mhurhangee/ep-ind-claims huggingface dataset:
Timepiece movement fitted with an analogue indicator of a plurality of distinct data which is arranged for this purpose to be held stationary at least temporarily in any one position of a plurality of distinct display positions, said analogue indicator having a toothing (18, 18A) mechanically coupled to a drive device including a motor and a drive wheel and pinion (8, 8A) provided with means (12, 13, 12A, 13A, 14, 15) of meshing with the toothing, said drive device further including a support on which the drive wheel and pinion is mounted, this support being mounted on a base in order to pivot about a first axis and said drive wheel and pinion being rotatably mounted on said support about a second axis distinct from the first axis, the drive device further including an elastic means applying a lateral force to said support so that said meshing means of the drive wheel and pinion laterally press against the analogue indicator toothing towards the bottom of this toothing, said meshing means and the toothing having respective profiles selected such that, at least in said plurality of distinct display positions of the analogue indicator, the drive wheel and pinion and the analogue indicator mesh with each other with substantially no tangential play under the action of said elastic means.
A wearable apparatus comprising: a shield (1202,1302,1402) configured to protect at least a portion of a user's face from an external environment; an infrared imaging module (1204,1304,1404) comprising a focal plane array configured to capture a thermal image of the external environment; an aperture (1217,1317,1417) in the shield (1202,1302,1402); a window assembly (1218,1318,1418) configured to seal the aperture (1217,1317,1417) and pass infrared radiation from the external environment to the infrared imaging module (1204,1304,1404); a processor (1208,1308,1408) configured to convert the thermal image into a user-viewable image of the external environment; and a projector (1206,1306,1406) configured to project the user-viewable image onto an inner surface of the shield (1202,1302,1402) for viewing by the user while wearing the apparatus, wherein the infrared imaging module (1204,1304,1404) and the projector (1206,1306,1406) are positioned interior to and behind said shield (1202,1302,1402) to protect the infrared imaging module (1204,1304,1404) and the projector (1206,1306,1406) from the external environment a shield (1202,1302,1402) configured to protect at least a portion of a user's face from an external environment; an infrared imaging module (1204,1304,1404) comprising a focal plane array configured to capture a thermal image of the external environment; an aperture (1217,1317,1417) in the shield (1202,1302,1402); a window assembly (1218,1318,1418) configured to seal the aperture (1217,1317,1417) and pass infrared radiation from the external environment to the infrared imaging module (1204,1304,1404); a processor (1208,1308,1408) configured to convert the thermal image into a user-viewable image of the external environment; and a projector (1206,1306,1406) configured to project the user-viewable image onto an inner surface of the shield (1202,1302,1402) for viewing by the user while wearing the apparatus, wherein the infrared imaging module (1204,1304,1404) and the projector (1206,1306,1406) are positioned interior to and behind said shield (1202,1302,1402) to protect the infrared imaging module (1204,1304,1404) and the projector (1206,1306,1406) from the external environment
A control method implemented in a power converter, said power converter comprising an inverter module controlled by a control law making it possible to determine a control voltage ( u app) to be applied to an electrical load as a function of a reference control voltage ( u ref), characterized in that the control method comprises: - a step of measuring a real voltage ( u real) applied to the electrical load, - a first step of filtering a voltage representative of the real voltage ( u real) applied to the electrical load so as to obtain a first filtered voltage, - a second step of filtering a voltage representative of the reference control voltage ( u ref) so as to obtain a second filtered voltage, - a step of determining a correction value ( u cor) to be applied to the reference control voltage ( u ref), said correction value ( u cor) being determined on the basis of the first filtered voltage and of the second filtered voltage. - a step of measuring a real voltage ( u real) applied to the electrical load, - a first step of filtering a voltage representative of the real voltage ( u real) applied to the electrical load so as to obtain a first filtered voltage, - a second step of filtering a voltage representative of the reference control voltage ( u ref) so as to obtain a second filtered voltage, - a step of determining a correction value ( u cor) to be applied to the reference control voltage ( u ref), said correction value ( u cor) being determined on the basis of the first filtered voltage and of the second filtered voltage.
