mhurhangee/patent-ind-claim-en huggingface dataset:
A medicament injection device comprising: - a cylindrical rotator arranged with mechanical members on its outer surface that are configured to co-operate with mechanical members arranged on an inner surface of another part of the device , so as to cause a relative turning action therebetween, wherein the cylindrical rotator is arranged inside said another part; and - a third part for acting on a syringe or ampoule containing medicament, the third part being arranged with a protrusion for being held by a stop ledge with a preset extension arranged on the rotator , the protrusion being arranged, by said relative turning action, to move past the preset extension of the stop ledge, whereby the third part is free to act on a content of the syringe or ampoule and thus to inject a dose of medicament, wherein the mechanical members arranged on the cylindrical rotator comprise an inclined ridge or guide, on which said mechanical members of said another part can slide along, so as to cause the relative turning action therebetween. - a cylindrical rotator arranged with mechanical members on its outer surface that are configured to co-operate with mechanical members arranged on an inner surface of another part of the device , so as to cause a relative turning action therebetween, wherein the cylindrical rotator is arranged inside said another part; and - a third part for acting on a syringe or ampoule containing medicament, the third part being arranged with a protrusion for being held by a stop ledge with a preset extension arranged on the rotator , the protrusion being arranged, by said relative turning action, to move past the preset extension of the stop ledge, whereby the third part is free to act on a content of the syringe or ampoule and thus to inject a dose of medicament,
A process for manufacturing a glass container that includes the following steps in the sequence set forth: (a) forming a soda-lime-silica glass container that includes exchangeable metal ions of sodium (Na + ) and calcium (Ca 2+ ); (b) annealing the glass container; (c) contacting at least a portion of the glass container with an aqueous electrolyte solution having a temperature between 70 degrees Celsius and 100 degrees Celsius and comprising group IA alkali metal ions having ionic radii larger than that of sodium (Na + ) or calcium (Ca 2+ ) and a salt mass fraction in the range of 10-50%; (d) maintaining the glass container in contact with the aqueous electrolyte solution for a time sufficient to exchange at least a portion of the exchangeable metal ions in a surface portion of the glass container with at least a portion of the group IA alkali metal ions in the aqueous electrolyte solution; (e) removing the glass container from contact with the aqueous electrolyte solution; (f) rinsing the glass container with a liquid to remove any residual salts therefrom; and then (g) applying a cold-end coating to the glass container over the surface portion of the glass container. (a) forming a soda-lime-silica glass container that includes exchangeable metal ions of sodium (Na + ) and calcium (Ca 2+ ); (b) annealing the glass container; (c) contacting at least a portion of the glass container with an aqueous electrolyte solution having a temperature between 70 degrees Celsius and 100 degrees Celsius and comprising group IA alkali metal ions having ionic radii larger than that of sodium (Na + ) or calcium (Ca 2+ ) and a salt mass fraction in the range of 10-50%; (d) maintaining the glass container in contact with the aqueous electrolyte solution for a time sufficient to exchange at least a portion of the exchangeable metal ions in a surface portion of the glass container with at least a portion of the group IA alkali metal ions in the aqueous electrolyte solution; (e) removing the glass container from contact with the aqueous electrolyte solution; (f) rinsing the glass container with a liquid to remove any residual salts therefrom; and then (g) applying a cold-end coating to the glass container over the surface portion of the glass container.
An assembly for use with a gas turbine engine , said assembly comprising: a tie rod for extending radially outwardly from a latitudinal axis of said gas turbine engine said tie rod having; a length having a longitudinal axis , a base (90;200;300), in use, having a width parallel to said latitudinal axis , wherein said base(90;200;300) is wider than a width of said length, and a first connector (215;241;315) for attaching said base (90;200;300) of said tie rod to a bearing assembly of said gas turbine engine , characterised in that : said base (90;200;300) has a counterbore (205;310) disposed therein; and said connector (215;241;315) comprises a body having a shaft removably attaching, at a first end portion thereof, to said counterbore (205;310), wherein said shaft and said counterbore (205;310) are disposed in parallel with said longitudinal axis ; wherein said counterbore is not coaxial with said longitudinal axis ; and wherein the tie rod comprises a cooling passage which extends along the longitudinal axis . a tie rod for extending radially outwardly from a latitudinal axis of said gas turbine engine said tie rod having; a length having a longitudinal axis , a base (90;200;300), in use, having a width parallel to said latitudinal axis , wherein said base(90;200;300) is wider than a width of said length, and a length having a longitudinal axis , a base (90;200;300), in use, having a width parallel to said latitudinal axis , wherein said base(90;200;300) is wider than a width of said length, and a first connector (215;241;315) for attaching said base (90;200;300) of said tie rod to a bearing assembly of said gas turbine engine , characterised in that : said base (90;200;300) has a counterbore (205;310) disposed therein; and said connector (215;241;315) comprises said base (90;200;300) has a counterbore (205;310) disposed therein; and said connector (215;241;315) comprises a body having a shaft removably attaching, at a first end portion thereof, to said counterbore (205;310), wherein said shaft and said counterbore (205;310) are disposed in parallel with said longitudinal axis ; wherein said counterbore is not coaxial with said longitudinal axis ; and wherein the tie rod comprises a cooling passage which extends along the longitudinal axis .
