mhurhangee/ep-ind-claims huggingface dataset:
A field emission flat light source, comprising: an anode, a cathode, a light-transmittable panel, and a isolater, the anode and the light-transmittable panel are in a flat plate shape, the anode is parallel to the cathode; wherein the anode and the light-transmittable panel are separated by the isolater; the anode, the light-transmittable panel, and the isolater cooperatively form a vacuum confined space, the cathode is suspended in the vacuum confined space; the anode comprises an anode substrate, a metal reflective layer positioned on the anode substrate, and an emitting layer positioned on the metal reflective layer; the cathode comprises a plurality of cathode substrates which are separately disposed and electron emitter formed on surfaces thereof; characterized in that the anode further comprises an opaque anode electrode sandwiched between the anode substrate and the metal reflective layer and the opaque anode electrode is a Cr or Mo electrode.
A method of 3D printing a biomaterial, wherein the method comprises: (a) 3D printing a resin composition at a temperature in the range of 25°C to 95°C, and (b) washing the 3D printed composition with a solvent, and (c) vacuuming the washed 3D printed composition, wherein the resin composition comprises: (i) a pre-polymer having the following formula: wherein n and p each independently represent an integer equal or greater than 1, and wherein R 2 in each individual unit represents hydrogen or a polymer chain or -C(=O)-CR 3 =CR 4 R 5, wherein R 3, R 4, R 5 are independently from one another, selected in the group consisting of H, alkyl such as methyl or ethyl, aryl such as phenyl, substituted alkyl, substituted aryl, carboxylic acid, ester, amide, amine, urethane, ether, and carbonyl, (ii) at least one photo-initiator, and (iii) at least one light blocker; wherein the method further comprises step (e): heating the washed 3D printed composition at a temperature in the range of 120°C to 150°C for 1 to 5 days. (a) 3D printing a resin composition at a temperature in the range of 25°C to 95°C, and (b) washing the 3D printed composition with a solvent, and (c) vacuuming the washed 3D printed composition, (i) a pre-polymer having the following formula: wherein n and p each independently represent an integer equal or greater than 1, and wherein R 2 in each individual unit represents hydrogen or a polymer chain or -C(=O)-CR 3 =CR 4 R 5, wherein R 3, R 4, R 5 are independently from one another, selected in the group consisting of H, alkyl such as methyl or ethyl, aryl such as phenyl, substituted alkyl, substituted aryl, carboxylic acid, ester, amide, amine, urethane, ether, and carbonyl, (ii) at least one photo-initiator, and (iii) at least one light blocker;
A wheelbarrow comprising: - a frame comprising a pair of poles, - a wheel, - a container, - each pole comprising a free end part, a leg part, and a front part for attaching the wheel, - a gripping system rotatably mounted to the poles, the gripping system being capable of changing between a transport position and a dumping position, the gripping system comprising a first handle and a second handle, each of the handles (15, 16) comprising: - a gripping means, comprising a grasping segment for gripping the gripping system by the user's hand, - an attachment means extending protruding from the gripping means, the attachment means being pivot connectingly mounted to a pole, the handles (15, 16) are integral with each other. - characterised in that the grasping segment of each gripping means extends in parallel to the free end part of a pole when the gripping system is in the transport position. - a frame comprising a pair of poles, - a wheel, - a container, - each pole comprising a free end part, a leg part, and a front part for attaching the wheel, - a gripping system rotatably mounted to the poles, the gripping system being capable of changing between a transport position and a dumping position, the gripping system comprising a first handle and a second handle, each of the handles (15, 16) comprising: - a gripping means, comprising a grasping segment for gripping the gripping system by the user's hand, - an attachment means extending protruding from the gripping means, the attachment means being pivot connectingly mounted to a pole, the handles (15, 16) are integral with each other. - a gripping means, comprising a grasping segment for gripping the gripping system by the user's hand, - an attachment means extending protruding from the gripping means, the attachment means being pivot connectingly mounted to a pole, the handles (15, 16) are integral with each other. - characterised in that the grasping segment of each gripping means extends in parallel to the free end part of a pole when the gripping system is in the transport position.
