mhurhangee/ep-ind-claims huggingface dataset:
Electronic device comprising at least one memory and at least one processor adapted for selecting at least one first audiovisual content, during a backup operation, amongst a plurality of audiovisual contents accessible from said electronic device, said electronic device being characterized in that said at least one processor is adapted for: - obtaining audiovisual descriptors of said audiovisual contents, said audio visual descriptors being computed by applying a spatio-temporal and/or time-frequency mathematical transform to audiovisual data extracted from said audiovisual contents; - selecting said first audiovisual content content according to at least one backup rule taking into account at least one of said obtained audiovisual descriptors of said audiovisual contents. - obtaining audiovisual descriptors of said audiovisual contents, said audio visual descriptors being computed by applying a spatio-temporal and/or time-frequency mathematical transform to audiovisual data extracted from said audiovisual contents; - selecting said first audiovisual content content according to at least one backup rule taking into account at least one of said obtained audiovisual descriptors of said audiovisual contents.
A cell processing system comprising: a processor (100, 200) connectable to a source container filled with a biological fluid, the processor (100, 200) comprising: a separator configured to separate the biological fluid from the source container into at least two streams (46, 48); and at least one syringe assembly (602, 702) configured to receive one of the at least two streams (46, 48), the at least one syringe assembly (602, 702) comprising a syringe (604, 704) having a barrel and a plunger that defines a volume that is in fluid communication with the one of the at least two streams (46, 48) characterized in that the at least one syringe assembly (602, 702) includes an auxiliary container (606, 706) in fluid communication with the volume to receive a gas displaced from the volume. a processor (100, 200) connectable to a source container filled with a biological fluid, the processor (100, 200) comprising: a separator configured to separate the biological fluid from the source container into at least two streams (46, 48); and at least one syringe assembly (602, 702) configured to receive one of the at least two streams (46, 48), the at least one syringe assembly (602, 702) comprising a syringe (604, 704) having a barrel and a plunger that defines a volume that is in fluid communication with the one of the at least two streams (46, 48) characterized in that the at least one syringe assembly (602, 702) includes an auxiliary container (606, 706) in fluid communication with the volume to receive a gas displaced from the volume.
A boosting circuit, comprising a boosting chip, an energy-storage inductor, a freewheeling diode and a first capacitor, in which one terminal of the energy-storage inductor is connected with a signal input terminal (Vin) of the boosting circuit, the other terminal thereof is connected with a pin (Vsw) of large current switch of the boosting chip and is further connected with a signal output terminal (Vout) of the boosting circuit through the freewheeling diode; one terminal of the first capacitor is connected with a cathode of the freewheeling diode, and the other terminal is grounded, characterized in that: the boosting circuit further comprises a current mirror unit, an input terminal of an inputting branch of the current mirror unit is connected with the cathode of the freewheeling diode directly, and an output terminal of the inputting branch is connected with the signal input terminal of the boosting circuit through a first resistor directly; an input terminal of an outputting branch of the current mirror unit is connected with the cathode of the freewheeling diode directly, and an output terminal of the outputting branch is grounded through a second resistor, where an ungrounded terminal of the second resistor is connected with a signal feedback pin of the boosting chip. the boosting circuit further comprises a current mirror unit, an input terminal of an inputting branch of the current mirror unit is connected with the cathode of the freewheeling diode directly, and an output terminal of the inputting branch is connected with the signal input terminal of the boosting circuit through a first resistor directly; an input terminal of an outputting branch of the current mirror unit is connected with the cathode of the freewheeling diode directly, and an output terminal of the outputting branch is grounded through a second resistor, where an ungrounded terminal of the second resistor is connected with a signal feedback pin of the boosting chip.
