mhurhangee/ep-ind-claims huggingface dataset:
An actuator for transmitting rotary motion from an input element to an output element, the actuator having an end-of-stroke limit, wherein the actuator comprises: a deformable element and a deforming element (37, 39); a stopping element movable between a non-stopping position and a stopping position, wherein the deforming element (37, 39) rotates with the deformable element when the stopping element is in the non-stopping position, and wherein relative motion occurs between the deformable element and the deforming element (37, 39) when the stopping element is in the stopping position; and a timing gear responsive to rotation of the input element or the output element; wherein the deforming element (37, 39) causes deformation of the deformable element when relative motion occurs between the deformable element and the deforming element (37, 39); characterized in that: the deformable element is connected to the input element such that the deformable element rotates in response to rotation of the input element; and the timing gear is configured to move the stopping element to the stopping position when the end-of-stroke limit is reached; whereby kinetic energy in the actuator is dissipated through the deformation of the deformable element when the end-of-stroke limit is reached. a deformable element and a deforming element (37, 39); a stopping element movable between a non-stopping position and a stopping position, wherein the deforming element (37, 39) rotates with the deformable element when the stopping element is in the non-stopping position, and wherein relative motion occurs between the deformable element and the deforming element (37, 39) when the stopping element is in the stopping position; and a timing gear responsive to rotation of the input element or the output element; wherein the deforming element (37, 39) causes deformation of the deformable element when relative motion occurs between the deformable element and the deforming element (37, 39); characterized in that: the deformable element is connected to the input element such that the deformable element rotates in response to rotation of the input element; and the timing gear is configured to move the stopping element to the stopping position when the end-of-stroke limit is reached; whereby kinetic energy in the actuator is dissipated through the deformation of the deformable element when the end-of-stroke limit is reached. the deformable element is connected to the input element such that the deformable element rotates in response to rotation of the input element; and the timing gear is configured to move the stopping element to the stopping position when the end-of-stroke limit is reached; whereby kinetic energy in the actuator is dissipated through the deformation of the deformable element when the end-of-stroke limit is reached.
Mechanical brake arrangement (100, 200, 300, 400) for controlling the movement of one of the door leafs of a double door system comprising an understriking door leaf and an overstriking door leaf, where the understriking door leaf should be closed before the overstriking door leaf to close the double door, wherein the mechanical brake arrangement (100, 200, 300, 400) comprises two braking means (101, 102, 201, 202, 301, 302, 401, 402) comprising a respective free end and arranged to brake a movement of the overstriking door leaf, a first controlling means (103, 203, 303, 403) and a second controlling means (104, 204, 304, 404), which are mechanically operated, wherein the first controlling means (103, 203, 303, 403) is arranged to control the braking of the braking means (101, 102, 201, 202, 301, 302, 401, 402) in relation to the position of the understriking door leaf, wherein the second controlling means (104, 204, 304, 404) is arranged to control the braking of the braking means (101, 102, 201, 202, 301, 302, 401, 402) in relation to the position of the overstriking door leaf, wherein the mechanical brake arrangement comprises a brake drum (107, 207, 407), the brake drum being adapted to achieve brake action by action of the braking means (101, 102, 201, 202, 301, 302, 401, 402) on the brake drum, wherein the first controlling means is formed as first forked engagement portion and the second controlling means is formed as a second forked engagement portion, wherein in the non-breaking position of the first controlling means, the first forked engagement portion of the first controlling means clamps the free ends of the two braking means and pushes the free ends of the two braking means together, thereby the first controlling means separates the two braking means from the brake drum, wherein in the non braking position of the second controlling means, the second forked engagement portion of the second controlling means clamps the free ends of the two braking means (401, 402) and pushes the free ends of the two braking means together, thereby the second controlling means separates the two braking means (401, 402) from the brake drum, and wherein the braking means acts on the inside of the brake drum; wherein the second controlling means (104, 204, 304, 404) is arranged to be coupled to a second moving part of a second door operator of the overstriking door leaf such that the second moving part moves the second controlling means (104, 204, 304, 404) between the braking position and the non-braking position, wherein the first controlling means (103, 203, 303, 403) is arranged to be coupled to a first moving part of a first door operator of the understriking door leaf such that the first moving part moves the first controlling means (103, 203, 303, 403) between the braking position and the non-braking position.
