High Temperature Circulator LHTCR-T2011

Introduction

High Temperature Circulator operates within a working temperature range from RT to 200°C, offering reliable control for external thermal applications. It includes a built-in filter that prevents circulation blockage during long operations. The pump ensures stable flow, allowing smooth liquid movement through connected systems. Our Circulator supports heating in reactors, fermentation tanks, and beverage processing lines with steady thermal delivery.

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 offers regulated heat delivery to external systems like reactors, peptide lines, and production vessels. This ensures steady temperature control throughout continuous laboratory and pilot-scale processes.

Specifications

Working Temperature Range	RT to 200°C
Temperature Control Accuracy	±1°C
Reservoir Volume	5 L
Heating Power	2000 W
Lift	6 m
Inlet/Outlet Size	12.7 mm
Flow Rate	20 L/min
Circulating Pump Power	100 W
Power Consumption	2100 W
Power Supply	220V / 50Hz
Dimensions (W × D × H)	300 × 450 × 550 mm

Features

Noise-insulated flow mechanism

Heat-stable outer housing

Compact grip-friendly frame

Even-pressure circulation pathway

Temperature-resistant internal framework

FAQs

1. How does the High Temperature Circulator maintain fluid quality in sensitive applications?

High Temperature Circulator is ideal for temperature-sensitive media where maintaining fluid quality is essential. Its fully enclosed system reduces contact with ambient air and moisture, ensuring thermal fluids remain chemically stable during heating. The interior circulation prevents oxidation, preserving viscosity and purity even in repeated use. It avoids thermal surges, which helps protect fluid composition throughout each stage. By supporting consistent thermal conditions without external influence, the system enhances material longevity. High-integrity fluid flow benefits biochemical and pharmaceutical processes. The setup is tailored to reduce chemical drift or breakdown. circulator keeps sensitive applications uninterrupted by thermal instability.

2. Why is the High Temperature Circulator well-suited for compact laboratory spaces?

The High Temperature Circulator fits effectively in compact work environments and closed laboratory spaces. Its slim footprint is tailored for tight setups, allowing users to install it alongside existing equipment without excessive rearrangement. Heat management within the unit reduces ambient interference, protecting temperature-sensitive instruments placed nearby. Cabling is streamlined through back-panel routing, which keeps the work area clear and accessible. Low-vibration function supports stability near precision testing stations. It performs quietly, minimizing acoustic interference in shared spaces. Thermal insulation further limits indirect heating. The design suits labs where space optimization and clean layouts are crucial.

3. Can the High Temperature Circulator operate reliably during extended heating processes?

High Temperature Circulator ensures consistent thermal performance during long operating cycles. Its internal flow and heat systems are built to maintain steady temperature output across extended applications without overheating. The construction limits output fluctuation even when used continuously in pilot production or testing. Layers of structural insulation help sustain energy within the system. The circulation loop avoids thermal loss, supporting repeatable performance across each batch. Auto-regulating elements minimize stress during shifts in input demand. Performance doesn't decline under prolonged usage. build allows uninterrupted use across stages that require steady heating flow.

4. How does the High Temperature Circulator prevent contamination in repeated thermal operations?

The High Temperature Circulator is designed to prevent contamination throughout repeated thermal fluid cycles. Its internal components are protected with corrosion-resistant construction that supports long-term contact with heated materials. The closed-loop system avoids exposure to dust, vapors, or foreign particles that might compromise fluid properties. Filter elements intercept any residual material during recirculation. Smooth inner pathways limit buildup and prevent system drag. Contaminants are isolated before affecting flow or reaction accuracy. This system keeps internal purity intact between different usage phases. The design helps maintain consistency in all thermal applications.

5. What safety features make the High Temperature Circulator suitable for unattended operation?

High Temperature Circulator includes integrated protections that allow extended, unattended operation in active research zones. It features auto-shutdown for overheating and recovers safely after overloads without needing manual resets. The system logs errors visibly through a digital interface, alerting users even during remote monitoring. Flow activity is monitored continuously to avoid internal obstruction. Housing components are reinforced to limit wear from long thermal cycles. Alerts prevent unnoticed deviation in operating conditions. The design supports trust in unattended heating during critical experiments. circulator ensures security when direct observation isn't available.

6. How does the High Temperature Circulator support multi-stage pilot or industrial setups?

High Temperature Circulator supports multi-stage pilot systems where multiple vessels require reliable heating coordination. Its thermal delivery remains balanced across concurrent processes, avoiding mismatched flow or sudden variation in output. Flexible connectivity allows attachment to various industrial modules such as fermentation or mixing units. Temperature synchronization is maintained via feedback integration. The interface supports external control connection without lag. Adaptable fittings simplify switching across setups. It holds thermal consistency through simultaneous operation.