mhurhangee/patent-ind-claim-en huggingface dataset:
A sputter deposition magnetron system for sputtering material, the sputter deposition magnetron system comprising at least a first and a second sputter magnetron unit, the first respectively second sputter magnetron unit comprising a first respectively second magnet configuration and a first respectively second mounting element for mounting a target so that the magnetic field of the first respectively second magnet configuration contributes to the formation of a plasma allowing sputtering of the first respectively second target , wherein the sputter deposition magnetron system furthermore comprises at least an extra magnet configuration distanced from the mounting element for targets, wherein the first, the second and the at least one extra magnet configuration are arranged for each contributing to a confined plasma configuration characterized in that , in operation, at least part of the plasma and closed loop electron trajectories are being shared across the first and the second sputter magnetron unit, and the shortest distance between target surfaces of different targets when supported by the magnetron sputter units being smaller than 100 mm.
A magnetic levitation bearing assembly, comprising: a magnetic levitation bearing, comprising a first iron core , a second iron core and a thrust disc , wherein the thrust disc is arranged between the first iron core and the second iron core along the axial direction of the thrust disc , a first working clearance (X1) exists between the first iron core and the thrust disc , and a second working clearance (X2) exists between the second iron core and the thrust disc ; a shell , the first iron core and the second iron core are both fixedly connected with the shell ; and a working clearance adjusting device, disposed between a radial inner periphery of the shell and the thrust disc along the radial direction of the thrust disc and between the shell and the second iron core along the axial direction of the thrust disc , wherein an axial end of the working clearance adjusting device abuts against the second iron core , characterised in that a void gap (Y) exists between the shell and the second iron core from said axial end of the working clearance adjusting device, and the working clearance adjusting device is configured to adjust the sum of the first working clearance (X1) and the second working clearance (X2) to conform to a preset value. a magnetic levitation bearing, comprising a first iron core , a second iron core and a thrust disc , wherein the thrust disc is arranged between the first iron core and the second iron core along the axial direction of the thrust disc , a first working clearance (X1) exists between the first iron core and the thrust disc , and a second working clearance (X2) exists between the second iron core and the thrust disc ; a shell , the first iron core and the second iron core are both fixedly connected with the shell ; and a working clearance adjusting device, disposed between a radial inner periphery of the shell and the thrust disc along the radial direction of the thrust disc and between the shell and the second iron core along the axial direction of the thrust disc , wherein an axial end of the working clearance adjusting device abuts against the second iron core , characterised in that a void gap (Y) exists between the shell and the second iron core from said axial end of the working clearance adjusting device, and the working clearance adjusting device is configured to adjust the sum of the first working clearance (X1) and the second working clearance (X2) to conform to a preset value.
Apparatus comprising: a left-ventricular assist device configured to assist left-ventricular functioning of a subject, the left-ventricular assist device comprising: a tube configured such that a proximal portion of the tube traverses an aortic valve of the subject, and a distal portion of the tube is disposed within a left ventricle of the subject; a frame disposed within at least the distal portion of the tube; a pump disposed within the frame and configured to pump blood through the tube from the subject's left ventricle to the subject's aorta, by pumping the blood into the tube via at least one blood inlet opening that is defined by the tube and that is configured to be disposed within the subject's left ventricle, and by pumping blood out of the tube via at least one blood outlet opening that is defined by the tube and that is configured to be disposed within the subject's aorta; and a distal-tip element configured to define a straight proximal portion that defines a longitudinal axis , and a curved distal portion that is shaped such as to curve in a first direction with respect to the longitudinal axis of the straight proximal portion, characterized in that , after curving in the first direction with respect to the longitudinal axis of the straight proximal portion , the curved distal portion passes through an inflection point and curves in a second direction with respect to the longitudinal axis of the straight proximal portion , such that the curved distal portion defines a bulge on one side of the longitudinal axis of the straight proximal portion . a tube configured such that a proximal portion of the tube traverses an aortic valve of the subject, and a distal portion of the tube is disposed within a left ventricle of the subject; a frame disposed within at least the distal portion of the tube; a pump disposed within the frame and configured to pump blood through the tube from the subject's left ventricle to the subject's aorta, by pumping the blood into the tube via at least one blood inlet opening that is defined by the tube and that is configured to be disposed within the subject's left ventricle, and by pumping blood out of the tube via at least one blood outlet opening that is defined by the tube and that is configured to be disposed within the subject's aorta; and a distal-tip element configured to define a straight proximal portion that defines a longitudinal axis , and a curved distal portion that is shaped such as to curve in a first direction with respect to the longitudinal axis of the straight proximal portion, characterized in that , after curving in the first direction with respect to the longitudinal axis of the straight proximal portion , the curved distal portion passes through an inflection point and curves in a second direction with respect to the longitudinal axis of the straight proximal portion , such that the curved distal portion defines a bulge on one side of the longitudinal axis of the straight proximal portion .