A method for receiving, by a user equipment, downlink data, the method comprising: repeatedly receiving, by the user equipment, a physical downlink control channel, PDCCH, carrying downlink control information across N consecutive transmission time intervals, TTIs, where N is an integer greater than 1, characterised by : repeatedly receiving, by the user equipment, a physical downlink shared channel, PDSCH, carrying the downlink data, across D consecutive TTIs starting from a TTI n+k after a TTI n in which the PDCCH is last received, based on the downlink control information, where D is a positive integer, wherein k is an integer greater than 1, and wherein each TTI consists of 14 orthogonal frequency division multiplexing, OFDM, symbols in a time domain. repeatedly receiving, by the user equipment, a physical downlink control channel, PDCCH, carrying downlink control information across N consecutive transmission time intervals, TTIs, where N is an integer greater than 1, characterised by : repeatedly receiving, by the user equipment, a physical downlink shared channel, PDSCH, carrying the downlink data, across D consecutive TTIs starting from a TTI n+k after a TTI n in which the PDCCH is last received, based on the downlink control information, where D is a positive integer, wherein k is an integer greater than 1, and wherein each TTI consists of 14 orthogonal frequency division multiplexing, OFDM, symbols in a time domain. repeatedly receiving, by the user equipment, a physical downlink shared channel, PDSCH, carrying the downlink data, across D consecutive TTIs starting from a TTI n+k after a TTI n in which the PDCCH is last received, based on the downlink control information, where D is a positive integer, wherein k is an integer greater than 1, and wherein each TTI consists of 14 orthogonal frequency division multiplexing, OFDM, symbols in a time domain.
An intelligent continuous manufacturing method via liquid cooling of dripping pills, wherein the method comprises the following steps: 1) feeding: weighing and transferring multiple materials respectively; 2) material combining: performing staged heating on the materials transferred in step 1), and mixing the same to obtain a material mixture, wherein an RSD of an effective ingredient in the material mixture is less than or equal to 5%; 3) homogenizing: pressurizing the material mixture obtained in step 2), and increasing its temperature so as to obtain a homogenized material having the RSD of the effective ingredient less than or equal to 5%; 4) dripping: performing vibration dripping on the homogenized material obtained in step 3) to obtain dripping pills, and delivering the dripping pills into a cooling liquid to be cooled and then transferred; and 5) de-oiling: removing the cooling liquid on surfaces of the dripping pills delivered in step 4) via tilting centrifugation. 1) feeding: weighing and transferring multiple materials respectively; 2) material combining: performing staged heating on the materials transferred in step 1), and mixing the same to obtain a material mixture, wherein an RSD of an effective ingredient in the material mixture is less than or equal to 5%; 3) homogenizing: pressurizing the material mixture obtained in step 2), and increasing its temperature so as to obtain a homogenized material having the RSD of the effective ingredient less than or equal to 5%; 4) dripping: performing vibration dripping on the homogenized material obtained in step 3) to obtain dripping pills, and delivering the dripping pills into a cooling liquid to be cooled and then transferred; and 5) de-oiling: removing the cooling liquid on surfaces of the dripping pills delivered in step 4) via tilting centrifugation.
A process for producing a porous polymeric membrane which process comprises: a) preparing a solution comprising a polymer which comprises vinylidene fluoride in a solvent/non-solvent mixture by dispersing the polymer in the non-solvent prior to addition of the solvent, wherein the boiling point of the non-solvent is higher than that of the solvent; b) holding the solution at an elevated temperature of at least 40°C until the polymer is completely solvated; c) casting the solution to form a thin layer; and d) drying the thin layer to form a membrane. a) preparing a solution comprising a polymer which comprises vinylidene fluoride in a solvent/non-solvent mixture by dispersing the polymer in the non-solvent prior to addition of the solvent, wherein the boiling point of the non-solvent is higher than that of the solvent; b) holding the solution at an elevated temperature of at least 40°C until the polymer is completely solvated; c) casting the solution to form a thin layer; and d) drying the thin layer to form a membrane.
