mhurhangee/patent-ind-claim-en huggingface dataset:
An atomizing device, comprising an atomizer , a puff sensor , and an airflow passage (A); wherein, a transfer passage (B) is defined in the atomizer , and two end portions of the airflow passage (A) are respectively fluidly communicated with the transfer passage (B) and the puff sensor ; the airflow passage (A) comprises a bending section, which is configured to prevent liquid in the atomizer from flowing to the puff sensor ; the airflow passage (A) comprises a first segment (A1), a second segment (A2) and a third segment (A3) which are sequentially and fluidly connected; wherein each adjacent two segments of the first segment (A1), the second segment (A2) and the third segment (A3) are arranged at an angle; one end portion of the first segment (A1) is fluidly communicated with the transfer passage (B), and one end portion of the third segment (A3) is fluidly communicate with the puff sensor ; two end portions of the second segment (A2) are respectively fluidly communicated with one end portion of the first segment (A1) which is away from the atomizer and one end portion of the third segment (A3) which is away from the puff sensor ; and the extending direction of the first segment (A1) is parallel to that of the third segment (A3); the atomizing device further comprises a suction nozzle arranged at an end of the transfer passage (B) which is away from the first segment (A1); the puff sensor is arranged at an end of the third segment (A3) which is proximate to the suction nozzle . a transfer passage (B) is defined in the atomizer , and two end portions of the airflow passage (A) are respectively fluidly communicated with the transfer passage (B) and the puff sensor ; the airflow passage (A) comprises a bending section, which is configured to prevent liquid in the atomizer from flowing to the puff sensor ; the airflow passage (A) comprises a first segment (A1), a second segment (A2) and a third segment (A3) which are sequentially and fluidly connected; wherein each adjacent two segments of the first segment (A1), the second segment (A2) and the third segment (A3) are arranged at an angle; one end portion of the first segment (A1) is fluidly communicated with the transfer passage (B), and one end portion of the third segment (A3) is fluidly communicate with the puff sensor ; two end portions of the second segment (A2) are respectively fluidly communicated with one end portion of the first segment (A1) which is away from the atomizer and one end portion of the third segment (A3) which is away from the puff sensor ; and the extending direction of the first segment (A1) is parallel to that of the third segment (A3); the atomizing device further comprises a suction nozzle arranged at an end of the transfer passage (B) which is away from the first segment (A1); the puff sensor is arranged at an end of the third segment (A3) which is proximate to the suction nozzle .
A roofing system comprising: - a roofing substrate; and - a roofing membrane; wherein the roofing membrane comprises a surface configured to adhere to the roofing substrate, and wherein the surface comprises a combined total of 3.5-10 mole percent of carbonyl groups and carboxyl groups as measured by X-ray photoelectron spectroscopy. - a roofing substrate; and - a roofing membrane; wherein the roofing membrane comprises a surface configured to adhere to the roofing substrate, and wherein the surface comprises a combined total of 3.5-10 mole percent of carbonyl groups and carboxyl groups as measured by X-ray photoelectron spectroscopy.
Method for producing a link chain , in particular for underground use in mining, wherein the link chain is produced from a steel material and has chain links as horizontal links and vertical links , wherein each horizontal link and each vertical link respectively have limbs that run parallel to one another and are connected to one another at the ends by rounded portions, , wherein each limb has a smaller cross-sectional area compared to the cross-sectional area of each rounded portion with the following method steps: - Providing a profiled bar , wherein the cross-sectional area of the profiled bar is smaller than the nominal diameter of the chain link to be produced, - Inserting the profiled bar into a compression tool and axially compressing the cross-sectional area by lengthwise enlargement, wherein the cross-sectional area is enlarged in the region of the subsequent rounded portions , - Removing the compressed semi-finished chain link product and forming it into a chain link and welding the end-side ends of the deformed chain link , characterised in that the compression tool has an upper tool and a lower tool , wherein when the compression tool is closed, there is a mould cavity with a cross-sectional area that is different in the longitudinal direction of the mould cavity , so that the compressed material of the profiled bar flows into the space with a larger cross-sectional area during a compression movement in the axial direction (A). - Providing a profiled bar , wherein the cross-sectional area of the profiled bar is smaller than the nominal diameter of the chain link to be produced, - Inserting the profiled bar into a compression tool and axially compressing the cross-sectional area by lengthwise enlargement, wherein the cross-sectional area is enlarged in the region of the subsequent rounded portions , - Removing the compressed semi-finished chain link product and forming it into a chain link and welding the end-side ends of the deformed chain link , characterised in that the compression tool has an upper tool and a lower tool , wherein when the compression tool is closed, there is a mould cavity with a cross-sectional area that is different in the longitudinal direction of the mould cavity , so that the compressed material of the profiled bar flows into the space with a larger cross-sectional area during a compression movement in the axial direction (A).
