mhurhangee/patent-ind-claim-en huggingface dataset:
A method for identifying one or more other mobile devices in a vicinity of a first mobile device, the method comprising performing, by the first mobile device : transmitting, using a first wireless protocol, a first set of one or more pulses in a ranging request message to a second mobile device , the first mobile device including a plurality of antennas configured to receive signals using the first wireless protocol; receiving, at the plurality of antennas, a second set of one or more pulses in one or more ranging response messages from the second mobile device; determining distance information and angular information corresponding to one or more transmission times of the first set of one or more pulses and one or more reception times of the second set of one or more pulses received at the plurality of antennas, the angular information indicating an angle between a pointing direction of the first mobile device and the second mobile device; determining, based on the distance information and the angular information, a first probability that a position of the second mobile device lies within a first spatial region having a defined distance range and aligned with the pointing direction of the first mobile device; determining an importance metric for the second mobile device based on the first probability; determining that the importance metric exceeds a threshold; and based on determining that the importance metric exceeds the threshold, providing a user interface that includes the second mobile device as a device with which to communicate. transmitting, using a first wireless protocol, a first set of one or more pulses in a ranging request message to a second mobile device , the first mobile device including a plurality of antennas configured to receive signals using the first wireless protocol; receiving, at the plurality of antennas, a second set of one or more pulses in one or more ranging response messages from the second mobile device; determining distance information and angular information corresponding to one or more transmission times of the first set of one or more pulses and one or more reception times of the second set of one or more pulses received at the plurality of antennas, the angular information indicating an angle between a pointing direction of the first mobile device and the second mobile device; determining, based on the distance information and the angular information, a first probability that a position of the second mobile device lies within a first spatial region having a defined distance range and aligned with the pointing direction of the first mobile device; determining an importance metric for the second mobile device based on the first probability; determining that the importance metric exceeds a threshold; and based on determining that the importance metric exceeds the threshold, providing a user interface that includes the second mobile device as a device with which to communicate.
A compound of formula in the form of any one of its stereoisomers or as a mixture thereof, and wherein carbon 4 of the cyclohexenyl group has an absolute S configuration and R represents a hydrogen atom or a methyl group..
Microcontroller comprising a processor comprising a memory divided into at least two zones, which are secure , non-secure or shared, for carrying out secure startup, an autoprotection control circuit comprising at least one sensor for detecting conditions of vulnerability, said processor executing a Linux operating system (Linux OS) and also comprising a monitor for switching operations either to a secure zone of the memory in order to cause functioning of at least authentication processes, or to a non-secure zone for other operations, and determining whether the peripherals connected to or accessing the microcontroller or being accessed thereby are to be managed by the secure zone or by the non-secure zone , said microcontroller being characterised in that it comprises a hardware firewall , used by said processor , for determining whether the information or the control of an application is authorised to access the secure zone or not, said processor , the hardware firewall and said autoprotection control circuit being arranged in such a way that said processor is only connected to the hardware firewall and said hardware firewall is connected to said autoprotection control circuit in order to avoid any intrusion and/or data retrieval in case of failure of said autoprotection control circuit .
A Multi-Access Edge Computing, MEC, system , comprising: a user equipment , UE; an MEC device , comprising a relay User Plane Function, UPF, module , a first UPF module , and a second UPF module; and a core network , configured to perform a UPF path management corresponding to the UE based on a notification from the MEC device , wherein when the UE attaches to a network, the MEC device is configured to establish an idle session between the UE and the relay UPF module , wherein when the MEC device determines that a service for the UE needs to be switched from the first UPF module to the second UPF module and the second UPF module has not been activated, the MEC device is configured to notify the core network to switch the service for the UE from the first UPF module to the relay UPF module first. a user equipment , UE; an MEC device , comprising a relay User Plane Function, UPF, module , a first UPF module , and a second UPF module; and a core network , configured to perform a UPF path management corresponding to the UE based on a notification from the MEC device , wherein when the UE attaches to a network, the MEC device is configured to establish an idle session between the UE and the relay UPF module , wherein when the MEC device determines that a service for the UE needs to be switched from the first UPF module to the second UPF module and the second UPF module has not been activated, the MEC device is configured to notify the core network to switch the service for the UE from the first UPF module to the relay UPF module first.
