mhurhangee/patent-ind-claim-en huggingface dataset:
A side current collector device (500 - 502) for a rail vehicle , comprising: - a side current collector (100 - 103) having a rail-vehicle-side end portion and a current-collecting-rail-side end portion in substantially rigid connection with the rail vehicle-side-end portion , the side current collector (100 - 103) comprising a current collector arm forming the rail-vehicle-side end portion , a collector shoe carrier forming at least a part of the rail-vehicle-side end portion , and a collector shoe fixed to the collector shoe carrier ; - a power cable in ohmic contact with the collector shoe ; and - a flexible retaining member arranged such that the current-collecting-rail-side end portion is retained to the rail-vehicle-side end portion via the flexible retaining member when the substantially rigid connection between the current-collecting-rail-side end portion and the rail-vehicle-side end portion is disconnected. - a side current collector (100 - 103) having a rail-vehicle-side end portion and a current-collecting-rail-side end portion in substantially rigid connection with the rail vehicle-side-end portion , the side current collector (100 - 103) comprising a current collector arm forming the rail-vehicle-side end portion , a collector shoe carrier forming at least a part of the rail-vehicle-side end portion , and a collector shoe fixed to the collector shoe carrier ; - a power cable in ohmic contact with the collector shoe ; and - a flexible retaining member arranged such that the current-collecting-rail-side end portion is retained to the rail-vehicle-side end portion via the flexible retaining member when the substantially rigid connection between the current-collecting-rail-side end portion and the rail-vehicle-side end portion is disconnected.
A semiconductor package comprising: a first die comprising a first bridge interconnect region ; a second die comprising a second bridge interconnect region ; a bridge die comprising a first contact area to connect to the first bridge interconnect region and a second contact area to connect to the second bridge interconnect region , wherein the first bridge interconnect region is larger than the second bridge interconnect region ; each of the first bridge interconnect region and the second bridge interconnect region comprise a plurality of conductive bumps ; and an average pitch between adjacent bumps of the first bridge interconnect region is larger than an average pitch between adjacent bumps of the second bridge interconnect region . a first die comprising a first bridge interconnect region ; a second die comprising a second bridge interconnect region ; a bridge die comprising a first contact area to connect to the first bridge interconnect region and a second contact area to connect to the second bridge interconnect region , wherein the first bridge interconnect region is larger than the second bridge interconnect region ; each of the first bridge interconnect region and the second bridge interconnect region comprise a plurality of conductive bumps ; and an average pitch between adjacent bumps of the first bridge interconnect region is larger than an average pitch between adjacent bumps of the second bridge interconnect region .
Earth conductor monitoring device for monitoring an earth conductor in the sense of a protective conductor via which an electrical appliance is earthed: a) at least one earth conductor connection , which is set up for connecting an earth conductor potential (PE) of the earth conductor, b) at least one first potential connection , which is set up for connecting a first electrical potential (0 V) that is different from the earth conductor potential (PE), c) at least one second potential connection , which is set up for connecting a second electrical potential (U b ) that differs from the first potential (0 V) and the earth conductor potential (PE), d) at least one electrical switching device which is set up to selectively establish (connection state) or interrupt (interruption state) an electrical connection between the first potential connection and the earth conductor connection as a function of an electrical control signal, e) at least one control device , which is set up to automatically emit control signals to the electrical switching device , characterized in that the electrical signals at the earth conductor connection are evaluated without measuring the current in the earth conductor. a) at least one earth conductor connection , which is set up for connecting an earth conductor potential (PE) of the earth conductor, b) at least one first potential connection , which is set up for connecting a first electrical potential (0 V) that is different from the earth conductor potential (PE), c) at least one second potential connection , which is set up for connecting a second electrical potential (U b ) that differs from the first potential (0 V) and the earth conductor potential (PE), d) at least one electrical switching device which is set up to selectively establish (connection state) or interrupt (interruption state) an electrical connection between the first potential connection and the earth conductor connection as a function of an electrical control signal, e) at least one control device , which is set up to automatically emit control signals to the electrical switching device ,
A method for attaching a hardware component to a garment , the method comprising: providing a garment comprising a layer of fabric ; providing the hardware component with an operative component and an adhesive surface ; forming an opening in the layer of fabric , wherein the size and shape of the opening are configured to permit at least a portion of the operative component to be inserted therethrough; bonding the adhesive surface to a corresponding interior surface of the fabric layer using an adhesive located between the adhesive surface and the corresponding interior surface of the fabric layer ; and projecting at least a portion of the operative component through an opening in the fabric layer from an interior of the fabric layer to an exterior of the garment . providing a garment comprising a layer of fabric ; providing the hardware component with an operative component and an adhesive surface ; forming an opening in the layer of fabric , wherein the size and shape of the opening are configured to permit at least a portion of the operative component to be inserted therethrough; bonding the adhesive surface to a corresponding interior surface of the fabric layer using an adhesive located between the adhesive surface and the corresponding interior surface of the fabric layer ; and projecting at least a portion of the operative component through an opening in the fabric layer from an interior of the fabric layer to an exterior of the garment .
