mhurhangee/ep-ind-claims huggingface dataset:
A home-automation equipment for closure or solar protection comprising a concealing device, the concealing device comprising at least: - a screen, - a device for holding (9, 23) the screen, a first end of the screen being positioned at the holding device (9, 23) of the screen, - a load bar, a second end of the screen being fastened to the load bar, - a motorized drive device, and - an autonomous electrical energy supply device, the motorized drive device comprising at least: - an electromechanical actuator making it possible to raise and lower the screen, between a high position and a low position, the electromechanical actuator being electrically connected to the autonomous electrical energy supply device, the autonomous electrical energy supply device comprising at least: - a battery, the battery being positioned at the holding device (9, 23) of the screen, - a first electrical connection element, the first electrical connection element being positioned at the load bar of the concealing device, the first electrical connection element being configured to be connected to an external electrical supply source, so as to recharge the battery, and - a second electrical connection element, the second electrical connection element being positioned at the holding device (9, 23) of the screen, characterized in that the second electrical connection element cooperates with the first electrical connection element only when the screen is in a recharging position of the battery, the recharging position of the battery corresponding either to the high position of the screen or to a position of the screen where the load bar is near the holding device (9, 23) of the screen, so as to establish an electrical connection between the first electrical connection element positioned at the load bar and the battery positioned at the holding device (9, 23) of the screen. - a screen, - a device for holding (9, 23) the screen, a first end of the screen being positioned at the holding device (9, 23) of the screen, - a load bar, a second end of the screen being fastened to the load bar, - a motorized drive device, and - an autonomous electrical energy supply device, - an electromechanical actuator making it possible to raise and lower the screen, between a high position and a low position, the electromechanical actuator being electrically connected to the autonomous electrical energy supply device, - a battery, the battery being positioned at the holding device (9, 23) of the screen, - a first electrical connection element, the first electrical connection element being positioned at the load bar of the concealing device, the first electrical connection element being configured to be connected to an external electrical supply source, so as to recharge the battery, and - a second electrical connection element, the second electrical connection element being positioned at the holding device (9, 23) of the screen,
A method for controlling a renewable energy generator, the renewable energy generator being connected to a Point of Interconnection of an external power grid by a connecting network, wherein the connecting network inlcudes a transformer, the method comprising: monitoring parameters of the connecting network and the voltage level at the Point of Interconnection, wherein the parameters comprise the impedance of the connecting network and a voltage level measured at a point in the connecting network between a low-voltage side of the transformer and the renewable energy generator; characterized by generating, during normal operating conditions, at least one current injection profile based upon the monitored voltage level at the Point of Interconnection, the impedance of the connecting network and a predetermined injection profile, wherein normal operating conditions is when the voltage level of the external power grid is within normal operating band; and operating the renewable energy generator, during a grid fault, to output current according to the generated current injection profile and the voltage level measured at the point in the connecting network between the low voltage side of the transformer and the renewable energy generator, so as to achieve a current set point at the Point of Interconnection, wherein grid fault is when the voltage level of the external power grid is outside the normal operating band. monitoring parameters of the connecting network and the voltage level at the Point of Interconnection, wherein the parameters comprise the impedance of the connecting network and a voltage level measured at a point in the connecting network between a low-voltage side of the transformer and the renewable energy generator; characterized by generating, during normal operating conditions, at least one current injection profile based upon the monitored voltage level at the Point of Interconnection, the impedance of the connecting network and a predetermined injection profile, wherein normal operating conditions is when the voltage level of the external power grid is within normal operating band; and operating the renewable energy generator, during a grid fault, to output current according to the generated current injection profile and the voltage level measured at the point in the connecting network between the low voltage side of the transformer and the renewable energy generator, so as to achieve a current set point at the Point of Interconnection, wherein grid fault is when the voltage level of the external power grid is outside the normal operating band.
