mhurhangee/patent-ind-claim-en huggingface dataset:
A method for sending uplink scheduling grant, applied in an Advanced Long Term Evolution, LTE-A, system, characterized by comprising: a base station, according to a number of clusters occupied with non-consecutive resource allocation by a Physical Uplink Shared Channel, PUSCH, of a scheduled user equipment in a component carrier, wherein the number of clusters is larger than 2, configuring at least two uplink scheduling grants for the user equipment , wherein each uplink scheduling grant indicates an allocation of resource for one or two clusters occupied by the PUSCH; and the base station allocating a Physical Downlink Control Channel, PDCCH, for each uplink scheduling grant, and sending the uplink scheduling grant to the user equipment . a base station, according to a number of clusters occupied with non-consecutive resource allocation by a Physical Uplink Shared Channel, PUSCH, of a scheduled user equipment in a component carrier, wherein the number of clusters is larger than 2, configuring at least two uplink scheduling grants for the user equipment , wherein each uplink scheduling grant indicates an allocation of resource for one or two clusters occupied by the PUSCH; and the base station allocating a Physical Downlink Control Channel, PDCCH, for each uplink scheduling grant, and sending the uplink scheduling grant to the user equipment .
A method of preparing a sequencing library, the method comprising: obtaining a plurality of DNA fragments from a sample; ligating a first strand of at least partially double-stranded oligonucleotide adaptors to a 5' end of one of the DNA fragments to form adaptor-ligated fragments; extending a free 3' end of the DNA fragment by polymerase to copy the first strand of the adaptor; and amplifying without purifying the adaptor-ligated fragments in the presence of excess adaptors not ligated to one of the DNA fragments to form a plurality of amplicons, wherein amplifying the adaptor-ligated fragments includes using the first strand of the adaptor as an amplification primer. obtaining a plurality of DNA fragments from a sample; ligating a first strand of at least partially double-stranded oligonucleotide adaptors to a 5' end of one of the DNA fragments to form adaptor-ligated fragments; extending a free 3' end of the DNA fragment by polymerase to copy the first strand of the adaptor; and amplifying without purifying the adaptor-ligated fragments in the presence of excess adaptors not ligated to one of the DNA fragments to form a plurality of amplicons, wherein amplifying the adaptor-ligated fragments includes using the first strand of the adaptor as an amplification primer.
A magnetic nanoparticle which is surface conjugated with anti-CD133 antibody for use in a method of extracting neural stem-cells from a subject, comprising: (a) introducing magnetic nanoparticles into the subject, (b) targeting neural stem cells with the magnetic nanoparticles to form magnetic nanoparticle-targeted cells, (c) isolating the magnetic nanoparticle-targeted cells, wherein the step of isolating comprises agitating the magnetic nanoparticle-targeted cells by using magnetic force, (d) extracting the magnetic nanoparticles-targeted cells from the subject. (a) introducing magnetic nanoparticles into the subject, (b) targeting neural stem cells with the magnetic nanoparticles to form magnetic nanoparticle-targeted cells, (c) isolating the magnetic nanoparticle-targeted cells, wherein the step of isolating comprises agitating the magnetic nanoparticle-targeted cells by using magnetic force, (d) extracting the magnetic nanoparticles-targeted cells from the subject.