An apparatus comprising: a database configured to store medical data including at least image medical data for a plurality of patients; and a digital processor configured to implement a patient features vector generator and implement a features padding component to generate a features vector comprising features indicative of a patient derived from patient medical data stored in the database, wherein the patient features vector generator is configured to implement an operation to compute a feature from the patient medical data and determine if any relevant patient data is missing and implement a further operation to store the feature as a vector element value to construct the features vector, wherein if any relevant patient data is missing the features padding component is configured to apply a padding operation to pad a feature of the features vector which cannot be derived from patient medical data stored in the database with an assigned default value chosen based on the type of feature and a multivariate analysis to be performed, wherein the digital processor is further configured to perform multivariate analysis on the features vector generated for a patient of interest to determine a proposed diagnosis for the patient of interest; a user interface configured to output a human-perceptible representation of the proposed diagnosis for the patient of interest. a database configured to store medical data including at least image medical data for a plurality of patients; and a digital processor configured to implement a patient features vector generator and implement a features padding component to generate a features vector comprising features indicative of a patient derived from patient medical data stored in the database, wherein the patient features vector generator is configured to implement an operation to compute a feature from the patient medical data and determine if any relevant patient data is missing and implement a further operation to store the feature as a vector element value to construct the features vector, wherein if any relevant patient data is missing the features padding component is configured to apply a padding operation to pad a feature of the features vector which cannot be derived from patient medical data stored in the database with an assigned default value chosen based on the type of feature and a multivariate analysis to be performed, wherein the digital processor is further configured to perform multivariate analysis on the features vector generated for a patient of interest to determine a proposed diagnosis for the patient of interest; a user interface configured to output a human-perceptible representation of the proposed diagnosis for the patient of interest.
Device for desalination of seawater by way of evaporation of a seawater volume and subsequent condensation, with a container which is stationary during use and serves for accommodating the seawater volume, to which, for heating purposes, thermal energy is able to be fed such that evaporation of the seawater volume within the container and enrichment of the enclosed air with moisture occurs, wherein the container has at least one seawater inlet for seawater and at least one seawater outlet, and with a condenser which has a condensation surface on which the moisture-enriched air condenses, and has a condensate outlet for the condensate, wherein the condenser and the container are a spatial distance apart and are connected to one another by a line, and the container has an inlet opening for ambient air through which fresh ambient air is able to be fed into the container during the evaporation of the seawater volume, and the container has an outlet opening for the moisture-enriched air, which is able to be fed to a condenser-inlet opening of the condenser by means of the line, wherein the condenser is arranged geodetically at a distance above the container, characterized in that the device has a suction-extraction means which is assigned to a condenser-outlet opening of the condenser, and has at least one jet pump for which impingement by the ambient air is possible and whose suction opening is connected to the condenser-outlet opening, and in that, in the container, there is arranged at least one areal evaporator element whose lower sub-region is sectionally immersed in the seawater volume in the container and whose upper sub-region, which is situated above the fill level, forms the effective evaporation surface.
A method for diagnosing unstable atherosclerotic plaque in a subject that comprises (i) determining the expression level of circulating miRNA miR-638 in a sample from said subject, and (ii) comparing the expression level obtained in (i) to a reference value, wherein if the expression level of circulating miR-638 in (i) is decreased with respect to the reference value, then the subject is diagnosed with unstable atherosclerotic plaque, or wherein if the expression level of circulating miR-638 in (i) is equal or increased with respect to the reference value, then the subject is not diagnosed with unstable atherosclerotic plaque. (i) determining the expression level of circulating miRNA miR-638 in a sample from said subject, and (ii) comparing the expression level obtained in (i) to a reference value,
A load sensing assembly configured for use in a surgical device comprising: a sensor body including a pocket defined therein; a load sensor circuit disposed within the pocket and coupled to the sensor body; a signal processing circuit disposed within the pocket and electrically coupled to the load sensor circuit; and a cover disposed over the pocket and enclosing the load sensor circuit and the signal processing circuit therein, the cover being coupled to the sensor body thereby forming a first hermetic seal therebetween. a sensor body including a pocket defined therein; a load sensor circuit disposed within the pocket and coupled to the sensor body; a signal processing circuit disposed within the pocket and electrically coupled to the load sensor circuit; and a cover disposed over the pocket and enclosing the load sensor circuit and the signal processing circuit therein, the cover being coupled to the sensor body thereby forming a first hermetic seal therebetween.
