
The IRF530N is an N-Channel power MOSFET, enclosed in a TO220AB leaded package, suitable for diverse applications across various sectors. Leveraging advanced silicon technology, it belongs to the IR power MOSFET series, meeting a range of requirements in areas including DC motor control, inverters, switch-mode power supplies (SMPS), lightning systems, switches, and battery-powered devices. You can choose between surface mount and through-hole configurations, unified by standardized footprints.
The IRF530N's architecture focuses on delivering efficiency and reliability, basic criteria in power electronics. Tailored for enduring performance, it assumes a substantial role in reducing power loss and managing thermal conditions. When integrating the IRF530N, practitioners, often drawing from their wealth of experience, navigate the complexities of balancing switching speed with thermal constraints to enhance performance while safeguarding system stability.

|
Pin No. |
Description |
|
1 |
Gate |
|
2 |
Drain |
|
3 |
Source |
|
Tab |
Drain |



Technical specifications and attributes for NXP USA Inc. IRF530N,127 MOSFET.
|
Type |
Parameter |
|
Mounting Type |
Through Hole |
|
Package / Case |
TO-220-3 |
|
Surface Mount |
No |
|
Transistor Element Material |
Silicon |
|
Current - Continuous Drain (Id) @ 25℃ |
17A Tc |
|
Drive Voltage (Max Rds On, Min Rds On) |
10V |
|
Number of Elements |
1 |
|
Power Dissipation (Max) |
79W Tc |
|
Operating Temperature |
-55°C~175°C TJ |
|
Packaging |
Tube |
|
Series |
TrenchMOS™ |
|
Published |
1999 |
|
JESD-609 Code |
e3 |
|
Part Status |
Obsolete |
|
Moisture Sensitivity Level (MSL) |
1 (Unlimited) |
|
Number of Terminations |
3 |
|
ECCN Code |
EAR99 |
|
Terminal Finish |
Matte Tin (Sn) |
|
Terminal Position |
Single |
|
Peak Reflow Temperature (Cel) |
Not Specified |
|
Reach Compliance Code |
Unknown |
|
Time @ Peak Reflow Temperature-Max (s) |
Not Specified |
|
Pin Count |
3 |
|
JESD-30 Code |
R-PSFM-T3 |
|
Qualification Status |
Not Qualified |
|
Configuration |
Single with Built-In Diode |
|
Operating Mode |
Enhancement Mode |
|
Case Connection |
Drain |
|
FET Type |
N-Channel |
|
Transistor Application |
Switching |
|
Rds On (Max) @ Id, Vgs |
110mΩ @ 9A, 10V |
|
Vgs(th) (Max) @ Id |
4V @ 1mA |
|
Input Capacitance (Ciss) (Max) @ Vds |
633pF @ 25V |
|
Gate Charge (Qg) (Max) @ Vgs |
40nC @ 10V |
|
Drain to Source Voltage (Vdss) |
100V |
|
Vgs (Max) |
±20V |
|
JEDEC-95 Code |
TO-220AB |
|
Drain Current-Max (Abs) (ID) |
17A |
|
Drain-Source On Resistance-Max |
0.11Ω |
|
Pulsed Drain Current-Max (IDM) |
68A |
|
DS Breakdown Voltage-Min |
100V |
|
Avalanche Energy Rating (Eas) |
150mJ |
|
RoHS Status |
ROHS3 Compliant |
|
Feature |
Description |
|
Planar Cell Structure |
Wide Safe Operating Area (SOA) |
|
Broad Availability |
Optimized for distribution partners |
|
Product Qualification |
Qualified according to JEDEC standard |
|
Switching Optimization |
Designed for applications switching below <100kHz |
|
Package Type |
Industry-standard through-hole power package |
|
Current Rating |
High-current rating |
The IRF530N MOSFET is renowned for its ability to endure challenging environments, flourishing in applications that demand reliability and extended lifespan. You can seek sustained performance and product durability and often gravitate toward this component. In various systems, these qualities aid in minimizing maintenance efforts, thus reducing disruptions in operations and fostering a more stable workflow.
A notable feature of the IRF530N is its extensive market presence, providing consistent access to this component worldwide. This accessibility facilitates its integration into multiple projects, helping to alleviate the usual delays encountered when acquiring specific electronic parts. This global reach also allows businesses to adhere closely to production timelines, enhancing project management and ensuring timely delivery.
The IRF530N's adaptability with comparable devices offers design flexibility that is useful during component substitutions or updates, reducing the impact of supply chain uncertainties. It is mostly adept at handling high-current applications, making it a valuable asset in areas like power supplies and motor control. This translates to superior electrical performance and energy management, boosting the efficiency and environmental sustainability of technical systems.
The IRF530N MOSFET shines in low-frequency scenarios, proving beneficial for specialized applications where frequency precision is of lesser concern. Its use in audio amplification and power regulation systems emphasizes its importance, providing stability in low-frequency performance. You can achieve a higher caliber of output quality and consistency by integrating the IRF530N, ensuring robust satisfaction and reliability from your perspective.
The IRF530N MOSFET plays a major role in electronic circuits, especially in areas like DC-DC conversion and switched-mode power supplies. These applications emphasize its adeptness in managing high-speed switching tasks and regulating power flow.
DC-DC converters serve as the backbone of many electronic devices, enabling required voltage adjustments to suit various operational needs. The IRF530N excels in buck, boost, and buck-boost configurations, showcasing its adaptability. A closer examination reveals its prowess in optimizing power consumption, an active aspect of portable electronics. For example, when implemented within a voltage regulator module, the IRF530N facilitates accurate voltage control with minimal energy dissipation, thus enhancing the battery longevity of mobile devices.
In the world of switched-mode power supplies (SMPS), MOSFETs like the IRF530N are key for their prowess in efficiently converting power. The IRF530N, with its low on-state resistance and rapid switching abilities, minimizes heat output, optimizing efficiency for compact and heat-sensitive environments. Evidence from industrial applications indicates that in scenarios where power requirements are dynamic, the IRF530N can lower operational expenditure and bolster the reliability of power systems, ensuring consistent performance across diverse electrical loads.


