mhurhangee/ep-ind-claims huggingface dataset:
A mass or mass to charge ratio selective ion trap with a trapping volume which is spatially extended in two spatial dimensions so that ions will expand to fill a rectangular prism which is elongated in two spatial dimensions, comprising: two layers of electrodes formed from a multipole rod set or a segmented multipole rod set comprising at least 4 rod sets or segmented rod sets, or formed from at least 4 C-shaped electrodes; and two additional segmented or non-segmented rod electrodes; a first device arranged and adapted to apply an RF voltage to at least some electrodes of said ion trap for generating a pseudo-potential barrier or well which acts to confine ions in a first (y) and a second (x) direction within said ion trap, wherein said pseudo-potential barrier or well comprises a non-quadrupolar pseudo-potential barrier or well; a second device arranged and adapted to generate a substantially quadratic DC potential well which acts to confine ions in a third (z) direction within said ion trap; and a third device arranged and adapted to excite ions in said third (z) direction so as to mass or mass to charge ratio selectively eject ions in said third (z) direction. two layers of electrodes formed from a multipole rod set or a segmented multipole rod set comprising at least 4 rod sets or segmented rod sets, or formed from at least 4 C-shaped electrodes; and two additional segmented or non-segmented rod electrodes; a first device arranged and adapted to apply an RF voltage to at least some electrodes of said ion trap for generating a pseudo-potential barrier or well which acts to confine ions in a first (y) and a second (x) direction within said ion trap, wherein said pseudo-potential barrier or well comprises a non-quadrupolar pseudo-potential barrier or well; a second device arranged and adapted to generate a substantially quadratic DC potential well which acts to confine ions in a third (z) direction within said ion trap; and a third device arranged and adapted to excite ions in said third (z) direction so as to mass or mass to charge ratio selectively eject ions in said third (z) direction.
A three-dimensional ultrasound imaging system for assessing scoliosis, the system comprising: an ultrasound scanner to capture ultrasound images; a spatial sensor to record the position and orientation of the captured ultrasound images; characterized in that a computer comprising a software module to automatically mark features of vertebra in the captured ultrasound images, wherein the marked features are a reflection of the surfaces of the vertebra, characterized in that the software module is further configured to connect the marked features with lines, in order to calculate angles and distances between the marked features for the calculation of the Cobb angle and spinal rotation angle based on the calculated angles and distances; wherein the software module includes an image marking module to identify captured images that contain marked features, and wherein the software module includes an image removal module to remove captured images that do not contain marked features. an ultrasound scanner to capture ultrasound images; a spatial sensor to record the position and orientation of the captured ultrasound images; characterized in that a computer comprising a software module to automatically mark features of vertebra in the captured ultrasound images, wherein the marked features are a reflection of the surfaces of the vertebra, characterized in that the software module is further configured to connect the marked features with lines, in order to calculate angles and distances between the marked features for the calculation of the Cobb angle and spinal rotation angle based on the calculated angles and distances; wherein the software module includes an image marking module to identify captured images that contain marked features, and wherein the software module includes an image removal module to remove captured images that do not contain marked features.
A sensor device (10, 20, 30) comprising a probe having a conical tip (12, 112), a core of said conical tip (12, 112) being made of an electrical insulated material, said conical tip (12, 112) being configured as a magnetic field sensor, said conical tip (12, 112) comprising at least one Josephson junction formed by two superconductors separated by a weak link region, the sensor device being characterised in that said conical tip (12, 112) comprises a superconducting film coating on a selected circumferential region of said core at the edge of said tip, thereby defining two pairs of electrode regions (16A, 16B, 16C, 16D) spaced by corresponding weak link regions (17A, 17B) at the edge of said tip.
A dispensing pump for fuel vending systems, comprising a pump body which forms internally a pumping chamber, which rotatably accommodates an impeller, functionally connected to motor means, and provided with an intake connector and a delivery connector, which communicate with said pumping chamber and is configured to be connected to a fuel dispensing line, wherein said pump body has at least one coupling portion for at least one auxiliary device of said dispensing line wherein said coupling portion comprises at least one coupling region for at least one filter characterized in that said coupling region is formed along at least one delivery duct, which is formed in said pump body and extends from said pumping chamber toward said delivery connector.
Microphone system having at least one microphone module, comprising a transmission unit, wherein the transmission unit is designed for wireless transmission of audio information to a base station, comprising a reception unit, wherein the reception unit is designed for reception of wirelessly transmitted status information and/or messages from a transmitter (4, 12), and comprising an output device (13, 14) for outputting the status information and/or messages to a user of the microphone module, wherein the microphone module is adapted for use on a stage, wherein the microphone system comprises the transmitter (4, 12), wherein the transmitter (4, 12) is designed to transmit status information and/or messages to the microphone module wirelessly, characterized in that the output device comprises a vibration alarm device.
