?)
-1665            }
-1666            FrameType::MaxPathId => Frame::MaxPathId(MaxPathId::decode(&mut self.bytes)?),
-1667            FrameType::PathsBlocked => Frame::PathsBlocked(PathsBlocked::decode(&mut self.bytes)?),
-1668            FrameType::PathCidsBlocked => {
-1669                Frame::PathCidsBlocked(PathCidsBlocked::decode(&mut self.bytes)?)
-1670            }
-1671            FrameType::AddIpv4Address | FrameType::AddIpv6Address => {
-1672                let is_ipv6 = ty == FrameType::AddIpv6Address;
-1673                let add_address = AddAddress::read(&mut self.bytes, is_ipv6)?;
-1674                Frame::AddAddress(add_address)
-1675            }
-1676            FrameType::ReachOutAtIpv4 | FrameType::ReachOutAtIpv6 => {
-1677                let is_ipv6 = ty == FrameType::ReachOutAtIpv6;
-1678                let reach_out = ReachOut::read(&mut self.bytes, is_ipv6)?;
-1679                Frame::ReachOut(reach_out)
-1680            }
-1681            FrameType::RemoveAddress => Frame::RemoveAddress(RemoveAddress::read(&mut self.bytes)?),
-1682            FrameType::Stream(s) => Frame::Stream(Stream {
-1683                id: self.bytes.get()?,
-1684                offset: if s.off() { self.bytes.get_var()? } else { 0 },
-1685                fin: s.fin(),
-1686                data: if s.len() {
-1687                    self.take_len()?
-1688                } else {
-1689                    self.take_remaining()
-1690                },
-1691            }),
-1692            FrameType::Datagram(d) => Frame::Datagram(Datagram {
-1693                data: if d.len() {
-1694                    self.take_len()?
-1695                } else {
-1696                    self.take_remaining()
-1697                },
-1698            }),
-1699        })
-1700    }
-1701
-1702    fn take_remaining(&mut self) -> Bytes {
-1703        mem::take(&mut self.bytes)
-1704    }
-1705}
-1706
-1707impl Iterator for Iter {
-1708    type Item = Result<Frame, InvalidFrame>;
-1709    fn next(&mut self) -> Option<Self::Item> {
-1710        if !self.bytes.has_remaining() {
-1711            return None;
-1712        }
-1713        match self.try_next() {
-1714            Ok(x) => Some(Ok(x)),
-1715            Err(e) => {
-1716                // Corrupt frame, skip it and everything that follows
-1717                self.bytes.clear();
-1718                Some(Err(InvalidFrame {
-1719                    ty: self.last_ty,
-1720                    reason: e.reason(),
-1721                }))
-1722            }
-1723        }
-1724    }
-1725}
-1726
-1727#[derive(Debug)]
-1728pub(crate) struct InvalidFrame {
-1729    pub(crate) ty: MaybeFrame,
-1730    pub(crate) reason: &'static str,
+1639            FrameType::PathChallenge => Frame::PathChallenge(self.bytes.get()?),
+1640            FrameType::PathResponse => Frame::PathResponse(self.bytes.get()?),
+1641            FrameType::NewConnectionId | FrameType::PathNewConnectionId => {
+1642                let read_path = ty == FrameType::PathNewConnectionId;
+1643                Frame::NewConnectionId(NewConnectionId::read(&mut self.bytes, read_path)?)
+1644            }
+1645            FrameType::Crypto => Frame::Crypto(Crypto {
+1646                offset: self.bytes.get_var()?,
+1647                data: self.take_len()?,
+1648            }),
+1649            FrameType::NewToken => Frame::NewToken(NewToken {
+1650                token: self.take_len()?,
+1651            }),
+1652            FrameType::HandshakeDone => Frame::HandshakeDone,
+1653            FrameType::AckFrequency => Frame::AckFrequency(AckFrequency {
+1654                sequence: self.bytes.get()?,
+1655                ack_eliciting_threshold: self.bytes.get()?,
+1656                request_max_ack_delay: self.bytes.get()?,
+1657                reordering_threshold: self.bytes.get()?,
+1658            }),
+1659            FrameType::ImmediateAck => Frame::ImmediateAck,
+1660            FrameType::ObservedIpv4Addr | FrameType::ObservedIpv6Addr => {
+1661                let is_ipv6 = ty == FrameType::ObservedIpv6Addr;
+1662                let observed = ObservedAddr::read(&mut self.bytes, is_ipv6)?;
+1663                Frame::ObservedAddr(observed)
+1664            }
+1665            FrameType::PathAbandon => Frame::PathAbandon(PathAbandon::decode(&mut self.bytes)?),
+1666            FrameType::PathStatusAvailable => {
+1667                Frame::PathStatusAvailable(PathStatusAvailable::decode(&mut self.bytes)?)
+1668            }
+1669            FrameType::PathStatusBackup => {
+1670                Frame::PathStatusBackup(PathStatusBackup::decode(&mut self.bytes)?)
+1671            }
+1672            FrameType::MaxPathId => Frame::MaxPathId(MaxPathId::decode(&mut self.bytes)?),
+1673            FrameType::PathsBlocked => Frame::PathsBlocked(PathsBlocked::decode(&mut self.bytes)?),
+1674            FrameType::PathCidsBlocked => {
+1675                Frame::PathCidsBlocked(PathCidsBlocked::decode(&mut self.bytes)?)
+1676            }
+1677            FrameType::AddIpv4Address | FrameType::AddIpv6Address => {
+1678                let is_ipv6 = ty == FrameType::AddIpv6Address;
+1679                let add_address = AddAddress::read(&mut self.bytes, is_ipv6)?;
+1680                Frame::AddAddress(add_address)
+1681            }
+1682            FrameType::ReachOutAtIpv4 | FrameType::ReachOutAtIpv6 => {
+1683                let is_ipv6 = ty == FrameType::ReachOutAtIpv6;
+1684                let reach_out = ReachOut::read(&mut self.bytes, is_ipv6)?;
+1685                Frame::ReachOut(reach_out)
+1686            }
+1687            FrameType::RemoveAddress => Frame::RemoveAddress(RemoveAddress::read(&mut self.bytes)?),
+1688            FrameType::Stream(s) => Frame::Stream(Stream {
+1689                id: self.bytes.get()?,
+1690                offset: if s.off() { self.bytes.get_var()? } else { 0 },
+1691                fin: s.fin(),
+1692                data: if s.len() {
+1693                    self.take_len()?
+1694                } else {
+1695                    self.take_remaining()
+1696                },
+1697            }),
+1698            FrameType::Datagram(d) => Frame::Datagram(Datagram {
+1699                data: if d.len() {
+1700                    self.take_len()?
+1701                } else {
+1702                    self.take_remaining()
+1703                },
+1704            }),
+1705        })
+1706    }
+1707
+1708    fn take_remaining(&mut self) -> Bytes {
+1709        mem::take(&mut self.bytes)
+1710    }
+1711}
+1712
+1713impl Iterator for Iter {
+1714    type Item = Result<Frame, InvalidFrame>;
+1715    fn next(&mut self) -> Option<Self::Item> {
+1716        if !self.bytes.has_remaining() {
+1717            return None;
+1718        }
+1719        match self.try_next() {
+1720            Ok(x) => Some(Ok(x)),
+1721            Err(e) => {
+1722                // Corrupt frame, skip it and everything that follows
+1723                self.bytes.clear();
+1724                Some(Err(InvalidFrame {
+1725                    ty: self.last_ty,
+1726                    reason: e.reason(),
+1727                }))
+1728            }
+1729        }
+1730    }
 1731}
 1732
-1733impl From<InvalidFrame> for TransportError {
-1734    fn from(err: InvalidFrame) -> Self {
-1735        let mut te = Self::FRAME_ENCODING_ERROR(err.reason);
-1736        te.frame = err.ty;
-1737        te
-1738    }
-1739}
-1740
-1741/// Decodes the ACK Ranges from the given buffer.
-1742///  This means, reading these three values
-1743///
-1744/// - ACK Range Count
-1745/// - First ACK Range
-1746/// - ACK Ranges
-1747///
-1748/// Ref <https://www.rfc-editor.org/rfc/rfc9000.html#name-ack-ranges>
-1749fn read_ack_blocks(buf: &mut Bytes, mut largest: u64) -> Result<ArrayRangeSet, IterErr> {
-1750    // Ack Range Count
-1751    let num_blocks = buf.get_var()?;
-1752
-1753    let mut out = ArrayRangeSet::new();
-1754    let mut block_to_block;
-1755    let mut range;
-1756
-1757    for num_block in 0..num_blocks + 1 {
-1758        range = buf.get_var()?;
-1759        range += 1;
-1760
-1761        let start = (largest + 1).checked_sub(range).ok_or(IterErr::Malformed)?;
+1733#[derive(Debug)]
+1734pub(crate) struct InvalidFrame {
+1735    pub(crate) ty: MaybeFrame,
+1736    pub(crate) reason: &'static str,
+1737}
+1738
+1739impl From<InvalidFrame> for TransportError {
+1740    fn from(err: InvalidFrame) -> Self {
+1741        let mut te = Self::FRAME_ENCODING_ERROR(err.reason);
+1742        te.frame = err.ty;
+1743        te
+1744    }
+1745}
+1746
+1747/// Decodes the ACK Ranges from the given buffer.
