sdk

package
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 Go to latest Published: Apr 30, 2024 License: MIT Imports: 41 Imported by: 2

Documentation

Index

Constants

View Source 
const (
	Uint248Type = "Uint248"
	Uint521Type = "Uint521"
	Int248Type  = "Int248"
	Bytes32Type = "Bytes32"
)
View Source 
const NumMaxDataPoints = 512

NumMaxDataPoints is the max amount of data points this circuit can handle at once. This couples tightly to the batch size of the aggregation circuit on Brevis' side

View Source 
const NumMaxLogFields = 4

NumMaxLogFields is the max amount of log fields each Receipt can have. This couples tightly to the decoding capacity of the receipt decoder circuit on Brevis' side

Variables

View Source 
var MaxBytes32 = ConstUint521(common.Hex2Bytes("ffffffffffffffffffffffffffffffffffffffffffffffffffffffffffffffff"))
View Source 
var MaxUint248 = new(big.Int).Sub(new(big.Int).Lsh(big.NewInt(1), 248), big.NewInt(1))

MaxUint248 is the largest safe number for uint248 type

Functions

func AssertEach 

func AssertEach[T CircuitVariable](ds *DataStream[T], assertFunc AssertFunc[T])

AssertEach asserts on each valid element in the data stream

func AssertSorted 

func AssertSorted[T CircuitVariable](ds *DataStream[T], sortFunc SortFunc[T])

AssertSorted Performs the sortFunc on each valid pair of data points and assert the result to be 1.

func Compile 

func Compile(app AppCircuit, compileOutDir, srsDir string) (constraint.ConstraintSystem, plonk.ProvingKey, plonk.VerifyingKey, error)

func CompileOnly 

func CompileOnly(app AppCircuit) (constraint.ConstraintSystem, error)

CompileOnly is like Compile, but it does not automatically save the compilation output

func GetHints 

func GetHints() []solver.Hint

func GetUnderlying 

func GetUnderlying[T CircuitVariable](ds *DataStream[T], index int) T

GetUnderlying gets an element from the DataStream. Performed on the underlying data directly. It also requires the underlying data slot is valid

func GroupValuesHint 

func GroupValuesHint(_ *big.Int, inputs []*big.Int, outputs []*big.Int) error

func MaxGeneric 

func MaxGeneric[T CircuitVariable](ds *DataStream[T], initialMax T, gt SortFunc[T]) T

MaxGeneric finds out the maximum value from the data stream with the user defined sort function. Uses Reduce under the hood. Note if the data stream is empty (all data points are toggled off), this function returns 0.

func MinGeneric 

func MinGeneric[T CircuitVariable](ds *DataStream[T], initialMin T, lt SortFunc[T]) T

MinGeneric finds out the minimum value from the data stream with the user defined sort function. Uses Reduce under the hood. Note if the data stream is empty (all data points are toggled off), this function returns MaxUint248.

func NewFullWitness 

func NewFullWitness(assign AppCircuit, in CircuitInput) (w, wpub witness.Witness, err error)

func Prove 

func Prove(ccs constraint.ConstraintSystem, pk plonk.ProvingKey, w witness.Witness) (plonk.Proof, error)

func QuoRemBigHint 

func QuoRemBigHint(_ *big.Int, in []*big.Int, out []*big.Int) error

func QuoRemHint 

func QuoRemHint(_ *big.Int, in, out []*big.Int) error

func ReadCircuitFrom 

func ReadCircuitFrom(path string) (constraint.ConstraintSystem, error)

func ReadPkFrom 

func ReadPkFrom(path string) (plonk.ProvingKey, error)

func ReadProofFrom 

func ReadProofFrom(path string) (plonk.Proof, error)

func ReadSetupFrom 

func ReadSetupFrom(compileOutDir string) (constraint.ConstraintSystem, plonk.ProvingKey, plonk.VerifyingKey, error)

func ReadVkFrom 

func ReadVkFrom(path string) (plonk.VerifyingKey, error)

func Reduce 

func Reduce[T, R CircuitVariable](ds *DataStream[T], initial R, reducer ReduceFunc[T, R]) R

Reduce reduces the data stream to another CircuitVariable with the given reducer and initial condition

func Select 

func Select[T CircuitVariable](api *CircuitAPI, s Uint248, a, b T) T

func Setup 

func Setup(ccs constraint.ConstraintSystem, cacheDir string) (pk plonk.ProvingKey, vk plonk.VerifyingKey, err error)

func SortHint 

func SortHint(_ *big.Int, in, out []*big.Int) error

SortHint sorts the input in descending order

func SqrtHint 

func SqrtHint(_ *big.Int, in, out []*big.Int) error

func Verify 

func Verify(vk plonk.VerifyingKey, publicWitness witness.Witness, proof plonk.Proof) error

func WriteTo 

func WriteTo(w io.WriterTo, path string) error

Types

type AppCircuit 

type AppCircuit interface {
	Define(api *CircuitAPI, in DataInput) error
	Allocate() (maxReceipts, maxStorage, maxTransactions int)
}

type AssertFunc 

type AssertFunc[T CircuitVariable] func(current T) Uint248

AssertFunc returns 1 if the assertion passes, and 0 otherwise

type BrevisApp 

type BrevisApp struct {
	// contains filtered or unexported fields
}

func NewBrevisApp 

func NewBrevisApp(gatewayUrlOverride ...string) (*BrevisApp, error)

func (*BrevisApp) AddReceipt 

func (q *BrevisApp) AddReceipt(data ReceiptData, index ...int)

