mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communications performed by a base station, BS, comprising: receiving a physical random access channel, PRACH, signal from a first user equipment, UE, on a first narrowband region comprising one to six resource blocks, RBs, within a wider uplink, UL, system bandwidth; determining a first search space , in which to transmit a random access response, RAR, message, based at least in part on the coverage enhancement, CE, level of the UE; and transmitting , in response to the PRACH signal, the RAR message in the first search space, which is in a second narrowband region comprising one to six RBs within a wider downlink, DL, system bandwidth, in at least a first subframe. receiving a physical random access channel, PRACH, signal from a first user equipment, UE, on a first narrowband region comprising one to six resource blocks, RBs, within a wider uplink, UL, system bandwidth; determining a first search space , in which to transmit a random access response, RAR, message, based at least in part on the coverage enhancement, CE, level of the UE; and transmitting , in response to the PRACH signal, the RAR message in the first search space, which is in a second narrowband region comprising one to six RBs within a wider downlink, DL, system bandwidth, in at least a first subframe.
A flow cell comprising: an aperture ; an inlet chamber in fluid communication with the aperture , wherein the inlet chamber includes a profile (154(a-1)) directed toward the aperture and wherein the inlet chamber is suitable to contain sheath fluid; and a sample injector disposed in the inlet chamber to inject a sample into the inlet chamber , the injected sample forming a sample stream, wherein, the sample stream and sheath fluid in the inlet chamber flow through the aperture , characterized in that the outlet of the sample injector is positioned closer than the center of the inlet chamber to the profile (154(a-1)) such that the sample stream travels along the profile (154(a-1)), travels in proximity to the profile (154(a-1)) relative to other areas of the inlet chamber , and does not travel directly to the aperture . an aperture ; an inlet chamber in fluid communication with the aperture , wherein the inlet chamber includes a profile (154(a-1)) directed toward the aperture and wherein the inlet chamber is suitable to contain sheath fluid; and a sample injector disposed in the inlet chamber to inject a sample into the inlet chamber , the injected sample forming a sample stream, wherein, the sample stream and sheath fluid in the inlet chamber flow through the aperture , characterized in that the outlet of the sample injector is positioned closer than the center of the inlet chamber to the profile (154(a-1)) such that the sample stream travels along the profile (154(a-1)), travels in proximity to the profile (154(a-1)) relative to other areas of the inlet chamber , and does not travel directly to the aperture .
A probe system comprising: a probe with first and second arms and a probe tip carried by the first and second arms, the probe tip having a height relative to a height reference and a tilt angle relative to a tilt reference; an illumination system arranged to deform the probe by illuminating the first arm at a first actuation location and the second arm at a second actuation location each with a respective illumination power; and an actuation controller arranged to independently control the illumination power at each actuation location in order to control the height and tilt angle of the probe tip, wherein: the probe system further comprises a probe tip support joining the first and second arms, the probe tip support carrying the probe tip; or distal ends of the first and second arms are connected directly to each other and the probe tip is carried at a junction where the arms meet.
A heat exchanger comprising: a heat transfer pipe formed of aluminum or an aluminum alloy; and a connection pipe unit through which a refrigerant flowing out of the heat transfer pipe and a refrigerant flowing into the heat transfer pipe pass, the connection pipe unit including a gas pipe through which the refrigerant in a gaseous state flows, and a liquid pipe through which the refrigerant in a liquid state or in a two-phase gas-liquid state flows, the gas pipe and the liquid pipe each having a first refrigerant pipe formed of aluminum or an aluminum alloy, and a second refrigerant pipe formed of copper or a copper alloy, the first refrigerant pipe and the second refrigerant pipe being connected to each other, the first refrigerant pipe having a fall portion connected to the heat transfer pipe , the fall portion extending downward relative to the heat transfer pipe , wherein each connection portion between the first refrigerant pipe and the second refrigerant pipe is disposed in the fall portion of the first refrigerant pipe , the connection pipe unit is covered with a thermally insulating material , characterised in that an anti-corrosion treatment is applied to each first refrigerant pipe covered with the thermally insulating material , this anti-corrosion treatment comprising the formation of a protective layer. a heat transfer pipe formed of aluminum or an aluminum alloy; and a connection pipe unit through which a refrigerant flowing out of the heat transfer pipe and a refrigerant flowing into the heat transfer pipe pass, the connection pipe unit including a gas pipe through which the refrigerant in a gaseous state flows, and a liquid pipe through which the refrigerant in a liquid state or in a two-phase gas-liquid state flows, a gas pipe through which the refrigerant in a gaseous state flows, and a liquid pipe through which the refrigerant in a liquid state or in a two-phase gas-liquid state flows, the gas pipe and the liquid pipe each having a first refrigerant pipe formed of aluminum or an aluminum alloy, and a second refrigerant pipe formed of copper or a copper alloy, the first refrigerant pipe and the second refrigerant pipe being connected to each other, a first refrigerant pipe formed of aluminum or an aluminum alloy, and a second refrigerant pipe formed of copper or a copper alloy, the first refrigerant pipe and the second refrigerant pipe being connected to each other, the first refrigerant pipe having a fall portion connected to the heat transfer pipe , the fall portion extending downward relative to the heat transfer pipe , wherein each connection portion between the first refrigerant pipe and the second refrigerant pipe is disposed in the fall portion of the first refrigerant pipe , the connection pipe unit is covered with a thermally insulating material , characterised in that an anti-corrosion treatment is applied to each first refrigerant pipe covered with the thermally insulating material , this anti-corrosion treatment comprising the formation of a protective layer.
