Optical Multicast System for Data Center Networks References and Links
Optical Multicast System for Data Center Networks References and Links
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Payman Samadi;Varun Gupta;Junjie Xu;Howard Wang;G. Zussman;K. Bergman;K. D. Kilper;V. W. Bergman;I. Chan;G. Monga;K. Porter;Rauschenbach;S. A. Weil;S. Brandt;E. L. Miller;D. D. E. Long-D.;C. Maltzahn;M Chowdhury;M. Zaharia;J. Ma;M. Jordan;I. Stoica;H Mcbride;H. Liu;C Diot;B. N. Levine;B. Lyles;H. Kassem;D. Balensiefen;X Li;M. Freedman;U. Li;Y. Li;J. Wu;S. Su;J. Yu;J Cao;C. Guo;G. Lu;Y. Xiong;Y. Zheng;Y. Zhang;Y. Zhu;C. Chen;A Greenberg;J. Hamilton;N. Jain;S. Kandula;C. Kim;P. Lahiri;D. A. Maltz;P. Patel;S. Sengupta;M Al-Fares;A. Loukissas;A. Vahdat;N Farrington;G. Porter;S. Radhakrishnan;H. Bazzaz;V. Subramanya;Y. Fainman;G. Papen;G Wang;D. G. Andersen;M. Kaminsky;K. Papagiannaki;T. Ng;M. Kozuch;M. Ryan;Wang;Y. Xia;K. Bergman;S. Sahu;K. Sripanidkulchai;P Samadi;V. Gupta;B. Birand;H. Wang;G. Zussman;L H Sahasrabuddhe;B. Mukherjee;N Sambo;G. Meloni;G. Berrettini;F. Paolucci;A. Malacarne;A. Bogoni;F. Cugini;L. Potí;P. Castoldi;B Birand;C Lai;D. Brunina;B. Buckley;C. Ware;W. Zhang;A. Garg;B. Jalali;Y Luo;X. Zhou;F. Effenberger;X. Yan;G. Peng;Y. Qian;Y. Ma;N Mckeown;T. Anderson;H. Balakrishnan;G. Parulkar;L. Peterson;J. Rexford;S. Shenker;J. Turner;S Jain;A. Kumar;S. Mandal;J. Ong;L. Poutievski;A. Singh;S. Venkata;J. Wanderer;J. Zhou;M. Zhu;J. Zolla;U. Hölzle;S. Stuart;C.-Y Hong;R. Mahajan;M. Zhang;V. Gill;M. Nanduri;R. Wattenhofer;A. High;Y Li;L. Tong;Kim;C. Nuzman;B. Kumar;D. Lieuwen;J. Kraus;A. Weiss;C. Lichtenwalner;A. Papazian;R. E. Frahm;J. Gates;J. Xu;J. Hamilton;P. Parveen;Y Amir;L. Moser;P. Melliar-Smith;D. A. Agarwal;P. Ciarfella;H Takahashi;S. Suzuki;K. Kato;I. Nishi;G Baxter;S. Frisken;D. Abakoumov;H. Zhou;I. Clarke;A. Bartos;S. Poole
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Payman Samadi;Varun Gupta;Junjie Xu;Howard Wang;G. Zussman;K. Bergman;K. D. Kilper;V. W. Bergman;I. Chan;G. Monga;K. Porter;Rauschenbach;S. A. Weil;S. Brandt;E. L. Miller;D. D. E. Long-D.;C. Maltzahn;M Chowdhury;M. Zaharia;J. Ma;M. Jordan;I. Stoica;H Mcbride;H. Liu;C Diot;B. N. Levine;B. Lyles;H. Kassem;D. Balensiefen;X Li;M. Freedman;U. Li;Y. Li;J. Wu;S. Su;J. Yu;J Cao;C. Guo;G. Lu;Y. Xiong;Y. Zheng;Y. Zhang;Y. Zhu;C. Chen;A Greenberg;J. Hamilton;N. Jain;S. Kandula;C. Kim;P. Lahiri;D. A. Maltz;P. Patel;S. Sengupta;M Al-Fares;A. Loukissas;A. Vahdat;N Farrington;G. Porter;S. Radhakrishnan;H. Bazzaz;V. Subramanya;Y. Fainman;G. Papen;G Wang;D. G. Andersen;M. Kaminsky;K. Papagiannaki;T. Ng;M. Kozuch;M. Ryan;Wang;Y. Xia;K. Bergman;S. Sahu;K. Sripanidkulchai;P Samadi;V. Gupta;B. Birand;H. Wang;G. Zussman;L H Sahasrabuddhe;B. Mukherjee;N Sambo;G. Meloni;G. Berrettini;F. Paolucci;A. Malacarne;A. Bogoni;F. Cugini;L. Potí;P. Castoldi;B Birand;C Lai;D. Brunina;B. Buckley;C. Ware;W. Zhang;A. Garg;B. Jalali;Y Luo;X. Zhou;F. Effenberger;X. Yan;G. Peng;Y. Qian;Y. Ma;N Mckeown;T. Anderson;H. Balakrishnan;G. Parulkar;L. Peterson;J. Rexford;S. Shenker;J. Turner;S Jain;A. Kumar;S. Mandal;J. Ong;L. Poutievski;A. Singh;S. Venkata;J. Wanderer;J. Zhou;M. Zhu;J. Zolla;U. Hölzle;S. Stuart;C.-Y Hong;R. Mahajan;M. Zhang;V. Gill;M. Nanduri;R. Wattenhofer;A. High;Y Li;L. Tong;Kim;C. Nuzman;B. Kumar;D. Lieuwen;J. Kraus;A. Weiss;C. Lichtenwalner;A. Papazian;R. E. Frahm;J. Gates;J. Xu;J. Hamilton;P. Parveen;Y Amir;L. Moser;P. Melliar-Smith;D. A. Agarwal;P. Ciarfella;H Takahashi;S. Suzuki;K. Kato;I. Nishi;G Baxter;S. Frisken;D. Abakoumov;H. Zhou;I. Clarke;A. Bartos;S. Poole
