mhurhangee/ep-ind-claims huggingface dataset:
Outlet connector piece with a protruding flange for a non-releasable fixation on a tubular bag, wherein, for receiving a one-way dosing pump that is capable of being screwed on, the outlet connector piece is implemented with a cut-open device for the tubular bag, wherein the flange comprises a contact surface that is configured for a welding connection or adhesive connection with the tubular bag and encompasses an outlet connector piece pass-through (59 along a circumferential line of said contact surface, wherein the contact surface is rectangular or square, characterised in that the flange comprises, on both sides spaced apart from the outlet connector piece pass-through, respectively one film hinge extending parallel in an extension direction, and that the film hinges are arranged closer to the circumferential line than to an outer edge of the contact surface.
Fan with a nozzle which is fastened on a base plate, wherein the base plate, on its rear wall, has a fastening device with at least one upper retaining device and at least one lower retaining device for fastening the fan on a top-hat rail, characterized in that the upper retaining device and the lower retaining device, in the fastened state, engage around an upper periphery and a lower periphery, respectively, of the top-hat rail and are offset in relation to one another in a direction which, in the fastened state of the fan, runs parallel to the longitudinal axis of the top-hat rail, wherein those ends of the retaining devices (15, 16) which are directed toward one another in this direction form inner ends (17, 18), and the inner end of the upper retaining device and the inner end of the lower retaining device are spaced apart by a distance (d) of a width which is greater than the distance (b) between the upper periphery and the lower periphery of the top-hat rail, and therefore the fan can be inserted into the top-hat rail by being tilted in a direction of tilting insertion (k) about a tilting axis perpendicular to a longitudinal direction of the top-hat rail, wherein the nozzle is connected to the base plate by a one-dimensional pivoting element for pivoting the fan about a pivot axis, wherein the rear wall of the nozzle is convexly curved and accommodated in a correspondingly concavely curved front wall of the base plate, and wherein the side walls and the front wall of the base plate and the rear wall of the nozzle have air slots.
A device for measuring a received radiation dose comprising a cable (CBL, CBL 1, CBL 2, CBL 3) made up of at least one material sensitive to a received radiation dose in at least one predetermined value range and measuring equipment (GEN, INJ, MES) connected to the cable and configured to take a measurement, by reflectometry or transferometry, of a characteristic physical quantity of the cable, a database having a set of pairs of values associating a value of the physical quantity with a received radiation dose value, and a processing unit configured to determine a measurement of the radiation dose received by the cable based on the measurement of the physical quantity and by polling the database.
An electronic device, comprising: a casing; a main board; and at least one fixing member having a first end connected to the main board and a second end exposed from the casing, and configured to charge the electronic device or transmit data of the electronic device, characterized in that the at least one fixing member fixes the main board to the casing, and the first end of the at least one fixing member is fixedly connected to the mainboard by thread, wherein the at least one fixing member comprises a first connecting member and a second connecting member, the first connecting member passes through the casing, the second connecting member is fixed to the main board, and the first connecting member cooperates with the second connecting member to fix the main board to the casing, and wherein the first connecting member comprises a first plating, the second connecting member comprises a second plating, and when the first connecting member is fitted with the second connecting member, the first plating is in contact with the second plating to enable the at least one fixing member to conduct electricity. a casing; a main board; and at least one fixing member having a first end connected to the main board and a second end exposed from the casing, and configured to charge the electronic device or transmit data of the electronic device, characterized in that the at least one fixing member fixes the main board to the casing, and the first end of the at least one fixing member is fixedly connected to the mainboard by thread, wherein the at least one fixing member comprises a first connecting member and a second connecting member, the first connecting member passes through the casing, the second connecting member is fixed to the main board, and the first connecting member cooperates with the second connecting member to fix the main board to the casing, and wherein the first connecting member comprises a first plating, the second connecting member comprises a second plating, and when the first connecting member is fitted with the second connecting member, the first plating is in contact with the second plating to enable the at least one fixing member to conduct electricity.
