mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a plurality of coated binder units wherein each of the coated binder units comprises a core of a binder coated with a layer of coating material, which method comprises the steps of: (a) providing a coated binder which comprises a core of a binder coated with a layer of coating material; and (b) dividing the coated binder into the plurality of coated binder units by (i) applying a pair of dividing elements to the coated binder, (ii) moving the pair of dividing elements from a closed configuration to an open configuration, thereby removing the binder from a region of the coated binder such that two layers of coating material are adjacent to one another; and (iii) applying a welding element to the region of the coated binder wherein the binder has been removed by the pair of dividing elements and the two layers of coating material are adjacent to one another, thereby welding and cutting the two layers of coating material. (a) providing a coated binder which comprises a core of a binder coated with a layer of coating material; and (b) dividing the coated binder into the plurality of coated binder units by (i) applying a pair of dividing elements to the coated binder, (ii) moving the pair of dividing elements from a closed configuration to an open configuration, thereby removing the binder from a region of the coated binder such that two layers of coating material are adjacent to one another; and (iii) applying a welding element to the region of the coated binder wherein the binder has been removed by the pair of dividing elements and the two layers of coating material are adjacent to one another, thereby welding and cutting the two layers of coating material. (i) applying a pair of dividing elements to the coated binder, (ii) moving the pair of dividing elements from a closed configuration to an open configuration, thereby removing the binder from a region of the coated binder such that two layers of coating material are adjacent to one another; and (iii) applying a welding element to the region of the coated binder wherein the binder has been removed by the pair of dividing elements and the two layers of coating material are adjacent to one another, thereby welding and cutting the two layers of coating material.
A method for setting the relative vertical distance between a vehicle seat and at least a further vehicle component in a vehicle, said method comprising: - providing input data related to the vertical position of a driver of said vehicle; and - setting said vertical distance based on said input; characterized in that said method further comprises: - providing said input data based on information related to natural length changes of said driver of the vehicle due to human spine length decrease during daytime; and - adjusting said vertical distance at least partly based on said input data. - providing input data related to the vertical position of a driver of said vehicle; and - setting said vertical distance based on said input; - providing said input data based on information related to natural length changes of said driver of the vehicle due to human spine length decrease during daytime; and - adjusting said vertical distance at least partly based on said input data.
A motor vehicle having - an imaging device for producing an image of a radiation pattern in the environment of the motor vehicle, wherein the radiation pattern is produced by two partial imaging devices, which in each case produce a radiation pattern having a plurality of parallel lines, which are mutually superimposed, - a detection device to repeatedly temporally successively detect images of the radiation pattern that are influenced by the environment, and - a processor device, which is set up in such a way that, based on the difference between temporally directly or indirectly successively detected images of the radiation pattern, an obstacle is detected in the environment. - an imaging device for producing an image of a radiation pattern in the environment of the motor vehicle, wherein the radiation pattern is produced by two partial imaging devices, which in each case produce a radiation pattern having a plurality of parallel lines, which are mutually superimposed, - a detection device to repeatedly temporally successively detect images of the radiation pattern that are influenced by the environment, and - a processor device, which is set up in such a way that, based on the difference between temporally directly or indirectly successively detected images of the radiation pattern, an obstacle is detected in the environment.
A scan circuit for a flop tray, comprising: a tri-state circuit configured to invert an input data signal and output the inverted data signal to an input of a flip-flop in a normal mode, and to block the data signal from the input of the flip-flop of the flop tray in a scan mode; and a pass gate configured to pass a scan signal to the input of the flip-flop in the scan mode, and to block the scan signal from the input of the flip-flop in the normal mode. a tri-state circuit configured to invert an input data signal and output the inverted data signal to an input of a flip-flop in a normal mode, and to block the data signal from the input of the flip-flop of the flop tray in a scan mode; and a pass gate configured to pass a scan signal to the input of the flip-flop in the scan mode, and to block the scan signal from the input of the flip-flop in the normal mode.
