mhurhangee/patent-ind-claim-en huggingface dataset:
An inter-system information exchange method of a data forwarding for a handover of a user equipment from a first wireless communications system to a second wireless communications system , comprising: receiving, by a user-plane core network device in the first wireless communications system from a wireless access device in the first wireless communications system , a packet comprising data in a tunnel per a protocol data unit, PDU, session and an identifier of a quality of service, QoS, flow which the data belongs to, wherein the tunnel per the PDU session is a tunnel between the user-plane core network device and the wireless access device , the first wireless communications system is a fifth generation, 5G, wireless communications system and the second wireless communications system is a long term evolution, LTE, wireless communications system; mapping, by the user-plane core network device , the data in the tunnel per the PDU session to a tunnel for a service bearer in the second wireless communications system and removing the identifier of the QoS flow; sending, by the user-plane core network device to the second wireless communications system , the data mapped to the tunnel for the service bearer; wherein the mapping, by the user-plane core network device , the data in the tunnel per the PDU session to the tunnel for the service bearer, comprises: mapping, by the user-plane core network device according to a mapping relationship between the service bearer and the QoS flow which the data belongs to, the data in the tunnel per the PDU session to the tunnel for the service bearer. receiving, by a user-plane core network device in the first wireless communications system from a wireless access device in the first wireless communications system , a packet comprising data in a tunnel per a protocol data unit, PDU, session and an identifier of a quality of service, QoS, flow which the data belongs to, wherein the tunnel per the PDU session is a tunnel between the user-plane core network device and the wireless access device , the first wireless communications system is a fifth generation, 5G, wireless communications system and the second wireless communications system is a long term evolution, LTE, wireless communications system; mapping, by the user-plane core network device , the data in the tunnel per the PDU session to a tunnel for a service bearer in the second wireless communications system and removing the identifier of the QoS flow; sending, by the user-plane core network device to the second wireless communications system , the data mapped to the tunnel for the service bearer; wherein the mapping, by the user-plane core network device , the data in the tunnel per the PDU session to the tunnel for the service bearer, comprises: mapping, by the user-plane core network device according to a mapping relationship between the service bearer and the QoS flow which the data belongs to, the data in the tunnel per the PDU session to the tunnel for the service bearer.
A data obtaining method by an inverter that controls a synchronous electric motor : calculating, by a position/speed calculation unit of the inverter , an electric angle of the synchronous electric motor from a current value between the synchronous electric motor and the inverter , wherein the method further characterized by acquiring data for a plurality of electric angles as synchronous monitor data by sampling internal data obtained from the inverter for controlling the synchronous electric motor in synchronization with electric angle information, storing the synchronization monitor data in a monitor data storage unit . calculating, by a position/speed calculation unit of the inverter , an electric angle of the synchronous electric motor from a current value between the synchronous electric motor and the inverter , wherein the method further characterized by acquiring data for a plurality of electric angles as synchronous monitor data by sampling internal data obtained from the inverter for controlling the synchronous electric motor in synchronization with electric angle information, storing the synchronization monitor data in a monitor data storage unit .
Part for aircraft turbomachine , forming a blade of the aircraft turbomachine , and comprising a part body , the part body comprising: - a first cavity opening to the outside of the part body through a first opening , and - a first conduit opening to, on the one hand, the first cavity , and on the other hand, the outside of the part body , wherein the first cavity is located in a leading edge of the blade , characterised in that the part comprises a first pressure sensor and a first cable mechanically and electrically connected to the first sensor , the first sensor being at least partially housed in the first cavity and the first cable being at least partially housed in the first conduit , the first sensor comprising a first membrane , the first sensor being arranged such that at least one portion of the first membrane forms part of the outer surface of the first sensor . - a first cavity opening to the outside of the part body through a first opening , and - a first conduit opening to, on the one hand, the first cavity , and on the other hand, the outside of the part body , wherein the first cavity is located in a leading edge of the blade , characterised in that the part comprises a first pressure sensor and a first cable mechanically and electrically connected to the first sensor , the first sensor being at least partially housed in the first cavity and the first cable being at least partially housed in the first conduit , the first sensor comprising a first membrane , the first sensor being arranged such that at least one portion of the first membrane forms part of the outer surface of the first sensor . wherein the first cavity is located in a leading edge of the blade , characterised in that the part comprises a first pressure sensor and a first cable mechanically and electrically connected to the first sensor , the first sensor being at least partially housed in the first cavity and the first cable being at least partially housed in the first conduit , the first sensor comprising a first membrane , the first sensor being arranged such that at least one portion of the first membrane forms part of the outer surface of the first sensor .
