mhurhangee/patent-ind-claim-en huggingface dataset:
Multilayer polymer barrier film for food packaging providing a gas and water vapor barrier, wherein the film is comprised of thermoplastic polymers only and comprises at least four inner layers of ethylene vinyl alcohol (EVOH), and at least four layers of polyethylene (PE) or polypropylene (PP) that encapsulate said at least fourEVOH layers, wherein the film comprises at least 5wt% EVOH, based on the total weight of the film, wherein the multilayer polymer barrier film has an Oxygen Transmission Rate (OTR) of at most 0.5 cc/m 2 /24h, as determined according to ASTM D3985 and wherein the multilayer polymer barrier film has a Water Vapor Transmission Rate (WVTR) of at most 3.8 g/m2/24h, as determined according to ASTM E398, wherein the multilayer barrier film is comprised of between 45 to 65 wt% PE and/or PP, 20 to 40 wt % adhesive polymers, and 7.5 to 20 wt% EVOH, based on the total weight of the film, and wherein the multilayer polymer barrier film further comprises at least six layers of adhesive polymers selected from the group consisting of maleic anhydride (MAH)-grafted PE polymers, ethylene acrylic acid (EAA), ethylene methacrylic acid (EMAA), EMA (ethyl methacrylate), ethylene vinyl acetate (EVA), or blends thereof with LLDPE, preferably maleic anhydride (MAH)-grafted PE polymers, more preferably maleic anhydride (MAH)-grafted LLDPE, for providing adhesion between the at least four inner layers of EVOH and at least four layers of PP or PE that encapsulate said EVOH layers, and wherein the barrier film does not comprise metal and inorganic compounds.
A reagent for use in mass spectrometry, which is a compound of the general formula (I): Z 1 -L 1 -(CR 1 R 2 )-S(O)-CR 3 H-CH 2 -C(-L 2 -Z 2 )R 4 (-L x -X) wherein Z 1 is charge unit carrying at least one charged moiety L 1 is a bond or a spacer, Z 2 is charge unit carrying at least one charged moiety, L 2 is a bond or a spacer, R 1 , R 2 , R 3 , R 4 are independently hydrogen or C 1 -C 3 alkyl, X is a reactive group capable of reacting with an analyte molecule, whereby a covalent bond with the analyte molecule is formed, L x is a bond or spacer, and wherein the charge units Z 1 and Z 2 comprise each at least one positively charged moiety, or wherein the charge units Z 1 and Z 2 comprise each at least one negatively charged moiety. Z 1 is charge unit carrying at least one charged moiety L 1 is a bond or a spacer, Z 2 is charge unit carrying at least one charged moiety, L 2 is a bond or a spacer, R 1 , R 2 , R 3 , R 4 are independently hydrogen or C 1 -C 3 alkyl, X is a reactive group capable of reacting with an analyte molecule, whereby a covalent bond with the analyte molecule is formed, L x is a bond or spacer, and wherein the charge units Z 1 and Z 2 comprise each at least one positively charged moiety, or wherein the charge units Z 1 and Z 2 comprise each at least one negatively charged moiety.
A method for characterizing a specimen , comprising: providing a holographic microscope ; selecting characteristics for a collimated laser selected from the group consisting of wavelength, number of distinct wavelengths, coherence length, intensity of light at each distinct wavelength, and a continuous or pulsed nature; scattering the laser's beam off the specimen to generate a scattered portion; generating an interference pattern from an unscattered portion of the collimated laser beam and the scattered portion; recording the interference pattern for subsequent analysis; fitting the interference pattern to either Lorenz-Mie light scattering theory or T-Matrix light scattering theory; and determining an estimate of the specimen's refractive index and radius from the fitted interference pattern. providing a holographic microscope ; selecting characteristics for a collimated laser selected from the group consisting of wavelength, number of distinct wavelengths, coherence length, intensity of light at each distinct wavelength, and a continuous or pulsed nature; scattering the laser's beam off the specimen to generate a scattered portion; generating an interference pattern from an unscattered portion of the collimated laser beam and the scattered portion; recording the interference pattern for subsequent analysis; fitting the interference pattern to either Lorenz-Mie light scattering theory or T-Matrix light scattering theory; and determining an estimate of the specimen's refractive index and radius from the fitted interference pattern.