A magnetoresistive thin-film magnetic field sensor (100, 200), comprising: an antiferromagnetic pinning layer; a pinned layer comprising: an amorphous ferromagnetic layer comprising CoFeB disposed over the pinning layer; a first crystalline ferromagnetic layer comprising CoFe disposed over the amorphous ferromagnetic layer; and a second crystalline ferromagnetic layer comprising CoFe disposed between the amorphous ferromagnetic layer and the pinning layer; a nonmagnetic coupling layer disposed over the pinned layer; a ferromagnetic fixed layer disposed over the nonmagnetic coupling layer; and a dielectric tunnel barrier layer disposed over the ferromagnetic fixed layer; a ferromagnetic sense layer disposed above the dielectric tunnel barrier layer, wherein the ferromagnetic sense layer comprises a magnetically soft material. an antiferromagnetic pinning layer; a pinned layer comprising: an amorphous ferromagnetic layer comprising CoFeB disposed over the pinning layer; a first crystalline ferromagnetic layer comprising CoFe disposed over the amorphous ferromagnetic layer; and a second crystalline ferromagnetic layer comprising CoFe disposed between the amorphous ferromagnetic layer and the pinning layer; an amorphous ferromagnetic layer comprising CoFeB disposed over the pinning layer; a first crystalline ferromagnetic layer comprising CoFe disposed over the amorphous ferromagnetic layer; and a second crystalline ferromagnetic layer comprising CoFe disposed between the amorphous ferromagnetic layer and the pinning layer; a nonmagnetic coupling layer disposed over the pinned layer; a ferromagnetic fixed layer disposed over the nonmagnetic coupling layer; and a dielectric tunnel barrier layer disposed over the ferromagnetic fixed layer; a ferromagnetic sense layer disposed above the dielectric tunnel barrier layer, wherein the ferromagnetic sense layer comprises a magnetically soft material.
A compound for use in a method of treatment or prophylaxis of the human or animal body by therapy, wherein the compound is a compound of formula: wherein: X - is a counter ion; -R 5 is -H, or saturated C 1-6 alkyl, which is unsubstituted or substituted with one or more substituents -R 5A, or phenyl, which is unsubstituted or substituted with one or more substituents -R 5A; each -R 5A is independently selected from -F, -Cl, -Br, -I, -OH, -OR 6, -SH, -SR 6, -CN, -NO 2, -NH 2, -NHR 6, -NR 6 2, -NHC(=O)R 6, -NR 6 C(=O)R 6, -C(=O)OR 6, -OC(=O)R 6, -C(=O)NH 2, -C(=O)NHR 6, and -C(=O)NR 6 2, -C(=O)R 6, -C(=O)OH, -S(=O)R 6, -S(=O) 2 R 6, and -S(=O) 2 OH; each -R 6 is independently saturated aliphatic C 1-4 alkyl, phenyl, or benzyl; -R 13a, -R 13b, -R 14a, -R 14b, -R 15a, -R 15b, -R 16a, and -R 16b are each independently selected from H and saturated aliphatic C 1-4 alkyl. X - is a counter ion; -R 5 is -H, or saturated C 1-6 alkyl, which is unsubstituted or substituted with one or more substituents -R 5A, or phenyl, which is unsubstituted or substituted with one or more substituents -R 5A; each -R 5A is independently selected from -F, -Cl, -Br, -I, -OH, -OR 6, -SH, -SR 6, -CN, -NO 2, -NH 2, -NHR 6, -NR 6 2, -NHC(=O)R 6, -NR 6 C(=O)R 6, -C(=O)OR 6, -OC(=O)R 6, -C(=O)NH 2, -C(=O)NHR 6, and -C(=O)NR 6 2, -C(=O)R 6, -C(=O)OH, -S(=O)R 6, -S(=O) 2 R 6, and -S(=O) 2 OH; each -R 6 is independently saturated aliphatic C 1-4 alkyl, phenyl, or benzyl; -R 13a, -R 13b, -R 14a, -R 14b, -R 15a, -R 15b, -R 16a, and -R 16b are each independently selected from H and saturated aliphatic C 1-4 alkyl.
A method comprising: determining a number of frequency blocks to be allocated to a mobile station, a frequency block including one resource block or a plurality of resource blocks that are consecutive on a frequency axis; determining an allocation resolution for the mobile station that is a unit of resource block allocation, depending on the number of frequency blocks allocated to the mobile station, with a higher allocation resolution determined for a mobile station having a larger number of allocated frequency blocks; allocating, to the mobile station, one or more resource blocks based on the determined number of frequency blocks and the determined allocation resolution; and transmitting, to the mobile station, downlink control information that includes information of the one or more allocated frequency blocks. determining a number of frequency blocks to be allocated to a mobile station, a frequency block including one resource block or a plurality of resource blocks that are consecutive on a frequency axis; determining an allocation resolution for the mobile station that is a unit of resource block allocation, depending on the number of frequency blocks allocated to the mobile station, with a higher allocation resolution determined for a mobile station having a larger number of allocated frequency blocks; allocating, to the mobile station, one or more resource blocks based on the determined number of frequency blocks and the determined allocation resolution; and transmitting, to the mobile station, downlink control information that includes information of the one or more allocated frequency blocks.
