mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing device comprising: an image receiving module for receiving multiple images of a form, each image comprising at least one character inputted by a user and at least one character input column into which the character has been inputted by a user; an inputted-character identifying unit that identifies characters inputted by a user from a plurality of items of image information indicating the multiple images by separating an image portion inputted by the user from an image portion indicating the form; a character-input-column identifying unit that identifies, from the plurality of items of image information indicating the multiple images, a character input column in the image portion indicating the form ; an inputted-character-amount obtaining unit that obtains an amount of inputted characters inputted by the user in each of the character input columns located at different positions; a size-information obtaining unit that obtains information concerning a size of each of the character input columns; and an adjusting unit that adjusts the size of each of the character input columns in accordance with the amount of inputted characters in the corresponding character input column and the information concerning the size of the corresponding character input column. an image receiving module for receiving multiple images of a form, each image comprising at least one character inputted by a user and at least one character input column into which the character has been inputted by a user; an inputted-character identifying unit that identifies characters inputted by a user from a plurality of items of image information indicating the multiple images by separating an image portion inputted by the user from an image portion indicating the form; a character-input-column identifying unit that identifies, from the plurality of items of image information indicating the multiple images, a character input column in the image portion indicating the form ; an inputted-character-amount obtaining unit that obtains an amount of inputted characters inputted by the user in each of the character input columns located at different positions; a size-information obtaining unit that obtains information concerning a size of each of the character input columns; and an adjusting unit that adjusts the size of each of the character input columns in accordance with the amount of inputted characters in the corresponding character input column and the information concerning the size of the corresponding character input column.
An unloading device for unloading loose, in particular powdery, material hazardous to health from rigid or flexible containers , in particular bags and drums , the unloading device comprising an unloading chamber comprising a discharge opening for discharging the material after removal from a container and further comprising an insertion opening for at least partial insertion of a container into the unloading chamber , wherein the unloading chamber has a ventilation opening which is disposed on a side of the unloading chamber opposite the insertion opening and which is connected to pump means in such a manner that an airflow can be generated inside the unloading chamber , the airflow causing a laminar airflow from the insertion opening in the direction of the ventilation opening , characterized in that a, preferably vertical, partition wall having a variable passage opening is disposed between the insertion opening and the unloading chamber inside the unloading chamber , wherein the variable passage opening is designed and dimensioned in such a manner that the containers to be emptied, insofar as they are completely received in the unloading chamber , can pass through the passage opening and is also designed in such a manner that no airtight sealing or closure is achieved by the partition wall in any state during the emptying, and wherein a nozzle arrangement is disposed in the area of the insertion opening , the nozzle arrangement being connected to pump means in such a manner that an airflow in the direction of the ventilation opening can be generated. the unloading device comprising an unloading chamber comprising a discharge opening for discharging the material after removal from a container and further comprising an insertion opening for at least partial insertion of a container into the unloading chamber , wherein the unloading chamber has a ventilation opening which is disposed on a side of the unloading chamber opposite the insertion opening and which is connected to pump means in such a manner that an airflow can be generated inside the unloading chamber , the airflow causing a laminar airflow from the insertion opening in the direction of the ventilation opening , characterized in that a, preferably vertical, partition wall having a variable passage opening is disposed between the insertion opening and the unloading chamber inside the unloading chamber , wherein the variable passage opening is designed and dimensioned in such a manner that the containers to be emptied, insofar as they are completely received in the unloading chamber , can pass through the passage opening and is also designed in such a manner that no airtight sealing or closure is achieved by the partition wall in any state during the emptying, and wherein a nozzle arrangement is disposed in the area of the insertion opening , the nozzle arrangement being connected to pump means in such a manner that an airflow in the direction of the ventilation opening can be generated.
