mhurhangee/ep-ind-claims huggingface dataset:
Single-strand cord rubberized in situ comprising: - an internal layer of the cord comprising N1 internal thread(s), - an external layer of the cord comprising N3 external threads wound helically around the internal layer of the cord, - a rubber composition positioned between the internal layer of the cord and the external layer of the cord, characterized in that the rubber composition comprises a compound of formula or or a salt of this compound: in which each R1, R2, R3 and R4 group represents, independently of one another, an -OH, -O-Alkyl or -O O-Alkyl group. - an internal layer of the cord comprising N1 internal thread(s), - an external layer of the cord comprising N3 external threads wound helically around the internal layer of the cord, - a rubber composition positioned between the internal layer of the cord and the external layer of the cord,
A vinyl chloride resin composition comprising: (a) a vinyl chloride resin; (b) a diester plasticizer formed from a compound represented by the following formula where R 1 and R 3 are monovalent hydrocarbon groups that may be the same or different, the carbon number of the monovalent hydrocarbon group of R 1 is 10 or more, the carbon number of the monovalent hydrocarbon group of R 3 is 10 or more, and R 2 is a divalent hydrocarbon group; and (c) a trimellitate plasticizer formed from a compound represented by the following formula: where R 4, R 5, and R 6 are alkyl groups that may be the same or different, and a straight chain ratio of each of R 4, R 5, and R 6 is less than 90 mol%. (a) a vinyl chloride resin; (b) a diester plasticizer formed from a compound represented by the following formula where R 1 and R 3 are monovalent hydrocarbon groups that may be the same or different, the carbon number of the monovalent hydrocarbon group of R 1 is 10 or more, the carbon number of the monovalent hydrocarbon group of R 3 is 10 or more, and R 2 is a divalent hydrocarbon group; and (c) a trimellitate plasticizer formed from a compound represented by the following formula: where R 4, R 5, and R 6 are alkyl groups that may be the same or different, and a straight chain ratio of each of R 4, R 5, and R 6 is less than 90 mol%.
Method for opening and/or closing a door or flap of a motor vehicle, comprising • at least one handle equipped with a first actuating element, in particular an external door handle, and a second handle equipped with a second actuating element, in particular an internal door handle, wherein the first handle and the second handle are each individually designed to be movable by a common drive device between a rest position and a use position, • a door lock which is also connected to the drive device, in particular mechanically, • and a control means for actuating the drive device, wherein the control means is electrically connected to both the first handle and the second handle, wherein the drive device is coupled to the first handle and to the second handle and to the door lock, so that upon actuation of the first or second actuating element by the drive device at least one handle is transferred to the position of use and/or to the rest position and the door lock is locked and/or unlocked. • at least one handle equipped with a first actuating element, in particular an external door handle, and a second handle equipped with a second actuating element, in particular an internal door handle, wherein the first handle and the second handle are each individually designed to be movable by a common drive device between a rest position and a use position, • a door lock which is also connected to the drive device, in particular mechanically, • and a control means for actuating the drive device, wherein the control means is electrically connected to both the first handle and the second handle,
A system of a console running around a central axis with a smoke warning means, wherein the console is designed as two to maximum four parts and comprises a lower part (1.1) with a rear side (1.10) for attachment to a mounting surface and an upper part (1.2) with a front side (1.20) lying opposite the rear side (1.10), wherein a) the console comprises on the outside, between the rear side (1.10) and the front side (1.20), a groove (1.3) running around the central axis, b) in the circumferential groove (1.3), one or more lighting means and/or light-conducting components are arranged running around the central axis, characterized in that c) the rear side (1.10) forms an outer side, via which the console is installed, d) the upper part (1.2) on the front side (1.20) comprises an outer attachment surface (1.21) to which the smoke warning means is attached directly or indirectly, e) the smoke warning means comprises a housing (3.1) with openings (3.3), through which smoke can flow into the housing (3.1), f) the distance between the openings (3.3) and the attachment surface (1.21) of the upper part (1.2) in the direction of the central axis is between 0.5 mm and 15 mm or at most 1.2 mm. a) the console comprises on the outside, between the rear side (1.10) and the front side (1.20), a groove (1.3) running around the central axis, b) in the circumferential groove (1.3), one or more lighting means and/or light-conducting components are arranged running around the central axis, c) the rear side (1.10) forms an outer side, via which the console is installed, d) the upper part (1.2) on the front side (1.20) comprises an outer attachment surface (1.21) to which the smoke warning means is attached directly or indirectly, e) the smoke warning means comprises a housing (3.1) with openings (3.3), through which smoke can flow into the housing (3.1), f) the distance between the openings (3.3) and the attachment surface (1.21) of the upper part (1.2) in the direction of the central axis is between 0.5 mm and 15 mm or at most 1.2 mm.
