TE Connectivity AMP Connectors 926657-9 Equivalent & Substitute Parts

Part Overview

The TE Connectivity AMP Connectors 926657-9 is a 9-position rectangular connector receptacle housing designed for 0.100" (2.54mm) pitch applications. This component is classified as a free-hanging, in-line receptacle with crimp-style female socket contacts. The part is currently active in production and RoHS compliant, making it suitable for applications requiring standard rectangular connector housings in industrial and commercial electronics. Substitute parts are identified when equivalent electrical and mechanical parameters are required due to inventory constraints, design flexibility, or application-specific material requirements.

Substiute Parts

926657-9

TE Connectivity AMP ConnectorsIn Stock: 826926657-9 Datasheet

Current PartRFQ

1-87175-9

TE Connectivity AMP ConnectorsIn Stock: 9771-87175-9 Datasheet

Parametric EquivalentRFQ

2-87175-0

TE Connectivity AMP ConnectorsIn Stock: 11782-87175-0 Datasheet

Parametric EquivalentRFQ

65039-028LF

Amphenol ICC (FCI)In Stock: 92865039-028LF Datasheet

Parametric EquivalentRFQ

65240-009LF

Amphenol ICC (FCI)In Stock: 231665240-009LF Datasheet

Parametric EquivalentRFQ

Key Parameters

Substitute Part Grouping Explanation

Substitution of rectangular connector housings is determined by strict equivalence across the following critical parameters: connector type (receptacle), contact type (female socket), number of positions (9), pitch (0.100"/2.54mm), number of rows (1), mounting type (free hanging in-line), and contact termination method (crimp). All identified substitute parts maintain these core electrical and mechanical specifications, ensuring direct functional interchangeability within the connector interface.

Variations in insulation material composition, operating temperature range, and color do not prevent substitution when the primary interface parameters remain constant. However, these secondary parameters must be evaluated against specific application requirements. All substitute parts listed maintain RoHS compliance and MSL 1 rating, consistent with the primary part.

Parameter Comparison

Engineering Selection Recommendations

All substitute parts maintain active product status and RoHS compliance, confirming their suitability for current design implementations. Selection between the primary part 926657-9 and substitute options should be based on the following criteria:

TE Connectivity AMPMODU Series (926657-9, 1-87175-9, 2-87175-0): These parts share identical connector interface specifications and operating temperature range. Part 2-87175-0 offers ROHS3 compliance, providing enhanced regulatory alignment for applications with extended compliance requirements. Inventory availability is highest for part 2-87175-0 (1078 pcs), followed by 1-87175-9 (964 pcs).

Amphenol ICC (FCI) Series (65039-028LF, 65240-009LF): These parts provide equivalent connector interface specifications with alternative insulation materials and extended temperature capabilities. Part 65039-028LF maintains the -65°C lower temperature limit of the primary part. Part 65240-009LF extends the upper operating temperature to 125°C and offers the highest inventory availability (2259 pcs), though it features blue housing color instead of black.

Selection should prioritize inventory availability, compliance certifications, and material compatibility with the specific application environment.

Frequently Asked Questions (FAQ)

Q: Can part 65240-009LF be used as a direct substitute for 926657-9 despite the blue color difference?

A: Yes. The color difference does not affect electrical or mechanical interchangeability. Both parts maintain identical connector interface parameters: 9-position receptacle, 0.100" pitch, female socket contacts, and crimp termination. Color selection should be based on application-specific requirements or design documentation.

Q: What is the significance of the operating temperature range difference between 926657-9 (-65°C ~ 105°C) and 65240-009LF (-65°C ~ 125°C)?

A: The extended upper temperature limit of 65240-009LF (125°C versus 105°C) indicates enhanced thermal performance of the insulation material. For applications operating within the -65°C ~ 105°C range, both parts are functionally equivalent. Applications requiring operation above 105°C must use 65240-009LF.

Q: Are there compatibility differences between TE Connectivity and Amphenol ICC connector housings?

A: No. All listed substitute parts maintain identical connector interface specifications: 9 positions, 0.100" pitch, receptacle type, and female socket contacts. These parameters ensure mechanical and electrical compatibility regardless of manufacturer. Insulation material differences do not affect interface compatibility.

Q: What does MSL 1 (Unlimited) moisture sensitivity level indicate?

A: MSL 1 indicates the lowest moisture sensitivity classification. These parts do not require special moisture control during storage, handling, or assembly. Standard warehouse conditions are suitable for all listed parts.

Q: Why are contacts listed as "Not Included" for all parts?

A: The connector housings are supplied without pre-installed contacts. Contacts must be selected and crimped separately according to application requirements. Contact selection is independent of housing selection, provided the contact pitch and termination method (crimp) are compatible.

Q: Can part 2-87175-0 with ROHS3 compliance replace 926657-9 with standard RoHS compliance?

A: Yes. ROHS3 compliance is a superset of RoHS compliance, indicating enhanced regulatory adherence. Part 2-87175-0 is fully compatible with 926657-9 and suitable for applications requiring either RoHS or ROHS3 certification.

Q: What is the difference between Polybutylene Terephthalate (PBT) and Polyester, Glass Filled insulation materials?

A: Both materials are suitable for the specified operating temperature range and provide adequate insulation properties for this connector application. Material selection does not affect connector interface compatibility. Application-specific environmental factors (chemical exposure, mechanical stress) may influence material preference.