An electric blower comprising: a motor; a first fan provided on one end side of the motor in an axial direction and configured to generate a first air current; a second fan provided opposite to the first fan in the axial direction and configured to generate a second air current; and a housing covering the motor, the first fan, and the second fan, wherein the housing includes a first exhaust port and a second exhaust port that are formed on both sides in the axial direction, the first air current and the second air current are exhausted from the first exhaust port and the second exhaust port in opposite directions to each other in the axial direction respectively, the first fan is a centrifugal fan or a mixed-flow fan, the second fan is a centrifugal fan or a mixed-flow fan, and a diameter of an inner end of the first fan in the axial direction is smaller than a diameter of an outer end of the first fan in the axial direction, characterized by: the housing including: a first fan cover covering the first fan; and a second fan cover covering the second fan, and a width between the first fan and the first fan cover is smaller than a width between the second fan and the second fan cover. a motor; a first fan provided on one end side of the motor in an axial direction and configured to generate a first air current; a second fan provided opposite to the first fan in the axial direction and configured to generate a second air current; and a housing covering the motor, the first fan, and the second fan, wherein the housing includes a first exhaust port and a second exhaust port that are formed on both sides in the axial direction, the first air current and the second air current are exhausted from the first exhaust port and the second exhaust port in opposite directions to each other in the axial direction respectively, the first fan is a centrifugal fan or a mixed-flow fan, the second fan is a centrifugal fan or a mixed-flow fan, and a diameter of an inner end of the first fan in the axial direction is smaller than a diameter of an outer end of the first fan in the axial direction, characterized by: the housing including: a first fan cover covering the first fan; and a second fan cover covering the second fan, and a width between the first fan and the first fan cover is smaller than a width between the second fan and the second fan cover. a first fan cover covering the first fan; and a second fan cover covering the second fan, and a width between the first fan and the first fan cover is smaller than a width between the second fan and the second fan cover.
Domestic appliance which is designed as a cooking appliance, in particular as a steam cooker, having a cooking chamber for accommodating at least one item to be cooked and having a steam generating means for generating steam, the domestic appliance comprising a removable fluid container for accommodating a fluid, a fluid container housing for accommodating the fluid container, and a channel means, the fluid container housing having at least one inlet adapter and at least one opening, the inlet adapter being designed to be connected to the fluid container when the fluid container is accommodated in the fluid container housing, the fluid container housing and the channel means forming a drip device for the domestic appliance, where, in the operational state of the domestic appliance, the opening is arranged below the inlet adapter and the channel means is arranged below the fluid container housing in order to allow at least one drop of fluid to drip from the inlet adapter onto a channel means, characterised in that the fluid container housing is movable relative to the channel means between a removal position and a rest position and/or the channel means has a channel means ceiling facing the fluid container housing and/or the channel means is designed to evaporate a drop of fluid received by the channel means.
Mounting kit for spaced tension-free mounting an attachment part to an anchorage ground (302, 500), wherein the mounting kit comprises: a screw with a thread part and a drive, wherein the screw is adapted for self-cuttingly forming a thread when screwing into a bore hole in a concrete wall; and a dowel; wherein the screw is adapted to be dowel-free screwed through the attachment part into a bore hole in an anchorage ground which is designed as a full body; wherein the screw is adapted to be screwed through the attachment part into the dowel in a bore hole in an anchorage ground which is designed as a hollow body. a screw with a thread part and a drive, wherein the screw is adapted for self-cuttingly forming a thread when screwing into a bore hole in a concrete wall; and a dowel; wherein the screw is adapted to be dowel-free screwed through the attachment part into a bore hole in an anchorage ground which is designed as a full body; wherein the screw is adapted to be screwed through the attachment part into the dowel in a bore hole in an anchorage ground which is designed as a hollow body.
