mhurhangee/ep-ind-claims huggingface dataset:
Robot for inspecting rotor blades of wind turbines, comprising a frame construction having an inner opening which surrounds a rotor blade during use and a plurality of propellers arranged on the frame construction for a vertical flying movement of the robot, and comprising a rotor blade state detection system mounted on the frame construction for preferably contactless inspection of the rotor blades, wherein preferably a cable, e.g. a power and/or data cable, is provided for connecting the robot to a station, e.g. a control and analysis station, located for example on the ground or on a vehicle.
An ink jet card printer comprising: an inkjet print head configured to perform a print operation on a card, which is supported in a print position along a processing axis; a gantry configured to move the print head through a print zone during printing operations; and a card feeder comprising: a feeder frame; a first pinch roller pair supported by the feeder frame and configured to feed individual cards along a card feed axis; and characterized in that the ink jet card printer comprises a lift mechanism configured to move the feeder frame and the first pinch roller pair between a lowered position, in which the card feeder is displaced from the print zone, and a raised position, in which at least a portion of the card feeder extends into the print zone and in which the card feeder is configured to deliver cards to a card transport. an inkjet print head configured to perform a print operation on a card, which is supported in a print position along a processing axis; a gantry configured to move the print head through a print zone during printing operations; and a card feeder comprising: a feeder frame; a first pinch roller pair supported by the feeder frame and configured to feed individual cards along a card feed axis; and characterized in that the ink jet card printer comprises a lift mechanism configured to move the feeder frame and the first pinch roller pair between a lowered position, in which the card feeder is displaced from the print zone, and a raised position, in which at least a portion of the card feeder extends into the print zone and in which the card feeder is configured to deliver cards to a card transport. a feeder frame; a first pinch roller pair supported by the feeder frame and configured to feed individual cards along a card feed axis; and characterized in that the ink jet card printer comprises a lift mechanism configured to move the feeder frame and the first pinch roller pair between a lowered position, in which the card feeder is displaced from the print zone, and a raised position, in which at least a portion of the card feeder extends into the print zone and in which the card feeder is configured to deliver cards to a card transport.
A method for checking a data frame length, characterized by comprising: during reception of an Ethernet frame, when determining through analysis that a received Ethernet frame is a data frame, extracting frame length information and frame indication information in the data frame, and calculating a frame length mantissa according to the frame length information, wherein the frame length mantissa is obtained by performing modulo-N processing on a frame length of the data frame according to the frame length information; N=2 ^ R, R represents last R bits of the frame length; writing the data frame into a small capacity cache for storage according to the frame indication information, and counting write enable signals used for controlling writing of a data frame by using a base-N counter, to obtain a count value of the write enable signals; and comparing the frame length mantissa with the count value, and when a comparison result is consistent, a data frame length being successfully checked, and writing the frame length information into the small capacity cache for storage; wherein obtaining of the frame length mantissa via modulo-N processing of the frame length information, relates to the base-N counter in that N= 2 ^ R with R being the bit width of the counter; storing the count of write enable signals in the base-N counter, relates to the frame length mantissa in that the same modulo-N processing is performed. during reception of an Ethernet frame, when determining through analysis that a received Ethernet frame is a data frame, extracting frame length information and frame indication information in the data frame, and calculating a frame length mantissa according to the frame length information, wherein the frame length mantissa is obtained by performing modulo-N processing on a frame length of the data frame according to the frame length information; N=2 ^ R, R represents last R bits of the frame length; writing the data frame into a small capacity cache for storage according to the frame indication information, and counting write enable signals used for controlling writing of a data frame by using a base-N counter, to obtain a count value of the write enable signals; and comparing the frame length mantissa with the count value, and when a comparison result is consistent, a data frame length being successfully checked, and writing the frame length information into the small capacity cache for storage; wherein obtaining of the frame length mantissa via modulo-N processing of the frame length information, relates to the base-N counter in that N= 2 ^ R with R being the bit width of the counter; storing the count of write enable signals in the base-N counter, relates to the frame length mantissa in that the same modulo-N processing is performed.
A side bearing module (2, 3, 4) for a winding shaft of a building opening shading device with a curtain to be wound and unwound on the winding shaft, with a bearing plate to be fastened on the building, which, for support of the winding shaft on its end, is formed on a side part of a box encasing the winding shaft integrally with or fastenable on the side part, and with a side bearing (2, 3) fastened on the bearing plate for a journal of the winding shaft on its end, characterised in that the side bearing (2, 3) comprises a bearing inner ring for receiving the journal, and a bearing outer ring rotatably receiving the bearing inner ring which is carried by the bearing plate, with the side bearing module (2, 3, 4) in built-in condition and with the journal inserted into the side bearing (2, 3) permitting swivelling of the winding shaft between a horizontal position and an inclined position of the winding shaft being inclined to the horizontal around a likewise horizontal swivel axis located in the area of the side bearing extending towards the bottom so far that the winding shaft with its journal at its end can be inclined positioned at the bearing inner ring of the side bearing module (2, 3, 4), introduced into the bearing inner ring and then swivelled into the horizontal.
