mhurhangee/ep-ind-claims huggingface dataset:
Method for sterilising bottles or similar containers by the introduction of at least one heated treatment medium into the containers, which during the treatment are moved by at least one transporter (8, 14, 17) on at least one treatment section which is formed between a start position and an end position for the initiating and ending of the treatment, wherein the container temperature after the treatment is detected by means of at least one temperature sensor (20, 21, 22, 22'), characterised in that the length of the at least one treatment section is changed in a controlled or regulated manner in such a way that the measured container temperature (T1, T2, T3) corresponds, at least within a specified tolerance range, to a reference temperature (T1 Ref., T2 Ref., T3 Ref.).
Method for managing traffic-influencing equipment, wherein at least one traffic-influencing equipment has a memory, wherein a representative of information about this traffic-influencing equipment is stored in the memory in a retrievable manner, wherein the representative has a smaller binary size than the information, wherein the information is stored in a database in a manner linked to the representative for inventorization, wherein the representative is remotely read-out from the memory, the database is accessed, and the information assigned to the representative is read-out from the database, and displayed.
A process comprising: forming a conductive film comprising a plurality of interconnecting anisotropically shaped nanostructures; and etching the conductive film according to a pattern to provide an unetched region having a first resistivity, a first transmission and a first haze and an etched region having a second resistivity, a second transmission and a second haze; wherein the etching comprises contacting the conductive film with an etchant solution, wherein the etchant solution includes an oxidizer and a halide, and severing at least some nanostructures of the etched region, and wherein said second resistivity of said etched region is higher than said first resistivity of said unetched region, a ratio of the second resistivity over the first resistivity is at least 1000; the first transmission differs from the second transmission by less than 5%, and the first haze differs from the second haze by less than 0.5%. forming a conductive film comprising a plurality of interconnecting anisotropically shaped nanostructures; and etching the conductive film according to a pattern to provide an unetched region having a first resistivity, a first transmission and a first haze and an etched region having a second resistivity, a second transmission and a second haze; wherein the etching comprises contacting the conductive film with an etchant solution, wherein the etchant solution includes an oxidizer and a halide, and severing at least some nanostructures of the etched region, and wherein said second resistivity of said etched region is higher than said first resistivity of said unetched region, a ratio of the second resistivity over the first resistivity is at least 1000; the first transmission differs from the second transmission by less than 5%, and the first haze differs from the second haze by less than 0.5%.
Subassembly comprising - a comparison point having a first connecting terminal and a second connecting terminal for connecting a thermocouple, - an evaluation circuit which is connected to the first connecting terminal and to the second connecting terminal, - a first temperature sensor for recording an ambient temperature at the comparison point, - a correction circuit which is connected to the first temperature sensor, a connected thermocouple being able to be used to record a first temperature at a measuring point and the first temperature sensor being able to be used to record a second temperature at the comparison point and the correction circuit being able to be used to determine a correction value for the first temperature, characterized in that the first temperature sensor is in the form of a fibre-optic temperature sensor and the correction circuit is configured to convert radiation forwarded to the correction circuit by the fibre-optic temperature sensor into the correction value, the fibre-optic temperature sensor having an optical waveguide (11, 12) and being configured to pass infrared radiation directly from the connecting terminal (3, 4) to the correction circuit which has an infrared detector (13, 14), the optical waveguide (11, 12) being flexibly guided by the correction circuit through a housing of the subassembly into a front connector. - a comparison point having a first connecting terminal and a second connecting terminal for connecting a thermocouple, - an evaluation circuit which is connected to the first connecting terminal and to the second connecting terminal, - a first temperature sensor for recording an ambient temperature at the comparison point, - a correction circuit which is connected to the first temperature sensor,
A personal care device comprising: an image capture device adapted, in use, to capture images of one or more features of a user; vibratory means adapted to vibrate the personal care device so that, in use, the personal care device vibrates with a vibration cycle having a vibration frequency; a sensor arrangement adapted to sense an operating parameter of the personal care device; and a control unit adapted to determine a target part of the vibration cycle based on the sensed operating parameter and to control the image capture device based on the target part of the vibration cycle. an image capture device adapted, in use, to capture images of one or more features of a user; vibratory means adapted to vibrate the personal care device so that, in use, the personal care device vibrates with a vibration cycle having a vibration frequency; a sensor arrangement adapted to sense an operating parameter of the personal care device; and a control unit adapted to determine a target part of the vibration cycle based on the sensed operating parameter and to control the image capture device based on the target part of the vibration cycle.
