mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing antibodies that bind covalently to a polypeptide or bind covalently and proteolytically cleave said polypeptide, the method comprising isolating the antibodies from an ex vivo sample obtained from an organism which was previously immunized using a covalently reactive polypeptide analogue (pCRA) comprising an antigenic determinant of formula: wherein: L1... Lx... Lm, together, are 4-30 amino acid components of said antigenic determinant of said polypeptide, Lx is an amino acid determinant which is not a terminal amino acid, L' is a side-chain functional group of Lx, Y" is atom, covalent bond or flexible linker, and Y is a covalently reactive electrophilic group that reacts with said antibodies, and wherein the covalently reactive electrophilic group is located in an amino acid side-chain of the antigenic determinant. L1... Lx... Lm, together, are 4-30 amino acid components of said antigenic determinant of said polypeptide, Lx is an amino acid determinant which is not a terminal amino acid, L' is a side-chain functional group of Lx, Y" is atom, covalent bond or flexible linker, and Y is a covalently reactive electrophilic group that reacts with said antibodies, and wherein the covalently reactive electrophilic group is located in an amino acid side-chain of the antigenic determinant.
A method for determining imperfections in a transmission channel and a reception channel of an apparatus, said transmission channel comprising a first device for frequency translating an analogue sequence into an analogue signal using a first translation frequency, said reception channel comprising a second device for frequency translating an analogue signal into an analogue sequence, using a second frequency translation different to said first frequency translation, said method comprising the following sequential steps: • a step of generating at least two first different analogue sequences; • a step of frequency translating said first analogue sequences into analogue signals via said transmission channel; • a step of transmitting analogue signals from said transmission channel to said reception channel; • a step of frequency translating said received analogue signals into second analogue sequences via said reception channel; • a step of computing first amplitudes and first phases from a plurality of spectral components of at least two of the first analogue sequences at first frequencies of interest and second amplitudes and second phases from a plurality of spectral components of at least two of the second analogue sequences at first frequencies of interest, said method being characterised in that it comprises at least one of the two following independent steps: • a step of determining said imperfections of said transmission channel only on the basis of the first amplitudes, first phases, second amplitudes and second phases, and • a step of determining said imperfections of said reception channel only on the basis of said second amplitudes and second phases. • a step of generating at least two first different analogue sequences; • a step of frequency translating said first analogue sequences into analogue signals via said transmission channel; • a step of transmitting analogue signals from said transmission channel to said reception channel; • a step of frequency translating said received analogue signals into second analogue sequences via said reception channel; • a step of computing first amplitudes and first phases from a plurality of spectral components of at least two of the first analogue sequences at first frequencies of interest and second amplitudes and second phases from a plurality of spectral components of at least two of the second analogue sequences at first frequencies of interest, • a step of determining said imperfections of said transmission channel only on the basis of the first amplitudes, first phases, second amplitudes and second phases, and • a step of determining said imperfections of said reception channel only on the basis of said second amplitudes and second phases.
A clothes dryer comprising: a main body; a drum rotatably provided in the main body; a heat pump including an evaporator, a compressor, a condenser, and an expansion valve to supply hot and dry air into the drum; a condensate tank configured to receive condensed water generated from the heat pump; and a spray member configured to spray the condensed water of the condensate tank to the evaporator, wherein the spray member comprises an inlet portion through which the condensed water is introduced and a spray portion having a guide surface provided such that the condensed water introduced through the inlet portion is uniformly sprayed to a surface of the evaporator, and wherein at least a portion of the guide surface includes a curved surface having a constant curvature, and the evaporator comprises at least a cooling tube in which the refrigerant flows and a cooling fin installed on the cooling tube, characterized in that the spray member includes a fastening portion fastened to the cooling tube protruding from opposite ends of the evaporator so that the cooling tube is inserted in the fastening portion. a main body; a drum rotatably provided in the main body; a heat pump including an evaporator, a compressor, a condenser, and an expansion valve to supply hot and dry air into the drum; a condensate tank configured to receive condensed water generated from the heat pump; and a spray member configured to spray the condensed water of the condensate tank to the evaporator, wherein the spray member comprises an inlet portion through which the condensed water is introduced and a spray portion having a guide surface provided such that the condensed water introduced through the inlet portion is uniformly sprayed to a surface of the evaporator, and wherein at least a portion of the guide surface includes a curved surface having a constant curvature, and the evaporator comprises at least a cooling tube in which the refrigerant flows and a cooling fin installed on the cooling tube, characterized in that the spray member includes a fastening portion fastened to the cooling tube protruding from opposite ends of the evaporator so that the cooling tube is inserted in the fastening portion.