A carbon fiber reinforced plastic material comprising: 2 parts by mass or more and 30 parts by mass or less of a nanofiller with respect to a total of 100 parts by mass of 30 parts by mass or more and 90 parts by mass or less of a polymer material and 70 parts by mass or less and 10 parts by mass or more of carbon fibers, an average aspect ratio length / width of the nanofiller being 20 or more, characterized in that the nanofiller and the carbon fibers are dispersed and arranged microscopically throughout the matrix of the polymeric material, a modulus of elongation of carbon fiber reinforced plastic material measured in accordance with the method defined in ASTM D638 is 6000 MPa or more. 2 parts by mass or more and 30 parts by mass or less of a nanofiller with respect to a total of 100 parts by mass of 30 parts by mass or more and 90 parts by mass or less of a polymer material and 70 parts by mass or less and 10 parts by mass or more of carbon fibers, an average aspect ratio length / width of the nanofiller being 20 or more, characterized in that the nanofiller and the carbon fibers are dispersed and arranged microscopically throughout the matrix of the polymeric material, a modulus of elongation of carbon fiber reinforced plastic material measured in accordance with the method defined in ASTM D638 is 6000 MPa or more.
Device (1; 2) comprising a fixed element (13, 23, 33), a movable element (12, 22, 32) and first and second (24; 34) elastic members connecting the fixed element (13, 23, 33) and the movable element (12, 22, 32) and being arranged to guide the movable element (12, 22, 32) in rotation with respect to said fixed element (13, 23, 33), a device in which each of the first and second (24; 34) elastic members is arranged to exert on the movable element (12, 22, 32) an elastic return moment which is substantially constant over a predetermined range of angular positions of the movable element (12, 22, 32) with respect to the fixed element (13, 23, 33) of at least 10°, the elastic return moments exerted by the first and second (24; 34) elastic members at least partially compensating for each other over the whole of said predetermined range.
An electronic device, comprising: a device component comprising: a metal substrate; a coating layer formed along at least a front surface of the metal substrate, and characterized in that the coating layer comprises: a first layer disposed over the front surface of the metal substrate and comprising a polymer binder and inorganic pigment particles dispersed within the polymer binder; and a transparent second layer disposed over the first layer and comprising a transparent polymer defining at least a portion of an exterior surface of the electronic device; and a marking formed along the exterior surface and comprising a laser-formed relief feature having: at least one recess wall partially defining a recess extending through the first layer and the transparent second layer; and a recessed marking feature defining a bottom of the recess, visually distinct from an adjacent portion of the coating layer, the recessed marking feature formed in the metal substrate and partially defining an outline of the marking. a metal substrate; a coating layer formed along at least a front surface of the metal substrate, and characterized in that the coating layer comprises: a first layer disposed over the front surface of the metal substrate and comprising a polymer binder and inorganic pigment particles dispersed within the polymer binder; and a transparent second layer disposed over the first layer and comprising a transparent polymer defining at least a portion of an exterior surface of the electronic device; and a first layer disposed over the front surface of the metal substrate and comprising a polymer binder and inorganic pigment particles dispersed within the polymer binder; and a transparent second layer disposed over the first layer and comprising a transparent polymer defining at least a portion of an exterior surface of the electronic device; and a marking formed along the exterior surface and comprising a laser-formed relief feature having: at least one recess wall partially defining a recess extending through the first layer and the transparent second layer; and a recessed marking feature defining a bottom of the recess, visually distinct from an adjacent portion of the coating layer, the recessed marking feature formed in the metal substrate and partially defining an outline of the marking. at least one recess wall partially defining a recess extending through the first layer and the transparent second layer; and a recessed marking feature defining a bottom of the recess, visually distinct from an adjacent portion of the coating layer, the recessed marking feature formed in the metal substrate and partially defining an outline of the marking.
A harvesting system, consisting of a self-propelled forage harvester and a transport vehicle drawn by a traction vehicle which travel one behind the other at least periodically during a harvesting procedure, wherein, when travelling one behind the other, in order to transfer harvested material picked up by the forage harvester over to the rearward transport vehicle, a transfer device which can be displaced about at least one axis by a drive assembly is disposed on the forage harvester and can be automatically controlled by a control device, wherein the adjustment of a compensating angle (β) between the transfer device and the longitudinal axis of the forage harvester in order to maintain a point of impact in the transport vehicle is carried out as a function of a variation in a steering angle (α) of the forage harvester, characterized in that the adjustment of the compensating angle (β) is carried out taking into consideration at least one additional parameter provided to the control device and which influences the driving dynamics.
