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How can information technology support the intelligent development of urban water‑environment management and control?

Information technology is transforming urban water‑environment management. With advanced tools such as integrated electronic water gauges, we can achieve more efficient and safer monitoring of water resources. Looking ahead, the advancement of smart technologies will deliver a cleaner, healthier water environment.

2026

06-27

MXT01D Integrated Miniature Level Sensor—Dual-Channel Cooperative Measurement Mode Featuring Both Contact Electrodes and Hydrostatic Pressure Sensing

I. Dual-Sensor Hardware Architecture The MXT01D miniature level sensor integrates a contact‑type electrode sensor and a hydrostatic pressure sensor into a single, unified module. Each sensor independently acquires raw level data, and an embedded 32‑bit low‑power MCU runs a fusion algorithm to perform real-time comparison and joint calibration of the two data streams, thereby addressing inherent measurement limitations of single‑sensor systems at the hardware level. 1. Hydrostatic Pressure Sensor: Based on the principle of liquid static pressure, this sensor provides linear, continuous level readings, capturing even subtle water‑level changes in real time across the full low, medium, and high range, ensuring uninterrupted data acquisition. 2. Contact‑Type Electrode Sensor: Unaffected by temperature, sediment, or immersion duration, the electrode accurately establishes a true reference point for water level. It continuously corrects zero‑point drift and temperature‑induced errors that accumulate over long‑term use of the pressure sensor, preventing gradual data distortion. II. Advantages of Dual‑Sensor High Precision in Real‑World Applications 1. Long‑Term, Maintenance‑Free High Precision: Conventional single‑pressure level sensors require on‑site zero‑point calibration every 3–6 months. In contrast, the MXT01D leverages automatic electrode calibration, enabling 1–2 years of unattended operation in outdoor, field, or underground pipeline settings without manual adjustment. This significantly reduces operational costs, making large‑scale deployments more cost‑effective. 2. Maximum Immunity to Harsh Water Conditions: For challenging environments such as stormwater wells, road surface puddles, and sewage networks containing sediment, foam, and impurities, the electrode remains unaffected by sludge buildup, while the pressure sensor ensures continuous measurements. The dual‑sensor system cross‑validates data, eliminating false readings caused by clogged probes or bubble interference. 3. Compact, Integrated Design Without Compromising Performance: With a fully integrated, ultra‑compact form factor and IP68 waterproofing allowing complete submersion, the device fits seamlessly into extremely limited installation spaces—such as curb edges, small manholes, or box culverts—while maintaining dual‑sensor redundancy and high measurement accuracy. 4. Double Redundancy Ensures Data Reliability: Single‑sensor failures can lead to data gaps or false alarms. By contrast, the dual‑sensor architecture serves as mutual backup; if one channel malfunctions, the other continues to provide reliable, valid level readings. This guarantees timely detection of flood risks or pipeline inundation warnings, preventing critical incidents due to instrument failure. Conclusion The MXT01D integrated miniature level sensor employs a fused measurement approach combining electrode and hydrostatic pressure sensing technologies. It automatically compensates for temperature drift and zero‑point offset, delivering comprehensive measurement accuracy within ±0.2% of full scale. Dual‑channel redundancy ensures stable data output, enabling long‑term, maintenance‑free deployment in outdoor pipeline networks while accommodating precise level monitoring in confined installation spaces.

2026

06-25

MXT09 Smart Manhole Cover Sensor — Ultra-Simple Installation, Universal Compatibility