A wireless device for transmitting a frame , comprising: one or more memories; and one or more processors coupled to the one or more memories, the one or more processors configured to cause: generating a high-efficiency (HE) physical layer protocol data unit (PPDU) including an HE signal B (HE-SIG-B) field, wherein the generating comprises: generating coded HE-SIG-B bits , wherein the coded HE-SIG-B bits belong to a 20 MHz HE-SIG-B unit of the HE-SIG-B field, interleaving the coded HE-SIG-B bits to generate interleaved HE-SIG-B bits , modulating the interleaved HE-SIG-B bits to generate N modulated symbols, N being a positive integer, generating N phase-rotated symbols by applying a scrambling sequence to the N modulated symbols, wherein the scrambling sequence is for reducing peak-to-average power ratio (PAPR) occurring within the 20 MHz HE-SIG-B unit of the HE-SIG-B field, and transforming the N phase-rotated symbols to an orthogonal frequency-division multiplexing (OFDM) symbol of the HE-SIG-B field; and transmitting the HE PPDU. one or more memories; and one or more processors coupled to the one or more memories, the one or more processors configured to cause: generating a high-efficiency (HE) physical layer protocol data unit (PPDU) including an HE signal B (HE-SIG-B) field, wherein the generating comprises: generating coded HE-SIG-B bits , wherein the coded HE-SIG-B bits belong to a 20 MHz HE-SIG-B unit of the HE-SIG-B field, interleaving the coded HE-SIG-B bits to generate interleaved HE-SIG-B bits , modulating the interleaved HE-SIG-B bits to generate N modulated symbols, N being a positive integer, generating N phase-rotated symbols by applying a scrambling sequence to the N modulated symbols, wherein the scrambling sequence is for reducing peak-to-average power ratio (PAPR) occurring within the 20 MHz HE-SIG-B unit of the HE-SIG-B field, and transforming the N phase-rotated symbols to an orthogonal frequency-division multiplexing (OFDM) symbol of the HE-SIG-B field; and transmitting the HE PPDU. generating coded HE-SIG-B bits , wherein the coded HE-SIG-B bits belong to a 20 MHz HE-SIG-B unit of the HE-SIG-B field, interleaving the coded HE-SIG-B bits to generate interleaved HE-SIG-B bits , modulating the interleaved HE-SIG-B bits to generate N modulated symbols, N being a positive integer, generating N phase-rotated symbols by applying a scrambling sequence to the N modulated symbols, wherein the scrambling sequence is for reducing peak-to-average power ratio (PAPR) occurring within the 20 MHz HE-SIG-B unit of the HE-SIG-B field, and transforming the N phase-rotated symbols to an orthogonal frequency-division multiplexing (OFDM) symbol of the HE-SIG-B field; and
Radical polymerization process comprising the following steps: - mixture comprising at least one monomer in the presence of at least one photoinitiator and at least one alkoxyamine, - polymerization of the mixture at a temperature of between -50°C and 80°C until the monomers have been fully converted. - mixture comprising at least one monomer in the presence of at least one photoinitiator and at least one alkoxyamine, - polymerization of the mixture at a temperature of between -50°C and 80°C until the monomers have been fully converted.
A method for producing an aromatic nitrile by using a fixed-bed reactor including a plurality of reaction tubes to allow contact reaction of a gaseous mixture containing an aromatic hydrocarbon, ammonia and oxygen on a catalyst to produce the corresponding aromatic nitrile, wherein: the catalyst is composed of an oxide containing vanadium, chromium and boron, and one or more supports selected from alumina, silica-alumina, zirconia and titania; and one of the reaction tube is filled with the catalyst of one kind to identify the site of a hot spot, and then, for each of the plurality of reaction tubes, a part corresponding at least to said hot spot is filled with inert substance while a part other than that is filled with the catalyst. the catalyst is composed of an oxide containing vanadium, chromium and boron, and one or more supports selected from alumina, silica-alumina, zirconia and titania; and one of the reaction tube is filled with the catalyst of one kind to identify the site of a hot spot, and then, for each of the plurality of reaction tubes, a part corresponding at least to said hot spot is filled with inert substance while a part other than that is filled with the catalyst.
A liquid metal jet X-ray source , comprising: a nozzle for providing a liquid metal jet ; an electron source for providing an electron beam to interact with the liquid metal jet such that X-ray radiation is generated; characterized by an electromagnetic pump for providing liquid metal to the nozzle; wherein the electromagnetic pump comprises a core having a first diameter and an outer yoke with a thickness of at least 20% of said first diameter. a nozzle for providing a liquid metal jet ; an electron source for providing an electron beam to interact with the liquid metal jet such that X-ray radiation is generated; characterized by an electromagnetic pump for providing liquid metal to the nozzle; wherein the electromagnetic pump comprises a core having a first diameter and an outer yoke with a thickness of at least 20% of said first diameter.
