mhurhangee/patent-ind-claim-en huggingface dataset:
Dispensing device of a fluid substance, comprising a dispensing button provided with a hole configured for the tight coupling with a hollow stem of a pump or a valve, and a dispensing opening , the dispensing device further comprising a shutter , an elastic element and a mechanical opening element , the dispensing opening being associated with the shutter which, at least when it is subjected to a pressure exerted by the fluid substance to be dispensed, translates in contrast to the elastic element , thereby freeing the dispensing opening , the shutter having at least one projection cooperating with the mechanical opening element associated with the dispensing button , the opening element does not have any part that comes into contact with said fluid substance, the mechanical opening element having a first fixing portion fixed to the dispensing button and a second portion adapted to abut, in use, a fixed part from which the stem extends, wherein the first fixing portion and the second portion are mutually interconnected by at least an elastically deformable part configured to allow at least an axial translation of the second portion with respect to the first fixing portion , an actuation lever extending from the second portion and cooperating with said projection to open the shutter when the second portion is in contact with the fixed part and the elastically deformable part is deformed.
A method in a system for allocating frequency ranges to a plurality of networks, the system comprising a frequency range allocation server configured to execute the method, the method comprising the frequency range allocation server - defining a geographical area, wherein the plurality of networks operate in the defined geographical area; - identifying first frequency parameters associated with each of the plurality of networks in the defined geographical area, wherein the frequency parameters associated with a network comprise a frequency range and a priority order thereof, wherein a priority order of a network relates to an order of preference given to the network in comparison to remaining networks sharing a same frequency range; - determining second frequency parameters for at least one of the plurality of networks based on an event, wherein the second frequency parameters comprise a different frequency range and a different priority order than the first frequency parameters; and - allocating the second frequency parameters to the at least one of the plurality of networks for a predetermined period of time upon the occurrence of the event, wherein the at least one of the plurality of networks is configured to operate on a frequency range associated with the second frequency parameters, and is assigned a priority order corresponding to the second frequency parameters. - defining a geographical area, wherein the plurality of networks operate in the defined geographical area; - identifying first frequency parameters associated with each of the plurality of networks in the defined geographical area, wherein the frequency parameters associated with a network comprise a frequency range and a priority order thereof, wherein a priority order of a network relates to an order of preference given to the network in comparison to remaining networks sharing a same frequency range; - determining second frequency parameters for at least one of the plurality of networks based on an event, wherein the second frequency parameters comprise a different frequency range and a different priority order than the first frequency parameters; and - allocating the second frequency parameters to the at least one of the plurality of networks for a predetermined period of time upon the occurrence of the event, wherein the at least one of the plurality of networks is configured to operate on a frequency range associated with the second frequency parameters, and is assigned a priority order corresponding to the second frequency parameters.
A method for execution by an access point, AP within a radio access network, RAN, the method comprising: receiving , by the AP, data for transmission to a User Equipment, UE; and wirelessly transmitting , by the AP, the received data to the UE using a set of transmission parameters associated with a RAN slice associated with the received data; selecting the RAN slice associated with the received data from a set of RAN slices supported by the AP, wherein the set of RAN slices is associated with different respective sets of transmission parameters to enable the AP to provide different services for the UE within the RAN, and wherein at least one parameter in the respective set of transmission parameters is selected from a list comprising: radio frequency and time resources, a transmission waveform, and a numerology. receiving , by the AP, data for transmission to a User Equipment, UE; and wirelessly transmitting , by the AP, the received data to the UE using a set of transmission parameters associated with a RAN slice associated with the received data; selecting the RAN slice associated with the received data from a set of RAN slices supported by the AP, wherein the set of RAN slices is associated with different respective sets of transmission parameters to enable the AP to provide different services for the UE within the RAN, and wherein at least one parameter in the respective set of transmission parameters is selected from a list comprising: radio frequency and time resources, a transmission waveform, and a numerology.
