mhurhangee/ep-ind-claims huggingface dataset:
A blocking mechanism for a handle arrangement, comprising: at least one catch member arranged on a first shaft attachable to a handle and extending along a first axis; a blocking member arranged on a second shaft extending along a second axis, wherein the first axis and the second axis are displaced perpendicular to each other, wherein the blocking member is rotatable around the second axis between a blocking position, in which position it is engageable with the catch member to prevent the catch member from rotation around the first axis, and an unblocked position in which rotation of the catch member is enabled, characterized in that, in the blocking position the acting force caused by the applied torque of rotation of the catch member is exerted axially along the second shaft. at least one catch member arranged on a first shaft attachable to a handle and extending along a first axis; a blocking member arranged on a second shaft extending along a second axis, wherein the first axis and the second axis are displaced perpendicular to each other, wherein the blocking member is rotatable around the second axis between a blocking position, in which position it is engageable with the catch member to prevent the catch member from rotation around the first axis, and an unblocked position in which rotation of the catch member is enabled, characterized in that, in the blocking position the acting force caused by the applied torque of rotation of the catch member is exerted axially along the second shaft.
A method of a network node (200, 500) adapted to operate in accordance with a first radio access technology, according to an Evolved Universal Terrestrial Radio Access - E-UTRA - standard, for allocation of radio resources of a frequency band for communication in accordance with the first radio access technology, the frequency band being one of an unlicensed frequency band and a non-exclusively licensed frequency band, wherein communication (225, 235) according to a second different radio access technology according to an IEEE - Institute of Electrical and Electronics Engineers - 802.11 standard may occupy one or more of the radio resources of the frequency band, the method comprising: receiving by the network node (200, 500) adapted to operate in accordance with the first radio access technology a beacon signal associated with the second radio access technology; determining whether or not the beacon signal comprises information indicative of which of the radio resources of the frequency band are used as primary and secondary channels, respectively, in accordance with the second radio access technology; selecting, if the beacon signal comprises the information, one or more of the radio resources of the frequency band used as secondary channel in accordance with the second radio access technology over a radio resource used as primary channel in accordance with the second radio access technology at least based on the information indicative of which of the radio resources of the frequency band are used as primary and secondary channels; and allocating one or more of the selected radio resources for communication in accordance with the first radio access technology. receiving by the network node (200, 500) adapted to operate in accordance with the first radio access technology a beacon signal associated with the second radio access technology; determining whether or not the beacon signal comprises information indicative of which of the radio resources of the frequency band are used as primary and secondary channels, respectively, in accordance with the second radio access technology; selecting, if the beacon signal comprises the information, one or more of the radio resources of the frequency band used as secondary channel in accordance with the second radio access technology over a radio resource used as primary channel in accordance with the second radio access technology at least based on the information indicative of which of the radio resources of the frequency band are used as primary and secondary channels; and allocating one or more of the selected radio resources for communication in accordance with the first radio access technology.
Modular unit for an angle measuring device comprising a shaft with a measuring scale for measuring a rotational movement about an axis, the shaft having, as an integral constituent part, a shoulder (1.1), on which an anti-friction bearing is mounted axially, at least one groove (4.2) being arranged between the shoulder (1.1) of the shaft and the anti-friction bearing, which groove (4.2) is oriented with a radial directional component and is connected to a cavity (4.4) for receiving lubricant, the anti-friction bearing having an inner ring (3.1), an outer ring (3.2) and rolling bodies (3.3), and the cavity (4.4) being delimited in the radial direction by the inner ring (3.1) and the shaft.
A process for the coupled production of sweet whey and lactic acid from acid whey, comprising the following steps: (a) providing acid whey having a lactic acid content of about 0.1 to about 1% by weight; (b) nanofiltration of the acid whey obtaining a first permeate P1 and a first retentate R1; (c) optionally, redilution of the first retentate R1 with water to reconstitute the initial dry matter content, and preparation of the second nanofiltration step; (d) nanofiltration of the retentate R1, obtaining a I second permeate P2 and sweet whey as a second retentate R2, wherein the nanofiltration step is performed using a closed membrane having a cut-off in the range of 150 to 300 Dalton; and (e) combining the two permeates P1 and P2 and subjecting the mixture to reverse osmosis, obtaining a third permeate P3 which, substantially, only contains water, and a concentrate of lactic acid as a third retentate R3. (a) providing acid whey having a lactic acid content of about 0.1 to about 1% by weight; (b) nanofiltration of the acid whey obtaining a first permeate P1 and a first retentate R1; (c) optionally, redilution of the first retentate R1 with water to reconstitute the initial dry matter content, and preparation of the second nanofiltration step; (d) nanofiltration of the retentate R1, obtaining a I second permeate P2 and sweet whey as a second retentate R2, wherein the nanofiltration step is performed using a closed membrane having a cut-off in the range of 150 to 300 Dalton; and (e) combining the two permeates P1 and P2 and subjecting the mixture to reverse osmosis, obtaining a third permeate P3 which, substantially, only contains water, and a concentrate of lactic acid as a third retentate R3.
