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Radial Lead Metal Oxide Varistor ,10D ,DC18V ,Vv:22(19.5~26) ,Vc:43V ,500A ,Long straight lead ,P7.5mm ,L15.0±1.0mm ,SOCAY-MOV-10D - 10D220K
SOCAY-MOV-10D
SOCAY
Radial Lead Metal Oxide Varistor ,05D ,DC385V ,Vv:470(423~517) ,Vc:810V ,800A ,Long straight lead ,P5.0mm ,L15.0±1.0mm ,SOCAY-MOV-05D - 05D471KJ
SOCAY-MOV-05D
SOCAY
Radial Lead Metal Oxide Varistor ,10D ,DC460V ,Vv:560(504~616) ,Vc:925V ,2500A ,Long straight lead ,P7.5mm ,- ,SOCAY-MOV-10D - 10D561K
SOCAY-MOV-10D
SOCAY
Radial Lead Metal Oxide Varistor ,14D ,DC385V ,Vv:470(423~517) ,Vc:775V ,4500A ,Long straight lead ,P7.5mm ,- ,SOCAY-MOV-14D - 14D471K
SOCAY-MOV-14D
SOCAY
Radial Lead Metal Oxide Varistor ,10D ,DC320V ,Vv:390(351~429) ,Vc:650V ,2500A ,Long straight lead ,P7.5mm ,- ,SOCAY-MOV-10D - 10D391K
SOCAY-MOV-10D
SOCAY
Radial Lead Metal Oxide Varistor ,07D ,DC385V ,Vv:470(423~517) ,Vc:775V ,1200A ,Long straight lead ,P5.0mm ,L15.0±1.0mm ,SOCAY-MOV-07D - 07D471K
SOCAY-MOV-07D
SOCAY
Radial Lead Metal Oxide Varistor ,10D ,DC415V ,Vv:510(459~561) ,Vc:845V ,2500A ,Short straight lead ,P7.5mm ,L5.0±0.5mm ,SOCAY-MOV-10D - 10D511K-C5.0
SOCAY-MOV-10D
SOCAY
Radial Lead Metal Oxide Varistor ,10D ,DC560V ,Vv:680(612~748) ,Vc:1120V ,2500A ,Short straight lead ,P7.5mm ,L5.0±0.5mm ,SOCAY-MOV-10D - 10D681K
SOCAY-MOV-10D
SOCAY
Radial Lead Metal Oxide Varistor ,10D ,DC385V ,Vv:470(423~517) ,Vc:775V ,2500A ,Long straight lead ,P7.5mm ,- ,SOCAY-MOV-10D - 10D471K
SOCAY-MOV-10D
SOCAY
Radial Lead Metal Oxide Varistor ,14D ,DC460V ,Vv:560(504~616) ,Vc:925V ,4500A ,Long straight lead ,P7.5mm ,- ,SOCAY-MOV-14D - 14D561K
SOCAY-MOV-14D
SOCAY
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What are the MOSFET brand manufacturers?
MOSFET (Metal Oxide Semiconductor Field Effect Transistor) is an indispensable core power switching device in modern electronic devices, widely used in power management, motor drive, automotive electronics, consumer electronics, industrial control and many other fields. The global MOSFET market is dominated by multiple strong semiconductor manufacturers, while domestic Chinese manufacturers are also rapidly rising. The following is a classification overview of major MOSFET brand manufacturers:
What are the IGBT brand manufacturers?
IGBT (Insulated Gate Bipolar Transistor) is a core component in the field of power electronics, and its global competitive landscape presents a dual track trend of "international giants leading and local enterprises accelerating breakthroughs". The following is a systematic review of mainstream brand manufacturers from the dimensions of technical routes, market positioning, and production capacity layout:
Is IGBT better than MOSFET?
Let's delve into the question of which is "better" between IGBT and MOSFET. It needs to be clear that there is no absolute 'better', only 'more suitable'. The choice of device depends on specific application scenarios, performance requirements, and cost considerations. The following is an original analysis of the characteristics and applicable scenarios of both:
How to choose IGBT and MOSFET?
