Recirculating Chillers LRC-L12

Introduction

Recirculating Chiller offers a –30 to 5°C range suitable for stable cooling in low-temperature applications. The closed circulation system prevents fluid loss and contamination ensuring long-term coolant purity during extended use. Its real-time liquid level monitoring supports uninterrupted operation by alerting users before the fluid drops below safe levels. Our chiller is used in bioreactors chromatography systems and semiconductor cooling.

This laboratory chillers is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Recirculating Chiller delivers a steady cold output for equipment used in laboratory and industrial processes. This allows consistent temperature handling during tasks like reactor cooling, material testing, and analytical operations.

Specifications

Temperature Range	–30 to 5°C
Temperature Control Accuracy	±2°C
Ambient Temperature	5 to 35°C
Cooling Method	Air cooling
Cooling Capacity at 0°C	1250 W
Cooling Capacity at –10°C	800 W
Cooling Capacity at –20°C	300 W
Cooling Capacity at –25°C	150 W
Refrigerant	R410A
Rated Pump Flow Rate	20 L/min
Rated Pump Power	0.4 bar
Outer Circulation Interface Size	Rc 1/2
Reservoir Capacity:	10 L
Protection Grade	IP20
Power Supply	220 to 240 V, 50 Hz
Power Consumption	1070 W
Dimensions (W×D×H)	435 × 690 × 720 mm
Net Weight	70 kg

Features

Shock-absorbing caster wheels

Electrically shielded power components

Wide-voltage input compatibility

Corrosion-resistant fluid chamber

Maintenance-free condenser assembly

FAQs

1. Does the Recirculating Chiller require frequent attention during operation?

The Recirculating Chiller is designed to function with minimal operator involvement once set up, making it suitable for environments where staff resources are limited. Its structure supports stable performance across long durations without the need for constant checks or adjustments. This proves valuable in research settings where multiple devices run simultaneously, and user supervision must be distributed. Fluid levels can be monitored externally, reducing the need to open the system frequently. The chiller also features internal safeguards that reduce the risk of operational faults. These elements help reduce overall maintenance interruptions. It is especially useful in shift-based labs. Productivity stays intact even with minimal oversight.

2. How does the Recirculating Chiller manage fluid compatibility across applications?

The Recirculating Chiller is constructed with materials that accommodate a wide variety of thermal transfer liquids. This flexibility allows laboratories to choose specific fluids based on application demands without risking degradation of internal components. Whether used in chemical synthesis or advanced imaging platforms, the unit maintains the integrity of the circulating medium. Its design also prevents unwanted reactions that might arise from fluid-metal contact, supporting both water-based and specialized coolants. By offering compatibility beyond just one fluid type, the product fits neatly into multi-application setups. Fluid chamber engineering ensures minimal interaction with external variables. This adaptability increases the system’s utility in changing lab conditions. Users can shift processes without changing cooling hardware.

3. Does the Recirculating Chiller support mobility across lab benches?

It has designed the Recirculating Chiller with portability in mind, making it a viable option for facilities where equipment is frequently repositioned. Its form factor supports movement across different stations without compromising the setup. Rubberized base elements and ergonomic frame contours help protect both the unit and the surfaces it rests on. The compact layout helps avoid clearance issues when relocating in dense laboratory spaces. This makes it suitable for shared environments or pilot labs with rotating needs. Handling features are integrated into the frame for safe repositioning. Tubing ports are arranged to prevent disconnection during movement. Such mobility allows operational flexibility without additional support.

4. What makes the Recirculating Chiller suitable for chemically intensive environments?

The Recirculating Chiller is engineered with corrosion-resistant internals that enhance durability in settings involving reactive substances. This allows it to operate near volatile processes without risking structural or performance breakdown. External materials are chosen to withstand vapor-rich surroundings, minimizing impact from accidental exposure. Its internal pathway design also limits fluid stagnation, which helps reduce residue buildup over time. Whether situated near fume-generating syntheses or thermal tests involving harsh chemicals, the unit holds up under challenging conditions. The non-reactive build safeguards longevity. Placement near chemical reactors becomes feasible without concern of thermal drift. This makes it compatible with core lab and field projects.

5. Can the Recirculating Chiller operate near digital lab systems?

The Recirculating Chiller is built with shielding considerations that reduce the chance of electromagnetic disturbance. This is particularly useful when placed next to digital diagnostic platforms or electronic testing stations. Many laboratory tools rely on uninterrupted electronic signals, and any electromagnetic interference could corrupt readings. The unit's circuitry and insulation techniques lower the chances of signal disruption. This makes the chiller a dependable neighbour to signal-sensitive devices. The layout avoids crossover between motor components and external cables. Placement flexibility increases in mixed-technology labs. Noise-sensitive systems remain unaffected by chiller activity during prolonged operation.

6. Can the Recirculating Chiller be placed under laboratory workstations?

The Recirculating Chiller features a vertical layout and compact dimensions that make it suitable for under-bench installation in space-limited laboratories. Its structural design helps avoid conflicts with legroom, support braces, or existing fixtures beneath standard lab tables. Airflow orientation prevents performance loss in semi-enclosed spaces, if clearance recommendations are followed. The unit’s mobility features allow quick relocation during reconfigurations or servicing. Noise levels remain low, making it unobtrusive during long operating cycles. Cabling and tubing access points are arranged for convenient routing. This installation flexibility makes it a practical fit for modular lab setups.