Summary of MAC Address policy contribution to IEEE

Slides:



Advertisements
Similar presentations
IPV6. Features of IPv6 New header format Large address space More efficient routing IPsec header support required Simple automatic configuration New protocol.
Advertisements

Submission doc.: IEEE /1357r3 Nov Slide 1 Dynamic TIM and Page Segmentation Date: Authors: Weiping Sun, Seoul National University.
1 K. Salah Module 5.1: Internet Protocol TCP/IP Suite IP Addressing ARP RARP DHCP.
Functions 1.  How long is MAC address?  How is mac address used in data communication?  What is a frame?  What does an IP address look like? 2.
Dean Cheng Jouni Korhonen Mehamed Boucadair
Privacy Extensions for Stateless Address Autoconfiguration in IPv6(RFC 3041) 1.
Doc.: IEEE /1253r0 Submission September 2014 Yunsong Yang, HuaweiSlide 1 Extending CAG Number Concept Date: Authors:
Copyright © 2006 by The McGraw-Hill Companies, Inc. All rights reserved. McGraw-Hill Technology Education Lecture 10 Advance Topics in Networking IPv6.
Computer Networks: Homework 1 Chapter 15: –Problem 14 –Problem 16.
© 2006 Cisco Systems, Inc. All rights reserved. BSCI v3.0—8-1 Implementing IPv6 Implementing Dynamic IPv6 Addresses.
IEEE Emergency Services DCN: Title: 802 Location Report Date Submitted: May 06, 2011 Presented at IEEE
Classful Internet Addresses Chapter 4. Universal Identifiers Designers of TCP/IP determined that each host on the internet would have a 32-bit identifier.
Dean Cheng 81 st IETF Quebec City RADIUS Extensions for CGN Configurations draft-cheng-behave-cgn-cfg-radius-ext
Doc.: IEEE /134r0 Submission March 2004 Peter Johansson (Congruent Software, Inc.)Slide 1 Project: IEEE P a Study Group for Wireless Personal.
3GPP SA2 SaMOG Status Document Number: Omniran Date Submitted: Source: Antonio de la Oliva UC3M *
1 K. Salah Module 5.1: Internet Protocol TCP/IP Suite IP Addressing ARP RARP DHCP.
1 Layer 3: Routing & Addressing Honolulu Community College Cisco Academy Training Center Semester 1 Version
FILS Reduced Neighbor Report
TBTT Information Field Type (TIFT) Clarification for P802.11REVmd
Data Communication and Networking CISCO – Discovery 1
Security Enhancement to FTM
WLAN Paging and Idle Mode
How to collect STAs’ Tx demands for UL MU
Service discovery architecture for TGaq
Scheduling for mmWave Distribution Networks
Chapter 26 IPv6 Addressing
Requirements and Implementations for Intra-flow/Intra-AC DiffServ
ANQP Service Discovery
WUR frame format – Follow up
Proposal for IEEE 802.1CQ-LAAP
May 2018 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [Considerations on general MAC frame] Date Submitted:
Short Slot Time Option for TGg
Proposal for IEEE 802.1CQ-LAAP
NOV 01 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [Application Specific Information Element] Date.
Scheduling for mmWave Distribution Networks
WUR frame format – Follow up
UL OFDMA-based Random Access Parameter Set (RAPS) element
Problem & Proposal for User Plane Support for QoS Mapping
Signaling for 11ay Spatial Sharing
Proposal for IEEE 802.1CQ-LAAP
FILS Reduced Neighbor Report
Robert Moskowitz, Verizon
IEEE MEDIA INDEPENDENT HANDOVER DCN: srho Title: New Protocol Header for IEEE c Date Submitted: May 16, 2012 Presented at IEEE.
May 2009 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [ 1-octet MAC Header frame types ] Date Submitted:
Robert Moskowitz, Verizon
doc.: IEEE /457 Mathilde Benveniste AT&T Labs, Research
January 2010 doc.: IEEE /0825r2 January 2010
MAC address assignment in IEEE through IEEE aq
MAC address assignment in IEEE through IEEE aq
MAPID for User Plane Support
Local Administrator Advertisements
San Diego 802.1CQ discussions
Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [MAC address assignment in IEEE
MAC address assignment in IEEE through IEEE aq
WUR frame format – Follow up
Management Frame Policy Definition
Current IEEE 802.1CQ Project status
Two step service discovery for TGaq
MAC Address Acquisition Protocol
MAC address assignment in IEEE through IEEE aq
Alignment of RLQP & ANQP
May 2018 Project: IEEE P Working Group for Wireless Personal Area Networks (WPANs) Submission Title: [Considerations on general MAC frame] Date Submitted:
Requirements and Implementations for Intra-flow/Intra-AC DiffServ
Block Addressed WUR Frame
MAC Address Acquisition Protocol
Dynamic TIM and Page Segmentation
Media Independent Handover
Antonio de la Oliva (UC3M)
Assignment of Temporary Addresses
Proposed liaison to IEEE 1722 Working Group
Presentation transcript:

Summary of MAC Address policy contribution to IEEE 802.11 Antonio de la Oliva (IDCC, UC3M) Roger Marks (EthAirNet Associates)

Main ideas Define ANQP element to transport information on the kind of addressing supporting by the network Define Beacon element to transport information on the kind of addressing supported by the network

MAC Address Prefix Bytes ANQP element Bit 0, when set to 1, represents the support of EUI addresses, as specified in IEEE Std 802. Bit 1, when set to 1, represents the support of ELI addresses, as specified in IEEE Std 802, incorporating IEEE Std 802c- 2017. Bit 2, when set to 1, represents the support of SAI addresses, as specified in IEEE Std 802, incorporating IEEE Std 802c- 2017. Bit 3, when set to 1, indicates the availability of a Local Adddress Assignment Protocol (LAAP) server, per IEEE Std 802.1CQ. The LAAP protocol will provide the STA with a local MAC address assignment or a set of allowed local MAC address assignments. Bit 4, when set to 1, indicates support for self-assignment, using the MAC address prefix specified in the MAC Address Prefix field. This indicates support for local addresses formed by extending the MAC address prefix to 48 bits. Bit 5 indicates that specific MAC addresses pre-configured by the administrator are supported. Bits 6-7 are reserved.   Info ID Length MAC Address Policy Policy Flags MAC Address Prefix Bytes Octets: 2 1 0–6 Bitmap value Description Bit 0 (MSB) EUI-48 supported Bit 1 ELI-48 supported Bit 2 SAI-48 supported Bit 3 LAAP Server assignment Bit 4 Self-Assignment using specified MAC Address Prefix Bit 5 Pre-configured administered address Bit 6 Reserved Bit 7

Policy Flags The Length of MAC Address Prefix Bytes subfield is a subfield of 3 bits. When the Length of MAC Address Prefix subfield is set to one of the values of 1–6, that value indicates the length (in octets) of the MAC Address Prefix Bytes field. The Length of MAC Address Prefix Bytes subfield is not set to 0 or 7; those values are reserved. The Prefix Trim subfield is a subfield of 3 bits and takes one of the values of 0–7, that value indicating number of bits to be truncated from the end of the MAC Address Prefix subfield in order to obtain the MAC Address Prefix. In other words, the MAC Address Prefix is represented as the value of the MAC Address Prefix Bytes field after truncation of some of the most significant bits of the last octet, with the number of truncated bits equal to the value of the Prefix Trim subfield. The bit and octet ordering of the MAC Address Prefix is per Figure 9-1 (Representation of a 48-bit MAC address).   B0 B2 B3 B5 B6 B7 Length of MAC Address Prefix subfield (bytes) Prefix Trim subfield (bits) Reserved Bits: 3 2

Beacon Element Same information as the ANQP Element Do not contain the MAC range, in order to reduce the size of the beacon   Element ID Length Element ID Extension MAC Address Policy