mhurhangee/ep-ind-claims huggingface dataset:
A sensor for measuring pressure, the sensor comprising: a body comprising: a substrate, and a deformable membrane for deflecting in response to pressure applied, wherein the deformable membrane spans a cavity manufactured in the body; a first stationary electrode and a second electrode for determining a change in a capacitance between the first and the second electrode (43, 44) in response to the pressure applied, wherein the second electrode is coupled to or embodied in the deformable membrane; wherein the first electrode (43, 44) comprises a getter material for collecting gas molecules, wherein the getter material is exposed to the cavity, characterized in that: the first electrode comprises a plurality of individual elements, wherein neighbouring elements of the plurality of individual elements are coupled to one another through an electrically conducting bridge, and wherein the electrically conducting bridge is configured to act as a spring. a body comprising: a substrate, and a deformable membrane for deflecting in response to pressure applied, wherein the deformable membrane spans a cavity manufactured in the body; a substrate, and a deformable membrane for deflecting in response to pressure applied, wherein the deformable membrane spans a cavity manufactured in the body; a first stationary electrode and a second electrode for determining a change in a capacitance between the first and the second electrode (43, 44) in response to the pressure applied, wherein the second electrode is coupled to or embodied in the deformable membrane; wherein the first electrode (43, 44) comprises a getter material for collecting gas molecules, wherein the getter material is exposed to the cavity, characterized in that: the first electrode comprises a plurality of individual elements, wherein neighbouring elements of the plurality of individual elements are coupled to one another through an electrically conducting bridge, and wherein the electrically conducting bridge is configured to act as a spring. the first electrode comprises a plurality of individual elements, wherein neighbouring elements of the plurality of individual elements are coupled to one another through an electrically conducting bridge, and wherein the electrically conducting bridge is configured to act as a spring.
A method for assessing risk for colon cancer in a subject, comprising the steps of (a) quantitatively determining the levels of gene markers i) m1704941 or nusG. ii) m2736705, iii) m3246804, and iv) m370640 in a stool sample taken from the subject: (b) comparing the levels obtained in step (a) with standard controls; (c) determining the levels obtained in step (a) as increased or decreased from the standard controls, wherein an increase is determined for m1704941 or nusG, m2736705, and m3246804, and wherein a decrease is determined for m370640; and (d) determining the subject as having an increased risk for colon cancer, wherein the gene markers m1704941, m2736705, m3246804, and m370640 are the DNA genes represented by SEQ ID NOs: 5, 6, 7, and 2, respectively, from the bacterial species Fusobacterium nucleatum, Clostridium hathewayi, m7, and Bacteroides clarus, respectively, and wherein the gene marker nusG is an alternative marker for Fusobacterium nucleatum. (a) quantitatively determining the levels of gene markers i) m1704941 or nusG. ii) m2736705, iii) m3246804, and iv) m370640 in a stool sample taken from the subject: (b) comparing the levels obtained in step (a) with standard controls; (c) determining the levels obtained in step (a) as increased or decreased from the standard controls, wherein an increase is determined for m1704941 or nusG, m2736705, and m3246804, and wherein a decrease is determined for m370640; and (d) determining the subject as having an increased risk for colon cancer, wherein the gene markers m1704941, m2736705, m3246804, and m370640 are the DNA genes represented by SEQ ID NOs: 5, 6, 7, and 2, respectively, from the bacterial species Fusobacterium nucleatum, Clostridium hathewayi, m7, and Bacteroides clarus, respectively, and wherein the gene marker nusG is an alternative marker for Fusobacterium nucleatum.
An aerial vehicle comprising: a fuselage located on a central longitudinal axis of the vehicle, at least two fixed wings (3, 4) extending perpendicular to the central longitudinal axis, wherein the wings (3, 4) are stacked and spaced from each other along the central longitudinal axis when the vehicle is oriented for horizontal flight, at least one thrust producing element mounted to one of the wings (3, 4) in a fixed non-articulating relationship to the one of the wings (3, 4) and the fuselage; at least two thrust producing elements mounted to one of the other wings (3, 4) in a fixed non-articulating relationship to the one of the other wings (3, 4) and the fuselage, the thrust producing elements are orientated relative to the wings (3, 4) such that each thrust producing element can provide thrust for vertical or near vertical flight and horizontal or near horizontal flight; a plurality of electric motors for driving the thrust producing elements, at least one battery for providing power to the motors, and a flight control system having a motor controller for controlling the rotational speed and direction of rotation of each thrust producing element. a fuselage located on a central longitudinal axis of the vehicle, at least two fixed wings (3, 4) extending perpendicular to the central longitudinal axis, wherein the wings (3, 4) are stacked and spaced from each other along the central longitudinal axis when the vehicle is oriented for horizontal flight, at least one thrust producing element mounted to one of the wings (3, 4) in a fixed non-articulating relationship to the one of the wings (3, 4) and the fuselage; at least two thrust producing elements mounted to one of the other wings (3, 4) in a fixed non-articulating relationship to the one of the other wings (3, 4) and the fuselage, the thrust producing elements are orientated relative to the wings (3, 4) such that each thrust producing element can provide thrust for vertical or near vertical flight and horizontal or near horizontal flight; a plurality of electric motors for driving the thrust producing elements, at least one battery for providing power to the motors, and a flight control system having a motor controller for controlling the rotational speed and direction of rotation of each thrust producing element.
