mhurhangee/ep-ind-claims huggingface dataset:
Planetary gear train comprising a device for connecting two machine parts (3, 5) made of metal that can be rotated about the same axis, comprising - a first machine part, - a second machine part, - one of the two machine parts (3, 5) being a planet carrier having receptacles for planet pins, planet pins being accommodated in the receptacles, which pins support planet gears, and - the first machine part having an internal thread and the second machine part having an external thread, and - adhesive which is arranged between the internal thread and the external thread, - the first machine part and/or the second machine part being mounted with one or more rolling bearings (21, 23), characterised in that - a diameter of an orbit of peripheries of the planet pins that is radially outer with respect to a gear axis of the planetary gear train is greater than a bearing inner diameter (d) of the rolling bearings (21, 23). - a first machine part, - a second machine part, - one of the two machine parts (3, 5) being a planet carrier having receptacles for planet pins, planet pins being accommodated in the receptacles, which pins support planet gears, and - the first machine part having an internal thread and the second machine part having an external thread, and - adhesive which is arranged between the internal thread and the external thread, - the first machine part and/or the second machine part being mounted with one or more rolling bearings (21, 23), characterised in that - a diameter of an orbit of peripheries of the planet pins that is radially outer with respect to a gear axis of the planetary gear train is greater than a bearing inner diameter (d) of the rolling bearings (21, 23).
A compound having the structure of Formula I: or a pharmaceutically acceptable salt, pharmaceutically acceptable co-crystal, stereoisomer, mixture of stereoisomers or tautomer thereof, wherein: R 1 is selected from the group consisting of and wherein * indicates the carbon atom of the indicated phenyl ring of Formula I to which R 1 is attached; R 2 is H or 2-hydroxyethoxyl; R 3 is H or methyl; and R 4 is H or methyl. R 1 is selected from the group consisting of and wherein * indicates the carbon atom of the indicated phenyl ring of Formula I to which R 1 is attached; R 2 is H or 2-hydroxyethoxyl; R 3 is H or methyl; and R 4 is H or methyl.
The use of a multi-component system comprising a) a polyorganosiloxane b) a polyhydrogen organosiloxane c) a photoactivatable catalyst d) a blowing agent the polyhydrogen organosiloxane b) being assigned to a first component I) and the photoactivatable catalyst c) to a second component II), which components are spatially separated from one another, for producing a seal foamed in situ on a component part, a reaction mixture that results by mixing the components of the multi-component system being irradiated with light, characterized in that the blowing agent d) is a compound having at least one hydroxyl group or a mixture of compounds having hydroxyl groups. a) a polyorganosiloxane b) a polyhydrogen organosiloxane c) a photoactivatable catalyst d) a blowing agent
A fuel tank system comprising: a saddle fuel tank having a first lobe and a second lobe; a control module; a first solenoid; a second solenoid; a first vent line having a first vent port located in the first lobe of the saddle fuel tank, the first solenoid configured to open and close the first vent port; a second vent line having a second vent port located in the second lobe lobe of the saddle fuel tank, the second solenoid configured to open and close the second vent port, wherein the first and second vent ports (136, 138) are positioned near a top portion of the saddle fuel tank and a liquid trap, wherein the first and second vent lines (132, 134) are routed between the respective first and second vent ports (136, 138) and the liquid trap, wherein the control module sends a signal to the first and second solenoids (122, 124) to close the first and second vent ports (136, 138) upon reaching a full fuel condition. a saddle fuel tank having a first lobe and a second lobe; a control module; a first solenoid; a second solenoid; a first vent line having a first vent port located in the first lobe of the saddle fuel tank, the first solenoid configured to open and close the first vent port; a second vent line having a second vent port located in the second lobe lobe of the saddle fuel tank, the second solenoid configured to open and close the second vent port, wherein the first and second vent ports (136, 138) are positioned near a top portion of the saddle fuel tank and a liquid trap, wherein the first and second vent lines (132, 134) are routed between the respective first and second vent ports (136, 138) and the liquid trap, wherein the control module sends a signal to the first and second solenoids (122, 124) to close the first and second vent ports (136, 138) upon reaching a full fuel condition.
