Environmental Change Institute
June 27, 2018
Energy Demand: What are the challenges now? Teddinet, London, 15 th - - PowerPoint PPT Presentation
Environmental Change Institute Energy Demand: What are the challenges now? Teddinet, London, 15 th June 2018 Nick Eyre June 27, 2018 The long term trend in fossil fuels use IPCC WGIII, 2014 ...and the implications of the Paris Agreement
Environmental Change Institute
June 27, 2018
IPCC WGIII, 2014
Rogelj, J., Schaeffer, M., Meinshausen, M., Knutti, R., Alcamo, J., Riahi, K., Hare, W., 2015. Zero emission targets as long-term global goals for climate protection. Environmental Research Letters 10, 105007.
§ Energy efficiency and conservation: § reducing demand § Demand response: § shifting demand in time § Fuel switching, e.g. electrification: § increasing electricity demand § Distributed generation and storage: § Challenging the supply/demand dichotomy
§ The frequency and intensity of energy service demand
§ Social change is happening, especially, but not only
§ There is a design-use ‘performance gap’ across a
§ Buildings tend to be an extreme case: § They are very diverse § They constructed on site, with variable skill levels, § They host multiple energy services.
§ How do low energy systems (especially
§ How do we innovate (technically, socially and
§ How do we up-skill supply chains to deliver? § How do we ‘up-educate’ users? § Where and how can smart systems help? § How do we design the ‘smart/dumb’ interface?
Solar and wind supply in Germany, August 2015 (Ehlers, 50 Hz)
§ Electricity system balancing will require some
§ flexible generation, § interconnection. § demand side response (DSR), § storage.
§ Customer engagement § Social acceptability § Business model innovation § Market and tariff structures
§ Historically expensive,
but battery costs driven down by mobile and transport markets
§ The appropriate scale
and location of deployment are contested
Nykvist, B.& Nilsson, M.Nature Climate Change, 2015
§ 80% of final energy demand is not electricity;
§ Electrification of transport implies a large increase in
§ Electrification of heating has very different
§ electricity: late 19th century § transport: early 19th century § heat: 176,000 years ago. § So it’s not surprising that carbon based heating
20 40 60 80 100 120 140 160 180 GW
Modelled UK End Use Gas Demand
Author calculations based on National Grid modelling methodology
20 40 60 80 100 120 140 160 180 GW
Modelled UK End use Gas Demand
Average Cold
Author calculations based on National Grid modelling methodology
Sources of zero carbon fuel are limited
§ Indigenous biofuel is limited § Complete dependence on electric heat pumps would
lead to implausible requirements for electricity capacity.
§ CCS is expensive and not established
So infrastructure requirements are not known
§ Electricity is not a complete solution § Heat networks alone don’t address the key
questions of the heat source.
§ Re-purposing of gas networks is possible,
but implies a major hydrogen programme. All of which indicates that reducing heat demand will be important
Research and Innovation for the period April 2018 to March 2023, with a budget of £19.5 million.
an HQ at University of Oxford.
demand research community.
is under-recognised in much public discourse.
RCUK EUED Programme
for the UK energy demand research community;
innovative research.
technologies and minor behavioural changes;
using more ambitious policy intervention;
response to the demand reduction agenda.
Policy Flexibility
Digital
What social and technical changes? And what are the innovation and policy implications?
StrategicArea Lead Theme Business and Industry Efficiency Materials Improving Our Homes Buildings Low Carbon Transport Transport Clean, Smart, Flexible Power Flexibility
efficiency
certificates; DSM as a power reduction service
in buildings
development and applications, with a focus on improved time granularity.
long distance transport
mobility; a quantified model of flexibility
efficiency
international comparison and benchmarking
economy
resource productivity; case study on construction resource productivity.
better representation in models of mitigation
strategy
measuring flexibility
assessment of demand flexibility; measurement of electricity flexibility; conceptualising flexibility
flexibility
flexible technologies; time dependent price elasticities; institutional rhythms and flexibility.
demand relationship; econometric analysis
relationships
economy
ICT-enabled energy service business models
homes; tele-working
citizen engagement
local government engagement with energy demand
understanding the political drivers of policy asymmetry; distributed ledgers as a disrupter or retail markets.
performance, uncertainties and synergies of key technologies for production, networks, storage and use.
analysis of ‘energy system architecture’.
implications
communication
stakeholders.
related to innovation, investment, costs and benefits to answer questions such as:
investment? Where? And by whom?
the Centre.
month 6, based on stakeholder mapping.
posts, 0.5 Communications Officer, 0.5 data officer, full-time administration support.
briefings.
Nick Eyre, Director, Oxford Clare Downing, Centre Manager, Oxford Co-Directors T adj Oreszczyn , UCL Jillian Anable , Leeds John Barrett, Leeds Jacopo T
Reading Tim Foxon, Sussex Steve Sorrell, Sussex Tina Fawcett , Oxford Bob Lowe, UCL
Knowledge exchange
Kay Jenkinso n Sarah Higginson