TowardsNetwork 3.0 - NAMEX · What Academy really stand for? Akademos: outside the city wall of...

Towards Network 3.0 ?

Christoph Glingener

November 2017

NAMEX Academy

What Academy really stand for?

Akademos:Akademos: outside the city wall of Athens (387 BC)

Was the practice of bringing a number of intellectuals in a field to give talks

on their research allowing for a wider audience to be exposed to their ideas

Groups could have diverse and sometimes conflicting goals

© 2018 ADVA Optical Networking. All rights reserved. Confidential.22

Keep an open mind, learn and adapt yourself


Our HistoryGoing global

• Expansion in North America• Revenue >USD 250 millionGoing public

• FSE: ADV

Foundation of the company

1994 1999 2000 2006 2010 2013 2016 2020

Scaling the business

• >1500 employees• Revenue >USD 500 million• Award winning supply chain


Adding Ethernet

• First fiber-based Ethernet services

Strategic acquisitions

• Synchronisation• Software and virtualization

Open connectivity solutions for a connected world

Portfolio expansion

• Optical+Ethernet • Network automation

First product

• Metro-WDM for enterprise DCI

1

Towards Network 3.0 ?

Evolution of Connectivity Infrastructure


2

3

Underlying Key Technologies

Virtualization – SDN & NFV

© 2018 ADVA Optical Networking. All rights reserved. Confidential.66 © 2018 ADVA Optical Networking. All rights reserved. Confidential.6

Evolution of Connectivity Infrastructure

The Big Influences … Connectivity Drivers & Technologies

Exp

ect

atio

ns

Autonomous Vehicles

BlockchainCognitive Computing

Connectivity Drivers

Plateau in :

2 to 5 years

5 to 10 years

> 10 years

Connected Home

IoT Platform

Quantum Technologies

Serverless

Digital Twin

Smart Robots

Smart Workspace

Machine Learning

Edge Computing

Nanotube Electronics

Open Source

Open Platform, Disagg, White Boxes/Technologies


Exp

ect

atio

ns

Time

TechnologyTrigger

Peak of InflatedExpectiations

Plateau ofProductivity

Slope of EnlightenmentTrough ofDisillusionment

Based on Gartner Hype Cyclefor emerging technologies

July 2017

Virtual Reality

AugmentedReality

Artificial GeneralIntelligence

Human Augmentation

Smart Dust

ServerlessPaaS

Software-DefinedSecurity

5G

SDN

NFV

Cloud 3.0

EO - ICs

The Big Influences … Politics

OTT/Net Neutrality

Unbundling

Missed Connectivity Targets

Security !

Synchronization !


Synchronization !Min. 100 µs timing accuracy

The Big Vision

Public CloudsPrivate Clouds

Traditional Applications Cloud Applications SaaSDevices


Internet ContentProvider

Public CloudsPrivate Clouds

Enterprise Hosting/IXP

Communication Service Provider

Network

Sources : ADVA, VMWare

Cloud 1.0 Cloud 2.0

Towards Cloud 3.0

Cloud 3.0


Virtualization inEnterprise DCs

Based on : Google

Big DataVMsMiddle BoxesPlacement/Load Balancing/

SchedulingData Processing

Public CloudIaaS

Big ComputeApplicationsPolicyService Level ObjectiveActionable IntelligenceStorage DisaggreagtionSeamless TelemetryOpen Marketplace

AI for AllPaaS

Towards Network 3.0

Network 1.0

OTT Services

Network 2.0

Explosion of service typesVPNs delivered by overlay

Network 3.0


Dedicated Service Infrastructure

Physical Appliances / Switches

Physical Paths (incl. SDH/ATM)

Packet Services

Mobile drives growth

Appliances proliferate

TE/QoS

IPoOTN/WDM

Virtual Services

Cloud drives growth

Services are Apps

Network (incl. WDM) is dynamic transport (SDN)

