PC357N4J000F: Features, Specs & More
In the realm of electronic components, optocouplers play a crucial role in ensuring electrical isolation between circuits while allowing signal transmission. The Socle Technology PC357N4J000F is a standout optocoupler designed for various demanding applications. In this comprehensive article, we'll delve into the intricacies of the PC357N4J000F, uncovering its definition, key features, specifications, applications, and a closer look at its manufacturer.
Catalog
PC357N4J000F's Overview
The Socle Technology PC357N4J000F is a 1-channel optocoupler that integrates a transistor output with a DC input. This component is housed in a compact Mini-Flat package, making it ideal for high-density mounting on hybrid substrates and programmable controllers. Its robust design ensures reliable performance across a wide range of operating conditions, from extreme temperatures to varying voltages.
Key Features
Let's delve into the standout features that make the PC357N4J000F a standout in the world of electronics:
· The PC357N4J000F features a single-channel configuration with a transistor output, providing effective isolation and signal transmission.
· With a minimum isolation voltage of 3750 Vrms, this optocoupler ensures excellent protection against electrical interference.
· Capable of operating between -30°C and 100°C, it is suitable for use in both high and low-temperature environments.
· The optocoupler offers a maximum CTR of 600%, ensuring efficient signal transfer between the input and output.
· With maximum rise and fall times of 18 µs, the PC357N4J000F supports rapid switching applications.
Specifications
Now, let's take a closer look at the technical specifications that define the capabilities of the PC357N4J000F:
Type | Parameter |
Output Type | DC |
Input Type | DC |
Output Device | Transistor |
Number of Channels per Chip | 1 |
Minimum Isolation Voltage (Vrms) | 3750 |
Minimum Operating Temperature (°C) | -30 |
Maximum Operating Temperature (°C) | 100 |
Maximum Forward Voltage (V) | 1.4 |
Maximum Collector-Emitter Voltage (V) | 80 |
Maximum Current Transfer Ratio (%) | 600 |
Standard | UL |
Maximum Collector Current (mA) | 50 |
Maximum Collector-Emitter Saturation Voltage (mV) | 200 |
Maximum Power Dissipation (mW) | 170 |
Maximum Reverse Voltage (V) | 6 |
Typical Forward Voltage (V) | 1.2 |
Maximum Rise Time (us) | 18 |
Maximum Fall Time (us) | 18 |
Maximum Forward Current (mA) | 50 |
Packaging | Tape and Reel |
Minimum Current Transfer Ratio (%) | 50 |
Current Transfer Ratio Test Current (mA) | 5 |
Typical Rise Time (us) | 4 |
Typical Fall Time (us) | 3 |
Mounting | Surface Mount |
Package Height | 2.6 |
Package Width | 4.4 |
Package Length | 3.6 |
PCB changed | 4 |
Standard Package Name | SOP |
Supplier Package | Mini-Flat |
Pin Count | 4 |
Lead Shape | Gull-wing Lead (L-Lead) |
Applications
The PC357N4J000F is well-suited for various applications where high-density mounting and reliable signal isolation are required. Notable applications include:
· Hybrid Substrates: Its compact size and robust performance make it ideal for high-density mounting on hybrid substrates.
· Programmable Controllers: The optocoupler's reliable switching and isolation characteristics are beneficial for use in programmable controllers.
PC357N4J000F's Manufacturer
SOCLE Technology Corporation is one of the world’s leading-edge providers of SoC (System-on-Chip) design and implementation services established in 2001. In 2014, SOCLE Technology was acquired by Foxconn Technology Group. As a leading-edge SoC IC design services provider to become an international design service company, SOCLE Technology highly devoted in the technical capabilities and resources of advanced manufacturing processes nodes of 14nm, 12nm, 7nm, to 5nm.
Conclusion
The Socle Technology PC357N4J000F optocoupler stands out for its high isolation voltage, wide temperature range, and efficient signal transfer capabilities. Its design makes it a versatile component for various electronic applications, especially those requiring robust performance in compact spaces.
