This study investigates the airflow distribution and thermal behavior within a wafer burn-in test system using CFD analysis. The results provide guidance for improving temperature uniformity and system reliability
As electronic systems continue to demand higher performance within increasingly compact enclosures, thermal management challenges become more complex. CFD-based forced convection analysis provides a powerful approach for evaluating airflow behavior, identifying thermal hotspots, and optimizing cooling system designs to achieve reliable operation and long-term product durability.
Airborne equipment experiences random vibrations that change at every measurement interval due to various conditions during flight operation — such as motors, noise, turbulence, and projectile launches — and structural safety and fatigue durability evaluations are required for these conditions. In this example, we will explore methods for verifying random vibration analysis of a condition monitoring system.
Transfer equipment repeatedly cycles through stop, acceleration, travel, and deceleration conditions depending on its operating conditions. Just as a bus undergoes sudden braking, transfer equipment also generates vibration due to inertial forces in the structure caused by abrupt changes in velocity. Let us explore together how this can be evaluated numerically.
All structures on the ground are constantly exposed to seismic natural disasters, and seismic safety verification is an essential requirement. In this example, we will explore how to verify base station BBU communication server rack equipment using a analytical verification method called response spectrum analysis.
Indoor communication equipment operates 24/7 and is continuously exposed to repetitive ambient vibrations depending on operating conditions. In this example, we will explore how to verify whether durability safety is secured against repetitive vibration loads on communication equipment through frequency response analysis.
Deposition coating equipment is constantly exposed to high-temperature environments during processing. To prevent issues related to airtight sealing and thermal deformation, the thermal distribustion of the structure under these confitions must be verifies. In this example, we will explore methods for analyzing and verifying temperature distribution and thermal deformation in the PECVD device cover under operating conditions.
Airflow distribution and thermal uniformity within process chambers play a crucial role in semiconductor wafer manufacturing. CFD analysis enables engineers to evaluate flow behavior, predict wafer temperature distribution, and optimize chamber designs to improve process stability, product quality, and production yield.
All structures installed outdoors are constantly exposed to the risk of typhoon disasters that can cause casualties, and structural safety verification is an essential requirement. In this example, we will explore how to perform analytical verification of antenna structures installed outdoors. i
