Jun Nishiyama

Associate Professor

University of Tokyo

Japan

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Jun Nishiyama is an Associate Professor at Tokyo City University, Japan. His research focuses on advanced reactor designs, particularly involving lead and sodium coolants in breed-and-burn fast reactors. Recent publications include studies on coolant void coefficients, burnup performance comparisons, and the feasibility of innovative reactor core designs to support a sustainable, carbon-neutral society.

Articles (15)

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2025

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2025

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2025

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2023

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2023

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2022

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2022

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2021

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2021

Collaborators (2)

Toru Obara

Professor

Tokyo Institute of Technology

JAPAN

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Hiroki Takezawa

Associate Professor

Nagaoka University of Technology

JAPAN

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Jun Nishiyama

Research Interests

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About

Articles (15)

Comparison of burnup performance between lead coolant and LBE coolant in Rotational Fuel-shuffling Breed-and-Burn fast reactor

Coolant void coefficient in a sodium-cooled rotational fuel-shuffling breed-and-burn fast reactor

Small modular reactor concept sustainable in a carbon-neutral society

Practical Design of a Breed-and-Burn Lead-Cooled Fast Reactor with Rotational Fuel Shuffling Strategy

Small rotational fuel-shuffling breed-and-burn sodium-cooled and nitride-fueled fast reactor with LBE reflectors

Core Concept of Small Rotational Fuel-Shuffling Breed-and-Burn Fast Reactor with Nitride Fuel and Sodium Coolant

Feasibility of breed-and-burn reactor core design with nitride fuel and lead coolant

Impact of the Melt-Refining Process on the Performance of Sodium-Cooled Rotational Fuel-Shuffling Breed-and-Burn Reactors

Neutron Balance Features in Breed-and-Burn Fast Reactors

Feasibility of Sodium-Cooled Breed-and-Burn Reactor with Rotational Fuel Shuffling

Monte Carlo codes benchmarking on sub-critical fuel debris particles system for neutronic analysis

Granular fuel debris shape modeling in MPS-DEM for the simulation of fuel debris bed formation in water

Impact of neutron generation time on released energy in falling fuel debris at supercritical condition

Characteristics of reactivity change as fuel debris falls in water

Optimization of reactor size in the small sodium-cooled CANDLE burning reactor

Collaborators (2)

Toru Obara

Hiroki Takezawa

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