mhurhangee/ep-ind-claims huggingface dataset:
A visual system for a vehicle, comprising a capturing unit for capturing a field of view; a calculation unit adapted to generate image data to be displayed based on the captured image data, and to supply the same to an image display unit, wherein the image data to be displayed include the field of view captured by the capturing unit, the image display unit adapted to display the image data to be displayed such that they are visible for the driver of the vehicle, and the calculation unit adapted to superimpose at least one trajectory (10, 10') of a future track/driving curve of the vehicle on the image data displayed on the image display unit if a steering angle of the vehicle has a predetermined amount, characterized in that the vehicle comprises a tractor and a trailer pivotable to the tractor, and the calculation unit is adapted for precalculating at least a first trajectory of the tractor and at least a second trajectory of the trailer for future driving course of the tractor and the trailer, wherein the image displayed on the image display unit relates to side and rear areas and shows a first trajectory for the tractor and a second trajectory for the trailer.
A demodulation reference signal, DMRS, configuration method, applied to a user equipment, UE, characterized by comprising: determining a time domain position of a first DMRS according to a duration of a first physical uplink shared channel, PUSCH, and DMRS configuration information; wherein the first PUSCH is obtained by splitting a second PUSCH among a plurality of second PUSCHs which are in repetition transmission by the UE, and sending the first DMRS based on the determined time domain position. determining a time domain position of a first DMRS according to a duration of a first physical uplink shared channel, PUSCH, and DMRS configuration information; wherein the first PUSCH is obtained by splitting a second PUSCH among a plurality of second PUSCHs which are in repetition transmission by the UE, and sending the first DMRS based on the determined time domain position.
A substrate work machine for repeatedly performing substrate work, the substrate work machine comprising: a data storing section configured to store component data used in the substrate work, the component data including shape data related to a shape of an electronic component to be mounted on a substrate, a reference value and a tolerance; and a data determining section configured to determine whether a difference between measurement data acquired by measuring the electronic component during the substrate work and the reference value of the component data is within a range of the tolerance, wherein the data determining section includes a captured image processing section configured to acquire the measurement data by performing image processing using the component data on image data obtained by imaging the electronic component, characterized by a quality information acquiring section configured to, in a case in which the difference is not within the range of the tolerance, acquire work quality information related to a performance condition of a second substrate work machine that is a different type of machine arranged upstream or downstream of the substrate work machine; and a data correcting section configured to correct at least one of the reference value and the tolerance in accordance with the work quality information, wherein the data correcting section is configured to widen the tolerance or shift the reference value when the work quality information indicates that the performance condition of second substrate work is good. a data storing section configured to store component data used in the substrate work, the component data including shape data related to a shape of an electronic component to be mounted on a substrate, a reference value and a tolerance; and a data determining section configured to determine whether a difference between measurement data acquired by measuring the electronic component during the substrate work and the reference value of the component data is within a range of the tolerance, wherein the data determining section includes a captured image processing section configured to acquire the measurement data by performing image processing using the component data on image data obtained by imaging the electronic component, characterized by a quality information acquiring section configured to, in a case in which the difference is not within the range of the tolerance, acquire work quality information related to a performance condition of a second substrate work machine that is a different type of machine arranged upstream or downstream of the substrate work machine; and a data correcting section configured to correct at least one of the reference value and the tolerance in accordance with the work quality information, wherein the data correcting section is configured to widen the tolerance or shift the reference value when the work quality information indicates that the performance condition of second substrate work is good.
An access point, comprising: a first antenna configured for transmission using a Television White Space (TVWS) frequency; an antenna array configured for directional transmission on a WIFI frequency, wherein the antenna array is configured to provide an antenna gain based on combining signals from multiple antennas included in the antenna array; and one or more processors configured to: receive a first message from a user device (115, 120) using a TVWS frequency; determine location information associated with the user device (115, 120), the location information received from the user device (115, 120) via one or more TVWS packets or by accessing a geolocation database with the user device's approximate location based on one or more TVWS packets; determine a beam-steering configuration based upon the location information; and transmit a second message on the WIFI frequency to the user device (115, 120) using the beam steering configuration and the antenna array. a first antenna configured for transmission using a Television White Space (TVWS) frequency; an antenna array configured for directional transmission on a WIFI frequency, wherein the antenna array is configured to provide an antenna gain based on combining signals from multiple antennas included in the antenna array; and one or more processors configured to: receive a first message from a user device (115, 120) using a TVWS frequency; determine location information associated with the user device (115, 120), the location information received from the user device (115, 120) via one or more TVWS packets or by accessing a geolocation database with the user device's approximate location based on one or more TVWS packets; determine a beam-steering configuration based upon the location information; and transmit a second message on the WIFI frequency to the user device (115, 120) using the beam steering configuration and the antenna array. receive a first message from a user device (115, 120) using a TVWS frequency; determine location information associated with the user device (115, 120), the location information received from the user device (115, 120) via one or more TVWS packets or by accessing a geolocation database with the user device's approximate location based on one or more TVWS packets; determine a beam-steering configuration based upon the location information; and transmit a second message on the WIFI frequency to the user device (115, 120) using the beam steering configuration and the antenna array.
