Reno W Miller

Title: Innovations of Reno W Miller in Nuclear Reactor Calibration

Introduction

Reno W Miller is a notable inventor based in Penn Hills, PA (US). He has made significant contributions to the field of nuclear engineering, particularly in the calibration of nuclear reactor core parameters. His work has implications for the safety and efficiency of pressurized water reactors.

Latest Patents

Miller holds a patent for the "Calibration of a nuclear reactor core parameter predictor." This invention involves a calibrator for a pressurized water reactor (PWR) core predictor that utilizes a distribution expression for the transverse buckling factor in a one-dimensional diffusion model. The coefficients in this model are correlated with overall neutron balance and a set of power distribution characterization parameters, including axial offset, axial pinch, axial quarters, and axial fifths. The coefficients are periodically adjusted incrementally to achieve criticality with the model based on measured values of rod position, reactor power level, cold leg temperature, and boron concentration. This process ensures that the calculated power distribution characterization parameters align with those obtained from power distribution measurements generated by movable or fixed incore detectors.

Career Highlights

Miller is associated with Westinghouse Electric Corporation, a leading company in the energy sector. His work at Westinghouse has allowed him to apply his innovative ideas in practical settings, contributing to advancements in nuclear reactor technology.

Collaborations

Miller has collaborated with Louis R Grobmyer, enhancing the development and implementation of his inventions. Their partnership has fostered a productive environment for innovation in nuclear engineering.

Conclusion

Reno W Miller's contributions to nuclear reactor calibration demonstrate his expertise and commitment to advancing technology in this critical field. His patent reflects a significant step forward in ensuring the safety and efficiency of nuclear reactors.