mhurhangee/patent-ind-claim-en huggingface dataset:
A radio base station including a remote device and a central aggregation device and configured to perform radio communication with a user device, wherein the remote device includes a quality information acquiring unit configured to acquire via a predetermined uplink channel downlink quality information indicating radio communication quality in downlink for each of multiple cells, acquired by the user device; and a quality information transmitting unit configured to transmit to the central aggregation device information about quality data containing one or more pieces of the downlink quality information acquired by the quality information acquiring unit and a user-device identifier for identifying the user device and the downlink quality information, and the central aggregation device includes an information receiving unit configured to receive the information about quality data; and a radio resource assigning unit configured to perform assignment of a radio resource to the user device based on the information about quality data received by the information receiving unit. the remote device includes a quality information acquiring unit configured to acquire via a predetermined uplink channel downlink quality information indicating radio communication quality in downlink for each of multiple cells, acquired by the user device; and a quality information transmitting unit configured to transmit to the central aggregation device information about quality data containing one or more pieces of the downlink quality information acquired by the quality information acquiring unit and a user-device identifier for identifying the user device and the downlink quality information, and the central aggregation device includes an information receiving unit configured to receive the information about quality data; and a radio resource assigning unit configured to perform assignment of a radio resource to the user device based on the information about quality data received by the information receiving unit.
A tool clamping system having a mechanically drivable tool holder for clamping a tool , comprising a device for generating electrical energy from the inertial energy of the tool clamping system , characterized in that the tool holder can be driven in an oscillating manner, in that the device is configured for the generation of electrical energy from the inertial energy of the oscillating tool clamping system and has an inertial mass mounted at least axially movably on a shaft of the tool holder for generating electrical energy.
A method to dynamically revise and reconfigure autonomous vehicle routes comprising: in response to detecting that an electronic device associated with a user , the user being a picker of a product diverges from a path of an autonomous vehicle , providing, by a processor, for display on the electronic device, information about the product; determining , by the processor, a rendezvous location for the autonomous vehicle to meet the picker of the product based on a current location of the electronic device relative to a location (113 a, 113m) of the product; instructing , by the processor, the autonomous vehicle to navigate to the rendezvous location; and transmitting , by the processor, the rendezvous location to the electronic device . in response to detecting that an electronic device associated with a user , the user being a picker of a product diverges from a path of an autonomous vehicle , providing, by a processor, for display on the electronic device, information about the product; determining , by the processor, a rendezvous location for the autonomous vehicle to meet the picker of the product based on a current location of the electronic device relative to a location (113 a, 113m) of the product; instructing , by the processor, the autonomous vehicle to navigate to the rendezvous location; and transmitting , by the processor, the rendezvous location to the electronic device .
A method for producing boron trichloride by a reaction between boron carbide and chlorine gas, the method comprising: bringing a chlorine-containing gas, which contains chlorine gas and has a water content of 1 ppm by volume or less, into contact with boron carbide at a temperature of 300°C or higher and 400°C or lower, and allowing water contained in the boron carbide to react with the chlorine gas in the chlorine-containing gas to remove the water contained in the boron carbide; and allowing the boron carbide dehydrated in the bringing of the chlorine-containing gas to react with the chlorine gas to generate boron trichloride. bringing a chlorine-containing gas, which contains chlorine gas and has a water content of 1 ppm by volume or less, into contact with boron carbide at a temperature of 300°C or higher and 400°C or lower, and allowing water contained in the boron carbide to react with the chlorine gas in the chlorine-containing gas to remove the water contained in the boron carbide; and allowing the boron carbide dehydrated in the bringing of the chlorine-containing gas to react with the chlorine gas to generate boron trichloride.
A handling tool for gripping an object without contact, the tool comprising an ultrasound transducer extending between a reflective face and a gripping face configured for emitting ultrasound forming, in a near-field region of the gripping face, an overpressure wave, and a fluid suction system configured to suck a fluid toward the gripping face, forming in said near-field region a reduced pressure, the fluid suction system comprising at least one fluid suction channel arranged in the ultrasound transducer, the suction channel comprising one or more suction nozzles opening out onto the gripping face, the transducer having a height ( h ) defined between the gripping face and the reflective face lying in a range of 80% to 140% of a half wavelength λ/2 of the ultrasound generated in the transducer.
A radiation dosimetry gel characterized by comprising a water-soluble organic polymer (A) having an organic acid salt structure or an organic acid anion structure, a silicate (B), and a dispersant (C) for the silicate.
