mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a mechanical system (2001; 3001; 4001) forming a cam follower or a rocker arm, the mechanical system comprising: - a support element (2010; 3010; 4010), - a pin (30; 2030) extending between two opposite ends (35, 36) along a first axis and supported by the support element (2010; 3010; 4010), and - a roller mounted on the pin (30; 2030), movable in rotation relative to the pin (30; 2030) around the first axis and adapted to roll on a cam, the support element (2010; 3010; 4010) comprising first axial abutment means (2012; 3012A; 4012) blocking the translation of a pin assembly including at least the pin (30; 2030), in a first direction parallel to a second axis perpendicular to the first axis, the mechanical system including an insert (2020; 3020; 4020) inserted in the support element (2010; 3010; 4010) and supporting the pin (30; 2030) opposite the first axial abutment means (2012; 3012A; 4012), wherein the first axial abutment means (2012; 3012A; 4012) protrude outside a cavity delimited by the support element (2010; 3010; 4010) and receiving the pin (30; 2030), wherein: - the pin and the roller are assembled together, - the pin and the roller are inserted in the support element until the pin assembly comes into contact with the first axial abutment means (2012; 3012A), - the insert (3020; 4020) is inserted in the support element until it comes into contact with the pin. - a support element (2010; 3010; 4010), - a pin (30; 2030) extending between two opposite ends (35, 36) along a first axis and supported by the support element (2010; 3010; 4010), and - a roller mounted on the pin (30; 2030), movable in rotation relative to the pin (30; 2030) around the first axis and adapted to roll on a cam, - the pin and the roller are assembled together, - the pin and the roller are inserted in the support element until the pin assembly comes into contact with the first axial abutment means (2012; 3012A), - the insert (3020; 4020) is inserted in the support element until it comes into contact with the pin.
Use of a composition comprising at least 50% by weight, preferably at least 70 % by weight, and more preferably more than 90% by weight of a disaccharide sugar alcohol selected from the group consisting of lactitol, isomalt, maltitol or any mixtures thereof for glazing the outer surface of a pre-baked or prior-to-baking dough product, wherein the amount of said sugar alcohol corresponds to between 0.01 and 0.10 gram of sugar alcohol per cm 2 surface of dough product, wherein the sugar alcohol(s) have a granule size comprised between 50 and 2000 μm, and wherein said composition is in the form of a powder or granules.
A method of setting a screw, in particular a flow-drilling screw, in which the screw is driven at a first revolution speed (n 0%) and at a first axial feed force (F a 0%) during a time-limited first phase (t A) to drive the screw through at least one component; it is established whether the screw has penetrated the component; and, in the event that the screw has not penetrated the component during the first phase (t A), the screw is automatically driven at a second revolution speed (n) which is higher than the first revolution speed (n 0%) and/or is driven at a second axial feed force (F a) which is higher than the first axial feed force (F a 0%) during a second phase (t B) subsequent to the first phase (t A).
A gas exchange valve arrangement for a supercharged internal combustion engine, which arrangement comprises an exhaust valve having a valve head and a valve stem connected to the valve head, the arrangement further comprising a valve spring being arranged around the valve stem for creating a force for closing the valve, a chamber being arranged around the valve stem, and thrust means (6, 19) being attached to the valve stem and being movable in the direction of the longitudinal axis of the valve stem together with the gas exchange valve, characterized in that the arrangement comprises means (7, 14) for introducing pressurized charge air from an air intake duct of the engine into the chamber between the thrust means (6, 19) and the inner end of the chamber for assisting in keeping the exhaust valve closed.
A negative electrode for an all-solid-state battery comprising: a carbonaceous material having a true density of from 1.30 g/cm 3 to 1.70 g/cm 3 determined by a butanol method, a specific surface area of from 0.5 to 50.0 m 2 /g, an average particle size D v50 of from 1 to 50 μm, and a exothermic peak temperature T (°C) according to differential thermal analysis and a butanol true density ρ Bt (g/cm 3) satisfying the following formula: 300 ≤ T − 100 × ρ Bt ≤ 570 and a solid electrolyte. a carbonaceous material having a true density of from 1.30 g/cm 3 to 1.70 g/cm 3 determined by a butanol method, a specific surface area of from 0.5 to 50.0 m 2 /g, an average particle size D v50 of from 1 to 50 μm, and a exothermic peak temperature T (°C) according to differential thermal analysis and a butanol true density ρ Bt (g/cm 3) satisfying the following formula: 300 ≤ T − 100 × ρ Bt ≤ 570 and a solid electrolyte.
