In 2019, the UK became one of the first advanced economies to pass legislation to target net zero greenhouse gas emissions by 2050. However, the country is projected to just meet its fourth and fifth carbon reduction targets due largely to the interruption caused by the global COVID-19 pandemic. So, if we are truly going to achieve net zero, what needs to happen?
Active buildings require data. “Things”, such as those producing renewable energy, measuring energy flow or monitoring environmental conditions, must be connected to the Internet to provide the information needed to support the intelligent integration of the buildings into the wider energy infrastructure; they form part of the Internet-of-Things (IoT).
Real life is uncertain, yet, despite everyone’s best efforts, it is impossible to remove the effects of uncertainty from our daily lives. Or is it? Well, if we are talking about the operation of residential buildings, we can. The team at Imperial College London are developing robust control strategies that will help to achieve low emissions goals and optimal comfort, while accounting for uncertainty.
Digitals twins have been widely used by industry for many decades. Nevertheless, their use in the built environment is relatively recent, but growing inline with the decarbonisation agenda. Literature to date has evidenced the role of digital twins in promoting energy improvements, but how can they be implemented more widely to benefit net-zero in the sector?
As we try to progress towards net-zero, there is something that stands out rather clearly: buildings matter. Their current energy and carbon footprint are tremendous, yet they have such a potential to become a positive force for change that there can be no net-zero by 2050 without their decarbonisation. How could we then support delivering positive impact?
Recent advancements in low-cost sensing technologies have proliferated the Internet of Things. IoT, as it is known, provides connectivity to any device via Internet Protocol, enabling more efficient monitoring and control of any medium, including active buildings. So how can we leverage these networks to improve building performance?
Residential buildings account for about a quarter of the global energy use. With the growing electrification of the heating and transport sector, their consumption is likely to increase further and new approaches to the design and specification of buildings will be needed to deliver optimal performance.
As building performance data becomes more pervasive, there are opportunities to improve how we design the net-zero carbon buildings of the future. At Loughborough University, we are utilising real-world data to create a new model that will improve how buildings and, more importantly, communities of buildings, can be designed.
A new Welsh Government initiative backed by almost £20m has been launched to transform the quality and sustainability of social housing in Wales and boost the green economic recovery. The Optimised Retrofit Programme (ORP) is funding a suite of smart energy efficiency measures that will help Wales move towards a net-zero carbon economy.
There is a growing number of energy simulation tools to support the increasing demand for energy efficient buildings. As an energy analyst, the challenge is knowing which is the most appropriate for a given application. As part of our research activities are, we are comparing the performance of two of the most widely used tools.
As the Covid pandemic is having a stronghold on our daily lives, the battle against climate change continues. The notion of ‘divide and manage’ can also be applied to the energy setting of our buildings. After all, over 40% of energy is consumed in them.
How can we effectively decarbonise the way in which we heat buildings without spending a fortune on upgrading the power grid? As part of the Active Building Centre Research Programme, the team at Imperial College London are devising new and innovative approaches to overcome this challenge.
Covid-19 has created barriers across the user research industry, but it has also been the catalyst for new, innovative approaches and helped to bring forward much needed investment in key areas. For Our Healthy Living in Low Carbon Homes Team, this has created challenges and opportunities alike.
Bringing stakeholders from across industry, government and academia to understand the potential of Heating as a Service (HaaS) as an energy delivery model. The “Heat as a Service: Understanding evidence needs and research gaps” project aimed to explore the evidence needs of key stakeholders around the impacts of, and barriers to, offering heat as a service.
As the UK’s built environment evolves, could a new building code that can standardise the design and development of Active Buildings accelerate their impact on carbon reduction targets? Our Active Building Code aims to give an answer, providing guidance on shaping the next generation of buildings.
Smart building controls will enable greater power grid flexibility but the focus now needs to be on how we transition these powerful concepts into a deployable reality. The benefits have been reported for quite a while now. Smart control can enable buildings to act as providers of flexible services to the wider power grid, while improving the occupant’s thermal comfort.
Our Healthy Living in Low Carbon Homes Team has established a Healthy Ageing expert panel who will be crucial to our research here at Swansea University. The panel will actively engage members of the public throughout the project to ensure our work improves the likelihood of project success and technological adoption. Here is some initial feedback from our first session with them.
To address the availability issues surrounding residential heat pump profile data for energy systems researchers, our team has have developed the ‘Electrified Water And Space-heating Profiler’ tool. Being accessible to non-experts, running on open source software, and considering a large range of buildings, this tool could help transform how we analysis heat pump performance across the sector.
The current transition towards a low-carbon economy is making progress, with the UK’s 1st, 2nd and 3rd carbon budget targets having been met or projected to do so. However, meeting the 4th and 5th carbon budget targets is already far from plan and the milestones are unlikely to be met unless we can overcome the challenge of decarbonising the heating our existing domestic building stock.
Our researchers estimate the adoption of electric vehicles could benefit our energy network by upwards of £5 billion every year. With cars being largely stationary throughout their lives, having a car battery as a direct power source for a building is a huge opportunity that could support grid stability but how can we maximise this?
If we want to improve and decarbonise our built environment, we need to efficiently collect, analyse and leverage the data each building generates. Good, clean, comparable data is the key to optimising building performance, improving the use of resources, and making a significant stride toward predictive maintenance and control. The question is how do we standardise this?
Our socio-economic research requires developing and maintaining relationships with diverse stakeholder groups; a challenge we have embraced during a time of social distancing. By pivoting our research methods, we have maintained regular communication with our stakeholders, sharing concerns, exasperations and jovialities while touching base and keeping the project moving in the right direction.