mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for mounting a plane on a wall, the arrangement comprising said plane and, supporting said plane, a first support arm and a second support arm, each of said support arms (4, 5) is connectable to the wall by their first end (4', 5') by means of a first joint arrangement (6, 7) at the first end (4', 5') of the support arm (4, 5), the first joint arrangement (6, 7) being provided with a substantially vertical turning axis so that the support arms (4, 5) are turnable in a substantially horizontal level in relation to the wall, and the support arms (4, 5) being mounted in connection with the plane by their second end (4", 5") by means of a second joint arrangement (10, 11) connected to the second end (4", 5") of the support arm (4, 5), the second joint arrangement (10, 11) of the support arm (4, 5) comprising a joint (14, 15) provided with a substantially horizontal turning axis, whereby said plane is turnable to a substantially horizontal usage position and a substantially vertical storage position by means of said joints (14, 15) provided with a substantially horizontal turning axis, and wherein the second joint arrangement (10, 11) comprises a substantially vertical joint shaft (12, 13) arranged in connection with the second end (4", 5") of the support arm (4, 5), and whereby the joint (14, 15) provided with the substantially horizontal turning axis is arranged in said substantially vertical joint shaft (12, 13), wherein the substantially vertical joint shaft (12, 13) of the second joint arrangement (10, 11) comprises in the vertical direction of the support arm (4, 5) a portion extending below the second end (4", 5") of the support arm (4, 5), and the joint (14, 15) of the second joint arrangement (10, 11), which is provided with the substantially horizontal turning axis is arranged directly, or indirectly by a connecting part, to the portion of the vertical joint shaft (12, 13), which extends below the second end (4", 5") of the support arm (4, 5).
A method for controlling a first electrical machine of a hybrid powertrain of a motor vehicle including a heat traction engine and a second electrical traction machine supplied by an electrical storage battery, and in which the heat traction engine provides an engine torque (Cmth) calculated to cover at least the needs of a setpoint torque by the driver (Ccond) dedicated to a torque at the wheels of the vehicle and of a drawing torque (Cprev) drawn by the first electrical machine for at least recharging the electrical storage battery, the drawing torque (Cprev) being controlled at a first setpoint equal to a predetermined upper torque limit (Lsup) from which the setpoint torque by the driver (Ccond) is subtracted and, when the setpoint torque by the driver (Ccond) is greater than a predetermined threshold, the drawing torque (Cprev) being controlled at a second setpoint equal to a predetermined lower torque limit (Linf), said method being characterized in that the upper torque limit (Lsup) is configured so that the acoustic noise generated by the powertrain is less than a predetermined acoustic stress, the upper limit (Lsup) and the lower limit (Linf) being of constant value when the speed of the vehicle is less than a speed threshold of the vehicle, and the lower limit (Linf) and the upper limit (Lsup) being increased as a function of the value of the speed of the vehicle when it is travelling at a higher speed than said speed threshold.
A food processor, comprising: a vessel for receiving food to be steamed and blended; a steaming system (32,34) for delivering steam to the vessel for steaming the food; a support for retaining the food above a base of the vessel during steaming; a blender blade at the base of the vessel; characterized in that it further comprises a drive arrangement for rotating the blender blade and the support about a common axis, for rotating the support to release the retained food and for rotating the blender blade to blend the released food, wherein said food processor is configured to rotate the support about said common rotation axis to release the received food so that it falls to the base of the vessel. a vessel for receiving food to be steamed and blended; a steaming system (32,34) for delivering steam to the vessel for steaming the food; a support for retaining the food above a base of the vessel during steaming; a blender blade at the base of the vessel; characterized in that it further comprises a drive arrangement for rotating the blender blade and the support about a common axis, for rotating the support to release the retained food and for rotating the blender blade to blend the released food, wherein said food processor is configured to rotate the support about said common rotation axis to release the received food so that it falls to the base of the vessel.
