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COM-10196
Electronics Part Number
COM-10196-WXManufacturer
Broadcom
COM-10196
Description
Purple EL wire, 3 meters longInventory
148 Pcs New Original In Stock
Purple EL wire, 3m; vivid luminous cable; for party décor, architecture, stage effects.
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Minimum 1
Minimum 1
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Freight
Basic cost: USD 70.00
Actual cost may vary depending on weight and destination
Shipping method
Shipped from Hong Kong via FedEx/DHL/UPS/TNT
Delivery Time
In-stock items: Ready to ship in 1-2 days
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Technical Specifications
Category
Fiber Optic Transmitters - Discrete
Manufacturer
Broadcom
Packaging
Tube
Series
-
Base Product Number
HFBR-1533
Product Status
Active
Connector Type
Versatile Link
Capacitance
86 pF
Voltage - Forward (Vf) (Typ)
2.02V
Current - DC Forward (If) (Max)
80 mA
Wavelength
600nm
Spectral Bandwidth
-
Voltage - DC Reverse (Vr) (Max)
5 V
Data Sheet Document (D)
Datasheets
Download HFBR-1533Z Product Specification (PDF)
HTML Datasheet
HFBR-1533Z-DG
Environmental & Export Classification
RoHS Status
ROHS3 Compliant
Moisture Sensitivity Level (MSL)
3 (168 Hours)
REACH Status
REACH Unaffected
ECCN
5A991B4A
HTSUS
8517.62.0090
Additional Information
Other Names
516-2050 HFBR1533Z
Standard Package
42
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Frequently Asked Questions (FAQ)
What are the key design-in risks when using the HFBR-1533Z in high-temperature industrial environmen
When designing the HFBR-1533Z into high-temperature environments (above 60°C), thermal degradation of the 600nm emitter can accelerate, especially at the maximum 80 mA forward current. To mitigate reliability risks, derate the forward current by at least 20–30% (i.e., operate at ≤56–64 mA) when ambient temperatures exceed 70°C. Combine this with adequate PCB thermal vias under the footprint and avoid continuous DC operation—use pulsed operation where possible. Monitor Vf drift during qualification as an early warning of LED degradation, particularly in sealed enclosures with poor airflow.
How does the HFBR-1533Z compare to the Avago HFBR-1414T in duplex fiber applications, and can it be
While both the HFBR-1533Z and HFBR-1414T are Versatile Link-compatible 600nm transmitters from Broadcom, the HFBR-1533Z is a simplex transmitter versus the HFBR-1414T’s duplex configuration. You cannot directly replace one with the other in a full-duplex link without modifying the PCB layout and optics. However, for simplex or unidirectional applications needing only a transmitter, the HFBR-1533Z can be a suitable upgrade due to its enhanced drive capability (80 mA max). Ensure your receiver side (e.g., HFBR-2531Z) is properly paired and that link power budget calculations account for the 600nm source’s attenuation in 1mm POF.
What practical integration challenges arise from the HFBR-1533Z’s 86 pF capacitance in high-speed di
The HFBR-1533Z’s 86 pF input capacitance can limit achievable rise/fall times in high-speed digital links, especially when driven directly by microcontrollers or low-drive logic. At data rates above 10 Mbps, signal integrity issues like overshoot, ringing, and bandwidth limitation may occur. To maintain reliable communication, use a dedicated driver IC such as the HCPL-3700 or a MOSFET gate driver with fast edge rates. Keep trace lengths short (<5 cm) from driver to HFBR-1533Z anode/cathode and include a small series resistor (10–22 Ω) to dampen reflections without sacrificing edge speed.
Is the HFBR-1533Z suitable for long-term deployment in outdoor or variable-humidity applications, an
The HFBR-1533Z has a Moisture Sensitivity Level (MSL) of 3, meaning it can be exposed to ambient conditions for up to 168 hours before soldering, but long-term deployment in high-humidity environments requires robust PCB protection. To prevent leakage currents or electrochemical migration on the board, especially at the 2.02V forward operating point, apply conformal coating (e.g., acrylic or silicone) over the HFBR-1533Z footprint and nearby traces. Avoid placing it near heat sinks or components with condensation risk. For outdoor systems, pair with sealed fiber connectors and ensure enclosure IP ratings meet environmental exposure requirements.
