SEARCH
— IC芯片 | 连接器 | 传感器 | 被动器件 —
The TIG067SS-TL-2W is a single N-channel IGBT from onsemi, rated for 400V collector-to-emitter voltage and 150A pulsed collector current. It features a low saturation voltage of 3.8V typical at 150A with a 4V gate drive. The device operates within a channel temperature range up to 150°C and includes built-in gate-to-emitter protection. Packaged in an SOIC8 (SOT-96) format, it supports high-speed switching with a fall time of 270ns under specified resistive load conditions.
Verify the specific ordering suffix TL-2W against the official datasheet to confirm the tape-and-reel packaging quantity of 2,500 pieces per reel. Ensure compliance with Pb-Free, Halogen Free, and RoHS standards as stated in the product documentation before finalizing procurement specifications.
Select this component for applications requiring a 400V rating and high pulsed current handling up to 150A. Consider the SOIC8 package constraints and the recommended gate series resistance of 36 ohms or higher to manage dv/dt during turn-off. Validate thermal performance on the specified FR4 substrate for power dissipation requirements.
This part belongs to the TIG067SS family of single IGBTs manufactured by onsemi. It utilizes an enhancement-type structure designed for efficient switching operations. The device is distinct from module configurations, offering a discrete solution for medium-power applications requiring robust voltage blocking capabilities.
Consult the official onsemi datasheet for direct cross-reference information. Verify pinout compatibility and electrical parameter overlaps if substituting with other 400V, 150A IGBTs in SOIC8 packages.
The maximum collector-to-emitter dv/dt is rated at 1500 V/μs when VCE is less than or equal to 320V and starting from a junction temperature of 25°C.
The device is designed for a 4.0V drive voltage. The saturation voltage is specified at 3.8V typical when IC is 150A and VGE is 4V.
The TIG067SS includes a built-in gate-to-emitter protection diode to safeguard the gate terminal from voltage spikes.