+1748///  This means, reading these three values
+1749///
+1750/// - ACK Range Count
+1751/// - First ACK Range
+1752/// - ACK Ranges
+1753///
+1754/// Ref <https://www.rfc-editor.org/rfc/rfc9000.html#name-ack-ranges>
+1755fn read_ack_blocks(buf: &mut Bytes, mut largest: u64) -> Result<ArrayRangeSet, IterErr> {
+1756    // Ack Range Count
+1757    let num_blocks = buf.get_var()?;
+1758
+1759    let mut out = ArrayRangeSet::new();
+1760    let mut block_to_block;
+1761    let mut range;
 1762
-1763        if range > 0 {
-1764            out.insert(start..largest + 1);
-1765        }
+1763    for num_block in 0..num_blocks + 1 {
+1764        range = buf.get_var()?;
+1765        range += 1;
 1766
-1767        // no gap on the last "block"
-1768        if num_block < num_blocks {
-1769            // skip the gap
-1770            block_to_block = buf.get_var()?;
-1771            block_to_block += 1;
-1772            block_to_block += range;
-1773
-1774            largest = largest
-1775                .checked_sub(block_to_block)
-1776                .ok_or(IterErr::Malformed)?;
-1777        }
-1778    }
+1767        let start = (largest + 1).checked_sub(range).ok_or(IterErr::Malformed)?;
+1768
+1769        if range > 0 {
+1770            out.insert(start..largest + 1);
+1771        }
+1772
+1773        // no gap on the last "block"
+1774        if num_block < num_blocks {
+1775            // skip the gap
+1776            block_to_block = buf.get_var()?;
+1777            block_to_block += 1;
+1778            block_to_block += range;
 1779
-1780    Ok(out)
-1781}
-1782
-1783#[derive(Debug)]
-1784enum IterErr {
-1785    UnexpectedEnd,
-1786    InvalidFrameId,
-1787    Malformed,
-1788}
-1789
-1790impl IterErr {
-1791    fn reason(&self) -> &'static str {
-1792        use IterErr::*;
-1793        match *self {
-1794            UnexpectedEnd => "unexpected end",
-1795            InvalidFrameId => "invalid frame ID",
-1796            Malformed => "malformed",
-1797        }
-1798    }
-1799}
-1800
-1801impl From<UnexpectedEnd> for IterErr {
-1802    fn from(_: UnexpectedEnd) -> Self {
-1803        Self::UnexpectedEnd
+1780            largest = largest
+1781                .checked_sub(block_to_block)
+1782                .ok_or(IterErr::Malformed)?;
+1783        }
+1784    }
+1785
+1786    Ok(out)
+1787}
+1788
+1789#[derive(Debug)]
+1790enum IterErr {
+1791    UnexpectedEnd,
+1792    InvalidFrameId,
+1793    Malformed,
+1794}
+1795
+1796impl IterErr {
+1797    fn reason(&self) -> &'static str {
+1798        use IterErr::*;
+1799        match *self {
+1800            UnexpectedEnd => "unexpected end",
+1801            InvalidFrameId => "invalid frame ID",
+1802            Malformed => "malformed",
+1803        }
 1804    }
 1805}
 1806
-1807#[allow(unreachable_pub)] // fuzzing only
-1808#[cfg_attr(feature = "arbitrary", derive(arbitrary::Arbitrary))]
-1809#[cfg_attr(test, derive(Arbitrary))]
-1810#[derive(Debug, Copy, Clone, derive_more::Display)]
-1811#[display("RESET_STREAM id: {id}")]
-1812pub struct ResetStream {
-1813    pub(crate) id: StreamId,
-1814    pub(crate) error_code: VarInt,
-1815    pub(crate) final_offset: VarInt,
-1816}
-1817
-1818impl ResetStream {
-1819    const fn get_type(&self) -> FrameType {
-1820        FrameType::ResetStream
-1821    }
+1807impl From<UnexpectedEnd> for IterErr {
+1808    fn from(_: UnexpectedEnd) -> Self {
+1809        Self::UnexpectedEnd
+1810    }
+1811}
+1812
+1813#[allow(unreachable_pub)] // fuzzing only
+1814#[cfg_attr(feature = "arbitrary", derive(arbitrary::Arbitrary))]
+1815#[cfg_attr(test, derive(Arbitrary))]
+1816#[derive(Debug, Copy, Clone, derive_more::Display)]
+1817#[display("RESET_STREAM id: {id}")]
+1818pub struct ResetStream {
+1819    pub(crate) id: StreamId,
+1820    pub(crate) error_code: VarInt,
+1821    pub(crate) final_offset: VarInt,
 1822}
 1823
-1824impl FrameStruct for ResetStream {
-1825    const SIZE_BOUND: usize = 1 + 8 + 8 + 8;
-1826}
-1827
-1828impl Encodable for ResetStream {
-1829    fn encode<W: BufMut>(&self, out: &mut W) {
-1830        out.write(FrameType::ResetStream); // 1 byte
-1831        out.write(self.id); // <= 8 bytes
-1832        out.write(self.error_code); // <= 8 bytes
-1833        out.write(self.final_offset); // <= 8 bytes
-1834    }
-1835}
-1836
-1837#[cfg_attr(test, derive(Arbitrary))]
-1838#[derive(Debug, Copy, Clone, derive_more::Display)]
-1839#[display("STOP_SENDING id: {id}")]
-1840pub(crate) struct StopSending {
-1841    pub(crate) id: StreamId,
-1842    pub(crate) error_code: VarInt,
-1843}
-1844
-1845impl FrameStruct for StopSending {
-1846    const SIZE_BOUND: usize = 1 + 8 + 8;
-1847}
-1848
-1849impl StopSending {
-1850    const fn get_type(&self) -> FrameType {
-1851        FrameType::StopSending
-1852    }
+1824impl ResetStream {
+1825    const fn get_type(&self) -> FrameType {
+1826        FrameType::ResetStream
+1827    }
+1828}
+1829
+1830impl FrameStruct for ResetStream {
+1831    const SIZE_BOUND: usize = 1 + 8 + 8 + 8;
+1832}
+1833
+1834impl Encodable for ResetStream {
+1835    fn encode<W: BufMut>(&self, out: &mut W) {
+1836        out.write(FrameType::ResetStream); // 1 byte
+1837        out.write(self.id); // <= 8 bytes
+1838        out.write(self.error_code); // <= 8 bytes
+1839        out.write(self.final_offset); // <= 8 bytes
+1840    }
+1841}
+1842
+1843#[cfg_attr(test, derive(Arbitrary))]
+1844#[derive(Debug, Copy, Clone, derive_more::Display)]
+1845#[display("STOP_SENDING id: {id}")]
+1846pub(crate) struct StopSending {
+1847    pub(crate) id: StreamId,
+1848    pub(crate) error_code: VarInt,
+1849}
+1850
+1851impl FrameStruct for StopSending {
+1852    const SIZE_BOUND: usize = 1 + 8 + 8;
 1853}
 1854
-1855impl Encodable for StopSending {
-1856    fn encode<W: BufMut>(&self, out: &mut W) {
-1857        out.write(FrameType::StopSending); // 1 byte
-1858        out.write(self.id); // <= 8 bytes
-1859        out.write(self.error_code) // <= 8 bytes
-1860    }
-1861}
-1862
-1863#[derive(Debug, Copy, Clone, PartialEq, Eq, derive_more::Display)]
-1864#[display("{} {} seq: {sequence} id: {id}", self.get_type(), DisplayOption::new("path_id", path_id.as_ref()))]
-1865pub(crate) struct NewConnectionId {
-1866    pub(crate) path_id: Option<PathId>,
-1867    pub(crate) sequence: u64,
-1868    pub(crate) retire_prior_to: u64,
-1869    pub(crate) id: ConnectionId,
-1870    pub(crate) reset_token: ResetToken,
-1871}
-1872
-1873#[cfg(test)]
-1874fn connection_id_and_reset_token() -> impl Strategy<Value = (crate::ConnectionId, ResetToken)> {
-1875    (any::<ConnectionId>(), any::<[u8; 64]>()).prop_map(|(id, reset_key)| {
-1876        #[cfg(all(feature = "aws-lc-rs", not(feature = "ring")))]
-1877        use aws_lc_rs::hmac;
-1878        #[cfg(feature = "ring")]
-1879        use ring::hmac;
-1880        let key = hmac::Key::new(hmac::HMAC_SHA256, &reset_key);
-1881        (id, ResetToken::new(&key, id))
-1882    })
-1883}
-1884
-1885#[cfg(test)]
-1886impl proptest::arbitrary::Arbitrary for NewConnectionId {
-1887    type Parameters = ();
-1888    type Strategy = proptest::strategy::BoxedStrategy<Self>;
-1889
-1890    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
-1891        use proptest::prelude::*;
-1892        (
-1893            any::<Option<PathId>>(),
-1894            varint_u64(),
-1895            varint_u64(),
-1896            connection_id_and_reset_token(),
-1897        )
-1898            .prop_map(|(path_id, a, b, (id, reset_token))| {
-1899                let sequence = std::cmp::max(a, b);
-1900                let retire_prior_to = std::cmp::min(a, b);
-1901                Self {
-1902                    path_id,
-1903                    sequence,
-1904                    retire_prior_to,
-1905                    id,
-1906                    reset_token,
-1907                }
-1908            })
-1909            .boxed()
-1910    }
-1911}
-1912
-1913impl NewConnectionId {
-1914    /// Maximum size of this frame when the frame type is [`FrameType::NewConnectionId`],
-1915    pub(crate) const SIZE_BOUND: usize = {
-1916        let type_len = FrameType::NewConnectionId.size();
-1917        let seq_max_len = 8usize;
-1918        let retire_prior_to_max_len = 8usize;
-1919        let cid_len_len = 1;
-1920        let cid_len = 160;
-1921        let reset_token_len = 16;
-1922        type_len + seq_max_len + retire_prior_to_max_len + cid_len_len + cid_len + reset_token_len
-1923    };
-1924
-1925    /// Maximum size of this frame when the frame type is [`FrameType::PathNewConnectionId`],
-1926    pub(crate) const SIZE_BOUND_MULTIPATH: usize = {
-1927        let type_len = FrameType::PathNewConnectionId.size();
-1928        let path_id_len = VarInt::from_u32(u32::MAX).size();
-1929        let seq_max_len = 8usize;
-1930        let retire_prior_to_max_len = 8usize;
-1931        let cid_len_len = 1;
-1932        let cid_len = 160;
-1933        let reset_token_len = 16;
-1934        type_len
-1935            + path_id_len
-1936            + seq_max_len
-1937            + retire_prior_to_max_len
-1938            + cid_len_len
-1939            + cid_len
-1940            + reset_token_len
-1941    };
-1942
-1943    const fn get_type(&self) -> FrameType {
-1944        if self.path_id.is_some() {
-1945            FrameType::PathNewConnectionId
-1946        } else {
-1947            FrameType::NewConnectionId
-1948        }
-1949    }
-1950
-1951    /// Returns the maximum encoded size on the wire.
-1952    ///
-1953    /// This is a rough upper estimate, does not squeeze every last byte out.
-1954    pub(crate) const fn size_bound(path_new_cid: bool, cid_len: usize) -> usize {
-1955        let upper_bound = match path_new_cid {
-1956            true => Self::SIZE_BOUND_MULTIPATH,
-1957            false => Self::SIZE_BOUND,
-1958        };
-1959        // instead of using the maximum cid len, use the provided one
-1960        upper_bound - 160 + cid_len
-1961    }
-1962
-1963    fn read<R: Buf>(bytes: &mut R, read_path: bool) -> Result<Self, IterErr> {
-1964        let path_id = if read_path { Some(bytes.get()?) } else { None };
-1965        let sequence = bytes.get_var()?;
-1966        let retire_prior_to = bytes.get_var()?;
-1967        if retire_prior_to > sequence {
-1968            return Err(IterErr::Malformed);
-1969        }
-1970        let length = bytes.get::<u8>()? as usize;
-1971        if length > MAX_CID_SIZE || length == 0 {
-1972            return Err(IterErr::Malformed);
-1973        }
-1974        if length > bytes.remaining() {
-1975            return Err(IterErr::UnexpectedEnd);
-1976        }
-1977        let mut stage = [0; MAX_CID_SIZE];
-1978        bytes.copy_to_slice(&mut stage[0..length]);
-1979        let id = ConnectionId::new(&stage[..length]);
-1980        if bytes.remaining() < 16 {
+1855impl StopSending {
+1856    const fn get_type(&self) -> FrameType {
+1857        FrameType::StopSending
+1858    }
+1859}
+1860
+1861impl Encodable for StopSending {
+1862    fn encode<W: BufMut>(&self, out: &mut W) {
+1863        out.write(FrameType::StopSending); // 1 byte
+1864        out.write(self.id); // <= 8 bytes
+1865        out.write(self.error_code) // <= 8 bytes
+1866    }
+1867}
+1868
+1869#[derive(Debug, Copy, Clone, PartialEq, Eq, derive_more::Display)]
+1870#[display("{} {} seq: {sequence} id: {id}", self.get_type(), DisplayOption::new("path_id", path_id.as_ref()))]
+1871pub(crate) struct NewConnectionId {
+1872    pub(crate) path_id: Option<PathId>,
+1873    pub(crate) sequence: u64,
+1874    pub(crate) retire_prior_to: u64,
+1875    pub(crate) id: ConnectionId,
+1876    pub(crate) reset_token: ResetToken,
+1877}
+1878
+1879#[cfg(test)]
+1880fn connection_id_and_reset_token() -> impl Strategy<Value = (crate::ConnectionId, ResetToken)> {
+1881    (any::<ConnectionId>(), any::<[u8; 64]>()).prop_map(|(id, reset_key)| {
+1882        #[cfg(all(feature = "aws-lc-rs", not(feature = "ring")))]
+1883        use aws_lc_rs::hmac;
+1884        #[cfg(feature = "ring")]
+1885        use ring::hmac;
+1886        let key = hmac::Key::new(hmac::HMAC_SHA256, &reset_key);
+1887        (id, ResetToken::new(&key, id))
+1888    })
+1889}
+1890
+1891#[cfg(test)]
+1892impl proptest::arbitrary::Arbitrary for NewConnectionId {
+1893    type Parameters = ();
+1894    type Strategy = proptest::strategy::BoxedStrategy<Self>;
+1895
+1896    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
+1897        use proptest::prelude::*;
+1898        (
+1899            any::<Option<PathId>>(),
+1900            varint_u64(),
+1901            varint_u64(),
+1902            connection_id_and_reset_token(),
+1903        )
+1904            .prop_map(|(path_id, a, b, (id, reset_token))| {
+1905                let sequence = std::cmp::max(a, b);
+1906                let retire_prior_to = std::cmp::min(a, b);
+1907                Self {
+1908                    path_id,
+1909                    sequence,
+1910                    retire_prior_to,
+1911                    id,
+1912                    reset_token,
+1913                }
+1914            })
+1915            .boxed()
+1916    }
+1917}
+1918
+1919impl NewConnectionId {
+1920    /// Maximum size of this frame when the frame type is [`FrameType::NewConnectionId`],
+1921    pub(crate) const SIZE_BOUND: usize = {
+1922        let type_len = FrameType::NewConnectionId.size();
+1923        let seq_max_len = 8usize;
+1924        let retire_prior_to_max_len = 8usize;
+1925        let cid_len_len = 1;
+1926        let cid_len = 160;
+1927        let reset_token_len = 16;
+1928        type_len + seq_max_len + retire_prior_to_max_len + cid_len_len + cid_len + reset_token_len
+1929    };
+1930
+1931    /// Maximum size of this frame when the frame type is [`FrameType::PathNewConnectionId`],
+1932    pub(crate) const SIZE_BOUND_MULTIPATH: usize = {
+1933        let type_len = FrameType::PathNewConnectionId.size();
+1934        let path_id_len = VarInt::from_u32(u32::MAX).size();
+1935        let seq_max_len = 8usize;
+1936        let retire_prior_to_max_len = 8usize;
+1937        let cid_len_len = 1;
+1938        let cid_len = 160;
+1939        let reset_token_len = 16;
+1940        type_len
+1941            + path_id_len
+1942            + seq_max_len
+1943            + retire_prior_to_max_len
+1944            + cid_len_len
+1945            + cid_len
+1946            + reset_token_len
+1947    };
+1948
+1949    const fn get_type(&self) -> FrameType {
+1950        if self.path_id.is_some() {
+1951            FrameType::PathNewConnectionId
+1952        } else {
+1953            FrameType::NewConnectionId
+1954        }
+1955    }
+1956
+1957    /// Returns the maximum encoded size on the wire.
