scnp a protocol for automatic decentralized and scalable
play

SCNP: A protocol for automatic, decentralized and scalable IP - PowerPoint PPT Presentation

Mar 12, 2024 •357 likes •547 views

Motivation Our Solution Summary SCNP: A protocol for automatic, decentralized and scalable IP network configuration T. Delaet Department of Computer Science K.U.Leuven IFIP/IEEE International Workshop on Self-Managed Systems & Services,

  1. Motivation Our Solution Summary SCNP: A protocol for automatic, decentralized and scalable IP network configuration T. Delaet Department of Computer Science K.U.Leuven IFIP/IEEE International Workshop on Self-Managed Systems & Services, 2005 Thomas Delaet SCNP

  2. Motivation Our Solution Summary Outline Motivation 1 Problem statement Related Work Our Solution 2 Main Results Evaluation Thomas Delaet SCNP

  3. Motivation Problem statement Our Solution Related Work Summary Outline Motivation 1 Problem statement Related Work Our Solution 2 Main Results Evaluation Thomas Delaet SCNP

  4. Motivation Problem statement Our Solution Related Work Summary Network configuration in home networks Home network model Hybrid form of ad-hoc and enterprise networks Mobile and relatively stable parts Different subnets (different networking hardware) Self-configured protocol is necessary Problem No currently existing network configuration protocol can handle these kind of home networks Thomas Delaet SCNP

  5. Motivation Problem statement Our Solution Related Work Summary Network configuration: Functional requirements Functional Requirements Initial Autoconfiguration Routing Address Uniqueness Guarantee Thomas Delaet SCNP

  6. Motivation Problem statement Our Solution Related Work Summary Network configuration: Non-Functional requirements Functional Requirements Scalability (in a subnet, between subnets) Decentralization Self-configuration Thomas Delaet SCNP

  7. Motivation Problem statement Our Solution Related Work Summary Outline Motivation 1 Problem statement Related Work Our Solution 2 Main Results Evaluation Thomas Delaet SCNP

  8. Motivation Problem statement Our Solution Related Work Summary Link-local network configuration Link-local network configuration Fully automatic protocols exist (AutoIP , Zeroconf-stack, IPv6 Stateless Autoconfiguration) No scalability between subnets No routing Thomas Delaet SCNP

  9. Motivation Problem statement Our Solution Related Work Summary Scalable network configuration Scalable network configuration DHCP , IPv6 Stateless Autoconfiguration No self-configuration + Extra routing protocol Thomas Delaet SCNP

  10. Motivation Main Results Our Solution Evaluation Summary Outline Motivation 1 Problem statement Related Work Our Solution 2 Main Results Evaluation Thomas Delaet SCNP

  11. Motivation Main Results Our Solution Evaluation Summary IPv6 Address Configuration Subnet identifier uniqueness (between routers) Interface identifier uniqueness (link-local) Thomas Delaet SCNP

  12. Motivation Main Results Our Solution Evaluation Summary Routing Routing Routing Protocol: OSPFv3 All parameters can be automatically generated Thomas Delaet SCNP

  13. Motivation Main Results Our Solution Evaluation Summary Duplicate Detection Duplicate Detection Interface identifier: IPv6 Stateless Autoconfiguration protocol Subnet identifier: Trigger from Routing algorithm Old subnet identifiers are discarded Process of initial network configuration is repeated Thomas Delaet SCNP

  14. Motivation Main Results Our Solution Evaluation Summary Thomas Delaet SCNP

  15. Motivation Main Results Our Solution Evaluation Summary Outline Motivation 1 Problem statement Related Work Our Solution 2 Main Results Evaluation Thomas Delaet SCNP

  16. Motivation Main Results Our Solution Evaluation Summary Evaluation Functional Requirements Initial autoconfiguration: IPv6 Stateless Autoconfiguration protocol + messages for generating unique subnet identifiers Routing: OSPFv3 Address Uniqueness Guarantee: hook in routing algorithm + collision message Thomas Delaet SCNP

