mhurhangee/patent-ind-claim-en huggingface dataset:
A radio-frequency coaxial connector, comprising a radio-frequency plug and a radio-frequency socket matching the radio-frequency plug, characterized in that the radio-frequency plug comprises a tubular plug outer conductor , and the plug outer conductor is axially provided therein with a plurality of first conductor plates along the plug outer conductor , an inside edge of each of the first conductor plates is connected integrally with the plug outer conductor , and an outside edge of each of the first conductor plates is arranged inside the plug outer conductor , a second conductor plate is fixedly provided at a central axis of the plug outer conductor , and a gap is provided between an outside wall of the second conductor plate and an inside wall of the plug outer conductor ; and the radio-frequency socket comprises a tubular socket shell , and an front end of the socket shell is provided with a first slot matching a first conductor plate , a tuning fork-shaped socket inner conductor is provided at a center axis of the socket shell , a head end of the socket inner conductor is provided with a second slot matching a second conductor plate , and an insulation sleeve is filled between a tail part of the socket inner conductor and an inner wall of the socket shell .
An intracorporeal device for delivery into a patient, characterised by said intracorporeal device having a proximal end adapted to be detachably coupled with a proximal transcatheter delivery device and a distal end adapted to be detachably coupled with a distal transcatheter delivery device, and further comprising an integrated expandable distal component, said distal component being able to be expanded from a delivery configuration to a working configuration, the delivery configuration being the configuration in which the intracorporeal device can be coupled to the delivery device, whereas in the working configuration, the intracorporeal device is detached from the delivery device.
A method performed by a remote unit, the method comprising: transmitting a first message to a first network unit of a first network, the first message comprising a first internet-of-things registration request for restricted access for PLMN discovery; receiving a second message from the first network unit, the second message comprising a first indication of at least one network to which the remote unit belongs, wherein the second message is received in response to transmitting the first message; and transmitting a third message to a second network unit, the third message comprising a second internet-of-things registration request, wherein the second internet-of-things registration request comprises a second indication of a network to which the remote unit belongs, and the second indication is selected from the first indication. transmitting a first message to a first network unit of a first network, the first message comprising a first internet-of-things registration request for restricted access for PLMN discovery; receiving a second message from the first network unit, the second message comprising a first indication of at least one network to which the remote unit belongs, wherein the second message is received in response to transmitting the first message; and transmitting a third message to a second network unit, the third message comprising a second internet-of-things registration request, wherein the second internet-of-things registration request comprises a second indication of a network to which the remote unit belongs, and the second indication is selected from the first indication.
Motor vehicle door , comprising: - an outer panel ; - a lining forming an inner panel arranged against the outer panel , and a glass frame ; - a glass seal mounted on the glass frame , with a lip against said glass frame ; - a lining arranged against the inner panel and having a lateral edge with an upper end (21A.1) aligned with a lower end (19A.1) of the lip of the glass joint ; said door further comprising: - a trim comprising a lip portion adjacent to the lower end (19A.1) of the lip of the glass joint and to the upper end (21A.1) of the lateral edge of the trim , characterized in that the lip portion of the trim has an external transverse profile identical to an external transverse profile of the lip of the glass joint , in such a manner forming a continuity of the external profile of said lip . - an outer panel ; - a lining forming an inner panel arranged against the outer panel , and a glass frame ; - a glass seal mounted on the glass frame , with a lip against said glass frame ; - a lining arranged against the inner panel and having a lateral edge with an upper end (21A.1) aligned with a lower end (19A.1) of the lip of the glass joint ; - a trim comprising a lip portion adjacent to the lower end (19A.1) of the lip of the glass joint and to the upper end (21A.1) of the lateral edge of the trim , characterized in that the lip portion of the trim has an external transverse profile identical to an external transverse profile of the lip of the glass joint , in such a manner forming a continuity of the external profile of said lip .
A measurement system comprising: a plurality of beam sources mounted on a wind turbine and arranged such that beams from the beam sources intersect at a measurement point which is upstream or downstream of the wind turbine with respect to the flow direction of a fluid that drives the wind turbine; one or more receivers for measuring a Doppler shift of reflected or scattered beams; a processor for determining a fluid velocity at the measurement point based on the measured Doppler shift. a plurality of beam sources mounted on a wind turbine and arranged such that beams from the beam sources intersect at a measurement point which is upstream or downstream of the wind turbine with respect to the flow direction of a fluid that drives the wind turbine; one or more receivers for measuring a Doppler shift of reflected or scattered beams; a processor for determining a fluid velocity at the measurement point based on the measured Doppler shift.