Choosing IGBT (Insulated Gate Bipolar Transistor) and MOSFET (Metal Oxide Semiconductor Field Effect Transistor) as power switching devices is a decision that requires careful consideration of application requirements, performance characteristics, and localization factors. The following is an original and logically clear analytical framework:
What is the difference between IGBT and MOSFET?
Let's compare in detail the core differences between IGBT (Insulated Gate Bipolar Transistor) and MOSFET (Metal Oxide Semiconductor Field Effect Transistor), two power semiconductor devices. They are all voltage controlled switching devices, but the differences in internal structure and working principle result in significantly different performance characteristics and application scenarios.
What are the packaging options for IGBT?
IGBT has various packaging forms, which can be mainly divided into the following categories based on factors such as power level, application scenario, heat dissipation requirements, and integration degree. Each packaging has its unique structure and application positioning:
What are the benefits of adding MOSFETs to circuits?
Adding MOSFETs (Metal Oxide Semiconductor Field Effect Transistors) to circuit design can bring significant advantages in various aspects, making them a ubiquitous key component in modern electronic devices. Its main benefits include:
Why are MOSFETs used in circuits?
MOSFET (Metal Oxide Semiconductor Field Effect Transistor) is one of the most widely used and important semiconductor devices in modern electronic circuits. Its core advantage lies in its unique physical structure and working principle, which brings many significant advantages to circuit design that are difficult to replace:
What are the materials for producing MOSFETs?
The production material system of MOSFET (Metal Oxide Semiconductor Field Effect Transistor) is complex and highly specialized, and its selection directly determines the performance limit, reliability, and applicable scenarios of the device. From basic semiconductor materials to auxiliary packaging materials, the selection of materials for each layer must meet strict physical, chemical, and process requirements. The following analysis will be conducted from three dimensions: material classification, functional characteristics, and technological evolution:
What is the main function of MOSFET?
MOSFET (Metal Oxide Semiconductor Field Effect Transistor) is one of the core components of modern electronics, and its main function can be summarized as: using voltage signals to accurately control the conduction and turn off of current paths, achieving efficient power switching and signal amplification.
What are the packaging options for MOSFETs?
The packaging of MOSFET (Metal Oxide Semiconductor Field Effect Transistor) is not only a physical protective shell, but also a key factor affecting its electrical performance (such as on resistance, switching speed), heat dissipation capacity, power processing limit, and circuit board integration method. With the huge span of application scenarios from milliwatts to kilowatts, MOSFET packaging has also developed into various forms, which can be mainly classified into the following categories:
What is the difference between general-purpose MOSFET and high-voltage MOSFET?
The core difference between general-purpose MOSFET and high-voltage MOSFET. Although these two devices have the same core working principle (both use gate voltage to control channel conduction between source and drain), there are significant differences in design goals, structures, performance parameters, and application scenarios, mainly reflected in the following aspects:
What are the main platforms for energy storage power supply?
As the core component of modern energy systems, energy storage power has evolved from a single hardware stack to a deep collaborative platform system of "hardware+software+scenario". Through sorting out the cutting-edge technologies in the industry, energy storage power can be mainly divided into the following three categories of platforms:
What are the categories of battery charger chips?
The battery charger chip is a core integrated circuit responsible for safely and efficiently converting input power sources (such as adapters, USB ports, solar panels, etc.) into current and voltage suitable for charging specific batteries (such as lithium-ion, lithium polymer, lead-acid, nickel hydrogen, etc.). According to its core working principle, topology, control mode, and functional focus, it can be divided into the following main categories:
What are the manufacturers of battery charger chips?
Industry Overview and Market Landscape: Introduce the market size, regional distribution, and competitive landscape of the global battery charging management IC industry.
What are the main models of battery charger chips?
