steinar@transpacket - Uninett SW 100G Optical transceiver Module CFP 100G Optical transceiver Module...

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Status update and future plans [email protected]

Transcript of steinar@transpacket - Uninett SW 100G Optical transceiver Module CFP 100G Optical transceiver Module...

Status update and future plans

[email protected]

TransPacket H1 – the first Fusion product

Fusion Packet optical networking node‒2 x 10 Gigabit Ethernet line-interfaces

‒10 x 1 Gigabit Ethernet client-interfaces

Optional passive or active optical module– Optical multiplexer and add/drop variants

GbE10GbE Optional optical module

- Channels (“virtual wavelengths”) with circuit performance: Fixed latency, low latency, zero packet loss. New level of performance for packet switching.

- Several virtual wavelengths in a wavelength (sub-wavelengths)

- Statistically multiplexed traffic on top. Throughput efficiency similar to packet networks

FUSION main characteristics

UNINETT SDN-FUSION Use-case proposal

H 100

20 X 10GE

100GOTN

100GOTN

H 100

20 X 10GE

100GOTN

100GOTN

H100

20 X 10GE

100GOTN

100GOTN

User-access Through anycast

Dedicated 100Gb/s wavelengths

SDN

SDN SDN

TransPacket H100 product planned prototype

H100

100G 100G

20 X 10GE inputs

H100 Block diagram

TransPacketFUSION-100G

FPGA

ProcessorTransPacket

SDN-enabled controlNETCONF SW

100GOptical

transceiver Module

CFP

100GOptical

transceiver Module

CFP

10G SFP+

10G SFP+

1

20

20 X 10GE

Functionality available in H1: Configurable through Netconf

Functionality recently added:

- Virtual wavelength add/drop (ECOC 2015 paper)

- Ultra-fast ring-protection (Microsecond range)

Status of project

100G traffic running in demo-board

100G development

TransPacket H100 planned first prototype

H1 functionalityNetconf configuration

100 Gb/s line-interfaces

H100

100G 100G

8 X 10GE inputs

- Controlling wavelengths (as flows) rather than packet flows

- No inspection of packet headers

- More a control and management of the optical network

- Control of the optical networks wavelengths and the packet switched network using the same controller

What is SDN at the optical layer?

SDN optical network example (ECOC2014)

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SDN and FUSION

- Controlling “virtual wavelengths” similar to SDN control of wavelengths

- Controlling Statistically multiplexed channels

- SDN controller communicating through Netconf

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Suitable project for e.g. research council (NFR)

support?- Application of SDN-FUSION must be

defined.

- SDN control of FUSION nodes + servers + switches ++ ?

- Testbed demonstrating an application using a common controller?

- Application: Setup/moving virtual machines and their connectivity?

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NETCONF

OpenFlow

100G Fusion nodes

Netconf on the SDN controller for Fusione.g. inter-DC connectivity.

Netconf server on the Fusion nodes

SDN Controller

OpenFlow on the SDN controller e.g. for the intra-DC connectivity.

OpenFlow

8 x 10G add/dropor 16 x 10G

SDN Controller (any)NETCO

NFOpenFlo

w

Northbound interface (any)

100G Fusion

8 x 10G add/dropor 16 x 10G

Servers(or DCN gw router for

inter-DCN)

Out-of-band SDN

Client app.Client application asking for resource

allocation:GST and SM based on service QoS and/or

lifetime.

Netconf client on the SDN controller

Netconf server on the Fusion nodes

E.g. OpenFlow used to control packet-based domains (server). E.g.

assigning vlan tags to the streams SM

or GST before entering Fusion,

configuring Fusion with these vlans.

Anyone interested?

- Applying NFR for BIA-project?

- EU-project or similar?

- Ph.D. student at NTNU – Telematics?

- Properly defining applications and goals

- Experimental testbed at UNINETT?

- FUSION nodes from TransPacket?

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