Keysight @ IMS2016 Highlights · Frequency range 6-20 GHz 20-40 GHz 40-60 GHz 60-100 GHz Specific bands identified 10 GHz band 10.125-10.225 GHz 10.475–10.575 GHz 32 GHz band 31.8-33.4

Keysight Press Conference – May 24, 2016

www.Keysight.com/find/IMSpress

http://www.keysight.com/find/IMSpress

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Agenda

IMS2016 Press Conference 2

• Keysight Highlights at IMS2016 • Luciana Taylor, Market Segment Manager, Communications Solutions

Group

• Keysight, Georgia Tech Plan to Launch Keysight Software

Development Center• Todd Cutler, Vice President & General Manager, Software Products

Organization, EEsof EDA

• Keysight, Cascade Microtech: 25 Years Solving Customers’

Semiconductor R&D Challenges• Gregg Peters, Vice President & General Manager,

Aerospace/Defense/Government Solutions

• Rob Selley, Cascade Microtech, Vice President, Global Sales and Service

• Technology Waves in Communications • Mark Pierpoint, Vice President & General Manager, Internet Infrastructure

Solutions Group

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Boot Camp and Books


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MicroApps, Keynote, and Panel


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18 Keysight Community Partners


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5G, IoT, NewSpace, Aerospace & Defense


Latest design and test solutions for systems and components

Design & Simulation

5G & mmWave

Component TestSat, Radar, EW

IoT, WLAN, 4G

Handhelds, Power,

& Univ Program

Services

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Workshops and Technical Sessions


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Additional Activities


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Agenda



Group









Solutions Group

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Keysight, Georgia Tech: Software Development Center

IMS2016 Press Conference

Keysight Corporate Strategy:

Transform Keysight from a hardware-centric products company

to a software-centric solutions company

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Keysight Charters Software Development Center

– Combines talent from a top 10 engineering program with resources of the

leading electronic design and test company

– Located in Atlanta’s Midtown Tech Square, a growing center of innovation

and technology talent adjacent to Georgia Tech

– Planning a staff of more than 200 software developers over next five years

– Will feature an open environment that fosters collaboration; supports an

agile software development approach

– Focused on developing next-generation software for use in design and test

of electronic products created by Keysight’s global customers


Partnership with Georgia Tech to focus on next-generation software design

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Agenda



Group









Solutions Group

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Keysight & Cascade Microtech Celebrate 25 Years of Solving Customers’ Semiconductor R&D Challenges


Innovations Help Customers Meet & Exceed Their Time to Market Goals

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25 Years of Solving Semiconductor R&D Challenges


Keysight, Cascade Microtech Customer Solution Highlights

1991

HP/Keysight 4155

semiconductor analyzer spurred

Cascade Microtech

MicroChamber® technology

1999

8510XF network analyzer

systems

2015

Turn-key wafer-level

measurement solution

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25 Years of Solving Semiconductor R&D Challenges


Turn-key Wafer-level Measurement Solution (WMS)

• Offered by Keysight Technologies and Cascade Microtech

• Package includes all the required hardware, software, interface

cables, probes, calibration, software for a given device application

• Customers receive single point of contact for all technical support

requirements

• With guaranteed system configuration, installation and support,

WMS:

• Provides fast, accurate, and repeatable testing

• Minimizes time to first measurement

• Ensures date correlation between multiple locations

• Reduces customer risk

A WMS Package for component

modeling and characterization.

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Agenda



Group









Solutions Group

Mark PierpointVice President & General Manager

Internet Infrastructure

Keysight Technologies, Inc.

Thro

ugh

put(

%)

EbNo(dB)

OFDM

GFDM

Technology Waves in Communications - or -

From IoT to IoS and between

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• Keysight is a brand new company with over 75

years of electronic design and test success

under our belts.

• Founded in 1939 by Bill Hewlett and Dave

Packard as HP, our expertise continued as

Agilent’s Electronic Measurement Group.

• Today, we are 100% focused on helping

companies tackle the toughest electronic

design and test issues through trusted

hardware, innovative software and our global

network of industry experts.

Our Role is to Help You Get to Market FasterThe experience to help you create. Innovate. And deliver what’s next

+


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Bimodal Distributions in the Real World


Flexibility vs Optimization

Bimodal Distribution:

• Systems analysis

• Likert scale ratings

• Color of galaxies

• Economics

19

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A World of Extremes


SigFox 5G Pre-Standardization

902/868MHz <6, ~28, 31-33, 37-42GHz +

BPSK/FSK OFDM+

≤1% duty cycle 800MHz (8 CA)

12 bytes/msg (96 bits) ≥10 Gbps

≤140 msgs/day Continuous

~20 yr AA life minutes?

