mhurhangee/patent-ind-claim-en huggingface dataset:
A polyamide monofilament wherein abrasion tension upon passage of a ceramic guide is up to 0.3 cN/dtex, determined as described herein and amount of static electricity generated at the exit of a chromium round rod guide upon passage of said chromium round rod guide which is a frictional body is up to 300 V, static electricity being determined as described herein, the polyamide monofilament having a spinning oil constituted from a smoothing agent, an emulsifier, and an antistatic agent, wherein the smoothing agent comprises at least one modified silicone, and the antistatic agent comprises an anionic surfactant. the polyamide monofilament having a spinning oil constituted from a smoothing agent, an emulsifier, and an antistatic agent, wherein the smoothing agent comprises at least one modified silicone, and the antistatic agent comprises an anionic surfactant.
An apparatus for cutting a wafer into one or more shapes, characterized in that the apparatus comprises: a fixture including a first floor , wherein the first floor includes an array of pin holes ; a plurality of pins held in the array of pin holes, the plurality of pins comprising: long pins; medium pins; and short pins; an inlay that rests on the short pins , wherein the inlay includes holes or indentations that receive the medium pins to stabilize the inlay from moving in a direction parallel to the first floor; and a laser, wherein, in use, the long pins are configured to support the wafer and the short pins are configured to support the inlay while the laser cuts, from the wafer , a shape that corresponds to the inlay , and such that the cut portion of the wafer rests on the inlay . a fixture including a first floor , wherein the first floor includes an array of pin holes ; a plurality of pins held in the array of pin holes, the plurality of pins comprising: long pins; medium pins; and short pins; long pins; medium pins; and short pins; an inlay that rests on the short pins , wherein the inlay includes holes or indentations that receive the medium pins to stabilize the inlay from moving in a direction parallel to the first floor; and a laser, wherein, in use, the long pins are configured to support the wafer and the short pins are configured to support the inlay while the laser cuts, from the wafer , a shape that corresponds to the inlay , and such that the cut portion of the wafer rests on the inlay .
A device for use in monitoring blood pressure comprising: a controller configured to: monitor a first blood pressure measurement based on a first blood pressure signal; characterised in that : a decision to initiate acquiring a second blood pressure measurement is based on med-dia-ratio calculated using the first blood pressure signal only, wherein med-dia-ratio is the difference between the mean arterial pressure and the diastolic pressure divided by the pulse pressure; and wherein the controller is further configured to initiate acquiring the second blood pressure measurement if the med-dia-ratio exceeds a predetermined threshold. a controller configured to: monitor a first blood pressure measurement based on a first blood pressure signal; characterised in that : a decision to initiate acquiring a second blood pressure measurement is based on med-dia-ratio calculated using the first blood pressure signal only, wherein med-dia-ratio is the difference between the mean arterial pressure and the diastolic pressure divided by the pulse pressure; and wherein the controller is further configured to initiate acquiring the second blood pressure measurement if the med-dia-ratio exceeds a predetermined threshold. a decision to initiate acquiring a second blood pressure measurement is based on med-dia-ratio calculated using the first blood pressure signal only, wherein med-dia-ratio is the difference between the mean arterial pressure and the diastolic pressure divided by the pulse pressure; and wherein the controller is further configured to initiate acquiring the second blood pressure measurement if the med-dia-ratio exceeds a predetermined threshold.
A modular highway warning strip system, comprising a plurality of segments assembled together to form a warning strip assembly having a length, each of the plurality of segments being spaced from adjacent ones of the segments along the warning strip length, the segments being assembled together along a cord disposed along the length of the warning strip assembly; characterised in that the warning strip assembly comprises a first warning strip subassembly and a second warning strip subassembly which are joined together by engagement of a first jigsaw member on an end of the first warning strip subassembly and a second jigsaw member on an end of the second warning strip subassembly.
Use of a synchronous reluctance motor in a production machine for carrying out an extrusion method, wherein the synchronous reluctance motor has a stator and a rotor , wherein a laminate section of the rotor has flux barriers , wherein the rotor is embodied with a high number of poles, wherein a respective pole is formed by a flux barrier stack, wherein the rotor has at least six poles, wherein a hollow shaft is provided in the rotor as a constituent part of the production machine and the hollow shaft is designed to feed through an extruder screw, wherein a hollow shaft that is precisely so large that regions of the laminate section that are substantially traversed by flux barriers are present is used.
