mhurhangee/ep-ind-claims huggingface dataset:
An image capturing apparatus including a mounting part for enabling attachment and detachment of a device, comprising: generating means for generating a command; and communicating means for, in a state where a device having a function of executing the analysis processing is attached to the mounting part, transmitting an image to the device, transmitting an execution instruction for executing the analysis processing on the image, and receiving a processing result of the analysis processing obtained according to the execution instruction, characterized in that the image capturing apparatus comprises a determining means configured to determine whether or not the processing result of the analysis processing indicates that a clock signal for processing is unstable; wherein the communicating means is configured to transmit the command to the device if the determining means determines that the processing result of the analysis processing indicates that the clock signal for processing is unstable and the command includes a request for clock resetting for causing the device to reset the clock signal for processing to be used to execute analysis processing. generating means for generating a command; and communicating means for, in a state where a device having a function of executing the analysis processing is attached to the mounting part, transmitting an image to the device, transmitting an execution instruction for executing the analysis processing on the image, and receiving a processing result of the analysis processing obtained according to the execution instruction, characterized in that the image capturing apparatus comprises a determining means configured to determine whether or not the processing result of the analysis processing indicates that a clock signal for processing is unstable; wherein the communicating means is configured to transmit the command to the device if the determining means determines that the processing result of the analysis processing indicates that the clock signal for processing is unstable and the command includes a request for clock resetting for causing the device to reset the clock signal for processing to be used to execute analysis processing.
Device that can be mounted as a structural unit on a membrane separation apparatus or integrated into a membrane separation apparatus for operating the membrane separation apparatus in the throughflow method, wherein a feed liquid can be separated in the membrane separation apparatus into a concentrate and a permeate, and a flow rate of the permeate and/or a permeate yield depends on at least one influencing variable that varies during operation, comprising a base body having at least one first channel through which the concentrate can flow and at least one second channel through which the permeate can flow, and a control device, wherein a desired value for the flow rate of the permeate and/or the permeate yield can be predefined on the control device and the control device comprises a control unit for generating an actuating signal for a flow rate of the concentrate in order to compensate for a change in the at least one variable influencing variable, in order to control the flow rate of the permeate to the desired value and/or to control the permeate yield to the desired value, wherein, in the at least one first channel, an actuator that can be actuated by means of the actuating signal to vary the flow rate of the concentrate, and at least one sensor device for measuring the flow rate of the concentrate are provided and, in the at least one second channel, a second sensor device for measuring the flow rate of the permeate in the at least one second channel is provided, and an ion concentration sensor device is assigned to the first or the second channel to measure an ion concentration.
A method to geosteer a downhole assembly, the method comprising: analyzing (304,604) data related to a geological formation; generating (306,614) a geological model based upon the data related to the geological formation, wherein, generating (312,618) a rug plot which reflects a left and right orientation along a True Vertical Depth ("TVD") slice within the geological model; and geosteering the downhole assembly using the rug plot. analyzing (304,604) data related to a geological formation; generating (306,614) a geological model based upon the data related to the geological formation, wherein, generating (312,618) a rug plot which reflects a left and right orientation along a True Vertical Depth ("TVD") slice within the geological model; and geosteering the downhole assembly using the rug plot.
Electrically driven shaver comprising a shaver housing and a shaving head arranged on said shaver housing, at least one shaving or cutting part (4, 5) which can be driven by an electric motor arranged in the shaver housing being mounted on the shaving head, wherein at least one electrically operable active thermal element is provided, wherein a side of the thermal element that can be cooled relative to the ambient temperature is thermally coupled to a passive cooling element (6; 16), wherein the passive cooling element (6; 16) comes to be situated with at least one free end segment (20, 21) on or in the region of the shaving head such that it arrives in contact with the skin of a user during shaving operation, characterized in that the entire shaving head is mounted in a spring-loaded manner relative to the shaving housing, wherein the passive cooling element is connected rigidly to the shaver housing or to the shaving head.
