mhurhangee/ep-ind-claims huggingface dataset:
Fluid-column hydraulic motor comprising a casing which internally seats the drive shaft provided with an eccentric cam against which a plurality of propulsion members act, said propulsion members being closed inside the casing by a respective cover which is fastened to the casing by respective fixing means, each propulsion member comprising an outer cylinder, one of the two end edges of which rests on the outer surface of the said eccentric cam, and a piston, telescopically slidable in a the radial, or axial, or inclined, sliding direction, inside the cylinder and having one of the two end edges making bearing contact against a respective sliding surface of the cover; means for sealingly retaining the piston against the sliding surface of the cover. characterized in that: said retaining means comprising an anchoring pin formed as one piece and provided with: - a head for engagement with the cover of the motor; - a shank with a diameter smaller than that of the head; - an inner disk with an outer diameter smaller than the inner diameter of the piston and designed to make axial contact against an inwardly projecting annular edge formed on the radially outer end of the said piston and in that correspondingly the cover of the motor has: - an inner keyed cavity comprising a first inner seat of suitable diameter designed to receive the head of the pin in the sliding direction; - a second outer seat with an internal constriction designed to receive the head and prevent it from coming out in the sliding direction; - a third seat connecting together the first inner seat and the second outer seat. said retaining means comprising an anchoring pin formed as one piece and provided with: - a head for engagement with the cover of the motor; - a shank with a diameter smaller than that of the head; - an inner disk with an outer diameter smaller than the inner diameter of the piston and designed to make axial contact against an inwardly projecting annular edge formed on the radially outer end of the said piston - a head for engagement with the cover of the motor; - a shank with a diameter smaller than that of the head; - an inner disk with an outer diameter smaller than the inner diameter of the piston and designed to make axial contact against an inwardly projecting annular edge formed on the radially outer end of the said piston and in that correspondingly the cover of the motor has: - an inner keyed cavity comprising a first inner seat of suitable diameter designed to receive the head of the pin in the sliding direction; - a second outer seat with an internal constriction designed to receive the head and prevent it from coming out in the sliding direction; - a third seat connecting together the first inner seat and the second outer seat. - an inner keyed cavity comprising a first inner seat of suitable diameter designed to receive the head of the pin in the sliding direction; - a second outer seat with an internal constriction designed to receive the head and prevent it from coming out in the sliding direction; - a third seat connecting together the first inner seat and the second outer seat.
Use of a batch as a gunning mass for manufacturing a refractory ceramic product, comprising the following components in the following proportions by weight, respectively with respect to the total weight of the product: 1.1 50% to 99.5% by weight of fused magnesia; 1.2 0 to 50% by weight of sintered magnesia; 1.3 0.5% to 5% by weight of a chromium oxide component in the form of at least one raw material based on Cr 2 O 3; wherein 1.4 at least 90% by weight of the chromium oxide component has a grain size of at most 50 μm, with respect to the total weight of the chromium oxide component; with the following provisions: applying the batch to a surface of a product; treating the product to whose surface the batch is applied with temperature, such that the batch is sintered to form a refractory ceramic product. 1.1 50% to 99.5% by weight of fused magnesia; 1.2 0 to 50% by weight of sintered magnesia; 1.3 0.5% to 5% by weight of a chromium oxide component in the form of at least one raw material based on Cr 2 O 3; wherein 1.4 at least 90% by weight of the chromium oxide component has a grain size of at most 50 μm, with respect to the total weight of the chromium oxide component; applying the batch to a surface of a product; treating the product to whose surface the batch is applied with temperature, such that the batch is sintered to form a refractory ceramic product.