A method of performing chromatography with a gamma-irradiated anionic exchange chromatography resin, comprising: (a) providing a chromatography column containing a gamma-irradiated anionic exchange chromatography resin; (b) performing a first cycle of chromatography through the column, wherein the first cycle of chromatography comprises recovering binding capacity of the gamma-irradiated anionic exchange chromatography resin by exposing the gamma-irradiated anionic exchange chromatography resin to a denaturing buffer; and (c) performing at least one additional cycle of chromatography through the column, wherein performing each of the at least one additional cycle of chromatography comprises recovering binding capacity of the gamma-irradiated chromatography resin by exposing the gamma-irradiated anionic exchange chromatography resin to the denaturing buffer, wherein the denaturing buffer comprises one or more of urea, guanidine hydrochloride, and TritonTM X-100. (a) providing a chromatography column containing a gamma-irradiated anionic exchange chromatography resin; (b) performing a first cycle of chromatography through the column, wherein the first cycle of chromatography comprises recovering binding capacity of the gamma-irradiated anionic exchange chromatography resin by exposing the gamma-irradiated anionic exchange chromatography resin to a denaturing buffer; and (c) performing at least one additional cycle of chromatography through the column,
Motor vehicle latch, in particular motor vehicle door latch, comprising a locking mechanism having a catch , a comfort pawl , and a pawl , the pawl , at least when the locking mechanism in the closed position, locking the comfort pawl when the comfort pawl is engaged in the catch , the pawl additionally acting on the comfort pawl in the opening direction during at least one opening process of the locking mechanism, the comfort pawl having a ratchet contour and an opening contour , the pawl interacting with the ratchet contour when the locking mechanism is in the closed position and interacting with the opening contour to open the locking mechanism, and the opening contour being fork-shaped and having an operating arm and a stop arm which is spaced radially therefrom so as to define a gap , characterized in that the pawl acts on the operating arm with a high degree of leverage, specifically at the radially outer end of said arm, in order to open the comfort pawl , the pawl entering in the gap and acting on the operating arm with a low degree of leverage, specifically at the radially inner end of said arm, when the locking mechanism is in the open state.
A method of detecting a presence or a position of a first component in an article, the method comprising: irradiating the article with incident light, wherein the first component has a predefined response to the incident light; detecting light received from the irradiated article; and identifying the predefined response of the first component in the light received from the irradiated article to detect the presence or the position of the first component, wherein the first component comprises a microporous film comprising a semi-crystalline polyolefin and a beta-nucleating agent, wherein the incident light and the light received from the irradiated article comprises infrared light, and wherein the first component is free of an infrared radiation blocking agent selected from the group consisting of titanium dioxide, barium sulfate, magnesium oxide, calcium carbonate, polytetrafluoroethylene microbeads, and polyolefin microbeads. irradiating the article with incident light, wherein the first component has a predefined response to the incident light; detecting light received from the irradiated article; and identifying the predefined response of the first component in the light received from the irradiated article to detect the presence or the position of the first component, wherein the first component comprises a microporous film comprising a semi-crystalline polyolefin and a beta-nucleating agent, wherein the incident light and the light received from the irradiated article comprises infrared light, and wherein the first component is free of an infrared radiation blocking agent selected from the group consisting of titanium dioxide, barium sulfate, magnesium oxide, calcium carbonate, polytetrafluoroethylene microbeads, and polyolefin microbeads.
Actuating drive having at least one stop device , said at least one stop device comprising at least one end-stop element for a part of a drive train and comprising at least one adjustment element which is connected operatively to the end-stop element and is configured for setting a position of the end-stop element , - wherein at least one gear mechanism is arranged between the at least one end-stop element and the at least one adjustment element , characterized - in that the actuating drive has a first adjustment element and a second adjustment element , - wherein a first gear mechanism is arranged between the first adjustment element and the end-stop element and a second gear mechanism is arranged between the first adjustment element and the second adjustment element . - wherein at least one gear mechanism is arranged between the at least one end-stop element and the at least one adjustment element , - in that the actuating drive has a first adjustment element and a second adjustment element , - wherein a first gear mechanism is arranged between the first adjustment element and the end-stop element and a second gear mechanism is arranged between the first adjustment element and the second adjustment element .
