mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine, comprising: a cover having a cover arm extending between a first arm end and a second arm end having a cover end surface , the cover arm defining a cover notch that extends from the second arm end towards a notch end surface and is disposed between a first cover lug and a second cover lug ; a support having a support body , a first support arm extending between a first support arm first end connected to the support body and a first support arm second end , the first support arm defining a support notch that extends from the first support arm first end towards a support end face and is disposed between a first support lug and a second support lug , the first cover lug being received within the support notch and the first support lug being received within the cover notch ; a first gap defined between the first support lug and the notch end surface and a second gap defined between the first cover lug and the support end face ; and a sealing member , characterized in that the sealing member extends between a first sealing member end having a first flange that is received within a groove defined by the cover arm and disposed proximate the first gap and a second sealing member end having a second flange that is received within at least one of the second gap or a groove defined by the first support arm . a cover having a cover arm extending between a first arm end and a second arm end having a cover end surface , the cover arm defining a cover notch that extends from the second arm end towards a notch end surface and is disposed between a first cover lug and a second cover lug ; a support having a support body , a first support arm extending between a first support arm first end connected to the support body and a first support arm second end , the first support arm defining a support notch that extends from the first support arm first end towards a support end face and is disposed between a first support lug and a second support lug , the first cover lug being received within the support notch and the first support lug being received within the cover notch ; a first gap defined between the first support lug and the notch end surface and a second gap defined between the first cover lug and the support end face ; and a sealing member , characterized in that the sealing member extends between a first sealing member end having a first flange that is received within a groove defined by the cover arm and disposed proximate the first gap and a second sealing member end having a second flange that is received within at least one of the second gap or a groove defined by the first support arm .
A decoring machine for decoring cast workpieces , comprising: - a machine frame , which is installable at a machine base ; - a machine table , which is coupled to the machine frame by means of a mounting bracket , wherein the machine table is mounted by means of the mounting bracket so as to be movable relative to the machine frame at least in a main direction of movement ; - a first eccentric mass , which is mounted in a rotatable manner on the machine table ; - a second eccentric mass , which is mounted in a rotatable manner on the machine table , wherein the second eccentric mass is driven in the opposite direction to the first eccentric mass ; - a workpiece carrier for receiving the cast workpiece to be decored, characterized in that the workpiece carrier is coupled to the machine table by means of a rotary mounting , wherein the rotary mounting is configured in such a way that the workpiece carrier is mounted so as to be rotatable about a horizontal axis of rotation relative to the machine table . - a machine frame , which is installable at a machine base ; - a machine table , which is coupled to the machine frame by means of a mounting bracket , wherein the machine table is mounted by means of the mounting bracket so as to be movable relative to the machine frame at least in a main direction of movement ; - a first eccentric mass , which is mounted in a rotatable manner on the machine table ; - a second eccentric mass , which is mounted in a rotatable manner on the machine table , wherein the second eccentric mass is driven in the opposite direction to the first eccentric mass ; - a workpiece carrier for receiving the cast workpiece to be decored,
A repair system for repairing a wind turbine blade mounted on a wind turbine comprising: a scanning device that is configured to gather an image and/or digital data of an erosion zone in the wind turbine blade; and a printing system that is configured to deposit a material in the erosion zone according to the image and/or digital data, said repair system further comprising a frame and wherein each of the scanning device and the printing system are mounted on the frame ; wherein one or more devices on the frame is utilised to selectively couple the repair system to the wind turbine blade prior to repair and allow the repair system to be disconnected from the wind turbine blade following repair; wherein at least a portion of each of the scanning device and the printing system are capable of translating along the frame relative to the erosion zone; said repair system further comprising a deployment system that is configured to place the repair system over or adjacent the erosion zone; said deployment system including an unmanned aerial vehicle that is configured to land the repair system on the wind turbine blade in a horizontal orientation thereof, and lift the repair system off the wind turbine blade. a scanning device that is configured to gather an image and/or digital data of an erosion zone in the wind turbine blade; and a printing system that is configured to deposit a material in the erosion zone according to the image and/or digital data, said repair system further comprising a frame and wherein each of the scanning device and the printing system are mounted on the frame ; wherein one or more devices on the frame is utilised to selectively couple the repair system to the wind turbine blade prior to repair and allow the repair system to be disconnected from the wind turbine blade following repair; wherein at least a portion of each of the scanning device and the printing system are capable of translating along the frame relative to the erosion zone; said repair system further comprising a deployment system that is configured to place the repair system over or adjacent the erosion zone; said deployment system including an unmanned aerial vehicle that is configured to land the repair system on the wind turbine blade in a horizontal orientation thereof, and lift the repair system off the wind turbine blade.