Device of a blow-moulding apparatus for moulding hollow bodies, in particular a stretch blow-moulding machine, wherein the device comprises: - a housing block with a through-bore for at least partially receiving a blowing nozzle of the blow-moulding apparatus which may be connected to the hollow body, - at least one valve with a movable piston and with a valve chamber , - a first channel which runs in the housing block and which connects the valve chamber to the through-bore , - a second channel (14, 33; 140) which connects the valve chamber to an external line and - a cover (3, 3', 3") for fastening the valve to the housing block , wherein the valve connects the first channel and the second channel (14, 33; 140) to one another and separates them from one another, characterized in that the second channel runs at least partially in the cover and/or that at least one part of the valve chamber is arranged in the cover (3, 3', 3") and surrounds the piston . - a housing block with a through-bore for at least partially receiving a blowing nozzle of the blow-moulding apparatus which may be connected to the hollow body, - at least one valve with a movable piston and with a valve chamber , - a first channel which runs in the housing block and which connects the valve chamber to the through-bore , - a second channel (14, 33; 140) which connects the valve chamber to an external line and - a cover (3, 3', 3") for fastening the valve to the housing block , wherein the valve connects the first channel and the second channel (14, 33; 140) to one another and separates them from one another, characterized in that the second channel runs at least partially in the cover and/or that at least one part of the valve chamber is arranged in the cover (3, 3', 3") and surrounds the piston .
A composition comprising a solid dispersion of ospemifene, wherein the solid dispersion comprises: ospemifene; and a hydrophilic carrier selected from the group consisting of copovidone, hypromellose acetate succinate, polyvinylpyrrolidine, a polyvinylpyrrolidine/vinyl acetate co-polymer, hydroxyl propyl methylcellulose, a methacrylic acid copolymer, hydroxypropylcellulose, a polyvinyl caprolactam-polyvinyl acetate polyethylene glycol graft co-polymer, hydroxypropyl methylcellulose phthalate, and mixtures thereof. ospemifene; and a hydrophilic carrier selected from the group consisting of copovidone, hypromellose acetate succinate, polyvinylpyrrolidine, a polyvinylpyrrolidine/vinyl acetate co-polymer, hydroxyl propyl methylcellulose, a methacrylic acid copolymer, hydroxypropylcellulose, a polyvinyl caprolactam-polyvinyl acetate polyethylene glycol graft co-polymer, hydroxypropyl methylcellulose phthalate, and mixtures thereof.
A method for controlling a flexible display in an electronic device, comprising: displaying an object on a screen of the flexible display ; detecting a curvature of the flexible display while the object is displayed; in response to detecting the curvature of the flexible display : detecting a coordinate in the screen of the flexible display , at which a curvature degree is greatest; setting the detected coordinate as a destination; and moving the object on the screen of the flexible display toward the destination, wherein the moving the object on the screen toward the destination further comprises: measuring a curvature degree at a current position of the object; and determining a speed of the movement of the object from the current position toward the destination according to a predetermined velocity corresponding to the measuring curvature degree. displaying an object on a screen of the flexible display ; detecting a curvature of the flexible display while the object is displayed; in response to detecting the curvature of the flexible display : detecting a coordinate in the screen of the flexible display , at which a curvature degree is greatest; setting the detected coordinate as a destination; and moving the object on the screen of the flexible display toward the destination, wherein the moving the object on the screen toward the destination further comprises: measuring a curvature degree at a current position of the object; and determining a speed of the movement of the object from the current position toward the destination according to a predetermined velocity corresponding to the measuring curvature degree. detecting a coordinate in the screen of the flexible display , at which a curvature degree is greatest; setting the detected coordinate as a destination; and moving the object on the screen of the flexible display toward the destination, wherein the moving the object on the screen toward the destination further comprises: measuring a curvature degree at a current position of the object; and determining a speed of the movement of the object from the current position toward the destination according to a predetermined velocity corresponding to the measuring curvature degree. measuring a curvature degree at a current position of the object; and determining a speed of the movement of the object from the current position toward the destination according to a predetermined velocity corresponding to the measuring curvature degree.