A solid oxide fuel cell comprising: a metal support which is formed from a porous metal substrate and which supports a power generation cell, wherein the metal support includes a power generating area in which the power generation cell is disposed, and a buffer area which is formed on an outer side of the power generating area in an in-plane direction, pores in the metal support in the buffer area are filled with a material with a thermal conductivity lower than that of a formation material of the metal support, and the metal support in the buffer area is formed into a dense layer which does not allow permeation of gas in a thickness direction. a metal support which is formed from a porous metal substrate and which supports a power generation cell, wherein the metal support includes a power generating area in which the power generation cell is disposed, and a buffer area which is formed on an outer side of the power generating area in an in-plane direction, pores in the metal support in the buffer area are filled with a material with a thermal conductivity lower than that of a formation material of the metal support, and the metal support in the buffer area is formed into a dense layer which does not allow permeation of gas in a thickness direction.
CHO cells that encode soluble recombinant human PH20, wherein the cells comprise 150-300 copies of the nucleic acid encoding the recombinant human PH20.
A method by a terminal for performing active scanning, the method comprising: transmitting, to an access point, AP, a probe request frame including a configuration information element, IE, including a revision information indicating a change of network information; and when the configuration IE included in the probe request frame does not match with a current configuration IE of the AP based on a changed setting value of the AP, receiving, from the AP, a first short probe response frame including only updated IEs and a latest configuration IE, wherein the latest configuration IE of the AP includes a revision information managed by the AP and is increased by the AP when the network information is changed, wherein the updated IEs include information elements of network information designated by the current configuration IE changed from network information designated by the configuration IE included in the probe request frame. transmitting, to an access point, AP, a probe request frame including a configuration information element, IE, including a revision information indicating a change of network information; and when the configuration IE included in the probe request frame does not match with a current configuration IE of the AP based on a changed setting value of the AP, receiving, from the AP, a first short probe response frame including only updated IEs and a latest configuration IE, wherein the latest configuration IE of the AP includes a revision information managed by the AP and is increased by the AP when the network information is changed, wherein the updated IEs include information elements of network information designated by the current configuration IE changed from network information designated by the configuration IE included in the probe request frame.
A travel support system for supporting a work vehicle including a vehicle body and a work device mounted on the vehicle body to travel in a work field, the travel support system comprising: - a work vehicle occupied area managing unit configured to manage a virtual area to be occupied by the work vehicle when the work vehicle travels in the work field, by separating the virtual area into a vehicle body occupied area occupied by the vehicle body and a work device occupied area occupied by the work device; - an own position calculation unit configured to calculate, based on positioning data, an own position which is a position of the work vehicle in the work field; and - a travel support unit configured to support the travelling of the work vehicle, based on the own position and the area occupied by the work vehicle; wherein the travel support unit is configured to - calculate a possibility of interference between an obstruction and the vehicle body as an overlap between an obstruction area occupied by the obstruction present in the work field and the vehicle body occupied area; - calculate a possibility of interference between the obstruction and the work device as an overlap between the obstruction area and the work device occupied area; and - guide the work vehicle so that such overlap does not occur. - a work vehicle occupied area managing unit configured to manage a virtual area to be occupied by the work vehicle when the work vehicle travels in the work field, by separating the virtual area into a vehicle body occupied area occupied by the vehicle body and a work device occupied area occupied by the work device; - an own position calculation unit configured to calculate, based on positioning data, an own position which is a position of the work vehicle in the work field; and - a travel support unit configured to support the travelling of the work vehicle, based on the own position and the area occupied by the work vehicle; wherein the travel support unit is configured to - calculate a possibility of interference between an obstruction and the vehicle body as an overlap between an obstruction area occupied by the obstruction present in the work field and the vehicle body occupied area; - calculate a possibility of interference between the obstruction and the work device as an overlap between the obstruction area and the work device occupied area; and - guide the work vehicle so that such overlap does not occur.
