Delivering Energy Flexible Built Environments through digital twins

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Title
Delivering Energy Flexible Built Environments through digital twins

CoPED ID
0eaa8d16-b322-430b-a573-02422dde1152

Status
Active

Funders

Value
No funds listed.

Start Date
Sept. 30, 2020

End Date
March 29, 2026

Description

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Problem or Challenge
In the third quarter of 2019, the UK generated more electricity from renewables than from fossil fuels for the first time. The sustenance and resilience of this welcome shift necessitates building in so-called energy flexibility into the national energy system. Hitherto managed from the supply side, energy flexibility is the ability to synchronise the production of electricity from power plants to match demand. The urgency of decarbonising heat and transport through greater degrees of electrification, along with managing the intermittent nature of supply from renewables will inevitably increase the pressure on the grid. Therefore,
there is a pressing need for new and adept mechanisms of synchronising energy demand to adapt to variations in electricity provision.
MRes/PhD project objectives
This project will build upon recent advancements in digital twinning and develop novel simulation capabilities that enable adept demand-side management of buildings at district scales. It will investigate methods that can quantify energy flexibility of buildings, and their resilience to future shocks and changes with quantification of uncertainties.
PhD project description
Flexibility in demand can be achieved through thermal and battery storage, or through time management of activities and processes within buildings. However, the full potential can only be accrued at district-scales where demand from various activities and processes across multiple buildings can be tracked and managed dynamically and collectively. This poses challenges, whereby (a) energy demand must be disaggregated by activities, and allocated spatially and temporally (b) energy consuming activities and processes in buildings must be quantified as a time-dependent flexibility index, (c) models of active demand-response and
control must be tested, which includes short term forecasting.
MRes component
- A thorough literature review of the state-of-the-art in the combined use of energy monitoring and simulation modelling of buildings
- A proof-of-concept study of a small set of university buildings, which develops one or two components of the methodology

Ruchi Choudhary SUPER_PER
James Kinch STUDENT_PER

Subjects by relevance
  1. Energy consumption (energy technology)
  2. Resiliency (flexibility)
  3. Renewable energy sources
  4. Buildings
  5. Production of electricity
  6. Energy production plants
  7. Demand side flexibility (electricity)
  8. Energy
  9. Power plants
  10. Simulation

Extracted key phrases
  1. Digital twin
  2. Energy Flexible
  3. Energy demand
  4. Energy flexibility
  5. National energy system
  6. Digital twinning
  7. Energy monitoring
  8. Adept demand
  9. Active demand
  10. University building
  11. Phd project objective
  12. Multiple building
  13. Problem
  14. Dependent flexibility index
  15. Phd project description

Related Pages

UKRI project entry

UK Project Locations