A torque wrench comprising: a body including a head portion and a rod portion , wherein an end of the rod portion is connected with the head portion ; and a measuring device including a strain gauge seat and a strain gauge , wherein the strain gauge seat is arranged in the rod portion and is provided with a first recess and a deformation portion adjacent to the first recess , wherein the strain gauge is connected to the deformation portion , wherein the strain gauge seat is provided with an abutting portion , the abutting portion has a raised structure with a convex arc surface, characterised in that an inner periphery of the first recess is provided with a first face and a second face faced to the first face , and wherein a side of the deformation portion adjacent to the first recess is provided with a third face arranged between the first face and the second face , and the strain gauge seat is provided with a first leg and a second leg , wherein the first recess is arranged between the first leg and the second leg , wherein the first leg and the second leg are respectively integrally connected to the deformation portion as a monolithic structure, wherein the first face is arranged at a side of the first leg adjacent to the first recess , wherein the second face is arranged at a side of the second leg adjacent to the first recess , and wherein the first face and the second face are respectively connected to two opposite sides of the third face . a body including a head portion and a rod portion , wherein an end of the rod portion is connected with the head portion ; and a measuring device including a strain gauge seat and a strain gauge , wherein the strain gauge seat is arranged in the rod portion and is provided with a first recess and a deformation portion adjacent to the first recess , wherein the strain gauge is connected to the deformation portion , wherein the strain gauge seat is provided with an abutting portion , the abutting portion has a raised structure with a convex arc surface, characterised in that an inner periphery of the first recess is provided with a first face and a second face faced to the first face , and wherein a side of the deformation portion adjacent to the first recess is provided with a third face arranged between the first face and the second face , and the strain gauge seat is provided with a first leg and a second leg , wherein the first recess is arranged between the first leg and the second leg , wherein the first leg and the second leg are respectively integrally connected to the deformation portion as a monolithic structure, wherein the first face is arranged at a side of the first leg adjacent to the first recess , wherein the second face is arranged at a side of the second leg adjacent to the first recess , and wherein the first face and the second face are respectively connected to two opposite sides of the third face .
Method for operating an automated analysis device in a standby mode, the automated analysis device comprising a central control unit and a standby control unit , the method having the following method steps: - starting up the standby control unit , - storing at least one established system state of the automated analysis device in the central control unit, and - shutting down the central control unit . - starting up the standby control unit , - storing at least one established system state of the automated analysis device in the central control unit, and - shutting down the central control unit .
A panel lamp, comprising a frame , a lamp panel , a light guide plate , a reflective sheet , a lampshade and a rib supporting the lampshade wherein there is a clearance between the light guide plate and the lampshade ; wherein the frame is provided with a strut member , and the strut member comprises a horizontal portion for supporting the lamp panel and a tilting portion for blocking light spots of the lamp panel, characterized in that there is a clamping slot on the lampshade where the rib is embedded to lock the lampshade , and a limit slot is also arranged between the lampshade and the frame ; the strut member further comprises a vertical portion , the vertical portion is connected with the horizontal portion and the vertical portion is embedded in the limit slot to lock the strut member .
