Abstract: Provided are methods and systems for manufacturing and using heat-shrink elastomeric. An example method of manufacturing a heat-shrink elastomeric element comprises providing a thermoplastic elastomeric element having a first shape; modifying the thermoplastic elastomeric element to produce a thermoset elastomeric element having the first shape; heating the thermoset elastomeric element to a temperature of at least the glass transition temperature of the thermoset elastomeric element; adjusting the first shape of the thermoset elastomeric element to produce a second shape with at least one dimension greater than that of the first shape; and cooling the thermoset elastomeric element to a temperature below that of the glass transition temperature of the thermoset elastomeric element to produce the heat-shrink elastomeric element.

Abstract: Methods, systems, and devices for multi-device object tracking and localization are described. A device may transmit a request message associated with a target object to a set of devices within a target area. The request message may include an image of the target object, a feature of the target object, or at least a portion of a trained model associated with the target object. Subsequently, the device may receive response messages from the set of devices based on the request message. The response messages may include a portion of a captured image including the target object, location information of the devices, a pose of the devices, or temporal information of the target object detected within the target area by the devices. In some examples, the device may determine positional information with respect to the target object based on the one or more response messages.

Abstract: Provided are methods and systems for manufacturing and using heat-shrink elastomeric. An example method of manufacturing a heat-shrink elastomeric element comprises providing a thermoplastic elastomeric element having a first shape; modifying the thermoplastic elastomeric element to produce a thermoset elastomeric element having the first shape; heating the thermoset elastomeric element to a temperature of at least the glass transition temperature of the thermoset elastomeric element; adjusting the first shape of the thermoset elastomeric element to produce a second shape with at least one dimension greater than that of the first shape; and cooling the thermoset elastomeric element to a temperature below that of the glass transition temperature of the thermoset elastomeric element to produce the heat-shrink elastomeric element.

Abstract: A user device and transportation entity, such as a transport vehicle or transport server, perform information exchanges for a transportation service using Device-to-Device (D2D) communications, such as dedicated short-range communication (DSRC), a cellular Vehicle-to-Everything (C-V2X), or a 5G New Radio (NR). The information exchanges, for example, are related to, e.g., logistics and delivery of transportation services. For example, the user device may transmit a transportation request message that includes information elements, such as an identifier, a type of transport device requested, a number of users, requested destination, etc. The transportation entity may transmit a transportation response message accepting or rejecting the request. Additional messages, such as a status request and status of the transportation, as well as messages related to completing the transportation service may be exchanged.

Abstract: The present disclosure relates to thiol-acrylate photopolymerizable resin compositions. The resin compositions may be used for additive manufacturing. One embodiment of the invention includes a photopolymerizable resin for additive manufacturing in an oxygen environment, the resin comprising: a crosslinking component; at least one monomer and/or oligomer and a chain transfer agent comprising at least one of a thiol, a secondary alcohol, and/or a tertiary amine, wherein the resin may be configured to react by exposure to light to form a cured material.

Abstract: The present disclosure relates to thiol-acrylate photopolymerizable resin compositions. The resin compositions may be used for additive manufacturing. One embodiment of the invention includes a photopolymerizable resin for additive manufacturing in an oxygen environment, the resin comprising: a crosslinking component; at least one monomer and/or oligomer; and a chain transfer agent comprising at least one of a thiol, a secondary alcohol, and/or a tertiary amine, wherein the resin may be configured to react by exposure to light to form a cured material.

Abstract: The present disclosure relates to thiol-acrylate photopolymerizable resin compositions. The resin compositions may be used for additive manufacturing. One embodiments of the invention includes a photopolymerizable resin for additive manufacturing in an oxygen environment, the resin comprising: a crosslinking component; at least one monomer and/or oligomer; and a chain transfer agent comprising at least one of a thiol, a secondary alcohol, and/or a tertiary amine, wherein the resin may be configured to react by exposure to light to form a cured material.

Abstract: Disclosed is a method and apparatus for operating a first device. The first device obtains environment information in proximity to the first device and receives one or more communication messages from a second device and the message(s) includes relevance criteria, wherein the relevance criteria indicates one or more devices, one or more sets of device characteristics, one or more lanes, one or more intersections or areas, one or more pedestrian paths or bicycle paths, one or more signal characteristics from the second device or any combination thereof. The first device determines whether the one or more communication messages are relevant to the first device based on the relevance criteria and the environment information and performs an operation in response to the determination of whether the one or more communication messages are relevant.