An apparatus for signal radiation, the apparatus comprising: a feeding unit configured to radiate a signal; and a guiding unit , that consists of a plurality of elements physically spaced from one another, configured to adjust a radiation pattern of the signal radiated by the feeding unit , wherein the feeding unit and the guiding unit are disposed in a dielectric , wherein a surface of the dielectric is opened, and wherein some of the plurality of elements are exposed and at least one element is not exposed to the outside of the dielectric through the opened surface . a feeding unit configured to radiate a signal; and a guiding unit , that consists of a plurality of elements physically spaced from one another, configured to adjust a radiation pattern of the signal radiated by the feeding unit , wherein the feeding unit and the guiding unit are disposed in a dielectric , wherein a surface of the dielectric is opened, and wherein some of the plurality of elements are exposed and at least one element is not exposed to the outside of the dielectric through the opened surface .
A computer-implemented method, comprising: receiving, at a training broker , a request to train a machine-learning, ML, model ; obtaining, by the training broker from each individual data source of a plurality of data sources, anonymized data for training the model , the anonymized data accessed through a data science schema being provided by anonymization of sensitive information of production data from each individual data source ; creating the data science schema based on a production data schema of the production data, wherein the data science schema provides read-only access to the production data, and wherein the data science schema provides access limited to non-personalized data in the production data without replication of non-personalized data; using the data science schema to provide access to the production data; and providing, to a data vendor, access to the anonymized data for training the ML model using the anonymized data. receiving, at a training broker , a request to train a machine-learning, ML, model ; obtaining, by the training broker from each individual data source of a plurality of data sources, anonymized data for training the model , the anonymized data accessed through a data science schema being provided by anonymization of sensitive information of production data from each individual data source ; creating the data science schema based on a production data schema of the production data, wherein the data science schema provides read-only access to the production data, and wherein the data science schema provides access limited to non-personalized data in the production data without replication of non-personalized data; using the data science schema to provide access to the production data; and providing, to a data vendor, access to the anonymized data for training the ML model using the anonymized data.
Method of using a high resolution laser scanning microscope having an objective connector and beam shaping means which shape a fluorescence inhibition light beam directed into a back aperture of an objective connected to the objective connector at least with regard to its polarization to form an intensity minimum delimited by intensity maxima in a focus of the objective , wherein a plurality of optical elements including the objective are arranged in the beam path of the fluorescence inhibition light beam up to the focus of the objective , and wherein the beam shaping means differ from the optical elements , wherein the method comprises: - removing or exchanging or altering or adding one of the optical elements arranged in the beam path of the fluorescence inhibition light beam , characterized by - compensating a variation of polarization varying properties of a totality of the optical elements arranged in the beam path of the fluorescence inhibition light beam caused by removing, exchanging, altering or adding the one optical element by adapting the beam shaping means , - wherein, upon removing or exchanging or altering or adding the optical element 4, 5, 11, 12, 14, 24, the beam shaping means , for adapting, are brought in an adjustment predetermined by an identifier of the removed or exchanged or altered or added optical element . - removing or exchanging or altering or adding one of the optical elements arranged in the beam path of the fluorescence inhibition light beam , - compensating a variation of polarization varying properties of a totality of the optical elements arranged in the beam path of the fluorescence inhibition light beam caused by removing, exchanging, altering or adding the one optical element by adapting the beam shaping means , - wherein, upon removing or exchanging or altering or adding the optical element 4, 5, 11, 12, 14, 24, the beam shaping means , for adapting, are brought in an adjustment predetermined by an identifier of the removed or exchanged or altered or added optical element .
