BXRC-30H2000-C-22 Equivalent & Substitute Parts

Part Overview

The BXRC-30H2000-C-22 is a Chip On Board (COB) LED lighting module from Bridgelux's Décor Series™ Ultra Vero® 13 line, designed for warm white decorative lighting applications at 3000K color temperature. This component delivers 1091 lumens at 500mA test current with a Color Rendering Index (CRI) of 97, suitable for high-quality indoor lighting environments.

The BXRC-30H2000-C-22 carries an Obsolete product status. Identifying equivalent substitute parts is necessary to maintain design continuity, ensure supply chain reliability, and access improved performance characteristics available in current production alternatives.

Substiute Parts

BXRC-30H2000-C-22

BridgeluxIn Stock: 921BXRC-30H2000-C-22 Datasheet

Current PartRFQ

BXRC-30H2000-D-73

BridgeluxIn Stock: 807BXRC-30H2000-D-73 Datasheet

DirectRFQ

Key Parameters

Substitute Part Grouping Explanation

Substitution eligibility for the BXRC-30H2000-C-22 is determined by the following critical parameters:

Primary Compatibility Criteria:

• Product Type: Chip On Board (COB)
• Color / CCT: White, Warm at 3000K
• Configuration: Round
• Mechanical Dimensions: 36.20mm diameter, 1.90mm height, 13.20mm LES diameter
• Lens Type: Flat
• Features: With Connector
• Viewing Angle: 120°
• CRI: 97

Electrical Operating Range:

• Forward Voltage (Vf): 31.5V nominal
• Test Current: 500mA
• Maximum Current: 1.05A

The substitute part BXRC-30H2000-D-73 maintains identical mechanical form factor, connector configuration, optical characteristics, and color specification. Both parts share the same base product number (BXRC-30), confirming design compatibility at the platform level.

Parameter Comparison

Engineering Selection Recommendations

Substitution Basis:

The BXRC-30H2000-D-73 is a direct substitute for the obsolete BXRC-30H2000-C-22 based on:

1. Mechanical Compatibility: Identical form factor (36.20mm diameter, 1.90mm height), connector configuration, and optical geometry ensure drop-in replacement capability in existing PCB layouts and mechanical assemblies.

2. Electrical Compatibility: Forward voltage differential of 0.3V (31.5V vs. 31.8V) falls within typical driver circuit tolerance margins. Maximum current specification of 1.0A in the substitute accommodates the 500mA test current of the original design.

3. Optical Compatibility: Identical color temperature (3000K), CRI (97), viewing angle (120°), and lens type (Flat) preserve lighting performance characteristics. The substitute features a tighter 3-Step MacAdam Ellipse specification compared to the original 2-Step, providing enhanced color consistency.

4. Regulatory Compliance: Both parts maintain RoHS compliance, MSL Level 1, REACH Unaffected status, and identical ECCN/HTSUS classifications, ensuring no supply chain or regulatory complications.

5. Product Status: The substitute is Active production status, eliminating obsolescence risk and ensuring long-term availability.

Performance Enhancement:

The BXRC-30H2000-D-73 delivers significantly improved luminous flux (1987lm vs. 1091lm) and efficiency (125 lm/W vs. 69 lm/W). These enhancements result from generational improvements in the Gen 7 Décor Series™ platform. The substitute operates at 25°C test temperature versus the original 85°C reference, reflecting modern testing standards.

Frequently Asked Questions (FAQ)

Q: Can the BXRC-30H2000-D-73 be used as a direct replacement in existing designs?

A: Yes. The substitute maintains identical mechanical dimensions (36.20mm diameter, 1.90mm height), connector type, and optical specifications (120° viewing angle, flat lens). PCB footprints and mechanical mounting require no modification. Forward voltage difference of 0.3V is within standard driver circuit tolerance.

Q: What is the impact of the different test temperatures (85°C vs. 25°C)?

A: The original part was characterized at 85°C junction temperature, while the substitute uses 25°C ambient test conditions. This reflects industry standard evolution. The 25°C reference provides more conservative performance data. Actual operating performance depends on thermal management in the application.

Q: Does the higher luminous flux of the substitute affect compatibility?

A: No. Higher flux (1987lm vs. 1091lm) represents improved efficiency from the Gen 7 platform. Electrical operating parameters (voltage, current) remain compatible. Optical geometry and color characteristics are identical, ensuring the substitute functions within the same thermal and optical design envelope.

Q: What is the significance of the MacAdam Ellipse difference (2-Step vs. 3-Step)?

A: The substitute's 3-Step MacAdam Ellipse specification is tighter than the original 2-Step, indicating superior color consistency across production batches. This is a performance enhancement with no compatibility impact.

Q: Are there packaging differences between the main part and substitute?

A: The original part uses standard packaging (not specified), while the substitute is supplied in Tray packaging. Both maintain MSL Level 1 (Unlimited moisture sensitivity level). Tray packaging is standard for production quantities and does not affect component performance or solderability.

Q: Is the substitute available in current inventory?

A: The BXRC-30H2000-D-73 is Active production status with 742 pieces in current inventory. The original BXRC-30H2000-C-22 is Obsolete with 824 pieces remaining stock. New designs should specify the substitute to ensure long-term supply continuity.

Q: Are there any regulatory or compliance concerns with substitution?

A: No. Both parts maintain identical RoHS compliance status (RoHS3 for substitute, RoHS for original), REACH Unaffected designation, MSL Level 1, and identical ECCN (EAR99) and HTSUS (8539.52.0091) classifications. Substitution introduces no regulatory complications.

Q: What is the maximum current difference impact?

A: The substitute maximum current is 1.0A versus the original 1.05A. Since both parts operate at 500mA test current, this 50mA difference does not affect standard operation. Designs operating near maximum current should verify thermal performance with the substitute's improved efficiency characteristics.