Algebra Integral
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  • Overview
    • What is Algebra?
    • Who Are These Docs For
    • Why Concentrated Liquidity & Modularity Matter
    • Partners & Ecosystem
    • Audits & Security
    • Social Media & Communities
  • Introducing Algebra Integral to Founders & Business Teams
    • Overview of Algebra Integral
      • How It Works: Core + Plugins
      • V3 vs. V4: Key Differences
      • Integral vs. Uniswap V4: Key Differences
    • Benefits of Modular Architecture
      • Perks for DEXes
      • Perks for Builders
      • Perks for Users
  • Modularity: Use Cases
  • Plugin Marketplace
  • Algebra Partner Support
  • User Guide Template For DEXes
    • Concentrated Liquidity & Modular Architecture Basics
      • Glossary
      • How Concentrated Liquidity & Modular Architecture Work
      • Benefits of Modular Concentrated Liquidity AMM for Users
        • Perks for Liquidity Providers
        • Perks for Projects
        • Perks for Traders
      • Fee Mechanics
        • Static Fee
        • Dynamic Fee
        • Sliding Fee
        • Dynamic Fee Based on Trading Volume
        • Managed Swap Fee
        • Whitelist Fee Discount
      • Farming
      • Farming FAQ
  • Price Ranges and Liquidity Strategies
    • What Are Price Ranges
    • Basic Price Range Presets
    • Advanced Range Presets
    • How Price Moves Affect Liquidity
    • Impermanent Loss: Concepts & Mitigation
    • Matching Your Liquidity Strategy to Market Moves
    • Swap & LP Strategies with Price Ranges
    • Liquidity Scenarios & Risk Profiles
  • Liquidity Provisioning: Tutorials & FAQs
    • Adding Liquidity
      • Manual Mode
      • Automated Mode
    • Managing & Adjusting Positions
    • How APR is Calculated
    • FAQ for LPs
  • Algebra Integral / Technical Reference
    • Intro
    • Audits
    • Integration Process
      • Specification and API of contracts
        • Algebra Pool
        • Algebra Factory
        • Swap Router
        • Nonfungible Position Manager
        • Quoter
        • QuoterV2
        • TickLens
      • Interaction with pools
        • Getting data from pools
      • Subgraphs and analytics
        • Examples of queries
      • Technical Guides
        • Intro
        • Swaps
          • Single swaps
          • Multihop swaps
        • Providing liquidity
          • Setting up your contract
          • Mint a new position
          • Collect fees
          • Decrease liquidity
          • Increase liquidity
          • Final Contract
        • Flashloans
          • Setting up your contract
          • Calling flash
          • Flash callback
          • Final contract
      • Migration from UniswapV3
      • FAQ
    • Core Logic
      • Pool overview
      • Swap calculation
      • Liquidity and positions
      • Ticks
        • Ticks search tree
      • Reserves
      • Flash
      • Plugins
      • AlgebraFactory and roles
    • Plugins
      • Overview
      • Farming
      • Adaptive Fee
      • Sliding Fee
      • Whitelist Discount Fee
      • Safety Switch
      • Position Limit Orders
      • Managed Swap Fee
      • FAQ
    • Guides
      • Plugin Development
      • Plugin Testing
      • Plugin Deployment
    • Changes V1
    • Changes V1.1
    • Changes v1.2
  • Changes v1.2.1
  • Other
    • Archived Documentation
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On this page
  • Introduction to Concentrated Liquidity
  • The Problem with V2 Liquidity
  • How Concentrated Liquidity Solves It
  • Key Differences: V2 liquidity vs V3/V4 liquidity
  • What This Means for Users
  • How Modular Architecture Enhances It Further
  • The Problem with Immutable Protocols
  • How Modular Architecture Solves It
  • What It Means for Users
  1. User Guide Template For DEXes
  2. Concentrated Liquidity & Modular Architecture Basics

How Concentrated Liquidity & Modular Architecture Work

Note for DEX Teams:

Understanding the engine behind your DEX. This section outlines the mechanics of concentrated liquidity & modularity, the core innovations Algebra brings to decentralized exchanges. Grasping how liquidity is deployed and interacts with trades helps users to evaluate capital efficiency.

Introduction to Concentrated Liquidity

Decentralized exchanges (DEXes) are evolving. If you’ve used a V2 AMM (like Uniswap V2), you’re used to a simple system: you deposit two tokens into a liquidity pool, and the AMM spreads your funds evenly across the full price curve — from zero to infinity. This is simple, but not very efficient.