A method, comprising: receiving (440, 540), by a device, an indication, associated with setting up a label-switched path, LSP, that includes attribute information; identifying (450, 550), by the device, an available simple hierarchical LSP, "sH-LSP", based on the attribute information, or creating (450, 550), by the device, an sH-LSP based on the attribute information; setting up, by the device, a portion of the LSP to include the available sH-LSP or the created sH-LSP; and providing (460, 560), by the device based on setting up the portion of the LSP, the indication to another device, thereby enabling the other device to set up another portion of the LSP based on receiving the indication wherein an sH-LSP is an LSP for which management is simplified such that an amount of resources and/or an amount of user configuration is reduced, and wherein after the sH-LSP is created, an identifier of the sH-LSP is kept private such that only the device used to establish the sH-LSP and/or a head end node of the sH-LSP store or have access to the sH-LSP identifier receiving (440, 540), by a device, an indication, associated with setting up a label-switched path, LSP, that includes attribute information; identifying (450, 550), by the device, an available simple hierarchical LSP, "sH-LSP", based on the attribute information, or creating (450, 550), by the device, an sH-LSP based on the attribute information; identifying (450, 550), by the device, an available simple hierarchical LSP, "sH-LSP", based on the attribute information, or creating (450, 550), by the device, an sH-LSP based on the attribute information; setting up, by the device, a portion of the LSP to include the available sH-LSP or the created sH-LSP; and providing (460, 560), by the device based on setting up the portion of the LSP, the indication to another device, thereby enabling the other device to set up another portion of the LSP based on receiving the indication wherein an sH-LSP is an LSP for which management is simplified such that an amount of resources and/or an amount of user configuration is reduced, and wherein after the sH-LSP is created, an identifier of the sH-LSP is kept private such that only the device used to establish the sH-LSP and/or a head end node of the sH-LSP store or have access to the sH-LSP identifier thereby enabling the other device to set up another portion of the LSP based on receiving the indication wherein an sH-LSP is an LSP for which management is simplified such that an amount of resources and/or an amount of user configuration is reduced, and wherein after the sH-LSP is created, an identifier of the sH-LSP is kept private such that only the device used to establish the sH-LSP and/or a head end node of the sH-LSP store or have access to the sH-LSP identifier
An optical coherence tomography system comprising: a light source for generating a light beam to illuminate a sample, the sample preferably being an eye; a beam divider for separating the light beam into reference and sample arms, wherein the sample arm contains the sample to be imaged; sample arm optics for sequentially illuminating a location in the sample with the light beam from different angles; a detector for receiving light returning from the reference arm and the sample illuminated at each angle and generating signals in response thereto; a processor adapted to coherently combine the signals from the different angles to generate an image of the sample, said image having a transverse resolution that is higher than the transverse resolution achieved from the signal generated from a single angle. a light source for generating a light beam to illuminate a sample, the sample preferably being an eye; a beam divider for separating the light beam into reference and sample arms, wherein the sample arm contains the sample to be imaged; sample arm optics for sequentially illuminating a location in the sample with the light beam from different angles; a detector for receiving light returning from the reference arm and the sample illuminated at each angle and generating signals in response thereto; a processor adapted to coherently combine the signals from the different angles to generate an image of the sample, said image having a transverse resolution that is higher than the transverse resolution achieved from the signal generated from a single angle.
