mhurhangee/ep-ind-claims huggingface dataset:
Cleaning device for hollow instrument cleaning for medical product cleaning and for the operating theatre, comprising a screen basket with apertures and basket adapter and a medium distributor with medium distributor adapter (4, 34) and medium space, whereby the basket adapters and the medium distributor adapters are matched to one another, characterised in that the cleaning device at least has a fixing part, whereby the fixing part comprises a manually rotatable support axle, pin, rod or bolt and this being mounted on the outside of a medium wall (17, 78) of the medium distributor or is guided through and held by the wall (17, 78) of the medium space of the medium distributor so that a pressing force of the fixing part with the medium distributor with a screen basket wall, a screen basket base or a support surface fastened to one of these can be at least manually controlled, and thereby a coupling of couplable basket adapters with medium distribution adapters (4, 34) is effected in such a way that adapter channels (52, 62) are coupled to one another.
A method for training machine-learned module, the method characterized by evaluating the machine-learned module using a two-phase evaluation process, the evaluating comprising: performing, using pre-segmented data, a segmented classification task using the machine-learned module to evaluate an error associated with classification of multiple gestures, the pre-segmented data comprising complex radar data having multiple gesture segments, each gesture segment of the multiple gesture segments comprising a gesture motion, centers of gesture motions across the multiple gesture segments having a same relative timing alignment within each gesture segment; performing, using continuous time-series data, an unsegmented recognition task using the machine-learned module to evaluate a false positive rate, the continuous time-series data comprising other complex radar data (502-1 - 502-M) and adjusting one or more elements of the machine-learned module to reduce the error and the false positive rate, those elements include an overall architecture of the ambient-computing machine-learned module, the training data and/or the hyperparameters. evaluating the machine-learned module using a two-phase evaluation process, the evaluating comprising: performing, using pre-segmented data, a segmented classification task using the machine-learned module to evaluate an error associated with classification of multiple gestures, the pre-segmented data comprising complex radar data having multiple gesture segments, each gesture segment of the multiple gesture segments comprising a gesture motion, centers of gesture motions across the multiple gesture segments having a same relative timing alignment within each gesture segment; performing, using continuous time-series data, an unsegmented recognition task using the machine-learned module to evaluate a false positive rate, the continuous time-series data comprising other complex radar data (502-1 - 502-M) and adjusting one or more elements of the machine-learned module to reduce the error and the false positive rate, those elements include an overall architecture of the ambient-computing machine-learned module, the training data and/or the hyperparameters.
A heating element comprising: an electrode array comprising first and second interdigitated electrodes; wherein the first electrode (12 P) is configured to have a first polarity; wherein the second electrode (12 N) is configured to have a second polarity; and wherein the electrode array substantially encloses a plurality of regions (R1,R2,R3,R4,R5); and a heating surface comprising at least one layer of a carbon allotrope material, the carbon allotrope material having a first electrical resistance; wherein the electrode array is in electrical communication with the carbon allotrope material; the heating element being characterised in that said layer of carbon allotrope material comprises a carbon nanotube nonwoven sheet material, and in that the interdigitated electrodes are formed from a carbon allotrope material that is more conductive than the carbon allotrope layer of the heating surface. an electrode array comprising first and second interdigitated electrodes; wherein the first electrode (12 P) is configured to have a first polarity; wherein the second electrode (12 N) is configured to have a second polarity; and wherein the electrode array substantially encloses a plurality of regions (R1,R2,R3,R4,R5); and wherein the first electrode (12 P) is configured to have a first polarity; wherein the second electrode (12 N) is configured to have a second polarity; and wherein the electrode array substantially encloses a plurality of regions (R1,R2,R3,R4,R5); and a heating surface comprising at least one layer of a carbon allotrope material, the carbon allotrope material having a first electrical resistance; wherein the electrode array is in electrical communication with the carbon allotrope material; the heating element being characterised in that said layer of carbon allotrope material comprises a carbon nanotube nonwoven sheet material, and in that the interdigitated electrodes are formed from a carbon allotrope material that is more conductive than the carbon allotrope layer of the heating surface.
