mhurhangee/patent-ind-claim-en huggingface dataset:
A floating wind power platform for offshore power production, comprising, a floating unit , wherein the floating unit comprises a first, a second and a third interconnected semisubmersible column each having a longitudinal column central axis and each being arranged in a respective corner of the floating unit , a first and second wind turbine , arranged to the first and second semisubmersible columns , respectively, via a first and second tower respectively, wherein the first and second towers have a first and second longitudinal tower central axis , respectively, wherein the first and second semisubmersible columns are arranged in the floating unit with a first and second angle (α 1 , α 2 ) respectively, with respect to a reference direction (z), and directed away from each other, wherein the first and second longitudinal tower central axes are parallel to the first and second longitudinal column central axes , respectively. a floating unit , wherein the floating unit comprises a first, a second and a third interconnected semisubmersible column each having a longitudinal column central axis and each being arranged in a respective corner of the floating unit , a first and second wind turbine , arranged to the first and second semisubmersible columns , respectively, via a first and second tower respectively, wherein the first and second towers have a first and second longitudinal tower central axis , respectively, wherein the first and second semisubmersible columns are arranged in the floating unit with a first and second angle (α 1 , α 2 ) respectively, with respect to a reference direction (z), and directed away from each other, wherein the first and second longitudinal tower central axes are parallel to the first and second longitudinal column central axes , respectively.
A method for performing fractional beamforming using a massive antenna array at a Base Station, BS, in a wireless communication system, the method comprising: dividing the massive antenna array by rows or by columns into partitions, wherein each of the partitions is used for each row of the massive antenna array or is used for each column of the massive antenna array respectively; receiving feedback information about the partitions from a User Equipment, UE; determining sub-precoders for each of the partitions and a linking precoder, wherein the linking precoder is used for defining a final precoder of the massive antenna array by linking the sub-precoders to each other, wherein the feedback information is used for determining only a part of the sub-precoders and the linking precoder; and transmitting a signal to the UE by performing beamforming using the final precoder. dividing the massive antenna array by rows or by columns into partitions, wherein each of the partitions is used for each row of the massive antenna array or is used for each column of the massive antenna array respectively; receiving feedback information about the partitions from a User Equipment, UE; determining sub-precoders for each of the partitions and a linking precoder, wherein the linking precoder is used for defining a final precoder of the massive antenna array by linking the sub-precoders to each other, wherein the feedback information is used for determining only a part of the sub-precoders and the linking precoder; and transmitting a signal to the UE by performing beamforming using the final precoder.
A safety system for localizing at least one object having a control and evaluation unit , having at least one radio location system , wherein the radio location system has at least three arranged radio stations ; wherein at least one radio transponder is arranged at the object ; wherein position data of the object can be determined by means of the radio location system ; wherein the position data can be transmitted from the radio stations of the radio location system to the control and evaluation unit , wherein at least three radio transponders are arranged at the object , with all three radio transponders each being arranged spaced apart from one another and with the three radio transponders forming different points of a plane and defining the plane unambiguously in space; with the control and evaluation unit being configured to compare the position data of the radio transponders and to form checked position data of the object ; and wherein the control and evaluation unit is configured to form orientation data of the object from the position data of the radio transponders , characterized in that an actuator is configured to cyclically vary the distances between the radio transponders . the radio location system has at least three arranged radio stations ; wherein at least one radio transponder is arranged at the object ; wherein position data of the object can be determined by means of the radio location system ; wherein the position data can be transmitted from the radio stations of the radio location system to the control and evaluation unit , wherein at least three radio transponders are arranged at the object , with all three radio transponders each being arranged spaced apart from one another and with the three radio transponders forming different points of a plane and defining the plane unambiguously in space; with the control and evaluation unit being configured to compare the position data of the radio transponders and to form checked position data of the object ; and wherein the control and evaluation unit is configured to form orientation data of the object from the position data of the radio transponders , characterized in that an actuator is configured to cyclically vary the distances between the radio transponders .
