mhurhangee/ep-ind-claims huggingface dataset:
A wiper blade (100, 200, 300, 600, 700), comprising: a wiper rubber (110, 210, 310); and a lever assembly (1000, 2000, 3000, 6000) holding the wiper rubber and coupled to a wiper arm, the lever assembly including a plurality of levers (1100, 3100, 2200L, 2200R, 3200L, 3200R, 1300L, 1300R, 2300L, 2300R), adjacent levers of which are hinge-jointed to each other, wherein the adjacent levers include a spoiler portion (1120, 3120, 2220, 3220, 1320, 2320) forming a section of a spoiler (131L, 131R, 331L, 331R, 232L, 232R, 332L, 332R, 133L, 133R, 233L, 233R) integrated in the lever, wherein one of the adjacent levers includes an arm (2210, 3210, 5210, 1310, 2310, 5310) extending from the spoiler portion thereof toward the other of the adjacent levers and holding the wiper rubber at a distal end, and wherein the arm is situated in the spoiler portion of the other of the adjacent levers and is hinge-jointed to the spoiler portion of the other of the adjacent levers, characterized in that the other of the adjacent levers includes a joint portion (1125, 2227, 3227) extending from the spoiler portion thereof toward the one of the adjacent levers and hinge-jointed to the arm, wherein the lever assembly further includes a joint cover (1430, 1430') coupled to the joint portion between the one of the adjacent levers and the other of the adjacent levers, wherein the joint cover has a cross-sectional profile corresponding to a cross-sectional profile of the spoiler portion of the one of the adjacent levers and a cross-sectional profile of the spoiler portion of the other of the adjacent levers. a wiper rubber (110, 210, 310); and a lever assembly (1000, 2000, 3000, 6000) holding the wiper rubber and coupled to a wiper arm, the lever assembly including a plurality of levers (1100, 3100, 2200L, 2200R, 3200L, 3200R, 1300L, 1300R, 2300L, 2300R), adjacent levers of which are hinge-jointed to each other, wherein the adjacent levers include a spoiler portion (1120, 3120, 2220, 3220, 1320, 2320) forming a section of a spoiler (131L, 131R, 331L, 331R, 232L, 232R, 332L, 332R, 133L, 133R, 233L, 233R) integrated in the lever, wherein one of the adjacent levers includes an arm (2210, 3210, 5210, 1310, 2310, 5310) extending from the spoiler portion thereof toward the other of the adjacent levers and holding the wiper rubber at a distal end, and wherein the arm is situated in the spoiler portion of the other of the adjacent levers and is hinge-jointed to the spoiler portion of the other of the adjacent levers, characterized in that the other of the adjacent levers includes a joint portion (1125, 2227, 3227) extending from the spoiler portion thereof toward the one of the adjacent levers and hinge-jointed to the arm, wherein the lever assembly further includes a joint cover (1430, 1430') coupled to the joint portion between the one of the adjacent levers and the other of the adjacent levers, wherein the joint cover has a cross-sectional profile corresponding to a cross-sectional profile of the spoiler portion of the one of the adjacent levers and a cross-sectional profile of the spoiler portion of the other of the adjacent levers.
