mhurhangee/ep-ind-claims huggingface dataset:
An image processing method comprising the step of: obtaining gradation data for expressing a predetermined gradation value on a print medium by printing a first dot pattern and a second dot pattern on the print medium in an overlapping manner; and generating data for printing the first dot pattern and data that causes a print head to print the second dot pattern based on the gradation data corresponding to the predetermined gradation value, characterized in that the first dot pattern and the second dot pattern are each a lattice pattern in which a position of any dot to a position of a dot other than the any dot is specified by two basis vectors (a1,b1,a2,b2) and are lattice patterns that vary in a combination of the two basis vectors, a combined dot pattern formed by superimposing any dot included in the first dot pattern and any dot included in the second dot pattern one on top of the other includes a superimposed dot that is formed by superimposing of one dot included in the first dot pattern and one dot included in the second dot pattern and a neighboring dot in which one dot included in the first dot pattern and one dot included in the second dot pattern are arranged at an interval smaller than a lattice spacing defined by the basis vectors (a1,b1,a2,b2), and the neighboring dot includes a plurality of neighboring dots varying in tilt of a straight line connecting a center of the one dot in the first dot pattern and a center of the one dot in the second dot pattern forming the neighboring dot. obtaining gradation data for expressing a predetermined gradation value on a print medium by printing a first dot pattern and a second dot pattern on the print medium in an overlapping manner; and generating data for printing the first dot pattern and data that causes a print head to print the second dot pattern based on the gradation data corresponding to the predetermined gradation value, characterized in that the first dot pattern and the second dot pattern are each a lattice pattern in which a position of any dot to a position of a dot other than the any dot is specified by two basis vectors (a1,b1,a2,b2) and are lattice patterns that vary in a combination of the two basis vectors, a combined dot pattern formed by superimposing any dot included in the first dot pattern and any dot included in the second dot pattern one on top of the other includes a superimposed dot that is formed by superimposing of one dot included in the first dot pattern and one dot included in the second dot pattern and a neighboring dot in which one dot included in the first dot pattern and one dot included in the second dot pattern are arranged at an interval smaller than a lattice spacing defined by the basis vectors (a1,b1,a2,b2), and the neighboring dot includes a plurality of neighboring dots varying in tilt of a straight line connecting a center of the one dot in the first dot pattern and a center of the one dot in the second dot pattern forming the neighboring dot.
An ophthalmic device, comprising: an ultrasonic transducer (101, 201, 250, 255, 501, 601) positioned to direct ultrasonic signals towards ciliary processes in an eye of the user when the ophthalmic device is mounted in or on the eye; an accommodation actuator (430, 530, 630) positioned to focus light entering the eye of the user when the ophthalmic device is mounted in or on the eye; and a controller (225, 425, 525, 625) coupled to the ultrasonic transducer and the accommodation actuator, wherein the controller includes logic that when executed by the controller causes the ophthalmic device to perform operations including: emitting the ultrasonic signals from the ultrasonic transducer towards the ciliary processes; receiving reflected ultrasonic signals from the ciliary processes with the ultrasonic transducer; calculating a time of flight between emitting the ultrasonic signals and receiving the reflected ultrasonic signals; and adjusting an optical power of the accommodation actuator based on the time of flight. an ultrasonic transducer (101, 201, 250, 255, 501, 601) positioned to direct ultrasonic signals towards ciliary processes in an eye of the user when the ophthalmic device is mounted in or on the eye; an accommodation actuator (430, 530, 630) positioned to focus light entering the eye of the user when the ophthalmic device is mounted in or on the eye; and a controller (225, 425, 525, 625) coupled to the ultrasonic transducer and the accommodation actuator, wherein the controller includes logic that when executed by the controller causes the ophthalmic device to perform operations including: emitting the ultrasonic signals from the ultrasonic transducer towards the ciliary processes; receiving reflected ultrasonic signals from the ciliary processes with the ultrasonic transducer; calculating a time of flight between emitting the ultrasonic signals and receiving the reflected ultrasonic signals; and adjusting an optical power of the accommodation actuator based on the time of flight. emitting the ultrasonic signals from the ultrasonic transducer towards the ciliary processes; receiving reflected ultrasonic signals from the ciliary processes with the ultrasonic transducer; calculating a time of flight between emitting the ultrasonic signals and receiving the reflected ultrasonic signals; and adjusting an optical power of the accommodation actuator based on the time of flight.