A method of performing processing in an image capturing device, comprising: receiving an image at the image capturing device, wherein each pixel of the image includes a value of an infrared component and a value of a visible component; obtaining, by a first processor, a contamination matrix that defines relationships between ideal non-contaminated values and the value of the infrared component and the value of the visible component of each pixel; generating, by the first processor, decontaminated values of the infrared component and decontaminated values of the visible component for each pixel by performing a decontamination process based on the contamination matrix; performing, by a first processor, an adjustment process on the decontaminated values of the visible component, wherein the adjustment process includes adding a portion of non-decontaminated values to values of the visible component of a corresponding portion from the image when the one or more decontaminated values of the visible component are less than a threshold; performing, by the first processor, an interpolation on the decontaminated values of the visible component to generate interpolated values of the visible component; and providing, by the first processor, the decontaminated values of the infrared component and the decontaminated interpolated values of the visible component to an image signal processor for further processing. receiving an image at the image capturing device, wherein each pixel of the image includes a value of an infrared component and a value of a visible component; obtaining, by a first processor, a contamination matrix that defines relationships between ideal non-contaminated values and the value of the infrared component and the value of the visible component of each pixel; generating, by the first processor, decontaminated values of the infrared component and decontaminated values of the visible component for each pixel by performing a decontamination process based on the contamination matrix; performing, by a first processor, an adjustment process on the decontaminated values of the visible component, wherein the adjustment process includes adding a portion of non-decontaminated values to values of the visible component of a corresponding portion from the image when the one or more decontaminated values of the visible component are less than a threshold; performing, by the first processor, an interpolation on the decontaminated values of the visible component to generate interpolated values of the visible component; and providing, by the first processor, the decontaminated values of the infrared component and the decontaminated interpolated values of the visible component to an image signal processor for further processing.
A portable information terminal comprising: program execution means (31, S108) for executing a plurality of application programs; reception means (31, S108, S126) for receiving, from each of the application programs, process contents of transmission or reception of data which is performed with another information apparatus using a network; task setting means (31, S131) for registering, as a task, the process contents of transmission or reception of data, which are received from each of the application programs by the reception means; connection means (31, 34, S35, S36, S173, S174) for searching for a dedicated access point transmitting vendor specific information in a beacon and performing a connection to the searched access point; task execution parameter obtaining means (31, S191, S205) for, before the one or more tasks are executed, obtaining, from the beacon, an execution control parameter, for at least one of the one or more tasks, which indicates at least one of an execution instruction, whether or not to execute the task, and an execution priority, in accordance with an access point identifier which indicates the access point, the execution control parameter being obtained each time when a connection to the access point is established by the connection means; and task execution means (31, S192) for performing transmission or reception of data using the access point by automatically executing at least one of the one or more tasks on the basis of the obtained execution control parameter. program execution means (31, S108) for executing a plurality of application programs; reception means (31, S108, S126) for receiving, from each of the application programs, process contents of transmission or reception of data which is performed with another information apparatus using a network; task setting means (31, S131) for registering, as a task, the process contents of transmission or reception of data, which are received from each of the application programs by the reception means; connection means (31, 34, S35, S36, S173, S174) for searching for a dedicated access point transmitting vendor specific information in a beacon and performing a connection to the searched access point; task execution parameter obtaining means (31, S191, S205) for, before the one or more tasks are executed, obtaining, from the beacon, an execution control parameter, for at least one of the one or more tasks, which indicates at least one of an execution instruction, whether or not to execute the task, and an execution priority, in accordance with an access point identifier which indicates the access point, the execution control parameter being obtained each time when a connection to the access point is established by the connection means; and task execution means (31, S192) for performing transmission or reception of data using the access point by automatically executing at least one of the one or more tasks on the basis of the obtained execution control parameter.
Kit for dispensing a fluid product, comprising a pouch provided with a flexible casing in which said product is packaged in a sealed manner, said kit comprising a dispensing case which is provided with a cover which is intended to be mounted onto a base in order to delimit a space therebetween in which the pouch is intended to be housed, said cover comprising an upper recess on which a wall, which can be manually elastically deformed, is mounted, said wall having an orifice for dispensing the product and said cover being equipped with a lower frame which, together with the wall, delimits a pumping chamber which is in communication with the dispensing orifice, said frame having an orifice for supplying product to the pumping chamber, the dispensing orifice and supply orifice being equipped with an output valve and an input valve, respectively, which are arranged in order to allow, by deformation of the pumping chamber, the product to be dispensed through the dispensing orifice and, by resilient return, the pumping chamber to be supplied through the supply orifice, the pouch including a connection which is equipped with a well in communication with the packaged product, said well being covered in a sealed manner by the casing of the pouch and said frame comprising a nipple which is intended to be inserted into the well in order to place the supply orifice in sealed communication with the packaged product, said nipple being arranged in order to allow the casing to be perforated when the nipple is inserted into the well.
