mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus to apply an adhesive on articles , comprising: - a support and movement member configured to support said articles and make them move forward in a direction of movement (M); - a delivery device to deliver a substrate in the form of a strip, which is provided on one surface with said adhesive ; wherein it further comprises - an applicator device configured to apply part of the adhesive present on said substrate onto said articles , wherein said applicator device comprises a distributor roller on which said substrate partly winds with the surface on which said adhesive is present facing toward the outside; - a separation device to separate said substrate , together with the residual adhesive , from said articles ; and - a recovery device to recover said residual adhesive present on said substrate , positioned downstream of said separation device , a coating device located downstream of said recovery device and configured to coat said articles with said substrate from which said residual adhesive has been removed. - a support and movement member configured to support said articles and make them move forward in a direction of movement (M); - a delivery device to deliver a substrate in the form of a strip, which is provided on one surface with said adhesive ; wherein it further comprises - an applicator device configured to apply part of the adhesive present on said substrate onto said articles , wherein said applicator device comprises a distributor roller on which said substrate partly winds with the surface on which said adhesive is present facing toward the outside; - a separation device to separate said substrate , together with the residual adhesive , from said articles ; and - a recovery device to recover said residual adhesive present on said substrate , positioned downstream of said separation device , a coating device located downstream of said recovery device and configured to coat said articles with said substrate from which said residual adhesive has been removed.
A method of obtaining of bulk nanocomposite of Lead Telluride and Cadmium Telluride (PbTe-CdTe) by mixing compounds in temperature in which at least one compound is in a liquid form and subsequently solidifying, characterized in that it comprises a step of preparation of an input material including mixing elemental Lead ( Pb ), elemental Tellurium ( Te ) and Cadmium telluride (CdTe) compound to obtain input material and placing input material in a quartz ampoule, wherein Lead ( Pb ) and Tellurium ( Te ) are provided in equal atomic proportion and mass of Cadmium Telluride (CdTe) compound is provided in range of 2% to 10% of total molar mass of input material, a step of heating input material to temperature of at least 30°C higher than melting temperature of compound Lead Telluride ( PbTe ) but of at least 100°C lower than melting temperature of compound Cadmium Telluride ( CdTe ), during a time of at least 48 hours to obtain dissolved material, a step of rocking the furnace with dissolved material for at least 15 minutes with frequency of at least 0.5 Hz to obtain homogenized dissolved material, a step of lowering ambient temperature to a value lower than melting temperature of Lead Telluride by less than 100°C within a time shorter than 10 s, a step of solidifying of the homogenized dissolved material for at least 3 hours in temperature lower than melting temperature of lead telluride by less than 100°C to obtain the nanocomposite ( PbTe-CdTe ), a step of cooling for at least 10 hours. a step of preparation of an input material including mixing elemental Lead ( Pb ), elemental Tellurium ( Te ) and Cadmium telluride (CdTe) compound to obtain input material and placing input material in a quartz ampoule, wherein Lead ( Pb ) and Tellurium ( Te ) are provided in equal atomic proportion and mass of Cadmium Telluride (CdTe) compound is provided in range of 2% to 10% of total molar mass of input material, Lead ( Pb ) and Tellurium ( Te ) are provided in equal atomic proportion and mass of Cadmium Telluride (CdTe) compound is provided in range of 2% to 10% of total molar mass of input material, a step of heating input material to temperature of at least 30°C higher than melting temperature of compound Lead Telluride ( PbTe ) but of at least 100°C lower than melting temperature of compound Cadmium Telluride ( CdTe ), during a time of at least 48 hours to obtain dissolved material, a step of rocking the furnace with dissolved material for at least 15 minutes with frequency of at least 0.5 Hz to obtain homogenized dissolved material, a step of lowering ambient temperature to a value lower than melting temperature of Lead Telluride by less than 100°C within a time shorter than 10 s, a step of solidifying of the homogenized dissolved material for at least 3 hours in temperature lower than melting temperature of lead telluride by less than 100°C to obtain the nanocomposite ( PbTe-CdTe ), a step of cooling for at least 10 hours.
A method of controlling an elevator car , the method comprising: driving the elevator car with a drive system including a drive device and a brake device ; detecting an emergency stop condition; triggering the brake device in response to detecting an emergency stop condition; determining a delay to be applied between triggering the brake device and stopping the drive device ; and waiting for a time period corresponding to the delay before stopping the drive device characterised by determining whether the detected emergency stop condition is a motion-hazard emergency stop condition, and only waiting for the time period corresponding to the delay before stopping the drive device if the emergency stop condition is a motion-hazard emergency stop condition. driving the elevator car with a drive system including a drive device and a brake device ; detecting an emergency stop condition; triggering the brake device in response to detecting an emergency stop condition; determining a delay to be applied between triggering the brake device and stopping the drive device ; and waiting for a time period corresponding to the delay before stopping the drive device characterised by determining whether the detected emergency stop condition is a motion-hazard emergency stop condition, and only waiting for the time period corresponding to the delay before stopping the drive device if the emergency stop condition is a motion-hazard emergency stop condition.