Receiving device for a system for inductive power transfer, wherein the receiving device comprises a housing, wherein the housing comprises as housing parts a cover part and a base part , wherein the housing has an inner volume for accommodating at least one winding structure , at least one of the housing parts having on an outer side at least one heat sink, wherein the receiving device comprises at least one magnetically conductive element and a secondary winding structure , wherein the magnetically conductive element is arranged in the inner volume, wherein the magnetically conductive element is arranged in a central region between two lateral edge regions of the housing, wherein the magnetically conductive element rests against an inner section of the housing wall or is connected to an inner section of the housing wall via a thermally conductive element, the inner section of the housing wall and the heat sink being arranged in the central region of the housing, wherein the heat sink is arranged in an outer section of the housing wall which is opposite the inner section, wherein the receiving device comprises at least one heat transfer element , wherein thermal energy is transferred from a lateral edge region in the inner volume to the inner section of the housing wall through the at least one heat transfer element , characterized in that the secondary winding structure is arranged in the inner volume, wherein the secondary winding structure is arranged in the central region between two lateral edge regions of the housing, wherein the heat transfer element is designed as a heat pipe , which is arranged in a guide groove of the cover part .
A hinge for a separating screen formed by at least two panels articulated around an axis of rotation X, each including a tubular frame and forming an angle α relative to one another in a usage position of said separating screen , said hinge including, on the one hand, a bent member having two lateral arms with axes (Y1, Y2) forming said angle α between them, and on the other hand coupling means between each of said lateral arms and a free end of the tubular frame of each of said panels , a first lateral arm and said coupling means further including means arranged to allow a rotational connection around said axis of rotation (X) between said coupling means and said first lateral arm , said axis of rotation (X) being perpendicular to the plane formed by the axes of the lateral arms (Y1, Y2) and the coupling means being sleeves that are independent and identical parts that can be inverted, said bent member including a bowed central portion , said central portion further having a cross-section substantially identical to that of the tubular frame of said panels of the separating screen , characterized in that said bowed central portion is bounded by two planar faces each forming a base from which one of the lateral arms respectively extends, said planar faces respectively being perpendicular to the axis (Y1) of the first lateral arm and the axis (Y2) of the second lateral arm, and in that the second lateral arm includes a receiving shaft, the longitudinal axis of which is centered relative to the corresponding planar face , around which one of the sleeves is mounted freely rotating, said second lateral arm further including means for axial positioning of said sleeve in contact with said base .
A vehicle transporter having a lower and at least one upper loading deck , the upper loading deck comprising - at least one carrying device for receiving vehicles , - two parallel longitudinal beams , which extend approximately in the longitudinal direction of the vehicle transporter and between which the carrying device is arranged and fastened thereto, - at least one front supporting device and at least one rear supporting device , which support the longitudinal beams , - the longitudinal beams being pivotally connected to the supporting devices , the longitudinal beams each having a joint , which are arranged opposite one another in the transverse direction of the vehicle transporter and in the region between the front supporting device and the rear supporting device , characterized in that the joints are designed to be fixable with a fixing device for fixing the joint position. - at least one carrying device for receiving vehicles , - two parallel longitudinal beams , which extend approximately in the longitudinal direction of the vehicle transporter and between which the carrying device is arranged and fastened thereto, - at least one front supporting device and at least one rear supporting device , which support the longitudinal beams , - the longitudinal beams being pivotally connected to the supporting devices , the longitudinal beams each having a joint , which are arranged opposite one another in the transverse direction of the vehicle transporter and in the region between the front supporting device and the rear supporting device , characterized in that the joints are designed to be fixable with a fixing device for fixing the joint position.
A stator comprising a plurality of stator elements , each stator element comprising a c-shaped core having two poles , each pole of each stator element being secured to a pole of an adjacent stator element by a bridge formed of a non-magnetic material characterized in that said bridge is moulded onto the poles, wherein each pole comprises an anchor in the form of a recess or protrusion formed on a surface of the pole, and the bridge is moulded to the anchors of the poles.