A concentrator for a nonblocking interconnection network comprising a plurality of n global inputs and a plurality of n global outputs for processing m active inputs to m outputs, wherein m ≤ n, and wherein each input x[i] includes data bits data(x[i]) and a single valid bit valid(x[i]), wherein the concentrator comprises log 2 (n) columns with n/2 rows of 2×2 crossbar switches, wherein the crossbar switches of each of the log 2 (n) columns are connected with corresponding crossbar switches of the next column starting from the n global inputs to the n global outputs, wherein a configuration module for configuring the crossbar switches is comprised, wherein the configuration module comprises the first column of n/2 rows of the 2×2 crossbar switches of the concentrator, each input of said crossbar switches is connected to one of the n global inputs and the outputs of said crossbar switches are interleavingly connected by a flip shuffle permutation to the inputs of two internal concentrators with n/2 internal inputs and n/2 internal outputs, wherein said n/2 internal outputs are interleavingly connected to the n global outputs by a butterfly permutation, wherein the configuration of the crossbar switches belonging to a given column is based on the parity of the number of valid inputs of the respective column and wherein the parity of the number of valid inputs of all the columns are computed in parallel, and wherein the parity of the number of valid inputs of a column defines whether the number of valid inputs x[0..i] of said column is even or odd at position i, characterized in that the configuration module yields a binary tree of base modules and the base modules comprise three modules arranged in a sequence, wherein the first and the second module of said three modules comprises the control logic for the crossbar switches of the configuration module and the third module of said three modules comprises said crossbar switches , and wherein the first module comprises n elements arranged in a row, each of said elements being connected to a global input, wherein each of these elements is configured and adapted to determine whether an input x[i] is considered to be active and wherein the second module is configured and adapted to compute for all even numbers i parity bits as p[i] := x ⊕ ... ⊕ x[i] for activity bits x[i], where ⊕ denotes the exclusive-or operation.
A method of tracking objects using a radar, comprising: sending a beamcode to at least one radar antenna to set a predetermined direction; generating a tracking signal pulse train using samples from a random distribution of at least one of a phase or an amplitude; transmitting , in the predetermined direction, the tracking signal pulse train from the at least one antenna within a pulse time window; receiving return signals from objects at the at least one antenna; and gathering data to track the objects using the return signals, characterized in that using samples from the random distribution further comprises: generating a first pulse train; counting a number of samples in a receive time window for the radar that are unusable due to transmitting to produce an efficiency of the first pulse train; determining a largest sidelobe in frequency space for the received signals to identify a peak sidelobe; combining the peak sidelobe and the efficiency to produce a metric; and using the metric to select a distribution to be used. sending a beamcode to at least one radar antenna to set a predetermined direction; generating a tracking signal pulse train using samples from a random distribution of at least one of a phase or an amplitude; transmitting , in the predetermined direction, the tracking signal pulse train from the at least one antenna within a pulse time window; receiving return signals from objects at the at least one antenna; and gathering data to track the objects using the return signals, generating a first pulse train; counting a number of samples in a receive time window for the radar that are unusable due to transmitting to produce an efficiency of the first pulse train; determining a largest sidelobe in frequency space for the received signals to identify a peak sidelobe; combining the peak sidelobe and the efficiency to produce a metric; and
A control device configured to control a plurality of motors respectively driving different axes of a machine tool or robot, the control device comprising: a first program executing unit that executes a sequence program for each control cycle; and a second program executing unit that calculates an instruction value for each motor in accordance with a numerical control program ; wherein the sequence program includes a control command for controlling a process of executing the numerical control program in the second program executing unit , wherein the first program executing unit gives an instruction relevant to execution of the numerical control program in the second program executing unit in accordance with the control command included in the sequence program , the control device being further characterized in further comprising; a state managing unit that manages a control state indicating an operation state of each axis group, wherein an axis group includes a plurality of predetermined motors of the plurality of motors, wherein the state managing unit updates the control state based on at least one of the instruction from the first program executing unit and an execution state of the numerical control program in the second program executing unit , and wherein the first program executing unit calculates an operation result based on the sequence program in reflection of a value of the control state managed by the state managing unit and in accordance with a command referring to the control state included in the sequence program . a first program executing unit that executes a sequence program for each control cycle; and a second program executing unit that calculates an instruction value for each motor in accordance with a numerical control program ; wherein the sequence program includes a control command for controlling a process of executing the numerical control program in the second program executing unit , wherein the first program executing unit gives an instruction relevant to execution of the numerical control program in the second program executing unit in accordance with the control command included in the sequence program , the control device being further characterized in further comprising; a state managing unit that manages a control state indicating an operation state of each axis group, wherein an axis group includes a plurality of predetermined motors of the plurality of motors, wherein the state managing unit updates the control state based on at least one of the instruction from the first program executing unit and an execution state of the numerical control program in the second program executing unit , and wherein the first program executing unit calculates an operation result based on the sequence program in reflection of a value of the control state managed by the state managing unit and in accordance with a command referring to the control state included in the sequence program .