Frame for a drainage channel or for a shaft for supporting a channel or shaft cover, having a frame edge which, in the installation situation, is arranged at least substantially vertically in an imaginary extension of an outer surface of the channel or shaft cover, from which edge a support surface for the channel or shaft cover extends, which surface is at least substantially horizontal in the installation situation and overlaps the upper edge of the relevant side wall of the channel or shaft cover, and said support surface is arranged so as to be offset downward with respect to the upper edge of the frame edge at least substantially by the height of the relevant channel or shaft cover, the support surface merging into a downwardly angled side skirt which, in the installation situation, is arranged at least substantially in an imaginary extension of the inner surface of the side wall of the channel or shaft cover, the frame edge being provided with a snap fastening which projects in the direction of the channel or shaft cover and which, in the installation situation, engages with the channel or shaft cover in such a way that the channel or shaft cover is reversibly secured in the intended installation situation, the upper edge of the frame edge being provided with a fold in the direction of the inner surface of the side wall of the channel or shaft cover, which fold is adjoined by an inner skirt which is arranged in parallel with and spaced apart from the frame edge and merges, by means of a further fold which is arranged so as to be offset downward by approximately the height of the relevant channel or shaft cover, in the direction of the inner surface of the side wall of the channel or shaft cover into the support surface, characterized in that the inner skirt is provided with mutually spaced recesses and a spring clip designed as an angular element is inserted into the frame from the underside of the frame that faces away from the support surface, and this spring clip, with an intermediate strip which is at least substantially vertical in the installation situation and on which a retaining strip that projects in the direction of the inner surface of the side wall of the channel or shaft cover is integrally formed in the upper region in the installation situation and which is adjoined on the underside by a drainage surface which is at least substantially horizontal in the installation situation and extends beneath the support surface at a distance therefrom, can be inserted in such a way that the intermediate strip enters the space between the frame edge and the inner skirt until the retaining strip, which is pressed on during this insertion process of the spring clip, reaches the region of one of the recesses of the inner skirt and disengages through this recess in the direction of the inner surface of the side wall of the channel or shaft cover, and consequently the spring clip is locked in the installation situation as intended.
An automatic analysis device comprising: a pipetting nozzle (101; 701) configured to pipette a fluid, a pressure source configured to generate a pressure fluctuation for pipetting the fluid by the pipetting nozzle (101; 701), a flow path connecting the pipetting nozzle (101; 701) and the pressure source, a pressure sensor configured to measure the pressure in the flow path when the pipetting nozzle (101; 701) pipettes the fluid, a storage unit configured to store time-series data of the pressure measured by the pressure sensor, and a control unit configured to control the driving of the pipetting nozzle (101; 701) and the pressure source, wherein the control unit controls the pipetting nozzle (101; 701) and the pressure source to aspirate first air gap (401; 901), a first liquid, second air gap (402; 902), and a second liquid in this order into the pipetting nozzle (101; 701), characterized in that the control unit determines at least one of the aspiration amount of the first air gap (401; 901) and the aspiration amount of the second air gap (402; 902) based on the aspiration amount of the first liquid. a pipetting nozzle (101; 701) configured to pipette a fluid, a pressure source configured to generate a pressure fluctuation for pipetting the fluid by the pipetting nozzle (101; 701), a flow path connecting the pipetting nozzle (101; 701) and the pressure source, a pressure sensor configured to measure the pressure in the flow path when the pipetting nozzle (101; 701) pipettes the fluid, a storage unit configured to store time-series data of the pressure measured by the pressure sensor, and a control unit configured to control the driving of the pipetting nozzle (101; 701) and the pressure source, wherein the control unit controls the pipetting nozzle (101; 701) and the pressure source to aspirate first air gap (401; 901), a first liquid, second air gap (402; 902), and a second liquid in this order into the pipetting nozzle (101; 701), characterized in that the control unit determines at least one of the aspiration amount of the first air gap (401; 901) and the aspiration amount of the second air gap (402; 902) based on the aspiration amount of the first liquid.
An inflatable medical device comprising; a wall comprising a network of polymer chains, the wall having a surface (105, 107), wherein the network comprises a network morphology; and at least one low heat laser-formed modification on said surface (106, 107), wherein the network morphology of an area surrounding the low heat laser-formed modification is substantially unaffected by thermal effects; wherein the wall is configured to be inflatable into a therapeutically or diagnostically useful shape, including: at least one body region, at least one leg region, at least one cone region extending between the body region and the leg region, and a longitudinal axis (103, 203, 303, 503, 703, 903) extending through the body, leg and cone regions (108, 104, 106); characterized in that at least one low heat laser-formed modification is on an inner surface of the leg region. a wall comprising a network of polymer chains, the wall having a surface (105, 107), wherein the network comprises a network morphology; and at least one low heat laser-formed modification on said surface (106, 107), wherein the network morphology of an area surrounding the low heat laser-formed modification is substantially unaffected by thermal effects; wherein the wall is configured to be inflatable into a therapeutically or diagnostically useful shape, including: at least one body region, at least one leg region, at least one cone region extending between the body region and the leg region, and a longitudinal axis (103, 203, 303, 503, 703, 903) extending through the body, leg and cone regions (108, 104, 106); characterized in that at least one low heat laser-formed modification is on an inner surface of the leg region. at least one body region, at least one leg region, at least one cone region extending between the body region and the leg region, and a longitudinal axis (103, 203, 303, 503, 703, 903) extending through the body, leg and cone regions (108, 104, 106); characterized in that at least one low heat laser-formed modification is on an inner surface of the leg region.