Dynamic Temperature Control System LDTC-T2026

Introduction

Dynamic Temperature Control System operates within a working temperature range of -30℃ to 200℃ with capability to support both heating and cooling needs. It includes communication interfaces for data access and integration. The system offers multiple control modes suited to different process requirements. Our Temperature Control System is ideal for reactors, pilot systems and thermal platforms in chemical and pharmaceutical settings.

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 is used to regulate heating and cooling in processes requiring controlled thermal conditions. This supports stable temperature management during reactions, pilot runs and testing applications.

Specifications

Working Temperature Range	-30℃ 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℃	8500 W
Cooling Capacity at 25℃	6000 W
Cooling Capacity at -10℃	4700 W
Cooling Capacity at -20℃	3400 W
Cooling Capacity at -30℃	2000 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	19000 W
Dimensions (W × D × H)	755 × 1300 × 1795 mm
Net Weight	450 kg

Features

Vibration-resistant structural design

External sensor compatibility option

Panel-mounted safety switches

Spill-resistant port layout

Overload-protected circuit framework

FAQs

1. Is the Dynamic Temperature Control System suitable for use alongside sensitive lab equipment?

Dynamic Temperature Control System is engineered to operate quietly with minimal vibration, making it ideal for use near delicate analytical instruments. Its airflow and internal flow design help reduce disruptions in shared lab spaces. This enables steady function even when placed beside reactors, balances, or sensitive monitoring devices. The build allows straightforward integration into compact working zones. You won’t need isolation barriers or special housing. It fits seamlessly into pilot facilities and research units. The layout supports flexible placement across crowded technical rooms. Its performance remains stable without disturbing nearby processes.

2. Is the Dynamic Temperature Control System safe to use in environments with flammable materials?

Dynamic Temperature Control System is equipped with explosion-protected components and sealed construction to reduce risks in volatile environments. Its heating elements and electrical areas are layered with insulation to limit surface heat buildup. These safety features support usage in labs handling solvents or active compounds. The system monitors thermal activity and internal responses to potential faults. Pressure and temperature safeguards are built into core operations. It is compliant with protective standards for pilot or hazardous-area setups. Power flow remains stable during process fluctuations. This design promotes secure thermal control across safety-sensitive applications.

3. Can the Dynamic Temperature Control System manage programmed thermal cycles with gradual temperature changes?

The Dynamic Temperature Control System offers control modes designed for gradual heating and cooling over custom intervals. It supports process steps that follow a temperature ramp or hold logic. These cycles are vital for fermentation, synthesis, and thermal material testing. Each segment can be set to respond over time without manual adjustment. Consistent transitions reduce thermal shock in sensitive loads. Programming options allow repeatable sequences from batch to batch. Stability is maintained during each stage of the programmed path. This flexibility supports method development and long-duration protocols.

4. Can the Dynamic Temperature Control System be installed in labs with limited space or unique tubing setups?

Dynamic Temperature Control System is designed with adaptable tubing interfaces and multiple configuration options for non-standard spaces. It accommodates vertical, left, or right-side circulation routes without needing reassembly. The port design fits well with common lab connection systems. This helps users reduce downtime during installation. Its compact size allows benchtop or mobile setup based on available space. Teams can reposition orientation to match tight or crowded layouts. Retrofits and new installations are supported without structural modifications. This makes it suitable for space-constrained and modular facilities.

5. Is the Dynamic Temperature Control System built for continuous operation without needing frequent resets?

Dynamic Temperature Control System is built to run reliably for extended durations without performance drop or frequent intervention. It withstands the demands of long-term lab testing, fermentation runs, and pilot-scale operations. Temperature remains steady from startup through process completion. Internal components are chosen for sustained thermal exposure without drift. It minimizes the need for recalibration or manual restart. Batch-to-batch repeatability is preserved even during long sequences. Operators benefit from reduced downtime and fewer interruptions. This makes it ideal for environments requiring consistent, around-the-clock thermal control.

6. Can the Dynamic Temperature Control System automatically recover after power interruptions or emergency stops?

Dynamic Temperature Control System features built-in auto-restart memory that resumes the last configured program after shutdown. Once external power stabilizes, the unit restores its settings without operator input. This feature prevents data loss and preserves thermal progress in time-sensitive protocols. Recovery is immediate and does not require reprogramming. It’s especially valuable for pilot labs, chemical processes, or material studies. Thermal flow continues without delay after brief outages. The system ensures that disruption does not compromise the batch. This supports smooth, resilient operation in unpredictable lab environments.