mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a duct component having a first surface and a second surface movable between an unassembled position and an assembled position, the method is characterized by: (a) applying a paint sealant to each of the first and the second surfaces such that, when the duct is assembled, the previously applied paint sealant contacts an opposing confronting surface having the paint sealant; (b) one of drying or curing the applied paint sealant; and (c) moving the first and second surfaces from the unassembled to the assembled position, the paint sealant forming a sealed interface between the assembled first surface and second surface. (a) applying a paint sealant to each of the first and the second surfaces such that, when the duct is assembled, the previously applied paint sealant contacts an opposing confronting surface having the paint sealant; (b) one of drying or curing the applied paint sealant; and (c) moving the first and second surfaces from the unassembled to the assembled position, the paint sealant forming a sealed interface between the assembled first surface and second surface.
A method for prolonging the shelf life of agricultural and food products, comprising forcing a stream of air to flow upwardly through a treatment zone, such that it comes into contact with a stream of an aqueous salt solution having Redox potential of not less than 200 mV on a substantially horizontally aligned perforated surface, thereby forming a layer of bubbling liquid located above said surface, and delivering the treated air which exits said treatment zone into a storage room in which said agricultural or food products are placed.
An implantable assembly for a native heart valve, comprising: a prosthetic heart valve comprising a frame and prosthetic leaflets; first and second inflatable bodies (2310, 2320); wherein the first inflatable body comprises first and second end portions (2312, 2316), wherein the first end portion is configured to be secured to tissue of the native heart valve at a first location, and the second end portion is configured to engage an outer surface of the prosthetic heart valve; and wherein the second inflatable body comprises third and fourth end portions, wherein the third end portion is configured to be secured to tissue of the native heart valve at a second location, and the fourth end portion is configured to engage the outer surface of the prosthetic heart valve; wherein the first and second inflatable bodies (2310, 2320) anchor the prosthetic heart valve within the annulus of the native heart valve; and wherein one or both of the first and second inflatable bodies (2310, 2320) are pivotally connected to the prosthetic heart valve. a prosthetic heart valve comprising a frame and prosthetic leaflets; first and second inflatable bodies (2310, 2320); wherein the first inflatable body comprises first and second end portions (2312, 2316), wherein the first end portion is configured to be secured to tissue of the native heart valve at a first location, and the second end portion is configured to engage an outer surface of the prosthetic heart valve; and wherein the second inflatable body comprises third and fourth end portions, wherein the third end portion is configured to be secured to tissue of the native heart valve at a second location, and the fourth end portion is configured to engage the outer surface of the prosthetic heart valve; wherein the first and second inflatable bodies (2310, 2320) anchor the prosthetic heart valve within the annulus of the native heart valve; and wherein one or both of the first and second inflatable bodies (2310, 2320) are pivotally connected to the prosthetic heart valve. wherein the first inflatable body comprises first and second end portions (2312, 2316), wherein the first end portion is configured to be secured to tissue of the native heart valve at a first location, and the second end portion is configured to engage an outer surface of the prosthetic heart valve; and wherein the second inflatable body comprises third and fourth end portions, wherein the third end portion is configured to be secured to tissue of the native heart valve at a second location, and the fourth end portion is configured to engage the outer surface of the prosthetic heart valve; wherein the first and second inflatable bodies (2310, 2320) anchor the prosthetic heart valve within the annulus of the native heart valve; and wherein one or both of the first and second inflatable bodies (2310, 2320) are pivotally connected to the prosthetic heart valve.
A rotary electric machine comprising a stator having stator cores to which a plurality of coil windings are attached by winding and a connection member forming a three phase delta connection by said coil windings, wherein said connection member is arranged on the coil end portion side of said coil windings of said stator, and is composed of an insulating annular groove portion formed with double annular grooves, a first annular conductive member, a second annular conductive member, and a third annular conductive member, said first annular conductive member, said second annular conductive member, and said third annular conductive member being attached by insertion into the insulating annular groove portion; the insulating annular groove portion is formed with double grooves of one groove and the other groove, and both the grooves are connected via one window portion, the insulating annular groove portion being an E shape having double grooves and triple walls which are for respectively separating these grooves so as to form an axial two-storied structure and each groove is open in a radial outward direction; said first annular conductive member, said second annular conductive member, and said third annular conductive member are each formed in a circular arc shape and provided with a plurality of arm portions extended outward in the radial direction of said stator, the plurality of arm portions being connected to the coil end portions of said coil windings respectively; said first annular conductive member and said second annular conductive member are attached by insertion into different grooves of the insulating annular groove portion, are in a positional relationship in which both said annular conductive members (40, 50) are opened, and are attached by insertion so that the window portion is disposed at the position where both said annular conductive members (40, 50) are opened, the second annular conductive member being inserted so that the window portion is located in an opened section of the second annular conductive member where a circular arc is not present; and said third annular conductive member is made such that a portion to be attached by insertion into one groove and a portion to be attached by insertion into the other groove are attached by insertion into the insulating annular groove portion via the window portion said third annular conductive member has a crossover portion crossing from one groove to the other groove, and said third annular conductive member on one groove and said third annular conductive member on the other groove are integrally configured via the crossover portion and the crossover portion is inserted in the window portion, said first annular conductive member, said second annular conductive member and said third annular conductive member each having the same number of arm portions.
