mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel injection valve for injecting fuel into a cylinder of an internal combustion engine, comprising a cylindrical nozzle body which has a tip portion formed to have a conical shape, an injection hole which penetrates from an inner circumferential surface to an outer circumferential surface of the nozzle body, and a valve plug which is accommodated slidably in the nozzle body and which opens/closes the injection hole , wherein: the injection hole is constructed so that a small diameter portion , which is positioned on a side of the inner circumferential surface of the nozzle body , is communicated with a large diameter portion which is positioned on a side of the outer circumferential surface of the nozzle body and which has a hole diameter larger than that of the small diameter portion , with a stepped portion intervening therebetween; a ratio of the hole diameter of the large diameter portion with respect to the hole diameter of the small diameter portion is not less than 3.1 and not more than 4.0; a ratio of a length of the large diameter portion with respect to a length of the small diameter portion is not less than 0.25 and not more than 0.55; and a ratio of the length of the large diameter portion with respect to the hole diameter of the large diameter portion is not less than 0.4 and not more than 1.6. the injection hole is constructed so that a small diameter portion , which is positioned on a side of the inner circumferential surface of the nozzle body , is communicated with a large diameter portion which is positioned on a side of the outer circumferential surface of the nozzle body and which has a hole diameter larger than that of the small diameter portion , with a stepped portion intervening therebetween; a ratio of the hole diameter of the large diameter portion with respect to the hole diameter of the small diameter portion is not less than 3.1 and not more than 4.0; a ratio of a length of the large diameter portion with respect to a length of the small diameter portion is not less than 0.25 and not more than 0.55; and a ratio of the length of the large diameter portion with respect to the hole diameter of the large diameter portion is not less than 0.4 and not more than 1.6.
A method, by a terminal , for downloading a profile on an embedded universal integrated circuit card, eUICC , of the terminal, the method comprising: transmitting, to a profile providing server through a security channel , a profile-related request message including eUICC authentication information; receiving, from the profile providing server, profile-related information as a response to the profile-related request message; displaying, on a screen , non-encrypted profile information included in the profile-related information; identifying whether a user input to download the profile is detected ; in case that the input to download the profile is detected, generating encryption information for the profile and transmitting the encryption information for the profile to the profile providing server; receiving, from the profile providing server, a profile installation package including the profile encrypted; and decoding the encrypted profile based on a session key, wherein the session key is generated by the terminal based on encryption-related information included in the profile installation package. transmitting, to a profile providing server through a security channel , a profile-related request message including eUICC authentication information; receiving, from the profile providing server, profile-related information as a response to the profile-related request message; displaying, on a screen , non-encrypted profile information included in the profile-related information; identifying whether a user input to download the profile is detected ; in case that the input to download the profile is detected, generating encryption information for the profile and transmitting the encryption information for the profile to the profile providing server; receiving, from the profile providing server, a profile installation package including the profile encrypted; and decoding the encrypted profile based on a session key, wherein the session key is generated by the terminal based on encryption-related information included in the profile installation package.
Method for transmitting data between a prosthesis system and an input device , wherein the prosthesis system has a plurality of prosthesis components which have at least one electronic and/or mechatronic component , wherein the prosthesis system is connected to the input device via at least one interface , whreas at least two electronic and/or mechatronic components , in a state when connected to the prosthesis components , are together connected to the input device , and data are transmitted or exchanged via the one input device , characterized in that multiple electronic components are supplied with data simultaneously and/or multiple electronic components transmit data simultaneously.