An exhaust aftertreatment system for a combustion engine , said system comprising, - an outer casing comprising at least one exhaust gas inlet and at least one exhaust gas outlet , - at least one catalyst being located in an inner volume of the outer casing , - wherein the system is configured such that during use of the system exhaust gas flows from the at least one exhaust gas inlet at an inlet velocity, through the at least one catalyst at a catalyst velocity, into the inner volume outside the at least one catalyst and to the at least one exhaust gas outlet , and further configured such that the exhaust gas flows in the inner volume outside the at least one catalyst through at least one cross sectional area (A) being defined and limited by at least a perimeter surface of the at least one catalyst and an inner surface of the outer casing or by at least two catalyst parameter surfaces , characterized in that, - the at least one cross sectional area (A) is sized such that during use of the system the exhaust gas flows through the at least one cross sectional area (A) at a first inner volume velocity being higher than the catalyst velocity, and - wherein the system further comprises at least one sensor for measuring at least one parameter being related to the exhaust gas, said at least one sensor being located in the inner volume at a location where an exhaust gas flow velocity is higher than the catalyst velocity. - an outer casing comprising at least one exhaust gas inlet and at least one exhaust gas outlet , - at least one catalyst being located in an inner volume of the outer casing , - wherein the system is configured such that during use of the system exhaust gas flows from the at least one exhaust gas inlet at an inlet velocity, through the at least one catalyst at a catalyst velocity, into the inner volume outside the at least one catalyst and to the at least one exhaust gas outlet , and further configured such that the exhaust gas flows in the inner volume outside the at least one catalyst through at least one cross sectional area (A) being defined and limited by at least a perimeter surface of the at least one catalyst and an inner surface of the outer casing or by at least two catalyst parameter surfaces , - the at least one cross sectional area (A) is sized such that during use of the system the exhaust gas flows through the at least one cross sectional area (A) at a first inner volume velocity being higher than the catalyst velocity, and - wherein the system further comprises at least one sensor for measuring at least one parameter being related to the exhaust gas, said at least one sensor being located in the inner volume at a location where an exhaust gas flow velocity is higher than the catalyst velocity.
A system for removing contaminants from a surface , the system attached to a vehicle that is movable in a first direction (A), the system comprising: a first scraper for removing contaminants from a surface ; a first conveyor system including a continuous track element for conveying the contaminants removed from the surface in a second direction (B) wherein the second direction (B) is not aligned with the first direction (A); a second scraper for removing contaminants from the surface , the second scraper positioned between the first conveyor system and the vehicle; a second conveyor system positioned between the vehicle and the second scraper, the second conveyor system including a continuous track element for conveying the contaminants removed from the surface in a third direction wherein the third direction is not aligned with the first direction (A); an ice and compact breaker positioned between the first conveyor system and the second conveyor system , the ice and compact breaker including a plurality of teeth for breaking the contaminants on the surface; and a sweeper brush positioned between the ice and compact breaker and the second conveyor system , the sweeper brush including a plurality of brushes for brushing the contaminants on the surface . a first scraper for removing contaminants from a surface ; a first conveyor system including a continuous track element for conveying the contaminants removed from the surface in a second direction (B) wherein the second direction (B) is not aligned with the first direction (A); a second scraper for removing contaminants from the surface , the second scraper positioned between the first conveyor system and the vehicle; a second conveyor system positioned between the vehicle and the second scraper, the second conveyor system including a continuous track element for conveying the contaminants removed from the surface in a third direction wherein the third direction is not aligned with the first direction (A); an ice and compact breaker positioned between the first conveyor system and the second conveyor system , the ice and compact breaker including a plurality of teeth for breaking the contaminants on the surface; and a sweeper brush positioned between the ice and compact breaker and the second conveyor system , the sweeper brush including a plurality of brushes for brushing the contaminants on the surface .
Magnetic resonance imaging system , having: - an infrastructure within a cloud , which is designed to generate and/or activate and/or deactivate and/or terminate virtual systems on demand, which generate and operate a plurality of MR workflows (WF) as instances, wherein the virtual systems comprise a cloud-based virtual MR host with an active MR workflow (WF), which is connected on demand to an MR control unit , wherein the active MR workflow (WF) comprises parameter values specific to a measurement, - an MR scan unit with an MR control unit , which is designed to control an imaging process of the MR scan unit on the basis of one of the workflows (WF) stored in the virtual MR host , said workflow comprising parameter values specific to a measurement, and - at least one client unit for transmitting patient-specific data (PSD) to the virtual MR host and for evaluating image data (BD) received by the virtual MR host , characterised in that the virtual MR host is designed, for the purpose of carrying out the imaging process on a specific patient, to transmit the workflow (WF) to an MR control unit of a selected MR scan unit , which workflow has information, measuring programs and instructions tailored to the specific use case. - an infrastructure within a cloud , which is designed to generate and/or activate and/or deactivate and/or terminate virtual systems on demand, which generate and operate a plurality of MR workflows (WF) as instances, wherein the virtual systems comprise a cloud-based virtual MR host with an active MR workflow (WF), which is connected on demand to an MR control unit , wherein the active MR workflow (WF) comprises parameter values specific to a measurement, - an MR scan unit with an MR control unit , which is designed to control an imaging process of the MR scan unit on the basis of one of the workflows (WF) stored in the virtual MR host , said workflow comprising parameter values specific to a measurement, and - at least one client unit for transmitting patient-specific data (PSD) to the virtual MR host and for evaluating image data (BD) received by the virtual MR host ,
An implantable device, comprising a substrate and a zinc-containing layer at least partially covering the substrate, wherein the zinc-containing layer contains a zinc compound, wherein a ratio of a mass of zinc elements in the zinc-containing layer to a surface area of the substrate is 0.1 to 200 μg/mm 2 , and an average porosity of the zinc-containing layer is less than or equal to 30%, wherein a content of zinc elements in the zinc-containing layer is 1.4 wt% to 80 wt%, and wherein a thickness of the zinc-containing layer is 1 μm to 50 μm. wherein a content of zinc elements in the zinc-containing layer is 1.4 wt% to 80 wt%, and wherein a thickness of the zinc-containing layer is 1 μm to 50 μm.
