mhurhangee/patent-ind-claim-en huggingface dataset:
A superantigen selected from the group consisting of the staphylococcal enterotoxins G and I (SEG and SEI) and staphylococcal enterotoxin-like toxins M, N and O (SElM, SElN and SEIO), or a mixture thereof, for use in preventing, or reducing the risk of developing, atopic dermatitis in a human being, wherein the superantigen is mucosally administrated to a neonate within 3 months after birth.
Push-button switch assembly having means for identifying switching states, comprising: - a push-button switch having an actuating head for actuating the push-button switch and having a push-button guide , - an adapter device for fastening the push-button switch to a housing body , - wherein the adapter device is designed to fasten the push-button switch in a bore of the housing body , - wherein the adapter device is designed to compensate for a different diameter of the bore of the housing body and the push-button guide , - wherein the push-button guide comprises a plunger, which is arranged in a hollow body of the push-button guide and is moved in the hollow body of the push-button guide when the actuating head is actuated, - wherein, by actuating the actuating head , the push-button switch can be switched from a non-released state to a released state, - wherein the push-button switch is designed such that a region of the push-button guide visibly protrudes beneath the actuating head when the push-button switch is in the non-released state, - wherein the push-button switch is designed such that the region of the push-button guide is covered by the actuating head in a non-visible manner when the push-button switch is in the released state, - wherein the push-button guide comprises an integrally-colored material made of a plastics material in the region , the color of which material differs from a color of the actuating head and a color of the adapter device . - a push-button switch having an actuating head for actuating the push-button switch and having a push-button guide , - an adapter device for fastening the push-button switch to a housing body , - wherein the adapter device is designed to fasten the push-button switch in a bore of the housing body , - wherein the adapter device is designed to compensate for a different diameter of the bore of the housing body and the push-button guide , - wherein the push-button guide comprises a plunger, which is arranged in a hollow body of the push-button guide and is moved in the hollow body of the push-button guide when the actuating head is actuated, - wherein, by actuating the actuating head , the push-button switch can be switched from a non-released state to a released state, - wherein the push-button switch is designed such that a region of the push-button guide visibly protrudes beneath the actuating head when the push-button switch is in the non-released state, - wherein the push-button switch is designed such that the region of the push-button guide is covered by the actuating head in a non-visible manner when the push-button switch is in the released state, - wherein the push-button guide comprises an integrally-colored material made of a plastics material in the region , the color of which material differs from a color of the actuating head and a color of the adapter device .
A method to validate vehicular functions, comprising: receiving , by a natural language processor component executed by a data processing system and via an interface of the data processing system , an input audio signal; parsing , by the natural language processor component, the input audio signal to identify a request, a vehicle associated with the request , and a fulfilment interface associated with the request and the vehicle; generating , by a direct action application programming interface and based on the request, a first action data structure; determining , by a validation engine , a vehicular state of the vehicle associated with the request based on a first set of sensor data, the vehicular state comprising a first plurality of attributes; determining , by the validation engine, a request state based on the request, the request state comprising a second plurality of attributes; comparing, by the validation engine, the second plurality of attributes of the request state to the first plurality of attributes of the vehicular state; and transmitting , by the validation engine and based on one of the second plurality of attributes of the request state matching one of the first plurality of attributes of the vehicular state, the first action data structure to the fulfilment interface to execute a function associated with the first action data structure. receiving , by a natural language processor component executed by a data processing system and via an interface of the data processing system , an input audio signal; parsing , by the natural language processor component, the input audio signal to identify a request, a vehicle associated with the request , and a fulfilment interface associated with the request and the vehicle; generating , by a direct action application programming interface and based on the request, a first action data structure; determining , by a validation engine , a vehicular state of the vehicle associated with the request based on a first set of sensor data, the vehicular state comprising a first plurality of attributes; determining , by the validation engine, a request state based on the request, the request state comprising a second plurality of attributes; comparing, by the validation engine, the second plurality of attributes of the request state to the first plurality of attributes of the vehicular state; and transmitting , by the validation engine and based on one of the second plurality of attributes of the request state matching one of the first plurality of attributes of the vehicular state, the first action data structure to the fulfilment interface to execute a function associated with the first action data structure.
