XPCWHT-L1-0000-00C02 Equivalent & Substitute Parts

Part Overview

The XPCWHT-L1-0000-00C02 is a CreeLED XLamp® XP-C cool white LED (6350K) in 1414 (3535 Metric) surface mount package. This component is classified as Active product status and is RoHS Compliant and REACH Unaffected. Finding equivalent and substitute parts is necessary to ensure design flexibility, manage supply chain continuity, and accommodate alternative sourcing requirements while maintaining electrical and mechanical compatibility.

Substiute Parts

XPCWHT-L1-0000-00C02

CreeLED, Inc.In Stock: 995XPCWHT-L1-0000-00C02 Datasheet

Current PartRFQ

XPEWHT-L1-0000-00C02

CreeLED, Inc.In Stock: 1146XPEWHT-L1-0000-00C02 Datasheet

Parametric EquivalentRFQ

Key Parameters

Substitute Part Grouping Explanation

Substitution of the XPCWHT-L1-0000-00C02 is determined by the following critical parameters:

• Color and Correlated Color Temperature (CCT): White, Cool 6350K
• Flux output at 25°C and 350mA test current: 104lm (100lm ~ 107lm range)
• Forward voltage compatibility: 3.2V typical
• Test current: 350mA
• Viewing angle: 115°
• Package / Case: 1414 (3535 Metric)
• Mounting type: Surface Mount
• Compliance: RoHS Compliant, REACH Unaffected

The substitute part XPCWHT-L1-0000-00C02 maintains electrical compatibility through matching color temperature, flux output range, viewing angle, and package dimensions. Variations in forward voltage (3.05V vs 3.2V), maximum current rating (1A vs 500mA), and thermal resistance (9°C/W vs 12°C/W) remain within acceptable substitution parameters for this product category.

Parameter Comparison

Engineering Selection Recommendations

Both the XPCWHT-L1-0000-00C02 and XPEWHT-L1-0000-00C02 are Active product status components manufactured by CreeLED, Inc. Both parts are RoHS Compliant and REACH Unaffected, meeting regulatory requirements for electronic component applications.

The XPEWHT-L1-0000-00C02 substitute offers improved thermal performance (9°C/W vs 12°C/W) and higher efficiency (97 lm/W vs 93 lm/W) while maintaining identical flux output, color temperature, viewing angle, and package dimensions. The substitute part supports higher maximum current (1A vs 500mA), providing additional operational headroom in circuit design.

Selection between these parts should be based on thermal management requirements, available circuit current capacity, and supply chain availability. Both parts are electrically and mechanically compatible for 1414 (3535 Metric) surface mount applications requiring cool white 6350K illumination at 350mA nominal operation.

Frequently Asked Questions (FAQ)

Q: Can XPEWHT-L1-0000-00C02 be used as a direct replacement for XPCWHT-L1-0000-00C02?

A: Yes. Both parts share identical color temperature (6350K), flux output (104lm at 350mA), viewing angle (115°), and package dimensions (1414 / 3535 Metric). The forward voltage difference (3.05V vs 3.2V) is within acceptable tolerance for most circuit designs. The substitute part's lower thermal resistance and higher maximum current rating provide additional design margin.

Q: What are the key differences between these parts?

A: The primary differences are forward voltage (3.05V vs 3.2V), maximum current rating (1A vs 500mA), thermal resistance (9°C/W vs 12°C/W), and efficiency (97 lm/W vs 93 lm/W). These differences do not affect compatibility for applications operating at 350mA nominal current.

Q: Are both parts suitable for the same PCB footprint?

A: Yes. Both parts use identical 1414 (3535 Metric) package dimensions: 0.136" L x 0.136" W (3.45mm x 3.45mm) with maximum seated height of 0.084" (2.13mm). No PCB layout modifications are required for substitution.

Q: Do both parts meet the same compliance standards?

A: Yes. Both XPCWHT-L1-0000-00C02 and XPEWHT-L1-0000-00C02 are RoHS Compliant and REACH Unaffected, meeting equivalent regulatory requirements.

Q: Which part should be selected for thermal-constrained applications?

A: The XPEWHT-L1-0000-00C02 substitute is preferred for thermal-constrained applications due to its lower thermal resistance (9°C/W vs 12°C/W), enabling more efficient heat dissipation in compact designs.