Method for preparing a long-life, ready-to-use infant milk food in liquid form, said method comprising the following steps: - preparing, in two separate tanks, a first phase consisting of a milk composition and a second fatty phase; - transferring said first phase from the first tank to a balance tank, via a conduit comprising an injection path for said second phase, said conduit comprising homogenization means between the injection zone of the second phase and the balance tank for forming a pre-emulsion; - cooling said pre-emulsion in the balance tank and maintaining at a temperature between 5 and 10°C for a period of between 3 and 30 hours; - treating said balanced pre-emulsion by means of sterilization and by means of a second homogenization process at a pressure between 400 and 1500 bars; - packaging the infant milk food obtained in this manner in an aseptic environment. - preparing, in two separate tanks, a first phase consisting of a milk composition and a second fatty phase; - transferring said first phase from the first tank to a balance tank, via a conduit comprising an injection path for said second phase, said conduit comprising homogenization means between the injection zone of the second phase and the balance tank for forming a pre-emulsion; - cooling said pre-emulsion in the balance tank and maintaining at a temperature between 5 and 10°C for a period of between 3 and 30 hours; - treating said balanced pre-emulsion by means of sterilization and by means of a second homogenization process at a pressure between 400 and 1500 bars; - packaging the infant milk food obtained in this manner in an aseptic environment.
Internal combustion engine having - at least one piston-cylinder unit , - a turbocharger having an exhaust gas turbine , - a catalytic converter , which is connected between the at least one piston-cylinder unit and the exhaust gas turbine , and - a regulating device , wherein the regulating device is formed to regulate a fluid conveying device such that, when the internal combustion engine is in a state in which no combustion and/or ignition takes place in the at least one piston-cylinder unit , the fluid conveying device conveys fuel-air mixture through the catalytic converter , characterized in that - a temperature sensor is arranged before, after or in the catalytic converter , wherein the regulating device is formed to use the measured values of the temperature sensor as feedback variables, and - a bypass line for bypassing the at least one piston-cylinder unit is provided, which bypass line is connected in terms of flow to a feed line for air or fuel-air mixture to the at least one piston-cylinder unit and a connecting line between the at least one piston-cylinder unit and the catalytic converter . - at least one piston-cylinder unit , - a turbocharger having an exhaust gas turbine , - a catalytic converter , which is connected between the at least one piston-cylinder unit and the exhaust gas turbine , and - a regulating device , wherein the regulating device is formed to regulate a fluid conveying device such that, when the internal combustion engine is in a state in which no combustion and/or ignition takes place in the at least one piston-cylinder unit , the fluid conveying device conveys fuel-air mixture through the catalytic converter , characterized in that - a temperature sensor is arranged before, after or in the catalytic converter , wherein the regulating device is formed to use the measured values of the temperature sensor as feedback variables, and - a bypass line for bypassing the at least one piston-cylinder unit is provided, which bypass line is connected in terms of flow to a feed line for air or fuel-air mixture to the at least one piston-cylinder unit and a connecting line between the at least one piston-cylinder unit and the catalytic converter .
A merchandise security system, comprising a data management unit for managing a state of a protected merchandise, an alarm unit comprising a sensor module to monitor the state of the merchandise and an alarm disabling unit for disabling an alarm enabled state of the alarm unit, wherein the alarm unit further comprises a data communications module configured to use near field communications "NFC" and a storage module , and the alarm unit, the alarm disabling unit and the data management unit communicate with each other using NFC, the alarm unit is configured to detect, in the alarm enabled state, whether the protected merchandise is in a normal state, and send out an alarm signal to the data management unit when detecting that the protected merchandise is not in a normal state; characterized in that the data management unit is configured to synchronize unlocking data in the alarm disabling unit, and sets unlocking judgment data in the storage module of the alarm unit; and the alarm unit is configured to judge, according to the unlocking judgment data stored in the storage module, whether the unlocking data is legitimate, and disable the alarm enabled state when judging that the unlocking data is legitimate, wherein the alarm unit is configured to have a plurality of unlocking judgment data stored in the storage module, the alarm disabling unit only has one unlocking data embedded therein, each of the unlocking judgment data corresponds to unique legitimate unlocking data embedded in the alarm disabling unit, and the alarm enabled state of the alarm unit can only be disabled by an alarm disabling unit having the unique legitimate unlocking data embedded therein. the alarm unit further comprises a data communications module configured to use near field communications "NFC" and a storage module , and the alarm unit, the alarm disabling unit and the data management unit communicate with each other using NFC, the alarm unit is configured to detect, in the alarm enabled state, whether the protected merchandise is in a normal state, and send out an alarm signal to the data management unit when detecting that the protected merchandise is not in a normal state; characterized in that the data management unit is configured to synchronize unlocking data in the alarm disabling unit, and sets unlocking judgment data in the storage module of the alarm unit; and the alarm unit is configured to judge, according to the unlocking judgment data stored in the storage module, whether the unlocking data is legitimate, and disable the alarm enabled state when judging that the unlocking data is legitimate, wherein the alarm unit is configured to have a plurality of unlocking judgment data stored in the storage module, the alarm disabling unit only has one unlocking data embedded therein, each of the unlocking judgment data corresponds to unique legitimate unlocking data embedded in the alarm disabling unit, and the alarm enabled state of the alarm unit can only be disabled by an alarm disabling unit having the unique legitimate unlocking data embedded therein.
