mhurhangee/patent-ind-claim-en huggingface dataset:
Process for manufacturing a flow guide for an electrochemical reactor , comprising the steps of: - providing a substrate ; - on a first face of the substrate , printing a layer of electrically conductive ink by applying a shear stress to this layer, the viscosity of the printed ink being comprised between 70 and 500 Pa.s for a shear rate of 0.1 s -1 , and the viscosity of the printed ink being comprised between 2.5 and 7 Pa.s for a shear rate of 100 s -1 , the layer of ink being printed to form a pattern including ribs delineating flow channels . - providing a substrate ; - on a first face of the substrate , printing a layer of electrically conductive ink by applying a shear stress to this layer, the viscosity of the printed ink being comprised between 70 and 500 Pa.s for a shear rate of 0.1 s -1 , and the viscosity of the printed ink being comprised between 2.5 and 7 Pa.s for a shear rate of 100 s -1 , the layer of ink being printed to form a pattern including ribs delineating flow channels .
Method for operating a lift system having a first shaft unit and a second shaft unit which each include a number of lift shafts (111a, 111b, 111c, 112a, 112b, 112c, 113a, 113b, 113c, 114a, 114b, 114c; 121, 122, 123, 124), - wherein at least one single-car or one-car system and/or at least one multi-car system is/are provided in the first shaft unit , - wherein at least one shaft-changing multi-car system is provided in the second shaft unit , which system comprises at least two cars in one shaft which can be moved independently of one another, and - wherein, when a transporting operation is to be carried out from an initial storey to a destination storey, a decision is made by a control unit of the lift system as to whether the transporting operation is carried out by using one or several cars of the at least one single-car system, one or several cars of the at least one multi-car system, one or several cars of the at least one shaft-changing multi-car system or a combination of the same. - wherein at least one single-car or one-car system and/or at least one multi-car system is/are provided in the first shaft unit , - wherein at least one shaft-changing multi-car system is provided in the second shaft unit , which system comprises at least two cars in one shaft which can be moved independently of one another, and - wherein, when a transporting operation is to be carried out from an initial storey to a destination storey, a decision is made by a control unit of the lift system as to whether the transporting operation is carried out by using one or several cars of the at least one single-car system, one or several cars of the at least one multi-car system, one or several cars of the at least one shaft-changing multi-car system or a combination of the same.
Head-mounted device (HMD) intended to be worn by a wearer, wherein the head-mounted device is configured for the display and visualization, by the wearer, of computer-generated images, wherein said head-mounted device (HMD) comprises: - an image source (IS), - a see-through tunable diffractive mirror (M), situated in front of one eye of the wearer, - a controller configured for tuning the mirror (M), and - at least one scene camera, wherein the image source (IS) is configured for the emission of a light beam towards said mirror (M), wherein said emitted light beam is reflected onto said mirror (M) and thereby is directed towards said eye of the wearer, so as to cause visualization of a computer-generated image by the wearer, wherein the controller is configured to tune said mirror (M) for adjusting at least partially the wearer's vision for the visualization of said displayed computer-generated image, by adjusting the apparent size of visualization of the computer-generated image by the wearer and, where the wearer is ametropic, by correcting at least partially the wearer's ametropia for the visualization of the computer-generated image by the wearer, and wherein the head-mounted device is configured to: (i) determine a distance and/or gaze direction of visualization, by the wearer, of an object in a natural vision field, based on data collected from said at least one scene camera, and (ii) tune the mirror to adjust the distance and/or gaze direction of visualization, by the wearer, of the computer-generated image, as a function of the distance and/or gaze direction determined at (i). - an image source (IS), - a see-through tunable diffractive mirror (M), situated in front of one eye of the wearer, - a controller configured for tuning the mirror (M), and - at least one scene camera, (i) determine a distance and/or gaze direction of visualization, by the wearer, of an object in a natural vision field, based on data collected from said at least one scene camera, and (ii) tune the mirror to adjust the distance and/or gaze direction of visualization, by the wearer, of the computer-generated image, as a function of the distance and/or gaze direction determined at (i).
