mhurhangee/ep-ind-claims huggingface dataset:
A method of operation of a network node of a cellular communications network, comprising: selecting, by the network node, a device-anchor base station for a wireless device (16, 20) from a plurality of candidate device-anchor base stations, the plurality of candidate device-anchor base stations being wireless devices that satisfy one or more predefined criteria for serving as a candidate device-anchor base station; and establishing, by the network node, a connection between the wireless device (16, 20) and the device-anchor base station for the wireless device (16, 20) such that data transmissions between the wireless device (16, 20) and a base station of the cellular communications network are via the device-anchor base station, characterized in that the step of selecting, by the network node, the device-anchor base station comprises: selecting the device-anchor base station from the plurality of candidate device-anchor base stations based on at least one predefined criterion based on periodic traffic patterns of the plurality of candidate device-anchor base stations and a periodic traffic pattern of the wireless device (16, 20), such that the device-anchor base station has a periodic traffic pattern that does not overlap with the periodic traffic pattern of the wireless device (16, 20).
A communication entity associated with a base station, wherein the communication entity comprises: an analyzer configured to analyze the content and/or type of an intelligent transportation systems, ITS, message received by the base station; a local message distributor configured to adopt a local message distribution policy for distributing the ITS message to at least one user equipment of a plurality of user equipments (110a, b) in a service area of the base station on the basis of the content and/or type of the ITS message; a global message distributor configured to adopt a global message distribution policy for distributing the ITS message to at least one of a plurality of further communication entities (100b-d) on the basis of the content and/or type of the ITS message, wherein each further communication entity (100b-d) is associated with a respective further base station (101b-d); and the communication entity being characterised by the global message distributor is further configured to forward the ITS message to a further user equipment of the plurality of user equipments (110a, b) within the service area of the base station associated with the communication entity and to instruct the further user equipment to forward the ITS message to a further communication entity associated with a further base station once the further user equipment is within the service area of the further base station. an analyzer configured to analyze the content and/or type of an intelligent transportation systems, ITS, message received by the base station; a local message distributor configured to adopt a local message distribution policy for distributing the ITS message to at least one user equipment of a plurality of user equipments (110a, b) in a service area of the base station on the basis of the content and/or type of the ITS message; a global message distributor configured to adopt a global message distribution policy for distributing the ITS message to at least one of a plurality of further communication entities (100b-d) on the basis of the content and/or type of the ITS message, wherein each further communication entity (100b-d) is associated with a respective further base station (101b-d); and the communication entity being characterised by the global message distributor is further configured to forward the ITS message to a further user equipment of the plurality of user equipments (110a, b) within the service area of the base station associated with the communication entity and to instruct the further user equipment to forward the ITS message to a further communication entity associated with a further base station once the further user equipment is within the service area of the further base station.
A pumpable thermally foaming filler composition comprising: - a liquid epoxy resin, preferably in an amount of 8 to 30 wt.-%, 10 to 25 wt.-%, preferably 15 to 20 wt.-%, based on the total weight of the pumpable thermally foaming filler composition; - a polyvinylchloride resin and/or acrylic resin powder, preferably a polyvinylchloride resin; preferably 5 to 40 wt.-%, 8 to 30 wt.-%, preferably 10 to 20 wt.-%, based on the total weight of the pumpable thermally foaming filler composition; - a foaming agent, preferably 1 to 10 wt.-%, 2 to 8 wt.-%, preferably 3 to 6 wt.-%, based on the total weight of the pumpable thermally foaming filler composition; and - 1 to 5 wt.-%, based on the total weight of the pumpable thermally foaming filler composition, of at least one calcium or zinc salt of a fatty acid AMS containing 16 C-atoms or 18 C-atoms. - a liquid epoxy resin, preferably in an amount of 8 to 30 wt.-%, 10 to 25 wt.-%, preferably 15 to 20 wt.-%, based on the total weight of the pumpable thermally foaming filler composition; - a polyvinylchloride resin and/or acrylic resin powder, preferably a polyvinylchloride resin; preferably 5 to 40 wt.-%, 8 to 30 wt.-%, preferably 10 to 20 wt.-%, based on the total weight of the pumpable thermally foaming filler composition; - a foaming agent, preferably 1 to 10 wt.-%, 2 to 8 wt.-%, preferably 3 to 6 wt.-%, based on the total weight of the pumpable thermally foaming filler composition; and - 1 to 5 wt.-%, based on the total weight of the pumpable thermally foaming filler composition, of at least one calcium or zinc salt of a fatty acid AMS containing 16 C-atoms or 18 C-atoms.
