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100G QSFP28 BREAKOUT DAC

100G to 25G QSFP28 to SFP28 Breakout Direct Attach Copper Cable 3m | FLD-Q28-DAC-BO3M | Fiberland

100G QSFP28 TO 4X25G SFP28 3m

Rate100G ~25GReach3mWavelength-Interface-
Fiberland part number
FLD-Q28-DAC-BO3M
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At a glance

Key Specifications

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Form TypeQSFP28 - SFP28

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Model data

Technical Specifications

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14 specifications shown
Fiberland Part NumberFLD-Q28-DAC-BO3MVendor NameFIBERLAND
Data Rate100G ~25GWavelength-
Reach3mForm TypeQSFP28 - SFP28
Optical Interface-DDM Support-
Commercial Temp.0~70℃Industrial Temp.-
Compatible BrandsCisco,Huawei,Nvidia...200+ brandsComplianceCE,FCC,ROHS,REACH
Warranty3 YearsMode-
Compatible model reference

Product Compatibility Mapping

Cross-reference the original manufacturer part number with the corresponding Fiberland part number before confirming the target device and firmware.

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Verified cross-references14 manufacturer part numbersAcross 8 brands
Showing 8 of 14 verified matches

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Original part numberBrandFiberland part numberProduct description
QSFP-4SFP25G-CU3MCISCOFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
CAB-Q-4S-100G-3MARISTAFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
JNP-100G-4X25G-3MJUNIPERFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
740-061003JUNIPERFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
MCP7F00-A003R26NNVIDIAFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
MCP7F00-A003R30LNVIDIAFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
845416-B21HPEFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.
02311MNYHUAWEIFLD-Q28-DAC-BO3M100G QSFP28 to 4 x 25G SFP28 passive direct-attach copper breakout cable, 3 m.

A part-number cross-reference is a model-selection starting point, not a blanket device guarantee. Final fit depends on the exact device, firmware or OS, target port and requested coding profile.

Link and application reference

See Where This Product Fits in the Network

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Application planning

Optical Transceiver Application and Link Map

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Optical transceiver application diagram covering data center, DCI, campus, server and metro networks
Testing and quality reference

Review the Quality-Control and Test Flow

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Testing and quality

Quality Control and Test Flow

Review the sequence from material verification and firmware programming through optical, temperature, compatibility and final QA inspection.

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Quality control flow covering material, firmware, optical, temperature, compatibility and final QA checks
Product FAQ

Frequently Asked Questions

Answers to common compatibility, installation and troubleshooting questions.

Why is EEPROM programming important for compatibility?

Network equipment may inspect the module's EEPROM information before allowing normal operation. Correct programming helps the host identify and manage the transceiver properly.

Why does the link work at one end but show an error at the other end?

Each transceiver must be compatible with its own host device. In a mixed-vendor link, one end may be correctly coded while the transceiver at the opposite end is not fully compatible with its switch or router.

Are compatible transceivers suitable for data centers?

Yes. Compatible optical modules are widely used for server, switch, storage, and data-center interconnect applications when the correct interface and compatibility requirements are met.

How is a transceiver made compatible with a specific switch brand?

Compatibility is typically achieved through EEPROM programming, identification parameters, interface compliance, and platform-specific coding so that the host device can correctly recognize and communicate with the transceiver.

How should I troubleshoot a transceiver that is recognized but has no optical link?

Check transmit and receive power, fiber polarity, connector cleanliness, wavelength, fiber type, link distance, FEC configuration, port speed, and the specifications of the transceiver at the opposite end.

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Technical proof for faster project review

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