mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: executing, within a datacenter and by an unmanned aerial vehicle, UAV, in data communication with a server, a connectivity-enabled navigation process via a remote controller to collect data from the datacenter; determining, during execution of the connectivity-enabled navigation process via the remote controller and by the UAV, that connection to the server is lost so that the connectivity-enabled navigation process cannot be continued via the remote controller; and in response to determining that connection to the server is lost, executing, by the UAV, an autonomous navigation process until the connection to the server is recovered, wherein executing the autonomous navigation process comprises: activating an onboard imaging system; and searching, using the onboard imaging system, for a visual tag positioned in the datacenter, wherein searching for a visual tag positioned in the datacenter comprises querying an onboard processing system for a visual tag that is likely to be close to a current location of the UAV and flying towards the visual tag; and in response to successfully identifying, by the onboard imaging system, the visual tag, flying, by the UAV towards the visual tag. executing, within a datacenter and by an unmanned aerial vehicle, UAV, in data communication with a server, a connectivity-enabled navigation process via a remote controller to collect data from the datacenter; determining, during execution of the connectivity-enabled navigation process via the remote controller and by the UAV, that connection to the server is lost so that the connectivity-enabled navigation process cannot be continued via the remote controller; and in response to determining that connection to the server is lost, executing, by the UAV, an autonomous navigation process until the connection to the server is recovered, wherein executing the autonomous navigation process comprises: activating an onboard imaging system; and searching, using the onboard imaging system, for a visual tag positioned in the datacenter, wherein searching for a visual tag positioned in the datacenter comprises querying an onboard processing system for a visual tag that is likely to be close to a current location of the UAV and flying towards the visual tag; and in response to successfully identifying, by the onboard imaging system, the visual tag, flying, by the UAV towards the visual tag. activating an onboard imaging system; and searching, using the onboard imaging system, for a visual tag positioned in the datacenter, wherein searching for a visual tag positioned in the datacenter comprises querying an onboard processing system for a visual tag that is likely to be close to a current location of the UAV and flying towards the visual tag; and in response to successfully identifying, by the onboard imaging system, the visual tag, flying, by the UAV towards the visual tag.
A method for monitoring, by a device manager at a back-end server a connection status of a device accessible via a network by a broker using MQTT (Message Queuing Telemetry Transport) commands, the method comprising performing at the broker the steps of: - attempting to establish a handshake connection with the device ; - receiving from the device an LWT (Last Will and Testament) message; - upon determining that the handshake connection has been established, notifying the device manager about the device connection status as connected; - periodically sending to the device at least one probe message; and - if no response to the probe message is received from the device , sending the LWT message to the device manager to notify the device manager about the device connection status as disconnected. - attempting to establish a handshake connection with the device ; - receiving from the device an LWT (Last Will and Testament) message; - upon determining that the handshake connection has been established, notifying the device manager about the device connection status as connected; - periodically sending to the device at least one probe message; and - if no response to the probe message is received from the device , sending the LWT message to the device manager to notify the device manager about the device connection status as disconnected.
A method for wireless communication by a user equipment, UE , comprising: identifying first random access resources within a first duration transmission time interval, TTI, and second random access resources within a second duration TTI, wherein the first duration TTI is shorter than the second duration TTI; generating a scheduling request using resources allocated for scheduling requests within the first random access resources, wherein the first random access resources comprise a first preamble signature for use in transmitting the scheduling request, wherein a cyclic shift spacing between the first preamble signature and one or more other preamble signatures is selected based at least in part on a likelihood of signature usage; and transmitting the scheduling request. identifying first random access resources within a first duration transmission time interval, TTI, and second random access resources within a second duration TTI, wherein the first duration TTI is shorter than the second duration TTI; generating a scheduling request using resources allocated for scheduling requests within the first random access resources, wherein the first random access resources comprise a first preamble signature for use in transmitting the scheduling request, wherein a cyclic shift spacing between the first preamble signature and one or more other preamble signatures is selected based at least in part on a likelihood of signature usage; and transmitting the scheduling request.
