Multiprotocol Label Switching Architecture
By E. Rosen, A. Viswanathan, R. Callon. Request for Comments, 2001
3,383 citations recorded by the source corpus.
This document specifies the architecture for Multiprotocol Label Switching (MPLS). [STANDARDS-TRACK]
Subfields: Computer Networks and Communications
View Paper: https://www.semanticscholar.org/paper/63a52c52bf67764eab3c93bf7aeee171305b67a3
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In Computer Networks and Communications
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Citations in the corpus
- Dynamic routing of bandwidth guaranteed tunnels with restoration (2000, methodology): “In MPLS [ 13 ] packets are encapsulated, at ingress points, with labels that are then used to forward the packets along label switched paths (LSPs).”
- The role of communication systems in smart grids: Architectures, technical solutions and research challenges (2013, neutral): “The study in [219] proposes to use MPLS technologies to handle fine-grained bandwidth management in smart grids communication systems, while the study in [220] discusses how to integrate MPLS with DiffServ.”
- Satellite Communications Supporting Internet of Remote Things (2016, background): “Possible examples may be resource reservation protocol—traffic engineering (RSVP-TE)—if the TI-SAP interfaces multiprotocol label switching (MPLS) networks, or extensions made on RSVP to support call admission control (CAC) information in DiffServ environments (called RSVP— pre congestion notificati”
- Tarzan: a peer-to-peer anonymizing network layer (2002, background): “A .ow tag (similar to MPLS [23]) uniquely identi.es each link of each tunnel.”
- SecondNet: a data center network virtualization architecture with bandwidth guarantees (2010, background): “SecondNet therefore can be ready deployed on top of any of the recently proposed data center network structure, such as fat-tree [2], VL2[9], DCell [10], and BCube [11].”
- Optimizing OSPF/IS-IS weights in a changing world (2002, methodology): “As an alternative to OSPF/IS–IS, the more flexible multiprotocol label switching (MPLS) protocol has been suggested [5], [ 25 ].”
- Internet traffic engineering by optimizing OSPF weights (2000, methodology): “This is one of the reasons for introducing the more flexible Multi-protocol Label Switching (MPLS) technologies ([1], [ 3 ]).”
- Increasing Internet Capacity Using Local Search (2004, background): “We note that the emerging Multi-Protocol Label Switching (MPLS) [ 31 ] allows the network operator to specify arbitrary paths for each source destination pair, plus the splitting of packets between these paths.”
- Jellyfish: Networking Data Centers Randomly (2011, background): “e augmented with a small set of local routing actions for randomly distributing load over allowed paths, without invoking the OpenFlow controller. SPAIN [36]: SPAIN allows multipath routing by usMPLS [40]: ! " Figure 13: Both Jellyfish and the fat-tree show good flowfairness: The distribution”
- Minimum interference routing of bandwidth guaranteed tunnels with MPLS traffic engineering applications (2000, background): “These LSPs can be thought of as virtual traffic trunks that carry flow aggregates generated by classifying the packets arriving at the edge or ingress r outers of an MPLS network into “forwarding equivalence classes” (FECs) [ 13 ], [4].”
- A General Approach to Network Configuration Analysis (2015, methodology): “We currently do not model MPLS [30] or packet modification (e.g., NATs).”
- Multiprotocol lambda switching: combining MPLS traffic engineering control with optical crossconnects (2001, methodology): “An LSP is the path through one or more LSRs followed by a specific forwarding equivalence class [8].”
- Data Center Network Virtualization: A Survey (2013, methodology): “In addition, PSSR can be implemented with Multiprotocol Label Switching (MPLS) [38], which makes it easily deployable.”
- MATE: MPLS adaptive traffic engineering (2001, background): “The emergence of MultiProtocol Label Switching (MPLS) with its efficient support of explicit routing provides basic mechanisms for facilitating traffic engineering [7], [14].”