A textured laminate structure, comprising: a first layer formed of a first nonwoven web having a machine direction, the first nonwoven web being formed of polymeric fibers having a machine direction bias, meaning that a majority of the fibers, as situated in the web and unstretched, have lengths whith machine direction vector components that are greater than their cross direction vector components, and the first non-woven web having a first preexisting pattern of first apertures therethrough; a second layer; and one or more elastic members disposed between the first layer and the second layer and bonded therebetween, the elastic member having been disposed between the first and second layers in a pre-strained condition, thereby forming a pattern of rugosities extending in the z-direction present in at least the first layer when the laminate is in a relaxed condition, wherein the laminate structure is discontinuously joined or bonded such that the first layer is joined or bonded to the structure in first portions of the first layer and unjoined or unbonded to the structure in second portions of the first layer, wherein the first nonwoven web has a pattern of pre-bonds thereon; and wherein the pre-existing pattern of first apertures is substantially similar to the pattern of pre-bonds in one or more of: machine-direction spacing, cross-direction spacing, aperture shape and aperture size. a first layer formed of a first nonwoven web having a machine direction, the first nonwoven web being formed of polymeric fibers having a machine direction bias, meaning that a majority of the fibers, as situated in the web and unstretched, have lengths whith machine direction vector components that are greater than their cross direction vector components, and the first non-woven web having a first preexisting pattern of first apertures therethrough; a second layer; and one or more elastic members disposed between the first layer and the second layer and bonded therebetween, the elastic member having been disposed between the first and second layers in a pre-strained condition, thereby forming a pattern of rugosities extending in the z-direction present in at least the first layer when the laminate is in a relaxed condition, wherein the laminate structure is discontinuously joined or bonded such that the first layer is joined or bonded to the structure in first portions of the first layer and unjoined or unbonded to the structure in second portions of the first layer, wherein the first nonwoven web has a pattern of pre-bonds thereon; and wherein the pre-existing pattern of first apertures is substantially similar to the pattern of pre-bonds in one or more of: machine-direction spacing, cross-direction spacing, aperture shape and aperture size.
Electromagnet having a pole tube and having an armature which by way of the shell face thereof is mounted in a cavity of the pole tube and is movable in a linear manner in the direction of a central axis of the pole tube, wherein a non-magnetic foil which for mounting the armature has a butt joint and is disposed between the pole tube and the armature, wherein the butt joint on the foil runs so as to deviate from a surface line of the armature which runs parallel to the central axis of the pole tube, wherein the foil is composed of a non-magnetic metal, characterized in that the thickness of the foil is between 10 micrometres and 50 micrometres.
Method for use in firing an artillery shell having a rear body, provided with a sliding driving band and completely folded-in guide fins (3,16), which shell, as soon as possible outside the mouth of the barrel of the firing piece, is converted, by fold-out of the guide fins (3,16), into a fin-stabilized artillery shell, wherein any form of non-uniform fins fold-out is avoided by virtue of all the guide fins (3,16) being interconnected, by means (18,19,20) adapted thereto, to form a system which gives all the guide fins (3,16) a same movement pattern and a same fold-out speed in each phase of the guide fins (3,16) fold-out, and that the guide fins (3,16) are covered by a cover, which cover by interaction between powder gases penetrating into the cover and vacuum directly outside the mouth of the barrel, is pulled off, whereupon the guide fins (3,16) fold-up begins immediately.
A method for controlling a secondary cell by a user equipment, UE, in a time division duplex, TDD, mobile communication system using carrier aggregation, the methode being performed by the UE and comprising: receiving a control message for activating the secondary cell from a evolved node B, ENB; operating a first timer and a second timer corresponding to 8 sub-frames in response to receiving of the control message for activating the secondary cell; activating a forward direction of the secondary cell in the first downlink sub-frame located first after the second timer expires; and activating a reverse direction of the secondary cell for channel state information, CSI, for the secondary cell and a sounding reference signal, SRS, for the secondary cell in a first sub-frame without a physical downlink control channel, PDCCH, after the second timer expires. receiving a control message for activating the secondary cell from a evolved node B, ENB; operating a first timer and a second timer corresponding to 8 sub-frames in response to receiving of the control message for activating the secondary cell; activating a forward direction of the secondary cell in the first downlink sub-frame located first after the second timer expires; and activating a reverse direction of the secondary cell for channel state information, CSI, for the secondary cell and a sounding reference signal, SRS, for the secondary cell in a first sub-frame without a physical downlink control channel, PDCCH, after the second timer expires.