Router comprising a plurality of first interfaces for transmitting data packets between the router and networks or network participants by wire and/or wirelessly, the router having at least one second interface for receiving and/or sending data from/to a remote terminal by wire and/or wirelessly, said second interface being physically separated from all of the first interfaces such that it is not possible to directly transmit data between the at least one second interface and the first interfaces, characterised in that the at least one second interface is communicatively connected to a non-volatile memory such that data can be written into the non-volatile memory and read out via the second interface, it being possible for data relating to the function of the router to be read from the non-volatile memory by the remote terminal, it being possible for data relating to the function of the router to be written by an operating device into the non-volatile memory via a third interface, at least one second interface being a passive RFID interface, as a result of which said at least one second interface is designed such that communication via said interface is possible even if the router is in a de-energised state.
Composition for oral administration, which contains as active ingredient, at least one flavanone compound that is hesperidin for use in preventing and/or treating skin inflammation.
A carton for holding a plurality of containers, the carton comprising: a plurality of panels (10, 20, 30, 40) that extends at least partially around an interior of the carton, the plurality of panels comprising a top panel, a bottom panel, a first side panel, and a second side panel; a plurality of end flaps (12, 22, 32, 42, 14, 24, 34, 44) respectively foldably connected to respective panels of the plurality of panels (10, 20, 30 40), the plurality of end flaps is at least partially overlapped with respect to one another to thereby at least partially form a closed end (51, 53) of the carton; a handle formed in the closed end (51, 53) of the carton; a reinforcing insert comprising a central panel and an insert end flap being positioned for reinforcing the handle, the top panel at least partially overlapping the central panel, characterized in that the insert end flap is a second insert end flap which is foldably connected to the central panel, there being additionally a first insert end flap positioned for contact with at least one of the plurality of containers, the first insert end flap is foldably connected to the central panel along a first fold line, and the second insert end flap is foldably connected to the central panel along a second fold line (218, 219), the first fold line being spaced apart from the second fold line (218, 219), and the first fold line is spaced apart from a centerline of the reinforcing insert by a first distance and the second fold line (218, 219) is spaced apart from the centerline of the reinforcing insert by a second distance, the second distance being greater than the first distance, the plurality of end flaps (12, 22, 32, 42, 14, 24, 34, 44) are foldably connected to the respective panels along a third fold line (62, 64), the third fold line (62, 64) generally overlaps the second fold line (218, 219), the top panel overlaps the first fold line, and the first insert end flap extends from the top panel toward the closed end (51, 53) at an oblique angle. a plurality of panels (10, 20, 30, 40) that extends at least partially around an interior of the carton, the plurality of panels comprising a top panel, a bottom panel, a first side panel, and a second side panel; a plurality of end flaps (12, 22, 32, 42, 14, 24, 34, 44) respectively foldably connected to respective panels of the plurality of panels (10, 20, 30 40), the plurality of end flaps is at least partially overlapped with respect to one another to thereby at least partially form a closed end (51, 53) of the carton; a handle formed in the closed end (51, 53) of the carton; a reinforcing insert comprising a central panel and an insert end flap being positioned for reinforcing the handle, the top panel at least partially overlapping the central panel,
Conveying system for goods with a pusher loaded by means of a drive device in a conveying direction, with a damping device arranged in the pusher comprising a rotational damping device and with a support and guiding rail, wherein the drive device comprises a spiral spring with a rectangular cross-section clamped on both sides, - wherein the entire drive device is arranged in series with the damping device acting against the conveying direction, - wherein one end of the spiral spring is attached in a front anchor to the support and guide rail, and - wherein the flow of force from the front anchor via the drive device and the damping device to the pusher occurs, characterized in that the drive device and the damping device form a pre-assembled unit that can be inserted into a housing of the pusher. - wherein the entire drive device is arranged in series with the damping device acting against the conveying direction, - wherein one end of the spiral spring is attached in a front anchor to the support and guide rail, and - wherein the flow of force from the front anchor via the drive device and the damping device to the pusher occurs,
A method for improving a Kalman filter solution, comprising: (a) using at least one sensor (120a, 120b, 220) on a mobile platform receiving a plurality of sequential measurements of a state variable, each measurement including a respective noise contribution; (b) obtaining for each measurement of the plurality of sequential measurements, an estimated signal based on a Kalman-filtered estimate of the state variable and a measurement of platform motion of the mobile platform; (c) determining for each estimated signal, a respective error indicative of a departure of the estimated signal from the measurement; (d) selectively removing at least one sequential measurement from the plurality of sequential measurements responsive to a predetermined condition imposed upon the respective errors, those sequential measurements remaining after removal being referred to as a tailored plurality of sequential measurements; and (e) obtaining for each measurement of the tailored plurality of sequential measurements, a revised Kalman-filtered estimate for the state variable. (a) using at least one sensor (120a, 120b, 220) on a mobile platform receiving a plurality of sequential measurements of a state variable, each measurement including a respective noise contribution; (b) obtaining for each measurement of the plurality of sequential measurements, an estimated signal based on a Kalman-filtered estimate of the state variable and a measurement of platform motion of the mobile platform; (c) determining for each estimated signal, a respective error indicative of a departure of the estimated signal from the measurement; (d) selectively removing at least one sequential measurement from the plurality of sequential measurements responsive to a predetermined condition imposed upon the respective errors, those sequential measurements remaining after removal being referred to as a tailored plurality of sequential measurements; and (e) obtaining for each measurement of the tailored plurality of sequential measurements, a revised Kalman-filtered estimate for the state variable.