A superconducting power transmission system, comprising: a superconducting cable ; a thermally insulated double pipe composed by an inner pipe within which said superconducting cable is installed and by an outer pipe within which the inner pipe is housed; an inner pipe support member supporting the inner pipe ; the inner pipe support member being secured to the inner and outer pipes ; a cryostat to which an end of the thermally insulated double pipe is connected and in which a terminal end part of said superconducting cable is housed; a bellows pipe connected to the outer pipe ; characterized by further comprising: an object configured to be imaged by a camera , with the object being connected to said terminal end part of the superconducting cable within the cryostat ; the camera installed at a site thermally insulated from the cryostat ; with the camera being configured for imaging the object within the cryostat through a window provided for the cryostat to allow optical inspection of the inside of the cryostat ; a control device that is configured to analyze picture image data of the object acquired by the camera to detect a relative displacement between the camera and the end of the superconducting cable ; and a driving device that is configured to, on detection of the displacement of the object by the control device , cause movement of the cryostat in its entirety inclusive of said camera . a superconducting cable ; a thermally insulated double pipe composed by an inner pipe within which said superconducting cable is installed and by an outer pipe within which the inner pipe is housed; an inner pipe support member supporting the inner pipe ; the inner pipe support member being secured to the inner and outer pipes ; a cryostat to which an end of the thermally insulated double pipe is connected and in which a terminal end part of said superconducting cable is housed; a bellows pipe connected to the outer pipe ; characterized by further comprising: an object configured to be imaged by a camera , with the object being connected to said terminal end part of the superconducting cable within the cryostat ; the camera installed at a site thermally insulated from the cryostat ; with the camera being configured for imaging the object within the cryostat through a window provided for the cryostat to allow optical inspection of the inside of the cryostat ; a control device that is configured to analyze picture image data of the object acquired by the camera to detect a relative displacement between the camera and the end of the superconducting cable ; and a driving device that is configured to, on detection of the displacement of the object by the control device , cause movement of the cryostat in its entirety inclusive of said camera .
A handover method at a macro-base station, comprising: receiving , by the macro base station, signal measurement information of an uplink signal and characteristic information of the uplink signal from a low-power base station; determining , by the macro base station, that a user equipment to which the characteristic information corresponds is served by the macro base station, wherein the characteristic information includes at least one of a Walsh code or scrambling code in a code division multiple access, CDMA, system, a time frequency resource position/reference signal, RS, pattern in an orthogonal frequency division multiplexing, OFDM, system, and even a subframe number/timeslot number in a global system for mobile communication, GSM, system; indicating , by the macro base station, the user equipment to perform measurement on the low-power base station; and determining , by the macro base station, according to the signal measurement information of the uplink signal and a measurement result of the measurement on the low-power base station, whether the user equipment is to be unloaded and unloading the user equipment to the low-power base station. receiving , by the macro base station, signal measurement information of an uplink signal and characteristic information of the uplink signal from a low-power base station; determining , by the macro base station, that a user equipment to which the characteristic information corresponds is served by the macro base station, wherein the characteristic information includes at least one of a Walsh code or scrambling code in a code division multiple access, CDMA, system, a time frequency resource position/reference signal, RS, pattern in an orthogonal frequency division multiplexing, OFDM, system, and even a subframe number/timeslot number in a global system for mobile communication, GSM, system; indicating , by the macro base station, the user equipment to perform measurement on the low-power base station; and determining , by the macro base station, according to the signal measurement information of the uplink signal and a measurement result of the measurement on the low-power base station, whether the user equipment is to be unloaded and unloading the user equipment to the low-power base station.