A system (101, 201, 301, 401, 501, 601) for storage of one or more lungs (103, 203, 303, 403, 503, 603), the system (101, 201, 301, 401, 501, 601) comprising: an expandable accumulator (105, 205, 305, 405, 505, 605, 705, 1105) comprising an expandable inner volume; and an organ adapter (107, 207, 307, 407, 507, 607, 1007) comprising a lumen in fluid communication with the expandable inner volume and configured to be coupled to a lumen of the one or more lungs (103, 203, 303, 403, 503, 603) to form a closed air system between the expandable inner volume and the lumen of the one or more lungs (103, 203, 303, 403, 503, 603), wherein the expandable accumulator (105, 205, 305, 405, 505, 605, 705, 1105) has an expansion resistance that is adjustable such as to provide an expansion resistance that is less than the expansion resistance of the lumen of the one or more lungs (103, 203, 303, 403, 503, 603), and wherein the expandable accumulator (105, 205, 305, 405, 505, 605, 705, 1105), organ adaptor (107, 207, 307, 407, 507, 607, 1007), and the one or more lungs (103, 203, 303, 403, 503, 603) are configured to be all contained within an organ container (111, 211, 311, 411, 511, 611, 811, 911, 1101). an expandable accumulator (105, 205, 305, 405, 505, 605, 705, 1105) comprising an expandable inner volume; and an organ adapter (107, 207, 307, 407, 507, 607, 1007) comprising a lumen in fluid communication with the expandable inner volume and configured to be coupled to a lumen of the one or more lungs (103, 203, 303, 403, 503, 603) to form a closed air system between the expandable inner volume and the lumen of the one or more lungs (103, 203, 303, 403, 503, 603), wherein the expandable accumulator (105, 205, 305, 405, 505, 605, 705, 1105) has an expansion resistance that is adjustable such as to provide an expansion resistance that is less than the expansion resistance of the lumen of the one or more lungs (103, 203, 303, 403, 503, 603), and wherein the expandable accumulator (105, 205, 305, 405, 505, 605, 705, 1105), organ adaptor (107, 207, 307, 407, 507, 607, 1007), and the one or more lungs (103, 203, 303, 403, 503, 603) are configured to be all contained within an organ container (111, 211, 311, 411, 511, 611, 811, 911, 1101).
A method of adjusting a mobile station bandwidth to an operating bandwidth of a base station, in a variable bandwidth communication network of base stations and mobile stations, wherein a signal utilizes subchannels that include groups of subcarriers, the method comprising: maintaining a fixed time-domain signal structure; maintaining a constant ratio between a sampling frequency and a size of FFT, Fast Fourier Transform; adjusting a number of subcarriers or subchannels to scale a channel and attain a desired bandwidth; utilizing a core-band, centered at an operating center frequency, for radio control and operation signaling, wherein the core-band is not wider than a smallest possible operating channel bandwidth of the network; and a configuration wherein the mobile station, upon entering an area, scans spectral bands of different center frequencies and upon detecting a signal in a spectral band of a center frequency: determines the operating channel bandwidth by a center-frequency-to-bandwidth-mapping; or decodes the bandwidth information provided to the mobile station via downlink signaling. maintaining a fixed time-domain signal structure; maintaining a constant ratio between a sampling frequency and a size of FFT, Fast Fourier Transform; adjusting a number of subcarriers or subchannels to scale a channel and attain a desired bandwidth; utilizing a core-band, centered at an operating center frequency, for radio control and operation signaling, wherein the core-band is not wider than a smallest possible operating channel bandwidth of the network; and a configuration wherein the mobile station, upon entering an area, scans spectral bands of different center frequencies and upon detecting a signal in a spectral band of a center frequency: determines the operating channel bandwidth by a center-frequency-to-bandwidth-mapping; or decodes the bandwidth information provided to the mobile station via downlink signaling. determines the operating channel bandwidth by a center-frequency-to-bandwidth-mapping; or decodes the bandwidth information provided to the mobile station via downlink signaling.