A method for determining a capacity of a boom combination for a crane having a variable position counterweight in an intermediate position, the method comprising: determining a boom combination of a crane having a variable position counterweight ; determining a maximum capacity at a hook position for the boom combination; establishing a target value for an operating condition dependent on a balance of the crane between the variable position counterweight and a load on the hook; receiving an indication of an intermediate counterweight position ; wherein the method is characterized by: calculating a load on the hook at the hook position for the boom combination and the intermediate counterweight position that results in the operating condition having the target value to determine an intermediate capacity; comparing the intermediate capacity with the maximum capacity ; and outputting the lower of the maximum capacity and the intermediate capacity . determining a boom combination of a crane having a variable position counterweight ; determining a maximum capacity at a hook position for the boom combination; establishing a target value for an operating condition dependent on a balance of the crane between the variable position counterweight and a load on the hook; receiving an indication of an intermediate counterweight position ; calculating a load on the hook at the hook position for the boom combination and the intermediate counterweight position that results in the operating condition having the target value to determine an intermediate capacity; comparing the intermediate capacity with the maximum capacity ; and outputting the lower of the maximum capacity and the intermediate capacity .
A substrate processing apparatus comprising: a chamber (CA) having an inner space; an airflow former (AG or FL) supplies gas into the chamber to form a downward airflow; a substrate holder that holds a substrate in the chamber; a nozzle that supplies a processing liquid to the substrate from a processing position (P2) above the substrate held by the substrate holder; and a partition that partitions an inner space of the chamber into a processing space (Spa) including the substrate held by the substrate holder and a non-processing space (Spb) surrounding at least part of the processing space with the substrate held by the substrate holder, wherein the partition includes a processing cup that is provided to surround the substrate held by the substrate holder in a plan view and overlap with the substrate held by the substrate holder in a side view, and forms the processing space, a partition plate that is provided at a position above the processing cup, and has a plurality of through holes (H) for guiding part of the downward airflow to the processing space and a nozzle opening formed to overlap with the processing position in a plan view, and a lid configured to cover the nozzle opening while allowing supply of a processing liquid from the nozzle to the substrate with the substrate held by the substrate holder and the nozzle located at the processing position. a chamber (CA) having an inner space; an airflow former (AG or FL) supplies gas into the chamber to form a downward airflow; a substrate holder that holds a substrate in the chamber; a nozzle that supplies a processing liquid to the substrate from a processing position (P2) above the substrate held by the substrate holder; and a partition that partitions an inner space of the chamber into a processing space (Spa) including the substrate held by the substrate holder and a non-processing space (Spb) surrounding at least part of the processing space with the substrate held by the substrate holder, wherein the partition includes a processing cup that is provided to surround the substrate held by the substrate holder in a plan view and overlap with the substrate held by the substrate holder in a side view, and forms the processing space, a partition plate that is provided at a position above the processing cup, and has a plurality of through holes (H) for guiding part of the downward airflow to the processing space and a nozzle opening formed to overlap with the processing position in a plan view, and a lid configured to cover the nozzle opening while allowing supply of a processing liquid from the nozzle to the substrate with the substrate held by the substrate holder and the nozzle located at the processing position.
Combined exhaust gas noise silencer consisting of a system of hollow elements with a mutual housing comprising a front face of the silencer connected to the exhaust gas supply pipe , a rear face of the silencer with an outlet from the rear face of the silencer and chambers divided by transverse partitions, where the original inlet exhaust gas (İ p ) carrying a noise wave is divided into at least two flows: an exhaust gas flow (İ z ) carrying a shifted noise wave with delayed wave length, and an exhaust gas flow (İ n ) carrying a non-shifted noise wave, which are subsequently combined into a common exhaust gas flow (İ s ), where the system of hollow elements contains an inlet expansion chamber , located between the front face of the silencer and the inlet transverse partition , and the common outlet expansion and mixing chamber located between the outlet transverse partition and the rear face of the silencer, whereby between the inlet transverse partition and the outlet transverse partition one or more inner expansion chambers of the non-delayed flow are arranged in the direction of the noise wave passage, having an inlet opening of the inner chamber in the inlet transverse partitions and having inlet openings of the common outlet expansion and mixing chamber in the outlet transverse partition , and in parallel to that inner expansion chamber/s of non-delayed flow 4n+2 inner expansion chambers of the delayed flow are arranged sequentially in the direction of the noise wave passage, with the inlet openings of the inner chambers of the delayed flow in the transverse partitions on their inlet, where n is 0 or positive integer number, and where each of the inner expansion chambers of the delayed flow comprises a resonator tube , provided that the ratio of the length of each resonator tube of the resonators (10(R1), 10(R2)) to the length of corresponding inner expansion chamber of the delayed flow lies in the interval of 0,3 to 0,8, and the ratio of the cross-section surface of each resonator tube to the cross-section surface of the inner exhaust gas supply pipe lies in the interval of 0,3 to 0,8, and the surface size of the inlet openings of the inner chambers in the transverse partitions is the same ± 10 % as the surface size of the cross-section of the resonator tube , and wherein the sum of the lengths of all sequentially arranged inner expansion chambers of the non-delayed exhaust gas flow is the same ± 10 % as the sum of all lengths of all sequentially arranged inner expansion chambers of delayed flows.
