Abstract: A fiber port management system that can be connected between network devices and network appliances is provided. The fiber port management system includes a housing, one or more hydra cables within the housing, one or more indicators and a controller. The housing has a front panel with a plurality of low density fiber connectors and a rear panel with a plurality of high density fiber connectors. The hydra cable is positioned within the housing and connects one of the plurality of high density fiber connectors to two or more of the plurality of low density fiber connectors. The one or more indicators are associated with each of the plurality of low density fiber connectors and each of the plurality of high density fiber connectors. The controller is located within the housing and is used to control the operation of the indicators.

Abstract: A connectivity appliance that can interconnect, optical fiber communication paths of one fiber density to optical fiber communication paths of a different density, for either breakout or aggregation functionality is provided. The connectivity appliance that can interconnect high density connectors, e.g., multi-fiber connectors, to a plurality of low density connectors, e.g., single fiber optic connectors. The connectivity appliance can determine the presence of connectors inserted into the connectivity appliance adapters, determine the characteristics of the cables and connectors inserted into the connectivity appliance and/or in close proximity to the connectivity appliance. Each connector on the connectivity appliances can have one or more associated indicators, e.g., LEDs, on either the front panel or the rear panel that is in close proximity to the relevant adapter and that provides visual indications associated with the connectors.

Abstract: A fiber port management system that can be connected between network devices and network appliances is provided. The fiber port management system includes a housing, one or more hydra cables within the housing, one or more indicators and a controller. The housing has a front panel with a plurality of low density fiber connectors and a rear panel with a plurality of high density fiber connectors. The hydra cable is positioned within the housing and connects one of the plurality of high density fiber connectors to two or more of the plurality of low density fiber connectors. The one or more indicators are associated with each of the plurality of low density fiber connectors and each of the plurality of high density fiber connectors. The controller is located within the housing and is used to control the operation of the indicators.

Abstract: A data center network device provides configurations where the port density can be increased by incorporating multiport transceivers within the device and the use of high density fiber connections on exterior panels of the device. The device also permits dynamically reassigning fiber connections to convert from single fiber connection paths to higher rate bonded fiber paths while at the same time making more efficient use of the fiber interconnections.

Abstract: The network switch architecture permits modifications to the network topology in real time without the need for manual intervention. In this architecture, a switching core is capable of switching data paths directly from the ingress or egress of the switching core to alternate destination ports in real time, either under software or hardware control.

Abstract: A connectivity appliance that can interconnect, optical fiber communication paths of one fiber density to optical fiber communication paths of a different density, for either breakout or aggregation functionality is provided. The connectivity appliance that can interconnect high density connectors, e.g., multi-fiber connectors, to a plurality of low density connectors, e.g., single fiber optic connectors. The connectivity appliance can determine the presence of connectors inserted into the connectivity appliance adapters, determine the characteristics of the cables and connectors inserted into the connectivity appliance and/or in close proximity to the connectivity appliance. Each connector on the connectivity appliances can have one or more associated indicators, e.g., LEDs, on either the front panel or the rear panel that is in close proximity to the relevant adapter and that provides visual indications associated with the connectors.

Abstract: A fiber port management system that can be connected between network devices and network appliances is provided. The fiber port management system includes a housing, one or more hydra cables within the housing, one or more indicators and a controller. The housing has a front panel with a plurality of low density fiber connectors and a rear panel with a plurality of high density fiber connectors. The hydra cable is positioned within the housing and connects one of the plurality of high density fiber connectors to two or more of the plurality of low density fiber connectors. The one or more indicators are associated with each of the plurality of low density fiber connectors and each of the plurality of high density fiber connectors. The controller is located within the housing and is used to control the operation of the indicators.

Abstract: A data center network device provides configurations where the port density can be increased by incorporating multiport transceivers within the device and the use of high density fiber connections on exterior panels of the device. The device also permits dynamically reassigning fiber connections to convert from single fiber connection paths to higher rate bonded fiber paths while at the same time making more efficient use of the fiber interconnections.

Abstract: The network switch architecture permits modifications to the network topology in real time without the need for manual intervention. In this architecture, a switching core is capable of switching data paths directly from the ingress or egress of the switching core to alternate destination ports in real time, either under software or hardware control.