A fluorescence image analyzing apparatus configured to apply the fluorescence in situ hybridization method comprising: a light source (120,121,122,123) configured to emit light to a sample; an imaging unit configured to capture a fluorescence image of each of samples that emit fluorescence by being irradiated with the light; a processing unit configured to process the fluorescence image captured by the imaging unit to acquire a bright spot pattern of fluorescence in the fluorescence image; a storage unit configured to store a plurality of reference patterns corresponding to a plurality of measurement items classified by probes to hybridize to a target site, and wherein the processing unit is configured to receive a measurement item and information associated with a probe, select and automatically read a reference pattern corresponding to the received measurement item and the information from the plurality of reference patterns corresponding to the plurality of measurement items in the storage unit, compare the bright spot pattern with the reference pattern and thereby generate information used for determination of the sample based on the bright spot pattern of fluorescence in the fluorescence image and the read reference pattern, wherein the processing unit is configured to generate, as the information used for determination of the sample, information of at least one of a number of abnormal cells, a ratio of a number of abnormal cells, a number of normal cells, and a ratio of a number of normal cells. a light source (120,121,122,123) configured to emit light to a sample; an imaging unit configured to capture a fluorescence image of each of samples that emit fluorescence by being irradiated with the light; a processing unit configured to process the fluorescence image captured by the imaging unit to acquire a bright spot pattern of fluorescence in the fluorescence image; a storage unit configured to store a plurality of reference patterns corresponding to a plurality of measurement items classified by probes to hybridize to a target site, and wherein the processing unit is configured to receive a measurement item and information associated with a probe, select and automatically read a reference pattern corresponding to the received measurement item and the information from the plurality of reference patterns corresponding to the plurality of measurement items in the storage unit, compare the bright spot pattern with the reference pattern and thereby generate information used for determination of the sample based on the bright spot pattern of fluorescence in the fluorescence image and the read reference pattern, wherein the processing unit is configured to generate, as the information used for determination of the sample, information of at least one of a number of abnormal cells, a ratio of a number of abnormal cells, a number of normal cells, and a ratio of a number of normal cells.
A stent comprising: a strut or a strut provided with at least one protrusion (40, 41, 44); and an opaque member that is provided along a longitudinal direction of the strut or the protrusion (40, 41) to cover the strut or the protrusion (40, 41, 44), the opaque member being highly opaque to radiation, the opaque member having: at least one sparse area with a spacing ratio higher than a predetermined spacing ratio; and a dense area with a spacing ratio lower than the predetermined spacing ratio, the opaque member being fixed on or to the strut or the protrusion (40, 41, 44) with an adhesive in the sparse area. a strut or a strut provided with at least one protrusion (40, 41, 44); and an opaque member that is provided along a longitudinal direction of the strut or the protrusion (40, 41) to cover the strut or the protrusion (40, 41, 44), the opaque member being highly opaque to radiation, the opaque member having: at least one sparse area with a spacing ratio higher than a predetermined spacing ratio; and a dense area with a spacing ratio lower than the predetermined spacing ratio, the opaque member being fixed on or to the strut or the protrusion (40, 41, 44) with an adhesive in the sparse area.
Power plant with a gas turbine, a generator driven by the gas turbine for generating electrical energy, and a hydrogen cooling circuit for discharging lost heat from the generator, the hydrogen cooling circuit having a feed line for feeding hydrogen from a hydrogen tank into the generator and a discharge line for discharging heated hydrogen from the generator, characterized in that the discharge line is thus connected to a mixing device, so that the heated hydrogen from the discharge line is mixed with a further fuel and this mixture is fed via a fuel feed line to the gas turbine.