A lateral flow device comprising: a wicking pad composed of a porous material, the wicking pad having a planar region for contacting a substrate comprising immobilized analytes; and wherein the wicking pad has a first end , a second end and two lateral edges ; a support layer bonded to a first planar surface of the wicking pad ; a top layer bonded to a second planar surface of the wicking pad so that the wicking pad is sandwiched between the support layer and the top layer , the top layer comprising two or more reservoirs spatially separated from each other, wherein the longitudinal axis of each reservoir is perpendicular to the lateral edges of the wicking pad , wherein each of the reservoirs is in fluid communication with the first end of the wicking pad , and wherein each of the reservoirs comprises an aperture through which a solution is released from the reservoir ; and a pump comprising an absorbent pad contacting the second end of the wicking pad . a wicking pad composed of a porous material, the wicking pad having a planar region for contacting a substrate comprising immobilized analytes; and wherein the wicking pad has a first end , a second end and two lateral edges ; a support layer bonded to a first planar surface of the wicking pad ; a top layer bonded to a second planar surface of the wicking pad so that the wicking pad is sandwiched between the support layer and the top layer , the top layer comprising two or more reservoirs spatially separated from each other, wherein the longitudinal axis of each reservoir is perpendicular to the lateral edges of the wicking pad , wherein each of the reservoirs is in fluid communication with the first end of the wicking pad , and wherein each of the reservoirs comprises an aperture through which a solution is released from the reservoir ; and a pump comprising an absorbent pad contacting the second end of the wicking pad .
An interchangeable lens attachable to a camera body , the interchangeable lens comprising: a focusing optical system configured to vary a focal position of the interchangeable lens ; and a transmitter configured to transmit a first value and a second value to the camera body , the first value indicating a relationship between an amount of movement of the focusing optical system and an amount of movement of an image plane at a position to which the focusing optical system has moved, the second value indicating a relationship between an amount of movement of the focusing optical system and an amount of movement of the image plane, the second value being equal to the first value. a focusing optical system configured to vary a focal position of the interchangeable lens ; and a transmitter configured to transmit a first value and a second value to the camera body , the first value indicating a relationship between an amount of movement of the focusing optical system and an amount of movement of an image plane at a position to which the focusing optical system has moved, the second value indicating a relationship between an amount of movement of the focusing optical system and an amount of movement of the image plane, the second value being equal to the first value.
A method of controlling selection by a user terminal between a Wireless Local Area Network, WLAN, network and a cellular network providing overlapping coverage with the WLAN network , the method being performed in a network node in the WLAN network and comprising: obtaining a performance measurement for a group of one or more cells in the cellular network that are correlated with a cell in the WLAN network, wherein a cell ID of a last known cell in the cellular network in which the user terminal was present is correlated with the cell in the WLAN network to which the user terminal is currently connected; increasing or decreasing a Received Signal Strength Indicator, RSSI, admission threshold for the cell in the WLAN network based on the performance measurement; and controlling the admission of a user terminal operating in the cellular network to the cell in the WLAN network based on the RSSI admission threshold. obtaining a performance measurement for a group of one or more cells in the cellular network that are correlated with a cell in the WLAN network, wherein a cell ID of a last known cell in the cellular network in which the user terminal was present is correlated with the cell in the WLAN network to which the user terminal is currently connected; increasing or decreasing a Received Signal Strength Indicator, RSSI, admission threshold for the cell in the WLAN network based on the performance measurement; and controlling the admission of a user terminal operating in the cellular network to the cell in the WLAN network based on the RSSI admission threshold.
A method performed by a user equipment, UE, device comprising: receiving an indication that the UE device is a master UE device that is to coordinate device-to-device, D2D, communications amongst a plurality of UE devices, the plurality of UE devices including the master UE device, a helper UE device, and a target UE device; and transmitting an instruction to the helper UE device that, when executed by the helper UE device, causes the helper UE device to use D2D communications to directly communicate with the target UE device to assist with wireless communication between the target UE device and a base station of a network; characterized in further comprising transmitting another instruction to the helper UE device that, when executed by the helper UE device, causes the helper UE device to: receive data from the base station, use the D2D communication to transmit a first portion of the data to the target UE device, and use another D2D communication to transmit a second portion of the data to a third UE device of the plurality of UE devices. receiving an indication that the UE device is a master UE device that is to coordinate device-to-device, D2D, communications amongst a plurality of UE devices, the plurality of UE devices including the master UE device, a helper UE device, and a target UE device; and transmitting an instruction to the helper UE device that, when executed by the helper UE device, causes the helper UE device to use D2D communications to directly communicate with the target UE device to assist with wireless communication between the target UE device and a base station of a network; characterized in further comprising transmitting another instruction to the helper UE device that, when executed by the helper UE device, causes the helper UE device to: receive data from the base station, use the D2D communication to transmit a first portion of the data to the target UE device, and use another D2D communication to transmit a second portion of the data to a third UE device of the plurality of UE devices.