A compressor comprising: an impeller, an inlet for delivering air to the impeller, said impeller being arranged for compressing air and delivering it to an outlet; a variable diffuser positioned downstream of the impeller and including a plurality of pivoting vanes; and a drive arrangement for pivoting said plurality of pivoting vanes, said drive arrangement including an electric motor arranged to cause a pinion gear to rotate, said pinion gear having gear teeth engaging gear teeth on a rack section, rotation of said rack section causing said plurality of pivoting vanes to pivot; wherein said rack section is a curved rack section, and wherein said rack section drives a ring, said ring carrying pins to cause said plurality of pivoting vanes to pivot, characterised by: said impeller being mounted on air bearings (28,30); and wherein said pinion gear is positioned radially inwardly of said curved rack section. an impeller, an inlet for delivering air to the impeller, said impeller being arranged for compressing air and delivering it to an outlet; a variable diffuser positioned downstream of the impeller and including a plurality of pivoting vanes; and a drive arrangement for pivoting said plurality of pivoting vanes, said drive arrangement including an electric motor arranged to cause a pinion gear to rotate, said pinion gear having gear teeth engaging gear teeth on a rack section, rotation of said rack section causing said plurality of pivoting vanes to pivot; wherein said rack section is a curved rack section, and wherein said rack section drives a ring, said ring carrying pins to cause said plurality of pivoting vanes to pivot, characterised by: said impeller being mounted on air bearings (28,30); and wherein said pinion gear is positioned radially inwardly of said curved rack section. said impeller being mounted on air bearings (28,30); and wherein said pinion gear is positioned radially inwardly of said curved rack section.
A communication device comprising: circuitry, which, in operation, maps modulation symbols to a first Orthogonal Frequency Division Multiplexing, OFDM, symbol, to which a reference signal is mapped, in a first subframe, and maps the same modulation symbols to a second OFDM symbol, to which the reference signal is mapped, in a second subframe that is different from the first subframe with respect to available resources, wherein the position of the second OFDM symbol within the second subframe is different from the position of the first OFDM symbol within the first subframe; and a transmitter, which, in operation, transmits the mapped modulation symbols with repetitions in the first and second subframes. circuitry, which, in operation, maps modulation symbols to a first Orthogonal Frequency Division Multiplexing, OFDM, symbol, to which a reference signal is mapped, in a first subframe, and maps the same modulation symbols to a second OFDM symbol, to which the reference signal is mapped, in a second subframe that is different from the first subframe with respect to available resources, wherein the position of the second OFDM symbol within the second subframe is different from the position of the first OFDM symbol within the first subframe; and a transmitter, which, in operation, transmits the mapped modulation symbols with repetitions in the first and second subframes.
A method for producing a pesticidal granule comprising: (a) mixing a powdery pesticide having an average particle size of 1 to 100 μm, with a first liquid component serving as a raw material for a thermosetting resin; (b) adding a second liquid component serving as a raw material for a thermosetting resin; and then (c) making the first liquid component react with the second liquid component to produce a thermosetting resin, which method is carried out without a solvent.
A portable terminal comprising a radio communication means and a shooting means characterized by comprising: - a motion instruction information storage for storing information on motion instructions indicating a message to be selected in association with information on forms; - the shooting means (102, 103) for shooting an image in order to select a message; - a motion instruction information selecting means for recognizing a form from the image shot by the shooting means (102, 103) when a call is received from a calling source, and selecting a motion instruction corresponding to the recognized form from the motion instruction information storage; and - a controller for controlling the portable terminal according to the motion instruction selected by the motion instruction information selecting means; wherein the radio communication means is configured to transmit said message selected in association with information on forms as a call response message to the calling source. - a motion instruction information storage for storing information on motion instructions indicating a message to be selected in association with information on forms; - the shooting means (102, 103) for shooting an image in order to select a message; - a motion instruction information selecting means for recognizing a form from the image shot by the shooting means (102, 103) when a call is received from a calling source, and selecting a motion instruction corresponding to the recognized form from the motion instruction information storage; and - a controller for controlling the portable terminal according to the motion instruction selected by the motion instruction information selecting means;
A method of thermally treating a material, the method comprising: applying a thermal transfer blanket to a surface of the material, the thermal transfer blanket comprising a thermal energy storage media having a first temperature, the material having a second temperature that is different than the first temperature; and transferring thermal energy between the thermal transfer blanket and the material, thereby modifying the temperature of the material; wherein the thermal energy storage media comprises one or more layers of tiles (112, 113) bonded together by an elastomeric polymer. applying a thermal transfer blanket to a surface of the material, the thermal transfer blanket comprising a thermal energy storage media having a first temperature, the material having a second temperature that is different than the first temperature; and transferring thermal energy between the thermal transfer blanket and the material, thereby modifying the temperature of the material; wherein the thermal energy storage media comprises one or more layers of tiles (112, 113) bonded together by an elastomeric polymer.