Abstract: A method includes receiving, by a processing device of a content sharing platform, a request for desired content from a client device, the content being stored in a content delivery network (CDN). The method further includes generating, based on data available to the content sharing platform, a partial trust metric associated with the client device, wherein the partial trust metric is to be used by a CDN server to make a decision regarding access to the desired content by the client device. The method further includes generating a response to the content request, wherein the response comprises one or more resource locators for accessing the desired content in the CDN, and the partial trust metric. The method further includes sending the response to the client device to enable the client device to request the desired content from the CDN server using the resource locator(s) and the partial trust metric.

Abstract: The present invention relates to climate change and provides mitigation methods with capacities to capture gigatons of carbon dioxide through its efficient, low tech and low-cost deployment. Widespread deployment not only has the potential to create a carbon neutral environment but could eventually reverse climate change to pre-industrial levels within a decade. This invention is carbon negative in both production and deployment. i.e., it entirely offsets energy costs of production, transportation, and deployment. The product itself does not produce any CO2 emissions and its whole purpose is to capture CO2 from the atmosphere.

Abstract: The invention features a low cost nature-based carbon sequestering vaccine presenting capacity to restore global Carbon Dioxide to pre-industrial levels over a short, perhaps singly decade use across multiple deployments. This low tech, low cost, high impact, 100% nature based solution is carbon negative during its production and throughout deployment using multiple embodiments that capture and sequestrate carbon dioxide from at least a kiloton approaching a gigaton or beyond scale. The invention uses already developed technologies and biological methods in producing a “vaccine” for inoculating selected unpopulated or sparsely populated geozones with low potentials for disrupting human activities. Embodiments feature deployment of the vaccine into extreme cold environments with minor or non-existent negative externalities.

Abstract: The invention features a low cost nature-based carbon sequestering vaccine presenting capacity to restore global Carbon Dioxide to pre-industrial levels over a short, perhaps singly decade use across multiple deployments. This low tech, low cost, high impact, 100% nature based solution is carbon negative during its production and throughout deployment using multiple embodiments that capture and sequestrate carbon dioxide from at least a kiloton approaching a gigaton or beyond scale. The invention uses already developed technologies and biological methods in producing a “vaccine” for inoculating selected unpopulated or sparsely populated geozones with low potentials for disrupting human activities. Embodiments feature deployment of the vaccine into extreme cold environments with minor or non-existent negative externalities.

Abstract: An optimization agent optimizes configuration parameters of a shared memory buffer for ports of a network device (e.g., router). The optimization agent located on the network device (or remotely) takes an input state from the network device's switching logic, such as the packets transmitted or dropped per port, and determines port buffer settings to optimize the settings to achieve a goal. The buffer settings can include minimum and maximum buffer limits per port and the goal can be to maximize port utilization or minimize port loss. The optimization agent can then take an action by applying the buffer configurations to the switching logic and repeat the process iteratively until the goal is reached.

Abstract: Systems and methods for managing configuration of network devices are provided. In one embodiment, a network device management service can obtain relevant device-specific information, deployment information, and network topology data associated with a network device to be provisioned. The network device management service can enable generating, identifying or obtaining configuration metadata based on relevant network topology data as well as other applicable information. The network device management service can further generate configuration instructions to facilitate configuration of network devices based on configuration metadata.

Abstract: Technologies are provided for distributing intra-network communications evenly across routers in a multi-tier network. Routers in a middle tier of the network receive data transmissions from a router in a lower tier of the network and determine that a destination of the data transmissions is another router in the lower tier of the network. Instead of routing the data transmissions to the destination router directly, the routers in the middle tier of the network route the data transmissions to other routers in a higher tier of the network. The routers in the higher tier of the network then route the data transmissions back to routers in the middle tier of the network, distributing the data transmissions evenly across routers in the middle tier that are connected to the destination router in the lower tier.

Abstract: Technologies are provided for creating virtual routing tables in routers in a multi-tier network. One or more routers in the network are configured to block other routers in a lower tier of the network from receiving routing updates from one another. By blocking the routing updates, the routers in the higher tier of the network cause the routers in the lower tier of the network to create different virtual routing tables that do not include other routers the lower tier of the network. In such a configuration, routers in the lower tier of the network can be connected to routers in the higher tier of the network with partially overlapping uplink connections without a loss of bandwidth utilization.

Abstract: A system and a method for injecting hydrogen into Boiling Water Reactor (BWR) reactor support systems in operation during reactor startup and/or shutdown to mitigate Inter-Granular Stress Corrosion Cracking (IGSCC). The system may provide hydrogen at variable pressures (including relatively higher pressures) that match changing operating pressures of the reactor supports systems as the reactor cycles through startup and shutdown modes.

Abstract: Methods, systems, and devices are described for transmitting and storing routing path information and routing topology information using a single protocol. In particular embodiments, routing path information for an exterior gateway protocol (“EGP”) network such as a border gateway protocol (“BGP”) network is transmitted throughout an interior gateway protocol (“IGP”) network using IGP messages such as open-shortest-path-first (“OSPF”) or intermediate state to intermediates state (“IS-IS”) messages. The IGP networks may transmit and store the BGP information using type length values (TLVs). As a result, network areas running an IGP may maintain BGP information throughout the network area without the overhead of an iBGP mesh and related message-passing.