A pretreatment device comprising: a platen ; an application portion configured to apply a pretreatment agent onto a recording medium set on the platen; a heat press portion configured to perform a heat press operation on the recording medium, to which the pretreatment agent has been applied by the application portion; and characterized by a guide configured to guide a movement of the platen from a set position (P1) at which the recording medium is set on the platen to a press position (P3) at which the heat press portion performs the heat press operation on the recording medium, a distance from the set position (P1) to the press position (P3) being longer than a distance from the set position (P1) to an application position (P2) at which the application portion applies the pretreatment agent onto the recording medium set on the platen. a platen ; an application portion configured to apply a pretreatment agent onto a recording medium set on the platen; a heat press portion configured to perform a heat press operation on the recording medium, to which the pretreatment agent has been applied by the application portion; and characterized by a guide configured to guide a movement of the platen from a set position (P1) at which the recording medium is set on the platen to a press position (P3) at which the heat press portion performs the heat press operation on the recording medium, a distance from the set position (P1) to the press position (P3) being longer than a distance from the set position (P1) to an application position (P2) at which the application portion applies the pretreatment agent onto the recording medium set on the platen.
A use of a solid alkaline detergent composition for reducing corrosion and providing metal protection, the composition comprising: at least 0.05 wt. % of a carbonate alkalinity source; from 1 wt. % to 7.5 wt. % of one or more nonionic surfactants, a metal protecting component comprising from 5 wt. % to 40 wt. % of a silicate and from 0.01 wt. % to 3.5 wt. % of an amino carboxylate, wherein said metal protecting component comprises 33.5 wt. % or less of said detergent composition, from 0.1 wt. % to 15 wt. % of a corrosion inhibitor, wherein said corrosion inhibitor comprises one or more of a maleic acid copolymer or an acrylic acid polymer; from 1 wt. % to 10 wt. % of chelant, wherein the chelant is selected from amino phosphonates, polyfunctionally-substituted aromatic chelating agents, and mixtures thereof; and from 4 wt. % to 10 wt. % of water. at least 0.05 wt. % of a carbonate alkalinity source; from 1 wt. % to 7.5 wt. % of one or more nonionic surfactants, a metal protecting component comprising from 5 wt. % to 40 wt. % of a silicate and from 0.01 wt. % to 3.5 wt. % of an amino carboxylate, wherein said metal protecting component comprises 33.5 wt. % or less of said detergent composition, from 0.1 wt. % to 15 wt. % of a corrosion inhibitor, wherein said corrosion inhibitor comprises one or more of a maleic acid copolymer or an acrylic acid polymer; from 1 wt. % to 10 wt. % of chelant, wherein the chelant is selected from amino phosphonates, polyfunctionally-substituted aromatic chelating agents, and mixtures thereof; and from 4 wt. % to 10 wt. % of water.
A broadcast signal transmission method, comprising: generating a power-reduced enhanced layer signal by reducing power of an enhanced layer signal (S1230); generating a multiplexed signal by combining a core layer signal and the power-reduced enhanced layer signal (S1240); reducing power of the multiplexed signal to a power level corresponding to the core layer signal, the reducing power corresponding to a normalizing factor which is applied to both the core layer signal and the power-reduced enhanced layer signal after combining the core layer signal and the power-reduced enhanced layer signal (S1250); generating a time-interleaved signal by performing time interleaving that is applied to both the core layer signal and the power-reduced enhanced layer signal after reducing power of the multiplexed signal (S1260); generating a broadcast signal frame using the time-interleaved signal (S1270); and generating a pilot signal that is shared by a core layer corresponding to the core layer signal and an enhanced layer corresponding to the enhanced layer signal, wherein the time interleaving is commonly used for both the core layer and the enhanced layer, wherein the broadcast signal frame includes L1 signaling information including injection level information. generating a power-reduced enhanced layer signal by reducing power of an enhanced layer signal (S1230); generating a multiplexed signal by combining a core layer signal and the power-reduced enhanced layer signal (S1240); reducing power of the multiplexed signal to a power level corresponding to the core layer signal, the reducing power corresponding to a normalizing factor which is applied to both the core layer signal and the power-reduced enhanced layer signal after combining the core layer signal and the power-reduced enhanced layer signal (S1250); generating a time-interleaved signal by performing time interleaving that is applied to both the core layer signal and the power-reduced enhanced layer signal after reducing power of the multiplexed signal (S1260); generating a broadcast signal frame using the time-interleaved signal (S1270); and generating a pilot signal that is shared by a core layer corresponding to the core layer signal and an enhanced layer corresponding to the enhanced layer signal, wherein the time interleaving is commonly used for both the core layer and the enhanced layer, wherein the broadcast signal frame includes L1 signaling information including injection level information.
