mhurhangee/ep-ind-claims huggingface dataset:
Water-bearing household appliance, having a water treatment chamber and having a water duct from and/or to the water treatment chamber, in particular dishwasher machine or washing machine, wherein the household appliance has an impeller pump (22, 122) in the water duct, and wherein the impeller pump has a pump chamber (26, 126), an impeller (28, 128) with a rotation axis (30, 130) in the pump chamber and a drive motor (32, 132) for the impeller, wherein the rotation axis extends vertically or perpendicular to a floor space of the household appliance, wherein an inlet (24, 124) into the pump chamber (26, 126) is provided, which inlet ends directly on a bottom side or on a drainage (18, 118) from the water treatment chamber, characterized in that - an outlet (25, 125) from the pump chamber (26, 126) is provided in the lower region of the pump (22, 122), - the drive motor (32, 132) is located on the axial level of the pump chamber and is surrounded by the pump chamber. - an outlet (25, 125) from the pump chamber (26, 126) is provided in the lower region of the pump (22, 122), - the drive motor (32, 132) is located on the axial level of the pump chamber and is surrounded by the pump chamber.
A flexible differential strain sensor, comprising: a deformable substrate having a first axis and a second axis different than the first axis; a first sensing element, comprising conductive gel, arranged to sense strain in the deformable substrate along the first axis; a second sensing element, comprising conductive gel, having a first portion arranged to sense strain in the deformable substrate along the first axis and a second portion arranged to sense strain in the deformable substrate along the second axis; wherein the second sensing element is arranged to cancel at least a portion of the stimulus sensed by the first sensing element along the first axis; wherein electrical impedance of the conductive gel of the first and second sensing elements (106, 112) changes in response to a change in strain on the deformable substrate and wherein the first and second sensing elements (106, 112) are configured to sense the strain based, at least in part, on a change in impedance; and a signal processing unit, operatively coupled to the first sensing element and to the second sensing element, configured to determine the strain along the second axis by subtracting the change in impedance from the first sensing element from the change in impedance from the second sensing element; wherein the signal processing unit is further configured to determine the strain along the first axis based on the change of impedance from the first sensing element; wherein the signal processing unit is further configured to output a vector indicative of the strain along the first axis and along the second axis. a deformable substrate having a first axis and a second axis different than the first axis; a first sensing element, comprising conductive gel, arranged to sense strain in the deformable substrate along the first axis; a second sensing element, comprising conductive gel, having a first portion arranged to sense strain in the deformable substrate along the first axis and a second portion arranged to sense strain in the deformable substrate along the second axis; wherein the second sensing element is arranged to cancel at least a portion of the stimulus sensed by the first sensing element along the first axis; wherein electrical impedance of the conductive gel of the first and second sensing elements (106, 112) changes in response to a change in strain on the deformable substrate and wherein the first and second sensing elements (106, 112) are configured to sense the strain based, at least in part, on a change in impedance; and a signal processing unit, operatively coupled to the first sensing element and to the second sensing element, configured to determine the strain along the second axis by subtracting the change in impedance from the first sensing element from the change in impedance from the second sensing element; wherein the signal processing unit is further configured to determine the strain along the first axis based on the change of impedance from the first sensing element; wherein the signal processing unit is further configured to output a vector indicative of the strain along the first axis and along the second axis.
A multifunctional safety valve device with an incorporated proportional pressure regulator, to be used in a line feeding an aeriform fluid to a user, such as a generic gas feeding a gas appliance, said device comprising a body in which a conduit for said fluid or gas is defined, said conduit being connected to a gas feed line and to a line delivering the gas to the user, said conduit comprising a first passage to be intercepted by a first valving element of a first valve member and a second passage to be intercepted or selectively restricted by second valving element of a second valve member, positioned downstream of the first, to act as a gas pressure regulator and modulator, said valving elements (4A, 5A) being operated by corresponding elecromagnetic actuators (15, 16) and urged into closure, i.e. into the position in which they intercept the respective passages, at least by a corresponding spring (30,31), the second valving element cooperating with a membrane subjected to the gas pressure so as to urge said second valving element into the closed position, the membrane having a surface subjected to the pressure of the gas moving towards said second valve member which is greater than the surface of the valving element subjected to the same gas pressure, to hence maintain the valving element closed, this latter presenting, downstream of the second passage, a portion arranged to sealedly close this latter when intercepted by the second valving element, the passage on which the valving element of the second valve member is positioned dividing the conduit of the device body into two adjacent consecutive chambers (11,12), said valving element comprising a first portion positioned within a first of said chambers (11,12) and a second portion positioned within a second of said chambers (11, 12) downstream of the first and connected to the gas delivery, said second portion presenting a flexible rim and the first portion presenting a surface subjected to gas pressure also acting on the membrane, said first portion being arranged to close onto the edge of the passage facing the first chamber, characterised in that the first portion of the valving element comprises a perimetral seal element projecting from it and cooperating by abutment with the edge of the passage facing the chamber of the conduit on which the valving element is positioned.
