"The inaugural lecture is a centuries-old tradition, a transition point in the career of an academic, recognizing leadership in their chosen field. I am proud to welcome such exceptional leaders to Manchester."
Professor Martin Schröder, Dean of the Faculty of Science and Engineering.
Professor Stuart Holmes, School of Chemical Engineering and Analytical Science
Title: From Zeolites to Fuel Cells (and beyond): a career path through intricate porous structures
Date: Friday 1 February 2019, 3:30pm
Location: Lecture Theatre C53 / C001 Great Hall, Sackville Building
The use of materials for the enhancement of environmental processes has long been recognised, with an early example being Aristotle  describing the use of ‘sands or soils’ for the desalination of seawater, a possible example of an early ion-exchange processes.
Although I have been working in the area of porous materials for a long time, it is not quite that long. However, I will describe my career path through the use of zeolite materials in hydrocracking catalysts; via diatomaceous earth (the material Alfred Nobel used to make dynamite) and waste water treatment; into membranes and electrochemical processes, notably fuel cells. The pathway will describe the synthesis and development of a range of different structures to try and enhance the performance of these systems and will showcase how the work developed. This involved collaboration with numerous people and, where possible, I will embarrass them with old photos.
Finally, the recent work in fuel cells will be discussed with a simple explanation/demonstration of how a fuel cell operates followed by a description of our studies and speculation about the future direction of the technology and more broadly the hydrogen economy.
 Aristotle., Works. Vol 7, 933b (circa 300BC), publisher not known!
Professor Angelo Cangelosi, School of Computer Science
Title: Developmental Robotics: An Interdisciplinary Journey from Psychology to AI and Cognitive Robotics
Date: Wednesday 12 December 2018, 5:30pm
Location: Lecture Theatre 1.1, Kilburn Building
Developmental Robotics (Cangelosi & Schlesinger 2015) is the interdisciplinary field that aims to design sensorimotor and cognitive capabilities in robots, by taking direct inspiration from child psychology experiments. This relies on the combination of cognitive- and neural-inspired AI and machine learning methods. Such a highly interdisciplinary approach nicely fits Cangelosi’s own journey and epistemological approach which started with a background in humanities and experimental psychology, and then led to research in AI and cognitive robotics. During the talk we will present several examples of developmental robotics models of language learning and grounding. This will include studies with the iCub robot on early word and grammar learning, on embodied number learning. and a neurorobotics model combining the iCub and SpiNNaker. The implications and use of these models for human-robot interaction applications, such as robot companions for older people, will also be discussed.
Professor Tony Kiss, School of Chemical Engineering and Analytical Science
Title: Driving sustainable innovation in chemical engineering
Date: Monday 15 October 2018, 3 - 5.30pm
Location: Lecture Theatre J17 / B Floor Foyer, Renold Building
The modern society faces many challenges of improving quality of life and economic prosperity while also trying to reduce the impact and footprint of humankind activities on the environment. In this context, chemical engineering plays a strong role in driving sustainable innovation for a better world. The lecture will highlight key examples illustrating the substantial progress made on several topics:
- Energy efficient chemical processes that exceed operational excellence and strive for tangible breakthroughs by sustainable process integration and intensification using a systems approach.
- Development of bio-based chemicals and energy area where lays a whole world of undiscovered innovations in biofuels production, biomass refining and introduction of new separation methods.
- Value creation from waste, which is made possible by developing and optimizing new processing methods and separation processes, and by improving strategies to reduce/recycle/reuse waste.
The chair aims to conduct research that is fundamentally interesting and with important applications, while at the same being innovative, impactful, insightful, inspiring, and also invaluable to the society. Frequent interactions between industry and academia are needed to enhance the practical skills of the students, provide talent for industry, and foster open-innovation projects that make sustainable growth possible. Linked to the Process Integration Research Consortium, the plan is to build more bridges across the industrial and academic research in the field of chemical process technology.
Professor Philip Martin, School of Chemical Engineering and Analytical Science
Title: Plasmas: from physical science to chemical engineering
Date: Friday 15 June 2018, 3 - 5:30pm
Location: Lecture Theatre C53, Sackville Street Building
Plasmas are all around us, from the sun to lightning and flames as well as technologically in neon signs and televisions. They contain an exotic mix of electrons and ions, excited atoms and molecules and we will explore how new techniques enable us to characterise these species. Low temperature plasmas, where the gas can be close to room temperature yet the electrons are very energetic with corresponding temperatures of a few thousand degrees Centigrade, enable many engineering applications that would otherwise only be possible at high temperatures. Examples from recent work are carbon dioxide utilization, pollutant remediation, thin film coatings and plasma catalysis. We will conclude with an outlook for plasmas in science and engineering: how can they be engineered for our benefit?
Professor Gavin Brown, Professor of Machine Learning in the School of Computer Science
Title: Finding new ways to Think : Twenty Years in Machine Learning
Date: Wednesday 21 March 2018, 5:30pm
Location: Kilburn Building Lecture Theatre 1.1, The University of Manchester
Machine Learning is changing the world. But it's still a young field, compared to the classical science and engineering disciplines. The exciting potential for the field has created a veritable sandstorm of new ideas and papers, increasing all the time.
Since I started my PhD in 1998, my time has focused on finding new ways to think, to see a clear path through that sandstorm. My team has found connections and built bridges that unify seemingly disparate parts of the literature - we've created principles, theories, and frameworks that simplify the field. This has enabled new directions, from stronger foundations. This lecture will review some highlights, where we've built bridges from deep learning to statistical feature selection, from there to computer architectures and reproducible research, and from medical drug trials to domestic violence.
Professor Konstantinos Theodoropoulos, School of Chemical Engineering and Analytical Science
Title: Integrated systems approaches for the sustainable bioproduction of fuels and added-value chemicals
Date: Thursday 4 May 2017, 3 - 5:30pm
Location: Room J17, Reynolds building.
Professor David Johnson, N8 Chair in Microbial Ecology School of Earth and Environmental Sciences
Title: Life in Earth: Why soil biodiversity matters for ecosystem functioning
Date: Wednesday 15 Nov 2016, 1pm
Location: Theatre D, Simon Building
Abstract: Soils are repositories for a huge abundance and vast diversity of organisms, which drive processes that sustain all other life on Earth. The last two decades have seen considerable advances in our understanding of the crucial functions played by soil organisms. Soils provide fascinating examples of how evolution has overcome the need for organisms to acquire energy and nutrients; provide protection from natural enemies; form intimate symbioses with other organisms; and resist human-driven perturbations.
In this lecture, I will provide some examples of the critical roles soil organisms play in regulating life-sustaining ecosystem processes, and illustrate how soil organisms are the ideal model systems to test ecological theory. Finally, I will argue that we must better understand 'Life in Earth' if we are to manage ecosystems, both to mitigate predicted changes in global climate and feed a rapidly increasing human population.