A method of configuring a local brain stimulation tool, the method comprising: obtaining a reference brain network activity pattern , and a brain network activity pattern describing a neurophysiological state of the subject, each of said brain network activity patterns having a plurality of nodes and each node representing a brain location and at least one brain wave frequency; comparing said brain network activity patterns ; and characterized in that the method comprises: configuring the local brain stimulation tool to apply local brain stimulation at a frequency and a location, both selected based on said comparison ; wherein said comparison is node-wise, and wherein said selected location corresponds to a node that exists in said reference and missing in said brain network activity pattern describing said neurophysiological state of the subject. obtaining a reference brain network activity pattern , and a brain network activity pattern describing a neurophysiological state of the subject, each of said brain network activity patterns having a plurality of nodes and each node representing a brain location and at least one brain wave frequency; comparing said brain network activity patterns ; and characterized in that the method comprises: configuring the local brain stimulation tool to apply local brain stimulation at a frequency and a location, both selected based on said comparison ; wherein said comparison is node-wise, and wherein said selected location corresponds to a node that exists in said reference and missing in said brain network activity pattern describing said neurophysiological state of the subject. configuring the local brain stimulation tool to apply local brain stimulation at a frequency and a location, both selected based on said comparison ; wherein said comparison is node-wise, and wherein said selected location corresponds to a node that exists in said reference and missing in said brain network activity pattern describing said neurophysiological state of the subject.
Wave winding production device for producing wave winding wires for a coil winding of an electric machine via flat winding, comprising: a linear guide mechanism and a row of shaping elements (14.1, 14.2) each having a holder for holding a straight wire section of a wire to be bent and a bending mold for shaping a wave winding head region between the straight wire sections , the shaping elements (14.1, 14.2) being linearly movable relative to each other on the linear guide mechanism and rotatably mounted about a respective axis of rotation in such a way that, from an initial position in which the holders of the shaping elements (14. 1, 14.2) are aligned with respect to one another, respectively neighboring shaping elements (14.1, 14.2) rotate in mutually opposite directions and the shaping elements (14.1, 14.2) thereby approach one another with their axes of rotation in order to form a meandering wave winding wire with straight wire sections and chevron-shaped wave winding heads in between from the wire held in the holders , wherein the linear guide mechanism comprises a first linear guide and a second linear guide , characterized in that the spacing between the first linear guide and the second linear guide to each other is variable, wherein further a converter mechanism for converting a change in the spacing of the first linear guide and the second linear guide into the rotational movement of the shaping elements (14.1, 14.2) is provided. a linear guide mechanism and a row of shaping elements (14.1, 14.2) each having a holder for holding a straight wire section of a wire to be bent and a bending mold for shaping a wave winding head region between the straight wire sections , the shaping elements (14.1, 14.2) being linearly movable relative to each other on the linear guide mechanism and rotatably mounted about a respective axis of rotation in such a way that, from an initial position in which the holders of the shaping elements (14. 1, 14.2) are aligned with respect to one another, respectively neighboring shaping elements (14.1, 14.2) rotate in mutually opposite directions and the shaping elements (14.1, 14.2) thereby approach one another with their axes of rotation in order to form a meandering wave winding wire with straight wire sections and chevron-shaped wave winding heads in between from the wire held in the holders , wherein the linear guide mechanism comprises a first linear guide and a second linear guide , characterized in that the spacing between the first linear guide and the second linear guide to each other is variable, wherein further a converter mechanism for converting a change in the spacing of the first linear guide and the second linear guide into the rotational movement of the shaping elements (14.1, 14.2) is provided.
A method for providing a slush beverage to a consumer, comprising: storing in a temperature regulated compartment of a beverage dispenser a beverage container containing a beverage at a predetermined temperature at or below a freezing point of the beverage without consumer access to the beverage container ; receiving, by the beverage dispenser , a consumer selection for a beverage; based on the consumer selection, agitating the beverage container via an agitator of the beverage dispenser such that the beverage within the beverage container undergoes nucleation to form a slush beverage, wherein agitating the beverage container comprises subjecting the beverage container to a gravitational drop onto a platform ; and providing the beverage container to the consumer via a delivery portal of the beverage dispenser after agitating the beverage container . storing in a temperature regulated compartment of a beverage dispenser a beverage container containing a beverage at a predetermined temperature at or below a freezing point of the beverage without consumer access to the beverage container ; receiving, by the beverage dispenser , a consumer selection for a beverage; based on the consumer selection, agitating the beverage container via an agitator of the beverage dispenser such that the beverage within the beverage container undergoes nucleation to form a slush beverage, wherein agitating the beverage container comprises subjecting the beverage container to a gravitational drop onto a platform ; and providing the beverage container to the consumer via a delivery portal of the beverage dispenser after agitating the beverage container .