An X-ray apparatus (300, 400, 1400) comprising: a collimator (330, 430, 520, 690, 720, 870, 1310, 1430, 1710, 1810) configured to adjust an X-ray irradiation region; a data obtainer (310, 410) configured to obtain position information of a target (610, 710, 810, 910) in an object (220, 500) based on an electrode signal sensed from electrodes (311, 411) attached to the object; and a controller (320, 420, 1420) configured to set first coordinates indicating a position of the target on a first coordinate system with respect to the object based on the position information, transform the first coordinates to second coordinates on a second coordinate system with respect to an X-ray image of the object, and adjust a position of the collimator (330, 430, 520, 690, 720, 870, 1310, 1430, 1710, 1810) based on the second coordinates. a collimator (330, 430, 520, 690, 720, 870, 1310, 1430, 1710, 1810) configured to adjust an X-ray irradiation region; a data obtainer (310, 410) configured to obtain position information of a target (610, 710, 810, 910) in an object (220, 500) based on an electrode signal sensed from electrodes (311, 411) attached to the object; and a controller (320, 420, 1420) configured to set first coordinates indicating a position of the target on a first coordinate system with respect to the object based on the position information, transform the first coordinates to second coordinates on a second coordinate system with respect to an X-ray image of the object, and adjust a position of the collimator (330, 430, 520, 690, 720, 870, 1310, 1430, 1710, 1810) based on the second coordinates.
An automatic slide processing apparatus comprising: - a slide support - a rotationally mounted reagent support for carrying a plurality of reagent dispensers; - a nozzle support for carrying slide treatment stations; and - a reagent dispenser activator for selectively activating the respective reagent dispensers, characterized in that the slide support, during operation of the slide processing apparatus, is fixed in position, while the nozzle support and reagent support are selectively and independently rotatable relative to the slide support, and wherein the reagent dispenser activator is mounted to rotate in synchronization with the nozzle support. - a slide support - a rotationally mounted reagent support for carrying a plurality of reagent dispensers; - a nozzle support for carrying slide treatment stations; and - a reagent dispenser activator for selectively activating the respective reagent dispensers,
A light field imaging system for producing an image of an object, the light field imaging system comprising: a primary optical subsystem that forms an optical image of an object, the optical image located at an image plane of the primary optical subsystem; a light field sensor module (114, 180) comprising a secondary imaging array and a sensor array, the secondary imaging array comprising micro lenses, each microlens imaging a pupil of the primary optical subsystem onto sensor elements of the sensor array, wherein a pixel comprises sensor elements corresponding to a single microlens; and wherein the primary optical subsystem and/or light field sensor module (114, 180) are adjustable according to one or more optical parameters; and characterized by: a processing module configured to determine the one or more optical parameters required to achieve a displacement between the secondary imaging array and the image plane such that different sensor elements forming the same pixel collect light from object regions that are shifted relative to each other by a given disparity, so that each pixel of the sensor array is configured to capture an array of multiplexed views of the object, said given disparity corresponding to a desired resolution enhancement value. a primary optical subsystem that forms an optical image of an object, the optical image located at an image plane of the primary optical subsystem; a light field sensor module (114, 180) comprising a secondary imaging array and a sensor array, the secondary imaging array comprising micro lenses, each microlens imaging a pupil of the primary optical subsystem onto sensor elements of the sensor array, wherein a pixel comprises sensor elements corresponding to a single microlens; and wherein the primary optical subsystem and/or light field sensor module (114, 180) are adjustable according to one or more optical parameters; and characterized by: a processing module configured to determine the one or more optical parameters required to achieve a displacement between the secondary imaging array and the image plane such that different sensor elements forming the same pixel collect light from object regions that are shifted relative to each other by a given disparity, so that each pixel of the sensor array is configured to capture an array of multiplexed views of the object, said given disparity corresponding to a desired resolution enhancement value.