+1958    ///
+1959    /// This is a rough upper estimate, does not squeeze every last byte out.
+1960    pub(crate) const fn size_bound(path_new_cid: bool, cid_len: usize) -> usize {
+1961        let upper_bound = match path_new_cid {
+1962            true => Self::SIZE_BOUND_MULTIPATH,
+1963            false => Self::SIZE_BOUND,
+1964        };
+1965        // instead of using the maximum cid len, use the provided one
+1966        upper_bound - 160 + cid_len
+1967    }
+1968
+1969    fn read<R: Buf>(bytes: &mut R, read_path: bool) -> Result<Self, IterErr> {
+1970        let path_id = if read_path { Some(bytes.get()?) } else { None };
+1971        let sequence = bytes.get_var()?;
+1972        let retire_prior_to = bytes.get_var()?;
+1973        if retire_prior_to > sequence {
+1974            return Err(IterErr::Malformed);
+1975        }
+1976        let length = bytes.get::<u8>()? as usize;
+1977        if length > MAX_CID_SIZE || length == 0 {
+1978            return Err(IterErr::Malformed);
+1979        }
+1980        if length > bytes.remaining() {
 1981            return Err(IterErr::UnexpectedEnd);
 1982        }
-1983        let mut reset_token = [0; RESET_TOKEN_SIZE];
-1984        bytes.copy_to_slice(&mut reset_token);
-1985        Ok(Self {
-1986            path_id,
-1987            sequence,
-1988            retire_prior_to,
-1989            id,
-1990            reset_token: reset_token.into(),
-1991        })
-1992    }
-1993
-1994    pub(crate) fn issued(&self) -> crate::shared::IssuedCid {
-1995        crate::shared::IssuedCid {
-1996            path_id: self.path_id.unwrap_or_default(),
-1997            sequence: self.sequence,
-1998            id: self.id,
-1999            reset_token: self.reset_token,
-2000        }
-2001    }
-2002}
-2003
-2004impl Encodable for NewConnectionId {
-2005    fn encode<W: BufMut>(&self, out: &mut W) {
-2006        out.write(self.get_type());
-2007        if let Some(id) = self.path_id {
-2008            out.write(id);
-2009        }
-2010        out.write_var(self.sequence);
-2011        out.write_var(self.retire_prior_to);
-2012        out.write(self.id.len() as u8);
-2013        out.put_slice(&self.id);
-2014        out.put_slice(&self.reset_token);
-2015    }
-2016}
-2017
-2018impl FrameStruct for NewConnectionId {
-2019    const SIZE_BOUND: usize = 1 + 8 + 8 + 1 + MAX_CID_SIZE + RESET_TOKEN_SIZE;
-2020}
-2021
-2022/// An unreliable datagram
-2023#[derive(Debug, Clone, derive_more::Display)]
-2024#[cfg_attr(test, derive(Arbitrary))]
-2025#[display("DATAGRAM len: {}", data.len())]
-2026pub struct Datagram {
-2027    /// Payload
-2028    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..100), Bytes::from)))]
-2029    pub data: Bytes,
-2030}
-2031
-2032impl FrameStruct for Datagram {
-2033    const SIZE_BOUND: usize = 1 + 8;
-2034}
-2035
-2036impl Datagram {
-2037    pub(crate) fn size(&self, length: bool) -> usize {
-2038        1 + if length {
-2039            VarInt::from_u64(self.data.len() as u64).unwrap().size()
-2040        } else {
-2041            0
-2042        } + self.data.len()
-2043    }
-2044
-2045    const fn get_type(&self) -> FrameType {
-2046        FrameType::Datagram(DatagramInfo(*DatagramInfo::VALUES.start() as u8))
-2047    }
-2048}
-2049
-2050impl Encodable for Datagram {
-2051    fn encode<B: BufMut>(&self, out: &mut B) {
-2052        // A datagram is encoded only after this is verified.
-2053        const ENCODE_LEN: bool = true;
-2054        out.write(FrameType::Datagram(DatagramInfo(
-2055            *DatagramInfo::VALUES.start() as u8 | u8::from(ENCODE_LEN),
-2056        ))); // 1 byte
-2057        // Safe to unwrap because we check length sanity before queueing datagrams
-2058        out.write(VarInt::from_u64(self.data.len() as u64).unwrap()); // <= 8 bytes
-2059        out.put_slice(&self.data);
-2060    }
-2061}
-2062
-2063#[derive(Debug, Copy, Clone, PartialEq, Eq, derive_more::Display)]
-2064#[cfg_attr(test, derive(Arbitrary))]
-2065#[display("ACK_FREQUENCY max_ack_delay: {}µs", request_max_ack_delay.0)]
-2066pub(crate) struct AckFrequency {
-2067    pub(crate) sequence: VarInt,
-2068    pub(crate) ack_eliciting_threshold: VarInt,
-2069    pub(crate) request_max_ack_delay: VarInt,
-2070    pub(crate) reordering_threshold: VarInt,
-2071}
-2072
-2073impl AckFrequency {
-2074    const fn get_type(&self) -> FrameType {
-2075        FrameType::AckFrequency
-2076    }
+1983        let mut stage = [0; MAX_CID_SIZE];
+1984        bytes.copy_to_slice(&mut stage[0..length]);
+1985        let id = ConnectionId::new(&stage[..length]);
+1986        if bytes.remaining() < 16 {
+1987            return Err(IterErr::UnexpectedEnd);
+1988        }
+1989        let mut reset_token = [0; RESET_TOKEN_SIZE];
+1990        bytes.copy_to_slice(&mut reset_token);
+1991        Ok(Self {
+1992            path_id,
+1993            sequence,
+1994            retire_prior_to,
+1995            id,
+1996            reset_token: reset_token.into(),
+1997        })
+1998    }
+1999
+2000    pub(crate) fn issued(&self) -> crate::shared::IssuedCid {
+2001        crate::shared::IssuedCid {
+2002            path_id: self.path_id.unwrap_or_default(),
+2003            sequence: self.sequence,
+2004            id: self.id,
+2005            reset_token: self.reset_token,
+2006        }
+2007    }
+2008}
+2009
+2010impl Encodable for NewConnectionId {
+2011    fn encode<W: BufMut>(&self, out: &mut W) {
+2012        out.write(self.get_type());
+2013        if let Some(id) = self.path_id {
+2014            out.write(id);
+2015        }
+2016        out.write_var(self.sequence);
+2017        out.write_var(self.retire_prior_to);
+2018        out.write(self.id.len() as u8);
+2019        out.put_slice(&self.id);
+2020        out.put_slice(&self.reset_token);
+2021    }
+2022}
+2023
+2024impl FrameStruct for NewConnectionId {
+2025    const SIZE_BOUND: usize = 1 + 8 + 8 + 1 + MAX_CID_SIZE + RESET_TOKEN_SIZE;
+2026}
+2027
+2028/// An unreliable datagram
+2029#[derive(Debug, Clone, derive_more::Display)]
+2030#[cfg_attr(test, derive(Arbitrary))]
+2031#[display("DATAGRAM len: {}", data.len())]
+2032pub struct Datagram {
+2033    /// Payload
+2034    #[cfg_attr(test, strategy(Strategy::prop_map(collection::vec(any::<u8>(), 0..100), Bytes::from)))]
+2035    pub data: Bytes,
+2036}
+2037
+2038impl FrameStruct for Datagram {
+2039    const SIZE_BOUND: usize = 1 + 8;
+2040}
+2041
+2042impl Datagram {
+2043    pub(crate) fn size(&self, length: bool) -> usize {
+2044        1 + if length {
+2045            VarInt::from_u64(self.data.len() as u64).unwrap().size()
+2046        } else {
+2047            0
+2048        } + self.data.len()
+2049    }
+2050
+2051    const fn get_type(&self) -> FrameType {
+2052        FrameType::Datagram(DatagramInfo(*DatagramInfo::VALUES.start() as u8))
+2053    }
+2054}
+2055
+2056impl Encodable for Datagram {
+2057    fn encode<B: BufMut>(&self, out: &mut B) {
+2058        // A datagram is encoded only after this is verified.
+2059        const ENCODE_LEN: bool = true;
+2060        out.write(FrameType::Datagram(DatagramInfo(
+2061            *DatagramInfo::VALUES.start() as u8 | u8::from(ENCODE_LEN),
+2062        ))); // 1 byte
+2063        // Safe to unwrap because we check length sanity before queueing datagrams
+2064        out.write(VarInt::from_u64(self.data.len() as u64).unwrap()); // <= 8 bytes
+2065        out.put_slice(&self.data);
+2066    }
+2067}
+2068
+2069#[derive(Debug, Copy, Clone, PartialEq, Eq, derive_more::Display)]
+2070#[cfg_attr(test, derive(Arbitrary))]
+2071#[display("ACK_FREQUENCY max_ack_delay: {}µs", request_max_ack_delay.0)]
+2072pub(crate) struct AckFrequency {
+2073    pub(crate) sequence: VarInt,
+2074    pub(crate) ack_eliciting_threshold: VarInt,
+2075    pub(crate) request_max_ack_delay: VarInt,
+2076    pub(crate) reordering_threshold: VarInt,
 2077}
 2078
-2079impl Encodable for AckFrequency {
-2080    fn encode<W: BufMut>(&self, buf: &mut W) {
-2081        buf.write(FrameType::AckFrequency);
-2082        buf.write(self.sequence);
-2083        buf.write(self.ack_eliciting_threshold);
-2084        buf.write(self.request_max_ack_delay);
-2085        buf.write(self.reordering_threshold);
-2086    }
-2087}
-2088
-2089/* Address Discovery https://datatracker.ietf.org/doc/draft-seemann-quic-address-discovery/ */
-2090
-2091/// Conjunction of the information contained in the address discovery frames
-2092/// ([`FrameType::ObservedIpv4Addr`], [`FrameType::ObservedIpv6Addr`]).
-2093#[derive(Debug, PartialEq, Eq, Clone, derive_more::Display)]
-2094#[display("{} seq_no: {seq_no} addr: {}", self.get_type(), self.socket_addr())]
-2095pub(crate) struct ObservedAddr {
-2096    /// Monotonically increasing integer within the same connection.
-2097    pub(crate) seq_no: VarInt,
-2098    /// Reported observed address.
-2099    pub(crate) ip: IpAddr,
-2100    /// Reported observed port.
-2101    pub(crate) port: u16,
-2102}
-2103
-2104#[cfg(test)]
-2105impl proptest::arbitrary::Arbitrary for ObservedAddr {
-2106    type Parameters = ();
-2107    type Strategy = proptest::strategy::BoxedStrategy<Self>;
-2108
-2109    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
-2110        use proptest::prelude::*;
-2111        (any::<VarInt>(), any::<IpAddr>(), any::<u16>())
-2112            .prop_map(|(seq_no, ip, port)| Self { seq_no, ip, port })
-2113            .boxed()
-2114    }
-2115}
-2116
-2117impl ObservedAddr {
-2118    pub(crate) fn new<N: Into<VarInt>>(remote: std::net::SocketAddr, seq_no: N) -> Self {
-2119        Self {
-2120            ip: remote.ip(),
-2121            port: remote.port(),
-2122            seq_no: seq_no.into(),
-2123        }
-2124    }
-2125
-2126    /// Get the [`FrameType`] for this frame.
-2127    const fn get_type(&self) -> FrameType {
-2128        if self.ip.is_ipv6() {
-2129            FrameType::ObservedIpv6Addr
-2130        } else {
-2131            FrameType::ObservedIpv4Addr
-2132        }
-2133    }
-2134
-2135    /// Compute the number of bytes needed to encode the frame.
-2136    pub(crate) fn size(&self) -> usize {
-2137        let type_size = self.get_type().size();
-2138        let req_id_bytes = self.seq_no.size();
-2139        let ip_bytes = if self.ip.is_ipv6() { 16 } else { 4 };
-2140        let port_bytes = 2;
-2141        type_size + req_id_bytes + ip_bytes + port_bytes
-2142    }
-2143
-2144    /// Reads the frame contents from the buffer.
-2145    ///
-2146    /// Should only be called when the frame type has been identified as
-2147    /// [`FrameType::ObservedIpv4Addr`] or [`FrameType::ObservedIpv6Addr`].
-2148    pub(crate) fn read<R: Buf>(bytes: &mut R, is_ipv6: bool) -> coding::Result<Self> {
-2149        let seq_no = bytes.get()?;
-2150        let ip = if is_ipv6 {
-2151            IpAddr::V6(bytes.get()?)
-2152        } else {
-2153            IpAddr::V4(bytes.get()?)
-2154        };
-2155        let port = bytes.get()?;
-2156        Ok(Self { seq_no, ip, port })
-2157    }
-2158
-2159    /// Gives the [`SocketAddr`] reported in the frame.