A wastegate device for an exhaust gas turbocharger, - with a housing, in which a wastegate opening for the flowing-through of an exhaust gas is provided, - with a spindle which is rotatably mounted on the housing, on which a wastegate flap is arranged, which by turning the spindle can be adjusted between an opened position, in which it opens the wastegate opening for the through-flow of exhaust gas and a closed position, in which it closes the wastegate opening, - with an actuator device which is drive-connected to the spindle for adjusting the wastegate flap by means of a lever mechanism, - wherein the lever mechanism comprises at least one first and one second lever arm (8, 9), which are interconnected in an articulated manner by means of a first joint arrangement, - wherein on the first joint arrangement a spring element is provided, which preloads the wastegate flap against the closed position via the lever mechanism, - wherein the first joint arrangement comprises a first and second through-opening each provided in the first and second lever arm (8, 9), into which a connecting element on each axial end side is inserted for coupling the two lever arms (8, 9), characterized in that the spring element is designed as a torsion spring, which connects the first lever arm to the second lever arm and surrounds the connecting element with at least one winding. - with a housing, in which a wastegate opening for the flowing-through of an exhaust gas is provided, - with a spindle which is rotatably mounted on the housing, on which a wastegate flap is arranged, which by turning the spindle can be adjusted between an opened position, in which it opens the wastegate opening for the through-flow of exhaust gas and a closed position, in which it closes the wastegate opening, - with an actuator device which is drive-connected to the spindle for adjusting the wastegate flap by means of a lever mechanism, - wherein the lever mechanism comprises at least one first and one second lever arm (8, 9), which are interconnected in an articulated manner by means of a first joint arrangement, - wherein on the first joint arrangement a spring element is provided, which preloads the wastegate flap against the closed position via the lever mechanism, - wherein the first joint arrangement comprises a first and second through-opening each provided in the first and second lever arm (8, 9), into which a connecting element on each axial end side is inserted for coupling the two lever arms (8, 9), the spring element is designed as a torsion spring, which connects the first lever arm to the second lever arm and surrounds the connecting element with at least one winding.
A hand hot air welding device comprising a handle, in which control electronics are mounted, wherein the rear part of the handle is associated with an air hose, in which is arranged a power supply to the control electronics and further to a heating element arranged in a metal outlet pipe terminated by a hot air outlet, characterized in that the control electronics are fixedly and airtightly mounted in an electronics housing, to which a cover is fixedly attached for connecting the air hose, wherein on the electronics housing is pivotally mounted the handle which is fixedly connected to the metal outlet pipe.
A method of controlling a motor supplied with electric power by a three phase power source represented by three legs a, b and c entering a recitifier circuitry, a phase A being output on leg a, a phase B being output on leg b and a phase C being output on leg C, comprising: varying a common mode voltage duty ratio, d cm, for a plurality of solid state switching devices in a power inverter, wherein the following relations hold for the duty ratios d a, d b, and d c of phase A, B and C, the phase angle of voltage command θ v of the power inverter and the common mode voltage duty ratio, d cm: { d a = 0.5 + d cm + k cos θ v d b = 0.5 + d cm + k cos θ v − 2 π 3 d c = 0.5 + d cm + k cos θ v + 2 π 3 where k represents the output voltage amplitude ratio and is approximated by 0.05; generating drive signals for the solid state switching devices based at least in part upon the common mode voltage duty ratio; changing states of the solid state switching devices based upon the drive signals; and outputting voltages for the phases A, B, and C by the power inverter to the motor according to: { V an = d a − 0.5 − d cm ⋅ V dc / 2 V bn = d b − 0.5 − d cm ⋅ V dc / 2 V cn = d c − 0.5 − d cm ⋅ V dc / 2 where V dc represents a voltage difference between a positive DC bus line and a negative DC bus line of the rectifier circuitry. varying a common mode voltage duty ratio, d cm, for a plurality of solid state switching devices in a power inverter, wherein the following relations hold for the duty ratios d a, d b, and d c of phase A, B and C, the phase angle of voltage command θ v of the power inverter and the common mode voltage duty ratio, d cm: { d a = 0.5 + d cm + k cos θ v d b = 0.5 + d cm + k cos θ v − 2 π 3 d c = 0.5 + d cm + k cos θ v + 2 π 3 where k represents the output voltage amplitude ratio and is approximated by 0.05; generating drive signals for the solid state switching devices based at least in part upon the common mode voltage duty ratio; changing states of the solid state switching devices based upon the drive signals; and outputting voltages for the phases A, B, and C by the power inverter to the motor according to: { V an = d a − 0.5 − d cm ⋅ V dc / 2 V bn = d b − 0.5 − d cm ⋅ V dc / 2 V cn = d c − 0.5 − d cm ⋅ V dc / 2 where V dc represents a voltage difference between a positive DC bus line and a negative DC bus line of the rectifier circuitry.
A sensor component for an electronic throttle valve, comprising a carrying means, and a circuit portion and a sensor fixed in the carrying means, the carrying means comprising: an individually injection-molded upper cover portion; an individually injection-molded lower cover portion, connected to the upper cover portion and forming an installation space between itself and the upper cover portion; the circuit portion and the sensor both being fixed in the installation space, and the circuit portion being connected to the sensor electrically, characterized by a semi-permeable membrane, covering a vent hole in the upper cover portion and being located on the inside of the upper cover portion. an individually injection-molded upper cover portion; an individually injection-molded lower cover portion, connected to the upper cover portion and forming an installation space between itself and the upper cover portion; the circuit portion and the sensor both being fixed in the installation space, and the circuit portion being connected to the sensor electrically, characterized by a semi-permeable membrane, covering a vent hole in the upper cover portion and being located on the inside of the upper cover portion.