An articulated arm structure for awnings with integrated lighting, of the type configured from both straight profiles or segments that are joined together via an articulated joint, each one of the two segments making up an arm that, in combination with another, enables an awning to be opened and closed, the canvas of which is rolled around an axle, via the movement of a load bar, said rolling axle and said bar being situated at opposite ends of the aforementioned arms, said joint having two guide pieces (61, 62), a female wire protector piece and a male wire protector piece, which hide and guide a section of wiring between the two profiles that configure an arm, thus ensuring the passage of the same integrated within the joint during the articulation movements with the profiles, i.e. during the opening and closing of the awning, characterized in that the female wire protector piece has a hole for housing fastening means and a crown-shaped protrusion provided on the inner face thereof with ridges for fastening it to the joint.
An amplifier capable of operating in multiple modes, the amplifier comprising: a first voltage input (V P) and a second voltage input (V N); and a first current output (I OUT1), a second current output (I OUT2), and a third current output (-I OUT3); wherein the first current output and the second current output are configured to have substantially the same amplitude and substantially the same polarity, wherein the third current output is configured to have an amplitude that is substantially the same as the amplitudes of the first and second current outputs and a polarity that is substantially opposite to the polarities of the first current output and the second current output, and wherein the first current output and the second current output are each configured to comprise an amplified version of a difference between the first voltage input and the second voltage input; wherein the amplifier is configured to operate in a first mode when the first current output and the second current output are coupled together; wherein the amplifier is configured to operate in a second mode when one of the first current output and the second current output is coupled to the second voltage input; and wherein the amplifier is configured to operate in a third mode when one of the first current output and the second current output is floating. a first voltage input (V P) and a second voltage input (V N); and a first current output (I OUT1), a second current output (I OUT2), and a third current output (-I OUT3); wherein the first current output and the second current output are configured to have substantially the same amplitude and substantially the same polarity, wherein the third current output is configured to have an amplitude that is substantially the same as the amplitudes of the first and second current outputs and a polarity that is substantially opposite to the polarities of the first current output and the second current output, and wherein the first current output and the second current output are each configured to comprise an amplified version of a difference between the first voltage input and the second voltage input; wherein the amplifier is configured to operate in a first mode when the first current output and the second current output are coupled together; wherein the amplifier is configured to operate in a second mode when one of the first current output and the second current output is coupled to the second voltage input; and wherein the amplifier is configured to operate in a third mode when one of the first current output and the second current output is floating.
A method (300, 400) of measuring Radio Frequency, RF, transmit power for a multiple channel signal, the method (300, 400) comprising: receiving, from a multiple-carrier transmitter, a first undersampled version of one or more carriers of a plurality of carriers; receiving, from the multiple-carrier transmitter, a second undersampled version of an RF wideband signal comprising a plurality of baseband signals upconverted to the plurality of carriers; correlating the first undersampled version with the second undersampled version to produce a correlation result; and determining a transmitted power of the correlation result for a selected channel of the RF wideband signal corresponding to the one or more carriers. receiving, from a multiple-carrier transmitter, a first undersampled version of one or more carriers of a plurality of carriers; receiving, from the multiple-carrier transmitter, a second undersampled version of an RF wideband signal comprising a plurality of baseband signals upconverted to the plurality of carriers; correlating the first undersampled version with the second undersampled version to produce a correlation result; and determining a transmitted power of the correlation result for a selected channel of the RF wideband signal corresponding to the one or more carriers.
A component for use in streams of hot gas which comprises a first region (64a; 84a) of fibre-ceramic material, a second region (64b; 84b) of fibre-ceramic material and a central layer (62; 82) of fibre-ceramic material which is arranged between the first region (64a; 84a) and the second region (64b; 84b), wherein at least one acute-angled in-flow edge and/or away-flow edge of the component is formed on the central layer (62; 82), characterized in that the fibre-ceramic material of the central layer (62; 82) has a lower ceramic content than the fibre-ceramic material of the first region (64a; 84a) and the second region (64b; 84b).