A welding-type power supply , comprising: a switched mode power supply , comprising: a transformer configured to transform a bus voltage to a welding-type voltage; a capacitor in series with a primary winding of the transformer , the capacitor having a capacitor voltage; and switches (206-212) configured to control a voltage applied to a series combination of the primary winding of the transformer and the capacitor ; a flux accumulator configured to determine a net flux in the transformer based on a number of volt- seconds applied to the primary winding of the transformer ; and a controller configured to: control duty cycles of the switches (206-212) to balance the net flux when the capacitor voltage is within a voltage range based on the bus voltage; detect a transient condition in which the bus voltage exceeds a threshold voltage; and control the duty cycles of the switches (206-212) in response to the transient condition to adjust the capacitor voltage based on the bus voltage. a switched mode power supply , comprising: a transformer configured to transform a bus voltage to a welding-type voltage; a capacitor in series with a primary winding of the transformer , the capacitor having a capacitor voltage; and switches (206-212) configured to control a voltage applied to a series combination of the primary winding of the transformer and the capacitor ; a transformer configured to transform a bus voltage to a welding-type voltage; a capacitor in series with a primary winding of the transformer , the capacitor having a capacitor voltage; and switches (206-212) configured to control a voltage applied to a series combination of the primary winding of the transformer and the capacitor ; a flux accumulator configured to determine a net flux in the transformer based on a number of volt- seconds applied to the primary winding of the transformer ; and a controller configured to: control duty cycles of the switches (206-212) to balance the net flux when the capacitor voltage is within a voltage range based on the bus voltage; detect a transient condition in which the bus voltage exceeds a threshold voltage; and control the duty cycles of the switches (206-212) in response to the transient condition to adjust the capacitor voltage based on the bus voltage. control duty cycles of the switches (206-212) to balance the net flux when the capacitor voltage is within a voltage range based on the bus voltage; detect a transient condition in which the bus voltage exceeds a threshold voltage; and control the duty cycles of the switches (206-212) in response to the transient condition to adjust the capacitor voltage based on the bus voltage.
A satellite comprising: a body ; at least one generally planar structure extending from the body ; one or more radio frequency "RF" antennas , an amplification system for RF signals, and a power distribution system for supplying power to the amplification system mounted on the generally planar structure ; wherein: the one or more RF antennas and the amplification system , and optionally the power distribution system , are arranged on respective parallel boards forming part of the generally planar structure ; and the one or more antennas are connected via RF connectors (331-335) to one or more amplifiers of the amplification system ; characterised in that the boards are positioned in a spaced apart arrangement with support elements maintaining the spacing between the boards ; and the support elements contact at least the board supporting the amplification system to act as a heat sink for the amplification system. a body ; at least one generally planar structure extending from the body ; one or more radio frequency "RF" antennas , an amplification system for RF signals, and a power distribution system for supplying power to the amplification system mounted on the generally planar structure ; wherein: the one or more RF antennas and the amplification system , and optionally the power distribution system , are arranged on respective parallel boards forming part of the generally planar structure ; and the one or more antennas are connected via RF connectors (331-335) to one or more amplifiers of the amplification system ; characterised in that the boards are positioned in a spaced apart arrangement with support elements maintaining the spacing between the boards ; and the support elements contact at least the board supporting the amplification system to act as a heat sink for the amplification system. the one or more RF antennas and the amplification system , and optionally the power distribution system , are arranged on respective parallel boards forming part of the generally planar structure ; and the one or more antennas are connected via RF connectors (331-335) to one or more amplifiers of the amplification system ; characterised in that the boards are positioned in a spaced apart arrangement with support elements maintaining the spacing between the boards ; and the support elements contact at least the board supporting the amplification system to act as a heat sink for the amplification system.
