The Experts below are selected from a list of 8112 Experts worldwide ranked by ideXlab platform
Kere Ergma - One of the best experts on this subject based on the ideXlab platform.
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Scaling Star-Coupler-Based Optical Networks for Avionics Applications
2014Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:Abstract—In this work scaling of an optical broadcastand-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, lowlatency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology. Index Terms—Avionics; Network architecture; Optical interconnect; System simulation
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scaling star coupler based optical networks for avionics applications
IEEE\ OSA Journal of Optical Communications and Networking, 2013Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:In this work scaling of an optical broadcast-and-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, low-latency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology.
Ricardo L E Furlan - One of the best experts on this subject based on the ideXlab platform.
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dithioacetal exchange a new reversible reaction for dynamic combinatorial chemistry
Chemistry: A European Journal, 2016Co-Authors: Gaston A Orrillo, Andrea M Escalante, Ricardo L E FurlanAbstract:Reversibility of dithioacetal bond formation is reported under acidic mild conditions. Its utility for dynamic combinatorial chemistry was explored by combining it with orthogonal disulfide exchange. In such a setup, thiols are positioned at the intersection of both chemistries, constituting a Connecting Node between temporally separated networks.
Sebastie Rumley - One of the best experts on this subject based on the ideXlab platform.
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Scaling Star-Coupler-Based Optical Networks for Avionics Applications
2014Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:Abstract—In this work scaling of an optical broadcastand-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, lowlatency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology. Index Terms—Avionics; Network architecture; Optical interconnect; System simulation
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scaling star coupler based optical networks for avionics applications
IEEE\ OSA Journal of Optical Communications and Networking, 2013Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:In this work scaling of an optical broadcast-and-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, low-latency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology.
Madeleine Glick - One of the best experts on this subject based on the ideXlab platform.
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Scaling Star-Coupler-Based Optical Networks for Avionics Applications
2014Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:Abstract—In this work scaling of an optical broadcastand-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, lowlatency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology. Index Terms—Avionics; Network architecture; Optical interconnect; System simulation
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scaling star coupler based optical networks for avionics applications
IEEE\ OSA Journal of Optical Communications and Networking, 2013Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:In this work scaling of an optical broadcast-and-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, low-latency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology.
Johnnie Cha - One of the best experts on this subject based on the ideXlab platform.
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Scaling Star-Coupler-Based Optical Networks for Avionics Applications
2014Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:Abstract—In this work scaling of an optical broadcastand-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, lowlatency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology. Index Terms—Avionics; Network architecture; Optical interconnect; System simulation
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scaling star coupler based optical networks for avionics applications
IEEE\ OSA Journal of Optical Communications and Networking, 2013Co-Authors: Sebastie Rumley, Madeleine Glick, Johnnie Cha, Howard Wang, Kere ErgmaAbstract:In this work scaling of an optical broadcast-and-select network based on a passive star coupler is explored for avionics applications. Each client in the network is equipped with a transmitter unit and a multichannel receiver capable of receiving signals from all other clients connected to the star coupler. We propose a Connecting Node concept to scale the number of clients supported by the architecture. These Connecting Nodes act as bridges between star couplers, enabling the organization of several star couplers into a topology with additional clients. This design is modeled in the PhoenixSim simulation environment, and system-level simulation results are reported. We then propose the ring topology and dimension-N topology to interconnect and scale star couplers. Finally we compare the ring and dimension-N topologies in terms of scalability limit at different crossing traffic loads, revealing the trade-offs between latency, system complexity, and scalability. Our study shows that a robust, low-latency network of up to hundreds of clients, sufficient for current and next-generation avionics applications, can be built using off-the-shelf and near-term commercial technology.