This collaborative initiative is shaping the further development and progression of Cartesi's protocol technology through a technical evolution plan. It stands as a dynamic, evolving technical roadmap, maintained by the Technical Vision Council and created through a decentralized process driven by Cartesi contributors, ecosystem grantees, and the broader community.
Learn more about the ecosystem’s process for creating the Technical Evolution Plan, a new approach in decentralized coordination and governance for the Cartesi community here.
Continuous technical research, stack design, and development of new technologies committed to positioning Cartesi at the forefront of Web3 innovation and decentralization.
Interim consensus model surpassing single Authority validation and preceding Dave, employing a fixed set of validators to vote on dApp history additions.
Key functionalities for modular integrations allowing Cartesi dApps to access external data via hash, for multi-source retrieval, surpassing systems requiring explicit input sending.
Upgraded designed approach for enhancing reliability, upgradability, and scalability by isolating dApp states for single-input processing and easy external state inspections.
Extended capabilities for the integration of Cartesi dApps with base layer data for enhanced analytics, responsiveness, and seamless interaction with sequencers.
Implementation of dApps’ output in the form of complex vouchers (including time-based vouchers) as a library, enabling flexibility and added functionalities.
Enhancements to improve Cartesi Machine's efficiency in generating state hashes for more frequent updates, marking a new stage in its approach to dispute resolution.
Mechanism enabling compartmentalization and concurrent execution of programs on Cartesi Machine, facilitating code isolation and mitigating trust in untrusted components.
Permissionless fraud-proof system, Sybil-resistant, where a single honest validator can enforce the correct result, without being susceptible to delay attacks.
Active developments within the modular blockchain architecture: Integrations of Cartesi's execution layer with DA layers, sequencers, blockchain naming systems, and more.
Alternative pathway for streamlined development of an app-specific rollup (appchain) within the Cartesi ecosystem.
Integration with alternative Data Availability layers of Celestia, Espresso, Near or Syscoin for enhanced data abundance, cost efficiency, and broader ecosystem interoperability.
Integration of an ENS resolver and relay in Cartesi's execution layer for users to gain the ability to interact with dApps under their ENS identity.
Accessible and reliable computational frameworks, akin to a co-processor supplementing existing EVM or other processes, integrated within existing blockchain infrastructure.
Sequencer integration for soft finalization and cost-effective input inclusion, enhancing user experience and marking a logical progression in Cartesi's rollup stack's evolution.
Ongoing focus on a suite of tools necessary to provide infrastructure, maintenance, and support components for decentralized applications deploying on L1 or L2 mainnets.
Cartesi Rollups Node feature enabling a single Node to manage multiple dApps with runtime add/remove functionality.
Rollups Explorer mirroring Etherscan's functionalities for Cartesi's architecture, ensuring transparency, accessibility and manageability for Cartesi dApps.
Service layer, an integral component of Cartesi’s tech stack, enabling developers to launch and operate their dApps with just a few clicks through a Command Line Interface.
Simplified new architecture for Cartesi Rollups Node as a monolithic application, enabling convenient implementation of upgrades and new features.
Implementation of a set of features aiming to enhance the developer experience through convenience tooling that eases Cartesi dApp creation and deployment.
Application development frameworks meant to simplify developer onboarding experience by integrating a range of widely used programming languages and architectures.
Mechanism for reproducible builds, critical for security-sensitive software, allowing verification that executed code matches the original source code and dependencies.
Optimized non-node, alternative to Cartesi Node, emulating the conditions of a full node's production environment running locally for streamlined dApp deployment cycles.
Pilot developments aimed at challenging and expanding Cartesi's technical boundaries at the convergence of various other technologies, in a quest for trailblazing innovations.
Prospects of positioning the Cartesi Machine as Bitcoin's primary innovation entry point, acting as the go-to execution environment for protocol stacks lacking a powerful VM.
Direct Cartesi Machine execution in browsers for efficient and user-friendly dApp interactions with reduced resources use, simplifying web applications integration.
Explorations around validating Cartesi Machine execution via Zero Knowledge Proofs, providing dApps with a level of privacy that surpasses what Optimistic Rollups can offer.
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