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IXSN80N60BD1 Equivalent & Substitute Parts
Part Overview
The IXSN80N60BD1 is an IGBT module manufactured by IXYS, configured as a single-channel device rated for 600 V collector-emitter breakdown voltage and 160 A maximum collector current with 420 W power dissipation. The device is housed in a SOT-227-4 miniBLOC chassis mount package suitable for high-power switching applications.
This part carries an obsolete product status. Identifying equivalent and substitute components is necessary to maintain design continuity, ensure supply chain availability, and support ongoing production requirements for systems utilizing this IGBT module.
Substiute Parts
Key Parameters
| Parameter | Value | Unit |
|---|---|---|
| Voltage - Collector Emitter Breakdown (Max) | 600 | V |
| Current - Collector (Ic) (Max) | 160 | A |
| Power - Max | 420 | W |
| Vce(on) (Max) @ Vge, Ic | 2.5 V @ 15 V, 80 A | V |
| Current - Collector Cutoff (Max) | 200 | µA |
| Input Capacitance (Cies) @ Vce | 6.6 nF @ 25 V | nF |
| Operating Temperature Range | -55 to 150 | °C (TJ) |
| Package / Case | SOT-227-4, miniBLOC | — |
| Mounting Type | Chassis Mount | — |
| Configuration | Single | — |
Substitute Part Grouping Explanation
Substitution of the IXSN80N60BD1 is determined by electrical and mechanical compatibility across the following critical parameters:
Voltage Rating: The substitute part must maintain the 600 V collector-emitter breakdown voltage specification to ensure safe operation within the same circuit topology and voltage stress limits.
Current Rating: The substitute part must support the required collector current. The IXSN80N60BD1 specifies 160 A maximum; substitute parts with equal or higher current ratings are acceptable.
Power Dissipation: The substitute part must support the thermal requirements of the application. The IXSN80N60BD1 is rated for 420 W maximum power dissipation.
Package and Mounting: The substitute part must use the SOT-227-4 miniBLOC package with chassis mount configuration to ensure mechanical and thermal interface compatibility with existing PCB layouts and heatsink assemblies.
Operating Temperature Range: The substitute part must support the -55°C to 150°C junction temperature operating range.
Configuration: The substitute part must maintain single-channel IGBT configuration.
The IXXN100N60B3H1 meets all these criteria and is therefore a valid substitute for the IXSN80N60BD1.
Parameter Comparison
| Parameter | IXSN80N60BD1 (Main Part) | IXXN100N60B3H1 (Substitute) | Compatibility |
|---|---|---|---|
| Voltage - Collector Emitter Breakdown (Max) | 600 V | 600 V | Match |
| Current - Collector (Ic) (Max) | 160 A | 170 A | Substitute Exceeds |
| Power - Max | 420 W | 500 W | Substitute Exceeds |
| Vce(on) (Max) @ Vge, Ic | 2.5 V @ 15 V, 80 A | 1.8 V @ 15 V, 70 A | Substitute Lower |
| Current - Collector Cutoff (Max) | 200 µA | 50 µA | Substitute Lower |
| Input Capacitance (Cies) @ Vce | 6.6 nF @ 25 V | 4.86 nF @ 25 V | Substitute Lower |
| Operating Temperature Range | -55 to 150 °C (TJ) | -55 to 150 °C (TJ) | Match |
| Package / Case | SOT-227-4, miniBLOC | SOT-227-4, miniBLOC | Match |
| Mounting Type | Chassis Mount | Chassis Mount | Match |
| Configuration | Single | Single | Match |
Engineering Selection Recommendations
The IXSN80N60BD1 is classified as obsolete. The IXXN100N60B3H1 is an active product from the same manufacturer (IXYS) and represents the current generation replacement within the 600 V IGBT module family.
Electrical Compatibility: The IXXN100N60B3H1 meets or exceeds all critical electrical specifications. The substitute part delivers higher current capacity (170 A versus 160 A) and greater power dissipation capability (500 W versus 420 W). The lower on-state voltage (1.8 V versus 2.5 V at comparable conditions) and reduced input capacitance (4.86 nF versus 6.6 nF) indicate improved switching efficiency and reduced gate drive requirements.
Mechanical Compatibility: Both parts use identical SOT-227-4 miniBLOC packaging with chassis mount configuration, ensuring direct mechanical and thermal interface compatibility with existing designs.
Compliance and Certification: The IXXN100N60B3H1 carries active product status and is RoHS3 compliant, whereas the IXSN80N60BD1 is obsolete. Both parts are REACH unaffected and carry EAR99 ECCN classification. The substitute part provides superior long-term supply chain security and compliance assurance.
Thermal Performance: Both parts operate across the identical -55°C to 150°C junction temperature range, supporting equivalent thermal management strategies.
Frequently Asked Questions (FAQ)
Q: Can the IXXN100N60B3H1 directly replace the IXSN80N60BD1 in existing designs?
A: Yes. Both parts share identical voltage ratings (600 V), package configuration (SOT-227-4 miniBLOC), mounting type (chassis mount), and operating temperature range (-55°C to 150°C). The substitute part meets or exceeds all electrical specifications of the original part.
Q: What are the key electrical differences between these parts?
A: The IXXN100N60B3H1 provides higher current capacity (170 A versus 160 A), greater power dissipation (500 W versus 420 W), lower on-state voltage (1.8 V versus 2.5 V), and reduced input capacitance (4.86 nF versus 6.6 nF). These improvements result in lower conduction losses and reduced gate drive power requirements.
Q: Are there any mechanical considerations for substitution?
A: No. Both parts use the SOT-227-4 miniBLOC package with chassis mount configuration. Existing PCB layouts, heatsink assemblies, and thermal interface materials require no modification.
Q: What is the product status difference between these parts?
A: The IXSN80N60BD1 is obsolete, while the IXXN100N60B3H1 is active. The substitute part ensures ongoing availability and access to current manufacturing processes and quality standards.
Q: Do these parts have different compliance certifications?
A: Both parts are REACH unaffected and carry EAR99 ECCN classification. The IXXN100N60B3H1 is RoHS3 compliant. Both parts have unlimited moisture sensitivity level (MSL 1).
Q: What is the significance of the lower Vce(on) in the substitute part?
A: Lower on-state voltage reduces conduction losses during switching operation, resulting in decreased power dissipation and improved thermal performance. This is a beneficial characteristic for system efficiency.
Q: Are gate drive circuits compatible between these parts?
A: Yes. Both parts use standard gate drive input configuration. The lower input capacitance of the substitute part (4.86 nF versus 6.6 nF) may reduce gate drive power requirements but does not require circuit modification.
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