A trim profile, in particular for the window region of a motor vehicle, having a profile part, which is moulded from plastic, as the support for at least one trim element, a region of the profile part that is not covered by the trim element projecting beyond the side edge thereof, and the projecting region of the profile part being formed as an elastically deformable lip (8; 9), characterised in that each trim element is a blank consisting of a foil, and the profile part is an injection-moulded body consisting of the plastic.
A method for controlling a smart home device, comprising: receiving operation mode configuration information broadcast by a wearable device, the operation mode configuration information comprising a device identification corresponding to the wearable device; obtaining an operation parameter corresponding to the device identification, comprising: obtaining the operation parameter corresponding to the device identification from a preset association relationship table recording correspondence between device identifications and operation parameters of associated wearable devices; and operating the smart home device according to the operation parameter; wherein obtaining an operation parameter corresponding to the device identification comprises: obtaining the operation parameter corresponding to the device identification, in response to determining that the wearable device is located within a preset range. receiving operation mode configuration information broadcast by a wearable device, the operation mode configuration information comprising a device identification corresponding to the wearable device; obtaining an operation parameter corresponding to the device identification, comprising: obtaining the operation parameter corresponding to the device identification from a preset association relationship table recording correspondence between device identifications and operation parameters of associated wearable devices; and operating the smart home device according to the operation parameter; wherein obtaining an operation parameter corresponding to the device identification comprises: obtaining the operation parameter corresponding to the device identification, in response to determining that the wearable device is located within a preset range.
A bonded abrasive article (100, 600) comprising: a plurality of abrasive particles (20, 610), each particle having a coating (50, 616) of a catechol-like polymer resin on one side; a phenolic resin binder (25, 612) that forms a bonded abrasive matrix of the bonded abrasive article, and wherein the plurality of abrasive particles are retained in the phenolic binder. a plurality of abrasive particles (20, 610), each particle having a coating (50, 616) of a catechol-like polymer resin on one side; a phenolic resin binder (25, 612) that forms a bonded abrasive matrix of the bonded abrasive article, and wherein the plurality of abrasive particles are retained in the phenolic binder.
Assembly comprising an internal combustion engine and a cooling apparatus, the internal combustion engine being configured to execute complete stopping of the engine by turning off the ignition and execute automatic stopping through automatic stop/start control that automatically stops the internal combustion engine, in a state in which the ignition is kept turned on, in a case where a predetermined stopping condition is established, and that automatically restarts the internal combustion engine in a case where a predetermined restarting condition is established during automatic stopping, and the cooling apparatus comprising: a first coolant circulation channel for returning a coolant that passes through a main body of the internal combustion engine to the main body after causing the coolant to exchange heat with a first heat exchanger; an electric-motor-driven valve that is provided partway along the first coolant circulation channel; and a control apparatus configured to execute a first control that actuates the valve in accordance with a temperature of the coolant at a time of operation of the internal combustion engine, and a second control that actuates the valve to a reference position at a time of complete stopping of the internal combustion engine; wherein the control apparatus is configured so that, in a case where automatic stopping is performed by the automatic stop/start control during execution of the first control, the control apparatus continues to execute the first control during the automatic stopping. a first coolant circulation channel for returning a coolant that passes through a main body of the internal combustion engine to the main body after causing the coolant to exchange heat with a first heat exchanger; an electric-motor-driven valve that is provided partway along the first coolant circulation channel; and a control apparatus configured to execute a first control that actuates the valve in accordance with a temperature of the coolant at a time of operation of the internal combustion engine, and a second control that actuates the valve to a reference position at a time of complete stopping of the internal combustion engine; wherein the control apparatus is configured so that, in a case where automatic stopping is performed by the automatic stop/start control during execution of the first control, the control apparatus continues to execute the first control during the automatic stopping.