Deflector for a mechanical reduction gear of a turbine engine , in particular of an aircraft, with this deflector intended to be inserted between two adjacent planets of said reduction gear, with this deflector comprising a block comprising a first lateral surface that is cylindrical and concave and that has a radius of curvature R1 measured from an axis G1, with the block comprising a second lateral surface , opposite said first surface, that is cylindrical and concave and that has a radius of curvature R1 measured from an axis G2 that is parallel to G1, characterised in that it comprises on each one of said first and second surfaces at least one protruding tab that has a generally elongate shape about the axis G1, G2 of the surface considered and of which the internal periphery is concavely curved and a radius of curvature R2 measured from this axis G1, G2 which is less than R1.
A photo-detecting apparatus , comprising: an optical-to-electric converter , having a first output terminal, configured to convert an incident light (IL) to an electrical signal; a cascode transistor , having a control terminal, a first channel terminal and a second channel terminal, wherein the second channel terminal of the cascode transistor is coupled to the first output terminal of the optical-to-electric converter ; a reset transistor , having a control terminal, a first channel terminal and a second channel terminal, wherein the first channel terminal of the reset transistor is coupled to a supply voltage (VDDR) and the second channel terminal of the reset transistor is coupled to the first channel terminal of the cascode transistor; characterised in that the optical-to-electric converter comprises a photodiode configured to convert the incident light (IL) to the electrical signal, a first switch configured to output the electrical signal to the first output terminal according to a first switch signal, and a second switch configure to output the electrical signal to a second output terminal according to a second switch signal. an optical-to-electric converter , having a first output terminal, configured to convert an incident light (IL) to an electrical signal; a cascode transistor , having a control terminal, a first channel terminal and a second channel terminal, wherein the second channel terminal of the cascode transistor is coupled to the first output terminal of the optical-to-electric converter ; a reset transistor , having a control terminal, a first channel terminal and a second channel terminal, wherein the first channel terminal of the reset transistor is coupled to a supply voltage (VDDR) and the second channel terminal of the reset transistor is coupled to the first channel terminal of the cascode transistor; characterised in that the optical-to-electric converter comprises a photodiode configured to convert the incident light (IL) to the electrical signal, a first switch configured to output the electrical signal to the first output terminal according to a first switch signal, and a second switch configure to output the electrical signal to a second output terminal according to a second switch signal.
A flexible display device, comprising: a flexible display substrate comprising: a display area (A) with pixel elements for generating an image comprising a display unit extending partially or entirely over the display area (A) and a peripheral circuit area (B) adjacent to the display area, the peripheral circuit area (B) comprising components to transmit signals to the pixel elements in the display area (A); and a support substrate attached to the flexible display substrate to provide rigidity to the flexible display device, the support substrate comprising: a non-bending area, and a bending area extending along a boundary of the display area (A) and the peripheral circuit area (B), the bending area adjacent to the non-bending area, the bending area having less rigidity than the non-bending area, characterized in that the center of the bending area is offset towards the peripheral circuit area (B) so that bending the flexible substrate and the support film does not affect the display unit . a display area (A) with pixel elements for generating an image comprising a display unit extending partially or entirely over the display area (A) and a peripheral circuit area (B) adjacent to the display area, the peripheral circuit area (B) comprising components to transmit signals to the pixel elements in the display area (A); and a support substrate attached to the flexible display substrate to provide rigidity to the flexible display device, the support substrate comprising: a non-bending area, and a bending area extending along a boundary of the display area (A) and the peripheral circuit area (B), the bending area adjacent to the non-bending area, the bending area having less rigidity than the non-bending area, a non-bending area, and a bending area extending along a boundary of the display area (A) and the peripheral circuit area (B), the bending area adjacent to the non-bending area, the bending area having less rigidity than the non-bending area, characterized in that the center of the bending area is offset towards the peripheral circuit area (B) so that bending the flexible substrate and the support film does not affect the display unit .
