Molex 0901471315 Equivalent & Substitute Parts

Part Overview

The Molex 0901471315 is a 15-position receptacle connector with 0.100" (2.54mm) pitch, designed for through-hole PCB mounting with solder termination. This connector features gold-plated mating contacts and tin-plated posts, rated for 3A at 350V, with an operating temperature range of -55°C to 105°C. The part is actively produced and ROHS3 compliant, making it suitable for automotive, medical, telecommunications, and general-purpose applications. Equivalent and substitute parts are identified based on matching core electrical and mechanical specifications within the rectangular connector category.

Substiute Parts

0901471315

MolexIn Stock: 10120901471315 Datasheet

Current PartRFQ

1-534237-3

TE Connectivity AMP ConnectorsIn Stock: 56591-534237-3 Datasheet

MFR RecommendedRFQ

75915-315LF

Amphenol ICC (FCI)In Stock: 193875915-315LF Datasheet

MFR RecommendedRFQ

PPTC151LFBN-RC

Sullins Connector SolutionsIn Stock: 5961PPTC151LFBN-RC Datasheet

MFR RecommendedRFQ

Key Parameters

Substitute Part Grouping Explanation

Substitution eligibility for the Molex 0901471315 is determined by the following core parameters: 15-position configuration, 0.100" (2.54mm) mating pitch, receptacle connector type, through-hole mounting, and solder termination. The identified substitute parts meet these primary functional requirements. However, variations exist in secondary parameters including contact finish materials, insulation materials, operating temperature ranges, current ratings, voltage ratings, and regulatory compliance status. These variations must be evaluated against specific application requirements before selection.

The three substitute parts are grouped as follows:

TE Connectivity 1-534237-3: Matches core pitch, position count, and mounting type. Operates at -65°C to 125°C with 2A current rating. RoHS non-compliant.

Amphenol ICC 75915-315LF: Matches core pitch, position count, and mounting type. Operates within unspecified temperature range with unspecified current rating. RoHS compliant with UL94 V-0 flammability rating.

Sullins PPTC151LFBN-RC: Matches core pitch, position count, and mounting type. Header connector variant with tin mating finish. Operates at -40°C to 105°C with 3A current rating and 250V voltage rating. ROHS3 compliant.

Parameter Comparison

Engineering Selection Recommendations

For RoHS3-compliant applications: The Molex 0901471315 and Sullins PPTC151LFBN-RC are both ROHS3 compliant. The Amphenol ICC 75915-315LF is RoHS compliant but not specifically ROHS3 certified. The TE Connectivity 1-534237-3 is RoHS non-compliant and unsuitable for regulated environments.

For temperature-critical applications: The TE Connectivity 1-534237-3 provides the widest operating range (-65°C to 125°C). The Molex 0901471315 and Sullins PPTC151LFBN-RC both operate to 105°C maximum. The Amphenol ICC 75915-315LF does not specify operating temperature limits.

For current and voltage ratings: The Molex 0901471315 and Sullins PPTC151LFBN-RC both support 3A current. The Molex part is rated for 350V, while the Sullins part is rated for 250V. The TE Connectivity 1-534237-3 is limited to 2A. The Amphenol ICC 75915-315LF does not specify electrical ratings.

For contact finish specifications: The Molex 0901471315, TE Connectivity 1-534237-3, and Amphenol ICC 75915-315LF all feature gold mating contacts. The Sullins PPTC151LFBN-RC uses tin mating contacts, which may affect signal integrity in high-frequency applications.

For connector type compatibility: The Molex 0901471315, TE Connectivity 1-534237-3, and Amphenol ICC 75915-315LF are receptacle connectors. The Sullins PPTC151LFBN-RC is a header connector and requires mating with a receptacle connector type.

Frequently Asked Questions (FAQ)

Q: Can the Sullins PPTC151LFBN-RC header connector directly replace the Molex 0901471315 receptacle connector?

A: No. The Sullins part is a header connector, while the Molex part is a receptacle connector. These are complementary connector types designed to mate with each other. Direct substitution is not possible without changing the mating connector type in the assembly.

Q: Is the TE Connectivity 1-534237-3 suitable for automotive applications requiring RoHS compliance?

A: The TE Connectivity 1-534237-3 is not RoHS compliant and is therefore unsuitable for applications with RoHS regulatory requirements. The Molex 0901471315 or Amphenol ICC 75915-315LF are compliant alternatives for automotive use.

Q: What is the impact of the Amphenol ICC 75915-315LF's unspecified operating temperature range?

A: The absence of specified operating temperature limits requires consultation with the manufacturer or application-specific testing to confirm suitability for temperature-extreme environments. For applications with defined temperature requirements, the Molex 0901471315 or TE Connectivity 1-534237-3 provide explicit temperature specifications.

Q: Does the tin mating contact finish of the Sullins PPTC151LFBN-RC affect signal quality compared to the gold-plated alternatives?

A: Tin contacts have lower electrical conductivity and oxidation resistance compared to gold-plated contacts. For high-frequency or high-reliability applications, gold-plated contacts are preferred. Tin contacts are acceptable for general-purpose, low-frequency applications.

Q: Which substitute part most closely matches the Molex 0901471315 specifications?

A: The Amphenol ICC 75915-315LF provides the closest mechanical match with identical insulation height (0.335"), contact length (0.114"), and contact post finish (tin). However, it does not specify electrical ratings. The Sullins PPTC151LFBN-RC matches the current rating (3A) and RoHS3 compliance but differs in connector type and contact finish.

Q: Are all substitute parts available in the same packaging format as the Molex 0901471315?

A: No. The Molex 0901471315 packaging is not specified in the provided data. The TE Connectivity 1-534237-3 is packaged in tubes, the Amphenol ICC 75915-315LF in tubes, and the Sullins PPTC151LFBN-RC in trays. Packaging differences may affect handling, storage, and integration into assembly processes.