Method for producing a laminated pane, wherein (a) a first pane, a second pane, at least one thermoplastic film and a component are provided, wherein the component comprises at least two electrical functional elements (1, 2, 3) and cabling which comprises electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) which have insulating sheathing and are each connected to an electrical functional element (1, 2,3), wherein the cabling has a bundling portion in which all electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) are surrounded by a common insulating sheathing, (b) the first pane and the second pane with the film therebetween are arranged flat one above the other to form a stack, wherein at least one electrical functional element (1, 2) of the component is arranged between the film and one of the panes (12, 13) and wherein the bundling portion is arranged outside the stack, (c) the first pane is connected, via the film, to the second pane by lamination to form the laminated pane. (a) a first pane, a second pane, at least one thermoplastic film and a component are provided, wherein the component comprises at least two electrical functional elements (1, 2, 3) and cabling which comprises electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) which have insulating sheathing and are each connected to an electrical functional element (1, 2,3), wherein the cabling has a bundling portion in which all electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) are surrounded by a common insulating sheathing, (b) the first pane and the second pane with the film therebetween are arranged flat one above the other to form a stack, wherein at least one electrical functional element (1, 2) of the component is arranged between the film and one of the panes (12, 13) and wherein the bundling portion is arranged outside the stack, (c) the first pane is connected, via the film, to the second pane by lamination to form the laminated pane.
A method of acquiring data for screening information processing deficiencies in a young infant, comprising: a) administering to said infant a sequence of auditory stimuli comprising at least one control stimulus (101, 201) having a plurality of control components and at least one test stimulus (102, 202) having a plurality of test components, wherein the at least one control stimulus (101, 201) differs from the at least one test stimulus (102, 202) by at least one of amplitude, frequency, pitch, and duration, the at least one control stimulus (101, 201) and the at least one test stimulus (102, 202) are administered within about 10 -3 seconds to about 3 seconds of each other, the infant is habituated to the at least one control stimulus (101, 201); and b) recording a response of the infant to the at least one test stimulus (102, 202) or the at least one control stimulus (101, 201), characterized in that the response of the infant modifies a duration of a filled temporal interval or an unfilled temporal interval between the control or test components in the at least one control stimulus (101, 201) or the at least one test stimulus (102, 202). a) administering to said infant a sequence of auditory stimuli comprising at least one control stimulus (101, 201) having a plurality of control components and at least one test stimulus (102, 202) having a plurality of test components, wherein the at least one control stimulus (101, 201) differs from the at least one test stimulus (102, 202) by at least one of amplitude, frequency, pitch, and duration, the at least one control stimulus (101, 201) and the at least one test stimulus (102, 202) are administered within about 10 -3 seconds to about 3 seconds of each other, the infant is habituated to the at least one control stimulus (101, 201); and the at least one control stimulus (101, 201) differs from the at least one test stimulus (102, 202) by at least one of amplitude, frequency, pitch, and duration, the at least one control stimulus (101, 201) and the at least one test stimulus (102, 202) are administered within about 10 -3 seconds to about 3 seconds of each other, the infant is habituated to the at least one control stimulus (101, 201); and b) recording a response of the infant to the at least one test stimulus (102, 202) or the at least one control stimulus (101, 201), characterized in that the response of the infant modifies a duration of a filled temporal interval or an unfilled temporal interval between the control or test components in the at least one control stimulus (101, 201) or the at least one test stimulus (102, 202).