A woven fabric base cloth for a material, which is composed of fibers having a yarn tenacity of 6.6 cN/dtex to 8.5 cN/dtex when dissembled from the base cloth, and in which a cloth surface is not subjected to resin coating, lamination, or a resin impregnation treatment, characterized in that in a force strain curve of the woven fibers obtained by Edgecomb Resistance measurement in accordance with ASTM D6479, for both warp and weft directions, in both 25 °C and 150 °C environments, E1, which is a value obtained by dividing a force amount increased in a strain range of 0.4% to 4.4% by a total cross-sectional area of fibers in the measurement direction, is 3 MPa to 25 MPa, and E2, which is a value obtained by dividing a ratio of a force amount increased in a strain range of -4.8% to -0.8% from a fiber breaking point by a total cross-sectional area of fibers in the measurement direction, is 10 MPa to 30 MPa, wherein the total cross-sectional area is measured according to the description.
A satellite gateway configured to communicate with remote terminals via satellite connections in a wireless communication system comprising one or more application servers that communicate with the remote terminals over connections established via cellular or satellite networks (15, 17), said application servers being capable of switching between different cellular networks; wherein said satellite gateway is configured such that upon receipt of an incoming request from a remote terminal over a satellite connection to connect with a particular application server, said satellite gateway establishes a per-terminal connection with the particular application server and translates subsequent messages received from the remote terminal over the satellite connection from a format used for satellite communications into a format used for cellular networks before forwarding the message to the particular application server over the established per-terminal connection, wherein the remote terminal is associated with a corresponding terminal ID, wherein the terminal ID of the remote terminal is associated only with the per-terminal connection between said satellite gateway and the particular application server, the satellite gateway being configured such that upon receiving any further incoming request from the remote terminal where the terminal ID is associated with an older per-terminal connection, said satellite gateway closes said older per-terminal connection and the satellite gateway associates said further incoming request from the remote terminal with the per-terminal connection, and wherein said application server sees said satellite gateway as another cellular network.
An automation control system, comprising: one or more components (26, 46) comprising a plug-in management system (354, 356) configured to register one or more chainable plug-ins (358, 360) with the one or more components (26, 46), wherein the one or more chainable plug-ins (358, 360) are configured to create resources of different types in a polymorphic chain, wherein resources of different types are derived from each other in the polymorphic chain, wherein the plug-in management system (354, 356) is configured to determine a proper polymorphic chain, and wherein the proper polymorphic chain comprises a proper subset of chainable plug-ins and a proper order, and specifies a particular resource type. one or more components (26, 46) comprising a plug-in management system (354, 356) configured to register one or more chainable plug-ins (358, 360) with the one or more components (26, 46), wherein the one or more chainable plug-ins (358, 360) are configured to create resources of different types in a polymorphic chain, wherein resources of different types are derived from each other in the polymorphic chain, wherein the plug-in management system (354, 356) is configured to determine a proper polymorphic chain, and wherein the proper polymorphic chain comprises a proper subset of chainable plug-ins and a proper order, and specifies a particular resource type.
A capture basket system for use below an underdeck pipehandling machine being supported by a structure on a drill rig, wherein the capture basket system includes: - a capture basket that is designed to retain an object, such as a pipe, falling from the underdeck pipehandling machine, characterised in that the capture basket system further comprising energy absorbing means including an elongated element, and in that the capture basket is connected, by hanging of said elongated element of the energy absorbing means, to the structure supporting the underdeck pipehandling machine. - a capture basket that is designed to retain an object, such as a pipe, falling from the underdeck pipehandling machine, characterised in that the capture basket system further comprising energy absorbing means including an elongated element, and in that the capture basket is connected, by hanging of said elongated element of the energy absorbing means, to the structure supporting the underdeck pipehandling machine.
A LED light scattering apparatus comprising a body, said body comprising a substantially hollow spherical cavity including light entry port arranged to receive visible light from an LED mounted outside the cavity, a light exit port located opposite the entry port and through which the LED light exits the cavity for analysis, and a baffle located in a central region of the cavity in a direct optical path between the entry port and the exit port to interrupt the passage of visible LED light between the entry and exit ports, wherein the apparatus further comprises a mount, which supports the body of the scattering apparatus, said body being able to move relative to said mount, and a resilient member coupled between the mount and the body such that, once the apparatus is brought into contact with the LED or a surface on which the LED is mounted, movement of the apparatus towards the LED causes the resilient member to contract, thereby resisting further movement of the body towards the LED and maintaining the body in a stable spatial configuration relative to the LED.