Distributed Datacenters …

Scaling

Hyperscale DCs

Access/Edge Enterprise Co-location / CSPs Webscale / Hyperscale0 -> Infinite Massive, growing > 2000 Colo, >3000 CSP, growing >600, growing

X

Enterprise


Scaling

Metro-regional clusters

CORDM-CORD (Mobile)E-CORD (Enterprise)

CSPs - COs

VirtualizationMEC / FOG

X

… enable Distributed Compute

• ETSI based standardisation with wide operator and vendor support• Founding members include Vodafone, Docomo, Nokia, Huawei, Intel, IBM, …• Initially „Mobile Edge Computing“• Pushing compute towards small cells, WiFi, Media Gateways, End Devices• Applications : Connected gaming, connected car, industry automation, content delivery/manipulation

ETSI MEC (Multi-Access Edge Computing)

OpenFog Consortium


• IoT oriented, moving functionality to the edge• Founding members include Cisco, ARM, Dell, Microsoft, Princeton University• Distributed compute, storage and networking anywhere

OpenFog Consortium

• API and application development• Verizon, Vodafone, Intel, Nokia, Huawei, Crown Castle, Carnegie Mellon

Open Edge Computing

Access and Backhaul driven by Mobile Requirements

User


Cable“Analog Fiber”

Fiber Node

CoaxCMTS

AnalogTV

Analog TX

Analog OpticalTransmissionDOCSIS

Distribution HubsCoax

Distr-butedCCAP

RPD

10 Gb/s

DWDM

Core

D-Hub

Cable“Digital Fiber” Headend

>100 Gb/s >1 Tb/s


User

Copper (yes, it still exists …)

DSLAMCopperCMTS

Ethernet, xWDM DWDM

FTTX / PON Splitter

CMTSxPON or Ptp DWDM



Distr-butedCCAP

RPD

10 Gb/s

DWDM

Core

D-Hub


>100 Gb/s >1 Tb/s

DSLAMCopperCMTS

AnalogTV

Metro

Ethernet, xWDM

xDSL … G.Fast

DWDM

1 .. Nx10 Gb/s100 Gb/s … > 1Tb/s1 … 10/25 Gb/s

CMTS

AnalogTV

Metro

DWDM

Nx10/25 Gb/s 100 Gb/s … > 1Tb/s


FTTX / PON Splitter


User MobileBBU

CMTS

AnalogTV

Metro

Aggregation Core

10 … 25 Gb/s

Mobile Overlay

SC/RRH

CMTS

AnalogTV

Metro

DWDM

> 100 Gb/s 100 Gb/s … > 1Tb/s

vBBU vEPC

Ethernet … eCPRI… NGFI … TSN

SDN/NFV… MEC



Distr-butedCCAP

RPD

10 Gb/s

DWDM

Core

D-Hub


>100 Gb/s >1 Tb/s

1 … 10/25 Gb/s

CMTS

AnalogTV

Metro

DWDM

Nx10/25 Gb/s 100 Gb/s … > 1Tb/s


FTTX / PON Splitter


User

10 … 25 Gb/s

Mobile Overlay

SC/RRH

CMTS

AnalogTV

Metro

DWDM

> 100 Gb/s 100 Gb/s … > 1Tb/s

vBBU vEPC

Ethernet … eCPRI… NGFI … TSN

SDN/NFV… MEC

ManageabilitySDN/NFV/xaaS

ScalabilityEdge Datacenters

Security

Requirements

Use Case Latency Bandwidth Device density Mobility

Fatory automation 0,25 … 10 ms 3…100 KB/s 0,33 … 3 devices/m2 < 30 km/h

Process automation 50 … 100 ms 0,02 … 1 KB/s 10000 devices/plant < 5 km/h

Smart grids 3 … 20 ms 1 … 100 KB/s 10 … 2000 devices/km2 0

Road safety urban 10 … 100 ms < 5 KB/s 3000 devices/km2 < 100 km/h

Level Time error Application

1 500 ms Billing, alarms

2 100 µs IP delay monitoring

3 5 µs LTE TDD (large cell)

