
The IRF630 is recognized for its impressive 200 V N-channel power MOSFET attributes, in addition to possessing an on-resistance of 0.29 Ω and sustaining a continuous current of 9 A. Encased in a TO-220 package, this device harnesses STMicroelectronics' pioneering STripFET™ process, which effectively reduces input capacitance and gate charge. These characteristics render the IRF630 suitable as a primary switch in cutting-edge, energy-conscious isolated DC-DC converters. The STripFET™ technology elevates the IRF630's efficiency by refining its switching speed and minimizing losses. This technological leap ensures the device's capability to handle higher frequencies, aligning well with modern power applications. The reduction in gate charge results in lower power consumption, which increases overall system efficiency. The reliability and robustness of this MOSFET cater to its use in a wide range of challenging applications. The IRF630 is highly regarded in practical scenarios for its stability and performance under intense conditions encountered in industrial and electronics.

|
Pin No. |
Pin Name |
Function |
|
1 |
Gate |
Controls electron flow between source and drain; acts as
a switch to turn the MOSFET on or off. Requires precise voltage handling,
often protected by gate resistors. |
|
2 |
Drain |
Exit point for the main current. Connected to the load in
circuit diagrams; heat dissipation techniques like heat sinks are used to
manage high current flow. |
|
3 |
Source |
Entry terminal for current, typically connected to
ground. Maintains reference voltage and helps reduce electromagnetic
interference. |