A method of controlling a response to a radio link failure in a dual connectivity wireless network in which a mobile station is connected to both a master base station associated with a primary cell and a secondary base station associated with a secondary cell, the method comprising: detecting , by the mobile station, a radio link failure for a logical channel of a radio link between the mobile station and the secondary base station, wherein detecting comprises detecting, by the mobile station, a maximum number of retransmissions defined for the logical channel of the radio link between the mobile station and the secondary base station being reached; suspending , by the mobile station, a radio link control entity of the mobile station that is associated with the logical channel of the radio link between the mobile station and the secondary base station; and sending , by the mobile station, a radio link failure notification to the master base station. detecting , by the mobile station, a radio link failure for a logical channel of a radio link between the mobile station and the secondary base station, wherein detecting comprises detecting, by the mobile station, a maximum number of retransmissions defined for the logical channel of the radio link between the mobile station and the secondary base station being reached; suspending , by the mobile station, a radio link control entity of the mobile station that is associated with the logical channel of the radio link between the mobile station and the secondary base station; and sending , by the mobile station, a radio link failure notification to the master base station.
An antenna, comprising: a dielectric plate ; at least one radiating patch provided on top of the dielectric plate ; at least one delay line provided below the dielectric plate ; wherein the dielectric plate comprises at least one first high-dielectric constant layer having a dielectric constant of 3.8-4.4 and one first foam plate contiguous with each other, a variable dielectric constant layer provided below the delay line ; a ground plane provided below the variable dielectric constant layer ; a bottom insulating plate provided below the ground plane ; and, a feed line provided below the bottom insulating plate ; wherein the bottom insulating plate comprises a second foam plate sandwiched between two glass plates (452; 456) or a second foam plate sandwiched between two polyethylene terephthalate plates (452; 456). a dielectric plate ; at least one radiating patch provided on top of the dielectric plate ; at least one delay line provided below the dielectric plate ; wherein the dielectric plate comprises at least one first high-dielectric constant layer having a dielectric constant of 3.8-4.4 and one first foam plate contiguous with each other, a variable dielectric constant layer provided below the delay line ; a ground plane provided below the variable dielectric constant layer ; a bottom insulating plate provided below the ground plane ; and, a feed line provided below the bottom insulating plate ; wherein the bottom insulating plate comprises a second foam plate sandwiched between two glass plates (452; 456) or a second foam plate sandwiched between two polyethylene terephthalate plates (452; 456).
A pharmaceutical formulation printing device , comprising: a pharmaceutical formulation transporting device comprising a first pulley , a second pulley , and a plurality of endless transport belts wound around the first pulley and the second pulley , wherein the plurality of transport belts being disposed so as to be capable of holding a solid pharmaceutical formulation (F) between respective first side surfaces; and a plurality of printers for respectively printing on a front and back of a solid pharmaceutical formulation (F) transported by the plurality of transport belts of the pharmaceutical formulation transporting device .
A vehicle brake-specific diaphragm including a vessel-form member and a flange portion formed at a peripheral edge of an opening in said vessel-form member , wherein: said vessel-form member and said flange portion are each formed of a rubber body comprising silicone rubber and a substrate fabric embedded in said rubber body , characterized by said substrate fabric comprising aramid short fibers or polyester fibers, and having a thickness of 0.25 mm or more. said vessel-form member and said flange portion are each formed of a rubber body comprising silicone rubber and a substrate fabric embedded in said rubber body , characterized by said substrate fabric comprising aramid short fibers or polyester fibers, and having a thickness of 0.25 mm or more.
X-ray tube having - an electron emitter emitting an electron beam and - a multilayer anode , - wherein the multilayer anode has a first anode layer facing the electron beam and a second anode layer facing away from the electron beam , - wherein the first anode layer has a first anode material for generating a braking radiation by means of the incoming electron beam - wherein the second anode layer has a second anode material for generating a further x-ray radiation by means of the braking radiation, - wherein the second anode material is converter material, - wherein as a result the further x-ray radiation is more monochromatic than the braking radiation because an emission spectrum of the braking radiation is wider band compared with an emission spectrum of the further x-ray radiation, - wherein the first anode layer and the second anode layer adjoin one another in a planar manner, - wherein the first anode layer together with the second anode layer forms an anode microstructure , - wherein the anode microstructure is arranged in a periodically recurring manner along a surface of the multilayer anode , - wherein the electron beam impinges on the surface at an angle of incidence of less than 90° and - wherein the angle of incidence can amount in particular to between 10° and 60°. - an electron emitter emitting an electron beam and - a multilayer anode , - wherein the multilayer anode has a first anode layer facing the electron beam and a second anode layer facing away from the electron beam , - wherein the first anode layer has a first anode material for generating a braking radiation by means of the incoming electron beam - wherein the second anode layer has a second anode material for generating a further x-ray radiation by means of the braking radiation, - wherein the second anode material is converter material, - wherein as a result the further x-ray radiation is more monochromatic than the braking radiation because an emission spectrum of the braking radiation is wider band compared with an emission spectrum of the further x-ray radiation, - wherein the first anode layer and the second anode layer adjoin one another in a planar manner, - wherein the first anode layer together with the second anode layer forms an anode microstructure , - wherein the anode microstructure is arranged in a periodically recurring manner along a surface of the multilayer anode , - wherein the electron beam impinges on the surface at an angle of incidence of less than 90° and - wherein the angle of incidence can amount in particular to between 10° and 60°.