A pile press-in device for pressing a pile into a ground while rotating the pile , the pile press-in device comprising: a rotation device for gripping and rotating the pile ; an electrically powered device for acting on the rotation device to give the rotation device a driving force for the rotation; a hydraulic device as a lift for moving the rotation device up and down; the device being characterised by comprising a controller for controlling the electrically powered device and the hydraulic device in an interlocked manner, wherein the controller is configured to control the up-and-down movement of the rotation device caused by the lift, based on a rotation output of the electrically powered device at a time of press-in of the pile gripped by the rotation device . a rotation device for gripping and rotating the pile ; an electrically powered device for acting on the rotation device to give the rotation device a driving force for the rotation; a hydraulic device as a lift for moving the rotation device up and down; the device being characterised by comprising a controller for controlling the electrically powered device and the hydraulic device in an interlocked manner, wherein the controller is configured to control the up-and-down movement of the rotation device caused by the lift, based on a rotation output of the electrically powered device at a time of press-in of the pile gripped by the rotation device .
A system , comprising: a chip card reader ; and a shimmer detection device interfaced to at least a portion of the chip card reader and, during a card transaction at a terminal, configured to detect that a shimmer, to steal information from a card, is inserted in the chip card reader; characterised in that the shimmer detection device is electrically coupled to operating voltage (C1) and ground (C5) contacts of the chip card reader, and is adapted and configured to: obtain readings from a capacitor/resistance module interfaced to a voltage contact lead and a ground contact lead that are overlaid on the C1 and C5 contact points of the chip card reader; track noise, representing voltage changes, generated in the capacitor/resistance module over time; and filter the noise based on a number of successive stages, each stage representing a different threshold level of known noise variations; wherein, when a reading exceeds each threshold level of known noise variations, indicate that a shimmer is present within the chip card reader. a chip card reader ; and a shimmer detection device interfaced to at least a portion of the chip card reader and, during a card transaction at a terminal, configured to detect that a shimmer, to steal information from a card, is inserted in the chip card reader; characterised in that the shimmer detection device is electrically coupled to operating voltage (C1) and ground (C5) contacts of the chip card reader, and is adapted and configured to: obtain readings from a capacitor/resistance module interfaced to a voltage contact lead and a ground contact lead that are overlaid on the C1 and C5 contact points of the chip card reader; track noise, representing voltage changes, generated in the capacitor/resistance module over time; and filter the noise based on a number of successive stages, each stage representing a different threshold level of known noise variations; obtain readings from a capacitor/resistance module interfaced to a voltage contact lead and a ground contact lead that are overlaid on the C1 and C5 contact points of the chip card reader; track noise, representing voltage changes, generated in the capacitor/resistance module over time; and filter the noise based on a number of successive stages, each stage representing a different threshold level of known noise variations; wherein, when a reading exceeds each threshold level of known noise variations, indicate that a shimmer is present within the chip card reader.
Method (M) for detecting surface impurities on a surface of a component by means of X-ray fluorescence analysis with a hand spectroscope for application to the surface of the component , the hand spectroscope having an X-ray source , a fluorescence radiation detector , an analysis device and a display device , the method (M) comprising the following procedural steps: irradiating (M2) the surface of the component with X-rays through the X-ray source ; detecting (M3) fluorescent radiation with said fluorescent radiation detector emitted from said surface of said component due to said irradiation with said X-rays ; measuring (M4) a radiation spectrum of the detected fluorescence radiation ; generate (M5) an evaluation result by analysis of the measured radiation spectrum by the analysis device , wherein the evaluation result comprises a quantitative measure for the surface contamination of the surface by predetermined characteristic substances; and Output (M6) of the formed evaluation result on the display unit ; wherein the generation (M5) of the evaluation result comprises a multivariate analysis of the measured radiation spectrum on the basis of a chemo-metric method; wherein the method (M) is performed for detecting surface impurities on a surface of a component made of fiber-reinforced plastic, FRP; and wherein the characteristic substances comprise components of release agents for the production of FRP components. irradiating (M2) the surface of the component with X-rays through the X-ray source ; detecting (M3) fluorescent radiation with said fluorescent radiation detector emitted from said surface of said component due to said irradiation with said X-rays ; measuring (M4) a radiation spectrum of the detected fluorescence radiation ; generate (M5) an evaluation result by analysis of the measured radiation spectrum by the analysis device , wherein the evaluation result comprises a quantitative measure for the surface contamination of the surface by predetermined characteristic substances; and Output (M6) of the formed evaluation result on the display unit ; wherein the generation (M5) of the evaluation result comprises a multivariate analysis of the measured radiation spectrum on the basis of a chemo-metric method; wherein the method (M) is performed for detecting surface impurities on a surface of a component made of fiber-reinforced plastic, FRP; and wherein the characteristic substances comprise components of release agents for the production of FRP components.