  17. Motivation Main Results Our Solution Evaluation Summary Evaluation Non-functional requirements Scalability: Upper limit of routing algorithm Decentralization: All routers keep information about all other subnets Self-configuration: subnet and interface identifiers are automatically generated + validated, routing algorithm is dynamic Thomas Delaet SCNP

  18. Motivation Our Solution Summary Summary Glue between IPv6 Stateless Autoconfiguration protocol and routing algorithm Added value Generation of unique subnet identifiers Collision reporting Thomas Delaet SCNP

Download Presentation
Download Policy: The content available on the website is offered to you 'AS IS' for your personal information and use only. It cannot be commercialized, licensed, or distributed on other websites without prior consent from the author. To download a presentation, simply click this link. If you encounter any difficulties during the download process, it's possible that the publisher has removed the file from their server.

Recommend

Secure Scuttlebutt: An Identity-Centric Protocol for Subjective and Decentralized Applications

Secure Scuttlebutt: An Identity-Centric Protocol for Subjective and Decentralized Applications

Secure Scuttlebutt: An Identity-Centric Protocol for Subjective and Decentralized Applications Dominic Tarr (SSB, New Zealand) Erick Lavoie (McGill University, Montreal) Aljoscha Meyer (TU Berlin, Germany) Christian Tschudin (U of

501 views • 18 slides
G-PBFT: A Location-based and Scalable Consensus Protocol for IoT-Blockchain Applications

G-PBFT: A Location-based and Scalable Consensus Protocol for IoT-Blockchain Applications

G-PBFT: A Location-based and Scalable Consensus Protocol for IoT-Blockchain Applications Contents Introduction Problem Statement Protocol Design Performance Analysis Conclusion 2 Introduction Blockchain

430 views • 20 slides
Multithreaded Geant4: Semi-Automatic Transformation into Scalable Thread-Parallel Software Xin

Multithreaded Geant4: Semi-Automatic Transformation into Scalable Thread-Parallel Software Xin

Multithreaded Geant4: Semi-Automatic Transformation into Scalable Thread-Parallel Software Xin Dong 1 , Gene Cooperman 1 , and John Apostolakis 2 1 College of Computer Science, Northeastern University, Boston, MA 02115, USA { xindong,gene }

584 views • 12 slides
Implementation of a robust and scalable consensus protocol for blockchain Raphal Dunant DEDIS

Implementation of a robust and scalable consensus protocol for blockchain Raphal Dunant DEDIS

Implementation of a robust and scalable consensus protocol for blockchain Raphal Dunant DEDIS lab Supervisors: Linus Gasser, Eleftherios Kokoris-Kogias Responsible: Prof. Bryan Ford Proposal cosigning Time or timestamp services

582 views • 15 slides
Summary Cache: A Scalable Wide-Area Web Cache Sharing Protocol Li Fan, Pei Cao and Jussara

Summary Cache: A Scalable Wide-Area Web Cache Sharing Protocol Li Fan, Pei Cao and Jussara

Summary Cache: A Scalable Wide-Area Web Cache Sharing Protocol Li Fan, Pei Cao and Jussara Almeida University of Wisconsin-Madison Andrei Broder Compaq/DEC System Research Center Why Web Caching One of the most important techniques to

306 views • 18 slides
Automatic training example selection for scalable unsupervised record linkage Peter Christen

Automatic training example selection for scalable unsupervised record linkage Peter Christen

Automatic training example selection for scalable unsupervised record linkage Peter Christen Department of Computer Science, The Australian National University, Canberra, Australia Contact: peter.christen@anu.edu.au Project Web site:

392 views • 16 slides
CCTCP: A Scalable Receiver-driven Congestion Control Protocol for Content Centric Networking

CCTCP: A Scalable Receiver-driven Congestion Control Protocol for Content Centric Networking

CCTCP: A Scalable Receiver-driven Congestion Control Protocol for Content Centric Networking Lorenzo Saino, Cosmin Cocora and George Pavlou Communications and Information Systems Group Department of Electrical and Electronics Engineering

500 views • 13 slides
A Scalable Password-based Group Key Exchange Protocol in the Standard Model David Pointcheval

