mhurhangee/ep-ind-claims huggingface dataset:
A vehicle control device comprising: an imager configured to image a driver; and circuitry configured to: detect a gesture action indicating that the driver is awake based on an image captured by the imager; and switch a driving mode in response to the detected gesture action, wherein the gesture action is a pointing and checking action that is performed in a vehicle traveling direction while viewing the vehicle traveling direction, wherein the pointing and checking action is an action in which a finger tip of the driver is located in a vicinity of a vertical plane that is virtually set to include a line of sight of the driver and is also located below the line of sight of the driver. an imager configured to image a driver; and circuitry configured to: detect a gesture action indicating that the driver is awake based on an image captured by the imager; and switch a driving mode in response to the detected gesture action, wherein the gesture action is a pointing and checking action that is performed in a vehicle traveling direction while viewing the vehicle traveling direction, wherein the pointing and checking action is an action in which a finger tip of the driver is located in a vicinity of a vertical plane that is virtually set to include a line of sight of the driver and is also located below the line of sight of the driver. detect a gesture action indicating that the driver is awake based on an image captured by the imager; and switch a driving mode in response to the detected gesture action, wherein the gesture action is a pointing and checking action that is performed in a vehicle traveling direction while viewing the vehicle traveling direction, wherein the pointing and checking action is an action in which a finger tip of the driver is located in a vicinity of a vertical plane that is virtually set to include a line of sight of the driver and is also located below the line of sight of the driver.
A kitchen canopy comprising a hood, an exhaust air flow duct (15, 22) that is connected to said hood (12, 21) and at least one degreaser unit (14, 23) for removing grease from an air flow inside the kitchen canopy (10, 20) that is fixed inside the hood (12, 21) on a side of an opening (17, 27) of said exhaust air flow duct (15, 22) and on the side of a path of the air flow arranged to flow inside the kitchen canopy (10, 20) so that the air flow is not obstructed, and wherein said degreaser unit (14, 23) comprises at least one ultraviolet source for generating ultraviolet radiation, and wherein the solid angle of said radiation by which the air flow is radiated is at least 3π steradians.
An article comprising: a substrate having first and second, generally opposed, major surfaces; a first layer having first and second generally opposed major surfaces, wherein the first layer comprises polymeric material with nanoparticles protruding from the second major surface thereof and away from the first major surface of the substrate, wherein the nanoparticles are in a size range from 150 nanometers to 300 nanometers, and wherein the first layer, without taking into account the protruding nanoparticles, has an average thickness in a range from 50 nanometers to 150 nanometers; and a second layer having first and second major surfaces, wherein the first major surface of the second layer is on the second major surface of the first layer, and wherein the second major surface of the second layer is a first nanostructured surface. a substrate having first and second, generally opposed, major surfaces; a first layer having first and second generally opposed major surfaces, wherein the first layer comprises polymeric material with nanoparticles protruding from the second major surface thereof and away from the first major surface of the substrate, wherein the nanoparticles are in a size range from 150 nanometers to 300 nanometers, and wherein the first layer, without taking into account the protruding nanoparticles, has an average thickness in a range from 50 nanometers to 150 nanometers; and a second layer having first and second major surfaces, wherein the first major surface of the second layer is on the second major surface of the first layer, and wherein the second major surface of the second layer is a first nanostructured surface.
A communications apparatus, wherein the communications apparatus is applied to a transceiver, and the communications apparatus comprises a digital front end unit and an analog front end drive unit; a first port of the digital front end unit is configured to receive a first to-be-sent signal, and a second port of the digital front end unit is connected to a first port of the analog front end drive unit; the digital front end unit receives the first to-be-sent signal, performs modulation processing on the first to-be-sent signal to obtain a second to-be-sent signal, and sends the second to-be-sent signal to the analog front end drive unit; wherein a plurality of second ports of the analog front end drive unit are connected to a plurality of twisted pairs in a one-to-one manner; the analog front end drive unit performs conversion and duplication processing on the second to-be-sent signal to obtain a plurality of third to-be-sent signals, and sends the plurality of third to-be-sent signals to the plurality of twisted pairs through the plurality of second ports of the analog front end drive unit in a one-to-one manner; and the plurality of third to-be-sent signals are respectively sent through the plurality of twisted pairs. a first port of the digital front end unit is configured to receive a first to-be-sent signal, and a second port of the digital front end unit is connected to a first port of the analog front end drive unit; the digital front end unit receives the first to-be-sent signal, performs modulation processing on the first to-be-sent signal to obtain a second to-be-sent signal, and sends the second to-be-sent signal to the analog front end drive unit; wherein a plurality of second ports of the analog front end drive unit are connected to a plurality of twisted pairs in a one-to-one manner; the analog front end drive unit performs conversion and duplication processing on the second to-be-sent signal to obtain a plurality of third to-be-sent signals, and sends the plurality of third to-be-sent signals to the plurality of twisted pairs through the plurality of second ports of the analog front end drive unit in a one-to-one manner; and the plurality of third to-be-sent signals are respectively sent through the plurality of twisted pairs.
