mhurhangee/ep-ind-claims huggingface dataset:
A contactless electric power supply device configured to supply electric power to a moving body (1, 71) in a movement direction by supplying electric power from a supply coil (8, 15) to the moving body (1, 71) provided with a receiving coil (5, 6) in a contactless manner, the contactless electric power supply device comprises: at least two power supply modules configured to be connected to each other and each provided with one supply coil (8, 15), a semiconductor switch (9, 16) and a detecting section (55, 57); the moving body (1, 71) provided with two receiving coils (5, 6); an AC module (21, 73) that supplies alternating current; and a detecting section (55, 57); wherein when the detecting section (55, 57) detects that at least one of the receiving coils (5, 6) is positioned to be able to receive power from at least one of the supply coils (8, 15), the contactless electric power supply device performs communication from the power supply module to the AC module (21, 73) and performs communication from the AC module (21, 73) to the power supply module, and causes the semiconductor switch (9, 16) provided on the power supply module to conduct electricity; wherein the contactless electric power supply device is characterized in that: LR ≤ DT ≤ DR, and (2 x LR + DR) ≤ LT, wherein LR is the length of the receiving coils (5, 6) in the movement direction, DT is the separation distance between supply coils (8, 15) in the movement direction, DR is the separation distance between receiving coils (5, 6) in the movement direction and LT is the length of supply coils (8, 15) in the movement direction. at least two power supply modules configured to be connected to each other and each provided with one supply coil (8, 15), a semiconductor switch (9, 16) and a detecting section (55, 57); the moving body (1, 71) provided with two receiving coils (5, 6); an AC module (21, 73) that supplies alternating current; and a detecting section (55, 57); wherein when the detecting section (55, 57) detects that at least one of the receiving coils (5, 6) is positioned to be able to receive power from at least one of the supply coils (8, 15), the contactless electric power supply device performs communication from the power supply module to the AC module (21, 73) and performs communication from the AC module (21, 73) to the power supply module, and causes the semiconductor switch (9, 16) provided on the power supply module to conduct electricity; wherein the contactless electric power supply device is characterized in that: LR ≤ DT ≤ DR, and (2 x LR + DR) ≤ LT, wherein LR is the length of the receiving coils (5, 6) in the movement direction, DT is the separation distance between supply coils (8, 15) in the movement direction, DR is the separation distance between receiving coils (5, 6) in the movement direction and LT is the length of supply coils (8, 15) in the movement direction.
Vehicle part for the exterior of a motor vehicle, having at least one sensor electrode of a capacitive proximity sensor, wherein the at least one sensor electrode is arranged on a visible side of the vehicle part, wherein the at least one sensor electrode is accommodated in a sensor holder, wherein the sensor holder is supported on the visible surface of the vehicle part, and wherein the vehicle part forms an underride protection manufactured from metal.
A protocol frame for communication between participants of a bus-based communication system in a vehicle according to a protocol, the protocol frame comprising: a header, indicating a start of the protocol frame to be communicated between a sender and one or more receivers, the sender and the one or more receivers each being participants of the bus-based communication system, and an indication, the indication configured to indicate a level of authenticity or a level of data security of the protocol frame on a data link layer level, wherein the indication comprises at least a generic indication to indicate that authentication or authentication and data security, both on the data link layer level, are provided for the protocol frame, wherein the indication is included in the header. a header, indicating a start of the protocol frame to be communicated between a sender and one or more receivers, the sender and the one or more receivers each being participants of the bus-based communication system, and an indication, the indication configured to indicate a level of authenticity or a level of data security of the protocol frame on a data link layer level, wherein the indication comprises at least a generic indication to indicate that authentication or authentication and data security, both on the data link layer level, are provided for the protocol frame, wherein the indication is included in the header.