A direction finding system for radio direction finding of a target emitting at least one signal , comprising at least one receiver unit with several receivers deployed around the estimated location of the target , at least one antenna assigned to the at least one receiver unit having the several receivers and a central processing unit connected to the at least one receiver unit , wherein each of these receivers has one antenna , wherein each receiver is configured to measure the absolute receiving power of the signal emitted by the target such that the at least one receiver unit is configured to measure an absolute receiving power or a relative receiving power of the signal emitted by the target , wherein the central processing unit is configured to determine the power level of the respective power received by the at least one receiver unit , and wherein the central processing unit is configured to determine interpolated constant power contours in order to locate the target , characterized in that the direction finding system comprises a direction finding unit for approaching the location of the target until a significant change per meter of the free space path loss occurs.
A gas turbine engine comprising first and second mechanical drives extending from a low pressure power turbine rotor in opposite directions for driving at least two independent mechanical loads disposed on opposed sides of the low pressure power turbine rotor , wherein the low pressure power turbine rotor is rotatable about an engine axis the first mechanical drive comprises a low pressure power turbine shaft extending axially from the low pressure power turbine rotor in a first axial direction, the second mechanical drive comprises a compressor drive shaft extending axially from the low pressure power turbine rotor in a second axial direction, the second axial direction is opposite to the first axial direction, the gas turbine engine is configured as a turboprop engine or a turboshaft engine, the at least two independent mechanical loads comprise a propeller or helicopter rotor and a low pressure compressor drivingly connected to the compressor drive shaft , characterised in that the low pressure compressor is drivingly connected to the compressor drive shaft via a gear train , and the gear train is configured to increase the speed of the low pressure compressor relative to the low pressure power turbine rotor .
A foot operable assembly comprising a depressible front foot pedal ; and a translatable heel support mounted longitudinally behind the front foot pedal for supporting a heel of a foot while operating the front foot pedal by a front of the foot, characterized in that the heel support is configured to translate for accommodating a changing position of the supported heel during said operating. a depressible front foot pedal ; and a translatable heel support mounted longitudinally behind the front foot pedal for supporting a heel of a foot while operating the front foot pedal by a front of the foot, characterized in that the heel support is configured to translate for accommodating a changing position of the supported heel during said operating.
An external defibrillator electrode electrolyte dispersal pad, the electrolyte dispersal pad comprising: a substrate defining a plurality of wells , each respective well defining an opening ; an electrolyte material disposed within the plurality of wells; and a conductive material disposed over at least a portion of the plurality of openings and configured to retain the electrolyte material within the plurality of wells, wherein the conductive material is configured to receive a current pulse through a portion of the conductive material to fuse the portion of the conductive material to release the electrolyte material from at least one of the wells. a substrate defining a plurality of wells , each respective well defining an opening ; an electrolyte material disposed within the plurality of wells; and a conductive material disposed over at least a portion of the plurality of openings and configured to retain the electrolyte material within the plurality of wells, wherein the conductive material is configured to receive a current pulse through a portion of the conductive material to fuse the portion of the conductive material to release the electrolyte material from at least one of the wells.
A display comprising: a touch screen panel (303; 403; 503; 603; 703); a display panel (304; 504; 604; 704) disposed under the touch screen panel, and including a first flexible substrate (348; 548; 648; 748); a driving circuit configured to drive the touch screen panel or the display panel; and a second flexible substrate (303B; 403B; 503B; 603B; 703B) extending from a partial portion (303T; 403A; 503T; 603T; 703T) of the touch screen panel to the outside of the touch screen panel, wherein the second flexible substrate comprises: a driving circuit area in which the driving circuit is disposed; at least one first wire (432, 433; 532a; 632b; 732b; 933, 934; 1033B; 1132; 1232; 1332; 1432; 1532; 1632) connected to the driving circuit and the touch screen panel; a bending area (F) bent with respect to the touch screen panel, and the display further comprising: a window (301; 501; 601; 701) disposed on the touch screen panel, and including a transparent area (T) and a bezel area (B) surrounding at least a part of the transparent area, wherein the bending area (F) is disposed under the bezel area (B), and wherein the driving circuit area is disposed under the display panel within the transparent area. a touch screen panel (303; 403; 503; 603; 703); a display panel (304; 504; 604; 704) disposed under the touch screen panel, and including a first flexible substrate (348; 548; 648; 748); a driving circuit configured to drive the touch screen panel or the display panel; and a second flexible substrate (303B; 403B; 503B; 603B; 703B) extending from a partial portion (303T; 403A; 503T; 603T; 703T) of the touch screen panel to the outside of the touch screen panel, wherein the second flexible substrate comprises: a driving circuit area in which the driving circuit is disposed; at least one first wire (432, 433; 532a; 632b; 732b; 933, 934; 1033B; 1132; 1232; 1332; 1432; 1532; 1632) connected to the driving circuit and the touch screen panel; a bending area (F) bent with respect to the touch screen panel, and a driving circuit area in which the driving circuit is disposed; at least one first wire (432, 433; 532a; 632b; 732b; 933, 934; 1033B; 1132; 1232; 1332; 1432; 1532; 1632) connected to the driving circuit and the touch screen panel; a bending area (F) bent with respect to the touch screen panel, and the display further comprising: a window (301; 501; 601; 701) disposed on the touch screen panel, and including a transparent area (T) and a bezel area (B) surrounding at least a part of the transparent area, wherein the bending area (F) is disposed under the bezel area (B), and wherein the driving circuit area is disposed under the display panel within the transparent area. a window (301; 501; 601; 701) disposed on the touch screen panel, and including a transparent area (T) and a bezel area (B) surrounding at least a part of the transparent area, wherein the bending area (F) is disposed under the bezel area (B), and wherein the driving circuit area is disposed under the display panel within the transparent area.