Method for operating a washing machine with an outer tub , a drum , arranged therein, for receiving items of laundry , a drive motor , at least one water supply apparatus , a repumping system with a drain pump and a repumping line , and a control facility , in which at least one operating program is stored, wherein the operating program comprises a pre-treatment phase and a subsequent washing phase, wherein in the pre-treatment phase a first predetermined volume V start of an aqueous liquid, in particular fresh water, is introduced into the outer tub , - some of the aqueous liquid is absorbed by the items of laundry and the part of the aqueous liquid not absorbed by the items of laundry is pumped out of the outer tub as free liquor by means of the repumping system and is then returned thereto, - at least during the pre-treatment phase the drum is driven by means of the drive motor in at least one first drive step, - before the washing phase a second volume of the aqueous liquid, which is smaller than the volume of the free liquor, is pumped down out of the outer tub , characterised in that the second volume is a predetermined volume V rem and that in the washing phase a third volume V add of aqueous liquid is fed to the outer tub , and that a load size of items of laundry is predetermined for a respective operating program as a nominal load size or is determined by means of a measuring facility, wherein the first volume V start is ascertained from the product of a load size in kg and a first load-specific volume V' start and the second volume V rem is ascertained from the product of a load size in kg and a second load-specific volume V' rem . - some of the aqueous liquid is absorbed by the items of laundry and the part of the aqueous liquid not absorbed by the items of laundry is pumped out of the outer tub as free liquor by means of the repumping system and is then returned thereto, - at least during the pre-treatment phase the drum is driven by means of the drive motor in at least one first drive step, - before the washing phase a second volume of the aqueous liquid, which is smaller than the volume of the free liquor, is pumped down out of the outer tub ,
A method for predicting the risk of recurrence of breast cancer which comprises measuring the levels of all the miRNAs of the group consisting of: a. miR-149-5p (SEQ ID NO: 1); b. miR-10a-5p, (SEQ ID NO: 2); c. miR-20b-5p, (SEQ ID NO: 3); d. miR-30a-3p (SEQ ID NO: 4); and e. miR-342-5p, (SEQ ID NO: 5) in a sample of the tumor, wherein a drop in the level of all the miRNAs in the tumor with respect to a control is indicative of a high risk of recurrence of the tumor. a. miR-149-5p (SEQ ID NO: 1); b. miR-10a-5p, (SEQ ID NO: 2); c. miR-20b-5p, (SEQ ID NO: 3); d. miR-30a-3p (SEQ ID NO: 4); and e. miR-342-5p, (SEQ ID NO: 5)
A system comprising an autonomous mobile robot and a base station for the robot , wherein the robot includes a navigation module having a navigation sensor , which is designed for detecting geometric features of objects in the surroundings of the robot , wherein distances between the navigation sensor and objects in the surroundings of the robot are measured contactlessly and geometric features of the objects are detected based on the measured distances; wherein the base station includes at least one geometric feature which can be detected based on contactless measurement of distances by the navigation sensor , wherein the robot includes a robot controller coupled to the navigation module, which is designed to identify and/or locate the base station based on the at least one geometric feature of the base station and to determine a docking position of the robot , wherein the base station includes at least one opening in its housing wall, wherein the at least one geometric feature is at least defined by a size of the opening , characterized in that the base station includes a cover, which consists of a material transparent to the navigation sensor and which covers at least one opening . wherein the robot includes a navigation module having a navigation sensor , which is designed for detecting geometric features of objects in the surroundings of the robot , wherein distances between the navigation sensor and objects in the surroundings of the robot are measured contactlessly and geometric features of the objects are detected based on the measured distances; wherein the base station includes at least one geometric feature which can be detected based on contactless measurement of distances by the navigation sensor , wherein the robot includes a robot controller coupled to the navigation module, which is designed to identify and/or locate the base station based on the at least one geometric feature of the base station and to determine a docking position of the robot , wherein the base station includes at least one opening in its housing wall, wherein the at least one geometric feature is at least defined by a size of the opening ,
Method for calibrating a torque sensor which is arranged in the drivetrain of a motor vehicle , wherein firstly the uncalibrated torque sensor is arranged in the fully completed drivetrain in the motor vehicle and subsequently a first known value for a torque is applied to the drivetrain of the motor vehicle and then a second known value for a torque is applied to the drivetrain of the motor vehicle and the first output signal which is generated by the torque sensor is assigned to the first known value for a torque and the second output signal which is generated by the torque sensor is assigned to the second known value for a torque, the torque sensor being calibrated in the fully completed drivetrain of the motor vehicle in this way, characterized in that the first known value for a torque, which first known value is applied to the drivetrain of the motor vehicle , corresponds to a zero torque, in which case no torque is applied to the drivetrain.
An image reading device comprising: an image reading unit configured to read an image formed on a sheet (P); a first conveyor disposed upstream from the image reading unit in a conveyance direction of the sheet (P) to convey the sheet (P); a second conveyor disposed downstream from the image reading unit in the conveyance direction to convey the sheet (P); and circuitry configured to control conveyance speeds of the sheet (P) by the first conveyor and the second conveyor , characterised in that the image reading device further comprises a conveyance timing sensor configured to detect a trailing end of the sheet (P) when the sheet (P) passes through the first conveyor , wherein the circuitry is configured to change, based on the image read by the image reading unit , a difference between the conveyance speeds of the sheet (P) by the first conveyor and the second conveyor at the timing when the conveyance timing sensor detects the trailing end of the sheet (P). an image reading unit configured to read an image formed on a sheet (P); a first conveyor disposed upstream from the image reading unit in a conveyance direction of the sheet (P) to convey the sheet (P); a second conveyor disposed downstream from the image reading unit in the conveyance direction to convey the sheet (P); and circuitry configured to control conveyance speeds of the sheet (P) by the first conveyor and the second conveyor , characterised in that the image reading device further comprises a conveyance timing sensor configured to detect a trailing end of the sheet (P) when the sheet (P) passes through the first conveyor , wherein the circuitry is configured to change, based on the image read by the image reading unit , a difference between the conveyance speeds of the sheet (P) by the first conveyor and the second conveyor at the timing when the conveyance timing sensor detects the trailing end of the sheet (P).