AddReceipt adds the ReceiptData to be queried. If an index is specified, the data will be assigned to the specified index of DataInput.Receipts.

func (*BrevisApp) AddStorage 

func (q *BrevisApp) AddStorage(data StorageData, index ...int)

AddStorage adds the StorageData to be queried. If an index is specified, the data will be assigned to the specified index of DataInput.StorageSlots.

func (*BrevisApp) AddTransaction 

func (q *BrevisApp) AddTransaction(data TransactionData, index ...int)

AddTransaction adds the TransactionData to be queried. If an index is specified, the data will be assigned to the specified index of DataInput.Transactions.

func (*BrevisApp) BuildCircuitInput 

func (q *BrevisApp) BuildCircuitInput(app AppCircuit) (CircuitInput, error)

BuildCircuitInput executes all added queries and package the query results into circuit assignment (the DataInput struct) The provided ctx is used when performing network calls to the provided blockchain RPC.

func (*BrevisApp) PrepareRequest 

func (q *BrevisApp) PrepareRequest(
	vk plonk.VerifyingKey,
	srcChainId, dstChainId uint64,
	refundee, appContract common.Address,
) (calldata []byte, requestId common.Hash, feeValue *big.Int, err error)

func (*BrevisApp) SubmitProof 

func (q *BrevisApp) SubmitProof(proof plonk.Proof, options ...SubmitProofOption) error

func (*BrevisApp) SubmitProofWithQueryId 

func (q *BrevisApp) SubmitProofWithQueryId(queryId string, dstChainId uint64, proof []byte) error

func (*BrevisApp) WaitFinalProofSubmitted 

func (q *BrevisApp) WaitFinalProofSubmitted(ctx context.Context) (tx common.Hash, err error)

type Bytes32 

type Bytes32 struct {
	Val [2]frontend.Variable
}

Bytes32 is an in-circuit representation of the solidity bytes32 type.

func ConstBytes32 

func ConstBytes32(data []byte) Bytes32

ConstBytes32 initializes a constant Bytes32 circuit variable. Panics if the length of the supplied data bytes is larger than 32.

func (Bytes32) FromValues 

func (v Bytes32) FromValues(vs ...frontend.Variable) CircuitVariable

func (Bytes32) NumVars 

func (v Bytes32) NumVars() uint32

func (Bytes32) String 

func (v Bytes32) String() string

func (Bytes32) Values 

func (v Bytes32) Values() []frontend.Variable

type Bytes32API 

type Bytes32API struct {
	// contains filtered or unexported fields
}

func (*Bytes32API) AssertIsDifferent 

func (api *Bytes32API) AssertIsDifferent(a, b Bytes32)

AssertIsDifferent asserts a != b

func (*Bytes32API) AssertIsEqual 

func (api *Bytes32API) AssertIsEqual(a, b Bytes32)

AssertIsEqual asserts a == b

func (*Bytes32API) FromBinary 

func (api *Bytes32API) FromBinary(vs ...Uint248) Bytes32

FromBinary interprets the input vs as a list of little-endian binary digits and recomposes it to a Bytes32. Input size can be less than 256 bits, the input is padded on the MSB end with 0s.

func (*Bytes32API) IsEqual 

func (api *Bytes32API) IsEqual(a, b Bytes32) Uint248

IsEqual returns 1 if a == b, and 0 otherwise

func (*Bytes32API) IsZero 

func (api *Bytes32API) IsZero(a Bytes32) Uint248

IsZero returns 1 if a == 0, and 0 otherwise

func (*Bytes32API) Select 

func (api *Bytes32API) Select(s Uint248, a, b Bytes32) Bytes32

Select returns a if s == 1, and b if s == 0

func (*Bytes32API) ToBinary 

func (api *Bytes32API) ToBinary(v Bytes32) List[Uint248]

ToBinary decomposes the input v to a list (size 256) of little-endian binary digits

type CircuitAPI 

type CircuitAPI struct {
	Uint248 *Uint248API
	Uint521 *Uint521API
	Int248  *Int248API
	Bytes32 *Bytes32API
	// contains filtered or unexported fields
}

CircuitAPI contains a set of APIs that can only be used in circuit to perform logical and arithmetic operations over circuit variables. It is an extension of g's frontend.API.

func NewCircuitAPI 

func NewCircuitAPI(gapi frontend.API) *CircuitAPI

func (*CircuitAPI) AssertInputsAreUnique 

func (api *CircuitAPI) AssertInputsAreUnique()

AssertInputsAreUnique Asserts that all input data (Transaction, Receipt, StorageSlot) are different from each other

func (*CircuitAPI) OutputAddress 

func (api *CircuitAPI) OutputAddress(v Uint248)

OutputAddress adds an output of solidity address type.

func (*CircuitAPI) OutputBool 

func (api *CircuitAPI) OutputBool(v Uint248)

OutputBool adds an output of solidity bool type

func (*CircuitAPI) OutputBytes32 

func (api *CircuitAPI) OutputBytes32(v Bytes32)

OutputBytes32 adds an output of solidity bytes32/uint256 type

func (*CircuitAPI) OutputUint 

func (api *CircuitAPI) OutputUint(bitSize int, v Uint248)