A method for transmitting pilot configuration information in a relay system, the method comprising: generating, by a base station, high layer signaling carrying pilot configuration information configured for a Relay-Physical Downlink Control Channel, R-PDCCH, wherein the pilot configuration information comprises pilot port information, the pilot port information comprises at least one of pilot port number information and information of the number of pilot ports configured for the R-PDCCH, and when the high layer signaling carries pilot port number information and information of the number of pilot ports, the pilot port number information is a starting pilot port number; and transmitting, by the base station, the high layer signaling to a relay node. generating, by a base station, high layer signaling carrying pilot configuration information configured for a Relay-Physical Downlink Control Channel, R-PDCCH, wherein the pilot configuration information comprises pilot port information, the pilot port information comprises at least one of pilot port number information and information of the number of pilot ports configured for the R-PDCCH, and when the high layer signaling carries pilot port number information and information of the number of pilot ports, the pilot port number information is a starting pilot port number; and transmitting, by the base station, the high layer signaling to a relay node.
Method for authenticating a reader by means of a radio tag, comprising the following steps, which are implemented by the tag: - a step (E21-6) of receiving, from the reader, encrypted information (z j) and a datum allowing determination of an identification index (j) of an authentication coupon (t j) of the reader, said encrypted information having been calculated by the reader by applying a reversible operation to the authentication coupon of the reader associated with the index and to information comprising a redundancy value (padd), - an operation (E21-7) of calculating a current authentication coupon of the reader (t j ') on the basis of the index (j) determined from the received datum, - an operation (E21-8) of decrypting the received encrypted information by means of the reversible operation, applied to the calculated current authentication coupon and to the received encrypted information, - an operation (E21-9) of checking the decrypted information intended to verify that the current coupon calculated by the tag corresponds to the authentication coupon used by the reader to encrypt the redundancy value. - a step (E21-6) of receiving, from the reader, encrypted information (z j) and a datum allowing determination of an identification index (j) of an authentication coupon (t j) of the reader, said encrypted information having been calculated by the reader by applying a reversible operation to the authentication coupon of the reader associated with the index and to information comprising a redundancy value (padd), - an operation (E21-7) of calculating a current authentication coupon of the reader (t j ') on the basis of the index (j) determined from the received datum, - an operation (E21-8) of decrypting the received encrypted information by means of the reversible operation, applied to the calculated current authentication coupon and to the received encrypted information, - an operation (E21-9) of checking the decrypted information intended to verify that the current coupon calculated by the tag corresponds to the authentication coupon used by the reader to encrypt the redundancy value.
A method for performing a multiple-subcarrier-joint-modulation, MSJM, precoding, comprising: grouping input information bits into bit blocks, each bit block including n*g bits, where n is a number of available data subcarriers and g is the number of bits to be transmitted per subcarrier; converting each bit block to k bit vectors, k being the number of data subcarriers n divided by the number of jointly precoded subcarriers m, each bit vector including a number of m*g bits, wherein g is the number of bits to be transmitted per subcarrier; mapping each of the bit vectors into a symbol vector of m symbols by use of a lookup table, wherein the size of the table is 2 m*g and wherein for any two different bit vectors their corresponding symbol vectors have at least two symbols in difference, thereby achieving frequency diversity order of two; and grouping the symbol vectors together and mapping the symbol vectors into n data subcarriers. grouping input information bits into bit blocks, each bit block including n*g bits, where n is a number of available data subcarriers and g is the number of bits to be transmitted per subcarrier; converting each bit block to k bit vectors, k being the number of data subcarriers n divided by the number of jointly precoded subcarriers m, each bit vector including a number of m*g bits, wherein g is the number of bits to be transmitted per subcarrier; mapping each of the bit vectors into a symbol vector of m symbols by use of a lookup table,
Microelectrode provided with a metallic pattern (21, 22, 23, 31, 32, 33)for identification of the microelectrode by radiative means upon implantation into soft tissue, in particular nervous or endocrine tissue, the microelectrode comprising an oblong electrically conducting body and a contact providing distal section (5, 5', 5", 55, 55', 55", 65, 75) providing electrical contact with surrounding soft tissue being a section extending from a distal end or disposed in proximity of the distal end the microelectrode body, the pattern comprising three or more sections comprising a metal (21, 22, 23, 31, 32, 33), the sections extending in a longitudinal direction of the microelectrode body near the distal end of the microelectrode body; wherein the pattern is disposed on a first non-conducting coat of polymer material covering a distal portion of the microelectrode body and the sections of the pattern are covered by a second coat of non-conducting polymer material; or wherein the pattern is disposed on a portion of the microelectrode body and covered by non-conducting coat of a polymer material.