Fuel tank made from thermoplastic material, having a top and a bottom, which are supported upon one another via at least one column-shaped supporting element, wherein the supporting element is connected positively and/or materially to a wall of the top, on the one hand, and to a wall of the bottom, on the other hand, in such a way that it can absorb tensile forces caused by a pressure within the tank, characterized in that - the supporting element is designed as a one-piece solid profile which has a ribbed profile, at least in cross section, wherein the supporting element comprises at least two ribs, wherein said ribs are arranged substantially parallel to each other in cross section, so that the supporting element is substantially torsionally rigid, so that the supporting element cannot be twisted upon itself. - the supporting element is designed as a one-piece solid profile which has a ribbed profile, at least in cross section, wherein the supporting element comprises at least two ribs, wherein said ribs are arranged substantially parallel to each other in cross section, so that the supporting element is substantially torsionally rigid, so that the supporting element cannot be twisted upon itself.
A method of coating a cargo container, comprising the steps of: providing a cargo container or one or more components thereof, wherein the cargo container is an intermodal cargo container; applying on at least a portion of the surface of the intermodal cargo container, or one or more components thereof, an aqueous coating composition comprising a) an aqueous carrier, b) a resin component in admixture with the aqueous carrier, and c) optionally a sufficient amount of one or more clay anti-sag agents (CAS agents), to form a coating; and drying the coating composition in a drying oven, wherein the drying environment has a humidity in the range of from 50 to 99 percent relative humidity. providing a cargo container or one or more components thereof, wherein the cargo container is an intermodal cargo container; applying on at least a portion of the surface of the intermodal cargo container, or one or more components thereof, an aqueous coating composition comprising a) an aqueous carrier, b) a resin component in admixture with the aqueous carrier, and c) optionally a sufficient amount of one or more clay anti-sag agents (CAS agents), to form a coating; and a) an aqueous carrier, b) a resin component in admixture with the aqueous carrier, and c) optionally a sufficient amount of one or more clay anti-sag agents (CAS agents), drying the coating composition in a drying oven, wherein the drying environment has a humidity in the range of from 50 to 99 percent relative humidity.
A printing cylinder assembly for a printing machine, the assembly including a rotating shaft, a sleeve cylinder removably mounted to fit on the rotating shaft so that it can be fitted on, and be extracted from, the rotating shaft, and a coupling mechanism for coupling and decoupling the sleeve cylinder to and from the rotating shaft, said coupling mechanism comprising a cam shaft and a coupling member with which the rotating shaft is provided, and coming into a coupling state that the coupling member moved diametrically of the rotating shaft is urged into fastening frictional contact with an inner diameter portion of the sleeve cylinder, thereby coupling the sleeve cylinder and the rotating shaft together, and a decoupling state that said coupling member is parted from the inner diameter portion of the sleeve cylinder, thereby decoupling the sleeve cylinder from the rotating shaft, by rotation of the cam shaft, characterized in that said cam shaft has a cam portion formed circumferentially with a planar and a circular arc surface (41c and 41d), said coupling member comprises a movable pin held opposite to the cam portion, a pressure block held opposite to the inner diameter portion of said sleeve cylinder and a pressure elastic element interposed between said movable pin and said pressure block, whereby the movable pin when contacted with the cam portion's circular arc surface by a rotation of the cam shaft is moved to compress the pressure elastic element and to provide an increased elastic force, the increased elastic force driving the pressure block into such contact with the inner diameter portion of the sleeve cylinder and thereby establishing said coupling state, and the movable pin when contacted with the cam portion's planar surface by a rotation of the cam shaft decompresses the elastic element to restore its elastic force, the restored elastic force bringing the pressure block away from the inner diameter portion of the sleeve cylinder and thereby establishing said decoupling state.