A seal assembly comprising: a seal carrier ; a spring carrier , wherein the seal carrier is connected to the spring carrier and is removable therefrom; a seal support to which the spring carrier is connected; a plurality of springs disposed between the seal support and a first side of the spring carrier such that the spring carrier and seal carrier are biased by the plurality of springs ; characterised in that the seal carrier is connected to the spring carrier and is removable therefrom without disturbing the seal support , plurality of springs or the spring carrier ; and in that the plurality of springs is retained by the spring carrier when the seal carrier is removed from the spring carrier . a seal carrier ; a spring carrier , wherein the seal carrier is connected to the spring carrier and is removable therefrom; a seal support to which the spring carrier is connected; a plurality of springs disposed between the seal support and a first side of the spring carrier such that the spring carrier and seal carrier are biased by the plurality of springs ; characterised in that the seal carrier is connected to the spring carrier and is removable therefrom without disturbing the seal support , plurality of springs or the spring carrier ; and in that the plurality of springs is retained by the spring carrier when the seal carrier is removed from the spring carrier .
An electronic apparatus comprising: a direct-current to direct-current, DCDC, converter including a first node to receive an input signal, a second node to couple to a terminal of an inductor, an additional terminal of the inductor to couple to ground via a filter capacitor, and a third node to couple to an output node , the DCDC converter including a driver controlled by a signal; and a control unit to generate control information based on a duty cycle of the signal to control a duty cycle range of the signal; and characterized in that : the control unit is arranged to generate the control information to adjust a value of a supply voltage of the driver if the duty cycle of the signal is less than a lower limit. a direct-current to direct-current, DCDC, converter including a first node to receive an input signal, a second node to couple to a terminal of an inductor, an additional terminal of the inductor to couple to ground via a filter capacitor, and a third node to couple to an output node , the DCDC converter including a driver controlled by a signal; and a control unit to generate control information based on a duty cycle of the signal to control a duty cycle range of the signal; and characterized in that : the control unit is arranged to generate the control information to adjust a value of a supply voltage of the driver if the duty cycle of the signal is less than a lower limit.
A motor comprising: a main body comprising a rotor extending along an axial direction (A); an inner end cover coupled to the main body and comprising a first hole formed thereon for the rotor to pass through; the inner end cover being arranged between the main body and an outer end cover along the axial direction (A) and abutting the inner end cover , the outer end cover comprising a second hole formed thereon and arranged in alignment with the first hole for the rotor to pass through, wherein a first oil seal is arranged adjacent to the second hole and a second oil seal is arranged between the first oil seal and the inner end cover along the axial direction (A), the second oil seal being adjacent to the second hole and configured to seal the second hole ; and characterized in that it also comprises an oil leakage sensor provided in a through hole penetrating the outer end cover along the axial direction (A) and configured to detect the amount of oil or grease flowing to the oil leakage sensor via the first oil seal . a main body comprising a rotor extending along an axial direction (A); an inner end cover coupled to the main body and comprising a first hole formed thereon for the rotor to pass through; the inner end cover being arranged between the main body and an outer end cover along the axial direction (A) and abutting the inner end cover , the outer end cover comprising a second hole formed thereon and arranged in alignment with the first hole for the rotor to pass through, wherein a first oil seal is arranged adjacent to the second hole and a second oil seal is arranged between the first oil seal and the inner end cover along the axial direction (A), the second oil seal being adjacent to the second hole and configured to seal the second hole ; and characterized in that it also comprises an oil leakage sensor provided in a through hole penetrating the outer end cover along the axial direction (A) and configured to detect the amount of oil or grease flowing to the oil leakage sensor via the first oil seal .
Apparatus for receiving bulk material, in particular from push-floor vehicles, comprising a housing having at least two openings, wherein a first opening is designed as a receiving opening for receiving bulk material, and a second opening is assigned to a discharge chute for bulk material, wherein provided in the housing is a circulating transport chain , the transport chain being guided along the housing walls such that the transport chain does not appreciably, at any rate, reduce the receiving opening , at least sections of the transport chain run along the bottom of the housing , and the transport chain can be loaded in the lower run, the chain runs around the receiving opening, the bulk material is conveyed to the discharge chute via the transport chain , wherein the discharge chute lies at a higher level than a loading edge which corresponds to the lower edge of the receiving opening .