An amphiphilic macromolecule, having, as repeating units, a structural unit A for adjusting molecular weight, molecular weight distribution and charge characteristics, a highly sterically hindered structural unit B and an amphiphilic structural unit C, wherein the amphiphilic structural unit C has a structure of formula: in formula, R 9 is H or a methyl group; R 10 is -N + (CH 3) 2 (CH 2) ξ CH 3 X -, -N + ((CH 2) σ CH 3) 3 X - or -N + (CH 3)((CH 2) τ CH 3) 2 X -; ξ is an integer from 3 to 21; σ is an integer from 2 to 9; τ is an integer from 3 to 15; and X - is Cl - or Br -, characterized in that the highly sterically hindered structural unit B contains a structure G, the structure G is a cyclic hydrocarbon structure formed on the basis of two adjacent carbon atoms in the main chain, or is selected from a structure of formula, and the highly sterically hindered structural unit B optionally contains a structure of formula: wherein in formula, R 5 is H or a methyl group; R 6 is a radical selected from the structures of formula and formula, in formula, a is an integer from 1 to 11, in formula, R 7 is H or a methyl group; R 8 is selected from the group consisting of -NHPhOH, -OCH 2 Ph, -OPhOH, -OPhCOOH and salts thereof, -NHC(CH 3) 2 CH 2 SO 3 H and salts thereof, -OC(CH 3) 2 (CH 2) b CH 3, -NHC(CH 3) 2 (CH 2) c CH 3, -OC(CH 3) 2 CH 2 C(CH 3) 2 (CH 2) d CH 3, -NHC(CH 3) 2 CH 2 C(CH 3) 2 (CH 2) e CH3, -O(CH 2) f N + (CH 3) 2 CH 2 PhX, wherein b and c are integers from 0 to 21 respectively; d and e are integers from 0 to 17 respectively; f is an integer from 2 to 8; and X - is Cl- or Br.
A circuit module comprising: a module board (300; 400; 500); a plurality of circuit chips (302; 402) arranged on the module board; and a main bus (308; 408) having a plurality of lines, branching into a plurality of sub-buses (310; 410) having a plurality of lines, each of the sub-busses being connected to one of the plurality of circuit chips; wherein each circuit chip comprises an indication signal generating unit (314; 414) for providing an indication signal (346; 446) based on a combination of the signals received on the plurality of lines of the sub-bus connected to the respective circuit chip and an indication signal output (350; 450) for outputting the indication signal, the circuit module further comprising means for providing a check signal to each of the circuit chips, and wherein said indication signal generating unit (314; 414)) generates said indication signal (346; 446) based on a combination of the signals on the plurality of lines of the respective sub-bus and the check signal, the indication signals (346; 446) being generated in the indication signal generating unit (314; 414) by calculating check-sums of the signals on the plurality of lines of the sub-busses and by combining the calculated check-sums and the check signal, so that the indication signal represents an error signal, the circuit module being a memory module, the circuit chips being memory chips, the main bus being a memory main bus, the sub-busses being memory sub-busses, the memory chips being DRAMs, the memory main bus being a command/address bus, and the check signal being a parity signal. a module board (300; 400; 500); a plurality of circuit chips (302; 402) arranged on the module board; and a main bus (308; 408) having a plurality of lines, branching into a plurality of sub-buses (310; 410) having a plurality of lines, each of the sub-busses being connected to one of the plurality of circuit chips; wherein each circuit chip comprises an indication signal generating unit (314; 414) for providing an indication signal (346; 446) based on a combination of the signals received on the plurality of lines of the sub-bus connected to the respective circuit chip and an indication signal output (350; 450) for outputting the indication signal, the circuit module further comprising means for providing a check signal to each of the circuit chips, and wherein said indication signal generating unit (314; 414)) generates said indication signal (346; 446) based on a combination of the signals on the plurality of lines of the respective sub-bus and the check signal, the indication signals (346; 446) being generated in the indication signal generating unit (314; 414) by calculating check-sums of the signals on the plurality of lines of the sub-busses and by combining the calculated check-sums and the check signal, so that the indication signal represents an error signal, the circuit module being a memory module, the circuit chips being memory chips, the main bus being a memory main bus, the sub-busses being memory sub-busses, the memory chips being DRAMs, the memory main bus being a command/address bus, and the check signal being a parity signal.
