mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a pattern , the method comprising: providing a pattern of a first liquid and a colored ink on a print medium , the colored ink configured to restrain the first liquid from moving on the print medium , wherein: the colored ink is applied by an inkjet method after the first liquid is applied, and the first liquid is a reaction liquid configured to react with the colored ink; applying a powder material to the pattern , wherein the powder material comprises a thermoplastic resin; removing the powder material not adhering to the pattern to form a pattern of the powder material; heating and melting the formed pattern of the powder material; and adjusting a thickness of the pattern of the first liquid and the colored ink by reducing solvent content of the pattern between providing the pattern of the first liquid and the colored ink and applying the powder material to the pattern, wherein the colored ink is a pigment ink, and the first liquid comprises a metal salt configured to act on the pigment ink, and wherein the thickness of the pattern of the first liquid and the colored ink at the application of the powder material is 20% or less of the diameter of the particles of the powder material applied. providing a pattern of a first liquid and a colored ink on a print medium , the colored ink configured to restrain the first liquid from moving on the print medium , wherein: the colored ink is applied by an inkjet method after the first liquid is applied, and the first liquid is a reaction liquid configured to react with the colored ink; applying a powder material to the pattern , wherein the powder material comprises a thermoplastic resin; removing the powder material not adhering to the pattern to form a pattern of the powder material; heating and melting the formed pattern of the powder material; and adjusting a thickness of the pattern of the first liquid and the colored ink by reducing solvent content of the pattern between providing the pattern of the first liquid and the colored ink and applying the powder material to the pattern, wherein the colored ink is a pigment ink, and the first liquid comprises a metal salt configured to act on the pigment ink, and wherein the thickness of the pattern of the first liquid and the colored ink at the application of the powder material is 20% or less of the diameter of the particles of the powder material applied.
A method for a positioning node coupled to a radio access network, RAN, the method comprising: determining first spatial relations between downlink reference signals, DL-RS, and uplink reference signals, UL-RS, used for positioning in a first cell served by a first RAN node, wherein the first cell is a serving cell for a user equipment, UE; determining second spatial relations between DL-RS and UL-RS used for positioning in one or more second cells served by a second RAN node, wherein the second cells are neighbor cells to the first cell; and configuring the UE to transmit UL-RS according to the first and second spatial relations. determining first spatial relations between downlink reference signals, DL-RS, and uplink reference signals, UL-RS, used for positioning in a first cell served by a first RAN node, wherein the first cell is a serving cell for a user equipment, UE; determining second spatial relations between DL-RS and UL-RS used for positioning in one or more second cells served by a second RAN node, wherein the second cells are neighbor cells to the first cell; and configuring the UE to transmit UL-RS according to the first and second spatial relations.
An assembly for a dosing system of a spreader machine for distributing a granular material, comprising - a first member provided with a first opening ; - a second member provided with a second opening ; and - an actuator connected to at least one of the first and second members and configured to provide a driving force for relative movement conducted by linear movement between the first and second members , thereby, adjusting an opening size of a dosing opening provided by an overlapping area in which the first and second openings are overlapping, wherein the first and the second members are configured to synchronously move while conducting the relative movement; wherein the first and second members are configured to be moved by the relative movement into a first position providing the dosing opening with a first opening size and a second position different from the first position and providing the dosing opening with a second opening size different from the first opening size, a center portion of the dosing opening being locally fixed when the first and second members are moved between first and second positions. - a first member provided with a first opening ; - a second member provided with a second opening ; and - an actuator connected to at least one of the first and second members and configured to provide a driving force for relative movement conducted by linear movement between the first and second members , thereby, adjusting an opening size of a dosing opening provided by an overlapping area in which the first and second openings are overlapping, wherein the first and the second members are configured to synchronously move while conducting the relative movement; wherein the first and second members are configured to be moved by the relative movement into a first position providing the dosing opening with a first opening size and a second position different from the first position and providing the dosing opening with a second opening size different from the first opening size, a center portion of the dosing opening being locally fixed when the first and second members are moved between first and second positions.
Process for the recovery of PGM present in PGM-bearing catalysts comprising SiC, comprising the steps of: - preparing a metallurgical charge, by mixing the PGM-bearing catalysts with an Fe-oxide compound in an amount sufficient to oxidize at least 65% of the SiC; and, - feeding the metallurgical charge and slag formers to a smelting furnace operating in conditions susceptible to form a liquid Fe-based bullion, which contains PGM, and a liquid slag. - preparing a metallurgical charge, by mixing the PGM-bearing catalysts with an Fe-oxide compound in an amount sufficient to oxidize at least 65% of the SiC; and, - feeding the metallurgical charge and slag formers to a smelting furnace operating in conditions susceptible to form a liquid Fe-based bullion, which contains PGM, and a liquid slag.