A semiconductor device comprising: a first impurity region N + formed between element isolation regions on both sides of a gate electrode formed on an upper surface of a semiconductor substrate where the element isolation regions and the first impurity region are formed so that both ends of the gate electrode are respectively overlapped with the element isolation regions on both sides and the gate electrode is separated from the first impurity region by a predetermined distance along a planar direction; and a second impurity region N - formed on the semiconductor substrate between the gate electrode and the first impurity region in plan view as having the same conductivity type as the first impurity region , characterised in that there are at least two kinds of separation distances between the gate electrode and the first impurity region formed by the second impurity region along the planar direction, that is, a first distance (d1) and a second distance (d2), and the separation distance of a portion having contact with at least one of the element isolation regions is the second distance (d2) longer than the first distance (d1). a first impurity region N + formed between element isolation regions on both sides of a gate electrode formed on an upper surface of a semiconductor substrate where the element isolation regions and the first impurity region are formed so that both ends of the gate electrode are respectively overlapped with the element isolation regions on both sides and the gate electrode is separated from the first impurity region by a predetermined distance along a planar direction; and a second impurity region N - formed on the semiconductor substrate between the gate electrode and the first impurity region in plan view as having the same conductivity type as the first impurity region , characterised in that there are at least two kinds of separation distances between the gate electrode and the first impurity region formed by the second impurity region along the planar direction, that is, a first distance (d1) and a second distance (d2), and the separation distance of a portion having contact with at least one of the element isolation regions is the second distance (d2) longer than the first distance (d1).
A fixation device configured for intravascular delivery and for use in treating mitral valve defects, the device comprising: a pair of proximal elements each having a proximal engagement surface between a first end coupled to a body and a free second end, the engagement surface comprising frictional elements ; a pair of distal elements each having a distal engagement surface between a first end pivotally coupled to the body and a free second end ; and a first one of the proximal elements cooperating with a first one of the distal elements to form a space for receiving a portion of mitral valve tissue therebetween, and a second one of the proximal elements cooperating with a second one of the distal elements to form a space for receiving a portion of the mitral valve tissue therebetween; characterised in that each distal element further comprises a retaining element extending in an elongate fashion from a proximal portion of the distal engagement surface to a location distal a midpoint of the distal engagement surface , the retaining element having a fixed proximal end mounted to the distal engagement surface and a free distal end spaced apart from the distal engagement surface , each retaining element being configured to cooperate with a corresponding frictional element on the cooperating proximal element to capture a free edge of the mitral valve tissue, the retaining element being configured to urge the tissue against the frictional elements of the cooperating proximal element . a pair of proximal elements each having a proximal engagement surface between a first end coupled to a body and a free second end, the engagement surface comprising frictional elements ; a pair of distal elements each having a distal engagement surface between a first end pivotally coupled to the body and a free second end ; and a first one of the proximal elements cooperating with a first one of the distal elements to form a space for receiving a portion of mitral valve tissue therebetween, and a second one of the proximal elements cooperating with a second one of the distal elements to form a space for receiving a portion of the mitral valve tissue therebetween; characterised in that each distal element further comprises a retaining element extending in an elongate fashion from a proximal portion of the distal engagement surface to a location distal a midpoint of the distal engagement surface , the retaining element having a fixed proximal end mounted to the distal engagement surface and a free distal end spaced apart from the distal engagement surface , each retaining element being configured to cooperate with a corresponding frictional element on the cooperating proximal element to capture a free edge of the mitral valve tissue, the retaining element being configured to urge the tissue against the frictional elements of the cooperating proximal element .