A vehicle differential that has multiple gears and a system, the system comprising: a magnetic field generator that selectively generates a magnetic field; a drive member movable in response to the magnetic field generated by the magnetic field generator, the drive member being movable along an axis between a first position and a second position, and the drive member having at least one contact surface; and a lock member adjacent to the drive member and having at least one contact surface that is engaged by the at least one contact surface of the drive member so that the lock member is driven by the drive member to engage a gear of the differential when the drive member is in the second position, and the lock member is adapted to be disengaged from the gear when the drive member is in the first position, characterized in that one or both of the at least one contact surface of the drive member and the at least one contact surface of the lock member is discontinuous, wherein one or both of the drive member and the lock member includes a main body (72, 150) and a foot (66, 68) extending from the main body (72, 150), and wherein the discontinuous contact surface is defined by a void (82, 120) formed in an axial end (78, 154) of the foot (66, 68) so that an axially outermost surface of the foot (66, 68) is interrupted by the void (82, 120). a magnetic field generator that selectively generates a magnetic field; a drive member movable in response to the magnetic field generated by the magnetic field generator, the drive member being movable along an axis between a first position and a second position, and the drive member having at least one contact surface; and a lock member adjacent to the drive member and having at least one contact surface that is engaged by the at least one contact surface of the drive member so that the lock member is driven by the drive member to engage a gear of the differential when the drive member is in the second position, and the lock member is adapted to be disengaged from the gear when the drive member is in the first position, characterized in that one or both of the at least one contact surface of the drive member and the at least one contact surface of the lock member is discontinuous, wherein one or both of the drive member and the lock member includes a main body (72, 150) and a foot (66, 68) extending from the main body (72, 150), and wherein the discontinuous contact surface is defined by a void (82, 120) formed in an axial end (78, 154) of the foot (66, 68) so that an axially outermost surface of the foot (66, 68) is interrupted by the void (82, 120).
A network data analytics method, comprising: sending (S301, S401b, S401c), by a network data analytics function network element, registration information of the network data analytics function network element to a network repository function network element, characterized in that the registration information comprises one or more analytics identifiers, and an analytics service range of the network data analytics function network element; and the network data analytics function network element is capable of providing an analytics service corresponding to the one or more analytics identifiers and the analytics service range; and receiving (S303, S403), by the network data analytics function network element, a registration response message sent by the network repository function network element. sending (S301, S401b, S401c), by a network data analytics function network element, registration information of the network data analytics function network element to a network repository function network element, characterized in that the registration information comprises one or more analytics identifiers, and an analytics service range of the network data analytics function network element; and the network data analytics function network element is capable of providing an analytics service corresponding to the one or more analytics identifiers and the analytics service range; and receiving (S303, S403), by the network data analytics function network element, a registration response message sent by the network repository function network element.
Valve gun for a high-pressure cleaner, comprising an inlet channel with an inlet for supplying a pressurized liquid and an outlet channel with an outlet for discharging the liquid, a valve arranged in the flow path between the inlet and the outlet, a triggering member manually movable between a rest position and a release position for opening and closing the valve, a first locking member manually movable between a locking position and an unlocking position for locking the triggering member in the rest position, and a handgrip graspable by the user with his hand to hold the valve gun, characterized in that the triggering member is arranged at the rear side of the handgrip that faces away from the outlet, and in that the first locking member is arranged at the front side of the handgrip that faces the outlet.
A socket for electrically coupling an integrated circuit to a board so that a signal may be transmitted thereto, comprising: a platform for receiving the integrated circuit thereon; a plurality of two-piece connector assemblies, each connector assembly comprising a mount and an associated link pivotable about the mount; each mount retained in the platform and comprising a curved cavity on a lateral side opposite an associated link member; each link member including an arcuate contact surface on an upper side and extending above the platform, said link adapted for rolling contact with the integrated circuit, and a rocker arm with a rounded end seated in the curved cavity of the mount; an elongate elastomer seated below the plurality of link members; characterized in that the elastomer has a first stage compression response and a second stage compression response; wherein contact between the integrated circuit and the platform pivots the link against a biasing of the elongate elastomer through the first stage compression response to the second stage compression response, and wherein the first and second stage compression responses are established by a longitudinal hole in the elongate elastomer. a platform for receiving the integrated circuit thereon; a plurality of two-piece connector assemblies, each connector assembly comprising a mount and an associated link pivotable about the mount; each mount retained in the platform and comprising a curved cavity on a lateral side opposite an associated link member; each link member including an arcuate contact surface on an upper side and extending above the platform, said link adapted for rolling contact with the integrated circuit, and a rocker arm with a rounded end seated in the curved cavity of the mount; an elongate elastomer seated below the plurality of link members; characterized in that the elastomer has a first stage compression response and a second stage compression response; wherein contact between the integrated circuit and the platform pivots the link against a biasing of the elongate elastomer through the first stage compression response to the second stage compression response, and wherein the first and second stage compression responses are established by a longitudinal hole in the elongate elastomer.