A device for producing hydrogen and oxygen by electrolysis, said device including a disc structure including an electrolysis chamber at the periphery of the disc structure, first and second electrodes (105, 106) in said electrolysis chamber, means for supplying DC electric power to said electrodes (105, 106), and drive means for rotating said disc structure, characterized in that said first and second electrodes (105, 106) are parallel and arranged tangentially along the periphery of said disc structure.
A hand-held power tool having a drive unit oscillating along a working axis, and a vibration damper comprising a mass body suspended in a spring mechanism, characterized in that the spring mechanism is constructed in such a way as to be asymmetrical relative to an initial position, such that the spring mechanism opposes deflection of the mass body from an initial position in a first direction parallel to the working axis with a first spring stiffness and deflection from the initial position in a second direction counter to the first direction with a second spring stiffness, and the first spring stiffness is different from the second spring stiffness.
A device for applying electro-therapy to a wound of a mammal, comprising at least two electrodes (104, 105) configured to be electrically in contact with skin surrounding a wound so as not to hinder the use of a dressing in contact with the wound itself, the at least two electrodes being switchable between being a stimuli electrode and a sense electrode, or the at least two electrodes comprising at least two sense electrodes (105a, 105b) and at least two stimulation electrodes (104a, 104b) the device for applying electro-therapy further comprising a control module and a voltage measurement circuit the voltage measurement circuit being in connection with the sense electrodes and being configured to communicate with the control module, and a controlled voltage source being in connection with the stimuli electrodes and being configured to communicate with the control module; wherein the control module is configured to - perform a frequency sweep via the at least two sense electrodes at a calibration voltage delivered by the controlled voltage source, - receive one or more measured voltage drops from the voltage measurement circuit, the voltage drops being measured with the voltage measurement circuit via the sense electrodes; and - adjust the voltage outputted from the controlled voltage source, based on the measured voltage drop. - perform a frequency sweep via the at least two sense electrodes at a calibration voltage delivered by the controlled voltage source, - receive one or more measured voltage drops from the voltage measurement circuit, the voltage drops being measured with the voltage measurement circuit via the sense electrodes; and - adjust the voltage outputted from the controlled voltage source, based on the measured voltage drop.
A composition for treating tumors in a patient, comprising unilamellar liposomes, of a size of less than 200 nanometers as assessed by dynamic light scattering and containing a therapeutic amount of imipramine blue, or a pharmaceutically-acceptable salt thereof, in a pharmaceutically-acceptable carrier for intraveneous administration, wherein the liposomes comprise cholesterol and chemically pure phospholipids that are essentially neutral and contain saturated fatty acids of between 16 and 18 carbon atoms.
A method for wireless communication in a vehicle emergency call system, comprising: transmitting a set of telematics capabilities from a first endpoint in the vehicle emergency call system to a second endpoint in the vehicle emergency call system over a communication session signaling protocol; and transmitting the set of telematics capabilities in a capabilities data structure corresponding to a request data structure by which the first endpoint accepts requests to perform at least one action that the first endpoint is capable of performing. transmitting a set of telematics capabilities from a first endpoint in the vehicle emergency call system to a second endpoint in the vehicle emergency call system over a communication session signaling protocol; and transmitting the set of telematics capabilities in a capabilities data structure corresponding to a request data structure by which the first endpoint accepts requests to perform at least one action that the first endpoint is capable of performing.