An impact mill for grinding loose material, comprising: - at least a main rotor moving in rotation around a first axis inside a grinding chamber ; - at least a secondary rotor moving in rotation around a second axis inside an inlet chamber of the material to be ground communicating with said grinding chamber , said secondary rotor being suitable for sending the material to be ground inside said grinding chamber ; - said inlet chamber and said grinding chamber being delimited by at least two respective side walls arranged substantially transversal to said first and second axes , respectively and by at least a connection wall placed between the respective side walls to surround at least in part the relative rotor , said first and second axes being arranged substantially horizontally and parallel to one another; characterised by the fact that said inlet chamber has an inlet gap of the material to be ground defined on at least one of said side walls , by the fact that said inlet gap is arranged along said second axis of rotation, by the fact that said secondary rotor comprises a base plate facing said inlet gap and with which are associated integral a plurality of throw elements for throwing the material to be ground, where said throw elements extend starting from the perimeter edge of said base plate towards said second axis and are spaced from the latter so as to delimit a receiving area of the material to be ground, arriving from the inlet gap , free and without protrusions, substantially facing said inlet gap , said receiving area being arranged in correspondence to the central portion of the base plate , by the fact that said inlet chamber and said grinding chamber communicate with each other by means of a connection gap defined on the respective connection walls , said connection gap being arranged so that the material sent by said secondary rotor is directed towards the lower portion of said grinding chamber , said main rotor and said secondary rotor being synchronized together so that the material to be ground substantially impacts in a perpendicular way the front face of said crushing elements upon their transit, and by the fact that said inlet chamber has a collection area of the material to be ground entering from said inlet gap , said collection area being arranged at a lower height than said receiving area and said connection gap . - at least a main rotor moving in rotation around a first axis inside a grinding chamber ; - at least a secondary rotor moving in rotation around a second axis inside an inlet chamber of the material to be ground communicating with said grinding chamber , said secondary rotor being suitable for sending the material to be ground inside said grinding chamber ; - said inlet chamber and said grinding chamber being delimited by at least two respective side walls arranged substantially transversal to said first and second axes , respectively and by at least a connection wall placed between the respective side walls to surround at least in part the relative rotor , said first and second axes being arranged substantially horizontally and parallel to one another;
Coating machine designed to cover an article to be coated with coating, the article to be coated being mainly formed by a tannery element or by a textile element, the coating machine comprising: - a positioning support intended to position said article to be coated in a coating position, - a sprayer mounted so as to be able to move in relation to the positioning support and designed to spray the coating onto said article to be coated, - a motor with a variable speed (ω) designed to set said sprayer in motion along a spray path (C-C') suitable for said sprayer to coat the article to be coated, when the latter is positioned in the coating position thereof, the coating machine being characterised in that the motor is provided with a rotor enabling the sprayer to be set in motion by means of a kinematic chain connecting the rotor to the sprayer , the coating machine also comprising a control means designed: - to determine the position of said sprayer according to the number of rotations made by the rotor and/or the angular position of said rotor and/or the direction of rotation of said rotor , and - to automatically vary the speed (ω) of the motor according to the position of said sprayer , so as to cause an acceleration or a deceleration of said sprayer . - a positioning support intended to position said article to be coated in a coating position, - a sprayer mounted so as to be able to move in relation to the positioning support and designed to spray the coating onto said article to be coated, - a motor with a variable speed (ω) designed to set said sprayer in motion along a spray path (C-C') suitable for said sprayer to coat the article to be coated, when the latter is positioned in the coating position thereof, - to determine the position of said sprayer according to the number of rotations made by the rotor and/or the angular position of said rotor and/or the direction of rotation of said rotor , and - to automatically vary the speed (ω) of the motor according to the position of said sprayer , so as to cause an acceleration or a deceleration of said sprayer .
