Enabling Rapid Data Transfer in Medical IoT Systems with a High-Throughput PRESENT Cipher Hardware Framework

The timely and dependable sharing of essential medical information is dependent on fast and secure data transfer in the arena of Medical Internet of Things (IoT) technologies. In order to facilitate quick data transmission in Medical IoT devices, a high-throughput PRESENT Cipher hardware architecture is presented here. The suggested technique is comprised of various integral parts, such as the design of the hardware framework, the selection of the algorithm, the management of the keys, and the optimization of the performance. Important features of the proposed technique, such encryption, data compression, and error correction, are represented by mathematical equations. At its heart, our method is the PRESENT Cipher Algorithm, which is lauded for its efficiency and its high level of security. This technique is quite effective at encrypting data, protecting it while in transit. Data compression methods like Run-Length Encoding (RLE) are used to decrease data size and improve efficiency. Reed-Solomon codes provide error correction and hence ensure the reliability of transmitted data. Encryption keys are also protected by means of key management and other security procedures. It is determined how successful the suggested approach is by defining and evaluating a variety of performance assessment measures such as encryption speed, energy efficiency, data transmission rate, latency, resource usage, data integrity, compatibility, and scalability. The results show that the suggested technique is superior to the status quo methods in many respects. It is well-suited to the requirements of Medical IoT systems because to its faster encryption speed, reduced energy usage, larger data transmission speeds, and enhanced data integrity.