An integrated fluidjet system for sequentially stripping, prepping and coating a part to be refurbished, the integrated system further comprising: a cell defining an electrically shielded enclosure and having a door; a jig for holding the part inside the cell; a robotic arm movable within the cell; a nozzle (20, 31, 41) mounted on the robotic arm, wherein the nozzle (20, 31, 41) includes a particle inlet for receiving coating particles (131, 141, 151) and wherein the nozzle (20, 31, 41) includes an ultrasonic transducer (62, 210) driven by an ultrasonic generator; a pressurized fluid source (12, 13, 36) for supplying a pressurized fluid to the ultrasonic nozzle (20, 31, 41) to enable the nozzle (20, 31, 41) to generate a pulsed fluidjet (21, 54, 98); an electric field generator (69, 71) for generating an electric field for charging the coating particles (131, 141, 151) carried by the pulsed fluidjet (21, 54, 98); and a human-machine interface external to the cell for receiving user commands and for controlling the robotic arm and fluidjet exiting from the nozzle (20, 31, 41) in response to the user commands. a cell defining an electrically shielded enclosure and having a door; a jig for holding the part inside the cell; a robotic arm movable within the cell; a nozzle (20, 31, 41) mounted on the robotic arm, wherein the nozzle (20, 31, 41) includes a particle inlet for receiving coating particles (131, 141, 151) and wherein the nozzle (20, 31, 41) includes an ultrasonic transducer (62, 210) driven by an ultrasonic generator; a pressurized fluid source (12, 13, 36) for supplying a pressurized fluid to the ultrasonic nozzle (20, 31, 41) to enable the nozzle (20, 31, 41) to generate a pulsed fluidjet (21, 54, 98); an electric field generator (69, 71) for generating an electric field for charging the coating particles (131, 141, 151) carried by the pulsed fluidjet (21, 54, 98); and a human-machine interface external to the cell for receiving user commands and for controlling the robotic arm and fluidjet exiting from the nozzle (20, 31, 41) in response to the user commands.
Apparatus for swapping at least one disk-like member, e.g. a wafer, said apparatus comprising at least two tongs-like arms (207a, 207b) for accepting and holding the disk-like member and a driving-mechanism adapted to drive said arms (207a, 207b), wherein said mechanism is adapted to provide a first and a second movement of said arms (207a, 207b), characterized in that the driving mechanism comprises an elevation contrivance and a manipulator drive, wherein, by using the elevation contrivance, the first movement comprises a vertically orientated movement of said arms (207a, 207b) from an up to a down position or vice versa, and wherein the second movement, which is done by said manipulator drive, comprises a horizontally oriented tongs-like movement of said arms (207a, 207b), wherein the manipulator drive can be elevated by said elevation contrivance in a direction perpendicular to a plan defined by the movement of said arms (207a, 207b), and wherein the apparatus comprises a housing, in which at least a part of the driving mechanism for the tongs-like arms (207a, 207b) is accommodated, wherein the housing comprises openings through which the arms (207a, 207b) extend for to grip the disk-like member.
Device for adjusting a display assembly for a vehicle roof, comprising: - a first lever mechanism which is couplable to the display assembly and which is designed for pivoting the display assembly upwards and inwards and for moving same, and - a second lever mechanism which is couplable to the display assembly and which is designed for setting a predetermined orientation angle of the display assembly, wherein the first lever mechanism comprises a first guide slider, which is movable electrically by means of a first drive unit, characterized in that the first lever mechanism further comprises a first drive cable and a display lever assembly (114, 115, 116) that are movable electrically by means of the first drive unit, wherein the second lever mechanism has a second drive cable and a second guide slider that are movable electrically by means of a second drive unit, wherein the first and the second guide slider (112, 122) are movable at least in sections with respect to a common reference point at different movement speeds such that, irrespective of a position of the display assembly, set by means of the first lever mechanism, with respect to a longitudinal axis of the device, a distance between the first and the second guide slider (112, 122) and, as a result, an orientation angle of the display assembly can be set in a predetermined manner by means of the second lever mechanism. - a first lever mechanism which is couplable to the display assembly and which is designed for pivoting the display assembly upwards and inwards and for moving same, and - a second lever mechanism which is couplable to the display assembly and which is designed for setting a predetermined orientation angle of the display assembly, wherein the first lever mechanism comprises a first guide slider, which is movable electrically by means of a first drive unit, characterized in that the first lever mechanism further comprises a first drive cable and a display lever assembly (114, 115, 116) that are movable electrically by means of the first drive unit, wherein the second lever mechanism has a second drive cable and a second guide slider that are movable electrically by means of a second drive unit, wherein the first and the second guide slider (112, 122) are movable at least in sections with respect to a common reference point at different movement speeds such that, irrespective of a position of the display assembly, set by means of the first lever mechanism, with respect to a longitudinal axis of the device, a distance between the first and the second guide slider (112, 122) and, as a result, an orientation angle of the display assembly can be set in a predetermined manner by means of the second lever mechanism.
Mobile transponder for timing and position tracking, including: a reception unit for receiving a message when passing a measuring point; a processor for evaluating the message to activate a tracking mode if the message includes activation information, and to determine a passing time at which the measuring point is passed if the message includes timing information; and a transmission unit for periodically transmitting a tracking packet including identity information for reception by a tracking station having a known position within communication range if the tracking mode is activated, and for forwarding the passing time to the measuring point. a reception unit for receiving a message when passing a measuring point; a processor for evaluating the message to activate a tracking mode if the message includes activation information, and to determine a passing time at which the measuring point is passed if the message includes timing information; and a transmission unit for periodically transmitting a tracking packet including identity information for reception by a tracking station having a known position within communication range if the tracking mode is activated, and for forwarding the passing time to the measuring point.