OutputUint adds an output of solidity uint_bitSize type where N is in range [8, 248] with a step size 8. e.g. uint8, uint16, ..., uint248. Panics if a bitSize of non-multiple of 8 is used. Panics if the bitSize exceeds 248. For outputting uint256, use OutputBytes32 instead

func (*CircuitAPI) SlotOfArrayElement 

func (api *CircuitAPI) SlotOfArrayElement(arrSlot Bytes32, elementSize int, index, offset Uint248) Bytes32

SlotOfArrayElement computes the storage slot for an element in a solidity array state variable. arrSlot is the plain slot of the array variable. index determines the array index. offset determines the offset (in terms of bytes32) within each array element.

func (*CircuitAPI) SlotOfStructFieldInMapping 

func (api *CircuitAPI) SlotOfStructFieldInMapping(
	slot, offset int, valueSlot Bytes32, nestedMappingSlots ...Bytes32) Bytes32

SlotOfStructFieldInMapping computes the slot for a struct field stored in a solidity mapping. Implements keccak256(h(k) | p) for computing mapping or nested mapping's slot where the value is a struct The mapping slots are of the order which you would access the solidity mapping. For example, to access nested mapping at slot 1 value with m[a][b] and subsequently the 4th index of the struct value, use SlotOfStructFieldInMapping(1, 4, a, b). If your a and b are not of Bytes32 type, cast them to Bytes32 first using api.ToBytes32.

https://docs.soliditylang.org/en/v0.8.24/internals/layout_in_storage.html#mappings-and-dynamic-arrays

func (*CircuitAPI) ToBytes32 

func (api *CircuitAPI) ToBytes32(i interface{}) Bytes32

ToBytes32 casts the input to a Bytes32 type. Supports Bytes32, Int248, Uint521, and Uint248.

func (*CircuitAPI) ToInt248 

func (api *CircuitAPI) ToInt248(i interface{}) Int248

ToInt248 casts the input to a Int248 type. Supports Int248, Uint248, and Bytes32

func (*CircuitAPI) ToUint248 

func (api *CircuitAPI) ToUint248(i interface{}) Uint248

ToUint248 casts the input to a Uint248 type. Supports Uint248, Int248, Bytes32, and Uint521

func (*CircuitAPI) ToUint521 

func (api *CircuitAPI) ToUint521(i interface{}) Uint521

ToUint521 casts the input to a Uint521 type. Supports Uint521, Bytes32, and Uint248

type CircuitInput 

type CircuitInput struct {
	DataInput

	// InputCommitments is a list of hash commitment to each value of Raw. These
	// commitments must match sub-prover circuit's commitment to its rlp decoded
	// values
	InputCommitments  []frontend.Variable `gnark:",public"`
	TogglesCommitment frontend.Variable   `gnark:",public"`
	// OutputCommitment is a keccak256 commitment to the computation results of the
	// developer's circuit. The output of this commitment is revealed by the
	// developer in their application contract.
	OutputCommitment OutputCommitment `gnark:",public"`
	// contains filtered or unexported fields
}

func (CircuitInput) Clone 

func (in CircuitInput) Clone() CircuitInput

func (CircuitInput) GetAbiPackedOutput 

func (in CircuitInput) GetAbiPackedOutput() []byte

type CircuitVariable 

type CircuitVariable interface {
	Values() []frontend.Variable
	FromValues(vs ...frontend.Variable) CircuitVariable
	NumVars() uint32
	String() string
}

type DataInput 

type DataInput struct {
	Receipts     DataPoints[Receipt]
	StorageSlots DataPoints[StorageSlot]
	Transactions DataPoints[Transaction]
}

func (DataInput) Toggles 

func (d DataInput) Toggles() []frontend.Variable

type DataPoints 

type DataPoints[T any] struct {
	// Raw is the structured input data (receipts, txs, and slots).
	Raw []T
	// Toggles is a bitmap that toggles the effectiveness of each position of Raw.
	// len(Toggles) must equal len(Raw)
	Toggles []frontend.Variable
}

func NewDataPoints 

func NewDataPoints[T any](maxCount int, newEmpty func() T) DataPoints[T]

func (DataPoints[T]) Clone 

func (dp DataPoints[T]) Clone() DataPoints[T]

type DataStream 

type DataStream[T CircuitVariable] struct {
	// contains filtered or unexported fields
}

func Filter 

func Filter[T CircuitVariable](ds *DataStream[T], predicate FilterFunc[T]) *DataStream[T]

Filter filters the data stream with the given predicate

func GroupBy 

func GroupBy[T, R CircuitVariable](
	ds *DataStream[T],
	reducer ReduceFunc[T, R],
	reducerInit R,
	field GetValueFunc[T],
	maxUniqueGroupValuesOptional ...int,
) (*DataStream[R], error)

GroupBy a given field (identified through the field func), call reducer on each group, and returns a data stream in which each element is an aggregation result of the group. The optional param maxUniqueGroupValuesOptional can be supplied to optimize performance. It assumes the worst case (all values in the data stream are unique) if no maxUniqueGroupValuesOptional is configured.

func Map 

func Map[T, R CircuitVariable](ds *DataStream[T], mapFunc MapFunc[T, R]) *DataStream[R]