An integrated surface thermal management system and a composite aircraft structure; the composite aircraft structure comprising: a base comprising a plurality of resin impregnated plies; and a heating layer adjacent the base, wherein the heating layer comprises a plurality of heaters (230, 342a-j) coupled by a bus network; the integrated surface thermal management system comprising: a control circuit coupled to the heating layer; wherein the control circuit comprises a power input panel, a control panel and a regulator module the input panel coupled to the control panel and regulator module via a circuit; wherein the power input panel is configured to accept power input from a ground-based power source when an aircraft comprising the composite aircraft structure is on the ground. a base comprising a plurality of resin impregnated plies; and a heating layer adjacent the base, wherein the heating layer comprises a plurality of heaters (230, 342a-j) coupled by a bus network; a control circuit coupled to the heating layer; wherein the control circuit comprises a power input panel, a control panel and a regulator module the input panel coupled to the control panel and regulator module via a circuit; wherein the power input panel is configured to accept power input from a ground-based power source when an aircraft comprising the composite aircraft structure is on the ground.
Method of manufacturing semiconductor devices, the method comprising the following steps (a') providing a first semiconductor wafer having first predominantly functional devices and a few first non-functional devices in a first pitch (x,y), wherein the first devices (302,304) are laterally held on the first semiconductor wafer by tethering elements; (b') providing a second semiconductor wafer having second devices in a second pitch (x',y'); (a) removing the non-functional first devices from the first semiconductor wafer in first individual transfer printing steps; (b) transferring a plurality of the first functional devices from the first wafer to the associated second devices of the second wafer in a second transfer printing step; (c) transferring individual functional first components of the first semiconductor wafer to second components without printed first components in third respective individual transfer printing steps; (a") depositing at least one insulator layer and/or at least one conductive layer on the second semiconductor wafer; (b") patterning (structuring) the at least one insulator layer and/or the at least one conductive layer on the second semiconductor wafer. (a') providing a first semiconductor wafer having first predominantly functional devices and a few first non-functional devices in a first pitch (x,y), wherein the first devices (302,304) are laterally held on the first semiconductor wafer by tethering elements; (b') providing a second semiconductor wafer having second devices in a second pitch (x',y'); (a) removing the non-functional first devices from the first semiconductor wafer in first individual transfer printing steps; (b) transferring a plurality of the first functional devices from the first wafer to the associated second devices of the second wafer in a second transfer printing step; (c) transferring individual functional first components of the first semiconductor wafer to second components without printed first components in third respective individual transfer printing steps; (a") depositing at least one insulator layer and/or at least one conductive layer on the second semiconductor wafer; (b") patterning (structuring) the at least one insulator layer and/or the at least one conductive layer on the second semiconductor wafer.
A method of monitoring wave slam on a vessel, comprising the acts of: - measuring acceleration forces from mechanical shocks on the vessel using one or more sensors (3, 4, 5, 6), the one or more sensors (3, 4, 5, 6) communicatively coupled to a computing unit; and - generating acceleration prediction information representative of a predicted wave slam using the computing unit; characterized in that the method further comprises generating real-time acceleration information (19, 27) representative of a wave slam on the vessel based at least in part on the measured acceleration forces from the one or more sensors (3, 4, 5, 6); in that the method further comprises collecting information about a particular operator (18, 27) operating the vessel; in that said generating of said acceleration prediction information is based at least in part on the generated real-time acceleration information and the information about the particular operator (18, 27) operating the vessel; and in that the method further comprises presenting the acceleration prediction information (23, 24, 25, 34) to an intended recipient. - measuring acceleration forces from mechanical shocks on the vessel using one or more sensors (3, 4, 5, 6), the one or more sensors (3, 4, 5, 6) communicatively coupled to a computing unit; and - generating acceleration prediction information representative of a predicted wave slam using the computing unit; in that the method further comprises collecting information about a particular operator (18, 27) operating the vessel; in that said generating of said acceleration prediction information is based at least in part on the generated real-time acceleration information and the information about the particular operator (18, 27) operating the vessel; and in that the method further comprises presenting the acceleration prediction information (23, 24, 25, 34) to an intended recipient.