Content area
Abstract
This study endeavored to enhance the efficiency and utility of microcomputer meters. In the past, their role was predominantly confined to remote meter reading, entailing high construction and communication transmission costs, coupled with subsequent maintenance and operational expenditures. These factors collectively impacted the enthusiasm of various stakeholders to invest in this realm. Hence, in alignment with the smart city development initiative, the natural gas industry has pioneered the establishment of an advanced metering infrastructure with heterogeneous wireless sensor networks (HWSNs) at its core. This visionary leap incorporates global machine-to-machine connectivity (G-M2MC) technology, interconnecting all facets of its operations, thereby positioning itself as a trailblazer within the industry. While advancing this endeavor, the project’s scheduling aligns with the enterprise’s sustainability goals in the early stages of digital transformation. This strategic allocation of resources is responsive to government policies and aspires to cultivate a digitally connected smart green energy hub, thereby expediting the transformation of the living environment. The objective is to provide a stable, secure, cost-effective, and reliable system that can be shared among peers. Furthermore, this study delved into the analysis of congestion avoidance in intelligent Zigbee satellite transport networks based on the HWSNs-GM2MC of non-synchronous satellite orbit system (NGSO) pivotal technologies, utilizing them to integrate the smart LNGas management system (SGMS). Concurrently, it developed application services through the smart meter application interface (SMAPI), distinct from conventional microcomputer meters. However, it is imperative to acknowledge that cloud computing, while processing sensitive data, grapples with issues of latency, privacy, efficiency, power consumption, and zero-trust security risk information management and ethical authority management capabilities in the defense of disaster relief responses.
Details
Satellite orbits;
Synchronous satellites;
Principles;
Wide area networks;
Network topologies;
Semiconductors;
Signal processing;
Wireless sensor networks;
Clean energy;
Natural gas industry;
Satellite networks;
Power consumption;
Access control;
Technology;
Efficiency;
Expenditures;
Capital costs;
Public policy;
Disaster relief;
Infrastructure;
Automatic meter reading;
Cloud computing;
Sensors;
Antennas;
Network latency;
Microcomputers;
Information management;
Smart meters;
Data transmission;
Advanced metering infrastructure
; Tsung-Tao, Lu 1 ; Chin-Tan, Lee 2
; Sun, Jwo-Shiun 1
; Hsin-Piao Lin 1
; Hwang, Yuh-Shyan 1 ; Wen-Tsai, Sung 3
1 Department of Electronic Engineering, National Taipei University of Technology, Taipei City 106008, Taiwan;
2 Department of Electronic Engineering, National Quemoy University, Jinning 892009, Taiwan
3 Department of Electrical Engineering, National Chin-Yi University of Technology, Taichung City 411030, Taiwan