The Dasenic Electronics Blog
Comprehensively understand everything about electronic components at Dasenic.
- 140W USB-PD3.1 fast charging solution based on ST ST-ONEHP
ST-ONEHP is very suitable for use with MasterGaN. The MasterGaN package is only 9mm x 9mm, and it has two built-in GaN MOS+ high-voltage drivers. Compared with traditional Si MOS, it has superior thermal performance and switching efficiency. MasterGaN can complement the advantages of ST-ONE converters and help maximize performance and switching frequency.ST has developed a SEVLONE140W charger reference design with a power density of 25W/in3 and a peak efficiency of over 94%. The PCB size is 55mm
Mar 07,2025 629 - IPS1025HF Fast Start High-Side Power Switch
Today, we are focusing on a component from STMicroelectronics – the IPS1025HF fast-start high-side power switch.
Jan 14,2025 440 - Smart device interconnection solution based on NFC fast pairing of mobile phones based on ST ST25DV04K
In the smart era of the Internet of Everything, the interconnection between smart homes and mobile phones is an extremely important part. Huawei's Harmony OS system is also oriented to the Internet of Everything. Its method of connecting mobile phones with one touch requires NFC to be an indispensable function for smart devices. This article takes the blood pressure monitor in a smart device as an example to explore how the blood pressure monitor with NFC function can be used more conveniently t
Dec 09,2024 759 - Unveiling the GaN fast charging black technology
With the increasing demand for fast charging of mobile devices, gallium nitride (GaN) fast charging technology has gradually become an important innovation in the field of power electronics. GaN is changing the design and function of traditional chargers with its excellent electrical performance and thermal management capabilities.
Sep 26,2024 1045 - Introduction to the material of hard plastic microfluidic chip
Microfluidic chip uses micromachining technology to process tiny channels and microstructures on the surface of micrometer-scale materials to achieve microfluidic control and operation.
Jan 17,2024 417