Map maps each valid element in the data stream by calling the user defined mapFunc

func NewDataStream 

func NewDataStream[T CircuitVariable](api *CircuitAPI, in DataPoints[T]) *DataStream[T]

func RangeUnderlying 

func RangeUnderlying[T CircuitVariable](ds *DataStream[T], start, end int) *DataStream[T]

RangeUnderlying selects a range of the data stream. Performed on the underlying data directly.

func WindowUnderlying 

func WindowUnderlying[T CircuitVariable](ds *DataStream[T], size int, step ...int) *DataStream[List[T]]

WindowUnderlying splits a DataStream into many equal sized List. Performed on the underlying data directly. Panics if `size` does not divide the length of the underlying list. Use Range to cut the list length into a multiple of `size` first

func ZipMap2 

func ZipMap2[T0, T1, R CircuitVariable](
	a *DataStream[T0], b List[T1],
	zipFunc ZipMap2Func[T0, T1, R],
) *DataStream[R]

ZipMap2 zips a data stream with a list and apply the map function over the zipped data. The underlying toggles of the result data stream depends on the toggles from the source data stream. Panics if the underlying data lengths mismatch Example: ZipMap2([1,2,3], [4,5,6], mySumFunc) -> [5,7,9]

func ZipMap3 

func ZipMap3[T0, T1, T2, R CircuitVariable](
	a *DataStream[T0], b List[T1], c List[T2],
	zipFunc ZipMap3Func[T0, T1, T2, R],
) *DataStream[R]

ZipMap3 zips a data stream with two other lists and apply the map function over the zipped data. The underlying toggles of the result data stream depends on the toggles from the source data stream. Example: ZipMap3([1,2,3], [4,5,6], [7,8,9], mySumFunc) -> [12,15,18]

func (*DataStream[T]) Show 

func (ds *DataStream[T]) Show()

Show pretty prints the data stream. Useful for debugging.

type FilterFunc 

type FilterFunc[T CircuitVariable] func(current T) Uint248

FilterFunc must return 1/0 to include/exclude `current` in the filter result

type GatewayClient 

type GatewayClient struct {
	// contains filtered or unexported fields
}

func NewGatewayClient 

func NewGatewayClient(url ...string) (*GatewayClient, error)

func (*GatewayClient) GetQueryStatus 

func (c *GatewayClient) GetQueryStatus(req *gwproto.GetQueryStatusRequest) (resp *gwproto.GetQueryStatusResponse, err error)

func (*GatewayClient) PrepareQuery 

func (c *GatewayClient) PrepareQuery(req *gwproto.PrepareQueryRequest) (resp *gwproto.PrepareQueryResponse, err error)

func (*GatewayClient) SubmitProof 

func (c *GatewayClient) SubmitProof(req *gwproto.SubmitAppCircuitProofRequest) (resp *gwproto.SubmitAppCircuitProofResponse, err error)

type GetValueFunc 

type GetValueFunc[T any] func(current T) Uint248

type HostCircuit 

type HostCircuit struct {
	Input CircuitInput
	Guest AppCircuit
	// contains filtered or unexported fields
}

func DefaultHostCircuit 

func DefaultHostCircuit(app AppCircuit) *HostCircuit

func NewHostCircuit 

func NewHostCircuit(in CircuitInput, guest AppCircuit) *HostCircuit

func (*HostCircuit) Define 

func (c *HostCircuit) Define(gapi frontend.API) error

type Int248 

type Int248 struct {
	// Val encodes the entire int248 including the sign bit as a uint
	Val frontend.Variable
	// SignBit caches the sign bit signal. 0 if positive, 1 if negative. It could be
	// uninitialized.
	SignBit frontend.Variable
	// contains filtered or unexported fields
}

func ConstInt248 

func ConstInt248(v *big.Int) Int248

ConstInt248 initializes a constant Int248. This function does not generate circuit wires and should only be used outside of circuit. The input big int can be negative

func (Int248) FromValues 

func (v Int248) FromValues(vs ...frontend.Variable) CircuitVariable

func (Int248) NumVars 

func (v Int248) NumVars() uint32

func (Int248) String 

func (v Int248) String() string

func (Int248) Values 

func (v Int248) Values() []frontend.Variable

type Int248API 

type Int248API struct {
	// contains filtered or unexported fields
}

func (*Int248API) ABS 

func (api *Int248API) ABS(a Int248) Uint248

ABS returns the absolute value of a

func (*Int248API) AssertIsDifferent 

func (api *Int248API) AssertIsDifferent(a, b Int248)

AssertIsDifferent asserts a != b

func (*Int248API) AssertIsEqual 

func (api *Int248API) AssertIsEqual(a, b Int248)

AssertIsEqual asserts a == b

func (*Int248API) FromBinary 

func (api *Int248API) FromBinary(vs ...Uint248) Int248

FromBinary interprets the input vs as a list of little-endian binary digits and recomposes it to an Int248. The MSB (most significant bit) of the input is interpreted as the sign bit

func (*Int248API) IsEqual 

func (api *Int248API) IsEqual(a, b Int248) Uint248

IsEqual returns 1 if a == b, and 0 otherwise

func (*Int248API) IsGreaterThan 

func (api *Int248API) IsGreaterThan(a, b Int248) Uint248

IsGreaterThan returns 1 if a > b, and 0 otherwise

func (*Int248API) IsLessThan 

func (api *Int248API) IsLessThan(a, b Int248) Uint248

IsLessThan returns 1 if a < b, and 0 otherwise

func (*Int248API) IsZero 

func (api *Int248API) IsZero(a Int248) Uint248

IsZero returns 1 if a == 0, and 0 otherwise

func (*Int248API) Select 

func (api *Int248API) Select(s Uint248, a, b Int248) Int248

Select returns a if s == 1, and b if s == 0

func (*Int248API) ToBinary 

func (api *Int248API) ToBinary(v Int248) List[Uint248]

