Bovin Energy Efficiency Management System

Energy Efficiency Management System

1 , System Overview

Beijing Boweya Information Technology Co., Ltd.’s next-generation integrated energy efficiency management system, BWY3000X‑II, is built on a configuration framework that encompasses six categories of entities—energy source, grid, load, storage, consumption, and control—providing a rapid‑iteration application platform for diverse industries to support their unique energy management models, energy efficiency monitoring, and energy‑saving and emission‑reduction initiatives. The system adopts a microservices architecture and leverages cutting‑edge “Big Data, Cloud, IoT, Mobile, and AI” technologies—including high‑concurrency access, multi‑protocol adaptation, containerization, and an advanced operations‑and‑maintenance monitoring framework—to ensure the continuous, stable operation of the energy‑internet cloud platform.

The BWY3000X‑II Integrated Energy Efficiency Management System leverages object‑based configuration to build an interactive platform for online monitoring and optimized control of comprehensive energy management across various industries, catering to a wide range of integrated energy service application scenarios.

2. System Advantage

Addressing the shortcomings of traditional energy‑efficiency management systems—such as complex engineering, incomplete data, logical errors, and high operational difficulty—the BWY3000X‑II integrated energy‑efficiency management system leverages PLC technology, low‑power wireless communication, and NB‑IoT to enable more flexible data acquisition, multi‑protocol adaptability, and simplified installation. It also delivers more efficient data cleansing, automated identification of energy‑chain topologies, and streamlined supplementary data collection, ensuring the completeness, accuracy, and logical consistency of energy‑related data. Furthermore, its capabilities for automatic fault localization and analysis, along with automated identification of energy‑use inefficiencies, significantly reduce system complexity, making it accessible even to non‑energy and non‑electrical professionals and helping industry users avoid the awkward situation of having to hire specialized engineers for routine tasks.

2. System Composition

The BWY3000X‑II Integrated Energy Efficiency Management System employs a B/S architecture, with the server deployable either in the cloud or within the user’s own network. Users access different sites on the central platform via a web browser to perform application functions. The system provides core functionalities for the operations management, O&M, and customer service modules. Its logical architecture aligns with the “Big Data, Cloud, IoT, Mobile, and AI” cloud‑platform framework and meets real‑time system requirements, comprising the application layer, platform layer, data acquisition layer, network layer, and perception layer.

2. Main Station System Functions

The BWY3000X‑II Integrated Energy Efficiency Management Master Station System can be deployed across a wide range of smart energy‑service applications, including intelligent rail transit, smart highways, smart factories, smart industrial parks, smart agriculture, smart fisheries, smart ports, schools, hospitals, commercial complexes, and government institutions. It supports comprehensive functions such as the collection, storage, cleansing, and processing of data for various energy sources—including water, electricity, natural gas, steam, nitrogen, oxygen, coal, and oil—along with energy visualization, anomaly detection and early warning/alarm, energy trading, energy consumption analysis, energy efficiency analysis, optimized control, intelligent operations and maintenance, and coordinated optimization of generation, grid, load, storage, and end‑use. Additionally, it provides fault location, identification of energy‑use inefficiencies, and related operational analytics reporting capabilities. The master station system comprises communication servers, data acquisition servers, database servers, application servers, web servers, a cloud platform, a mobile app, an energy dashboard, and associated network equipment.

• Energy visualization management encompasses real-time data collection and monitoring of various energy sources, including water, electricity, natural gas, steam, nitrogen, oxygen, coal, and oil, as well as SCADA-based pipeline monitoring. It enhances transparency in energy consumption, enables prompt detection of anomalies, and helps reduce energy losses due to leaks, overflows, and inefficiencies.
• Energy consumption analysis encompasses hourly meter reading, energy cost allocation management, energy billing and settlement, energy trading, user‑level energy consumption analysis, energy‑unit‑level consumption analysis, energy‑consumption quota management, load forecasting, energy balance analysis, and energy dashboard management. It also supports period‑over‑period (month‑over‑month, year‑over‑year) and benchmarking analyses, multi‑entity comparative analyses, as well as ranking and benchmarking assessments, thereby guiding users to adopt scientific and rational energy‑use practices, promoting a balanced supply‑demand relationship, promptly identifying energy‑consumption anomalies, and reducing energy‑use costs.
• Energy‑consumption management includes remote trip and close functions, enabling automatic power disconnection based on system settings and automatic reclosure upon system restoration. It supports multiple prepaid‑top‑up methods, as well as arrears‑reminder and arrears‑triggered trip‑linkage features.
• Revenue settlement includes configuring energy pricing and billing methods, automatically generating billing statements based on metering and consumption data, and supporting the delivery of these statements via email, SMS, and mobile apps. It also features arrears notifications, payment reminders, and automatic circuit‑breaker tripping upon overdue payments, while accommodating multiple payment options such as Alipay, WeChat Pay, and bank cards.
• Operational management encompasses account opening, top-ups, promotional credits, refunds, account closure, online processing of operational and maintenance requests, as well as usage and balance inquiries and mobile bill payments via the mobile app.
• Alarm monitoring encompasses anomaly analysis, fault localization, and root-cause tracking, enabling proactive identification and timely resolution of equipment and energy‑pipeline anomalies. It also includes fault‑location analysis, lifecycle assessment, health‑status evaluation, and safety‑diagnostic reports, providing technical support for equipment upgrades and operations‑and‑maintenance activities.
• Intelligent operations and maintenance employs an AI‑driven ticketing workflow to handle detected incidents, automatically providing end-to-end services that include fault identification, root cause analysis, emergency repair, and intelligent dispatch.
• Comprehensive services within the energy ecosystem: the system facilitates matchmaking between supply and demand for integrated energy services, provides interoperability interfaces with other systems, enables the sharing of energy‑related big data and demand‑side response interactions, optimizes system operations, enhances energy utilization efficiency, and reduces energy investment costs for enterprises, the power grid, and government entities.