Process for the synthesis of 5-fluoro-1H-pyrazoles of the general formula, wherein a compound of formula (c) is reacted with a hydrazine of formula (b) R 1 -NH-NH 2 (b), wherein R 1 is selected from C 1 -C 6 alkyl; R 2 is a trihalomethyl moiety with at least one fluorine atom; and R 3 is selected from C 1 -C 5 haloalkyl, wherein Kat is selected from Li +, Na +, K +, Cs +, (NAlkyl 4) +, (HNAlkyl 3) +., and wherein the reaction is performed at temperatures ranging from -5°C to 50 °C in a solvent selected from dichloromethane, dichloroethane, acetonitrile and butyronitrile. R 1 is selected from C 1 -C 6 alkyl; R 2 is a trihalomethyl moiety with at least one fluorine atom; and R 3 is selected from C 1 -C 5 haloalkyl, wherein Kat is selected from Li +, Na +, K +, Cs +, (NAlkyl 4) +, (HNAlkyl 3) +., and wherein the reaction is performed at temperatures ranging from -5°C to 50 °C in a solvent selected from dichloromethane, dichloroethane, acetonitrile and butyronitrile.
An IGF1R inhibitor, or a pharmaceutical composition thereof, in combination with an mTOR inhibitor, or a pharmaceutical composition thereof, for use in a method of treating non-small cell lung cancer (NSCLC) in a subject, wherein the IGF1R inhibitor comprises an antibody, wherein the antibody is ganitumab, and wherein the mTOR inhibitor comprises everolimus.
Energy harvesting device comprising: - a first layer of electrically conductive textile fabric material, - a second layer of electrically conductive textile fabric material, - a layer of piezoelectric polymer film arranged between the first and the second electrically conductive textile layers, wherein the piezoelectric polymer film layer is laminated between the first and second electrically conductive textile layer by using an outer protective Polyurethane layer. - a first layer of electrically conductive textile fabric material, - a second layer of electrically conductive textile fabric material, - a layer of piezoelectric polymer film arranged between the first and the second electrically conductive textile layers,
A plasma etching chamber adapted to etch only the periphery of a wafer by mounting the wafer on a stage such that the periphery of the wafer is positioned between ring-shaped top and bottom electrodes, blowing a nitrogen gas to the center of the wafer through the center of a top-sided stem while making a non-discharged region, and blowing a reaction gas to the periphery of the stem to make a gas discharge, the plasma etching chamber comprising: a stage and a cathode mounted within the stage to apply radio frequency to the wafer; a ring-shaped bottom anode placed at the outer circumference of the stage while being positioned lower than the periphery of the wafer; a stem installed over the stage such that the stem moves up and down; an insulator attached to the bottom surface of the stem with a concave portion, the concave portion being formed at the center of the bottom surface of the stem while facing the top surface of the stage; and a ring-shaped top anode placed at the outer circumference of the insulator while interposing a reaction gas outlet such that a plasma is generated between the periphery of the wafer and the ring-shaped top and bottom anodes (36, 22); characterized in that a groove is formed at the periphery of the insulator to make a point of inflection in the flow of the reaction gas. a stage and a cathode mounted within the stage to apply radio frequency to the wafer; a ring-shaped bottom anode placed at the outer circumference of the stage while being positioned lower than the periphery of the wafer; a stem installed over the stage such that the stem moves up and down; an insulator attached to the bottom surface of the stem with a concave portion, the concave portion being formed at the center of the bottom surface of the stem while facing the top surface of the stage; and a ring-shaped top anode placed at the outer circumference of the insulator while interposing a reaction gas outlet such that a plasma is generated between the periphery of the wafer and the ring-shaped top and bottom anodes (36, 22); characterized in that a groove is formed at the periphery of the insulator to make a point of inflection in the flow of the reaction gas.
A stitch imaging system using a plurality of radiographic imaging means (102a, 102b, 102c) that overlap each other, the stitch imaging system comprising: an information acquisition means configured to acquire information indicating a layout relationship among the plurality of radiographic imaging means (102a, 102b, 102c); a storage means configured to store correction data for reducing a structure image of the overlapped radiographic imaging means (102a, 102b, 102c) from the radiographic image; and a correction means configured to correct a radiographic image or radiographic images acquired from at least one of the plurality of radiographic imaging means (102a, 102b, 102c), which have been specified on the basis of the information indicating the layout relationship, based on correction data which have been stored by the storage means and specified on the basis of the information indicating the layout relationship. an information acquisition means configured to acquire information indicating a layout relationship among the plurality of radiographic imaging means (102a, 102b, 102c); a storage means configured to store correction data for reducing a structure image of the overlapped radiographic imaging means (102a, 102b, 102c) from the radiographic image; and a correction means configured to correct a radiographic image or radiographic images acquired from at least one of the plurality of radiographic imaging means (102a, 102b, 102c), which have been specified on the basis of the information indicating the layout relationship, based on correction data which have been stored by the storage means and specified on the basis of the information indicating the layout relationship.
