mhurhangee/patent-ind-claim-en huggingface dataset:
An in-vitro method for early diagnosing or prediction of immune-mediated inflammatory diseases, comprising: - quantifying simultaneously by one LC/MS-MS analysis, a presence of V65 vitronectin fragment; and a presence of a complement C3f in a biological sample that has been obtained from a subject; said method comprising the following steps: - mixing the biological sample with an acidic aqueous solution; - loading the resulting mixture on a trapping LC column; - optionally washing the column to remove uncertain component; - eluting the column with an alcoholic mixture and obtaining an eluate; - drying the eluate; - dispersing the dried eluate in an acetonitrile aqueous solution; - loading the resulting dispersion on a reversed phase LC column and separating two mobile phase A and B; - injecting by continuous flux in MS-MS, both phases A and B and quantifying V65 vitronectin fragment simultaneously to quantify complement C3f or fragment, variant or degradation product thereof; and characterised in that the acetonitrile aqueous solution comprises trifluoro acetic acid (TFA). - quantifying simultaneously by one LC/MS-MS analysis, a presence of V65 vitronectin fragment; and a presence of a complement C3f in a biological sample that has been obtained from a subject; - mixing the biological sample with an acidic aqueous solution; - loading the resulting mixture on a trapping LC column; - optionally washing the column to remove uncertain component; - eluting the column with an alcoholic mixture and obtaining an eluate; - drying the eluate; - dispersing the dried eluate in an acetonitrile aqueous solution; - loading the resulting dispersion on a reversed phase LC column and separating two mobile phase A and B; - injecting by continuous flux in MS-MS, both phases A and B and quantifying V65 vitronectin fragment simultaneously to quantify complement C3f or fragment, variant or degradation product thereof;
A refrigerator comprising: a cabinet comprising an inner case provided with a storage compartment , and a middle plate covering an upper surface of the inner case; and a door disposed on a front portion of the cabinet to open and close the storage compartment, wherein the cabinet comprises a cabinet cover which is attachably and detachably coupled to an upper side of the middle plate to cover an upper surface of the cabinet, the cabinet cover being formed with glued laminated wood in which a plurality of planks of hardwood are arranged in parallel with one another and are glued, wherein a plurality of reinforcing brackets formed with a metallic material and formed in a bar shape are coupled to a lower surface of the cabinet cover in parallel with one another, wherein a mounting recess is formed on a lower surface of the cabinet cover to be concave inwardly, and the reinforcing bracket is inserted into the mounting recess, wherein the reinforcing bracket is formed in parallel with an arrangement direction of the glued laminated wood, and wherein the reinforcing bracket has a long hole formed on a surface thereof parallel to the lower surface of the cabinet cover, the long hole being formed in parallel with a longitudinal direction of the reinforcing bracket. a cabinet comprising an inner case provided with a storage compartment , and a middle plate covering an upper surface of the inner case; and a door disposed on a front portion of the cabinet to open and close the storage compartment, wherein the cabinet comprises a cabinet cover which is attachably and detachably coupled to an upper side of the middle plate to cover an upper surface of the cabinet, the cabinet cover being formed with glued laminated wood in which a plurality of planks of hardwood are arranged in parallel with one another and are glued, wherein a plurality of reinforcing brackets formed with a metallic material and formed in a bar shape are coupled to a lower surface of the cabinet cover in parallel with one another, wherein a mounting recess is formed on a lower surface of the cabinet cover to be concave inwardly, and the reinforcing bracket is inserted into the mounting recess, wherein the reinforcing bracket is formed in parallel with an arrangement direction of the glued laminated wood, and wherein the reinforcing bracket has a long hole formed on a surface thereof parallel to the lower surface of the cabinet cover, the long hole being formed in parallel with a longitudinal direction of the reinforcing bracket.
