mhurhangee/patent-ind-claim-en huggingface dataset:
A User Equipment , UE, comprising: a receiving unit configured to receive, on a transport layer channel carrying a single cell multicast traffic channel, SC-MTCH, a media access control, MAC, control element which indicates a termination of a multimedia service on the SC-MTCH; and a control unit configured to release, in a case that the MAC control element is received, a Single Cell Multimedia Broadcast Multicast Service Point to Multipoint Radio Bearer, wherein the control unit is configured to perform, in a case that the MAC control element is received, MAC layer processing for indicating to a Radio Resource Control, RRC, layer that the multimedia service is terminated, the control unit is configured to release configurations of a Radio Link Control, RLC, layer, a MAC layer, and a physical layer, within a procedure which is performed in the RRC layer and is for the release of the Single Cell Multimedia Broadcast Multicast Service Point to Multipoint Radio Bearer. a receiving unit configured to receive, on a transport layer channel carrying a single cell multicast traffic channel, SC-MTCH, a media access control, MAC, control element which indicates a termination of a multimedia service on the SC-MTCH; and a control unit configured to release, in a case that the MAC control element is received, a Single Cell Multimedia Broadcast Multicast Service Point to Multipoint Radio Bearer, wherein the control unit is configured to perform, in a case that the MAC control element is received, MAC layer processing for indicating to a Radio Resource Control, RRC, layer that the multimedia service is terminated, the control unit is configured to release configurations of a Radio Link Control, RLC, layer, a MAC layer, and a physical layer, within a procedure which is performed in the RRC layer and is for the release of the Single Cell Multimedia Broadcast Multicast Service Point to Multipoint Radio Bearer.
A rotor assembly , comprising: a rotor shaft disposed at a central axis and rotatable thereabout; a rotor secured to the rotor shaft ; a gear interactive with the rotor shaft to urge rotation of the rotor shaft about the central axis ; and a quill shaft configured to translate rotational energy between the gear and the rotor shaft having a rotor shaft spline , the quill shaft comprising: a first leg having an inner spline which meshes with the rotor shaft spline ; and a second leg concentric with the first leg and radially offset and separated from the first leg by a distance , the second leg including an outer spline which meshes with the gear; wherein the first leg is connected to the second leg at one end to allow the distance to change while translating the rotational energy between the gear and a rotor shaft , characterized in that the quill shaft has a U-shaped cross-sectional profile , with the first leg connected to the second leg at a peak portion of the U-shaped cross-sectional profile , such that the quill shaft is flexible in a radial direction when necessary due to flight loads and/or manufacturing tolerance mismatch, and in that the gear is a bull gear . a rotor shaft disposed at a central axis and rotatable thereabout; a rotor secured to the rotor shaft ; a gear interactive with the rotor shaft to urge rotation of the rotor shaft about the central axis ; and a quill shaft configured to translate rotational energy between the gear and the rotor shaft having a rotor shaft spline , the quill shaft comprising: a first leg having an inner spline which meshes with the rotor shaft spline ; and a second leg concentric with the first leg and radially offset and separated from the first leg by a distance , the second leg including an outer spline which meshes with the gear; wherein the first leg is connected to the second leg at one end to allow the distance to change while translating the rotational energy between the gear and a rotor shaft , characterized in that the quill shaft has a U-shaped cross-sectional profile , with the first leg connected to the second leg at a peak portion of the U-shaped cross-sectional profile , such that the quill shaft is flexible in a radial direction when necessary due to flight loads and/or manufacturing tolerance mismatch, and in that the gear is a bull gear . a first leg having an inner spline which meshes with the rotor shaft spline ; and a second leg concentric with the first leg and radially offset and separated from the first leg by a distance , the second leg including an outer spline which meshes with the gear; wherein the first leg is connected to the second leg at one end to allow the distance to change while translating the rotational energy between the gear and a rotor shaft , characterized in that the quill shaft has a U-shaped cross-sectional profile , with the first leg connected to the second leg at a peak portion of the U-shaped cross-sectional profile , such that the quill shaft is flexible in a radial direction when necessary due to flight loads and/or manufacturing tolerance mismatch, and in that the gear is a bull gear .
