Technical Library

Today’s SSDs face complex challenges, such as extreme temperature shifts and harsh environmental conditions, along with a multitude of other complex interplays such as controller, power, integrated circuits (ICs), microcontroller unit (MCUs), NAND configuration, and more.

Amid the wave of digital healthcare transformation, disruptions caused by sudden battery failure or overheating in mobile workstations (such as medical carts) not only impact medical efficiency but also potentially threaten patient safety. To address this, Wincomm has launched the WS Battery Monitoring Management Suite (WS BMMS), combining NetCharge (deployed on each device) with the centralized monitoring platform NetMon (located on the server) to create a 24/7 battery monitoring system that provides comprehensive protection for medical institutions.

During sudden power loss events, flush commands are necessary to ensure that data temporarily stored in the cache is safely moved to the non-volatile NAND flash memory; however, when these commands are issued by the host too frequently, they result in:

• Higher WAI and Accelerated Wear.|
  WAI refers to the ratio of writes committed to the flash memory to the writes from the host system. As each flush involves multiple writes, the amount of data written to the flash exceeds the amount of data that the host requires to be written, thus unnecessarily amplifying the write cycles. A high WAI degrades the SSD and reduces the SSD’s lifespan.
• Performance Degradation. \
  The frequent flushes disrupt the SSD’s ability to handle other important operations, thereby adversely impacting random write performance.

With the rapid advancement of smart vehicles and autonomous driving technologies, Advanced Driver Assistance Systems (ADAS) have become an indispensable core feature in modern automobiles. By integrating sensors such as cameras, radars, and LiDAR with control units, ADAS enables functions like automatic emergency braking, lane departure warning, and automated parking, enhancing both driving safety and comfort.

These functionalities rely on real-time processing of massive data, making in-vehicle communication architectures increasingly critical.

Traditionally, CAN Bus (Controller Area Network) has been widely used due to its advantages of high reliability, low cost, and multi-node support, making it suitable for powertrain and chassis control systems. However, standard CAN only supports transmission speeds up to 1 Mbps, and even with CAN FD reaching 8 Mbps, it still cannot meet the high-bandwidth requirements of ADAS for image and sensor data transmission.

To address this challenge, the automotive industry is increasingly adopting high-speed Automotive Ethernet technologies such as 100BASE-T1 and 1000BASE-T1, which provide higher bandwidth and lower latency for data transmission.

According to the official technical news from StartUp Green Energy Co., Ltd., "What are the methods for charging electric vehicles? Which is the most cost-effective? An electric vehicle charging guide" (published on July 17, 2025), the key points are as follows:

• Diverse Strategic Partners: eTreego has long been involved in the electric vehicle charging field, collaborating with numerous charging service operators and automakers, including Shihlin Electric and Hotai Motor, to ensure superior service quality, equipment performance, and technical support.
• User-focused Charging Advantages: This content provides consumers with a variety of effective charging methods, helping car owners choose the most cost-effective and convenient charging method in different scenarios, improving their user experience and cost efficiency.

Modern IT and IoT infrastructures consist of devices requiring high network performance, such as Wi-Fi 6/6E or Wi-Fi 7 access points, where speed is highly important. A traditional 1Gbps connection is not sufficient for optimal network performance. PLANET offers a comprehensive range of 2.5G and 10G PoE network switches and devices that not only enhance network efficiency and productivity but also contribute to energy savings, sustainability, and future-proofing for the potential scalability of the network.

In modern security surveillance, video resolution is one of the key factors affecting overall performance. As security threats become increasingly complex, businesses and organizations need not only real-time monitoring, but also high-quality video that can clearly capture every detail. EverFocus, as a leading brand of professional surveillance solutions, provides the market's best 4K UHD ultra-high-definition monitoring experience, allowing each frame of video to achieve accurate restoration.

In power systems and electronic devices, transformers are the core components for electrical energy conversion and voltage regulation. To ensure safe, stable, and efficient operation, insulation design plays an extremely critical role in transformers. This article will provide an in-depth analysis of the importance of insulation, common insulation methods, material temperature resistance ratings, and A-TECH's insulation system certification.

DFI’s latest medical edge server MPC350-RPS is a high-performance AI computing platform specifically designed to support real-time medical imaging applications. With built-in features tailored for healthcare, it meets the demanding computational needs of applications like AI-assisted CT diagnosis, AI-assisted surgery, endoscopy analysis, and cutting-edge research in drug discovery and genomics.

Accurate diagnosis is the cornerstone of effective healthcare, especially when illnesses are not visible on the surface. Traditionally, medical professionals rely on their expertise to interpret X-rays, MRIs, and CT scans—but even the most skilled eyes can miss subtle abnormalities. Today, with the rise of AI inference technology, diagnostic accuracy is being redefined. According to Fortune Business Insights, the AI healthcare market is expected to grow from USD 39.34 billion in 2025 to USD 490.96 billion by 2032, at a staggering CAGR of 43.4%.

In high-risk environments, electronic equipment must meet stringent safety standards to minimize ignition risks. As such, all computing devices deployed in hazardous areas must comply with internationally recognized certification systems such as ATEX, IECEx, or Class/Division (CID2). These certifications confirm that the equipment can be safely operated in classified zones and will not pose an ignition hazard under normal or abnormal operating conditions.