A method of fabricating a semiconductor structure, characterized in that the method comprises: forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, forming a nanocrystalline outer shell from a third semiconductor material, different from the semiconductor material of the nanocrystalline shell, at least partially surrounding the nanocrystalline shell wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer, comprising a first metal oxide layer, encapsulating the quantum dot and the outer shell to create a coated quantum dot; and forming at least one additional insulator layer on the coated quantum dot, comprising forming at least one organic layer of water-absorbing polymer, wherein the water-absorbing polymer is selected from a group consisting of: poly(ethylene oxide) PEO, polyacrylamide, polyacrylate and poly(acrylic acid). forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, forming a nanocrystalline outer shell from a third semiconductor material, different from the semiconductor material of the nanocrystalline shell, at least partially surrounding the nanocrystalline shell wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer, comprising a first metal oxide layer, encapsulating the quantum dot and the outer shell to create a coated quantum dot; and forming at least one additional insulator layer on the coated quantum dot, comprising forming at least one organic layer of water-absorbing polymer, wherein the water-absorbing polymer is selected from a group consisting of: poly(ethylene oxide) PEO, polyacrylamide, polyacrylate and poly(acrylic acid).
A printer comprising: a conveyer configured to convey sheets (P) at a plurality of conveying speeds; a conveying roller configured to receive a sheet (P) conveyed by the conveyer at a receiving speed corresponding to a conveying speed in the conveyer and convey the sheet (P); a registration roller configured to convey the sheet (P) conveyed by the conveying roller to a printing unit ; and a controller configured to drive the conveying roller to allow the sheet (P) to abut on the registration roller and stop, and to drive the registration roller to convey the sheet (P) abutting on the registration roller to the printing unit at a set sheet interval (Lg), wherein the controller is configured to control a conveying speed of the conveying roller based on a time from a first timing to a second timing, the first timing being a timing at which a preceding sheet (P) conveyed from the registration roller to the printing unit exits the conveying roller , the second timing being a timing at which a following sheet (P) reaches the conveying roller , the conveying roller is configured to convey the sheet (P) at the receiving speed and then convey the sheet (P) so as to allow the sheet (P) to abut on the registration roller at an abutting speed slower than the receiving speed and stop, and characterised in that the controller is configured to calculate a conveying time of the conveying roller at the receiving speed after the second timing and a conveying time of the conveying roller at the abutting speed, based on the time from the first timing to the second timing. a conveyer configured to convey sheets (P) at a plurality of conveying speeds; a conveying roller configured to receive a sheet (P) conveyed by the conveyer at a receiving speed corresponding to a conveying speed in the conveyer and convey the sheet (P); a registration roller configured to convey the sheet (P) conveyed by the conveying roller to a printing unit ; and a controller configured to drive the conveying roller to allow the sheet (P) to abut on the registration roller and stop, and to drive the registration roller to convey the sheet (P) abutting on the registration roller to the printing unit at a set sheet interval (Lg), wherein the controller is configured to control a conveying speed of the conveying roller based on a time from a first timing to a second timing, the first timing being a timing at which a preceding sheet (P) conveyed from the registration roller to the printing unit exits the conveying roller , the second timing being a timing at which a following sheet (P) reaches the conveying roller , the conveying roller is configured to convey the sheet (P) at the receiving speed and then convey the sheet (P) so as to allow the sheet (P) to abut on the registration roller at an abutting speed slower than the receiving speed and stop, and characterised in that the controller is configured to calculate a conveying time of the conveying roller at the receiving speed after the second timing and a conveying time of the conveying roller at the abutting speed, based on the time from the first timing to the second timing.
An apparatus for managing vehicle-to-everything, V2X, sidelink communications, configured to transmit and/or receive control plane signaling related to a control of radio resources of a sidelink communication system to/from a user equipment, UE, , wherein the sidelink communication system comprises the UE and other devices with which the UE performs a V2X sidelink communication, wherein the control plane signaling is IP encapsulated and/or decapsulated and carried over a user plane of a second communication system , wherein the second communication system is located between the apparatus and the UE , wherein the apparatus comprises a RRC controller configured to configure a mode-4 configuration parameter; a RRC unit configured to generate a standard configuration information element for V2X sidelink communication, wherein the standard configuration information element includes the mode-4 configuration parameter; and an IP unit configured to encapsulate the standard configuration information element for V2X sidelink communication within an IP packet and to transmit the IP packet to the UE over IP. wherein the apparatus comprises a RRC controller configured to configure a mode-4 configuration parameter; a RRC unit configured to generate a standard configuration information element for V2X sidelink communication, wherein the standard configuration information element includes the mode-4 configuration parameter; and an IP unit configured to encapsulate the standard configuration information element for V2X sidelink communication within an IP packet and to transmit the IP packet to the UE over IP.
