Recirculating Chiller LRC-L15

Introduction

Recirculating Chiller offers a temperature range of –30 to 5°C, suitable for low-temperature operations in laboratory and industrial setups. Its high-capacity reservoir reduces refill frequency during extended cooling use. The air-cooled system lowers maintenance and simplifies setup across environments. Our recirculating chiller supports applications such as bioreactor cooling, material testing, and semiconductor temperature control.

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 provides reliable cooling support for external devices used in laboratory and industrial settings. This ensures consistent temperature control in processes involving condensers, reactors, and precision instruments.

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	6000 W
Cooling Capacity at –10°C	4000 W
Cooling Capacity at –20°C	2500 W
Cooling Capacity at –25°C	1100 W
Refrigerant	R404A
Rated Pump Flow Rate	30 L/min
Rated Pump Power	1 bar
Outer Circulation Interface Size	Rc 3/4
Reservoir Capacity	40 L
Protection Grade	IP20
Power Supply	220 to 240 V, 50 Hz
Power Consumption	2820 W
Dimensions (W×D×H)	650 × 1055 × 1070 mm
Net Weight	195 kg

Features

Insulated process contact tubing

Quick-disconnect hose fittings

Rear-positioned exhaust outlets

Service-friendly access panels

Shock-absorbing caster wheels

FAQs

1. Can the Recirculating Chiller operate safely when placed near sensitive analytical instruments?

Recirculating Chiller is engineered to run safely alongside precision lab instruments without interference. Its body construction reduces signal disturbance, keeping nearby analytical tools unaffected. Vibration control limits physical disruption to sensitive testing setups. Rear exhaust placement directs warm air away from working zones. This design ensures the chiller can be used even in compact environments. No special shielding or distance buffers are required during use. Instruments remain stable even under continuous cooling operation. This supports labs that require tight equipment integration without layout compromise.

2. Does the Recirculating Chiller support safe operation around volatile or heat-sensitive processes?

Recirculating Chiller includes safeguards that prevent sudden temperature surges during operation. Compressor delay functions reduce internal stress when restarting after interruptions. The unit helps maintain gradual temperature changes during reactive experiments. Volatile materials remain protected from unintended thermal spikes. System behaviour remains steady even under fluctuating cooling demands. Heat-sensitive tests can proceed without disruption or manual intervention. Built-in safety logic adds a layer of operational reliability. This helps preserve process stability in demanding lab environments.

3. Can the Recirculating Chiller adapt to space-limited lab setups without requiring structural changes?

The Recirculating Chiller is built with space efficiency in mind for constrained lab layouts. Rear venting allows close placement against walls without airflow restriction. Lifting handles and caster wheels simplify relocation during layout changes. Side-mounted ports reduce interference with neighboring instruments. The unit requires no floor mounting or wall support for installation. Equipment can be moved or serviced without disconnecting primary systems. This flexibility benefits labs with evolving project needs. Compact workspaces gain reliable cooling without permanent infrastructure updates.

4. Is the Recirculating Chiller reliable for use in simulation-based material testing procedures?

Recirculating Chiller supports workflows that involve dynamic temperature shifts during test cycles. Cooling delivery remains consistent throughout fluctuating stages of a material trial. The system’s circulation behavior avoids temperature drop or fluid lag. This stability is critical for collecting repeatable thermal response data. Researchers can simulate environmental changes with dependable temperature alignment. Built-in safeguards protect the equipment during stress-based testing. Extended trials run without interruption or performance loss. This capability fits well within simulation-heavy laboratory settings.

5. How does the Recirculating Chiller contribute to reducing lab resource usage during extended operation?

The Recirculating Chiller uses a fully closed system to retain coolant over long operating periods. Fluid does not evaporate easily, reducing refill interruptions during ongoing testing. Energy is conserved through targeted thermal flow control. No external plumbing or chilled water supply is required for operation. Material waste is minimized, supporting resource-conscious labs. Scheduled maintenance cycles are also reduced due to internal system durability. Consistent performance reduces the need for backup cooling solutions. This enables cost-effective thermal control in daily workflows.

6. How does the Recirculating Chiller protect the integrity of heat transfer fluids over long use cycles?

Recirculating Chiller maintains fluid purity by isolating it from external exposure. Its closed-loop circulation prevents contamination by dust, air, or moisture. Coolant properties remain intact over extended periods of use. This protects internal components from corrosion or buildup. Fewer replacements are needed across long operation schedules. Thermal conductivity remains stable during repeated experiments. Lab teams can rely on consistent temperature control with minimal intervention. This extends the usable life of the coolant and the system itself.