An ex vivo method for generating neurons comprising contacting glial cells with a group of compounds comprising a combination of at least three of Crizotinib (Cri), Flurbiprofen (Flu), Lithium Chloride (Li), Vitamin C, Ceritinib (Cer) and Pirfenidone.
A method of fabricating a connecting rod (6-6"') out of composite material from three-dimensional fabric of woven reinforcing fibers, the connecting rod (6-6"') extending in a main direction, and the method comprising the operations of: • cutting out one or more base pieces (7-7"', 8-8"') from one or more different three-dimensional fabrics; • cutting out one or more reinforcing pieces (9-9"', 10-10"') from one or more different three-dimensional fabrics; • installing the various pieces (7-7"', 8-8"', 9-9"', 10-10"') on a support in order to shape them in a configuration in which the base pieces and the reinforcing pieces are superposed; • securing the various pieces (7-7"', 8-8"', 9-9"', 10-10"') to one another by stitching (12-12"', 13-13"', 14-14"', 15-15"') with reinforcing fibers in order to constitute a reinforcing fiber preform; • installing the preform on a mandrel; and • injecting resin into the preform and polymerizing the resin. • cutting out one or more base pieces (7-7"', 8-8"') from one or more different three-dimensional fabrics; • cutting out one or more reinforcing pieces (9-9"', 10-10"') from one or more different three-dimensional fabrics; • installing the various pieces (7-7"', 8-8"', 9-9"', 10-10"') on a support in order to shape them in a configuration in which the base pieces and the reinforcing pieces are superposed; • securing the various pieces (7-7"', 8-8"', 9-9"', 10-10"') to one another by stitching (12-12"', 13-13"', 14-14"', 15-15"') with reinforcing fibers in order to constitute a reinforcing fiber preform; • installing the preform on a mandrel; and • injecting resin into the preform and polymerizing the resin.
An optical gyro comprising: at least one substrate; first, second, and third lasers (80,82, and 84) mounted on said at least one substrate, said first laser configured to produce a first light beam having a first frequency, said second laser configured to produce a second light beam having a second frequency, said third laser configured to produce a third light beam having a third frequency; an optics subsystem mounted on said at least one substrate and configured to phase lock said second and third lasers (82 and 84) with said first laser; a resonator comprising first and second ends coupled to the substrate, the resonator having first and second counter-propagating directions, said first counter-propagating direction having a first resonance frequency, and said 15 second counter-propagating direction having a second resonance frequency, said resonator configured to circulate a portion of each of said first, second, and third light beams, said resonator comprising an optical fiber coil having a hollow core, said portion of said first light beam circulating in said first counter-propagating direction through said hollow core, and said portions of said second and third light beams circulating in said second counter-propagating direction through said hollow core, said first frequency tuned to said first resonance frequency, said second frequency tuned to a first tunable and controllable offset from said second resonance frequency, and said third frequency tuned to a second tunable and controllable offset from said second resonance frequency. at least one substrate; first, second, and third lasers (80,82, and 84) mounted on said at least one substrate, said first laser configured to produce a first light beam having a first frequency, said second laser configured to produce a second light beam having a second frequency, said third laser configured to produce a third light beam having a third frequency; an optics subsystem mounted on said at least one substrate and configured to phase lock said second and third lasers (82 and 84) with said first laser; a resonator comprising first and second ends coupled to the substrate, the resonator having first and second counter-propagating directions, said first counter-propagating direction having a first resonance frequency, and said 15 second counter-propagating direction having a second resonance frequency, said resonator configured to circulate a portion of each of said first, second, and third light beams, said resonator comprising an optical fiber coil having a hollow core, said portion of said first light beam circulating in said first counter-propagating direction through said hollow core, and said portions of said second and third light beams circulating in said second counter-propagating direction through said hollow core, said first frequency tuned to said first resonance frequency, said second frequency tuned to a first tunable and controllable offset from said second resonance frequency, and said third frequency tuned to a second tunable and controllable offset from said second resonance frequency.
