DeFi's most advanced arbitrage infrastructure for ecosystem growth
DeFi's most advanced arbitrage infrastructure for ecosystem growth
$605m+
Total Volume
1.6m+
Transactions
$988k+
Total Arb Value
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
Single
Pairwise arbitrage between one Carbon DeFi curve and one other exchange curve.
Multi
Pairwise arbitrage between multiple Carbon DeFi curves and one other exchange curve.
Default
Multi - All
Pairwise multi-mode that searches all available exchanges for pairwise arbitrage.
Triangle
Triangular arbitrage between one Carbon DeFi curve and two other exchange curves.
Multi Triangle
Triangular arbitrage between multiple Carbon DeFi curves and two other exchange curves.
Bancor v3
Triangular arbitrage between two Bancor v3 pools and one other exchange curve.
Bancor v3
2 HopTriangular arbitrage - the same as bancor v3 mode but more gas-efficient.
Multi - BAL
Pairwise multi-mode that always routes through n-dimensional, variable-weight AMMs
Multi - POL
Pairwise multi-mode that always routes through the Bancor protocol-owned liquidity contract.
Single
Pairwise arbitrage between one Carbon DeFi curve and one other exchange curve.
Multi
Pairwise arbitrage between multiple Carbon DeFi curves and one other exchange curve.
Default
Multi - All
Pairwise multi-mode that searches all available exchanges for pairwise arbitrage.
Triangle
Triangular arbitrage between one Carbon DeFi curve and two other exchange curves.
Multi Triangle
Triangular arbitrage between multiple Carbon DeFi curves and two other exchange curves.
Bancor v3
Triangular arbitrage between two Bancor v3 pools and one other exchange curve.
Bancor v3
2 HopTriangular arbitrage - the same as bancor v3 mode but more gas-efficient.
Multi - BAL
Pairwise multi-mode that always routes through n-dimensional, variable-weight AMMs
Multi - POL
Pairwise multi-mode that always routes through the Bancor protocol-owned liquidity contract.
Integrations
Integrations

Ethereum

Ethereum

Ethereum
ETHEREUM
Bancor
v2.1
v3
Carbon DeFi
Carbon DeFi Vortex
Balancer
Curve
PancakeSwap
v2
v3
Sushi
v2
Sushi
v2
Uniswap
v2
v3
v4
Base
Base
Base
BASE
Carbon DeFi Vortex
Alien Base/Carbon DeFi
Alien Base
v3
Graphene
Aerodrome
Balancer
Base Swap
v2
v3
Curve
PancakeSwap
v2
v3
Scale
v2
Sushi
v2
v3
SwapBased
Uniswap
v2
v3
v4
Velocimeter
Carbon DeFi Vortex

Celo
Celo
Carbon DeFi
Carbon DeFi Vortex
Curve
Mento
v2
Sushi
v2
Ubeswap
v2
v3
Uniswap
v2
v3
v4

Celo

Celo
Celo
Carbon DeFi
Uniswap
v2
v3
v4
Ubeswap
v2
v3
Sushi
v2
Mento
v2
Curve
Carbon DeFi Vortex

Celo

Celo
Celo
Carbon DeFi
Uniswap
v2
v3
v4
Ubeswap
v2
v3
Sushi
v2
Mento
v2
Curve
Carbon DeFi Vortex
Coti
Coti
Carbon DeFi
Carbon DeFi Vortex
Coti
Coti
Coti
Carbon DeFi
Carbon DeFi Vortex
Coti
Coti
Coti
Carbon DeFi
Carbon DeFi Vortex

Sei

Sei
SEI
Carbon DeFi
Carbon DeFi Vortex
Balancer
DonkeSwap
DragonSwap
v2
v3
JellySwap
Mamba Defi
OKU
Sailor Finance
Uniswap
v2
v3
Xei
Yaka

Sei

Sei
SEI
Carbon DeFi
DragonSwap
v2
v3
JellySwap
Mamba Defi
Yaka
Uniswap
v2
v3
DonkeSwap
OKU
Balancer
Xei
Sailor Finance
Carbon DeFi Vortex
TAC
TAC
TAC
Carbon DeFi
Carbon DeFi Vortex
Curve
Snap
v2
v3

Berachain
berachain
Carbon DeFi Vortex
Graphene
BurrBear
Kodiak
v2
v3
Memeswap

Berachain

Berachain
berachain
Graphene
Kodiak
BurrBear
Memeswap
Carbon DeFi Vortex

Berachain

Berachain
berachain
Graphene
BurrBear
Kodiak
Memeswap
Carbon DeFi Vortex
Linea
LINEA
Carbon DeFi Vortex
EchoDEX
v2
v3
Lynex
Metavault
Nile
PancakeSwap
Secta
v2
v3
XFAI
Linea
Linea
LINEA
EchoDEX
v2
v3
Lynex
Metavault
Nile
PancakeSwap
Secta
v2
v3
XFAI
Carbon DeFi Vortex
Linea
Linea
LINEA
EchoDEX
v2
v3
Lynex
Metavault
Nile
PancakeSwap
Secta
v2
v3
XFAI
Carbon DeFi Vortex

Mantle

Mantle
Mantle
Carbon DeFi Vortex
Graphene
Agni
Butter
Cleopatra
v2
v3
MerchantMoe
Stratum
Velocimeter

Mantle

Mantle
Mantle
Agni
Butter
Cleopatra
v2
v3
Graphene
MerchantMoe
Stratum
Velocimeter
Carbon DeFi Vortex

Sonic

Sonic
SONIC
Carbon DeFi Vortex
Graphene
Curve
DeFive
OKU
Shadow
Shadow
v2
v2
Spookyswap
v2
v3
WAGMI

Sonic

Sonic
SONIC
Graphene
Spookyswap
v2
v3
Shadow
v2
DeFive
OKU
WAGMI
Curve
Carbon DeFi Vortex
TAC
TAC
tac
Carbon DeFi
Curve
Snap
v2
v3
Carbon DeFi Vortex

"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
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