IRF630 Symbol

IRF630 Footprint

IRF630 3D Model
Celebrated for its remarkable dv/dt performance, the IRF630 thrives in environments demanding quick voltage transitions. This capability is beneficial for applications needing rapid adjustments, supporting both efficiency and dependability. For example, sophisticated power switching systems harness this ability to enhance functionality amid dynamic load scenarios.
The IRF630 features a notably low intrinsic capacitance, for minimizing power losses and boosting overall system effectiveness. Reduced capacitance lessens parasitic impacts, which can induce delays and energy wastage in high-frequency circuits.
With a minimized gate charge, the IRF630 stands out in high-speed contexts. This trait lowers the energy demand for toggling the transistor state, promoting quicker switch times with reduced power consumption. Others focus on this characteristic to amplify efficiency in power conversion systems, where energy usage is meticulously managed.
|
Type |
Parameter |
|
Lifecycle Status |
ACTIVE (Last Updated: 8 months ago) |
|
Factory Lead Time |
12 Weeks |
|
Mount |
Through Hole |
|
Mounting Type |
Through Hole |
|
Package / Case |
TO-220-3 |
|
Number of Pins |
3 |
|
Weight |
4.535924g |
|
Transistor Element Material |
SILICON |
|
Current - Continuous Drain (Id) @ 25℃ |
9A Tc |
|
Drive Voltage (Max Rds On, Min Rds On) |
10V |
|
Number of Elements |
1 |
|
Power Dissipation (Max) |
75W Tc |
|
Operating Temperature |
-65°C~150°C TJ |
|
Packaging |
Tube |
|
Series |
MESH OVERLAY™ II |
|
JESD-609 Code |
e3 |
|
Part Status |
Active |
|
Moisture Sensitivity Level (MSL) |
1 (Unlimited) |
|
Number of Terminations |
3 |
|
ECCN Code |
EAR99 |
|
Resistance |
400mOhm |
|
Terminal Finish |
Matte Tin (Sn) |
|
Additional Feature |
AVALANCHE RATED |
|
Voltage - Rated DC |
200V |
|
Current Rating |
9A |
|
Base Part Number |
IRF6 |
|
Pin Count |
3 |
|
Lead Pitch |
2.54mm |
|
Element Configuration |
Single |
|
Operating Mode |
ENHANCEMENT MODE |
|
Power Dissipation |
75W |
|
Turn On Delay Time |
10 ns |
|
FET Type |
N-Channel |
|
Transistor Application |
SWITCHING |
|
Rds On (Max) @ Id, Vgs |
400mΩ @ 4.5A, 10V |
|
Vgs(th) (Max) @ Id |
4V @ 250μA |
|
Input Capacitance (Ciss) (Max) @ Vds |
700pF @ 25V |
|
Gate Charge (Qg) (Max) @ Vgs |
45nC @ 10V |
|
Rise Time |
15ns |
|
Vgs (Max) |
±20V |
|
Reverse Recovery Time |
170 ns |
|
Continuous Drain Current (ID) |
9A |
|
Threshold Voltage |
3V |
|
JEDEC-95 Code |
TO-220AB |
|
Gate to Source Voltage (Vgs) |
20V |
|
Drain Current-Max (Abs) (ID) |
9A |
|
Drain to Source Breakdown Voltage |
200V |
|
Dual Supply Voltage |
200V |
|
Nominal Vgs |
3 V |
|
Feedback Cap-Max (Crss) |
50 pF |
|
Height |
15.75mm |
|
Length |
10.4mm |
|
Width |
4.6mm |
|
REACH SVHC |
No SVHC |
|
Radiation Hardening |
No |
|
RoHS Status |
ROHS3 Compliant |
|
Lead Free |
Lead Free |
|
Part Number |
Description |
Manufacturer |
|
IRF630 |
Power Field-Effect Transistor, N-Channel, Metal-oxide
Semiconductor FET |
Philips Semiconductors |
|
SIHF630-E3 |
TRANSISTOR 9 A, 200 V, 0.4 ohm, N-CHANNEL, Si, POWER,
MOSFET, TO-220AB, ROHS COMPLIANT, TO-220, 3 PIN, FET General Purpose Power |
Vishay Siliconix |
|
SIHF630 |
TRANSISTOR 9 A, 200 V, 0.4 ohm, N-CHANNEL, Si, POWER,
MOSFET, TO-220AB, TO-220, 3 PIN, FET General Purpose Power |
Vishay Siliconix |
|
IRF630PBF |
Power Field-Effect Transistor, 9A (ID), 200V, 0.4ohm,
1-Element, N-Channel, Silicon, Metal-oxide Semiconductor FET, TO-220AB, ROHS
COMPLIANT, TO-220, 3 PIN |
Vishay Siliconix |
|
Parts |
IRF630 |
SIHF630 |
|
Ihs Manufacturer |
STMICROELECTRONICS |
VISHAY SILICONIX |
|
Reach Compliance Code |
not compliant |
unknown |
|
HTS Code |
8541.29.00.95 |
|
|
Factory Lead Time |
12 Weeks |
|
|
Samacsys Description |
IRF630, N-channel MOSFET Transistor 9 A 200 V, 3-Pin
TO-220 |
|
|
Samacsys Manufacturer |
STMicroelectronics |
|
|
Avalanche Energy Rating (Eas) |
160 mJ |
250 mJ |
|
Feedback Cap-Max (Crss) |
50 pF |
250 pF |
|
JESD-609 Code |
e3 |
e0 |
|
Power Dissipation Ambient-Max |
100 W |
|
|
Power Dissipation-Max (Abs) |
75 W |
74 W |
|
Terminal Finish |
Matte Tin (Sn) |
Tin/Lead (Sn/Pb) |
|
Turn-on Time-Max (ton) |
180 ns |
|
|
Base Number Matches |
6 |
11 |
|
Pbfree Code |
Yes |
No |
|
Rohs Code |
Yes |
No |
Switching Applications: The IRF630 is commonly used in circuits that require fast and reliable switching. It is ideal for power supplies, motor controls, and lighting systems, where it helps improve energy efficiency by reducing heat and power loss.
Power Supplies: In power supply circuits such as voltage regulators, inverters, and DC-DC converters, the IRF630 manages power flow efficiently, minimizing energy loss and heat. It is also used in uninterruptible power supplies (UPS) to ensure a stable power output during voltage fluctuations.
Motor Control: The IRF630 is widely used in DC motor drivers and PWM control systems, helping to adjust motor speed and torque in devices like fans, pumps, robots, and electric vehicles. Its fast switching improves performance and power efficiency in motor systems.
Audio Amplifiers: In Class D audio amplifiers, the IRF630 allows high-quality sound output with minimal heat. It is commonly used in home audio systems, car audio, and portable speakers, ensuring efficient and reliable performance.
LED Lighting: The IRF630 is useful in controlling LED lighting systems, including dimmable lights and smart lighting solutions. It helps manage power efficiently in street lights, automotive lights, and home lighting systems.
Solar and Renewable Energy Systems: The IRF630 is used in solar inverters to convert DC power from solar panels into usable AC power. It’s also found in battery storage systems and wind energy setups, improving energy conversion and minimizing power loss.
Battery Management Systems (BMS): In battery management systems, the IRF630 controls battery charging and discharging, extending battery life and preventing overcharging or overheating. It’s important for devices like electric vehicles and portable electronics.
Industrial Automation: The IRF630 is used in automation systems to control relays, solenoids, and actuators in factories and machinery. Its durability and fast switching make it reliable for handling heavy loads in industrial environments.
High-Frequency Circuits: Due to its fast switching capabilities, the IRF630 is suitable for high-frequency applications like RF amplifiers, oscillators, and telecommunications. It helps maintain stable signals in wireless systems.
Protection Circuits: The IRF630 is used in protection circuits to prevent damage from voltage spikes or incorrect power connections. It ensures safety by quickly cutting off power during faults.