A signal analysis method of analyzing a performance of a device under test, wherein the method comprises the following steps: - obtaining a digitized input signal, wherein the digitized input signal is associated with the device under test, and - determining at least one characteristic quantity via an artificial intelligence module, wherein the artificial intelligence module comprises at least one computing parameter, and wherein the at least one characteristic quantity is determined based on the digitized input signal and based on the at least one computing parameter, wherein the at least one characteristic quantity is indicative of at least one performance property of the device under test, wherein a control unit is provided, wherein the control unit controls the device under test to enter a predetermined operation mode and/or a sequence of predetermined operation modes, characterized in that the control unit controls the artificial intelligence module to adapt the at least one computing parameter based on the predetermined operation mode of the device under test such that the at least one computing parameter is adapted to suit the particular operation mode of the device under test and/or the particular sequence of operation modes of the device under test. - obtaining a digitized input signal, wherein the digitized input signal is associated with the device under test, and - determining at least one characteristic quantity via an artificial intelligence module, wherein the artificial intelligence module comprises at least one computing parameter, and wherein the at least one characteristic quantity is determined based on the digitized input signal and based on the at least one computing parameter, wherein the at least one characteristic quantity is indicative of at least one performance property of the device under test, wherein a control unit is provided, wherein the control unit controls the device under test to enter a predetermined operation mode and/or a sequence of predetermined operation modes, characterized in that the control unit controls the artificial intelligence module to adapt the at least one computing parameter based on the predetermined operation mode of the device under test such that the at least one computing parameter is adapted to suit the particular operation mode of the device under test and/or the particular sequence of operation modes of the device under test.
A system comprising: a first network controller configured to communicate over a higher-level industrial process control network; a second network controller configured to communicate over a first lower-level industrial process control network; a third network controller configured to communicate over a second lower-level industrial process control network; and a bus configured to transport data messages between the network controllers; wherein the first network controller is configured to provide first data messages from the higher-level industrial process control network to the second and third network controllers for transmission over the lower-level industrial process control networks; wherein the second and third network controllers are configured to provide second data messages from the lower-level industrial process control networks to the first network controller for transmission over the higher-level industrial process control network; and wherein each of the second and third network controllers is configured to provide third data messages from one of the lower-level industrial process control networks to another of the second and third network controllers for transmission over another of the lower-level industrial process control networks. a first network controller configured to communicate over a higher-level industrial process control network; a second network controller configured to communicate over a first lower-level industrial process control network; a third network controller configured to communicate over a second lower-level industrial process control network; and a bus configured to transport data messages between the network controllers; wherein the first network controller is configured to provide first data messages from the higher-level industrial process control network to the second and third network controllers for transmission over the lower-level industrial process control networks; wherein the second and third network controllers are configured to provide second data messages from the lower-level industrial process control networks to the first network controller for transmission over the higher-level industrial process control network; and wherein each of the second and third network controllers is configured to provide third data messages from one of the lower-level industrial process control networks to another of the second and third network controllers for transmission over another of the lower-level industrial process control networks.
A device for assessing the progress of an electrosurgical process, comprising: an elongated member configured to be placed within tissue, the elongated member including a distal tip; at least one echogenic indicator region disposed on at least a portion of the elongated member, the echogenic indicator region including heat-sensitive elements (330 1 -330 n) configured to undergo a phase transition at a predetermined temperature resulting in a change in echogenic properties, when the at least a portion of the elongated member is disposed within tissue, in response to heat generated as a result of energy transmitted to the tissue, wherein the heat sensitive elements have a greater echogenicity than the surrounding elongated member. an elongated member configured to be placed within tissue, the elongated member including a distal tip; at least one echogenic indicator region disposed on at least a portion of the elongated member, the echogenic indicator region including heat-sensitive elements (330 1 -330 n) configured to undergo a phase transition at a predetermined temperature resulting in a change in echogenic properties, when the at least a portion of the elongated member is disposed within tissue, in response to heat generated as a result of energy transmitted to the tissue, wherein the heat sensitive elements have a greater echogenicity than the surrounding elongated member.