That’s where concentrated liquidity, introduced in V3-style AMMs comes in.

The Problem with V2 Liquidity

In a V2 pool, all liquidity providers (LPs) share one big pool. Your capital is spread across all possible prices, even if most trading happens within a narrow range. This means:

  • Much of your liquidity sits unused

  • Capital is inefficient — large deposits don’t add much trading depth where it’s needed

  • Traders face higher price impact unless the pool is over-capitalized

How Concentrated Liquidity Solves It

In V3/V4, LPs can choose the price range where their liquidity is active. This means:

  • You only provide liquidity in the range you expect trades to happen (e.g., $1,500–$2,000 for ETH)

  • Your capital is used more effectively — you earn more fees with less money

  • Liquidity is concentrated, not diluted, around active price points

Think of it like zooming in on the part of the price chart that matters most.

Key Differences: V2 liquidity vs V3/V4 liquidity

Feature

V2 (Classic AMM)

V3/V4 (Concentrated Liquidity)

Liquidity distribution

Across all prices

Within chosen price ranges

Capital efficiency

Low

High

Fee earning range

Always active

Only when price is in range

Custom strategies

Not possible

Fully customizable

What This Means for Users

With concentrated liquidity, users get more control and better rewards — but also more responsibility. If the market price leaves your chosen range, your position becomes inactive (out-of-range) and stops earning fees until it returns.

In short: Concentrated liquidity makes your capital work smarter, not harder — a powerful upgrade from the V2 experience.

How Modular Architecture Enhances It Further

Decentralized‑exchange infrastructure is entering its next phase. Traditional AMM codebases—whether V2 or V3—ship as single, immutable deployments: once the contracts are live, every pool, fee rule, or incentive mechanism is frozen in stone. If the market demands a new feature, a DEX has only two choices: hard‑fork the entire protocol and migrate liquidity, or fall behind. Algebra Integral turns that dilemma on its head with a plugin‑based, modular architecture that lets a DEX upgrade safely and on‑chain, while its pools keep running.

The Problem with Immutable Protocols

In a monolithic design, core logic, fee math, liquidity storage, and incentives all live in one contract suite. Any change—from a better fee formula to a new farming program—means redeploying everything and asking LPs to move funds. As a result:

Pain Point

Impact on a Classic (Immutable) DEX

Slow Iteration

Feature requests take months and a new audit cycle.

Liquidity Migration

Users must withdraw and redeposit, risking downtime and slippage.

One‑Size‑Fits‑All

Every pool inherits the same fee logic, even if assets behave differently.

Upgrade Risk

A bug in an upgrade can jeopardize the entire protocol.


How Modular Architecture Solves It

Algebra Integral splits the DEX into two layers — Immutable core and interchangeable Plugins:

Feature

Monolithic AMM

Algebra Integral (Modular)

Core Contracts

Immutable and feature‑rich

Immutable only for swap & storage—minimal attack surface

New Logic

Requires full redeploy

Added as plug‑in modules (Dynamic Fee, Farming, Safety Switch, etc.)

Upgrades

Liquidity migration + new audits

Hot‑swap or time‑box a plugin; no liquidity moves

Customization

Same rules for every pool

Each pool chooses its own plugin set

With this model, a DEX can:

  • Turn on dynamic fees during high volatility, then switch back to static fees to save gas.

  • Add an NFT‑based fee‑discount plugin for a marketing campaign, disable it later without touching core liquidity.

  • Introduce JIT‑liquidity protection or LVR mitigation only on the pairs that need it.

All while LP capital stays exactly where it is.

What It Means for Users

  • Better Features, Faster – Traders and LPs see new tools (VIP tiers, limit orders, security switches) without waiting for a protocol fork.

  • Zero Liquidity Migration – Your positions remain intact; no forced withdrawals, no downtime.

  • Granular Pool Choices – Each trading pair can advertise the plugins it runs, letting you pick pools that match your risk and reward profile.

  • Future‑Proof Experience – As DeFi innovates, the DEX you use can adopt the latest mechanics with a simple plugin upgrade—not a disruptive relaunch.

In short, modular architecture keeps the protocol agile while keeping your capital safe and productive—a decisive upgrade over the immutable designs of the past.

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Last updated 17 hours ago