A liquid crystal lens , comprising: a first substrate and a second substrate disposed opposite to the first substrate ; a first electrode disposed on the first substrate ; a retardation layer disposed on a side of the first substrate facing the second substrate , the retardation layer comprising a plurality of steps having different heights; a second electrode disposed on the second substrate , the second electrode being disposed opposite to the first electrode , wherein the second electrode comprises a plurality of sub-electrodes , the plurality of sub-electrodes are corresponding to the plurality of steps one-to-one, a width of the sub-electrode is smaller than a width of a step corresponding to the sub-electrode ; a gap provided between two adjacent sub-electrodes ; and a liquid crystal filled in a space between the retardation layer and the second substrate ; characterized in that heights of the plurality of steps are sequentially increased or decreased from a center to an edge of the liquid crystal lens , and one edge of the gap is aligned with a step point of the two adjacent steps . a first substrate and a second substrate disposed opposite to the first substrate ; a first electrode disposed on the first substrate ; a retardation layer disposed on a side of the first substrate facing the second substrate , the retardation layer comprising a plurality of steps having different heights; a second electrode disposed on the second substrate , the second electrode being disposed opposite to the first electrode , wherein the second electrode comprises a plurality of sub-electrodes , the plurality of sub-electrodes are corresponding to the plurality of steps one-to-one, a width of the sub-electrode is smaller than a width of a step corresponding to the sub-electrode ; a gap provided between two adjacent sub-electrodes ; and a liquid crystal filled in a space between the retardation layer and the second substrate ; characterized in that heights of the plurality of steps are sequentially increased or decreased from a center to an edge of the liquid crystal lens , and one edge of the gap is aligned with a step point of the two adjacent steps .
Method for providing information about a vessel in the vicinity of a mobile device , wherein the method comprises the following steps: - reading an information signal using a camera of the mobile device , wherein the information signal represents information about the internal volume of the vessel in the vicinity of the mobile device recorded on the basis of the image from the camera on the mobile device ; and - outputting a vessel information signal to a reading interface of a hot beverage machine , wherein the output is carried out using the read information signal . - reading an information signal using a camera of the mobile device , wherein the information signal represents information about the internal volume of the vessel in the vicinity of the mobile device recorded on the basis of the image from the camera on the mobile device ; and - outputting a vessel information signal to a reading interface of a hot beverage machine , wherein the output is carried out using the read information signal .
An expandable implant comprising: - an upper endplate assembly including a plurality of upper endplates ; - a lower endplate assembly including a plurality of lower endplates ; - an actuator assembly including a rotatable actuator having a shaft and a rotatable nut ; - a plurality of driving ramps including a front ramp , a mid-ramp, and a rear ramp positioned along the shaft of the actuator; - an upper ramp connected to the upper endplate assembly and engaged with the plurality of driving ramps; and - a lower ramp connected to the lower endplate assembly and engaged with the plurality of driving ramps, - wherein the upper and lower endplate assemblies are configured to expand in width, and - wherein rotation of the actuator and/or the nut causes movement of one or more of the driving ramps, thereby causing an expansion in height of the upper and lower endplate assemblies. - an upper endplate assembly including a plurality of upper endplates ; - a lower endplate assembly including a plurality of lower endplates ; - an actuator assembly including a rotatable actuator having a shaft and a rotatable nut ; - a plurality of driving ramps including a front ramp , a mid-ramp, and a rear ramp positioned along the shaft of the actuator; - an upper ramp connected to the upper endplate assembly and engaged with the plurality of driving ramps; and - a lower ramp connected to the lower endplate assembly and engaged with the plurality of driving ramps, - wherein the upper and lower endplate assemblies are configured to expand in width, and - wherein rotation of the actuator and/or the nut causes movement of one or more of the driving ramps, thereby causing an expansion in height of the upper and lower endplate assemblies.