Projectile (1, 21) with reduced range, comprising a projectile body (3, 13, 23) and a projectile ogive (2, 22), as well as at least one tracer streak (5, 25) and/or at least one delay element (6, 26), a pressure-generating charge (7, 27) in the projectile body (3, 23) being functionally connected to the at least one tracer streak (5, 25) and/or the at least one delay element (6, 26), the pressure-generating charge (7, 27) acting on the projectile (1, 21) after initiation by the at least one tracer streak or the at least one delay element in such a way that the trajectory of the projectile (1, 21) is influenced after a set flight time (t) has been reached, characterized in that the projectile ogive (2, 22) has at least one predetermined breaking point, and in that an internal pressure arising from the initiated pressure-generating charge (7, 27) acts on the projectile ogive (2, 22) having the predetermined breaking point and tears open the latter.
A display device (100D, 100E, 100K, 100M), comprising: a plurality of pixels (B, G, R); and a light shielding layer defining a plurality of openings; wherein one of the plurality of pixels is disposed in one of the plurality of openings and comprises: a color conversion layer (108, 112, 116); a dielectric layer disposed on the color conversion layer, and a light filter layer (106, 110, 114, 150, 152, 160) disposed on the dielectric layer, wherein a refractive index of the dielectric layer is less than a refractive index of the color conversion layer, and characterised in that the light shielding layer contains fluorine elements or function groups with fluorine. a plurality of pixels (B, G, R); and a light shielding layer defining a plurality of openings; wherein one of the plurality of pixels is disposed in one of the plurality of openings and comprises: a color conversion layer (108, 112, 116); a dielectric layer disposed on the color conversion layer, and a light filter layer (106, 110, 114, 150, 152, 160) disposed on the dielectric layer, wherein a refractive index of the dielectric layer is less than a refractive index of the color conversion layer, and characterised in that the light shielding layer contains fluorine elements or function groups with fluorine. a color conversion layer (108, 112, 116); a dielectric layer disposed on the color conversion layer, and a light filter layer (106, 110, 114, 150, 152, 160) disposed on the dielectric layer, wherein a refractive index of the dielectric layer is less than a refractive index of the color conversion layer, and characterised in that the light shielding layer contains fluorine elements or function groups with fluorine.
A method for effecting carrier aggregation for a mobile terminal in a cellular network environment between a first carrier of a Frequency Division Duplex, FDD, system and a second carrier of a Time Division Duplex, TDD, system, a receiver (21, 31, 62, 72) of one of the FDD or TDD systems being susceptible to interference from a transmitter (22, 32, 61, 71) of the other system, the method comprising: setting at least one parameter of the receiver of the one system and/or the transmitter of the other system in respect of an edge of a frequency allocation to increase a frequency separation between a filter band of the receiver of the one of the FDD or TDD systems and a filter band of the transmitter of the other system compared with a frequency separation between a frequency allocation for the receiver of the one of the FDD or TDD systems and a frequency allocation for the transmitter of the other system, such that a non-zero throughput is achieved by communication of the first carrier and a non-zero throughput is achieved by communication of the second carrier; and wherein the at least one parameter in respect of an edge of the frequency allocation comprises one or more of: a resource allocation parameter; a frequency spectral profile parameter; a power profile parameter; a filter configuration parameter. setting at least one parameter of the receiver of the one system and/or the transmitter of the other system in respect of an edge of a frequency allocation to increase a frequency separation between a filter band of the receiver of the one of the FDD or TDD systems and a filter band of the transmitter of the other system compared with a frequency separation between a frequency allocation for the receiver of the one of the FDD or TDD systems and a frequency allocation for the transmitter of the other system, such that a non-zero throughput is achieved by communication of the first carrier and a non-zero throughput is achieved by communication of the second carrier; and wherein the at least one parameter in respect of an edge of the frequency allocation comprises one or more of: a resource allocation parameter; a frequency spectral profile parameter; a power profile parameter; a filter configuration parameter.
