Commercial integration of storage and responsive demand to facilitate wind energy on the Shetland Islands

Graeme Hawker, Laura Kane, Simon Gill, Ivana Kockar, Keith Bell

Research output: Contribution to conferenceAbstract

Abstract

The Northern Isles New Energy Solutions (NINES) project seeks to implement Active Network Management (ANM) on the Shetland Islands in
a manner which reduces customers’ energy consumption, lowers peak demand and facilitates an increase in the proportion of electricity
from wind, in order to take advantage of the unique wind resource of the islands. This presentation focuses on the commercial frameworks
and trading arrangements necessary to permit additional wind capacity onto the islanded network through the active use of storage and
responsive demand technologies.
The network is modelled using a Dynamic Optimal Power Flow (DOPF) framework, which allows the unit scheduling of different combinations
of generation, storage and demand to be optimised according to different optimisation goals. This is used as a foundation to explore the value
of wind energy and storage in meeting the long-term goals of the network, the forms of trading and markets which may be used to contract
services, and the potential for responsive demand to facilitate different forms of connection agreements and curtailment strategies for new
wind farms.
In modelling the Shetland network using Dynamic Optimal Power Flow (DOPF), the optimum unit commitment schedule is determined across
a daily horizon for different network topologies, including variable levels of wind generation, storage and demand-side response - primarily
storage heaters and water tanks controllable by the Distribution System Operator via Active Network Management. This informs the level of
wind generation which may be accepted onto the network, and allows the creation and testing of commercial agreements both for wind
generators keen to utilise the unique resource of the islands, as well as allowing third-party operation of storage, and reducing the peak
energy demand of domestic consumers. This allows a greater level of demand to be supplied by non-thermal sources through the time-shifting
of demand against the availability of the wind resource. Support of the grid through reserve and response is considered in the context of
maintaining system stability, with the aim of procuring services through third-party contractual arrangements. Data collected from the
operational history of the islands and technology trials demonstrate the feasibility of these approaches and their potential applicability to other
constrained distribution networks with the potential for high levels of wind generation.
The data from trials of domestic storage equipment and modelling of wind curtailment demonstrate quantitatively the ways in which
commercial integration of modern storage and responsive demand can be used to increase the utilisation of wind energy on islanded
networks, which may often have increased renewable resources but limited grid capacity. It is shown that there are a number of trading and
connection agreements which can be used to contract for generation and ancillary services to meet these goals.

Conference

ConferenceEWEA Annual Conference 2014
CountrySpain
CityBarcelona
Period10/03/1414/03/14
Internet address

Fingerprint

Wind power
Active networks
Network management
Water tanks
System stability
Electric power distribution
Farms
Energy utilization
Scheduling
Topology
Availability
Testing

Keywords

  • commercial integration
  • storage
  • responsive demand
  • wind energy
  • shetland islands

Cite this

@conference{be3c0da2aa844486a397e14c60218016,
title = "Commercial integration of storage and responsive demand to facilitate wind energy on the Shetland Islands",
abstract = "The Northern Isles New Energy Solutions (NINES) project seeks to implement Active Network Management (ANM) on the Shetland Islands ina manner which reduces customers{\^a}€™ energy consumption, lowers peak demand and facilitates an increase in the proportion of electricityfrom wind, in order to take advantage of the unique wind resource of the islands. This presentation focuses on the commercial frameworksand trading arrangements necessary to permit additional wind capacity onto the islanded network through the active use of storage andresponsive demand technologies.The network is modelled using a Dynamic Optimal Power Flow (DOPF) framework, which allows the unit scheduling of different combinationsof generation, storage and demand to be optimised according to different optimisation goals. This is used as a foundation to explore the valueof wind energy and storage in meeting the long-term goals of the network, the forms of trading and markets which may be used to contractservices, and the potential for responsive demand to facilitate different forms of connection agreements and curtailment strategies for newwind farms.In modelling the Shetland network using Dynamic Optimal Power Flow (DOPF), the optimum unit commitment schedule is determined acrossa daily horizon for different network topologies, including variable levels of wind generation, storage and demand-side response - primarilystorage heaters and water tanks controllable by the Distribution System Operator via Active Network Management. This informs the level ofwind generation which may be accepted onto the network, and allows the creation and testing of commercial agreements both for windgenerators keen to utilise the unique resource of the islands, as well as allowing third-party operation of storage, and reducing the peakenergy demand of domestic consumers. This allows a greater level of demand to be supplied by non-thermal sources through the time-shiftingof demand against the availability of the wind resource. Support of the grid through reserve and response is considered in the context ofmaintaining system stability, with the aim of procuring services through third-party contractual arrangements. Data collected from theoperational history of the islands and technology trials demonstrate the feasibility of these approaches and their potential applicability to otherconstrained distribution networks with the potential for high levels of wind generation.The data from trials of domestic storage equipment and modelling of wind curtailment demonstrate quantitatively the ways in whichcommercial integration of modern storage and responsive demand can be used to increase the utilisation of wind energy on islandednetworks, which may often have increased renewable resources but limited grid capacity. It is shown that there are a number of trading andconnection agreements which can be used to contract for generation and ancillary services to meet these goals.",
keywords = "commercial integration, storage, responsive demand , wind energy , shetland islands",
author = "Graeme Hawker and Laura Kane and Simon Gill and Ivana Kockar and Keith Bell",
year = "2014",
month = "3",
language = "English",
note = "EWEA Annual Conference 2014 ; Conference date: 10-03-2014 Through 14-03-2014",
url = "http://www.ewea.org/annual2014/",

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Hawker, G, Kane, L, Gill, S, Kockar, I & Bell, K 2014, 'Commercial integration of storage and responsive demand to facilitate wind energy on the Shetland Islands' EWEA Annual Conference 2014, Barcelona, Spain, 10/03/14 - 14/03/14, .

