pub struct VectorTensorPair<'l, const T: Tu, D: VeScalar, S: Stage, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M, const W: PacketMode = { Way8 }> { /* private fields */ }Expand description
Pair of tensors that manages both groups together.
Unified operations apply to both groups simultaneously:
vector_fxp(),vector_logic(),vector_clip(), etc.- Each takes
GroupOperandfor both groups;Noneskips the operation for that group
Common operations (FxpToFp, Narrow, Widen, FpToFxp) apply to both sides simultaneously.
After a binary operation (vector_clip_zip, vector_fxp_zip, etc.), the pair is combined
into a single VectorTensor with Zipped state.
Each group uses VeTensorData with Group state, which prevents:
stash()operations on individual groups- Common operations (fxp_to_fp, split, concat, fp_to_fxp) on individual groups
Implementations§
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_logic(
self,
op: LogicBinaryOpI32,
group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, i32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_logic( self, op: LogicBinaryOpI32, group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, i32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Logic binary operation on both groups simultaneously. Requires Way8 mode.
§Arguments
op- The logic binary operation to applygroup0_operand- Operand for Group 0. Use()to skip, ori32for constantgroup1_operand- Operand for Group 1. Use()to skip, ori32for constant
§Stage Transition
Both groups transition to stage::Logic regardless of whether operands are provided.
Sourcepub fn vector_logic_with_mode(
self,
op: LogicBinaryOpI32,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, i32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_logic_with_mode( self, op: LogicBinaryOpI32, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, i32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Logic binary operation on both groups simultaneously with explicit mode. Requires Way8 mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_logic(
self,
op: LogicBinaryOpF32,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_logic( self, op: LogicBinaryOpF32, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Logic binary operation on both groups simultaneously. Requires Way8 mode.
§Arguments
op- The logic binary operation to applygroup0_operand- Operand for Group 0. Use()to skip, orf32for constantgroup1_operand- Operand for Group 1. Use()to skip, orf32for constant
§Stage Transition
Both groups transition to stage::Logic regardless of whether operands are provided.
Sourcepub fn vector_logic_with_mode(
self,
op: LogicBinaryOpF32,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_logic_with_mode( self, op: LogicBinaryOpF32, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Logic, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Logic binary operation on both groups simultaneously with explicit mode. Requires Way8 mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fxp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fxp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_fxp(
self,
op: FxpBinaryOp,
group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, i32, Fxp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_fxp( self, op: FxpBinaryOp, group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, i32, Fxp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Fixed-point binary operation on both groups simultaneously. Requires Way8 mode.
§Arguments
op- The fixed-point binary operation to applygroup0_operand- Operand for Group 0. Use()to skip, ori32for constantgroup1_operand- Operand for Group 1. Use()to skip, ori32for constant
§Stage Transition
Both groups transition to stage::Fxp regardless of whether operands are provided.
§Example
.vector_fxp(FxpBinaryOp::MulInt, 16384, ()) // Apply to group0 only
.vector_fxp(FxpBinaryOp::MulInt, (), 16384) // Apply to group1 only
.vector_fxp(FxpBinaryOp::MulInt, 16384, 32768) // Apply to bothSourcepub fn vector_fxp_with_mode(
self,
op: FxpBinaryOp,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, i32, Fxp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_fxp_with_mode( self, op: FxpBinaryOp, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, i32, Fxp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Fixed-point binary operation on both groups simultaneously with explicit mode. Requires Way8 mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<FxpToFp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<FxpToFp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_fxp_to_fp(
self,
int_width: u32,
) -> VectorTensorPair<'l, T, f32, FxpToFp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_fxp_to_fp( self, int_width: u32, ) -> VectorTensorPair<'l, T, f32, FxpToFp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Converts i32 to f32 for both groups simultaneously. Requires Way8 mode.
This is a common operation that must be applied to both groups.
Source§impl<'l, const T: Tu, D: VeScalar, S: Stage + CanTransitionTo<Narrow>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, D: VeScalar, S: Stage + CanTransitionTo<Narrow>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_split<SplitTime2: M, Packet2: M>(
self,
) -> VectorTensorPair<'l, T, D, Narrow, Chip, Cluster, Slice, SplitTime2, Packet2, { Way4 }>
pub fn vector_split<SplitTime2: M, Packet2: M>( self, ) -> VectorTensorPair<'l, T, D, Narrow, Chip, Cluster, Slice, SplitTime2, Packet2, { Way4 }>
Narrow layer (split) operation for both groups simultaneously. Requires Way8 mode.
Takes an 8-element packet in each group, splits it into front 4 + back 4.
The factor of 2 goes into SplitTime, output is Way4 with 4-element packets.
Output: SplitTime2 = SplitTime × 2, Packet2 = front 4 of Packet (size 4).
