Lee Kirby
About Lee Kirby
Lee Kirby is an Associate in Acoustics at Arup, with a background in physics from The University of Salford. He has contributed to various high-profile acoustic projects, including the Copenhagen Arena and Leeds Arena.
Company
Lee Kirby is currently employed at Arup, a multinational professional services firm headquartered in London. Around since 2016, he holds the position of Associate in the acoustics division. Within Arup, his career includes roles as Senior Acoustic Consultant beginning in 2007, Acoustic Consultant between 2004 and 2006, and Assistant Acoustic Consultant from 2001 to 2003. Additionally, he previously worked at BDP (Building Design Partnership Ltd) as an Acoustic Consultant in Manchester from 2000 to 2001.
Education and Expertise
Lee Kirby holds a Bachelor of Science degree in Physics from The University of Salford, where he studied from 1996 to 2000. Prior to this, he attended Bedford High School in Leigh from 1989 to 1994. His educational background in physics laid the foundation for his extensive career in acoustics consultancy and engineering.
Projects at Arup
Lee Kirby has contributed significantly to various high-profile projects while at Arup. He played a key role in the acoustic planning of the Leeds Arena and the acoustic design of the Copenhagen Arena, focusing on enhancing the auditory experience for large-scale events. He also worked on the Radisson Edwardian Leicester Square Hotel in London and the Glasgow School of Art Reid Building, integrating superior sound quality with architectural aesthetics. Further, Kirby was involved in the acoustic consultancy for the Christie Proton Beam Therapy Centre and the University of Leeds New Engineering Quarter.
Acoustic Design Contributions
Lee Kirby’s expertise extends to several notable projects. His work on the York Community Stadium aimed to create an immersive sound environment for sports and entertainment events. Additionally, he contributed to the comprehensive acoustic design of various significant establishments, ensuring optimized sonic environments to meet different performance and functional requirements.