Electric heater for an automobile vehicle, with a heat transmitting net, whereby the heat transmitting net contains a multitude of PTC-heating elements, a multitude of contact sheets (8, 9), a multitude of heat dissipating fins and a multitude of distance elements, whereby at least one PTC-heating element and at least one distance element is arranged between two adjacent contact sheets (8, 9), whereby the PTC-heating elements and the distance elements between the adjacent contact sheets (8, 9) and the adjacent contact sheets (8, 9) themselves form a heating element, whereby the heat transmitting net is divided in a first area, which contains only distance elements, and a second area, which contains PTC-heating elements and/or distance elements, characterized in that the electric heater includes an electronic controller, whereby the heating elements are connected to the electronic controller through connectors (4,10), which are arranged at the electronic controller and are connected to a power supply, whereby the first area is arranged at the end of the heat transmitting net, which faces the electronic controller, whereas the second area is arranged at the end of the heat transmitting net, which is facing away from the electronic controller and wherein the electronic controller features heat dissipating elements, which extend into the first area of the heat transmitting net.
A method of moulding a sole for footwear, comprising the steps of: - preparing polyurethane scraps, in granular form, said scraps having a breaking load greater than 10 kg/cm2, and a density greater than 130 g/l, - wetting said scraps with a polyurethane binding agent in order to obtain an agglomerate of scrap material and binding agent, - inserting the agglomerate in a mould, so that the percentage by weight of the binding agent is at least equal to 10% of the total weight of the agglomerate inserted in the mould, - closing the mould and baking the agglomerate with steam blown inside the mould, so as to obtain an increase in the molecular weight of the binding agent and the incorporation of the scraps inside a binding agent matrix, - cooling the mould and removing the moulded part. - preparing polyurethane scraps, in granular form, said scraps having a breaking load greater than 10 kg/cm2, and a density greater than 130 g/l, - wetting said scraps with a polyurethane binding agent in order to obtain an agglomerate of scrap material and binding agent, - inserting the agglomerate in a mould, so that the percentage by weight of the binding agent is at least equal to 10% of the total weight of the agglomerate inserted in the mould, - closing the mould and baking the agglomerate with steam blown inside the mould, so as to obtain an increase in the molecular weight of the binding agent and the incorporation of the scraps inside a binding agent matrix, - cooling the mould and removing the moulded part.
Control method for a drill hammer, which has a tool holder, a motor, a torque coupling arranged between the motor and the tool holder and a pneumatic striking mechanism driven by the motor, which carries out the following steps in drilling operation: operating the motor with an operating speed for drilling operation to drive the tool holder rotating and to drive the striking mechanism with a nominal striking power; monitoring the torque coupling with a sensor; characterised in that during triggering of the torque coupling the striking power of the striking mechanism is reduced to below 10% of the nominal striking power and the torque coupling is driven rotating; and in which if triggering of the torque coupling ends, the striking power of the striking mechanism is increased to the nominal striking power and the torque coupling is driven with the operating speed for drilling operation. operating the motor with an operating speed for drilling operation to drive the tool holder rotating and to drive the striking mechanism with a nominal striking power; monitoring the torque coupling with a sensor; characterised in that during triggering of the torque coupling the striking power of the striking mechanism is reduced to below 10% of the nominal striking power and the torque coupling is driven rotating; and in which if triggering of the torque coupling ends, the striking power of the striking mechanism is increased to the nominal striking power and the torque coupling is driven with the operating speed for drilling operation.
A method of determination of a dynamic arch height of bulk solid, characterized in that after insertion of the bulk solid in a horizontally oriented model box with a parallel transparent front wall, a rear wall and barriers defining a slot between the barriers a tilt angle between the model box and the horizontal plane is increased in at least one direction by a positioning device until a uniform movement of the bulk solid occurs in the model box in the first direction and then the tilt angle is subsequently continuously changing in the first direction in the range of ± 5° for creating a stable position of both the static and dynamic arch, while the geometric values of dynamic arch and its position are deducted with use of a video camera, while the measurement is repeated with various values of one of the following chosen parameters: various width of the slot between barriers in the model box, various content of added water to bulk solid changing bond strength between particles, or using different heights of the bulk solid above the slot; measured values of the dynamic arch height are then transcribed to a graph of dynamic height in dependency on the chosen parameter.