An articulated stand for holding an electronic device , the articulated stand comprising: a first part defining a ball pivot and suitable for holding the electronic device ; and a second part comprising a ball housing portion receiving the ball pivot to form a ball joint; wherein the ball pivot has a chamber and a connector accommodated at least partially in the chamber , for plugging a cable connector through the ball pivot and the ball housing portion , characterized in that the second part further comprises a fixing portion adapted to be fixed on a fixing surface and having a longitudinal axis (B-B') offset from a longitudinal axis (A-A') of the chamber and wherein the second part defines a free space between the ball housing portion and the fixing portion . a first part defining a ball pivot and suitable for holding the electronic device ; and a second part comprising a ball housing portion receiving the ball pivot to form a ball joint; wherein the ball pivot has a chamber and a connector accommodated at least partially in the chamber , for plugging a cable connector through the ball pivot and the ball housing portion , characterized in that the second part further comprises a fixing portion adapted to be fixed on a fixing surface and having a longitudinal axis (B-B') offset from a longitudinal axis (A-A') of the chamber and wherein the second part defines a free space between the ball housing portion and the fixing portion .
A vortex-type mixing device for a multi-bed down-flow catalytic reactor, the mixing device comprising: a. a horizontal cover plate having an inner surface ; b. a base plate extending parallel to the cover plate , the base plate having an inner surface and a base plate aperture; c. a plurality of inwardly-curved vanes extending vertically between the inner surfaces of the cover and base plates, wherein the inwardly-curved vanes are arranged to tangentially direct liquid and gas to flow in an arcuate or circular flow pattern; d. a vertical weir ring extending vertically from the base plate inner surface proximal to the base plate aperture, the weir ring having a weir ring top edge and a weir ring diameter; e. a mixing region; and f. a bubble cap extending downwardly from the inner surface of the cover plate into the mixing region, the bubble cap having a bubble cap diameter and a bottom edge , the bubble cap diameter being smaller than the weir ring diameter , the bubble cap bottom edge extending below the weir ring top edge , wherein each of the plurality of inwardly-curved vanes has a vane external end affixed proximal to an outer periphery of the cover plate and a vane internal end , the mixing region being defined by the area between opposing vane internal ends . a. a horizontal cover plate having an inner surface ; b. a base plate extending parallel to the cover plate , the base plate having an inner surface and a base plate aperture; c. a plurality of inwardly-curved vanes extending vertically between the inner surfaces of the cover and base plates, wherein the inwardly-curved vanes are arranged to tangentially direct liquid and gas to flow in an arcuate or circular flow pattern; d. a vertical weir ring extending vertically from the base plate inner surface proximal to the base plate aperture, the weir ring having a weir ring top edge and a weir ring diameter; e. a mixing region; and f. a bubble cap extending downwardly from the inner surface of the cover plate into the mixing region, the bubble cap having a bubble cap diameter and a bottom edge , the bubble cap diameter being smaller than the weir ring diameter , the bubble cap bottom edge extending below the weir ring top edge ,
Tissue-adhesive polymer blend comprising a bioresorbable carrier polymer and a bioresorbable synthetic tissue-reactive polymer, wherein the synthetic tissue-reactive polymer is based on a multi-arm polyethylene glycol and is functionalized with at least one tissue-reactive group that comprises an activated ester, wherein the tissue-reactive polymer has a molecular weight of 20000 g/mol or more.
A method of manufacturing a liquid crystal device, the method comprising: jet depositing a plurality of different compositions of material on a substrate , wherein the different compositions comprise liquid crystal material and an other material, wherein each of the different compositions is deposited on a different area of the substrate; imprinting a pattern on the layer of liquid crystal material using an imprint template, such that molecules of the liquid crystal material are self-aligned to the pattern; and characterized by a step of immobilizing the molecules of the liquid crystal material by subjecting the liquid crystal material to an immobilization process. jet depositing a plurality of different compositions of material on a substrate , wherein the different compositions comprise liquid crystal material and an other material, wherein each of the different compositions is deposited on a different area of the substrate; imprinting a pattern on the layer of liquid crystal material using an imprint template, such that molecules of the liquid crystal material are self-aligned to the pattern; and characterized by a step of immobilizing the molecules of the liquid crystal material by subjecting the liquid crystal material to an immobilization process.