NXP Semiconductors exemplifies a leading force in shaping secure connectivity solutions, adeptly advancing technologies that subtly enhance and reassure the simplicity and safety of daily life. Rooted at the intersection of innovation and deep industry knowledge, NXP employs six decades of insight to skillfully maneuver through the intricate dominion of today's technology landscapes. Operating across more than 35 countries, the company draws upon the talents of 45,000 dedicated professionals, each contributing to a vibrant and resourceful organizational fabric. The addition of Freescale Semiconductor to NXP's business portfolio in December 2015 was a tactical development, greatly augmenting their technological prowess. This merger permitted NXP to incorporate a broader range of expertise, especially in refining its proficiency in automotive, consumer, and industrial technology domains. This fusion mirrors a larger industry pattern where combining diverse technological understanding plays a dynamic role in maintaining a competitive stance.
Please send an inquiry, we will respond immediately.
An N-channel MOSFET is a key type of field-effect transistor, celebrated for its proficiency in guiding electron flow from source to drain. Its role spans across a multitude of electronic designs, where speed and minimal on-state resistance are highly desirable. These elements echo the ever-present drive for improved power management, translating to longer device lifespans and reduced energy usage. Such factors align deeply with today's technological ethos.
The IRF530N MOSFET plays a captivating role in power supply management. It adeptly toggles positive supplies for forward motor maneuvers and seamlessly handles negative supplies for reverse actions. Its adaptability promotes superior motor control, found judgmentally in fields like robotics and electric vehicles. With its ability to fine-tune motor directions, the MOSFET not only heightens performance but also minimizes mechanical strain. Its contribution to bidirectional power management emphasizes its reliability and efficiency in maintaining industrial operational standards.
The functioning of the IRF530N is intricately tied to the voltage contrast between its Gate and Source, with the Source grounded at 0V. When the Gate voltage surpasses the Source voltage beyond a specific threshold, it permits current to flow from the Drain to the Source. The amount of current that flows is directly influenced by the Gate voltage; a greater voltage enhances its conduction capacity. This operational facet holds immense value in scenarios requiring variable power control, enabling devices to intuitively cater to changing power demands. This flexibility resonates with the modern pursuit of precision and energy efficiency in electronic circuitry.
on November 19th
on November 19th
on June 11th 148369
on June 11th 131089
on June 11th 111849
on June 11th 94098
on January 1th 93471
on January 1th 76626
on January 1th 74625
on January 1th 68562
on June 11th 58352
on January 1th 57907