mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the amount of fuel required during a refueling process at an H 2 -Filling station to a hydrogen-powered vehicle, comprising the steps of: - initiating a refueling process of the hydrogen-powered vehicle by means of a control unit of the H 2 -Filling station, - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a first sensor at a first position within the H 2 -Filling station, - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a further sensor at a second position different from the first, - determining the amount of hydrogen actually delivered to the hydrogen-powered vehicle on the basis of a correlation of the amounts of hydrogen determined by means of the first sensor and the amounts of hydrogen determined by means of the further sensor, characterized in that determining of the actual quantity of hydrogen dispensed is carried out on the basis of a correlation of the quantities of hydrogen determined by means of the first sensor and the quantities of hydrogen determined by means of the further sensor via the use of a look-up table, wherein the look-up table comprises a data tuple of at least one measured value recorded by means of the first sensor and a measured value for a delivered quantity of hydrogen recorded by means of the further sensor, wherein the measured values recorded by means of the first and further sensors (12, 18) are each assigned a measured value which indicates the actual quantity of hydrogen delivered to a hydrogen-powered vehicle. - initiating a refueling process of the hydrogen-powered vehicle by means of a control unit of the H 2 -Filling station, - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a first sensor at a first position within the H 2 -Filling station, - detecting at least one measured value for determining a quantity of hydrogen dispensed during the refueling process by means of a further sensor at a second position different from the first, - determining the amount of hydrogen actually delivered to the hydrogen-powered vehicle on the basis of a correlation of the amounts of hydrogen determined by means of the first sensor and the amounts of hydrogen determined by means of the further sensor,
A method for updating a bootloader of a controller of a light which is incorporated into a mesh network of lights, the controller being connected to a power supply means by means of which it is supplied with an operating voltage and comprising at least one processor, at least one bootloader storage area, at least one application storage area, and a file storage area, a first bootloader file to be updated being stored in a first bootloader storage area, and optionally one or more energy stores, said method comprising: - transferring to the controller a bootloader updating programme packet provided outside of the controller and which comprises or can generate a bootloader updating file which comprises either a complete up-to-date second bootloader file or programme parts supplementing the first bootloader file to form an up-to-date second bootloader file, - storing the bootloader updating file in the file storage area of the controller, characterized by: - determining an amount of voltage available to the controller, and, - in the case of a sufficient minimum voltage being available to the controller, writing the first bootloader storage area with the bootloader updating file from the file storage area, - wherein said sufficient minimum voltage is such that the controller remains supplied with the operating voltage or with a back-up voltage of the optional one or more energy stores for a period of time over which the controller can perform the determining and the writing; wherein the transferring of the bootloader updating programme packet is done from a server via individual nodes of the mesh network. - transferring to the controller a bootloader updating programme packet provided outside of the controller and which comprises or can generate a bootloader updating file which comprises either a complete up-to-date second bootloader file or programme parts supplementing the first bootloader file to form an up-to-date second bootloader file, - storing the bootloader updating file in the file storage area of the controller, - determining an amount of voltage available to the controller, and, - in the case of a sufficient minimum voltage being available to the controller, writing the first bootloader storage area with the bootloader updating file from the file storage area, - wherein said sufficient minimum voltage is such that the controller remains supplied with the operating voltage or with a back-up voltage of the optional one or more energy stores for a period of time over which the controller can perform the determining and the writing;
A non-therapeutical method for the repellency of bed bugs, the method comprising bringing the bed bugs into contact with an inhibitory effective amount of at least one of the compounds of the structure wherein X is O, and R is =O; each Z is independently selected from the group consisting of and (CH 2); y is a numeral selected from 1 and 2; R 1 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to two double bonds and from 1 to 15 carbon atoms; R 2 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; R 3 is selected from H, a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; and the bond between the 2 and 3 positions in the ring structure is a single bond, and wherein the compounds of structure contain from 11 to 20 total carbon atoms. X is O, and R is =O; each Z is independently selected from the group consisting of and (CH 2); y is a numeral selected from 1 and 2; R 1 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to two double bonds and from 1 to 15 carbon atoms; R 2 is selected from the group consisting of H and a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; R 3 is selected from H, a branched or straight chain, saturated or unsaturated hydrocarbyl group with zero to three double bonds and from 1 to 15 carbon atoms; and the bond between the 2 and 3 positions in the ring structure is a single bond, and wherein the compounds of structure contain from 11 to 20 total carbon atoms.
