References and Open Issues

Slides:



Advertisements
Similar presentations
mmWave MIMO Link Budget Estimation for Indoor Environment
Advertisements

VSMC MIMO: A Spectral Efficient Scheme for Cooperative Relay in Cognitive Radio Networks 1.
Expand the setup to 4x4 s-MIMO Incorporate FPGAs at the transmitter and receiver to demonstrate high speed wireless VLC link Install the setup in VLC +
DAC: Distributed Asynchronous Cooperation for Wireless Relay Networks 1 Xinyu Zhang, Kang G. Shin University of Michigan.
Networking with massive MU-MIMO Lin Zhong
Millimeter wave MIMO Wireless Links at Optical Speeds E. Torkildson, B. Ananthasubramaniam, U. Madhow, M. Rodwell Dept. of Electrical and Computer Engineering.
6: Wireless and Mobile Networks6-1 Chapter 6 Wireless and Mobile Networks Computer Networking: A Top Down Approach Featuring the Internet, 3 rd edition.
1 WP3 Progress towards objectives 27/10/ WP3.1 Communications equipment for trials The objectives of this work package are: to configure existing.
COST289 14th MCM Towards Cognitive Communications 13 April Towards Cognitive Communications A COST Action Proposal Mehmet Safak.
12/02/2008WOMEN project, Final Meeting UNIRM – Research Activities WOMEN PROJECT.
Architectures and Algorithms for Future Wireless Local Area Networks  1 Chapter Architectures and Algorithms for Future Wireless Local Area.
Performance of Adaptive Beam Nulling in Multihop Ad Hoc Networks Under Jamming Suman Bhunia, Vahid Behzadan, Paulo Alexandre Regis, Shamik Sengupta.
WORLD Project Wireless multiplatfOrm mimo active access netwoRks for QoS-demanding muLtimedia Delivery University of Roma “La Sapienza” University of Napoli.
MIMO: Challenges and Opportunities Lili Qiu UT Austin New Directions for Mobile System Design Mini-Workshop.
1 Architecture and Behavioral Model for Future Cognitive Heterogeneous Networks Advisor: Wei-Yeh Chen Student: Long-Chong Hung G. Chen, Y. Zhang, M. Song,
Wi-Fi - IEEE Standards and the future of Wi-Fi Mingnan Yuan Department of Electrical and Computer Engineering Auburn University March 9, 2016.
BY….. SU BMITTED TO… MANVENDRA SINGH Mr. R.A. AGARWALA B.TECH (3 rd YEAR) Mrs. SHILPI PATIL ELECTRONICS & COMM. B.B.D.I.T GHAZIABAD.
Mobicom 2015 Paper Discussion Wenguang Mao. Wireless Sensing Detect the location/motion/gesture/shape information of a human/object based on a variety.
Key Technologies for 5G Wireless Communication Networks: a Physical Layer Approach Cesar Azurdia Meza, Joaquín Chávez, Hernán Arraño, José Novoa Universidad.
 First generation systems utilized frequency axis to separate users into different channels  Second generation systems added time axis to increase number.
Projects with 5G Potential March 15, 2016 The Venetian Macau
Medium Access Control. MAC layer covers three functional areas: reliable data delivery access control security.
MmWave Sensing.
Upamanyu Madhow ECE Department University of California, Santa Barbara
Poster Session at Graduate School Information Fair
WIMAX AND LTE.
Lecture Slides 26-September-2017
SECTION 11 - Wireless Serial Overview
Jinseok Choi, Brian L. Evans and *Alan Gatherer
“An Eye View On the Future Generation Of Phones”
Wired and wireless Frequency spectrum
244-6: Higher Generation Wireless Techniques and Networks
Architecture and Algorithms for an IEEE 802
Michael Rahaim, PhD Candidate Multimedia Communications Lab
doc.: IEEE <doc#>
OCC and LiFi based Light Communication for 5G Revolution
Effective radiation pattern
Teng Wei and Xinyu Zhang
On the Channel Model for Short Range Communications
Suman Bhunia and Shamik Sengupta
WIMAX TECHNOLOGY Submitted By: Pratyush Kumar Sahu ECE-F
Konstantinos Nikitopoulos
Joerg Widmer, Research Professor IMDEA Networks, Madrid, Spain
OCC and LiFi based Light Communication for 5G Revolution
5G Communication Technology
IS3120 Network Communications Infrastructure
2111 NE 25th Ave, Hillsboro OR 97124, USA
doc.: IEEE <doc#>
Near-Optimal Hybrid Analog and Digital Precoding for Downlink mmWave Massive MIMO Systems Linglong Dai1, Xinyu Gao1, Jinguo Quan2, and Shuangfeng Han3,
Xinyu Gao1, Linglong Dai1, Ying Sun1, Shuangfeng Han2, and Chih-Lin I2
Projects with 5G Potential March 15, 2016 The Venetian Macau
ADC Bit Optimization for Spectrum- and
Multi-AP Enhancement and Multi-Band Operations
2111 NE 25th Ave, Hillsboro OR 97124, USA
Cognitive Radio Networks
Network Coding Testbed
مسیریابی بهینه با انباشت اطلاعات متقابل در شبکه های بی سیم
Technology and Use Cases for TGac
OCC and LiFi based Light Communication for 5G Revolution
Multi-band Modulation, Coding, and Medium Access Control
Multi-band Modulation, Coding, and Medium Access Control
Functional Requirements for EHT Specification Framework
Multi-AP Enhancement and Multi-Band Operations
Multi hop connections using
Is the MAC sufficient for wireless high speed mesh LANs?
Feasibility of Coordinated Transmission for HEW
Multi hop connections using
WiGig technologies IEEE ad/ay
Functional Requirements for EHT Specification Framework
Feasibility of Coordinated Transmission for HEW
Presentation transcript:

References and Open Issues

Mm-wave Picocells Open Issues Marzi, Ramasamy, Madhow, Compressive channel estimation and tracking for large arrays in mm wave picocells, IEEE J. Selected Topics in Signal Processing, April 2016. (See also Allerton’12 paper by Ramasamy, Venkateswaran, Madhow). Zhu et al, Demystifying 60 GHz Outdoor Picocells, Mobicom 2014. Marzi, Madhow, Zheng, Interference analysis for mm-wave picocells, Globecom 2015. Rasekh, Marzi, Zhu, Madhow, Zheng, Noncoherent mmWave path tracking, Hotmobile 2017. Open Issues --Demonstrating compressive picocell architecture experimentally --Abstractions for protocol design and evaluation --Base station coordination, handoffs, end-to-end performance

Large Arrays Open Issues Ramasamy, Venkateswaran, Madhow, Compressive adaptation of large steerable arrays, ITA 2012. Ramasamy, Venkateswaran, Madhow, Compressive parameter estimation in AWGN, IEEE Trans. Signal Proc., December 2014. Marzi, Ramasamy, Madhow, Compressive channel estimation and tracking for large arrays in mm wave picocells, IEEE J. Selected Topics in Signal Processing, April 2016. (See also Allerton’12 paper by Ramasamy, Venkateswaran, Madhow). Mamandipoor, Ramasamy, Madhow, “Newtonized Orthogonal Matching Pursuit: Frequency Estimation over the Continuum,” IEEE Trans. Signal Processing, Oct 2016 (see also GlobalSIP’15 paper by same authors). Open Issues --Demonstrating compressive estimation for large arrays experimentally (beamforming, nullforming, tracking) --Hybrid transceiver architectures, multi-user MIMO