An installation for the preparation of hydrogen cyanide HCN, said installation comprising an Andrussow type reactor, in which is introduced a reactant gases mixture of methane-containing gas, ammonia and oxygen-enriched air, said mixture reacting inside said reactor over a catalyst to produce HCN, said installation comprising, upstream of said Andrussow type reactor according to the direction of gas flow, gas feeding pipes (P1 to P4) for feeding the installation with each reactant gas, a first unit for pre-mixing oxygen with air before adding methane-containing gas and ammonia into the obtained pre-mixture of oxygen-enriched air, said installation being characterized in that said first unit comprises at least one oxygen online controller so as to control the ratio of oxygen into air, said ratio having to be comprised between 20,95% and 32,5%, preferably between 25% and 30,5% in volume of oxygen; said installation comprising a second unit for adding simultaneously methane-containing gas and ammonia into the oxygen-enriched air, with a volumic ratio of methane to ammonia, which has to be comprised between 1,35 and 1,02 depending on the proportion of oxygen into the oxygen-enriched air; said installation further comprising at least one heat exchanger for heating at least one of the reactant gases, in order to have a temperature of said reactant gases mixture feeding said Andrussow type reactor comprised between 95°C and 115°C, and that it comprises a static mixer designed to homogenize the composition of the reactant gases mixture before its introduction into the Andrussow type reactor and that it comprises a second static mixer designed to homogenize the composition of oxygen-enriched air before the addition of methane containing gas and ammonia and that the second unit is a premixing unit for premixing the methane-containing gas with ammonia that further comprises a third static mixer designed to homogenize the pre-mixture of methane containing gas and ammonia before its introduction into oxygen enriched air stream and adding the obtained pre-mixture into the oxygen-enriched air.
The compound -N'-(3,5-dibromo-2,4-dihydroxybenzylidene)-2-(m-tolylamino)acetohydrazide or a salt thereof, for use in a method of treating cystic fibrosis in a subject in need thereof.
Navigation system for ascertaining qualified special destinations having a database, in which traffic nodes (8, 9, 10, 11, 12, 43, 44, 45, 46, 47, 48) and path sections (25, 26, 27, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42) connecting them and the properties thereof are stored, having a route computation device, wherein special destinations (16, 17, 18, 19, 20, 21, 22, 23, 48) stored in the database are linked in each case to one or more traffic nodes in the form of connecting nodes (10, 11, 12, 43), in particular highway exits, and wherein each special destination is assigned with respect to each connecting node that is linked thereto at least one total path length of a first total path connecting the special destination and the connecting node, characterized in that at least in the case where the first total path has a use limitation, the special destination and the connecting node are also assigned at least the total path length of a second total path which has lower use limitations at least with respect to one limitation parameter.
A method for removing the core from a cast part by destroying at least one core located inside the cast part, wherein in a step i), a dissociation energy required for destroying the core is determined, wherein, in a step ii), at least an energy equivalent to the dissociation energy determined in step i) is transmitted to the core via the cast part, wherein the energy transmitted in step ii) is lower than a deformation energy required for deforming the cast part, wherein, in step i), the dissociation energy required for destroying the at least one core is determined taking into account a shrinkage of the material forming the cast part during the solidification process of the material, wherein, in step i), a change in volume of the cast part during the solidification process is determined from the shrinkage of the material, and a binding energy of the core is determined at least on the basis of the change in volume, wherein, in step i), at least a pressure exerted on the core by the material during the shrinking of the material the cast part is formed of is determined, and the binding energy of the core is calculated on the basis of at least a pressure distribution in the core during the shrinking of the material, wherein, in step i), the dissociation energy required for destroying the core is calculated from the binding energy of the core. in a step i), a dissociation energy required for destroying the core is determined, wherein, in a step ii), at least an energy equivalent to the dissociation energy determined in step i) is transmitted to the core via the cast part, wherein the energy transmitted in step ii) is lower than a deformation energy required for deforming the cast part, wherein, in step i), the dissociation energy required for destroying the at least one core is determined taking into account a shrinkage of the material forming the cast part during the solidification process of the material, wherein, in step i), a change in volume of the cast part during the solidification process is determined from the shrinkage of the material, and a binding energy of the core is determined at least on the basis of the change in volume, wherein, in step i), at least a pressure exerted on the core by the material during the shrinking of the material the cast part is formed of is determined, and the binding energy of the core is calculated on the basis of at least a pressure distribution in the core during the shrinking of the material, wherein, in step i), the dissociation energy required for destroying the core is calculated from the binding energy of the core.
A method for producing an igniter socket for pyrotechnical systems, comprising the following steps: - an embossing step in which a preliminary outer contour of a base body of the igniter socket is embossed by forming a cylinder jacket surface and a shoulder which adjoins the cylinder jacket surface, wherein a generating straight line of the cylinder jacket surface is parallel to the embossing direction, - a scraping step in which at least the cylinder jacket surface is scraped off substantially in the direction of the generating straight line, and - a punching step in which the shoulder is removed. - an embossing step in which a preliminary outer contour of a base body of the igniter socket is embossed by forming a cylinder jacket surface and a shoulder which adjoins the cylinder jacket surface, wherein a generating straight line of the cylinder jacket surface is parallel to the embossing direction, - a scraping step in which at least the cylinder jacket surface is scraped off substantially in the direction of the generating straight line, and - a punching step in which the shoulder is removed.