A general synthetic process for the compound represented by general structure STR#3 wherein the dotted configuration.... is optionally single bond or double bond; R 1 is selected from the group consisting of OH, OMe, OR a and X wherein R a is alkyl, alkenyl, or alkynyl and X is F, Cl, Br, or I; R 2 is selected from group consisting of H, OMe, and OR a wherein R a is alkyl, alkenyl, or alkynyl; R 3 is selected from the group consisting of OH, OMe, OR a and X where R a is alkyl, alkenyl, or alkynyl and X is F, Cl, Br, or I; R 4 is selected from group consisting of H, OMe, and OR a where R a is alkyl, alkenyl, or alkynyl, said synthetic process comprising the steps of A. Mixing the iodomethyl ketone of general structure STR#1 having substituents R 1 and R 2 as defined vide supra, which iodomethyl ketone is dissolved in a solvent with the aqueous solution of the sodium or potassium salt of the acid of general structure ( STR#2 ) [1.0-4.0] mole equivalent, where M=Na+ or K+ and R 3 and R 4 as defined vide supra; B. Stirring the mixture of Step A at ambient temperature (5°C-30°C) in the presence of a phase transfer catalyst (5 - 10 mole percent with respect to the iodide) and stirring the mixture for 24-72 hours; C. Separating the organic layer from the product of Step B, washing with aqueous sodium hydrogen carbonate solution followed by drying over anhydrous sodium sulfate, filtering and stripping off the solvent under vacuum followed by crystallization of the crude from ethyl acetate or ethanol to get compound represented by general structure STR#3 . A. Mixing the iodomethyl ketone of general structure STR#1 having substituents R 1 and R 2 as defined vide supra, which iodomethyl ketone is dissolved in a solvent with the aqueous solution of the sodium or potassium salt of the acid of general structure ( STR#2 ) [1.0-4.0] mole equivalent, where M=Na+ or K+ and R 3 and R 4 as defined vide supra; B. Stirring the mixture of Step A at ambient temperature (5°C-30°C) in the presence of a phase transfer catalyst (5 - 10 mole percent with respect to the iodide) and stirring the mixture for 24-72 hours; C. Separating the organic layer from the product of Step B, washing with aqueous sodium hydrogen carbonate solution followed by drying over anhydrous sodium sulfate, filtering and stripping off the solvent under vacuum followed by crystallization of the crude from ethyl acetate or ethanol to get compound represented by general structure STR#3 .
Intermediate holder which has at least one holding means and at least one fastening means , wherein the intermediate holder is manufactured from one material strip and the holding means and fastening means of said intermediate holder are configured as formed lugs of the material strip that at the one lug end of said lugs by way of a bent region are connected to the material strip and that by way of the opposite other free lug end of said lugs protrude beyond the circumference of the material strip, characterized in that the at least one holding means is specified for fastening the intermediate holder in a water outlet of a sanitary outlet fitting and the at least one fastening means is provided for releasably fastening a sanitary functional unit , in that that lug end of the at least one formed lug that is specified as a fastening means that protrudes beyond the internal circumference of the material strip is configured as a portion of a turn of an internal thread, and in that the internal thread is specified for an external thread on the external circumference of the sanitary functional unit .
A nozzle insertion member configured to be attached to an opening of a powder container adapted to be used in an image forming apparatus and that includes a nozzle receiving opening in which a conveying nozzle of the image forming apparatus for conveying powder to be supplied from the powder container can be inserted along a longitudinal direction of the powder container, characterized in that the nozzle insertion member comprises: an engaging portion that is engaged with an engaged portion provided inside the opening , wherein the engaging portion includes an engaging piece disposed on a wall facing the engaged portion , one end of the engaging piece is connected to the wall, the other end of the engaging piece is a free end defined by a cutout portion provided on the wall, and the engaging piece extends from the wall along an inner surface of the opening . an engaging portion that is engaged with an engaged portion provided inside the opening , wherein the engaging portion includes an engaging piece disposed on a wall facing the engaged portion , one end of the engaging piece is connected to the wall, the other end of the engaging piece is a free end defined by a cutout portion provided on the wall, and the engaging piece extends from the wall along an inner surface of the opening .
