Specifications
| Attribute | Value |
| Package / Case | Tube |
| Part Status | Active |
| Diode Type | Silicon Carbide Schottky |
| Voltage - DC Reverse (Vr) (Max) | 600 V |
| Current - Average Rectified(Io) | 4A |
| Voltage - Forward (Vf) (Max) @ If | 1.9 V @ 4 A |
| Speed | No Recovery Time > 500mA (Io) |
| Reverse Recovery Time (trr) | 0 ns |
| Current - Reverse Leakage @ Vr | 50 µA @ 600 V |
| Capacitance @ Vr F | 200pF @ 0V, 1MHz |
| Mounting Type | Through Hole |
| Supplier Device Package | TO-220AC |
Overview
Description
STPSC406D likely refers to a course or module code, often used in academic settings to denote specific classes in a curriculum. Without additional context, it is challenging to provide precise details about its content. However, such course codes typically indicate the subject area, course level, and potentially the department offering the class.
As a general guide:
- STPSC could represent a department or subject area, such as Statistics, Political Science, etc.
- 406 suggests an advanced course, possibly aimed at upper-level undergraduate or graduate students.
- D might denote a specific section or a particular focus within the course.
Courses with similar codes might cover specialized topics within their field, incorporate advanced theories, practical applications, case studies, or research methodologies. For precise details, consulting the course catalog or syllabus from the offering institution would be recommended, as these documents will outline course objectives, prerequisites, content, and assessment methods.
As a general guide:
- STPSC could represent a department or subject area, such as Statistics, Political Science, etc.
- 406 suggests an advanced course, possibly aimed at upper-level undergraduate or graduate students.
- D might denote a specific section or a particular focus within the course.
Courses with similar codes might cover specialized topics within their field, incorporate advanced theories, practical applications, case studies, or research methodologies. For precise details, consulting the course catalog or syllabus from the offering institution would be recommended, as these documents will outline course objectives, prerequisites, content, and assessment methods.
Equivalent
The STPSC406D is a 600V, 4A Silicon Carbide (SiC) Schottky diode. Equivalent products could include:
1. Cree C4D04060A: 600V, 4A SiC Schottky diode.
2. Rohm SCS220AGC: 600V, 5A SiC Schottky diode.
3. Infineon IDH04G60C6: 600V, 4A SiC Schottky diode.
Ensure to check the datasheets for exact specifications and compatibility.
1. Cree C4D04060A: 600V, 4A SiC Schottky diode.
2. Rohm SCS220AGC: 600V, 5A SiC Schottky diode.
3. Infineon IDH04G60C6: 600V, 4A SiC Schottky diode.
Ensure to check the datasheets for exact specifications and compatibility.
Features
The STPSC406D is a silicon carbide (SiC) power Schottky diode designed for high-efficiency applications. Key features include:
1. SiC Technology: Offers superior performance compared to traditional silicon diodes, with higher temperature capability and lower forward voltage drop.
2. Low Reverse Recovery Current: Minimizes switching losses, making it suitable for high-frequency applications.
3. High Surge Current Capability: Allows for robust performance under surge conditions.
4. No Reverse Recovery Charge: Enhances efficiency in hard-switching applications.
5. High Junction Temperature: Can operate at temperatures up to 175°C, which is beneficial for compact system designs.
6. Low Capacitance: Reduces electromagnetic interference (EMI) and improves performance in fast-switching applications.
7. Industry Standard Package: Available in a D²PAK surface-mount package, facilitating integration into existing designs.
These features make the STPSC406D ideal for use in power factor correction (PFC), solar inverters, industrial power supplies, and other applications requiring high efficiency and reliability.
1. SiC Technology: Offers superior performance compared to traditional silicon diodes, with higher temperature capability and lower forward voltage drop.
2. Low Reverse Recovery Current: Minimizes switching losses, making it suitable for high-frequency applications.
3. High Surge Current Capability: Allows for robust performance under surge conditions.
4. No Reverse Recovery Charge: Enhances efficiency in hard-switching applications.
5. High Junction Temperature: Can operate at temperatures up to 175°C, which is beneficial for compact system designs.
6. Low Capacitance: Reduces electromagnetic interference (EMI) and improves performance in fast-switching applications.
7. Industry Standard Package: Available in a D²PAK surface-mount package, facilitating integration into existing designs.
These features make the STPSC406D ideal for use in power factor correction (PFC), solar inverters, industrial power supplies, and other applications requiring high efficiency and reliability.
Pinout
The STPSC406D is a silicon carbide (SiC) power Schottky diode manufactured by STMicroelectronics. This diode is designed for high-efficiency power applications, thanks to its high voltage capabilities and low forward voltage drop, which results in lower power losses.
The STPSC406D comes in a DPAK package, which typically has three pins:
1. Anode (Pin 1): This is the positive terminal of the Schottky diode. When forward-biased, current flows from the anode to the cathode.
2. Cathode (Pin 2): This is the negative terminal connected directly to the substrate of the diode.
3. Cathode (Tab/Pin 3): This is often connected to the diode's heat sink for thermal management. It is electrically common with Pin 2.
The primary function of the STPSC406D is to serve as a rectifier in power converters, SMPS (Switched-Mode Power Supplies), and other applications requiring high efficiency and fast switching.
For detailed specifications and characteristics, refer to the datasheet provided by the manufacturer.
The STPSC406D comes in a DPAK package, which typically has three pins:
1. Anode (Pin 1): This is the positive terminal of the Schottky diode. When forward-biased, current flows from the anode to the cathode.
2. Cathode (Pin 2): This is the negative terminal connected directly to the substrate of the diode.
3. Cathode (Tab/Pin 3): This is often connected to the diode's heat sink for thermal management. It is electrically common with Pin 2.
The primary function of the STPSC406D is to serve as a rectifier in power converters, SMPS (Switched-Mode Power Supplies), and other applications requiring high efficiency and fast switching.
For detailed specifications and characteristics, refer to the datasheet provided by the manufacturer.
Manufacturer
The STPSC406D is manufactured by STMicroelectronics. STMicroelectronics is a global semiconductor company that designs, develops, manufactures, and markets a broad range of semiconductor products. The company serves several industries, including automotive, industrial, personal electronics, communications equipment, and computers. It is known for producing a wide variety of semiconductor components, such as microcontrollers, sensors, power management devices, and analog chips. STMicroelectronics is recognized for its innovation and commitment to sustainability, supplying technology solutions that enable smarter driving, smarter factories, and smarter homes and cities.
Application
The STPSC406D is a silicon carbide (SiC) Schottky diode, primarily used in applications requiring high efficiency and high temperature performance. Key areas include power factor correction (PFC) in power supplies, solar inverters, electric vehicle (EV) charging stations, motor drives, and uninterruptible power supplies (UPS). Its ability to handle high voltages and temperatures makes it ideal for industrial applications and renewable energy systems. Additionally, its fast switching capabilities contribute to improved efficiency in high-frequency power conversion, making it suitable for advanced power management systems.
Package
The STPSC406D is a Schottky rectifier diode, and its package type is DPAK (TO-252). This surface-mount package is commonly used for power semiconductor devices due to its small size and effective heat dissipation capabilities.