A pump for causing a heat-transport fluid to flow in a fluid circuit, the pump including: - a main flange ; - a volute inwardly delimiting a flow chamber of the heat-transfer fluid, the volute being rigidly fastened to the main flange ; - a pump wheel housed in the flow chamber ; - a diffuser housed in the flow chamber , arranged so as to channel the heat-transfer fluid set in motion by the pump wheel ; - a drive shaft rotating the pump wheel around a rotation axis (X), axially traversing the main flange and the diffuser , the pump wheel being rigidly fastened to the drive shaft ; - a device for cooling the drive shaft , including a thermal barrier flange axially inserted between the main flange and the volute , and a cooling circuit connected to the thermal barrier flange and surrounding the drive shaft , the diffuser comprises a diffuser flange clamped axially between the thermal barrier flange and the volute ; characterized in that one of the diffuser and the thermal barrier flange comprises an outer groove surrounding the rotation axis (X), the other of the diffuser and the thermal barrier flange including an outer tenon engaged in the outer groove and providing the axial alignment of the cooling device and the diffuser with one another, the outer groove being circumferential, centered on the rotation axis (X). - a main flange ; - a volute inwardly delimiting a flow chamber of the heat-transfer fluid, the volute being rigidly fastened to the main flange ; - a pump wheel housed in the flow chamber ; - a diffuser housed in the flow chamber , arranged so as to channel the heat-transfer fluid set in motion by the pump wheel ; - a drive shaft rotating the pump wheel around a rotation axis (X), axially traversing the main flange and the diffuser , the pump wheel being rigidly fastened to the drive shaft ; - a device for cooling the drive shaft , including a thermal barrier flange axially inserted between the main flange and the volute , and a cooling circuit connected to the thermal barrier flange and surrounding the drive shaft , the diffuser comprises a diffuser flange clamped axially between the thermal barrier flange and the volute ;
Method for producing pressure-sensitive adhesives comprising at least one elastomer component and also at least one reactive adhesive comprising one or more reactive resins of which at least one reactive resin is an epoxy resin, and also at least one hardener for epoxy resins, starting from one or more non-thermoplastic elastomers, characterized in that the non-thermoplastic elastomers are digested with at least part of the epoxy resins in a multi-screw extruder which has at least six axially parallel co-rotating screw shafts arranged in a circle.
An unloading device comprising a body having side walls , a back wall extending between the side walls and a front opening between the side walls, a rotatable mixer extending between the side walls, one or more rotatable pre-mixers extending between the side walls and located between said rotatable mixer and said front opening , a rotary feeder , a rotatable feeder screw , and a rotatable post-mixer located between said rotatable feeder screw and said rotary feeder , wherein the unloading device is characterized in that it comprises one or more independently controllable motors for rotating said one or more rotatable pre-mixers , an independently controllable motor for rotating said rotatable mixer , an independently controllable motor for rotating said post-mixer , and a remote controller configured to control said independently controllable motors . a body having side walls , a back wall extending between the side walls and a front opening between the side walls, a rotatable mixer extending between the side walls, one or more rotatable pre-mixers extending between the side walls and located between said rotatable mixer and said front opening , a rotary feeder , a rotatable feeder screw , and a rotatable post-mixer located between said rotatable feeder screw and said rotary feeder , one or more independently controllable motors for rotating said one or more rotatable pre-mixers , an independently controllable motor for rotating said rotatable mixer , an independently controllable motor for rotating said post-mixer , and a remote controller configured to control said independently controllable motors .
An optical apparatus comprising: a light source configured to emit light composed of a sequence of shots; and a steering device optically coupled to the light source and configured to steer the shots emitted by the light source in accordance with a predefined scan pattern such that at least one intermediate shot is emitted by the light source between a first shot directed by the steering device within an aperture defined by an eye safety regulation and a subsequent, second shot directed by the steering device within the same aperture, each intermediate shot being directed by the steering device outside the aperture., wherein an energy of each shot is determined based on an Accessible Emission Limit defined by the eye safety regulation as a defined amount of energy incident on the aperture during a predetermined time interval, and wherein the energy of each shot is: Es = AEL t × N + 1 T where Es is the energy of each shot, AEL is the defined amount of energy incident on the aperture during the predetermined time interval, t is the duration of the predetermined time interval, N is the number of intermediate shots, and T is the shot period. a light source configured to emit light composed of a sequence of shots; and a steering device optically coupled to the light source and configured to steer the shots emitted by the light source in accordance with a predefined scan pattern such that at least one intermediate shot is emitted by the light source between a first shot directed by the steering device within an aperture defined by an eye safety regulation and a subsequent, second shot directed by the steering device within the same aperture, each intermediate shot being directed by the steering device outside the aperture., wherein an energy of each shot is determined based on an Accessible Emission Limit defined by the eye safety regulation as a defined amount of energy incident on the aperture during a predetermined time interval, and wherein the energy of each shot is: Es = AEL t × N + 1 T where Es is the energy of each shot, AEL is the defined amount of energy incident on the aperture during the predetermined time interval, t is the duration of the predetermined time interval, N is the number of intermediate shots, and T is the shot period.
