Omniran-13-0064-00-0000 1 PtP Links across IEEE 802 Bridged Infrastructure Date: 2013-08-28 Authors: NameAffiliationPhone Max

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Presentation transcript:

Omniran PtP Links across IEEE 802 Bridged Infrastructure Date: Authors: NameAffiliationPhone Max Notice: This document does not represent the agreed view of the OmniRAN EC SG. It represents only the views of the participants listed in the ‘Authors:’ field above. It is offered as a basis for discussion. It is not binding on the contributor, who reserve the right to add, amend or withdraw material contained herein. Copyright policy: The contributor is familiar with the IEEE-SA Copyright Policy. Patent policy: The contributor is familiar with the IEEE-SA Patent Policy and Procedures: and. Abstract The presentation introduces the requirements of point-to-point links across bridged infrastructures and provides initial thoughts on potential solutions.

Omniran Point-to-Point Links across IEEE 802 bridged infrastructure (OmniRAN Gap Analysis) Max Riegel NSN

Omniran ToC Access Network Scenario –Further considerations References for Link Requirements Bridged Access Network Solutions –PtP Link Solution Approaches MAC-in-MAC MACsec Control Plane issues –Link Management during a session Conclusion

Omniran Access Network Szenario Point-to-point link behavior is required to –Enforce all traffic passing through the SSPN –Isolate terminal communication in a shared infrastructure Mobility support is required in the bridged infrastructure –Without impacting IP connectivity, i.e. IP session has to be maintained while moving Point-to-point link state signalling required towards SSPN SSPN A SSPN B SSPN = Subscription Service Provider Network

Omniran Further Considerations An access network may be deployed by multiple SSPNs –Making use of VLAN tag to segregate access domains An SSPN may deploy VLANs to differentiate services –E.g. setting up dedicated VLANs for data, guest and voice terminals Terminals being either end-stations or bridges eventually deploying (C-)VLAN –C-VLAN tag may be carried over to terminals Access network may be spotty and being spread across large areas –Making use of provider bridging to connect together disjunct access areas SSPN A SSPN B

Omniran References for Link Requirements 3GPP Trusted WLAN Access to EPC TS V ( ) –Support for non-seamless WLAN offload (NSWO) or single PDN connection into EPC –Definition of a WLAN Access Network, Trusted WLAN AAA Proxy Trusted WLAN Access Gateway –Requiring a point-to-point link between UE and Trusted WLAN Access Gateway across WLAN Access Network –Requiring also link state signaling of WLAN Access Network towards Trusted WLAN Access Gateway Very similar requirements exist also in other access networks carrying Ethernet frames between terminal and access router –E.g. WiMAX

Omniran Bridged Access Network Solutions supporting point-to-point link behavior STAAR/CtrlAP/BS PHY DLL IP Access Network Model – desired solution PHY DLL ETH IP GRE ETH Access Network Model – nowadays real world solution PHY ETH IP PHY DLL PHY ETH STAAR/CtrlGWAP/BS

Omniran PtP Link Solution Approaches Establish dedicated VLAN for each terminal –Q-in-Q Scalability issue, max 4094 ptp links may not be enough –MAC-in-MAC Seems to be feasible, for further study Establish secured connection for each terminal across bridged infrastructure –MACsec Seems to be feasible, for further study

Omniran MAC-in-MAC (Provider Backbone Bridging) Some Thoughts AP/BS effectively representing ‘BEB’ Link identified by B-SA + I-SID –B-SA uniquely correlated to terminal MAC address Would it work using terminal MAC as B-SA (C-SA = B-SA)? –B-DA represents access router peer –I-SID for further study; Mobility support by learning B-bridges How would link establishment be done? –Which protocol to use to dynamically configure PBBN? Link state signaling? Security threats by dangling entries in filtering database in B-bridge?

Omniran MACsec Some Thoughts MACsec establishes single hop across multiple bridges MACsec peers are terminal specific port in AP/BS and access router at the border of the access network Control protocol by 802.1X –EAP based establishment of security association How to tie with EAP based access authentication –Well defined link state management Mobility support? –Wouldn’t be a kind of r applicable to MAC sec ptp links? Scalability and performance issues –MACsec Ys well distributed on AP/BS side, however the entity at the access router peer may have to handle a huge number of sessions. –MACsec without confidentiality to keep performance requirements low?

Omniran Scope of IEEE 802 Medium Dynamic PtP Link management adds to the Control Plane Data Link Physical Network Transport Application Data Link Physical Access Network Terminal Data Link Physical Data Link Physical Network Transport Application Network Medium Core Service Data Link Physical Data Link Physical Data Link Physical Data Link Physical Scanning Network Selection Association Authentication Host Configuration Application User Plane Control Plane Link Establishment

Omniran Link Management during a session AAA Policy Configuration DHCPApplication ANQP Access Technology Control I/f Access Network Network Selection Accounting Disassociation Host Configuration Application Policy Control Application Host Config Release Accounting Authentication Authorization Association Scanning Link Establishment Link Mobility Link Teardown

Omniran Conclusion Point-to-point links across bridged infrastructures are feasible MACsec seems to provide the more promising approach for realization of ptp links –Well suited control protocol available by 802.1X –Works across any bridged infrastructure Creates single hop over multiple bridges –Well defined link state signaling and management –Further investigations necessary regards mobility support. Proposed next step: create a detailed functional description based on MACsec