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School of Architecture

Professor Carl Hopkins PhD BEng CEng MASA MIIAV FIOA

Professor in Acoustics Architecture

+44 (0)151 794 4938
Work email Carl.Hopkins@liverpool.ac.uk
Personal Websitehttp://www.liverpool.ac.uk/architecture/research/acoustics-research-unit/about/

Teaching

Acoustics

Modules for 2023-24

Dissertation

Module code: ARCH521

Role: Teaching

ENVIRONMENTAL DESIGN 3

Module code: ARCH311

Role: Module Co-ordinator

Humanities and Research Methods

Module code: ARCH480

Role: Teaching

Research Methodology

Module code: ARCH707

Role: Teaching

Supervised Theses

Airflow resistivity measurement of Alkaline Earth Silicate Materials between room temperature and 800°C

Characterisation of steady-state and time-varying structure-borne sound sources using a reception plate to predict in situ sound pressure levels

Detection of trapped survivors in collapsed reinforced concrete buildings using structure-borne sound transmission

Direct and flanking transmission across timber concrete composite floors with cross laminated timber walls

Head-related transfer functions calculated using the boundary element method for a head and torso simulator

Prediction of bending wave transmission across coupled plates affected by spatial filtering and non-diffuse vibration fields

Prediction of impact sound transmission with heavy impact sources in heavyweight buildings

Prediction of sound and vibration response using Transient Statistical Energy Analysis

Prediction of sound transmission in elongated or compact acoustic cavities

Psychological and physiological responses to floor impact noise

Structure-borne sound transmission between isotropic, homogeneous plates and periodic ribbed plates

Structure-borne sound transmission on frameworks of beams

Transient excitation and response of lightweight timber floors with a heavy impact source

Vibroacoustic modelling of a dowelled-joist timber floor using finite element methods

Vibroacoustics modelling using the Finite Difference Time Domain method: Incorporating porous materials and mechanically excited plates

Vibroacoustics of plates excited by water drop impacts

Vibroacoustics of timber-frame structures excited by structure-borne sound sources

Vibrotactile perception of musical pitch