A terminal fitting, comprising: a main body portion which is formed into a tubular shape and into which a male terminal is to be at least partly inserted; and a resilient contact piece which is separate from the main body portion and deflectably arranged in or at the main body portion and can resiliently come into contact with the inserted male terminal; wherein: either the main body portion or the resilient contact piece includes at least one crimping piece to crimp and fix them together along crimping surfaces (38; 39), the crimping surface of the crimping piece includes a protrusion which bites into the other crimping surface at the time of crimping, characterized in that the protrusion provided on the crimping surface of the crimping piece is squeezed by a protrusion provided on the other crimping surface. a main body portion which is formed into a tubular shape and into which a male terminal is to be at least partly inserted; and a resilient contact piece which is separate from the main body portion and deflectably arranged in or at the main body portion and can resiliently come into contact with the inserted male terminal; either the main body portion or the resilient contact piece includes at least one crimping piece to crimp and fix them together along crimping surfaces (38; 39), the crimping surface of the crimping piece includes a protrusion which bites into the other crimping surface at the time of crimping, the protrusion provided on the crimping surface of the crimping piece is squeezed by a protrusion provided on the other crimping surface.
A vehicle light control glass device comprising: a light control glass that includes a light control layer in which a transmittance changes according to an applied AC voltage, the light control glass being provided in a car body while being able to be moved up and down; characterized by an inverter that includes a power feeding circuit, the power feeding circuit converting a DC voltage output from a battery mounted on a vehicle into the AC voltage and applying the AC voltage to the light control layer, the inverter being provided on a width direction central side in a lower portion of the light control glass, the inverter being configured such that a weight increases toward a width direction end side of the light control glass. a light control glass that includes a light control layer in which a transmittance changes according to an applied AC voltage, the light control glass being provided in a car body while being able to be moved up and down; characterized by an inverter that includes a power feeding circuit, the power feeding circuit converting a DC voltage output from a battery mounted on a vehicle into the AC voltage and applying the AC voltage to the light control layer, the inverter being provided on a width direction central side in a lower portion of the light control glass, the inverter being configured such that a weight increases toward a width direction end side of the light control glass.
Cover part for a vehicle, in particular an underbody shield comprising a porous core layer and at least one cover layer (5a, 5b, 5c, 5d, 5e, 5f) on each side, wherein the porous core layer consists of a low-melting thermoplastic plastic matrix with embedded high-melting reinforcing fibres, in particular glass fibres whose melting point temperature is higher than the melting point temperature of the plastic matrix, and wherein at least one of the cover layers consists of a covering nonwoven fabric, characterized in that said covering nonwoven fabric has a stiffness-forming property, wherein said stiffness-forming property is obtained by a glass fibre component and wherein the covering nonwoven fabric consists of high-melting and low-melting fibres, wherein the fibre structure of the high-melting fibres remains the same when heating, while the low-melting fibres act as bonding fibres.
Box body of a commercial vehicle, in particular a truck, trailer or semitrailer, having at least one fixed side wall, wherein the side wall has a side wall panel extending over at least substantially the entire length and at least substantially the entire height of the side wall, wherein the side wall, between the lateral edges of the side wall panel, has a plurality of upright elements (16, 17) aligned at least substantially transverse to the longitudinal direction of the side wall panel, spaced apart from one another and connected to the side wall panel in order to reinforce the side wall, characterised in that at least some of the upright elements (16, 17) of the at least one side wall at sides assigned to one another each have at least one connection means to connect in a releasable and form-fitting manner to load securing profiles (35, 42, 44) and/or skirting board profiles (45, 47, 48).