The battery charger chip is the core component of the lithium battery management system, which can be divided into linear charging chips and switch type charging chips according to the topology structure; According to battery configuration, it can be divided into single cell, double cell, and multi cell schemes. The mainstream models and their technical characteristics are classified into four categories:
Are power management IC chips AC/DC and DC/DC?
Power management chips (PMICs) are much more than just AC/DC and DC/DC converters, although these two are extremely important and fundamental components. Simply equating PMIC with AC/DC and DC/DC is inaccurate and a conceptual confusion.
What should be noted when selecting power management IC chips
The selection of power management ICs (PMICs) is a critical and complex task that directly affects the performance, reliability, cost, and time to market of electronic products. The following are the core points to pay attention to when selecting:
What are the packaging options for battery management IC chips?
The packaging technology of power management IC (PMIC) directly affects the heat dissipation performance, electrical characteristics, size adaptability, and final application scenarios of the chip. According to current industry practices, packaging forms can be classified into the following three categories, and typical cases are used to illustrate their design logic and application adaptability:
What are the management principles of battery management system?
The Battery Management System (BMS) is the "brain" and "guardian" of battery packs, especially lithium-ion battery packs. Its core responsibility is to ensure the safe, efficient, reliable, and long-lasting operation of battery AC-DC-AC-DC. The things it manages can be summarized as the following key aspects:
What are the management platforms for battery management systems?
Management Platform of AC-DCAC-DC Battery Management System (BMS): Architecture and Function Analysis AC-DCAC-DC
Why use AC-DC chips in circuits?
In today's ubiquitous electronic devices, almost any device that needs to be plugged into a wall socket (alternating current, AC) for operation cannot do without a key role on the internal circuit board: the AC-DCAC-DCAC-DC chip (usually referring to the AC-DC power converter or controller chip). Its core mission is to safely, efficiently, and stably convert the ubiquitous alternating current (AC) in our daily lives into direct current (DC) required for the internal circuits of electronic devices. The reasons for using it can be summarized as follows:
What are the main models of AC-DC chips?
As the core component of power management, the model selection of AC-DC chips directly affects the energy efficiency, size, and reliability of the equipment. According to the application scenarios and technical characteristics, the mainstream models can be summarized as follows:
Do servo motors need to be used in conjunction with PLC controllers?
Servo motors do not necessarily need to be used in conjunction with PLCs (Programmable Logic Controllers). The relationship between them is common and closely coordinated, but not the only or mandatory combination. Whether to use PLC depends on specific application requirements and the architecture of the control system.
What products are servo motors used for?
Servo motors, with their core advantages of high-precision position/speed/torque control, fast response, and good stability, have become the "muscles" and "nerves" of modern precision motion and automation control fields. The following are some product areas widely used in servo motors, logically and clearly explained:
What are the functions of servo motors?
Servo motor is the core executing component of modern automation systems, whose core function is to achieve high-precision, high response, and high dynamic performance motion control. It is not just about "rotation", but can accurately control key motion parameters such as position, speed, and torque. The following is the logical analysis of its core functions:
What is the function of a servo motor?
Servo motor is a high-precision and high response actuator, whose core function is to accurately, quickly, and stably convert control signals (usually electrical signals) into mechanical motion (such as position, speed, or torque), and achieve real-time closed-loop control to meet the stringent requirements of complex automation systems for dynamic performance and positioning accuracy.
What products are OLED displays used in?
OLED (Organic Light Emitting Diode) display screens are widely used in various electronic products that pursue high-quality visual experience, portability, design flexibility, or specific performance requirements due to their advantages of self illumination, high contrast, vivid colors, fast response speed, flexible bending, wide viewing angle, and theoretically thinner. Here are some of the main application product areas:
What is the function of OLED display screen?
The role of OLED displays mainly stems from their unique "self luminous" characteristics, which make them significantly different from traditional LCD/LED screens in terms of display effect, design flexibility, and user experience. Its core role can be summarized as follows:
What are the components of an OLED display screen?
The core structure of OLED display is like a precise optical "sandwich", mainly composed of the following key components working together to achieve its self luminous characteristics and excellent image quality:
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