Design of a PCB and Evaluation of the OWC Transceiver AFBR-FS13B25

• Typ der Arbeit: Forschungsprojekt
• Status der Arbeit: offen
• Projekte: SatelLight
• Betreuer: Marek Jahnke

In this project work the Broadcom AFBR-FS13B25 Transceiver for Optical Wireless Communication should be implemented and evaluated.

Motivation

In the SatelLight-Project, the use of LiFi/Optical Wireless Communication for intra-satellite-communication is currently being researched.

The AFBR-FS13B25 OWC Transceiver seems to be a good candidate to be used as a transceiver due to its size, power supply specification and potential bandwidth.

In this project work the AFBR-FS13B25 OWC Transceiver should be integrated and evaluated on a new designed pcb. This enables further demonstration and testing of e.g. MAC protocols or Forward-Error-Correcting (FEC) Techniques in Optical-Wireless-Communication setups. Therefore, the PCB needs to be designed for further use in mind.

An optionally activatable Serializer/Deserializer should be added, to be able to transmit and receive data from a slower (parallel) interface.

To get a first impression, after implementation the transceiver should be demonstrated and evaluated by basic transmission of data.

Tasks

In this project work, the student has to perform the following tasks:

• Familiarization with the topic: Optical Wireless Communication in general, the transceiver chip, high speed/frequency pcb design.
• Design HW
  • A PCB is to be designed, that contains the Transceiver and corresponding circuitry.
  • It should be designed with optimizations for high frequency and speed in mind.
  • The PCB should have suitable interfaces, jumpers and connectors for later further configuration, evaluation and simple use (e.g. TX, RX, Power, Enable, other signals from/to the Transceiver)).
  • A serializer/deserializer (serdes) chip has to be used (configurable/activated e.g. by jumpers), to be able to convert and transmit data from a slower parallel interface (e.g. MCU/FPGA GPIOs) to the transceiver and back again on the receiving side.
  • An external programmable clock generator might be necessary, to achieve the corresponding clock rate (at Serdes-Interface)
  • Search for components.
  • Soldering of PCB.
• Evaluating the setup:
  • Interfacing and controlling the Transceiver(s) with a MCU or FPGA.
  • Testing general use.
  • Evaluating performance, data transmission (distance, speed, different environments, with or without ambient light, angles, power consumption).
• Documentation:
  • Documenting the project in GitLab.
  • Proper circuit design and documentation (KiCad)
  • Proper code structure and comprehensible code documentation has to be maintained.
  • Report: Documentation, Components, Pin assignments, calculations, reasonings why something is done, submitted as PDF

Further Reading

• Broadcom AFBR-FS13B25

• Visible Light Communication, Networking, and Sensing: A Survey, Potential and Challenges

  Parth H. Pathak, Xiaotao Feng, Pengfei Hu, Prasant MohapatraIEEE Communications Surveys &$\mathsemicolon$ Tutorials17.4Institute of Electrical and Electronics Engineers (IEEE)2015.
  10.1109/comst.2015.2476474 [BibTex]

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  BibTex Entry

  @article{Pathak2015,
  author = {Parth H. Pathak and Xiaotao Feng and Pengfei Hu and Prasant Mohapatra},
  doi = {10.1109/comst.2015.2476474},
  journaltitle = {{IEEE} Communications Surveys {\&}amp$\\mathsemicolon$ Tutorials},
  number = {4},
  pages = {2047–2077},
  priority = {prio2},
  publisher = {Institute of Electrical and Electronics Engineers ({IEEE})},
  ranking = {rank5},
  title = {Visible Light Communication, Networking, and Sensing: A Survey, Potential and Challenges},
  volume = {17},
  year = {2015},
  }

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