Complexes having the general formula wherein M represents ruthenium or osmium X represents F, Cl, Br, I, -OH, -CF 3, pyridine, -OC 6 H 5, -CF 3 COO -, -CH 3 SO 3 -, or -BF 4 -, L 1 represents a N-heterocyclic carbene ligand, L 2 represents a phosphine ligand, R 1 represents hydrogen, R 2 represents straight chain or branched C 1 -C 14 -alkyl, preferably C 1 -C 8 -alkyl, more preferably methyl, ethyl, n-propyl, iso-propyl, n-butyl, iso-butyl, or tert.-butyl; or C 3 -C 10 -cycloalkyl, preferably C 5 -C 8 -cycloalkyl, more preferably cyclopentyl, cyclohexyl or cycloheptyl; or C 6 -C 14 -aryl, preferably C 6 -C 10 -aryl, more preferably phenyl. M represents ruthenium or osmium X represents F, Cl, Br, I, -OH, -CF 3, pyridine, -OC 6 H 5, -CF 3 COO -, -CH 3 SO 3 -, or -BF 4 -, L 1 represents a N-heterocyclic carbene ligand, L 2 represents a phosphine ligand, R 1 represents hydrogen, R 2 represents straight chain or branched C 1 -C 14 -alkyl, preferably C 1 -C 8 -alkyl, more preferably methyl, ethyl, n-propyl, iso-propyl, n-butyl, iso-butyl, or tert.-butyl; or C 3 -C 10 -cycloalkyl, preferably C 5 -C 8 -cycloalkyl, more preferably cyclopentyl, cyclohexyl or cycloheptyl; or C 6 -C 14 -aryl, preferably C 6 -C 10 -aryl, more preferably phenyl.
A child care equipment system ( 100, 500, 600, 700), comprising: a piece of child care equipment comprising an arched support having a frame ( 501, 601, 701) and a surface sheet coupled to the frame; an opening ( 305, 358) in the piece of child care equipment ( 100, 500, 600, 700); and an item ( 103, 302, 401) to be attached in use to the piece of child care equipment, the item including a main body ( 201, 401) larger than the opening ( 305, 358), and the item also including a compressible member ( 202, 306, 402) connected to the main body, wherein the compressible member ( 202, 306, 402) is larger than the opening ( 305, 358) when the compressible member is in an uncompressed state, and the compressible member is configured to be compressible to a size smaller than the opening ( 305, 358) so that the compressible member ( 202, 306, 402) can be passed through the opening to place the compressible member ( 202, 306, 402) and the main body ( 201, 401) on opposite sides of the opening ( 305, 358), characterized in that the arched support frame further comprises a semi-rigid rod forming a track ( 107a, 107b) and an essentially rigid clip slidingly engaged with the semi-rigid rod ( 107a, 107b), the clip having a through hole ( 305, 358) forming the opening in the piece of child care equipment. a piece of child care equipment comprising an arched support having a frame ( 501, 601, 701) and a surface sheet coupled to the frame; an opening ( 305, 358) in the piece of child care equipment ( 100, 500, 600, 700); and an item ( 103, 302, 401) to be attached in use to the piece of child care equipment, the item including a main body ( 201, 401) larger than the opening ( 305, 358), and the item also including a compressible member ( 202, 306, 402) connected to the main body, wherein the compressible member ( 202, 306, 402) is larger than the opening ( 305, 358) when the compressible member is in an uncompressed state, and the compressible member is configured to be compressible to a size smaller than the opening ( 305, 358) so that the compressible member ( 202, 306, 402) can be passed through the opening to place the compressible member ( 202, 306, 402) and the main body ( 201, 401) on opposite sides of the opening ( 305, 358), characterized in that the arched support frame further comprises a semi-rigid rod forming a track ( 107a, 107b) and an essentially rigid clip slidingly engaged with the semi-rigid rod ( 107a, 107b), the clip having a through hole ( 305, 358) forming the opening in the piece of child care equipment.
A malfunction determining device of a component mounting machine, the component mounting machine comprising a head including a pickup member for picking up a component and a moving device configured to move the head horizontally, the malfunction determining device being characterized by: an inspection section configured to execute multiple inspections including a first inspection for performing a mounting operation under control of the head and the moving device to inspect whether the mounting operation is good or bad and a second inspection for performing a calibration measurement of the head to inspect whether the calibration measurement is good or bad, and a determining section configured to determine presence or absence of a malfunction and a malfunction location in the head and the moving device based on a combination of results of the multiple inspections, wherein the calibration measurement includes ZS-axis inclination measurement for measuring an inclination of a ZS axis, the ZS-axis being an axis in up-down direction along which the head is lifted and lowered. an inspection section configured to execute multiple inspections including a first inspection for performing a mounting operation under control of the head and the moving device to inspect whether the mounting operation is good or bad and a second inspection for performing a calibration measurement of the head to inspect whether the calibration measurement is good or bad, and a determining section configured to determine presence or absence of a malfunction and a malfunction location in the head and the moving device based on a combination of results of the multiple inspections, wherein the calibration measurement includes ZS-axis inclination measurement for measuring an inclination of a ZS axis, the ZS-axis being an axis in up-down direction along which the head is lifted and lowered.