The CT104P-B1 is a high-performance current transformer designed specifically for versatile applications in ANSI and IEC meters, as well as monitoring and protection systems. It boasts a Class 1.0 and Class 2.0 compatibility, ensuring exceptional accuracy across various measurement scenarios. With its robustness and stability, the device maintains dependable performance across a wide range of temperatures.

As the industrial landscape transitions into the era of Industry 4.0, current transformers (CTs) are experiencing a transformational shift. They serve as vital components in the modernization of power systems, energy management, and automation.

​DC Current Transformers (DCCT), also known as direct current transformers, play a pivotal role in the efficient and reliable monitoring of direct current (DC) power systems. These devices are designed to transform high-level DC currents into measurable secondary signals that can be read by instruments or control systems without being affected by electromagnetic interference.

The medical field, known for its strict regulations concerning patient confidentiality, has long sought innovative solutions to leverage big data without compromising privacy. This article focuses on the role of isolation transformers in addressing these challenges, showcasing how they enable secure and efficient analysis of sensitive health data.

In the rapidly evolving landscape of data science and machine learning, isolation transformers have emerged as a pivotal technology, particularly in scenarios requiring robust data privacy. This paper delves into the innovative design principles of isolation transformers and their significant contributions to distributed systems. We will explore how these models, originally proposed by researchers in the field of deep learning, facilitate secure data processing without the need for direct data sharing or exposure.

​High frequency transformers are crucial components in various electronic devices, ranging from power supplies and converters to telecommunications systems. These transformers operate at frequencies above 20 kHz, necessitating the selection of suitable materials that can efficiently handle high frequency signals. Ferrite materials have emerged as a popular choice due to their unique properties and advantages in high frequency transformer applications. This article delves into the role of ferrite materials in high frequency transformers, highlighting their benefits and characteristics.

​High frequency transformers play a crucial role in various electronic devices and power systems, facilitating the efficient conversion and transmission of electrical energy. However, the high-frequency operation of these transformers can often lead to the generation of audible noise, which can be undesirable in many applications. This article explores various techniques to reduce noise levels in high frequency transformers, ensuring optimal performance and user comfort.

​High frequency transformers play a crucial role in various electronic devices and systems. They are responsible for efficiently transferring electrical energy between different voltage levels. However, the high-frequency operation of these transformers often leads to increased heat generation, which can adversely impact their performance and reliability. This article explores the importance of thermal management strategies in high frequency transformer design, and discusses various techniques to effectively manage heat dissipation.

​High frequency transformers are crucial components in numerous electronic devices and systems, serving to efficiently transfer electrical energy between different voltage levels. The efficiency and performance of these transformers depends not only on the core materials but also on the winding techniques used during their construction. This article explores the impact of winding techniques on the efficiency of high frequency transformers.