4 1,5 µs LTE TDD (small cell)



Distr-butedCCAP

RPD

10 Gb/s

DWDM

Core

D-Hub


>100 Gb/s >1 Tb/s

1 … 10/25 Gb/s

CMTS

AnalogTV

Metro

DWDM

Nx10/25 Gb/s 100 Gb/s … > 1Tb/s

Synchronization (e2e)1,5 µs … 500 ns … 65 ns

Latency (e2e)100 … 20 … 1 ms

BandwidthAccess : 1 … 10 …25 Gb/sAggregation : > 100 Gb/s

Metro : 0,1 … > 1Tb/s

Road safety urban 10 … 100 ms < 5 KB/s 3000 devices/km2 < 100 km/h

Road safety highway 10 … 100 ms < 5 kB/s 500 devices/km2 < 500 km/h

Urban intersection < 100 ms 1 MB/s per car 3000 devices/km2 < 50 km/h

Traffic efficiency < 100 ms 1 KB/s 3000 devices/km2 < 500 km/h

Professional audio 2 ms … 2 MB/s Up to 1 device/m2 < 5 km/h

IoT Applications, Source : IEEE Communications Magazine

4 1,5 µs LTE TDD (small cell)

5 1 µs Wimax-TDD

6 500 ns LTE-A

6A 260 ns Non-contiguous carrier aggregation

6B 130 ns Contiguous carrier aggregation

6C 65 ns MIMO, TX diversity

E2e synchronization requirements, ITU G.8271

Evolution of Services Driving new Opportunities

Web 3.0individualized, intelligent

Web 2.0Interactive

Web 1.0static, read-only

Private / Web

Big ComputeApplication driven, xaaS

Big DataHybrid Clouds, VMs

Virtualization in Enterprise DCsstatic, read-only

Enterprises

Connectivity

BandwidthSecure DCISecure cloud accessxaaS

BandwidthSecurity


static, read-only static, read-onlyConnectivityServices

5Gmore than mobile !

virtualized, distributed …

4GExtended úse cases

4G / 5G

BandwidthSync(aaS)SecurityMECxaaS ?

Explosion of Devicesand use cases

IoT

ScalabilityLatencySecurityFog ComputingxaaS ?

The Future of Connectivity

Orc

hes

trat

eA

nal

ytic

s to

AI

Dis

agre

gat

eO

pen A

PIs

Virtualize Everything : Networking & Services

Cloud Extension


ICPEnterprise Hosting/IXPCSP

Auto

mat

e/O

rches

trat

efr

om

Anal

ytic

s

Dis

agre

gat

eO

pen A

PIs

Flexible Bandwidth (L1 … L3-)Enabling/Assuring Security, Latency, Sync, …

CloudInterconnect

CloudAccess

Enable/Provide Distributed DCs, XaaS …

Virtualize Everything : Networking & Services


Underlying Key Technologies

How do we do this? Connectivity …

Cell Site 1st Mile 2nd Mile Aggregation Cor


WD

MO

TN

400G … 1T 3,2T … x00T

SH OLS LH OLS 600G/l10G/l

L2+

Cell Site 1 Mile 2 Mile Aggregation Cor

Ass

ura

nce

How do we do this? Capacity over Fiber …

• Capacity x Reach is saturating• What is next ?

Transponder Evolution Cost proportional to Power ?


Source : Google, 2017 Source : ADVA

How do we do this? Components,Infrastructure…Silicon, Compute

CPU (multi-core)GPUMerchant x nm

xPU (specialized)FPGAMerchant


7 nm2018+

MerchantFPGA

16+ nm<2017 ASIC

MerchantFPGA

x nm2,5D/3D/HBM2021+

How do we do this? Components,Infrastructure…Silicon, Compute

CPU (multi-core)GPUMerchant x nm

xPU (specialized)FPGAMerchant

Photonics, PICs, OEICs

2019

QSFP-DD(OSFP)

400G ZR (80km)