A method for cleaning, disinfection and sterilization of medical and hygiene articles or instruments, in which said articles or instruments are put into a main microplasma chamber filled with electrically conductive medium and are subjected to an indirect effect of electric current, which is fed to electrodes (2, 2') located in the main microplasma chamber and connected to a power supply, wherein said articles or instruments are placed in the immediate proximity of the electrodes: at least one anode and cathode and the indirect effect of electric current is provided under condition of generation of microplasma discharges on all electrodes (2, 2') simultaneously, characterized in that the process of cleaning disinfection and sterilization in the main microplasma chamber is intensified by circulation of the electrically conductive medium to an additional microplasma chamber for preparing an additionally activated electrically conductive medium, wherein electrodes (9, 9') are placed in the additional microplasma chamber to generate microplasma discharges.
A method for measurement and analysis of circular holes in an ionizing radiation environment in a transparent liquid based on measurement of distance between a scanned surface and a rotation axis of a measuring head (4, 27, 34, 36) by laser triangulation method, wherein the internal profile of a hole or of a caliber is scanned point by point during the measuring head rotation with at least one optical assembly rotating around its rotation axis and located in the hole, wherein the measuring head (4, 27, 34, 36) is inserted into the removable or integrated caliber and calibrated, correction equations are calculated from the obtained referential data, the measuring head (4, 27, 34, 36) is then extended into the initial scanning position, the actual measurement by automatic point by point scanning takes place during the rotation of the measuring head to cover the entire internal area of the hole, thereby obtaining the scanned internal profile of the hole in a cross-section; after the scanning, the measuring head (4, 27, 34, 36) is inserted into a housing, the correction equations are applied to the measured data from which the distances between the scanned surface and the rotation axis of the measuring head are calculated, wherein the scanning device is impermeably sealed against liquids prior to calibration and measurement initiation, and immersed in the ambient liquid environment around the object hole, and a pressure equal to or higher than the pressure of the external ambient environment is maintained inside the housing by pumped gas or mixture of gases.
A transmission device for transmitting a data packet via a communication channel, the transmission device comprising: a memory in which an allocation table is stored, the allocation table indicating an allocation between a plurality of function terms and a plurality of reference data packets, each function term respectively representing a function process; a processor which is configured to select a function term from the plurality of function terms, the selected function term being assigned to a reference data packet corresponding to the data packet, to transform the selected function term using a predetermined functional transformation in order to obtain a transformed function term and to generate a communication message, the communication message comprising the transformed function term; and a communication interface which is configured to send the communication message via the communication channel in order to transmit the data packet via the communication channel to a receiving device, the functional transformation used and an associated functional inverse transformation consequently forming a shared secret between the transmission device and the receiving device, thereby enabling a protected transmission of the data packet via the communication channel. a memory in which an allocation table is stored, the allocation table indicating an allocation between a plurality of function terms and a plurality of reference data packets, each function term respectively representing a function process; a processor which is configured to select a function term from the plurality of function terms, the selected function term being assigned to a reference data packet corresponding to the data packet, to transform the selected function term using a predetermined functional transformation in order to obtain a transformed function term and to generate a communication message, the communication message comprising the transformed function term; and a communication interface which is configured to send the communication message via the communication channel in order to transmit the data packet via the communication channel to a receiving device, the functional transformation used and an associated functional inverse transformation consequently forming a shared secret between the transmission device and the receiving device, thereby enabling a protected transmission of the data packet via the communication channel.
A device for treating a flow of furnace gas, the device comprising a flow channel and an injector centrally arranged within the flow channel and provided with radially directed outlets, the injector comprising a chamber for containing a fluidized bed of a powder agent with a supply for a fluidizing gas configured to blow the powder agent via the radial outlets into the furnace gas flow with an overpressure of at least 10 mbar relative to the pressure in the furnace gas flow, the device further comprising a vent connecting the chamber to a fluidizing gas discharge outside the channel, wherein the vent is adjustable to control the volume of vented fluidization gas, so as to control the injection velocity of the powder agent when it is injected into the gas flow.