Method for manufacturing an aluminum alloy plate with a final thickness of between 8 and 50 mm, wherein a) a rolling ingot is cast from aluminum alloy with the composition, as % by weight, Si: 0.7 - 1.3; Mg: 0.6 - 1.2; Mn: 0.65 - 1.0; Fe: 0.05 - 0.35; at least one element selected from Cr: 0.1 - 0.3 and Zr: 0.06 - 0.15; Ti < 0.15; Cu < 0.4; Zn < 0.1; other elements < 0.05 each and < 0.15 in total, the remainder aluminum, b) said rolling ingot is homogenized, c) said rolling ingot is rolled at a temperature of at least 340°C to obtain a plate with a thickness of at least 12 mm, d) optionally heat treatment and/or cold rolling of the plate thus obtained is carried out, e) a solution heat treatment of the plate, optionally heat treated and/or cold rolled is carried out, and it is quenched, f) said plate thus solution heat treated and quenched is stress relieved by controlled stretching with a permanent elongation of 1 to 5%, g) aging of the plate thus stretched is carried out, h) optionally said plate thus aged is machined to obtain a plate with a final thickness of at least 8 mm. a) a rolling ingot is cast from aluminum alloy with the composition, as % by weight, Si: 0.7 - 1.3; Mg: 0.6 - 1.2; Mn: 0.65 - 1.0; Fe: 0.05 - 0.35; at least one element selected from Cr: 0.1 - 0.3 and Zr: 0.06 - 0.15; Ti < 0.15; Cu < 0.4; Zn < 0.1; other elements < 0.05 each and < 0.15 in total, the remainder aluminum, b) said rolling ingot is homogenized, c) said rolling ingot is rolled at a temperature of at least 340°C to obtain a plate with a thickness of at least 12 mm, d) optionally heat treatment and/or cold rolling of the plate thus obtained is carried out, e) a solution heat treatment of the plate, optionally heat treated and/or cold rolled is carried out, and it is quenched, f) said plate thus solution heat treated and quenched is stress relieved by controlled stretching with a permanent elongation of 1 to 5%, g) aging of the plate thus stretched is carried out, h) optionally said plate thus aged is machined to obtain a plate with a final thickness of at least 8 mm.
A semiconductor package structure, comprising: a package substrate ; and an IC die having a RF wireless communication circuit and a memory die stacked over the package substrate, wherein the memory die entirely covers a first surface portion of the package substrate wherein a second surface portion of the package substrate is exposed from the memory die and the IC die partially covers the first surface portion and partially covers the second surface portion of the package substrate ; and wherein the RF wireless communication circuit comprises a first sensitive device region and a second sensitive device region which are spaced apart, as viewed from a top-view perspective, the first sensitive region being disposed over the second surface portion of the package substrate and a second sensitive device region being disposed over to the first surface portion of the package substrate where it is partially covered by the IC die , each sensitive device region including at least one RF device, selected from the group consisting of RF transmitters, RF receivers, RF synthesizers, and RF baluns, the second sensitive device region being offset from a memory input/output (I/O) electrical path of the memory die , as viewed from a top-view perspective; and further comprising a metal plate connected to ground and disposed directly below the second sensitive device region , between the IC die and the memory die , wherein the IC die is disposed over the memory die . a package substrate ; and an IC die having a RF wireless communication circuit and a memory die stacked over the package substrate, wherein the memory die entirely covers a first surface portion of the package substrate wherein a second surface portion of the package substrate is exposed from the memory die and the IC die partially covers the first surface portion and partially covers the second surface portion of the package substrate ; and wherein the RF wireless communication circuit comprises a first sensitive device region and a second sensitive device region which are spaced apart, as viewed from a top-view perspective, the first sensitive region being disposed over the second surface portion of the package substrate and a second sensitive device region being disposed over to the first surface portion of the package substrate where it is partially covered by the IC die , each sensitive device region including at least one RF device, selected from the group consisting of RF transmitters, RF receivers, RF synthesizers, and RF baluns, the second sensitive device region being offset from a memory input/output (I/O) electrical path of the memory die , as viewed from a top-view perspective; and further comprising a metal plate connected to ground and disposed directly below the second sensitive device region , between the IC die and the memory die , wherein the IC die is disposed over the memory die .
A random access, RA, method , comprising the following steps executed by a base station of a wireless network: receiving, from at least one terminal device of a plurality of terminal devices, a resource request having one or more preambles during one RA time slot; detecting a priority level of the resource request based on a number of the one or more preambles in the resource request; and assigning uplink resources according to the resource request and the priority level, wherein the RA time slot is a time interval, during which the at least one terminal device is allowed to perform a preamble transmission. receiving, from at least one terminal device of a plurality of terminal devices, a resource request having one or more preambles during one RA time slot; detecting a priority level of the resource request based on a number of the one or more preambles in the resource request; and assigning uplink resources according to the resource request and the priority level, wherein the RA time slot is a time interval, during which the at least one terminal device is allowed to perform a preamble transmission.