A press machine configured to press a workpiece, the press machine comprising: a control device being configured to operates the press machine , the control device including a processor , a storage unit , and a display , the processor being configured to calculate image information which represents an operating state of the press machine , the display being configured to display a state display image which extends in a band shape and indicates the operating state of the press machine during a predetermined period of time up to date, in accordance with the image information, the display being configured to display time series variation in the operating state during the predetermined period of time by variation in a color of the state display image in the band shape in an extending direction, the control device being characterized in that the processor includes an evaluation value calculation unit configured to calculate two or more types of evaluation values for evaluating the operating state per unit time, and a color combination unit configured to mix two or more colors, each of the two or more colors corresponds to one of the two or more types of evaluation values, each of the two or more colors is set to a gradation value corresponding to a magnitude of the corresponding one of the two or more types of evaluation values, and the state display image displays colors mixed by the color combination unit in a portion indicating the operation state of a current time at intervals of the unit time. a control device being configured to operates the press machine , the control device including a processor , a storage unit , and a display , the processor being configured to calculate image information which represents an operating state of the press machine , the display being configured to display a state display image which extends in a band shape and indicates the operating state of the press machine during a predetermined period of time up to date, in accordance with the image information, the display being configured to display time series variation in the operating state during the predetermined period of time by variation in a color of the state display image in the band shape in an extending direction, the control device being characterized in that the processor includes an evaluation value calculation unit configured to calculate two or more types of evaluation values for evaluating the operating state per unit time, and a color combination unit configured to mix two or more colors, each of the two or more colors corresponds to one of the two or more types of evaluation values, each of the two or more colors is set to a gradation value corresponding to a magnitude of the corresponding one of the two or more types of evaluation values, and the state display image displays colors mixed by the color combination unit in a portion indicating the operation state of a current time at intervals of the unit time.
A method of manufacturing a catalyst of a rhodium complex supported on a vinylpyridine resin, comprising: (A) manufacturing a vinylpyridine resin to be used for a catalyst carrier, comprising: mixing an oil medium containing vinylpyridine monomers, divinylbenzene as a crosslinking agent, porous agents and polymerization initiators, and an aqueous medium; dispersing the oil medium in the aqueous medium homogeneously; and allowing the dispersed oil medium to polymerize by heating, wherein the temperature of the reactor is slowly raised so as to cause polymerization to take place at 50°C through 80°C, and then further raising the temperature to 85°C through 95°C for heat-treatment, wherein the porous agent is a combination of a good solvent, which is at least one selected from trimethylbenzene, toluene, xylene and 2-ethylhexanol, and a poor solvent, which is at least one selected from dioctyl phthalate, octane and nonane, the content of the good solvent is not less than 60 wt% and not more than 85 wt% relative to the total weight of the porous agent, the crosslinking agent is used at a ratio of 20 to 60 wt% relative to the monomer, and wherein the polymerization initiator is a combination of a main polymerization initiator and an auxiliary polymerization initiator having a 10-hour half-life temperature lower than that of the main polymerization initiator; and (B) supporting a rhodium complex on the manufactured vinylpyridine resin. (A) manufacturing a vinylpyridine resin to be used for a catalyst carrier, comprising: mixing an oil medium containing vinylpyridine monomers, divinylbenzene as a crosslinking agent, porous agents and polymerization initiators, and an aqueous medium; dispersing the oil medium in the aqueous medium homogeneously; and allowing the dispersed oil medium to polymerize by heating, wherein the temperature of the reactor is slowly raised so as to cause polymerization to take place at 50°C through 80°C, and then further raising the temperature to 85°C through 95°C for heat-treatment, wherein the porous agent is a combination of a good solvent, which is at least one selected from trimethylbenzene, toluene, xylene and 2-ethylhexanol, and a poor solvent, which is at least one selected from dioctyl phthalate, octane and nonane, the content of the good solvent is not less than 60 wt% and not more than 85 wt% relative to the total weight of the porous agent, the crosslinking agent is used at a ratio of 20 to 60 wt% relative to the monomer, and wherein the polymerization initiator is a combination of a main polymerization initiator and an auxiliary polymerization initiator having a 10-hour half-life temperature lower than that of the main polymerization initiator; and (B) supporting a rhodium complex on the manufactured vinylpyridine resin.