A connector comprising: an outer conductor shell ; two terminal groups arranged along a connector fitting direction to face each other; and an insulator housed in the outer conductor shell , the insulator holding the two terminal groups , wherein each of the two terminal groups includes at least one or more terminal pairs of two terminals, each terminal of the terminal pair included in each of the two terminal groups includes at a tip end side portion of the connector , a contact portion to be connected in contact with a terminal of a partner connector , and at a back end side portion of the connector , a terminal mounting portion to be mounted on a substrate , and the outer conductor shell includes a shell mounting portion for mounting on the substrate , and a ground terminal also serving as a shell mounting portion on a back end side, characterized in that the ground terminal is configured to be mounted on the substrate between a mounting portion for a group of terminals included in one terminal group of the two terminal groups and a mounting portion for a group of terminals included in the other terminal group . an outer conductor shell ; two terminal groups arranged along a connector fitting direction to face each other; and an insulator housed in the outer conductor shell , the insulator holding the two terminal groups , wherein each of the two terminal groups includes at least one or more terminal pairs of two terminals, each terminal of the terminal pair included in each of the two terminal groups includes at a tip end side portion of the connector , a contact portion to be connected in contact with a terminal of a partner connector , and at a back end side portion of the connector , a terminal mounting portion to be mounted on a substrate , and at a tip end side portion of the connector , a contact portion to be connected in contact with a terminal of a partner connector , and at a back end side portion of the connector , a terminal mounting portion to be mounted on a substrate , and the outer conductor shell includes a shell mounting portion for mounting on the substrate , and a ground terminal also serving as a shell mounting portion on a back end side, characterized in that the ground terminal is configured to be mounted on the substrate between a mounting portion for a group of terminals included in one terminal group of the two terminal groups and a mounting portion for a group of terminals included in the other terminal group .
A wheel diameter compensation method for a robot, comprising: receiving, by a robot at a first location point in a work place, a travel instruction sent from a server, wherein the travel instruction instructs the robot to travel to a second location point, wherein a plurality of location points are set in the work place, and the travel instruction includes a distance between the first location point and the second location point and a travel direction towards the second location point from the first location point; acquiring, by the robot, a travelling deviation corresponding to travelling from the first location point to the second location point, the travelling deviation being a difference between a theoretical distance corresponding to actual number of tire revolutions of the robot and an actual distance; and the robot correcting its own current wheel diameter based on the travelling deviation and the distance between the first location point and the second location point. receiving, by a robot at a first location point in a work place, a travel instruction sent from a server, wherein the travel instruction instructs the robot to travel to a second location point, wherein a plurality of location points are set in the work place, and the travel instruction includes a distance between the first location point and the second location point and a travel direction towards the second location point from the first location point; acquiring, by the robot, a travelling deviation corresponding to travelling from the first location point to the second location point, the travelling deviation being a difference between a theoretical distance corresponding to actual number of tire revolutions of the robot and an actual distance; and the robot correcting its own current wheel diameter based on the travelling deviation and the distance between the first location point and the second location point.
Portable device for reeling an electrical cable comprising a connection element at each of its ends, the device comprising a handle , characterized in that : - the handle accommodates in its inside the substantially median part of the cable, with the two non-median parts of the cable exiting from the handle adjacent to one another; - it comprises a flexible support in the form of a flat spiral which can: o accommodate in its inside the two non-median parts of the cable which exit from the handle; o be wound around the handle in a storage configuration. - the handle accommodates in its inside the substantially median part of the cable, with the two non-median parts of the cable exiting from the handle adjacent to one another; - it comprises a flexible support in the form of a flat spiral which can: o accommodate in its inside the two non-median parts of the cable which exit from the handle; o be wound around the handle in a storage configuration. o accommodate in its inside the two non-median parts of the cable which exit from the handle; o be wound around the handle in a storage configuration.