I. Ultra-Simplified Installation and Deployment (Core Advantage for Project Implementation) The MXT09 features a split‑type sensor module combined with an integrated wireless terminal, enabling wire‑free installation throughout the entire process—no need to tap into power sources within manholes or excavate and modify existing structures. A single deployment point can be set up in just five minutes, significantly reducing large‑scale renovation timelines and labor costs. 1. Passive Split Sensor Probe: Equipped with an independent magnetic‑mount adjustable bracket, it requires only two mounting options—self‑tapping screws or high‑strength industrial adhesive—eliminating the need for extensive drilling into manhole covers or frames that could compromise their structural integrity. The bracket’s elongated slots allow fine adjustments in vertical, horizontal, and lateral directions, precisely accommodating various cover opening/closing strokes and ensuring long‑term stability after a single calibration. 2. Long‑Life Built‑In Wireless Power Supply: The terminal is powered by an industrial lithium‑ion battery housed in an IP68‑rated fully sealed enclosure. No external cables are required, nor is it necessary to lay power lines underground, thus preventing moisture‑induced electrical leakage and cable corrosion. Under standard reporting intervals, battery life can last up to three years, minimizing the frequency of future battery replacements and maintenance. 3. Remote, Onsite‑Free Commissioning: Supports Bluetooth‑based short‑range wireless parameter configuration, eliminating the need to open the device or connect wiring, and requiring no specialized equipment. After on-site installation and securing, users can calibrate alarm tilt thresholds, reporting cycles, and push‑notification rules directly via smartphone—no backend personnel needed to assist during installation. 4. Lightweight, Rapid Construction: With its compact overall size and standardized component kits, the device can be assembled and disassembled independently by a single operator. It requires no complex auxiliary materials or civil engineering work, and road construction does not necessitate prolonged lane closures or traffic disruptions, thereby reducing municipal construction‑related traffic control expenses. Physical Sensor Unit II. Full Compatibility with Conventional Manhole Covers (Core Value for Existing Infrastructure Upgrades) The MXT09 imposes no restrictions on manhole cover material, shape, or dimensions; all existing conventional manhole covers on the market can be directly retrofitted without replacing the original covers, making it ideally suited for urban infrastructure upgrade projects. 1. Full Material Compatibility: Works seamlessly with ductile iron, gray cast iron, concrete, resin composites, fiberglass-reinforced plastics, and other mainstream manhole cover types. Its magnetic‑attachment sensing design is unaffected by metallic shielding, while non‑magnetic materials do not interfere with detection. Cover‑opening displacement recognition remains accurate regardless of material composition. 2. Comprehensive Dimensional and Shape Adaptability: Covers circular, square, rectangular, and custom‑shaped manhole covers across all sizes. Suitable for standard municipal covers, including thin lightweight models as well as heavy‑duty, high‑load road covers, ensuring stable installation even under repeated vehicle traffic without loosening or false alarms. 3. Universal Application Across All Well Types: Compatible with drainage, electrical, telecommunications, gas, heating, stormwater/sewage wells, septic tanks, valve chambers, and more—suitable for diverse industries. Operates reliably in shallow wells, deep underground installations, waterlogged environments, and corrosive, humid conditions. 4. Zero Replacement Costs: For the vast number of aging manhole covers in urban areas, there is no need to purchase new smart covers in bulk. Simply retrofitting each existing cover with a single MXT09 unit enables intelligent monitoring, dramatically cutting down on the substantial capital expenditures associated with purchasing and replacing traditional covers. This solution is particularly well‑suited for citywide, large‑scale digital upgrades. III. Summary of Combined Advantages Leveraging its split, adjustable sensor design and integrated low‑power wireless architecture, the MXT09 delivers dual core advantages: ultra‑simple deployment and full compatibility with existing infrastructure. No need to replace manhole covers, no trenching or wiring required, and rapid one‑person installation. It supports all conventional manhole covers across the city, effectively addressing longstanding industry challenges such as lengthy renovation timelines, difficult construction processes, high upgrade costs, and poor adaptability—making it ideal for large‑scale safety monitoring projects targeting critical urban infrastructure.

2026

06-22

MXS05RU intelligent water level detection, with dual-mode automatic switching for precise flow measurement across the entire pipeline.