An immunogenic composition for use in a method of treatment and/or prevention of AMHR2-expressing ovarian cancer tumor through the induction of an immune response against Anti-Mullerian Hormone Receptor, Type II (AMHR2) in a subject, wherein: (a) the immunogenic composition comprises an AMHR2 polypeptide that comprises at least 100 consecutive amino acids that are at least 80% identical to an amino acid sequence in the extracellular domain of AMHR2: wherein the sequence of AMHR2 is set forth in SEQ ID NO: 1; (b) the immunogenic composition elicits an immune response specific for an AMHR2 protein comprising the amino acid sequence of SEQ ID NO: 1; and (c) the immune response comprises a T-cell immune response against AMHR2-expressing ovarian cancer cells in the subject. (a) the immunogenic composition comprises an AMHR2 polypeptide that comprises at least 100 consecutive amino acids that are at least 80% identical to an amino acid sequence in the extracellular domain of AMHR2: wherein the sequence of AMHR2 is set forth in SEQ ID NO: 1; (b) the immunogenic composition elicits an immune response specific for an AMHR2 protein comprising the amino acid sequence of SEQ ID NO: 1; and (c) the immune response comprises a T-cell immune response against AMHR2-expressing ovarian cancer cells in the subject.
A compound comprising the structure: O-(x-L) n, wherein: O is an oligonucleotide TAGGGTTAGACAA, wherein the internucleoside linkages of the oligonucleotide O are N3'→P5' thiophosphoramidate linkages; n = 1 or 2; the or each (x-L) is independently selected from: 3'-myristoylamide; 3'-stearoylamide; 3'-palmitoylamido-propyl-thiophosphate; 5'-palmitoylamido-bis-aminoglycerol-thiophosphate; 5'-stearoylamido-aminoglycerol-thiophosphate; 3'-cholesterylamido-aminoglycerol-thiophosphate; 5'-C11-teflon-thiophosphate; 5'-C13-teflon-thiophosphate; 5'-batyl-thiophosphate; 3'-palmitoylamido-aminoglycerol-thiophosphate; and 5'-cholesterylamido-aminoglycerol-thiophosphate; or a pharmaceutically acceptable salt thereof. O is an oligonucleotide TAGGGTTAGACAA, wherein the internucleoside linkages of the oligonucleotide O are N3'→P5' thiophosphoramidate linkages; n = 1 or 2; the or each (x-L) is independently selected from: 3'-myristoylamide; 3'-stearoylamide; 3'-palmitoylamido-propyl-thiophosphate; 5'-palmitoylamido-bis-aminoglycerol-thiophosphate; 5'-stearoylamido-aminoglycerol-thiophosphate; 3'-cholesterylamido-aminoglycerol-thiophosphate; 5'-C11-teflon-thiophosphate; 5'-C13-teflon-thiophosphate; 5'-batyl-thiophosphate; 3'-palmitoylamido-aminoglycerol-thiophosphate; and 5'-cholesterylamido-aminoglycerol-thiophosphate; 3'-myristoylamide; 3'-stearoylamide; 3'-palmitoylamido-propyl-thiophosphate; 5'-palmitoylamido-bis-aminoglycerol-thiophosphate; 5'-stearoylamido-aminoglycerol-thiophosphate; 3'-cholesterylamido-aminoglycerol-thiophosphate; 5'-C11-teflon-thiophosphate; 5'-C13-teflon-thiophosphate; 5'-batyl-thiophosphate; 3'-palmitoylamido-aminoglycerol-thiophosphate; and 5'-cholesterylamido-aminoglycerol-thiophosphate;
Power supply unit for a fuel cell system, comprising a housing at least partly made of metal and a current and/or voltage measuring device connected to the housing, wherein the current and/or voltage measuring device has at least one tab for connection to a bus bar, characterized in that the current and/or voltage measuring device, preferably the at least one tab of the current and/or voltage measuring device, is connected to a metallic area of the housing in a heat-transmitting manner only indirectly via at least one metal block.
