Full functionality
in
hot and cold weather

Temperature affects performance and service life

High temperatures can significantly increase the thermal stress on the CPU, chipset, SSD, memory, and power supply. Under high computing loads, this can result in thermal throttling: the processor reduces its performance to prevent overheating. Under particularly unfavorable conditions, system crashes or data loss may also occur. At the same time, high temperatures accelerate the aging of electronic components and can impair the long-term reliability of solder joints, contacts, and signal connections.
These aspects are becoming increasingly important as computing performance continues to rise.
Modern industrial computers, for example, are used for image processing, AI inference, or processing data from multiple camera streams.
The resulting high system load generates additional heat. An effective thermal design must therefore ensure sufficient heat dissipation even under continuous high loads.
Low temperatures can also impair the operation of electronic systems. Changes in the electrical characteristics of components can make system startup more difficult, in particular SSDs, memory, and power supply modules must therefore also be designed for the specified temperature range.
In addition, extreme cold and repeated temperature cycles can place mechanical stress on materials and connections.

System design rather than individual components

An extended operating temperature range cannot be achieved simply by selecting a single temperature-resistant component. What matters is the interaction between components, enclosure, cooling concept, and system validation. Key factors include industrial-grade components, efficient thermal management, fanless design, consistent thermal design, and system testing under real-world conditions.
Industrial-grade components
Processors, memory, SSDs, power supplies, and other components must be specified for the intended temperature range.
Efficient thermal management
Heat sinks, heat pipes, and thermally conductive enclosure structures efficiently dissipate the heat generated inside the system.
Fanless design
Passive cooling solutions eliminate wear-prone fans while also reducing the risk of dust and foreign particles entering the system.
Consistent thermal design
Heat dissipation paths must be considered during the design of the overall system to prevent localized heat accumulation.
System testing under real-world conditions
Not only individual components, but the fully configured industrial computer must be tested at both high and low temperatures.