A circuit breaker system comprising: a first circuit breaker (42,44) having a first trip unit, said first trip unit having a first processor, a first current sensor electrically coupled to said first processor and a first data communications device coupled to transmit a signal from said first processor, wherein said first processor is responsive to executable computer instructions for transmitting a signal through said first data communications device in response to detecting a first fault condition with said first current sensor, said first processor being further responsive to executable computer instructions for transmitting said signal through said first data communications device in response to detecting a second fault condition with said first current sensor; a second circuit breaker having a second trip unit, said second trip unit having a second processor, a second current sensor electrically coupled to said second processor and a second data communications device operably coupled to receive said signal from said first communications device and transmit said signal to said second processor, wherein said second processor is responsive to executable computer instructions for changing the tripping response of said second circuit breaker to a first interlock sequence if said signal is due to said first fault condition and to a second interlock sequence if said signal is due to said second fault condition. a first circuit breaker (42,44) having a first trip unit, said first trip unit having a first processor, a first current sensor electrically coupled to said first processor and a first data communications device coupled to transmit a signal from said first processor, wherein said first processor is responsive to executable computer instructions for transmitting a signal through said first data communications device in response to detecting a first fault condition with said first current sensor, said first processor being further responsive to executable computer instructions for transmitting said signal through said first data communications device in response to detecting a second fault condition with said first current sensor; a second circuit breaker having a second trip unit, said second trip unit having a second processor, a second current sensor electrically coupled to said second processor and a second data communications device operably coupled to receive said signal from said first communications device and transmit said signal to said second processor, wherein said second processor is responsive to executable computer instructions for changing the tripping response of said second circuit breaker to a first interlock sequence if said signal is due to said first fault condition and to a second interlock sequence if said signal is due to said second fault condition.
Processing machine, at least one processing unit configured as a shaping unit following at least one processing unit configured as an application unit in a transport direction of a substrate, at least one transport unit being arranged between the at least one processing unit configured as an application unit and the at least one succeeding processing unit, the at least one transport unit comprising a plurality of transport elements, and the transport elements of the plurality of transport elements being arranged one behind the other in the transport direction, characterized in that at least one transport element of the plurality of transport elements is axially adjustable based on the detection of at least one image-producing element of a substrate by at least one sensor for substrate alignment.
A removable spindle assembly for a blender comprising: a quick release coupler; a container cover; a spring; a tube; an inner spindle drive shaft; and a blending tool, wherein said quick release coupler, spring and container cover are held concentrically around said tube and between said quick release coupler and said blending tool, characterized in that cogged couplers are affixed to an upper end of said tube and said tube at its lower end being affixed to said blending tool; said cogged couplers being affixed to said inner spindle drive shaft and blending is accomplished through a combination of said inner spindle drive shaft, said tube being concentrically arranged, a combination of said cogged couplers and said blending tool, so as to cause said tube to turn in unison with said inner spindle drive shaft. a quick release coupler; a container cover; a spring; a tube; an inner spindle drive shaft; and a blending tool, wherein said quick release coupler, spring and container cover are held concentrically around said tube and between said quick release coupler and said blending tool, characterized in that cogged couplers are affixed to an upper end of said tube and said tube at its lower end being affixed to said blending tool; said cogged couplers being affixed to said inner spindle drive shaft and blending is accomplished through a combination of said inner spindle drive shaft, said tube being concentrically arranged, a combination of said cogged couplers and said blending tool, so as to cause said tube to turn in unison with said inner spindle drive shaft.
A method performed by a wireless device (302, 90, 100) for communicating with a radio network node (304, 70, 80), the radio network node (304, 70, 80) serving a first cell in a licensed spectrum and a second cell in an unlicensed spectrum, wherein the first cell in the licensed spectrum is a primary cell, PCell, of an operator, and the second cell in the unlicensed spectrum is a secondary cell, SCell, the method comprising: - determining (52, 306) one or more first possible discovery signal sequences which are defined for a carrier frequency of the PCell, wherein the carrier frequency of the PCell is unique for the operator; - receiving (54, 310) a second sequence of a discovery signal in the second cell in the unlicensed spectrum transmitted by the radio network node (304, 70, 80); - determining (56, 312) that any of the one or more first possible discovery signal sequences matches the second sequence to enable communication with the radio network node (304, 70, 80) on the second cell in the unlicensed spectrum. - determining (52, 306) one or more first possible discovery signal sequences which are defined for a carrier frequency of the PCell, wherein the carrier frequency of the PCell is unique for the operator; - receiving (54, 310) a second sequence of a discovery signal in the second cell in the unlicensed spectrum transmitted by the radio network node (304, 70, 80); - determining (56, 312) that any of the one or more first possible discovery signal sequences matches the second sequence to enable communication with the radio network node (304, 70, 80) on the second cell in the unlicensed spectrum.