A mat assembly for use in construction and the like, comprising: a plurality of structural beams fabricated of composite plastics material and disposed in side-by-side arrangement; a plurality of flitch plates disposed between at least some of adjacent pairs of the structural plastic beams ; a plurality of fasteners extending crosswise to the structural beams and flitch plates to secure them tightly together, and wherein the flitch plates increase the strength and stiffness of the mat assembly ; wherein the beams and the flitch plates have cross holes which are aligned and in which the fasteners are received; characterised in that the cross holes of the flitch plates are elongated in a lengthwise direction of the mat assembly . a plurality of structural beams fabricated of composite plastics material and disposed in side-by-side arrangement; a plurality of flitch plates disposed between at least some of adjacent pairs of the structural plastic beams ; a plurality of fasteners extending crosswise to the structural beams and flitch plates to secure them tightly together, and wherein the flitch plates increase the strength and stiffness of the mat assembly ; wherein the beams and the flitch plates have cross holes which are aligned and in which the fasteners are received; characterised in that the cross holes of the flitch plates are elongated in a lengthwise direction of the mat assembly .
A system comprising: a printing device including hardware to form markings on a print medium; a memory resource ; and a controller to: receive a print job to form the markings on the print medium; render a page description language of the print job to form the markings; characterized in that the controller is further to: determine an object type image of the print job; designate pixels of the determined object type image to form a covert dot pattern on the image; and adjust colors of the designated pixels to form the covert dot pattern on the markings. a printing device including hardware to form markings on a print medium; a memory resource ; and a controller to: receive a print job to form the markings on the print medium; render a page description language of the print job to form the markings; receive a print job to form the markings on the print medium; render a page description language of the print job to form the markings; characterized in that the controller is further to: determine an object type image of the print job; designate pixels of the determined object type image to form a covert dot pattern on the image; and adjust colors of the designated pixels to form the covert dot pattern on the markings. determine an object type image of the print job; designate pixels of the determined object type image to form a covert dot pattern on the image; and adjust colors of the designated pixels to form the covert dot pattern on the markings.
A pharmaceutical composition for use in preventing or treating a graft-versus-host disease, the pharmaceutical composition comprising monoclonal stem cells obtained by steps of 1) culturing bone marrow isolated from a subject in a first vessel; 2) transferring only a supernatant from the first vessel to a new vessel and culturing the supernatant; 3) culturing cells present in the new vessel and obtaining a supernatant; 4) obtaining the monoclonal stem cells by repeating steps 2) and 3) at least once using the supernatant of step 3) as the supernatant of the first vessel of step 2); 5) inoculating the monoclonal stem cells of step 4) in a medium at a cell density of 50 to 1,000 cells/cm 2 to culture the cells at passage 1; and 6) inoculating the subcultured monoclonal stem cells of step 5) in a medium at a cell density of 50 to 1000 cells/cm 2 to culture the cells at passages 2 to 13, wherein the medium of step 5) and 6) is supplemented with an antioxidant. 1) culturing bone marrow isolated from a subject in a first vessel; 2) transferring only a supernatant from the first vessel to a new vessel and culturing the supernatant; 3) culturing cells present in the new vessel and obtaining a supernatant; 4) obtaining the monoclonal stem cells by repeating steps 2) and 3) at least once using the supernatant of step 3) as the supernatant of the first vessel of step 2); 5) inoculating the monoclonal stem cells of step 4) in a medium at a cell density of 50 to 1,000 cells/cm 2 to culture the cells at passage 1; and 6) inoculating the subcultured monoclonal stem cells of step 5) in a medium at a cell density of 50 to 1000 cells/cm 2 to culture the cells at passages 2 to 13, wherein the medium of step 5) and 6) is supplemented with an antioxidant.
A corner bracket for a window blind frame , the corner bracket including a central body portion and extending from the central body portion a first connector and a second connector , wherein the second connector is angled relative to the first connector ; each connector includes a locating arm , a friction plate and a stop surface ; wherein each friction plate defines a pair of opposed surfaces and each surface carries thereon a respective outwardly projecting deformable rib ; wherein each locating arm further includes at least one further outwardly projecting deformable rib ; and wherein each friction plate is spaced from the respective locating arm to define a gap between the friction plate and the locating arm .