A method for determining the stability of a liquid pharmaceutical composition comprising: a) providing a liquid pharmaceutical composition in a container, b) shaking said container on a shaker, and c) determining the stability of said liquid pharmaceutical composition after shaking, characterized in that the shaker in step b) performs an oloid movement, the container in step a) is fixed into a cage on the shaker, and whereby the cage executes the oloid movement. a) providing a liquid pharmaceutical composition in a container, b) shaking said container on a shaker, and c) determining the stability of said liquid pharmaceutical composition after shaking,
An atomic force microscopy system for performing subsurface atomic force microscopy measurements, the system comprising: a signal source for generating a drive signal ; a transducer configured to receive the drive signal for converting the drive signal into vibrational waves and coupling the vibrational waves into a stack comprising a sample , for interaction with subsurface features within said sample ; a cantilever tip for contacting the sample for measuring surface displacement resulting from the vibrational waves to determine the subsurface features ; wherein the system includes a measurement device for measuring a measurement signal (Sr) returning from the transducer during and/or in between the cantilever tip measuring the surface displacement; characterized in that the system includes a controller configured to adjust the drive signal based on the measurement signal (Sr). a signal source for generating a drive signal ; a transducer configured to receive the drive signal for converting the drive signal into vibrational waves and coupling the vibrational waves into a stack comprising a sample , for interaction with subsurface features within said sample ; a cantilever tip for contacting the sample for measuring surface displacement resulting from the vibrational waves to determine the subsurface features ; wherein the system includes a measurement device for measuring a measurement signal (Sr) returning from the transducer during and/or in between the cantilever tip measuring the surface displacement; characterized in that the system includes a controller configured to adjust the drive signal based on the measurement signal (Sr).
A method of fabricating a semiconductor device, comprising: providing a substrate , wherein the substrate comprises: a pixel region having a first conductive region ; and a logic region having a second conductive region ; forming a dielectric layer on the substrate to cover the first conductive region and second conductive region ; forming a first contact opening in the dielectric layer to expose the first conductive region ; forming a doped polysilicon layer in the first contact opening ; forming a first metal silicide layer on the doped polysilicon layer (30/30a); forming a second contact opening in the dielectric layer to expose the second conductive region ; and forming a barrier layer and a metal layer respectively in the first contact opening and the second contact opening . providing a substrate , wherein the substrate comprises: a pixel region having a first conductive region ; and a logic region having a second conductive region ; a pixel region having a first conductive region ; and a logic region having a second conductive region ; forming a dielectric layer on the substrate to cover the first conductive region and second conductive region ; forming a first contact opening in the dielectric layer to expose the first conductive region ; forming a doped polysilicon layer in the first contact opening ; forming a first metal silicide layer on the doped polysilicon layer (30/30a); forming a second contact opening in the dielectric layer to expose the second conductive region ; and forming a barrier layer and a metal layer respectively in the first contact opening and the second contact opening .
A method in a probe , comprising: sending to a first Internet device an application layer request message and a lower layer request message associated with the application layer request message, and responsively receiving from the first Internet device an application layer response message and one or more lower layer continuation messages; determining latencies of the application layer response message and of the one or more lower layer continuation messages; and comparing the determined latencies with respective reference values to identify a likely honeypot. sending to a first Internet device an application layer request message and a lower layer request message associated with the application layer request message, and responsively receiving from the first Internet device an application layer response message and one or more lower layer continuation messages; determining latencies of the application layer response message and of the one or more lower layer continuation messages; and comparing the determined latencies with respective reference values to identify a likely honeypot.
Silica-based nanoparticles for use in a method of treatment of cancer in a subject, the method comprising: administering the nanoparticles to tumor tissue to induce ferroptosis of the tumor tissue, wherein the administered nanoparticles comprise a polyethylene glycol (PEG) coating and have an average diameter no greater than 15 nm.
A titanium-containing structure having: a package made of a commercially pure titanium material; and a filler packed into the package, wherein a n internal pressure of the package is 10 Pa or less, the pressure being an absolute pressure and wherein the filler comprises at least one selected from titanium sponge, titanium briquet, and titanium scrap, and the filler has the same type of a chemical composition as the commercially pure titanium material. a package made of a commercially pure titanium material; and a filler packed into the package, wherein a n internal pressure of the package is 10 Pa or less, the pressure being an absolute pressure and wherein the filler comprises at least one selected from titanium sponge, titanium briquet, and titanium scrap, and the filler has the same type of a chemical composition as the commercially pure titanium material.