As mentioned earlier, developers can create dApps on Cartesi using the same tools and languages as conventional software development.
Here are some main tools that developers can use:
Developers can write application logic in any Linux-supported programming language, including C, C++, and Python. Cartesi Machine provides a familiar development environment with standard Linux compilers, debuggers, and libraries.
By integrating a full Linux operating system into its virtual machine, Cartesi expands the development ecosystem, with a large number of software tools and libraries that are typically inaccessible on traditional blockchains. This reduces the entry barriers for developers who are proficient in regular software development but unfamiliar with blockchain programming, while also making it possible to develop more complex and feature-rich dApps. Developers can implement complex algorithms, use advanced data processing techniques, and even run AI/ML models in their applications.
Applications developed on Cartesi are cross-compiled to run on Cartesi Machine's RISC-V architecture. Cross-compilation ensures that applications can be executed in Cartesi Machine's deterministic environment, maintaining compatibility and performance.
The development process itself often involves using Docker to containerize Cartesi Machine, allowing developers to isolate their applications and ensure consistency across different stages of development. This helps manage dependencies and maintain a controlled environment.
The application logic running on the Cartesi Machine interacts with the on-chain smart contracts. These smart contracts are mainly responsible for three tasks: triggering off-chain computations, processing data inputs, and anchoring the computation results back to the blockchain. The key task for developers is to design efficient smart contracts to properly manage these interaction processes, ensuring the security and integrity of the entire system.
Cartesi advocates modular design, separating computationally intensive tasks from on-chain logic. This allows developers to focus on writing efficient smart contracts while delegating resource-intensive operations to the Cartesi Machine.
Cartesi's off-chain computing model allows dApps to handle large-scale computations without increasing the burden on the blockchain, which is very useful for applications that require a lot of processing power, such as simulation, data analysis, or scientific computing.
Although the computation is performed off-chain, Cartesi ensures the security of the computation results through cryptographic proofs and dispute resolution mechanisms. This approach ensures that off-chain computations are as trustworthy as on-chain operations.
Cartesi manages data in a scalable and cost-effective way, supporting applications that require ad-hoc access to large amounts of data, without the high cost of on-chain storage.
Noether's decentralized architecture ensures data availability is not controlled by a single party, reducing the risk of data tampering or loss. This helps maintain the integrity and availability of off-chain data, especially in decentralized applications.
Developers can start building on Cartesi by setting up the Cartesi Machine, which runs the Linux operating system on the RISC-V architecture. The process includes:
Highlights
As mentioned earlier, developers can create dApps on Cartesi using the same tools and languages as conventional software development.
Here are some main tools that developers can use:
Developers can write application logic in any Linux-supported programming language, including C, C++, and Python. Cartesi Machine provides a familiar development environment with standard Linux compilers, debuggers, and libraries.
By integrating a full Linux operating system into its virtual machine, Cartesi expands the development ecosystem, with a large number of software tools and libraries that are typically inaccessible on traditional blockchains. This reduces the entry barriers for developers who are proficient in regular software development but unfamiliar with blockchain programming, while also making it possible to develop more complex and feature-rich dApps. Developers can implement complex algorithms, use advanced data processing techniques, and even run AI/ML models in their applications.
Applications developed on Cartesi are cross-compiled to run on Cartesi Machine's RISC-V architecture. Cross-compilation ensures that applications can be executed in Cartesi Machine's deterministic environment, maintaining compatibility and performance.
The development process itself often involves using Docker to containerize Cartesi Machine, allowing developers to isolate their applications and ensure consistency across different stages of development. This helps manage dependencies and maintain a controlled environment.
The application logic running on the Cartesi Machine interacts with the on-chain smart contracts. These smart contracts are mainly responsible for three tasks: triggering off-chain computations, processing data inputs, and anchoring the computation results back to the blockchain. The key task for developers is to design efficient smart contracts to properly manage these interaction processes, ensuring the security and integrity of the entire system.
Cartesi advocates modular design, separating computationally intensive tasks from on-chain logic. This allows developers to focus on writing efficient smart contracts while delegating resource-intensive operations to the Cartesi Machine.
Cartesi's off-chain computing model allows dApps to handle large-scale computations without increasing the burden on the blockchain, which is very useful for applications that require a lot of processing power, such as simulation, data analysis, or scientific computing.
Although the computation is performed off-chain, Cartesi ensures the security of the computation results through cryptographic proofs and dispute resolution mechanisms. This approach ensures that off-chain computations are as trustworthy as on-chain operations.
Cartesi manages data in a scalable and cost-effective way, supporting applications that require ad-hoc access to large amounts of data, without the high cost of on-chain storage.
Noether's decentralized architecture ensures data availability is not controlled by a single party, reducing the risk of data tampering or loss. This helps maintain the integrity and availability of off-chain data, especially in decentralized applications.
Developers can start building on Cartesi by setting up the Cartesi Machine, which runs the Linux operating system on the RISC-V architecture. The process includes:
Highlights