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From Less to More


Less is more:

Lower frequency

Lower bandwidth

Lower data rate

Lower power

Lower price

More is more:

Higher frequency

Higher bandwidth

Higher channel count

Higher availability

But…

Many, many more devices

21

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To a Galaxy of Extremes


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IoT


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Complete Simulation & Characterization for IoT


CX3300

Power Dissipation

and Current Density

visualization

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802.11ac evolution to 11ax


Simulate. Generate. Analyze.

Feature Description Test Challenges

Bands 2.4GHz and 5GHz Dual band

Channel bandwidth 20 MHz, 40 MHz, 80 MHz, 160

MHz, 80+80 MHz

Need to generate and analyze wide BW signals

FFT size 256, 512, 1024, 2048 Smaller sub-carrier space(78.125KHz). More sensitive to frequency

and phase error and CFO impact.

Modulation types Up to 1024QAM Need better EVM and better power amplifier linearity

Spatial streams Max 8 More channels of signal generation and analysis, up to 8x8, and

MIMO channel simulator needed.

Multi-user OFDMA + MU-MIMO Test simultaneous transmission and receiving for multiple users and

signal from each user would experience different impairments.

25

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Everything to Everyone?


5G = A Complex Compound System

4G3G

5G

Traffic capacity

Reliability

Spectrum and

bandwidth

flexibility

Achievable

user data-

rates [Mbps]

Mobility

and

coverage

Massive number

of devices [B]

Latency

[ms]

Network

and device

energy

efficiency

Ultra-high

Ultra-

high

Ultra-high

Massive

Source for Spider Diagram: ITU: 5D/TEMP/390-E

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mmWave Channel Model and RAT


“5G Will Roll out Faster!”2014 2015 2016 2017 2018 2019 2020 2021 2022

Rel. 14 Rel. 15 Rel. 16 Rel. 17 & beyond

Research Standards development Products Commercial deployment

Pre-standard research

(vision, technology, spectrum)

Technical reqs and

evaluation methodology

Proposal

submission

Evaluation and

specification

WRC-15 WRC-19

SI: Channel

Model

SI: Scenarios and

Requirements

SI: 5G new RAT

WI: 5G new RAT

(Phase 1)

WI: 5G new RAT

(Phase 2)

WI: LTE Evolution

Yo

u A

re H

ere

27

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5G mmW Frequency Bands Recommended for Study


Frequency Ofcom

(Apr 2015)

FCC

(Oct 2015)

ITU

(Oct 2015)

28GHz (25-27GHz) 24.25-27.5GHz

37GHz 37-40.5GHz

39GHz

40.5-43.5GHz 42.5-43.5GHz

45.5-48.9GHz 45.5-47GHz

47.2-50.2GHz

50.4-52.6GHz

57-66GHz Unlicensed Unlicensed Unlicensed

64-71GHz 66-71GHz 66-76GHz

71-76GHz

81-86GHz

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Challenges to Progress in 5G


Simulate. Measure. ImplementEnabling Technology Challenges

Centimeter-wave and millimeter-

wave frequency bands

• Wide channel bandwidth (A-D/D-A, flatness, etc.)

• Complete and accurate channel models

• Directional and active antenna schemes (code-books, calibration)

• Radiated testing – no test connections

• Amplifier Efficiency & Link Budgets

Higher-order MIMO (FD, Massive) • Channel and UL/DL reciprocity (including active antennas)

• Digital vs. RF power consumption

• PHY and MAC design (MAC meets antenna)

• Amplifier and antenna design

• Beamforming schemes (Digital/Analog/Hybrid)

New radio access technologies

(RATs)

• New PHY waveforms, Frame Structure & Numerology

• Support for multi-RAT: Compatibility, co-existence

• Performance testing with existing 3G/4G standards

• In-channel and out-of-channel performance

• End-to-End testing (performance and functional)

• New use cases ex. IoT/M2M

In-band full duplex • Self-interference cancellation including channel issues

• Co-existence with FDD and TDD duplex schemes

High speed data • Complex optical modulation (digital and analog)