Building material mixture containing a) 2.0 to 30.0% by weight of a hydraulic binder, b) 69.0 to 97.0% by weight of aggregate, the aggregate being present in the form of sand, gravel and/or mineral stones, c) 0.005 to 0.5% by weight of a copolymer suitable as a plasticizer and having polyether macromonomer structural units and acid monomer structural units and d) 0.005 to 0.5% by weight of a macromolecular, amphiphilic compound suitable as an adsorption blocker, the macromolecular, amphiphilic compound suitable as an adsorption blocker having, as a base building block, a structural unit D-E-A arising from the reaction of the individual components D, E and A, with E represented by a compound having at least two reactive isocyanate groups, D represented by a hydrophobic compound having at least one group reactive towards isocyanates, selected from -OH, -NH 2, where the hydrophobic compound is an alkylpolyoxyalkylene derivative or a polyisobutene derivative and the water solubility of the hydrophobic compound is less than 1 g/l at a temperature of 20°C under atmospheric pressure, A represented by a hydrophilic compound having at least one group reactive towards isocyanates, selected from -OH, -NH 2, -COOH, where the water solubility of the hydrophilic compound is more than 10 g/l at a temperature of 20°C under atmospheric pressure, with the proviso that the reaction of the individual components D, E and A takes place by reaction of the reactive isocyanate groups with the groups reactive towards isocyanates. a) 2.0 to 30.0% by weight of a hydraulic binder, b) 69.0 to 97.0% by weight of aggregate, the aggregate being present in the form of sand, gravel and/or mineral stones, c) 0.005 to 0.5% by weight of a copolymer suitable as a plasticizer and having polyether macromonomer structural units and acid monomer structural units and d) 0.005 to 0.5% by weight of a macromolecular, amphiphilic compound suitable as an adsorption blocker,
A microfluidic subassembly for forming a microfluidic flow cell by adhering to a solid support, the subassembly comprising: a stacked planar assembly comprising; an adherent layer; a substrate layer, wherein the substrate layer comprises material having optical transparency; a gasket layer; and where each layer is adhered to one another and the adherent layer and the gasket layer extend beyond the extents of the substrate layer; and at least one flexible thin film fluidic connector where said connector comprises at least one microfluidic channel in fluid connection with the stacked planar assembly and is positioned outside the boundaries of the substrate layer. a stacked planar assembly comprising; an adherent layer; a substrate layer, wherein the substrate layer comprises material having optical transparency; a gasket layer; and where each layer is adhered to one another and the adherent layer and the gasket layer extend beyond the extents of the substrate layer; and an adherent layer; a substrate layer, wherein the substrate layer comprises material having optical transparency; a gasket layer; and where each layer is adhered to one another and the adherent layer and the gasket layer extend beyond the extents of the substrate layer; and at least one flexible thin film fluidic connector where said connector comprises at least one microfluidic channel in fluid connection with the stacked planar assembly and is positioned outside the boundaries of the substrate layer.
An aircraft comprising multiple actuators and a power supply apparatus for supplying power to the actuators, wherein for each actuator the power supply apparatus comprises: associated motor drive electronics for actuation of a motor for control of the aerospace actuator; and a local energy storage device being connected with the motor drive electronics; wherein the motor drive electronics are configured to: receive input electrical energy from an aircraft power grid; receive electrical energy from the energy storage device; and provide electrical energy from the grid and/or from the energy storage device to the motor; and wherein the energy storage device is configured to store at least one of: excess electrical energy supplied to the motor drive electronics from the grid; and regenerated electrical energy from the motor drive electronics; and wherein the energy storage device is configured to discharge the stored energy as electrical energy to the motor drive electronics when required; and wherein the aircraft comprises current carrying components that convey electrical energy from the grid to the motor drive electronics and having a size that is reduced compared to the size of current carrying components needed to supply the peak power levels demanded by the actuator. associated motor drive electronics for actuation of a motor for control of the aerospace actuator; and a local energy storage device being connected with the motor drive electronics; wherein the motor drive electronics are configured to: receive input electrical energy from an aircraft power grid; receive electrical energy from the energy storage device; and provide electrical energy from the grid and/or from the energy storage device to the motor; and receive input electrical energy from an aircraft power grid; receive electrical energy from the energy storage device; and provide electrical energy from the grid and/or from the energy storage device to the motor; and wherein the energy storage device is configured to store at least one of: excess electrical energy supplied to the motor drive electronics from the grid; and regenerated electrical energy from the motor drive electronics; and excess electrical energy supplied to the motor drive electronics from the grid; and regenerated electrical energy from the motor drive electronics; and wherein the energy storage device is configured to discharge the stored energy as electrical energy to the motor drive electronics when required; and wherein the aircraft comprises current carrying components that convey electrical energy from the grid to the motor drive electronics and having a size that is reduced compared to the size of current carrying components needed to supply the peak power levels demanded by the actuator.
