mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for measuring the concentration, the size and the zeta potential of nanoparticles in liquids in the scattered light mode and in the fluorescence mode, wherein the apparatus comprises a laser , a beam splitter , a first and second liquid lens with an adjustable focus, a protective glass , a measuring cell , a detector , a fluorescence filter and a displacement device , wherein a) a laser beam is directed through the first liquid lens with an adjustable focus and the optical protective glass into the measuring cell with a nanoparticle-containing sample from above via the beam splitter , wherein the focus of the laser beam is directed to a point below the phase boundary between air and sample liquid, b) the light reflected by the sample and the protective glass is partly deflected by the beam splitter and guided to the detector through the second liquid lens with an adjustable focus, wherein the second liquid lens serves for focusing on the detector and wherein the fluorescence filter can be inserted into the beam path between the second liquid lens and the detector by means of the displacement device , c) the measuring cell contains electrodes for producing electrophoresis and electrodes for measuring the zeta potential, wherein the apparatus further comprises: d) a controller , which has a particle-tracking program or a DLS program (DLS = dynamic light scattering), an optics controller , which can displace the focal length of the first liquid lens in defined fashion, and a display , which has a touchscreen, and e) a temperature sensor by means of which the viscosity of the sample can be determined. a) a laser beam is directed through the first liquid lens with an adjustable focus and the optical protective glass into the measuring cell with a nanoparticle-containing sample from above via the beam splitter , wherein the focus of the laser beam is directed to a point below the phase boundary between air and sample liquid, b) the light reflected by the sample and the protective glass is partly deflected by the beam splitter and guided to the detector through the second liquid lens with an adjustable focus, wherein the second liquid lens serves for focusing on the detector and wherein the fluorescence filter can be inserted into the beam path between the second liquid lens and the detector by means of the displacement device , c) the measuring cell contains electrodes for producing electrophoresis and electrodes for measuring the zeta potential, d) a controller , which has a particle-tracking program or a DLS program (DLS = dynamic light scattering), an optics controller , which can displace the focal length of the first liquid lens in defined fashion, and a display , which has a touchscreen, and e) a temperature sensor by means of which the viscosity of the sample can be determined.
A method for enriching multiple genomic regions, comprising: (a) bringing a predetermined amount of nucleic acid from a sample in contact with a bait mixture comprising: (i) a first bait set that selectively hybridizes to a first set of genomic regions of the nucleic acid from the sample, which first bait set is provided at a first concentration that is less than a saturation point of the first bait set, and (ii) a second bait set that selectively hybridizes to a second set of genomic regions of the nucleic acid from the sample, which second bait set is provided at a second concentration that is at or above a saturation point of the second bait set; and (b) enriching the nucleic acid from the sample for the first set of genomic regions and the second set of genomic regions, thereby producing an enriched nucleic acid, wherein the baits are target-specific oligonucleotides, and wherein the sample comprises cell-free DNA. (a) bringing a predetermined amount of nucleic acid from a sample in contact with a bait mixture comprising: (i) a first bait set that selectively hybridizes to a first set of genomic regions of the nucleic acid from the sample, which first bait set is provided at a first concentration that is less than a saturation point of the first bait set, and (ii) a second bait set that selectively hybridizes to a second set of genomic regions of the nucleic acid from the sample, which second bait set is provided at a second concentration that is at or above a saturation point of the second bait set; and (i) a first bait set that selectively hybridizes to a first set of genomic regions of the nucleic acid from the sample, which first bait set is provided at a first concentration that is less than a saturation point of the first bait set, and (ii) a second bait set that selectively hybridizes to a second set of genomic regions of the nucleic acid from the sample, which second bait set is provided at a second concentration that is at or above a saturation point of the second bait set; and (b) enriching the nucleic acid from the sample for the first set of genomic regions and the second set of genomic regions, thereby producing an enriched nucleic acid,
A battery pack for a power tool, the battery pack comprising - a data memory , which stores project data relating to a predefined sequence of project steps, wherein the project data includes user information for each project step of the sequence; - a control unit , which is configured to generate an audio signal corresponding to the associated user information for a predefined project step of the sequence; and - a speaker , which is connected to the control unit for obtaining the audio signal and is configured to generate a voice output based on the audio signal. - a data memory , which stores project data relating to a predefined sequence of project steps, wherein the project data includes user information for each project step of the sequence; - a control unit , which is configured to generate an audio signal corresponding to the associated user information for a predefined project step of the sequence; and - a speaker , which is connected to the control unit for obtaining the audio signal and is configured to generate a voice output based on the audio signal.