-2160    pub(crate) fn socket_addr(&self) -> SocketAddr {
-2161        (self.ip, self.port).into()
-2162    }
-2163}
+2079impl AckFrequency {
+2080    const fn get_type(&self) -> FrameType {
+2081        FrameType::AckFrequency
+2082    }
+2083}
+2084
+2085impl Encodable for AckFrequency {
+2086    fn encode<W: BufMut>(&self, buf: &mut W) {
+2087        buf.write(FrameType::AckFrequency);
+2088        buf.write(self.sequence);
+2089        buf.write(self.ack_eliciting_threshold);
+2090        buf.write(self.request_max_ack_delay);
+2091        buf.write(self.reordering_threshold);
+2092    }
+2093}
+2094
+2095/* Address Discovery https://datatracker.ietf.org/doc/draft-seemann-quic-address-discovery/ */
+2096
+2097/// Conjunction of the information contained in the address discovery frames
+2098/// ([`FrameType::ObservedIpv4Addr`], [`FrameType::ObservedIpv6Addr`]).
+2099#[derive(Debug, PartialEq, Eq, Clone, derive_more::Display)]
+2100#[display("{} seq_no: {seq_no} addr: {}", self.get_type(), self.socket_addr())]
+2101pub(crate) struct ObservedAddr {
+2102    /// Monotonically increasing integer within the same connection.
+2103    pub(crate) seq_no: VarInt,
+2104    /// Reported observed address.
+2105    pub(crate) ip: IpAddr,
+2106    /// Reported observed port.
+2107    pub(crate) port: u16,
+2108}
+2109
+2110#[cfg(test)]
+2111impl proptest::arbitrary::Arbitrary for ObservedAddr {
+2112    type Parameters = ();
+2113    type Strategy = proptest::strategy::BoxedStrategy<Self>;
+2114
+2115    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
+2116        use proptest::prelude::*;
+2117        (any::<VarInt>(), any::<IpAddr>(), any::<u16>())
+2118            .prop_map(|(seq_no, ip, port)| Self { seq_no, ip, port })
+2119            .boxed()
+2120    }
+2121}
+2122
+2123impl ObservedAddr {
+2124    pub(crate) fn new<N: Into<VarInt>>(remote: std::net::SocketAddr, seq_no: N) -> Self {
+2125        Self {
+2126            ip: remote.ip(),
+2127            port: remote.port(),
+2128            seq_no: seq_no.into(),
+2129        }
+2130    }
+2131
+2132    /// Get the [`FrameType`] for this frame.
+2133    const fn get_type(&self) -> FrameType {
+2134        if self.ip.is_ipv6() {
+2135            FrameType::ObservedIpv6Addr
+2136        } else {
+2137            FrameType::ObservedIpv4Addr
+2138        }
+2139    }
+2140
+2141    /// Compute the number of bytes needed to encode the frame.
+2142    pub(crate) fn size(&self) -> usize {
+2143        let type_size = self.get_type().size();
+2144        let req_id_bytes = self.seq_no.size();
+2145        let ip_bytes = if self.ip.is_ipv6() { 16 } else { 4 };
+2146        let port_bytes = 2;
+2147        type_size + req_id_bytes + ip_bytes + port_bytes
+2148    }
+2149
+2150    /// Reads the frame contents from the buffer.
+2151    ///
+2152    /// Should only be called when the frame type has been identified as
+2153    /// [`FrameType::ObservedIpv4Addr`] or [`FrameType::ObservedIpv6Addr`].
+2154    pub(crate) fn read<R: Buf>(bytes: &mut R, is_ipv6: bool) -> coding::Result<Self> {
+2155        let seq_no = bytes.get()?;
+2156        let ip = if is_ipv6 {
+2157            IpAddr::V6(bytes.get()?)
+2158        } else {
+2159            IpAddr::V4(bytes.get()?)
+2160        };
+2161        let port = bytes.get()?;
+2162        Ok(Self { seq_no, ip, port })
+2163    }
 2164
-2165impl Encodable for ObservedAddr {
-2166    fn encode<W: BufMut>(&self, buf: &mut W) {
-2167        buf.write(self.get_type());
-2168        buf.write(self.seq_no);
-2169        match self.ip {
-2170            IpAddr::V4(ipv4_addr) => {
-2171                buf.write(ipv4_addr);
-2172            }
-2173            IpAddr::V6(ipv6_addr) => {
-2174                buf.write(ipv6_addr);
-2175            }
-2176        }
-2177        buf.write::<u16>(self.port);
-2178    }
-2179}
-2180
-2181/* Multipath <https://datatracker.ietf.org/doc/draft-ietf-quic-multipath/> */
-2182
-2183#[derive(Debug, PartialEq, Eq, derive_more::Display)]
-2184#[cfg_attr(test, derive(Arbitrary))]
-2185#[display("PATH_ABANDON path_id: {path_id}")]
-2186pub(crate) struct PathAbandon {
-2187    pub(crate) path_id: PathId,
-2188    pub(crate) error_code: TransportErrorCode,
-2189}
-2190
-2191impl PathAbandon {
-2192    pub(crate) const SIZE_BOUND: usize = FrameType::PathAbandon.size() + 8 + 8;
-2193
-2194    const fn get_type(&self) -> FrameType {
-2195        FrameType::PathAbandon
-2196    }
-2197}
-2198
-2199impl Encodable for PathAbandon {
-2200    fn encode<W: BufMut>(&self, buf: &mut W) {
-2201        buf.write(FrameType::PathAbandon);
-2202        buf.write(self.path_id);
-2203        buf.write(self.error_code);
-2204    }
-2205}
-2206
-2207impl Decodable for PathAbandon {
-2208    fn decode<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
-2209        Ok(Self {
-2210            path_id: bytes.get()?,
-2211            error_code: bytes.get()?,
-2212        })
-2213    }
-2214}
-2215
-2216#[derive(Debug, PartialEq, Eq, derive_more::Display)]
-2217#[cfg_attr(test, derive(Arbitrary))]
-2218#[display("PATH_STATUS_AVAILABLE path_id: {path_id} seq_no: {status_seq_no}")]
-2219pub(crate) struct PathStatusAvailable {
-2220    pub(crate) path_id: PathId,
-2221    pub(crate) status_seq_no: VarInt,
-2222}
-2223
-2224impl PathStatusAvailable {
-2225    const TYPE: FrameType = FrameType::PathStatusAvailable;
-2226    pub(crate) const SIZE_BOUND: usize = FrameType::PathStatusAvailable.size() + 8 + 8;
-2227
-2228    const fn get_type(&self) -> FrameType {
-2229        FrameType::PathStatusAvailable
-2230    }
-2231}
-2232
-2233impl Encodable for PathStatusAvailable {
-2234    fn encode<W: BufMut>(&self, buf: &mut W) {
-2235        buf.write(Self::TYPE);
-2236        buf.write(self.path_id);
-2237        buf.write(self.status_seq_no);
-2238    }
-2239}
-2240
-2241impl Decodable for PathStatusAvailable {
-2242    fn decode<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
-2243        Ok(Self {
-2244            path_id: bytes.get()?,
-2245            status_seq_no: bytes.get()?,
-2246        })
-2247    }
-2248}
-2249
-2250#[derive(Debug, PartialEq, Eq, derive_more::Display)]
-2251#[cfg_attr(test, derive(Arbitrary))]
-2252#[display("PATH_STATUS_BACKUP path_id: {path_id} seq_no: {status_seq_no}")]
-2253pub(crate) struct PathStatusBackup {
-2254    pub(crate) path_id: PathId,
-2255    pub(crate) status_seq_no: VarInt,
-2256}
-2257
-2258impl PathStatusBackup {
-2259    const TYPE: FrameType = FrameType::PathStatusBackup;
-2260
-2261    const fn get_type(&self) -> FrameType {
-2262        FrameType::PathStatusBackup
-2263    }
-2264}
-2265
-2266impl Encodable for PathStatusBackup {
-2267    fn encode<W: BufMut>(&self, buf: &mut W) {
-2268        buf.write(Self::TYPE);
-2269        buf.write(self.path_id);
-2270        buf.write(self.status_seq_no);
-2271    }
-2272}
-2273
-2274impl Decodable for PathStatusBackup {
-2275    fn decode<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
-2276        Ok(Self {
-2277            path_id: bytes.get()?,
-2278            status_seq_no: bytes.get()?,
-2279        })
-2280    }
-2281}
-2282
-2283/* Nat traversal frames */
-2284
-2285/// Conjunction of the information contained in the add address frames
-2286/// ([`FrameType::AddIpv4Address`], [`FrameType::AddIpv6Address`]).
-2287#[derive(Debug, PartialEq, Eq, Copy, Clone, PartialOrd, Ord, derive_more::Display)]
-2288#[display("{} seq_no: {seq_no} addr: {}", self.get_type(), self.socket_addr())]
-2289pub(crate) struct AddAddress {
-2290    /// Monotonically increasing integer within the same connection
-2291    // TODO(@divma): both assumed, the draft has no mention of this but it's standard
-2292    pub(crate) seq_no: VarInt,
-2293    /// Address to include in the known set
-2294    pub(crate) ip: IpAddr,
-2295    /// Port to use with this address
-2296    pub(crate) port: u16,
-2297}
-2298
-2299#[cfg(test)]
-2300impl proptest::arbitrary::Arbitrary for AddAddress {
-2301    type Parameters = ();
-2302    type Strategy = proptest::strategy::BoxedStrategy<Self>;
-2303
-2304    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
-2305        use proptest::prelude::*;
-2306        (any::<VarInt>(), any::<IpAddr>(), any::<u16>())
-2307            .prop_map(|(seq_no, ip, port)| Self { seq_no, ip, port })
-2308            .boxed()
-2309    }
-2310}
-2311
-2312// TODO(@divma): remove
-2313#[allow(dead_code)]
-2314impl AddAddress {
-2315    /// Smallest number of bytes this type of frame is guaranteed to fit within.
-2316    pub(crate) const SIZE_BOUND: usize = Self {
-2317        ip: IpAddr::V6(std::net::Ipv6Addr::LOCALHOST),
-2318        port: u16::MAX,
-2319        seq_no: VarInt::MAX,
-2320    }
-2321    .size();
-2322
-2323    pub(crate) const fn new((ip, port): (IpAddr, u16), seq_no: VarInt) -> Self {
-2324        Self { ip, port, seq_no }
-2325    }
-2326
-2327    /// Get the [`FrameType`] for this frame.
-2328    const fn get_type(&self) -> FrameType {
-2329        if self.ip.is_ipv6() {
-2330            FrameType::AddIpv6Address
-2331        } else {
-2332            FrameType::AddIpv4Address
-2333        }
-2334    }
-2335
-2336    /// Compute the number of bytes needed to encode the frame
-2337    pub(crate) const fn size(&self) -> usize {
-2338        let type_size = self.get_type().size();
-2339        let seq_no_bytes = self.seq_no.size();
-2340        let ip_bytes = if self.ip.is_ipv6() { 16 } else { 4 };
-2341        let port_bytes = 2;
-2342        type_size + seq_no_bytes + ip_bytes + port_bytes
-2343    }
-2344
-2345    /// Read the frame contents from the buffer
-2346    ///
-2347    /// Should only be called when the frame type has been identified as
-2348    /// [`FrameType::AddIpv4Address`] or [`FrameType::AddIpv6Address`].
-2349    pub(crate) fn read<R: Buf>(bytes: &mut R, is_ipv6: bool) -> coding::Result<Self> {
-2350        let seq_no = bytes.get()?;
-2351        let ip = if is_ipv6 {
-2352            IpAddr::V6(bytes.get()?)
-2353        } else {
-2354            IpAddr::V4(bytes.get()?)