A mechanochemically carboxylated fly ash which has a BET surface area of less than 50m 2 /g and a CO 2 content of more than 1 wt.%, wherein the CO 2 content is determined as the mass loss above 120°C measured by TGA-MS employing a temperature trajectory wherein the temperature was increased from room temperature to 800°C at a rate of 10 °C/min and then decreased to room temperature at a rate of 15 °C/min, and a D50 within the range of 0.5-50 μm.
An oral irrigator comprising: a base unit housing a motor and a pump; a removable reservoir supported by the base unit; a handle connected to the base unit and fluidly coupled to the pump by a hose; and a pressure assembly connected to the base unit and configured to allow a user to selectively adjust the pressure output of the oral irrigator, the pressure assembly including a gear mounted on a rack bracket and connected to a pressure valve by a fastener, a rack arranged to move laterally relative to the rack bracket, wherein the rack includes a plurality of teeth configured to be engaged with teeth on the gear, wherein the rack bracket is positioned against and secured to a regulator housing via fasteners, and an actuator, the actuator connected to the rack and configured to move the rack in a lateral direction to actuate the gear, such that lateral movement of the actuator causes the rack to slide relative to the rack bracket, causing the gear to rotate. a base unit housing a motor and a pump; a removable reservoir supported by the base unit; a handle connected to the base unit and fluidly coupled to the pump by a hose; and a pressure assembly connected to the base unit and configured to allow a user to selectively adjust the pressure output of the oral irrigator, the pressure assembly including a gear mounted on a rack bracket and connected to a pressure valve by a fastener, a rack arranged to move laterally relative to the rack bracket, wherein the rack includes a plurality of teeth configured to be engaged with teeth on the gear, wherein the rack bracket is positioned against and secured to a regulator housing via fasteners, and an actuator, the actuator connected to the rack and configured to move the rack in a lateral direction to actuate the gear, such that lateral movement of the actuator causes the rack to slide relative to the rack bracket, causing the gear to rotate. a gear mounted on a rack bracket and connected to a pressure valve by a fastener, a rack arranged to move laterally relative to the rack bracket, wherein the rack includes a plurality of teeth configured to be engaged with teeth on the gear, wherein the rack bracket is positioned against and secured to a regulator housing via fasteners, and an actuator, the actuator connected to the rack and configured to move the rack in a lateral direction to actuate the gear, such that lateral movement of the actuator causes the rack to slide relative to the rack bracket, causing the gear to rotate.
A material for use in vacuum bagging a component, especially a composite component like a fibre-reinforced plastic component, characterised in that the material comprises a compound sensitive to moisture, such that an exposure of the compound to moisture or wetting causes a physical and/or chemical change in the compound that is visually detectable in the material.
A clothing treating device, comprising a first clothing treating bucket, a second clothing treating bucket and an air duct, wherein an air inlet end of the air duct is respectively communicated with a first air inlet of the first clothing treating bucket and a second air inlet of the second clothing treating bucket through a first air duct conversion device at the air inlet end, and an air outlet end of the air duct is respectively communicated with a first air outlet of the first clothing treating bucket and a second air outlet of the second clothing treating bucket through a second air duct conversion device at the air outlet end of the air duct. an air inlet end of the air duct is respectively communicated with a first air inlet of the first clothing treating bucket and a second air inlet of the second clothing treating bucket through a first air duct conversion device at the air inlet end, and an air outlet end of the air duct is respectively communicated with a first air outlet of the first clothing treating bucket and a second air outlet of the second clothing treating bucket through a second air duct conversion device at the air outlet end of the air duct.
