The OWP-BL93-201 Electric Coolant Pump is a high-performance fluid transfer solution engineered specifically for laboratory environments, combining compact design with reliable operation to meet the rigorous demands of water circulation and temperature control systems. With advanced brushless technology and robust construction, this pump delivers consistent flow rates and pressure while ensuring energy efficiency and long-term stability, making it an indispensable component for precision experimental setups.
| Parameter | Details |
|---|---|
| Power Input | 12VDC (9-16VDC operating range) |
| Rated Power | 100W |
| Rated Flow Capacity | 1800L/H @ 8M lift |
| Maximum Flow Rate | 2800L/h |
| Maximum Lift Head | 11M |
| Compatible Media | 50-60% glycol-water mixture, dielectric oil, electronic fluorinated solution |
| Medium Temperature Range | -40°C to 85°C |
| Outlet Diameter | 20mm |
| Speed Regulation | Fixed speed |
| IP Rating | IP68 |
| Noise Level | ≤45dB |
| Operational Lifespan | >20000 hours |

The OWP-BL93-201 Electric Coolant Pump is tailor-made for laboratory water circulation systems and precision temperature control equipment, where consistent flow and reliable temperature management are paramount. Its 1800L/H rated flow rate at 8M lift ensures efficient fluid circulation, while the 11M maximum lift head accommodates various pipeline configurations in experimental setups. The pump’s compatibility with 50-60% glycol-water mixtures, dielectric oil, and electronic fluorinated solutions, combined with its -40°C to 85°C temperature tolerance, makes it ideal for maintaining stable thermal conditions in reactions, sample storage, and analytical instruments. For temperature control equipment, its low noise operation (≤45dB) and IP68 waterproof rating enable installation in enclosed or wet laboratory environments without performance degradation. Whether integrated into rotary evaporators, reaction kettles, or constant-temperature water baths, the OWP-BL93-201 delivers the durability, efficiency, and safety required to support accurate and reproducible experimental results.