A formulation, used in the method for manufacturing flexible, inexpensive, hydrophobic, having high reactive index value with a UV-blocking feature and smooth surfaces suitable for intraocular-use lenses by photopolymerization, characterized in that the formulation comprises between 20 to 80 percent by weight acrylate and / or methacrylate-based oligomer as a binder, between 5 to 40 percent by weight acrylate and / or methacrylate-based monomer as a reactive diluent, between 1 to 5 percent by weight acrylate and /or methacrylate-based UV blocker for absorbing light, and between 0.1 to 5 percent by weight photoinitiator to initiate the reaction.
A baler machine comprising a system configured to receive a plant material, and to aggregate, compress, shape, and secure the plant material into a plurality of bales, the system comprising: a near-infrared testing system configured to receive near-infrared radiation reflected by the plant material in at least one bale of the plurality of bales and to analyze the near-infrared radiation and generate evaluation data reflecting one or more properties of the plant material in the at least one bale, wherein the near-infrared testing system is calibrated using a calibration sample at a calibration temperature; characterised in that the system further comprises a temperature sensor configured to measure a sample temperature of a crop sample of the plant material; a computer configured to receive and combine the evaluation data of the plant material and a temperature-difference offset based on a temperature difference value to account for difference in the sample temperature of the crop sample and the calibration temperature to produce overall temperature-compensated evaluation data reflecting one or more overall property values for the bale, and assign the overall temperature-compensated evaluation data to the at least one bale of the plurality of bales. a near-infrared testing system configured to receive near-infrared radiation reflected by the plant material in at least one bale of the plurality of bales and to analyze the near-infrared radiation and generate evaluation data reflecting one or more properties of the plant material in the at least one bale, wherein the near-infrared testing system is calibrated using a calibration sample at a calibration temperature; characterised in that the system further comprises a temperature sensor configured to measure a sample temperature of a crop sample of the plant material; a computer configured to receive and combine the evaluation data of the plant material and a temperature-difference offset based on a temperature difference value to account for difference in the sample temperature of the crop sample and the calibration temperature to produce overall temperature-compensated evaluation data reflecting one or more overall property values for the bale, and assign the overall temperature-compensated evaluation data to the at least one bale of the plurality of bales.
A refrigeration cycle apparatus comprising: two reactors on two AC side input lines and connected in parallel; and a converter apparatus for conducting suppression of harmonics and power factor improvement by using semiconductor switching elements (5a, 5b; 101); whereby the converter apparatus is a single-phase converter apparatus; and characterised in that the reactors (3c, 3d) are disposed on or above a thermal conductive board having at least semiconductor elements (101, 116) mounted thereon, and used for suppression of harmonics and power factor improvement; on the thermal conductive board an insulating substance having a thermal conductivity for allowing heat generated by the reactors (3c, 3d) to be radiated by the thermal conductive board is filled to such a degree as to hide the reactors (3c, 3d). wherein the refrigeration cycle apparatus uses coolant that is higher in pressure than R22 as coolant; and wherein the reactors (3c, 3d) share a core. two reactors on two AC side input lines and connected in parallel; and a converter apparatus for conducting suppression of harmonics and power factor improvement by using semiconductor switching elements (5a, 5b; 101);
Device for cleaning the surfaces of insides of pipes, comprising, at one end, an inlet with sealing for applying abrasives to the surfaces of the insides of pipes and, at the other end, a sealed-off outlet with a suction hose and applied vacuum, wherein the two parts are provided at opposite ends (1a, 1b) of the pipe or pipe portion to be cleaned and either remain static at the pipe ends or are moved in a mobile manner through the pipe, and therefore are suitable for briefly applying abrasives to the surfaces of the insides of pipes and for removing them from the surface again using the vacuum, characterized in that a communication interface is provided which is suitable for receiving data from a sensor from the interior of a pipe and passing it on to a control unit for controlling a metering unit in the feed line for metering the abrasive.