A VTOL (vertical take-off and landing) aerial drone comprising: a flying platform having: a left main wing and a right main wing ; a left secondary wing and a right secondary wing ; a main body coupled to the left main wing and the right main wing ; a left linear support connecting the left main wing to the left secondary wing ; a right linear support connecting the right main wing to the right secondary wing ; the left linear support has a first, a second, a third lifting propellers, and a left vertical stabilizer ; the right linear support has a fourth, a fifth, a sixth lifting propellers and a right vertical stabilizer ; a cargo cabin or a passenger cabin being detachably coupled to the flying platform ; and at least one pushing propeller (107A, 107B; 117) coupled to either the platform or the cabin (130; 140), characterized in that , the at least one pushing propeller (107A, 107B; 117) is disposed so as to be vertically level with, that is, disposed at a horizontal level equal to the horizontal level of the cargo cabin or the passenger cabin . a flying platform having: a left main wing and a right main wing ; a left secondary wing and a right secondary wing ; a main body coupled to the left main wing and the right main wing ; a left linear support connecting the left main wing to the left secondary wing ; a right linear support connecting the right main wing to the right secondary wing ; the left linear support has a first, a second, a third lifting propellers, and a left vertical stabilizer ; the right linear support has a fourth, a fifth, a sixth lifting propellers and a right vertical stabilizer ; a left main wing and a right main wing ; a left secondary wing and a right secondary wing ; a main body coupled to the left main wing and the right main wing ; a left linear support connecting the left main wing to the left secondary wing ; a right linear support connecting the right main wing to the right secondary wing ; the left linear support has a first, a second, a third lifting propellers, and a left vertical stabilizer ; the right linear support has a fourth, a fifth, a sixth lifting propellers and a right vertical stabilizer ; a cargo cabin or a passenger cabin being detachably coupled to the flying platform ; and at least one pushing propeller (107A, 107B; 117) coupled to either the platform or the cabin (130; 140), characterized in that , the at least one pushing propeller (107A, 107B; 117) is disposed so as to be vertically level with, that is, disposed at a horizontal level equal to the horizontal level of the cargo cabin or the passenger cabin .
A compound of Formula (I): and salts thereof, wherein each instance of R L is independently optionally substituted C 6 -C 40 alkenyl; and each instance of R L comprises only cis double bonds.
An antibody display system comprising: (a) an isolated host cell; (b) a bait comprising a light immunoglobulin chain or functional fragment thereof fused to a surface anchor polypeptide or functional fragment thereof; (c) one or more polynucleotides encoding an immunoglobulin light chain variable region; and (d) one or more polynucleotides encoding an immunoglobulin heavy chain variable region; wherein the surface anchor polypeptide is SED-1 or a functional fragment thereof; wherein the host cell is a Pichia cell. (a) an isolated host cell; (b) a bait comprising a light immunoglobulin chain or functional fragment thereof fused to a surface anchor polypeptide or functional fragment thereof; (c) one or more polynucleotides encoding an immunoglobulin light chain variable region; and (d) one or more polynucleotides encoding an immunoglobulin heavy chain variable region; wherein the surface anchor polypeptide is SED-1 or a functional fragment thereof; wherein the host cell is a Pichia cell.
Method for the radio-oriented optimization of wheel monitoring in a vehicle equipped with vehicle wheels (W1-W4), wherein the monitoring of at least one of the vehicle wheels (W1-W4) is prompted by an electronic wheel unit (10-1 to 10-4) arranged on the relevant vehicle wheel (W1-W4) capturing at least one wheel operating parameter of the vehicle wheel (W1-W4), and radio signals (R1-R4) containing information about the at least one captured wheel operating parameter being transmitted for a respective wheel rotational position of the vehicle wheel (W1-W4), stipulated by the electronic wheel unit (10-1 to 10-4), wherein the radio signals (R1-R4) are received and evaluated by a control device of the vehicle , characterized in that the radio-oriented optimization of the wheel monitoring is prompted during operation of the vehicle by the electronic wheel unit (10-1 to 10-4) being used to transmit multiple radio signals for different wheel rotational positions of the vehicle wheel (W1-W4), wherein the multiple radio signals are received by means of the control device and rated in respect of their respective radio signal strength, wherein the control device is used to transmit an optimization radio signal (D1-D4) to the electronic wheel unit (10-1 to 10-4), wherein the optimization radio signal (D1-D4) contains optimization information formed on the basis of the rating of the multiple radio signals, and wherein the electronic wheel unit (10-1 to 10-4) is used to receive the optimization radio signal (D1-D4), and the optimization information contained therein is taken into consideration for the stipulation of the wheel rotational position of the vehicle wheel (W1-W4) for radio signals (R1-R4) that are subsequently to be transmitted.