A system comprising: (i) a capsule holder having a lower end and an upper end wherein said capsule holder comprises a solid base positioned at said lower end , a solid body extending upwardly from said solid base , and a well extending downwardly within said solid body wherein said well opens at the upper end of said capsule holder and ends prior to said solid base and is configured to receive a lower half of a capsule , wherein said capsule holder is formed from a radiation-shielding material, preferably wherein the radiation-shielding material comprises lead, steel or tungsten; (ii) a shielded needle positioner having a lower end and an upper end wherein said shielded needle positioner comprises a solid body defining a bore extending substantially linearly and centrally therethrough, said bore comprising a lower section opening onto said lower end , and an upper section opening onto said upper end and configured to receive an upper half of a capsule , wherein said shielded needle positioner is formed from a radiation-shielding material, characterised in that said bore is configured to be fitted over and contain the solid body of said capsule holder. (i) a capsule holder having a lower end and an upper end wherein said capsule holder comprises a solid base positioned at said lower end , a solid body extending upwardly from said solid base , and a well extending downwardly within said solid body wherein said well opens at the upper end of said capsule holder and ends prior to said solid base and is configured to receive a lower half of a capsule , wherein said capsule holder is formed from a radiation-shielding material, preferably wherein the radiation-shielding material comprises lead, steel or tungsten; (ii) a shielded needle positioner having a lower end and an upper end wherein said shielded needle positioner comprises a solid body defining a bore extending substantially linearly and centrally therethrough, said bore comprising a lower section opening onto said lower end , and an upper section opening onto said upper end and configured to receive an upper half of a capsule , wherein said shielded needle positioner is formed from a radiation-shielding material, characterised in that said bore is configured to be fitted over and contain the solid body of said capsule holder.
Rectifier (40; 40A, 400) for a welding transformer of a welding apparatus (2; 3) for welding at least one component part , comprising a first side part for electrically conductive connection to the welding transformer , a second side part for electrically conductive connection to the welding transformer , a central part arranged and configured between the first and second side parts for a current output in the direction of a welding electrode of the welding apparatus (2; 3) and at least two semiconductor modules which are arranged between the side parts and the central part and are switchable between a welding tool of the welding apparatus (2; 3) and an output of the welding transformer , characterized in that the at least two semiconductor modules are configured as identical parts, the direct plug connector of which is arranged laterally on the semiconductor module , such that when two semiconductor modules are arranged back to back in a series next to one another, the direct plug connectors are arranged next to one another in a direction transversely with respect to the series for the purpose of connecting the at least two semiconductor modules to a respective plug connector of a driver circuit board for supplying the at least two semiconductor modules with current. a second side part for electrically conductive connection to the welding transformer , a central part arranged and configured between the first and second side parts for a current output in the direction of a welding electrode of the welding apparatus (2; 3) and at least two semiconductor modules which are arranged between the side parts and the central part and are switchable between a welding tool of the welding apparatus (2; 3) and an output of the welding transformer , characterized in that the at least two semiconductor modules are configured as identical parts, the direct plug connector of which is arranged laterally on the semiconductor module , such that when two semiconductor modules are arranged back to back in a series next to one another, the direct plug connectors are arranged next to one another in a direction transversely with respect to the series for the purpose of connecting the at least two semiconductor modules to a respective plug connector of a driver circuit board for supplying the at least two semiconductor modules with current.
An assay plate for mounting a solid state microarray, said assay plate comprising: a pillar, said pillar comprising a top surface and a bottom surface, said top surface comprising a mounting surface to receive a solid state microarray, the microarray comprising: an addressable network of working electrodes and counter electrodes integral to said microarray, wherein said working electrodes comprise chemically-functionalized surfaces comprising functional groups, wherein said working electrodes are bound to a plurality of biomolecular complexes, wherein said biomolecular complexes comprise at least 2 amplified electrochemiluminescent (AECL) tags, wherein at least 2 AECL tags comprise a metal chelate bound to tyramide; and at least one working electrode and one counter electrode configured to contact and to be in electrical communication with a corresponding at least one working electrode and counter electrode on a bottom surface of said solid state microarray, said bottom surface of said pillar comprising contacts for supplying power to said at least one pillar working electrode and counter electrode. an addressable network of working electrodes and counter electrodes integral to said microarray, wherein said working electrodes comprise chemically-functionalized surfaces comprising functional groups, wherein said working electrodes are bound to a plurality of biomolecular complexes, wherein said biomolecular complexes comprise at least 2 amplified electrochemiluminescent (AECL) tags, wherein at least 2 AECL tags comprise a metal chelate bound to tyramide; and at least one working electrode and one counter electrode configured to contact and to be in electrical communication with a corresponding at least one working electrode and counter electrode on a bottom surface of said solid state microarray, said bottom surface of said pillar comprising contacts for supplying power to said at least one pillar working electrode and counter electrode.
