mhurhangee/patent-ind-claim-en huggingface dataset:
Binder composition for manufacturing of a wood-based material, in particular a board-shaped wood-based material, comprising - an organic phase comprising at least one isocyanate binder, - an aqueous phase and - a solubilizer, which is ionic and/or alcoholic hydroxy group-free, for rapid mixing of both phases and/or for accelerating the curing of the isocyanate binder, wherein - the solubilizer is one or more substances selected from the group consisting of N,N-naphthalenesulfonic acid, dodecane sulfonic acid or diethylbenzyl sodium sulfosuccinate or the respective sodium salt, and - the proportion of solubilizer is between 0.05% and 1.0% based on the mass of the isocyanate binder. - an organic phase comprising at least one isocyanate binder, - an aqueous phase and - a solubilizer, which is ionic and/or alcoholic hydroxy group-free, for rapid mixing of both phases and/or for accelerating the curing of the isocyanate binder, wherein - the solubilizer is one or more substances selected from the group consisting of N,N-naphthalenesulfonic acid, dodecane sulfonic acid or diethylbenzyl sodium sulfosuccinate or the respective sodium salt, and - the proportion of solubilizer is between 0.05% and 1.0% based on the mass of the isocyanate binder.
Method for manufacturing optical sensor arrangements , the method comprising: - providing at least two optical sensors on a carrier , - providing a cover material on a side of the optical sensors facing away from the carrier , - providing an aperture for each optical sensor by an opaque aperture layer on a top side of the cover material facing away from the carrier , - providing a transparent cover layer on a top side of the opaque aperture layer facing away from the carrier , - forming at least one trench between the optical sensors by cutting the carrier and the cover material from a bottom side of the carrier facing away from the aperture towards the top side of the cover material leaving at least the cover layer uncut, the trench comprising inner walls , - coating the inner walls with an opaque material , such that an inner volume of the trench is free of the opaque material , and - singulating of the optical sensor arrangements along the at least one trench . - providing at least two optical sensors on a carrier , - providing a cover material on a side of the optical sensors facing away from the carrier , - providing an aperture for each optical sensor by an opaque aperture layer on a top side of the cover material facing away from the carrier , - providing a transparent cover layer on a top side of the opaque aperture layer facing away from the carrier , - forming at least one trench between the optical sensors by cutting the carrier and the cover material from a bottom side of the carrier facing away from the aperture towards the top side of the cover material leaving at least the cover layer uncut, the trench comprising inner walls , - coating the inner walls with an opaque material , such that an inner volume of the trench is free of the opaque material , and - singulating of the optical sensor arrangements along the at least one trench .
A medical device for lithotripsy of a bodily object during a lithotripsy procedure, comprising: an ablation device configured to deliver ablation energy to a treatment site ; a probe device configured to deliver excitation radiation to the treatment site in a pulsed manner, the excitation radiation having a wavelength in the range between 380 and 900 nm and being different from the ablation energy ; a radiation-receiving device configured to receive photoluminescence radiation emitted from the treatment site in response to being illuminated by the excitation radiation and to generate a detection signal in response to the received photoluminescence radiation ; and a controller configured to control the probe device and to determine a distance between the bodily object and the medical device based on the received photoluminescence radiation . an ablation device configured to deliver ablation energy to a treatment site ; a probe device configured to deliver excitation radiation to the treatment site in a pulsed manner, the excitation radiation having a wavelength in the range between 380 and 900 nm and being different from the ablation energy ; a radiation-receiving device configured to receive photoluminescence radiation emitted from the treatment site in response to being illuminated by the excitation radiation and to generate a detection signal in response to the received photoluminescence radiation ; and a controller configured to control the probe device and to determine a distance between the bodily object and the medical device based on the received photoluminescence radiation .
Wear protection film , characterized in that the wear protection film comprises a thermoplastic carrier film and a wear protection layer arranged on the thermoplastic carrier film , wherein an adhesion promoter layer is arranged at least partially between the thermoplastic carrier film and the wear protection layer , wherein the thermoplastic carrier film comprises a thermoplastic, wherein the adhesion promoter layer comprises an adhesion promoter, and wherein the wear protection layer comprises a mixture comprising a polymethyl methacrylate and polyorganosiloxane, characterized in that the polyorganosiloxane has a number average molecular weight, measured as described in the description, in a range of greater than or equal to 50 kDa to less than or equal to 700 kDa, preferably of greater than or equal to 100 kDa to less than or equal to 500 kDa, further preferably greater than or equal to 150 kDa to less than or equal to 300 kDa. wherein the thermoplastic carrier film comprises a thermoplastic, wherein the adhesion promoter layer comprises an adhesion promoter, and wherein the wear protection layer comprises a mixture comprising a polymethyl methacrylate and polyorganosiloxane, characterized in that the polyorganosiloxane has a number average molecular weight, measured as described in the description, in a range of greater than or equal to 50 kDa to less than or equal to 700 kDa, preferably of greater than or equal to 100 kDa to less than or equal to 500 kDa, further preferably greater than or equal to 150 kDa to less than or equal to 300 kDa.