• Extremely high digital data-rates

• Signal and power integrity

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Waveform Technologies

Requirements1

• Enable steeper spectrum roll-off

• Reduced peak to average power ratio

• Enable framework with low latency

• Address M2M specific requirement

• Higher spectral efficiency

• Enable synchronous-constrained applications

• Combination with Massive MIMO in higher

frequency bands

Industry Proposals

• Enhancements of OFDM

• Universal Filtered OFDM (UF-OFDM)2

• Filtered-OFDM (F-OFDM)3

• Filter-Bank Multi-Carrier (FBMC)

• Faster Than Nyquist (FTN)

• Wave Amplitude Modulation (WAM)

• Generalized Frequency Division Multiplexing (GFDM)


Note 1. NGMN white paper, “A deliverable by the NGMN Alliance,” February 2015

Note 2. Bell lab

Note 3. Huawei Canada

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mmWave ≠ 10x RF

Path loss can be

mitigated by high

gain directional

antennas

mmWave geometry allows for very

small, high gain antennas

Large available bandwidth at mmWave

Frequency

range6-20 GHz 20-40 GHz 40-60 GHz 60-100 GHz

Specific

bands

identified

10 GHz band

10.125-10.225 GHz

10.475–10.575 GHz

32 GHz band

31.8-33.4

GHz

40 GHz band

40.5-43.5 GHz

‘45 GHz’ band

45.5-48.9 GHz

66 GHz band

66-71 GHz

Potential

bandwidth

2 x 100 MHz 1.6 GHz 5.8 GHz total 5 GHz

High path loss due to atmospheric absorption

Source: Ofcom, Apr 2015


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UC San Diego 60 GHz Link Measurements


Link (distance): 4, 30 100 meters

~100 meters

30 metersEVM (9.5%)2-4 Gbps+/-45o scan

100 metersEVM (20%)1.5 Gbps+/-45o scan

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Mobility and the Challenge of Directional Antennas

Connected

high gain

tracking

Search Strategies

High Gain

Large volume to search

Low probability of both stations

pointing in the same direction

Low Gain:

Higher probability of looking in

the right direction, but much

less energy to detect

Why Search:

We should know where it is,

how fast it is moving and in

which direction it is traveling

33IMS2016 Press Conference

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Massive MIMO Channel Coherence Time

How Long Does it Take to Move ¼ Wavelength

Speed 2 GHz 28 GHz 60 GHz

3 km/h

30 km/h

120 km/h


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Massive MIMO AntennasReal-Time Beamforming Measurement System

SystemVueSystemVue

IQ Data Files

8 channels at

1800 MHz

Waveform Generation

Beam

WeightsDemodulated

Symbols

Digitizer Control &

Dynamic Plotting


Facebook ARIES prototype35

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Channel Models and Validation

Better Assess how your designs will work in new channel models

Modified 3GPP 3D channel model and initial access to emerging fading channels

Channel Emulation to Link Simulation to Performance Evaluation


Increase Insight into 5G MIMO and mmWave channel propagation

UE1_Data

CQI_Bits

frm_TD

frm_FD

UE1_ModSymbols

UE1_ChannelBits

SC_Status

HARQ_Bits

LTE_A

DL

Src

PDCCH_Fill_OCNG=NO

CSIRS_Enable=NO

UE1_AMC_Enable=NO

UEs_n_RNTI=(1x6) [1,2,3,4,5,6]

UEs_SpecificRS=(1x6) [0,0,0,0,0,0]

UEs_TransMode=(1x6) [8,1,1,1,1,1]

LTE_A_DL_Src_1

1 1 0 1 0

1 1 0 1 0

Frame

UE1_RawBits

UE1_ChannelBits

UE1_ModSymbols

UE2_ModSymbols

UE3_ModSymbols

UE4_ModSymbols

UE5_ModSymbols

UE6_ModSymbols

PDCCH_ModSymbols

PHICH_ModSymbols

PCFICH_ModSymbols

PBCH_ModSymbols

SSS_ModSymbols

PSS_ModSymbols

DataOutUE1_HARQ_BitsUE1_TBS

UE1_PMIUE1_CQI

LTE_A

DL

Baseband

Receiver

CSIRS_Enable=NO

UE1_AMC_Enable=NO

UEs_SpecificRS=(1x6) [1,0,0,0,0,0]

UEs_TransMode=(1x6) [8,1,1,1,1,1]

LTE_A_DL_Rcv_1

MIMO_FastFadingEngine

FadedSignals

Delay

CIR

TransmittingSignals

{MIMO_FastFadingEngine@5G Advanced Modem Models}

SystemVue Link Simulation with METIS Channel Coefficients

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5G & Satellite Coexistence @ 28 GHz