Power control apparatus for controlling an electric machine in a vehicle trailer, the electric machine being coupled to at least one wheel of the vehicle trailer in order to be able to convert mechanical rotation power at the wheel and electric power at the electric machine into one another; wherein the power control apparatus is configured to control a mechanical power delivery and/or a mechanical power consumption of the electric machine; wherein the power control apparatus is configured to control the mechanical power delivery and/or the mechanical power consumption of the electric machine on the basis of a present driving state of a towing vehicle towing the vehicle trailer, wherein the vehicle trailer has a drawbar for connection to the towing vehicle and for transmitting forces between the towing vehicle and the vehicle trailer, wherein the power control apparatus has an electromechanical sensor arrangement that takes a force currently transmitted by the drawbar or takes a present relative distance between the towing vehicle and the trailer as a basis for generating a sensor signal for controlling the mechanical power delivery and/or the mechanical power consumption of the electric machine, characterized in that there is provision on the drawbar for a deflection lever that is displaced into different orientations on the basis of a relative distance between the towing vehicle and the trailer, wherein the sensor arrangement generates the sensor signal on the basis of the present orientation of the deflection lever. wherein the power control apparatus is configured to control a mechanical power delivery and/or a mechanical power consumption of the electric machine; wherein the power control apparatus is configured to control the mechanical power delivery and/or the mechanical power consumption of the electric machine on the basis of a present driving state of a towing vehicle towing the vehicle trailer, wherein the vehicle trailer has a drawbar for connection to the towing vehicle and for transmitting forces between the towing vehicle and the vehicle trailer, wherein the power control apparatus has an electromechanical sensor arrangement that takes a force currently transmitted by the drawbar or takes a present relative distance between the towing vehicle and the trailer as a basis for generating a sensor signal for controlling the mechanical power delivery and/or the mechanical power consumption of the electric machine, characterized in that there is provision on the drawbar for a deflection lever that is displaced into different orientations on the basis of a relative distance between the towing vehicle and the trailer, wherein the sensor arrangement generates the sensor signal on the basis of the present orientation of the deflection lever.
Unit, consisting of a sanitary mounting part, which is releasably held on a sanitary water outlet fitting on the outlet side by means of a screw or bayonet connection, and of a rotary tool for releasing and fastening the sanitary mounting part, wherein the rotary tool can be placed on the sanitary mounting part for conjoint rotation therewith and is formed as a mounting part housing or as an intermediate holder intended to fasten a jet regulator in the water outlet of a sanitary outlet fitting, which mounting part housing or which intermediate holder has an end-face profile or contour which can be placed for conjoint rotation on a counter-profile or counter-contour (25, 24) provided on the outlet end face of the mounting part which is held on the water outlet fitting, characterised in that the end face profile or contour of the rotary tool is adapted at least in regions to the counter-profile or counter-contour of the mounting part such that these parts (5, 5') can, in this region, be inserted one inside the other and can be connected to one another for conjoint rotation.
Plug-in connector part for plug-connection to an associated mating plug-in connector part (30, 31) for a charging system for charging an electric vehicle, comprising a housing part, a plug-in face which is formed on the housing part and by means of which the plug-in connector part can be plug-connected to the mating plug-in connector part (30, 31) and on which a plurality of contact elements (42, 45, 46, 47) for electrical connection to the mating plug-in connector part (30, 31) are arranged, comprising a printed circuit board on which at least one electrical or electronic functional component (416, 417) is arranged, and comprising a load contact carrier which is connected to the housing part and on which a first contact element of the plurality of contact elements (42, 45, 46, 47) is arranged, wherein the printed circuit board has a first opening through which the first contact element is extended, wherein the printed circuit board has at least one first contact spring for making thermal and/or electrical contact with the first contact element and at least one second contact spring for making thermal and/or electrical contact with a second contact element of the plurality of contact elements (42, 45, 46, 47), characterized by a signal contact carrier which passes through the printed circuit board at a first passage opening for fixing the second contact element to the housing part, wherein, for the purpose of assembling the plug-in connector part, the printed circuit board, together with the signal contact carrier and the load contact carrier, is inserted into a receiving space of the housing part in such a way that the printed circuit board, by way of the at least one second contact spring, comes in contact with an end of the at least one second contact element.
Rapier wheel for a rapier weaving machine having an inner ring, an outer ring, and a number of spokes (22, 23), wherein the inner ring is configured for mounting the inner ring to a drive shaft, wherein the outer ring is provided with teeth configured for engaging with a rapier for driving the rapier, wherein the spokes (22, 23) extend between the inner ring and the outer ring and connect the inner ring with the outer ring, wherein the spokes (22, 23) are arranged crosswise in pairs of spokes comprising a first spoke and a second spoke, and wherein the first spoke and the second spoke extend in opposite directions and cross each other at a crossing point between the inner ring and the outer ring, characterized in that the first spoke and the second spoke are each convexly curved toward the outer ring.