A dust boot for an articulated transmission joint, said articulated transmission joint comprising: - a housing, called bowl, which has an open end, and an opposite end intended to be secured to a first shaft; - a second shaft and rolling means mounted on one end of the second shaft, said rolling means comprising rolling elements housed in a cage, and said end of the second shaft being housed with the rolling means in the bowl; said dust boot having two open ends (26, 21), including one intended to be mounted on the open end of the bowl, - an inner radial peripheral groove, called stop groove, forming a seat able to receive at least part of the rolling elements of said rolling means during an inclined movement, preferably in the range]0°, 18°], of the second shaft relative to the axis of the opening of the bowl, in the direction of an outlet of the bowl; characterized in that said boot comprises: - an inner radial shoulder, called cage stop shoulder, forming a stop able to retain the cage of the rolling means during said movement of the second shaft, said shoulder being separated from the groove by a peripheral wall that defines, with the shoulder, a housing able to receive part of the cage of the rolling means when said cage is abutting against the shoulder. - a housing, called bowl, which has an open end, and an opposite end intended to be secured to a first shaft; - a second shaft and rolling means mounted on one end of the second shaft, said rolling means comprising rolling elements housed in a cage, and said end of the second shaft being housed with the rolling means in the bowl; - an inner radial peripheral groove, called stop groove, forming a seat able to receive at least part of the rolling elements of said rolling means during an inclined movement, preferably in the range]0°, 18°], of the second shaft relative to the axis of the opening of the bowl, in the direction of an outlet of the bowl; - an inner radial shoulder, called cage stop shoulder, forming a stop able to retain the cage of the rolling means during said movement of the second shaft, said shoulder being separated from the groove by a peripheral wall that defines, with the shoulder, a housing able to receive part of the cage of the rolling means when said cage is abutting against the shoulder.
A method for binning Time-Of-Flight data from a scene, for increasing the accuracy of TOF measurements and reducing the noise therein, the TOF data comprising phase data and confidence data, the method comprising the steps of: - acquiring a plurality of TOF data by illuminating the scene with a plurality of modulated signals ( S 1, S 2 and S 3); the method being characterized by the further steps of: - associating each modulated signal with a vector ( S 1, S 2 and S 3) defined by a phase ( φ 1, φ 2 and φ 3) and a confidence data r 1, r 2 and r 3), respectively; - adding the plurality of vectors for obtaining a binned vector S f; - determining the phase ( φ f) and confidence (r f) of the binned vector ( S f); - processing the phase ( φ f) and confidence data (r f) of the binned vector ( S f) for obtaining depth data of the scene. - acquiring a plurality of TOF data by illuminating the scene with a plurality of modulated signals ( S 1, S 2 and S 3); - associating each modulated signal with a vector ( S 1, S 2 and S 3) defined by a phase ( φ 1, φ 2 and φ 3) and a confidence data r 1, r 2 and r 3), respectively; - adding the plurality of vectors for obtaining a binned vector S f; - determining the phase ( φ f) and confidence (r f) of the binned vector ( S f); - processing the phase ( φ f) and confidence data (r f) of the binned vector ( S f) for obtaining depth data of the scene.
Quick connection and/or fixing system suited to mutually connect and disconnect a door/window panel to/from a portion of a wall, said panel being suited to close an opening giving access to a room at least partially defined by said wall, said system comprising a first and a second component (10, 20) suited to be rigidly fixed respectively to said wall portion and to said panel, said first and said second component (10, 20) being furthermore suited to be mutually connected and disconnected so as to alternatively allow the mutual connection and disconnection of said panel and said wall portion, wherein said second component is suited to accommodate an end portion of said first component, in such a way as to allow its translation inside it, said second component also comprising counteracting means suited to counteract the translation of said end portion of said first component towards the outside of said second component, said system also comprising at least one rotatable element housed inside said second component and suited to be set rotating according to a first direction of rotation by the translation of the end portion of the first component towards the inside of the second component, and suited to be set rotating in a second direction of rotation contrary to the first direction of rotation by the translation of the end portion of the first component towards the outside of the second component, said counteracting means being suited to counteract the rotation of said at least one rotatable element in said second direction of rotation, said second component comprising releasing means suited to be translated and to come into contact, during their motion according to a first pre-determined direction, with said at least one rotatable element, in such a way as to move said at least one rotatable element so as to cause a decrease in the counteracting force between said at least one rotatable element, said end portion and said counteracting means, characterized in that said releasing means comprise two handles, a first one of said handles being positioned on a first side of said second component and the other handle being positioned on the opposite side with respect to said first side of said second component so that they can be operated by a user from corresponding opposite sides of said door/window panel when said second component is fixed to said panel, and in that each of said two handles can be operated along a direction that is substantially parallel to said first pre-determined direction.