COBO

30% 70%

Source : Acacia, 2017

Limits: IO, Power Density / Heat Dissipation


7 nm2018+

MerchantFPGA

16+ nm<2017 ASIC

MerchantFPGA

x nm2,5D/3D/HBM2021+

SFP+ 10G2006

QSFP/CFP 40/100G2011

QSFP28 100G2016

Limits: IO, Power Density / Heat Dissipation

How do we do this? Components,Infrastructure …Silicon Photonics, OE Integration

• Make OE-ICs easy to manufature and integrate

Pluggable Aggregation

MicroMux™ nx100G MegaMux™


• Liquid Cooling

Concepts & Prototype

Advanced CoolingPluggable DCO Modules

CFP2-DCO

400G-ZR

DCI is Moving to Coherent

400G ZR Project

• Single carrier digital coherent 400G• Single channel ZR applications• DWDM applications up to 120km • PMD compatible with 400G-AUI.• Other formats could also be considered


3.6Tb/s in 1 Rack Unit600Gb/s per l

• Other formats could also be considered• Target: pluggable modules

DCI: Data Center Interconnect

• Key parameters: constellation & baud rate

• Key impairments: receive OSNR & spectral shaping due to ROADM cascades

Next Generation Transmission Formats


Preliminary

How do we do this? Disaggregation and White Boxes …

Disaggregation of Line Systems

Open Line SystemOpen Line System

APIAPI API

APIAPI APIAPI

Dis

gg

reg

ate

d

Disaggregation of HE/SW, WB

SW(Connector)

Need the „Integration of Disaggregation“ ?


Open Line SystemOpen Line System

Ag

gre

gate

d

End to End System

API

…

Dis

gg

reg

ate

d

WB HW

Need the „Integration of Disaggregation“ ?

How do we do this? Disaggregation and White Boxes …

OTN O-LEAFTIP

TIP Transport TIP vRAN Disaggregated, scalable white box OTN-XC


Cloud OS on White Box SwitchesLow cost plugable & Edge Devices

Soho/SMB uCPE

How do we do this? End-to-end Synchronization …

Ass

ura

nce

Syn

c Cell Site 1st Mile 2nd Mile Aggregation CorCell Site 1st Mile 2nd Mile Aggregation Core

Virtu

al

Virtual Sync Delivery and Assurance


GMSlave

Optical Timing ChannelOTN Delay OptimizationCSG/Aggregationintegr. Edge GM

L1/2

Syn

cA

ssura

nce

Ded

icat

ed

Syn

c Cell Site 1 Mile 2 Mile Aggregation CorCell Site 1 Mile 2 Mile Aggregation Core

ePRC / ePRTCPTP GMPTP GM

How do we do this? Security …

E2E ServicesV

irtu

al

Secure Cloud Access

Co

mm

on S

ecu

rity

Mg

mt

Cert

ified

So

lutio

ns


OTN

Physical Connectivity

MA

C+

E2E Services

Co

mm

on S

ecu

rity

Cert

ified

So

lutio

ns

How do we do this? Quantum-Safe Cryptography

Quantum-Safe Cryptography

• Combine

• Computational security

• Quantum Resistant Algorithm (QRA)

• Information theoretic security

• Quantum Key Distribution (QKD)

• Available soon ?

• All currentpublic-key

Quantum Computer


AESPublic channel

Secret key

Alice Bob

DH DH

NR NRQuantum-safe

QKD QKD

Uncond. Security, add. HW

+Established

+

AES

Secret key

• Quantum Key Distribution (QKD)public-keycryptographyuseless?

• Decrypt storeddata?