A method for separating an o/w emulsion into oil and water, the o/w emulsion including a component originating from coal tar and/or crude oil, wherein a phenolic resin and a coagulant are added to the o/w emulsion and wherein the phenolic resin is produced by condensation or modification of a phenol with an aldehyde which has not been cured by crosslinking and has a weight-average molecular weight of 3000 or more, wherein the coagulant is an organic coagulant or an inorganic coagulant, wherein the ratio between the amount of phenolic resin and the amount of organic coagulant is 100:5 to 100 by weight in terms of the amount of active components, and wherein the ratio between the amount of phenolic resin and the amount of inorganic coagulant is 100:100 to 5000 by weight in terms of the amount of active components.
A machine for the handling of object-holding baskets in a surface coating treatment plant, comprising: - a carrying carriage, for horizontal movement, - a container-holding group, - first movement means configured for the movement of said carrying carriage with respect to a support structure, - second movement means configured to raise and lower said container-holding group with respect to said carrying carriage, - first rotation means configured for the rotation of said container-holding group with respect to said carrying carriage around a first rotation axis, characterized in that said container-holding group comprises a central body, connected to said carrying carriage, said central body being configured to carry at least two gripping groups (18, 19) for blocking corresponding object-holding containers (14, 15), and in that said machine comprises: - at least two object-holding containers (14, 15), where said object-holding containers (14, 15) are constituted by baskets, - second rotation means configured for the rotation of each gripping group (18, 19) around a corresponding second own rotation axis (X2, X3), - third rotation means configured to adjust the inclination of said second rotation axes (X2, X3) of said gripping groups (18, 19) with respect to a corresponding third rotation axis. - a carrying carriage, for horizontal movement, - a container-holding group, - first movement means configured for the movement of said carrying carriage with respect to a support structure, - second movement means configured to raise and lower said container-holding group with respect to said carrying carriage, - first rotation means configured for the rotation of said container-holding group with respect to said carrying carriage around a first rotation axis, - at least two object-holding containers (14, 15), where said object-holding containers (14, 15) are constituted by baskets, - second rotation means configured for the rotation of each gripping group (18, 19) around a corresponding second own rotation axis (X2, X3), - third rotation means configured to adjust the inclination of said second rotation axes (X2, X3) of said gripping groups (18, 19) with respect to a corresponding third rotation axis.
Compressed air supply device for utility vehicles, wherein the compressed air supply device is or can be connected electrically to an electronic i control device, and wherein the compressed air supply device comprises: at least one control valve (16, 18) which can be controlled by the electronic control device, such that the control valve (16, 18) has at least one inlet connection, a venting connection and an outlet connection; a control line which is connected to the outlet connection of the control valve (16, 18), wherein the control line is or can be connected to a control inlet of a compressor and/or, for a regeneration operation, to an air filter; a supply line, by way of which compressed air is or can be passed to the inlet connection of the control valve (16, 18); a venting line, which is connected to the venting connection of the control valve; and a back-up valve (68, 80), such that an inlet of the back-up valve (68, 80) is connected to the supply line and an outlet of the back-up valve (68, 80) is or can be connected to the venting line, wherein the back-up valve (68, 80) is designed such that it opens pneumatically when the pressure in the supply line corresponds to or exceeds a predetermined opening pressure, characterised in that a venting valve with an inlet, an outlet and an air discharge is provided, such that the inlet of the venting valve is or can be connected to the outlet of the back-up valve (68, 80) and the outlet of the venting valve is or can be connected to the venting connection of the control valve (16, 18). at least one control valve (16, 18) which can be controlled by the electronic control device, such that the control valve (16, 18) has at least one inlet connection, a venting connection and an outlet connection; a control line which is connected to the outlet connection of the control valve (16, 18), wherein the control line is or can be connected to a control inlet of a compressor and/or, for a regeneration operation, to an air filter; a supply line, by way of which compressed air is or can be passed to the inlet connection of the control valve (16, 18); a venting line, which is connected to the venting connection of the control valve; and a back-up valve (68, 80), such that an inlet of the back-up valve (68, 80) is connected to the supply line and an outlet of the back-up valve (68, 80) is or can be connected to the venting line, wherein the back-up valve (68, 80) is designed such that it opens pneumatically when the pressure in the supply line corresponds to or exceeds a predetermined opening pressure, characterised in that a venting valve with an inlet, an outlet and an air discharge is provided, such that the inlet of the venting valve is or can be connected to the outlet of the back-up valve (68, 80) and the outlet of the venting valve is or can be connected to the venting connection of the control valve (16, 18).