-2355        };
-2356        let port = bytes.get()?;
-2357        Ok(Self { seq_no, ip, port })
-2358    }
-2359
-2360    /// Give the [`SocketAddr`] encoded in the frame
-2361    pub(crate) fn socket_addr(&self) -> SocketAddr {
-2362        self.ip_port().into()
-2363    }
-2364
-2365    pub(crate) fn ip_port(&self) -> (IpAddr, u16) {
-2366        (self.ip, self.port)
-2367    }
-2368}
-2369
-2370impl Encodable for AddAddress {
-2371    fn encode<W: BufMut>(&self, buf: &mut W) {
-2372        buf.write(self.get_type());
-2373        buf.write(self.seq_no);
-2374        match self.ip {
-2375            IpAddr::V4(ipv4_addr) => {
-2376                buf.write(ipv4_addr);
-2377            }
-2378            IpAddr::V6(ipv6_addr) => {
-2379                buf.write(ipv6_addr);
-2380            }
-2381        }
-2382        buf.write::<u16>(self.port);
-2383    }
-2384}
-2385
-2386/// Conjunction of the information contained in the reach out frames
-2387/// ([`FrameType::ReachOutAtIpv4`], [`FrameType::ReachOutAtIpv6`])
-2388#[derive(Debug, PartialEq, Eq, Clone, derive_more::Display)]
-2389#[display("REACH_OUT round: {round} local_addr: {}", self.socket_addr())]
-2390pub(crate) struct ReachOut {
-2391    /// The sequence number of the NAT Traversal attempts
-2392    pub(crate) round: VarInt,
-2393    /// Address to use
-2394    pub(crate) ip: IpAddr,
-2395    /// Port to use with this address
-2396    pub(crate) port: u16,
-2397}
-2398
-2399#[cfg(test)]
-2400impl proptest::arbitrary::Arbitrary for ReachOut {
-2401    type Parameters = ();
-2402    type Strategy = proptest::strategy::BoxedStrategy<Self>;
-2403
-2404    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
-2405        use proptest::prelude::*;
-2406        (any::<VarInt>(), any::<IpAddr>(), any::<u16>())
-2407            .prop_map(|(round, ip, port)| Self { round, ip, port })
-2408            .boxed()
-2409    }
-2410}
-2411
-2412// TODO(@divma): remove
-2413#[allow(dead_code)]
-2414impl ReachOut {
-2415    /// Smallest number of bytes this type of frame is guaranteed to fit within
-2416    pub(crate) const SIZE_BOUND: usize = Self {
-2417        round: VarInt::MAX,
-2418        ip: IpAddr::V6(std::net::Ipv6Addr::LOCALHOST),
-2419        port: u16::MAX,
-2420    }
-2421    .size();
-2422
-2423    pub(crate) const fn new(round: VarInt, (ip, port): (IpAddr, u16)) -> Self {
-2424        Self { round, ip, port }
-2425    }
-2426
-2427    /// Get the [`FrameType`] for this frame
-2428    pub(crate) const fn get_type(&self) -> FrameType {
-2429        if self.ip.is_ipv6() {
-2430            FrameType::ReachOutAtIpv6
-2431        } else {
-2432            FrameType::ReachOutAtIpv4
-2433        }
-2434    }
-2435
-2436    /// Compute the number of bytes needed to encode the frame
-2437    pub(crate) const fn size(&self) -> usize {
-2438        let type_size = self.get_type().size();
-2439        let round_bytes = self.round.size();
-2440        let ip_bytes = if self.ip.is_ipv6() { 16 } else { 4 };
-2441        let port_bytes = 2;
-2442        type_size + round_bytes + ip_bytes + port_bytes
-2443    }
-2444
-2445    /// Read the frame contents from the buffer
-2446    ///
-2447    /// Should only be called when the frame type has been identified as
-2448    /// [`FrameType::ReachOutAtIpv4`] or [`FrameType::ReachOutAtIpv6`].
-2449    pub(crate) fn read<R: Buf>(bytes: &mut R, is_ipv6: bool) -> coding::Result<Self> {
-2450        let round = bytes.get()?;
-2451        let ip = if is_ipv6 {
-2452            IpAddr::V6(bytes.get()?)
-2453        } else {
-2454            IpAddr::V4(bytes.get()?)
-2455        };
-2456        let port = bytes.get()?;
-2457        Ok(Self { round, ip, port })
-2458    }
-2459
-2460    /// Give the [`SocketAddr`] encoded in the frame
-2461    pub(crate) fn socket_addr(&self) -> SocketAddr {
-2462        (self.ip, self.port).into()
-2463    }
-2464}
+2165    /// Gives the [`SocketAddr`] reported in the frame.
+2166    pub(crate) fn socket_addr(&self) -> SocketAddr {
+2167        (self.ip, self.port).into()
+2168    }
+2169}
+2170
+2171impl Encodable for ObservedAddr {
+2172    fn encode<W: BufMut>(&self, buf: &mut W) {
+2173        buf.write(self.get_type());
+2174        buf.write(self.seq_no);
+2175        match self.ip {
+2176            IpAddr::V4(ipv4_addr) => {
+2177                buf.write(ipv4_addr);
+2178            }
+2179            IpAddr::V6(ipv6_addr) => {
+2180                buf.write(ipv6_addr);
+2181            }
+2182        }
+2183        buf.write::<u16>(self.port);
+2184    }
+2185}
+2186
+2187/* Multipath <https://datatracker.ietf.org/doc/draft-ietf-quic-multipath/> */
+2188
+2189#[derive(Debug, PartialEq, Eq, derive_more::Display)]
+2190#[cfg_attr(test, derive(Arbitrary))]
+2191#[display("PATH_ABANDON path_id: {path_id}")]
+2192pub(crate) struct PathAbandon {
+2193    pub(crate) path_id: PathId,
+2194    pub(crate) error_code: TransportErrorCode,
+2195}
+2196
+2197impl PathAbandon {
+2198    pub(crate) const SIZE_BOUND: usize = FrameType::PathAbandon.size() + 8 + 8;
+2199
+2200    const fn get_type(&self) -> FrameType {
+2201        FrameType::PathAbandon
+2202    }
+2203}
+2204
+2205impl Encodable for PathAbandon {
+2206    fn encode<W: BufMut>(&self, buf: &mut W) {
+2207        buf.write(FrameType::PathAbandon);
+2208        buf.write(self.path_id);
+2209        buf.write(self.error_code);
+2210    }
+2211}
+2212
+2213impl Decodable for PathAbandon {
+2214    fn decode<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
+2215        Ok(Self {
+2216            path_id: bytes.get()?,
+2217            error_code: bytes.get()?,
+2218        })
+2219    }
+2220}
+2221
+2222#[derive(Debug, PartialEq, Eq, derive_more::Display)]
+2223#[cfg_attr(test, derive(Arbitrary))]
+2224#[display("PATH_STATUS_AVAILABLE path_id: {path_id} seq_no: {status_seq_no}")]
+2225pub(crate) struct PathStatusAvailable {
+2226    pub(crate) path_id: PathId,
+2227    pub(crate) status_seq_no: VarInt,
+2228}
+2229
+2230impl PathStatusAvailable {
+2231    const TYPE: FrameType = FrameType::PathStatusAvailable;
+2232    pub(crate) const SIZE_BOUND: usize = FrameType::PathStatusAvailable.size() + 8 + 8;
+2233
+2234    const fn get_type(&self) -> FrameType {
+2235        FrameType::PathStatusAvailable
+2236    }
+2237}
+2238
+2239impl Encodable for PathStatusAvailable {
+2240    fn encode<W: BufMut>(&self, buf: &mut W) {
+2241        buf.write(Self::TYPE);
+2242        buf.write(self.path_id);
+2243        buf.write(self.status_seq_no);
+2244    }
+2245}
+2246
+2247impl Decodable for PathStatusAvailable {
+2248    fn decode<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
+2249        Ok(Self {
+2250            path_id: bytes.get()?,
+2251            status_seq_no: bytes.get()?,
+2252        })
+2253    }
+2254}
+2255
+2256#[derive(Debug, PartialEq, Eq, derive_more::Display)]
+2257#[cfg_attr(test, derive(Arbitrary))]
+2258#[display("PATH_STATUS_BACKUP path_id: {path_id} seq_no: {status_seq_no}")]
+2259pub(crate) struct PathStatusBackup {
+2260    pub(crate) path_id: PathId,
+2261    pub(crate) status_seq_no: VarInt,
+2262}
+2263
+2264impl PathStatusBackup {
+2265    const TYPE: FrameType = FrameType::PathStatusBackup;
+2266
+2267    const fn get_type(&self) -> FrameType {
+2268        FrameType::PathStatusBackup
+2269    }
+2270}
+2271
+2272impl Encodable for PathStatusBackup {
+2273    fn encode<W: BufMut>(&self, buf: &mut W) {
+2274        buf.write(Self::TYPE);
+2275        buf.write(self.path_id);
+2276        buf.write(self.status_seq_no);
+2277    }
+2278}
+2279
+2280impl Decodable for PathStatusBackup {
+2281    fn decode<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
+2282        Ok(Self {
+2283            path_id: bytes.get()?,
+2284            status_seq_no: bytes.get()?,
+2285        })
+2286    }
+2287}
+2288
+2289/* Nat traversal frames */
+2290
+2291/// Conjunction of the information contained in the add address frames
+2292/// ([`FrameType::AddIpv4Address`], [`FrameType::AddIpv6Address`]).
+2293#[derive(Debug, PartialEq, Eq, Copy, Clone, PartialOrd, Ord, derive_more::Display)]
+2294#[display("{} seq_no: {seq_no} addr: {}", self.get_type(), self.socket_addr())]
+2295pub(crate) struct AddAddress {
+2296    /// Monotonically increasing integer within the same connection
+2297    // TODO(@divma): both assumed, the draft has no mention of this but it's standard
+2298    pub(crate) seq_no: VarInt,
+2299    /// Address to include in the known set
+2300    pub(crate) ip: IpAddr,
+2301    /// Port to use with this address
+2302    pub(crate) port: u16,
+2303}
+2304
+2305#[cfg(test)]
+2306impl proptest::arbitrary::Arbitrary for AddAddress {
+2307    type Parameters = ();
+2308    type Strategy = proptest::strategy::BoxedStrategy<Self>;
+2309
+2310    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
+2311        use proptest::prelude::*;
+2312        (any::<VarInt>(), any::<IpAddr>(), any::<u16>())
+2313            .prop_map(|(seq_no, ip, port)| Self { seq_no, ip, port })
+2314            .boxed()
+2315    }
+2316}
+2317
+2318// TODO(@divma): remove
+2319#[allow(dead_code)]
+2320impl AddAddress {
+2321    /// Smallest number of bytes this type of frame is guaranteed to fit within.
+2322    pub(crate) const SIZE_BOUND: usize = Self {
+2323        ip: IpAddr::V6(std::net::Ipv6Addr::LOCALHOST),
+2324        port: u16::MAX,
+2325        seq_no: VarInt::MAX,
+2326    }
+2327    .size();
+2328
+2329    pub(crate) const fn new((ip, port): (IpAddr, u16), seq_no: VarInt) -> Self {
+2330        Self { ip, port, seq_no }
+2331    }
+2332
+2333    /// Get the [`FrameType`] for this frame.
+2334    const fn get_type(&self) -> FrameType {
+2335        if self.ip.is_ipv6() {
+2336            FrameType::AddIpv6Address
+2337        } else {
+2338            FrameType::AddIpv4Address
+2339        }
+2340    }
+2341
+2342    /// Compute the number of bytes needed to encode the frame
+2343    pub(crate) const fn size(&self) -> usize {
+2344        let type_size = self.get_type().size();
+2345        let seq_no_bytes = self.seq_no.size();
+2346        let ip_bytes = if self.ip.is_ipv6() { 16 } else { 4 };
+2347        let port_bytes = 2;
+2348        type_size + seq_no_bytes + ip_bytes + port_bytes
+2349    }
+2350
+2351    /// Read the frame contents from the buffer
+2352    ///
+2353    /// Should only be called when the frame type has been identified as
+2354    /// [`FrameType::AddIpv4Address`] or [`FrameType::AddIpv6Address`].
+2355    pub(crate) fn read<R: Buf>(bytes: &mut R, is_ipv6: bool) -> coding::Result<Self> {
+2356        let seq_no = bytes.get()?;
+2357        let ip = if is_ipv6 {
+2358            IpAddr::V6(bytes.get()?)
+2359        } else {
+2360            IpAddr::V4(bytes.get()?)
+2361        };
+2362        let port = bytes.get()?;
+2363        Ok(Self { seq_no, ip, port })
+2364    }
+2365
+2366    /// Give the [`SocketAddr`] encoded in the frame
+2367    pub(crate) fn socket_addr(&self) -> SocketAddr {
+2368        self.ip_port().into()
+2369    }
+2370
+2371    pub(crate) fn ip_port(&self) -> (IpAddr, u16) {
+2372        (self.ip, self.port)
+2373    }
+2374}
+2375
+2376impl Encodable for AddAddress {
+2377    fn encode<W: BufMut>(&self, buf: &mut W) {
+2378        buf.write(self.get_type());
+2379        buf.write(self.seq_no);
+2380        match self.ip {
+2381            IpAddr::V4(ipv4_addr) => {
+2382                buf.write(ipv4_addr);
+2383            }
+2384            IpAddr::V6(ipv6_addr) => {
+2385                buf.write(ipv6_addr);
+2386            }
+2387        }
+2388        buf.write::<u16>(self.port);
+2389    }
+2390}
+2391
+2392/// Conjunction of the information contained in the reach out frames
+2393/// ([`FrameType::ReachOutAtIpv4`], [`FrameType::ReachOutAtIpv6`])
+2394#[derive(Debug, PartialEq, Eq, Clone, derive_more::Display)]
+2395#[display("REACH_OUT round: {round} local_addr: {}", self.socket_addr())]
+2396pub(crate) struct ReachOut {
+2397    /// The sequence number of the NAT Traversal attempts
+2398    pub(crate) round: VarInt,
+2399    /// Address to use
+2400    pub(crate) ip: IpAddr,
+2401    /// Port to use with this address
+2402    pub(crate) port: u16,
+2403}
+2404
+2405#[cfg(test)]
+2406impl proptest::arbitrary::Arbitrary for ReachOut {
+2407    type Parameters = ();
+2408    type Strategy = proptest::strategy::BoxedStrategy<Self>;
+2409
+2410    fn arbitrary_with(_: Self::Parameters) -> Self::Strategy {
+2411        use proptest::prelude::*;
+2412        (any::<VarInt>(), any::<IpAddr>(), any::<u16>())
+2413            .prop_map(|(round, ip, port)| Self { round, ip, port })
+2414            .boxed()
+2415    }
+2416}
+2417
+2418// TODO(@divma): remove
+2419#[allow(dead_code)]
+2420impl ReachOut {
+2421    /// Smallest number of bytes this type of frame is guaranteed to fit within
+2422    pub(crate) const SIZE_BOUND: usize = Self {
+2423        round: VarInt::MAX,
+2424        ip: IpAddr::V6(std::net::Ipv6Addr::LOCALHOST),
+2425        port: u16::MAX,
+2426    }
+2427    .size();
+2428
+2429    pub(crate) const fn new(round: VarInt, (ip, port): (IpAddr, u16)) -> Self {
+2430        Self { round, ip, port }
+2431    }
+2432
+2433    /// Get the [`FrameType`] for this frame
+2434    pub(crate) const fn get_type(&self) -> FrameType {
+2435        if self.ip.is_ipv6() {
+2436            FrameType::ReachOutAtIpv6
+2437        } else {
+2438            FrameType::ReachOutAtIpv4
+2439        }
+2440    }
+2441
+2442    /// Compute the number of bytes needed to encode the frame
+2443    pub(crate) const fn size(&self) -> usize {
+2444        let type_size = self.get_type().size();
+2445        let round_bytes = self.round.size();
+2446        let ip_bytes = if self.ip.is_ipv6() { 16 } else { 4 };
+2447        let port_bytes = 2;
+2448        type_size + round_bytes + ip_bytes + port_bytes
+2449    }
+2450
+2451    /// Read the frame contents from the buffer
+2452    ///
+2453    /// Should only be called when the frame type has been identified as
+2454    /// [`FrameType::ReachOutAtIpv4`] or [`FrameType::ReachOutAtIpv6`].