A method for treating surfaces with a surface treatment composition, said composition comprising spores of non-pathogenic species of the genus Bacillus and a prebiotic component, wherein said non-pathogenic species of the genus Bacillus comprises a mixture of Bacillus subtilis, Bacillus licheniformis, Bacillus megaterium and Bacillus amyloliquefaciens, each of said four Bacillus species having a number of spores which is between 10% and 70%, with reference to the total number of spores of said four Bacillus spp,, and wherein said prebiotic component comprises at least one of a fructo-oligosaccharide, a galacto-oligosaccharide and/or inulin, wherein the surface is wood, paper, leather, rubber or textile; wherein the surface is an abiotic material, or wherein the surface is a mixture of said aforementioned materials; said method comprising the steps of cleaning, spraying, ultrasound fogging, painting, or water dosing said surfaces with said composition. wherein said non-pathogenic species of the genus Bacillus comprises a mixture of Bacillus subtilis, Bacillus licheniformis, Bacillus megaterium and Bacillus amyloliquefaciens, each of said four Bacillus species having a number of spores which is between 10% and 70%, with reference to the total number of spores of said four Bacillus spp,, and wherein said prebiotic component comprises at least one of a fructo-oligosaccharide, a galacto-oligosaccharide and/or inulin, wherein the surface is wood, paper, leather, rubber or textile; wherein the surface is an abiotic material, or wherein the surface is a mixture of said aforementioned materials; said method comprising the steps of cleaning, spraying, ultrasound fogging, painting, or water dosing said surfaces with said composition.
A system for controlling fluid flow in a flow circuit (12, 12a, 12b, 12c) of the type including at least two flexible containers (16, 16a, 16b, 18, 20, 22, 88, 90, 94) and at least one conduit (24a, 24b, 24c, 24d, 24e, 92, 96), wherein each container (16, 16a, 16b, 18, 20, 22, 88, 90, 94) is fluidly connected to at least one other container (16, 16a, 16b, 18, 20, 22, 88, 90, 94) by one or more of said at least one conduits (24a, 24b, 24c, 24d, 24e, 92, 96), the system comprising: a pressure chamber (14, 14a, 14b) having an interior adapted to receive at least one of the containers (16, 16a, 16b, 18, 20, 22, 88, 90, 94) of the flow circuit (12, 12a, 12b, 12c), at least one port (34a, 34b, 34c, 34d) communicating between the interior of the pressure chamber (14, 14a, 14b) and the outside environment and adapted to receive at least a portion of one of the conduits (24a, 24b, 24c, 24d, 24e, 92, 96) of the flow circuit (12, 12a, 12b, 12c), an interface detector associated with the at least one port (34a,34b, 34c, 34d), an automated clamping device associated with the at least one port (34a,34b, 34c, 34d), an automated sealing device associated with the at least one port (34a,34b, 34c, 34d), and an automated access device associated with the at least one port (34a,34b, 34c, 34d); a pressure/vacuum source associated with the pressure chamber (14, 14a, 14b) for providing a pressure in the interior of the pressure chamber (14, 14a, 14b) ranging between above atmospheric pressure and below atmospheric pressure and for changing the pressure in the interior of the pressure chamber (14, 14a, 14b); and a controller programmed to control the interface detector, the automated clamping device, the automated sealing device, the automated access device, and the pressure/vacuum source. a pressure chamber (14, 14a, 14b) having an interior adapted to receive at least one of the containers (16, 16a, 16b, 18, 20, 22, 88, 90, 94) of the flow circuit (12, 12a, 12b, 12c), at least one port (34a, 34b, 34c, 34d) communicating between the interior of the pressure chamber (14, 14a, 14b) and the outside environment and adapted to receive at least a portion of one of the conduits (24a, 24b, 24c, 24d, 24e, 92, 96) of the flow circuit (12, 12a, 12b, 12c), an interface detector associated with the at least one port (34a,34b, 34c, 34d), an automated clamping device associated with the at least one port (34a,34b, 34c, 34d), an automated sealing device associated with the at least one port (34a,34b, 34c, 34d), and an automated access device associated with the at least one port (34a,34b, 34c, 34d); a pressure/vacuum source associated with the pressure chamber (14, 14a, 14b) for providing a pressure in the interior of the pressure chamber (14, 14a, 14b) ranging between above atmospheric pressure and below atmospheric pressure and for changing the pressure in the interior of the pressure chamber (14, 14a, 14b); and a controller programmed to control the interface detector, the automated clamping device, the automated sealing device, the automated access device, and the pressure/vacuum source.