A display comprising: light-scattering regions (20a, 20b) each provided with linear protrusions and/or recesses having the same longitudinal direction, wherein directions of the linear protrusions and/or recesses of the respective light-scattering regions (20a, 20b) are different from each other, wherein each of the light-scattering regions (20a, 20b) includes an array of cells each provided with the protrusions and/or recesses, characterized in that in at least one of the light-scattering regions (20a, 20b), the cells included in the light-scattering region (20a, 20b) include cells different from each other in length and/or width of the protrusions and/or recesses. light-scattering regions (20a, 20b) each provided with linear protrusions and/or recesses having the same longitudinal direction, wherein directions of the linear protrusions and/or recesses of the respective light-scattering regions (20a, 20b) are different from each other, wherein each of the light-scattering regions (20a, 20b) includes an array of cells each provided with the protrusions and/or recesses, characterized in that in at least one of the light-scattering regions (20a, 20b), the cells included in the light-scattering region (20a, 20b) include cells different from each other in length and/or width of the protrusions and/or recesses.
A rotatable joint (102/808), comprising: at least three bar connectors; an axis piece (118/122) comprising a central pivot and at least one of the at least three bar connectors longitudinally aligned with the central pivot; and two rotatable joint pieces (110/116) each comprising a bushing (112/112a/802/802a) and at least one of the at least three bar connectors oriented along the diameter of the bushing (112/112a/802/802a) and aligned along the axis of symmetry of the bushing (112/112a/802/802a), wherein the bushing (112/112a/802/802a) of each of the two rotatable joint pieces (110/116) is configured to slide over the central pivot thereby coupling the two bushings (112/112a/802/802a) with the central pivot and allowing the rotatable joint pieces (110/116) to rotate about the central pivot, and orient the bar connectors of the rotatable joint pieces (110/116) perpendicular to the bar connector of the axis piece (118/122). at least three bar connectors; an axis piece (118/122) comprising a central pivot and at least one of the at least three bar connectors longitudinally aligned with the central pivot; and two rotatable joint pieces (110/116) each comprising a bushing (112/112a/802/802a) and at least one of the at least three bar connectors oriented along the diameter of the bushing (112/112a/802/802a) and aligned along the axis of symmetry of the bushing (112/112a/802/802a), wherein the bushing (112/112a/802/802a) of each of the two rotatable joint pieces (110/116) is configured to slide over the central pivot thereby coupling the two bushings (112/112a/802/802a) with the central pivot and allowing the rotatable joint pieces (110/116) to rotate about the central pivot, and orient the bar connectors of the rotatable joint pieces (110/116) perpendicular to the bar connector of the axis piece (118/122).
Bearing arrangement for a wind turbine comprising a bearing housing and a drive shaft, whereby the drive shaft is arranged within the bearing housing in an axial direction along a longitudinal axis of the bearing housing, the bearing arrangement further comprising a downwind bearing and an upwind bearing, whereby the downwind bearing and the upwind bearing are arranged between the bearing housing and the drive shaft, wherein the downwind bearing and/or the upwind bearing is a radial fluid bearing comprising multiple radial bearing pads, whereby each one of the multiple radial bearing pads is attached to one of a multiple radial bearing bodies of the radial fluid bearing and the multiple radial bearing pads are arranged about the drive shaft, whereby the multiple bearing bodies are arranged adjacent to one another along a circumference of a cylindrical seat of the bearing housing, characterized in that, adjacent bearing bodies are locked in movement relative to one another and relative to the cylindrical seat by means of press-fitted locking pieces, whereby the locking pieces provide dovetail connections with the cylindrical seat.
Filling system for a filling machine in a production plant, for filling bottles or similar containers with a liquid filling product comprising of a main component and at least one additional component (K2.1-K2.3), comprising a plurality of filling elements, in which the at least one additional component is supplied in controlled quantities (metered) via at least one mixing line for mixing with the main component at the filling element, wherein each mixing line is connected to an output of a metering unit, comprising at least two metering pumps, wherein the at least two metering pumps of each metering unit are driven by a common motor, which can be controlled, for example, in output and revolution speed, characterised in that allocated to each filling element is an independent metering unit with a plurality of metering pumps driven by the common motor, wherein each metering pump is connected to the output of the assigned metering unit in each case by means of a first control valve, and wherein each metering pump is connected to an independent line for the delivery of an additional component (K2.1 - K2.3).