Method for producing a film stack, comprising: - providing a film , - cutting out a film sheet from the film by the film sheet being punched out of the film onto a support plate , so that the film sheet is positioned in a specified position on the support plate , - holding the film sheet on the support plate in the specified position, - moving the support plate with the held film sheet over a stack mould , the film sheet remaining in the specified position, - moving a height-adjustable bottom of the stack mould in the direction of the support plate , stacked film sheets in the stack mould being moved towards the held film sheet until the stacked film sheets come into contact with the held film sheet , - depositing the film sheet in the stack mould . - providing a film , - cutting out a film sheet from the film by the film sheet being punched out of the film onto a support plate , so that the film sheet is positioned in a specified position on the support plate , - holding the film sheet on the support plate in the specified position, - moving the support plate with the held film sheet over a stack mould , the film sheet remaining in the specified position, - moving a height-adjustable bottom of the stack mould in the direction of the support plate , stacked film sheets in the stack mould being moved towards the held film sheet until the stacked film sheets come into contact with the held film sheet , - depositing the film sheet in the stack mould .
Magnetic position sensor system comprising - a multilayer circuit board - wherein a layer comprises an insulator layer and at least one copper layer , - a copper layer comprises at least a first conductor track (3a, 4a, 4'a) and/or a second conductor track (3b, 4b, 4'b), - first vias , second vias and a circuit board core , and - a sensor with a soft magnetic core , an excitation coil with at least one excitation winding and a sensor coil with at least one sensor winding, characterized in that the soft magnetic core is arranged entirely in the circuit board core of the multilayer circuit board , and is surrounded by an excitation coil and a sensor coil, wherein an excitation winding of the excitation coil comprises two first vias , at least in sections, and two first conductor tracks (3a, 4a, 4'a), and wherein a sensor winding of the sensor coil comprises two second vias , at least in sections, and two second conductor tracks (3b, 4b, 4'b), wherein the soft magnetic core is essentially concentrically surrounded by the excitation coil with at least one excitation winding and the sensor coil with at least one sensor winding. - a multilayer circuit board - wherein a layer comprises an insulator layer and at least one copper layer , - a copper layer comprises at least a first conductor track (3a, 4a, 4'a) and/or a second conductor track (3b, 4b, 4'b), - first vias , second vias and a circuit board core , and - a sensor with a soft magnetic core , an excitation coil with at least one excitation winding and a sensor coil with at least one sensor winding,
A face recognition method, comprising: obtaining time-of-flight, TOF data by a TOF camera, the TOF data comprises a safety indication frame and a face recognition frame; directly storing, by using a kernel layer, the obtained TOF data into a trusted execution environment, TEE; transmitting a first storage information of the TOF data in the TEE from a rich execution environment, REE to the TEE, wherein the first storage information indicates a storage address of the TOF data in the TEE; reading the TOF data by using the first storage information in the TEE; processing the face recognition frame in the TOF data into a TOF image in the TEE; and performing face recognition in the TEE by using the TOF image, to obtain a recognition result, wherein the processing the face recognition frame in the TOF data into a TOF image comprises: transmitting calibration data of the TOF camera from the REE to the TEE; and generating the TOF image by using the face recognition frame in the TOF data and calibration data. obtaining time-of-flight, TOF data by a TOF camera, the TOF data comprises a safety indication frame and a face recognition frame; directly storing, by using a kernel layer, the obtained TOF data into a trusted execution environment, TEE; transmitting a first storage information of the TOF data in the TEE from a rich execution environment, REE to the TEE, wherein the first storage information indicates a storage address of the TOF data in the TEE; reading the TOF data by using the first storage information in the TEE; processing the face recognition frame in the TOF data into a TOF image in the TEE; and performing face recognition in the TEE by using the TOF image, to obtain a recognition result, wherein the processing the face recognition frame in the TOF data into a TOF image comprises: transmitting calibration data of the TOF camera from the REE to the TEE; and generating the TOF image by using the face recognition frame in the TOF data and calibration data. transmitting calibration data of the TOF camera from the REE to the TEE; and generating the TOF image by using the face recognition frame in the TOF data and calibration data.
