High And Low Temperature Circulator LHLTC-T2013

Introduction

High and operates within a working temperature range of -20 to 200°C ideal for rapid heating and cooling cycles. Its cooling capacity ensures stable performance during aseptic filling and fluid handling. The multi-stage fermentation process is supported by built-in safety functions. Our circulator suits extraction units, mixing tanks, pilot-scale setups, beverage lines, and bio-fermentation applications.

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

Applications

High and Low Temperature Circulator provides external thermal control for various lab and pilot-scale systems. This ensures stable operation in applications such as fermentation, extraction, fluid preparation, and semiconductor cooling processes.

Specifications

Working Temperature Range	-30 to 200°C
Ambient Temperature	5 to 35°C
Relative Humidity	Less than or equal to 70%
Temperature Control Accuracy	±1°
Temperature Sensor	PT100
Circulating Pump Pressure	Less than or equal to 0.4 MPa
Circulating Pump Lift	4 to 6 m
Max. Reactor Volume Can Be Matched	10 L
External Input	External Sensor Port
Cooling Capacity	3486 W
Heating Power	3000 W
Compressor Power	1103 W
Circulating Pump Power	100 W
Power Consumption	4570 W
Power Supply	Single Phase 220V / 50Hz
Dimensions (W × D × H)	600 × 640 × 890 mm
Net Weight	105 kg

Features

External sensor input option

Balanced circulating pump output

Stable single-phase power input

Secure panel lock system

Durable heat-resistant casing

FAQs

1. Is the High and Low Temperature Circulator suitable for space-restricted installations?

High and Low Temperature Circulator is engineered with a compact footprint, making it suitable for laboratories with limited bench or floor space. The design accommodates rear-side ventilation, allowing wall-adjacent placement without blocking airflow. Its vertical structure supports overhead piping, reducing lateral sprawl. Built-in wheels simplify relocation without dismantling surrounding equipment. The placement flexibility helps reduce lab setup time. In environments with heavy instrumentation, such space-saving construction becomes critical. The compact structure still supports multi-connection setups and reactor docking. unit offers both performance and fit for labs where every inch matters.

2. What makes the High and Low Temperature Circulator reliable for handling sensitive mixtures like fruit-based samples?

The High and Low Temperature Circulator is particularly effective for processes involving organic or fruit-based samples where fluid stability is key. Its design minimizes turbulence, helping protect the integrity of viscous or particulate-rich media. The internal path resists sudden pressure changes that might disturb delicate blends. That makes it suitable for applications such as beverage testing, where repeatable thermal cycles are necessary. The unit prevents overheating or rapid cooling which can alter sample properties. circulator helps maintain quality in fruit extract blending and plant-based formula testing. The low disruption in flow ensures even mixtures are maintained. Its application in pilot production lines for consumables highlights its formulation stability.

3. Can the High and Low Temperature Circulator be integrated with automated process systems?

High and Low Temperature Circulator includes a control system that supports integration with broader process setups. Its external sensor port allows the user to link the unit to a remote-control loop. That means feedback from the reactor or tank can directly adjust circulator output. The unit adapts to various automation protocols without needing structural modification. This helps in scaling pilot setups into production lines. circulator provides dependable support during real-time adjustments. Whether in bioengineering or chemical analysis, this adaptability supports automation with minimal operator intervention. The compatibility with external control systems boosts its industrial value.

4. How does the High and Low Temperature Circulator protect itself during unexpected shutdowns?

High and Low Temperature Circulator features layered safety mechanisms that engage instantly during unexpected power or process failures. The compressor includes a delay system to prevent overload on restart. Built-in leakage protection cuts off operation if abnormal discharge is detected. That proactive design minimizes damage and improves machine longevity. Emergency stop access is positioned for quick operator response. These features work together to reduce incident risks in temperature-sensitive operations. The circulator resumes under safe mode when conditions stabilize. This built-in recovery plan supports lab safety and operational continuity.

5. Can the High and Low Temperature Circulator maintain stable operation under humid conditions?

High and Low Temperature Circulator is designed to perform reliably even in environments with elevated humidity. The sealed framework reduces internal exposure to moisture, protecting key components during prolonged use. Its ventilation design prevents condensation buildup that could interrupt operations. This makes it suitable for tropical labs or areas without dedicated climate control. circulator ensures that condensation does not interfere with circulation paths. Electrical safety is also enhanced through internal safeguards against damp contact. That level of resilience helps prevent failure during sudden atmospheric changes. It delivers consistent control even under non-ideal room conditions.

6. What ensures durability in the High and Low Temperature Circulator under repeated thermal cycling?

The High and Low Temperature Circulator is built with thermal fatigue resistance in mind, using reinforced structural insulation and vibration-dampened compressor housing. These elements reduce wear caused by constant hot-cold transitions. The pump and fluid path are corrosion-resistant, even with repeated cycling between temperature extremes. This makes it reliable in multi-shift or continuous test setups. circulator maintains stability even after repeated shutdown and restart sequences. The structural core is supported with insulated casing to minimize external impact. That durability is critical in research where setups run day and night. Its resilience supports dependable long-term use.