+2455    pub(crate) fn read<R: Buf>(bytes: &mut R, is_ipv6: bool) -> coding::Result<Self> {
+2456        let round = bytes.get()?;
+2457        let ip = if is_ipv6 {
+2458            IpAddr::V6(bytes.get()?)
+2459        } else {
+2460            IpAddr::V4(bytes.get()?)
+2461        };
+2462        let port = bytes.get()?;
+2463        Ok(Self { round, ip, port })
+2464    }
 2465
-2466impl Encodable for ReachOut {
-2467    fn encode<W: BufMut>(&self, buf: &mut W) {
-2468        buf.write(self.get_type());
-2469        buf.write(self.round);
-2470        match self.ip {
-2471            IpAddr::V4(ipv4_addr) => {
-2472                buf.write(ipv4_addr);
-2473            }
-2474            IpAddr::V6(ipv6_addr) => {
-2475                buf.write(ipv6_addr);
-2476            }
-2477        }
-2478        buf.write::<u16>(self.port);
-2479    }
-2480}
-2481
-2482/// Frame signaling an address is no longer being advertised
-2483#[derive(Debug, PartialEq, Eq, Copy, Clone, PartialOrd, Ord, derive_more::Display)]
-2484#[cfg_attr(test, derive(Arbitrary))]
-2485#[display("REMOVE_ADDRESS seq_no: {seq_no}")]
-2486pub(crate) struct RemoveAddress {
-2487    /// The sequence number of the address advertisement to be removed
-2488    pub(crate) seq_no: VarInt,
-2489}
-2490
-2491// TODO(@divma): remove
-2492#[allow(dead_code)]
-2493impl RemoveAddress {
-2494    /// [`FrameType`] of this frame
-2495    pub(crate) const TYPE: FrameType = FrameType::RemoveAddress;
+2466    /// Give the [`SocketAddr`] encoded in the frame
+2467    pub(crate) fn socket_addr(&self) -> SocketAddr {
+2468        (self.ip, self.port).into()
+2469    }
+2470}
+2471
+2472impl Encodable for ReachOut {
+2473    fn encode<W: BufMut>(&self, buf: &mut W) {
+2474        buf.write(self.get_type());
+2475        buf.write(self.round);
+2476        match self.ip {
+2477            IpAddr::V4(ipv4_addr) => {
+2478                buf.write(ipv4_addr);
+2479            }
+2480            IpAddr::V6(ipv6_addr) => {
+2481                buf.write(ipv6_addr);
+2482            }
+2483        }
+2484        buf.write::<u16>(self.port);
+2485    }
+2486}
+2487
+2488/// Frame signaling an address is no longer being advertised
+2489#[derive(Debug, PartialEq, Eq, Copy, Clone, PartialOrd, Ord, derive_more::Display)]
+2490#[cfg_attr(test, derive(Arbitrary))]
+2491#[display("REMOVE_ADDRESS seq_no: {seq_no}")]
+2492pub(crate) struct RemoveAddress {
+2493    /// The sequence number of the address advertisement to be removed
+2494    pub(crate) seq_no: VarInt,
+2495}
 2496
-2497    /// Smallest number of bytes this type of frame is guaranteed to fit within
-2498    pub(crate) const SIZE_BOUND: usize = Self::new(VarInt::MAX).size();
-2499
-2500    pub(crate) const fn new(seq_no: VarInt) -> Self {
-2501        Self { seq_no }
-2502    }
-2503
-2504    /// Compute the number of bytes needed to encode the frame
-2505    pub(crate) const fn size(&self) -> usize {
-2506        let type_size = Self::TYPE.size();
-2507        let seq_no_bytes = self.seq_no.size();
-2508        type_size + seq_no_bytes
-2509    }
-2510
-2511    /// Read the frame contents from the buffer
-2512    ///
-2513    /// Should only be called when the frame type has been identified as
-2514    /// [`FrameType::RemoveAddress`].
-2515    pub(crate) fn read<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
-2516        Ok(Self {
-2517            seq_no: bytes.get()?,
-2518        })
-2519    }
-2520
-2521    const fn get_type(&self) -> FrameType {
-2522        FrameType::RemoveAddress
-2523    }
-2524}
-2525
-2526impl Encodable for RemoveAddress {
-2527    fn encode<W: BufMut>(&self, buf: &mut W) {
-2528        buf.write(Self::TYPE);
-2529        buf.write(self.seq_no);
-2530    }
-2531}
-2532
-2533/// Helper struct for display implementations.
-2534// NOTE: Due to lifetimes in fmt::Arguments it's not possible to make this a simple function that
-2535// avoids allocations.
-2536struct DisplayOption<T: Display> {
-2537    field_name: &'static str,
-2538    op: Option<T>,
-2539}
-2540
-2541impl<T: Display> DisplayOption<T> {
-2542    fn new(field_name: &'static str, op: Option<T>) -> Self {
-2543        Self { field_name, op }
-2544    }
+2497// TODO(@divma): remove
+2498#[allow(dead_code)]
+2499impl RemoveAddress {
+2500    /// [`FrameType`] of this frame
+2501    pub(crate) const TYPE: FrameType = FrameType::RemoveAddress;
+2502
+2503    /// Smallest number of bytes this type of frame is guaranteed to fit within
+2504    pub(crate) const SIZE_BOUND: usize = Self::new(VarInt::MAX).size();
+2505
+2506    pub(crate) const fn new(seq_no: VarInt) -> Self {
+2507        Self { seq_no }
+2508    }
+2509
+2510    /// Compute the number of bytes needed to encode the frame
+2511    pub(crate) const fn size(&self) -> usize {
+2512        let type_size = Self::TYPE.size();
+2513        let seq_no_bytes = self.seq_no.size();
+2514        type_size + seq_no_bytes
+2515    }
+2516
+2517    /// Read the frame contents from the buffer
+2518    ///
+2519    /// Should only be called when the frame type has been identified as
+2520    /// [`FrameType::RemoveAddress`].
+2521    pub(crate) fn read<R: Buf>(bytes: &mut R) -> coding::Result<Self> {
+2522        Ok(Self {
+2523            seq_no: bytes.get()?,
+2524        })
+2525    }
+2526
+2527    const fn get_type(&self) -> FrameType {
+2528        FrameType::RemoveAddress
+2529    }
+2530}
+2531
+2532impl Encodable for RemoveAddress {
+2533    fn encode<W: BufMut>(&self, buf: &mut W) {
+2534        buf.write(Self::TYPE);
+2535        buf.write(self.seq_no);
+2536    }
+2537}
+2538
+2539/// Helper struct for display implementations.
+2540// NOTE: Due to lifetimes in fmt::Arguments it's not possible to make this a simple function that
+2541// avoids allocations.
+2542struct DisplayOption<T: Display> {
+2543    field_name: &'static str,
+2544    op: Option<T>,
 2545}
 2546
-2547impl<T: Display> Display for DisplayOption<T> {
-2548    fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
-2549        if let Some(x) = self.op.as_ref() {
-2550            write!(f, "{}: {x}", self.field_name)
-2551        } else {
-2552            fmt::Result::Ok(())
-2553        }
-2554    }
-2555}
-2556
-2557#[cfg(test)]
-2558mod test {
-2559    use super::*;
-2560    use crate::coding::Encodable;
-2561    use assert_matches::assert_matches;
+2547impl<T: Display> DisplayOption<T> {
+2548    fn new(field_name: &'static str, op: Option<T>) -> Self {
+2549        Self { field_name, op }
+2550    }
+2551}
+2552
+2553impl<T: Display> Display for DisplayOption<T> {
+2554    fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
+2555        if let Some(x) = self.op.as_ref() {
+2556            write!(f, "{}: {x}", self.field_name)
+2557        } else {
+2558            fmt::Result::Ok(())
+2559        }
+2560    }
+2561}
 2562
-2563    #[test]
-2564    fn frame_type() {
-2565        assert_eq!(
-2566            FrameType::try_from(FrameType::Padding.to_u64()),
-2567            Ok(FrameType::Padding),
-2568        );
-2569
-2570        assert_eq!(
-2571            FrameType::try_from(FrameType::Datagram(DatagramInfo(0x30)).to_u64()),
-2572            Ok(FrameType::Datagram(DatagramInfo(0x30))),
-2573        );
-2574
-2575        assert_eq!(
-2576            FrameType::try_from(FrameType::Stream(StreamInfo(0x08)).to_u64()),
-2577            Ok(FrameType::Stream(StreamInfo(0x08))),
-2578        );
-2579    }
+2563#[cfg(test)]
+2564mod test {
+2565    use super::*;
+2566    use crate::coding::Encodable;
+2567    use assert_matches::assert_matches;
+2568
+2569    #[test]
+2570    fn frame_type() {
+2571        assert_eq!(
+2572            FrameType::try_from(FrameType::Padding.to_u64()),
+2573            Ok(FrameType::Padding),
+2574        );
+2575
+2576        assert_eq!(
+2577            FrameType::try_from(FrameType::Datagram(DatagramInfo(0x30)).to_u64()),
+2578            Ok(FrameType::Datagram(DatagramInfo(0x30))),
+2579        );
 2580
-2581    #[track_caller]
-2582    fn frames(buf: Vec<u8>) -> Vec<Frame> {
-2583        Iter::new(Bytes::from(buf))
-2584            .unwrap()
-2585            .collect::<Result<Vec<_>, _>>()
-2586            .unwrap()
-2587    }
-2588
-2589    #[test]
-2590    fn ack_coding() {
-2591        const PACKETS: &[u64] = &[1, 2, 3, 5, 10, 11, 14];
-2592        let mut ranges = ArrayRangeSet::new();
-2593        for &packet in PACKETS {
-2594            ranges.insert(packet..packet + 1);
-2595        }
-2596        let mut buf = Vec::new();
-2597        const ECN: EcnCounts = EcnCounts {
-2598            ect0: 42,
-2599            ect1: 24,
-2600            ce: 12,
-2601        };
-2602        Ack::encoder(42, &ranges, Some(&ECN)).encode(&mut buf);
-2603        let frames = frames(buf);
-2604        assert_eq!(frames.len(), 1);
-2605        match frames[0] {
-2606            Frame::Ack(ref ack) => {
-2607                let mut packets = ack.iter().flatten().collect::<Vec<_>>();
-2608                packets.sort_unstable();
-2609                assert_eq!(&packets[..], PACKETS);
-2610                assert_eq!(ack.ecn, Some(ECN));
-2611            }
-2612            ref x => panic!("incorrect frame {x:?}"),
-2613        }
-2614    }
-2615
-2616    #[test]
-2617    #[allow(clippy::range_plus_one)]
-2618    fn path_ack_coding_with_ecn() {
-2619        const PACKETS: &[u64] = &[1, 2, 3, 5, 10, 11, 14];
-2620        let mut ranges = ArrayRangeSet::new();
-2621        for &packet in PACKETS {
-2622            ranges.insert(packet..packet + 1);
-2623        }
-2624        let mut buf = Vec::new();
-2625        const ECN: EcnCounts = EcnCounts {
-2626            ect0: 42,
-2627            ect1: 24,
-2628            ce: 12,
-2629        };
-2630        const PATH_ID: PathId = PathId::MAX;
-2631        PathAck::encoder(PATH_ID, 42, &ranges, Some(&ECN)).encode(&mut buf);
-2632        let frames = frames(buf);
-2633        assert_eq!(frames.len(), 1);
-2634        match frames[0] {
-2635            Frame::PathAck(ref ack) => {
-2636                assert_eq!(ack.path_id, PATH_ID);
-2637                let mut packets = ack.ranges.iter().flatten().collect::<Vec<_>>();
-2638                packets.sort_unstable();
-2639                assert_eq!(&packets[..], PACKETS);
-2640                assert_eq!(ack.ecn, Some(ECN));
-2641            }
-2642            ref x => panic!("incorrect frame {x:?}"),
-2643        }
-2644    }
-2645
-2646    #[test]
-2647    #[allow(clippy::range_plus_one)]
-2648    fn path_ack_coding_no_ecn() {
-2649        const PACKETS: &[u64] = &[1, 2, 3, 5, 10, 11, 14];
-2650        let mut ranges = ArrayRangeSet::new();
-2651        for &packet in PACKETS {
-2652            ranges.insert(packet..packet + 1);
-2653        }
-2654        let mut buf = Vec::new();
-2655        const PATH_ID: PathId = PathId::MAX;
-2656        PathAck::encoder(PATH_ID, 42, &ranges, None).encode(&mut buf);
-2657        let frames = frames(buf);
-2658        assert_eq!(frames.len(), 1);
-2659        match frames[0] {
-2660            Frame::PathAck(ref ack) => {
-2661                assert_eq!(ack.path_id, PATH_ID);
-2662                let mut packets = ack.ranges.iter().flatten().collect::<Vec<_>>();
-2663                packets.sort_unstable();
-2664                assert_eq!(&packets[..], PACKETS);
-2665                assert_eq!(ack.ecn, None);
-2666            }
-2667            ref x => panic!("incorrect frame {x:?}"),
-2668        }
-2669    }
-2670
-2671    #[test]
-2672    fn ack_frequency_coding() {
-2673        let mut buf = Vec::new();
-2674        let original = AckFrequency {
-2675            sequence: VarInt(42),
-2676            ack_eliciting_threshold: VarInt(20),
-2677            request_max_ack_delay: VarInt(50_000),
-2678            reordering_threshold: VarInt(1),
-2679        };
-2680        original.encode(&mut buf);
-2681        let frames = frames(buf);
-2682        assert_eq!(frames.len(), 1);
-2683        match &frames[0] {
-2684            Frame::AckFrequency(decoded) => assert_eq!(decoded, &original),
-2685            x => panic!("incorrect frame {x:?}"),
-2686        }
-2687    }
-2688
-2689    #[test]
-2690    fn immediate_ack_coding() {
-2691        let mut buf = Vec::new();
-2692        FrameType::ImmediateAck.encode(&mut buf);
-2693        let frames = frames(buf);
-2694        assert_eq!(frames.len(), 1);
-2695        assert_matches!(&frames[0], Frame::ImmediateAck);
-2696    }
-2697
-2698    /// Test that encoding and decoding [`ObservedAddr`] produces the same result.