Method for operating a power plant to provide ancillary services functionality to an electrical grid, the power plant comprising a group of wind turbine generators (10a,b) arranged for supplying power to an electrical grid , an energy storage system comprising at least one energy storage device arranged for supplying power to the electrical grid , and a power plant controller , the method comprises the power plant controller implementing the following: - receiving state information regarding the group of wind turbine generators (10a,b) supplied by at least one sensor , state information regarding the energy storage system supplied from at least one sensor , and configuration data on the power plant characterized by - receiving measurement sets and set points of at least one electrical parameter from the electrical grid , - deriving a plurality of ancillary service output signals for the plurality of ancillary services algorithms for providing ancillary service functionalities to the electrical grid using the measurement sets and set points of the at least one electrical parameter, - selecting one of the derived ancillary service output signals as the overall power plant reference value for the power plant depending on the received state information regarding the group of wind turbine generators (10a,b) and the energy storage system , and the received configuration data on the power plant , - calculating, based on the overall reference value , a first control reference signal for the group of wind turbine generators (10a,b) and a second control reference signal for the at least one energy storage device , and - dispatching the first control reference signal to the group of wind turbine generators (10a,b) and the second control reference signal to the at least one energy storage device . - receiving state information regarding the group of wind turbine generators (10a,b) supplied by at least one sensor , state information regarding the energy storage system supplied from at least one sensor , and configuration data on the power plant characterized by - receiving measurement sets and set points of at least one electrical parameter from the electrical grid , - deriving a plurality of ancillary service output signals for the plurality of ancillary services algorithms for providing ancillary service functionalities to the electrical grid using the measurement sets and set points of the at least one electrical parameter, - selecting one of the derived ancillary service output signals as the overall power plant reference value for the power plant depending on the received state information regarding the group of wind turbine generators (10a,b) and the energy storage system , and the received configuration data on the power plant , - calculating, based on the overall reference value , a first control reference signal for the group of wind turbine generators (10a,b) and a second control reference signal for the at least one energy storage device , and - dispatching the first control reference signal to the group of wind turbine generators (10a,b) and the second control reference signal to the at least one energy storage device .
Method for preparing a change to an operating state of a vehicle combination , in which a trailer of the vehicle combination is coupled, as a current operating state of the vehicle combination , to a trailer hitch of a tractor vehicle of the vehicle combination , an overrun brake device arranged on a trailer side can be changed, as a function of the movement of the tractor vehicle and/or of a state of a roadway on which the vehicle combination is located, in a tensioned state which generates a braking effect on the trailer , wherein the state of the overrun brake device is monitored and is sensed with a sensor device of the vehicle combination , and when a tensioned state of the overrun brake device is detected this information of the tensioned state is taken into account in preparing to change the operating state of the vehicle combination , characterized in that when the changing of the operating state is prepared, an imminence of changing of the operating state of the vehicle combination within a subsequent time interval is estimated by an estimation device of the vehicle combination .
Process for the production of chromatography columns containing a monolithic sorbent which is clad with a metal tube, by a) provision of a cylindrical monolithic sorbent and a metal tube which has an internal diameter that is greater than the diameter of the monolithic sorbent; b) introduction of the monolithic sorbent into the metal tube; the process is characterised by : c) application of the metal tube to the monolithic sorbent by cold forming. a) provision of a cylindrical monolithic sorbent and a metal tube which has an internal diameter that is greater than the diameter of the monolithic sorbent; b) introduction of the monolithic sorbent into the metal tube;
A system for a vehicle having a trailer coupled thereto, the system comprising: a processor configured to: determine an actual trailer travel direction (T ACT ) based on one or more sensor signals; receive a demanded trailer travel direction (T DEM ); and estimate a distance to be travelled by the vehicle at least substantially to match the actual trailer travel direction (T ACT ) with the demanded trailer travel direction (T DEM ); and a display in communication with said processor operative to display system information for a driver, and wherein the display is operative to display the actual trailer travel direction (T ACT ) and the demanded trailer travel direction (T DEM ). a processor configured to: determine an actual trailer travel direction (T ACT ) based on one or more sensor signals; receive a demanded trailer travel direction (T DEM ); and estimate a distance to be travelled by the vehicle at least substantially to match the actual trailer travel direction (T ACT ) with the demanded trailer travel direction (T DEM ); and determine an actual trailer travel direction (T ACT ) based on one or more sensor signals; receive a demanded trailer travel direction (T DEM ); and estimate a distance to be travelled by the vehicle at least substantially to match the actual trailer travel direction (T ACT ) with the demanded trailer travel direction (T DEM ); and a display in communication with said processor operative to display system information for a driver, and wherein the display is operative to display the actual trailer travel direction (T ACT ) and the demanded trailer travel direction (T DEM ).