A method implemented on a computing device having at least one processor and at least one computer-readable storage medium , comprising: receiving at least two multimedia signals to be transmitted via one transmission medium from a plurality of channels, wherein each of the at least two multimedia signals includes a video signal; generating a composite multimedia digital signal by coding the at least two multimedia signals in a frame format, the composite multimedia digital signal including one or more frames, the frame format of each frame including an active zone and a blanking zone , the active zone being configured to encode at least part of the at least two multimedia signals, and the blanking zone being configured to encode format information, wherein the format information of each frame is related to the format of the frame and the active zone ; converting at least part of the encoded multimedia signals in the active zone into analog signals to generate a composite multimedia signal, wherein the composite multimedia signal is a mixed signal of digital signals and the analog signals, the digital signals including the encoded format information in the blanking zone ; and transmitting the composite multimedia signal to a receiving device via the transmission medium. receiving at least two multimedia signals to be transmitted via one transmission medium from a plurality of channels, wherein each of the at least two multimedia signals includes a video signal; generating a composite multimedia digital signal by coding the at least two multimedia signals in a frame format, the composite multimedia digital signal including one or more frames, the frame format of each frame including an active zone and a blanking zone , the active zone being configured to encode at least part of the at least two multimedia signals, and the blanking zone being configured to encode format information, wherein the format information of each frame is related to the format of the frame and the active zone ; converting at least part of the encoded multimedia signals in the active zone into analog signals to generate a composite multimedia signal, wherein the composite multimedia signal is a mixed signal of digital signals and the analog signals, the digital signals including the encoded format information in the blanking zone ; and transmitting the composite multimedia signal to a receiving device via the transmission medium.
A method using attribute data files inside a computer system to detect possible security threats in a file that is received and saved, wherein the method comprises: registering , by a service executing on a device, a driver into an operating system of the device to monitor processes, the driver configured to receive notifications from the operating system of processes started or terminated on the device; executing , an attribute data writer on the device, the attribute data writer in communication with the driver to receive notifications from the driver of processes started on the device; receiving , by the attribute data writer, a process identifier, ID, from the driver for a process of an application detected by the driver as starting on the device; injecting , by an injector program launched by the attribute data writer, an attribute data writer library into the process of the application corresponding to the process ID; obtaining, by the attribute data writer library, information on the application and classifying , based on the information, the application into a class of a plurality of classes comprising an email client, a word processor, a web browser, a portable document format reader or writer; causing , by the attribute data writer library, the application to create and store attribute data in an attribute data file, the attribute data corresponding to the class responsive to the file being one of created or opened by the application; when subsequently re-opening the file, using the stored attribute data to identify the file as potentially containing a security threat. registering , by a service executing on a device, a driver into an operating system of the device to monitor processes, the driver configured to receive notifications from the operating system of processes started or terminated on the device; executing , an attribute data writer on the device, the attribute data writer in communication with the driver to receive notifications from the driver of processes started on the device; receiving , by the attribute data writer, a process identifier, ID, from the driver for a process of an application detected by the driver as starting on the device; injecting , by an injector program launched by the attribute data writer, an attribute data writer library into the process of the application corresponding to the process ID; obtaining, by the attribute data writer library, information on the application and classifying , based on the information, the application into a class of a plurality of classes comprising an email client, a word processor, a web browser, a portable document format reader or writer; causing , by the attribute data writer library, the application to create and store attribute data in an attribute data file, the attribute data corresponding to the class responsive to the file being one of created or opened by the application; when subsequently re-opening the file, using the stored attribute data to identify the file as potentially containing a security threat.