Switch with a switch housing , a number of individual switching chambers with at least two switching contact elements and with an actuating device closing off the housing above the individual switching chambers and provided for adjusting a cam element for the selective establishment of an electrical connection between the switching contact elements of an individual switching chamber , wherein the switching contact elements can be arranged in each individual switching chamber in at least two different orientations, and in particular the cam element of the actuating device can be arranged differently depending on the orientation of the switching contact elements , characterized in that: the individual switching chambers can be arranged in particular next to each other in the switch housing in a modular manner, and the switching contact elements can be arranged in an explosion-proof manner in each individual switching chamber , and the switching contact element has a receiving opening for an insertion end of a contact pin which at its contact end opposite the insertion end is in contact with the counter-contact element in its contact position . the individual switching chambers can be arranged in particular next to each other in the switch housing in a modular manner, and the switching contact elements can be arranged in an explosion-proof manner in each individual switching chamber , and the switching contact element has a receiving opening for an insertion end of a contact pin which at its contact end opposite the insertion end is in contact with the counter-contact element in its contact position .
A machine-readable medium on which are stored instructions, comprising instructions that, when executed by a programmable device, cause the programmable device to at least: instantiate a sandbox environment in a Java Virtual machine, JVM, on the programmable device to run an application; and inject code into the JVM; the instructions characterised in that , when executed by the programmable device, further cause the programmable device to at least: check a version of the JVM; if the version is 1.7 or greater, hook, by the code, a setSecurityManager method of a SecurityManager object to store the SecurityManager object, and hook a getSecurityManager method of the SecurityManager object to check whether the SecurityManager object has been disabled or is null; and if the SecurityManager object has been disabled or is null, indicate that the application is attempting to escape from the sandbox. instantiate a sandbox environment in a Java Virtual machine, JVM, on the programmable device to run an application; and inject code into the JVM; the instructions characterised in that , when executed by the programmable device, further cause the programmable device to at least: check a version of the JVM; if the version is 1.7 or greater, hook, by the code, a setSecurityManager method of a SecurityManager object to store the SecurityManager object, and hook a getSecurityManager method of the SecurityManager object to check whether the SecurityManager object has been disabled or is null; and if the SecurityManager object has been disabled or is null, indicate that the application is attempting to escape from the sandbox. check a version of the JVM; if the version is 1.7 or greater, hook, by the code, a setSecurityManager method of a SecurityManager object to store the SecurityManager object, and hook a getSecurityManager method of the SecurityManager object to check whether the SecurityManager object has been disabled or is null; and if the SecurityManager object has been disabled or is null, indicate that the application is attempting to escape from the sandbox.
An automated warehouse system , comprising: at least two stacked longitudinally extending racks that are laterally separated by an aisle , each of said racks having a plurality of levels , with storage locations on each of said levels ; an automated carriage at each of said levels ; said automated carriage longitudinally travelling along the associated aisle and adapted to store articles to and retrieve articles from at least two separate rows of articles in at least one of said racks at that level , each of said rows at a different distance from said aisle ; and a lift arrangement for delivering articles to and retrieving articles from the levels of said stacked racks , wherein said lift arrangement comprises at least two lift assemblies for at least one of said racks , wherein lift platforms of the at least two lift assemblies are laterally aligned respectively with the at least two rows , said at least one of said racks having a rack height and each said lift assembly having a vertical mast that extends the rack height of said at least one of said racks and said lift platform that raises and lowers along the mast characterized in that said lift assemblies for the at least two lift assemblies for at least one of said racks are positioned at different distances from said racks , and in that the one of said lift assemblies that is aligned with the row of articles that is furthest from said aisle is closer to said racks than is the one of said lift assemblies that is aligned with the row of articles that is closest to said aisle . at least two stacked longitudinally extending racks that are laterally separated by an aisle , each of said racks having a plurality of levels , with storage locations on each of said levels ; an automated carriage at each of said levels ; said automated carriage longitudinally travelling along the associated aisle and adapted to store articles to and retrieve articles from at least two separate rows of articles in at least one of said racks at that level , each of said rows at a different distance from said aisle ; and a lift arrangement for delivering articles to and retrieving articles from the levels of said stacked racks , wherein said lift arrangement comprises at least two lift assemblies for at least one of said racks , wherein lift platforms of the at least two lift assemblies are laterally aligned respectively with the at least two rows , said at least one of said racks having a rack height and each said lift assembly having a vertical mast that extends the rack height of said at least one of said racks and said lift platform that raises and lowers along the mast characterized in that said lift assemblies for the at least two lift assemblies for at least one of said racks are positioned at different distances from said racks , and in that the one of said lift assemblies that is aligned with the row of articles that is furthest from said aisle is closer to said racks than is the one of said lift assemblies that is aligned with the row of articles that is closest to said aisle .
