Abstract: Federation policy exchange is provided in response to receiving a sharing query from an Access Point (AP) indicating that an associated wireless network supports federated identities with data sharing, determining whether the sharing query is within sharing preferences; and in response to determining that the sharing query is within the sharing preferences, transmitting, to the AP, a positive response for identity sharing that authorizes collection and sharing of identity data with at least one entity identified in a sharing policy for the associated wireless network. In various embodiments, federation policy exchange includes transmitting a support notification, via an AP, indicating support for federated identities with data sharing within a wireless network associated with the AP; and in response to receiving a first identify sharing preference from a User Equipment (UE) that indicates that negotiation is preferred, transmitting a sharing policy for the wireless network to the UE.

Abstract: A low-earth orbit (LEO) satellite operates to: determine an orbital position of the LEO satellite based on the first signaling and based on precise point positioning (PPP) correction data associated with the constellation of non-LEO navigation satellites, wherein the PPP correction data includes orbital correction data and timing correction data associated with the constellation of non-LEO navigation satellites, and wherein the PPP correction data is received separate from the first signaling; determine, based on the inter-satellite communications, an error condition associated with one of the other LEO navigation satellites of the constellation of LEO navigation satellites; and broadcast a navigation message based on the orbital position, wherein the navigation message includes a timing signal and the orbital position associated with the LEO satellite, correction data associated with the constellation of non-LEO navigation satellites, and an alert signal that indicates the error condition associated with one

Abstract: A computer implemented method for automated generation and verification of a technology specific logic model and a technology independent logic model of a memory array, the method at least comprising: having a first set of parameters; having a set of constraints, creating a second set of parameters; generating the technology independent model of the memory array wherein the second set of parameters and the set of constraints are used; generating the technology specific model of the memory array wherein the first set of parameters and the set of constraints are used; verifying the technology independent model and the technology specific model for equivalence on a sequential logic basis.

Abstract: An autonomous vehicle that is equipped with image capture devices can use information gathered from the image capture devices to plan a future three-dimensional (3D) trajectory through a physical environment. To this end, a technique is described for image-space based motion planning. In an embodiment, a planned 3D trajectory is projected into an image-space of an image captured by the autonomous vehicle. The planned 3D trajectory is then optimized according to a cost function derived from information (e.g., depth estimates) in the captured image. The cost function associates higher cost values with identified regions of the captured image that are associated with areas of the physical environment into which travel is risky or otherwise undesirable. The autonomous vehicle is thereby encouraged to avoid these areas while satisfying other motion planning objectives.

Abstract: A low-earth orbit (LEO) satellite includes a non-atomic clock configured to generate a clock signal, a navigation signal receiving and processing module, and a navigation signal generation and transmission module. The navigation signal receiving and processing module is configured to receive the clock signal from the non-atomic clock, receive first signaling including first timing data generated based on a high precision clock, and generate clock state data based on the clock signal and the first timing data. The navigation signal generation and transmission module is configured to receive the clock signal from the non-atomic clock, generate a navigation message that indicates the clock state data, generate a broadcast carrier signal by utilizing the clock signal, generate a navigation signal based on modulating the navigation message upon the broadcast carrier signal, and broadcast the navigation signal for receipt by at least one client device.

Abstract: A low-earth orbit (LEO) satellite includes a global positioning receiver configured to receive first signaling from a first plurality of non-LEO navigation satellites of a constellation of non-LEO navigation satellites in non-LEO around the earth. An inter-satellite transceiver is configured to send and receive inter-satellite communications with other LEO navigation satellites in a constellation of LEO navigation satellites. At least one processor is configured to execute operational instructions that cause the at least one processor to perform operations that include: determining an orbital position of the LEO satellite based on applying precise point positioning (PPP) correction data to the first signaling, wherein the PPP correction data is received separately from the first signaling; and generating a navigation message based on the orbital position.

Abstract: A node of a satellite constellation system includes a global positioning receiver configured to receive first signaling from a first plurality of non-LEO navigation satellites of a constellation of non-LEO navigation satellites in non-LEO around the earth. A transceiver is configured to send and receive inter-node communications with other nodes of the satellite constellation system. At least one processor is configured to execute operational instructions that cause the at least one processor to perform operations that include: determining a state of the node of the satellite constellation system based on applying precise point positioning (PPP) correction data to the first signaling, wherein the PPP correction data is received separately from the first signaling; and generating a navigation message based on the state of the node.

Abstract: A low-earth orbit (LEO) satellite includes a global positioning receiver configured to receive first signaling from a first plurality of non-LEO navigation satellites of a constellation of non-LEO navigation satellites in non-LEO around the earth. An inter-satellite transceiver is configured to send and receive inter-satellite communications with other LEO navigation satellites in a constellation of LEO navigation satellites. At least one processor is configured to execute operational instructions that cause the at least one processor to perform operations that include: determining an orbital position of the LEO satellite based on applying precise point positioning (PPP) correction data to the first signaling, wherein the PPP correction data is received separately from the first signaling; and generating a navigation message based on the orbital position.