A computer based method for modelling a body from a scanning of a determined space, the method comprising: - dividing the determined space into elementary spaces, each elementary space being assigned - a signed distance parameter indicative of the distance of said elementary space to said body, - a weight parameter indicative of the importance of the distance parameter; said scanning of said body providing scanned points; wherein, in order to increase details of the model of said body, each one of selected elementary spaces of said determined space is modified by subdividing said selected elementary space into higher level elementary spaces defined by the same parameters as said selected elementary spaces; wherein, in order to decrease details of the model of said body, said elementary spaces of said determined space are modified by replacing selected elementary spaces with lower level elementary spaces defined by the signed distance and weight parameters of said selected elementary spaces, the increasing of the detail of the model and the decreasing of the detail of the model being iteratively repeated as new scanned points are obtained, wherein a digital volume or a surface representation is obtained from the model during the scanning. - dividing the determined space into elementary spaces, each elementary space being assigned - a signed distance parameter indicative of the distance of said elementary space to said body, - a weight parameter indicative of the importance of the distance parameter;
A method for multiplexing and demultiplexing sensor element signals in a two dimensional sensor array without using switching elements, for massive neural recording in an implantable device, the method comprising: for each column of sensor elements in the array, feeding a continuous voltage harmonic carrier waveform to all the sensor elements of the respective column of the sensor array, where a different continuous voltage harmonic carrier waveform is fed to each column; for each sensor element, feeding a signal to the respective sensor element, where a different signal is fed to each sensor element; for each row of sensor elements in the array, reading a summed output current from all sensor elements in the same row, where the summed output current comprises continuous current harmonic waveforms modulated by the signals fed to the sensor elements of the same row; and for each row of sensor elements in the array, recovering by lock-in demodulation the signals fed to each sensor element in the same row from the summed output current from all sensor elements in the same row. for each column of sensor elements in the array, feeding a continuous voltage harmonic carrier waveform to all the sensor elements of the respective column of the sensor array, where a different continuous voltage harmonic carrier waveform is fed to each column; for each sensor element, feeding a signal to the respective sensor element, where a different signal is fed to each sensor element; for each row of sensor elements in the array, reading a summed output current from all sensor elements in the same row, where the summed output current comprises continuous current harmonic waveforms modulated by the signals fed to the sensor elements of the same row; and for each row of sensor elements in the array, recovering by lock-in demodulation the signals fed to each sensor element in the same row from the summed output current from all sensor elements in the same row.
A method for a machine-type communication user equipment, MTC UE, the method comprising: determining, based on a communication from an evolved Node B, eNB, a control channel configuration that indicates two enhanced physical downlink control channel, EPDCCH,-physical resource block, PRB, sets to be monitored in a UE-specific search space, SS, wherein the two EPDCCH-PRB sets have a single contiguous block of a total of six PRB pairs, and wherein the control channel configuration indicates that each of the two EPDCCH-PRB sets are to be monitored for EPDCCH transmissions in one or more subframes; and monitoring the two EPDCCH-PRB sets in the one or more subframes for an EPDCCH transmission to attempt to decode one or more EPDCCH candidates used to transmit EPDCCH transmissions to the MTC UE in the one or more subframes when the MTC UE has a maximum bandwidth support of 1.4 MHz, characterized in that a same search space equation is used to determine one or more enhanced control channel elements, ECCEs, with the EPDCCH candidates for both a non-UE-specific SS and the UE-specific SS. determining, based on a communication from an evolved Node B, eNB, a control channel configuration that indicates two enhanced physical downlink control channel, EPDCCH,-physical resource block, PRB, sets to be monitored in a UE-specific search space, SS, wherein the two EPDCCH-PRB sets have a single contiguous block of a total of six PRB pairs, and wherein the control channel configuration indicates that each of the two EPDCCH-PRB sets are to be monitored for EPDCCH transmissions in one or more subframes; and monitoring the two EPDCCH-PRB sets in the one or more subframes for an EPDCCH transmission to attempt to decode one or more EPDCCH candidates used to transmit EPDCCH transmissions to the MTC UE in the one or more subframes when the MTC UE has a maximum bandwidth support of 1.4 MHz, characterized in that a same search space equation is used to determine one or more enhanced control channel elements, ECCEs, with the EPDCCH candidates for both a non-UE-specific SS and the UE-specific SS.