-2699    #[test]
-2700    fn test_observed_addr_roundrip() {
-2701        let observed_addr = ObservedAddr {
-2702            seq_no: VarInt(42),
-2703            ip: std::net::Ipv4Addr::LOCALHOST.into(),
-2704            port: 4242,
-2705        };
-2706        let mut buf = Vec::with_capacity(observed_addr.size());
-2707        observed_addr.encode(&mut buf);
-2708
-2709        assert_eq!(
-2710            observed_addr.size(),
-2711            buf.len(),
-2712            "expected written bytes and actual size differ"
-2713        );
+2581        assert_eq!(
+2582            FrameType::try_from(FrameType::Stream(StreamInfo(0x08)).to_u64()),
+2583            Ok(FrameType::Stream(StreamInfo(0x08))),
+2584        );
+2585    }
+2586
+2587    #[track_caller]
+2588    fn frames(buf: Vec<u8>) -> Vec<Frame> {
+2589        Iter::new(Bytes::from(buf))
+2590            .unwrap()
+2591            .collect::<Result<Vec<_>, _>>()
+2592            .unwrap()
+2593    }
+2594
+2595    #[test]
+2596    fn ack_coding() {
+2597        const PACKETS: &[u64] = &[1, 2, 3, 5, 10, 11, 14];
+2598        let mut ranges = ArrayRangeSet::new();
+2599        for &packet in PACKETS {
+2600            ranges.insert(packet..packet + 1);
+2601        }
+2602        let mut buf = Vec::new();
+2603        const ECN: EcnCounts = EcnCounts {
+2604            ect0: 42,
+2605            ect1: 24,
+2606            ce: 12,
+2607        };
+2608        Ack::encoder(42, &ranges, Some(&ECN)).encode(&mut buf);
+2609        let frames = frames(buf);
+2610        assert_eq!(frames.len(), 1);
+2611        match frames[0] {
+2612            Frame::Ack(ref ack) => {
+2613                let mut packets = ack.iter().flatten().collect::<Vec<_>>();
+2614                packets.sort_unstable();
+2615                assert_eq!(&packets[..], PACKETS);
+2616                assert_eq!(ack.ecn, Some(ECN));
+2617            }
+2618            ref x => panic!("incorrect frame {x:?}"),
+2619        }
+2620    }
+2621
+2622    #[test]
+2623    #[allow(clippy::range_plus_one)]
+2624    fn path_ack_coding_with_ecn() {
+2625        const PACKETS: &[u64] = &[1, 2, 3, 5, 10, 11, 14];
+2626        let mut ranges = ArrayRangeSet::new();
+2627        for &packet in PACKETS {
+2628            ranges.insert(packet..packet + 1);
+2629        }
+2630        let mut buf = Vec::new();
+2631        const ECN: EcnCounts = EcnCounts {
+2632            ect0: 42,
+2633            ect1: 24,
+2634            ce: 12,
+2635        };
+2636        const PATH_ID: PathId = PathId::MAX;
+2637        PathAck::encoder(PATH_ID, 42, &ranges, Some(&ECN)).encode(&mut buf);
+2638        let frames = frames(buf);
+2639        assert_eq!(frames.len(), 1);
+2640        match frames[0] {
+2641            Frame::PathAck(ref ack) => {
+2642                assert_eq!(ack.path_id, PATH_ID);
+2643                let mut packets = ack.ranges.iter().flatten().collect::<Vec<_>>();
+2644                packets.sort_unstable();
+2645                assert_eq!(&packets[..], PACKETS);
+2646                assert_eq!(ack.ecn, Some(ECN));
+2647            }
+2648            ref x => panic!("incorrect frame {x:?}"),
+2649        }
+2650    }
+2651
+2652    #[test]
+2653    #[allow(clippy::range_plus_one)]
+2654    fn path_ack_coding_no_ecn() {
+2655        const PACKETS: &[u64] = &[1, 2, 3, 5, 10, 11, 14];
+2656        let mut ranges = ArrayRangeSet::new();
+2657        for &packet in PACKETS {
+2658            ranges.insert(packet..packet + 1);
+2659        }
+2660        let mut buf = Vec::new();
+2661        const PATH_ID: PathId = PathId::MAX;
+2662        PathAck::encoder(PATH_ID, 42, &ranges, None).encode(&mut buf);
+2663        let frames = frames(buf);
+2664        assert_eq!(frames.len(), 1);
+2665        match frames[0] {
+2666            Frame::PathAck(ref ack) => {
+2667                assert_eq!(ack.path_id, PATH_ID);
+2668                let mut packets = ack.ranges.iter().flatten().collect::<Vec<_>>();
+2669                packets.sort_unstable();
+2670                assert_eq!(&packets[..], PACKETS);
+2671                assert_eq!(ack.ecn, None);
+2672            }
+2673            ref x => panic!("incorrect frame {x:?}"),
+2674        }
+2675    }
+2676
+2677    #[test]
+2678    fn ack_frequency_coding() {
+2679        let mut buf = Vec::new();
+2680        let original = AckFrequency {
+2681            sequence: VarInt(42),
+2682            ack_eliciting_threshold: VarInt(20),
+2683            request_max_ack_delay: VarInt(50_000),
+2684            reordering_threshold: VarInt(1),
+2685        };
+2686        original.encode(&mut buf);
+2687        let frames = frames(buf);
+2688        assert_eq!(frames.len(), 1);
+2689        match &frames[0] {
+2690            Frame::AckFrequency(decoded) => assert_eq!(decoded, &original),
+2691            x => panic!("incorrect frame {x:?}"),
+2692        }
+2693    }
+2694
+2695    #[test]
+2696    fn immediate_ack_coding() {
+2697        let mut buf = Vec::new();
+2698        FrameType::ImmediateAck.encode(&mut buf);
+2699        let frames = frames(buf);
+2700        assert_eq!(frames.len(), 1);
+2701        assert_matches!(&frames[0], Frame::ImmediateAck);
+2702    }
+2703
+2704    /// Test that encoding and decoding [`ObservedAddr`] produces the same result.