An electrode assembly comprising: a plurality of positive electrodes and a plurality of negative electrodes, alternately and repeatedly stacked, each of the plurality of positive electrodes including an electrode region and each of the plurality of negative including an electrode region; a plurality of separators, each separator being disposed between each of the plurality of positive electrodes and each of the plurality of negative electrodes to protrude from the electrode region of the positive electrode and the electrode region of the negative electrode and stacked such that a first surface of edges thereof face each other; and a fixing member including an adhesive layer adhered to the edges of each of the plurality of separators facing each other, wherein the adhesive layer is spaced apart from ends of the electrode region (1, 2) of each of the plurality of positive electrodes or each of the plurality of negative electrodes, and wherein the fixing member further includes an insulating member adhered to an upper surface of an uppermost separator and a lower surface of a lowermost separator. a plurality of positive electrodes and a plurality of negative electrodes, alternately and repeatedly stacked, each of the plurality of positive electrodes including an electrode region and each of the plurality of negative including an electrode region; a plurality of separators, each separator being disposed between each of the plurality of positive electrodes and each of the plurality of negative electrodes to protrude from the electrode region of the positive electrode and the electrode region of the negative electrode and stacked such that a first surface of edges thereof face each other; and a fixing member including an adhesive layer adhered to the edges of each of the plurality of separators facing each other, wherein the adhesive layer is spaced apart from ends of the electrode region (1, 2) of each of the plurality of positive electrodes or each of the plurality of negative electrodes, and wherein the fixing member further includes an insulating member adhered to an upper surface of an uppermost separator and a lower surface of a lowermost separator.
An enterovirus or a structural part thereof or an antibody against said virus or structural part of said enterovirus for use in vaccinating against celiac disease.
Device for conserving power in a piston compressor, in particular for generating compressed air in a motor vehicle, having a piston, which delimits a compression chamber, for generating compressed air, which, originating from the ambient environment, enters the compression chamber for compression via at least one suction port formed on a cylinder head cover and via an intake valve array arranged on a valve plate, wherein, for the purpose of conserving power, a pressure-dependently acting idling device is provided for the intake valve array, which is provided with an associated suction lamella, wherein the suction lamella can be rotated by actuating means between a working position overlapping at least one suction opening and an idling position exposing, at least in part, the at least one suction opening, characterised in that the actuating means actuate the suction lamella in a coordinated manner in such a way that, in the idling position, said lamella exposes the at least one suction opening in the valve plate while simultaneously closing adjacent pressure valve cross-sections, at least partially, and blocks the suction port on the cylinder head cover by means of a slider in order to form an increased dead space in the region of the cylinder head.
A method for selecting a eukaryotic cell expressing on its surface an antigen-binding protein specifically and/or selectively binding to a protein antigen of interest comprising the following steps: (i) providing a eukaryotic cell population; (ii) contacting the eukaryotic cell population of step (i) with a first antigen complex (1 st AC) comprising the PAI and a detectable label A or with the PAI comprising a detectable label A; (iii) contacting the eukaryotic cell population of step (i) with at least a second antigen complex (2 nd AC) comprising a similar protein antigen, wherein the amino acid sequence of the SPA differs by 1-20 amino acids from the amino acid sequence of the PAI, preferably by 2-10 amino acids from the amino acid sequence of the PAI, and wherein the 2 nd AC comprises a detectable label B; or with the SPA and a detectable label B; and (iv) selecting at least one eukaryotic cell that specifically and/or selectively binds to the 1 st AC, wherein the detectable label A and the detectable label B are detectably different from each other, and wherein the selected eukaryotic cell is a T-cell, a B-cell, or a mammalian cell expressing a heterologous antigen binding protein selected from the group consisting of a T-cell receptor or antigen binding fragments thereof, a B-cell receptor or antigen binding fragments thereof, and a chimeric antigen receptor or antigen binding fragments thereof. (i) providing a eukaryotic cell population; (ii) contacting the eukaryotic cell population of step (i) with a first antigen complex (1 st AC) comprising the PAI and a detectable label A or with the PAI comprising a detectable label A; (iii) contacting the eukaryotic cell population of step (i) with at least a second antigen complex (2 nd AC) comprising a similar protein antigen, wherein the amino acid sequence of the SPA differs by 1-20 amino acids from the amino acid sequence of the PAI, preferably by 2-10 amino acids from the amino acid sequence of the PAI, and wherein the 2 nd AC comprises a detectable label B; or with the SPA and a detectable label B; and (iv) selecting at least one eukaryotic cell that specifically and/or selectively binds to the 1 st AC,
