Struct Ref 

pub struct Ref<Inner>(pub Inner);

Tuple Fields

0: Inner

Trait Implementations

impl<Inner, T> ByteLen<&T> for Ref<Inner>

where T: DeepView + ?Sized, Inner: ByteLen<T>,

open spec fn exec_inv(&self) -> bool

{ self.0.exec_inv() }

exec fn length(&self, v: &&T) -> usize

impl<Inner: Clone> Clone for Ref<Inner>

exec fn clone(&self) -> cloned : Self

ensures

call_ensures(Inner::clone, (&self.0,), cloned.0),

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl<Inner: Consistency> Consistency for Ref<Inner>

open spec fn consistent(&self, v: Self::Val) -> bool

{ self.0.consistent(v) }

type Val = <Inner as Consistency>::Val

The type of values whose consistency is being checked.

impl<Inner, T> DerOrd<&T> for Ref<Inner>

where T: DeepView + ?Sized, Inner: DerOrd<T>,

proof fn lemma_der_serialize_len(&self, value: T::V)

open spec fn der_remaining(&self, value: T::V, state: Inner::State) -> Seq<u8>

{ self.0.der_remaining(value, state) }

open spec fn der_state_valid(&self, value: T::V, state: Inner::State) -> bool

{ self.0.der_state_valid(value, state) }

exec fn der_start(&self, v: &&T) -> state : Inner::State

exec fn der_next(&self, v: &&T, state: &mut Inner::State) -> next : Option<u8>

fn der_leq(&self, left: &T, right: &T) -> bool

impl<Inner: DerState> DerState for Ref<Inner>

type State = <Inner as DerState>::State

impl<Inner: EquivSerializers> EquivSerializers for Ref<Inner>

open spec fn equiv_inv(&self) -> bool

{ self.0.equiv_inv() }

proof fn lemma_serialize_equiv_on_empty(&self, v: Self::SVal)

impl<Inner: EquivSerializersGeneral> EquivSerializersGeneral for Ref<Inner>

open spec fn equiv_general_inv(&self) -> bool

{ self.0.equiv_general_inv() }

proof fn lemma_serialize_equiv(&self, v: Self::SVal, obuf: Seq<u8>)

impl<Inner: GoodSerializer> GoodSerializer for Ref<Inner>

open spec fn serialize_inv(&self) -> bool

{ self.0.serialize_inv() }

proof fn lemma_serialize_len(&self, v: Self::SVal)

impl<Inner: HasAsn1Start> HasAsn1Start for Ref<Inner>

Borrowing adaptation does not change the accepted byte domain.

open spec fn asn1_start(&self) -> Asn1StartDomain

{ self.0.asn1_start() }

proof fn lemma_parse_implies_asn1_start(&self, input: Seq<u8>)

impl<Inner: NoLookAhead> NoLookAhead for Ref<Inner>

open spec fn no_lookahead_inv(&self) -> bool

{ self.0.no_lookahead_inv() }

proof fn lemma_no_lookahead(&self, i1: Seq<u8>, i2: Seq<u8>)

fn corollary_non_extensible(&self, i1: Seq<u8>, i2: Seq<u8>)

impl<Inner: NonMalleable> NonMalleable for Ref<Inner>

open spec fn nonmal_inv(&self) -> bool

{ self.0.nonmal_inv() }

proof fn lemma_parse_non_malleable(&self, buf1: Seq<u8>, buf2: Seq<u8>)

impl<Inner: NonTailFmt> NonTailFmt for Ref<Inner>

open spec fn serialize_dps_inv(&self) -> bool

{ self.0.serialize_dps_inv() }

proof fn lemma_serialize_dps_prepend(&self, v: Self::SValue, obuf: Seq<u8>)

proof fn lemma_serialize_dps_len(&self, v: Self::SValue, obuf: Seq<u8>)

impl<I, Inner> Parser<I> for Ref<Inner>

where I: View<V = Seq<u8>>, Inner: Parser<I>,

open spec fn exec_inv(&self) -> bool

{ self.0.exec_inv() }

exec fn parse(&self, ibuf: &I) -> PResult<Self::PT>

type PT = <Inner as Parser<I>>::PT

Executable value returned by this parser.

impl<Inner, T> Prepare<&T> for Ref<Inner>

where T: DeepView + ?Sized, Inner: Prepare<T>,

open spec fn exec_inv(&self) -> bool

{ self.0.exec_inv() }

exec fn prepare(&self, v: &&T) -> Result<usize, PreSerializeError>

impl<Inner: Productive> Productive for Ref<Inner>

open spec fn productive_inv(&self) -> bool

{ self.0.productive_inv() }

proof fn lemma_productive(&self, ibuf: Seq<u8>)

impl<F> Retaggable for Ref<F>

where F: Retaggable,

Allows references to retaggable formats to pass transparently through IMPLICIT tagging.

Retagging is delegated to the referenced format and the result remains wrapped in Ref.

open spec fn spec_retagged(&self, tag: Tag) -> Self

{ Ref(self.0.spec_retagged(tag)) }

exec fn retagged(&self, tag: Tag) -> Self

impl<Inner: SPRoundTripDps> SPRoundTripDps for Ref<Inner>

open spec fn unambiguous(&self) -> bool

{ self.0.unambiguous() }

proof fn theorem_serialize_dps_parse_roundtrip(&self, v: Self::T, obuf: Seq<u8>)

impl<Inner: SafeParser> SafeParser for Ref<Inner>

open spec fn safe_inv(&self) -> bool

{ self.0.safe_inv() }

proof fn lemma_parse_safe(&self, ibuf: Seq<u8>)

impl<Output, Inner, T> Serializer<Output, &T> for Ref<Inner>

where Output: OutputBuf, T: DeepView + ?Sized, Inner: Serializer<Output, T>,

open spec fn exec_inv(&self) -> bool

{ self.0.exec_inv() }

exec fn serialize_into(&self, v: &&T, obuf: &mut Output)

impl<Inner: SoundParser> SoundParser for Ref<Inner>

open spec fn sound_inv(&self) -> bool

{ self.0.sound_inv() }

proof fn lemma_parse_sound_consumption(&self, ibuf: Seq<u8>)

proof fn lemma_parse_sound_value(&self, ibuf: Seq<u8>)

impl<Inner: SpecByteLen> SpecByteLen for Ref<Inner>

open spec fn byte_len(&self, v: Self::T) -> nat

{ self.0.byte_len(v) }

type T = <Inner as SpecByteLen>::T

The type of values whose byte length is being computed.

impl<Inner: SpecParser> SpecParser for Ref<Inner>

open spec fn spec_parse(&self, ibuf: Seq<u8>) -> Option<(int, Self::PVal)>

{ self.0.spec_parse(ibuf) }

type PVal = <Inner as SpecParser>::PVal

The type of parsed values.

impl<Inner: SpecSerializer> SpecSerializer for Ref<Inner>

open spec fn spec_serialize(&self, v: Self::SVal) -> Seq<u8>

{ self.0.spec_serialize(v) }

type SVal = <Inner as SpecSerializer>::SVal

The type of values to be serialized.

impl<Inner: SpecSerializerDps> SpecSerializerDps for Ref<Inner>

open spec fn spec_serialize_dps(&self, v: Self::SValue, obuf: Seq<u8>) -> Seq<u8>

{ self.0.spec_serialize_dps(v, obuf) }

type SValue = <Inner as SpecSerializerDps>::SValue

The type of values to be serialized.

impl<Inner: Copy> Copy for Ref<Inner>