An image processing apparatus comprising: first alignment means configured to perform an alignment in a horizontal direction on a plurality of two-dimensional tomographic images based on a positional deviation amount acquired by comparing projected images in the depth direction generated from the plurality of two-dimensional tomographic images, the plurality of two-dimensional tomographic images being obtained based on measurement light controlled to scan an identical position of an eye; and second alignment means configured to perform an alignment in a depth direction on the plurality of two-dimensional tomographic images. first alignment means configured to perform an alignment in a horizontal direction on a plurality of two-dimensional tomographic images based on a positional deviation amount acquired by comparing projected images in the depth direction generated from the plurality of two-dimensional tomographic images, the plurality of two-dimensional tomographic images being obtained based on measurement light controlled to scan an identical position of an eye; and second alignment means configured to perform an alignment in a depth direction on the plurality of two-dimensional tomographic images.
A ring rolling machine , comprising at least one forming tool , which can have a forming effect on a workpiece arranged in a working region of the ring rolling machine , characterised in that the ring rolling machine comprises a light section sensor , which is directed towards the working region of the ring rolling machine , the light section sensor being arranged on an axial frame of the ring rolling machine and thus being radially displaceable together with said axial frame, and represents an input variable for a forming control device which positions the at least one forming tool relative to the workpiece during forming, and the light section sensor is directed towards a forming region in which the forming tool has a forming effect.
A method, comprising: - transmitting to a Network Function, NF, service producer, by a Service Communication Proxy, SCP, a service request on behalf of an NF service consumer, wherein the service request comprises an access token; - receiving, by the SCP, a service response from the NF service producer; - upon receiving the service response, transmitting to the NF service consumer, by the SCP, information related to the access token; and - receiving, by the SCP, a subsequent service request from the NF service consumer, wherein the subsequent service request comprises said information related to the access token; asking, by the SCP, for a new access token from a Network Repository Function, NRF, using said information related to the access token, wherein said information related to the access token comprises at least one access token request parameter and the at least one access token request parameter comprises a parameter used by the SCP to retrieve the access token. - transmitting to a Network Function, NF, service producer, by a Service Communication Proxy, SCP, a service request on behalf of an NF service consumer, wherein the service request comprises an access token; - receiving, by the SCP, a service response from the NF service producer; - upon receiving the service response, transmitting to the NF service consumer, by the SCP, information related to the access token; and - receiving, by the SCP, a subsequent service request from the NF service consumer, wherein the subsequent service request comprises said information related to the access token; asking, by the SCP, for a new access token from a Network Repository Function, NRF, using said information related to the access token, wherein said information related to the access token comprises at least one access token request parameter and the at least one access token request parameter comprises a parameter used by the SCP to retrieve the access token.
A semiconductor package comprising: an electronic component ; a lead frame that includes a die pad , on which the electronic component is fixed, and first terminals (3; 3a, 3b) being internal wires; wires to connect the electronic component and the first termi-nals (3; 3a, 3b); molded resin to seal the electronic component and the wires ; a plurality of second terminals (8; 8a, 8b) disposed to surround the first terminals (3; 3a, 3b) on a package plane and formed to be capable of being grounded, said plurality of second terminals (8; 8a, 8b) being discretely disposed in an island-shaped manner or being connected to be a series, the second terminals (8; 8a, 8b) being included in the lead frame; and a conductive coating that covers a top surface and sides of the molded resin and is electrically connected to the second terminals (8; 8a, 8b), wherein a bottom surface of each of the second terminals (8; 8a, 8b) is exposed to the outside of the semiconductor package, a top surface of each of the second terminals (8; 8a, 8b) is in contact with the conductive coating , while all other surfaces of the second terminals (8; 8a, 8b) except their top surfaces and their bottom surfaces are covered with the molded resin so that said all other surfaces of the second terminals (8; 8a, 8b) are not in contact with the conductive coating . an electronic component ; a lead frame that includes a die pad , on which the electronic component is fixed, and first terminals (3; 3a, 3b) being internal wires; wires to connect the electronic component and the first termi-nals (3; 3a, 3b); molded resin to seal the electronic component and the wires ; a plurality of second terminals (8; 8a, 8b) disposed to surround the first terminals (3; 3a, 3b) on a package plane and formed to be capable of being grounded, said plurality of second terminals (8; 8a, 8b) being discretely disposed in an island-shaped manner or being connected to be a series, the second terminals (8; 8a, 8b) being included in the lead frame; and a conductive coating that covers a top surface and sides of the molded resin and is electrically connected to the second terminals (8; 8a, 8b), wherein a bottom surface of each of the second terminals (8; 8a, 8b) is exposed to the outside of the semiconductor package, a top surface of each of the second terminals (8; 8a, 8b) is in contact with the conductive coating , while all other surfaces of the second terminals (8; 8a, 8b) except their top surfaces and their bottom surfaces are covered with the molded resin so that said all other surfaces of the second terminals (8; 8a, 8b) are not in contact with the conductive coating .