Turbine for a spirometer comprising a hollow tubular body containing a rotor which is mobile around a longitudinal axis of this tubular body and two deflectors placed at an intake opening and at an output opening of said body, the rotor comprising small blades (14, 15) which are facing one another and disposed between said deflectors, the deflectors comprising an annular body and a fulcrum disposed along a longitudinal axis of this annular body coinciding with the longitudinal axis of the tubular body, between said fulcrum and said annular body a plurality of blades being provided which are integral with the fulcrum itself and with the annular body, said blades delimiting a plurality of sectors for the passage of air directed towards the rotor, and having an end portion for intake of the air and an end portion for output of the air, each blade having a continuous surface development which is defined by a plurality of adjacent, consecutive sections of surface which have a curved form and a flat form, and are interconnected to one another, characterised in that, at the end portion for output of the air, each blade has an end section of surface which is flat, straight in all of its transverse cross-section, said flat section being on a plane perpendicular to the longitudinal axis of said tubular body and orthogonal to a plane containing said longitudinal axis, said flat end section of surface protruding towards the adjacent blade, said end section of surface being configured to direct the air output from the deflector orthogonally to said plane containing the longitudinal axis of the tubular body and orthogonally onto the rotor.
Method for removing a steam generator or heat exchanger of a nuclear power plant, wherein the steam generator or heat exchanger has a plurality of primary circuit pipes contaminated on the inside of said pipes, wherein one or more of the pipes are sealed at both pipe ends by means of a plug, comprising the following steps: a) opening one or both pipe ends of each sealed pipe by introducing an opening into the plug or by removing the plug, b) introducing a viscous polymer, which cures in the pipe, into the one or more initially sealed and now open pipes, wherein the polymer fills up the pipe over the entire pipe cross-section at least in the region of the pipe ends and fixes contamination in the pipe in the filled-up section, c) detaching the pipes provided with polymer after the polymer has cured, wherein the detached pipes are sealed by the cured polymer, d) separating out the pipes that have been provided with the polymer and detached, wherein the polymer is introduced by means of one or more conduits, wherein one conduit is introduced into the pipe through an open pipe end or one conduit is introduced into the pipe through each open pipe end of the pipe. wherein the steam generator or heat exchanger has a plurality of primary circuit pipes contaminated on the inside of said pipes, wherein one or more of the pipes are sealed at both pipe ends by means of a plug, comprising the following steps: a) opening one or both pipe ends of each sealed pipe by introducing an opening into the plug or by removing the plug, b) introducing a viscous polymer, which cures in the pipe, into the one or more initially sealed and now open pipes, wherein the polymer fills up the pipe over the entire pipe cross-section at least in the region of the pipe ends and fixes contamination in the pipe in the filled-up section, c) detaching the pipes provided with polymer after the polymer has cured, wherein the detached pipes are sealed by the cured polymer, d) separating out the pipes that have been provided with the polymer and detached, a) opening one or both pipe ends of each sealed pipe by introducing an opening into the plug or by removing the plug, b) introducing a viscous polymer, which cures in the pipe, into the one or more initially sealed and now open pipes, wherein the polymer fills up the pipe over the entire pipe cross-section at least in the region of the pipe ends and fixes contamination in the pipe in the filled-up section, c) detaching the pipes provided with polymer after the polymer has cured, wherein the detached pipes are sealed by the cured polymer, d) separating out the pipes that have been provided with the polymer and detached, wherein the polymer is introduced by means of one or more conduits, wherein one conduit is introduced into the pipe through an open pipe end or one conduit is introduced into the pipe through each open pipe end of the pipe.