A method for preparing a copper-containing hydrogenation catalyst, comprising reducing a molded precursor of the copper-containing hydrogenation catalyst by supplying hydrogen gas or a mixture of hydrogen gas with an inert gas at a temperature of 50 to 150°C in the presence of a solvent to obtain the copper-containing hydrogenation catalyst, wherein the reduction is conducted at an average reduction velocity of the copper-containing hydrogenation catalyst of not more than 3.0% by weight/hour, wherein the average reduction velocity is determined as follows: average reduction velocity = 100 % by weight of reduction water / time taking to the reduction % by weight / hour , wherein the time taking to the reduction is the time from the start of increasing a temperature to the end of reduction, wherein the end of reduction is a point that an amount of water produced by the reduction reaches to not more than 0.1% by weight, and wherein the amount of water is determined from measurements of the concentration of water in the solvent at an inlet and at an outlet of a reactor used for performing said reduction over the time and calculating the difference, wherein the solvent is at least one selected from the group consisting of glyceride oil, fatty acid esters, aliphatic alcohols and hydrocarbons.
A bolus administration unit arranged for branching off a flow passage of a drug solution administration device, being characterized by comprising: an inflow passage for connecting to the flow passage ; an outflow passage for connecting to the flow passage more distally than the inflow passage ; a reservoir connected between the inflow passage and the outflow passage , and reserving the drug solution as a reserve of the drug solution; and a control portion controlling the reserve of the drug solution in the reservoir and dispensing of the drug solution from the reservoir , wherein the inflow passage has a part in which the inflow passage branches into a first flow passage and a second flow passage smaller in flow passage cross-sectional area than the first flow passage , and the control portion includes: a first closer operable to close the first flow passage ; and a second closer operable to close the outflow passage , linked with the first closer and operable to open and close the outflow passage when the first flow passage is closed. an inflow passage for connecting to the flow passage ; an outflow passage for connecting to the flow passage more distally than the inflow passage ; a reservoir connected between the inflow passage and the outflow passage , and reserving the drug solution as a reserve of the drug solution; and a control portion controlling the reserve of the drug solution in the reservoir and dispensing of the drug solution from the reservoir , wherein the inflow passage has a part in which the inflow passage branches into a first flow passage and a second flow passage smaller in flow passage cross-sectional area than the first flow passage , and the control portion includes: a first closer operable to close the first flow passage ; and a second closer operable to close the outflow passage , linked with the first closer and operable to open and close the outflow passage when the first flow passage is closed.
A method of mass spectrometry comprising: (a) providing a mixture of different analyte molecules or analyte ions; (b) supplying electrons or reagent ions to said mixture of different analyte molecules or analyte ions so as to transfer charge from said reagent ions or electrons to said analyte molecules or ions, said transfer of charge causing at least some of said analyte molecules or analyte ions to dissociate and others of said analyte molecules or analyte ions not to dissociate but to form intermediate ions of altered charge; (c) isolating at least some of said intermediate ions from other ions using a mass filter; (d) exciting at least some of the isolated intermediate ions so as to cause them to dissociate into daughter ions; (e) analysing at least some of said intermediate ions and analysing at least some of said daughter ions; and (f) assigning the analysed daughter ions to the isolated intermediate ions. (a) providing a mixture of different analyte molecules or analyte ions; (b) supplying electrons or reagent ions to said mixture of different analyte molecules or analyte ions so as to transfer charge from said reagent ions or electrons to said analyte molecules or ions, said transfer of charge causing at least some of said analyte molecules or analyte ions to dissociate and others of said analyte molecules or analyte ions not to dissociate but to form intermediate ions of altered charge; (c) isolating at least some of said intermediate ions from other ions using a mass filter; (d) exciting at least some of the isolated intermediate ions so as to cause them to dissociate into daughter ions; (e) analysing at least some of said intermediate ions and analysing at least some of said daughter ions; and (f) assigning the analysed daughter ions to the isolated intermediate ions.
A preparation method for acetylated sodium hyaluronate, characterized in that , the preparation method comprises the following steps: in the protective atmosphere of inert gas, dissolving a hyaluronate in an organic solvent until a homogeneous phase is formed, adding the water absorbent, decreasing a temperature of the reaction system to 10°C - -5°C, dropwise adding acetic anhydride to the reaction system, then dropwise adding a DMAP-toluene solution to the reaction system, after reacting for a certain time, heating the reaction system to 40°C - 70°C for reacting for a certain time to obtain a reaction liquid, and subjecting the reaction liquid to post treatment, separation, purification, and drying to obtain a product; wherein a mass ratio of the hyaluronate to the acetic anhydride ranges from 1:1 to 1:5, an average molecular weight of the hyaluronate ranges from 5 KDa to 5000 KDa.