A refrigerator comprising a body having at least one powered read antenna for reading an RFID tag (A) within its read range, at least one shelf for supporting items to be refrigerated characterised in that the at least one shelf is releasable and the body , further comprising at least one unpowered passive antenna for increasing reading capability of the read antenna wherein the at least one read antenna is integrated into at least one wall of the body and wherein the at least one passive antenna is disposed on the at least one shelf.
A damper system, comprising: an inner damper having a first annular geometry and a first textured surface ; an outer damper comprising a second annular geometry disposed about the inner damper , the outer damper having a second textured surface (402 ... 412); and a cavity at least partially defined by the first textured surface (402 ... 412) and the second textured surface (402 ... 412), wherein the cavity is configured to contain a viscous fluid to provide damping, characterised by further comprising an intermediate damper having an annular geometry and disposed between the outer damper and the inner damper , wherein the intermediate damper has one or more textured surfaces configured to improve the flow characteristics of viscous fluid. an inner damper having a first annular geometry and a first textured surface ; an outer damper comprising a second annular geometry disposed about the inner damper , the outer damper having a second textured surface (402 ... 412); and a cavity at least partially defined by the first textured surface (402 ... 412) and the second textured surface (402 ... 412), wherein the cavity is configured to contain a viscous fluid to provide damping, characterised by further comprising an intermediate damper having an annular geometry and disposed between the outer damper and the inner damper , wherein the intermediate damper has one or more textured surfaces configured to improve the flow characteristics of viscous fluid.
A metal bellows assembly comprising: a metal bellows in an annular shape, comprising, axially repeatedly, a structure in which, from an axial end portion, a belly, a valley, a belly, a peak, and a belly are integrally formed in series sequentially in this order, wherein the end portion has a first connection belly connected to a fitting member , and a connection valley and a second connection belly extending sequentially from the first connection belly axially inward, and the connection valley in a free state has an axial width (b1) set larger than an axial width (b2, b3) of valleys or peaks in a portion other than the end portion , characterized in that the connection valley includes a linear portion (s) parallel to an axial direction, and a vibration damping ring suitable for guiding axial movement of the metal bellows in a shell during extension and contraction operations is provided in the connection valley at an end portion on a freely moving end side of the metal bellows . a metal bellows in an annular shape, comprising, axially repeatedly, a structure in which, from an axial end portion, a belly, a valley, a belly, a peak, and a belly are integrally formed in series sequentially in this order, wherein the end portion has a first connection belly connected to a fitting member , and a connection valley and a second connection belly extending sequentially from the first connection belly axially inward, and the connection valley in a free state has an axial width (b1) set larger than an axial width (b2, b3) of valleys or peaks in a portion other than the end portion , characterized in that the connection valley includes a linear portion (s) parallel to an axial direction, and a vibration damping ring suitable for guiding axial movement of the metal bellows in a shell during extension and contraction operations is provided in the connection valley at an end portion on a freely moving end side of the metal bellows .
A sliding type glove box comprising: a housing configured to be mounted to a dashboard; a plurality of rails provided inside the housing ; and a storage part configured to be ejected in a sliding manner while being moved along the rails , wherein the rails comprise: outer rails mounted to the housing ; and inner rails configured to be movable along the outer rails and connected to a lower portion of the storage part , wherein each of the outer rails has a stopper removably provided thereon to limit a moving distance of the storage part , characterized in that a connection piece that is connected to the stopper is provided on a longitudinal end of each of the outer rails , the connection piece being configured to be bent from the longitudinal end of the outer rail toward a lateral portion of the housing . a housing configured to be mounted to a dashboard; a plurality of rails provided inside the housing ; and a storage part configured to be ejected in a sliding manner while being moved along the rails , wherein the rails comprise: outer rails mounted to the housing ; and inner rails configured to be movable along the outer rails and connected to a lower portion of the storage part , wherein each of the outer rails has a stopper removably provided thereon to limit a moving distance of the storage part , characterized in that a connection piece that is connected to the stopper is provided on a longitudinal end of each of the outer rails , the connection piece being configured to be bent from the longitudinal end of the outer rail toward a lateral portion of the housing . outer rails mounted to the housing ; and inner rails configured to be movable along the outer rails and connected to a lower portion of the storage part , wherein each of the outer rails has a stopper removably provided thereon to limit a moving distance of the storage part , characterized in that a connection piece that is connected to the stopper is provided on a longitudinal end of each of the outer rails , the connection piece being configured to be bent from the longitudinal end of the outer rail toward a lateral portion of the housing .
