High Temperature Circulator LHTCR-T2016

Introduction

High Temperature Circulator operates from room temperature to 200°C with suitability for thermal tasks in labs and pilot setups. This circulator ensures strong fluid movement to maintain uniform heating across all connected components. It features a closed-loop design that extends fluid lifespan and minimizes contamination. Our circulator supports reactors with extraction systems and heating in food with pharma and biotech processes.

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 delivers controlled high-temperature fluid circulation across connected lab and industrial systems. It ensures uniform heating in reactors, fermenters, and pilot setups used in pharmaceutical, food, and biochemical applications.

Specifications

Working Temperature Range	RT to 200°C
Temperature Control Accuracy	±1°C
Reservoir Volume	35 L
Heating Power	9000 W
Lift	22 m
Inlet/Outlet Size	12.7 mm
Flow Rate	42 L/min
Circulating Pump Power	370 W
Power Consumption	9370 W
Power Supply	380V / 50Hz
Dimensions (W × D × H)	520 × 720 × 1130 mm
Net Weight	58 Kg
Gross Weight	62 Kg

Features

Shielded rear hose adapter

Corner-mounted safety drain port

Slide-lock bottom grip wheels

Push-guard circuit breaker switch

Internal flow direction stabilizer

FAQs

1. How does the High Temperature Circulator support fluid consistency in multi-stage process lines?

High Temperature Circulator maintains operational stability even when used in layered configurations involving multiple vessels or reactors. It supports process continuity by distributing temperature evenly across varying equipment setups. With built-in safety measures and a well-structured control system, it resists performance fluctuation under dynamic operating conditions. The design enables adaptable use in pharmaceutical development, multi-reactor testing, and temperature-critical production. Its robust framework keeps the liquid medium uniform, especially during scale-up trials. By accommodating various flow routes without interruption, it ensures dependable transitions between process stages. The system's architecture supports equipment interconnectivity without requiring performance readjustments. This makes it ideal for evolving industrial protocols.

2. How does the High Temperature Circulator support heating across irregular or asymmetrical equipment layouts?

High Temperature Circulator is built to adapt to uneven spatial setups where piping arrangements, vessel shapes, or heating demands differ between connected devices. It maintains stability even when configurations do not follow uniform geometry. The design supports fluid movement without needing symmetrical placement or matching reactor designs. This makes it valuable in pilot labs where setups are customized and non-standard. It adjusts automatically to pressure variations caused by height differences or loop complexity. As a result, no significant readjustment is needed during layout changes. This capability improves usability across modular process lines. The system supports heat delivery without enforcing structural limitations.

3. What makes the High Temperature Circulator suitable for long operational cycles?

The High Temperature Circulator is built for continuous use in demanding environments where extended cycles are part of routine workflows. Its internal components are selected to resist fatigue during long durations, supporting uninterrupted thermal management in reactors and pilot systems. The design avoids buildup and fouling through material selection and circulation pattern, reducing maintenance interruptions. Laboratories working on time-intensive processes such as compound testing or fermentation benefit from its long-running reliability. With durable internals, it withstands pressure fluctuations caused by reactive expansion during ongoing heating. The design philosophy reduces the need for recurring shutdowns, even under load. This contributes to lower downtime across pharmaceutical and food applications. It remains dependable throughout extended batch runs.

4. Can the High Temperature Circulator improve workflows in multi-batch pilot production environments?

The High Temperature Circulator helps streamline temperature handling when switching between different production batches in research and development setups. It reduces the need for frequent configuration changes by preserving reliable performance across varied operating conditions. The system handles fluid exchange without compromising flow uniformity or overheating risks during back-to-back cycles. Its internal control functions are structured to accommodate repeat use across diverse materials. This is useful in scenarios like sample prototyping or batch-wise formulation tests. As conditions shift between product types, it adapts without requiring downtime or recalibration. This contributes to better scheduling and lower error rates. The unit enables uninterrupted transitions in pilot workflows.

5. Is the High Temperature Circulator compatible with filtration-sensitive processes?

High Temperature Circulator is configured to reduce the chances of clogging or contamination in sensitive circulation loops. A built-in barrier element restricts the passage of particles or residues that might interfere with connected instruments. This is particularly helpful in applications involving biologics, beverage extracts, or clean chemical formulations. By keeping unwanted buildup out of the main transfer line, it reduces the likelihood of sudden stoppages or rework. The design facilitates smoother operation of systems with inline filters or delicate instrumentation. This feature helps safeguard process integrity in pilot-scale research. It avoids complications when using narrow passageways or jacketed equipment. Clean-loop performance is consistently maintained in sensitive setups.

6. Why is the High Temperature Circulator effective for jacketed reactor setups?

The High Temperature Circulator is particularly well-suited for jacketed configurations, thanks to its pressure-resilient operation and steady liquid dynamics. It ensures full envelope contact by keeping circulation uninterrupted even when the reactor geometry varies. This uniformity is vital in biochemical reactions where internal gradients must be avoided. It accommodates changes in flow demand from wide or narrow jacket designs without system lag. This allows precise reaction control from heating initiation to cool-down stages. It reduces reliance on auxiliary heating systems or temporary stabilizers. The setup supports consistent temperature coverage regardless of vessel shape. It helps maintain reaction stability across diverse process types.