mhurhangee/patent-ind-claim-en huggingface dataset:
An actuating device comprising: a housing ; an electromagnetic coil configured to receive an electrical current; at least one magnetic element ; a piston attached to the at least one magnetic element; at least one fluid outlet port ; wherein the piston is contained within a piston housing comprising at least one fluid inlet port ; wherein a sterile barrier is provided between the electromagnetic coil and the at least one magnetic element; wherein application of a voltage to the electromagnetic coil creates a magnetic flux received by the at least one magnetic element and causes the at least one magnetic element and piston to move in a first linear direction from a first position to a second position; wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a second linear direction that is opposite the first linear direction; and wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a cyclical manner by reversing the polarity of voltage applied to the electromagnetic coil in a repeated manner; characterized in that the actuating device further comprises a porous membrane filter ; f wherein the porous membrane filter surrounds at least a portion of the piston housing including the at least one fluid inlet port. a housing ; an electromagnetic coil configured to receive an electrical current; at least one magnetic element ; a piston attached to the at least one magnetic element; at least one fluid outlet port ; wherein the piston is contained within a piston housing comprising at least one fluid inlet port ; wherein a sterile barrier is provided between the electromagnetic coil and the at least one magnetic element; wherein application of a voltage to the electromagnetic coil creates a magnetic flux received by the at least one magnetic element and causes the at least one magnetic element and piston to move in a first linear direction from a first position to a second position; wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a second linear direction that is opposite the first linear direction; and wherein the at least one magnetic element and piston are configured to move from the second position to the first position in a cyclical manner by reversing the polarity of voltage applied to the electromagnetic coil in a repeated manner; characterized in that the actuating device further comprises a porous membrane filter ; f wherein the porous membrane filter surrounds at least a portion of the piston housing including the at least one fluid inlet port.
An apparatus for predicting deformation of a battery module, caused by swelling of a secondary battery, the battery module having at least one secondary battery in a module case, the apparatus comprising: a cell evaluation module configured to derive a relationship between a thickness change amount and a reaction force for a single secondary battery; a case evaluation module configured to derive a relationship between a load applied to the module case and a width change amount of the module case; and a prediction module configured to predict a deformation amount of the battery module by using the relationship between the thickness change amount and the reaction force of the battery, derived by the cell evaluation module, and the relationship between the load and the width change amount of the module case, derived by the case evaluation module, wherein the cell evaluation module is configured to derive the relationship between the thickness change amount and the reaction force in a singular curve form, the case evaluation module is configured to derive the relationship between the load and the width change amount of the module case in a singular curve form, and the prediction module is configured to check an intersecting point of the singular curve derived by the cell evaluation module and the singular curve derived by the case evaluation module , and predict a deformation amount of the battery module by using the checked intersecting point. a cell evaluation module configured to derive a relationship between a thickness change amount and a reaction force for a single secondary battery; a case evaluation module configured to derive a relationship between a load applied to the module case and a width change amount of the module case; and a prediction module configured to predict a deformation amount of the battery module by using the relationship between the thickness change amount and the reaction force of the battery, derived by the cell evaluation module, and the relationship between the load and the width change amount of the module case, derived by the case evaluation module, wherein the cell evaluation module is configured to derive the relationship between the thickness change amount and the reaction force in a singular curve form, the case evaluation module is configured to derive the relationship between the load and the width change amount of the module case in a singular curve form, and the prediction module is configured to check an intersecting point of the singular curve derived by the cell evaluation module and the singular curve derived by the case evaluation module , and predict a deformation amount of the battery module by using the checked intersecting point.
A mobile X-ray device , comprising: a housing with an X-ray source arranged therein, a sensor system comprising one or more sensors for aligning the X-ray source to an object to be scanned and detecting at least one extrinsic object in a predefined area in a vicinity of the X-ray beam of the X-ray source; a processor unit adapted to determine the alignment of the X-ray source and the object to be scanned based on signals received from the sensor system; and adapted to perform image acquisition for generating an X-ray image; adapted to activate a blockage signal for the mobile X-ray device based on signals received from the sensor system; and the mobile X-ray device further comprising an interface for outputting the generated X-ray image and/or information: wherein said image acquisition is blocked, if the sensor system signals one of the following: at least one extrinsic object is detected within the predefined area; lack of alignment between the X-ray source and the object to be scanned. a housing with an X-ray source arranged therein, a sensor system comprising one or more sensors for aligning the X-ray source to an object to be scanned and detecting at least one extrinsic object in a predefined area in a vicinity of the X-ray beam of the X-ray source; a processor unit adapted to determine the alignment of the X-ray source and the object to be scanned based on signals received from the sensor system; and adapted to perform image acquisition for generating an X-ray image; adapted to activate a blockage signal for the mobile X-ray device based on signals received from the sensor system; and the mobile X-ray device further comprising an interface for outputting the generated X-ray image and/or information: wherein said image acquisition is blocked, if the sensor system signals one of the following: at least one extrinsic object is detected within the predefined area; lack of alignment between the X-ray source and the object to be scanned. at least one extrinsic object is detected within the predefined area; lack of alignment between the X-ray source and the object to be scanned.