Abstract: A data center network device provides configurations where the port density can be increased by incorporating multiport transceivers within the device and the use of high density fiber connections on exterior panels of the device. The device also permits dynamically reassigning fiber connections to convert from single fiber connection paths to higher rate bonded fiber paths while at the same time making more efficient use of the fiber interconnections.

Abstract: The network switch architecture permits modifications to the network topology in real time without the need for manual intervention. In this architecture, a switching core is capable of switching data paths directly from the ingress or egress of the switching core to alternate destination ports in real time, either under software or hardware control.

Abstract: A fiber port management system that can be connected between network devices and network appliances is provided. The fiber port management system includes a housing, one or more hydra cables within the housing, one or more indicators and a controller. The housing has a front panel with a plurality of low density fiber connectors and a rear panel with a plurality of high density fiber connectors. The hydra cable is positioned within the housing and connects one of the plurality of high density fiber connectors to two or more of the plurality of low density fiber connectors. The one or more indicators are associated with each of the plurality of low density fiber connectors and each of the plurality of high density fiber connectors. The controller is located within the housing and is used to control the operation of the indicators.

Abstract: The present disclosure relates to a system for communicating traffic within a network. The system includes a plurality of switches for receiving/transmitting traffic within the network, a programmable physical layer pathway for providing one or more pathways between the plurality of switches and a controller for controlling the plurality of switches and the programmable physical layer pathway for optimizing a flow of traffic within the network, wherein the controller defines the pathway based on a destination of traffic received by the plurality of switches.

Abstract: Excess radio-frequency (RF) power storage in RF identification (RFID) tags, and related systems and methods are disclosed. The RFID tag is configured to operate with RF power received in wireless RF signals from a RFID tag antenna if received RF power meets or exceeds an operational threshold power for the RFID tag. The RFID tag is also configured to store excess energy derived from excess received RF power in an energy storage device if the received RF power exceeds the operational threshold power for the RFID tag. Thus, when RF power received by the RFID tag is not sufficient for operation, the RFID tag can operate from power provided by previously stored excess energy in the energy storage device.

Abstract: The present disclosure provides a data center network having one or more data center rows, where each row has one or more racks, and each rack has one or more network devices, such as servers, storage devices and switches. The rows and racks are interconnected by a fiber interconnect core that reduces the number of switching nodes in the data center network, and reduces the individual path latency, the overall data center network cost, power consumption, and power and cooling requirements.

Abstract: A data center path switch architecture permits path switching of the signal path of incoming signals to one or more output paths in real time without the need for manual intervention, and without delays associated with current data center network switches. In this architecture, a switching core capable of switching signals directly from the ingress of the switching core to alternate destination ports in real time, either under software or hardware control.

Abstract: Protocols, systems, and methods are disclosed for at least one RFID tag and a device, to communicate with each other using direct connections, wherein the at least one RFID tag and the device are configured to mate and directly exchange identification information. A message comprising a tag identification may be sent directly from the RFID tag to the device, and the RFID tag may receive a first acknowledgement from the device if the first tag identification was correctly received. A connection may be detected between the RFID tag and the device prior to directly exchanging information. The exchange of information may include sending data from the device to the RFID tag.

Abstract: Protocols, systems, and methods are disclosed for two or more RFID tags to communicate with each other and a device using direct connections. A disclosed system includes a first RFID tag, a second RFID tag, and a device. The first and second RFID tags are configured to mate to each other and directly exchange information. The second RFID tag is further configured to directly exchange information with the device such that information received directly at the second RFID tag from the first RFID tag may then be directly exchanged with the device. The first RFID tag may send a first tag identification directly from the first RFID tag to the second RFID tag. The second RFID tag may then send a first acknowledgement to the first RFID tag if the first tag identification was correctly received by the second RFID tag.

Abstract: Protocols, systems, and methods are disclosed for two or more RFID tags to communicate with each other using direct connections, wherein the two or more RFID tags are configured to mate and directly exchange identification information. A disclosed method includes detecting that a first RFID tag is connected to a second RFID tag. A first message comprising a first tag identification is sent directly from the first RFID tag to the second RFID tag, and the first RFID tag receives a first acknowledgement from the second RFID tag if the first tag identification was correctly received. A second message comprising a second tag identification may be sent directly from the second RFID tag to the first RFID tag and a second acknowledgement may be received from the first RFID tag if the second tag identification was correctly received.