An X-ray diffraction method of mapping grain structures in a polycrystalline material sample having a plurality of grains, where an X-ray source provides a polychromatic X-ray beam in a beam path, in which beam path the polychromatic X-ray beam is divergent, a staging device positions the polycrystalline material sample in the beam path, an X-ray detector detects a plurality of diffracted X-ray beams leaving the polycrystalline material sample, the staging device locates the polycrystalline material sample in a plurality of mutually different angular positions in relation to the X-ray source, the X-ray detector detects substantially line-shaped segments from beams diffracted from at least some of the grains, each line-shaped segment having a position and a length, and a processing device analyses values received from the X-ray detector and utilizes at least the positions of the line-shaped segments when determining a three-dimensional model of the polycrystalline material sample, wherein at least some of the line-shaped segments (13a, 13b; 13c, 13d; 13e, 13f) are paired as originating from diffractions from the same grain and the positions of the paired line-shaped segments are used in determining the position of this grain within the three-dimensional model of the polycrystalline material sample, and the length of the paired line-shaped segments is used in determining a width of this grain.
A compound of the formula: wherein R 1 is selected from the group consisting of H, CH 3, CN, -CH 2 CN, -C(CH 3) 2 CN, F, Cl, and Br; R 2 is selected from the group consisting of H, -O(C 1 -C 3 alkylene)R 4, -CH 2 CN, CN, -OCH 3, CF 2, -C(CH 3) 2 CN, -C(CH 3) 2, -S 2 CH 3, -S 2 NH 2, and -OCF 2; R 3 is selected from the group consisting of H, CH 3, and -OCH 3; and R 4 is selected from the group consisting of H, -C(CH 3) 2 CN, -OCH 3, -S 2 CH 3, CN, and -C(CH 3) 2 OH; or a pharmaceutically acceptable salt thereof. R 1 is selected from the group consisting of H, CH 3, CN, -CH 2 CN, -C(CH 3) 2 CN, F, Cl, and Br; R 2 is selected from the group consisting of H, -O(C 1 -C 3 alkylene)R 4, -CH 2 CN, CN, -OCH 3, CF 2, -C(CH 3) 2 CN, -C(CH 3) 2, -S 2 CH 3, -S 2 NH 2, and -OCF 2; R 3 is selected from the group consisting of H, CH 3, and -OCH 3; and R 4 is selected from the group consisting of H, -C(CH 3) 2 CN, -OCH 3, -S 2 CH 3, CN, and -C(CH 3) 2 OH; or a pharmaceutically acceptable salt thereof.
A testing apparatus for testing vaporizers of electronic cigarettes, or electronic cigarettes or parts thereof comprising the vaporizers, each vaporizer comprising a liquid holder forming a chamber with a filler material retaining a liquid to be vaporized, a heating element, input terminals connected to the heating element for electrically powering the heating element, and a vapour output, whereby the vaporizer is to generate vapour emerging from the vapour output when a current flows through the input terminals in the heating element, the testing apparatus comprising: a holding construction part provided with multiple holding units (8, 10, 16, 20) each for holding a vaporizer, or an electronic cigarette or part thereof comprising the vaporizer, wherein the holding units are positioned at a holding distance from each other, and wherein the holding construction part is movable whereby the holding units are moved along a holding unit trajectory; a channel construction part provided with multiple first channels each having an inlet opening and an outlet opening, wherein each first channel is associated with a respective holding unit, wherein the inlet opening of each first channel is located to be in fluid communication with the vapour output of a vaporizer in the associated holding unit, and wherein the channel construction part is adapted to be moved in synchronism with the holding construction part whereby the outlet openings of the first channels move along an outlet opening trajectory; a fluid duct having an inlet port located to be adjacent to the outlet opening trajectory, wherein the fluid duct is connected to a fluid pump to create a fluid flow in the fluid duct in a direction away from the inlet port, and wherein the channel construction part moves relative to the inlet port of the fluid duct; and a vapour sensor arranged in the fluid duct. a holding construction part provided with multiple holding units (8, 10, 16, 20) each for holding a vaporizer, or an electronic cigarette or part thereof comprising the vaporizer, wherein the holding units are positioned at a holding distance from each other, and wherein the holding construction part is movable whereby the holding units are moved along a holding unit trajectory; a channel construction part provided with multiple first channels each having an inlet opening and an outlet opening, wherein each first channel is associated with a respective holding unit, wherein the inlet opening of each first channel is located to be in fluid communication with the vapour output of a vaporizer in the associated holding unit, and wherein the channel construction part is adapted to be moved in synchronism with the holding construction part whereby the outlet openings of the first channels move along an outlet opening trajectory; a fluid duct having an inlet port located to be adjacent to the outlet opening trajectory, wherein the fluid duct is connected to a fluid pump to create a fluid flow in the fluid duct in a direction away from the inlet port, and wherein the channel construction part moves relative to the inlet port of the fluid duct; and a vapour sensor arranged in the fluid duct.