Commercial integration of storage and responsive demand to facilitate wind energy on the Shetland Islands. / Hawker, Graeme; Kane, Laura; Gill, Simon; Kockar, Ivana; Bell, Keith.

2014. Abstract from EWEA Annual Conference 2014, Barcelona, Spain.

Research output: Contribution to conferenceAbstract

TY - CONF

T1 - Commercial integration of storage and responsive demand to facilitate wind energy on the Shetland Islands

AU - Hawker, Graeme

AU - Kane, Laura

AU - Gill, Simon

AU - Kockar, Ivana

AU - Bell, Keith

PY - 2014/3

Y1 - 2014/3

N2 - The Northern Isles New Energy Solutions (NINES) project seeks to implement Active Network Management (ANM) on the Shetland Islands ina manner which reduces customers’ energy consumption, lowers peak demand and facilitates an increase in the proportion of electricityfrom wind, in order to take advantage of the unique wind resource of the islands. This presentation focuses on the commercial frameworksand trading arrangements necessary to permit additional wind capacity onto the islanded network through the active use of storage andresponsive demand technologies.The network is modelled using a Dynamic Optimal Power Flow (DOPF) framework, which allows the unit scheduling of different combinationsof generation, storage and demand to be optimised according to different optimisation goals. This is used as a foundation to explore the valueof wind energy and storage in meeting the long-term goals of the network, the forms of trading and markets which may be used to contractservices, and the potential for responsive demand to facilitate different forms of connection agreements and curtailment strategies for newwind farms.In modelling the Shetland network using Dynamic Optimal Power Flow (DOPF), the optimum unit commitment schedule is determined acrossa daily horizon for different network topologies, including variable levels of wind generation, storage and demand-side response - primarilystorage heaters and water tanks controllable by the Distribution System Operator via Active Network Management. This informs the level ofwind generation which may be accepted onto the network, and allows the creation and testing of commercial agreements both for windgenerators keen to utilise the unique resource of the islands, as well as allowing third-party operation of storage, and reducing the peakenergy demand of domestic consumers. This allows a greater level of demand to be supplied by non-thermal sources through the time-shiftingof demand against the availability of the wind resource. Support of the grid through reserve and response is considered in the context ofmaintaining system stability, with the aim of procuring services through third-party contractual arrangements. Data collected from theoperational history of the islands and technology trials demonstrate the feasibility of these approaches and their potential applicability to otherconstrained distribution networks with the potential for high levels of wind generation.The data from trials of domestic storage equipment and modelling of wind curtailment demonstrate quantitatively the ways in whichcommercial integration of modern storage and responsive demand can be used to increase the utilisation of wind energy on islandednetworks, which may often have increased renewable resources but limited grid capacity. It is shown that there are a number of trading andconnection agreements which can be used to contract for generation and ancillary services to meet these goals.

AB - The Northern Isles New Energy Solutions (NINES) project seeks to implement Active Network Management (ANM) on the Shetland Islands ina manner which reduces customers’ energy consumption, lowers peak demand and facilitates an increase in the proportion of electricityfrom wind, in order to take advantage of the unique wind resource of the islands. This presentation focuses on the commercial frameworksand trading arrangements necessary to permit additional wind capacity onto the islanded network through the active use of storage andresponsive demand technologies.The network is modelled using a Dynamic Optimal Power Flow (DOPF) framework, which allows the unit scheduling of different combinationsof generation, storage and demand to be optimised according to different optimisation goals. This is used as a foundation to explore the valueof wind energy and storage in meeting the long-term goals of the network, the forms of trading and markets which may be used to contractservices, and the potential for responsive demand to facilitate different forms of connection agreements and curtailment strategies for newwind farms.In modelling the Shetland network using Dynamic Optimal Power Flow (DOPF), the optimum unit commitment schedule is determined acrossa daily horizon for different network topologies, including variable levels of wind generation, storage and demand-side response - primarilystorage heaters and water tanks controllable by the Distribution System Operator via Active Network Management. This informs the level ofwind generation which may be accepted onto the network, and allows the creation and testing of commercial agreements both for windgenerators keen to utilise the unique resource of the islands, as well as allowing third-party operation of storage, and reducing the peakenergy demand of domestic consumers. This allows a greater level of demand to be supplied by non-thermal sources through the time-shiftingof demand against the availability of the wind resource. Support of the grid through reserve and response is considered in the context ofmaintaining system stability, with the aim of procuring services through third-party contractual arrangements. Data collected from theoperational history of the islands and technology trials demonstrate the feasibility of these approaches and their potential applicability to otherconstrained distribution networks with the potential for high levels of wind generation.The data from trials of domestic storage equipment and modelling of wind curtailment demonstrate quantitatively the ways in whichcommercial integration of modern storage and responsive demand can be used to increase the utilisation of wind energy on islandednetworks, which may often have increased renewable resources but limited grid capacity. It is shown that there are a number of trading andconnection agreements which can be used to contract for generation and ancillary services to meet these goals.

KW - commercial integration

KW - storage

KW - responsive demand

KW - wind energy

KW - shetland islands

UR - http://www.ewea.org/annual2014/

UR - http://www.ewea.org/annual2014/conference/programme/printword.php?id=518

M3 - Abstract

ER -