A layered film for use in a medical device comprising a first product component and a second detachable carrier component, the first product component comprising: - a first prime stratum comprising material selected from the group consisting of polyethylenes, polyethylene copolymers, polypropylene copolymers, thermoplastic polyurethanes, thermoplastic polyester elastomers, thermoplastic polyamide elastomers, thermoplastic elastomer compounds, and/or blends thereof; and - a second barrier stratum comprising at least partially inorganic material, wherein an E-modulus (ASTM D882) of the first product component is below 500 MPa and a water vapour transmission rate WVTR (ASTM F1249) of the first product component is below 3 g/m 2 /24h, and wherein - the second detachable carrier component comprises material selected from the group consisting of polyethylenes, polypropylenes, polyesters, polyamides, and/or blends thereof. - a first prime stratum comprising material selected from the group consisting of polyethylenes, polyethylene copolymers, polypropylene copolymers, thermoplastic polyurethanes, thermoplastic polyester elastomers, thermoplastic polyamide elastomers, thermoplastic elastomer compounds, and/or blends thereof; and - a second barrier stratum comprising at least partially inorganic material, wherein an E-modulus (ASTM D882) of the first product component is below 500 MPa and a water vapour transmission rate WVTR (ASTM F1249) of the first product component is below 3 g/m 2 /24h, and wherein wherein an E-modulus (ASTM D882) of the first product component is below 500 MPa and a water vapour transmission rate WVTR (ASTM F1249) of the first product component is below 3 g/m 2 /24h, and wherein - the second detachable carrier component comprises material selected from the group consisting of polyethylenes, polypropylenes, polyesters, polyamides, and/or blends thereof.
An electronic device for generating a composite image, comprising: a first image sensor located at one surface of a housing of the electronic device and configured to provide a first angle of view ; a second image sensor located at the one surface and configured to provide a second angle of view , wherein the second angle of view is located within the first angle of view ; a memory configured to store a first image captured by the first image sensor and a second image captured by the second image sensor ; and a processor configured to be electrically connected with the memory , characterized in that the processor is configured to: crop an object from the second image based on a depth-map generated based on at least a part of the first image and at least a corresponding part of the second image; and generate a composite image by composing the cropped object with the first image. a first image sensor located at one surface of a housing of the electronic device and configured to provide a first angle of view ; a second image sensor located at the one surface and configured to provide a second angle of view , wherein the second angle of view is located within the first angle of view ; a memory configured to store a first image captured by the first image sensor and a second image captured by the second image sensor ; and a processor configured to be electrically connected with the memory , characterized in that the processor is configured to: crop an object from the second image based on a depth-map generated based on at least a part of the first image and at least a corresponding part of the second image; and generate a composite image by composing the cropped object with the first image. crop an object from the second image based on a depth-map generated based on at least a part of the first image and at least a corresponding part of the second image; and generate a composite image by composing the cropped object with the first image.
One or more computer-readable storage media having program instructions stored thereon to control beacon-based access authorization in an industrial automation environment, wherein the program instructions, when executed by a computing system implemented at least in part on a mobile device, direct the computing system to at least: receive user identity data that identify a user; receive (A) a beacon signal via the mobile device from a beacon system, wherein the beacon system comprises one or more beacons associated with an industrial asset in the industrial automation environment , wherein the beacon signal comprises beacon signal data and further wherein beacon signal data comprises: beacon identity data, distance calculation data, and access level data, wherein the access level data define which operations the user is authorized to perform depending on an authorization level of the user and on distance thresholds; process (B) received distance calculation data within the mobile device to calculate a distance between the mobile device and the industrial asset ; receive via the mobile device a user command invoking an industrial automation operation; and authorize or prohibit the invoked operation based on the user identity data, the calculated distance, received access level data, and the received user command. receive user identity data that identify a user; receive (A) a beacon signal via the mobile device from a beacon system, wherein the beacon system comprises one or more beacons associated with an industrial asset in the industrial automation environment , wherein the beacon signal comprises beacon signal data and further wherein beacon signal data comprises: beacon identity data, distance calculation data, and access level data, wherein the access level data define which operations the user is authorized to perform depending on an authorization level of the user and on distance thresholds; process (B) received distance calculation data within the mobile device to calculate a distance between the mobile device and the industrial asset ; receive via the mobile device a user command invoking an industrial automation operation; and authorize or prohibit the invoked operation based on the user identity data, the calculated distance, received access level data, and the received user command.