In municipal sewage, stormwater networks, and industrial effluent pipelines, water levels are constantly in flux: typically operating at partial‑pipe, non‑full‑flow conditions, they can suddenly transition to full‑pipe pressure flow during heavy rainfall or peak discharge events. Traditional single‑principle flow meters cannot accommodate both scenarios, often resulting in data loss, measurement interruptions, erroneous readings, and the need for manual parameter adjustments. The MXS05RU radar‑ultrasonic flow meter integrates intelligent water‑level state recognition with automatic switching between dual measurement modes, perfectly adapting to fluctuating pipeline conditions and delivering precise, stable measurements around the clock. ### I. Core Capability: Dual‑Mode Adaptation, Fully Automated with No Manual Intervention The device combines radar and ultrasonic measurement technologies, paired with an advanced operational‑condition recognition algorithm. It autonomously monitors pipeline water levels 24/7, automatically identifying and seamlessly switching between partial‑pipe and full‑pipe conditions without any user intervention. No on‑site calibration or remote manual mode changes are required, enabling fully unattended operation and handling complex scenarios involving frequent transitions between dry/wet and high/low water levels in network systems. ### II. Intelligent Adaptation to Operating Conditions, Addressing Traditional Metering Gaps 1. **Daily Low‑Water / Partial‑Pipe Conditions: Automatic Radar Non‑Contact Measurement** When the pipe contains a free liquid surface or is not fully filled, the device automatically activates its radar measurement mode. Using a non‑contact sensing approach, it avoids direct contact with wastewater, sludge, or floating debris, remaining unaffected by surface foam, minor waves, or fouling on pipe walls. This ensures stable acquisition of water level and flow velocity data, completely eliminating issues common with contact‑type instruments—such as scaling, entanglement, corrosion, and frequent malfunctions—while providing reliable, accurate monitoring of low‑flow conditions with minimal maintenance costs. 2. **Heavy Rainfall / Full‑Pipe Conditions: Automatic Switch to Ultrasonic Precision Measurement** When the pipeline fills to capacity and transitions into full‑pipe pressure flow, the device rapidly detects the disappearance of the liquid surface and the rise in water pressure, switching within milliseconds to ultrasonic measurement mode. Leveraging underwater ultrasonic technology, it precisely captures the cross‑sectional average flow velocity under full‑pipe conditions, effectively addressing the limitations of conventional radar flow meters (which fail in full‑pipe scenarios) and electromagnetic flow meters (which cannot measure partial‑pipe flows). This ensures uninterrupted, distortion‑free flow data even during peak drainage periods. 3. **Automatic Reversion Upon Water Level Drop, Seamless Condition Transition** Once rainfall subsides, network discharge decreases, and the water level returns to partial‑pipe conditions, the device automatically recognizes this change and smoothly switches back from ultrasonic full‑pipe mode to radar non‑contact measurement. The bidirectional switching process incorporates built-in anti‑vibration filtering algorithms, preventing abrupt mode shifts or data fluctuations at critical thresholds and ensuring continuous, stable, gapless flow data throughout the entire cycle. ### III. Key Differentiating Advantages - **Comprehensive Coverage Across All Conditions, Zero Measurement Gaps:** By covering empty pipes, partial‑fill, critical water levels, and full‑pipe scenarios, the device eliminates the limitations of single‑mode flow meters, significantly improving data reliability. - **Seamless, Continuous Data Acquisition:** With millisecond‑level automatic switching and optimized filtering during transition phases, the system prevents data jumps or gaps, meeting stringent requirements for network flow monitoring, total volume accounting, and flood‑control traceability. - **Zero Manual Maintenance, Ideal for Smart Networks:** Fully adaptive to changing operating conditions, the device requires no on‑site calibration or parameter adjustments, making it well suited for large‑scale, unattended smart water‑management applications.

2026

06-18

A Study on the Practicality of Integrated Electronic Water Level Gauges in Urban Flood‑Warning and Monitoring Systems

As an essential tool for modern flood‑monitoring, the integrated electronic water level gauge—thanks to its precise measurement and rapid response—plays an indispensable role in urban flood‑early warning systems. This article will examine in depth the practical applications of the integrated electronic water level gauge and explore its future development trends, shedding light on the advances and expanding uses of this technology.

