Cinch Connectivity Solutions Part 52 - Equivalent & Substitute Parts

Part Overview

The Cinch Connectivity Solutions part number 52 is a 3-position terminal lug strip with single-end terminal lugs designed for electrical connectivity applications. This component features a 3-position configuration (2 standard positions plus 1 ground position) mounted on a 0.375" W x 0.625" H XPC board. The part is currently classified as obsolete, necessitating identification of suitable substitutes for ongoing applications and new designs. Active alternatives are available from established manufacturers with improved compliance characteristics.

Substiute Parts

52

Cinch Connectivity SolutionsIn Stock: 115752 Datasheet

Current PartRFQ

810

Keystone ElectronicsIn Stock: 5897810 Datasheet

SimilarRFQ

Key Parameters

Substitute Part Grouping Explanation

Substitution of terminal lug strips requires matching of critical electrical and mechanical parameters. The primary criteria for substitution of part 52 include:

Critical Match Parameters:

• Terminal type (Terminal Lug, Single End)
• Number of positions and ground configuration (3 positions with 1 ground)
• Mounting hole diameter (0.140" / 3.56mm)
• Number of rows (1 row configuration)
• Moisture sensitivity level (MSL 1)

Secondary Compatibility Factors:

• Board material composition and flammability rating
• Contact material and finish specifications
• Overall board dimensions and pitch configuration

The Keystone Electronics part 810 qualifies as a functional substitute based on matching critical parameters while offering improved product status and regulatory compliance.

Parameter Comparison

Engineering Selection Recommendations

The Keystone Electronics part 810 terminal lug strip provides functional substitution for the obsolete Cinch Connectivity Solutions part 52. The substitute part matches all critical mechanical and electrical parameters including terminal type, position count, mounting specifications, and moisture sensitivity classification.

The primary distinction between the two components is product lifecycle status and regulatory compliance. Part 810 maintains active manufacturing status and achieves ROHS3 compliance, whereas the original part 52 is obsolete and RoHS non-compliant. For applications subject to environmental or regulatory requirements, part 810 provides compliance alignment. Both components are rated MSL 1 and are unaffected by REACH regulations, indicating suitability for standard industrial and commercial applications.

Frequently Asked Questions (FAQ)

Q: Can Keystone Electronics part 810 be directly substituted for Cinch part 52?

A: Yes. Both components share identical terminal type (single-end terminal lug), position configuration (3 positions including 1 ground), row count (single row), and mounting hole diameter (0.140" / 3.56mm). These parameters define electrical and mechanical compatibility for this product category.

Q: What are the key differences between part 52 and part 810?

A: The substitute part features XP Phenolic board material versus XPC, brass contacts with tin finish instead of steel with cadmium finish, and holds active product status with ROHS3 compliance. The original part is obsolete and RoHS non-compliant. Both maintain MSL 1 moisture sensitivity classification.

Q: Are there packaging or inventory considerations?

A: Part 52 is supplied as a unit strip configuration with limited existing inventory (1060 pcs). Part 810 is available in bulk packaging with higher inventory levels (5801 pcs), supporting volume applications and future procurement requirements.

Q: Do both parts meet REACH and ECCN requirements?

A: Yes. Both parts are classified as REACH Unaffected and carry ECCN designation EAR99, indicating equivalent regulatory standing for trade and environmental compliance purposes.

Q: What board dimension differences exist?

A: Part 52 specifies 0.375" W x 0.625" H. Part 810 is larger at 1.125" L x 0.375" W x 0.062" H, with explicit pitch specification of 0.375" (9.53mm). Board size variation may require design verification for space-constrained applications.