Arrangement composed of a first machine part which has a first contact surface and of a second machine part which has a second contact surface , where - the first machine part and/or the second machine part are/is configured as a bearing component, - the first contact surface or the second contact surface is coated with a friction-increasing varnish whose ingredients include a binder and hard-material particles , the hard-material particles comprising a titanium-boron compound or consisting of a titanium-boron compound, and - the first contact surface and the second contact surface are preloaded against one another, and - at least some of the hard-material particles contained in the varnish are impressed into the first contact surface and into the second contact surface . - the first machine part and/or the second machine part are/is configured as a bearing component, - the first contact surface or the second contact surface is coated with a friction-increasing varnish whose ingredients include a binder and hard-material particles , the hard-material particles comprising a titanium-boron compound or consisting of a titanium-boron compound, and - the first contact surface and the second contact surface are preloaded against one another, and - at least some of the hard-material particles contained in the varnish are impressed into the first contact surface and into the second contact surface .
A system for providing inerting gas to a protected space, comprising an electrochemical cell comprising a cathode and an anode separated by a separator comprising a proton transfer medium; a cathode fluid flow path in operative fluid communication with the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; an anode fluid flow path in operative fluid communication with the anode between an anode fluid flow path inlet and an anode fluid flow path outlet; a cathode supply fluid flow path between an air source and the cathode fluid flow path inlet, and an inerting gas flow path in operative fluid communication with the cathode fluid flow path outlet and the protected space; an anode supply fluid flow path between a process water source and the anode fluid flow path inlet; and thermal management components comprising: a heat transfer fluid flow path in operative thermal communication with the cathode or with the anode or with both the cathode and the anode , and in fluid isolation from the cathode and anode fluid flow paths; and a heat transfer fluid flowing on the heat transfer fluid flow path. an electrochemical cell comprising a cathode and an anode separated by a separator comprising a proton transfer medium; a cathode fluid flow path in operative fluid communication with the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; an anode fluid flow path in operative fluid communication with the anode between an anode fluid flow path inlet and an anode fluid flow path outlet; a cathode supply fluid flow path between an air source and the cathode fluid flow path inlet, and an inerting gas flow path in operative fluid communication with the cathode fluid flow path outlet and the protected space; an anode supply fluid flow path between a process water source and the anode fluid flow path inlet; and thermal management components comprising: a heat transfer fluid flow path in operative thermal communication with the cathode or with the anode or with both the cathode and the anode , and in fluid isolation from the cathode and anode fluid flow paths; and a heat transfer fluid flowing on the heat transfer fluid flow path. a heat transfer fluid flow path in operative thermal communication with the cathode or with the anode or with both the cathode and the anode , and in fluid isolation from the cathode and anode fluid flow paths; and a heat transfer fluid flowing on the heat transfer fluid flow path.
Composite panel for a dishwasher , in particular a household dishwasher, comprising a panel carrier , a first panel element and a second panel element , characterised in that the first panel element is connected to the panel carrier by means of a first joint arrangement and the second panel element is connected to the panel carrier by means of a second joint arrangement , wherein the first joint arrangement is arranged in the region of a first inner face of the panel carrier and the second joint arrangement is arranged in the region of a second inner face of the panel carrier , which second inner face is preferably opposite from the first inner face , and the second panel element overlaps the first panel element at least in some portions.