A gimbal mount for installation in a bulletproof glass pane , in particular of a bulletproof space like for example a vehicle, comprising a housing which can be fitted into the bulletproof glass pane and a tubular portion which is suspended in gimbal relationship in the housing for fixing a barrel of a weapon , wherein the gimbal suspension has an outer and an inner cylinder which rotate about mutually perpendicular axes , wherein the housing has a bore in which the outer cylinder is arranged and which is closed by means of a cover and wherein the outer cylinder has a bore in which the inner cylinder is arranged and which is closed by means of a cover , the outside surface of which is within the peripheral surface of the outer cylinder , characterised in that the outer cylinder is mounted rotatably in the housing by means of two axial bearing journals which project in mutually facing relationship from the bottom of the housing bore and the cover thereof, and the inner cylinder is rotatably mounted in the outer cylinder by means of two axial bearing journals which project in mutually facing relationship from the bottom of the bore in the outer cylinder and from the cover thereof.
A fiber laser apparatus comprising: a short length type fiber to which an active element is added and that has a length of 300 mm or less; two ferrules attached to both ends of the fiber ; and a housing comprising an upper part and a lower part that respectively have semicircular cut-out portions butted against each other to form a hole, and configured to accommodate the fiber and support the fiber in the hole with the two ferrules , wherein an outer circumference of each of the two ferrules contacts an inner circumference of the hole such that the housing discharges heat generated in the fiber from side plates of the housing , wherein a part of each of the two ferrules protrudes outside from each of the side plates , wherein the fiber has a coating film formed on at least one of the ends of the fiber , the ends of the fiber being respectively located at ends of the two ferrules , wherein each of the housing and the two ferrules is composed of a material having a first thermal expansion coefficient that is equal to or has a predetermined difference from a second thermal expansion coefficient of a raw material of the fiber , and wherein the predetermined difference between the first and second thermal expansion coefficient is within - 8.6×10 -6 to 11.4×10 -6 /K. a short length type fiber to which an active element is added and that has a length of 300 mm or less; two ferrules attached to both ends of the fiber ; and a housing comprising an upper part and a lower part that respectively have semicircular cut-out portions butted against each other to form a hole, and configured to accommodate the fiber and support the fiber in the hole with the two ferrules , wherein an outer circumference of each of the two ferrules contacts an inner circumference of the hole such that the housing discharges heat generated in the fiber from side plates of the housing , wherein a part of each of the two ferrules protrudes outside from each of the side plates , wherein the fiber has a coating film formed on at least one of the ends of the fiber , the ends of the fiber being respectively located at ends of the two ferrules , wherein each of the housing and the two ferrules is composed of a material having a first thermal expansion coefficient that is equal to or has a predetermined difference from a second thermal expansion coefficient of a raw material of the fiber , and wherein the predetermined difference between the first and second thermal expansion coefficient is within - 8.6×10 -6 to 11.4×10 -6 /K.
A method for automatically drying a moist floor layer of a multi-layer floor structure , the method comprising the steps of: introducing at least one sensor , initiating an air flow in the floor layer to be dried by means of a drying device , measuring at least one parameter of the floor layer by means of the introduced sensor, controlling the drying device by means of a processor based on the parameter measured by the introduced sensor, the method further comprising the step of analyzing the measured parameter by means of the processor and determining a drying phase of the floor layer based on the analysis of the parameter, wherein the drying device is controlled on the basis of the drying phase determined by the processor, characterized in that the controlling comprises switching on and/or switching off the drying device, and in that the at least one sensor is inserted into an opening in the floor structure and placed in the moist floor layer to be dried. introducing at least one sensor , initiating an air flow in the floor layer to be dried by means of a drying device , measuring at least one parameter of the floor layer by means of the introduced sensor, controlling the drying device by means of a processor based on the parameter measured by the introduced sensor, the method further comprising the step of analyzing the measured parameter by means of the processor and determining a drying phase of the floor layer based on the analysis of the parameter, wherein the drying device is controlled on the basis of the drying phase determined by the processor, characterized in that the controlling comprises switching on and/or switching off the drying device, and in that the at least one sensor is inserted into an opening in the floor structure and placed in the moist floor layer to be dried.