A method for controlling a dew point in a reducing furnace which is at least a radiant tube-type and which is provided in continuous hot-dip galvanizing equipment, the method comprising steps of: applying annealing and hot-dip galvanizing treatment to a steel sheet having an Si content of 0.1% by mass or more in the continuous hot-dip galvanizing equipment; and supplying a gas into the reducing furnace in the applying to control the dew point in the reducing furnace to -20°C to 0°C, by using a mixed gas of a dry gas and a humidified gas by a humidifying device having a water vapor permeable membrane as the gas to be supplied into the reducing furnace; wherein supplying the gas into the reducing furnace to control the dew point in the reducing furnace comprises: measuring the dew point of the gas to be supplied into the reducing furnace; measuring the dew point of the gas inside the reducing furnace in an upper portion, lower portion and middle portion in the height direction of the reducing furnace; and controlling the supply gas dew point and flow rate, in response to the measured results, to control the dew point in the upper portion, lower portion and middle portion of the reducing furnace to -20°C to 0°C. applying annealing and hot-dip galvanizing treatment to a steel sheet having an Si content of 0.1% by mass or more in the continuous hot-dip galvanizing equipment; and supplying a gas into the reducing furnace in the applying to control the dew point in the reducing furnace to -20°C to 0°C, by using a mixed gas of a dry gas and a humidified gas by a humidifying device having a water vapor permeable membrane as the gas to be supplied into the reducing furnace; wherein supplying the gas into the reducing furnace to control the dew point in the reducing furnace comprises: measuring the dew point of the gas to be supplied into the reducing furnace; measuring the dew point of the gas inside the reducing furnace in an upper portion, lower portion and middle portion in the height direction of the reducing furnace; and controlling the supply gas dew point and flow rate, in response to the measured results, to control the dew point in the upper portion, lower portion and middle portion of the reducing furnace to -20°C to 0°C. measuring the dew point of the gas to be supplied into the reducing furnace; measuring the dew point of the gas inside the reducing furnace in an upper portion, lower portion and middle portion in the height direction of the reducing furnace; and controlling the supply gas dew point and flow rate, in response to the measured results, to control the dew point in the upper portion, lower portion and middle portion of the reducing furnace to -20°C to 0°C.
A lithographic printing plate precursor comprising a support and provided thereon, in order, - a negative working image recording layer which undergoes a free-radical polymerization or crosslinking reaction upon exposure to ultraviolet, violet or infrared light; - an overcoat which comprises a low-molecular radical inhibitor, which is an organic compound having a molecular weight of less than 1000 Dalton, or a polymer which releases said low-molecular radical inhibitor upon heating, characterised in that upon heating said low-molecular radical inhibitor is capable of diffusing to the image recording layer, thereby rendering the image recording layer less sensitive to daylight than before said heating. - a negative working image recording layer which undergoes a free-radical polymerization or crosslinking reaction upon exposure to ultraviolet, violet or infrared light; - an overcoat which comprises a low-molecular radical inhibitor, which is an organic compound having a molecular weight of less than 1000 Dalton, or a polymer which releases said low-molecular radical inhibitor upon heating,
Heat treatment device for a material in powder form, comprising: - a heat treatment furnace having a heating zone, and - a quenching tank, characterized in that the quenching tank comprises a container at least partially filled with a plurality of n solid elements, n being between 100 and 100 000, and in that the heat treatment furnace is mounted so that it is mobile, so that the contents of the heat treatment furnace can be transferred to the quenching tank. - a heat treatment furnace having a heating zone, and - a quenching tank,
An imaging device, comprising: a carrier having a first surface, a second surface generally opposite the first surface, and carrier contacts, the carrier contacts being carried on the second surface of the carrier; and an image sensor module having light sensing elements and a support, the support having a first surface, a second surface generally opposite the first surface, and support contacts, the support contacts being carried on the first surface of the support, the light sensitive elements being coupled to the first surface of the support and located relative to the support at least approximately opposite the second surface of the support, the image sensor module being located relative to the carrier so that a portion of the first surface of the support faces a portion of the second surface of the carrier, at least a portion of a housing of the image sensor module extending away from the support past the first and second surfaces of the carrier; characterized in that the imaging device further comprises a conductive deformable gasket element with the conductive deformable gasket element positioned between at least one of the carrier contacts and at least one of the support contacts to operably couple the at least one support contact to the at least one carrier contact, wherein the conductive deformable gasket element is a single piece element configured with a