A process for forming a metal supported solid oxide fuel cell, the process comprising the steps of: a) applying a green anode layer including nickel oxide and a rare earth-doped ceria to a metal foil substrate; b) prefiring the anode layer at a temperature in the range 950 to 1100°C under non-reducing conditions to form a composite and a passivation layer interposed between the composite and the metal substrate; c) firing the composite in a reducing atmosphere to form a sintered cermet; d) providing an electrolyte; and e) providing a cathode; wherein the reducing atmosphere comprises an oxygen source, wherein an oxygen partial pressure in the reducing atmosphere of step c) is in the range 10 -14 to 10 -22 bar. a) applying a green anode layer including nickel oxide and a rare earth-doped ceria to a metal foil substrate; b) prefiring the anode layer at a temperature in the range 950 to 1100°C under non-reducing conditions to form a composite and a passivation layer interposed between the composite and the metal substrate; c) firing the composite in a reducing atmosphere to form a sintered cermet; d) providing an electrolyte; and e) providing a cathode;
A safety-lock structure for a packaging box comprising: a cover body; and a container body having a neck finish, the neck finish having an opening an outer wall of the neck finish being provided with external threads, an inner wall of the cover body being provided with internal threads which are in thread connection with the threads, a side wall of the cover body being provided with at least two pressing portions, an inner wall of each pressing portion being provided with a flexible snap, an upper end surface of the container body being provided with a blocking portion that corresponds to each flexible snap, after the cover body and the container body are screwed tight to each other, the flexible snaps and the blocking portions are engaged with each other, wherein a surface of the cover body is provided with recessed portions, inner side walls of the recessed portions forming the pressing portions, the flexible snaps being disposed on the inner side walls of the recessed portions and adjacent to a center of the cover body, characterized in that the surface of the cover body provided with said recessed portions is recessed inward, and a slit groove is provided between a bottom portion of the recessed portion and the pressing portion. a cover body; and a container body having a neck finish, the neck finish having an opening an outer wall of the neck finish being provided with external threads, an inner wall of the cover body being provided with internal threads which are in thread connection with the threads, a side wall of the cover body being provided with at least two pressing portions, an inner wall of each pressing portion being provided with a flexible snap, an upper end surface of the container body being provided with a blocking portion that corresponds to each flexible snap, after the cover body and the container body are screwed tight to each other, the flexible snaps and the blocking portions are engaged with each other, wherein a surface of the cover body is provided with recessed portions, inner side walls of the recessed portions forming the pressing portions, the flexible snaps being disposed on the inner side walls of the recessed portions and adjacent to a center of the cover body, characterized in that the surface of the cover body provided with said recessed portions is recessed inward, and a slit groove is provided between a bottom portion of the recessed portion and the pressing portion.
A method, performed by a first centralized unit, CU, in a radio access network, RAN, for configuring a user equipment, UE, to communicate via a plurality of distributed units, DUs, the method comprising: initiating a first radio resource control, RRC, entity to communicate with the UE via an initial RRC connection through a first DU; selecting a second DU to communicate with the UE in a dual-connectivity, DC, configuration with the first DU; and based on whether the selected second DU is associated with the first CU, determining whether to initiate a second RRC entity, within the first CU, to communicate with the UE via an additional RRC connection through the second DU. initiating a first radio resource control, RRC, entity to communicate with the UE via an initial RRC connection through a first DU; selecting a second DU to communicate with the UE in a dual-connectivity, DC, configuration with the first DU; and based on whether the selected second DU is associated with the first CU, determining whether to initiate a second RRC entity, within the first CU, to communicate with the UE via an additional RRC connection through the second DU.