2026

06-17

MXS05RU Radar-Ultrasonic Flow Meter

I. Product Overview The MXS05RU is an integrated dual‑mode radar–ultrasonic non‑contact flow monitoring device, specifically designed for municipal drainage networks, stormwater and sewage manholes, rivers, discharge outlets, and open ecological channels. By combining radar-based velocity and distance measurement with ultrasonic Doppler velocity measurement, it addresses the limitations of single‑mode radar or ultrasonic devices—such as poor performance at low flow rates, high water levels, interference from floating debris, and measurement blind spots—enabling precise flow measurement across both full‑pipe and partially filled conditions. It serves as a core front‑end monitoring instrument for smart drainage systems, sponge city initiatives, and water‑environment regulation. The device is mounted via overhead suspension, ensuring no direct contact with water throughout operation, thus eliminating risks of sediment entanglement or blockages. Its compact, low‑power design features potting‑sealed construction and supports wired or wireless remote data transmission, making it ideal for unattended, long‑term online monitoring. --- II. Core Measurement Principles 1. **Radar Doppler Module**: Provides non‑contact measurement of surface water velocity and millimeter‑wave radar ranging for water level. Unaffected by turbidity, sediment, or floating debris, it excels in medium to high flow velocities, open river channels, and large‑diameter pipelines, maintaining stable performance even in rainy, snowy, or foggy conditions. 2. **Ultrasonic Doppler Module**: Accurately captures cross‑sectional flow velocities under low flow rates and high submergence conditions, addressing radar’s shortcomings in low‑water‑level measurements. Equipped with an intelligent fusion algorithm, the device automatically identifies water level and flow patterns, seamlessly switching to the optimal measurement mode and eliminating blind spots. 3. **Flow Calculation Logic**: Incorporates built-in cross‑section libraries (rectangular, circular, trapezoidal channels/pipes), continuously collects dual‑mode velocity and water level data, and employs the velocity‑area method to compute and output real‑time flow rate, cumulative volume, average velocity, current water level, and water temperature—all in one comprehensive hydrological dataset. --- III. Key Product Advantages 1. **Dual‑Mode Complementarity, No Blind Spots Across All Conditions**: The synergistic combination of radar and ultrasonic sensors ensures stable measurement under challenging scenarios, including stagnant low‑flow conditions, fully submerged pipes at high water levels, heavy floating debris, and highly turbid wastewater, covering 99% of typical municipal pipeline flow conditions. 2. **Non‑Contact Operation with Minimal Maintenance**: Mounted on top of the manhole, the device requires no entry into the water or pipe interruption. With no submersible probes, it avoids entanglement by aquatic vegetation or sediment buildup, significantly reducing annual maintenance requirements. 3. **All‑Weather Robust Construction**: Integrated potting‑sealed housing achieves IP68 waterproof and dustproof ratings, while the corrosion‑resistant, aging‑proof casing withstands harsh environments. Operating temperatures range from −25°C to +55°C, making it suitable for freezing winters, intense sunlight, and damp underground manholes. 4. **Wide Range and High Precision**: Capable of measuring both very slow flows and high‑velocity storm runoff, with millimeter‑level resolution for both velocity and water level, and excellent data linearity without the need for complex on‑site calibration curves. 5. **Low Power Consumption and Easy Installation**: Ultra‑low power draw and compact form factor facilitate quick deployment, making it perfectly suited for networked installations. 6. **Rich Communication Options and Seamless Integration**: Standard RS485 interface supporting Modbus‑RTU protocol; optional 4G/NB‑IoT wireless transmission; local storage of historical data; and seamless connectivity with smart water management cloud platforms, pump station automation systems, and environmental online monitoring networks. 7. **Intelligent Anti‑Interference Algorithms**: Adaptive algorithms allow adjustment of transmit power, sensitivity, and other parameters to suit diverse pipeline and channel environments. --- IV. Typical Application Scenarios 1. **Municipal Drainage Networks**: Online monitoring of combined stormwater and sewage networks, main sewer lines, residential discharge points, and pollution interception wells. 2. **Water Environment Management**: Monitoring discharge outlets into rivers, ecological flow tracking, rural wastewater channels, and irrigation open channels. 3. **Urban Flood Control and Drainage**: Real-time monitoring of water levels and flow rates at road flooding hotspots, rainwater collection networks, and pump station inlet chambers. 4. **Irrigation Districts**: Flow measurement in agricultural diversion canals, reservoir spillways, and small sluice gates. 5. **Environmental Online Supervision**: Verification of pollutant discharge volumes and traceability of total wastewater quantities at source points. --- V. Installation and Accessories 1. **Dedicated Stainless Steel Corrosion‑Resistant Mounting Brackets**: Compatible with circular and rectangular manholes and channels. 2. **Optional MXT03 Series Telemetry Terminals**: Enable wireless data upload, remote parameter configuration, and fault alarms. 3. **Customizable Cross‑Section Parameters**: Supports standard and non‑standard channel and pipe profiles. 4. **Local High‑Capacity Data Storage**: Ensures data retention during power outages and allows export of historical flow trend charts for traceability purposes. --- VI. Summary of Product Value The MXS05RU radar‑ultrasonic flow meter overcomes the limitations of traditional single‑mode radar or submersible Doppler flow meters, balancing measurement accuracy, ease of installation, and long‑term operational efficiency. One device meets diverse flow monitoring needs across pipelines, rivers, and discharge outlets, providing stable, reliable flow data to support urban drainage scheduling, total wastewater control, flood early warning, and water‑environment assessment.