Evaluate Potential Interference Scenarios

Wideband Satellite

Waveform

Wideband 5G

Candidate

Waveform

Wideband

Satellite

Waveform

5G Candidate

Waveform

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5G & Satellite Coexistence @ 39 GHz


Evaluate Potential Interference Scenarios

Source: http://en.wikipedia.org/wiki/High_throughput_satellite

Satellite Multicarrier

Waveforms

Wideband 5G

Candidate

Waveform

Satellite Multicarrier

Waveforms (1:N)

5G Candidate

Waveform

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mmWave Validation & Manufacturing Solution

Integrated & calibrated mmWave Signal Analysis & Generation

Integrated & Calibrated mmWave Signal Analysis and Generation

• RF TX/RX 55GHz – 67GHz (other frequencies in plan)

• IF TX/RX 2-18 GHz

• Analog I/Q TX/RX 2GHz

• 2 GHz Vector Bandwidth

• OTA RF Measurements at multi-frequency support

• Beam forming / beam steering testing made easy with

6 calibrated Tx/Rx vector mmWave transceiver heads

• Closed loop (RF-IF) measurements

• SCPI control over LAN

• Software Tools for Automated testing

• 5G Technology Ready

Launched at

Mobile World Congress 2016

First introduction for 802.11ad

mmW TX/RX Head


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Link budget elements for Tx test:

- Transmitter output power

- Transmitter antenna gain

- Path loss

- Receive antenna gain

- Receiver noise power

- Link margin

OTA Measurement ChallengesLink Budget (DUT to TE)

11ad

DUT

mmW

TCVR

HEAD

US

B

US

B

US

B

US

B

US

B

US

B

A1 A2 A3 B1 B2 B3

RFIO1 RFIO2

mmW PORTS

A1 A2 A3B1 B2 B3

RFIO1 RFIO2

+

Air loss:

50dB

Horn Antenna gain:

15dBi

Plane of

Measurement

Input Power @ mmW head

-25 dBm

Thermal Noise

over 2GHz BW:

-81dBm

Plane of spec

Plane of Cal.DUT Tx Power:

+10dBm

Input power @ Rx

antenna: -40dBm

IF power / control signal


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E-Band and Beyond


73/83GHz Freq and 5GHz BW

DARPAs Mobile Hotspot

Source: MWJ Oct 14,2014 - DARPA’s Mobile Hotspots Program Drives

E-Band Performance Benchmarks 41

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Delivering Wider Bandwidths at E-Band


EVM= 1.8%

Span 4GHz

42

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Millimeter Wave Network Analysis


Accurate Spectrum Analysis Up to 1.1 THz with Your Vector Network Analyzer

Integrated VNA delivers a unique capability for millimeter wave (MMW,

67-110 GHz) and sub-millimeter wave applications (Sub-MMW, 110

GHz -1.1 THz).

Easily switch from a standard VNA to a SA operation to get deeper

insights to standard S Parameter behavior

Broadband from 10 MHz to 110GHz Banded solutions to 1.1 THz

S21 Marker To SA Function S11 Marker To SA Function

43

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Measure Spectrum a DUT PortFull De-embed of fixture loss

Port 2

Without Fixture Compensation

Fixture Loss De-embedded

Uncalibrated Measurement


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Keysight mmWave SolutionComplete E2E Solution To Solve the mmWave and OTA Challenges

Core Platform

Software Automation

Design & Support Services C

om

ple

te S

olu

tion

Services

• Calibration, operator training, mmWave consulting

• Service Level Agreements for Maximized Uptime

Fixturing and Test Bed Considerations

• Chamber design and system calibration

• Distance from DUT Antenna, Link Budgeting

Fully Calibrated connector-less (OTA) Testing

• OTA Near field vs. far field measurement science

• Flexible architecture to go beyond the instrument (chamber, positioner, etc)

Chipset Software for Automated Design Verification

• Integrated chipset control

• Complete 802.11ad test plan for integration into shop floor

Differentiated Domain Expertise in mmW Technology

• Firsthand experience in our own design, test and manufacturing of mmW solutions

• Support 802.11ad IF/RF frequency, BW and measurements, up to 6 mmW RF heads


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Thank you and enjoy the show!


www.Keysight.com/find/IMSpress

http://www.keysight.com/find/IMSpress

Documents

Keysight @ IMS2016 Highlights · Frequency range 6-20 GHz 20-40 GHz 40-60 GHz 60-100 GHz Specific bands identified 10 GHz band 10.125-10.225 GHz 10.475–10.575 GHz 32 GHz band 31.8-33.4