An electronic device, comprising: a first metal back cover, and a NFC antenna having an antenna coil; wherein the antenna coil is located on an inner side of the first metal back cover, a through-hole and a first slit are formed in the first metal back cover, the first slit extending from one edge of the through-hole to one edge of the first metal back cover, characterized in that the antenna coil surrounds the through-hole and the first slit, and the antenna coil has a convex portion, wherein a part of said convex portion does not overlap with the first metal back cover and said convex portion does not intersect with the first slit in a direction perpendicular to the first metal back cover. a first metal back cover, and a NFC antenna having an antenna coil; wherein the antenna coil is located on an inner side of the first metal back cover, a through-hole and a first slit are formed in the first metal back cover, the first slit extending from one edge of the through-hole to one edge of the first metal back cover, characterized in that the antenna coil surrounds the through-hole and the first slit, and the antenna coil has a convex portion, wherein a part of said convex portion does not overlap with the first metal back cover and said convex portion does not intersect with the first slit in a direction perpendicular to the first metal back cover.
Concrete structural element, comprising: - a concrete matrix; - a steel reinforcing structure (11, 12, 13) embedded in said matrix; - at least first and second attitude sensors (21, 22) apart from one another in a direction, fixed to said reinforcing structure; - a processing circuit configured to recover attitude measurements supplied by each attitude sensor (21, 22) and configured to compute a deformation of said structural element relative to said direction as a function of the attitude measurements recovered; characterized in that the first and second attitude sensors (21, 22) are embedded in said matrix. - a concrete matrix; - a steel reinforcing structure (11, 12, 13) embedded in said matrix; - at least first and second attitude sensors (21, 22) apart from one another in a direction, fixed to said reinforcing structure; - a processing circuit configured to recover attitude measurements supplied by each attitude sensor (21, 22) and configured to compute a deformation of said structural element relative to said direction as a function of the attitude measurements recovered; characterized in that the first and second attitude sensors (21, 22) are embedded in said matrix.
An implant conveying device, wherein the conveying device comprises a pusher, a control component, a connecting wire and a control wire; the pusher, of which one end is connected to the control component, comprising a tube cavity and a lock hole communicated with the tube cavity; one end of the control wire is connected to the control component, and the other end thereof is capable of being driven by the control component to be movably accommodated in the tube cavity of the pusher; one end of the connecting wire is connected to the pusher or to the control component, and the other end thereof is used for passing through an implant and then entering the lock hole; the control wire is capable of being driven by the control component to pass through the connecting wire to connect the implant with the conveying device, or the control wire is capable of being driven by the control component to be disengaged from the connecting wire to release the implant, characterised in that the length of the connecting wire between the implant and the pusher is adjustable by the control component, when one end of the connecting wire is fixed in the control component and the other end thereof is restrained in the lock hole by the control wire.
A mobile device for compacting a soil layer structure, having at least one vibration means, such as a vibration roller or vibration plate, via which load impulses that compact the soil layer structure can be introduced in at least one load introduction area, characterized by at least a first and a second detection means (10, 12) for detecting the elastic modulus of the soil layer structure, which are arranged on the device so as to be spaced apart from one another in such a way that the first detection means permits a detection in the load introduction area and at least the second detection means permits a detection of the effects of the load impulses outside the load introduction area.