An apparatus comprising: a controller to instruct a build platform to support a plurality of layers of build material in a build zone , wherein the build platform is moveable during a build of a three-dimensional object to change the size of the build zone ; wherein the controller is to determine respective displacements of the build platform to successively receive each of the plurality of layers of build material in the build zone during the build, wherein at least one of the respective displacements is based on data determined from a three-dimensional object obtained in a previous build. a controller to instruct a build platform to support a plurality of layers of build material in a build zone , wherein the build platform is moveable during a build of a three-dimensional object to change the size of the build zone ; wherein the controller is to determine respective displacements of the build platform to successively receive each of the plurality of layers of build material in the build zone during the build, wherein at least one of the respective displacements is based on data determined from a three-dimensional object obtained in a previous build.
A program play control method, comprising: reading section data from received transport stream, TS, data packets, and saving the section data in a nonvolatile memory without parsing the section data, wherein the section data carries program specific information, PSI, to which audio/video data carried in the TS data packets correspond, and system information, SI ; storing section data index information in the nonvolatile memory , wherein the section data index information comprises a data type of the section data and data length information of the section data, and the data length information of the section data comprises start byte information of the section data and a length of the section data ; if audio/video data carried in a TS packet needs to be played, reading the section data index information and reading the section data by using the section data index information, and parsing the section data to obtain the PSI and the SI, and saving the PSI and the SI by using a dynamically allocated memory (903; 202); and reading the PSI from the dynamically allocated memory , playing, according to the PSI, the audio/video data carried in the TS packet corresponding to the PSI, reading the SI from the dynamically allocated memory , and displaying the SI . reading section data from received transport stream, TS, data packets, and saving the section data in a nonvolatile memory without parsing the section data, wherein the section data carries program specific information, PSI, to which audio/video data carried in the TS data packets correspond, and system information, SI ; storing section data index information in the nonvolatile memory , wherein the section data index information comprises a data type of the section data and data length information of the section data, and the data length information of the section data comprises start byte information of the section data and a length of the section data ; if audio/video data carried in a TS packet needs to be played, reading the section data index information and reading the section data by using the section data index information, and parsing the section data to obtain the PSI and the SI, and saving the PSI and the SI by using a dynamically allocated memory (903; 202); and reading the PSI from the dynamically allocated memory , playing, according to the PSI, the audio/video data carried in the TS packet corresponding to the PSI, reading the SI from the dynamically allocated memory , and displaying the SI .
A fluidic centripetal device for testing components of a biological material in a fluid, said fluidic centripetal device comprising: a shape adapted to be received within a rotatable holder ;, a fluidic component layer having fluidic features on at least a front face, said fluidic features including : a fluid entry channel ; a retention chamber for receiving said fluid, said retention chamber being coupled to said fluid entry channel for receiving fluid from said fluid entry channel; a container wholly provided in said retention chamber , said container containing a liquid diluent , said container further comprising a first sensitive phase-change material for releasing said diluent inside the retention chamber; and a bottom component layer bonded to said fluidic component layer , the fluidic component layer and the bottom component layer creating a fluidic network for circulating said fluid, said fluid flowing through said fluidic network under centripetal force. a shape adapted to be received within a rotatable holder ;, a fluidic component layer having fluidic features on at least a front face, said fluidic features including : a fluid entry channel ; a retention chamber for receiving said fluid, said retention chamber being coupled to said fluid entry channel for receiving fluid from said fluid entry channel; a container wholly provided in said retention chamber , said container containing a liquid diluent , said container further comprising a first sensitive phase-change material for releasing said diluent inside the retention chamber; and a fluid entry channel ; a retention chamber for receiving said fluid, said retention chamber being coupled to said fluid entry channel for receiving fluid from said fluid entry channel; a container wholly provided in said retention chamber , said container containing a liquid diluent , said container further comprising a first sensitive phase-change material for releasing said diluent inside the retention chamber; and a bottom component layer bonded to said fluidic component layer , the fluidic component layer and the bottom component layer creating a fluidic network for circulating said fluid, said fluid flowing through said fluidic network under centripetal force.