A method of receiving downlink control information by a User Equipment, UE in a wireless communication system, the method comprising: receiving , from a Base Station, BS, beam association information between Reception, Rx, beams of the UE and Transmission, Tx, beams of the BS; and attempting blind detection of a physical downlink control channel carrying the downlink control information based on the beam association information, wherein the beam association information indicates at least two beam pairs, wherein each of the at least two beam pairs includes one of the Rx beams of the UE and one of the Tx beams of the BS associated with the one of the Rx beams of the UE , wherein the UE configures an Rx beam to be used for the blind detection of the physical downlink control channel according to the at least two beam pairs indicated by the beam association information, wherein the UE receives, from the BS , information regarding at least one of control resource sets, CORESETs, where the at least two beam pairs are configured respectively and monitoring sets where the UE should monitor the at least two beam pairs respectively, wherein the UE applies different Quasi Co-Location, QCL, assumptions to the CORESETs, respectively, wherein the UE assumes that the CORESETs are Quasi Co-Located, QCLed, with different Channel State Information-Reference Signals, CSI-RSs, respectively, and wherein the at least two beam pairs are configured in different symbols within a same subframe, respectively. receiving , from a Base Station, BS, beam association information between Reception, Rx, beams of the UE and Transmission, Tx, beams of the BS; and attempting blind detection of a physical downlink control channel carrying the downlink control information based on the beam association information, wherein the beam association information indicates at least two beam pairs, wherein each of the at least two beam pairs includes one of the Rx beams of the UE and one of the Tx beams of the BS associated with the one of the Rx beams of the UE , wherein the UE configures an Rx beam to be used for the blind detection of the physical downlink control channel according to the at least two beam pairs indicated by the beam association information, wherein the UE receives, from the BS , information regarding at least one of control resource sets, CORESETs, where the at least two beam pairs are configured respectively and monitoring sets where the UE should monitor the at least two beam pairs respectively, wherein the UE applies different Quasi Co-Location, QCL, assumptions to the CORESETs, respectively, wherein the UE assumes that the CORESETs are Quasi Co-Located, QCLed, with different Channel State Information-Reference Signals, CSI-RSs, respectively, and wherein the at least two beam pairs are configured in different symbols within a same subframe, respectively.
Retaining structure for simultaneously holding a plurality of containers for substances for pharmaceutical, medical or cosmetic applications, with a plurality of receptacles for receiving said containers therein at least in sections, wherein said containers have a cylindrical base body with a predetermined outer diameter, wherein the receptacles each have an open upper end for inserting the containers into the receptacles and a lower end with a retaining section to limit the axial mobility of the containers in the receptacles, and guide sections are provided for guiding the containers during insertion into the receptacles, wherein the guide sections comprise upper guide and positioning sections near the upper ends of the receptacles and lower guide and positioning sections near the lower ends of the receptacles, which are formed separately from each other and limit a radial mobility of the containers in the receptacles, characterized in that the retaining structure is formed in one piece from a plastic by injection molding, wherein the upper and/or lower guiding and positioning sections are each formed as, respectively, lower or upper guiding and positioning nose , which project radially inward into the receptacles , or as, respectively, narrow upper or lower guiding rib , extending in the longitudinal direction of the receptacles and each projecting radially inwardly into the receptacles. the receptacles each have an open upper end for inserting the containers into the receptacles and a lower end with a retaining section to limit the axial mobility of the containers in the receptacles, and guide sections are provided for guiding the containers during insertion into the receptacles, wherein the guide sections comprise upper guide and positioning sections near the upper ends of the receptacles and lower guide and positioning sections near the lower ends of the receptacles, which are formed separately from each other and limit a radial mobility of the containers in the receptacles, characterized in that the retaining structure is formed in one piece from a plastic by injection molding, wherein the upper and/or lower guiding and positioning sections are each formed as, respectively, lower or upper guiding and positioning nose , which project radially inward into the receptacles , or as, respectively, narrow upper or lower guiding rib , extending in the longitudinal direction of the receptacles and each projecting radially inwardly into the receptacles.
A light detection sensor comprising: a light source for radiating light to a detection object (T); and a light receiver comprising a plurality of detectors for detecting intensity of light from the detection object (T), wherein the plurality of detectors comprises at least, a first detector for detecting intensity of light of a first wavelength band, and a second detector for detecting intensity of light of a second wavelength band different from the first wavelength band, wherein sensitivity of the first detector to the light of the first wavelength band is lower than sensitivity of the second detector to the light of the second wavelength band, and a light receiving area of the first detector is larger than a light receiving area of the second detector . a light source for radiating light to a detection object (T); and a light receiver comprising a plurality of detectors for detecting intensity of light from the detection object (T), wherein the plurality of detectors comprises at least, a first detector for detecting intensity of light of a first wavelength band, and a second detector for detecting intensity of light of a second wavelength band different from the first wavelength band, wherein sensitivity of the first detector to the light of the first wavelength band is lower than sensitivity of the second detector to the light of the second wavelength band, and a light receiving area of the first detector is larger than a light receiving area of the second detector .