ToBinary decomposes the input v to a list (size n) of little-endian binary digits

type List 

type List[T CircuitVariable] []T

func (List[T]) FromValues 

func (l List[T]) FromValues(vs ...frontend.Variable) CircuitVariable

func (List[T]) NumVars 

func (l List[T]) NumVars() uint32

func (List[T]) String 

func (l List[T]) String() string

func (List[T]) Values 

func (l List[T]) Values() []frontend.Variable

type LogField 

type LogField struct {
	// The contract from which the event is emitted
	Contract Uint248
	// The event ID of the event to which the field belong (aka topics[0])
	EventID Uint248
	// Whether the field is a topic (aka "indexed" as in solidity events)
	IsTopic Uint248
	// The index of the field. For example, if a field is the second topic of a log, then Index is 1; if a field is the
	// third field in the RLP decoded data, then Index is 2.
	Index Uint248
	// The value of the field in event, aka the actual thing we care about, only 32-byte fixed length values are supported.
	Value Bytes32
}

LogField represents a single field of an event.

func (LogField) FromValues 

func (f LogField) FromValues(vs ...frontend.Variable) CircuitVariable

func (LogField) NumVars 

func (f LogField) NumVars() uint32

func (LogField) String 

func (f LogField) String() string

func (LogField) Values 

func (f LogField) Values() []frontend.Variable

type LogFieldData 

type LogFieldData struct {
	// The contract from which the event is emitted
	Contract common.Address `json:"contract,omitempty"`
	// the index of the log in the receipt
	LogIndex uint `json:"log_index,omitempty"`
	// The event ID of the event to which the field belong (aka topics[0])
	EventID common.Hash `json:"event_id,omitempty"`
	// Whether the field is a topic (aka "indexed" as in solidity events)
	IsTopic bool `json:"is_topic,omitempty"`
	// The index of the field in either a log's topics or data. For example, if a
	// field is the second topic of a log, then FieldIndex is 1; if a field is the
	// third field in the RLP decoded data, then FieldIndex is 2.
	FieldIndex uint `json:"field_index,omitempty"`
	// The value of the field in event, aka the actual thing we care about, only
	// 32-byte fixed length values are supported.
	Value common.Hash `json:"value,omitempty"`
}

LogFieldData represents a single field of an event.

type MapFunc 

type MapFunc[T, R CircuitVariable] func(current T) R

type OutputCommitment 

type OutputCommitment [2]frontend.Variable

OutputCommitment represents the value of a keccak256 hash H in the form of {H[:16], H[16:]}

func (OutputCommitment) Hash 

func (c OutputCommitment) Hash() common.Hash

Hash returns the go hash representation of the commitment

type Receipt 

type Receipt struct {
	BlockNum Uint248
	Fields   [NumMaxLogFields]LogField
}

Receipt is a collection of LogField.

func (Receipt) FromValues 

func (r Receipt) FromValues(vs ...frontend.Variable) CircuitVariable

func (Receipt) NumVars 

func (r Receipt) NumVars() uint32

func (Receipt) String 

func (r Receipt) String() string

func (Receipt) Values 

func (r Receipt) Values() []frontend.Variable

type ReceiptData 

type ReceiptData struct {
	BlockNum *big.Int                      `json:"block_num,omitempty"`
	TxHash   common.Hash                   `json:"tx_hash,omitempty"`
	Fields   [NumMaxLogFields]LogFieldData `json:"fields,omitempty"`
}

type ReduceFunc 

type ReduceFunc[T, R CircuitVariable] func(accumulator R, current T) (newAccumulator R)

type SortFunc 

type SortFunc[T CircuitVariable] func(a, b T) Uint248

SortFunc returns 1 if a, b are sorted, 0 if not.

type StorageData 

type StorageData struct {
	BlockNum *big.Int       `json:"block_num,omitempty"`
	Address  common.Address `json:"address,omitempty"`
	Slot     common.Hash    `json:"slot,omitempty"`
	Value    common.Hash    `json:"value,omitempty"`
}

type StorageSlot 

type StorageSlot struct {
	BlockNum Uint248
	// The contract to which the storage slot belong
	Contract Uint248
	// The storage slot
	Slot Bytes32
	// The storage slot value
	Value Bytes32
}

func (StorageSlot) FromValues 

func (s StorageSlot) FromValues(vs ...frontend.Variable) CircuitVariable

func (StorageSlot) NumVars 

func (s StorageSlot) NumVars() uint32

func (StorageSlot) String 

func (s StorageSlot) String() string

func (StorageSlot) Values 

func (s StorageSlot) Values() []frontend.Variable

type SubmitProofOption 

type SubmitProofOption func(option submitProofOptions)

func WithContext 

func WithContext(ctx context.Context) SubmitProofOption

WithContext uses the input context as the context for waiting for final proof submission

func WithFinalProofSubmittedCallback 

func WithFinalProofSubmittedCallback(onSubmitted func(txHash common.Hash), onError func(err error)) SubmitProofOption

