Dr. Welch has a PhD in combustion and over 20 years of experience in fire research and teaching. He worked for a decade at BRE's Fire Research Station, including full-scale fire tests at BRE Cardington, before joining the BRE Centre for Fire Safety Engineering at the University of Edinburgh in 2004. His research spans a range of topics related to computational simulation of fire and structures and has had involvement as first or second supervisor of over 20 graduated PhD students (9 current) and served as examiner for over 20 more (including external examiner appointments). He is Programme Director for the one-year MSc Structural and Fire Safety Engineering (SAFE), now in its tenth year (50+ graduates), and a management board member for the International Master in Fire Safety Engineering (IMFSE), now in its eighth year (100+ graduates). He is Discipline Programme Manager for Civil & Environmental Engineering since 2014.
Programme Director and Personal Tutor for Structural & Fire Safety Engineering (SAFE) MSc
Management Board, International Master in Fire Safety Engineering (IMFSE)
Current teaching: Fire Safety Engineering 4/IMFSE, Engineering 1
Previous teaching: Fire Science Laboratory 5/SAFE/IMFSE, Fire Safety Engineering Design Project 5, Numerical Methods and Computing 2, Civil Engineering 1
Fire safety engineering
Active on the development and validation of computer modelling methods for fire-related problems in building and transport applications, spanning combustion, heat transfer, soot and toxic emissions, structural thermal response, sensor-steering and human response. Current research leadership in fire structure coupling in large buildings (RFCS TRAFIR), characterising thermo-mechanical response of composite and steel pressure vessels in fire (EU FCH-JU FireComp, BAM), fire safety in modern energy efficient buildings and facade fire (Rockwool), simulation of fire spread in compartments using HPC resources (UKCTRF/RFSDTB), intelligent egress based on sensor-linked models (BRE Trust), and generalised structural-fire frameworks (OpenSees), etc.
Fire-structure coupling methodologies for large/complex spaces
Sensor-linked fire and egress models
Fire hazard prediction, including smoke and toxic species
Fire spread in post-flashover fires using High Performance Computing (HPC) resources
Thermo-mechanical response of composite and steel vessels in fire
Fire behaviour of energy efficient constructions and facade fires