Ceramic spark plug insulator comprising an insulator head , which points in the direction of an electrical connection region , and a combustion chamber-side insulator root , wherein the spark plug insulator, in a transition region between the insulator root that can be arranged in the combustion chamber and an insulator region that can be arranged outside the combustion chamber, comprises a root fillet which, on a first surface region (A) which is directed towards the outer side of the spark plug insulator and has a first length L A that is defined in the axial direction (X-X) of the spark plug insulator, has a glazing , wherein the spark plug insulator has an adjacent third surface region (C) which is situated on the combustion chamber side of the root fillet , characterized in that the third surface region (C) comprises a glazed sixth surface region (F), which is situated adjacent to the root fillet and has a sixth length L F , and an unglazed seventh surface region (G), which adjoins the sixth surface region (F) in the direction of an insulator root tip and has a seventh length L G , wherein the lengths are each defined as maximum lengths in the axial direction (X-X) of the spark plug insulator , and the following equation is satisfied: L F ≥ L G .
A wire saw comprising a drive roller ; a deflection roller spaced apart therefrom; and a saw wire which is guided as a closed loop over the drive roller and the deflection roller , wherein the drive roller is rotatably supported at a machine part of the wire saw and the deflection roller is rotatably supported at a support structure connected to the machine part such that the saw wire is surrounded by a free space in a projection region defined by the support structure ; and wherein the wire saw is configured as a portable handheld device, characterized in that the support structure is pivotable relative to the machine part about a pivot axis (S2) in parallel with an axis of rotation (R) of the drive roller to carry out lateral oblique cuts.
A radial tire, the tire comprising a tread portion; a pair of sidewall portions ; a pair of bead portions , each bead portion including a bead core ; a carcass reinforcing ply including a ply turnup , each ply turnup including a radially outward ply end ; and a chipper disposed at each ply turnup with a radially outward chipper end that is located radially below the radially outward ply end ; wherein the profile of the axially outer surface of the sidewall portion is at a distance G from the carcass reinforcing ply from the axially most outward point of the axially outer surface until a point A, and joins the axially outer surface of the bead portion at a point B, wherein the axially outer surface of the sidewall portion follows two curves with a first curve extending from the point A and having a center of curvature positioned axially outward of the carcass reinforcing ply and a second curve joining the point B and having a center of curvature positioned axially inward of the axially outer surface of the tire ; characterised in that the profile of the axially outer surface of the sidewall portion in the portion extending from points A to B is tangent to a circle C1 that is centered on the radially outward ply end , and in that (i) the circle C1 has a radius R1 ranging from 5 to 15 mm and the profile of the axially outer surface of the sidewall portion in the point B is tangent to a circle C2 centered on the radially outward chipper end ; and/or (ii) the distance of the point A from the radially outward ply end is ranging from 10 to 30 mm; and/or (iii) the profile of the axially outer surface of the sidewall portion in the point B is tangent to a circle C2 centered on a radially outward chipper end and the distance of the point A from the radially outward ply end is ranging from 10 mm to 30 mm. (i) the circle C1 has a radius R1 ranging from 5 to 15 mm and the profile of the axially outer surface of the sidewall portion in the point B is tangent to a circle C2 centered on the radially outward chipper end ; and/or (ii) the distance of the point A from the radially outward ply end is ranging from 10 to 30 mm; and/or (iii) the profile of the axially outer surface of the sidewall portion in the point B is tangent to a circle C2 centered on a radially outward chipper end and the distance of the point A from the radially outward ply end is ranging from 10 mm to 30 mm.
A key for a lock , comprising a grip , a shaft having two opposite main faces and two opposite secondary lateral faces , at least a lever having a first arm for starting movement by a sensor formed by a fixed pin and a second arm for activating a tumbler element of the lock , said lever being pivoted to the shaft of the key with an oscillating axis thereof being transversal to the longitudinal axis of the shaft of the key , whereby said first lever arm and said second lever arm are located on a same main face of the shaft of the key , said lever being housed in a groove of said main face , said groove having a depth dimension in direction of the thickness of the shaft lower than the thickness of the shaft so that a bottom wall of the groove is defined separating the lever from the main face of the shaft opposite to that one where the groove is located and extending longitudinally along said shaft up to the end of the shaft opposite to the grip of the key , said lever being positioned entirely internally of said groove in an inactive position to interact with the sensor .