WithFinalProofSubmittedCallback sets an async callback for final proof submission result

type Transaction 

type Transaction struct {
	ChainId  Uint248
	BlockNum Uint248
	Nonce    Uint248
	// GasTipCapOrGasPrice is GasPrice for legacy tx (type 0) and GasTipCapOap for
	// dynamic-fee tx (type 2)
	GasTipCapOrGasPrice Uint248
	// GasFeeCap is always 0 for legacy tx
	GasFeeCap Uint248
	GasLimit  Uint248
	From      Uint248
	To        Uint248
	Value     Bytes32
}

func (Transaction) FromValues 

func (t Transaction) FromValues(vs ...frontend.Variable) CircuitVariable

func (Transaction) NumVars 

func (t Transaction) NumVars() uint32

func (Transaction) String 

func (t Transaction) String() string

func (Transaction) Values 

func (t Transaction) Values() []frontend.Variable

type TransactionData 

type TransactionData struct {
	Hash     common.Hash `json:"hash,omitempty"`
	ChainId  *big.Int    `json:"chain_id,omitempty"`
	BlockNum *big.Int    `json:"block_num,omitempty"`
	Nonce    uint64      `json:"nonce,omitempty"`
	// GasTipCapOrGasPrice is GasPrice for legacy tx (type 0) and GasTipCapOap for
	// dynamic-fee tx (type 2)
	GasTipCapOrGasPrice *big.Int `json:"max_priority_fee_per_gas,omitempty"`
	// GasFeeCap is always 0 for legacy tx
	GasFeeCap *big.Int       `json:"gas_price_or_fee_cap,omitempty"`
	GasLimit  uint64         `json:"gas_limit,omitempty"`
	From      common.Address `json:"from,omitempty"`
	To        common.Address `json:"to,omitempty"`
	Value     *big.Int       `json:"value,omitempty"`
}

type Tuple2 

type Tuple2[F0, F1 CircuitVariable] struct {
	F0 F0
	F1 F1
}

func (Tuple2[F0, F1]) FromValues 

func (t Tuple2[F0, F1]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple2[F0, F1]) NumVars 

func (t Tuple2[F0, F1]) NumVars() uint32

func (Tuple2[F0, F1]) String 

func (t Tuple2[F0, F1]) String() string

func (Tuple2[F0, F1]) Values 

func (t Tuple2[F0, F1]) Values() []frontend.Variable

type Tuple3 

type Tuple3[F0, F1, F2 CircuitVariable] struct {
	F0 F0
	F1 F1
	F2 F2
}

func (Tuple3[F0, F1, F2]) FromValues 

func (t Tuple3[F0, F1, F2]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple3[F0, F1, F2]) NumVars 

func (t Tuple3[F0, F1, F2]) NumVars() uint32

func (Tuple3[F0, F1, F2]) String 

func (t Tuple3[F0, F1, F2]) String() string

func (Tuple3[F0, F1, F2]) Values 

func (t Tuple3[F0, F1, F2]) Values() []frontend.Variable

type Tuple4 

type Tuple4[F0, F1, F2, F3 CircuitVariable] struct {
	F0 F0
	F1 F1
	F2 F2
	F3 F3
}

func (Tuple4[F0, F1, F2, F3]) FromValues 

func (t Tuple4[F0, F1, F2, F3]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple4[F0, F1, F2, F3]) NumVars 

func (t Tuple4[F0, F1, F2, F3]) NumVars() uint32

func (Tuple4[F0, F1, F2, F3]) String 

func (t Tuple4[F0, F1, F2, F3]) String() string

func (Tuple4[F0, F1, F2, F3]) Values 

func (t Tuple4[F0, F1, F2, F3]) Values() []frontend.Variable

type Tuple5 

type Tuple5[F0, F1, F2, F3, F4 CircuitVariable] struct {
	F0 F0
	F1 F1
	F2 F2
	F3 F3
	F4 F4
}

func (Tuple5[F0, F1, F2, F3, F4]) FromValues 

func (t Tuple5[F0, F1, F2, F3, F4]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple5[F0, F1, F2, F3, F4]) NumVars 

func (t Tuple5[F0, F1, F2, F3, F4]) NumVars() uint32

func (Tuple5[F0, F1, F2, F3, F4]) String 

func (t Tuple5[F0, F1, F2, F3, F4]) String() string

func (Tuple5[F0, F1, F2, F3, F4]) Values 

func (t Tuple5[F0, F1, F2, F3, F4]) Values() []frontend.Variable

type Tuple6 

type Tuple6[F0, F1, F2, F3, F4, F5 CircuitVariable] struct {
	F0 F0
	F1 F1
	F2 F2
	F3 F3
	F4 F4
	F5 F5
}

func (Tuple6[F0, F1, F2, F3, F4, F5]) FromValues 

func (t Tuple6[F0, F1, F2, F3, F4, F5]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple6[F0, F1, F2, F3, F4, F5]) NumVars 