Expansion bolt, comprising - a bolt with an end-face anchoring means for anchoring the bolt on or in a first assembly part in a tension-resistant manner, said bolt having a truncated conical cone section and a threaded bolt section in the bolt end portion which lies opposite the anchoring means , with a nut screwed thereon, - an expansion sleeve with a cylindrical lateral surface and with an inner conical contour which interacts with the cone section of the bolt and - a clamping device which is supported on a second assembly part for expanding the expansion sleeve and for applying an axial clamping force to the assembly parts which are to be connected together, characterised in that the cone section of the bolt tapers in the direction towards its anchoring means , and the inner cone contour of the expansion sleeve tapers in the same direction, that the expansion sleeve carries, on the end opposite the inner conical contour , a clamping flange which protrudes outwards in the radial direction, and that the clamping device comprises a clamping ring with an axial through-opening , wherein the expansion sleeve passes through the through-opening so as to permit the expansion sleeve to be adjusted in the axial direction relative to the clamping ring , and with its clamping flange protrudes beyond a clamping device edge region which surrounds the through-opening, as well as multiple pressing bolts arranged distributed over the circumference, the threads of which mesh with inner threaded bores that pass through the clamping ring in the axial direction, and the bases of which act directly or indirectly against the second assembly part in order to expand the expansion sleeve and apply an axial clamping force to the assembly parts which are to be clamped together. - a bolt with an end-face anchoring means for anchoring the bolt on or in a first assembly part in a tension-resistant manner, said bolt having a truncated conical cone section and a threaded bolt section in the bolt end portion which lies opposite the anchoring means , with a nut screwed thereon, - an expansion sleeve with a cylindrical lateral surface and with an inner conical contour which interacts with the cone section of the bolt and - a clamping device which is supported on a second assembly part for expanding the expansion sleeve and for applying an axial clamping force to the assembly parts which are to be connected together,
A system for testing a device under test with respect to a far-field region of the device under test, the system comprising: the device under test , a test unit , and an antenna connected to the test unit , wherein the test unit is configured to determine several samples of measured power values at different distances between the antenna and the device under test , and wherein the test unit is configured to calculate a minimum far-field distance, the system being characterized by : the test unit is configured to calculate the minimum far-field distance on the basis of the several samples of measured power values, wherein the region in which the decay of the intensity of the radiation radiated by the device under test measured at the antenna with increasing distance is stronger as proportional to the square of the distance is decided to be the near-field, and the region in which the decay of the intensity of the radiation radiated by the device under test measured at the antenna with increasing distance is proportional to the square or less to the square of the distance is decided to be the far-field. the device under test , a test unit , and an antenna connected to the test unit , wherein the test unit is configured to determine several samples of measured power values at different distances between the antenna and the device under test , and wherein the test unit is configured to calculate a minimum far-field distance, the system being characterized by : the test unit is configured to calculate the minimum far-field distance on the basis of the several samples of measured power values, wherein the region in which the decay of the intensity of the radiation radiated by the device under test measured at the antenna with increasing distance is stronger as proportional to the square of the distance is decided to be the near-field, and the region in which the decay of the intensity of the radiation radiated by the device under test measured at the antenna with increasing distance is proportional to the square or less to the square of the distance is decided to be the far-field. the test unit is configured to calculate the minimum far-field distance on the basis of the several samples of measured power values, wherein the region in which the decay of the intensity of the radiation radiated by the device under test measured at the antenna with increasing distance is stronger as proportional to the square of the distance is decided to be the near-field, and the region in which the decay of the intensity of the radiation radiated by the device under test measured at the antenna with increasing distance is proportional to the square or less to the square of the distance is decided to be the far-field.