Closure element for a hydraulic connector system, the closure element having an outer face and an inner face, and it being possible for the closure element to be used both on the outer side as a plug for a socket opening and on the inner side as a cap with a receiving opening for a plug element, it being possible for the plug element to be connected to the socket opening in a hydraulically conducting manner, and it being possible for a socket opening to be sealed by means of a sealing lip, the sealing lip being arranged in a first outer section of the outer face and being directed away at an angle relative to the first outer section, characterized in that the outer face has a concentric third outer section which adjoins the first outer section, the first outer section widening towards the third outer section, and the sealing lip extending concentrically, in particular parallel, with respect to the first outer section in an extension of the third outer section.
An external preparation for skin, comprising an alkyl thioglycoside represented by the general formula: G-SR 1 wherein G represents a sugar selected from a monosaccharide or a disaccharide, R 1 represents an alkyl group having 10 to 18 carbon atoms, and G and an SR 1 group are bonded to each other via a β-glycosidic bond.
A method comprising: forming an alkaline solution; combining the alkaline solution with a portion of ethoxylated 2-ethylhexanol to provide an aqueous solution, wherein the ethoxylated 2-ethylhexanol comprises up to 10 ethylene oxide units; and slowly adding linear alkyl benzene sulfonic acid to the aqueous solution to provide a linear alkyl benzene sulfonate solution wherein the linear alkyl benzene sulfonate solution exhibits a viscosity that is at least 40 % less than the viscosity of a substantially similar solution, wherein the substantially similar solution comprises the alkaline solution and the linear alkyl benzene sulfonic acid in the absence of the ethoxylated 2-ethylhexanol, and wherein the linear alkyl benzene sulfonate solution exhibits values for surface tension and foaming properties within 5 % of the values for surface tension and foaming of the substantially similar solution in the absence of the ethoxylated 2-ethylhexanol. forming an alkaline solution; combining the alkaline solution with a portion of ethoxylated 2-ethylhexanol to provide an aqueous solution, wherein the ethoxylated 2-ethylhexanol comprises up to 10 ethylene oxide units; and slowly adding linear alkyl benzene sulfonic acid to the aqueous solution to provide a linear alkyl benzene sulfonate solution wherein the linear alkyl benzene sulfonate solution exhibits a viscosity that is at least 40 % less than the viscosity of a substantially similar solution, wherein the substantially similar solution comprises the alkaline solution and the linear alkyl benzene sulfonic acid in the absence of the ethoxylated 2-ethylhexanol, and wherein the linear alkyl benzene sulfonate solution exhibits values for surface tension and foaming properties within 5 % of the values for surface tension and foaming of the substantially similar solution in the absence of the ethoxylated 2-ethylhexanol.
A method for data transmission, comprising determining, by a network device, a numerology used in transmitting data; sending, by the network device according to the numerology, Downlink Control Information, DCI, configured to schedule the data to a terminal device, wherein the numerology comprises a subcarrier spacing and a signal prefix length, and the subcarrier spacing is a frequency interval, selected from at least one of 15kHz, 30kHz, 60kHz or 120kHz, between adjacent subcarriers, different subcarrier spacings correspond to different DCI formats of DCI, and used for data transmission on different frequency bands, and the signal prefix length indicates whether a Cyclic Prefix, CP, uses a normal CP or an extended CP; and sending, by the network device, the data to the terminal device or receiving the data sent by the terminal device according to the numerology and the DCI, determining, by a network device, a numerology used in transmitting data; sending, by the network device according to the numerology, Downlink Control Information, DCI, configured to schedule the data to a terminal device, wherein the numerology comprises a subcarrier spacing and a signal prefix length, and the subcarrier spacing is a frequency interval, selected from at least one of 15kHz, 30kHz, 60kHz or 120kHz, between adjacent subcarriers, different subcarrier spacings correspond to different DCI formats of DCI, and used for data transmission on different frequency bands, and the signal prefix length indicates whether a Cyclic Prefix, CP, uses a normal CP or an extended CP; and sending, by the network device, the data to the terminal device or receiving the data sent by the terminal device according to the numerology and the DCI,
A method of operating a gaseous-fuelled direct injection internal combustion engine, the method comprising injecting said gaseous fuel directly into a combustion chamber at an injection pressure higher than 300 bar wherein an orientation of a jet of said gaseous fuel is determined such that said jet is impinging on at least one surface of a cylinder piston and a ratio between said injection pressure and a peak cylinder pressure is between 1.6:1 and 3:1.