mhurhangee/ep-ind-claims huggingface dataset:
A wrapping machine for wrapping a confectionery product having at least a base surface and a lateral surface, the machine comprising - a wrapping unit for wrapping the confectionery product; - a feed unit for feeding the confectionery product to the wrapping unit, located upstream of the wrapping unit according to a feed direction of the confectionery product, to move the confectionery product from a pickup station to a delivery station, - a feeder device for feeding a sheet of wrapping material, located in the delivery station, to associate the sheet of wrapping material with the confectionery product, the machine being characterized in that the feed unit comprises - a first gripper movable about a first axis of rotation from the pickup station to an exchange station and vice versa along a first circular arc to grip the confectionery product in the pickup station, feed it to the exchange station and return to the pickup station; - a second gripper movable about a second axis of rotation from the exchange station to the delivery station and vice versa along a second circular arc to grip the confectionery product in the exchange station, feed it to the delivery station and return to the exchange station. - a wrapping unit for wrapping the confectionery product; - a feed unit for feeding the confectionery product to the wrapping unit, located upstream of the wrapping unit according to a feed direction of the confectionery product, to move the confectionery product from a pickup station to a delivery station, - a feeder device for feeding a sheet of wrapping material, located in the delivery station, to associate the sheet of wrapping material with the confectionery product, the machine being characterized in that the feed unit comprises - a first gripper movable about a first axis of rotation from the pickup station to an exchange station and vice versa along a first circular arc to grip the confectionery product in the pickup station, feed it to the exchange station and return to the pickup station; - a second gripper movable about a second axis of rotation from the exchange station to the delivery station and vice versa along a second circular arc to grip the confectionery product in the exchange station, feed it to the delivery station and return to the exchange station.
A vehicle air-conditioning apparatus comprising: an apparatus main body installed at an upper portion of a vehicle, the apparatus main body including an outdoor unit chamber and an indoor unit chamber; a compressor installed in the outdoor unit chamber; a first heat exchanger installed in the outdoor unit chamber to exchange heat between refrigerant and out-of-vehicle air; an outdoor blower installed in the outdoor unit chamber to blow the out-of-vehicle air after heat exchange in the first heat exchanger to outside the vehicle; a second heat exchanger installed in the indoor unit chamber to exchange heat between the refrigerant and in-vehicle air; an indoor blower installed in the indoor unit chamber to blow the in-vehicle air after heat exchange in the second heat exchanger into the vehicle; an electrical component box installed in the indoor unit chamber and housing an inverter that controls the compressor; and a return port to take in the in-vehicle air, provided at a lower portion of the indoor unit chamber, characterized in that the electrical component box is positioned in a space inside the indoor unit chamber so as to be close to a ceiling of the indoor unit chamber, the space defined above the return port. an apparatus main body installed at an upper portion of a vehicle, the apparatus main body including an outdoor unit chamber and an indoor unit chamber; a compressor installed in the outdoor unit chamber; a first heat exchanger installed in the outdoor unit chamber to exchange heat between refrigerant and out-of-vehicle air; an outdoor blower installed in the outdoor unit chamber to blow the out-of-vehicle air after heat exchange in the first heat exchanger to outside the vehicle; a second heat exchanger installed in the indoor unit chamber to exchange heat between the refrigerant and in-vehicle air; an indoor blower installed in the indoor unit chamber to blow the in-vehicle air after heat exchange in the second heat exchanger into the vehicle; an electrical component box installed in the indoor unit chamber and housing an inverter that controls the compressor; and a return port to take in the in-vehicle air, provided at a lower portion of the indoor unit chamber, characterized in that the electrical component box is positioned in a space inside the indoor unit chamber so as to be close to a ceiling of the indoor unit chamber, the space defined above the return port.
Method for reducing disturbances in the drivetrain of a motor vehicle having an internal combustion engine and a clutch (3, 3'), which is arranged between an engine output shaft and a transmission input shaft, in the event of a change of gear speed from a current gear speed to a new gear speed, wherein a setpoint value for the rotational speed of the internal combustion engine during a change of gear speed is set to a value which is based on a predicted drive rotational speed of a transmission at the end of the shift process, characterized in that after a driver releases the acceleration before the change of gear speed and while the drivetrain is still closed, a torque control process is carried out for increasing or reducing the rotation of the drivetrain, and if no rotation of the drivetrain is present, a rotational speed control process for synchronizing the rotational speed of the engine output shaft and the rotational speed of the transmission output shaft which is calculated back to the transmission input in accordance with the transmission ratio of the current gear speed is carried out, and a position control process for keeping the drivetrain in a free travel state is carried out.