2026

06-15

MXS03 Pressure Sensor — Full‑range measurement coverage, dual‑mode precision pressure sensing

The MXS03 pressure sensor is a versatile, high‑performance device designed to meet the demands of diverse industrial applications. Its key strengths lie in its exceptionally broad measurement range and its ability to deliver precise readings in both absolute‑pressure and gauge‑pressure modes. Leveraging mature MEMS sensing technology and intelligent signal‑compensation algorithms, this product addresses the limitations of conventional pressure sensors—namely, narrow ranges, restricted measurement modes, and poor adaptability to varying operating conditions. It seamlessly accommodates both standard and specialized, high‑precision pressure‑monitoring requirements, making it suitable for a wide array of fields, including industrial process control, fluid‑network monitoring, environmental‑protection equipment, vacuum systems, and HVAC automation, thus offering outstanding versatility and practicality. In terms of range performance, the MXS03 boasts an unrivaled breadth of coverage, spanning micro‑pressure, atmospheric, and medium‑to‑high pressure regimes. This enables it to satisfy the diverse needs of different operating conditions. The sensor supports multiple standardized range settings, including a micro‑pressure range that can accurately detect subtle pressure signals such as ventilation pressures, minute leaks in pipeline networks, or small fluid pressure differentials—addressing the common issue of insufficient precision in low‑pressure scenarios. At the same time, it covers typical industrial pressure ranges, making it ideal for everyday applications like water‑pipe, gas‑pipeline, and hydraulic‑equipment monitoring. Additionally, the device offers a high‑pressure range, capable of handling pressure measurements in small to medium‑sized high‑pressure vessels and fluid‑handling systems. Furthermore, the MXS03 supports custom composite positive/negative ranges, allowing simultaneous measurement of both positive and negative pressures. This capability breaks free from the traditional constraints of single‑range, single‑pressure‑dimension operation, enabling a single unit to address multiple on‑site pressure‑monitoring tasks while significantly reducing equipment selection, procurement, and replacement costs. Regarding measurement modes, the MXS03 natively supports two core configurations: gauge pressure and absolute pressure. Users can freely switch between these modes depending on site conditions, accommodating various reference‑point requirements. Gauge mode uses the local ambient atmospheric pressure as the zero point, making it the most widely adopted approach in industrial settings. Measurement data directly reflects the pressure difference between the monitored system or pipeline and the surrounding environment, aligning perfectly with standard practices for routine industrial monitoring and equipment pressure calibration, and covering the vast majority of atmospheric‑pressure fluid and gas‑related applications. Absolute pressure mode, by contrast, takes absolute vacuum as its reference zero, ensuring that measurements remain unaffected by fluctuations in ambient atmospheric pressure, changes in altitude, or variations in climatic conditions. With a stable reference and highly accurate, consistent readings, this mode is particularly suited for specialized applications such as vacuum‑system monitoring, precision instrument pressure testing, low‑pressure control, and high‑altitude wind‑pressure measurements. By eliminating the influence of atmospheric pressure variations, it guarantees reliable accuracy even under demanding operating conditions. Both measurement modes undergo rigorous factory‑level calibration and are further enhanced by built-in temperature compensation and nonlinearity correction algorithms, delivering full‑scale accuracy of ±0.5% of full scale and excellent long‑term stability. Overall, the MXS03 pressure sensor combines broad range coverage with dual‑mode compatibility, striking an optimal balance between general‑purpose utility and specialized performance. It meets the routine monitoring needs of standard industrial environments while also supporting precision, high‑pressure, and vacuum‑related applications. With its multi‑use capabilities, strong adaptability, and consistently reliable, accurate measurements, the MXS03 stands out as a cost‑effective, top‑choice solution for industrial pressure‑monitoring tasks.