Device for the mechanical lysis of biological species (C) contained in a fluid, comprising a first wall and a second wall mounted movable relative to one another between an initial position in which the first and second walls are drawn apart and a lysis position in which the first wall presses against the second wall, the first and second walls also being mounted movable under shear relative to one another in the lysis position, characterized in that at least one of the first and second walls has a rough bearing surface against the other wall and has an average surface roughness parameter Ra of between 0.2 μm and 10 μm, preferably between 0.2 μm and 3 μm.
A method of controlling signaling between a node (36'; 50) and a policy controller of a network, said policy controller providing network control regarding services handled by the node (36'; 50), the method comprising: the node (36'; 50) generating a new message to be sent to the policy controller ; the node (36'; 50) determining a load value representing a number of messages that are sent from the node (36'; 50) to the policy controller in a given time interval; and in response to the load value reaching a threshold, the node (36'; 50) limiting sending of the new message to the policy controller , wherein said limiting comprises the node (36'; 50) selectively buffering or discarding the new message based on a type of the new message and a type of another one of messages generated by the node (36'; 50), wherein the other one of messages is a first message of a service-related session between the node (36'; 50) and the policy controller , wherein the new message is a second message of the session between the node (36'; 50) and the policy controller , wherein the first message is buffered by the node (36'; 50), and wherein the selectively buffering or discarding the second message comprises: in response to determining that the buffered first message is an initial authentication/authorization request command of the session and the second message is a session termination request command of the session, the node (36'; 50) discarding the second message and deleting the buffered first message; and in response to determining that the buffered first message is an update authentication/authorization request command of the session and the second message is the session termination request command of the session, the node (36'; 50) buffering the second message and deleting the buffered first message; the node sending the buffered second message to the policy controller. the node (36'; 50) generating a new message to be sent to the policy controller ; the node (36'; 50) determining a load value representing a number of messages that are sent from the node (36'; 50) to the policy controller in a given time interval; and in response to the load value reaching a threshold, the node (36'; 50) limiting sending of the new message to the policy controller , in response to determining that the buffered first message is an initial authentication/authorization request command of the session and the second message is a session termination request command of the session, the node (36'; 50) discarding the second message and deleting the buffered first message; and in response to determining that the buffered first message is an update authentication/authorization request command of the session and the second message is the session termination request command of the session, the node (36'; 50) buffering the second message and deleting the buffered first message;
A liquid pharmaceutical formulation comprising a therapeutically effective amount of 4-trifluoromethyl- N -(3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl)-benzamide (ST-246) and hydroxypropyl-β-cyclodextrin or sulfobutyl-ether-β-cyclodextrin, and further comprising one or more pharmaceutically acceptable ingredients. a therapeutically effective amount of 4-trifluoromethyl- N -(3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl)-benzamide (ST-246) and hydroxypropyl-β-cyclodextrin or sulfobutyl-ether-β-cyclodextrin, and further comprising one or more pharmaceutically acceptable ingredients.
A system for supplying a process gas to a processing location of a particle beam system , wherein the system comprises: a first gas reservoir ; a first gas conduit having a first end connected to the first gas reservoir; a pipe having a first end located close to the processing location ; a first valve provided between a second end of the first gas conduit and a second end of the pipe , wherein the first valve is configured to selectively allow and prevent a gas flow from the first gas reservoir to the processing location via the first gas conduit and the pipe; and a controller configured to open the first valve and to close the first valve , to switch the system from a first mode of operation in which process gas is not supplied to the processing location to a second mode of operation in which process gas is supplied to the processing location, and to alternately open and close the first valve in plural cycles at a beginning of the second mode of operation , wherein each cycle includes a first duration in which the first valve is open and a second duration immediately subsequent to the first duration in which the first valve is closed, wherein the following relation is fulfilled for more than one pair of subsequent cycles: a ratio between the first duration and the second duration is smaller in a first cycle than the ratio between the first duration and the second duration in a second cycle of the pair subsequent to the first cycle. a first gas reservoir ; a first gas conduit having a first end connected to the first gas reservoir; a pipe having a first end located close to the processing location ; a first valve provided between a second end of the first gas conduit and a second end of the pipe , wherein the first valve is configured to selectively allow and prevent a gas flow from the first gas reservoir to the processing location via the first gas conduit and the pipe; and a controller configured to open the first valve and to close the first valve , to switch the system from a first mode of operation in which process gas is not supplied to the processing location to a second mode of operation in which process gas is supplied to the processing location, and to alternately open and close the first valve in plural cycles at a beginning of the second mode of operation , wherein each cycle includes a first duration in which the first valve is open and a second duration immediately subsequent to the first duration in which the first valve is closed, wherein the following relation is fulfilled for more than one pair of subsequent cycles: a ratio between the first duration and the second duration is smaller in a first cycle than the ratio between the first duration and the second duration in a second cycle of the pair subsequent to the first cycle.