A synergistic antimicrobial composition comprising zoxamide and one of 4,5-dichloro-2-n-octyl-4-isothiazolin-3-one or 2-n-octyl-4-isothiazolin-3-one.
Rotary-drivable machining tool with a holder extending along a rotary axis and with a cutting head held coaxially on said holder by being screwed to a threaded sleeve arranged in said holder, said threaded sleeve being arranged co-rotatably in the holder and supported axially at least in the direction of the cutting head, characterized in that the cutting head is clamped axially against the holder by means of a threaded spindle screwed into the threaded sleeve, said threaded spindle having a differential thread with threaded sections (30a, 30b) acting in opposite directions which are screwed into a threaded hole in the threaded sleeve or into a threaded hole in the cutting head, the holder being formed from a basic element and a receiving part held in a co-rotatably and axially fixed manner on said basic element and in which the threaded sleeve is arranged.
A computer-implemented method for selecting a display region of a foldable computing device in which to display an application window, comprising: analyzing activity data to identify a plurality of application windows associated with a workflow; receiving an indication of an activation of a UI element in a first display region of the foldable computing device, wherein the UI element is associated with displaying the application window; determining that the application window and an existing application window are associated with the workflow by determining that identifying information of the existing application window matches identifying information of a first of the plurality of application windows and by determining that identifying information of the application window matches identifying information of a second of the plurality of application windows; determining that the existing application window is located in the first display region of the foldable computing device; determining that a default location of the application window is in the first display region based on the UI element being located in the first display region; in response to determining that the application window and the existing application window are associated with the workflow, and in response to determining that the existing application window and the default location of the application window are located in the first display region, displaying the application window in a second display region of the foldable computing device. analyzing activity data to identify a plurality of application windows associated with a workflow; receiving an indication of an activation of a UI element in a first display region of the foldable computing device, wherein the UI element is associated with displaying the application window; determining that the application window and an existing application window are associated with the workflow by determining that identifying information of the existing application window matches identifying information of a first of the plurality of application windows and by determining that identifying information of the application window matches identifying information of a second of the plurality of application windows; determining that the existing application window is located in the first display region of the foldable computing device; determining that a default location of the application window is in the first display region based on the UI element being located in the first display region; in response to determining that the application window and the existing application window are associated with the workflow, and in response to determining that the existing application window and the default location of the application window are located in the first display region, displaying the application window in a second display region of the foldable computing device.
A resilient tyre designed to be used on industrial and construction machinery, said resilient tyre comprising a plurality of circular layers of elastic material set on top of one another in the radial direction, said layers forming, proceeding from the centre of the resilient tyre towards the periphery, an inner portion referred to as base, an outer portion referred to as tread, and two lateral surfaces (4, 4') with height, said resilient tyre comprising a plurality of cushioning holes made in both of the lateral surfaces (4, 4') of the resilient tyre, wherein said cushioning holes substantially have a wing-like shape, wherein the aperture of each cushioning hole in the lateral surface (4, 4') has a wing profile comprising an upper camber, a lower camber, a top edge, and a bottom edge, wherein said aperture can be inscribed in a rectangle having a height and a base in such a way that said rectangle is simultaneously tangential to the upper camber, to the lower camber, to the top edge and to the bottom edge of said aperture, said resilient tyre being characterized in that said height is 20% of the section height of the lateral surfaces (4, 4'), whereas said base is 50% of the section height of the lateral surfaces (4, 4').
A measurement device adapted to communicate with a monitor device employing a bi-directional communication protocol, characterised in that the measurement device is adapted to operate in a uni-directional communication mode such that it transmits messages irrespective of response messages transmitted to the measurement device.
A method for manufacturing a polyolefin resin in-mold-foam-molded article, the article being molded by in-mold foam molding in which polyolefin resin pre-foamed particles are packed in a mold, thermally foamed and fused, the method comprising: subjecting the in-mold-foam-molded article after ejection from the mold to primary aging at 70°C or more and 85°C or less to restore a shape thereof; followed by subjecting the in-mold-foam-molded article to secondary aging at 35°C or more and 55°C or less, wherein the article is transferred as quickly as possible from an aging room controlled at the first aging temperature to another aging room controlled at the second aging temperature. subjecting the in-mold-foam-molded article after ejection from the mold to primary aging at 70°C or more and 85°C or less to restore a shape thereof; followed by subjecting the in-mold-foam-molded article to secondary aging at 35°C or more and 55°C or less, wherein the article is transferred as quickly as possible from an aging room controlled at the first aging temperature to another aging room controlled at the second aging temperature.