2026

06-12

MXS03A Pressure Sensor

I. Product Overview The MXS03A is a digital submersible pressure sensor (submersible level transmitter) featuring a diffused-silicon sensing element. Based on the MEMS diffused-silicon pressure measurement principle, it calculates liquid level from hydrostatic pressure and is available in two versions: gauge pressure and absolute pressure. It comes standard with an RS485‑Modbus digital output and is primarily designed for monitoring municipal drainage networks, manhole water accumulation, river channels, pump stations, and urban sponge city floodwater. It is well-suited for long-term submersion in harsh underwater conditions, making it a key pressure‑level product for water environment monitoring. II. Core Operating Principle The probe is immersed in the liquid being measured. Hydrostatic pressure acts on the diffused-silicon sensing diaphragm, causing piezoresistive changes in the silicon crystal. An integrated signal-processing circuit, combined with wide-range temperature digital compensation, converts the pressure into a digital signal. Using the fixed density of the liquid, the system calculates the real-time liquid level height. Gauge Pressure Type: Equipped with a venting tube that connects to atmospheric pressure, this version uses ambient atmospheric pressure as its reference, eliminating errors caused by atmospheric pressure fluctuations. It also includes a breathable, moisture-proof venting box as standard. Absolute Pressure Type: Featuring a vacuum-sealed sensing element with no venting tube, this model uses absolute vacuum as its reference and is ideal for closed tanks or applications where atmospheric pressure compensation is not required. III. Five Key Advantages ♦ Fully Digital Temperature Compensation: Incorporating a multi-point segmented temperature algorithm, it maintains high accuracy across both high and low temperatures, outperforming conventional analog submersible sensors. ♦ Flexible Selection: Available in gauge pressure (ideal for open-air water bodies) or absolute pressure (suitable for sealed tanks or pressurized vessels), allowing users to choose based on specific needs. ♦ Convenient Bus Networking: Compliant with the standard Modbus protocol, it can be directly connected to RTUs, PLCs, and MoXing’s pipeline monitoring platforms, significantly reducing installation and wiring costs. ♦ Enhanced Resistance to Contaminants: With a stainless steel probe and anti-clogging isolation diaphragm, it effectively resists clogging from municipal wastewater and sludge, extending maintenance intervals. ♦ Ultra-Low Power Consumption Customization: Optional sleep mode enables ultra-low power operation, making it suitable for remote, off-grid water-level monitoring sites. IV. Standard Application Scenarios ♦ Municipal Drainage: Real-time monitoring of manhole levels, main pipe water accumulation, and urban flood-prone areas. ♦ Water Resources & Utilities: Measurement and control of river levels, shallow reservoir levels, and pump station sump levels. ♦ Sponge City Initiatives: Static pressure-based level measurement for detention ponds, rainwater wells, and storage tanks. ♦ Environmental Wastewater Management: Level and medium-pressure monitoring in sewage treatment tanks and small sealed wastewater containers. V. Key Considerations for Model Selection Model Type Structural Features Applicable Scenarios MXS03A-G (Gauge Pressure) Equipped with a venting tube and venting box Open-air rivers, manholes, and exposed water bodies MXS03A-A (Absolute Pressure) Vacuum-sealed, without venting tube Closed pressurized tanks and vessels without atmospheric connection

2026

06-09

Application Case of Nanjing Moxing Information Technology in the Operation Monitoring of Drainage Pipe Networks

Through the innovative applications of Nanjing Moxing Information Technology, the “integrated electronic water level gauge” has demonstrated unparalleled value in drainage network monitoring. This technology not only enhances drainage efficiency but also offers fresh perspectives for urban management. Let us look forward to the advent of smart cities!

