LUXEON XR-3535L Turnkey solution on a rigid substrate enabling high efficacy designs Introduction LUXEON XR is a family of fully integrated solutions optimized for lighting applications requiring linear LED arrays mounted on a rigid and thermally conductive substrate. The turnkey solution minimizes time to market and simplifies supply chain by reducing optical and mechanical design efforts. Combined with LUXEON 3535L emitters, LUXEON XR-3535L provides the same powerful optical performance guaranteed by LUXEON LEDs. The overall solution delivers optimized performance in combination with the quality of light needed for distributed light source applications. LUXEON XR-3535L features LUXEON 3535L LEDs, a rigid substrate, electrical connectors, and is designed for Zhaga compliant assemblies. This document contains the electrical, mechanical, and optical performance data needed to design and engineer applications using LUXEON XR-3535L. • Complete integrated solution • Simplified supply chain and faster • Indoor and outdoor linear • Mechanically robust with efficient heat dissipation • Designed for Zhaga compliant • Easy mounting and assembly • Full family of high efficacy solutions with uniform light distribution LUXEON XR-3535L DS145 ©2014 Philips Lumileds Lighting Company. arrays • Troffers
Open the catalog to page 1Table of Contents General Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 Part Number Nomenclature . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 Average Lumen Maintenance Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2 Environmental Compliance . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . ....
Open the catalog to page 2General Information Part Number Nomenclature The nominal current for LUXEON XR-3535L is 100mA x the number of parallel LED strings. A LUXEON XR-3535L configuration with 3 parallel strings has a nominal drive current of 300mA. The LEDs on LUXEON XR-3535L are tested and specified individually at a junction temperature of 25°C with a drive current of 100mA and pulse duration of 20ms. The minimum, typical, and maximum performance numbers for LUXEON XR-3535L in this datasheet are derived from the individual LED measurements. The confidence level on all minimum and maximum performance parameters in...
Open the catalog to page 3Product Performance and Characterization Guide Table 1. Product Selection Guide Typical Performance Characteristics at 100mA/LED with a Junction Temperature = 25°C [1] CRI [2] Forward Voltage Part Number Luminous Flux (lm) Minimum Notes for Table 1: 1. Nominal current is 100mA x 3 parallel strings = 300mA. 2. Philips Lumileds maintains a tolerance of ±2 on CRI measurements for individual LUXEON 3535L LEDs. 3. Philips Lumileds maintains a tolerance of ±7.5% on luminous flux measurements for individual LUXEON 3535L LEDs. 4. Maximum luminous flux non-uniformity (i.e. LED to LED luminous flux variation)...
Open the catalog to page 4Absolute Maximum Ratings Maximum Performance Peak Pulsed Forward Current121 720mA ESD Sensitivity IEC 61000 4-2 Level 1 (±4 kV contact/air discharge) Storage Temperature <30°C, <80%RH, <1 year Reverse Voltage16 71 -5V x Number of series LEDs ULReco nition LUXEON XR-3535L UL recognized for Class 2 drivers. ecogni ion Substrate and white reflective coating UL94 VO flammability rated. 1 Ripple current with a frequency of 50-150Hz is allowed, as long as the average of the current waveform is below 200mA/LED, and the maximum of the current waveform is lower 2 At 10% duty cycle and pulse width 10ms...
Open the catalog to page 5Mechanical Drawings Figure 2. Outline, screw hole and LED pitch. PHILIPS LUMILEDS Figure 3. Component locations. 3 Designed for use with Zhaga compliant assemblies Figure 4. Component profiles. T.ir-*n (JNLESS OTHERWISE SFEZIFIED: LUXEON XR-3535L Datasheet DS145 20140916 ©2014 Philips Lumileds Lighting Company
Open the catalog to page 6Connector Mechanical Drawing Figure 5. Molex 503471-0290 connector dimensions. 3 Mates with Molex 503469-xxxx OR 503473-xxxx Electrical Circuit Diagram Figure 6. Electrical circuit diagram for LUXEON XR-3535L. LUXEON XR-3535L Datasheet DS145 20140916 ©2014 Philips Lumileds Lighting Company
Open the catalog to page 7Bill of Materials Table 4. No. Component Description Connector: Molex 503471-0290 500 V max, 2 A max per contact Figure 7. Notes for Figure 7: 1. Drawings not to scale. 2. All dimensions in millimeters. 3. Height with PCB inside is 56.7 ±1.0mm. 4. Each tray fits 44 boards placed back to back. LUXEON XR-3535L Datasheet DS145 20140916 ©2014 Philips Lumileds Lighting Company.
Open the catalog to page 8LUXEON XR-3535L 5-Step MacAdam Ellipse Color Definition Tested at 100mA/LED, Junction Temperature = 25°C Table 5. 5-step MacAdam Ellipse Color Definition 1 Philips Lumileds maintains a tolerance of ±0 01 on color point measurements for individual LUXEON 3535L LEDs LUXEON XR-3535L Datasheet DS145 20140916 ©2014 Philips Lumileds Lighting Company
Open the catalog to page 9LUXEON XR-3535L Typical Radiation Pattern 400 Candela per kilo-lumen (cd/klm) Angle (degrees) LUXEON 3535L LED Color Spectrum (80 CRI) Figure 9. Typical relative intensity vs. wavelength. Notes for Figure 9: 1. Individual LUXEON 3535L LEDs are tested at TJ = 25°C and IF = 100mA, 20ms pulse conditions. LUXEON XR-3535L Datasheet DS145 20140916 ©2014 Philips Lumileds Lighting Company.
Open the catalog to page 10Assembly Precautions The LUXEON 3535L emitter package contains a silicone overcoat to protect the LED chip and extract the maximum amount of light. As with most silicones used in LED optics, care must be taken to prevent any incompatible chemicals from directly or indirectly reacting with the silicone. The silicone overcoat used in the LUXEON emitter is gas permeable. Consequently, oxygen and volatile organic compound (VOC) gas molecules can diffuse into the silicone overcoat. VOCs may originate from adhesives, solder fluxes, conformal coating materials, potting materials and even some of the...
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