600W 1000W LED underwater squid Salmon Aquaculture Lighting

Key Features: 1. Widely Power Range from 50W, 100W, 200W, 500W, 600W, 1500W Optional 2. Deep Water from 50ft to 1000ft long Marine Grade Power Wires(300m deep sea) 3. Utility Patent Design 4. VHO LED chips for 25% higher efficiency 5. Marine Grade Cable for 5~10 years fine working in the Salt-water（The marine environment）

According to the city road environment, it cooperates with the intelligent lighting centralized controller to automatically control the illuminance of the lamps according to the changing of environmental brightness, to achieve the purpose of intelligent public lighting management.

The Intelligent LED high bay lighting control system with Motions Sensor, surrounding brightness detect sosor, avaliable in PLC, RS485 and LoRa communication to fit any conditions in warehouse and the factory lighting. Cloud based Server Data storage, and  Plug & Play "Touch Screen" man-machine interface, which lead to an excellent Architecture, to keep perfect working all the time and warranty under safe system, it will sove the conflict problems by multi-control priority, decrease huge on the running management and the maintenance cost, that is also  get a faster investment returing.

Key Features: 1. Die-casting and Extruded aluminum profile Mold for Modern assembly line appearance. 2. Dual Colors between Cool White and Warm White/Nature White design to meet abnormal weather conditions: heavy snowing area, serios fog & rains , automatically changing the CCT from 4500K/6000K to 2700K ...... by the intelligent sensors when detecting of dense fog, rainstorm or snowing. 3. Intelligent street lighting system is a core element for the smart city platform, 4. 80% of Max. power saving than traditional high pressure sodium lamps

SOWIN GXEC — Linear Xenon Flash Tube Built for controlled pulse-energy output and long-run stability in stage strobe, engraving / stamping / marking, exposure systems, and high-speed imaging. Uniform light field — optimized for reflector cavities and optical paths. High peak pulse intensity — strong penetration and clean edges. Verified operating window — reduces misfire and brightness drift. Anti-aging control — mitigates early blackening and lifetime collapse. Reliability Boundaries (Engineering Definition) Lamp structure + arc-length matching + trigger method & coupling stability + energy / frequency / duty-cycle window + thermal management Available with engineer-reviewed parameter sheet and replacement checklist for procurement sign-off.

Key Features: Hybrid AC & Solar Power or Pure Solar Power 4G/5G Sim Card CAT 1 Communication Technology (Hybrid PLC / LoRa  /LoRaMesh) Auto-change Solar to AC by Smart Detect Sensor within 3 seconds Cloud based IoT Lighting Controlling & Monitoring Real Time Data: Watts / Voltage / Current / Power Factor can be Remote Reading Power Consumption / Faulty Reporting Using high efficiency 5050 leds,more than 230lm/w. Adopting high efficiency monocrystalline silicon solar panel, conversion rate is more than 21%. Grade A LiFePo4 battery,capacity is more than 80% after 2000 cycles. PWM and MPPT solar charger Horizontal or vertical pole installation,mounted angle is adjustable To prevent theft and vandalism, GPS positioning allows for real-time tracking of stolen street light.

SOWIN GXEC Xenon Flash Tube is engineered as a Global OEM Replacement Reference for UV Reactor Water-Treatment and Germicidal Systems, where performance is defined by repeatable pulse energy, stable ignition, and predictable lifetime under continuous operation—not by “similar shape” claims. In Pulsed-UV Water Treatment, reliability is a controlled window of Trigger Method, Pulse Energy, Repetition Rate, and Duty Cycle, coordinated with Thermal Management and Lamp Structure. This boundary reduces hidden failure modes such as Misfire, Output Drift, Early Blackening, and premature Downtime that can silently degrade UV dose delivery. Program-grade pulse control is proven across mission-critical deployments, including Stroboscopic Instruments (measurement repeatability), Traffic-Violation Cameras (high repetition, long duty cycles), Airport Runway Lighting (harsh-environment visibility), and High-Speed Photography (fast trigger response, stable output). Procurement Sign-Off Rule: do NOT replace xenon flash tubes by appearance. A valid replacement must match the Trigger Method and a verified Energy / Frequency / Duty-Cycle Window. For engineering review, request the UV Reactor Duty-Cycle Parameter PDF before deployment. Proof Badges: 1100+ Hour Endurance Validation · Engineer-Reviewed Parameter Sheet (PDF) · OEM Replacement Checklist · Traceable Controlled Substitution

Why Choose an IoT-Enabled Hybrid Solar + Grid Street Lighting System? Modern cities are experiencing rapid expansion, rising energy demand, and an increasing need for reliable public infrastructure. Street lighting is one of the largest electricity consumers in any municipality, and traditional grid-powered lighting systems often struggle with high operating costs, unstable power supply, and limited management capability. At the same time, purely solar street lights face their own challenges, such as insufficient sunlight during rainy or cloudy seasons, battery degradation, and inconsistent performance in regions with harsh climates. These issues have created a strong global demand for a more resilient, intelligent, and cost-effective lighting solution—leading to the rise of IoT-enabled hybrid solar + grid street lighting systems. A hybrid street lighting system integrates three essential components: solar energy, the local electrical grid, and a high-cycle LiFePO4 battery backup. During sunny days, the solar panel provides power and charges the battery. At night or during cloudy periods, the system intelligently switches to battery or low-tariff grid electricity depending on availability. This dual-source architecture solves the “solar only” reliability problem while significantly reducing dependence on expensive peak-hour grid electricity. Cities benefit from lower electricity bills, improved lighting reliability, and reduced CO₂ emissions without compromising performance. The addition of IoT technology further transforms the system from a basic lighting device into a smart, data-driven infrastructure asset. With IoT lamp-level controllers, each street light can report real-time information such as voltage, current, temperature, battery state of charge, and power consumption. Faults—such as LED failure, low battery, or power loss—are automatically detected and sent to a centralized monitoring platform. This enables cities to replace traditional manual inspection with predictive maintenance, reducing manpower costs and minimizing downtime. IoT also enables precise lighting control. Municipalities can schedule automatic ON/OFF times, dim lights during low-traffic hours, or adjust brightness in response to weather, road conditions, or special events. When applied across thousands of street lights, these small adjustments can reduce energy consumption by 30% to 70%. Combined with hybrid power, cities can ensure that every roadway, rural village, industrial zone, or highway retains stable lighting even during extended rainy seasons, power outages, or natural disasters. For developing countries or regions with unstable grids, hybrid solar + grid IoT street lights offer an especially powerful advantage: continuous lighting security. Frequent blackouts are no longer a threat, and the system can maintain illumination for several nights using battery backup alone. This significantly improves road safety, reduces crime risk, and supports 24-hour economic ...