Abstract: A low-earth orbit (LEO) satellite includes a global positioning receiver configured to receive first signaling from a first plurality of non-LEO navigation satellites. An inter-satellite transceiver is configured to send and receive inter-satellite communications with other LEO navigation satellites. At least one processor is configured to execute operational instructions that cause the at least one processor to perform operations that include: determining an orbital position of the LEO satellite based on the first signaling; and generating a navigation message based on the orbital position. A navigation signal transmitter configured to broadcast the navigation message to at least one client device, the navigation message facilitating the at least one client device to determine an enhanced position of the at least one client device based on the navigation message and further based on second signaling received from a second plurality of non-LEO navigation satellites.

Abstract: A low-earth orbit (LEO) satellite includes a non-atomic clock configured to generate a clock signal, a navigation signal receiving and processing module, and a navigation signal generation and transmission module. The navigation signal receiving and processing module is configured to receive the clock signal from the non-atomic clock, receive first signaling including first timing data generated based on a high precision clock, and generate clock state data based on the clock signal and the first timing data. The navigation signal generation and transmission module is configured to receive the clock signal from the non-atomic clock, generate a navigation message that indicates the clock state data, generate a broadcast carrier signal by utilizing the clock signal, generate a navigation signal based on modulating the navigation message upon the broadcast carrier signal, and broadcast the navigation signal for receipt by at least one client device.

Abstract: A low-earth orbit (LEO) satellite includes a global positioning receiver configured to receive first signaling from a first plurality of non-LEO navigation satellites. An inter-satellite transceiver is configured to send and receive inter-satellite communications with other LEO navigation satellites. At least one processor is configured to execute operational instructions that cause the at least one processor to perform operations that include: determining an orbital position of the LEO satellite based on the first signaling; and generating a navigation message based on the orbital position. A navigation signal transmitter configured to broadcast the navigation message to at least one client device, the navigation message facilitating the at least one client device to determine an enhanced position of the at least one client device based on the navigation message and further based on second signaling received from a second plurality of non-LEO navigation satellites.

Abstract: The present disclosure provides a baking pan having a plurality of ribs projecting upward from the bottom surface thereof. The ribs and an outer wall of the pan define a plurality of cells. The ribs serve as a guide to a user pouring batter into the pan, to ensure that the batter is evenly poured in all areas of the pan. The batter can be poured to a point where it almost covers or just covers the top of the ribs. The present disclosure also provides a spatula having a flat shape at one end and a cutting wheel at another end.

Abstract: Methods and structure for enhancing connection pathways for storage controllers. An exemplary system includes a stack of Serial Attached Small Computer System Interface (SAS) expanders that are coupled to each other in series. The stack includes two end expanders that are endpoints of the stack which are directly coupled to only one other SAS expander of the stack, and a plurality of middle expanders that are each directly coupled to two other SAS expanders of the stack. The system further includes a plurality of storage devices that are coupled to the SAS expanders of the stack, and a SAS storage controller comprising multiple SAS ports that are each directly coupled to a different SAS expander of the stack, wherein at least one of the multiple SAS ports is directly coupled to a middle expander of the stack.

Abstract: Disclosed is a process that is performed by a management application for automatically mapping the topology of one domain to another domain. In addition, if a device in a domain fails, the domain application can automatically associate replacement devices with predecessor management objects.

Abstract: The present disclosure provides a serving assembly that comprises multiple components suitable for different food products, but which connect together easily into one unit. The components can be, in one embodiment, a cutting board, a bowl, and a tray. The tray can have a compartment for storing utensils.

Abstract: An application programming interface (API) implementation that can interface between an application and a programming library. The implementation includes a Function Router Wrapper that receives a formatted string from the application. The formatted string includes a function name element filled with a function name, an input element filled with function input parameters, and an unfilled output element. The Function Router Wrapper converts the formatted string and passes it to a Function Router, which parses the converted formatted string to access the function name and the function input parameters. The Function Router calls a library function based on the accessed information. When the called library function is completed, the Function Router collects generated function outputs and embeds them into the formatted string output element. The Function Router passes the formatted string back up to the Function Router Wrapper, which converts the formatted string and passes it back up to the application.

Abstract: The present disclosure provides a serving assembly that comprises multiple components suitable for different food products, but which connect together easily into one unit. The components can be, in one embodiment, a cutting board, a bowl, and a tray. The tray can have a compartment for storing utensils.

Abstract: Disclosed is a process that is performed by a management application for automatically mapping the topology of one domain to another domain. In addition, if a device in a domain fails, the domain application can automatically associate replacement devices with predecessor management objects.

Abstract: Baking pans for use in food preparation comprise a top baking pan and a bottom baking pan each having complimentary cups formed therein, the complimentary cups defining cavities into which food preparation is placed and baked, chilled, solidified, etc. The cups of the top baking pan may be provided with apertures which allow gas to enter or leave the cavities.