A pitot tube, comprising: a tube body defining an inlet, at least one hole formed in the tube body; and at least one cylindrical dam (44, 90) respectively disposed within the at least one hole, each dam having a respective dam body that includes, a substantially planar end an open side (78, 104), a curved portion (80, 102), the dam body further comprising a notch (72, 98) having a substantially planar back (74,100) aligned such that it faces and is substantially parallel to the inlet, at least a portion of the notch (72, 98) being disposed inside of the tube body wherein the cylindrical dam further comprises a structure or marking for facilitating alignment of the substantially planar back of the notch (72, 98). a tube body defining an inlet, at least one hole formed in the tube body; and at least one cylindrical dam (44, 90) respectively disposed within the at least one hole, each dam having a respective dam body that includes, a substantially planar end an open side (78, 104), a curved portion (80, 102), the dam body further comprising a notch (72, 98) having a substantially planar back (74,100) aligned such that it faces and is substantially parallel to the inlet, at least a portion of the notch (72, 98) being disposed inside of the tube body wherein the cylindrical dam further comprises a structure or marking for facilitating alignment of the substantially planar back of the notch (72, 98).
A connecting device between a vessel closed off by a perforable stopper and a container, such as a syringe body, this device comprising: - a base, which is configured to be mounted on the vessel and which comprises a hollow member for perforating the stopper, this hollow member delimiting at least one opening, and - a needle holder, which is detachably connected relative to the base, which is waiting to be connected with the container, and which includes a hypodermic needle, one end of which emerges in the inner volume of the hollow member, characterized in that the device further comprises: - a collar attached to the needle holder, and - a sheath, which is connected to the collar and which defines a central axis along which the sheath is movable relative to the collar and around the latter, against a resilient force exerted by return means. - a base, which is configured to be mounted on the vessel and which comprises a hollow member for perforating the stopper, this hollow member delimiting at least one opening, and - a needle holder, which is detachably connected relative to the base, which is waiting to be connected with the container, and which includes a hypodermic needle, one end of which emerges in the inner volume of the hollow member, - a collar attached to the needle holder, and - a sheath, which is connected to the collar and which defines a central axis along which the sheath is movable relative to the collar and around the latter, against a resilient force exerted by return means.
A soluble applicator for self-adhesive composition, preferably a detergent composition, wherein the applicator is made of material(s) exhibiting a solubility of at least 100 g/L in water at 20°C, wherein the applicator is made of one or mixtures of materials selected among glucose, sucrose, fructose, maltitol, isomalt, polyacrylamide, polyacrylic polymer, polyvinyl pyrrolidone, polyvinyl alcohol, partially hydrolyzed polyvinyl acetate, polyisocyanates, polydiallyldimethylammonium chloride (polyDADMAC), polyethylene glycol, agar gel, alginate, gums or gelatin, wherein the applicator further comprises a grip portion.
A composition comprising liposomes, for use in treating glaucoma by ophthalmic topical administration, characterized in that said liposomes include citicoline or Salts thereof, and in that said composition is without benzalchonium chloride.
An electric power steering system comprising: a motor that applies assist force to a steering mechanism of a vehicle; a torque sensor that outputs a detection signal corresponding to a steering torque applied to the steering mechanism; and a controller that controls driving of the motor, wherein the controller computes a detected steering torque value (τ) on the basis of the detection signal, and computes a torque differential value that is a first-order time differential value of the detected steering torque value (τ), and controls driving of the motor on the basis of an assist command value computed by providing compensation to a basic assist command value based on the detected steering torque value (τ) with use of a compensation value based on at least the torque differential value (dτ), characterized in that when the detected steering torque value (τ) is held for a predetermined period, the controller holds the torque differential value (dτ) at a value computed before the detected steering torque value (τ) is held, during the period in which the detected steering torque value (τ) is held. a motor that applies assist force to a steering mechanism of a vehicle; a torque sensor that outputs a detection signal corresponding to a steering torque applied to the steering mechanism; and a controller that controls driving of the motor, wherein the controller computes a detected steering torque value (τ) on the basis of the detection signal, and computes a torque differential value that is a first-order time differential value of the detected steering torque value (τ), and controls driving of the motor on the basis of an assist command value computed by providing compensation to a basic assist command value based on the detected steering torque value (τ) with use of a compensation value based on at least the torque differential value (dτ), characterized in that computes a detected steering torque value (τ) on the basis of the detection signal, and computes a torque differential value that is a first-order time differential value of the detected steering torque value (τ), and controls driving of the motor on the basis of an assist command value computed by providing compensation to a basic assist command value based on the detected steering torque value (τ) with use of a compensation value based on at least the torque differential value (dτ), characterized in that when the detected steering torque value (τ) is held for a predetermined period, the controller holds the torque differential value (dτ) at a value computed before the detected steering torque value (τ) is held, during the period in which the detected steering torque value (τ) is held.