A wearable system comprising: a memory device ; a processor in communication with the memory device; and a gyratory sensing system in communication with the processor, the gyratory sensing system is characterized by : a human machine interface to receive a user input, wherein the human machine interface includes a rotatable device having a plurality of rotatable components to navigate and engage one or more functions associated with the human machine interface and the user input includes rotating one or more of the rotatable components, wherein the plurality of rotatable components include a body component, an edge component and a face component wherein the plurality of rotatable components are capable of rotating independently, and a micro-electromechanical systems, MEMS, rate gyroscope to sense the user input in a manner that extends a utility of the human machine interface, wherein the MEMS rate gyroscope is a single axis sensor to sense rotation on one of three axes of movement. a memory device ; a processor in communication with the memory device; and a gyratory sensing system in communication with the processor, the gyratory sensing system is characterized by : a human machine interface to receive a user input, wherein the human machine interface includes a rotatable device having a plurality of rotatable components to navigate and engage one or more functions associated with the human machine interface and the user input includes rotating one or more of the rotatable components, wherein the plurality of rotatable components include a body component, an edge component and a face component wherein the plurality of rotatable components are capable of rotating independently, and a micro-electromechanical systems, MEMS, rate gyroscope to sense the user input in a manner that extends a utility of the human machine interface, wherein the MEMS rate gyroscope is a single axis sensor to sense rotation on one of three axes of movement. a human machine interface to receive a user input, wherein the human machine interface includes a rotatable device having a plurality of rotatable components to navigate and engage one or more functions associated with the human machine interface and the user input includes rotating one or more of the rotatable components, wherein the plurality of rotatable components include a body component, an edge component and a face component wherein the plurality of rotatable components are capable of rotating independently, and a micro-electromechanical systems, MEMS, rate gyroscope to sense the user input in a manner that extends a utility of the human machine interface, wherein the MEMS rate gyroscope is a single axis sensor to sense rotation on one of three axes of movement.
A surgical drill type cutting tool intended to be carried by a contra-angle handpiece capable of rotating it comprising: - a shaft and an active part located in the extension of the shaft - the shaft having near its first end forming one end of the surgical drill , a flat and a peripheral groove allowing it to be held and rotated by the contra-angle ; - the active part having a cross-shaped section, comprising four lips separating four flutes ; the tool comprising - a ring surrounding a portion of said active part , an internal surface of said ring being in contact with said active part ; - the portion of the active part which adjoins the shaft being surrounded by the ring , which surrounds the external contours of the drill, formed by the listel of the lips of the active part, without blocking the flutes and thus without preventing the flow of liquid, such as irrigation or cooling product over the drill ; - the internal face of the ring having a concave groove open in the direction of the shaft and being extended by an inclined portion , of frustoconical shape, which forms the face of the ring oriented towards the shaft, this concave groove and the inclined portion together forming a so-called "gull wing" profile which allows the irrigation or cooling liquid flowing along the shaft of the drill to be concentrated towards the flutes of the active part . - a shaft and an active part located in the extension of the shaft - the shaft having near its first end forming one end of the surgical drill , a flat and a peripheral groove allowing it to be held and rotated by the contra-angle ; - the active part having a cross-shaped section, comprising four lips separating four flutes ; the tool comprising - a ring surrounding a portion of said active part , an internal surface of said ring being in contact with said active part ; - the portion of the active part which adjoins the shaft being surrounded by the ring , which surrounds the external contours of the drill, formed by the listel of the lips of the active part, without blocking the flutes and thus without preventing the flow of liquid, such as irrigation or cooling product over the drill ; - the internal face of the ring having a concave groove open in the direction of the shaft and being extended by an inclined portion , of frustoconical shape, which forms the face of the ring oriented towards the shaft, this concave groove and the inclined portion together forming a so-called "gull wing" profile which allows the irrigation or cooling liquid flowing along the shaft of the drill to be concentrated towards the flutes of the active part .