A patient support apparatus comprising: a frame having a first portion and a second portion, the first portion being movable to raise and lower relative to the second portion; a drainage bag support coupled to the first portion of the frame to move therewith; and control circuitry to control movement of the first portion of the frame, wherein the control circuitry has a lockout mode to prevent movement of the first portion of the frame relative to the second portion of the frame so that, if a drainage bag is coupled to the drainage bag support , the first portion is unable to be moved to place the drainage bag in an unwanted position, wherein the frame comprises a mattress support deck including a foot deck section and wherein the foot deck section comprises the first portion of the frame, characterised in that the drainage bag support has a first rung that is substantially horizontal to a floor when the first portion is lowered and a second rung that is angled with respect to the first rung and is substantially horizontal to the floor when the first portion is raised. a frame having a first portion and a second portion, the first portion being movable to raise and lower relative to the second portion; a drainage bag support coupled to the first portion of the frame to move therewith; and control circuitry to control movement of the first portion of the frame, wherein the control circuitry has a lockout mode to prevent movement of the first portion of the frame relative to the second portion of the frame so that, if a drainage bag is coupled to the drainage bag support , the first portion is unable to be moved to place the drainage bag in an unwanted position, wherein the frame comprises a mattress support deck including a foot deck section and wherein the foot deck section comprises the first portion of the frame, characterised in that the drainage bag support has a first rung that is substantially horizontal to a floor when the first portion is lowered and a second rung that is angled with respect to the first rung and is substantially horizontal to the floor when the first portion is raised.
A method for access control using a personal security device , PSD, of a user, comprising: interfacing a reader device , coupled to a host device , with the PSD ; determining whether the PSD has a security mechanism loaded into the PSD by a manufacturer of the PSD ; if so (61-YES), determining whether the PSD is presented for the first time to the reader device ; if so (65-YES), providing the PSD with a new security mechanism, wherein the security mechanism comprises a one-time password, OTP, key ; if no (65-NO), denying the user access and ending the method; authenticating the reader device to the PSD , wherein the OTP key is only readable from the PSD by the reader device when the reader device is authenticated and a secure channel is established between the PSD and a reader device ; receiving the OTP key from the PSD at the reader device over the secure channel; generating an OTP at the reader device using the OTP key received at the reader device from the PSD ; and passing the OTP from the reader device to the host device or a validation system connected to the host device for validation. interfacing a reader device , coupled to a host device , with the PSD ; determining whether the PSD has a security mechanism loaded into the PSD by a manufacturer of the PSD ; if so (61-YES), determining whether the PSD is presented for the first time to the reader device ; if so (65-YES), providing the PSD with a new security mechanism, wherein the security mechanism comprises a one-time password, OTP, key ; if no (65-NO), denying the user access and ending the method; if so (65-YES), providing the PSD with a new security mechanism, wherein the security mechanism comprises a one-time password, OTP, key ; if no (65-NO), denying the user access and ending the method; authenticating the reader device to the PSD , wherein the OTP key is only readable from the PSD by the reader device when the reader device is authenticated and a secure channel is established between the PSD and a reader device ; receiving the OTP key from the PSD at the reader device over the secure channel; generating an OTP at the reader device using the OTP key received at the reader device from the PSD ; and passing the OTP from the reader device to the host device or a validation system connected to the host device for validation.
A mitral regurgitation treatment system , comprising: an annuloplasty device configured for placement on an atrial side of a mitral valve ; a tethering element configured to extend between a first papillary muscle and a second papillary muscle , wherein the tethering element includes a first anchor securing the tethering element to the first papillary muscle and a second anchor securing the tethering element to the second papillary muscle ; and characterized by a linking element extending from the annuloplasty device to the tethering element , wherein the linking element includes a spring element disposed between the annuloplasty device and the tethering element . an annuloplasty device configured for placement on an atrial side of a mitral valve ; a tethering element configured to extend between a first papillary muscle and a second papillary muscle , wherein the tethering element includes a first anchor securing the tethering element to the first papillary muscle and a second anchor securing the tethering element to the second papillary muscle ; and characterized by a linking element extending from the annuloplasty device to the tethering element , wherein the linking element includes a spring element disposed between the annuloplasty device and the tethering element .