Method for identifying the position of a rotor of an electronically commutated electric machine, in which a zero crossing of a voltage induced in a winding phase (13, 15) of the rotor or of a stator is used for the position identification and the winding phase (13, 15) is temporarily switched off for the identification of the zero crossing, wherein the rotor or the stator has at least two winding phases (13, 15), one of which has a lower inductance than the other, characterized in that only the winding phase with the lower inductance is used for the position identification.
Method to secure the execution of a program in an electronic assembly including data processing means and data storage means against attacks by radiation, flash, light, laser or glitch, characterised in that it consists in checking the execution of each instruction of at least one portion of said program by performing during the execution of said portion a calculation using predetermined values, depending on or associated with each of said instructions and by comparing the result obtained with a precalculated value, and by triggering an anomaly detection action if a difference is found.
A method of processing video data in a real-time transport protocol payload, the method comprising: encapsulating video data in an RTP packet for an RTP session, wherein the RTP packet includes an RTP header and an RTP payload, and wherein the RTP header includes a type field which indicates that the RTP packet contains only a single NAL unit in the RTP payload; and encapsulating decoding order number information in the RTP packet if an RTP transmission mode for the RTP session represents multi-stream transmission in which multiple RTP sessions are used for transmission of the video data, and/or if a maximum number of NAL units that may precede the NAL unit in a de-packetization buffer in reception order and follow the NAL unit in decoding order is greater than 0, wherein the decoding order number information represents a decoding order number for the NAL unit contained in the RTP packet. encapsulating video data in an RTP packet for an RTP session, wherein the RTP packet includes an RTP header and an RTP payload, and wherein the RTP header includes a type field which indicates that the RTP packet contains only a single NAL unit in the RTP payload; and encapsulating decoding order number information in the RTP packet if an RTP transmission mode for the RTP session represents multi-stream transmission in which multiple RTP sessions are used for transmission of the video data, and/or if a maximum number of NAL units that may precede the NAL unit in a de-packetization buffer in reception order and follow the NAL unit in decoding order is greater than 0, wherein the decoding order number information represents a decoding order number for the NAL unit contained in the RTP packet.
An electronic device in a wireless communication system, comprising one or more processing circuits configured to perform operations of: monitoring resources corresponding to a first semi-persistent scheduling, SPS, configuration used by the electronic device and resources corresponding to other SPS configurations other than the first SPS configuration; and determining an SPS configuration reselection result of the electronic device based on a monitorization result; wherein the processing circuit is further configured to perform an operation of: monitoring received signal strength on the resource corresponding to the first SPS configuration and the resources corresponding to the other SPS configurations; and reselecting a SPS configuration of the electronic device to one of one or more SPS configurations among the other SPS configurations, in a case that the received signal strength on the resource corresponding to the first SPS configuration, P1, gradually increases, such that P1 < P1 < P1, and the received signal strength on the resources corresponding to the one or more SPS configurations, P2, gradually decreases, such that P2 > P2 > P2, wherein t1, t2 and t3 are a first, second and third configuration time respectively. monitoring resources corresponding to a first semi-persistent scheduling, SPS, configuration used by the electronic device and resources corresponding to other SPS configurations other than the first SPS configuration; and determining an SPS configuration reselection result of the electronic device based on a monitorization result; wherein the processing circuit is further configured to perform an operation of: monitoring received signal strength on the resource corresponding to the first SPS configuration and the resources corresponding to the other SPS configurations; and reselecting a SPS configuration of the electronic device to one of one or more SPS configurations among the other SPS configurations, in a case that the received signal strength on the resource corresponding to the first SPS configuration, P1, gradually increases, such that P1 < P1 < P1, and the received signal strength on the resources corresponding to the one or more SPS configurations, P2, gradually decreases, such that P2 > P2 > P2, wherein t1, t2 and t3 are a first, second and third configuration time respectively. monitoring received signal strength on the resource corresponding to the first SPS configuration and the resources corresponding to the other SPS configurations; and reselecting a SPS configuration of the electronic device to one of one or more SPS configurations among the other SPS configurations, in a case that the received signal strength on the resource corresponding to the first SPS configuration, P1, gradually increases, such that P1 < P1 < P1, and the received signal strength on the resources corresponding to the one or more SPS configurations, P2, gradually decreases, such that P2 > P2 > P2, wherein t1, t2 and t3 are a first, second and third configuration time respectively.
