Time-Use Data Modelling of Domestic, Commercial and Industrial Electricity Demand for the Scottish Islands

被引:1
作者
Matthew, Chris [1 ]
Spataru, Catalina [1 ]
机构
[1] UCL, Energy Inst, Bartlett Sch Environm Energy & Resources, London WC1H 0NN, England
关键词
electricity demand modelling; Scottish Islands; hourly demand; time-use data; demand forecasting; domestic; commercial and industrial; END-USE ENERGY; UK; CONSUMPTION; TRENDS;
D O I
10.3390/en16135057
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Achieving emissions reduction targets requires improved energy efficiency to avoid an oversized and excessively expensive electricity network. This can be analysed using hourly demand modelling that captures behaviour profiles, technology types, weather factors and building typologies. Numerous domestic models exist, but whole systems energy modelling, including commercial and industrial demand, are limited by data availability. Time-use survey data has typically been used to model domestic demand- in this work is expanded to also model commercial and industrial electricity-heating for the Scottish islands at an hourly and individual building level. This method is widely applicable for modelling whole system energy demand wherever time-use survey data are available. Combinatorial optimisation has been applied to generate a synthetic population, match individuals to properties and apply construction types to building polygons. SimStock is used for heating and lighting modelling. Validation of the model with 2016 data shows that it reflects longer term trends, with a monthly mean absolute percentage error (MAPE) of 1.6% and an R-2 of 0.99. At the hourly level, the MAPE of 6.2% and R-2 of 0.87 show the model captures variability needed to combine it with a supply-side model. Dataset accuracy, variability in the date recorded, missing data and unknown data correlations are discussed as causes for error. The model can be adapted for other regions and used to analyse the costs and benefits of energy efficiency measures with a supply-side generation model.
引用
收藏
页数:25
相关论文
共 20 条
  • [1] Modelling household electricity load profiles based on Danish time-use survey data
    Foteinaki, Kyriaki
    Li, Rongling
    Rode, Carsten
    Andersen, Rune Korsholm
    ENERGY AND BUILDINGS, 2019, 202
  • [2] Daily life and demand: an analysis of intra-day variations in residential electricity consumption with time-use data
    Satre-Meloy, Aven
    Diakonova, Marina
    Grunewald, Philipp
    ENERGY EFFICIENCY, 2020, 13 (03) : 433 - 458
  • [3] Daily life and demand: an analysis of intra-day variations in residential electricity consumption with time-use data
    Aven Satre-Meloy
    Marina Diakonova
    Philipp Grünewald
    Energy Efficiency, 2020, 13 : 433 - 458
  • [4] Industrial electricity demand for Turkey: A structural time series analysis
    Dilaver, Zafer
    Hunt, Lester C.
    ENERGY ECONOMICS, 2011, 33 (03) : 426 - 436
  • [5] Constructing load profiles for household electricity and hot water from time-use data-Modelling approach and validation
    Widen, Joakim
    Lundh, Magdalena
    Vassileva, Iana
    Dahlquist, Erik
    Ellegard, Kajsa
    Wackelgard, Ewa
    ENERGY AND BUILDINGS, 2009, 41 (07) : 753 - 768
  • [6] Explaining shifts in UK electricity demand using time use data from 1974 to 2014
    Anderson, Ben
    Torriti, Jacopo
    ENERGY POLICY, 2018, 123 : 544 - 557
  • [7] Forecasting macro-energy demand accounting for time-use and telework
    Phoung, Sinoun
    Hittinger, Eric
    Guhathakurta, Subhrajit
    Williams, Eric
    ENERGY STRATEGY REVIEWS, 2024, 51
  • [8] A review of time use models of residential electricity demand
    Torriti, Jacopo
    RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2014, 37 : 265 - 272
  • [9] Laundry, energy and time: Insights from 20 years of time-use diary data in the United Kingdom
    Anderson, Ben
    ENERGY RESEARCH & SOCIAL SCIENCE, 2016, 22 : 125 - 136
  • [10] Time Series Clustering of Electricity Demand for Industrial Areas on Smart Grid
    Son, Heung-gu
    Kim, Yunsun
    Kim, Sahm
    ENERGIES, 2020, 13 (09)