What are the critical trade-offs when selecting the HFBR-1533Z over a surface-mount 850nm SMD fiber
The HFBR-1533Z offers superior link robustness and standardized Versatile Link compatibility but uses a through-hole design, requiring more PCB area and complicating automated assembly compared to compact SMD alternatives like the SFH 4550 V (850nm). The 600nm wavelength in the HFBR-1533Z has higher attenuation in plastic optical fiber (POF) than 850nm, limiting reach to ~10–30 meters depending on fiber quality. However, the HFBR-1533Z provides better noise immunity in electrically noisy environments due to its higher drive current headroom. Choose the HFBR-1533Z when reliability, serviceability, and compatibility with legacy POF infrastructure are priorities over miniaturization.
What are the key design-in risks when using the HFBR-1533Z in high-temperature industrial environmen
When designing the HFBR-1533Z into high-temperature environments (above 60°C), thermal degradation of the 600nm emitter can accelerate, especially at the maximum 80 mA forward current. To mitigate reliability risks, derate the forward current by at least 20–30% (i.e., operate at ≤56–64 mA) when ambient temperatures exceed 70°C. Combine this with adequate PCB thermal vias under the footprint and avoid continuous DC operation—use pulsed operation where possible. Monitor Vf drift during qualification as an early warning of LED degradation, particularly in sealed enclosures with poor airflow.
How does the HFBR-1533Z compare to the Avago HFBR-1414T in duplex fiber applications, and can it be
While both the HFBR-1533Z and HFBR-1414T are Versatile Link-compatible 600nm transmitters from Broadcom, the HFBR-1533Z is a simplex transmitter versus the HFBR-1414T’s duplex configuration. You cannot directly replace one with the other in a full-duplex link without modifying the PCB layout and optics. However, for simplex or unidirectional applications needing only a transmitter, the HFBR-1533Z can be a suitable upgrade due to its enhanced drive capability (80 mA max). Ensure your receiver side (e.g., HFBR-2531Z) is properly paired and that link power budget calculations account for the 600nm source’s attenuation in 1mm POF.
What practical integration challenges arise from the HFBR-1533Z’s 86 pF capacitance in high-speed di
The HFBR-1533Z’s 86 pF input capacitance can limit achievable rise/fall times in high-speed digital links, especially when driven directly by microcontrollers or low-drive logic. At data rates above 10 Mbps, signal integrity issues like overshoot, ringing, and bandwidth limitation may occur. To maintain reliable communication, use a dedicated driver IC such as the HCPL-3700 or a MOSFET gate driver with fast edge rates. Keep trace lengths short (<5 cm) from driver to HFBR-1533Z anode/cathode and include a small series resistor (10–22 Ω) to dampen reflections without sacrificing edge speed.
Is the HFBR-1533Z suitable for long-term deployment in outdoor or variable-humidity applications, an
The HFBR-1533Z has a Moisture Sensitivity Level (MSL) of 3, meaning it can be exposed to ambient conditions for up to 168 hours before soldering, but long-term deployment in high-humidity environments requires robust PCB protection. To prevent leakage currents or electrochemical migration on the board, especially at the 2.02V forward operating point, apply conformal coating (e.g., acrylic or silicone) over the HFBR-1533Z footprint and nearby traces. Avoid placing it near heat sinks or components with condensation risk. For outdoor systems, pair with sealed fiber connectors and ensure enclosure IP ratings meet environmental exposure requirements.
What are the critical trade-offs when selecting the HFBR-1533Z over a surface-mount 850nm SMD fiber
The HFBR-1533Z offers superior link robustness and standardized Versatile Link compatibility but uses a through-hole design, requiring more PCB area and complicating automated assembly compared to compact SMD alternatives like the SFH 4550 V (850nm). The 600nm wavelength in the HFBR-1533Z has higher attenuation in plastic optical fiber (POF) than 850nm, limiting reach to ~10–30 meters depending on fiber quality. However, the HFBR-1533Z provides better noise immunity in electrically noisy environments due to its higher drive current headroom. Choose the HFBR-1533Z when reliability, serviceability, and compatibility with legacy POF infrastructure are priorities over miniaturization.
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Sep 15 2026