Method for operating an electromechanical brake booster of a motor vehicle in order to reduce its speed of travel during a rolling movement of said motor vehicle, wherein, via a control device, - a pedal force exerted on a brake pedal by a user is determined, - a brake pressure to be set is determined from the determined pedal force by means of an actuating unit for the pedal force braking/pressure association, and - via operation of the brake booster, the brake pressure to be set is set in friction brakes of the motor vehicle, and a vehicle deceleration of the motor vehicle that is dependent on the set brake pressure is hereby effected, wherein the actuation unit has a standard configuration in which such a brake pressure to be set for the pedal force is determined, via which a predetermined standard deceleration of the motor vehicle is effected in the event that at least one predetermined disturbance variable (3, 6, 8) has a respectively predetermined standard value, and - the actuating unit has at least one adjusting parameter for setting a compensation configuration differing from the standard configuration, and - a respective actual value of the at least one disturbance variable (3, 6, 8) is detected by a detection device, and - the compensation configuration is set depending on a respective difference of each determined actual value and the respective standard value, by adjusting the at least one adjusting parameter of the actuating unit, characterized in that in the actuating unit, the standard configuration is provided by a characteristic boost curve, and at least one further characteristic boost curve is provided for a respective compensation configuration, and switching between the characteristic boost curves (33, 34) takes place depending on the respective detected actual value of the at least one disturbance variable (3, 6, 8). - a pedal force exerted on a brake pedal by a user is determined, - a brake pressure to be set is determined from the determined pedal force by means of an actuating unit for the pedal force braking/pressure association, and - via operation of the brake booster, the brake pressure to be set is set in friction brakes of the motor vehicle, and a vehicle deceleration of the motor vehicle that is dependent on the set brake pressure is hereby effected, wherein the actuation unit has a standard configuration in which such a brake pressure to be set for the pedal force is determined, via which a predetermined standard deceleration of the motor vehicle is effected in the event that at least one predetermined disturbance variable (3, 6, 8) has a respectively predetermined standard value, and - the actuating unit has at least one adjusting parameter for setting a compensation configuration differing from the standard configuration, and - a respective actual value of the at least one disturbance variable (3, 6, 8) is detected by a detection device, and - the compensation configuration is set depending on a respective difference of each determined actual value and the respective standard value, by adjusting the at least one adjusting parameter of the actuating unit,
A method to trigger an action based on detection of a wireless device, the method comprising: intercepting messages from wireless devices by a wireless receiver; extracting identifying information about the wireless devices from the messages; storing the identifying information with an associated time tag; receiving a sensor input at sensor communication circuitry; determining a time of the sensor input; correlating the time of the sensor input with the time tag associated with the identifying information; detecting an unregistered device; determining what action to take based on whether registered devices are also detected, wherein registered devices are devices which are authorized to connect to a network; and performing said action based, in part, on the correlation of the time of the sensor input with the time tag associated with the identifying information. intercepting messages from wireless devices by a wireless receiver; extracting identifying information about the wireless devices from the messages; storing the identifying information with an associated time tag; receiving a sensor input at sensor communication circuitry; determining a time of the sensor input; correlating the time of the sensor input with the time tag associated with the identifying information; detecting an unregistered device; determining what action to take based on whether registered devices are also detected, wherein registered devices are devices which are authorized to connect to a network; and performing said action based, in part, on the correlation of the time of the sensor input with the time tag associated with the identifying information.
A chemical sensor, comprising: a substrate on which a plurality of photodiodes are formed to be arranged in a planar form; a plurality of on chip lenses to collect incident light to the photodiodes, which is provided on the substrate; a flattening layer to cover and flatten the on-chip lenses; and a surface layer laminated on the flattening layer, and to which a probe material is fixable, wherein the surface layer is made of diamond and is subjected to a surface treatment by an irradiation with an ultraviolet ray in an ammonia gas atmosphere, and wherein the surface treatment is performed for each area of the surface layer that is opposed to an on-chip lens. a substrate on which a plurality of photodiodes are formed to be arranged in a planar form; a plurality of on chip lenses to collect incident light to the photodiodes, which is provided on the substrate; a flattening layer to cover and flatten the on-chip lenses; and a surface layer laminated on the flattening layer, and to which a probe material is fixable, wherein the surface layer is made of diamond and is subjected to a surface treatment by an irradiation with an ultraviolet ray in an ammonia gas atmosphere, and wherein the surface treatment is performed for each area of the surface layer that is opposed to an on-chip lens.