A method for ablating a coating on a substrate, the method comprising: selecting tuning parameters for a laser such that the laser produces output that is configured to ablate the coating without damaging a surface of the substrate beneath the coating; directing the output of the tuned laser at one or more rotating mirrors to create one or more substantially circular scanning patterns with the output, wherein the rotating mirror is mounted to a motor and wherein the mirror is offset from the axis of rotation of the motor at an offset angle that is greater or less than an angle between a mirror plane and the axis of rotation of the motor which are substantially orthogonal to one another, so that the angle of incidence of the output on the mirror varies through a single rotation of the mirror ; moving the output at a substantially continuous rate along the coating to ablate the coating, and selectively adjusting the offset angle for the one or more rotating mirrors to control a diameter of the one or more substantially circular scanning patterns . selecting tuning parameters for a laser such that the laser produces output that is configured to ablate the coating without damaging a surface of the substrate beneath the coating; directing the output of the tuned laser at one or more rotating mirrors to create one or more substantially circular scanning patterns with the output, wherein the rotating mirror is mounted to a motor and wherein the mirror is offset from the axis of rotation of the motor at an offset angle that is greater or less than an angle between a mirror plane and the axis of rotation of the motor which are substantially orthogonal to one another, so that the angle of incidence of the output on the mirror varies through a single rotation of the mirror ; moving the output at a substantially continuous rate along the coating to ablate the coating, and selectively adjusting the offset angle for the one or more rotating mirrors to control a diameter of the one or more substantially circular scanning patterns .
Cleaning machine for cleaning containers , wherein the containers which are to be cleaned are moved by means of a transport system in container cells of the transport system between a bottle inlet and a bottle delivery station through different treatment zones, wherein the treatment zones comprise at least one immersion bath as well as at least one spraying zone with at least one spraying station , wherein the at least one spraying station comprises at least one injection nozzle with at least one cleaning jet for the application imposition of a cleaning fluid onto the container received in a transport system , with each respective container mouth (2.1) pointing downwards, wherein the alignment direction of the cleaning jet relative to the container which is to be cleaned is provided for in the region of the spraying station , during the imposition of the cleaning fluid onto the container , wherein the spraying station comprises at least one inspection device , which is configured such as to detect and/or evaluate the at least one cleaning jet produced by the injection nozzle , wherein at least one sensor unit is arranged above the at least one injection nozzle which is to be detected, such that, during the imposition of cleaning fluid, its cleaning jet impacts onto the sensor unit and/or a detection region (EB) of the sensor unit , and can therefore be detected when a free container cell is located above the injection nozzle , and the cleaning jet passes through an opening of the container cell on a side of the container cell opposite the injection nozzle .
A power transmitting unit, comprising: a signal generator configured to generate a signal of a first frequency band for wireless charging; a power generation circuit configured to generate a modulation signal for modulating the signal of the first frequency band generated by the signal generator, and amplify a transmit power of the signal of the first frequency band based on voltage supplied from outside of the power transmitting unit; a power transmission circuit configured to transmit the amplified transmit power to a power receiving unit via a first antenna; a second antenna configured to receive information about a charging state from the power receiving unit through a second frequency band, wherein the charging state comprises a voltage value of a rectifier capacitor of the power receiving unit; and characterised in that it further comprises a control circuit configured to control a duty and frequency of the modulation signal based on the charging state, wherein the frequency of the modulated signal is controlled based on the voltage value of the rectifier capacitor. a signal generator configured to generate a signal of a first frequency band for wireless charging; a power generation circuit configured to generate a modulation signal for modulating the signal of the first frequency band generated by the signal generator, and amplify a transmit power of the signal of the first frequency band based on voltage supplied from outside of the power transmitting unit; a power transmission circuit configured to transmit the amplified transmit power to a power receiving unit via a first antenna; a second antenna configured to receive information about a charging state from the power receiving unit through a second frequency band, wherein the charging state comprises a voltage value of a rectifier capacitor of the power receiving unit; and characterised in that it further comprises a control circuit configured to control a duty and frequency of the modulation signal based on the charging state, wherein the frequency of the modulated signal is controlled based on the voltage value of the rectifier capacitor.