A silicon composite material for use as a rechargeable battery anode, comprising (i) an electrically conductive substrate comprising a foil of copper or titanium, (ii) an adhesion layer attached to the foil comprising at least one or more metals and/or metal compounds and (iii) an electrode layer comprising silicon attached to the adhesion layer, wherein the metals and/or metal compounds comprise zinc and/or tin, and oxides of zinc and/or tin, respectively, and wherein the adhesion layer has a thickness of from 0.1 up to and including 5 nm
A charging method, wherein the method is applied to a fast charging process of a terminal , the terminal comprises: a universal serial bus, USB, port , and a processor and a logical circuit respectively coupled to the USB port , the logical circuit supports a target fast charging protocol, the processor is connected to the logical circuit , the USB port is configured to connect to a charging adapter , the target fast charging protocol is a fast charging protocol supporting a capability of continuous communication between the terminal and the charging adapter , and the method comprises: applying , by the processor , a first level signal to a first electrode (D+) of the USB port ; detecting , by the processor , a second level signal on a second electrode (D-) of the USB port after preset duration when a short-circuit connection between the first electrode (D+) and the second electrode (D-) has been broken; determining , by the processor , that a type of the charging adapter is a fast charging adapter supporting the target fast charging protocol when a detected value of the second level signal is less than a value of the first level signal; and establishing , by the processor , a communication link to the charging adapter based on the target fast charging protocol, wherein the communication link has the capability of continuous communication, and controlling, by applying a level signal VDP_SRC to the first electrode (D+) continuously through the communication link, a process of fast charging the terminal by the charging adapter . applying , by the processor , a first level signal to a first electrode (D+) of the USB port ; detecting , by the processor , a second level signal on a second electrode (D-) of the USB port after preset duration when a short-circuit connection between the first electrode (D+) and the second electrode (D-) has been broken; determining , by the processor , that a type of the charging adapter is a fast charging adapter supporting the target fast charging protocol when a detected value of the second level signal is less than a value of the first level signal; and establishing , by the processor , a communication link to the charging adapter based on the target fast charging protocol, wherein the communication link has the capability of continuous communication, and controlling, by applying a level signal VDP_SRC to the first electrode (D+) continuously through the communication link, a process of fast charging the terminal by the charging adapter .
A method of producing a 3D model of a bone aberration comprising: calibrating a radiographic imaging machine to determine a mapping relationship between radiographic image points and corresponding space coordinates to define spatial data ; using the radiographic imaging machine to capture a first radiographic image of a subject orthopedic element , wherein the first radiographic image defines a first reference frame ; using the radiographic imaging machine to capture a second radiographic image of the subject orthopedic element , wherein the second radiographic image defines a second reference frame , and wherein the first reference frame is offset from the second reference frame at an offset angle (θ); projecting spatial data from the first radiographic image of the subject orthopedic element and spatial data from the second radiographic image of the subject orthopedic element ; using a deep learning network to detect the subject orthopedic element using the spatial data , the spatial data defining an anatomical landmark on or in the subject orthopedic element ; using the deep learning network to detect a bone aberration on or in the subject orthopedic element using the spatial data ; and applying the deep learning network to the spatial data to generate the 3D model of the bone aberration . calibrating a radiographic imaging machine to determine a mapping relationship between radiographic image points and corresponding space coordinates to define spatial data ; using the radiographic imaging machine to capture a first radiographic image of a subject orthopedic element , wherein the first radiographic image defines a first reference frame ; using the radiographic imaging machine to capture a second radiographic image of the subject orthopedic element , wherein the second radiographic image defines a second reference frame , and wherein the first reference frame is offset from the second reference frame at an offset angle (θ); projecting spatial data from the first radiographic image of the subject orthopedic element and spatial data from the second radiographic image of the subject orthopedic element ; using a deep learning network to detect the subject orthopedic element using the spatial data , the spatial data defining an anatomical landmark on or in the subject orthopedic element ; using the deep learning network to detect a bone aberration on or in the subject orthopedic element using the spatial data ; and applying the deep learning network to the spatial data to generate the 3D model of the bone aberration .