A crusher head of a cone crusher , comprising: a conical mantle radially extending from an interference fit section , comprising a wear part support surface and a shaft support surface; the shaft support surface comprising the interference fit section for supporting the crusher head to a main shaft; the interference fit section having a nominal interference fit diameter D if ; the conical mantle comprising an armpit groove for receiving a slip ring ; the armpit groove being covered by the conical mantle with an armpit thickness L a that is a minimum distance between a wear part support surface and the armpit; and the conical mantle having a head diameter D ch that is a maximum diameter of the crusher head ; characterized in that fretting wear is reduced by dimensioning of the crusher head for minimising deformations at the interference fit section by: a ratio of the head diameter D ch to the nominal interference fit diameter D if being at most 2.5; and a ratio of the head diameter D ch to the armpit thickness L a being at least 10.5. a conical mantle radially extending from an interference fit section , comprising a wear part support surface and a shaft support surface; the shaft support surface comprising the interference fit section for supporting the crusher head to a main shaft; the interference fit section having a nominal interference fit diameter D if ; the conical mantle comprising an armpit groove for receiving a slip ring ; the armpit groove being covered by the conical mantle with an armpit thickness L a that is a minimum distance between a wear part support surface and the armpit; and the conical mantle having a head diameter D ch that is a maximum diameter of the crusher head ; characterized in that fretting wear is reduced by dimensioning of the crusher head for minimising deformations at the interference fit section by: a ratio of the head diameter D ch to the nominal interference fit diameter D if being at most 2.5; and a ratio of the head diameter D ch to the armpit thickness L a being at least 10.5. a ratio of the head diameter D ch to the nominal interference fit diameter D if being at most 2.5; and a ratio of the head diameter D ch to the armpit thickness L a being at least 10.5.
A high voltage power system comprising: a high voltage pulsing power supply ; a transformer (T2) electrically coupled with the high voltage pulsing power supply; an output electrically coupled with the transformer (T2) and configured to output high voltage pulses with an amplitude greater than 1 kV and a pulse repetition frequency greater than 2 kHz; and a bias compensation circuit arranged across the output, characterized in that the bias compensation circuit comprises: a bias compensation diode ; a DC power supply (V1) arranged in series with the bias compensation diode , wherein the bias compensation diode and the DC power supply (V1) in series are arranged in parallel across the output ; a bias capacitor (C12) arranged to generate a voltage offset between the output and an electrode at an anode of the bias compensation diode; a bias compensation capacitor arranged across at least the DC power supply (V1); and a high voltage switch coupled across the bias compensation diode , wherein the high voltage switch is configured to turn off when the high voltage switching power supply is pulsing, and the high voltage switch is turned on when the high voltage switching power supply is not pulsing. a high voltage pulsing power supply ; a transformer (T2) electrically coupled with the high voltage pulsing power supply; an output electrically coupled with the transformer (T2) and configured to output high voltage pulses with an amplitude greater than 1 kV and a pulse repetition frequency greater than 2 kHz; and a bias compensation circuit arranged across the output, characterized in that the bias compensation circuit comprises: a bias compensation diode ; a DC power supply (V1) arranged in series with the bias compensation diode , wherein the bias compensation diode and the DC power supply (V1) in series are arranged in parallel across the output ; a bias capacitor (C12) arranged to generate a voltage offset between the output and an electrode at an anode of the bias compensation diode; a bias compensation capacitor arranged across at least the DC power supply (V1); and a high voltage switch coupled across the bias compensation diode , wherein the high voltage switch is configured to turn off when the high voltage switching power supply is pulsing, and the high voltage switch is turned on when the high voltage switching power supply is not pulsing. a bias compensation diode ; a DC power supply (V1) arranged in series with the bias compensation diode , wherein the bias compensation diode and the DC power supply (V1) in series are arranged in parallel across the output ; a bias capacitor (C12) arranged to generate a voltage offset between the output and an electrode at an anode of the bias compensation diode; a bias compensation capacitor arranged across at least the DC power supply (V1); and a high voltage switch coupled across the bias compensation diode , wherein the high voltage switch is configured to turn off when the high voltage switching power supply is pulsing, and the high voltage switch is turned on when the high voltage switching power supply is not pulsing.