A system comprising a connector and a mating connector detachably mated with said connector said mating connector comprising an interlock connector retaining ends of two first conducting wires , a pair of terminals fixed to respective ends of two second conducting wires , and a housing accommodating the interlock connector and the pair of terminals , the connector comprising: an interlock busbar for being inserted into the interlock connector and short-circuiting the two first conducting wires ; a clip busbar for pinching and short-circuiting the pair of terminals ; a housing accommodating the interlock busbar and the clip busbar ; and a lever for being operated in a turning manner and functioning for mating with and unmating from the mating connector ; wherein the lever removes the short circuit of the two first conducting wires by pulling out the interlock busbar from the interlock connector , while the pair of terminals are being pinched and short-circuited by the clip busbar , according to a first-half turning operation in an unmating direction of the lever in a state of being mated with the mating connector, characterised in that the connector further comprises a slider supported to the housing for being operated in a sliding manner between an unmating position and a mating position, wherein the slider at the mating position blocks a second-half turning operation of the lever following the first-half turning operation of the lever by interfering with the lever at an end of the first-half turning operation of the lever , and allows the second-half turning operation of the lever after a sliding operation of the slider to the unmating position is performed. an interlock busbar for being inserted into the interlock connector and short-circuiting the two first conducting wires ; a clip busbar for pinching and short-circuiting the pair of terminals ; a housing accommodating the interlock busbar and the clip busbar ; and a lever for being operated in a turning manner and functioning for mating with and unmating from the mating connector ; wherein the lever removes the short circuit of the two first conducting wires by pulling out the interlock busbar from the interlock connector , while the pair of terminals are being pinched and short-circuited by the clip busbar , according to a first-half turning operation in an unmating direction of the lever in a state of being mated with the mating connector, characterised in that the connector further comprises a slider supported to the housing for being operated in a sliding manner between an unmating position and a mating position, wherein the slider at the mating position blocks a second-half turning operation of the lever following the first-half turning operation of the lever by interfering with the lever at an end of the first-half turning operation of the lever , and allows the second-half turning operation of the lever after a sliding operation of the slider to the unmating position is performed.
Method of producing an organic electronic device comprising an electrode, a self-assembled monolayer on said electrode and an organic semiconducting layer on said self-assembled monolayer, said method comprising the steps of (a) providing an electrode, optionally on a substrate; (b) depositing onto said electrode a formulation comprising a compound of formula (I) R 1 -SiX 3 (I) and an alcohol of formula R 2 -OH, with R 1 being a group of the following formula (II-b) wherein e is at each occurrence independently an integer of at least 1 and of at most 5, and R A is F, R 2 being an alkyl group having from 1 to 10 carbon atoms; and X being Cl, to obtain a self-assembled monolayer; and (c) depositing onto said self-assembled monolayer an organic semiconducting material to obtain an organic semiconducting layer (a) providing an electrode, optionally on a substrate; (b) depositing onto said electrode a formulation comprising a compound of formula (I) R 1 -SiX 3 (I) and an alcohol of formula R 2 -OH, with R 1 being a group of the following formula (II-b) wherein e is at each occurrence independently an integer of at least 1 and of at most 5, and R A is F, R 2 being an alkyl group having from 1 to 10 carbon atoms; and X being Cl, to obtain a self-assembled monolayer; and and an alcohol of formula R 2 -OH, with R 1 being a group of the following formula (II-b) wherein e is at each occurrence independently an integer of at least 1 and of at most 5, and R A is F, R 2 being an alkyl group having from 1 to 10 carbon atoms; and X being Cl, to obtain a self-assembled monolayer; and (c) depositing onto said self-assembled monolayer an organic semiconducting material to obtain an organic semiconducting layer