A method for use by a multi-band member access point, MMAP, capable of communicating with a multi-band control access point, MCAP, using a first frequency band, and capable of communicating with associated stations, STAs, using a second frequency band, comprising: transmitting data in the second frequency band to the associated STAs; transmitting a request for interference information in the second frequency band to at least one associated STA; receiving a report in the second frequency band from the at least one associated STA, wherein the report includes at least interference information, wherein the report includes an identification of an interfering MMAP; transmitting first information in the first frequency band to the MCAP, wherein the first information is based on the report received from the at least one associated STA in the second frequency band; and receiving, from the MCAP in the first frequency band, second information regarding radio resource management of the second frequency band. transmitting data in the second frequency band to the associated STAs; transmitting a request for interference information in the second frequency band to at least one associated STA; receiving a report in the second frequency band from the at least one associated STA, wherein the report includes at least interference information, wherein the report includes an identification of an interfering MMAP; transmitting first information in the first frequency band to the MCAP, wherein the first information is based on the report received from the at least one associated STA in the second frequency band; and receiving, from the MCAP in the first frequency band, second information regarding radio resource management of the second frequency band.
A compound of the formula: wherein is heteroaryl, which is optionally substituted with one to three groups independently selected from the group consisting of halo, methyl and cyano; X is N or CR 1b ; Z is CH 2 , C=O or CH(C=O)OH; R 1a is NH 2 or (C 1-3 alkyl)NH 2 ; R 1b is hydrogen, C 1-3 alkyl, F or Cl; R 1c is hydrogen, C 1-3 alkyl, F or Cl; R 1d is hydrogen, C 1-3 alkyl, F or Cl; or R 1a and R 1b can be taken together with the atoms between them to form a 4 to 7 membered heterocyclyl ring; each R 2 is independently selected from the group consisting of halo, cyano, hydroxy, OR 3 , C 1-6 alkyl, C(O)OH, C(O)OR 3 , (R 3 )C(O)OH, (R 3 )C(O)OR 4 , NR 5 R 6 , (R 3 )NR 5 R 6 , NHCOR 3 , NHC(O)OR 3 , NHC(O)OC 3-6 cycloalkyl, NHC(O)O(R 3 )OR 4 , NHC(O)O(R 3 )C(O)OH, (R 3 )NHC(O)OR 4 , NHCONR 5 R 6 , NHSO 2 R 3 , CONR 5 R 6 , CH 2 CONR 5 R 6 and NHCONH(R 3 )heterocyclyl; R 3 is hydrogen or C 1-6 alkyl, wherein said alkyl is optionally substituted with one to three halo or hydroxy; R 4 is hydrogen or C 1-6 alkyl, wherein said alkyl is optionally substituted with one to three halo; R 5 is hydrogen or C 1-6 alkyl; R 6 is hydrogen or C 1-6 alkyl; R 7 is hydrogen, C 1-6 alkyl, CO 2 R 3 , COR 3 or CONR 5 R 6 , wherein said alkyl is optionally substituted with one to three halo; y is an integer between one and four; z is an integer between zero and three; or a pharmaceutically acceptable salt thereof. X is N or CR 1b ; Z is CH 2 , C=O or CH(C=O)OH; R 1a is NH 2 or (C 1-3 alkyl)NH 2 ; R 1b is hydrogen, C 1-3 alkyl, F or Cl; R 1c is hydrogen, C 1-3 alkyl, F or Cl; R 1d is hydrogen, C 1-3 alkyl, F or Cl; or R 1a and R 1b can be taken together with the atoms between them to form a 4 to 7 membered heterocyclyl ring; each R 2 is independently selected from the group consisting of halo, cyano, hydroxy, OR 3 , C 1-6 alkyl, C(O)OH, C(O)OR 3 , (R 3 )C(O)OH, (R 3 )C(O)OR 4 , NR 5 R 6 , (R 3 )NR 5 R 6 , NHCOR 3 , NHC(O)OR 3 , NHC(O)OC 3-6 cycloalkyl, NHC(O)O(R 3 )OR 4 , NHC(O)O(R 3 )C(O)OH, (R 3 )NHC(O)OR 4 , NHCONR 5 R 6 , NHSO 2 R 3 , CONR 5 R 6 , CH 2 CONR 5 R 6 and NHCONH(R 3 )heterocyclyl; R 3 is hydrogen or C 1-6 alkyl, wherein said alkyl is optionally substituted with one to three halo or hydroxy; R 4 is hydrogen or C 1-6 alkyl, wherein said alkyl is optionally substituted with one to three halo; R 5 is hydrogen or C 1-6 alkyl; R 6 is hydrogen or C 1-6 alkyl; R 7 is hydrogen, C 1-6 alkyl, CO 2 R 3 , COR 3 or CONR 5 R 6 , wherein said alkyl is optionally substituted with one to three halo; y is an integer between one and four; z is an integer between zero and three;
A method of determining the relative location of an image capture device of a monitoring system for monitoring the positioning of a patient during radiation treatment and an isocenter of a treatment room towards which a treatment apparatus is arranged to direct radiation, the method comprising: locating a calibration phantom with its center located approximately at the isocenter of a treatment room, wherein in plan-view the surface of the calibration phantom closest to an image capture device is inclined approximately 45° relative to the camera plane of the image capture device; obtaining an image of the calibration phantom using the image capture device; processing an obtained image to generate a model of the imaged surface of the calibration phantom characterized by utilizing the generated model of the imaged surface of the calibration phantom to identify the relative location of the center of the calibration phantom and the camera plane of the image capture device; and utilizing the identified relative location of the center of the calibration phantom and the camera plane of the image capture device to determine the relative location of the camera plane of the image capture device and the isocenter of the treatment room towards which the treatment apparatus is arranged to direct radiation. locating a calibration phantom with its center located approximately at the isocenter of a treatment room, wherein in plan-view the surface of the calibration phantom closest to an image capture device is inclined approximately 45° relative to the camera plane of the image capture device; obtaining an image of the calibration phantom using the image capture device; processing an obtained image to generate a model of the imaged surface of the calibration phantom characterized by utilizing the generated model of the imaged surface of the calibration phantom to identify the relative location of the center of the calibration phantom and the camera plane of the image capture device; and utilizing the identified relative location of the center of the calibration phantom and the camera plane of the image capture device to determine the relative location of the camera plane of the image capture device and the isocenter of the treatment room towards which the treatment apparatus is arranged to direct radiation.