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Sourcepub fn vector_fp_unary(
self,
op: FpUnaryOp,
group0_apply: bool,
group1_apply: bool,
) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_unary( self, op: FpUnaryOp, group0_apply: bool, group1_apply: bool, ) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point unary operation on both groups simultaneously.
§Arguments
op- The floating-point unary operation to applygroup0_apply- Whether to apply to Group 0group1_apply- Whether to apply to Group 1
Sourcepub fn vector_fp_unary_with_mode(
self,
op: FpUnaryOp,
mode: UnaryArgMode,
group0_apply: bool,
group1_apply: bool,
) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_unary_with_mode( self, op: FpUnaryOp, mode: UnaryArgMode, group0_apply: bool, group1_apply: bool, ) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point unary operation on both groups with explicit mode.
Sourcepub fn vector_fp_binary(
self,
op: FpBinaryOp,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_binary( self, op: FpBinaryOp, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point binary operation on both groups simultaneously.
§Arguments
op- The floating-point binary operation to applygroup0_operand- Operand for Group 0. Use()to skipgroup1_operand- Operand for Group 1. Use()to skip
Sourcepub fn vector_fp_binary_with_mode(
self,
op: FpBinaryOp,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_binary_with_mode( self, op: FpBinaryOp, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point binary operation on both groups with explicit mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Sourcepub fn vector_fp_ternary(
self,
op: FpTernaryOp,
group0_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_ternary( self, op: FpTernaryOp, group0_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point ternary operation on both groups simultaneously.
§Arguments
op- The floating-point ternary operation to applygroup0_operand- Operand for Group 0. Use()to skip, or(f32, f32)for constantsgroup1_operand- Operand for Group 1. Use()to skip, or(f32, f32)for constants
§Example
// Apply ternary op only to group0
pair.vector_fp_ternary(op, (2.0f32, 3.0f32), ())
// Apply to both groups with different operands
pair.vector_fp_ternary(op, (2.0f32, 3.0f32), (4.0f32, 5.0f32))
// With stash as operand0 for group0
pair.vector_fp_ternary(op, (Stash, 3.0f32), ())Sourcepub fn vector_fp_ternary_with_mode(
self,
op: FpTernaryOp,
mode: TernaryArgMode,
group0_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_ternary_with_mode( self, op: FpTernaryOp, mode: TernaryArgMode, group0_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupTernaryOperand<Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Fp, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point ternary operation on both groups with explicit mode.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<FpDiv>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<FpDiv>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Sourcepub fn vector_fp_div(
self,
op: FpDivBinaryOp,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, FpDiv, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_div( self, op: FpDivBinaryOp, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, FpDiv, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point division on both groups simultaneously.
§Arguments
op- The fp div binary operation to applygroup0_operand- Operand for Group 0. Use()to skip, orf32for constantgroup1_operand- Operand for Group 1. Use()to skip, orf32for constant
§Stage Transition
Both groups transition to stage::FpDiv regardless of whether operands are provided.
Sourcepub fn vector_fp_div_with_mode(
self,
op: FpDivBinaryOp,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, FpDiv, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
pub fn vector_fp_div_with_mode( self, op: FpDivBinaryOp, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, FpDiv, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Floating-point division on both groups simultaneously with explicit mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Source§impl<'l, const T: Tu, D: VeScalar, S: Stage + CanTransitionTo<Widen>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
impl<'l, const T: Tu, D: VeScalar, S: Stage + CanTransitionTo<Widen>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, { Way4 }>
Sourcepub fn vector_concat<SplitTime2: M, Packet2: M>(
self,
) -> VectorTensorPair<'l, T, D, Widen, Chip, Cluster, Slice, SplitTime2, Packet2, { Way8 }>
pub fn vector_concat<SplitTime2: M, Packet2: M>( self, ) -> VectorTensorPair<'l, T, D, Widen, Chip, Cluster, Slice, SplitTime2, Packet2, { Way8 }>
Widen layer (concat) operation for both groups simultaneously. Requires Way4 mode.
Reverse of split. Takes 4-element packets from 2 consecutive time steps,
merges them into one 8-element packet and transitions to Way8.
SplitTime2 = SplitTime / 2, Packet2 = Packet combined with factor of 2 from Time.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<FpToFxp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<FpToFxp>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_fp_to_fxp(
self,
int_width: u32,
) -> VectorTensorPair<'l, T, i32, FpToFxp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_fp_to_fxp( self, int_width: u32, ) -> VectorTensorPair<'l, T, i32, FpToFxp, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Converts f32 to i32 for both groups simultaneously. Requires Way8 mode.
This is a common operation that must be applied to both groups.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_clip(
self,
op: ClipBinaryOpI32,
group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, i32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_clip( self, op: ClipBinaryOpI32, group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, i32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Clip binary operation on both groups simultaneously. Requires Way8 mode.