A system for the selective catalytic reduction of nitrogen oxide in a furnace flue gas stream having an initial concentration of nitrogen oxide, which comprises: a) a combustion zone, a convection section positioned above the combustion zone, and a stack positioned above the convection section; b) a first heat recovery section positioned in the convection section for reducing the temperature of the furnace flue gas stream from the combustion zone to not less than about 204°C (400°F) as it exits the convection section; c) a fan positioned downstream of the first heat recovery section for moving flue gas from the convection section to the stack; d) a reactor for the selective catalytic reduction of nitrogen oxide in the flue gas stream positioned in the stack downstream of the fan, said reactor including an injector for introducing a reducing agent into the flue gas stream and containing at least one nitrogen oxide conversion catalyst for the selective catalytic reduction of nitrogen oxide in the flue gas stream upon contact therewith to provide a treated gas stream of reduced nitrogen oxide concentration; e) a treated gas stream outlet through which treated gas is discharged; and, f) a second heat recovery section positioned in the stack downstream of the reactor for reducing the temperature of the treated gas and connected to the first heat recovery section by a piping tie-in for permitting the flow of a fluid therebetween. a) a combustion zone, a convection section positioned above the combustion zone, and a stack positioned above the convection section; b) a first heat recovery section positioned in the convection section for reducing the temperature of the furnace flue gas stream from the combustion zone to not less than about 204°C (400°F) as it exits the convection section; c) a fan positioned downstream of the first heat recovery section for moving flue gas from the convection section to the stack; d) a reactor for the selective catalytic reduction of nitrogen oxide in the flue gas stream positioned in the stack downstream of the fan, said reactor including an injector for introducing a reducing agent into the flue gas stream and containing at least one nitrogen oxide conversion catalyst for the selective catalytic reduction of nitrogen oxide in the flue gas stream upon contact therewith to provide a treated gas stream of reduced nitrogen oxide concentration; e) a treated gas stream outlet through which treated gas is discharged; and, f) a second heat recovery section positioned in the stack downstream of the reactor for reducing the temperature of the treated gas and connected to the first heat recovery section by a piping tie-in for permitting the flow of a fluid therebetween.
Drive sleeve suitable for engaging a nut having at least one inner thread section, the drive sleeve comprising a hollow body having a clutch interface at a first end and a thread extending on an outer surface of the body, wherein the clutch interface comprises a ring of crown teeth with a first outer diameter, and wherein the thread has a major diameter and a minor diameter, characterized in that the ring of crown teeth has at least two cavities extending on the outer surface of the body from the first end to the thread and defining a second outer diameter which is smaller than the major diameter of the thread.
A control unit for determining a pressure in a blood vessel (A, V, F), in particular in an arteriovenous fistula, which is in fluid connection with at least one section (28, 41) of a blood line system, in particular of an extracorporeal blood circulation, wherein at least one pressure-generating device (3, 8, 19, 24, 26) is assigned to the blood line system and is suitable for acting on the section (28, 41), and wherein the control unit is configured to carry out the following steps: a) ensuring that none of the at least one pressure-generating device (3, 8, 19, 24, 26) acts on said section (28, 41), b) interrupting the fluid connection of the section (28, 41) with the blood vessel (A, V, F) by triggering an interruption means (11, 29), c) adjusting the pressure in said section (28, 41) at a predetermined target value, in particular at the ambient pressure, with the help of a pressure sensor (13, 14) in said section (28, 41), d) restoring the fluid connection of said section (28, 41) with the blood vessel (A, V, F) by triggering the interruption means (11, 29), and e) measuring the pressure established in said section (28, 41) with the help of the pressure sensor (13, 14). a) ensuring that none of the at least one pressure-generating device (3, 8, 19, 24, 26) acts on said section (28, 41), b) interrupting the fluid connection of the section (28, 41) with the blood vessel (A, V, F) by triggering an interruption means (11, 29), c) adjusting the pressure in said section (28, 41) at a predetermined target value, in particular at the ambient pressure, with the help of a pressure sensor (13, 14) in said section (28, 41), d) restoring the fluid connection of said section (28, 41) with the blood vessel (A, V, F) by triggering the interruption means (11, 29), and e) measuring the pressure established in said section (28, 41) with the help of the pressure sensor (13, 14).