Virtualization – SDN and NFV

How do we do this? Virtualization & Automation …

NFV

NFVI

NFV MANO NFV MANO

Multi-Domain, Multi-VendorEMS/NMS

Cloud SDN Control

Cloud Orchestration and Automation

Clo

ud

To

uch

In

tend

-base

dTele

met

rie

AI/

ML

Analy

tics


L1/2

L3SD

N

IP Domain Controller

Transport Abstraction

Multi-Domain, Multi-Vendor

SDN Control and Orchestration

DC Orchestration

Cloud SDN Control

Zero

-To

uch

st

ream

ing

Tele

met

rie

AI/

ML

Analy

tics

How do we do this? Automation – From Structure to Chaos


„The Open Platform War is like a modern Denial-Of-Service Attack“Daniel King, ODC


Software Defined Networking

Heavy Reading‘s Carrier SDN Service Provider Perspectives


Automated Multi Layer SDN for faster Service Deployment

Cloud-based hosting services require real-time connections

Self-provided bandwidth services

but

Service Requirements

Key Driver #1: Operational Efficiency

B A C DNMSOSS

Activation


but

NMS islands with manual cross-domain co-ordination

Time-consuming planning, activation and assurance processes

Service innovation requires automated connectivity life-cycle management

Layered architecture featuring open interfaces and automated control

Technology specific domain controllers and overarching multi-domain

Multi-Layer SDN Solution

Key Driver #2: Open, Separated, Standardized

SDN Domain Controllers

Orchestrator, Multi-Domain SDN Controller

Common T-API


and overarching multi-domain orchestration

Resource discovery by topology services, activation by connectivity service

Multi-domain, multi-layer control featuring open interfaces

Key Driver #3: New Service Opportunities

EnablersSDN

NMS / CP / SDNNMS / CP / SDN

Tenant B cloud

Tenant C cloudTenant A cloud

DC Connectivity

Cloud Bursting

Secure Multi-Tenancy

Abstraction

Virtualization

Open APIs


DC Site 1DC Site 1

MAN / WANMAN / WAN

DC Site NDC Site NEnterpriseEnterprise

Secure Multi-Tenancy

Multi-Layer Optimization

Optical VPN

Open APIs

1TB Data Transfer

Speed Duration

10G 15 min

1G 2.5h

100M 1 day

Transport SDN turns the Transport Network into a programmable Resource

Control Layer

Transport SDN ArchitectureApplication

Layer

NBI / APIs

Cloud Orchestrator

Network Orchestrator

StorageCompute

Parent Controller

• Diverse applications• Planning, optimization, services,

etc.

• Common framework‐

Common APIs


DomainController

DomainController

DomainController

Infrastructure Layer

SBI

Domain 1 Domain 2 Domain 3

NE NE NE NE NE NE NE NE NE

• Common framework• Multi‐vendor NW SW

• Routing, Resiliency

• Standard, programmatic interfaces across layers

• Open/common device data models

Standard Interfaces

Open Platform

SDN APIs

• Inventory reporting Hardware, Services, Topology

• Inventory reporting Hardware, Services, Topology

CSV

• Full configuration and monitoring

• Fault Reporting (via web sockets)


• Fault Reporting (via web sockets)

REST

• Fault reporting (Traps)

• PM retrieval (limited)

• Fault reporting (Traps)

• PM retrieval (limited)

SNMP


Hardware, Services, Topology

• Fault Reporting

• Performance monitoring

Hardware, Services, Topology

• Fault Reporting

• Performance monitoring

• Inventory reporting

• Service/traffic configuration

• Performance Monitoring

• Inventory reporting

• Service/traffic configuration

• Performance Monitoring

XML (MTOSI)


• Notifications


• Notifications

NETCONF


• Notifications


• Notifications

RESTCONF

• Focus on IP / Optical Interworking• Representation for path computation• Generic topology (TE topology)• Has to be augmented for specific devices

• WSON• Flexi-grid

• Supports overlays (virtual networks) and SRLGs

• Focus on Transport Networks• Services

• Topology discovery• Connectivity management• Path computation• Virtual networks• Notifications