A Scalable Password-based Group Key Exchange Protocol in the Standard Model David Pointcheval

A Scalable Password-based Group Key Exchange Protocol in the Standard Model David Pointcheval cole normale suprieure & CNRS Joint work with: Michel Abdalla Authenticated Key Exchange (AKE) Goal: Secure channel Allows two parties

283 views • 12 slides
Scalable in-memory checkpoint for hard and soft error protection with automatic restart on failure

Scalable in-memory checkpoint for hard and soft error protection with automatic restart on failure

Charm++ Workshop Scalable in-memory checkpoint for hard and soft error protection with automatic restart on failure Xiang Ni Parallel Programming Laboratory University of Illinois at Urbana-Champaign May, 2013 1 / 25 Charm++ Workshop Fault

778 views • 28 slides
Automatic Discovery of Evasion Vulnerabilities Using Targeted Protocol Fuzzing

Automatic Discovery of Evasion Vulnerabilities Using Targeted Protocol Fuzzing

Automatic Discovery of Evasion Vulnerabilities Using Targeted Protocol Fuzzing antti.levomaki@forcepoint.com opi@forcepoint.com WHO? ANTTI LEVOMKI OLLI-PEKKA NIEMI Research Scientist Director of Research WHAT? NETWORK EVASIONS +

463 views • 18 slides
Reliable Adaptive Lightweight Multicast Protocol Ken Tang, Scalable Network Technologies Katia

Reliable Adaptive Lightweight Multicast Protocol Ken Tang, Scalable Network Technologies Katia

Reliable Adaptive Lightweight Multicast Protocol Ken Tang, Scalable Network Technologies Katia Obraczka, UC Santa Cruz Sung-Ju Lee, Hewlett-Packard Laboratories Mario Gerla, UCLA Overview Ad hoc network introduction QualNet network

246 views • 21 slides
Comparing State Spaces in Automatic Security Protocol Verification Pascal Lafourcade & Cas

Comparing State Spaces in Automatic Security Protocol Verification Pascal Lafourcade & Cas

Comparing State Spaces in Automatic Security Protocol Verification Comparing State Spaces in Automatic Security Protocol Verification Pascal Lafourcade & Cas Cremers Comparing State Spaces in Automatic Security Protocol Verification

831 views • 45 slides
Scalable Routing Easy as PIE: a Practical Isometric Embedding Protocol Julien Herzen (EPFL) joint

Scalable Routing Easy as PIE: a Practical Isometric Embedding Protocol Julien Herzen (EPFL) joint

Scalable Routing Easy as PIE: a Practical Isometric Embedding Protocol Julien Herzen (EPFL) joint work with Cedric Westphal (Huawei Innovations) Patrick Thiran (EPFL) October 18th, 2011 1 / 18 Internet routing has a scalability problem from

624 views • 39 slides
What is i i KP KP? ? i KP i KP: : i i - -Key Key- -Protocol Protocol What is i

What is i i KP KP? ? i KP i KP: : i i - -Key Key- -Protocol Protocol What is i

What is i i KP KP? ? i KP i KP: : i i - -Key Key- -Protocol Protocol What is i -Key-Protocol, i = 1, 2, 3, Family of protocols Secure electronic payment Based on credit card payments Christopher Hsu Can be extended

407 views • 4 slides
Automatic Network Protocol Analysis Gilbert Wondracek, Paolo Milani Comparetti, Christopher

Automatic Network Protocol Analysis Gilbert Wondracek, Paolo Milani Comparetti, Christopher

Secure Systems Lab Technical University Vienna Automatic Network Protocol Analysis Gilbert Wondracek, Paolo Milani Comparetti, Christopher Kruegel and Engin Kirda pmilani@ sssup.it gilbert@ seclab.tuwien.ac.at chris@ cs.ucsb.edu engin.kirda@

606 views • 28 slides
Automatic Generation of Network protocol gateways David Bromberg, Laurent Rveillre, Julia

Automatic Generation of Network protocol gateways David Bromberg, Laurent Rveillre, Julia