A method of wireless communication performed by a device being a scheduled entity, comprising: obtaining a first medium access control, MAC, control element, CE, and a second MAC CE from a network, wherein the first and second MAC CEs are configured to indicate one of a plurality of state transition actions for a secondary cell, wherein the first MAC CE is configured to control a transition to a secondary cell dormant state and the second MAC CE is configured to control activation and deactivation of the secondary cell, wherein the secondary cell dormant state is a state in which the scheduled entity refrains from monitoring at least one downlink control channel of the secondary cell; transitioning to a secondary cell activated state from the secondary cell dormant state and from a secondary cell deactivated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell activated state; transitioning to the secondary cell deactivated state from the secondary cell dormant state or the secondary cell activated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell deactivated state; and operating in the secondary cell activated state based on the transition to the secondary cell activated state or operating in the secondary cell deactivated state based on the transition to the secondary cell deactivated state. obtaining a first medium access control, MAC, control element, CE, and a second MAC CE from a network, wherein the first and second MAC CEs are configured to indicate one of a plurality of state transition actions for a secondary cell, wherein the first MAC CE is configured to control a transition to a secondary cell dormant state and the second MAC CE is configured to control activation and deactivation of the secondary cell, wherein the secondary cell dormant state is a state in which the scheduled entity refrains from monitoring at least one downlink control channel of the secondary cell; transitioning to a secondary cell activated state from the secondary cell dormant state and from a secondary cell deactivated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell activated state; transitioning to the secondary cell deactivated state from the secondary cell dormant state or the secondary cell activated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell deactivated state; and operating in the secondary cell activated state based on the transition to the secondary cell activated state or operating in the secondary cell deactivated state based on the transition to the secondary cell deactivated state.
Wind turbine comprising a tower , a nacelle , a gearing that couples the nacelle to the tower for adjusting the yaw angle of the nacelle with respect to the tower by rotating the nacelle around a yaw axis and a ring shaped collecting tray extending around the yaw axis to collect lubricant dripping from the gearing , characterized in that the collecting tray is supported to be rotatable around the yaw axis with respect to the tower and the nacelle .
A method for stabilizing a track having sleepers supported on track ballast and rails fastened thereon, by means of a stabilizing unit which is connected to a machine frame mobile on the rails and comprises a vibration exciter as well as rollers designed to roll on the rails , wherein the vibration exciter generates in particular horizontal vibrations running transversely to the longitudinal direction of the track, characterized in that a course of a force ( F , F B , F S ) acting from the stabilizing unit on the track over an oscillation path ( y DGS , y S ) is recorded during a vibration cycle by means of sensors , and that, by means of an evaluation unit , at least one parameter is derived from this by means of which an evaluation of the stabilizing procedure and/or a quality of the track ballast takes place.
A mounting bracket for supporting an electronic flight bag (EFB) comprising a mounting assembly comprising a base and a support on which the EFB is supported, the support orientation adjustable with respect to the base , a first positioning mechanism that can be selectively activated to secure the position of the support with respect to the base , a frame having a track , the mounting assembly slideably engaging the track to slide on the track and selectively securable in position on the track and a second positioning mechanism that can be selectively actuated to secure the mounting assembly at any of a number of locations within at least a range of motion along the track , characterized in that the first positioning mechanism can be selectively actuated to secure the mounting assembly at any of an infinite number of locations within at least a range of motion along the track , and in that the second positioning mechanism can be selectively actuated to secure the mounting assembly at any of a number of discrete locations within at least a range of motion along the track .
A culture apparatus for culturing cells and/or a tissue or portion thereof and comprising a holder body, the holder body comprising a plurality of chambers for containing a cell culture media and at least one fluid communication pathway extending between at least two respective chambers of the plurality of chambers, each fluid communication pathway permitting bi-directional fluid flow between said at least two chambers, and wherein said fluid communication pathway has a width of between 1.5mm and 3.5mm; and wherein each chamber of the plurality of chambers is configured to accommodate a chamber insert element configured to support a cell scaffold element, wherein said chamber insert element further comprises a cell scaffold element having a plurality of pores, said plurality of pores having an average diameter of between about around 8μm to about 150μm. said fluid communication pathway has a width of between 1.5mm and 3.5mm; and wherein each chamber of the plurality of chambers is configured to accommodate a chamber insert element configured to support a cell scaffold element, wherein said chamber insert element further comprises a cell scaffold element having a plurality of pores, said plurality of pores having an average diameter of between about around 8μm to about 150μm.