A method of transmitting a V2X message by a first V2X communication device, the method comprising: receiving air pollution information from a station; generating (S20100, S21300) a V2X message for providing information related to air pollution, wherein the V2X message includes 1) vehicle control information for setting a driving mode and/or a stop mode of a vehicle based on the air pollution information, and 2) station type information indicating a type of the station which transmits air pollution information to the first V2X communication device; and transmitting (S20200, S21400) the V2X message to a second V2X communication device associated with the vehicle, wherein based on the vehicle control information, the driving mode is set to an eco-driving mode and the stop mode is set to an auto-stop mode, wherein the eco-driving mode is a mode for controlling an engine and transmission of the vehicle according to a preset control algorithm, in order to reduce the amount of air pollutants emitted from vehicle, wherein the auto-stop mode is a mode in which the engine of the vehicle is automatically stopped when the vehicle is stopped for a predetermined period or more, wherein the predetermined period is a period for which the vehicle is stopped in a stop signal of a traffic light or at the bus stop, and characterized in that the station type information includes 1) a first type station directly measuring air pollution data or 2) a second type station using the air pollution data measured by the first type station, and the air pollution information is generated by the station using the air pollution data. receiving air pollution information from a station; generating (S20100, S21300) a V2X message for providing information related to air pollution, wherein the V2X message includes 1) vehicle control information for setting a driving mode and/or a stop mode of a vehicle based on the air pollution information, and 2) station type information indicating a type of the station which transmits air pollution information to the first V2X communication device; and transmitting (S20200, S21400) the V2X message to a second V2X communication device associated with the vehicle, wherein based on the vehicle control information, the driving mode is set to an eco-driving mode and the stop mode is set to an auto-stop mode, wherein the eco-driving mode is a mode for controlling an engine and transmission of the vehicle according to a preset control algorithm, in order to reduce the amount of air pollutants emitted from vehicle, wherein the auto-stop mode is a mode in which the engine of the vehicle is automatically stopped when the vehicle is stopped for a predetermined period or more, wherein the predetermined period is a period for which the vehicle is stopped in a stop signal of a traffic light or at the bus stop, and characterized in that the station type information includes 1) a first type station directly measuring air pollution data or 2) a second type station using the air pollution data measured by the first type station, and the air pollution information is generated by the station using the air pollution data.
Process for producing ketones, preferably cyclododecanone, from a compound containing at least one epoxide group, where a catalyst composition is used which comprises at least one precious metal, selected from ruthenium, palladium and platinum, and at least one mixed oxide, where the mixed oxide comprises zirconium dioxide and silicon dioxide and the precious metal is supported on the mixed oxide, characterized in that the mass ratio of zirconium dioxide to silicon dioxide in the mixed oxide is 86: 14 to 99.9: 0.1.
Device for estimating the rolling resistance of a wheel of a motor vehicle, applied to a tyre pressure monitoring system, comprising a computer configured to calculate, while the vehicle is running, an instantaneous rolling resistance value (F r) as a polynomial with constant coefficients of computer input values (T, Ω 3 + Ω 4, Ω 2, v̇, Ω̇ 2) which include an engine torque applied to the wheels of the vehicle, a linear speed of the vehicle, an angular velocity that is the rotational speed of the wheel, a linear acceleration of the vehicle, and an angular acceleration of the wheel.
A toner comprising: a binder resin which contains a crystalline polyester resin and a non-crystalline polyester resin, wherein the crystalline polyester resin is synthesized with one alcohol component selected from ethylene glycol, 1,4-butanediol, 1,6-hexanediol, 1,8-octanediol, 1,10-decanediol, and 1,12-dodecanediol; and one dicarboxylic acid selected from 1,10-decanediacid and 1,12-dodecanediacid, wherein the crystalline polyester resin has at least two diffraction peaks in a range of 20° < 2θ < 25° as detected by X-ray diffraction measurement, and has a melting point which is 60°C or higher but lower than 80°C, and wherein the diffraction peaks each have a half width which is less than 1.0°, wherein X-ray diffraction measurement is performed according to the description with a tension of 45 kV and a current of 40 mA. a binder resin which contains a crystalline polyester resin and a non-crystalline polyester resin, wherein the crystalline polyester resin is synthesized with one alcohol component selected from ethylene glycol, 1,4-butanediol, 1,6-hexanediol, 1,8-octanediol, 1,10-decanediol, and 1,12-dodecanediol; and one dicarboxylic acid selected from 1,10-decanediacid and 1,12-dodecanediacid, wherein the crystalline polyester resin has at least two diffraction peaks in a range of 20° < 2θ < 25° as detected by X-ray diffraction measurement, and has a melting point which is 60°C or higher but lower than 80°C, and wherein the diffraction peaks each have a half width which is less than 1.0°, wherein X-ray diffraction measurement is performed according to the description with a tension of 45 kV and a current of 40 mA.
A method for backfilling a functional element introduced into a borehole, in which a backfill material is injected into the borehole via at least one injection tube which is guided to the foot of the functional element, preferably as far as the borehole bottom, of an injection pump arranged outside the borehole, wherein during the injection operation the injection pressure and the injection rate are measured, characterised in that geometric or physical properties of the borehole, the subsoil and/or the backfill material are determined from the injection pressure and injection rate which are continuously measured over the entire backfilling operation dependent on the duration of injection.