A process for converting a reactant composition comprising H 2 and CO to a product comprising at least one aliphatic hydrocarbon having at least 5 carbon atoms, the process comprising: flowing the reactant composition through a microchannel reactor in contact with a Fischer-Tropsch catalyst to convert the reactant composition to the product, the catalyst comprising Co supported on a support, the Co loading being at least 25% by weight, the microchannel reactor comprising a plurality of process microchannels containing the catalyst, each process microchannel having an internal dimension of width or height of up to 10 mm, the catalyst being in the form of a fixed bed of particulate solids packed inside the process microchannels, a median particle diameter of the particulate solids in the range of 1 to 1000 μm, a space velocity for the flow of the reactant composition and product through the process microchannels at least 1,000 hr -1; transferring heat from the process microchannels to a heat exchanger; and removing the product from the microchannel reactor; the process producing at least 0.5 gram of aliphatic hydrocarbon having at least 5 carbon atoms per gram of catalyst per hour; and the selectivity to methane in the product being less than 25%. flowing the reactant composition through a microchannel reactor in contact with a Fischer-Tropsch catalyst to convert the reactant composition to the product, the catalyst comprising Co supported on a support, the Co loading being at least 25% by weight, the microchannel reactor comprising a plurality of process microchannels containing the catalyst, each process microchannel having an internal dimension of width or height of up to 10 mm, the catalyst being in the form of a fixed bed of particulate solids packed inside the process microchannels, a median particle diameter of the particulate solids in the range of 1 to 1000 μm, a space velocity for the flow of the reactant composition and product through the process microchannels at least 1,000 hr -1; transferring heat from the process microchannels to a heat exchanger; and removing the product from the microchannel reactor; the process producing at least 0.5 gram of aliphatic hydrocarbon having at least 5 carbon atoms per gram of catalyst per hour; and the selectivity to methane in the product being less than 25%.
A process for producing a polyvinyl chloride dry blend composition, the process comprising: mixing PVC powder while heating to a stock temperature at or below the melting point of the neat PVC resin; after the stock temperature is reached, adding a bio-based plasticizer to the PVC component with agitation; mixing the PVC powder and the plasticizer for a hold time before adding a filler, wherein the hold time is from 0.5 to 5.0 minutes; and mixing the PVC powder, bio-based plasticizer and filler for 1 up to 45 minutes to a drop temperature to form the dry blend composition comprising aggregated PVC particles with a bulk density of greater than 0.67 g/cc, wherein the drop temperature is 55 to 65 °C. mixing PVC powder while heating to a stock temperature at or below the melting point of the neat PVC resin; after the stock temperature is reached, adding a bio-based plasticizer to the PVC component with agitation; mixing the PVC powder and the plasticizer for a hold time before adding a filler, wherein the hold time is from 0.5 to 5.0 minutes; and mixing the PVC powder, bio-based plasticizer and filler for 1 up to 45 minutes to a drop temperature to form the dry blend composition comprising aggregated PVC particles with a bulk density of greater than 0.67 g/cc, wherein the drop temperature is 55 to 65 °C.
An elevator car door system comprising: an elevator car door panel (302; 408; 502; 600; 704) having a first retention member (312; 406; 510; 604; 720); and a suspension (310; 410; 504; 602; 706) having a second retention member (512; 606; 718) configured to releasably engage with the first retention member (312; 406; 510; 604; 720) to retain the elevator car door panel (302; 408; 502; 600; 704) in a first position; wherein the elevator car door panel (302; 408; 502; 600; 704) is moveable relative to the suspension (310; 410; 504; 602; 706) to a second position, wherein the second position is configured to enable the elevator car door panel (302; 408; 502; 600; 704) to be removed from the suspension (310; 410; 504; 602; 706). an elevator car door panel (302; 408; 502; 600; 704) having a first retention member (312; 406; 510; 604; 720); and a suspension (310; 410; 504; 602; 706) having a second retention member (512; 606; 718) configured to releasably engage with the first retention member (312; 406; 510; 604; 720) to retain the elevator car door panel (302; 408; 502; 600; 704) in a first position; wherein the elevator car door panel (302; 408; 502; 600; 704) is moveable relative to the suspension (310; 410; 504; 602; 706) to a second position, wherein the second position is configured to enable the elevator car door panel (302; 408; 502; 600; 704) to be removed from the suspension (310; 410; 504; 602; 706).
Use of a catheter (210, 222a, 222b, 232, 242, 252, 262, 282, 292, 302, 312, 322) with a distal expandable section selected from the group consisting of an expandable balloon, expandable helical electrodes, expandable basket, expandable ring electrodes, or a combination thereof, that is configured to self-expand or to be expanded from a low-profile delivery configuration into contact with an interior wall of the renal artery, wherein one or more electrodes are arranged at the distal expandable section and configured to physically contact the interior wall of the renal artery for providing a renal neuromodulation.
