Has expertise in:
- Advanced buildings and building systems
- Comfort and behaviour of people in buildings
- Smart sustainable communities
- Low and zero carbon technologies
- Integration of Storage in Low Carbon Buildings and Districts
- Design support, performance analysis, modelling, monitoring and POE
- Building regulations
- Passive House Design
- Energy Systems
PhD Thesis: Strategies for low carbon buildings: Assessment of design options and translation of design intent into performance in practice. University of Strathclyde, 2013.
MSc: Energy Systems and the Environment. Thesis: Sustainable Housing. University of Strathclyde. 2004.
MSc: Design and Manufacture of Microelectronic Systems. Thesis: Realistic worsts cast parameter sets for circuit simulation. University of Edinburgh. 1986.
BSc Hons. Applied Physics. University of Strathclyde. 1983.
- Impact of occupant comfort and behaviour on energy use.
- Renewable energy integration in buildings, communities and micro-grids.
- Integration of Energy Storage in Low Carbon Buildings and Districts.
- Future building performance, standards and regulations.
- Building industry design process and zero defect performance in practice.
- Building and systems performance simulation.
- Buildings, systems and controls optimisation.
- Passive buildings, EU Passivhaus standards.
- Model Predictive Control of Solar Thermal Systems.
- Microelectronic systems.
- 100% Renewable Energy Systems Masterplanning and Modelling for the £24.5M East Ayrshire Growth Deal 'National Energy Research Demonstrator (NERD)'
- Absurdity of Biofuels and the 100% Renewable Future Energy System
- Social Innovation Systems for Building Resilient Communities
More professional activities
- SIES 2022: Smart Integrated Energy Systems: Enhanced Virtual Power Plant VPP+ Energy Pool Intergration for Local and Regional Resistance
- Tuohy, Paul Gerard (Principal Investigator) Burt, Graeme (Co-investigator) Kockar, Ivana (Co-investigator)
- 14-Jan-2019 - 14-Jan-2022
- Designing a factory for energy renovations - Indu-Zero
- Yan, Xiu (Principal Investigator) Clarke, Joseph Andrew (Co-investigator) McMahon, Daniel (Co-investigator) Tuohy, Paul Gerard (Co-investigator)
- The problem
The North Sea Region (NSR) contains 22 million houses built in 1950-1985 that are causing 79 Mton CO2 of emissions annually. Current home renovations are being carried out on a limited-scale and many are not to nZEB standard, with three consequences:
The pace of renovations is too low.
Renovation costs are too high.
Properties not renovated to nZEB standard will continue emitting CO2, and reduce the time frame for a large uptake of deep retrofits.
So, the targets of the Climate Agreement to achieve near zero energy (nZEB) for all buildings by 2050 will not be attained if we continue with current means.
The solution with INDU-ZERO
Mass uptake of home renovations towards energy-neutral in the NSR is needed to meet EU energy and climate targets. The building sector in Europe is not creating the necessary production facilities. INDU-ZERO’s solution is to design a factory blueprint, based on Smart Industry and Circular Economy, with capacity to manufacture renovation packages suitable for all NSR countries, at a high volume (15.000 renovation packages/factory/year) and at 50% lower cost.
This blueprint, together with INDU-ZERO’s project adoption activities, will lead investors, building materials groups, housing owner associations, municipalities, governments and public authorities to bring about initiatives that will result in the needed factory developments. These factories, and the 50% cost reduction in renovation packages, will lead to a mass market uptake of home renovation packages towards energy-neutral and will ultimately reduce the environmental footprint of the NSR countries to meet EU energy and climate targets. So the project focuses on:
1. Redesigning and adapting existing renovation technology for next-generation Industry4 manufacturing.
2. Upscaling of renovation manufacturing such that the pace goes up and the costs go down.
3. Developing a blueprint for Smart Renovation Factory to manufacture the renovation packages. The blueprint will be available to all factory developers. The renovation packages will consist of an external insulated envelope, heat-recovery ventilation, renewable energy generation, and all will be recyclable (circular). The Smart Renovation Factory will have production capacity 15,000 house renovation packages per annum, and will achieve 50% reduction of renovation co
- 01-Jan-2018 - 30-Jan-2021
- Local control for renewables�Beyond Major Tom
- Tuohy, Paul Gerard (Principal Investigator)
- 01-Jan-2017 - 31-Jan-2020
- Major Tom to Ground Control: new integrated assessment for local renewable energy Funding:
- Tuohy, Paul Gerard (Principal Investigator) Garvey, Brian (Co-investigator) João, Elsa (Co-investigator)
- This multidisciplinary research project builds upon effective engagement with Brazilian partners over a three year period to innovate and integrate local assessment for new energy forms with an analysis of socio-economic challenges and conflicts in three rural regions of Brazil.
