2SC3932GSL Equivalent & Substitute Parts

Part Overview

The 2SC3932GSL is an RF transistor NPN manufactured by Panasonic Electronic Components, designed for RF applications operating at 1.6GHz with a maximum collector-emitter breakdown voltage of 20V and maximum power dissipation of 150mW. The device is packaged in SMini3-F2 surface mount configuration with a maximum collector current of 50mA.

This part is classified as obsolete. Substitute parts are necessary to maintain design continuity and ensure availability for new production builds and field replacements where the original component is no longer obtainable from primary sources.

Substiute Parts

2SC3932GSL

Panasonic Electronic ComponentsIn Stock: 11382SC3932GSL Datasheet

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BFP196E6327HTSA1

Infineon TechnologiesIn Stock: 14347BFP196E6327HTSA1 Datasheet

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BFP540FESDH6327XTSA1

Infineon TechnologiesIn Stock: 3342BFP540FESDH6327XTSA1 Datasheet

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JANTX2N5109

Microsemi CorporationIn Stock: 5787JANTX2N5109 Datasheet

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MCH4015-TL-H

onsemiIn Stock: 4011MCH4015-TL-H Datasheet

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MMBTH10-TP

Micro Commercial CoIn Stock: 4106MMBTH10-TP Datasheet

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Key Parameters

Substitute Part Grouping Explanation

Substitution of the 2SC3932GSL is determined by the following critical parameters:

Primary Substitution Criteria:

• Transistor Type: NPN
• Voltage - Collector Emitter Breakdown (Max): Must equal or exceed 20V
• Current - Collector (Ic) (Max): Must equal or exceed 50mA
• Operating Temperature (Max): Must equal or exceed 150°C
• Mounting Type: Surface Mount
• Frequency - Transition: Must support 1.6GHz operation
• Power - Max: Must equal or exceed 150mW

The substitute parts listed below meet these electrical and mechanical requirements. Substitutes are grouped based on their ability to fulfill the same functional role within the specified parameter boundaries. Package differences are noted where they occur, as physical footprint compatibility must be verified during circuit board redesign.

Parameter Comparison

Engineering Selection Recommendations

BFP196E6327HTSA1 (Infineon Technologies)

This substitute operates at a lower maximum collector-emitter breakdown voltage (12V versus 20V) and lower maximum power dissipation (700mW versus 150mW). The transition frequency of 7.5GHz exceeds the 1.6GHz requirement. Product status is active with ROHS3 compliance and REACH unaffected designation. This part is suitable for applications where the 20V voltage rating is not a design constraint.

BFP540FESDH6327XTSA1 (Infineon Technologies)

This substitute operates at a significantly lower maximum collector-emitter breakdown voltage (5V versus 20V) and lower maximum power dissipation (250mW versus 150mW). The transition frequency of 30GHz substantially exceeds the 1.6GHz requirement. Product status is active with ROHS3 compliance and REACH unaffected designation. This part is suitable only for applications where the 5V voltage rating is compatible with circuit design.

JANTX2N5109 (Microsemi Corporation)

This substitute is a through-hole mounted device in TO-39 package, contrasting with the surface mount SMini3-F2 package of the original part. Detailed electrical parameters are not provided in the specification. Product status is active but RoHS non-compliant. This part requires circuit board redesign for mounting compatibility and is not recommended for new designs requiring RoHS compliance.

MCH4015-TL-H (onsemi)

This substitute operates at a lower maximum collector-emitter breakdown voltage (12V versus 20V) and higher maximum power dissipation (450mW versus 150mW). The transition frequency of 10GHz exceeds the 1.6GHz requirement. Product status is active with ROHS3 compliance and REACH unaffected designation. This part is suitable for applications where the 12V voltage rating is not a design constraint.

MMBTH10-TP (Micro Commercial Co)

This substitute operates at a higher maximum collector-emitter breakdown voltage (25V versus 20V) and higher maximum power dissipation (225mW versus 150mW). The transition frequency of 650MHz is lower than the 1.6GHz requirement. Product status is active with ROHS3 compliance and REACH unaffected designation. This part is suitable for lower frequency RF applications where 1.6GHz operation is not required.

Frequently Asked Questions (FAQ)

Q: Can BFP196E6327HTSA1 directly replace 2SC3932GSL in existing circuit boards?

A: BFP196E6327HTSA1 has different package geometry (TO-253-4 versus SC-85 SMini3-F2). Physical footprint compatibility must be verified. The lower voltage rating (12V versus 20V) requires circuit analysis to confirm suitability for the application.

Q: What is the primary limitation of BFP540FESDH6327XTSA1 as a substitute?

A: The maximum collector-emitter breakdown voltage is 5V, significantly lower than the 2SC3932GSL specification of 20V. This part is suitable only for applications operating at 5V or lower supply voltages.

Q: Why is JANTX2N5109 listed as a substitute if it uses through-hole mounting?

A: JANTX2N5109 meets the NPN transistor type and MSL requirements but requires circuit board redesign due to package incompatibility. Through-hole mounting is fundamentally different from surface mount, necessitating layout changes.

Q: Is MMBTH10-TP suitable for 1.6GHz RF applications?

A: MMBTH10-TP has a transition frequency of 650MHz, which is below the 1.6GHz requirement of the original part. This substitute is suitable only for RF applications operating at frequencies below 650MHz.

Q: Which substitute parts are RoHS3 compliant?

A: BFP196E6327HTSA1, BFP540FESDH6327XTSA1, MCH4015-TL-H, and MMBTH10-TP are all ROHS3 compliant. JANTX2N5109 is RoHS non-compliant.

Q: Are all substitute parts available in active production status?

A: BFP196E6327HTSA1, BFP540FESDH6327XTSA1, JANTX2N5109, MCH4015-TL-H, and MMBTH10-TP are all classified as active. The original 2SC3932GSL is obsolete.

Q: What is the key difference between MCH4015-TL-H and BFP196E6327HTSA1?

A: MCH4015-TL-H has a higher transition frequency (10GHz versus 7.5GHz) and higher maximum power dissipation (450mW versus 700mW). Both operate at 12V maximum collector-emitter breakdown voltage.

Q: Can multiple substitute parts be used interchangeably in the same design?

A: No. Each substitute part has different electrical characteristics. Selection must be based on specific application requirements including voltage rating, frequency range, and power dissipation needs.