A method for preparing an enriched IgG composition from plasma, the method comprising the steps of: (a) precipitating a cryo-poor plasma fraction, in a first precipitation step, with between 6% and 10% (v/v) alcohol at a pH of between 7.0 and 7.5 to obtain a first precipitate and a first supernatant; (b) precipitating IgG from the first supernatant, in a second precipitation step, with between 20% and 25% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a second precipitate; (c) re-suspending the second precipitate to form a suspension; (d) precipitating IgG from the suspension formed in step (c), in a third precipitation step, with between 22% and 28% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a third precipitate; (e) re-suspending the third precipitate to form a suspension; and (f) separating the soluble fraction from the suspension formed in step (e), thereby forming an enriched IgG composition, wherein the pH of at least one of the first precipitation step, second precipitation step, or third precipitation step is achieved by addition of a pH modifying solution after addition of the alcohol, and wherein optionally, the pH of the precipitation step is additionally also modified before the addition of alcohol, during the addition of alcohol, or before, and during the addition of alcohol. (a) precipitating a cryo-poor plasma fraction, in a first precipitation step, with between 6% and 10% (v/v) alcohol at a pH of between 7.0 and 7.5 to obtain a first precipitate and a first supernatant; (b) precipitating IgG from the first supernatant, in a second precipitation step, with between 20% and 25% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a second precipitate; (c) re-suspending the second precipitate to form a suspension; (d) precipitating IgG from the suspension formed in step (c), in a third precipitation step, with between 22% and 28% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a third precipitate; (e) re-suspending the third precipitate to form a suspension; and (f) separating the soluble fraction from the suspension formed in step (e), thereby forming an enriched IgG composition,
A cartridge for an electronic vapour inhaler , the cartridge comprising: an elongate induction heatable element ; and a flavour-release medium adhered to an outer surface of the elongate induction heatable element characterized in that the cartridge further comprises a layer of thermally-insulating material between the induction heatable element and the flavour-release medium . an elongate induction heatable element ; and a flavour-release medium adhered to an outer surface of the elongate induction heatable element characterized in that the cartridge further comprises a layer of thermally-insulating material between the induction heatable element and the flavour-release medium .
A near net shape additive manufacturing method of fabricating a medical device for implantation in a human or animal body, the method comprising: applying a pulsed laser energy to a first quantity of a pre-alloyed metallic powder material comprising Titanium, Nickel and Hafnium on a substrate so as to fuse particles of the pre-alloyed powder material into a first layer on the substrate; forming at least one additional layer on the first layer by applying a pulsed laser energy to at least a second quantity of the pre-alloyed powder material on the first layer so as to fuse particles of the pre-alloyed powder material into the at least one additional layer on the first layer; and repeating the applying and the forming steps to fabricate a near net shape medical device from the pre-alloyed powder material; and wherein the pre-alloyed metallic powder material has: a Hafnium atomic percentage of between 4-10%, Ni atomic percentage between 50.5 - 51.5 % with the remainder being Ti. applying a pulsed laser energy to a first quantity of a pre-alloyed metallic powder material comprising Titanium, Nickel and Hafnium on a substrate so as to fuse particles of the pre-alloyed powder material into a first layer on the substrate; forming at least one additional layer on the first layer by applying a pulsed laser energy to at least a second quantity of the pre-alloyed powder material on the first layer so as to fuse particles of the pre-alloyed powder material into the at least one additional layer on the first layer; and repeating the applying and the forming steps to fabricate a near net shape medical device from the pre-alloyed powder material; and wherein the pre-alloyed metallic powder material has: a Hafnium atomic percentage of between 4-10%, Ni atomic percentage between 50.5 - 51.5 % with the remainder being Ti.