2 January Agrarian Reform settlement, Descalvado, Brazil
Milton Santos agrarian reform settlement Brazil
- 18-Jan-2016 - 28-Jan-2017
- EPSRC Institutional Sponsorship: Global Challenges Research Fund (GCRF) / R160677-108
- Tuohy, Paul Gerard (Principal Investigator)
- 01-Jan-2016 - 31-Jan-2017
- FITS-LCD: Fabric Integrated Thermal Storage for Low-Carbon Dwellings
- Kelly, Nicolas (Principal Investigator) Bell, Keith (Co-investigator) Clarke, Joseph Andrew (Co-investigator) Strachan, Paul (Co-investigator) Tuohy, Paul Gerard (Co-investigator) Hawker, Graeme (Researcher)
- "The domestic sector faces a range of challenges as the UK attempts to drastically cut its carbon emissions by 2050. A key issue is reducing the overall demand for heat and then decarbonising residual heat loads - which encompasses both demand for space heating and hot water provision. Two non-exclusive means to achieve these goals are: firstly, the diversification of the heat sources serving buildings and communities towards a variety of low-carbon heat sources including solar thermal energy, biomass, waste heat and ground source energy. Secondly, the electrification of space and hot water heating using heat pumps running on decarbonised electricity. Thermal storage would play a key role in facilitating both of these developments, acting as an integrating mechanism for heterogeneous heat sources and decoupling heat supply and demand to mitigate the worst impacts of the electrification of heat. However, there are challenges, one of the most significant is competition for space - as dwelling sizes reduce, the space penalty associated with conventional hot water storage acts as a barrier to uptake. Storage in the future may need to migrate away from the traditional hot water tank at seen at present, towards media such as phase-change materials and storage that makes better use of the existing space and thermal mass in and around buildings, including large scale community storage. An attractive storage option is to integrate future thermal stores into the fabric of the dwelling - fabric integrated thermal stores (FITS).
The aim of this multi-discipline research is to investigate how thermal stores could be integrated into the fabric of future dwellings and communities (both new build and retrofit) and how they would be operated within the local context of accommodating multiple low-carbon thermal energy sources and within the wider context of the decarbonisation of the UK's energy supply. Specific activities include: establishing the operating criteria for fabric-integrated thermal stores (FITS) operating in a future low-carbon energy system; generating prototype FITS concepts, controllers, energy services and heat sensing solutions; performance evaluation of FITS concepts using modelling and simulation leading to selection of best performers for further investigation; construction of scaled FITS prototypes for testing of in-situ performance; gauging user reaction to the concept of using thermal storage for energy services to third parties including demand management; and finally testing of prototype interfaces to FITS with end-users.
The research will generate new knowledge in a number of areas: the architectural integration of thermal storage materials (eliminating the space penalty associated with water tanks); interfacing of thermal stores with heterogeneous heat sources; and information on the acceptability of the participation of domestic heat storage in energy networks. Tangible outputs will include: a range of FITS concept designs - the performance of which will be evaluated using modelling and simulation; two prototypes of promising concepts will be constructed as demonstrators (to test performance in the field); new thermal storage controllers; and energy services will be developed and tested, predicated on the active participation of thermal storage in energy network management.
The work will benefit the construction industry, particularly Architects and Structural Engineers, offering new ideas on the space-efficient integration of thermal storage into buildings. The work will also benefit the building services community and technology developers, providing information on the combination of multiple low-carbon heat sources and the measurement, management and control of stored heat over different timescales. Finally, the work will be of value to utilities and energy service providers, offering insight into the potential of thermal storage to facilitate network support services."
- 01-Jan-2016 - 31-Jan-2019
Mechanical and Aerospace Engineering
James Weir Building
View University of Strathclyde in a larger map