A bellows in an accordion shape where crest parts with U-shaped cross sections and trough parts with U-shaped cross sections are repeatedly formed via slope parts in a view from outside, wherein adjacent two of the slope parts leading to one of the crest parts comprise first portions, second portions, third portions, and fourth portions, respectively, which are continuously connected, in description order, to one another from the crest part toward adjacent two of the trough parts , wherein in a free length state of the bellows , a separation distance (h2) between the second portions (β) of the adjacent two of slope parts is longer than separation distances (h1, h3) between the first portions (α) and between the third portions (γ ) of the adjacent two of the slope parts , wherein the second portions (β) of the adjacent two of the slope parts have slant elements inclined with respect to the first portions (α) and the third portions (γ ) and extending in a same direction so that an annular space (R) is partially defined by the slant elements, characterized in that the crest part is provided at a position offset with respect to a center position between the adjacent two of the trough parts on both sides of the crest parts , and the slant elements are inclined in a direction which assists an offset of the crest part . adjacent two of the slope parts leading to one of the crest parts comprise first portions, second portions, third portions, and fourth portions, respectively, which are continuously connected, in description order, to one another from the crest part toward adjacent two of the trough parts , wherein in a free length state of the bellows , a separation distance (h2) between the second portions (β) of the adjacent two of slope parts is longer than separation distances (h1, h3) between the first portions (α) and between the third portions (γ ) of the adjacent two of the slope parts , wherein the second portions (β) of the adjacent two of the slope parts have slant elements inclined with respect to the first portions (α) and the third portions (γ ) and extending in a same direction so that an annular space (R) is partially defined by the slant elements,
A robotic surgical system comprising: a plurality of robotic arms , each robotic arm comprising a plurality of nodes arranged in a ring network having a ring topology such that each of the plurality of nodes connects to two other nodes in the plurality of nodes; a first controller and a second controller in communication with the ring network of each of the robotic arms and with the first controller; wherein the first controller is configured to send the second controller a single message comprising a plurality of individual multi-node messages, each individual multi-node message associated with a different robotic arm and comprising a plurality of packets, each packet associated with a different node in the robotic arm; and wherein the second controller is configured to separate out each individual multi-node message from the single message and send each robotic arm its associated individual multi-node message, wherein the second controller is further configured to receive an individual multi-node message from the ring network of each of the robotic arms after its associated individual multi-node message passes through the ring network, combine the received individual multi-node messages into a merged message, and send the merged message to the first controller. a plurality of robotic arms , each robotic arm comprising a plurality of nodes arranged in a ring network having a ring topology such that each of the plurality of nodes connects to two other nodes in the plurality of nodes; a first controller and a second controller in communication with the ring network of each of the robotic arms and with the first controller; wherein the first controller is configured to send the second controller a single message comprising a plurality of individual multi-node messages, each individual multi-node message associated with a different robotic arm and comprising a plurality of packets, each packet associated with a different node in the robotic arm; and wherein the second controller is configured to separate out each individual multi-node message from the single message and send each robotic arm its associated individual multi-node message, wherein the second controller is further configured to receive an individual multi-node message from the ring network of each of the robotic arms after its associated individual multi-node message passes through the ring network, combine the received individual multi-node messages into a merged message, and send the merged message to the first controller.