A labeled single-stranded nucleic acid comprising at least two fluorescent atomic group pairs that exhibit an exciton effect, wherein an emission peak wavelength of one of the fluorescent atomic group pairs (hereinafter referred to as the fluorescent atomic group pair A) is shorter than an excitation peak wavelength of the other fluorescent atomic group pair (hereinafter referred to as the fluorescent atomic group pair B), the fluorescent atomic group pairs A and B have a Förster resonance energy transfer (FRET) effect, and the distance between the base having the fluorescent atomic group pair A and the base having the fluorescent atomic group pair B is 2 to 5 bases.
A computer implemented method performed by a mobile computing device for controlling a behavior of the mobile computing device based on a location of the mobile computing device , comprising the steps of receiving two or more defined geographic zones ; creating first and second location handlers for controlling the behavior of the mobile computing device and associating the first and second location handlers with respective two of the two or more defined geographic zones , determining when the mobile computing device crosses a boundary of a geographic zone of the two or more defined geographic zones and executing the one or more location handlers associated with a new geographic zone when the new geographic zone has been entered and terminating the one or more location handlers associated with an exited geographic zone when the mobile computing device has exited the exited geographic zone ; and the location handlers, when executed to interact with an operating system of the mobile computer device upon crossing the boundary of the geographic zone altering at least one of a plurality of system settings of the mobile computing device .
A control system for controlling a water supply from at least two separate input lines (3i-k) into a sector of a water supply network, wherein the control system is configured to receive continuously, regularly or sporadically input flow information indicative of the water input flow (q i-k ) through each of the input lines (3i-k), wherein the control system is configured to receive input pressure information indicative of the input pressure (p i ) in at least a first one of the input lines (3i-k), wherein the control system is configured to receive continuously, regularly or sporadically sector pressure information indicative of at least one pressure value (p cri,m,n ) determined by at least one pressure sensor (7m,n) within the sector of the water supply network, wherein the control system is configured to control the input pressure (p i ) by controlling at least a first pressure regulating system at the first input line based on the input flow information from all input lines (3i-k) and based on the sector pressure information.
A power supply system for an electric vehicle that supplies power from a power supply apparatus to one electric vehicle of a plurality of electric vehicles in a non-contact manner, wherein the electric vehicle includes a vehicle-side communication section configured to communicate with the power supply apparatus wirelessly, a power receiving section configured to be supplied with power from the power supply apparatus in a non-contact manner, and a power storage section configured to store power received by the power receiving section , wherein the power supply apparatus includes a vehicle detecting section configured to detect the entrance of the electric vehicle to a predetermined area, a power supply-side communication section configured to communicate with the vehicle-side communication section of the electric vehicle wirelessly, a power supply section configured to supply power to the power receiving section of the electric vehicle in a non-contact manner, and a power supply-side control section configured to control the power supply section , and wherein the power supply-side control section is configured to perform a control for causing the power supply section to supply power of a first power value when the vehicle detecting section detects the entrance of the electric vehicle to the predetermined area (B), and perform a control for causing the power supply section to supply power of a second power value greater than the first power value when it is determined that a communication is set up between the power supply-side communication section and the vehicle-side communication section in a state where the power supply section is supplying power of the first power value, characterized in that the vehicle-side communication section is configured to be started up with power of the first power value supplied from the power supply section of the power supply apparatus to the power receiving section and transmit a request signal to the power supply-side communication section , and the power supply-side control section is configured to determine that a communication is set up between the power supply-side communication section and the vehicle-side communication section when the power supply-side communication section receives the request signal within a predetermined time after the power supply section starts the supply of power of the first power value. perform a control for causing the power supply section to supply power of a first power value when the vehicle detecting section detects the entrance of the electric vehicle to the predetermined area (B), and perform a control for causing the power supply section to supply power of a second power value greater than the first power value when it is determined that a communication is set up between the power supply-side communication section and the vehicle-side communication section in a state where the power supply section is supplying power of the first power value,