mhurhangee/ep-ind-claims huggingface dataset:
Lighting system with LED lamps, the lighting system comprising: - a hollow cylindrical support in aluminium; - one or more LED lamps with a casing in resin and/or semitransparent plexiglas; - a band in a metallic alloy conductive of the negative charge positioned on the inner perimeter of said LED lamp; - a band in a metallic alloy conductive of the positive charge positioned on the inner perimeter of said LED lamp; - a PCB module equipped with a microprocessor and housed in the cylindrical support; - magnets: - in ferrite or neodymium; - housed on the outer surface of the cylindrical support in a plexiglas cup; - arranged in a row and connected to power wires leading to the PCB module; - separated by an electrically insulated spacer. - a power source of current from 220v to 12v or 24v housed on the outside of the cylindrical support and connected to the residential power mains and to the PCB module; - a milled groove lengthwise across part of the cylindrical support and housing the plexiglas cup; - a hollow cylindrical support in aluminium; - one or more LED lamps with a casing in resin and/or semitransparent plexiglas; - a band in a metallic alloy conductive of the negative charge positioned on the inner perimeter of said LED lamp; - a band in a metallic alloy conductive of the positive charge positioned on the inner perimeter of said LED lamp; - a PCB module equipped with a microprocessor and housed in the cylindrical support; - magnets: - in ferrite or neodymium; - housed on the outer surface of the cylindrical support in a plexiglas cup; - arranged in a row and connected to power wires leading to the PCB module; - separated by an electrically insulated spacer. - in ferrite or neodymium; - housed on the outer surface of the cylindrical support in a plexiglas cup; - arranged in a row and connected to power wires leading to the PCB module; - separated by an electrically insulated spacer. - a power source of current from 220v to 12v or 24v housed on the outside of the cylindrical support and connected to the residential power mains and to the PCB module; - a milled groove lengthwise across part of the cylindrical support and housing the plexiglas cup;
In a cruise ship having a plurality of decks, certain of said decks having a plurality of staterooms therealong, the improvement which comprises: a plurality of spaced staterooms extending along one of said 'decks on opposite sides thereof; a second plurality of spaced staterooms extending along another of said decks on the opposite side thereof directly above the said one of said decks; and characterized in that a single central double height corridor extending inboard of each said plurality of spaced staterooms, and said corridor terminating at one end in a transparent glass window extending from said one of said decks to said another of said decks. a plurality of spaced staterooms extending along one of said 'decks on opposite sides thereof; a second plurality of spaced staterooms extending along another of said decks on the opposite side thereof directly above the said one of said decks; and characterized in that a single central double height corridor extending inboard of each said plurality of spaced staterooms, and said corridor terminating at one end in a transparent glass window extending from said one of said decks to said another of said decks.
A vehicle on which an autonomous driving system can be attached, the vehicle comprising: a vehicle platform configured to control the vehicle in accordance with an instruction from the autonomous driving system when the autonomous driving system is attached to the vehicle; and a vehicle control interface configured to serve as an interface between the autonomous driving system and the vehicle platform by executing a predetermined application program interface defined for each signal to be communicated, wherein the vehicle platform is configured to output a brake pedal position signal in accordance with an amount of depression of a brake pedal by a driver, and to output a brake pedal intervention signal, to the autonomous driving system through the vehicle control interface, and characterized in that the brake pedal intervention signal is configured to indicate a first state in which the brake pedal is depressed, when the brake pedal position signal indicates that the amount of depression is larger than a threshold value, and to indicate a second state of beyond autonomy deceleration of the vehicle, when the amount of depression is larger than the threshold value and a deceleration request in accordance with the amount of depression is higher than a system deceleration request, and in that the autonomous driving system can be attached and detached from the vehicle. a vehicle platform configured to control the vehicle in accordance with an instruction from the autonomous driving system when the autonomous driving system is attached to the vehicle; and a vehicle control interface configured to serve as an interface between the autonomous driving system and the vehicle platform by executing a predetermined application program interface defined for each signal to be communicated, wherein the vehicle platform is configured to output a brake pedal position signal in accordance with an amount of depression of a brake pedal by a driver, and to output a brake pedal intervention signal, to the autonomous driving system through the vehicle control interface, and characterized in that the brake pedal intervention signal is configured to indicate a first state in which the brake pedal is depressed, when the brake pedal position signal indicates that the amount of depression is larger than a threshold value, and to indicate a second state of beyond autonomy deceleration of the vehicle, when the amount of depression is larger than the threshold value and a deceleration request in accordance with the amount of depression is higher than a system deceleration request, and in that to indicate a first state in which the brake pedal is depressed, when the brake pedal position signal indicates that the amount of depression is larger than a threshold value, and to indicate a second state of beyond autonomy deceleration of the vehicle, when the amount of depression is larger than the threshold value and a deceleration request in accordance with the amount of depression is higher than a system deceleration request, and in that
A combustor for a gas turbine engine (100; 200), the combustor comprising: a combustor liner; a dilution chute (114; 214) integral and conformal with the combustor liner to provide an outlet into the combustor for fuel; and a fuel line configured to deliver fuel to the dilution chute; characterized in that the dilution chute (114; 214) has at least one wall (122; 222) with a tapered edge (118; 218) extending into an interior of the combustor; and in that the tapered edge has a knife edge shape. a combustor liner; a dilution chute (114; 214) integral and conformal with the combustor liner to provide an outlet into the combustor for fuel; and a fuel line configured to deliver fuel to the dilution chute; the dilution chute (114; 214) has at least one wall (122; 222) with a tapered edge (118; 218) extending into an interior of the combustor; and in that the tapered edge has a knife edge shape.
