High Temperature Circulator LHTC-T2020

Introduction

High Temperature Circulator offers a working temperature range from RT+5℃ to 250℃ enabling controlled heating in industrial and lab processes. The built-in cooling coil allows external water to regulate system conditions during long operation. Its design minimizes thermal loss, maintaining stable performance under demanding workloads. Our circulator supports test vessels and pilot-scale systems in pharmaceutical, biotech and chemical settings.

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 Temperature Circulator provides a reliable heat source to external equipment used in laboratory and pilot-scale operations. This supports consistent thermal control in reactors, material testing setups, and processing units across research and production environments.

Specifications

Working Temperature Range	RT+5℃ to 250℃
Temperature Control Accuracy	±0.5℃
Circulating Pump Maximum pressure	3 bar
Circulating Pump Maximum Flow Rate	28 L/min
Outer Circulation Interface Size	R2¾
Protection Grade	IP20
Heat Transfer Fluid Filling Volume	13 L
Heating Power	6000 W
Power Supply	3 to 380 V, 50 Hz
Power Consumption	3500 W
Dimensions (W × D × H)	430 ×690 ×1225 mm
Net weight	120 kg

Features

Quick-lock drainage outlet

High-visibility control interface

Shock-resistant frame casing

Low-profile equipment footprint

Integrated hose guard channel

 

FAQs

1. Can the High Temperature Circulator be used with thermal systems requiring constant fluid motion across multiple zones?

High Temperature Circulator is ideal for setups where fluid needs to circulate steadily through various components without interruption. Its external connectivity supports balanced distribution across multiple ports. The system architecture prevents uneven flow or localized overheating. Its construction ensures there’s no backflow or stagnation during extended operation. Users can maintain consistency in setups with more than one heating surface. Tubing alignment and interface placement are designed for fast and tight connections. The circulator’s performance holds steady regardless of process stage transitions. This makes it valuable in complex or multi-chamber thermal workflows.

2. How does the High Temperature Circulator handle inconsistent power conditions in industrial environments?

High Temperature Circulator includes built-in protections that help it recover gracefully from voltage instability. The system prevents damage from phase mismatch or surges using sequence correction features. These protections extend the lifespan of key internal parts. Power return scenarios don’t require user resets. It continues operating without re-initialization delays. Users benefit from stable output after fluctuations. This reduces the chances of interruption during critical heating phases. The unit is prepared for harsh utility conditions often seen in pilot facilities.

3. Is the High Temperature Circulator optimized for laboratory spaces with limited installation area?

The High Temperature Circulator features a compact frame built for vertical placement, offering more usable bench area. Its components are arranged for access without needing side clearance. Rear tubing interfaces allow close placement near walls or other instruments. Cable paths are positioned to reduce tangling and improve safety. The top-facing interface simplifies control even when space is restricted. It can be used beside other heated units without causing interference. Servicing areas are within reach without full disassembly. This layout makes it suitable for dense lab environments.

4. Can the High Temperature Circulator sustain long heating operations without thermal instability?

High Temperature Circulator incorporates a cooling coil that moderates internal behaviour during prolonged use. External water can be introduced to control thermal shifts. Its construction reduces oil degradation during high-duty cycles. Continuous flow limits risk of temperature spikes. There is no need for cooling breaks between operations. Heat remains evenly distributed through the closed system. This maintains process accuracy over long sessions. It’s well-suited for uninterrupted cycles like extraction, digestion, or thermal testing.

5. Is the High Temperature Circulator suitable for flexible pilot-scale development processes?

The High Temperature Circulator is designed to work with rapidly changing pilot operations that often involve different heating loads. Its interface allows quick reconfiguration between tasks. No major hardware changes are needed between uses. It easily adapts to new reactor setups or changes in flow direction. Fluid routing remains unaffected by changeover. This saves time during batch adjustments. It supports testing environments that require frequent thermal cycling. The circulator offers consistent results across varying prototype runs.

6. How does the High Temperature Circulator manage thermal delivery in chemically sensitive systems?

The High Temperature Circulator is well-suited for labs dealing with reactive compounds or volatile environments. Its build minimizes risk of heat transfer fluid contamination. Chemical vapor resistance is ensured through protected internal materials. The system resists stress from ambient chemical exposure. Leakage is reduced during contact with extraction or synthesis equipment. The thermal circuit remains isolated from external reactions. It performs safely even in extraction or distillation settings. This makes it dependable in chemical research and processing.