A combine harvester comprising: - a grain pan and a cleaning shoe, said grain pan upstream of the cleaning shoe and arranged to catch a crop stream, the grain pan being driven in an oscillating manner to convey the crop stream rearwardly to a rear edge from where it falls into the cleaning shoe; - a cleaning unit comprising a fan for generating a cleaning airstream which is directed under the rear edge; Z wherein the grain pan comprises a transversely corrugated or rippled surface and a plurality of longitudinal gullies, characterised in that the longitudinal gullies have J Z a curved profile. - a grain pan and a cleaning shoe, said grain pan upstream of the cleaning shoe and arranged to catch a crop stream, the grain pan being driven in an oscillating manner to convey the crop stream rearwardly to a rear edge from where it falls into the cleaning shoe; - a cleaning unit comprising a fan for generating a cleaning airstream which is directed under the rear edge;
Device for preparing food for animals, comprising: - a casing, - means for storing a dehydrated food, - means for storing a liquid such as water, - a mixing chamber arranged to receive a dehydrated food portion and a liquid portion, - mobile mixing means arranged in the mixing chamber to mix the dehydrated food portion and the liquid portion to form a food ration in the form of paste, - a consumption container arranged to receive the food ration, wherein the mixing chamber is removable with respect to the preparation device, characterised in that the mixing chamber, once mounted on the preparation device: - rotates with respect to the preparation device to go from a position for mixing the food ration to a position for distributing the food ration, and - has a gripping portion which is arranged outside of the preparation device, protruding with respect to the casing. - a casing, - means for storing a dehydrated food, - means for storing a liquid such as water, - a mixing chamber arranged to receive a dehydrated food portion and a liquid portion, - mobile mixing means arranged in the mixing chamber to mix the dehydrated food portion and the liquid portion to form a food ration in the form of paste, - a consumption container arranged to receive the food ration, - rotates with respect to the preparation device to go from a position for mixing the food ration to a position for distributing the food ration, and - has a gripping portion which is arranged outside of the preparation device, protruding with respect to the casing.
Filter device for a motor vehicle - having a filter housing which comprises at least partially a first housing material comprising an electrically conductive plastics material, - having a heating device which can be or is releasably secured to the filter housing, - wherein the heating device comprises a heater housing which is formed at least partially from a second housing material of an electrically conductive plastics material and which in a state secured to the filter housing is connected thereto in an electrically conductive manner, - wherein the heating device has an electrical heating element having an electrical connection element which by means of an external electrical supply line for supplying with electrical energy can be connected to an external energy supply unit or an electrical on-board network of a motor vehicle, - wherein the electrical connection element for discharging electrical charge carriers which are accumulated on the filter housing and/or on the heater housing is electrically connected to the filter housing and the heater housing. - having a filter housing which comprises at least partially a first housing material comprising an electrically conductive plastics material, - having a heating device which can be or is releasably secured to the filter housing, - wherein the heating device comprises a heater housing which is formed at least partially from a second housing material of an electrically conductive plastics material and which in a state secured to the filter housing is connected thereto in an electrically conductive manner, - wherein the heating device has an electrical heating element having an electrical connection element which by means of an external electrical supply line for supplying with electrical energy can be connected to an external energy supply unit or an electrical on-board network of a motor vehicle, - wherein the electrical connection element for discharging electrical charge carriers which are accumulated on the filter housing and/or on the heater housing is electrically connected to the filter housing and the heater housing.
Fuel injection valve for intermittently injecting fuel into the combustion chamber of an internal combustion engine, comprising a housing which comprises a high-pressure chamber, which is connected to a high-pressure inlet for fuel, and a low-pressure chamber, an injector needle that is longitudinally movable in the high-pressure chamber, interacts with a nozzle seat, and opens and closes a connection of the high-pressure chamber to an injection opening by the longitudinal movement thereof, wherein the injector needle is urged by a compression spring with a closing force directed towards the nozzle seat, and wherein the compression spring is supported at one side on a spring sleeve in which the injector needle is guided by its free end, a control chamber (38, 44) that is delimited by the spring sleeve and the upper end of the injector needle, and can be filled with pressurized fuel and thus exerts a closing pressure on the injector needle in a controlled manner, and a control valve that is arranged in the control chamber (38, 44) and divides the control chamber (38, 44) into a first control chamber and a second control chamber, wherein the control valve consists of a valve insert guided in a valve guide, and a discharge throttle is arranged in the valve guide, which throttle is connected to the first control chamber on one side and to the second control chamber on the other side, characterized in that the connection formed by the discharge throttle between the first control chamber and the second control chamber can be temporarily interrupted in a targeted manner, a lower stop position of the valve insert connects the control chamber (38, 44) to the high pressure chamber by means of an inlet bore arranged in the valve guide, an upper stop position of the valve insert closes the inlet from the high-pressure chamber, and an inlet throttle of the valve guide connects the high-pressure chamber to the second control chamber.