High And Low Temperature Circulator LHLTC-T2015

Introduction

High and operates across a range of -40 to 200°C making it suitable for processes with extreme thermal demands. The emergency stop function provides immediate shutdown during critical conditions to safeguard the system. Its intuitive control panel enables quick parameter adjustments during active operations without halting the process. Our Circulator is used in reactors peptide production and bio-fermentation setups.

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 hot and cold fluid circulation for controlled thermal conditions in diverse processing systems. That allows reliable temperature regulation in bioreactors, extraction setups, and pilot-scale operations across pharmaceutical and food industries.

Specifications

Working Temperature Range	-40 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	4648 W
Heating Power	3000 W
Compressor Power	1470 W
Circulating Pump Power	100 W
Power Consumption	4600 W
Power Supply	Single Phase 220V / 50Hz
Dimensions (W × D × H)	640 × 640 × 890 mm
Net Weight	105 kg

Features

Chemical compatible fluid route

Low power consumption mode

Overload protected power circuit

Broad voltage handling range

Fast-lock hose connections

FAQs

1. How does the High and Low Temperature Circulator support efficient batch processing cycles?

High and Low Temperature Circulator is highly suitable for batch applications where heating and cooling are both required in alternating phases. It eliminates the need to transfer materials between separate devices, allowing direct cycling between thermal stages. This helps streamline complex workflows in oral liquid preparation or extract testing. The unit maintains temperature transitions without compromising fluid consistency. This reduces the risk of product contamination during handling. Operators can control the thermal flow across stages from a single point. Its compatibility with multi-step processing makes it ideal for pilot-stage development. It brings workflow simplicity without compromising thermal performance.

2. How does the High and Low Temperature Circulator respond to sudden changes during thermal reactions?

The High and Low Temperature Circulator is engineered to maintain control during thermally reactive experiments where abrupt shifts in heat flow occur. It quickly balances temperature levels without requiring operator intervention, which is essential during fast-reacting processes. The unit supports smooth thermal transitions that protect sensitive materials from overheating or shock. For labs performing chemical synthesis, this quick adaptation helps maintain process integrity. Its design accommodates both rapid cooling and heating needs in real time. This responsiveness reduces downtime between cycles. The system promotes safety and reproducibility in reaction-driven environments. It offers the thermal agility necessary for critical lab-scale reactions.

3. How does the High and Low Temperature Circulator ensure system reliability under extended loads?

High and Low Temperature Circulator is designed with internal protections that maintain operational stability even during continuous, high-demand usage. It includes response mechanisms that prevent overwork or internal overheating during intensive thermal cycles. These safeguards are particularly useful in systems involving constant fluid circulation, such as bio-reaction or beverage pilot lines. Built-in limits help the system handle back-to-back cycles without decline in performance. Operators benefit from fewer maintenance interruptions. Its internal components are engineered for consistent thermal flow across long durations. These features make the unit dependable for both short bursts and prolonged lab routines.

4. Why is the High and Low Temperature Circulator suitable for temperature-sensitive fermentation processes?

High and Low Temperature Circulator provides consistent thermal conditions for fermentation systems, where biological activity depends on tightly maintained temperature zones. Its steady circulation prevents temperature layering or thermal lag within bioreactors. The unit supports prolonged incubation or culture growth periods with reliable control. Whether working with protein production or yeast fermentation, it compensates for metabolic heat without destabilizing the environment. Its smooth fluid transfer allows even distribution of heat across vessels. By minimizing thermal disruption, it helps increase batch reproducibility. It’s an ideal fit for fermentation lines requiring predictable thermal performance. The unit promotes uniform growth conditions throughout processing cycles.

5. Can the High and Low Temperature Circulator be integrated with data-tracking workflows?

High and Low Temperature Circulator can be incorporated into research environments that rely on thermal feedback systems and real-time data collection. Its external sensor interface supports adaptive control based on current operating conditions. This becomes especially valuable when working with calorimeters or reactors where temperature must be finely adjusted mid-process. The system can align with external displays or data loggers to improve traceability. It supports consistency across repeated trials through responsive temperature adjustments. Researchers gain more control over thermal outcomes during each phase. It’s a dependable choice for automated or analysis-driven applications. The design enhances traceable process management.

6. Why is the High and Low Temperature Circulator well-suited for multi-equipment configurations?

High and Low Temperature Circulator is built to support setups where multiple laboratory tools operate simultaneously under varying thermal needs. Its circulation system can be linked with a range of devices such as reactors, mixers, and fermenters without requiring multiple circulators. This makes it ideal for compact spaces where equipment must be consolidated. Its front-access design reduces obstruction around other units. The circulator provides stable output across all connected tools without shifting focus. In multi-stage pilot lines, this allows thermal control to remain uninterrupted. Researchers benefit from reduced reconfiguration time between tools. It adapts smoothly to busy lab environments.