Dynamic Temperature Control System LDTC-T2027

Introduction

Dynamic Temperature Control System offers a working temperature range from –40°C to 200°C, supporting diverse thermal applications in research and industry. It includes multiple control modes that help tailor thermal responses to material behaviour and system demands. The explosion-proof assembly ensures safe use in hazardous environments. Our Temperature Control System is used in bioreactors, extraction units, and pilot-scale systems.

This temperature control system is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Dynamic Temperature Control System regulates external heating and cooling for reactors, testing platforms, and pilot units in various industries. This supports controlled thermal transitions during development, testing, and small-scale production.

Specifications

Working Temperature Range	-40℃ to 200℃
Temperature Control Accuracy	±0.5℃
Temperature Display	7-inch screen
Display Resolution	0.01
Cooling Water Temperature Range	10 to 33℃
Ambient Temperature Range	5 to 35℃
Cooling Capacity at -200℃	12000 W
Cooling Capacity at 100℃	8600 W
Cooling Capacity at 25℃	5800 W
Cooling Capacity at -10℃	4500 W
Cooling Capacity at -20℃	3500 W
Cooling Capacity at -30℃	2000 W
Cooling Capacity at -40℃	1100 W
Cooling Method	Air cooling / Water cooling
Heating Power	12000 W
Cooling Water Flow Rate	4.0 m³/h
Cooling Water Interface	R₂3/4
Circulating Pump Max. Pressure	1.4 bar
Circulating Pump Max. Flow Rate	45 L/min
Outer Circulation Interface Size	R₂3/4
Noise Level	68 dB(A)
Protection Grade	IP20
Refrigerant	R404 A
Heat Transfer Fluid Filling Volume	18 L
Maximum Viscosity of Heat Transfer Fluid	30 mm²/s
Communication Interfaces	, RS485, Pt100
Power Supply	3 to 380V, 50Hz
Power Consumption	18600 W
Dimensions (W × D × H)	755 × 1300 × 1795 mm
Net Weight	460 kg

Features

Dual-mode cooling configuration

User-directed function switching

Modular system compatibility design

Adaptive fault detection logic

Integrated grounding safety layer

FAQs

1. Can the Dynamic Temperature Control System handle sudden load changes during sensitive procedures?

Dynamic Temperature Control System includes an intelligent flow management system that adjusts to fluctuating process demands without compromising temperature control quality. This adaptability ensures that process integrity is maintained during unexpected thermal load shifts. The system stabilizes fluid output automatically when load variations are detected, allowing for smoother thermal transitions. Its operational reliability extends across test platforms requiring dynamic temperature input. The internal architecture compensates for external demand surges using programmable feedback. This approach supports temperature-intensive applications like batch fermentation and pilot-scale testing. Real-time adjustments contribute to uninterrupted performance under variable input. Users working with temperature-sensitive substances benefit from its responsive architecture.

2. How does the Dynamic Temperature Control System support varied process control strategies in lab setups?

The Dynamic Temperature Control System offers selectable modes based on the user’s process priority whether it’s material temperature or inlet/outlet flow points. This flexibility suits laboratories where different experimental stages need different thermal references. Researchers can configure how heat is applied or extracted based on their protocol. It gives flexibility for thermally unstable formulations without the need for external recalibration. The controller adapts to the thermal logic built into lab protocols. Multiple control pathways ensure that thermal transitions happen according to the intended recipe. Even complex formulations benefit from this functional freedom. It gives users autonomy over thermal profiles at various points of contact.

3. Is the Dynamic Temperature Control System suitable for integration in automation-based pilot facilities?

Dynamic Temperature Control System supports automation setups through its communication interfaces, enabling interaction with control software and industrial sensors. This integration helps in synchronizing temperature behavior with automated batch workflows. The connectivity framework aligns with lab management systems for data tracking. It eliminates isolated control islands by sharing temperature feedback across centralized dashboards. The automation link improves workflow traceability and operational consistency. Researchers benefit from synced data exchange without the need for manual toggling. Real-time compatibility enhances response time during system alerts. This allows it to blend into fully automated reaction or extraction lines smoothly.

4. What safeguards are built into the Dynamic Temperature Control System for high-risk environments?

Dynamic Temperature Control System is designed with explosion-protected components suited for chemically reactive and flammable workspaces. Its enclosed structure ensures thermal stability without exposing sensitive electronics. It includes protection for phase mismatch and current spikes that can arise during heavy usage. The control box construction isolates triggers that could initiate hazardous situations. Its safety logic prevents thermal surges that can damage surrounding instruments. Facilities working with volatile materials gain an added level of safety control. Its hardware configuration follows electrical safety codes to prevent contact-based ignition. These features make it reliable for critical chemical synthesis zones.

5. Can the Dynamic Temperature Control System be used for simulated stress testing of new materials?

The Dynamic Temperature Control System is well-suited for materials testing platforms where thermal cycling and stress profiling are required. Its ability to apply heat or remove it in programmable patterns enables in-depth material performance evaluation. It can be used to replicate environmental temperature conditions under lab constraints. This makes it useful for simulating thermal fatigue and durability testing. The flexible control logic allows creation of repeatable stress scenarios. It supports stages of high-heat exposure followed by controlled cooling. Research on composite degradation and polymer shift benefits from such thermal mapping. Its responsiveness under repetitive cycles is ideal for durability trials.

6. What role does the Dynamic Temperature Control System play in cleanroom-compatible setups?

Dynamic Temperature Control System operates with low vibration and minimal airflow disruption, supporting usage in cleanroom and contamination-sensitive setups. Its structural design keeps particulate generation to a minimum. Temperature regulation occurs without interfering with laminar flow. The internal components are shielded to avoid unwanted emission of particulates. It’s suitable for biologic production zones where air quality standards are enforced. The low-emission operation supports stable working environments. It avoids introducing foreign matter during heat transfer cycles. This makes it ideal for aseptic processing areas and controlled zones.