Anti-dazzle device with a filament for a two-filament lamp, the dimension between a point at which a base-side outgoing filament end emerges from the filament and the point on the outgoing filament end which is arranged opposite the base-side outgoing filament end and is welded to the anti-dazzle device being between approximately 5.2 mm and less than 9.7 mm, and the dimension between the point at which the base-side outgoing filament end emerges from the filament and the end face of the anti-dazzle device, which is adjacent to the outgoing filament end, at which the outgoing filament end is welded to the anti-dazzle device, being between approximately 5.9 mm and less than 11.9 mm.
A front push tap having a flow configuration and a sealed configuration, the front push tap comprising: a tap body, the tap body having an end for attachment to a container, the end having a fluid flow passage therethrough which is fluidly connected to a dispensing port, the dispensing port having an inner wall; a spring button member, which is sealingly connected to the tap body; a valve seal member; a flexible stem having two ends, one end of the flexible stem connected to the valve seal member and the other end of the flexible stem connected to the spring button member; wherein, when the front push tap is in the flow configuration, the spring button member is depressed, causing the valve seal member to move downwardly to unseal the dispensing port to allow fluid to be dispensed, and when the front push tap is in the sealed configuration the spring button member is undepressed and the valve seal member is sealingly engaged to the inner wall of the dispensing port to prevent the flow of fluid from the dispensing port, characterised in that the flexible stem extends in a curved path so the two ends of the flexible stem are angled relative to each other. a tap body, the tap body having an end for attachment to a container, the end having a fluid flow passage therethrough which is fluidly connected to a dispensing port, the dispensing port having an inner wall; a spring button member, which is sealingly connected to the tap body; a valve seal member; a flexible stem having two ends, one end of the flexible stem connected to the valve seal member and the other end of the flexible stem connected to the spring button member; wherein, when the front push tap is in the flow configuration, the spring button member is depressed, causing the valve seal member to move downwardly to unseal the dispensing port to allow fluid to be dispensed, and when the front push tap is in the sealed configuration the spring button member is undepressed and the valve seal member is sealingly engaged to the inner wall of the dispensing port to prevent the flow of fluid from the dispensing port, characterised in that the flexible stem extends in a curved path so the two ends of the flexible stem are angled relative to each other.
A body fluid sampling device comprising: a cartridge containing a plurality of penetrating members; and a plurality of analyte detecting members on said cartridge for performing chemical tests, wherein the cartridge is divided into different test chemistry regions, and wherein a first portion of the analyte detecting members operable to measure a first type of analyte are in a first test chemistry region and a second portion of the analyte detecting members operable to measure a second, different type of analyte are in a second test chemistry region; and further comprising a penetrating member driver for moving an active one of said penetrating members from a first position outward to penetrate tissue, wherein the device is adapted so the cartridge may be rotated to bring a desired test chemistry region into position for use. a cartridge containing a plurality of penetrating members; and a plurality of analyte detecting members on said cartridge for performing chemical tests, wherein the cartridge is divided into different test chemistry regions, and wherein a first portion of the analyte detecting members operable to measure a first type of analyte are in a first test chemistry region and a second portion of the analyte detecting members operable to measure a second, different type of analyte are in a second test chemistry region; and further comprising a penetrating member driver for moving an active one of said penetrating members from a first position outward to penetrate tissue, wherein the device is adapted so the cartridge may be rotated to bring a desired test chemistry region into position for use.
A drug delivery device (300, 500), comprising: a tip (314, 508) configured to be positioned in a nose of a patient, the tip (314, 508) having an opening (316, 506) therein; a drug holder (336, 512) with an air chamber (338, 514), a drug chamber (342, 518), a first seal member (346, 522) that isolates the air chamber from the opening, and a second seal member (348, 524) that isolates the air chamber from the drug chamber, the air chamber containing air therein, and the drug chamber containing a drug therein; a turbine (372, 502) located distal to the opening and proximal to the air chamber; wherein the breaking of the first seal member is configured to cause the air to flow proximally and thereby cause the turbine to spin; and the breaking of the second seal member is configured to cause the drug to be drawn proximally and pass through the turbine and then out of the opening. a tip (314, 508) configured to be positioned in a nose of a patient, the tip (314, 508) having an opening (316, 506) therein; a drug holder (336, 512) with an air chamber (338, 514), a drug chamber (342, 518), a first seal member (346, 522) that isolates the air chamber from the opening, and a second seal member (348, 524) that isolates the air chamber from the drug chamber, the air chamber containing air therein, and the drug chamber containing a drug therein; a turbine (372, 502) located distal to the opening and proximal to the air chamber; wherein the breaking of the first seal member is configured to cause the air to flow proximally and thereby cause the turbine to spin; and the breaking of the second seal member is configured to cause the drug to be drawn proximally and pass through the turbine and then out of the opening.