A transceiver baseband hardware comprising: a baseband hardware comprising an encryption-decryption block configured to encrypt intended transmission data or decrypt encrypted data with key coefficients stored therein via a cross logical operation of the encryption-decryption block, wherein the encryption-decryption block comprises a plurality of encryption-decryption mixed logic comprising XOR logic and XNOR logic, and wherein the cross logical operation comprises lower significant bytes of the key coefficients operating on most significant bytes of the intended transmission data or the encrypted data of each encryption-decryption mixed logic among the plurality of encryption-decryption mixed logic. a baseband hardware comprising an encryption-decryption block configured to encrypt intended transmission data or decrypt encrypted data with key coefficients stored therein via a cross logical operation of the encryption-decryption block, wherein the encryption-decryption block comprises a plurality of encryption-decryption mixed logic comprising XOR logic and XNOR logic, and wherein the cross logical operation comprises lower significant bytes of the key coefficients operating on most significant bytes of the intended transmission data or the encrypted data of each encryption-decryption mixed logic among the plurality of encryption-decryption mixed logic.
An electricity storage module in which a plurality of battery cells are electrically connected via conductive members , wherein: each of the conductive members has a pair of electrode connecting parts that are welded to respective electrode terminals of a pair of adjacent battery cells , a base part that is connected to the pair of electrode connecting parts , and a voltage detecting terminal that detects a terminal voltage of a battery cell ; characterized in that said base part is connected to the electrode connecting parts via a pair of elastically deformable parts, and said voltage detecting terminal is connected to the base part , wherein the voltage detecting terminal has a rising part that rises up from the base part , and a terminal part that is arranged oppositely to the base part ; and wherein each of the elastically deformable part has a bending part that projects from the base part towards the terminal part . each of the conductive members has a pair of electrode connecting parts that are welded to respective electrode terminals of a pair of adjacent battery cells , a base part that is connected to the pair of electrode connecting parts , and a voltage detecting terminal that detects a terminal voltage of a battery cell ; characterized in that said base part is connected to the electrode connecting parts via a pair of elastically deformable parts, and said voltage detecting terminal is connected to the base part , wherein the voltage detecting terminal has a rising part that rises up from the base part , and a terminal part that is arranged oppositely to the base part ; and wherein each of the elastically deformable part has a bending part that projects from the base part towards the terminal part .
Process for preparing isocyanate containing alkoxysilane groups, in which, in the sequence of steps A) to D), A) alkoxysilanoalkylamine is reacted with dialkyl carbonate in the presence of a basic catalyst to give alkoxysilanoalkylurethane, B) simultaneously or successively - the catalyst is removed and/or deactivated, and - low boilers, solids, salt burdens and/or high boilers are removed, C) purified alkoxysilanoalkylurethane obtained after B) is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, while i) the bottoms material is being wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step A), B) or C), is fed in again, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the bottoms material and collected, characterized in that at least the steps C) and D) are conducted continuously and the basic catalyst is a guanidine base. A) alkoxysilanoalkylamine is reacted with dialkyl carbonate in the presence of a basic catalyst to give alkoxysilanoalkylurethane, B) simultaneously or successively - the catalyst is removed and/or deactivated, and - low boilers, solids, salt burdens and/or high boilers are removed, - the catalyst is removed and/or deactivated, and - low boilers, solids, salt burdens and/or high boilers are removed, C) purified alkoxysilanoalkylurethane obtained after B) is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, while i) the bottoms material is being wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step A), B) or C), is fed in again, and i) the bottoms material is being wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step A), B) or C), is fed in again, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the bottoms material and collected,