Method in which the driving behavior of a vehicle is influenced as a function of surroundings data in order to assist an avoidance maneuver as soon as a risk of collision is detected using the data from one or more ambient sensors, in particular radar sensors and/or cameras, and the data from one or more vehicle sensors, in particular steering angle sensor and/or yaw rate sensor and/or wheel rotational speed sensors (9a-9d), wherein the vehicle has an electronically controlled brake system which permits a build-up and a modulation of the braking forces at the individual wheels of the vehicle independently of the driver, wherein when a risk of collision is detected, turning in of the driver is assisted by means of a braking intervention which is independent of the driver, characterized in that in a first phase of the avoidance maneuver a brake slip at at least one wheel of the vehicle is limited to a first slip threshold value, and in a second phase of the avoidance maneuver it is limited to a second slip threshold value, wherein the first slip threshold value is lower than the second slip threshold value, wherein the second phase starts when the driver steers counter to the avoidance direction.
A method for wireless transmission of audio/video, A/V, information, by a requester device, the method comprising: sending a request message to a responder device for changing video format of an existing video stream transmitted from the requester device to the responder device; and receiving a response message from the responder device for changing the video format, wherein the request message includes a frame number field indicating a video frame number at which a format change is to take place and the response message includes the frame number field indicating the video frame number at which the format change is to take place. sending a request message to a responder device for changing video format of an existing video stream transmitted from the requester device to the responder device; and receiving a response message from the responder device for changing the video format, wherein the request message includes a frame number field indicating a video frame number at which a format change is to take place and the response message includes the frame number field indicating the video frame number at which the format change is to take place.
A child safety seat comprising: a seat shell for receiving a child, the seat shell having a backrest, a front end opposite to the backrest, and a seat portion extending between the backrest and the front end; an extension member disposed adjacent to the front end of the seat shell, the extension member being slidably connected with the seat shell and having a forward end, the extension member being slidable relative to the seat shell to increase or reduce a distance between the forward end of the extension member and the front end of the seat shell; an extension locking mechanism operable to lock the extension member with respect to the seat shell; characterized in that the child safety seat further comprises an anti-rebound part (640, 740, 840, 940) connected with the seat shell, the child safety seat being installable on a vehicle seat in a rear facing position with the anti-rebound part (640, 740, 840, 940) extending at an angle above the extension member and adjacent to a seatback of the vehicle seat. a seat shell for receiving a child, the seat shell having a backrest, a front end opposite to the backrest, and a seat portion extending between the backrest and the front end; an extension member disposed adjacent to the front end of the seat shell, the extension member being slidably connected with the seat shell and having a forward end, the extension member being slidable relative to the seat shell to increase or reduce a distance between the forward end of the extension member and the front end of the seat shell; an extension locking mechanism operable to lock the extension member with respect to the seat shell; characterized in that the child safety seat further comprises an anti-rebound part (640, 740, 840, 940) connected with the seat shell, the child safety seat being installable on a vehicle seat in a rear facing position with the anti-rebound part (640, 740, 840, 940) extending at an angle above the extension member and adjacent to a seatback of the vehicle seat.
Paper leaf detecting device comprising a plurality of sensors (25, 43) positioned at an oblique angle relative to a transporting direction of leaves of paper (15, 37), the plurality of sensors being arranged in a single row that extends in a direction orthogonal to the transporting direction of the leaves of paper (15, 37), directions of inclination of the plurality of sensors (25, 43) being all identical, characterized in that: - adjacent sensors have end portions (28a,28b) that are adjacent to each other and that overlap each other when seen from the transporting direction of the leaves, - said overlapping end portions (28a,28b) thus detecting overlapping data portions, said device detecting data as continuous data by matching phases using overlapping data portions. - adjacent sensors have end portions (28a,28b) that are adjacent to each other and that overlap each other when seen from the transporting direction of the leaves, - said overlapping end portions (28a,28b) thus detecting overlapping data portions, said device detecting data as continuous data by matching phases using overlapping data portions.