+2705    #[test]
+2706    fn test_observed_addr_roundrip() {
+2707        let observed_addr = ObservedAddr {
+2708            seq_no: VarInt(42),
+2709            ip: std::net::Ipv4Addr::LOCALHOST.into(),
+2710            port: 4242,
+2711        };
+2712        let mut buf = Vec::with_capacity(observed_addr.size());
+2713        observed_addr.encode(&mut buf);
 2714
-2715        let mut decoded = frames(buf);
-2716        assert_eq!(decoded.len(), 1);
-2717        match decoded.pop().expect("non empty") {
-2718            Frame::ObservedAddr(decoded) => assert_eq!(decoded, observed_addr),
-2719            x => panic!("incorrect frame {x:?}"),
-2720        }
-2721    }
-2722
-2723    #[test]
-2724    fn test_path_abandon_roundtrip() {
-2725        let abandon = PathAbandon {
-2726            path_id: PathId(42),
-2727            error_code: TransportErrorCode::NO_ERROR,
-2728        };
-2729        let mut buf = Vec::new();
-2730        abandon.encode(&mut buf);
-2731
-2732        let mut decoded = frames(buf);
-2733        assert_eq!(decoded.len(), 1);
-2734        match decoded.pop().expect("non empty") {
-2735            Frame::PathAbandon(decoded) => assert_eq!(decoded, abandon),
-2736            x => panic!("incorrect frame {x:?}"),
-2737        }
-2738    }
-2739
-2740    #[test]
-2741    fn test_path_status_available_roundtrip() {
-2742        let path_status_available = PathStatusAvailable {
-2743            path_id: PathId(42),
-2744            status_seq_no: VarInt(73),
-2745        };
-2746        let mut buf = Vec::new();
-2747        path_status_available.encode(&mut buf);
-2748
-2749        let mut decoded = frames(buf);
-2750        assert_eq!(decoded.len(), 1);
-2751        match decoded.pop().expect("non empty") {
-2752            Frame::PathStatusAvailable(decoded) => assert_eq!(decoded, path_status_available),
-2753            x => panic!("incorrect frame {x:?}"),
-2754        }
-2755    }
-2756
-2757    #[test]
-2758    fn test_path_status_backup_roundtrip() {
-2759        let path_status_backup = PathStatusBackup {
-2760            path_id: PathId(42),
-2761            status_seq_no: VarInt(73),
-2762        };
-2763        let mut buf = Vec::new();
-2764        path_status_backup.encode(&mut buf);
-2765
-2766        let mut decoded = frames(buf);
-2767        assert_eq!(decoded.len(), 1);
-2768        match decoded.pop().expect("non empty") {
-2769            Frame::PathStatusBackup(decoded) => assert_eq!(decoded, path_status_backup),
-2770            x => panic!("incorrect frame {x:?}"),
-2771        }
-2772    }
-2773
-2774    #[test]
-2775    fn test_path_new_connection_id_roundtrip() {
-2776        let cid = NewConnectionId {
-2777            path_id: Some(PathId(22)),
-2778            sequence: 31,
-2779            retire_prior_to: 13,
-2780            id: ConnectionId::new(&[0xAB; 8]),
-2781            reset_token: ResetToken::from([0xCD; crate::RESET_TOKEN_SIZE]),
-2782        };
-2783        let mut buf = Vec::new();
-2784        cid.encode(&mut buf);
-2785
-2786        let mut decoded = frames(buf);
-2787        assert_eq!(decoded.len(), 1);
-2788        match decoded.pop().expect("non empty") {
-2789            Frame::NewConnectionId(decoded) => assert_eq!(decoded, cid),
-2790            x => panic!("incorrect frame {x:?}"),
-2791        }
-2792    }
-2793
-2794    #[test]
-2795    fn test_path_retire_connection_id_roundtrip() {
-2796        let retire_cid = RetireConnectionId {
-2797            path_id: Some(PathId(22)),
-2798            sequence: 31,
-2799        };
-2800        let mut buf = Vec::new();
-2801        retire_cid.encode(&mut buf);
-2802
-2803        let mut decoded = frames(buf);
-2804        assert_eq!(decoded.len(), 1);
-2805        match decoded.pop().expect("non empty") {
-2806            Frame::RetireConnectionId(decoded) => assert_eq!(decoded, retire_cid),
-2807            x => panic!("incorrect frame {x:?}"),
-2808        }
-2809    }
-2810
-2811    #[test]
-2812    fn test_paths_blocked_path_cids_blocked_roundtrip() {
-2813        let mut buf = Vec::new();
-2814
-2815        let frame0 = PathsBlocked(PathId(22));
-2816        frame0.encode(&mut buf);
-2817        let frame1 = PathCidsBlocked {
-2818            path_id: PathId(23),
-2819            next_seq: VarInt(32),
-2820        };
-2821        frame1.encode(&mut buf);
-2822
-2823        let mut decoded = frames(buf);
-2824        assert_eq!(decoded.len(), 2);
-2825        match decoded.pop().expect("non empty") {
-2826            Frame::PathCidsBlocked(decoded) => assert_eq!(decoded, frame1),
-2827            x => panic!("incorrect frame {x:?}"),
-2828        }
-2829        match decoded.pop().expect("non empty") {
-2830            Frame::PathsBlocked(decoded) => assert_eq!(decoded, frame0),
-2831            x => panic!("incorrect frame {x:?}"),
-2832        }
-2833    }
-2834
-2835    /// Test that encoding and decoding [`AddAddress`] produces the same result
-2836    #[test]
-2837    fn test_add_address_roundrip() {
-2838        let add_address = AddAddress {
-2839            seq_no: VarInt(42),
-2840            ip: std::net::Ipv4Addr::LOCALHOST.into(),
-2841            port: 4242,
-2842        };
-2843        let mut buf = Vec::with_capacity(add_address.size());
-2844        add_address.encode(&mut buf);
-2845
-2846        assert_eq!(
-2847            add_address.size(),
-2848            buf.len(),
-2849            "expected written bytes and actual size differ"
-2850        );
+2715        assert_eq!(
+2716            observed_addr.size(),
+2717            buf.len(),
+2718            "expected written bytes and actual size differ"
+2719        );
+2720
+2721        let mut decoded = frames(buf);
+2722        assert_eq!(decoded.len(), 1);
+2723        match decoded.pop().expect("non empty") {
+2724            Frame::ObservedAddr(decoded) => assert_eq!(decoded, observed_addr),
+2725            x => panic!("incorrect frame {x:?}"),
+2726        }
+2727    }
+2728
+2729    #[test]
+2730    fn test_path_abandon_roundtrip() {
+2731        let abandon = PathAbandon {
+2732            path_id: PathId(42),
+2733            error_code: TransportErrorCode::NO_ERROR,
+2734        };
+2735        let mut buf = Vec::new();
+2736        abandon.encode(&mut buf);
+2737
+2738        let mut decoded = frames(buf);
+2739        assert_eq!(decoded.len(), 1);
+2740        match decoded.pop().expect("non empty") {
+2741            Frame::PathAbandon(decoded) => assert_eq!(decoded, abandon),
+2742            x => panic!("incorrect frame {x:?}"),
+2743        }
+2744    }
+2745
+2746    #[test]
+2747    fn test_path_status_available_roundtrip() {
+2748        let path_status_available = PathStatusAvailable {
+2749            path_id: PathId(42),
+2750            status_seq_no: VarInt(73),
+2751        };
+2752        let mut buf = Vec::new();
+2753        path_status_available.encode(&mut buf);
+2754
+2755        let mut decoded = frames(buf);
+2756        assert_eq!(decoded.len(), 1);
+2757        match decoded.pop().expect("non empty") {
+2758            Frame::PathStatusAvailable(decoded) => assert_eq!(decoded, path_status_available),
+2759            x => panic!("incorrect frame {x:?}"),
+2760        }
+2761    }
+2762
+2763    #[test]
+2764    fn test_path_status_backup_roundtrip() {
+2765        let path_status_backup = PathStatusBackup {
+2766            path_id: PathId(42),
+2767            status_seq_no: VarInt(73),
+2768        };
+2769        let mut buf = Vec::new();
+2770        path_status_backup.encode(&mut buf);
+2771
+2772        let mut decoded = frames(buf);
+2773        assert_eq!(decoded.len(), 1);
+2774        match decoded.pop().expect("non empty") {
+2775            Frame::PathStatusBackup(decoded) => assert_eq!(decoded, path_status_backup),
+2776            x => panic!("incorrect frame {x:?}"),
+2777        }
+2778    }
+2779
+2780    #[test]
+2781    fn test_path_new_connection_id_roundtrip() {
+2782        let cid = NewConnectionId {
+2783            path_id: Some(PathId(22)),
+2784            sequence: 31,
+2785            retire_prior_to: 13,
+2786            id: ConnectionId::new(&[0xAB; 8]),
+2787            reset_token: ResetToken::from([0xCD; crate::RESET_TOKEN_SIZE]),
+2788        };
+2789        let mut buf = Vec::new();
+2790        cid.encode(&mut buf);
+2791
+2792        let mut decoded = frames(buf);
+2793        assert_eq!(decoded.len(), 1);
+2794        match decoded.pop().expect("non empty") {
+2795            Frame::NewConnectionId(decoded) => assert_eq!(decoded, cid),
+2796            x => panic!("incorrect frame {x:?}"),
+2797        }
+2798    }
+2799
+2800    #[test]
+2801    fn test_path_retire_connection_id_roundtrip() {
+2802        let retire_cid = RetireConnectionId {
+2803            path_id: Some(PathId(22)),
+2804            sequence: 31,
+2805        };
+2806        let mut buf = Vec::new();
+2807        retire_cid.encode(&mut buf);
+2808
+2809        let mut decoded = frames(buf);
+2810        assert_eq!(decoded.len(), 1);
+2811        match decoded.pop().expect("non empty") {
+2812            Frame::RetireConnectionId(decoded) => assert_eq!(decoded, retire_cid),
+2813            x => panic!("incorrect frame {x:?}"),
+2814        }
+2815    }
+2816
+2817    #[test]
+2818    fn test_paths_blocked_path_cids_blocked_roundtrip() {
+2819        let mut buf = Vec::new();
+2820
+2821        let frame0 = PathsBlocked(PathId(22));
+2822        frame0.encode(&mut buf);
+2823        let frame1 = PathCidsBlocked {
+2824            path_id: PathId(23),
+2825            next_seq: VarInt(32),
+2826        };
+2827        frame1.encode(&mut buf);
+2828
+2829        let mut decoded = frames(buf);
+2830        assert_eq!(decoded.len(), 2);
+2831        match decoded.pop().expect("non empty") {
+2832            Frame::PathCidsBlocked(decoded) => assert_eq!(decoded, frame1),
+2833            x => panic!("incorrect frame {x:?}"),
+2834        }
+2835        match decoded.pop().expect("non empty") {
+2836            Frame::PathsBlocked(decoded) => assert_eq!(decoded, frame0),
+2837            x => panic!("incorrect frame {x:?}"),
+2838        }
+2839    }
+2840
+2841    /// Test that encoding and decoding [`AddAddress`] produces the same result
+2842    #[test]
+2843    fn test_add_address_roundrip() {
+2844        let add_address = AddAddress {
+2845            seq_no: VarInt(42),
+2846            ip: std::net::Ipv4Addr::LOCALHOST.into(),
+2847            port: 4242,
+2848        };
+2849        let mut buf = Vec::with_capacity(add_address.size());
+2850        add_address.encode(&mut buf);
 2851
-2852        let mut decoded = frames(buf);
-2853        assert_eq!(decoded.len(), 1);
-2854        match decoded.pop().expect("non empty") {
-2855            Frame::AddAddress(decoded) => assert_eq!(decoded, add_address),
-2856            x => panic!("incorrect frame {x:?}"),
-2857        }
-2858    }
-2859
-2860    /// Test that encoding and decoding [`AddAddress`] produces the same result
-2861    #[test]
-2862    fn test_reach_out_roundrip() {
-2863        let reach_out = ReachOut {
-2864            round: VarInt(42),
-2865            ip: std::net::Ipv6Addr::LOCALHOST.into(),
-2866            port: 4242,
-2867        };
-2868        let mut buf = Vec::with_capacity(reach_out.size());
-2869        reach_out.encode(&mut buf);
-2870
-2871        assert_eq!(
-2872            reach_out.size(),
-2873            buf.len(),
-2874            "expected written bytes and actual size differ"
-2875        );
+2852        assert_eq!(
+2853            add_address.size(),
+2854            buf.len(),
+2855            "expected written bytes and actual size differ"
+2856        );
+2857
+2858        let mut decoded = frames(buf);
+2859        assert_eq!(decoded.len(), 1);
+2860        match decoded.pop().expect("non empty") {
+2861            Frame::AddAddress(decoded) => assert_eq!(decoded, add_address),
+2862            x => panic!("incorrect frame {x:?}"),
+2863        }
+2864    }
+2865
+2866    /// Test that encoding and decoding [`AddAddress`] produces the same result
+2867    #[test]
+2868    fn test_reach_out_roundrip() {
+2869        let reach_out = ReachOut {
+2870            round: VarInt(42),
+2871            ip: std::net::Ipv6Addr::LOCALHOST.into(),
+2872            port: 4242,
+2873        };
+2874        let mut buf = Vec::with_capacity(reach_out.size());
+2875        reach_out.encode(&mut buf);
 2876
-2877        let mut decoded = frames(buf);
-2878        assert_eq!(decoded.len(), 1);
-2879        match decoded.pop().expect("non empty") {
-2880            Frame::ReachOut(decoded) => assert_eq!(decoded, reach_out),
-2881            x => panic!("incorrect frame {x:?}"),
-2882        }
-2883    }
-2884
-2885    /// Test that encoding and decoding [`RemoveAddress`] produces the same result
-2886    #[test]
-2887    fn test_remove_address_roundrip() {
-2888        let remove_addr = RemoveAddress::new(VarInt(10));
-2889        let mut buf = Vec::with_capacity(remove_addr.size());
-2890        remove_addr.encode(&mut buf);
-2891
-2892        assert_eq!(
-2893            remove_addr.size(),
-2894            buf.len(),
-2895            "expected written bytes and actual size differ"
-2896        );
+2877        assert_eq!(
+2878            reach_out.size(),
+2879            buf.len(),
+2880            "expected written bytes and actual size differ"
+2881        );
+2882
+2883        let mut decoded = frames(buf);
+2884        assert_eq!(decoded.len(), 1);
+2885        match decoded.pop().expect("non empty") {
+2886            Frame::ReachOut(decoded) => assert_eq!(decoded, reach_out),
+2887            x => panic!("incorrect frame {x:?}"),
+2888        }
+2889    }
+2890
+2891    /// Test that encoding and decoding [`RemoveAddress`] produces the same result
+2892    #[test]
+2893    fn test_remove_address_roundrip() {
+2894        let remove_addr = RemoveAddress::new(VarInt(10));
+2895        let mut buf = Vec::with_capacity(remove_addr.size());
+2896        remove_addr.encode(&mut buf);
 2897
-2898        let mut decoded = frames(buf);
-2899        assert_eq!(decoded.len(), 1);
-2900        match decoded.pop().expect("non empty") {
-2901            Frame::RemoveAddress(decoded) => assert_eq!(decoded, remove_addr),
-2902            x => panic!("incorrect frame {x:?}"),
-2903        }
-2904    }
-2905}
\ No newline at end of file +2898 assert_eq!( +2899 remove_addr.size(), +2900 buf.len(), +2901 "expected written bytes and actual size differ" +2902 ); +2903 +2904 let mut decoded = frames(buf); +2905 assert_eq!(decoded.len(), 1); +2906 match decoded.pop().expect("non empty") { +2907 Frame::RemoveAddress(decoded) => assert_eq!(decoded, remove_addr), +2908 x => panic!("incorrect frame {x:?}"), +2909 } +2910 } +2911} \ No newline at end of file diff --git a/pr/340/docs/src/iroh_quinn_proto/range_set/array_range_set.rs.html b/pr/340/docs/src/iroh_quinn_proto/range_set/array_range_set.rs.html index d58c407d1..a8ccd40d8 100644 --- a/pr/340/docs/src/iroh_quinn_proto/range_set/array_range_set.rs.html +++ b/pr/340/docs/src/iroh_quinn_proto/range_set/array_range_set.rs.html @@ -236,7 +236,7 @@ 236 use proptest::prelude::*; 237 // Generate 1-8 ranges. Each range is defined by a gap from the previous and a size. 238 // We use small values to keep encoding reasonable. -239 prop::collection::vec((1u64..100, 1u64..50), 1..=8) +239 prop::collection::vec((1u64..100, 1u64..50), 0..8) 240 .prop_map(|gaps_and_sizes| { 241 let mut ranges = Self::new(); 242 let mut pos = 0u64;