func (t Tuple6[F0, F1, F2, F3, F4, F5]) NumVars() uint32

func (Tuple6[F0, F1, F2, F3, F4, F5]) String 

func (t Tuple6[F0, F1, F2, F3, F4, F5]) String() string

func (Tuple6[F0, F1, F2, F3, F4, F5]) Values 

func (t Tuple6[F0, F1, F2, F3, F4, F5]) Values() []frontend.Variable

type Tuple7 

type Tuple7[F0, F1, F2, F3, F4, F5, F6 CircuitVariable] struct {
	F0 F0
	F1 F1
	F2 F2
	F3 F3
	F4 F4
	F5 F5
	F6 F6
}

func (Tuple7[F0, F1, F2, F3, F4, F5, F6]) FromValues 

func (t Tuple7[F0, F1, F2, F3, F4, F5, F6]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple7[F0, F1, F2, F3, F4, F5, F6]) NumVars 

func (t Tuple7[F0, F1, F2, F3, F4, F5, F6]) NumVars() uint32

func (Tuple7[F0, F1, F2, F3, F4, F5, F6]) String 

func (t Tuple7[F0, F1, F2, F3, F4, F5, F6]) String() string

func (Tuple7[F0, F1, F2, F3, F4, F5, F6]) Values 

func (t Tuple7[F0, F1, F2, F3, F4, F5, F6]) Values() []frontend.Variable

type Tuple8 

type Tuple8[F0, F1, F2, F3, F4, F5, F6, F7 CircuitVariable] struct {
	F0 F0
	F1 F1
	F2 F2
	F3 F3
	F4 F4
	F5 F5
	F6 F6
	F7 F7
}

func (Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) FromValues 

func (t Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) FromValues(vs ...frontend.Variable) CircuitVariable

func (Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) NumVars 

func (t Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) NumVars() uint32

func (Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) String 

func (t Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) String() string

func (Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) Values 

func (t Tuple8[F0, F1, F2, F3, F4, F5, F6, F7]) Values() []frontend.Variable

type Uint248 

type Uint248 struct {
	Val frontend.Variable
}

func ConstUint248 

func ConstUint248(i interface{}) Uint248

ConstUint248 initializes a constant Uint248. This function does not generate circuit wires and should only be used outside of circuit. Supports all int and uint variants, bool, []byte (big-endian), *big.Int, and string inputs. If input is string, this function uses *big.Int SetString function to interpret the string

func Count 

func Count[T CircuitVariable](ds *DataStream[T]) Uint248

Count returns the number of valid elements (i.e. toggled on) in the data stream.

func IsSorted 

func IsSorted[T CircuitVariable](ds *DataStream[T], sortFunc SortFunc[T]) Uint248

IsSorted returns 1 if the data stream is sorted to the criteria of sortFunc, 0 if not.

func Max 

func Max(ds *DataStream[Uint248]) Uint248

Max finds out the maximum value from the data stream. Uses MaxGeneric. Note if the data stream is empty (all data points are toggled off), this function returns 0.

func Mean 

func Mean(ds *DataStream[Uint248]) Uint248

Mean calculates the arithmetic mean over the selected fields of the data stream. Uses Sum.

func Min 

func Min(ds *DataStream[Uint248]) Uint248

Min finds out the minimum value from the data stream. Uses MinGeneric. Note if the data stream is empty (all data points are toggled off), this function returns MaxUint248.

func ParseEventID 

func ParseEventID(b []byte) Uint248

ParseEventID initializes a circuit Uint248 from bytes. Only the first 6 bytes of the event id is used to save space. This function does not generate circuit wires and should only be used outside of circuit.

func Sum 

func Sum(ds *DataStream[Uint248]) Uint248

Sum sums values of the selected field in the data stream. Uses Reduce

func (Uint248) FromValues 

func (v Uint248) FromValues(vs ...frontend.Variable) CircuitVariable

func (Uint248) NumVars 

func (v Uint248) NumVars() uint32

func (Uint248) String 

func (v Uint248) String() string

func (Uint248) Values 

func (v Uint248) Values() []frontend.Variable

type Uint248API 

type Uint248API struct {
	// contains filtered or unexported fields
}

func (*Uint248API) Add 

func (api *Uint248API) Add(a, b Uint248, other ...Uint248) Uint248

Add returns a + b. Overflow can happen if a + b > 2^248

func (*Uint248API) And 

func (api *Uint248API) And(a, b Uint248, other ...Uint248) Uint248

And returns 1 if a && b [&& other[0] [&& other[1]...]] is true, and 0 otherwise

func (*Uint248API) AssertIsDifferent 

func (api *Uint248API) AssertIsDifferent(a, b Uint248)

AssertIsDifferent asserts a != b

func (*Uint248API) AssertIsEqual 

func (api *Uint248API) AssertIsEqual(a, b Uint248)

AssertIsEqual asserts a == b

func (*Uint248API) AssertIsLessOrEqual 

func (api *Uint248API) AssertIsLessOrEqual(a, b Uint248)

AssertIsLessOrEqual asserts a <= b

func (*Uint248API) Div 

func (api *Uint248API) Div(a, b Uint248) (quotient, remainder Uint248)