A light fixture comprising a plurality of LEDs generating light and a cooling module , said cooling module comprises: - a heat sink comprising an LED side and a cooling side, where said cooling side being opposite said LED side and where said plurality of LEDs are arranged on said LED side; - at least one blower adapted to blow cooling air to said cooling side; wherein said heat sink comprises a first flow channel arranged at said cooling side and a second flow channel arranged a said cooling side, where said first flow channel and said second flow channel are arranged adjacent to each other at said cooling side, said cooling module comprises a first blower and a second blower , where said first blower is configured to blow cooling air in a first flow direction through said first flow channel and where said second blower is configured to blow cooling air in a second flow direction through said second flow channel , where said first flow direction and said second flow direction are opposite each other, and where the LED side of said first blower is arranged at a first angle in relation to said LED side of said heat sink and the LED side of said second blower is arranged at a second angle in relation to said LED side of said heat sink where each of said first angle and said second angle is at least 110 degrees and less than 160 degrees. - a heat sink comprising an LED side and a cooling side, where said cooling side being opposite said LED side and where said plurality of LEDs are arranged on said LED side; - at least one blower adapted to blow cooling air to said cooling side;
A headgear assembly for a patient interface of a respiratory system, wherein the headgear comprises at least one strap to wrap around a user's head and a yoke connected to ends of the at least one strap, wherein the yoke is at least partially formed from an elastomeric material that allows the yoke to stretch and flex; and wherein the yoke comprises a middle region located between two side regions that terminate at distal ends of the yoke; a first engagement member configured to engage with a first retention member of a frame of the patient interface, and a second engagement member configured to engage with a second retention member of the frame; and wherein the yoke is configured to be held to the frame under tension.
A corrugated board comprising a corrugated medium and a linerboard, which linerboard has a basis weight of between 80 - 150 gsm and which linerboard comprises at least a first ply, wherein said first ply comprises 20 - 80 wt% CTMP from wood fibers and 80 - 20 wt% chemical pulp, all percentages calculated on the total fiber weight of said first ply and wherein the CTMP exhibits a bulk according to ISO 534:2005 of at least 2.5 cm 3 /g and a freeness according to ISO 5267-2 of at least 300 ml and wherein said first ply exhibits a geometric SCT index according to ISO 9895 of at least 22 Nm/g.
A system for marking a coated optical article having at least one first mark on a surface of a substrate of the coated optical article , the system comprising: at least one mark identification device comprising: at least one electromagnetic radiation source configured to irradiate at least a portion of the surface of the substrate having the at least one first mark with electromagnetic radiation ; and at least one imaging device configured to receive a portion of the electromagnetic radiation reflected from the surface of the substrate having the at least one first mark and determine a position of the at least one first mark on the surface of the substrate ; and at least one marking device configured for marking the coated optical article with at least one second mark based on the position of the at least one first mark . at least one mark identification device comprising: at least one electromagnetic radiation source configured to irradiate at least a portion of the surface of the substrate having the at least one first mark with electromagnetic radiation ; and at least one imaging device configured to receive a portion of the electromagnetic radiation reflected from the surface of the substrate having the at least one first mark and determine a position of the at least one first mark on the surface of the substrate ; and at least one electromagnetic radiation source configured to irradiate at least a portion of the surface of the substrate having the at least one first mark with electromagnetic radiation ; and at least one imaging device configured to receive a portion of the electromagnetic radiation reflected from the surface of the substrate having the at least one first mark and determine a position of the at least one first mark on the surface of the substrate ; and at least one marking device configured for marking the coated optical article with at least one second mark based on the position of the at least one first mark .
A printing system comprising: an input unit configured to acquire print data of a plurality of pages; a comparison data acquisition unit configured to extract comparison data from the print data for each page together with position information on the position corresponding to the comparison data for each page, wherein the comparison data acquisition unit extracts comparison data for said each page until the comparison data acquisition unit determines that the extracted comparison data is different from comparison data at the same position on a processed page, wherein the processed page refers to a page for which comparison data acquisition has been completed; the system further comprising: an image acquisition unit configured to, from first image data read from a printed material on which the print data is printed, acquire second image data at a position corresponding to the comparison data, based on the position information for each page of the printed material; and an output unit configured to output a comparison result of the comparison data and the second image data for each page. an input unit configured to acquire print data of a plurality of pages; a comparison data acquisition unit configured to extract comparison data from the print data for each page together with position information on the position corresponding to the comparison data for each page, wherein the comparison data acquisition unit extracts comparison data for said each page until the comparison data acquisition unit determines that the extracted comparison data is different from comparison data at the same position on a processed page, wherein the processed page refers to a page for which comparison data acquisition has been completed; the system further comprising: an image acquisition unit configured to, from first image data read from a printed material on which the print data is printed, acquire second image data at a position corresponding to the comparison data, based on the position information for each page of the printed material; and an output unit configured to output a comparison result of the comparison data and the second image data for each page.
