5G: From Theory to Practice Director of Marketing, Wireless Research...
Transcript of 5G: From Theory to Practice Director of Marketing, Wireless Research...
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5G: From Theory to Practice James Kimery
Director of Marketing, Wireless Research
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The Next 30 Years: Expanding LabVIEW into System Design
Research/Modeling Design/Simulation Verification/Validation Manufacturing
Product Verification Design Verification
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Hyper Connected Everything Starts with Design
Data rate
Capacity
Power Consumption
Coexistence
Security
Monitoring
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Investments and Opportunity
Design Test
Prototype
Verification/Validation
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RF Communications Lead User Program
• Established in 2010 • Goals: Further wireless research through prototyping
• Research Institutions • Academic
• Industry
• Over 100 research papers published
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Prototyping Is Critical for Algorithm Research
“Experience shows that the real world often breaks some of the assumptions made in theoretical research, so testbeds are an important tool for evaluation under very realistic operating conditions”
“…development of a testbed that is able to test radical ideas in a complete, working system is crucial”
1NSF Workshop on Future Wireless Communication Research
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RF Comms Research Lead User Strategy
Lead Users
Industry R&D Academic Research
Multi-rate Diagram DSP Toolkits
LV FPGA Core LabVIEW
NI Wireless Solutions
RIO Form Factors RF Front Ends
A/Ds, D/As
Software Hardware
Architecture
NI R&D
Advanced Research
Team
Systems
Strategic Vector
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Utilize potential of
extremely wide bandwidths
at frequency ranges once
thought impractical for
commercial wireless.
Consistent connectivity
meeting the 1000x traffic
demand for 5G
Dramatically increased
number of antenna
elements on base station.
5G Vectors
Improve bandwidth
utilization through signal
structure improvements
such as NOMA, GFDM,
FBMC, & UFMC
PHY
Enhancements Massive MIMO Densification mmWave
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NI 5G Research Initiatives
Massive MIMO Wireless Networks 5G Waveforms mmWave
USRP RIO PXI Systems Personal Computers
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Utilize potential of
extremely wide bandwidths
at frequency ranges once
thought impractical for
commercial wireless.
Consistent connectivity
meeting the 1000x traffic
demand for 5G
Dramatically increased
number of antenna
elements on base station.
5G Vectors
Improve bandwidth
utilization through signal
structure improvements
such as NOMA, GFDM,
FBMC, & UFMC
PHY
Enhancements Massive MIMO Densification mmWave
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Massive MIMO - Innovate
Lund University is prototyping a massive MIMO with a 100 antennas at the Base Station and 10 User Terminals
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Examples
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5G Massive MIMO at Lund University, Sweden
Prof Ove Edfos Prof Fredrik Tufvesson
Goal: Build a massive MIMO,100x10 antenna system to validate theoretical results with real time processing
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5G Massive MIMO Application Framework
• MIMO base station communicating with a single channel mobile user
• IQ sampling of 15.7GB/s on the uplink and downlink
• TDD operation enabling channel reciprocity
Goal: Build a cellular massive MIMO,100x10 antenna system to validate theoretical results with real time processing
USRP RIO
2x2 (1)
USRP RIO
2x2 (16)
USRP RIO
2x2 (17)
USRP RIO
2x2 (32)
USRP RIO
2x2 (33)
USRP RIO
2x2 (48)
USRP RIO
2x2 (49)
USRP RIO
2x2 (64)
Antennas 1-32 Antennas 33-64 Antennas 65-96 Antennas 97-128
... ... ... ...
PX
Ie-8381
...
PX
Ie-8262_17
PXIe-1085 Sub_2
PX
Ie-8262_32
PX
Ie-8381
...
PX
Ie-8262_49
PXIe-1085 Sub_4
PX
Ie-8262_64
PX
Ie-8381
...
PX
Ie-8262_1
PXIe-1085 Sub_1
PX
Ie-8262_16
PX
Ie-8381
...
