Modem intemet of things technologies bear the promise of cheap, ubiquitous and standard solutions for the smart grid. The end-to-end architecture relies upon transverse service enablement and device connectivity platf...Modem intemet of things technologies bear the promise of cheap, ubiquitous and standard solutions for the smart grid. The end-to-end architecture relies upon transverse service enablement and device connectivity platforms, LTE communications solutions and communication gateways bridge the gap between 3GPP standards and legacy communications solutions. This paper will have a specific focus on the multi-services, multi-protocols gateways that allow connection to legacy assets, and how they are a critical component for the digitalization of power grids and cities. We will illustrate how this gateway--called the Smart Grid Node--has enabled Duke Energy (USA) to initiate its grid modernization project in Cincinnati, Ohio. We will also show that the smart grid node is much more than a communication gateway as it can host very diverse decentralized applications and therefore be a key component to enable multi-services smart city nodes in the near future.展开更多
The world is experiencing a fourth industrial revolution.Rapid development of technologies is advancing smart infrastructure opportunities.Experts observe decarbonisation,digitalisation and decentralisation as the mai...The world is experiencing a fourth industrial revolution.Rapid development of technologies is advancing smart infrastructure opportunities.Experts observe decarbonisation,digitalisation and decentralisation as the main drivers for change.In electrical power systems a downturn of centralised conventional fossil fuel fired power plants and increased proportion of distributed power generation adds to the already troublesome outlook for op-erators of low-inertia energy systems.In the absence of reliable real-time demand forecasting measures,effective decentralised demand-side energy planning is often problematic.In this work we formulate a simple yet highly effective lumped model for forecasting the rate at which electricity is consumed.The methodology presented focuses on the potential adoption by a regional electricity network operator with inadequate real-time energy data who requires knowledge of the wider aggregated future rate of energy consumption.Thus,contributing to a reduction in the demand of state-owned generation power plants.The forecasting session is constructed initially through analysis of a chronological sequence of discrete observations.Historical demand data shows behaviour that allows the use of dimensionality reduction techniques.Combined with piecewise interpolation an electricity demand forecasting methodology is formulated.Solutions of short-term forecasting problems provide credible predictions for energy demand.Calculations for medium-term forecasts that extend beyond 6-months are also very promising.The forecasting method provides a way to advance a novel decentralised informatics,optimisa-tion and control framework for small island power systems or distributed grid-edge systems as part of an evolving demand response service.展开更多
文摘Modem intemet of things technologies bear the promise of cheap, ubiquitous and standard solutions for the smart grid. The end-to-end architecture relies upon transverse service enablement and device connectivity platforms, LTE communications solutions and communication gateways bridge the gap between 3GPP standards and legacy communications solutions. This paper will have a specific focus on the multi-services, multi-protocols gateways that allow connection to legacy assets, and how they are a critical component for the digitalization of power grids and cities. We will illustrate how this gateway--called the Smart Grid Node--has enabled Duke Energy (USA) to initiate its grid modernization project in Cincinnati, Ohio. We will also show that the smart grid node is much more than a communication gateway as it can host very diverse decentralized applications and therefore be a key component to enable multi-services smart city nodes in the near future.
基金The first author wishes to acknowledge the financial support pro-vided by Teesside University and the Doctoral Training Alliance(DTA)scheme in Energy.The authors also acknowledge elements of the work was carried out as part of the REACT project(01/01/2019-31/12/2022)which is co-funded by the EU’s Horizon 2020 Framework Programme for Research and Innovation under Grant Agreement No.824395.
文摘The world is experiencing a fourth industrial revolution.Rapid development of technologies is advancing smart infrastructure opportunities.Experts observe decarbonisation,digitalisation and decentralisation as the main drivers for change.In electrical power systems a downturn of centralised conventional fossil fuel fired power plants and increased proportion of distributed power generation adds to the already troublesome outlook for op-erators of low-inertia energy systems.In the absence of reliable real-time demand forecasting measures,effective decentralised demand-side energy planning is often problematic.In this work we formulate a simple yet highly effective lumped model for forecasting the rate at which electricity is consumed.The methodology presented focuses on the potential adoption by a regional electricity network operator with inadequate real-time energy data who requires knowledge of the wider aggregated future rate of energy consumption.Thus,contributing to a reduction in the demand of state-owned generation power plants.The forecasting session is constructed initially through analysis of a chronological sequence of discrete observations.Historical demand data shows behaviour that allows the use of dimensionality reduction techniques.Combined with piecewise interpolation an electricity demand forecasting methodology is formulated.Solutions of short-term forecasting problems provide credible predictions for energy demand.Calculations for medium-term forecasts that extend beyond 6-months are also very promising.The forecasting method provides a way to advance a novel decentralised informatics,optimisa-tion and control framework for small island power systems or distributed grid-edge systems as part of an evolving demand response service.