A rotor structure of a rotary machine wherein a rotor is fastened at an outer peripheral surface of a shaft, a positioning key is formed at an inner wall of said rotor such as to protrude along the radius direction towards an inner side of the rotor, and a key groove into which said positioning key is fitted is formed at an outer peripheral surface of said shaft, characterized in that both side surfaces of the positioning key in the peripheral direction are provided with round concave portions.
A video decoding method, comprising: obtaining, from a bitstream, an index of predicted motion information of a current image block in a candidate predicted motion information list, wherein the predicted motion information comprises reference image information and a motion vector prediction value, and candidate predicted motion information in the candidate predicted motion information list is motion information of an adjacent block of the current image block in time domain or space domain; querying the candidate predicted motion information list based on the index, and using the found candidate predicted motion information as the predicted motion information; determining a correspondence between a motion vector difference value and a motion vector prediction value, and obtaining the motion vector difference value from the bitstream; and correcting the motion vector prediction value by adding the motion vector difference value to obtain a motion vector of the current image block, wherein when the prediction mode is a bidirectional prediction, the predicted motion information comprises two motion vector prediction values: a first motion vector prediction value and a second motion vector prediction value, wherein the method is characterized in that there is only one motion vector difference value obtained from the bitstream and the motion vector difference value is reused for correcting the motion vector prediction values by adding the same motion vector difference value to the first motion vector prediction value and the second motion vector prediction value. obtaining, from a bitstream, an index of predicted motion information of a current image block in a candidate predicted motion information list, wherein the predicted motion information comprises reference image information and a motion vector prediction value, and candidate predicted motion information in the candidate predicted motion information list is motion information of an adjacent block of the current image block in time domain or space domain; querying the candidate predicted motion information list based on the index, and using the found candidate predicted motion information as the predicted motion information; determining a correspondence between a motion vector difference value and a motion vector prediction value, and obtaining the motion vector difference value from the bitstream; and correcting the motion vector prediction value by adding the motion vector difference value to obtain a motion vector of the current image block, wherein when the prediction mode is a bidirectional prediction, the predicted motion information comprises two motion vector prediction values: a first motion vector prediction value and a second motion vector prediction value, wherein the method is characterized in that there is only one motion vector difference value obtained from the bitstream and the motion vector difference value is reused for correcting the motion vector prediction values by adding the same motion vector difference value to the first motion vector prediction value and the second motion vector prediction value.
Acousto-optical modulator apparatus, being configured for acousto-optically deflecting a laser beam, comprising - a gas-filled volume including a working gas and having an input section and an output section, being arranged for receiving the laser beam along an incidence light path via the input section and for transmitting the laser beam along a deflection light path via the output section, and - an ultra-sound transducer device being arranged for creating an ultra-sound field intersecting the incidence light path in an interaction region within the gas-filled volume and creating a periodic density modulation of the working gas in the interaction region, wherein the ultra-sound transducer device is capable of deflecting the laser beam in the interaction region by Bragg-diffraction in the ultra-sound field, so that the deflection light path has a direction deviating from the direction of the incidence light path, - the ultra-sound transducer device is configured for focusing the ultra-sound field in the working gas in the interaction region, characterized in that - the gas-filled volume is arranged for keeping the working gas at a working pressure below 10 bar, and - the input section and the output section are capable of transmitting the laser beam with a laser centre wavelength included in a wavelength range from mid-IR to XUV. - a gas-filled volume including a working gas and having an input section and an output section, being arranged for receiving the laser beam along an incidence light path via the input section and for transmitting the laser beam along a deflection light path via the output section, and - an ultra-sound transducer device being arranged for creating an ultra-sound field intersecting the incidence light path in an interaction region within the gas-filled volume and creating a periodic density modulation of the working gas in the interaction region, wherein the ultra-sound transducer device is capable of deflecting the laser beam in the interaction region by Bragg-diffraction in the ultra-sound field, so that the deflection light path has a direction deviating from the direction of the incidence light path, - the ultra-sound transducer device is configured for focusing the ultra-sound field in the working gas in the interaction region, characterized in that - the gas-filled volume is arranged for keeping the working gas at a working pressure below 10 bar, and - the input section and the output section are capable of transmitting the laser beam with a laser centre wavelength included in a wavelength range from mid-IR to XUV.