Automated apparatus of laser beam welding comprising a laser head configured to emit a laser beam, the laser head being configured to be moved by a processing and control unit so as to translate over a supporting base (200; 800), having a planar upper surface (210; 818), whereby, when the laser head emits the laser beam, the laser head translates in a welding advance direction, the automated apparatus further comprising a protection shoe, having a planar perforated lower plate, that is coupled to the laser head through mechanical coupling means (410, 420, 430, 440, 441) so that, when the laser head emits the laser beam translating along the welding advance direction, the shoe follows the laser head along the welding advance direction, the shoe being provided with an inner cavity accessible from outside through at least one aperture configured to introduce inert gas and closed at the bottom by the perforated lower plate, the inner cavity housing an inner diffusion assembly, whereby when inert gas is introduced in the inner cavity it spreads under the planar lower plate, characterised in that, when the laser head emits the laser beam, said processing and control unit is configured to place the shoe such that the planar perforated lower plate is parallel to the upper surface (210; 818) of the supporting base (200; 800).
A battery management device comprising: an SOCv calculation unit that is adapted to calculate a state of charge using a voltage across both ends of a battery; an SOCi calculation unit that is adapted to calculate a state of charge by integrating currents flowing in the battery; an SOCw calculation unit that is adapted to perform weighted addition of the state of charge of the battery calculated by the SOCv calculation unit and the state of charge of the battery calculated by the SOCi calculation unit; characterised by an SOCi biased time calculation unit that is adapted to calculate an SOCi biased time based on one or a plurality of an elapsed time from an end of a previous system operation of the battery or an end of charging or discharging during the previous system operation to a start of current system activation, a temperature of the battery, a degree of degradation of the battery, and a polarization voltage of the battery, wherein the SOCw calculation unit is adapted to increase a weight of the state of charge of the battery calculated by the SOCi calculation while an elapsed time from the start of the current system activation is within the SOCi biased time. an SOCv calculation unit that is adapted to calculate a state of charge using a voltage across both ends of a battery; an SOCi calculation unit that is adapted to calculate a state of charge by integrating currents flowing in the battery; an SOCw calculation unit that is adapted to perform weighted addition of the state of charge of the battery calculated by the SOCv calculation unit and the state of charge of the battery calculated by the SOCi calculation unit; characterised by an SOCi biased time calculation unit that is adapted to calculate an SOCi biased time based on one or a plurality of an elapsed time from an end of a previous system operation of the battery or an end of charging or discharging during the previous system operation to a start of current system activation, a temperature of the battery, a degree of degradation of the battery, and a polarization voltage of the battery, wherein the SOCw calculation unit is adapted to increase a weight of the state of charge of the battery calculated by the SOCi calculation while an elapsed time from the start of the current system activation is within the SOCi biased time.
An antenna apparatus comprising: a first component layer comprising a plurality of radio frequency integrated circuit chips, RFICs, arranged in a first plane with a first lattice geometry, each of the RFICs comprising beamforming circuitry (920, 950); and a second component layer overlaying the first component layer and comprising a plurality of antenna elements arranged in a second plane parallel to the first plane, with a second, different lattice geometry, wherein each of the first and second lattice geometries is a two dimensional geometry, the first lattice geometry is rectangular and the second lattice geometry is non-rectangular, or vice versa, the antenna elements having respective feed points each coupled to an input / output, I/O, pad (412, 512, 612, 712) of one of the RFICs, each said I/O pad being substantially aligned with the feed point coupled thereto along an axis orthogonal to the first and second planes. a first component layer comprising a plurality of radio frequency integrated circuit chips, RFICs, arranged in a first plane with a first lattice geometry, each of the RFICs comprising beamforming circuitry (920, 950); and a second component layer overlaying the first component layer and comprising a plurality of antenna elements arranged in a second plane parallel to the first plane, with a second, different lattice geometry, wherein each of the first and second lattice geometries is a two dimensional geometry, the first lattice geometry is rectangular and the second lattice geometry is non-rectangular, or vice versa, the antenna elements having respective feed points each coupled to an input / output, I/O, pad (412, 512, 612, 712) of one of the RFICs, each said I/O pad being substantially aligned with the feed point coupled thereto along an axis orthogonal to the first and second planes.