A membrane filter module configured to treat a liquid contained in a tank at an ambient pressure, the module comprising: a header ; a bundle containing a plurality of vertical hollow fiber membranes , wherein a lower end of each hollow fiber membrane is fixed in the header , wherein each hollow fiber membrane has an external surface, and a sealed, freely movable upper end suspended by and adapted to float in the liquid in the tank; a gasification device adapted to periodically generate a gaseous bubble and configured to release the gaseous bubble within the bundle , wherein the gasification device is configured to release the gaseous bubble from an air tube through the header into the center of the bundle ; and an enclosure that surrounds the bundle that extends from a lower region to an upper region of the membrane bundle , wherein the enclosure is configured to retain the liquid introduced into the enclosure such that the liquid surrounds the membrane bundle , wherein the enclosure is further configured to retain the gaseous bubble introduced into the enclosure such that the gaseous bubble maintains contact with the bundle along the entire length of the bundle ; and wherein the gaseous bubble has a cross-sectional area that corresponds with a cross-sectional area of the enclosure , such that the cross-sectional area of the gaseous bubble occupies more than 75 % of the cross-sectional area of the enclosure as it flows along the bundle . a header ; a bundle containing a plurality of vertical hollow fiber membranes , wherein a lower end of each hollow fiber membrane is fixed in the header , wherein each hollow fiber membrane has an external surface, and a sealed, freely movable upper end suspended by and adapted to float in the liquid in the tank; a gasification device adapted to periodically generate a gaseous bubble and configured to release the gaseous bubble within the bundle , wherein the gasification device is configured to release the gaseous bubble from an air tube through the header into the center of the bundle ; and an enclosure that surrounds the bundle that extends from a lower region to an upper region of the membrane bundle , wherein the enclosure is configured to retain the liquid introduced into the enclosure such that the liquid surrounds the membrane bundle , wherein the enclosure is further configured to retain the gaseous bubble introduced into the enclosure such that the gaseous bubble maintains contact with the bundle along the entire length of the bundle ; and wherein the gaseous bubble has a cross-sectional area that corresponds with a cross-sectional area of the enclosure , such that the cross-sectional area of the gaseous bubble occupies more than 75 % of the cross-sectional area of the enclosure as it flows along the bundle .
A pouched product for oral use comprising a liquid permeable pouch and a nicotine containing filling material enclosed by the pouch, wherein the filling material - is a tobacco free filling material or comprises tobacco material in an amount of at most 10 % by total weight of the filling material; - has a pre-use moisture content of from 1 % to 35 % by total weight of the filling material; - contains nicotine in an amount of from 0.5 % to 2 % by total weight of the filling material; and - comprises water insoluble substrate particles and one or more water-soluble components; wherein the water insoluble substrate particles are ball-shaped particles constituting at least 65 % by dry weight of the filling material, the water insoluble substrate particles having a particle size of from 0.3 mm to 0.6 mm, and wherein the filling material contains less than 0.5 % by weight of particles passing through a sieve having a mesh size of 250 μm. - is a tobacco free filling material or comprises tobacco material in an amount of at most 10 % by total weight of the filling material; - has a pre-use moisture content of from 1 % to 35 % by total weight of the filling material; - contains nicotine in an amount of from 0.5 % to 2 % by total weight of the filling material; and - comprises water insoluble substrate particles and one or more water-soluble components; wherein the water insoluble substrate particles are ball-shaped particles constituting at least 65 % by dry weight of the filling material, the water insoluble substrate particles having a particle size of from 0.3 mm to 0.6 mm, and wherein the filling material contains less than 0.5 % by weight of particles passing through a sieve having a mesh size of 250 μm.
Nanoparticles comprising chitosan and an antigen, characterized in that the chitosan has a degree of deacetylation of 90% and a molecular weight from 5 kDa to 80 kDa and the antigen is a peptide, and that the nanoparticles have a mean size from 200 nm to 400 nm and contain a counterion that is carboxymethylcellulose, pyrophosphate, heparin, hyaluronic acid or poly(acrylic acid).