A vacuum cleaner nozzle comprising: - at least one suction opening through which suction opening air can enter the vacuum cleaner nozzle, - at least one glide plate, - at least one retractable brush, wherein the at least one brush extend through at least one brush opening in the glide plate and characterized in that the at least one retractable brush in one mode of operation is configured to seal said at least one brush opening in that size of the brush openings is matched to the dimensions of the retractable brush. - at least one suction opening through which suction opening air can enter the vacuum cleaner nozzle, - at least one glide plate, - at least one retractable brush,
A container system comprising a container and a selectively openable cover, the container comprising a bottom wall and one or more side walls extending away from the bottom wall, the bottom wall and the one or more side walls defining an interior volume of the container, the container further comprising a rim defining a mouth to a passageway that provides access to the interior volume, the container further comprising a tab (100, 100a, 101, 103, 104) that partially occludes the mouth or passageway, the tab comprising a free end that is biased to a resting position, the free end being deflectable into the interior volume, wherein the tab (100, 100a, 101, 103, 104) comprises a visible free end length that is up to 75% of the major dimension of the mouth such that a system is provided, whereby a consumer can still easily see into the interior volume of the container, and wherein the tab (100, 100a, 101, 103, 104) comprises a top surface facing away from the interior volume of the container, the top surface comprising communicational indicia. the bottom wall and the one or more side walls defining an interior volume of the container, the container further comprising a rim defining a mouth to a passageway that provides access to the interior volume,
A method for performing a quantum gate operation in a quantum circuit having a first qubit coupled to resonator, a coupling between the qubit and the resonator having a characteristic energy, the method comprising: increasing the energy of the first qubit from a first control value to an intermediate second control value at a rate sufficiently slow relative to the characteristic energy to cause a transfer of energy between the first qubit and the resonator, wherein the transfer of energy between the first qubit and the resonator causes a change in the quantum state of the qubit and resonator; increasing the energy of the qubit from the intermediate second control value to a third control value at a rate sufficiently fast relative to the characteristic energy to maintain the quantum state of the qubit and resonator; and decreasing the energy of the first qubit from the third control value to the first control value at a rate sufficiently slow relative to the characteristic energy to cause a transfer of energy between the first qubit and the resonator. increasing the energy of the first qubit from a first control value to an intermediate second control value at a rate sufficiently slow relative to the characteristic energy to cause a transfer of energy between the first qubit and the resonator, wherein the transfer of energy between the first qubit and the resonator causes a change in the quantum state of the qubit and resonator; increasing the energy of the qubit from the intermediate second control value to a third control value at a rate sufficiently fast relative to the characteristic energy to maintain the quantum state of the qubit and resonator; and decreasing the energy of the first qubit from the third control value to the first control value at a rate sufficiently slow relative to the characteristic energy to cause a transfer of energy between the first qubit and the resonator.
A seat for a car for public transportation vehicle passengers, in particular railway vehicles, including at least one lateral hip wedge element, characterized in that the lateral element is movable between a first hip wedging position and a second gripping position, and includes a gripping part accessible, at least in the second position, to a standing person to allow this person to hold on when moving in the car.
A joining apparatus for joining two or more layers, the joining apparatus comprising: an ultrasonic vibrating device configured to apply ultrasonic vibration to a predetermined region where the layers are to be joined; an anvil roller facing the ultrasonic vibrating device, and including a protrusion configured to press the predetermined region of the layers against the ultrasonic vibrating device; a motor configured to rotate the anvil roller; a connector configured to connect the anvil roller and the motor and to be driven by the motor; and a pressing mechanism configured to press the connector in a cross direction transverse to a driving direction of the connector, wherein the pressing mechanism includes a rotating portion configured to abut on the connector and to be rotated in conjunction with the connector; characterised in that the pressing mechanism further includes a moving portion configured to move the rotating portion in the cross direction when the ultrasonic vibrating device contacts the protrusion. an ultrasonic vibrating device configured to apply ultrasonic vibration to a predetermined region where the layers are to be joined; an anvil roller facing the ultrasonic vibrating device, and including a protrusion configured to press the predetermined region of the layers against the ultrasonic vibrating device; a motor configured to rotate the anvil roller; a connector configured to connect the anvil roller and the motor and to be driven by the motor; and a pressing mechanism configured to press the connector in a cross direction transverse to a driving direction of the connector, wherein the pressing mechanism includes a rotating portion configured to abut on the connector and to be rotated in conjunction with the connector; characterised in that the pressing mechanism further includes a moving portion configured to move the rotating portion in the cross direction when the ultrasonic vibrating device contacts the protrusion.