Div computes the standard unsigned integer division (like Go) and returns the quotient and remainder. Uses QuoRemHint

func (*Uint248API) FromBinary 

func (api *Uint248API) FromBinary(vs ...Uint248) Uint248

FromBinary interprets the input vs as a list of little-endian binary digits and recomposes it to a Uint248

func (*Uint248API) IsEqual 

func (api *Uint248API) IsEqual(a, b Uint248) Uint248

IsEqual returns 1 if a == b, and 0 otherwise

func (*Uint248API) IsGreaterThan 

func (api *Uint248API) IsGreaterThan(a, b Uint248) Uint248

IsGreaterThan returns 1 if a > b, and 0 otherwise

func (*Uint248API) IsLessThan 

func (api *Uint248API) IsLessThan(a, b Uint248) Uint248

IsLessThan returns 1 if a < b, and 0 otherwise

func (*Uint248API) IsZero 

func (api *Uint248API) IsZero(a Uint248) Uint248

IsZero returns 1 if a == 0, and 0 otherwise

func (*Uint248API) Mul 

func (api *Uint248API) Mul(a, b Uint248) Uint248

Mul returns a * b. Overflow can happen if a * b > 2^248

func (*Uint248API) Not 

func (api *Uint248API) Not(a Uint248) Uint248

Not returns 1 if a is 0, and 0 if a is 1. The user must make sure a is either 0 or 1

func (*Uint248API) Or 

func (api *Uint248API) Or(a, b Uint248, other ...Uint248) Uint248

Or returns 1 if a || b [|| other[0] [|| other[1]...]] is true, and 0 otherwise

func (*Uint248API) Select 

func (api *Uint248API) Select(s Uint248, a, b Uint248) Uint248

Select returns a if s == 1, and b if s == 0

func (*Uint248API) Sqrt 

func (api *Uint248API) Sqrt(a Uint248) Uint248

Sqrt returns √a. Uses SqrtHint

func (*Uint248API) Sub 

func (api *Uint248API) Sub(a, b Uint248) Uint248

Sub returns a - b. Underflow can happen if b > a

func (*Uint248API) ToBinary 

func (api *Uint248API) ToBinary(v Uint248, n int) List[Uint248]

ToBinary decomposes the input v to a list (size n) of little-endian binary digits

type Uint521 

type Uint521 struct {
	*emulated.Element[Uint521Field]
}

func ConstUint521 

func ConstUint521(i interface{}) Uint521

ConstUint521 initializes a constant Uint521. This function does not generate circuit wires and should only be used outside of circuit. Supports all int and uint variants, bool, []byte (big-endian), *big.Int, and string inputs. If input is string, this function uses *big.Int SetString function to interpret the string

func (Uint521) FromValues 

func (v Uint521) FromValues(vs ...frontend.Variable) CircuitVariable

func (Uint521) NumVars 

func (v Uint521) NumVars() uint32

func (Uint521) String 

func (v Uint521) String() string

func (Uint521) Values 

func (v Uint521) Values() []frontend.Variable

type Uint521API 

type Uint521API struct {
	// contains filtered or unexported fields
}

func (*Uint521API) Add 

func (api *Uint521API) Add(a, b Uint521) Uint521

Add returns a + b. Overflow can happen if a + b > 2^521

func (*Uint521API) AssertIsEqual 

func (api *Uint521API) AssertIsEqual(a, b Uint521)

AssertIsEqual asserts a == b

func (*Uint521API) AssertIsLessOrEqual 

func (api *Uint521API) AssertIsLessOrEqual(a, b Uint521)

AssertIsLessOrEqual asserts a <= b

func (*Uint521API) Div 

func (api *Uint521API) Div(a, b Uint521) (quotient, remainder Uint521)

Div computes the standard unsigned integer division (like Go) and returns the quotient and remainder. Uses QuoRemHint

func (*Uint521API) FromBinary 

func (api *Uint521API) FromBinary(vs ...Uint248) Uint521

FromBinary interprets the input vs as a list of little-endian binary digits and recomposes it to a Uint521

func (*Uint521API) IsEqual 

func (api *Uint521API) IsEqual(a, b Uint521) Uint248

IsEqual returns 1 if a == b, and 0 otherwise

func (*Uint521API) Mul 

func (api *Uint521API) Mul(a, b Uint521) Uint521

Mul returns a * b. Overflow can happen if a * b > 2^521

func (*Uint521API) Select 

func (api *Uint521API) Select(s Uint248, a, b Uint521) Uint521

Select returns a if s == 1, and b if s == 0

func (*Uint521API) Sub 

func (api *Uint521API) Sub(a, b Uint521) Uint521

Sub returns a - b. Underflow can happen if b > a

func (*Uint521API) ToBinary 

func (api *Uint521API) ToBinary(v Uint521, n int) List[Uint248]

ToBinary decomposes the input v to a list (size n) of little-endian binary digits

type Uint521Field 

type Uint521Field struct{}

func (Uint521Field) BitsPerLimb 

func (f Uint521Field) BitsPerLimb() uint

func (Uint521Field) IsPrime 

func (f Uint521Field) IsPrime() bool

func (Uint521Field) Modulus 

func (f Uint521Field) Modulus() *big.Int

func (Uint521Field) NbLimbs 

func (f Uint521Field) NbLimbs() uint

type ZipMap2Func 

type ZipMap2Func[T0, T1, R CircuitVariable] func(a T0, b T1) R

type ZipMap3Func 

type ZipMap3Func[T0, T1, T2, R CircuitVariable] func(a T0, b T1, c T2) R

Source Files

View all Source files

Directories

Path Synopsis
proto
commonproto
gwproto
sdkproto
Package sdk is a reverse proxy.
 Package sdk is a reverse proxy.

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