A system comprising: an actuator having a first surface and a second surface, the first surface being offset by a step distance from the second surface; and a sensor configured to measure a target distance between the sensor and both the first surface and the second surface via an ultrasonic signal emitted by the sensor and received by the sensor after having reflected off the first surface or the second surface , wherein the step distance is greater than a minimum distance, the minimum distance being defined in view of a medium through which said actuator moves and a frequency of the ultrasonic signal to avoid interference between the emitted ultrasonic signal and the reflected ultrasonic signal; wherein the first surface is positionable nearer to the sensor than the minimum distance when the actuator reaches an end of travel position; and wherein said sensor is configured to initially direct a signal such that it reflects off only said first surface for a period of time, and to send a signal such that it reflects off said second surface when said first surface approaches the minimum distance from said sensor . an actuator having a first surface and a second surface, the first surface being offset by a step distance from the second surface; and a sensor configured to measure a target distance between the sensor and both the first surface and the second surface via an ultrasonic signal emitted by the sensor and received by the sensor after having reflected off the first surface or the second surface , wherein the step distance is greater than a minimum distance, the minimum distance being defined in view of a medium through which said actuator moves and a frequency of the ultrasonic signal to avoid interference between the emitted ultrasonic signal and the reflected ultrasonic signal; wherein the first surface is positionable nearer to the sensor than the minimum distance when the actuator reaches an end of travel position; and wherein said sensor is configured to initially direct a signal such that it reflects off only said first surface for a period of time, and to send a signal such that it reflects off said second surface when said first surface approaches the minimum distance from said sensor .
A structural coating that inhibits wetting and freezing of water, said structural coating comprising one or more layers, wherein each layer includes: (a) a substantially continuous matrix comprising a hardened material; (b) a plurality of discrete templates dispersed within said matrix, wherein said discrete templates promote surface roughness at a surface of said layer, and wherein said surface roughness inhibits wetting of water; (c) porous voids surrounding at least a portion of said discrete templates, wherein said porous voids have an average effective diameter from 50 nanometers to 10 microns; and (d) a plurality of nanoparticles with an average effective diameter of 50 nanometers or less within said matrix, wherein said nanoparticles are disposed on pore surfaces of said porous voids, and wherein said nanoparticles inhibit heterogeneous nucleation of water, wherein said structural coating has a thickness from 5 microns to 500 microns. (a) a substantially continuous matrix comprising a hardened material; (b) a plurality of discrete templates dispersed within said matrix, wherein said discrete templates promote surface roughness at a surface of said layer, and wherein said surface roughness inhibits wetting of water; (c) porous voids surrounding at least a portion of said discrete templates, wherein said porous voids have an average effective diameter from 50 nanometers to 10 microns; and (d) a plurality of nanoparticles with an average effective diameter of 50 nanometers or less within said matrix, wherein said nanoparticles are disposed on pore surfaces of said porous voids, and wherein said nanoparticles inhibit heterogeneous nucleation of water, wherein said structural coating has a thickness from 5 microns to 500 microns.
A method for identifying human patients at risk for potential adverse effects as a result of treatment by the administration of blinatumomab comprising: (a) determining the total B cells in a peripheral blood sample from said patient; and (b) identifying human patients at risk for potential adverse effects based on the results of the determining step, wherein the potential adverse effect is one or more selected from the group consisting of: confusion, ataxia, disorientation, dysphasia, aphasia, speech impairment, cerebellar symptoms, tremor, apraxia, seizure, grand mal convulsion, palsy, and balance disorder, wherein a total B cell count of less than 50 B cells per microliter of peripheral blood of said patient is indicative for a high risk of potential adverse effects for said patient, whereas a total B cell count of greater than 50 B cells per microliter of peripheral blood of said patient is indicative for a low risk of potential adverse effects for said patient, wherein the method is conducted prior to the treatment by the administration of blinatumomab. (a) determining the total B cells in a peripheral blood sample from said patient; and (b) identifying human patients at risk for potential adverse effects based on the results of the determining step,
A binder system containing components (A) and (B), characterized in that (i) component (A) comprises at least one compound carrying at least two cyclic carbonate groups and at least one compound carrying at least two epoxide groups; and (ii) component (B) comprises at least one compound carrying at least two (-NHR-) atomic groups, where R is H, an alkyl or aryl functional group. (i) component (A) comprises at least one compound carrying at least two cyclic carbonate groups and at least one compound carrying at least two epoxide groups; and (ii) component (B) comprises at least one compound carrying at least two (-NHR-) atomic groups, where R is H, an alkyl or aryl functional group.