A wireless communication apparatus comprising: a period control section adapted to control a period for detecting an access point of a wireless local area network; an access point detecting section adapted to detect the access point at a period controlled by the period control section; a switching section adapted to, when the access point is detected during communication using a third-generation mobile communication system, switch communication using the third-generation mobile communication system to communication using the wireless local area network; and a position information acquiring section adapted to acquire position information showing a current position, wherein the period control section is adapted to control the period based on the position information. a period control section adapted to control a period for detecting an access point of a wireless local area network; an access point detecting section adapted to detect the access point at a period controlled by the period control section; a switching section adapted to, when the access point is detected during communication using a third-generation mobile communication system, switch communication using the third-generation mobile communication system to communication using the wireless local area network; and a position information acquiring section adapted to acquire position information showing a current position, wherein the period control section is adapted to control the period based on the position information.
A method for the production of a security feature for value documents, in particular bank notes, identity cards and the like, the security feature comprising at least one tactilely detectable structure which is applied to a substrate of the value document, the at least one tactile structure consisting of paint or lacquer, wherein the paint and/or lacquer is applied to the substrate of the value document by means of a printing process, wherein the at least one tactile structure is combined with a supplementary feature in the form of a tactilely, acoustically or optically detectable security feature, said security feature being located on and/ or under and/or around and/ or within the tactile structure or being inserted into said tactile structure, characterized in that a further substantially not tactile lacquer layer is located at least partially above the tactile paint or lacquer layer and that, if necessary, a further substantially not tactile paint or lacquer layer is located at least partially below the tactile paint or lacquer layer, in particular a coating with a paint or a lacquer or a colored background printing, wherein the lacquer layer located above the tactile paint or lacquer layer fills or covers the tactile structures in such a way that these tactile structures are only palpable as individual structures if mechanical pressure is exerted on the upper lacquer layer.
Electronic device which has control electronics which have at least one program memory with a computer program stored therein and a computer for executing the computer program, the computer program having software control functions for controlling functions of the electronic device, the electronic device having at least one communication unit which is coupled to the control electronics and by means of which the electronic device is set up for data communication with an external computer device, characterized in that the communication unit is designed as an exchangeable communication module, the communication module having a gateway functionality, by which a bidirectional conversion takes place between an external communication protocol and/or physical layer used by the external computer device and an internal communication protocol and/or physical layer used between the communication module and the computer, wherein the communication module supports either exactly one external communication protocol or several external communication protocols, wherein the communication module and thus its gateway functionality and the supported external communication protocol and/or physical layer can be exchanged by removing a communication module from the electronic device and connecting another communication module to the electronic device.
Household appliance door with a door handle embodied as a bar handle (5; 15), with at least one bar section and a handlebar (4; 16), wherein the handlebar (4; 16) has at least one control element, characterised in that the door handle can be recessed at least partially in the household appliance door and that the household appliance door has a ventilation opening, which is covered by the retracted door handle (5; 15).