A method performed by a first Station, STA, for any one out of: transmitting Narrow Band, NB, signals to, and receiving NB signals from, second STAs (121, 122) in a Wireless Local Area Network, WLAN, such as a Wi-Fi network, Which WLAN e.g. is based on OFDMA, the method comprising one or more out of: transmitting the NB signals to the second STAs (121, 122), and receiving the NB signals from the second STAs (121, 122),wherein the NB signal symbol boundaries are aligned in time with symbol boundaries of a Wide Band, WB, signal transmitted by any one out of the first STA or another STA, and wherein the NB signals start with a preamble comprising an NB- Short Training Field, STF followed by a NB- Long Training Field, LTF, which NB LTF and NB STF are designed to avoid interference between the NB signals and WB signals, wherein the NB STF is designed to avoid interference between the NB signals and WB signals by comprising a number NSTF of OFDM symbols that are preceded by a guard interval of a length comprising: the number NSTF of OFDM symbols times a length of a guard interval according to a WB system, and wherein the NB LTF is designed to avoid interference between the NB signals and WB signals by comprising the NB LTF comprising a number N LTF of OFDM symbols, where each one of the number N LTF of OFDM symbols is preceded by a guard interval according to a WB system. transmitting the NB signals to the second STAs (121, 122), and receiving the NB signals from the second STAs (121, 122),wherein the NB signal symbol boundaries are aligned in time with symbol boundaries of a Wide Band, WB, signal transmitted by any one out of the first STA or another STA, and wherein the NB signals start with a preamble comprising an NB- Short Training Field, STF followed by a NB- Long Training Field, LTF, which NB LTF and NB STF are designed to avoid interference between the NB signals and WB signals, wherein the NB STF is designed to avoid interference between the NB signals and WB signals by comprising a number NSTF of OFDM symbols that are preceded by a guard interval of a length comprising: the number NSTF of OFDM symbols times a length of a guard interval according to a WB system, and wherein the NB LTF is designed to avoid interference between the NB signals and WB signals by comprising the NB LTF comprising a number N LTF of OFDM symbols, where each one of the number N LTF of OFDM symbols is preceded by a guard interval according to a WB system.
Control device for controlling at least one transistor, referred to as the controlled transistor, comprising: - said controlled transistor, this comprising a control electrode (E c) and two other electrodes (E 1 and E 2), - a main control circuit connected to the control electrode (E c) of the controlled transistor and configured to control, according to a main operating mode, the state of the controlled transistor, and - an auxiliary control circuit configured to inject, according to an auxiliary operating mode, an auxiliary current opposite to the current flowing between the main control circuit and the control electrode (E c) of the controlled transistor, the control device further comprising a control circuit for controlling the auxiliary control circuit, said control circuit comprising a first switching element configured to place the auxiliary control circuit and the control electrode (E c) of the controlled transistor in electrical conduction so as to allow the auxiliary operating mode or to interrupt said electrical conduction and block the auxiliary operating mode according to commands from the main control circuit, characterized in that the control circuit comprises a second switching element corresponding to an N-channel MOSFET transistor of which: - the gate is connected to the main control circuit, - the drain is connected both to a first voltage source (V c) and to a control electrode for the first switching element, and - the source is connected to a second voltage source (V cc), the voltage of which is lower than the voltage of the first voltage source (V c). - said controlled transistor, this comprising a control electrode (E c) and two other electrodes (E 1 and E 2), - a main control circuit connected to the control electrode (E c) of the controlled transistor and configured to control, according to a main operating mode, the state of the controlled transistor, and - an auxiliary control circuit configured to inject, according to an auxiliary operating mode, an auxiliary current opposite to the current flowing between the main control circuit and the control electrode (E c) of the controlled transistor, the control device further comprising a control circuit for controlling the auxiliary control circuit, said control circuit comprising a first switching element configured to place the auxiliary control circuit and the control electrode (E c) of the controlled transistor in electrical conduction so as to allow the auxiliary operating mode or to interrupt said electrical conduction and block the auxiliary operating mode according to commands from the main control circuit, - the gate is connected to the main control circuit, - the drain is connected both to a first voltage source (V c) and to a control electrode for the first switching element, and - the source is connected to a second voltage source (V cc), the voltage of which is lower than the voltage of the first voltage source (V c).
Tube head which is designed to be combined with a skirt so as to form an internal volume of the tube, said tube head having a rotational shape and comprising a body which is made of plastics material, having a neck which has an opening at a first end, through which opening a product is removed from the internal volume of the tube, and a shoulder which is connected to a second end of the neck which is opposite the first end, said tube head further comprising an insert which is arranged so as to be in contact with said shoulder so as to form a barrier between the body and the product contained in the internal volume, said insert having a central portion and a peripheral region, said central portion forming a non-perforated disc which is designed to seal the neck, and said peripheral region being mounted so as to be in contact with a complementary surface of the body, the head being characterised in that the insert has a substantially flat shape and is located in a cylindrical volume having a diameter D and a height h, the ratio of h:D being less than 0.1, the diameter D corresponding to the diameter of the insert.