Automatic Generation of Network protocol gateways David Bromberg, Laurent Rveillre, Julia Lawall and Gilles Muller LaBRI University of Bordeaux Ubiquitous environment 2 LaBRI Heterogeneous protocols 3 LaBRI Gateways for providing

671 views • 55 slides
stateless analysis of a cryptographic protocol emina torlak february 22, 2005 authentication

stateless analysis of a cryptographic protocol emina torlak february 22, 2005 authentication

stateless analysis of a cryptographic protocol emina torlak february 22, 2005 authentication to be nobody-but-yourselfin a world which is doing its best to make you everybody else - e e cummings authentication: verifying the

490 views • 15 slides
Distributed File Systems 14A. Remote Data Access: Architectures Operating Systems Principles

Distributed File Systems 14A. Remote Data Access: Architectures Operating Systems Principles

5/25/2016 Distributed File Systems 14A. Remote Data Access: Architectures Operating Systems Principles 14B. Remote Data Access: Security 14C. Remote Data Access: Reliability Distributed File Systems 14D. Remote Data Access: Performance 14E.

321 views • 8 slides
Distributed 3: Network FS (fjnish) / Failure 1 Changelog Changes made in this version not seen

Distributed 3: Network FS (fjnish) / Failure 1 Changelog Changes made in this version not seen

Distributed 3: Network FS (fjnish) / Failure 1 Changelog Changes made in this version not seen in fjrst lecture: 16 April 2019: move and relocate Coda/disconnected operation slides to better explain connection to last-writer-wins being a

1.45k views • 123 slides
Nubomedia: the cloud infrastructure for WebRTC and IMS multimedia real-time communications Luis

Nubomedia: the cloud infrastructure for WebRTC and IMS multimedia real-time communications Luis

Nubomedia: the cloud infrastructure for WebRTC and IMS multimedia real-time communications Luis Lopez lulop@kurento.org Human communications 2 http://www.kurento.org The value of technology 3 http://www.kurento.org Multimedia

588 views • 56 slides
Fork-exec model Server Architecture Models Operating Systems Hebrew University Spring 2004

Fork-exec model Server Architecture Models Operating Systems Hebrew University Spring 2004

Fork-exec model Server Architecture Models Operating Systems Hebrew University Spring 2004 Server Behavior Drawbacks 1. This multiprocessing architecture is useful if the handling of the client request takes some time or a session state has

355 views • 4 slides
IOFSL Scalable HEC I/O Forwarding Layer Rob Ross, Pete Beckman, Dries Kimpe, Kamil Iskra

IOFSL Scalable HEC I/O Forwarding Layer Rob Ross, Pete Beckman, Dries Kimpe, Kamil Iskra

IOFSL Scalable HEC I/O Forwarding Layer Rob Ross, Pete Beckman, Dries Kimpe, Kamil Iskra (Argonne) James Nunez, John Bent, Gary Grider, Sean Blanchard, Latchesar Ionkov, Hugh Greenberg (Los Alamos) Steve Poole, Terry Jones (Oak Ridge) Lee

416 views • 16 slides
Hard State Revisited: Network Filesystems Hard State Revisited: Network Filesystems Jeff Chase

Hard State Revisited: Network Filesystems Hard State Revisited: Network Filesystems Jeff Chase

Hard State Revisited: Network Filesystems Hard State Revisited: Network Filesystems Jeff Chase CPS 212, Fall 2000 Network File System (NFS) Network File System (NFS) server client syscall layer user programs VFS syscall layer NFS VFS

430 views • 29 slides
Stateless Systems, Factory Reset, Golden Master Systems and systemd LinuxCon Europe, Duesseldorf

Stateless Systems, Factory Reset, Golden Master Systems and systemd LinuxCon Europe, Duesseldorf

Stateless Systems, Factory Reset, Golden Master Systems and systemd LinuxCon Europe, Duesseldorf October 2014 Stateless Systems, Factory Reset, Golden Master Systems and Factory Reset? Stateless Systems, Factory Reset, Golden Master Systems

930 views • 80 slides

More recommend