§Arguments
op- The clip binary operation to applygroup0_operand- Operand for Group 0. Use()to skip, ori32for constantgroup1_operand- Operand for Group 1. Use()to skip, ori32for constant
§Stage Transition
Both groups transition to stage::Clip regardless of whether operands are provided.
Sourcepub fn vector_clip_with_mode(
self,
op: ClipBinaryOpI32,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, i32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_clip_with_mode( self, op: ClipBinaryOpI32, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<i32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, i32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Clip binary operation on both groups simultaneously with explicit mode. Requires Way8 mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, SplitTime: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Sourcepub fn vector_clip(
self,
op: ClipBinaryOpF32,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_clip( self, op: ClipBinaryOpF32, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Clip binary operation on both groups simultaneously. Requires Way8 mode.
§Arguments
op- The clip binary operation to applygroup0_operand- Operand for Group 0. Use()to skip, orf32for constantgroup1_operand- Operand for Group 1. Use()to skip, orf32for constant
§Stage Transition
Both groups transition to stage::Clip regardless of whether operands are provided.
Sourcepub fn vector_clip_with_mode(
self,
op: ClipBinaryOpF32,
mode: BinaryArgMode,
group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>,
) -> VectorTensorPair<'l, T, f32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
pub fn vector_clip_with_mode( self, op: ClipBinaryOpF32, mode: BinaryArgMode, group0_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, group1_operand: impl IntoGroupOperand<f32, Pair<Chip, Pair<Cluster, Pair<Slice, Pair<SplitTime, Packet>>>>>, ) -> VectorTensorPair<'l, T, f32, Clip, Chip, Cluster, Slice, SplitTime, Packet, { Way8 }>
Clip binary operation on both groups simultaneously with explicit mode. Requires Way8 mode.
In this paired form, BinaryArgMode is interpreted independently inside each group:
0 means that group’s stream and 1 means that group’s operand.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
Sourcepub fn vector_logic_zip(
self,
op: LogicBinaryOpI32,
) -> VectorLogicTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_logic_zip( self, op: LogicBinaryOpI32, ) -> VectorLogicTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary logic operation merging Group 0 and Group 1. Requires Way8 mode.
Result = op(group0, group1), result is placed in Group 1 positions.
Returns VectorTensor with Zipped state (filter/stash not available).
Sourcepub fn vector_logic_zip_with_mode(
self,
op: LogicBinaryOpI32,
mode: BinaryArgMode,
) -> VectorLogicTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_logic_zip_with_mode( self, op: LogicBinaryOpI32, mode: BinaryArgMode, ) -> VectorLogicTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary logic operation merging Group 0 and Group 1 with explicit mode. Requires Way8 mode.
In this zipped form, BinaryArgMode uses the two grouped streams directly:
0 means Group 0 and 1 means Group 1.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Logic>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
Sourcepub fn vector_logic_zip(
self,
op: LogicBinaryOpF32,
) -> VectorLogicTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_logic_zip( self, op: LogicBinaryOpF32, ) -> VectorLogicTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary logic operation merging Group 0 and Group 1. Requires Way8 mode.
Result = op(group0, group1), result is placed in Group 1 positions.
Returns VectorTensor with Zipped state (filter/stash not available).
Sourcepub fn vector_logic_zip_with_mode(
self,
op: LogicBinaryOpF32,
mode: BinaryArgMode,
) -> VectorLogicTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_logic_zip_with_mode( self, op: LogicBinaryOpF32, mode: BinaryArgMode, ) -> VectorLogicTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary logic operation merging Group 0 and Group 1 with explicit mode. Requires Way8 mode.
In this zipped form, BinaryArgMode uses the two grouped streams directly:
0 means Group 0 and 1 means Group 1.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fxp>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fxp>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
Sourcepub fn vector_fxp_zip(
self,
op: FxpBinaryOp,
) -> VectorFxpTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_fxp_zip( self, op: FxpBinaryOp, ) -> VectorFxpTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary fxp operation merging Group 0 and Group 1. Requires Way8 mode.
Result = op(group0, group1), result is placed in Group 1 positions.
Returns VectorTensor with Zipped state (filter/stash not available).
Sourcepub fn vector_fxp_zip_with_mode(
self,
op: FxpBinaryOp,
mode: BinaryArgMode,
) -> VectorFxpTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_fxp_zip_with_mode( self, op: FxpBinaryOp, mode: BinaryArgMode, ) -> VectorFxpTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary fxp operation merging Group 0 and Group 1 with explicit mode. Requires Way8 mode.