passageway through which the housing of the image sensor module passes. a carrier having a first surface, a second surface generally opposite the first surface, and carrier contacts, the carrier contacts being carried on the second surface of the carrier; and an image sensor module having light sensing elements and a support, the support having a first surface, a second surface generally opposite the first surface, and support contacts, the support contacts being carried on the first surface of the support, the light sensitive elements being coupled to the first surface of the support and located relative to the support at least approximately opposite the second surface of the support, the image sensor module being located relative to the carrier so that a portion of the first surface of the support faces a portion of the second surface of the carrier, at least a portion of a housing of the image sensor module extending away from the support past the first and second surfaces of the carrier; characterized in that the imaging device further comprises a conductive deformable gasket element with the conductive deformable gasket element positioned between at least one of the carrier contacts and at least one of the support contacts to operably couple the at least one support contact to the at least one carrier contact, wherein the conductive deformable gasket element is a single piece element configured with a passageway through which the housing of the image sensor module passes.
Turntable for receiving an assay disc and to control an assay on said assay disc by rotational movement of said turntable, wherein said turntable comprises: one or more heater modules to apply heat to one or more specific parts of said assay disc during rotation; a heater controller to select a required heater and to control the temperature thereof, and an IR transceiver to allow instructions and/or heating parameters to be transferred to the heater controller wirelessly.
Device for manufacturing composite parts comprising: - a first mold mounted on a frame, said first mold comprising a functional surface adapted to receive components of a first composite part, - a first robotic device adapted to place at least a first component of the first composite part on the first mold, - a second mold: • mounted on the same frame as the first mold, • comprising a functional surface adapted to receive components of a second composite part, the functional surface of the second mold being identical to the functional surface of the first mold, - a second robotic device adapted to place at least a second component of the second composite part on the second mold, wherein the second mold is arranged in a central symmetric position around a symmetry central point with regard to the first mold, and in that the first robotic device and the second robotic device are adapted to perform the same operations simultaneously with a central symmetry relationship around the symmetry central point. - a first mold mounted on a frame, said first mold comprising a functional surface adapted to receive components of a first composite part, - a first robotic device adapted to place at least a first component of the first composite part on the first mold, - a second mold: • mounted on the same frame as the first mold, • comprising a functional surface adapted to receive components of a second composite part, the functional surface of the second mold being identical to the functional surface of the first mold, • mounted on the same frame as the first mold, • comprising a functional surface adapted to receive components of a second composite part, the functional surface of the second mold being identical to the functional surface of the first mold, - a second robotic device adapted to place at least a second component of the second composite part on the second mold, wherein the second mold is arranged in a central symmetric position around a symmetry central point with regard to the first mold,
A method for a multi-transmission point system, comprising a coordinator node and a plurality of antenna devices (1108, 1110, 1112), for selecting at least one uplink antenna from among a plurality of uplink antennas of the plurality of antenna devices (1108,1110,1112) to receive uplink transmissions from a user equipment, UE, wherein the method comprises the steps of: assigning, by the coordinator node, a sounding reference signal, SRS, resource to the UE which is a unique uplink signature, receiving, by the coordinator node, one or more reports from the plurality of antenna devices (1108, 1110, 1112) having said plurality of uplink antennas, wherein each report of the one or more reports indicate an SRS identifier, SRS ID, and a received quality of a particular detected SRS, wherein each antenna device (1108, 1110, 1112) monitors receipt of the SRS, sent by the UE, on said assigned SRS resource, and selecting, by the coordinator node, the at least one uplink antenna to receive uplink transmissions from the UE based on said one or more reports. assigning, by the coordinator node, a sounding reference signal, SRS, resource to the UE which is a unique uplink signature, receiving, by the coordinator node, one or more reports from the plurality of antenna devices (1108, 1110, 1112) having said plurality of uplink antennas, wherein each report of the one or more reports indicate an SRS identifier, SRS ID, and a received quality of a particular detected SRS, wherein each antenna device (1108, 1110, 1112) monitors receipt of the SRS, sent by the UE, on said assigned SRS resource, and selecting, by the coordinator node, the at least one uplink antenna to receive uplink transmissions from the UE based on said one or more reports.