A cleaner in which a dust-removing head to jet air to a cleaned face of a work having the cleaned face of three-dimensional configuration of concave, convex, or concave-convex is provided; and the dust-removing head is provided with a work-corresponding face of convex, concave, or convex-concave three-dimensional offset configuration parted from the three-dimensional configuration of the cleaned face for a small dimension, characterized by that: the work-corresponding face of the dust removing head is imaginarily divided into three areas of a center area, a middle surrounding area, and an outside surrounding area; and when diameter of a first air-jetting hole (H 1) on the center area is D 1, diameter of a second air-jetting hole (H 2) on the middle surrounding area is D 2, and diameter of a third air-jetting hole (H 3) on the outside surrounding area is D 3, an inequality D 1 >D 2 >D 3 is fulfilled. the work-corresponding face of the dust removing head is imaginarily divided into three areas of a center area, a middle surrounding area, and an outside surrounding area; and when diameter of a first air-jetting hole (H 1) on the center area is D 1, diameter of a second air-jetting hole (H 2) on the middle surrounding area is D 2, and diameter of a third air-jetting hole (H 3) on the outside surrounding area is D 3, an inequality D 1 >D 2 >D 3 is fulfilled.
A non axisymmetric tool assembly comprising: a spring-loaded shaft assembly disposed along a first axis; a hub connected to a distal end of the spring-loaded shaft assembly, the hub having an upper hub portion adjacent to the distal end of the spring-loaded shaft assembly aligned with the first axis, and a lower hub portion extending along a second axis, the second axis forming a non zero angle relative to the first axis; a roller disk joined to the lower portion of the hub, the roller disk having a working surface about its perimeter and being rotatable about the second axis parallel to the second portion of the hub, the working surface including a profile along its width such that an effective radius of the roller disk varies along a width thereof. a spring-loaded shaft assembly disposed along a first axis; a hub connected to a distal end of the spring-loaded shaft assembly, the hub having an upper hub portion adjacent to the distal end of the spring-loaded shaft assembly aligned with the first axis, and a lower hub portion extending along a second axis, the second axis forming a non zero angle relative to the first axis; a roller disk joined to the lower portion of the hub, the roller disk having a working surface about its perimeter and being rotatable about the second axis parallel to the second portion of the hub, the working surface including a profile along its width such that an effective radius of the roller disk varies along a width thereof.
A sample analyzer comprising: a suction unit configured to suction a sample in a sample container through a stopper installed in an opening of the sample container; a rack transport unit configured to transport a sample rack holding a sample container along a transport path, and position the sample container held by the sample rack at a suction position by the suction unit; a sample transport unit in which a sample container other than the sample container transported by the rack transport unit is installed and which is configured to transport the installed sample container to the suction position provided on the transport path; a measurement unit configured to measure a sample suctioned by the suction unit from the sample container positioned at the suction position; and an analysis unit configured to analyze the sample based on the measurement result of the measurement unit, wherein the rack transport unit is configured to retract the rack from the suction position when a sample container other than the sample container transported by the rack transport unit is installed in the sample transport unit. a suction unit configured to suction a sample in a sample container through a stopper installed in an opening of the sample container; a rack transport unit configured to transport a sample rack holding a sample container along a transport path, and position the sample container held by the sample rack at a suction position by the suction unit; a sample transport unit in which a sample container other than the sample container transported by the rack transport unit is installed and which is configured to transport the installed sample container to the suction position provided on the transport path; a measurement unit configured to measure a sample suctioned by the suction unit from the sample container positioned at the suction position; and an analysis unit configured to analyze the sample based on the measurement result of the measurement unit, wherein the rack transport unit is configured to retract the rack from the suction position when a sample container other than the sample container transported by the rack transport unit is installed in the sample transport unit.
A drill for a rotary drilling rig, comprising a drilling cylinder provided with a connecting part at the upper end and a cutting part at the lower end, characterised in that the drill cylinder comprises a drill cylinder body and a cylinder flap mantle, wherein the drill cylinder body is provided with a notch opening along its side wall in the longitudinal direction, and the open end of the notch opening is located at the lower end surface of the drill cylinder body, wherein the cylinder flap mantle is located at the notch opening and the upper part of the cylinder flap mantle is rotatably connected to the drill cylinder body, wherein the cutting part has a first connecting end and a second connecting end which are positionally opposite to each other, and the first connecting end is rotatably connected to the lower part of the cylinder flap mantle.