A conductive adhesive sheet comprising: a first adhesive agent layer ; a second adhesive agent layer ; and a third layer interposed between the first adhesive agent layer and the second adhesive agent layer , wherein the first adhesive agent layer has a storage modulus at 25 degrees C of less than 2.5 × 10 5 Pa, the third layer has a storage modulus at 25 degrees C of 2.5 × 10 5 Pa or more, and a plurality of conductive linear bodies are arranged to the first adhesive agent layer , wherein the storage modulus is determined, respectively, by performing a torsional shear method using a viscoelasticity measuring device as disclosed in the Examples part of the description. a first adhesive agent layer ; a second adhesive agent layer ; and a third layer interposed between the first adhesive agent layer and the second adhesive agent layer , wherein the first adhesive agent layer has a storage modulus at 25 degrees C of less than 2.5 × 10 5 Pa, the third layer has a storage modulus at 25 degrees C of 2.5 × 10 5 Pa or more, and a plurality of conductive linear bodies are arranged to the first adhesive agent layer , wherein the storage modulus is determined, respectively, by performing a torsional shear method using a viscoelasticity measuring device as disclosed in the Examples part of the description.
Method for determining dynamic driving states of a commercial vehicle, wherein at least one item of dynamic driving information about the commercial vehicle is extracted from the camera image from at least one camera of the commercial vehicle by means of an image processing device, wherein an item of information is the relative roll angle of a trailer/semitrailer and the latter is determined in such a way that a rear and/or front vertical outer edge of a trailer/semitrailer , seen in the vehicle longitudinal direction (x), is detected by at least one rearward-facing camera on each side of the vehicle, seen in the vehicle longitudinal direction (x), characterized in that a perpendicular to the ground plane is determined, and in that in an angular evaluation, the current, relative roll angle is determined as the angle between the perpendicular and the rear and/or front vertical outer edge of the trailer/semitrailer . wherein an item of information is the relative roll angle of a trailer/semitrailer and the latter is determined in such a way that a rear and/or front vertical outer edge of a trailer/semitrailer , seen in the vehicle longitudinal direction (x), is detected by at least one rearward-facing camera on each side of the vehicle, seen in the vehicle longitudinal direction (x), characterized in that a perpendicular to the ground plane is determined, and in that in an angular evaluation, the current, relative roll angle is determined as the angle between the perpendicular and the rear and/or front vertical outer edge of the trailer/semitrailer .
Method for determining section by section the volume of a bulk material fed onto a conveyor belt , wherein a depth image of the bulk material is captured section by section in a capturing region by means of a depth sensor , wherein the captured two-dimensional depth image is fed to a pre-trained convolutional neural network, characterized in that the pre-trained convolutional neural network has at least three successive convolution layers and a downstream volume classifier , the output value of which is output as the bulk material volume present in the capturing region .
A method of a user equipment, UE, in a wireless communication system, the method comprising: identifying a first status for a secondary cell, SCell, of the UE ; identifying whether a first medium access control, MAC, control element, CE, or a second MAC CE is received from a base station , wherein the first MAC CE indicates that the SCell is transitioned into an activated state or a deactivated state, and the second MAC CE indicates that the SCell is transitioned into the activated state or a dormant state; and determining a second status for the SCell based on the first status and the first MAC CE, in case that the first MAC CE is received from the base station and the second MAC CE is not received from the base station , wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the activated state, the second status for the SCell is determined to be maintained as the dormant state, and wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the deactivated state, the second status for the SCell is determined as the deactivated state. identifying a first status for a secondary cell, SCell, of the UE ; identifying whether a first medium access control, MAC, control element, CE, or a second MAC CE is received from a base station , wherein the first MAC CE indicates that the SCell is transitioned into an activated state or a deactivated state, and the second MAC CE indicates that the SCell is transitioned into the activated state or a dormant state; and determining a second status for the SCell based on the first status and the first MAC CE, in case that the first MAC CE is received from the base station and the second MAC CE is not received from the base station , wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the activated state, the second status for the SCell is determined to be maintained as the dormant state, and wherein, in case that the first status for the SCell is the dormant state and the first MAC CE indicates that the SCell is transitioned into the deactivated state, the second status for the SCell is determined as the deactivated state.