A vapour provision system configured to selectively generate vapours with different flavour characteristics for inhalation by a user; wherein the system comprises: a first vapour precursor material having a first flavour characteristic; a second vapour precursor material having a second flavour characteristic which is different from the first flavour characteristic; at least one vaporiser for generating vapour from the first vapour precursor material and the second vapour precursor material; and control circuitry configured to control the at least one vaporiser to generate vapour from the first vapour precursor material and the second vapour precursor in a ratio selected to provide vapour with a selected flavour characteristic for normal use; wherein the control circuitry is further configured to determine if a user notification condition arises for the vapour provision system, and in response to determining that a user notification condition has arisen, to control the at least one vaporiser to generate vapour from the first vapour precursor material and the second vapour precursor in a modified ratio to provide vapour with a modified flavour characteristic that is different from the selected flavour characteristic so as to provide a user with an indication the user notification condition has arisen. a first vapour precursor material having a first flavour characteristic; a second vapour precursor material having a second flavour characteristic which is different from the first flavour characteristic; at least one vaporiser for generating vapour from the first vapour precursor material and the second vapour precursor material; and control circuitry configured to control the at least one vaporiser to generate vapour from the first vapour precursor material and the second vapour precursor in a ratio selected to provide vapour with a selected flavour characteristic for normal use; wherein the control circuitry is further configured to determine if a user notification condition arises for the vapour provision system, and in response to determining that a user notification condition has arisen, to control the at least one vaporiser to generate vapour from the first vapour precursor material and the second vapour precursor in a modified ratio to provide vapour with a modified flavour characteristic that is different from the selected flavour characteristic so as to provide a user with an indication the user notification condition has arisen.
A cutting machine (1, 101) for cutting expanded resins, fibers or fabrics, which comprises: - a cutting portal (2, 102) which comprises at least one first upright unit (21, 22) and a plurality of pulleys, - a cutting element (3, 103) which is functionally engaged by the pulleys of the cutting portal (2, 102); - a feed unit (4, 104) for feeding a workpiece, which cooperates with the cutting portal in order to bring the workpiece to the cutting element (3, 103) in order to cut the workpiece; - a tensioning system (8, 108) for tensioning the cutting element (3, 103), which is configured to apply at least a tensioning load to the cutting element (3, 103), wherein the tensioning system (8, 108) comprises: - measurement means (84, 184) for measuring the tensioning load applied to the cutting element (3, 103), which are configured to measure a value of said tensioning load during a cutting work step of the machine (1, 101) and - means for applying and adjusting the tensioning load (82, 182) which are functionally connected to said measurement means (84, 184) in order to modify the tensioning load applied to the cutting element (3, 103) in a cutting work step of the machine (1, 101), characterized in that the tensioning system for tensioning the cutting element (8, 108) comprises elastic means (81, 181) and wherein the adjustment means comprise an actuator (82, 182) which is coupled to the elastic means (81, 181) in order to apply a load to the elastic element (81, 181), wherein the measurement means (84, 184) for measuring the tensioning load are configured to measure a load of the elastic element (81, 181). - a cutting portal (2, 102) which comprises at least one first upright unit (21, 22) and a plurality of pulleys, - a cutting element (3, 103) which is functionally engaged by the pulleys of the cutting portal (2, 102); - a feed unit (4, 104) for feeding a workpiece, which cooperates with the cutting portal in order to bring the workpiece to the cutting element (3, 103) in order to cut the workpiece; - a tensioning system (8, 108) for tensioning the cutting element (3, 103), which is configured to apply at least a tensioning load to the cutting element (3, 103), - measurement means (84, 184) for measuring the tensioning load applied to the cutting element (3, 103), which are configured to measure a value of said tensioning load during a cutting work step of the machine (1, 101) and - means for applying and adjusting the tensioning load (82, 182) which are functionally connected to said measurement means (84, 184) in order to modify the tensioning load applied to the cutting element (3, 103) in a cutting work step of the machine (1, 101), characterized in that the tensioning system for tensioning the cutting element (8, 108) comprises elastic means (81, 181) and wherein the adjustment means comprise an actuator (82, 182) which is coupled to the elastic means (81, 181) in order to apply a load to the elastic element (81, 181), wherein the measurement means (84, 184) for measuring the tensioning load are configured to measure a load of the elastic element (81, 181).
