Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation

Thermostatically controlled load is a flexible load that controls temperature regulation, such as air conditioning and electric water heaters.As a crucial demand side resource, flexible aggregation and regulation of load clusters can fully mobilize clean energy consumption capacity and ensure the ba...

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Main Authors: Yi LIU, Xin WU
Format: Article
Language:zho
Published: Beijing Xintong Media Co., Ltd 2024-02-01
Series:Dianxin kexue
Subjects:
Online Access:http://www.telecomsci.com/zh/article/doi/10.11959/j.issn.1000-0801.2024029/
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author Yi LIU
Xin WU
author_facet Yi LIU
Xin WU
author_sort Yi LIU
collection DOAJ
description Thermostatically controlled load is a flexible load that controls temperature regulation, such as air conditioning and electric water heaters.As a crucial demand side resource, flexible aggregation and regulation of load clusters can fully mobilize clean energy consumption capacity and ensure the balance between supply and demand of the power grid.Due to the common occurrence of thermostatically controlled loads in commercial office buildings and residential areas, a relatively stable control and transmission method can be adopted.Therefore, an efficient hierarchical transmission network is introduced to achieve data transmission and information interaction between loads and the power grid, and to flexibly, real-time, and accurately utilize the adjustable potential of load clusters.Firstly, an information interaction architecture of load IoT which structured “central cloud-edge cloud-regional load controller-thermostatically controlled load”was proposed.Then, for the “end edge”part, considering the requirements of different aggregation control tasks, an improved clustering algorithm was used to classify the tasks and reduce transmission overhead.For the “end-side” part, an improved clustering algorithm was used to optimize the transmission distance.For the edge-cloud collaboration part, a subchannel resource allocation algorithm was designed based on stable matching and water injection algorithms.The binary particle swarm optimization algorithm was used to solve the task upload decision problem.Finally, the effectiveness of the proposed model and algorithm is verified through simulation, and comparative experiments are also conducted.
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spelling doaj-art-f9808f6d24674c9e9b4a5db1b34f998c2025-01-15T02:48:36ZzhoBeijing Xintong Media Co., LtdDianxin kexue1000-08012024-02-014012414059556150Cloud edge end network resource allocation for thermostatically controlled load aggregation regulationYi LIUXin WUThermostatically controlled load is a flexible load that controls temperature regulation, such as air conditioning and electric water heaters.As a crucial demand side resource, flexible aggregation and regulation of load clusters can fully mobilize clean energy consumption capacity and ensure the balance between supply and demand of the power grid.Due to the common occurrence of thermostatically controlled loads in commercial office buildings and residential areas, a relatively stable control and transmission method can be adopted.Therefore, an efficient hierarchical transmission network is introduced to achieve data transmission and information interaction between loads and the power grid, and to flexibly, real-time, and accurately utilize the adjustable potential of load clusters.Firstly, an information interaction architecture of load IoT which structured “central cloud-edge cloud-regional load controller-thermostatically controlled load”was proposed.Then, for the “end edge”part, considering the requirements of different aggregation control tasks, an improved clustering algorithm was used to classify the tasks and reduce transmission overhead.For the “end-side” part, an improved clustering algorithm was used to optimize the transmission distance.For the edge-cloud collaboration part, a subchannel resource allocation algorithm was designed based on stable matching and water injection algorithms.The binary particle swarm optimization algorithm was used to solve the task upload decision problem.Finally, the effectiveness of the proposed model and algorithm is verified through simulation, and comparative experiments are also conducted.http://www.telecomsci.com/zh/article/doi/10.11959/j.issn.1000-0801.2024029/cloud edge end collaborationresource allocationreal time accurate transmissionthermostatically controlled load aggregation
spellingShingle Yi LIU
Xin WU
Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
Dianxin kexue
cloud edge end collaboration
resource allocation
real time accurate transmission
thermostatically controlled load aggregation
title Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
title_full Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
title_fullStr Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
title_full_unstemmed Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
title_short Cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
title_sort cloud edge end network resource allocation for thermostatically controlled load aggregation regulation
topic cloud edge end collaboration
resource allocation
real time accurate transmission
thermostatically controlled load aggregation
url http://www.telecomsci.com/zh/article/doi/10.11959/j.issn.1000-0801.2024029/
work_keys_str_mv AT yiliu cloudedgeendnetworkresourceallocationforthermostaticallycontrolledloadaggregationregulation
AT xinwu cloudedgeendnetworkresourceallocationforthermostaticallycontrolledloadaggregationregulation