An ink jet head, comprising: a first substrate including a plurality of first wirings; a second substrate coupled to the first substrate, the second substrate including a plurality of second wirings overlaid on the plurality of first wirings at a connection region; a plurality of ink jet elements configured to cause ink to be ejected from a plurality of nozzles, the nozzles being two-dimensionally arranged in a longitudinal direction and a width direction of the first substrate; and a drive circuit provided on the first or second substrate and configured to drive the plurality of ink jet elements, a thickness of the first wirings at the connection region being less than a thickness of the second wirings at the connection region, and a width of the first wirings at the connection region being greater than a width of the second wirings at the connection region, a sheet resistance of the first wirings being greater than a sheet resistance of the second wirings, and a line width of the first wirings being equal to an inter-wiring distance of the first wirings. a first substrate including a plurality of first wirings; a second substrate coupled to the first substrate, the second substrate including a plurality of second wirings overlaid on the plurality of first wirings at a connection region; a plurality of ink jet elements configured to cause ink to be ejected from a plurality of nozzles, the nozzles being two-dimensionally arranged in a longitudinal direction and a width direction of the first substrate; and a drive circuit provided on the first or second substrate and configured to drive the plurality of ink jet elements, a thickness of the first wirings at the connection region being less than a thickness of the second wirings at the connection region, and a width of the first wirings at the connection region being greater than a width of the second wirings at the connection region, a sheet resistance of the first wirings being greater than a sheet resistance of the second wirings, and a line width of the first wirings being equal to an inter-wiring distance of the first wirings.
A battery control apparatus comprising: a counter which counts, for communication lines (DC, BS) to which a plurality of battery modules are connected to form communication channels, the number of battery modules connected to each of the communication lines; a serial information setter which sets a series of pieces of information about the battery modules connected to the plurality of communication lines as information for identifying the battery modules on the basis of the number of battery modules counted by the counter; and an information transmitter which transmits, to an external apparatus, management information in which status information of each of the battery modules is associated with each piece of the series of pieces of information set by the serial information setter, wherein the serial information setter sets the series of pieces of information so that information across the plurality of communication lines is continuous. a counter which counts, for communication lines (DC, BS) to which a plurality of battery modules are connected to form communication channels, the number of battery modules connected to each of the communication lines; a serial information setter which sets a series of pieces of information about the battery modules connected to the plurality of communication lines as information for identifying the battery modules on the basis of the number of battery modules counted by the counter; and an information transmitter which transmits, to an external apparatus, management information in which status information of each of the battery modules is associated with each piece of the series of pieces of information set by the serial information setter, wherein the serial information setter sets the series of pieces of information so that information across the plurality of communication lines is continuous.
A system for protecting an aircraft against incoming threats, the system comprising: (a) a dual-band Radio Frequency track-and-confirm module comprising: a dual-band RF receiver to receive high-band RF signals and low-band RF signals; a threat confirmation module to confirm a possible incoming threat based on processing of RF signals received at the dual-band RF receiver; a threat parameters calculator to calculate a fine angular position and a precise angular position of a confirmed incoming threat, based on processing of RF signals received at low-band RF for fine angular position and at high-band RF for precise angular position; (b) a countermeasure directed Laser module to activate a directed Laser countermeasure towards said precise angular position of said confirmed incoming threat; (c) a pulse Doppler radar Missile Warning System comprising a waveform transmitter; wherein the dual-band RF track-and-confirm module comprises a spectrum range selector to select a spectrum range in which the dual-band RF track-and-confirm module is to operate, based on (a) one or more threat parameters generated by the threat parameters calculator, and (b) one or more threat parameters generated by the pulse Doppler radar MWS. (a) a dual-band Radio Frequency track-and-confirm module comprising: a dual-band RF receiver to receive high-band RF signals and low-band RF signals; a threat confirmation module to confirm a possible incoming threat based on processing of RF signals received at the dual-band RF receiver; a threat parameters calculator to calculate a fine angular position and a precise angular position of a confirmed incoming threat, based on processing of RF signals received at low-band RF for fine angular position and at high-band RF for precise angular position; a dual-band RF receiver to receive high-band RF signals and low-band RF signals; a threat confirmation module to confirm a possible incoming threat based on processing of RF signals received at the dual-band RF receiver; a threat parameters calculator to calculate a fine angular position and a precise angular position of a confirmed incoming threat, based on processing of RF signals received at low-band RF for fine angular position and at high-band RF for precise angular position; (b) a countermeasure directed Laser module to activate a directed Laser countermeasure towards said precise angular position of said confirmed incoming threat; (c) a pulse Doppler radar Missile Warning System comprising a waveform transmitter;