A system for launching and recovering an underwater vehicle , which system comprises a crane , two containers and a storage location for at least one underwater vehicle , characterized in that the crane is attached to the bottom of the first container and the storage location is provided in the second container , said first container being arranged on the second container during an operation of launching or an operation of recovering.
An injectate delivery system , comprising: a reservoir for holding a fluid injectate; a conduit in fluid communication with the reservoir and configured at one end to be connected to a catheter, the conduit comprising a tubing configured to receive discharged injectate from the reservoir ; an injector configured to discharge the fluid injectate from the reservoir to the conduit; a flow measurement device interposed in the conduit between the reservoir and the catheter and in line with the tubing, wherein the flow measurement device is configured for generating a signal; and a processing device adapted to receive the signal from the flow measurement device and configured to calculate a flow rate of the fluid injectate from the reservoir to the catheter based on the signal, and calculate an injectate volume based on the calculated flow rate, the calculated injectate volume is prepared to be used as input for calculating at least one transpulmonary thermodilution parameter, wherein the reservoir is a reservoir of a syringe that includes a manually operable plunger as the injector, characterized in that a sensor interposed in the conduit is configured to detect changes in pressure or temperature of the injectate and to signal a timer to start at the beginning of the injection and stop at the end of the injection to measure elapsed time of an injection. a reservoir for holding a fluid injectate; a conduit in fluid communication with the reservoir and configured at one end to be connected to a catheter, the conduit comprising a tubing configured to receive discharged injectate from the reservoir ; an injector configured to discharge the fluid injectate from the reservoir to the conduit; a flow measurement device interposed in the conduit between the reservoir and the catheter and in line with the tubing, wherein the flow measurement device is configured for generating a signal; and a processing device adapted to receive the signal from the flow measurement device and configured to calculate a flow rate of the fluid injectate from the reservoir to the catheter based on the signal, and calculate an injectate volume based on the calculated flow rate, the calculated injectate volume is prepared to be used as input for calculating at least one transpulmonary thermodilution parameter, wherein the reservoir is a reservoir of a syringe that includes a manually operable plunger as the injector, characterized in that a sensor interposed in the conduit is configured to detect changes in pressure or temperature of the injectate and to signal a timer to start at the beginning of the injection and stop at the end of the injection to measure elapsed time of an injection.
Non-drive end shield for an electric motor , - wherein a circuit board is integrated into the non-drive end shield , - wherein a converter is formed on the circuit board , - wherein the non-drive end shield has a housing which constitutes a housing of the circuit board , and - wherein the circuit board is divided into a central region and a number of toothed regions surrounding the central region , wherein planes of the toothed regions are bent with respect to a plane of the central region in a mounting position, characterized in that - the circuit board has bending points between the central region and the respective toothed regions , wherein a respective toothed region can be moved, by means of the associated bending point , between an extended state in which the plane of the respective toothed region is parallel to the plane of the central region , and a bent state in which the plane of the respective toothed region is positioned transversely with respect to the plane of the central region , and - the housing has a number of inwardly directed cooling fins. - wherein a circuit board is integrated into the non-drive end shield , - wherein a converter is formed on the circuit board , - wherein the non-drive end shield has a housing which constitutes a housing of the circuit board , and - wherein the circuit board is divided into a central region and a number of toothed regions surrounding the central region , wherein planes of the toothed regions are bent with respect to a plane of the central region in a mounting position, characterized in that - wherein a converter is formed on the circuit board , - wherein the non-drive end shield has a housing which constitutes a housing of the circuit board , and - wherein the circuit board is divided into a central region and a number of toothed regions surrounding the central region , wherein planes of the toothed regions are bent with respect to a plane of the central region in a mounting position, - the circuit board has bending points between the central region and the respective toothed regions , wherein a respective toothed region can be moved, by means of the associated bending point , between an extended state in which the plane of the respective toothed region is parallel to the plane of the central region , and a bent state in which the plane of the respective toothed region is positioned transversely with respect to the plane of the central region , and - the housing has a number of inwardly directed cooling fins.