A radiation therapy planning procedure comprising: inputting acquired medical images of a subject; segmenting the medical images into internal body structures, such that the internal body structures are represented with triangular surface meshes, characterized by: identifying landmarks located within one or more of the internal body structures; establishing a deformation field for the medical images based on landmarks given by the vertices of the triangular surface meshes on the surfaces of the one or more internal body structures and the identified landmarks; registering the medical images based on the established deformation field; and forming a radiation therapy plan for delivering radiation therapy to the subject based on the registered medical images, wherein forming a radiation therapy plan further comprises calculating a dose distribution based on the registered medical images. inputting acquired medical images of a subject; segmenting the medical images into internal body structures, such that the internal body structures are represented with triangular surface meshes, identifying landmarks located within one or more of the internal body structures; establishing a deformation field for the medical images based on landmarks given by the vertices of the triangular surface meshes on the surfaces of the one or more internal body structures and the identified landmarks; registering the medical images based on the established deformation field; and forming a radiation therapy plan for delivering radiation therapy to the subject based on the registered medical images, wherein forming a radiation therapy plan further comprises calculating a dose distribution based on the registered medical images.
An injection molding machine comprising: a touch panel which includes an operation unit, on which a touch operation of an object is executed, in a screen; and a controller configured to execute an operation of an injection molding machine based on the touch operation on the operation unit, characterized in that the controller includes an identification unit configured to identify a first touch operation and a second touch operation different from each other for one operation unit, and an execution unit configured to execute a first operation of the injection molding machine when the identification unit identifies the first touch operation and execute a second operation different from the first operation when the identification unit identifies the second touch operation, the touch operation of the object includes an operation of sliding the object, a sliding direction of the object is different between the first touch operation and the second touch operation, the screen of the touch panel includes a posting unit configured to post a content of an operation executed by a sliding operation of the object in each direction in which the object slides, next to the operation unit, and the posting unit is displayed on the screen when the object touches the operation unit, and the posting unit is not displayed on the screen when the object does not touch the operation unit. a touch panel which includes an operation unit, on which a touch operation of an object is executed, in a screen; and a controller configured to execute an operation of an injection molding machine based on the touch operation on the operation unit, characterized in that the controller includes an identification unit configured to identify a first touch operation and a second touch operation different from each other for one operation unit, and an execution unit configured to execute a first operation of the injection molding machine when the identification unit identifies the first touch operation and execute a second operation different from the first operation when the identification unit identifies the second touch operation, an identification unit configured to identify a first touch operation and a second touch operation different from each other for one operation unit, and an execution unit configured to execute a first operation of the injection molding machine when the identification unit identifies the first touch operation and execute a second operation different from the first operation when the identification unit identifies the second touch operation, the touch operation of the object includes an operation of sliding the object, a sliding direction of the object is different between the first touch operation and the second touch operation, the screen of the touch panel includes a posting unit configured to post a content of an operation executed by a sliding operation of the object in each direction in which the object slides, next to the operation unit, and the posting unit is displayed on the screen when the object touches the operation unit, and the posting unit is not displayed on the screen when the object does not touch the operation unit.
A Policy and Charging Rules Function server, PCRF, of a Policy and Charging Control, PCC, architecture for deciding control rules applicable to user traffic flows to be inspected, in accordance with applicable telecommunication protocols for each traffic flow, by a Policy and Charging Enforcement Function server with Deep Packet Inspection capabilities, PCEF-DPI, of the PCC architecture, the PCRF comprising: an interface unit configured to receive a query from the PCEF-DPI about applicable control rules for an IP Connectivity Access Network, IP-CAN, session established for a user at the PCEF-DPI; and characterized by further comprising: a database having a list of protocols that were used in the user traffic flows during previous IP-CAN sessions for the user at the PCEF-DPI; and a processing unit configured to send the applicable control rules for the-IP-CAN session and the list of protocols through the interface unit to the PCEF-DPI. an interface unit configured to receive a query from the PCEF-DPI about applicable control rules for an IP Connectivity Access Network, IP-CAN, session established for a user at the PCEF-DPI; a database having a list of protocols that were used in the user traffic flows during previous IP-CAN sessions for the user at the PCEF-DPI; and a processing unit configured to send the applicable control rules for the-IP-CAN session and the list of protocols through the interface unit to the PCEF-DPI.