17 July 2020
Energy and Future Cities
Depletion of traditional fuel stores has been accompanied by increasing pollution levels. Consequently, motivations to lower carbon-emissions have elevated. To ensure change is achieved on a global scale a multinational agreement was confirmed in 2015 at the Paris climate conference whereby 195 countries agreed a legally binding global climate deal, the first of its kind. Advancements in the field of electrochemical engineering and the infrastructure that will subsequently facilitate such changes are essential in order to reduce dependencies upon traditional carbon-intensive technologies. For instance, battery technology for use in automotive applications will require a robust charging network in order to prevent energy shortages and power blackouts. This course will provide insight into each stage of this process, from the chemistry and manufacture of new materials to the organisation of the grid and the redesigning of our metropolitan infrastructure. These stages will subsequently shape and dictate the future of our cities.
Thomas Heenan moved from Swansea in 2011 to complete a BEng degree in the Chemical Engineering department at UCL. In 2014 he progressed to a PhD in the electrochemical Innovation Lab and is now a researcher for the Faraday Institute. During this time he h
This is a level one module (equivalent to first year undergraduate). No prior subject knowledge is required to study this module but students are expected to have a keen interest in the subject area. Students must have completed at least one year of undergraduate study by the start of the module in order to enroll.
Upon successful completion of this module, students will:
have knowledge of the basic principles governing electrochemical devices
have awareness of the current and past developments of the energy market
understand the applications of low-carbon technologies in automotive vehicles and buildings
have explored the current and future infrastructure requirements to facilitate decarbonisation
understand the implications these technologies could have on the shaping of our future cities
7.5 ECTS / 4 US / 0.5 UCL
GBP 2100: Students who enroll on both Sessions of the UCL Summer School will benefit from a built-in tuition fee discount.
GBP 1100: There is an option to stay at the UCL Summer School residence for the duration of the three-week course. Accommodation is within walking distance to the UCL campus and features private, en suite rooms with shared kitchens. The cost is approx. £1100 per three-week session.