OPV330_14 OPTEK | Alldatasheet
Document overview
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Technical content
Applications
- Non-contact position sensing
- Photoelectric sensors
- Optical encoders
- Light curtains Vertical Cavity Surface Emitting Laser in T-1 Package OPV330
- 850nm VCSEL technology
- High thermal stability
- Low drive current
- High output power
- Flat lens package The OPV330 is a Vertical Cavity Surface Emitting Las er (VCSEL) packaged in a flat lens lateral package. VCSELs offer many advantages in sensing applications wh en compared to infrared LEDs. These devices require substantially lower drive currents to obtain the same amount of output pow er as LEDs. This feature allows VCSELs to be used in low power consumption applications such as battery operated equipment. The flat lens packaging allows the device to be used with secondary optics to create custom beam profiles. The OPV330 is optically and spectrally compatible with Optek’s standard detector products such as the OP550 series phototransistors, OP530 series photodarlingtons and the OP900 series photodiodes. Optek reserves the right to make changes at any time in order to improve design and to supply the best product possible. OPTEK Technology Inc.— 1645 Wallace Drive, Carrollton, Texas 75006 Phone: (800) 341-4747 FAX: (972) 323– 2396 sensors@optekinc.com www.optekinc.com A subsidiary of TT electronics plc Additional laser safety information can be found on the Optek website. See application bulletin #221. Classification is not marked on the device due to space limitations. See package outline for centerline of optical radiance. Operating devices beyond maximum rating may result in hazardous radiation exposure. 1 2 VCSEL Emission Surface Pb RoHS
VCSEL in Flat Lens T-1 Package OPV330 OPTEK Technology Inc.— 1645 Wallace Drive, Carrollton, Texas 75006 Phone: (800) 341-4747 FAX: (972) 323– 2396 sensors@optekinc.com www.optekinc.com Electrical Characteristics (TA = 25°C unless otherwise noted) Absolute Maximum Ratings TA = 25o C unless otherwise noted Storage Temperature Range -40° to +100° C Operating Temperature Range 0° to +85° C Lead Soldering Temperature [1/16 inch (1.6mm) from case for 5 sec with soldering iron] 260° C(1) Maximum Forward Peak Current, Continuous 12 mA Maximum Forward Current, pulsed (1µs, P.W., 10% D.C.) 48 mA Maximum Reverse Voltage 5 V NOTES: (1) RMA flux is recommended. Solder dwell time can be increased to 10 seconds when flow soldering. (2) Threshold Current is based on the two line intersection method specified in Telcordia GR-468-Core. Line 1 from 4 mA to 6 mA. Line 2 from 0 mA to 0.5 mA. (3) Series Resistance is the slope of the Voltage-Current line from 5 to 8 mA. (4) Slope efficiency, is the slope of the best fit LI line from 5 mA to 8 mA with 0.25mA test intervals. SYMBOL PARAMETER MIN TYP MAX UNITS CONDITIONS POT Total Power Out 1.5 mW IF = 7 mA ITH Threshold Current 3.0 mA Note 2 VF Forward Voltage 2.2 V IF = 7 mA IR Reverse Current 100 nA VR = 5 V RS Series Resistance 20 55 ohms Note 3 η Slope Efficiency 0.28 mW/mA Note 4 λ Wavelength 840 860 nm Δλ Optical Bandwidth 0.85 nm θ Beam Divergence 20 Degrees FWHM Δη/ΔT Temp Coefficient of Slope Efficiency -0.50 %/°C (0° - 70°C), Note 4 Δλ/ΔT Temp Coefficient of Wavelength 0.06 nm/°C (0° - 70°C) ΔlTH Temp Variance of Threshold Current ±1.0 mA (0° - 70°C), Note 2 ΔVF/ΔT Temp Coefficient for Forward Voltage -2.5 mV/°C (0° - 70°C) Issue 1.2 09.09 Page 2 of 2 Typical Angular Output 20% 40% 60% 100% Angular Displacement—Degrees Relative Output -30 -90 60 90 Normalized Output Power vs. Forward Current 0 2 4 6 8 10 12 Forward Current—mA 200% 100% Normalized Output Power Normalized at 7mA, 25°C 30 -60 80%