A system comprising: a bendable, pre-formed lead body (210, 210A, 210B) operable to be implanted proximate a neural pathway of a patient; a first electrode (214, 216) comprising a plurality of first segments at a first longitudinal location of the lead body; a second electrode (214, 216) comprising a plurality of second segments at a second longitudinal location of the lead body and; a signal generator electrically coupled to at least one of the first and second electrodes (214, 216); and a processor coupled to the signal generator and operable to apply a stimulation signal to at least one of the first and second electrodes (214, 216), characterized in that the first electrode (214, 216) is configured to be positioned at a lateral epidural region proximate at least one nerve root of the patient, and the second electrode (214, 216) is configured to be positioned along a midline of the patient's spinal column, wherein the system further comprises a sensing circuit configured to sense biopotentials, wherein the signal generator is electrically coupled to one of the first and second electrodes (214, 216) and the sensing circuit is operable coupled to the other of the first and second electrodes (214, 216). a bendable, pre-formed lead body (210, 210A, 210B) operable to be implanted proximate a neural pathway of a patient; a first electrode (214, 216) comprising a plurality of first segments at a first longitudinal location of the lead body; a second electrode (214, 216) comprising a plurality of second segments at a second longitudinal location of the lead body and; a signal generator electrically coupled to at least one of the first and second electrodes (214, 216); and a processor coupled to the signal generator and operable to apply a stimulation signal to at least one of the first and second electrodes (214, 216), wherein the system further comprises a sensing circuit configured to sense biopotentials, wherein the signal generator is electrically coupled to one of the first and second electrodes (214, 216) and the sensing circuit is operable coupled to the other of the first and second electrodes (214, 216).
An apparatus, comprising: a catheter having a proximal end and a distal end; a spring member (20, 120, 220) having a proximal end and a distal end, said proximal end of said spring member (20, 120, 220) being affixed to said distal end of said catheter, said spring member (20, 120, 220) comprising a compression spring; a pulling member housed within said catheter, said pulling member having a proximal end and a distal end, said distal end of said pulling member affixed to a distal structure selected from the group consisting of said spring member (20, 120, 220) and said drilling component (30, 130, 230); characterized in a drilling component (30, 130, 230) contiguous with said distal end of said spring member (20, 120, 220) and functionally attached thereto, said drilling component (30, 130, 230) comprising a spring having at least two tightly packed neighboring coils extending to a distal most end of the apparatus. a catheter having a proximal end and a distal end; a spring member (20, 120, 220) having a proximal end and a distal end, said proximal end of said spring member (20, 120, 220) being affixed to said distal end of said catheter, said spring member (20, 120, 220) comprising a compression spring; a pulling member housed within said catheter, said pulling member having a proximal end and a distal end, said distal end of said pulling member affixed to a distal structure selected from the group consisting of said spring member (20, 120, 220) and said drilling component (30, 130, 230); characterized in a drilling component (30, 130, 230) contiguous with said distal end of said spring member (20, 120, 220) and functionally attached thereto, said drilling component (30, 130, 230) comprising a spring having at least two tightly packed neighboring coils extending to a distal most end of the apparatus.
A method of creating an atmospheric lens element (40, 44) operative to modify a physical electromagnetic radiation path, the method comprising dividing an atmospheric volume into a matrix of three dimensional portions, propelling a quantity of particulate solid material into said atmospheric volume, applying electromagnetic radiation to a selected plurality of the three-dimensional portions of the atmospheric volume so as to heat and/or ionise air within said portions thereby to define the atmospheric lens element to modify the physical electromagnetic radiation path, wherein said selected portions are spatially located together in a substantially unbroken three-dimensional configuration.
A thrombolytic agent for use in the treatment of thromboembolism, wherein the treatment comprises administering the thrombolytic agent directly to the thromboembolism in the presence of ultrasound, wherein the total dose of thrombolytic agent administered is between 0.1 and 0.9 mg and the time over which the total dose is delivered is 1 hour or less.