A pharmaceutical combination of (i) at least one biocompatible lipid-based or polymer-based nanoparticle comprising an inhibitor of a human CYP enzyme, the longest dimension of said at least one nanoparticle being of at least 4 nm and less than 100 nm as measured by Dynamic Light Scattering (DLS) and the inhibitor being a furanocoumarin selected from bergamottin, 6',7'-dihydroxybergamottin (DHB), 6',7'-epoxy-bergamottin, bergaptol and a paradisin, or a flavonoid selected from acacetin, naringenin, apigenin and quercetin, and of (ii) at least one pharmaceutical compound which is a substrate of said human CYP enzyme, for use in a therapeutic or prophylactic method in a subject in need thereof, the therapeutic or prophylactic method comprising a step of administering the at least one pharmaceutical compound to the subject and a distinct step of administering the at least one nanoparticle, said at least one nanoparticle being administered to the subject between at least 5 minutes and about 24 hours before the at least one pharmaceutical compound, and wherein the at least one biocompatible nanoparticle is not used as such as a therapeutic or prophylactic compound.
A computer-implemented method for generating a synthetic image of an anatomical portion based on a three-dimensional origin image of the anatomical portion acquired by an imaging device using a first imaging modality, the method comprising: receiving the origin image of the anatomical portion acquired by the imaging device using the first imaging modality; creating a first stack of two-dimensional images from a first plane of the three-dimensional image and a second stack of two-dimensional images from a second plane of the three-dimensional image, wherein: the first plane and second plane are different, the images in the first stack of two-dimensional images correspond to a spatial size of the origin image in the first plane, and the images in the second stack of two-dimensional images correspond to a spatial size of the origin image in the second plane; receiving at least one convolutional neural network model trained for predicting the synthetic image based on the origin image; and converting, by at least one processor, the origin image to the synthetic image by using the at least one convolutional neural network model to generate the synthetic image, the synthetic image resembling a second imaging modality depiction of the anatomical portion, wherein the second imaging modality differs from the first imaging modality, wherein generating the synthetic image comprises: converting the first stack and the second stack of two-dimensional images to a first stack and a second stack of synthetic two-dimensional images using the at least one convolutional neural network model; and determining the synthetic image, wherein determining the synthetic image comprises aggregating the first stack and the second stack of synthetic two-dimensional images. receiving the origin image of the anatomical portion acquired by the imaging device using the first imaging modality; creating a first stack of two-dimensional images from a first plane of the three-dimensional image and a second stack of two-dimensional images from a second plane of the three-dimensional image, wherein: the first plane and second plane are different, the images in the first stack of two-dimensional images correspond to a spatial size of the origin image in the first plane, and the images in the second stack of two-dimensional images correspond to a spatial size of the origin image in the second plane; receiving at least one convolutional neural network model trained for predicting the synthetic image based on the origin image; and converting, by at least one processor, the origin image to the synthetic image by using the at least one convolutional neural network model to generate the synthetic image, the synthetic image resembling a second imaging modality depiction of the anatomical portion, wherein the second imaging modality differs from the first imaging modality, wherein generating the synthetic image comprises: converting the first stack and the second stack of two-dimensional images to a first stack and a second stack of synthetic two-dimensional images using the at least one convolutional neural network model; and
An adenoviral vector comprising the genome of chimpanzee adenovirus C68, wherein the genome of the adenovirus has been modified such that the vector lacks the native E4 locus of the C68 adenovirus and comprises heterologous E4Orf4, E40rf6 and E40rf6/7 coding regions from AdHu5 in the E4 locus of the C68 adenovirus, and wherein the adenoviral vector further comprises heterologous E40rfl, E40rf2 and E40rf3 coding regions from AdY25, wherein the adenoviral vector lacks a functional E 1 locus and wherein the adenoviral vector lacks an E3 locus.