A printing apparatus (10, 100) comprising: a recording section that records an image on a recording surface of a recording medium with ink; a drying section that heats the recording medium to dry the ink of the recording surface; and a varnish application section that applies aqueous varnish containing water to the recording surface in a first direction after the recording medium is heated by the drying section, characterized in that when the temperature of the recording surface at the time of application of the aqueous varnish is denoted by Tp, coating formation time of the aqueous varnish is denoted by tw, and a constant determined according to an allowable value of a gloss difference, which is a difference between glossiness of the recording surface of a printed matter of which the applied aqueous varnish has been dried in the first direction and glossiness of the recording surface in a direction orthogonal to the first direction, is denoted by a, a relationship of Expression A is satisfied, Tp − 40 / 6 × tw ≤ a here, the unit of the temperature Tp is °C and the unit of the coating formation time tw is minute. a recording section that records an image on a recording surface of a recording medium with ink; a drying section that heats the recording medium to dry the ink of the recording surface; and a varnish application section that applies aqueous varnish containing water to the recording surface in a first direction after the recording medium is heated by the drying section, characterized in that when the temperature of the recording surface at the time of application of the aqueous varnish is denoted by Tp, coating formation time of the aqueous varnish is denoted by tw, and a constant determined according to an allowable value of a gloss difference, which is a difference between glossiness of the recording surface of a printed matter of which the applied aqueous varnish has been dried in the first direction and glossiness of the recording surface in a direction orthogonal to the first direction, is denoted by a, a relationship of Expression A is satisfied, Tp − 40 / 6 × tw ≤ a here, the unit of the temperature Tp is °C and the unit of the coating formation time tw is minute.
A control method for a hybrid vehicle comprising an electric motor that drives the vehicle to travel, a generator that supplies power to the electric motor, and an engine that drives the generator, the control method comprising: storing timing at which an amount or factor of change in target driving force for the vehicle becomes a predetermined threshold or more; calculating an estimated trajectory of a rotational speed of the engine in accordance with the amount or factor of change in the target driving force; and when a change request for power generation is issued to the engine at different timing than the timing, controlling the rotational speed of the engine on a basis of the calculated estimated trajectory. storing timing at which an amount or factor of change in target driving force for the vehicle becomes a predetermined threshold or more; calculating an estimated trajectory of a rotational speed of the engine in accordance with the amount or factor of change in the target driving force; and when a change request for power generation is issued to the engine at different timing than the timing, controlling the rotational speed of the engine on a basis of the calculated estimated trajectory.
A vehicle air intake system, comprising: a grille disposed along a forward end of a vehicle, the grille having one or more inlet apertures for admitting airflow; a bulkhead extending laterally across the vehicle rearwardly of the grille; an intake enclosure having an intake port disposed over the bulkhead; and a bulkhead cover extending from the bulkhead to the grille, the bulkhead cover having louvers defining airflow passages therebetween for allowing the airflow admitted by the grille to pass to the intake port while inhibiting the passage of particles entrained in the airflow, characterized in that each of the louvers has a rearward end and a forward end, the forward end of each louver arranged closer to a forward end of the vehicle than the rearward end of each louver and the forward end of each louver elevated relative to the rearward end of each louver; and that the vehicle air intake system includes a radiator disposed rearwardly of the grille and below the bulkhead, the radiator receiving therethrough a portion of the airflow admitted through the grille and redirecting a remaining portion of the airflow through the airflow passages defined by the louvers. a grille disposed along a forward end of a vehicle, the grille having one or more inlet apertures for admitting airflow; a bulkhead extending laterally across the vehicle rearwardly of the grille; an intake enclosure having an intake port disposed over the bulkhead; and a bulkhead cover extending from the bulkhead to the grille, the bulkhead cover having louvers defining airflow passages therebetween for allowing the airflow admitted by the grille to pass to the intake port while inhibiting the passage of particles entrained in the airflow, that each of the louvers has a rearward end and a forward end, the forward end of each louver arranged closer to a forward end of the vehicle than the rearward end of each louver and the forward end of each louver elevated relative to the rearward end of each louver; and that the vehicle air intake system includes a radiator disposed rearwardly of the grille and below the bulkhead, the radiator receiving therethrough a portion of the airflow admitted through the grille and redirecting a remaining portion of the airflow through the airflow passages defined by the louvers.