Test Circuit for Inductive Load Switching and Diode Recovery Times

Test Circuit for Resistive Load Switching Times

Unclamped Inductive Load Test Circuit

Test Circuit for Gate Charge Behavior

Unclamped Inductive Waveform

Switching Time Waveform


STMicroelectronics emerges as an influential force within the semiconductor sector. STMicroelectronics excels in crafting silicon-based semiconductors. This proficiency reflects a devotion to ongoing innovation and years of diligent refinement to align with market shifts. Continuous research and development efforts fuel the creation of advanced, reliable products for a global audience. The company's core competency in system integration distinguishes it in the industry. Through comprehensive integration methodologies, STMicroelectronics designs solutions for intricate applications across various sectors, such as automotive and electronics. STMicroelectronics continuously adapts a visionary outlook recognizing the semiconductor industry's evolution. This ongoing pursuit of enhancement manifests across product innovation and larger strategic projects. The perspective, shaped by empirical knowledge and keen market observations, shows the role of flexibility and foresight in an industry defined by rapid technological progression. Aligning resources and strategies with emerging patterns allows STMicroelectronics to uphold its leadership role, establishing benchmarks in efficiency and technological prowess that inspire peers within the sector.
Please send an inquiry, we will respond immediately.
No. Because the IRF630 and 9N25C have notable variations in power ratings, continuous current, and voltage capacities, the IRF630 cannot function effectively as a substitute for the 9N25C. Selecting the proper component requires deep consideration of the unique specifications and potential influence on circuit operation. Ineffective substitutions might result in decreased performance or even circuit failure. Grasping the intricate technical details involved can provide insights during component selection.
The IRF630 and SIHF630 transistors are differentiated by specifications, notably the avalanche energy rating and manufacturing standards like JESD-609 codes. Specifically, the IRF630 offers an avalanche energy rating of 160 mJ, while the SIHF630 provides a superior rating of 250 mJ. Furthermore, differences in their JESD-609 codes highlight the distinct standards regarding their production and intended applications. You must comprehend these distinctions to fine-tune performance and ensure alignment with industry norms, ultimately contributing to sustained reliability and efficiency.
on January 13th
on January 12th
on April 18th 147749
on April 18th 111904
on April 18th 111349
on April 18th 83714
on January 1th 79502
on January 1th 66869
on January 1th 63004
on January 1th 62944
on January 1th 54076
on January 1th 52088