We present the design and experimental evaluation of an Optical Multicast System for Data Center Networks, a hardware-software system architecture that uniquely integrates passive optical splitters in a hybrid network architecture for faster and simpler delivery of multicast traffic flows. An application-driven control plane manages the integrated optical and electronic switched traffic routing in the data plane layer. The control plane includes a resource allocation algorithm to optimally assign optical splitters to the flows. The hardware architecture is built on a hybrid network with both Electronic Packet Switching (EPS) and Optical Circuit Switching (OCS) networks to aggregate Top-of-Rack switches. The OCS is also the connectivity substrate of splitters to the optical network. The optical multicast system implementation requires only commodity optical components. We built a prototype and developed a simulation environment to evaluate the performance of the system for bulk multicasting. Experimental and numerical results show simultaneous delivery of multicast flows to all receivers with steady throughput. Compared to IP multicast that is the electronic counterpart, optical multicast performs with less protocol complexity and reduced energy consumption. Compared to peer-to-peer multicast methods, it achieves at minimum an order of magnitude higher throughput for flows under 250 MB with significantly less connection overheads. Furthermore, for delivering 20 TB of data containing only 15% multicast flows, it reduces the total delivery energy consumption by 50% and improves latency by 55% compared to a data center with a sole non-blocking EPS network. Managing data transfers in computer clusters with orchestra, " SIGCOMM Comput. 13. " Twitter murder: Fast data center code deploy using bittorrent, " ESM: efficient and scalable data center multicast routing, " ACM Trans. Datacast: a scalable and efficient reliable group data delivery service for data centers, " IEEE J. A scalable, commodity data center network architecture, " SIGCOMM Comput. " Helios: A hybrid electrical/optical switch architecture for modular data centers, " SIGCOMM Comput. Commun. Rethinking the physical layer of data center networks of the next decade: Using optics to enable efficient *-cast connectivity, " SIGCOMM Comput. Accelerating incast and multicast traffic delivery for data-intensive applications using physical layer optics, " in Demonstration of data and control plane for optical multicast at 100 and 200 Gb/s with and without frequency conversion, " IEEE J. First demonstration of a cross-layer enabled network node, " J. Time-and wavelength-division mul-tiplexed passive optical network (TWDM-PON) for next-generation PON stage 2 (NG-PON2), " J. B4: Experience …