An aerosol generating apparatus, comprising: a liquid container including a perforated membrane through which a liquid can permeate, the liquid container further includes a first mating element; an adaptor including a second mating element; and a driving element including a piezoelectric element coupled to a substrate, wherein the driving element is accommodated by the adaptor and the substrate includes an aperture and a projection; wherein the first and second mating elements (1010, 1020) are adapted to detachably mate with each other such that the aperture of the substrate aligns proximately to the center of the perforated membrane, wherein the projection is adapted to press against the perforated membrane when the first and second mating elements (1010, 1020) are engaged. a liquid container including a perforated membrane through which a liquid can permeate, the liquid container further includes a first mating element; an adaptor including a second mating element; and a driving element including a piezoelectric element coupled to a substrate, wherein the driving element is accommodated by the adaptor and the substrate includes an aperture and a projection; wherein the first and second mating elements (1010, 1020) are adapted to detachably mate with each other such that the aperture of the substrate aligns proximately to the center of the perforated membrane, wherein the projection is adapted to press against the perforated membrane when the first and second mating elements (1010, 1020) are engaged.
A method of detecting defects in a welded metal structure, comprising clamping or otherwise securing an ultrasonic transducer on or adjacent to a weld seam, and emitting ultrasonic Lamb wave signals so that the signals are propagated along the weld seam acting as a wave guide, and detecting reflections of the guided signals from the wave guide that may be indicative of defects within or adjacent to the weld seam.
A dental apparatus, comprising: a handle including a power button configured to place the dental apparatus in on/off configurations; a controller housed within the handle and including a mouth detection module and a tooth anomaly module; and electrical circuitry in operable communication with the mouth detection module and tooth anomaly module and configured to emit a low intensity excitation light and a high intensity excitation light, the low intensity excitation light having a first frequency and a power level less than 1 mW, and the high intensity excitation light having a higher power level than the low intensity excitation light, wherein the controller, via the mouth detection module and the tooth anomaly module, is configured to control operation of the dental apparatus in a mouth detection mode for utilizing the low intensity excitation light to detect the presence of tooth material and a dental plaque detection mode for utilizing the high intensity excitation light to one of detect the presence of a tooth anomaly and treat a dental condition, and to utilize a feedback loop to adjust power levels of emitted wavelengths of excitation light, wherein, if autofluorescence of tooth material is not detected by the mouth detection module, the high intensity excitation light is not generated and/or emitted from the dental apparatus. a handle including a power button configured to place the dental apparatus in on/off configurations; a controller housed within the handle and including a mouth detection module and a tooth anomaly module; and electrical circuitry in operable communication with the mouth detection module and tooth anomaly module and configured to emit a low intensity excitation light and a high intensity excitation light, the low intensity excitation light having a first frequency and a power level less than 1 mW, and the high intensity excitation light having a higher power level than the low intensity excitation light, wherein the controller, via the mouth detection module and the tooth anomaly module, is configured to control operation of the dental apparatus in a mouth detection mode for utilizing the low intensity excitation light to detect the presence of tooth material and a dental plaque detection mode for utilizing the high intensity excitation light to one of detect the presence of a tooth anomaly and treat a dental condition, and to utilize a feedback loop to adjust power levels of emitted wavelengths of excitation light, wherein, if autofluorescence of tooth material is not detected by the mouth detection module, the high intensity excitation light is not generated and/or emitted from the dental apparatus.
A data processing method is proposed for a video sequence comprising noise, where the video sequence is formed of a succession of images, characterized in that it comprises, for filtering of the noise, application of a recursive filter hereafter called "sign filter" and given by: z n = z n − 1 + Δ if y n > z n − 1 z n = z n − 1 − Δ if y n < z n − 1 and z n = z n − 1 if y n = z z − 1 where: - y ( n) designates an element from the n th image in the succession, not processed by application of the sign filter; - z ( n - 1) designates a position element corresponding to y ( n), from the ( n - 1) th image in the succession, and processed by application of the sign filter; - z ( n) designates a position element corresponding to y ( n), from the n th image in the succession, and processed by application of said sign filter, and - Δ is a strictly positive coefficient. - y ( n) designates an element from the n th image in the succession, not processed by application of the sign filter; - z ( n - 1) designates a position element corresponding to y ( n), from the ( n - 1) th image in the succession, and processed by application of the sign filter; - z ( n) designates a position element corresponding to y ( n), from the n th image in the succession, and processed by application of said sign filter, and - Δ is a strictly positive coefficient.