Abstract: The present disclosure relates to thiol-acrylate photopolymerizable resin compositions. The resin compositions may be used for additive manufacturing. One embodiment of the invention includes a photopolymerizable resin for additive manufacturing in an oxygen environment, the resin comprising: a crosslinking component; at least one monomer and/or oligomer; and a chain transfer agent comprising at least one of a thiol, a secondary alcohol, and/or a tertiary amine, wherein the resin may be configured to react by exposure to light to form a cured material.

Abstract: Disclosed embodiments pertain to a method for determining position information of a target vehicle relative to an ego vehicle. The method may comprise: obtaining, by at least one image sensor, first images of one or more target vehicles and classifying at least one target vehicle from the one or more target vehicles based on the one or more first images. Further, vehicle characteristics corresponding to the least one target vehicle may be obtained based on the classification of the least one target vehicle. Position information of the at least one target vehicle relative to the ego vehicle may be determined based on the vehicle characteristics.

Abstract: Disclosed is a method and apparatus for generating a real-world traffic model. The apparatus obtains a first set of device map information associated with one or more devices that are in proximity with a first device, and obtains a second set of device map information associated with one or more devices that are in proximity with a second device. The apparatus determines whether the first set of device map information and the second set of device map information contain at least one common device and in response to the determination that the first set of device map information and the second set of device map information contain at least one common device, and generates a real-world traffic model of devices based on the first set of device map information and the second set of device map information.

Abstract: Provided are methods and systems for manufacturing and using heat-shrink elastomeric. An example method of manufacturing a heat-shrink elastomeric element comprises providing a thermoplastic elastomeric element having a first shape; modifying the thermoplastic elastomeric element to produce a thermoset elastomeric element having the first shape; heating the thermoset elastomeric element to a temperature of at least the glass transition temperature of the thermoset elastomeric element; adjusting the first shape of the thermoset elastomeric element to produce a second shape with at least one dimension greater than that of the first shape; and cooling the thermoset elastomeric element to a temperature below that of the glass transition temperature of the thermoset elastomeric element to produce the heat-shrink elastomeric element.

Abstract: Various embodiments enable delivering an item using an unmanned autonomous vehicle (UAV) in response to receiving an electronic order for an item. Order parameters may be determined based on the electronic order identifying the item and details regarding delivery of the item. UAV components may be selected for operating the UAV based on UAV parameters meeting the order parameters. UAV-compliant packaging parameters may be determined for transporting the item carried by the UAV. Selected UAV-compliant packaging may enable the UAV to meet at least some of the order parameters and the UAV parameters. Assembly of the UAV may be coordinated to include the selected UAV components and selected UAV-compliant packaging with the item therein. The selected UAV-compliant packaging may meet the determined UAV-compliant packaging parameters. The assembled UAV and packaging may be dispatched for delivering the item.

Abstract: Various embodiments enable delivering an item using an unmanned autonomous vehicle (UAV) in response to receiving an electronic order for an item. Order parameters may be determined based on the electronic order identifying the item and details regarding delivery of the item. UAV components may be selected for operating the UAV based on UAV parameters meeting the order parameters. UAV-compliant packaging parameters may be determined for transporting the item carried by the UAV. Selected UAV-compliant packaging may enable the UAV to meet at least some of the order parameters and the UAV parameters. Assembly of the UAV may be coordinated to include the selected UAV components and selected UAV-compliant packaging with the item therein. The selected UAV-compliant packaging may meet the determined UAV-compliant packaging parameters. The assembled UAV and packaging may be dispatched for delivering the item.

Abstract: Methods, devices, and systems of various embodiments are disclosed for exploiting opportunistic energy harvesting conditions for an unmanned autonomous vehicle (UAV). Various embodiments include determining mission power parameters for the UAV and accessing energy-harvesting data. A suitability of an energy-harvesting site for stationary energy harvesting by the UAV may be assessed based on the mission power parameters and the energy-harvesting data. In addition, an initial course of the UAV may be adjusted based on the assessment of the suitability of the energy-harvesting site. Stationary energy harvesting may include a process performed by the UAV that derives energy by conversion from an external power source while in a fixed position and/or in contact with an adjacent object.

Abstract: Methods, devices, and systems of various embodiments are disclosed for exploiting opportunistic energy harvesting conditions for an unmanned autonomous vehicle (UAV). Various embodiments include determining mission power parameters for the UAV and accessing energy-harvesting data. A suitability of an energy-harvesting site for stationary energy harvesting by the UAV may be assessed based on the mission power parameters and the energy-harvesting data. In addition, an initial course of the UAV may be adjusted based on the assessment of the suitability of the energy-harvesting site. Stationary energy harvesting may include a process performed by the UAV that derives energy by conversion from an external power source while in a fixed position and/or in contact with an adjacent object.