A vehicle communication system, comprising: an internal local area network, LAN, arranged within the vehicle; at least one antenna (5a-5n) for wireless communication with external wide area networks, WAN, (4a-4c) outside the vehicle; a global positioning system, GPS, receiver for receiving GPS signals indicative of the current position of the vehicle; and a data communication router for providing data communication between said internal LAN and said external WANs (4a-4c), wherein said data communication router comprises a plurality of modems (21a-21n) for communication with said external WANs (4a-4c), a subscriber identity module, SIM, pool including a plurality of SIMs (22a-22N), characterized in that: the SIM pool includes several SIMs related to different operators for each of a plurality of different countries, and the data communication router further comprises: a controller capable of periodically assigning SIMs (22a-22N) within said SIM pool to any one of said modems (21a-21n), wherein the controller is arranged to assign SIMs within said SIM pool to the modems in accordance with in which country the vehicle is currently located, as determined by said received GPS signals. an internal local area network, LAN, arranged within the vehicle; at least one antenna (5a-5n) for wireless communication with external wide area networks, WAN, (4a-4c) outside the vehicle; a global positioning system, GPS, receiver for receiving GPS signals indicative of the current position of the vehicle; and a data communication router for providing data communication between said internal LAN and said external WANs (4a-4c), wherein said data communication router comprises a plurality of modems (21a-21n) for communication with said external WANs (4a-4c), a subscriber identity module, SIM, pool including a plurality of SIMs (22a-22N), the SIM pool includes several SIMs related to different operators for each of a plurality of different countries, and the data communication router further comprises: a controller capable of periodically assigning SIMs (22a-22N) within said SIM pool to any one of said modems (21a-21n), wherein the controller is arranged to assign SIMs within said SIM pool to the modems in accordance with in which country the vehicle is currently located, as determined by said received GPS signals.
Method for granulating or agglomerating, in which the ingredients to be granulated or to be agglomerated are introduced into a container and mixed with a tool, characterised in that a granulating and/or agglomerating device comprising a container and a granulating and/or agglomerating tool arranged in the container, wherein the granulating and/or agglomerating tool comprises a fastening shaft and a substantially disk-shaped element with a diameter d which is fastened thereto and has an upper surface, a lower surface and a circumferential surface connecting the upper and the lower surface, the circumferential surface exhibiting a plurality of essentially V-shaped grooves running parallel to the axis of the shaft.
A fan (1, 11) for an aeroengine, the fan comprising a rotor (2, 12) having a plurality of blades (3, 13) made of composite material including woven fibers and a system for detecting deformation resulting from an impact of an object against said fan, at least one of said fibers in each of said blades (3, 13) being an optical fiber (4, 14) including at least one portion defining a Bragg grating, the fan further comprising a transceiver (6, 16) connected to said optical fiber (4, 14) and configured for sending an optical signal into said optical fiber (4, 14) and for receiving an optical signal in response from said optical fiber (4, 14), the fan being characterized in that it further comprises a detector module (7, 17) connected to said transceiver and configured to detect a deformation of said fan (1, 11) when said received optical signal presents correlation with a predetermined signature of a damped impact on a blade at a determined speed of rotation and configured for determining a mass of said object by analyzing the received optical signal.
Process for the production of a feather-based thermoplastic material comprising the following steps in the specified order: (a) subjecting feathers to steam explosion, (b) drying the exploded feathers resulting from step (a), (c) fragmenting the dried feathers resulting from step (b), and (d) incorporating by extrusion the feather fragments resulting from step (c) into a thermoplastic matrix. (a) subjecting feathers to steam explosion, (b) drying the exploded feathers resulting from step (a), (c) fragmenting the dried feathers resulting from step (b), and (d) incorporating by extrusion the feather fragments resulting from step (c) into a thermoplastic matrix.
Method for detecting a malfunction in an observed elevator and being executed, performed and/or controlled by an elevator controller comprising a data processor and a data acquisition interface, the method comprising: acquiring first data during an application phase, the first data correlating with at least one condition in the observed elevator; acquiring further data during the application phase, the further data correlating with the at least one condition in other elevators; characterized in that the method comprises the further steps: determining a current relative behaviour of the observed elevator during the application phase based on a comparison of the first data with the further data; and detecting the malfunction in the observed elevator based on an analysis of the current relative behaviour. acquiring first data during an application phase, the first data correlating with at least one condition in the observed elevator; acquiring further data during the application phase, the further data correlating with the at least one condition in other elevators; characterized in that the method comprises the further steps: determining a current relative behaviour of the observed elevator during the application phase based on a comparison of the first data with the further data; and detecting the malfunction in the observed elevator based on an analysis of the current relative behaviour. determining a current relative behaviour of the observed elevator during the application phase based on a comparison of the first data with the further data; and detecting the malfunction in the observed elevator based on an analysis of the current relative behaviour.