A hardware unit to perform a matrix multiplication between a first matrix of first data elements (d1) and a second matrix of second data elements (d2), the hardware unit comprising: a multiplier stage comprising a plurality of multipliers , each multiplier configured to multiply a first data element (d1) and a second data element (d2) to produce a multiplication data element; one or more adder stages following the multiplier stage that form an adder tree to produce a sum of the multiplication data elements, each adder stage comprising one or more adders configured to add at least two data elements output by a previous stage to produce an addition data element; wherein at least one adder is preceded by a storage element corresponding to each bit of the data elements input to the at least one adder ; and control logic configured to clock gate all of the storage elements corresponding to a data element input to an adder of the at least one adder in response to determining that the data element has a zero value independent of whether the other data element input to that adder has a zero value. a multiplier stage comprising a plurality of multipliers , each multiplier configured to multiply a first data element (d1) and a second data element (d2) to produce a multiplication data element; one or more adder stages following the multiplier stage that form an adder tree to produce a sum of the multiplication data elements, each adder stage comprising one or more adders configured to add at least two data elements output by a previous stage to produce an addition data element; wherein at least one adder is preceded by a storage element corresponding to each bit of the data elements input to the at least one adder ; and control logic configured to clock gate all of the storage elements corresponding to a data element input to an adder of the at least one adder in response to determining that the data element has a zero value independent of whether the other data element input to that adder has a zero value.
An inductive clamp for use in utility locate operations, comprising: a head assembly including a base element and a plurality of arm elements coupled to the base element and configured to be movably opened and closed, wherein the arm elements are configured to close around a targeted utility in response to contact with the targeted utility; a handle assembly including a utility selector element having a sensor assembly and electronics to sense a position or orientation of the utility selector element and provide an output signal corresponding to the selected position or orientation, the handle assembly coupled to the head assembly ; and a magnetic core subassembly , comprising a central portion secured within the base element of the head assembly , for generating a magnetic field for coupling to the targeted utility, the magnetic core subassembly including a plurality of ferrite elements and wire winding wrapped about one or more of the ferrite elements, the magnetic core subassembly further comprising ferrite arm components secured within the arm elements of the head assembly . a head assembly including a base element and a plurality of arm elements coupled to the base element and configured to be movably opened and closed, wherein the arm elements are configured to close around a targeted utility in response to contact with the targeted utility; a handle assembly including a utility selector element having a sensor assembly and electronics to sense a position or orientation of the utility selector element and provide an output signal corresponding to the selected position or orientation, the handle assembly coupled to the head assembly ; and a magnetic core subassembly , comprising a central portion secured within the base element of the head assembly , for generating a magnetic field for coupling to the targeted utility, the magnetic core subassembly including a plurality of ferrite elements and wire winding wrapped about one or more of the ferrite elements, the magnetic core subassembly further comprising ferrite arm components secured within the arm elements of the head assembly .
A seat system (1; 42) for a vehicle, comprising: a seat frame (2; 44); a seatback structure (7; 46) coupled to the seat frame (2; 44); and at least one adjustment device (10; 56) coupled to the seat system (1; 42) and comprising an actuator or at least one biasing device , at least one cable or at least one strap extending at least partially across a single, integrally formed, one-piece structure of the seatback structure (7; 46), wherein the adjustment device (10; 56) is configured to alter a contour of a seating surface of the single, integrally formed, one-piece structure of the seatback structure (7; 46), wherein the seating surface is configured to engage at least a lumbar portion of an occupant of the seat system (1; 42). a seat frame (2; 44); a seatback structure (7; 46) coupled to the seat frame (2; 44); and at least one adjustment device (10; 56) coupled to the seat system (1; 42) and comprising an actuator or at least one biasing device , at least one cable or at least one strap extending at least partially across a single, integrally formed, one-piece structure of the seatback structure (7; 46), wherein the adjustment device (10; 56) is configured to alter a contour of a seating surface of the single, integrally formed, one-piece structure of the seatback structure (7; 46), wherein the seating surface is configured to engage at least a lumbar portion of an occupant of the seat system (1; 42).