A Strategic Framework for Depth-Dependent Hydroelectric Conversion along the Indian Coastline

DOI

https://www.doi.org/10.59256/ijrtmr.20260601001

Published In

Volume 6, Issue 1 (2026)

Published Online

January-February 2026

Pages

01-15

Article Type

Original Article

Check for updates

The current strength gadget is plagued with the aid of two structural failures: Fossil fuels as we recognize them are terrible for our fitness and the weather, and renewable sources — sun panels and wind generators — require a few shape of a battery due to the fact they are not constantly available. This article provides every other below betrothed renewable: distributed coastal hydropower, harvested from shallow water wave-surge. Applying shallow-water wave idea, we revisit the v=g⋅hv = sqrtg cdot hv=g⋅h relation for wave celerity and re-forged water depth (no longer top) because the manage on kinetic power shipping near seashores. Damping/velocity outcomes of managed laboratory tray experiments show a non-linear increase in wave velocity with intensity that could result in more than five instances the capacity for kinetic electricity over small changes extensive. These outcomes are steady with classical hydrodynamic concept and showed with the aid of wave-flume reasoning and numerical simulation. Exploiting this bodily intuition, we outline two scalable and deployable engineering architectures: (1) coastline Oscillating Water Column (OWC) devices for micro-marketers in growing countries and (2) Tapered Channel (Tapchan) structures for grid integration. A ten-year inflation-adjusted economic model famous that for a 10 kW coastal wave facility, monetary breakeven can occur at 5–6 years and sustained Income thereafter.