A one-piece metal orifice tube adapted for use in a solenoid valve, with the one-piece metal orifice tube comprising a metal tube portion including a proximal end and a distal end, with the distal end being adapted to extend into an electromagnet bore of an electromagnet of the solenoid valve, and an orifice end formed in the proximal end, with the orifice end including an orifice that is smaller in diameter than a tube inside diameter D of the metal tube portion and with the metal tube portion being adapted to slidably receive at least a portion of an armature of a solenoid valve, wherein in operation the armature substantially blocks and unblocks the orifice, with the one-piece metal orifice tube being characterized by: the orifice end comprising a portion of the metal tube portion that has been deformed to extend at least partially inwardly and with at least a portion of the orifice end curling back toward the distal end; and one or more side ports formed in the orifice tube such that unblocking the orifice allows for fluid flow through the one or more side ports. the orifice end comprising a portion of the metal tube portion that has been deformed to extend at least partially inwardly and with at least a portion of the orifice end curling back toward the distal end; and one or more side ports formed in the orifice tube such that unblocking the orifice allows for fluid flow through the one or more side ports.
A water-abrasive suspension cutting system with a high-pressure source which provides water at a high pressure, with at least one exit nozzle and with a high-pressure conduit which connects the high-pressure source to the exit nozzle, wherein an abrasive agent feed device connected to the high-pressure conduit is provided, characterised in that the abrasive agent feed device comprises a lock with a rotary body which is rotatably driven about a rotation axis D, the rotary body in a peripheral region extending about the rotation axis D is provided with several recesses which are peripherally distanced to one another, and that a run-out of an abrasive agent feed conduit, and an entry opening into the high-pressure conduit lie opposite the peripheral region, in a manner such that the recesses are alternately movable into a position lying opposite the run-out and a position lying opposite the entry opening, by way of rotating the rotary body about the rotation axis D.
A method for implementing Boolean logic operations in a resistive nonvolatile crosspoint memory array comprising: selecting the logical Boolean operation by selecting a reference row and a column in the crosspoint memory array and inputting a preset/reset value to an amplifier in a sense circuit; applying an input voltage to the reference row to produce a setup voltage; storing the setup voltage in a storage element in the sense circuit; selecting data rows intersecting the selected column in the crosspoint memory array, in which crosspoint devices at the intersection of the selected data rows and the selected column store data values to be operated on by the Boolean logic operation; applying the input voltage to the selected data rows to produce a sense voltage; comparing the sense voltage to the setup voltage with a comparator; outputting a voltage pulse from the comparator if the sense voltage is different than the setup voltage; if no voltage pulse if produced, then outputting from the amplifier, the preset/reset value to a latch; and if a voltage pulse is produced, then accepting, with the amplifier, the voltage pulse, modifying the preset/reset value, and then outputting the modified preset/reset value to the latch. selecting the logical Boolean operation by selecting a reference row and a column in the crosspoint memory array and inputting a preset/reset value to an amplifier in a sense circuit; applying an input voltage to the reference row to produce a setup voltage; storing the setup voltage in a storage element in the sense circuit; selecting data rows intersecting the selected column in the crosspoint memory array, in which crosspoint devices at the intersection of the selected data rows and the selected column store data values to be operated on by the Boolean logic operation; applying the input voltage to the selected data rows to produce a sense voltage; comparing the sense voltage to the setup voltage with a comparator; outputting a voltage pulse from the comparator if the sense voltage is different than the setup voltage; if no voltage pulse if produced, then outputting from the amplifier, the preset/reset value to a latch; and if a voltage pulse is produced, then accepting, with the amplifier, the voltage pulse, modifying the preset/reset value, and then outputting the modified preset/reset value to the latch.
Method for nondestructively testing in particular planar objects made of a fibre composite material, preferably in aviation applications, which is in at least single-layer form, wherein a transmitting transducer is used to generate an ultrasonic signal in the object that, after propagating in the object, is detected by means of a receiving transducer, wherein the ultrasonic signal is generated as an electromagnetic ultrasonic signal by the at least one transmitting transducer, which is in the form of an EMUS transducer, by means of a conductive layer arranged on the surface of the object or in said object, wherein an evaluation apparatus is used to utilize the ultrasonic signal detected by means of the at least one receiving transducer that is in the form of an EMUS transducer in order to determine a defect in the form of a delamination, a porefield or other such planar inhomogeneities, characterized in that the defect is determined by virtue of the local phase velocity and/or the local wavelength of the received ultrasonic signal at the location of the receiving transducer being determined in the evaluation apparatus and used to determine the depth of the defect.