• Interface between hierarchical controllers

IETF TEAS TE Topology

YANG Data Models

ONF Transport-API

Netw

ork

Sco

pe


• Device configuration• Variety of technologies• Partially disagregatied model• No topology view• Good performance monitoring• Strong consortium of operators and

service providers

• Focusing on ROADMs• Detailed equipment model• Topology modeled• Path computation and wavelength

assignment• Flexi-grid currently not supported• Vendor-driven consortium

• Interface between hierarchical controllers

AT&T OpenROADMGoogle OpenConfig

Deci

veSc

op

e • Focus on Device Scope• Large SDO support:

ITU-T G.874.1/G.8052, BBF, MEF, IEEE, IETF

• Extension for technogy specific applications

ONF Core Model

Aggregated and Disaggregated NetworksA

gg

reg

ated

Fully Aggregated: Entire transport network acts as a single managed system

End to End System

APIFSP Network Hypervisor

Transponder TransponderTerminal ILA ROADM Terminal

IETF TEAS TE Topology

ONF Transport-API


Fully Disaggregated: Everything is a separate network element

Partly Disaggregated: Transponder is one element, Open Line System (OLS) is second

Degrees

Open Line SystemOpen Line SystemDis

agg

reg

ated

APIAPI API

APIAPIAPI API API APIAT&T OpenROADM

Google OpenConfig

ONF Core Model

ONF Core Model

How do we do this? Recent SDN examples …

Commercial• Juniper NorthStar

• IETF API, Product version• Cisco NSO/WAE

• IETF API, Product version• NEC NetCracker

• ONF T-API, 2016 OIF interop• Ciena BluePlanet

SDN Controller Integration Telefonica Lab, July 2017

Optical Controller

Network Hypervisor

Optical Controller

Transport API


• Ciena BluePlanet• ONF T-API, 2016 OIF interop

• Sedona Orchestrator• ONF T-API, Demo version, OFC 2016

Open Source• OpenDaylight

• ONF CoreModel, ONF 4th WTP PoC 2017• ONOS

• ONF T-API 2.0, OFC 2017, TNC 2017

Controller HypervisorController

How do we do this? Virtualization & Automation …

• Application request defined as an intent• Translated to provisioning request @ rel. layer

Intend-based Orchestration ADVAlytics AI/ML Demo


Network Hypervisor


Network Function Virtualization

What Is Network Functions Virtualization (NFV)?

NFV brings the power of the cloud to telecom.

It enables users to replace closed appliances with their choice of software that can be hosted anywhere on their choice of hardware.


For success, we need change in 3 areas:

Zero Touch CommissioningSecurity and EncryptionManagement and UpgradesService AssuranceEmbedded Cloud

Flexible Networking at Layers 2 and 3Performance at CostScalability – Up and DownHardware Agnostic Universal CPE


Core technology is proven but challenges still remain in these key areas

OrganizationalBehavior

Multi-Vendor EcosystemsAgility and DevOpsFocus on speed and innovation

PublicCloud

#1

PublicCloud

What is needed? Virtual Networking

SD-WAN

Key:•• L2 Encryption OnlyL2 Encryption Only• L2 Encryption + Tunnel

On-NetBranch

HQ

•• L3 Encryption OnlyL3 Encryption Only• L3 Encryption + Tunnel

CEL2VPN


PrivateCloud

Cloud#2

SD-WANHybrid WAN

HybridBranch

Off-NetBranch

Branch

Public Internet

IP-VPN(MPLS)

What is needed? Cost, Scalability & Performance!

Pick the best deployment option for the application

Har

dw

are in

dep

end

ence

, p

ort

abili

ty a

nd

sca

lab

ility

Pure software(x86 or ARM)

Small uCPE SW & DPDK(x86 or ARM)


Har

dw

are in

dep

end

ence

, p

ort

abili

ty a

nd

sca

lab

ility

Performance Requirements (Throughput, Latency, etc.) and Cost

(x86 or ARM)

Large uCPE SW & SR-IOV

Data center Hybrid NIDSmart NIC

MEC, CORD

What is needed? Multi-Vendor Ecosystems

Operators and end-customers want ability to choose the appropriate vendor to meet their requirements

