In industrial production, controlling environmental temperature and humidity is critical. Traditional dehumidifiers often fall short 

when confronting complex industrial environments, whereas temperature-controlled dehumidifiers perfectly resolve these pain points.

Chapter 1: Understanding Temperature-Controlled Dehumidifiers—More Than Just Dehumidification

Core Issue: Limitations of Traditional Dehumidifiers

In many industrial settings, conventional refrigerant-based dehumidifiers suffer from an inherent flaw: while removing moisture 

through cooling, they significantly lower the supply air temperature. This creates two problematic scenarios: first, spaces become 

increasingly cold during dehumidification, impacting processes or personnel comfort; second, heating systems must be activated 

to maintain temperature, resulting in the energy inefficiency of “cooling and heating simultaneously” and driving up operational costs.

Solution: What is a Temperature-Controlled Dehumidifier?

A temperature-controlled dehumidifier, also known as a constant-temperature dehumidifier, is a high-efficiency environmental 

control device integrating dehumidification, cooling, and heating functions. Its revolutionary feature lies in its ability to independently 

or synergistically control both temperature and humidity based on actual needs, achieving precise, energy-efficient temperature 

and humidity management. It is not merely a “dehumidifier” but a complete “air handling hub.”

Chapter 2: Core Technology Revealed: How Does “Dual Temperature-Humidity Control” Work?

The intelligence of temperature-humidity dehumidifiers stems from the coordinated operation of their core components.

Key Components:

Dual Condenser Design: This is the cornerstone of “dual temperature-humidity control.” One condenser (functioning as a 

reheat condenser) recovers heat generated by the system, while the other (acting as a conventional condenser) discharges 

excess heat to the outside environment.

Three Core Operating Modes:

• Cooling Dehumidification Mode: Ideal for summer or high-temperature/high-humidity environments. The unit functions

  as a high-efficiency dehumidifier, lowering air temperature while removing moisture.

• Heating Dehumidification Mode: Suited for rainy seasons or low-temperature conditions. During dehumidification, the

  unit reheats cooled air using recovered system heat, delivering dry, warm air to prevent space temperature drop.

• Temperature-Stabilizing Dehumidification Mode: Ideal for locations demanding extreme temperature stability. Through

  precise calculations and component coordination, the system dynamically balances cooling and heating generated during

  dehumidification. This ensures the outlet air temperature remains virtually identical to the return air temperature, achieving

  efficient dehumidification with minimal impact on ambient temperature.

Chapter 3: Does My Workshop Need It? Primary Application Scenarios

If your production or storage environment has specific temperature and humidity requirements, a temperature-controlled 

dehumidifier is likely essential.

• Precision Manufacturing: In precision casting workshops, the drying process of molds is highly sensitive to temperature

  and humidity. A stable environment ensures uniform drying quality, prevents mold cracking, and significantly reduces

  product scrap rates.

• Pharmaceutical & Food Industries: Consistent temperature and humidity are vital for drug production/storage, food drying,

  and packaging to maintain active ingredient stability and product hygiene, meeting GMP and other regulatory standards.

• Specialized Storage: Archives, tobacco warehouses, tea storage facilities, cold chain logistics transition zones, etc. These units

  effectively prevent mold growth, moisture damage, and condensation caused by extreme temperature fluctuations, safeguarding

  valuable assets.

• Underground and Special Facilities: Such as civil defense projects, subway stations, underground garages, and hydroelectric

  power stations. These locations are typically humid, and temperature-controlled dehumidifiers can effectively address moisture

  and corrosion issues, ensuring facility safety and personnel health.

Chapter 4: How to Select? Focus on These Points

Faced with diverse products on the market, how do you choose a suitable temperature-controlled dehumidifier? Consider the following:

Determine Core Requirements: Dehumidification Capacity

This is the primary step in selection. Dehumidification capacity should not be chosen arbitrarily but requires professional calculation. 

Comprehensive factors include:

• Workshop Area and Ceiling Height: Determines the total space volume.

• Target Humidity: The range within which you wish to control environmental humidity.

• Initial humidity and environmental sealing: Local climate, indoor water sources, and door/window seals all impact load requirements.

• Consult professionals to calculate the precise required dehumidification capacity (unit: kg/h) through detailed analysis. This prevents

  oversizing (wasteful) or undersizing (ineffective) units.

Evaluate Energy Efficiency and Smart Management

• Energy Efficiency Ratio (EER): Opt for high-efficiency, energy-saving models. Though initial costs may be slightly higher, long-term

  operation yields significant electricity savings.

• Smart Control Systems: Modern industrial equipment should support IoT remote monitoring. Centralized management of multiple

  units via mobile or computer platforms—enabling real-time operation data viewing, parameter adjustments, and fault alerts—greatly

  enhances management efficiency and system reliability.

Chapter 5: Summary

Industrial temperature-controlled dehumidifiers transcend traditional dehumidification concepts. Through advanced heat pump and smart 

control technologies, they achieve precise, independent regulation of both “temperature” and “humidity” dimensions in industrial environments. 

Not only do they resolve issues like temperature fluctuations and high energy consumption associated with conventional dehumidification 

methods, but they also serve as powerful tools for ensuring product quality, enhancing manufacturing processes, and protecting stored 

materials and critical infrastructure. Understanding their operating principles, identifying suitable application scenarios, and conducting 

scientifically informed selection will be a crucial step in creating a stable, efficient, and energy-saving industrial environment.