A hemodialysis machine (102, 500) comprising: a blood pump configured to pump blood to and from a patient; a solar panel (136, 536) configured to receive light energy and generate electricity; characterized by an atmospheric water generator (138, 538) configured to be powered by the generated electricity and configured to extract water from ambient air, wherein the extracted water is used to generate dialysate; and a dialyzer (110, 510) configured to receive the blood and the dialysate generated using the water extracted from ambient air, remove toxins from the blood, and provide filtered blood to the patient, and optionally wherein the solar panel powers the hemodialysis machine. a blood pump configured to pump blood to and from a patient; a solar panel (136, 536) configured to receive light energy and generate electricity; characterized by an atmospheric water generator (138, 538) configured to be powered by the generated electricity and configured to extract water from ambient air, wherein the extracted water is used to generate dialysate; and a dialyzer (110, 510) configured to receive the blood and the dialysate generated using the water extracted from ambient air, remove toxins from the blood, and provide filtered blood to the patient, and optionally wherein the solar panel powers the hemodialysis machine.
A control assembly adapted for controlling fluid flow in a pressure regulating device (100, 400) having a valve body (104, 402) and a valve seat (162, 416) disposed in the valve body (104, 402), the control assembly comprising: a valve stem; a control element operatively connected to the valve stem and adapted to be movable, relative to the valve seat (162, 416), between an open position, wherein the control element is spaced from the valve seat (162, 416), and a closed position, wherein the control element sealingly engages the valve seat; characterized in that the control assembly comprises a travel stop configured to engage the control element when the control element is in the closed position to stop movement of the control element upon reaching the open position, wherein the travel stop is adjustable to change the open position of the control element, wherein the travel stop comprises a first portion and a second portion movable relative to the first portion and the control element to adjust a length of the travel stop, thereby changing the open position of the control element. a valve stem; a control element operatively connected to the valve stem and adapted to be movable, relative to the valve seat (162, 416), between an open position, wherein the control element is spaced from the valve seat (162, 416), and a closed position, wherein the control element sealingly engages the valve seat; characterized in that the control assembly comprises a travel stop configured to engage the control element when the control element is in the closed position to stop movement of the control element upon reaching the open position, wherein the travel stop is adjustable to change the open position of the control element, wherein the travel stop comprises a first portion and a second portion movable relative to the first portion and the control element to adjust a length of the travel stop, thereby changing the open position of the control element.
An isolated humanized monoclonal antibody recognizing the West Nile Virus envelope protein E comprising: a. a heavy chain with the CDRs 1-3 comprising the amino acid sequences GYSTH (SEQ ID NO:21), WDNPSSGDTTYAENFRG (SEQ ID NO:22), and GGDDYSFDH (SEQ ID NO:23) respectively; b. a light chain with the CDRs 1-3 comprising the amino acid sequences RGDSLRSYYAS (SEQ ID NO:24), GENNRPS (SEQ ID NO:25), and NSRDSSDHLLL (SEQ ID NO:26) respectively; and c. a modified Fc region comprising CH2 and CH3 domains and mutations at amino acid positions 234 and 235, such that the Fc region does not bind to the Fcγ receptor, wherein the mutations are L234A and L235A, and positions 234 and 235 correspond to positions 240 and 241 of SEQ ID NO: 20; wherein the antibody does not contribute to antibody-dependent enhancement of a flavivirus infection and wherein the antibody binds and neutralizes a flavivirus. a. a heavy chain with the CDRs 1-3 comprising the amino acid sequences GYSTH (SEQ ID NO:21), WDNPSSGDTTYAENFRG (SEQ ID NO:22), and GGDDYSFDH (SEQ ID NO:23) respectively; b. a light chain with the CDRs 1-3 comprising the amino acid sequences RGDSLRSYYAS (SEQ ID NO:24), GENNRPS (SEQ ID NO:25), and NSRDSSDHLLL (SEQ ID NO:26) respectively; and c. a modified Fc region comprising CH2 and CH3 domains and mutations at amino acid positions 234 and 235, such that the Fc region does not bind to the Fcγ receptor, wherein the mutations are L234A and L235A, and positions 234 and 235 correspond to positions 240 and 241 of SEQ ID NO: 20; wherein the antibody does not contribute to antibody-dependent enhancement of a flavivirus infection and wherein the antibody binds and neutralizes a flavivirus.