An additive supply device for an internal combustion engine, the device comprising: a supply mechanism for supplying an additive into an exhaust passage of the internal combustion engine; a heater (310, 320, 330) for heating the additive within the supply mechanism; a detection section (400, 500, 600) for detecting a temperature of the additive within the supply mechanism; and a control section configured to control an amount of current supplied to the heater (310, 320, 330), characterized in that: as a response to the temperature of the additive detected by the detection section (400, 500, 600) becoming constant during supply of current to the heater (310, 320, 330), the control section is configured to carry out a current reduction process for reducing the amount of current supply compared to that before the temperature of the additive becomes constant. a supply mechanism for supplying an additive into an exhaust passage of the internal combustion engine; a heater (310, 320, 330) for heating the additive within the supply mechanism; a detection section (400, 500, 600) for detecting a temperature of the additive within the supply mechanism; and a control section configured to control an amount of current supplied to the heater (310, 320, 330), characterized in that: as a response to the temperature of the additive detected by the detection section (400, 500, 600) becoming constant during supply of current to the heater (310, 320, 330), the control section is configured to carry out a current reduction process for reducing the amount of current supply compared to that before the temperature of the additive becomes constant. as a response to the temperature of the additive detected by the detection section (400, 500, 600) becoming constant during supply of current to the heater (310, 320, 330), the control section is configured to carry out a current reduction process for reducing the amount of current supply compared to that before the temperature of the additive becomes constant.
A method of forming a device-to-device, D2D, wireless communication link between first and second terminals in a network wherein a base station is in wireless communication with at least the first terminal, the method characterised by comprising: the first terminal determining itself as a D2D-capable terminal which can provide a D2D link with another terminal; the first terminal broadcasting, during a random access period set by the base station, a random access preamble to advertise its D2D capability; the base station transmitting, in response to reception of the random access preamble from the first terminal, a random access response including information to assist in establishing the D2D link; and the second terminal detecting the random access preamble and establishing the D2D link with the first terminal. the first terminal determining itself as a D2D-capable terminal which can provide a D2D link with another terminal; the first terminal broadcasting, during a random access period set by the base station, a random access preamble to advertise its D2D capability; the base station transmitting, in response to reception of the random access preamble from the first terminal, a random access response including information to assist in establishing the D2D link; and the second terminal detecting the random access preamble and establishing the D2D link with the first terminal.
Arrangement of a perforated wall of a vehicle, to prevent a surface-treatment liquid from flowing over an aesthetic face of said wall, downwards under the effect of terrestrial gravity, the wall comprising: - a first roughly vertical external metal sheet that has an external face forming an aesthetic face and comprises a first hole delimited by a first peripheral edge, and - a second roughly vertical internal metal sheet that is up against the first metal sheet which has an internal face forming a running face, and comprises a second hole delimited by a second peripheral edge, characterised in that the second peripheral edge of the second hole comprises a lower portion delimiting a scallop that extends downwards, below a lower portion of the first peripheral edge of the first hole, the scallop being designed to guide the liquid downwards and so that said lower portion of the first peripheral edge opposes the flow of the surface-treatment liquid from the second internal metal sheet, as far as the aesthetic face of the first external metal sheet. - a first roughly vertical external metal sheet that has an external face forming an aesthetic face and comprises a first hole delimited by a first peripheral edge, and - a second roughly vertical internal metal sheet that is up against the first metal sheet which has an internal face forming a running face, and comprises a second hole delimited by a second peripheral edge, characterised in that the second peripheral edge of the second hole comprises a lower portion delimiting a scallop that extends downwards, below a lower portion of the first peripheral edge of the first hole, the scallop being designed to guide the liquid downwards and so that said lower portion of the first peripheral edge opposes the flow of the surface-treatment liquid from the second internal metal sheet, as far as the aesthetic face of the first external metal sheet.
A production method for dyed artificial leather comprising a first dyeing step in which artificial leather constituted mainly of a fibrous base containing ultrafine fibers with a filament fineness of 2 decitex or less and a polymeric elastomer is dyed using a dye and a subsequent second dyeing step performed at a dye concentration that is 0.1% to 30% owf of the dye concentration in the first dyeing step, wherein the dyeing temperature in the first dyeing step is 90 °C to 140 °C and the dyeing temperature in the second dyeing step is 60 °C to 90 °C, wherein the dyeing temperature in the second dyeing step is lower than the temperature in the first dyeing step, and wherein the dye used in the second dyeing step is the same as that used in the first dyeing step.