An apparatus for transmitting uplink fast feedback information in a wireless communication system, the apparatus comprising: a channel encoder for inputting uplink fast feedback information to transmit, and outputting 3-bit codewords being set according to the uplink fast feedback information; a noncoherent modulator for modulating transmission symbols corresponding to the 3-bit codewords using a noncoherent modulation scheme; and an inverse fast Fourier transform, IFFT, unit for generating a transmission signal comprised of subcarrier bundles by IFFT-processing the modulated transmission symbols before transmission, wherein the 3-bit codewords are represented as 3-bit payloads of the following table: 3-bit payload Fast Feedback Vector Index per Tile Even = {tile, tile, tile}, Odd = { tile, tile, tile} 0b000 0, 0, 0 0b001 1, 1, 1 0b010 2, 2, 2 0b011 3, 3, 3 0b100 4, 4, 4 0b101 5, 5, 5 0b110 6, 6, 6 0b111 7, 7, 7 wherein the fast feedback vector index is represented as an vector index of the following table: VECTOR INDEX Subcarrier modulation per codeword subcarrier 0, subcarrier 1,..., subcarrier 7 0 P0, P1, P2, P3, P0, P1, P2, P3 1 P0, P3, P2, P1, P0, P3, P2, P1 2 P0, P0, P1, P1, P2, P2, P3, P3 3 P0, P0, P3, P3, P2, P2, P1, P1 4 P0, P0, P0, P0, P0, P0, P0, P0 5 P0, P2, P0, P2, P0, P2, P0, P2 6 P0, P2, P0, P2, P2, P0, P2, P0 7 P0, P2, P2, P0, P2, P0, P0, P2 wherein the orthogonal vectors P0, P1, P2 and P3, each of which indicates a quadrature phase shift keying, QPSK, modulation symbol, are expressed by: P 0 = exp j ⋅ π 4 P 1 = exp j ⋅ 3 π 4 P 2 = exp − j ⋅ 3 π 4 P 3 = exp − j ⋅ π 4. a channel encoder for inputting uplink fast feedback information to transmit, and outputting 3-bit codewords being set according to the uplink fast feedback information; a noncoherent modulator for modulating transmission symbols corresponding to the 3-bit codewords using a noncoherent modulation scheme; and an inverse fast Fourier transform, IFFT, unit for generating a transmission signal comprised of subcarrier bundles by IFFT-processing the modulated transmission symbols before transmission, wherein the 3-bit codewords are represented as 3-bit payloads of the following table: 3-bit payload Fast Feedback Vector Index per Tile Even = {tile, tile, tile}, Odd = { tile, tile, tile} 0b000 0, 0, 0 0b001 1, 1, 1 0b010 2, 2, 2 0b011 3, 3, 3 0b100 4, 4, 4 0b101 5, 5, 5 0b110 6, 6, 6 0b111 7, 7, 7 wherein the fast feedback vector index is represented as an vector index of the following table: VECTOR INDEX Subcarrier modulation per codeword subcarrier 0, subcarrier 1,..., subcarrier 7 0 P0, P1, P2, P3, P0, P1, P2, P3 1 P0, P3, P2, P1, P0, P3, P2, P1 2 P0, P0, P1, P1, P2, P2, P3, P3 3 P0, P0, P3, P3, P2, P2, P1, P1 4 P0, P0, P0, P0, P0, P0, P0, P0 5 P0, P2, P0, P2, P0, P2, P0, P2 6 P0, P2, P0, P2, P2, P0, P2, P0 7 P0, P2, P2, P0, P2, P0, P0, P2 wherein the orthogonal vectors P0, P1, P2 and P3, each of which indicates a quadrature phase shift keying, QPSK, modulation symbol, are expressed by: P 0 = exp j ⋅ π 4 P 1 = exp j ⋅ 3 π 4 P 2 = exp − j ⋅ 3 π 4 P 3 = exp − j ⋅ π 4.
A photoelectric conversion device, comprising an electrode layer, and a light absorbing layer located on the electrode layer, the light absorbing layer containing a compound semiconductor, wherein the light absorbing layer comprises a first layer close to the electrode layer and a second layer located on the first layer opposite the electrode layer, and the first layer has a void ratio lower than that of the second layer, wherein the first layer has a void ratio of from 0 to 20%, and the second layer has a void ratio of from 30 to 80%, characterized by a semiconductor layer located on the light absorbing layer opposite the electrode layer, the semiconductor layer forming a pn junction together with the light absorbing layer, the pn junction being formed at an interface between the light absorbing layer and the semiconductor layer.
Device for use in negative pressure therapy of endoluminal wound sites in the gastrointestinal tract, comprising a sponge body, and a suction hose connected non-detachably to the sponge body by means of adhesive, wherein the suction hose has at least a first portion, a second portion and a third portion, and wherein the sponge body, at the production stage, encloses the first portion and the second portion of the suction hose, and wherein the sponge body does not enclose the third portion of the suction hose, and wherein, furthermore, at least one opening is present in the region of the first portion of the suction hose, characterized in that the suction hose is connected non-detachably to the sponge body by means of adhesive at the production stage in the region of the first portion, and in that the suction hose has no adhesive in the region of the second portion, wherein the first portion of the suction hose is present in the fluid system upstream from the second portion.