A method for configuring a remote control to command the operation of an appliance, wherein the method is carried out by a remote control, the method comprising: receiving at the remote control data that functions to identify the appliance; using the data to retrieve command codes from a database located locally with respect to the remote control; if the appliance is determined to respond to the command codes from the locally stored database, using the retrieved, locally stored command codes in the remote control to command the operation of the appliance; the method being characterised in that it further comprises: if the appliance is determined to not respond to the command codes from the locally stored database, using the data to access and receive command codes from a database located remotely with respect to the remote control and, if the appliance is then determined to respond to the command codes received from the remotely stored database, using the received, remotely stored command codes in the remote control to command the operation of the appliance. receiving at the remote control data that functions to identify the appliance; using the data to retrieve command codes from a database located locally with respect to the remote control; if the appliance is determined to respond to the command codes from the locally stored database, using the retrieved, locally stored command codes in the remote control to command the operation of the appliance; the method being characterised in that it further comprises: if the appliance is determined to not respond to the command codes from the locally stored database, using the data to access and receive command codes from a database located remotely with respect to the remote control and, if the appliance is then determined to respond to the command codes received from the remotely stored database, using the received, remotely stored command codes in the remote control to command the operation of the appliance. if the appliance is determined to not respond to the command codes from the locally stored database, using the data to access and receive command codes from a database located remotely with respect to the remote control and, if the appliance is then determined to respond to the command codes received from the remotely stored database, using the received, remotely stored command codes in the remote control to command the operation of the appliance.
A method for preparing an anode active material comprising a core composed of a crystalline carbon-based material, and a composite coating layer composed of one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon, and silicon oxide enabling intercalation and deintercalation of ions, the method comprising: (a) mixing a precursor for a raw material of the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon with silicon oxide enabling intercalation and deintercalation of ions, followed by purification, to prepare a mixture for coating; (b) mixing the mixture for coating with a crystalline carbon-based material to prepare a core-shell precursor comprising the raw material mixture for coating applied to the core composed of the crystalline carbon-based material; and (c) baking the core-shell precursor to carbonize the raw material of the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon into the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon. (a) mixing a precursor for a raw material of the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon with silicon oxide enabling intercalation and deintercalation of ions, followed by purification, to prepare a mixture for coating; (b) mixing the mixture for coating with a crystalline carbon-based material to prepare a core-shell precursor comprising the raw material mixture for coating applied to the core composed of the crystalline carbon-based material; and (c) baking the core-shell precursor to carbonize the raw material of the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon into the one or more materials selected from the group consisting of low crystalline carbon and amorphous carbon.
A method of injecting fluid into a well comprising: providing a valve assembly having a temporary lock out mode, an upper flow tube and lower flow tube, a flapper valve and a valve seat, placing the valve assembly in a temporary lock out mode, by positioning the lower flow tube to extend beyond the valve seat thereby maintaining the flapper valve in an open position; positioning the valve assembly on a tubing and running the tubing into the well, injecting fluid into the valve assembly thereby opening the flapper valve, and closing the flapper valve by termination the flow of fluid into the valve assembly characterized in that the valve assembly also comprises a retrievable orifice selective lock assembly, and in that the lower flow tube defines a shifting profile (38, 39) and is positioned within an elongated sleeve portion of the upper flow tube, and in that, prior to injecting the fluid into the valve assembly, the method comprises: shifting the lower flow tube to a retracted position within the sleeve portion by means of the shifting profile (38, 39), and then running the retrievable orifice selective lock assembly into the valve assembly. providing a valve assembly having a temporary lock out mode, an upper flow tube and lower flow tube, a flapper valve and a valve seat, placing the valve assembly in a temporary lock out mode, by positioning the lower flow tube to extend beyond the valve seat thereby maintaining the flapper valve in an open position; positioning the valve assembly on a tubing and running the tubing into the well, injecting fluid into the valve assembly thereby opening the flapper valve, and closing the flapper valve by termination the flow of fluid into the valve assembly shifting the lower flow tube to a retracted position within the sleeve portion by means of the shifting profile (38, 39), and then running the retrievable orifice selective lock assembly into the valve assembly.
A disposable container for a cosmetics preparation comprising a body formed of a substantially cylindrical side wall and a circular base integral with said side wall, said side wall and said base defining a reservoir for retaining the cosmetic preparation, first and second tabs or radially extending members extending in substantially opposite directions from said base, in the plane of said base, said base having a bottom exterior surface, each of said tabs or radially extending members having an exterior bottom surface, said bottom surface of said base and said bottom surfaces of said tabs or radially extending members together forming the exterior bottom surface of said body, a layer of adhesive situated on said exterior bottom surface of said body, except on said bottom surfaces of said tabs or radially extending members and a removable protective layer situated over said adhesive layer, said protective layer comprising a circular central portion aligned with said base, and first and second portions extending outwardly from said central portion of said protective layer and aligned with said first and second tabs or radially extending members, respectively.