An apparatus for transmitting a data signal for an immersive service, the apparatus comprising: an encoder to generate (S3 5 100) timed media data having a first intrinsic timeline for representing time and timed metadata having a second intrinsic timeline for representing time; characterized by a formatter to format (S3 5100) the timed metadata and the timed media data into a media file, wherein the timed metadata includes position metadata that describes position metadata entities in each sample of the media file and orientation metadata that describes orientation metadata entities in each sample of the media file, wherein the position metadata entities includes entity count information representing a number of position metadata entities in each sample, an indication whether or not capability information on the sensor, which has measured position data included in a position metadata entity within a sample, is present in the position metadata entities, and position entity code information representing types of the position information in the position metadata entities, wherein the orientation metadata entities includes entity count information representing a number of orientation metadata entities in each sample of the media file, an indication whether or not capability information on the sensor, which has measured orientation data included in an orientation metadata entity within a sample, is present in the orientation metadata entities; and a transmitter to transmit (S35200) the media file including the timed metadata and the timed media. an encoder to generate (S3 5 100) timed media data having a first intrinsic timeline for representing time and timed metadata having a second intrinsic timeline for representing time; characterized by a formatter to format (S3 5100) the timed metadata and the timed media data into a media file, wherein the timed metadata includes position metadata that describes position metadata entities in each sample of the media file and orientation metadata that describes orientation metadata entities in each sample of the media file, wherein the position metadata entities includes entity count information representing a number of position metadata entities in each sample, an indication whether or not capability information on the sensor, which has measured position data included in a position metadata entity within a sample, is present in the position metadata entities, and position entity code information representing types of the position information in the position metadata entities, wherein the orientation metadata entities includes entity count information representing a number of orientation metadata entities in each sample of the media file, an indication whether or not capability information on the sensor, which has measured orientation data included in an orientation metadata entity within a sample, is present in the orientation metadata entities; and a transmitter to transmit (S35200) the media file including the timed metadata and the timed media.
An abnormality detection device comprising: an acquisition unit configured to acquire a communication feature for normal communication of communication equipment; an amplification unit configured to, if a data count or a data acquisition period for the acquired communication feature exceeds a predetermined value, amplify the data count for a communication feature by a plurality of predetermined schemes in accordance with data counts for respective groups, each group sharing a same 5-tuple; a creation unit configured to create, for each of the predetermined schemes, reference value information for normal communication of the communication equipment through learning using the amplified communication feature; a determination unit configured to determine accuracy of abnormality detection for each of the predetermined schemes using an anomaly score representing a deviation of test data representing a communication feature for abnormal communication from the reference value information; and a selection unit configured to select the reference value information created by one of the schemes, the determined accuracy for which is highest. an acquisition unit configured to acquire a communication feature for normal communication of communication equipment; an amplification unit configured to, if a data count or a data acquisition period for the acquired communication feature exceeds a predetermined value, amplify the data count for a communication feature by a plurality of predetermined schemes in accordance with data counts for respective groups, each group sharing a same 5-tuple; a creation unit configured to create, for each of the predetermined schemes, reference value information for normal communication of the communication equipment through learning using the amplified communication feature; a determination unit configured to determine accuracy of abnormality detection for each of the predetermined schemes using an anomaly score representing a deviation of test data representing a communication feature for abnormal communication from the reference value information; and a selection unit configured to select the reference value information created by one of the schemes, the determined accuracy for which is highest.
A machine arranged to automatically print and apply self-adhesive labels on products, where the labels are output from a reel to an applicator applying the labels on the products, the machine further comprising a write head , as well as drive means for a label web , with the write head movably mounted between an open position (I) for widening a formed gap through the machine for pulling the label web between the write head and a drive platen to a reeling reel , and a closed position (II), where a sensor formed of a transmitter and a receiver is arranged to sense interspaces at labels (3, 3 1 ) carried consecutively on the label web by sensing the thickness differences of the label web and of the labels thereof carried on a bottom paper web , wherein the sensor is partible, and a movable part of the sensor , the transmitter or the receiver, is turnably mounted or displaceable together with the write head and arranged to follow the write head when the write head is actuated to move to the open position (I) and the closed position (II), respectively, and where the write head and the applicator in the open position (I) are raised and in the closed position (II) are lowered to a working position wherein the sensor is arranged to be calibrated automatically when the write head is brought back to the original closed position (II).