Insistence on different suppliers at each layer – no vendor lock-in

Requires cooperation between operator,


Requires cooperation between operator, suppliers AND customer

Raises importance of open, standard interfaces

Business case has to work for EVERYONE

Drawbacks of Current Approach

• Enterprise and residential services typically deployed on proprietary appliance-based solutions

• Cost considerations – CAPEX and OPEX

• Time to market, Lack of subscriber control

Benefits of uCPE

Key Use Case: Universal CPE (uCPE)


• Choice and flexibility of hardware (COTS) and software (VNFs)

• App Store model

• Rapid deployment & provisioning (ZTP)

• Bring Your Own Hardware

• Customer Control

• PaaS “Sandbox”

uCPE delivers on the promise of edge computing and edge virtualization

Drivers for SD-WAN

• Enterprises seek to reduce costs and increase control over network connectivity flexibility

• MPLS

• Low-cost Internet

• Wireless (3G/LTE)

CSPs can offer SD-WAN as a hosted managed service

Key Use Case: SD-WAN / SmartWANService Provider

HQ


CSPs can offer SD-WAN as a hosted managed service

• Supporting a variety of leading SD-WAN software vendors

Benefits of SmartWAN

Improved deployability via zero-touch integration

Best of breed VNFs in conjunction with SD-WAN

Common management framework for SD-WAN and other services

Future advanced networking embedded within Connector

Service Providers offer variety of managed networking options giving enterprises choice

BranchBranch

MPLS LTE Internet

Drivers for Cloud Connectivity

• CSP and Cloud Providers offer a variety of XaaS solutions

• Enabling enterprise content and apps migration into the cloud

• Traditionally solved with expensive and complex hardware solutions

Benefits of a Virtualized Solution

Cloud-Based Endpoints for multiple public cloud environments, appliance option

Key Use Case: Secure Cloud Connectivity


Cloud-Based Endpoints for multiple public cloud environments, appliance option

Dynamic Encrypted Networking

• Flexible encrypted mesh for policy-based secure VPNs

• Application-aware encryption at L2/L3/L4

Security with uCPE upgrades

Effective Cost Points – beats appliance models

Virtual encryption solution delivers high-performance, flexible secure cloud connectivity

Enterprise Connectivity is in the Dark Ages

Can order service, but you have to wait for connectivity

SP has to send a truck, a person and a box

Key Use Case: Wireless Connectivity

LTE

InitialDataPath


Leverage Wireless Access for Instant Access

Ship a COTS server to the site

Use LTE and zero touch to turn up service

When wireline connectivity is added, the LTE can be a backup

Wireless connectivity enables providers to deliver services instantly and on demand

WirelineDataPath

How do we do this? NFV Evolution and recent examples …

Virtualization Direction 5G Demo @ BT Labs, June 2017

NativeSD-WAN

IoT Gateway ?Mobile/MEC


ContainersLow cost GPUs

SecureCloudAccess Encryption

Assurance10G+

µCPEHybrid WANRouting, PolicyAnalytics

NFVIaaSIoT/FoG/MECAnalytics


The Future ?

… is coming fast !

Thank you

IMPORTANT NOTICE

The content of this presentation is strictly confidential. ADVA Optical Networking is the exclusive owner or licensee of the content, material, and information in this presentation. Any reproduction, publication or reprint, in whole or in part, is strictly prohibited.

The information in this presentation may not be accurate, complete or up to date, and is provided without warranties or representations of any kind, either express or implied. ADVA Optical Networking shall not be responsible for and disclaims any liability for any loss or damages, including without limitation, direct, indirect, incidental, consequential and special damages, alleged to have been caused by or in connection with using and/or relying on the information contained in this presentation.

Copyright © for the entire content of this presentation: ADVA Optical Networking.

[email protected]

TowardsNetwork 3.0 - NAMEX · What Academy really stand for? Akademos: outside the city wall of...

Documents

Transcript of TowardsNetwork 3.0 - NAMEX · What Academy really stand for? Akademos: outside the city wall of...