This article proposes a comprehensive analysis of architectures that use blockchain technology to solve important aspects of computing sustainability, with an emphasis on scalability, resource utilization, transparency, and energy conservation. The research focuses on analyzing various structure which embraces decentralization and consensus principles, to redefine the computer infrastructure environment. The study highlights the technology that aids in improving scalability and resource utilization by decentralizing data storage and processing, relieving the load on centralized servers, and lowering the environmental effect of large‐scale data centers. This study's findings are significant in uncovering best practices and optimizing the environmental impact of blockchain technology by evaluating blockchain indicators such as scalability, resource utilization, transparency, and energy saving within the framework of sustainable computing. The project intends to assist in the development of resource‐efficient solutions, address scalability issues, and promote openness and accountability by evaluating the performance of various blockchain implementations. The findings help to promote the larger goal of connecting technical improvements, notably in blockchain, with global environmental goals. The research reveals that energy conservation is an important aspect of sustainability, and the different frameworks including techniques for optimizing energy consumption based on carbon footprint concerns, decentralization, and consensus methods are intended to prioritize energy‐efficient nodes and promote environmentally friendly practices, resulting in a greener computing ecosystem.