A method for supporting multimedia broadcast/multicast services, MBMSs, performed by a network entity (111, 112), the network entity configured to control one or more base stations (115, 116) in a radio network subsystem (110, 120), the method comprising the steps of: allocating an MBMS identifier, ID, to a MBMS requested by a user equipment, UE; and transmitting a MBMS radio bearer information message to the UE, wherein the MBMS radio bearer information message includes the MBMS ID which is used to distinguish MBMSs mapped on each channel of each cell managed by the network entity, characterized in that: the MBMS ID is an MBMS ID having minimum value from among MBMS IDs which are not overlapped with MBMS IDs allocated to MBMSs different from the requested MBMS, the MBMSs being transmitted through a channel through which the requested MBMS is transmitted. allocating an MBMS identifier, ID, to a MBMS requested by a user equipment, UE; and transmitting a MBMS radio bearer information message to the UE, wherein the MBMS radio bearer information message includes the MBMS ID which is used to distinguish MBMSs mapped on each channel of each cell managed by the network entity, characterized in that: the MBMS ID is an MBMS ID having minimum value from among MBMS IDs which are not overlapped with MBMS IDs allocated to MBMSs different from the requested MBMS, the MBMSs being transmitted through a channel through which the requested MBMS is transmitted.
A printing apparatus comprising: a printhead to spit a printing fluid comprising a first mode and a second mode, wherein the first mode corresponds to using a first energy level to spit the printing fluid and a second mode corresponding to using a second energy level to spit the printing fluid, wherein the second energy level comprises a higher energy level than the first energy level; and a controller, characterised in that the controller is configured to: determine a decap risk zone associated with the printing fluid, determine in view of the decap risk zone a decap location, and instruct the printhead to spit using the second mode at the decap location. a printhead to spit a printing fluid comprising a first mode and a second mode, wherein the first mode corresponds to using a first energy level to spit the printing fluid and a second mode corresponding to using a second energy level to spit the printing fluid, wherein the second energy level comprises a higher energy level than the first energy level; and a controller, characterised in that the controller is configured to: determine a decap risk zone associated with the printing fluid, determine in view of the decap risk zone a decap location, and instruct the printhead to spit using the second mode at the decap location. determine a decap risk zone associated with the printing fluid, determine in view of the decap risk zone a decap location, and instruct the printhead to spit using the second mode at the decap location.
A method of manufacturing a rubber product (10, 11, 12), the method comprising: performing adhesion prevention treatment on uncrosslinked rubber powder, which is a material of the rubber product, to prevent mutual adhesion of the uncrosslinked rubber powder; and sequentially and repeatedly forming by supplying raw rubber powder, on which the adhesion prevention treatment has been performed, and irradiating the supplied portion with an electron beam to crosslink the irradiated portion, so that the crosslinked portion is stacked following a shape of the rubber product. performing adhesion prevention treatment on uncrosslinked rubber powder, which is a material of the rubber product, to prevent mutual adhesion of the uncrosslinked rubber powder; and sequentially and repeatedly forming by supplying raw rubber powder, on which the adhesion prevention treatment has been performed, and irradiating the supplied portion with an electron beam to crosslink the irradiated portion, so that the crosslinked portion is stacked following a shape of the rubber product.
A device made of elastomeric material for culturing in vitro muscle tissue, the device comprising: a base section; two pillars each protruding from the base section; and a wall section with an inner wall surface surrounding the pillars, and an outer wall surface, characterised in that: the wall section comprises at least two rib elements extending outwardly from the outer wall surface to an outer periphery of the device. a base section; two pillars each protruding from the base section; and a wall section with an inner wall surface surrounding the pillars, and an outer wall surface, characterised in that: the wall section comprises at least two rib elements extending outwardly from the outer wall surface to an outer periphery of the device.
A relay, comprising: a case; a relay body provided in the case; a light source, incorporated in the case, which is configured to emit light in accordance with an operation of the relay body; a light guide path which (i) is configured to receive, via a first end surface, the light emitted from the light source and (ii) to cause the light to exit outward from a second end surface; and a diffusion structure provided in an optical path of the light which exits from the second end surface of the light guide path, characterised by the light guide path having a thickness reduction part in a side surface thereof, the thickness reduction part extending between the first end surface and the second end surface and not reaching the first end surface. a case; a relay body provided in the case; a light source, incorporated in the case, which is configured to emit light in accordance with an operation of the relay body; a light guide path which (i) is configured to receive, via a first end surface, the light emitted from the light source and (ii) to cause the light to exit outward from a second end surface; and a diffusion structure provided in an optical path of the light which exits from the second end surface of the light guide path, characterised by the light guide path having a thickness reduction part in a side surface thereof, the thickness reduction part extending between the first end surface and the second end surface and not reaching the first end surface.