Bancor's Arb Fast Lane is the most advanced arbitrage framework in DeFi with unmatched computational efficiency

Bancor's Arb Fast Lane is the most advanced arbitrage framework in DeFi with unmatched computational efficiency

Bancor's Arb Fast Lane is the most advanced arbitrage framework in DeFi with unmatched computational efficiency

200x

200x

200x

Improvement in execution speed over previously published algorithms

Improvement in execution speed over previously published algorithms

Improvement in execution speed over previously published algorithms

Discover the new algorithms developed to solve the "Arbitrage Problem"

Discover the new algorithms developed to solve the "Arbitrage Problem"

Discover the new algorithms developed to solve the "Arbitrage Problem"

A new framework for arbitrage and routing in AMM driven markets

Arbitrage Modes

Arbitrage Modes

Dynamically executes chain-wide arbitrage, adjusting to real time market conditions

Dynamically executes chain-wide arbitrage, adjusting to real time market conditions

Dynamically executes chain-wide arbitrage, adjusting to real time market conditions

  • Balancer
  • Aleinbase
  • Sushi
  • Synthswap
  • Carbon Defi
  • Velocimeter
  • Aerodrome
  • Pancake Swap
  • Wigoswap
  • Graphene
  • Soul
  • dyor
  • Uniswap
  • Swapbased
  • Stratum
  • Knightswap
  • Agni
  • equalizer
  • Cleopatra
  • Merchant Moe
  • Butter
  • Spookyswap
  • Ring
  • Rouguex
  • FusionX

Integrations

Integrations

Ethereum

ETHEREUM

Bancor

v2.1

v3

Carbon DeFi

Uniswap

v2

v3

Sushi

Balancer

PancakeSwap

v2

v3

Base

BASE

Carbon DeFi

POL

Graphene

Uniswap

Sushi

v2

v3

Velocimeter

Balancer

PancakeSwap

v2

v3

Aerodrome

Alien Base

v2

Alien Base

Base Swap

v2

v3

SwapBased

Scale

v2

Fantom

Fantom

Fantom

Graphene

Velocimeter

Equalizer

HyperJump

KnightSwap

SoulSwap

SpookySwap

Sushi

WigoSwap

Beethoven

Mantle

Mantle

Agni

Butter

Cleopatra

v2

v3

Graphene

FusionX

v2

v3

MerchantMoe

Stratum

Velocimeter

Supernova

Sei

SEI

Carbon DeFi

DragonSwap

v2

v3

JellySwap

Mamba Defi

Yaka

Uniswap

v2

v3

DonkeSwap

OKU

Balancer

Xei

Sailor

Linea

LINEA

EchoDEX

v2

v3

Lynex

Metavault

Nile

PancakeSwap

Secta

v2

v3

XFAI

Celo

Celo

Carbon DeFi

Uniswap

Ubeswap

v2

v3

Sushi

Coti Logo

Coti

Coti

Carbon DeFi

Blast

Blast

Thruster

v2

v2.2

v3

Ringswap

Blasterswap

v2

v3

Dyor

Rogue

Monoswap

v2

v3

Fenix

Uniswap

IOTA EVM

IOTA evm

Graphene

Velocimeter

Magicsea

Wagmi

Berachain

berachain

Graphene

Kodiak

BurrBear

Memeswap

  • Balancer
  • Aleinbase
  • Sushi
  • Synthswap
  • Carbon Defi
  • Velocimeter
  • Aerodrome
  • Pancake Swap
  • Wigoswap
  • Graphene
  • Soul
  • dyor
  • Uniswap
  • Swapbased
  • Stratum
  • Knightswap
  • Agni
  • equalizer
  • Cleopatra
  • Merchant Moe
  • Butter
  • Spookyswap
  • Ring
  • Rouguex
  • FusionX
  • Uniswap
  • Swapbased
  • Stratum
  • Knightswap
  • Agni
  • equalizer
  • Cleopatra
  • Merchant Moe
  • Butter
  • Spookyswap
  • Ring
  • Rouguex
  • FusionX
  • Spookyswap
  • Jellyswap
  • Mambaswap
  • Yaka
  • Burrbear
  • kodiak
  • Blaster
  • Pheonix
  • Thruster
  • Monoswap
  • Spookyswap
  • Jellyswap
  • Mambaswap
  • Yaka
  • Burrbear
  • kodiak
  • Blaster
  • Pheonix
  • Thruster
  • Monoswap

Dr. Mark Richardson

Dr. Mark Richardson

Bancor Project Lead

"Traditional arbitrage methods relying on convex optimization struggle in AMM-driven markets because they assume smooth constraints that rarely exist in practice. As detailed in the paper, convex formulations, while effective for canonical xy=k curves, fall short when applied to concentrated liquidity AMMs.


In these settings, the optimization problem involves piecewise-linear constraints, where solutions frequently lie at the boundary of the feasible region. This mismatch forces solvers into convergence challenges, as gradient-based methods fail near abrupt transitions and simplex methods jump between vertices. The result is a system that, despite its mathematical elegance, is slow, unpredictable, and ill-suited for real-time arbitrage where every millisecond counts."

"Traditional arbitrage methods relying on convex optimization struggle in AMM-driven markets because they assume smooth constraints that rarely exist in practice. As detailed in the paper, convex formulations, while effective for canonical xy=k curves, fall short when applied to concentrated liquidity AMMs.


In these settings, the optimization problem involves piecewise-linear constraints, where solutions frequently lie at the boundary of the feasible region. This mismatch forces solvers into convergence challenges, as gradient-based methods fail near abrupt transitions and simplex methods jump between vertices. The result is a system that, despite its mathematical elegance, is slow, unpredictable, and ill-suited for real-time arbitrage where every millisecond counts."

"Traditional arbitrage methods relying on convex optimization struggle in AMM-driven markets because they assume smooth constraints that rarely exist in practice. As detailed in the paper, convex formulations, while effective for canonical xy=k curves, fall short when applied to concentrated liquidity AMMs.


In these settings, the optimization problem involves piecewise-linear constraints, where solutions frequently lie at the boundary of the feasible region. This mismatch forces solvers into convergence challenges, as gradient-based methods fail near abrupt transitions and simplex methods jump between vertices. The result is a system that, despite its mathematical elegance, is slow, unpredictable, and ill-suited for real-time arbitrage where every millisecond counts."

Analytics

Analytics

Access current onchain data

Access current onchain data

Activity

Activity

Bancor ecosystem onchain alerts

Bancor ecosystem onchain alerts

Questions?

Questions?

Ask the developers directly

Ask the developers directly