A method for measuring a moisture profile using a fiber-optic sensor, comprising: (a) providing a polymer optical fiber comprising at least one reflector; (b) providing backscatter measurement data of the polymer optical fiber for a first wavelength with measurable absorption for OH groups to be detected at a given temperature; (c) providing backscatter measurement data of the polymer optical fiber for a second wavelength without or with low measurable absorption for OH groups to be detected at a given temperature; (d) ascertaining spatially resolved scatter intensity profiles along the polymer optical fiber from the backscatter measurement data for the first wavelength and for the second wavelength; (e) comparing the scatter intensity profile ascertained for the first wavelength and the scatter intensity profile ascertained for the second wavelength to a respective reference intensity which is ascertained based on the at least one reflector to obtain respective relative scatter intensity profiles; and (f) ascertaining the moisture profile along the polymer optical fiber based on the obtained relative scatter intensity profiles, wherein the polymer optical fiber is made of CYTOP ® R), a cyclo polymer product of perfluoro(alkenyl vinyl ether) of the following formula and is selected from a fiber having a graded index profile or having a step index profile. (a) providing a polymer optical fiber comprising at least one reflector; (b) providing backscatter measurement data of the polymer optical fiber for a first wavelength with measurable absorption for OH groups to be detected at a given temperature; (c) providing backscatter measurement data of the polymer optical fiber for a second wavelength without or with low measurable absorption for OH groups to be detected at a given temperature; (d) ascertaining spatially resolved scatter intensity profiles along the polymer optical fiber from the backscatter measurement data for the first wavelength and for the second wavelength; (e) comparing the scatter intensity profile ascertained for the first wavelength and the scatter intensity profile ascertained for the second wavelength to a respective reference intensity which is ascertained based on the at least one reflector to obtain respective relative scatter intensity profiles; and (f) ascertaining the moisture profile along the polymer optical fiber based on the obtained relative scatter intensity profiles, wherein the polymer optical fiber is made of CYTOP ® R), a cyclo polymer product of perfluoro(alkenyl vinyl ether) of the following formula and is selected from a fiber having a graded index profile or having a step index profile.
A testing device comprising: a first interface device configured to enable communication with a first component of a vehicle ; a second interface device configured to enable communication with a second component of the vehicle ; test module storage configured to store one or more test modules ; a user interface ; and a test controller responsive to the user interface to select a test module from the test module storage and to cause the first interface device to communicate first test data to the first component of the vehicle and to cause the second interface device to communicate second test data to the second component of the vehicle to perform a cybersecurity vulnerability test associated with the selected test module , wherein transmission of the first test data and the second test data to the first component and the second component of the vehicle , respectively, occurs at least partially overlapping in time, and wherein an interplay between the first test data affecting operation of the first component and the second test data affecting operation of the second component indicates whether the first component and the second components are vulnerable to a multi-vector cybersecurity attack. a first interface device configured to enable communication with a first component of a vehicle ; a second interface device configured to enable communication with a second component of the vehicle ; test module storage configured to store one or more test modules ; a user interface ; and a test controller responsive to the user interface to select a test module from the test module storage and to cause the first interface device to communicate first test data to the first component of the vehicle and to cause the second interface device to communicate second test data to the second component of the vehicle to perform a cybersecurity vulnerability test associated with the selected test module , wherein transmission of the first test data and the second test data to the first component and the second component of the vehicle , respectively, occurs at least partially overlapping in time, and wherein an interplay between the first test data affecting operation of the first component and the second test data affecting operation of the second component indicates whether the first component and the second components are vulnerable to a multi-vector cybersecurity attack.
A vacuum cleaner comprising: a cleaner body ; a cover member installed at an upper portion of the cleaner body to be opened and closed and configured to form a part of a front surface and an upper surface of the cleaner body ; a suction hose provided at a front surface of the cover member ; a hole formed at the front surface of the cover member to be in communication with the suction hose ; a base frame configured to divide an internal space of the cleaner body ; a main motor provided at one space divided by the base frame and configured to suction the dust and to move air; a frame hole formed at the base frame and through which the air discharged from the main motor is discharged; an outlet hole formed at a rear surface of the cleaner body and being located at a position lower than the hole , wherein air introduced through the hole is discharged to the outlet hole via an inside of the cleaner body , characterised in that the vacuum cleaner further comprises: a filter unit disposed to face the frame hole and to filter the dust in the air discharged by the main motor ; and a printed circuit board, PCB, provided inside the cleaner body and cooled by the air passes through the filter unit . a cleaner body ; a cover member installed at an upper portion of the cleaner body to be opened and closed and configured to form a part of a front surface and an upper surface of the cleaner body ; a suction hose provided at a front surface of the cover member ; a hole formed at the front surface of the cover member to be in communication with the suction hose ; a base frame configured to divide an internal space of the cleaner body ; a main motor provided at one space divided by the base frame and configured to suction the dust and to move air; a frame hole formed at the base frame and through which the air discharged from the main motor is discharged; an outlet hole formed at a rear surface of the cleaner body and being located at a position lower than the hole , wherein air introduced through the hole is discharged to the outlet hole via an inside of the cleaner body , characterised in that the vacuum cleaner further comprises: a filter unit disposed to face the frame hole and to filter the dust in the air discharged by the main motor ; and a printed circuit board, PCB, provided inside the cleaner body and cooled by the air passes through the filter unit . a filter unit disposed to face the frame hole and to filter the dust in the air discharged by the main motor ; and a printed circuit board, PCB, provided inside the cleaner body and cooled by the air passes through the filter unit .