An imaging method for use with image-guided radiation therapy, IGRT, of a patient, the method comprising: receiving image data corresponding to a prior image of the patient, wherein the image data includes data corresponding to a region of interest, ROI; registering the prior image to the patient to obtain a registered image, wherein the registration occurs between the prior image and the patient's location on a patient support; identifying the ROI in the registered image; projecting (120; 140) ROI image data based on the prior image, using a pre-patient filter, which focuses a major portion of the radiation imaging beam on a portion of the ROI; generating (120;142) an optimized set of parameters using the projected ROI image data; and performing (120;144) a CT scan of the patient using said optimized set of parameters. receiving image data corresponding to a prior image of the patient, wherein the image data includes data corresponding to a region of interest, ROI; registering the prior image to the patient to obtain a registered image, wherein the registration occurs between the prior image and the patient's location on a patient support; identifying the ROI in the registered image; projecting (120; 140) ROI image data based on the prior image, using a pre-patient filter, which focuses a major portion of the radiation imaging beam on a portion of the ROI; generating (120;142) an optimized set of parameters using the projected ROI image data; and performing (120;144) a CT scan of the patient using said optimized set of parameters.
A polarity detection circuit, comprising: cables for connecting a first battery to a depleted battery; a polarity sensing circuit coupled to the first battery for providing an enable signal when a correct polarity connection is made between the first battery and the depleted battery; a solid state switch coupled to the polarity sensing circuit, the solid state switch permitting current flow between the first battery and the depleted battery when it receives the enable signal; and a frequency generator coupled to one of the cables and injecting a signal of a predetermined frequency into that cable; a frequency detector coupled to the other one of the cables, the frequency detector preventing the solid state switch from permitting current flow between the first battery and the depleted battery when the frequency detector ceases to detect the signal of predetermined frequency injected by the frequency generator. cables for connecting a first battery to a depleted battery; a polarity sensing circuit coupled to the first battery for providing an enable signal when a correct polarity connection is made between the first battery and the depleted battery; a solid state switch coupled to the polarity sensing circuit, the solid state switch permitting current flow between the first battery and the depleted battery when it receives the enable signal; and a frequency generator coupled to one of the cables and injecting a signal of a predetermined frequency into that cable; a frequency detector coupled to the other one of the cables, the frequency detector preventing the solid state switch from permitting current flow between the first battery and the depleted battery when the frequency detector ceases to detect the signal of predetermined frequency injected by the frequency generator.
Method for operating a cooking system comprising at least one hob device, at least one cooking utensil and at least one evaluation device, the hob device comprising at least one placement surface for placing cooking utensils and at least one generator device (6, 7, 8) having at least two induction devices for heating the cooking utensil placed on the installation surface, and the cooking utensil being suitable and designed to be heated by means of at least one induction device, at least one transmitting device being associated with each of the induction devices of the hob device and the cooking utensil comprising at least one receiving device, the transmitting devices each emitting, at least intermittently, at least one assignment signal which is received by the receiving device of the cooking utensil when the cooking utensil is heated by the corresponding induction device, characterised in that at least one transmitting device is provided by at least one induction device, in that the assignment signals of the individual induction devices comprise different predetermined sequences of electromagnetic excitations as a signature, so that the evaluation device can assign the assignment signals detected by the receiving device to the individual induction devices and can thus carry out an assignment of the cooking utensil to at least one induction device. at least one hob device, at least one cooking utensil and at least one evaluation device, the hob device comprising at least one placement surface for placing cooking utensils and at least one generator device (6, 7, 8) having at least two induction devices for heating the cooking utensil placed on the installation surface, and the cooking utensil being suitable and designed to be heated by means of at least one induction device, at least one transmitting device being associated with each of the induction devices of the hob device and the cooking utensil comprising at least one receiving device, the transmitting devices each emitting, at least intermittently, at least one assignment signal which is received by the receiving device of the cooking utensil when the cooking utensil is heated by the corresponding induction device, characterised in that at least one transmitting device is provided by at least one induction device, in that the assignment signals of the individual induction devices comprise different predetermined sequences of electromagnetic excitations as a signature, so that the evaluation device can assign the assignment signals detected by the receiving device to the individual induction devices and can thus carry out an assignment of the cooking utensil to at least one induction device.