A collection of real-world examples showing how Lexmore translates technical uncertainty into robust, HMRC-aligned R&D tax relief claims across a range of sectors and schemes.
Figures shown are approximate, based on the final qualifying R&D expenditure identified for each client following a detailed review.
Predictive transformer control technology developed to improve voltage stability in critical electrical infrastructure.
An engineering company specialising in electrical power systems undertook a project to develop an enhanced voltage regulation methodology for medium-voltage to low-voltage (MV-LV) transformer installations operating within critical infrastructure environments. The existing approach to transformer voltage regulation relied primarily on control methods that adjusted transformer settings only after voltage deviations had already occurred. These conventional techniques struggled to maintain stable voltage conditions during rapid load changes, harmonic distortion events and power transitions associated with critical facilities.
The company sought to achieve an appreciable technological improvement through the development of a predictive transformer control architecture capable of anticipating voltage instability and proactively adjusting transformer operation before disruption occurred.
Whether reliable prediction of near-future voltage instability could be achieved using real-time monitoring of feeder loads and transformer operating conditions.
How predictive control algorithms could remain stable and avoid unwanted corrective cycling when operating in electrically noisy environments affected by harmonic distortion.
Whether transformer regulation hardware could withstand the increased operational demands associated with predictive, high-frequency control strategies without suffering premature mechanical or thermal failure.