A propeller blade retention assembly comprising: a propeller blade root which defines a blade axis; a hub arm which at least partially surrounds the propeller blade root; a floating race mounted generally between the hub arm and the propeller blade root, the floating race defining a floating race bearing surface and the propeller blade root defines a propeller blade root bearing surface, the floating race bearing surface and the propeller blade root bearing surface define a base cone angle which intersects the blade axis; a tapered roller bearing set including a plurality of tapered roller bearing elements, each tapered roller bearing element including a bearing element main body section having a base cone that extends along the base cone angle; and an end cap mounted to the floating race to maintain preload in the propeller blade root relative to the hub arm; characterised in that the base cone tapers outwardly to an apex ring, the base cone being adjacent to a relief cone having a frusto-conical shape that tapers inwardly from the apex ring, wherein a transition angle between the base cone and the relief cone at the apex ring is at least 170 degrees and is no more than 179 degrees. a propeller blade root which defines a blade axis; a hub arm which at least partially surrounds the propeller blade root; a floating race mounted generally between the hub arm and the propeller blade root, the floating race defining a floating race bearing surface and the propeller blade root defines a propeller blade root bearing surface, the floating race bearing surface and the propeller blade root bearing surface define a base cone angle which intersects the blade axis; a tapered roller bearing set including a plurality of tapered roller bearing elements, each tapered roller bearing element including a bearing element main body section having a base cone that extends along the base cone angle; and an end cap mounted to the floating race to maintain preload in the propeller blade root relative to the hub arm; characterised in that the base cone tapers outwardly to an apex ring, the base cone being adjacent to a relief cone having a frusto-conical shape that tapers inwardly from the apex ring, wherein a transition angle between the base cone and the relief cone at the apex ring is at least 170 degrees and is no more than 179 degrees.
An electrostatic powdering robot, for an electrostatic powder coating booth, the electrostatic powdering robot comprising: - a projector, which is configured to perform an electrostatic powdering, - a robotic arm, which is articulated and carries the projector to position the projector inside the electrostatic powder coating booth, so that the projector performs the electrostatic powdering of an article inside the electrostatic powder coating booth; and - a blower, which is configured to blow a powder removal fluid, preferably air, the robotic arm carrying the blower to position the blower inside the electrostatic powder coating booth, so that the blower blows the powder removal fluid onto a surface to be depowdered, inside the electrostatic powder coating booth, and thereby removes residual powder coating from the surface to be depowdered; wherein: - the projector comprises a powdering electrode, the electrostatic powdering including raising the powdering electrode to a powdering electrical potential; and - the electrostatic powdering robot further comprises a powder removal electrode, independent of the powdering electrode, the powder removal electrode being configured to be raised to an anti-static electrical potential while the blower blows the powder removal fluid onto the surface to be depowdered. - a projector, which is configured to perform an electrostatic powdering, - a robotic arm, which is articulated and carries the projector to position the projector inside the electrostatic powder coating booth, so that the projector performs the electrostatic powdering of an article inside the electrostatic powder coating booth; and - a blower, which is configured to blow a powder removal fluid, preferably air, the robotic arm carrying the blower to position the blower inside the electrostatic powder coating booth, so that the blower blows the powder removal fluid onto a surface to be depowdered, inside the electrostatic powder coating booth, and thereby removes residual powder coating from the surface to be depowdered; - the projector comprises a powdering electrode, the electrostatic powdering including raising the powdering electrode to a powdering electrical potential; and - the electrostatic powdering robot further comprises a powder removal electrode, independent of the powdering electrode, the powder removal electrode being configured to be raised to an anti-static electrical potential while the blower blows the powder removal fluid onto the surface to be depowdered.
A compound having the structure of Formula (Ib): TM-L-AM (Ib), wherein TM is a targeting moiety that comprises an immunoglobulin that specifically binds to a tumor antigen on a tumor cell, wherein the tumor antigen is ErbB2 or EGFR, L is a linker, and AM is an activating moiety that is 4-amino-2-(ethoxymethyl)-a,a-di-methyl-1H-imidazo[4,5-c]quinoline-1-ethanol (Resiquimod) represented by structure: wherein is the point to be connected to the linker L, for use in the treatment of cancer.
Process for the conversion of a compound of formula 3, wherein R is an acetyl group or an alcohol-protecting group, to a compound of formula 4 wherein R is as defined above, comprising the reaction of 3 with a triflating agent in the presence of a C 1 -C 4 alkyl nicotinate (3-pyridinecarboxylate).
Process for producing L-cysteic acid, wherein O-acetyl-L-serine is converted using at least one enzyme selected from the class of O-acetyl-L-serine sulfhydrylases (OAS sulfhydrylases, EC 4.2.99.8) in the presence of a salt of sulfurous acid, wherein the OAS sulfhydrylase is CysM and the biotransformation is carried out under active pH control and the OAS concentration in the batch is at least 10 g/L.