A method performed by wireless device, the method comprising: sending a radar-detected message to a peer device while operating in a Dynamic Frequency Selection, DFS, master mode, wherein the radar-detected message indicates that radar has been detected in a first frequency channel based on monitoring; sending a channel-switch announcement message to the peer device, wherein the channel-switch announcement message indicates a second frequency channel that is radar-free; switching from operating on the first frequency channel to operating on the second frequency channel; and characterized in switching from the DFS master mode to a DFS slave mode after the switch to operating on the second channel; and switching back the DFS master mode after establishing a connection with a root node in the second channel. sending a radar-detected message to a peer device while operating in a Dynamic Frequency Selection, DFS, master mode, wherein the radar-detected message indicates that radar has been detected in a first frequency channel based on monitoring; sending a channel-switch announcement message to the peer device, wherein the channel-switch announcement message indicates a second frequency channel that is radar-free; switching from operating on the first frequency channel to operating on the second frequency channel; and characterized in switching from the DFS master mode to a DFS slave mode after the switch to operating on the second channel; and switching back the DFS master mode after establishing a connection with a root node in the second channel.
An antibody that specifically binds the extracellular domain of human TIGIT, which comprises a heavy chain CDR1 comprising TSDYAWN (SEQ ID NO:57), a heavy chain CDR2 comprising YISYSGSTSYNPSLRS (SEQ ID NO:58), and a heavy chain CDR3 comprising ARRQVGLGFAY (SEQ ID NO:59), and a light chain CDR1 comprising KASQDVSTAVA (SEQ ID NO:60), a light chain CDR2 comprising SASYRYT (SEQ ID NO:61), and a light chain CDR3 comprising QQHYSTP (SEQ ID NO:62).
A motor vehicle, comprising a movable roof or roof part, which can be stowed in the vehicle body, below a lid part which can be opened to uncover a passage opening of the roof or roof part, and wherein at least one locking device is provided to hold the lid part in a closed position, said locking device comprising at least one blocking means which can be displaced towards the locking position with a motion component directed transversely inward, and wherein the blocking means can be moved by a drive element, characterised in that said drive element is the drive element which effects the lid part movement and which, near its closed position, acts on the blocking means in a double function.
A construction machine comprising: a first hydraulic actuator that is a hydraulic cylinder; a second hydraulic actuator; a tank; and a first hydraulic pump supplying a hydraulic fluid to the second hydraulic actuator, characterized in that the construction machine further comprising: a return hydraulic fluid selection device that is connected to a bottom side hydraulic fluid chamber and a rod side hydraulic fluid chamber of the first hydraulic actuator via hydraulic lines (33, 34), selects the rod side hydraulic fluid chamber as supply source of a return hydraulic fluid at a time of a raising operation of the first hydraulic actuator, and selects the bottom side hydraulic fluid chamber as the supply source of the return hydraulic fluid at a time of a lowering operation of the first hydraulic actuator; a regeneration line supplying the hydraulic fluid discharged from the return hydraulic fluid selection device to a portion between the second hydraulic actuator and the first hydraulic pump to regenerate the hydraulic fluid; a discharge line discharging the hydraulic fluid discharged from the return hydraulic fluid selection device to the tank; and a regeneration/discharge flow rate adjustment device (4, 8; 41, 42; 4, 43)capable of adjusting a flow rate of the hydraulic fluid flowing through the regeneration line and a flow rate of the hydraulic fluid flowing through the discharge line. a return hydraulic fluid selection device that is connected to a bottom side hydraulic fluid chamber and a rod side hydraulic fluid chamber of the first hydraulic actuator via hydraulic lines (33, 34), selects the rod side hydraulic fluid chamber as supply source of a return hydraulic fluid at a time of a raising operation of the first hydraulic actuator, and selects the bottom side hydraulic fluid chamber as the supply source of the return hydraulic fluid at a time of a lowering operation of the first hydraulic actuator; a regeneration line supplying the hydraulic fluid discharged from the return hydraulic fluid selection device to a portion between the second hydraulic actuator and the first hydraulic pump to regenerate the hydraulic fluid; a discharge line discharging the hydraulic fluid discharged from the return hydraulic fluid selection device to the tank; and a regeneration/discharge flow rate adjustment device (4, 8; 41, 42; 4, 43)capable of adjusting a flow rate of the hydraulic fluid flowing through the regeneration line and a flow rate of the hydraulic fluid flowing through the discharge line.
Laundry washing machine comprising a dispenser for dispensing detergent products, softeners or fresheners, wherein the dispenser comprises a drawer housed in a front wall of the machine and comprising a first section adapted to be loaded with at least a first detergent product sufficient for one wash, so as to allow using said laundry washing machine as a conventional manually loaded dispenser machine, wherein said drawer comprises an outer handle, as well as a distinct second section adapted for housing at least a second detergent product sufficient for a given number of washes, so as to allow using said laundry washing machine also in an automatic dispensing mode.