A speed control system for a vehicle , comprising: means for automatically causing the vehicle to operate in accordance with a target speed value, means for receiving information relating to a user desired value of set-speed, means for receiving information relating to turning of the vehicle , means for receiving information relating to a driving condition of the vehicle , characterized in that it further comprises means for determining a turning maximum speed value in dependence on both said information relating to turning of the vehicle and said information relating to a driving condition of the vehicle , and means for setting the target speed value in dependence on the lower of the information relating to the user desired value of set-speed and the turning maximum speed value, and wherein the information relating to driving condition comprises information relating to a driving mode in which a vehicle is operating. means for automatically causing the vehicle to operate in accordance with a target speed value, means for receiving information relating to a user desired value of set-speed, means for receiving information relating to turning of the vehicle , means for receiving information relating to a driving condition of the vehicle , characterized in that it further comprises means for determining a turning maximum speed value in dependence on both said information relating to turning of the vehicle and said information relating to a driving condition of the vehicle , and means for setting the target speed value in dependence on the lower of the information relating to the user desired value of set-speed and the turning maximum speed value, and wherein the information relating to driving condition comprises information relating to a driving mode in which a vehicle is operating.
An aldehyde dehydrogenase inhibitor for use in the treatment or prevention of ocular mucous membrane pemphigoid (OcMMP), wherein the aldehyde dehydrogenase inhibitor is tetraethylthioperoxydicarbonic diamide (disulfiram) or 4-(diethylamino)benzaldehyde (DEAB).
An opening and closing device (A, B) comprising a frame , a rotating body having one end rotatably connected to the frame between a first position and a second position centered on a first rotating axis line (L1), a rotation-biasing means which rotates and biases the rotating body in a first rotating direction from the first position towards the second position, and a damper means which suppresses the rotational speed of the rotating body when the rotating body rotates in at least one direction of the first rotating direction and a second rotating direction, which second rotating direction is opposite the first rotating direction; wherein the damper means is provided separately from the rotation-biasing means and wherein, the rotation-biasing means comprises a rotation arm having a base-end section rotatably provided at one of either the frame or the rotating body centered on a second rotating axis line (L2) parallel to the first rotating axis line (L1), and a rotation and biasing member which rotates and biases the rotation arm , causes a tip-end section of the rotation arm to press against and contact the other of either the frame or the rotating body , and thereby rotates and biases the rotating body in the first rotating direction; and the second rotating axis line (L2) is orthogonally separated and arranged with respect to the first rotating axis line (L1) such that when the rotating body rotates in the first rotating direction, the tip-end section of the rotation arm moves in a direction approaching the first rotating axis line (L1), and when the rotating body rotates in the second rotating direction, the tip-end section of the rotation arm moves linearly along the rotating body or frame respectively in a direction of moving away from the first rotating axis line (L1); and the damper means comprises a damper body provided at the other of either the frame or the rotating body ; a movable member provided at the damper body so as to be capable of moving linearly in the same direction as the tip-end section of the rotation arm , and associated with the tip-end section of the rotation arm so as to enable relative movement with respect to the damper body in association with movement of the rotation arm ; and a damper mechanism provided between the damper body and the movable member to suppress the movement speed of the movable member to a low speed.
A method for configuring individual base stations (SC 1 , SC 2 , SC 3 ) of a plurality of base stations (BS n , BS n+1 , BS n+2 , BS n+3 ) to form a single frequency network in which multiple base stations transmit the same signal simultaneously, the base stations forming the single frequency network sharing transmission resources, the method comprising: detecting a location of at least one user equipment (UE) using a position determination unit (PDU) thereby permitting a movement profile of the at least one user equipment to be established; forming using a cluster partitioning unit (CPU) at least a first cluster (SFN Cluster N) of base stations from the plurality of base stations according to the detected location and/or the movement profile; and configuring using a resource control unit (RCU) a set of transmission parameters for the first cluster of base stations, the set of transmission parameters of the first cluster being orthogonal to a set of transmission parameters of one or more other clusters (SFN Cluster M) formed from the plurality of base stations. detecting a location of at least one user equipment (UE) using a position determination unit (PDU) thereby permitting a movement profile of the at least one user equipment to be established; forming using a cluster partitioning unit (CPU) at least a first cluster (SFN Cluster N) of base stations from the plurality of base stations according to the detected location and/or the movement profile; and configuring using a resource control unit (RCU) a set of transmission parameters for the first cluster of base stations, the set of transmission parameters of the first cluster being orthogonal to a set of transmission parameters of one or more other clusters (SFN Cluster M) formed from the plurality of base stations.