System for storing energy in the form of potential energy and for producing electrical energy, said system being deployed in a volume of water delimited by a bottom, and said system comprising: - a floating structure on the surface of the volume of water, - at least one linear and continuous solid mass, for example a line, connected to a platform of the floating structure and movable between a high position and a low position, - at least one device for driving one or more of said mass(es) between its high and low positions, - a motor/generator coupled to the device for driving said mass(es), characterized in that each of said masses comprises: - an upper end located at the surface of the volume of water, - an opposite end which is free or connected to the bottom of the volume of water, - a portion resting on the bottom, referred to as the trailing portion, which is at a maximum (Lt) when said mass is in the low position, - a suspended portion, which is at a maximum (Ls) from the moment a trailing portion exists, said mass being able to adopt any intermediate positions between its high position and its low position, in which intermediate positions the length of its portion extending over the bottom is less than that of the maximum trailing portion (Lt). - a floating structure on the surface of the volume of water, - at least one linear and continuous solid mass, for example a line, connected to a platform of the floating structure and movable between a high position and a low position, - at least one device for driving one or more of said mass(es) between its high and low positions, - a motor/generator coupled to the device for driving said mass(es), - an upper end located at the surface of the volume of water, - an opposite end which is free or connected to the bottom of the volume of water, - a portion resting on the bottom, referred to as the trailing portion, which is at a maximum (Lt) when said mass is in the low position, - a suspended portion, which is at a maximum (Ls) from the moment a trailing portion exists, said mass being able to adopt any intermediate positions between its high position and its low position, in which intermediate positions the length of its portion extending over the bottom is less than that of the maximum trailing portion (Lt).
A wind power installation comprising a rotor to which rotor blades can be fitted, an electric generator having a generator stator and a generator rotor, wherein the generator stator comprises a plurality of stator arms for carrying a stator ring, wherein the rotor is directly coupled to the generator rotor such that rotation of the rotor directly causes rotation of the generator rotor and vice versa, and a plurality of displacement units which are during fitting or removing of the rotor blade releasably fastened with a first end to the generator stator and a second end to the generator rotor, wherein the displacement units each have a respective hydraulic cylinder, the deflection of which is controllable so that by actuation of the displacement unit the generator rotor is displaced relative to the generator stator and rotation of the rotor is effected, wherein the displacement unit has a bracket directly at its first end and a fork at its second end, wherein the bracket is directly fastened to on one of the plurality of stator arms of the generator stators and the fork is directly fastened to the generator rotor, wherein the hydraulic cylinder is provided between the fork and the bracket.
A method comprising the manufacture of at least one assembly pad (32; 50) made of silicon oxide on a support (19; 43) and the implementation of a method of self-assembly of at least one integrated circuit chip on the support (19; 43), the method comprising the successive steps of: (a) forming, on the support (19; 43), a layer (28; 48) of at least one fluorocarbon material around the location of the assembly pad (32; 50), the layer (28; 48) having a thickness higher to 10 nm and lower to 300 nm; and (b) submitting the layer (28; 48) and the location to an ultraviolet processing in the presence of ozone to form the assembly pad (32; 50) at said location surrounded with said layer (28; 48), a drop of a liquid having a static contact angle on the assembly pad (32; 50) lower or equal to 15°, a drop of the liquid having, after step b), a static contact angle on the layer (28; 48) higher or equal to 100°; (c) depositing a drop of the liquid on the assembly pad (32; 50); (d) bringing the integrated circuit chip in contact with the drop, whereby the integrated circuit chip is self-assembled with respect to the assembly pad (32; 50) on the support (19; 43); (e) drying the drop; and (f) bonding the integrated circuit chip to the support (19; 43). (a) forming, on the support (19; 43), a layer (28; 48) of at least one fluorocarbon material around the location of the assembly pad (32; 50), the layer (28; 48) having a thickness higher to 10 nm and lower to 300 nm; and (b) submitting the layer (28; 48) and the location to an ultraviolet processing in the presence of ozone to form the assembly pad (32; 50) at said location surrounded with said layer (28; 48), a drop of a liquid having a static contact angle on the assembly pad (32; 50) lower or equal to 15°, a drop of the liquid having, after step b), a static contact angle on the layer (28; 48) higher or equal to 100°; (c) depositing a drop of the liquid on the assembly pad (32; 50); (d) bringing the integrated circuit chip in contact with the drop, whereby the integrated circuit chip is self-assembled with respect to the assembly pad (32; 50) on the support (19; 43); (e) drying the drop; and (f) bonding the integrated circuit chip to the support (19; 43).