US20240223360
2024-07-04
Electricity
H04L9/0852
An entangled links mechanism is designed to foster a connection between pairs of computers, enabling them to maintain a state of awareness and facilitate communication. This method utilizes an idempotent, reversible token system that does not exhibit any external changes until information needs to be exchanged. It ensures that if the intended data is not properly received by the destination computer, there is a potential for reversibility, allowing for robust error handling and recovery in distributed computing environments.
Current conventional systems often rely on complex transaction protocols like two-phase commit or consensus algorithms to uphold ACID properties. These methods can be slow and fragile, particularly during failures. The existing endpoint addressing in networks abstracts away critical details such as latency and physical topology, which can hinder performance. Therefore, a more straightforward and reliable approach is necessary to enhance transaction speed and robustness while managing event ordering effectively.
In cluster computing, servers typically use heartbeat messages to monitor each other's status. If a server fails to send its heartbeat within a specified timeframe, it is marked as failed. Various mechanisms have been developed to manage these heartbeats efficiently without overwhelming the network. However, these traditional systems still face challenges in maintaining integrity during failures and reconfigurations, highlighting the need for improved methodologies.
Quantum mechanics introduces concepts of probabilities and information that could revolutionize computing systems. Classical computers operate with binary bits, while quantum systems utilize qubits that can exist in multiple states simultaneously. This unique property of quantum systems may lead to new ways of designing hardware and software that incorporate time more effectively, enhancing reliability and performance across distributed networks.
The proposed method for establishing entangled links involves several steps: identifying a first computing entity, discovering a second entity, connecting the two, and creating an entanglement between them. This process transforms the interaction into a single abstract computational entity that enhances communication efficiency and reliability within distributed systems. By integrating these entangled links, the framework aims to address existing challenges in distributed computing environments.