LoS MIMO Open Issues --Networked MIMO links --Wireless backhaul design Sheldon, Seo, Torkildson, Madhow, Rodwell, A 2.4 Gb/s millimeter-wave link using adaptive spatial multiplexing, APS-URSI 2010. Torkildson, Madhow, Rodwell, Indoor millimeter wave MIMO: feasibility and performance, IEEE Trans. Wireless Comm., Dec 2011. Mamandipoor, Sawaby, Arbabian, Madhow, Hardware-constrained signal processing for mm-wave LoS MIMO links, Asilomar 2015 Irish, Quitin, Madhow, Sidestepping the Rayleigh limit for LoS spatial multiplexing: a distributed architecture for long-range wireless fiber, ITA 2013. Irish, Quitin, Madhow, Achieving multiple degrees of freedom in long-range mm-wave MIMO channels using randomly distributed relays, Asilomar 2013. Open Issues --Networked MIMO links --Wireless backhaul design --Distributed architectures and relays, including the role of full duplex --Hybrid analog/digital signal processing architectures and algorithms --Fundamental limits under hardware constraints

Mesh Networks Open Issues Singh, Mudumbai, Madhow, Interference analysis for highly directional 60-GHz mesh networks: the case for rethinking medium access control, IEEE/ACM Trans. Networking, October 2011. Singh, Mudumbai, Madhow, Distributed coordination with deaf neighbors: efficient medium access for 60 GHz mesh networks, IEEE Infocom 2010. Rasekh, Guo, Madhow, Interference-aware routing and spectrum allocation for millimeter wave backhaul in urban picocells, Allerton 2015. Open Issues Comprehensive design and evaluation for picocellular backhaul and last mile applications Tractable optimization framework and interference/propagation models Architectures and evaluation for novel system concepts (e.g., drones, satellites) Analytical characterization and optimization of decentralized mesh networks

Millimeter wave radar Open Issues Mamandipoor et al, Spatial-Domain Technique to Overcome Grating Lobes in Sparse Monostatic mm-Wave Imaging Systems, IMS 2016. Mamandipoor, Ramasamy, Madhow, “Newtonized Orthogonal Matching Pursuit: Frequency Estimation over the Continuum,” to appear, IEEE Trans. Signal Processing (see also GlobalSIP’15 paper by same authors). Open Issues Fundamental characterization of short-range delay/Doppler imaging Design and evaluation in specific contexts: gesture recognition, vehicular automation Interface with machine learning algorithms Prototyping and experimental validation

ADC-limited communication Ponnuru, Seo, Madhow, Rodwell, Joint mismatch and channel compensation for high-speed OFDM receivers with time-interleaved ADCs, IEEE TCOM, August 2010. Singh, Dabeer, Madhow, On the limits of communication with low-precision analog-to-digital conversion at the receiver, IEEE TCOM, December 2009. Wadhwa, Shanbhag, Madhow, Space-time slicer architectures for analog-to-information conversion in channel equalizers, ICC 2014. Roufarshbaf, Madhow, Analog multiband: efficient bandwidth scaling for mm wave communication, IEEE J. Selected Topics in Signal Processing, April 2016. Open issues Fundamental limits and architectures for various settings -- mm-wave MIMO with large bandwidths --low-power, short range links Hardware demonstrations

Integration with higher layers Open issues: Making mmWave as mobile and ubiquitous as WiFi/4G New network architectures -- Reflector-assisted mmWave networks -- mmWave mesh backbone Integration with transport-layer protocols -- mmWave connectivity for highly mobile vehicles -- 4K/8K video streaming; Wireless VR, etc. Making mmWave systems mobile friendly -- Energy efficiency protocols -- Computational issues (packet processing at 10+ Gbps)

Ubiquitous mmWave sensing/imaging Open issues: New sensing/imaging algorithms and applications on mobile mmWave devices Potentials for mmWave imaging -- Low cost (< $50, cost of 60 GHz NIC) -- cm or mm level resolution (possible with large bandwidth and large phased array)

Ubiquitous mmWave sensing/imaging Open issues: New sensing/imaging algorithms and applications on mobile mmWave devices Potentials for mmWave sensing -- Wireless health (sensing physiological status, e.g., heart rate, breathing rate) -- Ultra-high resolution activity sensing (e.g., sensing acoustic vibration, motor activities)