A sill-free door with at least one door leaf produced from glass and with a lowerable seal (D) for sealing the door leaf in the downward direction in the closed state of the door, the seal (D) having a guide profile , which is open in the downward direction, and a sealing strip , which can be displaced in the guide profile , the sealing strip comprising a carrier profile and an elastomeric sealing profile , which is fastened on said carrier profile, and the sealing profile , in the lowered state, butting against the floor (B), wherein the lowerable seal (D) is arranged beneath the bottom flat end surface of the door leaf , characterized in that the guide profile has, at its top end, a flat bearing surface , which forms an upper end of the seal and which is connected to the end surface of the door leaf via material bonding, wherein at least one vertical sied of the lowerable seal (D) aligns with a vertical surface of the door leaf.
A computer-implemented method for detecting a spoofing attack against an autonomous driving vehicle, ADV, the method comprising: determining a planned route from a starting location to a destination, the planned route to the destination being updatable as the ADV travels on the planned route; obtaining a plurality of pre-defined static objects along the planned route from a map database, the plurality of pre-defined static objects being updatable when the planned route is updated; detecting an update to the plurality of pre-defined static objects; being characterized by: determining a change to the destination by analyzing a new route traced by a plurality of updated pre-defined static objects in response to detecting the update to the plurality of pre-defined static objects; and confirming, if there is a passenger in the ADV, that the passenger does not request the change to the destination or that there is no passenger in the ADV, to determine there is the new route resulting from an unauthorized change to the destination; reporting a suspicious destination change to a service provider; and responding to the new route determining a planned route from a starting location to a destination, the planned route to the destination being updatable as the ADV travels on the planned route; obtaining a plurality of pre-defined static objects along the planned route from a map database, the plurality of pre-defined static objects being updatable when the planned route is updated; detecting an update to the plurality of pre-defined static objects; being characterized by: determining a change to the destination by analyzing a new route traced by a plurality of updated pre-defined static objects in response to detecting the update to the plurality of pre-defined static objects; and confirming, if there is a passenger in the ADV, that the passenger does not request the change to the destination or that there is no passenger in the ADV, to determine there is the new route resulting from an unauthorized change to the destination; reporting a suspicious destination change to a service provider; and responding to the new route determining a change to the destination by analyzing a new route traced by a plurality of updated pre-defined static objects in response to detecting the update to the plurality of pre-defined static objects; and confirming, if there is a passenger in the ADV, that the passenger does not request the change to the destination or that there is no passenger in the ADV, to determine there is the new route resulting from an unauthorized change to the destination; reporting a suspicious destination change to a service provider; and responding to the new route
A fire resistant optical cable (10; 20; 30) comprising: a plurality of optical fibers (11; 21; 31); at least one tubular layer (13; 23; 33) of an extrudable ceramifiable material surrounding the plurality of optical fibers (11; 21; 31), said extrudable ceramifiable material comprising: at least one polymeric material; at least one glass frit; at least one inert inorganic filler; at least one flame shielding layer (16; 27; 34, 35) surrounding the tubular layer; characterised in that the plurality of optical fibers (11; 21; 31) are arranged in micromodules. a plurality of optical fibers (11; 21; 31); at least one tubular layer (13; 23; 33) of an extrudable ceramifiable material surrounding the plurality of optical fibers (11; 21; 31), said extrudable ceramifiable material comprising: at least one polymeric material; at least one glass frit; at least one inert inorganic filler; at least one flame shielding layer (16; 27; 34, 35) surrounding the tubular layer; characterised in that the plurality of optical fibers (11; 21; 31) are arranged in micromodules.
