Introduction

High Temperature Circulator operates from RT+5℃ to 250℃ and supports both material testing and reaction-based applications. Its closed system prevents contamination in setups like bio-fermentation tanks. The user-friendly interface allows quick and stable adjustments during active procedures. Our Circulator suits reactor heating, pilot-scale formulation lines and thermal cycles in bioprocess environments.

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 stable heating support for connected processing equipment across chemical, biological, and pilot-scale production setups. This enables controlled temperature regulation in systems like bio-fermentation tanks, extraction units, and formulation lines.

Specifications

Working Temperature Range RT+5℃ to 250℃
Temperature Control Accuracy ±0.5℃
Circulating Pump Maximum pressure 1.5 bar
Circulating Pump Maximum Flow Rate 70 L/min
Outer Circulation Interface Size R 3/4
Protection Grade IP20
Heat Transfer Fluid Filling Volume 17 L
Heating Power 12000 W
Power Supply 3 to 380 V, 50 Hz
Power Consumption 12750 W
Dimensions (W × D × H) 640 ×940 ×1585 mm
Net weight 185 kg

Features

Stability-enhanced bottom frame

Corner-protected outer casing

Glide-assisted transport wheels

Function-labelled operating panel

Cabinet-depth compatible frame

FAQs

1. Can the High Temperature Circulator operate effectively when connected to multiple external systems?

The High Temperature Circulator can support more than one external device when arranged in a shared circuit. Its fluid transfer setup promotes balanced distribution without pressure fluctuations between ports. This design helps in multi-tank applications or when paired with an extraction unit and mixing system simultaneously. The interface remains stable without the need for frequent recalibration. There is no interference between loops during concurrent use. It eliminates the need for system isolation between batches. Even in multi-stage runs, it preserves functional integrity. This makes it suitable for networked pilot-line operations.

2. Is the High Temperature Circulator suitable for environments with regular airflow fluctuations?

High Temperature Circulator includes a design that limits environmental impact from airflow turbulence commonly found near open ducts or production fans. The cabinet protects internal routing against drafts and sudden pressure differences. This is especially useful when the unit is placed near ventilation panels or intake outlets. The enclosure shields key areas from ambient interference. Performance remains steady even when nearby airflow is variable. The heat transfer process does not destabilize during such shifts. Operators can safely install it near air-sensitive zones. This ensures uninterrupted performance in exposed areas.

3. Can the High Temperature Circulator remain operational during process pauses or idle stages?

The High Temperature Circulator supports extended idle phases without requiring shutdown between cycles. It maintains internal stability while the connected process is on hold. This is useful in multi-phase production where waiting periods occur between stages. The system avoids overcompensation during inactivity. It doesn’t require draining or disconnection between restarts. Operators can leave it on standby without manual resets. It keeps the fluid condition consistent until the next process resumes. This allows smoother transitions across long workflows.

4. Does the High Temperature Circulator help manage energy during high-load operations?

High Temperature Circulator includes components that support stable output without unnecessary energy surges under heavy load. Its internal regulation keeps the heating output aligned with process demand. Operators do not experience unexpected consumption spikes during runtime. This helps manage utility usage when working with high-volume systems. The consistent draw protects other connected instruments from supply drops. No external stabilizer is needed under normal lab conditions. It balances heat delivery without overstretching resources. This makes it ideal for continuous-process environments.

5. Is the High Temperature Circulator suitable for modular installations on pilot plants?

High Temperature Circulator fits cleanly into modular frames used in pilot plant layouts and compact trial setups. Its structure allows stable integration alongside pumps, tanks, and mixers. It doesn’t require special reinforcements or customized racks. The connections are designed to align with standard pipe routes. Operators can lock it into temporary setups with minimal adjustments. This is ideal for labs conducting test runs before full production scale. The unit remains firm during relocations between stations. Its build supports flexible, project-based installations.

6. Can the High Temperature Circulator minimize downtime during fluid top-ups?

The High Temperature Circulator includes a fill-access design that reduces interruption when fluid needs to be replenished during extended operation. There is no need to halt the entire process to manage low levels. The interface remains accessible even when the device is active. Operators can safely monitor and refill without pressure build-up. It avoids unnecessary shutdowns caused by fluid shortage. This helps maintain flow continuity during long trials. The top-up method does not affect internal pressure stability. It ensures process efficiency during lengthy operations.

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