Abstract: A plug may be coupled with a cable and include a fiber ferrule extending from the plug. A biasing mechanism may be arranged to bias a cover toward a covered configuration in which the fiber ferrule is situated within an internal volume defined by the cover and away from an uncovered configuration in which the fiber ferrule is situated at least partially outside of the internal volume defined by the cover. Bristles or other blockers may be positioned along or within a boundary of the internal volume of the cover, may be arranged to block particulate entry through the blockers into the internal volume of the cover in the covered configuration, and may be movable to permit passage of the fiber ferrule through the blockers in response to movement of the cover between the covered configuration and uncovered configuration.

Abstract: Systems and methods for managing configuration of network devices are provided. In one embodiment, a network device management service can obtain relevant device-specific information, deployment information, and network topology data associated with a network device to be provisioned. The network device management service can enable generating, identifying or obtaining configuration metadata based on relevant network topology data as well as other applicable information. The network device management service can further generate configuration instructions to facilitate configuration of network devices based on configuration metadata.

Abstract: Approaches are described for managing configuration information updates, or other information in a data center, shared resource environment, or other such electronic environment. A management component is provided that can manage distribution of configuration information, operating system (OS) images, authentication data, or other such information for host machines, servers, or other such devices in a network environment. The management component can further perform a number of actions when deploying configuration information updates, such as performing one or more checks to verify the health of a target switch, deactivating the target switch, shifting traffic to and from the target switch, updating a current configuration of the target switch, verifying the target switch's health after the configuration changes, bringing the target switch back in service, among others.

Abstract: Systems and methods for managing configuration of network devices are provided. In one embodiment, a network device management service can obtain relevant device-specific information, deployment information, and network topology data associated with a network device to be provisioned. The network device management service can enable generating, identifying or obtaining configuration metadata based on relevant network topology data as well as other applicable information. The network device management service can further generate configuration instructions to facilitate configuration of network devices based on configuration metadata.

Abstract: An apparatus includes: a primary anchoring element, a beam mount movably connected to the primary anchoring element, a beam connected to the beam mount, a vessel mount movably connected to the beam, a vessel connected to the vessel mount, the vessel being movable along at least a vertical axis, and a control unit within the vessel. The control unit is configured to accept control input from a passenger within the vessel and transmit at least one control signal to cause the beam to move relative to the primary anchoring element, the vessel mount to move relative to the beam, and the vessel to move relative to the vessel mount independently.

Abstract: An apparatus includes: a primary anchoring element, a beam mount movably connected to the primary anchoring element, a beam connected to the beam mount, a vessel mount movably connected to the beam, a vessel connected to the vessel mount, the vessel being movable along at least a vertical axis, and a control unit within the vessel. The control unit is configured to accept control input from a passenger within the vessel and transmit at least one control signal to cause the beam to move relative to the primary anchoring element, the vessel mount to move relative to the beam, and the vessel to move relative to the vessel mount independently.

Abstract: A system and a method for injecting hydrogen into Boiling Water Reactor (BWR) reactor support systems in operation during reactor startup and/or shutdown to mitigate Inter-Granular Stress Corrosion Cracking (IGSCC). The system may provide hydrogen at variable pressures (including relatively higher pressures) that match changing operating pressures of the reactor supports systems as the reactor cycles through startup and shutdown modes.

Abstract: An apparatus includes: a fixed primary anchoring element, a beam mount movably connected to the primary anchoring element, a beam connected to the beam mount, a vessel mount movably connected to the beam, a vessel connected to the vessel mount, the vessel being movable along at least a vertical axis, and a control unit within the vessel. The control unit is configured to accept control input from a passenger within the vessel and transmit at least one control signal to cause the beam to move relative to the primary anchoring element, the vessel mount to move relative to the beam, and the vessel to move relative to the vessel mount independently.

Abstract: An apparatus includes: a fixed primary anchoring element, a beam mount movably connected to the primary anchoring element, a beam connected to the beam mount, a vessel mount movably connected to the beam, a vessel connected to the vessel mount, the vessel being movable along at least a vertical axis, and a control unit within the vessel. The control unit is configured to accept control input from a passenger within the vessel and transmit at least one control signal to cause the beam to move relative to the primary anchoring element, the vessel mount to move relative to the beam, and the vessel to move relative to the vessel mount independently.

Abstract: The present invention relates to a wave energy conversion device (1), for use in relatively shallow water, which has a base portion (2) for anchoring to the bed of a body of water (6) and an upstanding flap portion (8) pivotally connected (12) to the base portion. The flap portion is biased to the vertical and oscillates, backwards and forwards about the vertical in response to wave motion acting on its faces. Power extraction means extract energy from the movement of the flap portion. When the base portion (2) is anchored to the bed of a body of water (6) with the flap portion (8) facing the wave motion, the base portion (2) and the flap portion (8) extend vertically through at least the entire depth of the water, to present a substantially continuous surface to the wave motion throughout the full depth of water from the wave crest to the sea bed. A plurality of devices can be interconnected to form one system. The distance between the plurality of flaps is dependent on the wavelength.