A button-type lithium ion battery, comprising: a shell internally provided with a cavity; a winding core arranged in the cavity; a center uptight provided with an opening at at least one end of the center uptight; a pole arranged on the shell, one end of the pole extending to an inside of the opening and an other end of the pole extending to an outside of the shell; tabs connected with the winding core, the tabs extending to the opening and being electrically connected with the pole; further comprising an upper insulating sheet and a lower insulating sheet respectively attached to an upper bottom surface and a lower bottom surface of the winding core; wherein the shell comprises a pedestal and a cover body, which are mutually cooperated to form the cavity; wherein the cover body is provided with a liquid injection port and a seal which is capable of sealing the liquid injection port; the pole is arranged on the cover body; a liquid injection port and a through hole used for installing the pole are formed on the cover body by punching; and the tabs comprise a positive tab welded on the shell through laser welding or ultrasonic welding, and a negative tab welded on the pole through laser welding or ultrasonic welding or resistance welding; wherein the pole is embedded into the through hole, and sealant is injected between the outer wall surface of the pole and the inner wall surface of the through hole. a shell internally provided with a cavity; a winding core arranged in the cavity; a center uptight provided with an opening at at least one end of the center uptight; a pole arranged on the shell, one end of the pole extending to an inside of the opening and an other end of the pole extending to an outside of the shell; tabs connected with the winding core, the tabs extending to the opening and being electrically connected with the pole; further comprising an upper insulating sheet and a lower insulating sheet respectively attached to an upper bottom surface and a lower bottom surface of the winding core; wherein the shell comprises a pedestal and a cover body, which are mutually cooperated to form the cavity; wherein the cover body is provided with a liquid injection port and a seal which is capable of sealing the liquid injection port; the pole is arranged on the cover body; a liquid injection port and a through hole used for installing the pole are formed on the cover body by punching; and the tabs comprise a positive tab welded on the shell through laser welding or ultrasonic welding, and a negative tab welded on the pole through laser welding or ultrasonic welding or resistance welding; wherein the pole is embedded into the through hole, and sealant is injected between the outer wall surface of the pole and the inner wall surface of the through hole.
An apparatus for treating Alzheimer's Disease and/or Multiple Sclerosis and/or Minimally Conscious State and/or Mood Disorders and/or vascular brain disorders where there is small vessel compromise and/or Hypertension and/or Epilepsy in a subject, comprising an electrode lead wire, comprising a first electrode region and a second electrode region, the first and second electrode regions each having at least one electrode and being separated along the electrode lead wire with the centres of the electrode regions being 10 to 20mm apart, and a controller configured to apply first and second electrical pulsed signals to said first and second electrode regions respectively, the first electrical pulsed signal being a signal with a frequency of 5 to 50 Hz and the second electrical pulsed signal being a signal with a frequency greater than 70 Hz, wherein the first electrode region is at the distal end of the lead and the second electrode region is proximal to the controller.
Method for adjusting the formula parameters of a drumming cycle of leathers comprising the following operations: - introducing into a cylindrical barrel, belonging to a tannery rotary drum, a plurality of leathers to be drummed in a given drumming cycle; - setting a working temperature, or set point temperature (T l), at which said drumming cycle of said leathers is performed, characterized in that it comprises the following additional operations: - initially detecting the effective temperature (T e) inside said cylindrical barrel of said rotary drum, performed before starting said drumming cycle by rotating said cylindrical barrel around a linear axis and after said operation of introducing said leathers into said cylindrical barrel; - subsequently setting an initial time interval (t r) of said drumming cycle needed to pass inside said cylindrical barrel from said effective temperature (T e) to said working temperature (T l), according to said effective temperature (T e) detected before starting said rotation of said cylindrical barrel around said linear axis. - introducing into a cylindrical barrel, belonging to a tannery rotary drum, a plurality of leathers to be drummed in a given drumming cycle; - setting a working temperature, or set point temperature (T l), at which said drumming cycle of said leathers is performed, - initially detecting the effective temperature (T e) inside said cylindrical barrel of said rotary drum, performed before starting said drumming cycle by rotating said cylindrical barrel around a linear axis and after said operation of introducing said leathers into said cylindrical barrel; - subsequently setting an initial time interval (t r) of said drumming cycle needed to pass inside said cylindrical barrel from said effective temperature (T e) to said working temperature (T l), according to said effective temperature (T e) detected before starting said rotation of said cylindrical barrel around said linear axis.