Separator device for a vacuum cleaner , comprising a pre-separator having a receiving basket (126; 126') which has a receiving space , wherein in operation of the separator device a dirt-laden suction flow is passed through the receiving space and wherein associated with the receiving basket (126; 126') is a lid (132; 170) which has located thereon at least one pin-shaped engagement element (160; 186) which, when the lid (132; 170) is closed, projects into the receiving space and which, upon movement of the lid (132; 170) relative to the receiving basket (126; 126'), is engageable with dirt in the receiving space , characterized in that arranged on the lid (132; 170) is a connection (136; 188) for a suction flow conduit.
A ballistic protection device steerable around an azimuth axis and intended to cover at least one periscopic observation means which can pivot around the same azimuth axis , the protection device being characterised in that it comprises first and second covers each having a shape of revolution, the shape allowing to arrange the first cover under the second cover so as to be able to rotate each of the covers with respect to one another around the azimuth axis , the first and second covers being rotationally driven by first and second driving means , respectively, each comprising a sensor allowing to determine the position in azimuth of each of the covers, the first and second covers comprising a first and a second groove , respectively, that are obliquely oriented with respect to the azimuth axis , the first and second grooves being oriented in different directions such that a grooves-overlapping area forms an observation window through both covers , the position of the window being controlled by means of a control device in order to be located in front of an optics of the observation means , the position of the window on the device being variable according to the angular position of the covers with respect to the azimuth axis .
An automated fiber bending machine comprising: a heating source configured to emit a laser beam and heat one or more silica fibers ; a beam deflection module configured to direct the laser beam to the one or more silica fibers; a robotic articulating arm assembly comprising: two independent arms each arm having a first end and a second end and rotating about an axis; a shaft configured to mount the second end of each arm and rotate the arms about the same axis; at least one servomotor attached to each arm , each motor mounted with a spur gear configured to drive the arms; at least one gripper in each arm configured to hold the fiber in position; and a control system configured to direct the heat source to heat a bend portion of the fiber and to actuate the servomotors to displace the arms angularly and bend the fiber at the bend portion to a predetermined bend diameter. a heating source configured to emit a laser beam and heat one or more silica fibers ; a beam deflection module configured to direct the laser beam to the one or more silica fibers; a robotic articulating arm assembly comprising: two independent arms each arm having a first end and a second end and rotating about an axis; a shaft configured to mount the second end of each arm and rotate the arms about the same axis; at least one servomotor attached to each arm , each motor mounted with a spur gear configured to drive the arms; at least one gripper in each arm configured to hold the fiber in position; and two independent arms each arm having a first end and a second end and rotating about an axis; a shaft configured to mount the second end of each arm and rotate the arms about the same axis; at least one servomotor attached to each arm , each motor mounted with a spur gear configured to drive the arms; at least one gripper in each arm configured to hold the fiber in position; and a control system configured to direct the heat source to heat a bend portion of the fiber and to actuate the servomotors to displace the arms angularly and bend the fiber at the bend portion to a predetermined bend diameter.
A system comprising: a bidirectional resonant converter comprising an input/output terminal, a switching device (111a-c, 113a-c, 611, 613) coupled with the input/output terminal, a resonant circuit coupled with the switching device (111a-c, 113a-c, 611, 613) and including a variable inductor (121a-c, 621), an output/input terminal coupled with the resonant circuit, and a DC biasing circuit operatively coupled with the variable inductor (121a-c, 621); wherein the variable inductor (121a-c, 621) comprises a toroidal core , a first winding wound around the toroidal core and coupled with the switching device (111a-c, 113a-c, 611, 613) and the output/input terminal, a second core structured to overlap a portion of the toroidal core , and a second winding wound around the second core and coupled with the DC biasing circuit; and wherein the DC biasing circuit is controllable to vary an inductance of the variable inductor (121a-c, 621) by saturating the portion of the toroidal core with magnetic flux. a bidirectional resonant converter comprising an input/output terminal, a switching device (111a-c, 113a-c, 611, 613) coupled with the input/output terminal, a resonant circuit coupled with the switching device (111a-c, 113a-c, 611, 613) and including a variable inductor (121a-c, 621), an output/input terminal coupled with the resonant circuit, and a DC biasing circuit operatively coupled with the variable inductor (121a-c, 621); wherein the variable inductor (121a-c, 621) comprises a toroidal core , a first winding wound around the toroidal core and coupled with the switching device (111a-c, 113a-c, 611, 613) and the output/input terminal, a second core structured to overlap a portion of the toroidal core , and a second winding wound around the second core and coupled with the DC biasing circuit; and wherein the DC biasing circuit is controllable to vary an inductance of the variable inductor (121a-c, 621) by saturating the portion of the toroidal core with magnetic flux.