2026

06-07

MXS04-80G—80 GHz millimeter-wave radar level transmitter, setting a new standard for precision in water‑resource monitoring.

MXS04-80G features a miniature antenna design and advanced pulse‑coherent radar technology, focusing on smart water management, river and reservoir monitoring, open‑channel networks, and flood‑control and urban‑waterlogging surveillance. Equipped with an integrated cancellation algorithm, it delivers precise, stable measurements unaffected by surface waves or floating debris. It excels in three core performance areas: millimeter‑level high accuracy, ultra‑short‑range operation with minimal blind zones, and a narrow beam that effectively resists interference—setting it apart from 26 GHz low‑frequency radars and ultrasonic water level sensors while adapting to complex field hydrological conditions. 1. **High Accuracy**: Millimeter‑level measurement across the full range, capturing even the tiniest water level changes. The device employs 80 GHz ultra‑high‑frequency frequency‑modulated continuous wave (FMCW) technology, offering shorter wavelengths and higher resolution, with overall measurement accuracy reaching ±1 mm. Built-in dynamic wavelet filtering, self‑learning for spurious echoes, and full‑temperature dynamic compensation algorithms effectively eliminate transient data fluctuations caused by wind, waves, foam, and floating debris, while preventing measurement drift due to temperature variations, water turbidity, or changes in water quality. This enables precise detection of minute water level rises and falls, meeting stringent accuracy requirements for detailed hydrological monitoring, water volume accounting, and flood‑warning applications. 2. **Low Blind Zone**: Optimized for shallow‑water conditions, solving challenges in close‑range measurements. Through an integrated lens antenna design and advanced near‑field signal compensation algorithms, the minimum measurable blind zone is reduced to just 0.1 m, with a measurement range spanning 0.1–30 m. Compared with conventional 26 GHz radars and ultrasonic water level sensors, its capability for shallow‑water monitoring is significantly enhanced, making it ideally suited for scenarios where traditional devices cannot operate—such as shallow riverbeds, small reservoirs, stormwater detention wells, and low‑clearance box culverts. Additionally, its compact form factor accommodates tight installation spaces, reducing on‑site construction and retrofitting costs. 3. **Ultra‑Narrow Beam with Strong Anti‑Interference**: Resistant to clutter and environmental disturbances under all weather conditions. With an ultra‑narrow beam, the device focuses its signal tightly and emits it in a highly directional, vertical pattern—unlike the typical 8°–15° wide beams of conventional equipment. This design effectively minimizes false echoes generated by surrounding structures such as canal walls, riverbanks, bridge piers, and shoreline vegetation. Moreover, the 80 GHz high‑frequency signal exhibits strong penetration, passing through rain, dense fog, surface foam, and fine debris without being affected by adverse weather conditions like rain, snow, or heavy winds. Operating in a frequency band that avoids power‑line, motor, and communication‑equipment electromagnetic interference, it maintains stable performance even in complex electromagnetic environments—such as pump stations or areas near high‑voltage lines—eliminating issues like erroneous readings, skipped data points, or data loss.

2026

06-04

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Nanjing Moxing Information Technology Co., Ltd.

  • Company website:www.njmoxing.com

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    Email:Zengfl@njmoxing.com
    Company Address: Room 401, Building 5, Qilin Smart Park, Qilin Subdistrict, Jiangning District, Nanjing City, Jiangsu Province

    Factory Address: Building 3, Hushu Industrial Park, No. 17 Shengda Road, Jiangning District, Nanjing City

Copyright © 2020 Nanjing Moxing Information Technology Co., Ltd.

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Nanjing Moxing Information Technology Co., Ltd.

Copyright © 2020 Nanjing Moxing Information Technology Co., Ltd.

All rights reserved.

Website Development:China Enterprise Dynamics Nanjing

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