A process of manufacturing of a gel product comprising cross-linked hyaluronic acid and hydroxyapatite, said process comprising: combining in an aqueous medium hyaluronic acid or a salt thereof, a cross-linking agent, and conducting a cross-linking reaction in the presence of a first portion of hydroxyapatite; completing the cross-linking reaction; and incorporating a second portion of hydroxyapatite into the so-formed gel, wherein said incorporating comprises homogenously dispersing said second portion of hydroxyapatite in said so-formed hyaluronic acid gel. combining in an aqueous medium hyaluronic acid or a salt thereof, a cross-linking agent, and conducting a cross-linking reaction in the presence of a first portion of hydroxyapatite; completing the cross-linking reaction; and incorporating a second portion of hydroxyapatite into the so-formed gel, wherein said incorporating comprises homogenously dispersing said second portion of hydroxyapatite in said so-formed hyaluronic acid gel.
Dental implant , comprising: - an external thread arranged on an outside of the dental implant for fastening the dental implant to a jawbone; - an opening extending along a longitudinal axis of the dental implant , in which opening an internal thread for fastening a superstructure to the dental implant is arranged; and - an interface for fastening the superstructure to the dental implant , which interface is arranged at a front end of the dental implant ; wherein the interface comprises a convex, rounded curvature extending around the longitudinal axis over an angular range of at least 90°, and a support surface disposed radially outwardly relative to the convex curvature , wherein the support surface has at least one annular portion oriented transversely to the longitudinal axis , and wherein, in a longitudinal section along the longitudinal axis of the dental implant , a tangent to a radially outer edge of the convex curvature which faces the annular portion of the support surface is oriented parallel to or at an angle greater than 60° to the annular portion of the support surface , characterized in that the interface is not rotationally symmetrical with respect to the longitudinal axis in order to form an anti-rotation device. - an external thread arranged on an outside of the dental implant for fastening the dental implant to a jawbone; - an opening extending along a longitudinal axis of the dental implant , in which opening an internal thread for fastening a superstructure to the dental implant is arranged; and - an interface for fastening the superstructure to the dental implant , which interface is arranged at a front end of the dental implant ;
An electronic device, comprising: an image-capturing unit that captures an image of a subject with an image sensor , the image sensor being configured to be able to set image-capturing conditions for a plurality of regions on an image-capturing surface, the image-capturing conditions including exposure conditions and image processing conditions; and a control unit that determines the image-capturing conditions varied for each of the regions depending on a type of subject elements detected by object recognition processing from the image captured by the image-capturing unit and a type of preset image-capturing modes. an image-capturing unit that captures an image of a subject with an image sensor , the image sensor being configured to be able to set image-capturing conditions for a plurality of regions on an image-capturing surface, the image-capturing conditions including exposure conditions and image processing conditions; and a control unit that determines the image-capturing conditions varied for each of the regions depending on a type of subject elements detected by object recognition processing from the image captured by the image-capturing unit and a type of preset image-capturing modes.