A method for connecting first and second plastic pipes to each other in such a way that an end of the second plastic pipe is connected to a side surface of the first plastic pipe to communicate the first plastic pipe with the second plastic pipe, the method comprising: placing the end of the second plastic pipe on a portion of an outer surface of the first plastic pipe, the portion being intended to form a connection hole therein, the end of the second plastic pipe being provided with: an arch-shaped heating element made of conductive plastic material that generates heat using electricity applied thereto, the arch-shaped heating element having an arch cross-sectional shape to cover the connection hole; a pair of electric connection terminals disposed parallel to each other in the arch-shaped heating element on opposite sides of the portion intended to form the connection hole therein; and a cover covering at least an outer surface of the arch-shaped heating element; supplying power to the electric connection terminals to heat the arch-shaped heating element so that the second plastic pipe is fused to the first plastic pipe; and forming the connection hole in the cover, the arch-shaped heating element and the side surface of the first plastic pipe after supplying the power is conducted, so that the first plastic pipe and the second plastic pipe communicate with each other through the connection hole. placing the end of the second plastic pipe on a portion of an outer surface of the first plastic pipe, the portion being intended to form a connection hole therein, the end of the second plastic pipe being provided with: an arch-shaped heating element made of conductive plastic material that generates heat using electricity applied thereto, the arch-shaped heating element having an arch cross-sectional shape to cover the connection hole; a pair of electric connection terminals disposed parallel to each other in the arch-shaped heating element on opposite sides of the portion intended to form the connection hole therein; and a cover covering at least an outer surface of the arch-shaped heating element; supplying power to the electric connection terminals to heat the arch-shaped heating element so that the second plastic pipe is fused to the first plastic pipe; and forming the connection hole in the cover, the arch-shaped heating element and the side surface of the first plastic pipe after supplying the power is conducted, so that the first plastic pipe and the second plastic pipe communicate with each other through the connection hole.
A method for detecting and/or identifying a fingerprint or other hydrophobic mass or deposit, comprising contacting an area where there is or maybe a fingerprint with an agent comprising hydrophobic silica particles, wherein the method comprises applying the agent as a dusting agent or as a suspension which comprises water and a water-miscible solvent to the area.
A method for finger aligned accumulation in interference cancellation, comprising receiving reconstructed data of a user finger, wherein the reconstructed data of the user finger are obtained using finger offset information obtained through RAKE reception and user symbols correctly demodulated and decoded in combination with a channel estimation, and have recovered amplitude and phase information of the user finger arriving at a receiver side after propagating in a wireless channel; and performing aligned accumulation on the reconstructed data of the user finger by aligning a user timing to a system timing of original antenna data, such that accumulated data are subtracted from the original antenna data to cancel impact of known user fingers on an unknown user finger yet to be demodulated and decoded correctly, where data of multiple user fingers have different finger offsets with respect to the system timing depending on different delays of paths of reflection or diffraction, wherein the aligned accumulation is performed on the reconstructed data of the user finger by pipelining, wherein one configurable correlation length ip is aligned in one clock cycle, characterised in that the step of performing aligned accumulation on the reconstructed data of the user finger by aligning a user timing to a system timing comprises: acquiring a finger offset of the reconstructed data of the user finger with respect to the system timing; constructing aligned reconstructed data of the user finger by: zero-padding a length equal to the finger offset, which is modulo one ip, right in front of the reconstructed data of the user finger, and zero-padding a length equal to one ip minus the finger offset, which is also the modulo one ip, right behind the reconstructed data of the user finger; reading data saved at a location corresponding to the system timing according to the aligned reconstructed data of the user finger; adding the aligned reconstructed data of the user finger to the read data to obtain accumulated data; and writing the accumulated data back to the location corresponding to the system timing. acquiring a finger offset of the reconstructed data of the user finger with respect to the system timing; constructing aligned reconstructed data of the user finger by: zero-padding a length equal to the finger offset, which is modulo one ip, right in front of the reconstructed data of the user finger, and zero-padding a length equal to one ip minus the finger offset, which is also the modulo one ip, right behind the reconstructed data of the user finger; reading data saved at a location corresponding to the system timing according to the aligned reconstructed data of the user finger; adding the aligned reconstructed data of the user finger to the read data to obtain accumulated data; and writing the accumulated data back to the location corresponding to the system timing.