A binding cord for a motor for an electric vehicle, the binding cord comprising a braided cord using a multifilament strand made of synthetic fibers having a melting point or a decomposition temperature at 280°C or more, wherein the cord comprises eight or more strands, characterized in that a shape of the binding cord is round and is in a tube form and in an oblate form, wherein the binding cord has an oil resistance at 150°C of 50% or more, the oil resistance at 150°C being represented by the following formula: oil resistance at 150 °C % = Tʹ / T × 100 where T denotes a tensile strength of the binding cord before treatment and T' denotes a tensile strength of the binding cord after the treatment, wherein the tensile strength is measured in accordance with JIS L1013-8.5.1, and the treatment is carried out in such a manner that the entire binding cord is put into a closed container containing a mixture of 5 weight% of water and 95 weight% of automatic transmission fluid, followed by heating the container so that a temperature of the mixture is maintained at 150°C for 1,000 hours.
Single-serve capsule for producing a beverage, having a side wall (1.2) and a base (1.1) which together define a space (1.7), wherein, within the space (1.7), a filter element is sealed to the base (1.1) or to a carrier element by a substantially annular sealing seam, wherein the filter element comprises a nonwoven, characterized in that the outside diameter of the sealing seam is 55 to 75 percent of the diameter of the filter element.
A method for mitigating inadequate attenuation for co-existence between channels, the method carried out by an evolved NodeB, eNB,, and the method comprising: scheduling via a downlink channel a transmission by a first user equipment on an uplink channel; receiving a feedback report from the first user equipment; calculating an interference value based at least in part upon the feedback report; determining, based on the value, that an uplink frequency band and a first transmit power level used for the transmission by the first user equipment provides inadequate attenuation to a downlink frequency band on the downlink channel; and changing the scheduling of a transmission on one of the uplink channel and the downlink channel to provide adequate attenuation. scheduling via a downlink channel a transmission by a first user equipment on an uplink channel; receiving a feedback report from the first user equipment; calculating an interference value based at least in part upon the feedback report; determining, based on the value, that an uplink frequency band and a first transmit power level used for the transmission by the first user equipment provides inadequate attenuation to a downlink frequency band on the downlink channel; and changing the scheduling of a transmission on one of the uplink channel and the downlink channel to provide adequate attenuation.
Method for updating data of a material processing machine, wherein prior to installation of an exchangeable processing machine component or sensor machine component (6; 7) of the material processing machine into a processing path or a monitoring path of the material processing machine, update data for the material processing machine, which is not dependent on the properties of the machine component (6; 7), is stored in an electronic storage unit of the machine component (6; 7) and wherein after installation of the machine component (6; 7) the stored update data is read out by the material processing machine for updating its data, characterized in that the update data comprises updated control data for a machine control of the material processing machine and/or that the update data comprises updated measured variables and/or limit values and/or read-out algorithms for a measuring or monitoring device (8, 10) of the material processing machine.