A method of generating an expected remaining lifetime of a transformer, comprising: generating probabilistic models of factors that affect effective aging of the transformer, generating a plurality of probabilistic profiles of the factors that affect effective aging of the transformer based on the probabilistic models; wherein generating probabilistic profiles of factors that affect the effective aging of the transformer comprises generating a plurality of expected load profiles based on predicted loading of the transformer, wherein the expected load profiles describe expected loads over a predetermined time period, and wherein the expected load profiles are generated based on probability distributions at a plurality of time intervals within the predetermined time period; generating a plurality of probabilistic hot spot profiles from the plurality of probabilistic profiles and hot spot temperature characteristics of the transformer; simulating a plurality of future aging scenarios of the transformer based on the probabilistic hot spot profiles; estimating an expected remaining lifetime of the transformer from the plurality of future aging scenarios; and performing maintenance on the transformer and/or adjusting a load of the transformer based on the estimated future aging of the transformer. generating probabilistic models of factors that affect effective aging of the transformer, generating a plurality of probabilistic profiles of the factors that affect effective aging of the transformer based on the probabilistic models; wherein generating probabilistic profiles of factors that affect the effective aging of the transformer comprises generating a plurality of expected load profiles based on predicted loading of the transformer, wherein the expected load profiles describe expected loads over a predetermined time period, and wherein the expected load profiles are generated based on probability distributions at a plurality of time intervals within the predetermined time period; wherein generating probabilistic profiles of factors that affect the effective aging of the transformer comprises generating a plurality of expected load profiles based on predicted loading of the transformer, wherein the expected load profiles describe expected loads over a predetermined time period, and wherein the expected load profiles are generated based on probability distributions at a plurality of time intervals within the predetermined time period; generating a plurality of probabilistic hot spot profiles from the plurality of probabilistic profiles and hot spot temperature characteristics of the transformer; simulating a plurality of future aging scenarios of the transformer based on the probabilistic hot spot profiles; estimating an expected remaining lifetime of the transformer from the plurality of future aging scenarios; and performing maintenance on the transformer and/or adjusting a load of the transformer based on the estimated future aging of the transformer.
Release mechanism for an energy harvesting arrangement for an electronic locking system , the release mechanism comprising: - a drive device for driving an electromagnetic generator , the drive device comprising a substantially planar drive device surface ; - a harvesting elastic element arranged to force the drive device towards a starting position , and arranged to store mechanical energy from displacement of the drive device from the starting position along a harvesting path ; - at least one magnet ; - an input device , the input device being movable along the harvesting path , and comprising a substantially planar input device surface arranged to mate with the drive device surface to establish a mating interface; and - an engaging profile arranged offset with respect to the mating interface; wherein the input device is arranged to engage the drive device by means of a magnetic force, generated by the magnet and acting between the drive device surface and the input device surface , such that the drive device can be displaced from the starting position by movement of the input device along the harvesting path ; and wherein the engaging profile is arranged to engage the drive device at an engaging position of the drive device , such that further movement of the input device along the harvesting path causes a relative inclination between the drive device surface and the input device surface . - a drive device for driving an electromagnetic generator , the drive device comprising a substantially planar drive device surface ; - a harvesting elastic element arranged to force the drive device towards a starting position , and arranged to store mechanical energy from displacement of the drive device from the starting position along a harvesting path ; - at least one magnet ; - an input device , the input device being movable along the harvesting path , and comprising a substantially planar input device surface arranged to mate with the drive device surface to establish a mating interface; and - an engaging profile arranged offset with respect to the mating interface;
A backup power system , comprising: a battery ; a charging circuit electrically connected to the battery ; power storage configured to be charged by the charging circuit ; a first load electrically connected to the power storage ; a second load electrically connected to the power storage ; and a controller configured to control the charging circuit , wherein the controller detects at least one of an input current at the charging circuit and a charging voltage at the power storage in response to a start signal input to the controller , the controller causes the input current at the charging circuit to increase at a first rate of change in response to the start signal, when the controller detects an increase in the charging voltage at the power storage up to a first voltage at which driving of the first load is possible, the controller causes the charging circuit to cause the input current at the charging circuit to increase at a second rate of change lower than the first rate of change, and the charging circuit is controlled by the controller to cause the input current to increase at the second rate of change, and the charging voltage at the power storage increases up to a second voltage at which driving of both the first load and the second load is possible. a battery ; a charging circuit electrically connected to the battery ; power storage configured to be charged by the charging circuit ; a first load electrically connected to the power storage ; a second load electrically connected to the power storage ; and a controller configured to control the charging circuit , wherein the controller detects at least one of an input current at the charging circuit and a charging voltage at the power storage in response to a start signal input to the controller , the controller causes the input current at the charging circuit to increase at a first rate of change in response to the start signal, when the controller detects an increase in the charging voltage at the power storage up to a first voltage at which driving of the first load is possible, the controller causes the charging circuit to cause the input current at the charging circuit to increase at a second rate of change lower than the first rate of change, and the charging circuit is controlled by the controller to cause the input current to increase at the second rate of change, and the charging voltage at the power storage increases up to a second voltage at which driving of both the first load and the second load is possible.