In this zipped form, BinaryArgMode uses the two grouped streams directly:
0 means Group 0 and 1 means Group 1.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fp>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, Time, Packet, { Way4 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Fp>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, Time, Packet, { Way4 }>
Sourcepub fn vector_fp_zip(
self,
op: FpBinaryOp,
) -> VectorFpTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way4 }>
pub fn vector_fp_zip( self, op: FpBinaryOp, ) -> VectorFpTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way4 }>
Binary fp operation merging Group 0 and Group 1. Result = op(group0, group1), result is placed in Group 1 positions. Returns VectorTensor with Zipped state (filter/stash not available).
Sourcepub fn vector_fp_zip_with_mode(
self,
op: FpBinaryOp,
mode: BinaryArgMode,
) -> VectorFpTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way4 }>
pub fn vector_fp_zip_with_mode( self, op: FpBinaryOp, mode: BinaryArgMode, ) -> VectorFpTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way4 }>
Binary fp operation merging Group 0 and Group 1 with explicit mode.
In this zipped form, BinaryArgMode uses the two grouped streams directly:
0 means Group 0 and 1 means Group 1.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, i32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
Sourcepub fn vector_clip_zip(
self,
op: ClipBinaryOpI32,
) -> VectorClipTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_clip_zip( self, op: ClipBinaryOpI32, ) -> VectorClipTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary clip operation merging Group 0 and Group 1. Requires Way8 mode.
Result = op(group0, group1), result is placed in Group 1 positions.
Returns VectorTensor with Zipped state (filter/stash not available).
Sourcepub fn vector_clip_zip_with_mode(
self,
op: ClipBinaryOpI32,
mode: BinaryArgMode,
) -> VectorClipTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_clip_zip_with_mode( self, op: ClipBinaryOpI32, mode: BinaryArgMode, ) -> VectorClipTensor<'l, T, i32, Chip, Cluster, Slice, Time, Packet, i32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary clip operation merging Group 0 and Group 1 with explicit mode. Requires Way8 mode.
In this zipped form, BinaryArgMode uses the two grouped streams directly:
0 means Group 0 and 1 means Group 1.
Source§impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
impl<'l, const T: Tu, S: Stage + CanTransitionTo<Clip>, Chip: M, Cluster: M, Slice: M, Time: M, Packet: M> VectorTensorPair<'l, T, f32, S, Chip, Cluster, Slice, Time, Packet, { Way8 }>
Sourcepub fn vector_clip_zip(
self,
op: ClipBinaryOpF32,
) -> VectorClipTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_clip_zip( self, op: ClipBinaryOpF32, ) -> VectorClipTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary clip operation merging Group 0 and Group 1. Requires Way8 mode.
Result = op(group0, group1), result is placed in Group 1 positions.
Returns VectorTensor with Zipped state (filter/stash not available).
Sourcepub fn vector_clip_zip_with_mode(
self,
op: ClipBinaryOpF32,
mode: BinaryArgMode,
) -> VectorClipTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
pub fn vector_clip_zip_with_mode( self, op: ClipBinaryOpF32, mode: BinaryArgMode, ) -> VectorClipTensor<'l, T, f32, Chip, Cluster, Slice, Time, Packet, f32, NoTensor, { VeOrder::IntraFirst }, Zipped, { Way8 }>
Binary clip operation merging Group 0 and Group 1 with explicit mode. Requires Way8 mode.
In this zipped form, BinaryArgMode uses the two grouped streams directly:
0 means Group 0 and 1 means Group 1.
Trait Implementations§
Auto Trait Implementations§
impl<'l, const T: Tu, D, S, Chip, Cluster, Slice, SplitTime, Packet, const W: PacketMode> Freeze for VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, W>
impl<'l, const T: Tu, D, S, Chip, Cluster, Slice, SplitTime, Packet, const W: PacketMode> RefUnwindSafe for VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, W>where
S: RefUnwindSafe,
D: RefUnwindSafe,
Chip: RefUnwindSafe,
Cluster: RefUnwindSafe,
Slice: RefUnwindSafe,
SplitTime: RefUnwindSafe,
Packet: RefUnwindSafe,
impl<'l, const T: Tu, D, S, Chip, Cluster, Slice, SplitTime, Packet, const W: PacketMode> Send for VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, W>
impl<'l, const T: Tu, D, S, Chip, Cluster, Slice, SplitTime, Packet, const W: PacketMode> Sync for VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, W>
impl<'l, const T: Tu, D, S, Chip, Cluster, Slice, SplitTime, Packet, const W: PacketMode> Unpin for VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, W>
impl<'l, const T: Tu, D, S, Chip, Cluster, Slice, SplitTime, Packet, const W: PacketMode = { Way8 }> !UnwindSafe for VectorTensorPair<'l, T, D, S, Chip, Cluster, Slice, SplitTime, Packet, W>
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