A multimedia device (100; 200; 400; 500; 700; 800; 900; 1100; 1200; 1300; 1400; 1500; 1700; 1800; 1900; 2000; 2100; 2200), the multimedia device comprising: a sensing unit configured to recognize a user' s voice; a receiving unit configured to receive a content and metadata corresponding to the content from a broadcast station, a contents provider or a service provider; a wireless communication unit configured to communicate with at least one external device different from the broadcast station, the content provider or the service provider; a flexible display (120; 820; 920; 1120; 1220; 1320; 1420; 1520; 1720; 1820; 1920; 2020; 2120; 2220); a memory configured to store a first control signal corresponding to the metadata and a second control signal for matching the user's voice so as to adjust a height of the flexible display (120; 820; 920; 1120; 1220; 1320; 1420; 1520; 1720; 1820; 1920; 2020; 2120; 2220) to enable a screen of the flexible display to be situated at a user-desired height; a motor configured to roll up the flexible display on an outer circumference of a guide bar (110; 810; 910; 1110; 1210; 1310; 1410; 1510; 1710; 1810; 1910; 2010; 2110; 2210), the flexible display having a first region rolled up on the outer circumference of the guide bar and a second region not rolled up on the outer circumference of the guide bar; and a controller configured to control the motor to adjust a size of the second region of the flexible display based on at least one of the first control signal or the second control signal stored in the memory while displaying the content received via the receiving unit. a sensing unit configured to recognize a user' s voice; a receiving unit configured to receive a content and metadata corresponding to the content from a broadcast station, a contents provider or a service provider; a wireless communication unit configured to communicate with at least one external device different from the broadcast station, the content provider or the service provider; a flexible display (120; 820; 920; 1120; 1220; 1320; 1420; 1520; 1720; 1820; 1920; 2020; 2120; 2220); a memory configured to store a first control signal corresponding to the metadata and a second control signal for matching the user's voice so as to adjust a height of the flexible display (120; 820; 920; 1120; 1220; 1320; 1420; 1520; 1720; 1820; 1920; 2020; 2120; 2220) to enable a screen of the flexible display to be situated at a user-desired height; a motor configured to roll up the flexible display on an outer circumference of a guide bar (110; 810; 910; 1110; 1210; 1310; 1410; 1510; 1710; 1810; 1910; 2010; 2110; 2210), the flexible display having a first region rolled up on the outer circumference of the guide bar and a second region not rolled up on the outer circumference of the guide bar; and a controller configured to control the motor to adjust a size of the second region of the flexible display based on at least one of the first control signal or the second control signal stored in the memory while displaying the content received via the receiving unit.
A railcar bogie comprising: a cross beam configured to support a carbody of a railcar; a pair of front and rear axles respectively arranged at both sides of the cross beam in a railcar longitudinal direction so as to extend in a railcar width direction; bearings respectively provided at both railcar width direction sides of each of the axles and configured to rotatably support the axles ; axle boxes configured to respectively accommodate the bearings ; plate springs extending in the railcar longitudinal direction; and contact members respectively provided at both railcar-width-direction end portions of the cross beam , respectively disposed separably on railcar-longitudinal-direction middle portions of the plate springs so as not to be fixed to the plate springs in a vertical direction; and supporting members respectively provided at the axle boxes and respectively supporting the railcar-longitudinal-direction end portions of the plate springs , wherein an upper surface of the railcar-longitudinal-direction middle portion of each of the plate springs has a substantially circular-arc shape that is convex downward in a side view. a cross beam configured to support a carbody of a railcar; a pair of front and rear axles respectively arranged at both sides of the cross beam in a railcar longitudinal direction so as to extend in a railcar width direction; bearings respectively provided at both railcar width direction sides of each of the axles and configured to rotatably support the axles ; axle boxes configured to respectively accommodate the bearings ; plate springs extending in the railcar longitudinal direction; and contact members respectively provided at both railcar-width-direction end portions of the cross beam , respectively disposed separably on railcar-longitudinal-direction middle portions of the plate springs so as not to be fixed to the plate springs in a vertical direction; and supporting members respectively provided at the axle boxes and respectively supporting the railcar-longitudinal-direction end portions of the plate springs , wherein an upper surface of the railcar-longitudinal-direction middle portion of each of the plate springs has a substantially circular-arc shape that is convex downward in a side view.
A photodiode comprising: a pn junction of a magnesium silicide crystal; an electrode comprising a material that is in contact with p-type magnesium silicide ; and an electrode comprising a material that is in contact with n-type magnesium silicide characterized in that the material that is in contact with p-type magnesium silicide is a material which has a work function of 4.81 eV or more and can react with silicon to form a silicide or can form an alloy with magnesium, and the material that is in contact with p-type magnesium silicide is at least one metal selected from the group consisting of nickel, cobalt, platinum, palladium, iridium, rhenium, rhodium, beryllium, selenium, and tellurium, or at least one alloy thereof. and an electrode comprising a material that is in contact with n-type magnesium silicide characterized in that the material that is in contact with p-type magnesium silicide is a material which has a work function of 4.81 eV or more and can react with silicon to form a silicide or can form an alloy with magnesium, and the material that is in contact with p-type magnesium silicide is at least one metal selected from the group consisting of nickel, cobalt, platinum, palladium, iridium, rhenium, rhodium, beryllium, selenium, and tellurium, or at least one alloy thereof.