A three-dimensional image viewing device configured for three-dimensionally viewing an image displayed on a screen of an image display device by using a plurality of mirrors (11-13, 81-83), the three-dimensional image viewing device having a mirror device (80, 90) which includes: a main body case on which the image display device is attachable and detachable; a mirror case which is rotatably supported about a first shaft at a rear end of the main body case; and a plurality of mirrors (11-13, 81-83) which are rotatably supported about respective second shafts (11a, 12a, 21a, 22a) on the mirror case in parallel at predetermined intervals from the front to the back of the mirror case, the plurality of mirrors being rotatable only within a certain angular range, wherein at least one of the plurality of mirrors (11-13, 81-83) is a half mirror, wherein each of the plurality of mirrors (11-13, 81-83) is arranged to reflect a different image being displayed at a different portion (71a, 71b, 71c) of the screen of the image display device to a viewer, wherein the mirror case, when an image display device is attached to the main body case and a three-dimensional image is viewed, rotates about the first shaft so that the plurality of mirrors are disposed in parallel with each other and front end parts of the plurality of mirrors (11-13, 81-83) form approximately the same plane on the screen of the image display device, reflecting the image displayed on the different portion (71a, 71b, 71c) of the screen of the image display device in a state where the plurality of mirrors (11-13, 81-83) are supported and tilted at a predetermined angle to the viewer side relative to the screen, and the mirror case, when the image display device is removed from the main body case, rotates about the first shaft to the main body case side so that the plurality of mirrors (11-13, 81-83) rotate about the respective second shafts (11a, 12a, 21a, 22a) and are accommodated in a state of being folded within the mirror case. a main body case on which the image display device is attachable and detachable; a mirror case which is rotatably supported about a first shaft at a rear end of the main body case; and a plurality of mirrors (11-13, 81-83) which are rotatably supported about respective second shafts (11a, 12a, 21a, 22a) on the mirror case in parallel at predetermined intervals from the front to the back of the mirror case, the plurality of mirrors being rotatable only within a certain angular range,
A method of producing a cellulosic or lignocellulosic material for use in papermaking, the method comprising: treating a cellulosic or lignocellulosic dry feedstock having a first average molecular weight with a dose of from 10 MRad to 1000 MRad of ionizing radiation to reduce the average molecular weight of the feedstock to a predetermined level selected to render the treated feedstock suitable for use as or in forming a pulp for use in a papermaking process.
Motor vehicle exhaust line comprising at least one perforated pipe having a plurality of cavities and a sleeve composed of a metallic tubular lattice formed by meshes, the length of a mesh of the lattice forming the sleeve being less than or equal to half the length of a cavity of the pipe, so as to avoid the formation of vortices opposite the cavities, the sleeve being positioned against an outer wall of the wall of the perforated pipe, characterized in that the lattice forming the sleeve is driven into the cavities of the perforated pipe and forms indentations opposite the cavities comprising a bottom which is flush with the inner face of the wall of the pipe.
Method of synchronization of data packet transmission (P1, P2, P3) in a network, the method comprising and/or initiating the steps of: Receiving, from a terminal device (T1, T2, T3) of the network, one or more data packets (P1, P2, P3) after a threshold time interval (tt) of a periodic transmission window (RT, BE), wherein the threshold time interval (tt) is arranged at the beginning of said periodic transmission window (RT, BE), and Forwarding the one or more data packets (P1, P2, P3) in a subsequent transmission window (RT, BE), within the threshold time interval (tt) of the subsequent transmission window (RT, BE). Receiving, from a terminal device (T1, T2, T3) of the network, one or more data packets (P1, P2, P3) after a threshold time interval (tt) of a periodic transmission window (RT, BE), wherein the threshold time interval (tt) is arranged at the beginning of said periodic transmission window (RT, BE), and Forwarding the one or more data packets (P1, P2, P3) in a subsequent transmission window (RT, BE), within the threshold time interval (tt) of the subsequent transmission window (RT, BE).
An interchangeable lens that is removably attachable to a camera body, comprising: a first clock receiving unit that receives a first clock from the camera body; a second clock transmitting unit that transmits a second clock (HCLK) to the camera body; a lens (361a, 361b) that is driven by receiving a driving force from a first driving member (370a, 370b); a receiving unit that receives an instruction from the camera body in synchronization with the first clock; a first transmitting unit that periodically transmits positional information on the lens in synchronization with the second clock, to the camera body; a diaphragm member that is driven by receiving a driving force from a second driving member; and a second transmitting unit that transmits a state of the diaphragm member based on the instruction in synchronization with the first clock, to the camera body. a first clock receiving unit that receives a first clock from the camera body; a second clock transmitting unit that transmits a second clock (HCLK) to the camera body; a lens (361a, 361b) that is driven by receiving a driving force from a first driving member (370a, 370b); a receiving unit that receives an instruction from the camera body in synchronization with the first clock; a first transmitting unit that periodically transmits positional information on the lens in synchronization with the second clock, to the camera body; a diaphragm member that is driven by receiving a driving force from a second driving member; and a second transmitting unit that transmits a state of the diaphragm member based on the instruction in synchronization with the first clock, to the camera body.