A capacitive sensing system comprising: a fluid cup configured to receive a fluid; and a capacitive sensing circuit including processing circuitry and a capacitive sensor coupled to one another, the fluid cup being movably aligned with the capacitive sensor such that the capacitive sensor is a distance separated from and has a surface facing the fluid in parallel with a top surface of the fluid in the fluid cup , the distance the capacitive sensor is separated from the top surface of the fluid being variable with a fill level of the fluid in the fluid cup , characterized in that the capacitive sensor comprises a sensor pad that forms a plate of a capacitor having a dielectric comprising the fluid in the fluid cup , the capacitor having a capacitance that is a function of at least the distance the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid, the capacitance being variable with the distance and thereby the fill level of the fluid in the fluid cup , wherein the processing circuitry is configured to measure a change in signal corresponding to a change in capacitance of the capacitor as the fill level of the fluid in the fluid cup changes, and determine the fill level of the fluid in the fluid cup based on a magnitude of the change in signal; wherein the distance that the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid in the fluid cup is between about 0.5 mm to about 2.5 mm; preferably between about 1.0 mm to about 2.0 mm. a fluid cup configured to receive a fluid; and a capacitive sensing circuit including processing circuitry and a capacitive sensor coupled to one another, the fluid cup being movably aligned with the capacitive sensor such that the capacitive sensor is a distance separated from and has a surface facing the fluid in parallel with a top surface of the fluid in the fluid cup , the distance the capacitive sensor is separated from the top surface of the fluid being variable with a fill level of the fluid in the fluid cup , characterized in that the capacitive sensor comprises a sensor pad that forms a plate of a capacitor having a dielectric comprising the fluid in the fluid cup , the capacitor having a capacitance that is a function of at least the distance the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid, the capacitance being variable with the distance and thereby the fill level of the fluid in the fluid cup , wherein the processing circuitry is configured to measure a change in signal corresponding to a change in capacitance of the capacitor as the fill level of the fluid in the fluid cup changes, and determine the fill level of the fluid in the fluid cup based on a magnitude of the change in signal; wherein the distance that the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid in the fluid cup is between about 0.5 mm to about 2.5 mm; preferably between about 1.0 mm to about 2.0 mm.
A method for producing a shielding cartridge of a turbomachine element , the method including a step (E1) of winding a carbon wire about a longitudinal axis, the carbon wire including a plurality of fibers, and a step of trapping (E2) and preserving from the outside surroundings of the wound-up wire in a housing in which the housing is closed by a cover , the housing and the cover being made of a metallic material or a metallic alloy, the method does not implement a resin-based matrix.
Hand-operated power tool, in particular grinder, with an in particular rod-shaped handle element for grasping by an operator and with a machining head , which is movably mounted at the handle element via a joint assembly and which has a tool holder drivable by an electric drive motor - located at the machining head in particular - of the hand-operated power tool , wherein a line assembly is provided between the handle element and the machining head for transmitting electric and/or mechanical energy and/or for passing a suction flow (S), wherein the machining head is loaded towards a predetermined basis position relative to the handle element by a positioning spring assembly separate from the line assembly , characterised in that the positioning spring assembly comprises at least one positioning spring , which is directly supported at bearing elements of the joint assembly .
Vehicle electrical system for a vehicle, comprising a databus , a sensor (34 to 38, 52) which is connected to the databus and is configured to feed sensor data (40 to 50, 76) into the databus , a device which is connected to the databus and has the purpose of distributing at least data about the vehicle based on the sensor data (40 to 50, 76), an antenna which is embodied as a Car2X antenna and which has the purpose of transmitting the data about the vehicle in a wireless fashion and a GPS antenna , wherein the device comprises - a first sensor data receiving interface (26 to 32, 78) for receiving first sensor data (40 to 50, 76) from a first sensor (34 to 38, 52), - a second sensor data receiving interface (26 to 32, 78) for receiving second sensor data (40 to 50, 76) from a second sensor (34 to 38, 52), and - a transmitting interface for transmitting the data about the vehicle based on the first sensor data (40 to 50, 76) and the second sensor data (40 to 50, 76) to a receiver (6 to 12, 60), characterized in that the GPS antenna and the Car2X antenna are combined in a common antenna module and have a common interface to the device . - a first sensor data receiving interface (26 to 32, 78) for receiving first sensor data (40 to 50, 76) from a first sensor (34 to 38, 52), - a second sensor data receiving interface (26 to 32, 78) for receiving second sensor data (40 to 50, 76) from a second sensor (34 to 38, 52), and - a transmitting interface for transmitting the data about the vehicle based on the first sensor data (40 to 50, 76) and the second sensor data (40 to 50, 76) to a receiver (6 to 12, 60),