A heat pump having an outdoor unit and an indoor unit, the outdoor unit including a compressor, and an oil separator provided in a discharge path of the compressor, characterised in that the outdoor unit further comprises: a refrigerant filling pipe connected to an intake path of the compressor and connectable to an outdoor unit of an another heat pump for filling the intake path of the compressor with a refrigerant supplied from the outdoor unit of the another heat pump, an oil supply pipe extending from a predetermined position of the oil separator and connecting to the refrigerant filling pipe, an on-off valve provided on the oil supply pipe, an expansion valve provided in a portion of the refrigerant filling pipe between a connecting part connected to the intake path and a connecting part connected to the oil supply pipe, and a refrigerant filling port provided in a portion of the refrigerant filling pipe between the connecting part connected to the oil supply pipe and the expansion valve. a compressor, and an oil separator provided in a discharge path of the compressor, characterised in that the outdoor unit further comprises: a refrigerant filling pipe connected to an intake path of the compressor and connectable to an outdoor unit of an another heat pump for filling the intake path of the compressor with a refrigerant supplied from the outdoor unit of the another heat pump, an oil supply pipe extending from a predetermined position of the oil separator and connecting to the refrigerant filling pipe, an on-off valve provided on the oil supply pipe, an expansion valve provided in a portion of the refrigerant filling pipe between a connecting part connected to the intake path and a connecting part connected to the oil supply pipe, and a refrigerant filling port provided in a portion of the refrigerant filling pipe between the connecting part connected to the oil supply pipe and the expansion valve. a refrigerant filling pipe connected to an intake path of the compressor and connectable to an outdoor unit of an another heat pump for filling the intake path of the compressor with a refrigerant supplied from the outdoor unit of the another heat pump, an oil supply pipe extending from a predetermined position of the oil separator and connecting to the refrigerant filling pipe, an on-off valve provided on the oil supply pipe, an expansion valve provided in a portion of the refrigerant filling pipe between a connecting part connected to the intake path and a connecting part connected to the oil supply pipe, and a refrigerant filling port provided in a portion of the refrigerant filling pipe between the connecting part connected to the oil supply pipe and the expansion valve.
Household electrical apparatus, comprising: - a man-machine interface, - a first contact-less detection sensor of a presence or of a proximity with a user, - a second contact-less detection sensor of a presence or of a proximity with a user, characterised in that: - the first contact-less detection sensor is arranged to detect a presence or a proximity with the user in a first spatial zone at least partially arranged facing the man-machine interface, - the second contact-less detection sensor is arranged to detect a presence or a proximity with the user in a second spatial zone at least partially arranged facing the man-machine interface and comprising at least one separate portion of the first spatial zone. - a man-machine interface, - a first contact-less detection sensor of a presence or of a proximity with a user, - a second contact-less detection sensor of a presence or of a proximity with a user, - the first contact-less detection sensor is arranged to detect a presence or a proximity with the user in a first spatial zone at least partially arranged facing the man-machine interface, - the second contact-less detection sensor is arranged to detect a presence or a proximity with the user in a second spatial zone at least partially arranged facing the man-machine interface and comprising at least one separate portion of the first spatial zone.
Method for adjusting a vehicle component, comprising the following steps: selecting a function of a control by a first operator action, adjusting the vehicle component by a second operator action performed manually at the control, wherein the first operator action is effected by means of a voice input, a gesture and/or a glance, characterised in that a position in the vehicle from which the first operator action comes is determined and a vehicle component assigned to said position is adjusted with the second operator action. selecting a function of a control by a first operator action, adjusting the vehicle component by a second operator action performed manually at the control, wherein the first operator action is effected by means of a voice input, a gesture and/or a glance, characterised in that a position in the vehicle from which the first operator action comes is determined and a vehicle component assigned to said position is adjusted with the second operator action.