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Technology & Innovation

Driving technical innovation and localized services to build a cleaner, smarter, and more sustainable future.

Low-voltage substation area current communication technology based on multiple spread spectrum techniques

Low-voltage substation area "zero wiring" communication solution, achieving anti-harmonic interference through multiple spread spectrum techniques, with communication success rate improved to over 99.5%, suitable for medium and low voltage lines in various scenarios of power IoT applications. Current communication technology applicable to 50Hz/60Hz low-voltage power lines: Technology Areas Power Line Communication Technology, Power IoT Communication Technology R&D Approach (Core algorithms and hardware design are self-developed, with 2 invention patents applied for) Pain Points and Challenges Low-voltage power line communication technology uses distribution lines as transmission media to achieve data communication between low-voltage substation areas through modulation and demodulation technology. This technology offers the advantages of no additional wiring and low cost. However, since power lines are not dedicated communication channels, the start and stop of electrical equipment within the substation area can cause significant interference to communication, affecting the detection of communication frames by signal receiving equipment and reducing communication success rate. Low-voltage power line carrier communication technology is a communication technology that achieves data transmission and reception by superimposing high-frequency signals onto existing low-voltage power lines. Its advantage lies in the fact that it does not require additional dedicated communication lines and can be applied by relying on the widely covered low-voltage power network. This can significantly reduce the construction cost of the communication system and greatly improve the deployment efficiency of communication coverage. However, in practical applications, on one hand, due to the impedance characteristics of power lines varying with signal frequency, high-frequency signals experience significant attenuation during transmission, affecting transmission distance and quality. On the other hand, various electrical equipment and loads connected to the power lines generate complex noise, which interferes with the superimposed high-frequency communication signals, further reducing transmission stability. Technical Principles Innovation/Features Key Performance Data Scenario-Based Applications Medium and low voltage distribution network topology…

Line Loss Localization System Based on Multi-Source Measurement Fusion

Non-Intrusive Efficient Localization Scheme for Medium-Voltage Line Loss Technology Areas Smart Sensor R&D Approach (Independent R&D, Joint Innovation) Independent Innovation Pain Points and Challenges Technical Level: Traditional algorithms are disconnected from actual loads and line parameters; intelligent algorithms require high data volume and topological integrity; distributed generation access leads to bidirectional power flow, further impacting traditional fault location logic.Operating Condition Level: The distribution network structure is complex and variable, topology updates lag, load fluctuations are large with significant nonlinear harmonic interference, making it difficult to effectively distinguish abnormal losses from normal losses.System Level: Multi-service system protocols are not unified, collaborative linkage mechanisms are lacking, and the main station has insufficient computing power to support real-time and efficient line loss analysis and calculation.Cost Level: The investment in full-chain monitoring equipment and system construction is high, outdoor terminal operation and maintenance are difficult and costly, and the investment return cycle in remote areas is long.Execution Level: On-site verification is inefficient due to geographical constraints, technical positioning results are poorly linked with operation, maintenance, and management departments, making rectification implementation difficult. Innovation/Features 1. System Level: Metering data and load monitoring data are correlated based on topology, combined with line loss analysis algorithms to accurately locate high-loss sections.2. Communication Level: Compatible with self-developed Wi-SUN/LoRaWAN/4G Cat.1 multiple communication technologies, adaptable to various scenarios.3. Device Level:3-1: Power Supply and Energy Harvesting System: Adopts CT inductive energy harvesting + supercapacitor + lithium battery hybrid power supply solution3-2: Clock Synchronization: Built-in high-precision RTC module, supports BeiDou/GPS time synchronization, time synchronization accuracy ≤1ms3-3: Hot-swappable Plug-and-Play: Uses split-core CT design, can be installed without power outage, deployment completed by one person within 5 minutes, significantly reducing construction costs and safety risks3-4: Friendly Integration of New Energy: Supports reverse power flow monitoring, facilitates distributed energy consumption and coordinated management of 'source-grid-load-storage'…

Multi-energy Intelligent Dispatch and Collaborative Optimization Technology Based on Industrial and Commercial Energy Management

Breaking the energy dilemma with intelligent dispatch, creating triple value (energy efficiency + cost + carbon emissions) through collaborative optimization Focusing on complex industrial and commercial energy consumption scenarios, with multi-energy supply-demand intelligent dispatch as the core, dynamically matching production-consumption rhythms, optimizing distributed energy and storage configurations, achieving precise energy control, and ensuring energy security and stability. Technology Areas Industrial and Commercial Energy Management Pain Points and Challenges 1. Data silos: Energy status is "invisible and intangible," making it impossible to build a full-chain energy flow view of "source - grid - load - storage."2. Passive control: Unable to implement automated strategies, lack of monitoring of equipment operation status, failure to meet grid-side requirements for distributed energy integration, facing restrictions on grid connection or fines.3. Revenue loss: Charging and discharging at fixed times misses optimal arbitrage windows, high demand charges, inability to identify inefficient energy-consuming equipment or unreasonable energy usage periods, resulting in severe energy waste.4. Inefficient O&M: No remote O&M capability, high manual O&M costs, lack of data-driven O&M optimization. Technical Principles Based on the cloud-edge collaboration + source-grid-load-storage integrated architecture, relying on multiple interfaces and standardized protocols to achieve global energy data collection. On the cloud or edge side, AI and optimization algorithms, combined with electricity prices, carbon targets, and grid constraints, generate scheduling strategies such as peak shaving and valley filling, photovoltaic-storage coordination, and demand control. Through a closed-loop control chain, commands are issued to execution devices, and simultaneously, through multi-level security protection design, the "strong grid strategy" maximizes the economic value of energy storage, the "weak grid strategy" ensures power supply quality and stability, and the "isolated grid strategy" maintains system survival and operation. Innovation/Features 1. Full-scenario intelligent dispatch: Supports photovoltaic inverters, energy storage, EV chargers, diesel generators, and other full-scenario commercial and industrial energy management…

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