On the Standards for Internet of Things in the 5G Contextdocbox.etsi.org/Workshop/2014/201407_IOTWORKSHOP/IoTinMOTION/… · On the Standards for Internet of Things in the 5G Context

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On the Standards for Internet

of Things in the 5G Context

Firestarter: David Soldani, Huawei European Research Centre (ERC) Contributors: Markus Dillinger, Abdelmajid Khelil, Liang Hu, Huawei ERC

Standards for an Internet of Things

A workshop co-organized by EC DG Connect and ETSI

3 and 4 July 2014, ETSI HQ (Sophia Antipolis)

http://www.etsi.org/news-events/events/771-2014-etsi-ec-dg-connect-iot
















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2010 “Client Server”

Bit pipe and Free Communication Services

2020 “Bearer Graph”

Nervous system of the Digital Society

Vision

“5G will become the new

lifeblood of the digital

economy and digital

society” Neelie Kroes, VP European Commission

“The smart phone is the extension of what we do and

what we are, the mobile is the answer to pretty much

everything” Eric Smith, Google, MWC 2010


Speed[Mb/s]

Traffic capacity

Reliability

Mobility and

coverage

Energy efficiency

Number of Devices [B]

Latency [ms]

Spectrum and

bandwidth

flexibility

Massive

Ultra-high

Ultra-high

500

5

50

0.5

1

Ultra-high

10

100

1000

High Low

1000

100

10

10000

Best Effort

Low

Low

High

Future IMT IMT

Advance

IMT 2000

Unlicensed Unlicensed

Ce

llu

lar

ba

nd

s

Vis

ible

ligh

t

5 10 20 30 40 50 60 70 80 90 GHz

300 – 984 MHz

10m50-100m0.5–2km

2.5 GHz 40 GHz

Key recommendations and capabilities

http://www.huawei.eu/research-and-innovation/spectrum

1

2

20202010WRC-2007 WRC-2015

• 450-470 CDMA450

• 698-790 2x30MHz

• 790-806 non-IMT in EU

• 2300-2400 non-IMT in EU

• 3400-3600 200MHz in EU

• 470-694 224 MHz

• 694-790 (Region 1) 30 MHz

• 3800-4200 400 MHz

428 MHz 300 – 984 MHz

• 1350-1517 (L-Band ext) 100 MHz

• 2700-2900 200 MHz

3







10Gb/s Device

Tera-Cell

50Gb/s Macro

100Gb/s Micro 80Gb/s

E-Band link

100T OXC

“Edge”

Ephemeral Networks

What is our network and services vision?

Cloudlet

V2V

V2

I

V2D

[KIT]

[Amazon]

[iCUB, IIT, Italy]

[safetybasement.com]

• 1000x higher wireless area capacity and 10G true immersive experience • 100 billions of connections and 5x lower E2E latency (1ms target) • 90% energy saving per provided service

[Google]

1) FULL Immersive Experience

2) ANYTHING as a Service

Learning


[Apple Inc.]

[Google]

Rendering

Actuating

Networking

Sensing

Edge computing

What are the fundamental enabling technologies? The nervous system of the true Digital Society

1

2

3

Controlling & Orchestrating

4

[Robocop 2014]

5

Ge

om

etry

Id

entity

(C

yb

er w

orld

)

[Robocop 2014]


Ex: Scenarios (multi-access multi-operator)

Out-of-coverage In-coverage

Ad hoc mode Network-assisted D2D

Partial coverage

Relay mode

Coverage hole (e.g., tunnel)

Operator 1 Operator 2

A is streaming to B

for road safety

B A A B C B

A is streaming to

B&C for road safety

A

A is streaming to

B&C for road safety

Multi-operator + multi-mode


Ex: Network architecture SDN/NFV based (logical)

[D. Soldani, A. Manzalini “On the Advanced 5G Infrastructure for Anything as a Service,” WWRF, Sept 2014]

Public

Orchestration

Controller

Private

Edge

Controller (i)

Device

Controller

L1-3

Routing/

Forwarding

M-MIMO Edge

Controller (ii)


Ex: Hybrid Funcional Architecture in 5G context Beyond current 3GPP, ETSI, IEEE, ARIB scope

Centralized MAC Decentralized MAC

PHY Direct PHY

Network (geomessaging, multicast, broadcast) Radio

Resource

Mgmt

(RRM)

Cellular

(5G/4G+)

Mission – critical

(Teleprotection, Road

safety, etc...)

Supporting

mechanisms (Context

mgmt, Positioning,

Billing..) 802.11p

802.15.4

BLE

LIFI, NFC..

• Needed for high

road user densities to control

interference, faster connection

times..

• Teleprotection

• etc.

• Relative high velocities

require Direct C2C

communication

• Teleprotection

• High speed trains

Needed for high

device densities to assign

ad-hoc resources between

road users, substations, ..

c/u i/f

c/u i/f

c/u i/f c/u i/f

c i/f

c i/f

c/u = Control / User Data


Standardization for IoT in Motion

Vision, scenarios, business models and performance requirements

bridging cellular and vehicular technologies for V2X services

› Detailing of ETSI ITS concepts and integration with Mobile Broadband services

› Strategy for massive adoption and rapid market uptake of new enabling technologies

New spectrum assignments for V2X applications

› Traffic models for comfort, autonomous driving

› Spectrum estimates

Reference Architecture and Sub-Systems (e.g. hybrid connectivity)

› New functional architecture leveraging SDN/NFV and multi-radio (linked to interworking)

› Interfaces between vehicles and X (smart phones, access points, etc.)

› Information Elements for any device types and multi-bearer parameters (QoS concept)

› Protocols and high level procedure for dual-mode mobility w/o network assistance

› Interworking between 11p and 5G/4G+,with multilink connection management

Thank you

www.huawei.com

Huawei proprietary – no spread without permission

Documents

On the Standards for Internet of Things in the 5G Contextdocbox.etsi.org/Workshop/2014/201407_IOTWORKSHOP/IoTinMOTION/… · On the Standards for Internet of Things in the 5G Context