1 / 16

PHY SIG Frame Structure for IEEE 802.11aj (45GHz)

PHY SIG Frame Structure for IEEE 802.11aj (45GHz). Date: 2015-11-14 Presenter: Haiming WANG. Authors/contributors:. May 2014. Abstract. The proposal presents a kind of physical layer SIG frame structure in millimeter-wave multi-user MIMO WLAN communication for IEEE 802.11 aj (45GHz).

muniya
Download Presentation

PHY SIG Frame Structure for IEEE 802.11aj (45GHz)

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript

  1. PHY SIG Frame Structure for IEEE 802.11aj (45GHz) Date: 2015-11-14 Presenter: Haiming WANG Authors/contributors: Shiwen He, Haiming Wang

  2. May 2014 Abstract • The proposal presents a kind of physical layer SIG frame structure in millimeter-wave multi-user MIMO WLAN communication for IEEE 802.11 aj (45GHz). Slide 2 Shiwen He, Haiming Wang

  3. May 2014 Background • Challenges of future WPAN Limited spectrum resources Requirement of high data transfer rates • Features of future WPAN Large bandwidth Multiple channel mode Multi-user Multi-stream • 45GHz millimeter-wave communication Digital home appliances Ultra-high-speed (10Gbps) wireless applications Slide 3 Shiwen He, Haiming Wang

  4. May 2014 Technology Objects • The SIG frame structure try to achieve the following technical goals • Dynamic bandwidth • Multi-user & Multi-stream • Energy efficiency • Scrambler • Single & Multi-carrier • Dynamic bandwidth Achieving dynamically channel bandwidth selection for 1080MHz BSS to enhance the adaptability in different channel environments and improve spectral efficiency. Slide 4 Shiwen He, Haiming Wang

  5. May 2014 Technology Objects • Multi-user & Multi-stream Achieve a multi-user multi-stream control to obtain the multiplexing gain. • Energy efficient communication Achieve energy efficient communication, i.e., allow non-AP STAs in TXOP power save mode to enter Doze state during a TXOP. • Scrambler Scrambling effectively reduces the PAPR in OFDM system . • Single carrier & Multi-carrier Switch in single carrier and multi-carrier Slide 5 Shiwen He, Haiming Wang

  6. May 2014 SIG-A structure Slide 6 Shiwen He, Haiming Wang

  7. May 2014 SIG-A structure • Dynamic bandwidth Slide 7 Shiwen He, Haiming Wang

  8. May 2014 SIG-A structure • Multi-user & Multi-stream Slide 8 Shiwen He, Haiming Wang

  9. May 2014 SIG-A structure • Multi-user & Multi-stream Slide 9 Shiwen He, Haiming Wang

  10. May 2014 SIG-A structure • Multi-user & Multi-stream Slide 10 Shiwen He, Haiming Wang

  11. May 2014 SIG-A structure • Energy efficiency Slide 11 Shiwen He, Haiming Wang

  12. May 2014 SIG-A structure • Scrambler Slide 12 Shiwen He, Haiming Wang

  13. May 2014 SIG-A structure • Single carrier & Multi-carrier Slide 13 Shiwen He, Haiming Wang

  14. May 2014 SIG-B structure Slide 14 Shiwen He, Haiming Wang

  15. May 2014 SIG-B structure Slide 15 Shiwen He, Haiming Wang

  16. May 2014 Thanks for Your Attention Slide 16 Shiwen He, Haiming Wang

More Related