PX
Ie-8262_33
PXIe-1085 Sub_3
PX
Ie-8262_48
PX
Ie-8384_S3
PX
Ie-8384_S4
PX
Ie-7976_3
PX
Ie-7976_8
PX
Ie-7976_5
PX
Ie-7976_1
PX
Ie-8384_S1
PX
Ie-8384_S2
PX
Ie-6674T
PX
Ie-8135
10 18
PX
Ie-7976_2
PXIe-1085 Master
PX
Ie-7976_4
PX
eI-7976_6
PX
Ie-7976_7
x8 x8 x8 x8
x4 x4 x4 x4 x4 x4 x4 x4
Parameter Values
No. of base station antennas 64 - 128
RF Center Frequency 1.2 GHz – 6 GHz
Bandwidth per Channel) 20 MHz
Sampling Rate 30.72 MS/s
FFT Size 2048
No. of used subcarriers 1200
Slot time 0.5 ms
Users sharing time/freq slot 10
LTE-like System Parameters
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Utilize potential of
extremely wide bandwidths
at frequency ranges once
thought impractical for
commercial wireless.
Consistent connectivity
meeting the 1000x traffic
demand for 5G
Dramatically increased
number of antenna
elements on base station.
5G Vectors
Improve bandwidth
utilization through signal
structure improvements
such as NOMA, GFDM,
FBMC, & UFMC
PHY
Enhancements Massive MIMO Densification mmWave
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5G Dense Networks Research
• Hyper dense networks
• Software defined networking (SDN)
• Cloud radio access network (cRAN)
• Cellular/802.11 coexistence and co-ordination
• Next generation 802.11 stack
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Architecture for Protocol Stack Explorations
PHY/MAC Stack in LabVIEW
Open Source Upper Layer Stack (e.g. ns-3)
LTE802.11 MTC IoT
LTE Ref Design802.11 Ref Design
NI Hardware
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Utilize potential of
extremely wide bandwidths
at frequency ranges once
thought impractical for
commercial wireless.
Consistent connectivity
meeting the 1000x traffic
demand for 5G
Dramatically increased
number of antenna
elements on base station.
5G Vectors
Improve bandwidth
utilization through signal
structure improvements
such as NOMA, GFDM,
FBMC, & UFMC
PHY
Enhancements Massive MIMO Densification mmWave
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NI and TU Dresden Collaborate on 5G Wireless
• 5G Lab and Test Bed
• 5G PHY exploration and prototyping
• World’s first 2x2 MIMO GFDM prototype !!
Dr. Gerhard Fettweis
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2x2 GFDM Demonstration in LabVIEW Communications
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Utilize potential of
extremely wide bandwidths
at frequency ranges once
thought impractical for
commercial wireless.
Consistent connectivity
meeting the 1000x traffic
demand for 5G
Dramatically increased
number of antenna
elements on base station.
5G Vectors
Improve bandwidth
utilization through signal
structure improvements
such as NOMA, GFDM,
FBMC, & UFMC
PHY
Enhancements Massive MIMO Densification mmWave
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mmWave - Innovate
Channel sounding at 28, 38, and 72 GHz
Multi-GB/s Backhaul/Access Link Prototype
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NYU Wireless: mmWave
• Channel sounding at 28, 38, and 72 GHz
• Prototype system uses NI FlexRIO & NI LabVIEW
Prof. Ted Rappaport
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MiWaveS Objective 1
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Nokia Using a Platform-based Design Approach for 5G mmWave
“It took about 1 calendar year, less than half the time it would have taken with other tools” Dr. Amitava Ghosh, Head of Broadband Wireless Innovation, Nokia Networks
Nokia Video
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Nokia 5G at Mobile World Congress
Image from video on nokia.com
• 73 GHz • 1 GHz bandwidth • 2.3 Gps peak rate
eNodeB
UE
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NI and Nokia Demonstrate 10 Gbps Wireless Link Brooklyn 5G Summit
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mmWave PoC System @ 2GHz BW supporting 10 Gbps Peak rate New platform designed by NI to meet Nokia’s 5G specification
Parameters Value
Operating Frequency
73.5 GHz
Configuration 2 x 2 MIMO antenna polarization
Bandwidth 2 GHz
Peak Rate ~10 Gbps
Modulation Null Cyclic-Prefix Single Carrier R=0.9, 16 QAM
Antenna Horn Antenna
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Platform Based Design for 5G
Reconfigurable Instruments
High Performance IO
USRP RIO SDR
USRP SDR
PHY Next Gen Densification MIMO mmWave
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www.ni.com/5g
www.ni.com/sdr