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@article{204277,
        author = {Swaroop Prashant Divilkar and Shreyas Vilas Dabade and Sarthak Dilip Anjarlekar and Atharva Prashant Bhosale and Surendra Tukaram Sutar},
        title = {MAXIMIZING CHANNEL CAPACITY IN 6G THz NETWORK WITH ENERGY HARVESTING},
        journal = {International Journal of Innovative Research in Technology},
        year = {2026},
        volume = {13},
        number = {1},
        pages = {3733-3742},
        issn = {2349-6002},
        url = {https://ijirt.org/article?manuscript=204277},
        abstract = {Due to the rapid evolution of wireless communication technologies, there is an increasing demand for ultra-high data rates, low latency and efficient spectrum utilization in future 6G networks. One of the current heats in the telecommunication industry is THz (Terahertz) frequency band as it can achieve ultra-broadband communication. Yet high attenuation, strong molecular absorption and short transmission distance are some critical challenges for THz communication which deprive its practical implementation.
A self-sustained THz link with the integrated energy harvesting system is proposed in this paper. It is to perform data trans-mission and energy harvesting at the same time for low-power implantable applications. We utilize a dual-function receiver structure, where the received signal is divided into two segments, the first segment to be communicated and the second segment to be harvested which can then be stored in capacitor-based energy storage model.
Mathematical models are formulated to analyse path loss, molecular absorption, received power, Signal-to-Interference-plus-Noise Ratio (SINR), and channel capacity. Both Radio Frequency (RF) and thermal energy harvesting mechanisms are installed into the system model. To analyze system performance under different conditions MATLAB-based simulations are con-ducted.
The results determine that although THz signals experience rapid attenuation, the harvested energy is sufficient to sustain low-power devices under specific conditions, making it an effi-cient solution for next-generation biomedical applications, nano-networks, and self-powered wireless systems.},
        keywords = {THz Communication, Energy Harvesting, 6G, Implantable Devices, Antenna Design},
        month = {June},
        }