A rotary brush washing apparatus for removing particulate matter from rotary brushes , comprising: (a) a housing ; characterizing in : (b) a carrier assembly disposed within the housing for supporting the rotary brushes for revolving about the housing and simultaneously spinning the individual rotary brushes about the axis of the individual rotary brushes; (c) a cleaning solution applicator for applying cleaning solution on the brushes as the rotary brushes revolve about the housing and simultaneously spin about the longitudinal axis of individual rotary brushes; and (d) a sprayer for applying spray on the rotary brushes for removing the particulate matter from the rotary brushes as the rotary brushes revolve about the housing and simultaneously spin about the longitudinal axes of the individual rotary brushes. (a) a housing ; (b) a carrier assembly disposed within the housing for supporting the rotary brushes for revolving about the housing and simultaneously spinning the individual rotary brushes about the axis of the individual rotary brushes; (c) a cleaning solution applicator for applying cleaning solution on the brushes as the rotary brushes revolve about the housing and simultaneously spin about the longitudinal axis of individual rotary brushes; and (d) a sprayer for applying spray on the rotary brushes for removing the particulate matter from the rotary brushes as the rotary brushes revolve about the housing and simultaneously spin about the longitudinal axes of the individual rotary brushes.
A foamable composition, comprising: a cellulose acetate having a degree of substitution of acetyl (DS Ac ) between 2.2 to 2.6; 5 to 40 wt% of a plasticizer; 0.1 to 3 wt% of a nucleating agent; 0.1 to 3 wt% a chemical blowing composition, comprises: (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer having a melting point that is no more than 150°C, wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition; and 0.1 to 25 wt% of a plurality of natural fibers having an average length of 0.1 mm to 15 mm, wherein the proportions of the cellulose acetate, plasticizer, nucleating agent, chemical blowing composition, and natural fibers are based on the total weight of the foamable composition, wherein the foamable composition is melt-processable, thermoformable and biodegradable. a cellulose acetate having a degree of substitution of acetyl (DS Ac ) between 2.2 to 2.6; 5 to 40 wt% of a plasticizer; 0.1 to 3 wt% of a nucleating agent; 0.1 to 3 wt% a chemical blowing composition, comprises: (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer having a melting point that is no more than 150°C, wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition; and (i) 25 to 75 wt% of a blowing agent, and (ii) 25 to 75 wt% of a carrier polymer having a melting point that is no more than 150°C, wherein the proportions of the blowing agent and the carrier polymer are based on the total weight of the chemical blowing composition; and 0.1 to 25 wt% of a plurality of natural fibers having an average length of 0.1 mm to 15 mm, wherein the proportions of the cellulose acetate, plasticizer, nucleating agent, chemical blowing composition, and natural fibers are based on the total weight of the foamable composition, wherein the foamable composition is melt-processable, thermoformable and biodegradable. wherein the proportions of the cellulose acetate, plasticizer, nucleating agent, chemical blowing composition, and natural fibers are based on the total weight of the foamable composition, wherein the foamable composition is melt-processable, thermoformable and biodegradable.
A hair clipper bladeset , comprising: a stationary blade having a front edge having a plurality of stationary teeth ; a moving blade including a moving front edge having a plurality of moving teeth disposed such that said moving blade teeth laterally reciprocate relative to said stationary blade teeth to form a cutting edge; a cam follower disposed upon an upper surface of said moving blade and including cam follower formations constructed and arranged for guiding said moving blade in said reciprocation, said cam follower formations are projections depending from the cam follower provided in the form of depending pairs of projecting forks; a blade guide located between said moving blade and said stationary blade, having at least one complementary blade guide formation configured for accommodating corresponding ones of said cam follower formations for creating multiple contact points constructed and arranged for maintaining alignment of said blades at said cutting edge, said at least one complementary blade guide formation including at least one projection slot ; and said cam follower engages said blade guide at contact points provided by said at least one projection slot which accommodate the reciprocating action of said depending projections . a stationary blade having a front edge having a plurality of stationary teeth ; a moving blade including a moving front edge having a plurality of moving teeth disposed such that said moving blade teeth laterally reciprocate relative to said stationary blade teeth to form a cutting edge; a cam follower disposed upon an upper surface of said moving blade and including cam follower formations constructed and arranged for guiding said moving blade in said reciprocation, said cam follower formations are projections depending from the cam follower provided in the form of depending pairs of projecting forks; a blade guide located between said moving blade and said stationary blade, having at least one complementary blade guide formation configured for accommodating corresponding ones of said cam follower formations for creating multiple contact points constructed and arranged for maintaining alignment of said blades at said cutting edge, said at least one complementary blade guide formation including at least one projection slot ; and said cam follower engages said blade guide at contact points provided by said at least one projection slot which accommodate the reciprocating action of said depending projections .