A sensor cable for ease of automated attachment of connectors and circuit assemblies that has a wide and flat elongated body and a registration feature traversing the length of the body so as to identify the relative locations of conductors within the body, the sensor cable comprising: a conductor set of insulated wires; a conductive inner jacket surrounding the conductor set; a conductive drain line embedded within the inner jacket; an embedded strength member embedded within the inner jacket; and an outer jacket surrounding the inner jacket; and the registration feature being disposed along the surface of the outer jacket, wherein the registration feature is a printed line configured to be optically sensed. a conductor set of insulated wires; a conductive inner jacket surrounding the conductor set; a conductive drain line embedded within the inner jacket; an embedded strength member embedded within the inner jacket; and an outer jacket surrounding the inner jacket; and the registration feature being disposed along the surface of the outer jacket, wherein the registration feature is a printed line configured to be optically sensed.
A polyimide blend composition, comprising: a first 6FDA-based polyimide homopolymer, wherein the first polyimide homopolymer comprises a divalent moiety including one or more hydroxyl groups; and a second 6FDA-based polyimide homopolymer, wherein the second polyimide homopolymer comprises a divalent moiety including one or more carboxyl groups. a first 6FDA-based polyimide homopolymer, wherein the first polyimide homopolymer comprises a divalent moiety including one or more hydroxyl groups; and a second 6FDA-based polyimide homopolymer, wherein the second polyimide homopolymer comprises a divalent moiety including one or more carboxyl groups.
A method of determining whether a received pulse, in a stream of pulses received by a radar receiver, is a member of a cluster, the cluster having an anchor point (60, 66, 80), wherein the first pulse received, and any subsequently received pulse which is not sufficiently similar to previously received pulses, becomes an anchor point which defines a new cluster centered on that anchor point, the received pulse and the anchor point each having a respective feature vector, each feature vector having a multiplicity of features, the method comprising: generating at least one weight corresponding to a feature; calculating, using the weight, a weighted distance between the feature vector of the received pulse and the feature vector of the anchor point; comparing the weighted distance to a threshold; and determining that the received pulse is a member of the cluster if the weighted distance is less than the threshold, wherein the generating at least one weight corresponding to a feature comprises: injecting pulses of known characteristics into the radar receiver during operation; determining the variation in the feature measured; and calculating the weight as a function of the variation in the feature measured. generating at least one weight corresponding to a feature; calculating, using the weight, a weighted distance between the feature vector of the received pulse and the feature vector of the anchor point; comparing the weighted distance to a threshold; and determining that the received pulse is a member of the cluster if the weighted distance is less than the threshold, wherein the generating at least one weight corresponding to a feature comprises: injecting pulses of known characteristics into the radar receiver during operation; determining the variation in the feature measured; and calculating the weight as a function of the variation in the feature measured. injecting pulses of known characteristics into the radar receiver during operation; determining the variation in the feature measured; and calculating the weight as a function of the variation in the feature measured.
A method for calibrating an X-ray apparatus, which includes an X-ray detector and a collimator, comprising: moving the X-ray detector from a first position to a second position along a first axis of a coordinate system, wherein the first position is under a scanning table, and the second position is outside the scanning table; moving the collimator to align the collimator with the X-ray detector at the second position; determining parameters including a distance between the first position and the second position and a first value of a first encoder of the collimator when the collimator is aligned with the X-ray detector at the second position, wherein the first encoder detects a movement of the collimator along the first axis of the coordinate system; and determining a second value of the first encoder when the collimator is aligned with the X-ray detector at the first position based on the distance between the first position and the second position and the first value of the first encoder. moving the X-ray detector from a first position to a second position along a first axis of a coordinate system, wherein the first position is under a scanning table, and the second position is outside the scanning table; moving the collimator to align the collimator with the X-ray detector at the second position; determining parameters including a distance between the first position and the second position and a first value of a first encoder of the collimator when the collimator is aligned with the X-ray detector at the second position, wherein the first encoder detects a movement of the collimator along the first axis of the coordinate system; and determining a second value of the first encoder when the collimator is aligned with the X-ray detector at the first position based on the distance between the first position and the second position and the first value of the first encoder.