A liquid-to-gas shell heat exchanger containing an elongated shell , the central part of which is on both sides closed by heads , whereby in this shell an inlet aperture and an outlet aperture for a heated medium are made, being mutually interconnected by a conduit of the heated medium arranged in the inner space of the heat exchanger , whereby in this shell an inlet aperture and an outlet aperture for the heating medium are made, the inlet aperture for the heating medium being created in the head of the shell of the shell heat exchanger , whereby in the inner space of the heat exchanger a deflector for the heating medium is arranged opposite the inlet aperture and between the inlet aperture and pipes of the conduit of the heated medium, a deflector is arranged, characterized by that the deflector has a shape of a jacket of a cone with a lower part and an upper part , whereby the lower part of the deflector is of greater conicalness than the upper part of the deflector .
A method for receiving a high speed downlink packet access, HSDPA, communication in a cellular communication system, the method comprising: receiving an extended multiplexed data packet on a downlink channel, wherein the extended multiplexed data packet comprises multiple data packets (515-525) concatenated from multiple priority queues of data packets; and processing a header of the extended multiplexed data packet, wherein the header comprises an indication of a number of data packets in the extended multiplexed data packet and, for each respective data packet of the multiple data packets, an indication of a size of the respective data packet. receiving an extended multiplexed data packet on a downlink channel, wherein the extended multiplexed data packet comprises multiple data packets (515-525) concatenated from multiple priority queues of data packets; and processing a header of the extended multiplexed data packet, wherein the header comprises an indication of a number of data packets in the extended multiplexed data packet and, for each respective data packet of the multiple data packets, an indication of a size of the respective data packet.
Particle examination system for examining a particle contamination of a surface , having a sampling strip for uptake of particles and a sampling device , wherein the sampling device has a roller body set up to guide the sampling strip over its outer surface , and wherein the sampling device is set up to roll the roller body together with the sampling strip against the surface to be examined, in order to transfer particles from the surface to be examined to the sampling strip , wherein the sampling device a) has a first measuring device designed to detect any rotational movement of the roller body ; and/or b) has a second measuring device designed to detect any contact pressure of the roller body on the surface to be examined; characterized in that the sampling device has a guide frame in order to position the sampling device on the surface to be examined or alongside the surface to be examined, wherein the guide frame has at least one positioning interface by which the guide frame lies on the surface to be examined or on another surface, and wherein the roller body is mounted elastically relative to the surface to be examined in the sampling device . a) has a first measuring device designed to detect any rotational movement of the roller body ; and/or b) has a second measuring device designed to detect any contact pressure of the roller body on the surface to be examined;
Method for operating an antenna unit , wherein the antenna unit comprises an on-antenna signal interface and an on-device signal interface , a control device , at least one device for adjusting a signal strength of a transmission signal and at least one device for detecting a signal strength of the transmission signal, wherein a calibration process involves a calibration signal being received via the on-device signal interface , wherein the signal strength of the calibration signal is determined, wherein the determined signal strength is compared with a reference signal strength, wherein a gain factor of the at least one device for adjusting the signal strength is set such that the difference between the reference signal strength and a signal strength of the amplified calibration signal is minimized, wherein the antenna unit is operated with the gain factor set in this manner following completion of the calibration process, wherein the antenna unit comprises at least one transmission signal branch, wherein during the calibration process the calibration signal is not transmitted to an antenna , characterized in that the device for detecting a signal strength is arranged in the at least one transmission signal branch, wherein the transmission signal branch serves to transmit a transmission signal from the on-device signal interface to the on-antenna signal interface.
A cigarette machine having a suction belt conveyor for the tobacco-processing industry, which has a rod guide channel which is delimited on one side by a material-conveying suction belt and, adjacent thereto, by two channel cheeks lying opposite one another, characterized in that the cigarette machine comprises an electromagnetic measuring apparatus with a resonator which has two resonator halves , a first resonator half of which is provided on the side of the rod guide channel with the conveying suction belt and the second resonator half of which is provided on the side lying opposite the first resonator half , wherein the first resonator half is connected to the movably mounted suction belt conveyor so that it can be positioned together with the suction belt conveyor and the microwave signals are coupled in and out at the second resonator half , the second resonator half being fixedly attached to the cigarette machine.