Method for control of an auxiliary brake system in a vehicle, comprising said auxiliary brake system, a service brake system and a system for the prevention of wheel lock when braking, wherein said system for the prevention of wheel lock may deactivate a braking action provided by said auxiliary brake system, and may actively control a braking action provided by said service brake system, characterised in - determining whether said vehicle is in a driving mode for which is its acceptable in terms of safety and/or drivability to block said deactivation of said braking action for said auxiliary brake system through said system for prevention of wheel lock when braking, wherein said determination is based on at least one input made by a driver through a first manual control, set up solely for the activation of said braking action for said auxiliary brake system, and wherein an activation of said first manual control is interpreted as though it is acceptable in terms of safety and/or drivability for said driving mode to block said deactivation of said braking action for said auxiliary brake system; and - blocking, if said determination shows that it is acceptable in terms of safety and/or drivability, of said deactivation of said braking action for said auxiliary brake system. - determining whether said vehicle is in a driving mode for which is its acceptable in terms of safety and/or drivability to block said deactivation of said braking action for said auxiliary brake system through said system for prevention of wheel lock when braking, wherein said determination is based on at least one input made by a driver through a first manual control, set up solely for the activation of said braking action for said auxiliary brake system, and wherein an activation of said first manual control is interpreted as though it is acceptable in terms of safety and/or drivability for said driving mode to block said deactivation of said braking action for said auxiliary brake system; and - blocking, if said determination shows that it is acceptable in terms of safety and/or drivability, of said deactivation of said braking action for said auxiliary brake system.
Printing apparatus for applying a printing medium to at least one printing substrate, wherein the printing apparatus comprises at least a first printing module, wherein the first printing module comprises at least one printing head (3a, 3b, 3c, 3d, 3e), wherein the printing apparatus comprises at least one printing substrate holder, wherein the first printing module can be moved in a printing direction relative to the at least one printing substrate holder of the printing apparatus, wherein both the first printing module as well as the printing substrate holder are movable, wherein the first printing module can also be moved transversely to the printing direction relative to the printing substrate holder of the printing apparatus, wherein the printing substrate holder can also be moved along a closed path, wherein the printing apparatus comprises at least one further printing module, wherein the further printing module comprises at least one printing head (10a, 10b, 10c, 10d, 10e), wherein the first printing module is arranged in such a way that a first side of a printing substrate can be printed which is held by the printing substrate holder and can be moved relative to the first printing module, wherein the printing substrate can be moved along the closed path, wherein the further printing module is arranged in such a way that a further side of the printing substrate can be printed which is held by the printing substrate holder and can be moved relative to the further printing module, characterised in that the first printing module and the further printing module can be moved in synchrony.
A blade (104a, 104b, 104c, 108, 201) for a rotor of a wind turbine, said blade comprising - a blade body element comprising a carrier surface to accommodate a heating element, - an electrically conductive, elongated and substantially planar heating element (110, 120, 122, 124, 126, 128, 130, 132, 208, 208a, 208b) disposed upon the carrier surface to extend longitudinally substantially along at least the leading edge of the blade, wherein the heating element comprises multi-axial carbon fabric, - an electrical power supplying conductor element (112a, 112b, 212, 212a, 212b) located at one end of the heating element, the conductor element substantially extending over the width of the heating element on both, opposing sides and along the respective opposing surfaces thereof, and electrically coupling thereto on said both sides and via said respective surfaces, and - a joint structure comprising at least one electrically conductive joint element (114a, 114b, 214), said at least one electrically conductive joint element substantially covering, on said both sides of the heating element, the portions of the electrical conductor element that extend over the width of the heating element. - a blade body element comprising a carrier surface to accommodate a heating element, - an electrically conductive, elongated and substantially planar heating element (110, 120, 122, 124, 126, 128, 130, 132, 208, 208a, 208b) disposed upon the carrier surface to extend longitudinally substantially along at least the leading edge of the blade, wherein the heating element comprises multi-axial carbon fabric, - an electrical power supplying conductor element (112a, 112b, 212, 212a, 212b) located at one end of the heating element, the conductor element substantially extending over the width of the heating element on both, opposing sides and along the respective opposing surfaces thereof, and electrically coupling thereto on said both sides and via said respective surfaces, and - a joint structure comprising at least one electrically conductive joint element (114a, 114b, 214), said at least one electrically conductive joint element substantially covering, on said both sides of the heating element, the portions of the electrical conductor element that extend over the width of the heating element.
A negative electrode for a rechargeable lithium battery, comprising: a current collector; and a negative active material layer formed on the current collector, including a negative active material and a conductive material, wherein the negative active material comprises a silicon-based active material, the conductive material comprises carbon nanotubes, the negative electrode has an orientation ratio represented by Equation 1 of 50 to 100, and the carbon nanotubes have an average length of 1 μm to 10 μm: Orientation ratio = I 110 / I 002 wherein in Equation 1, I is a peak intensity at a plane when XRD is measured by using a CuKα ray, and I is a peak intensity at a plane when XRD is measured by using a CuKα ray, the peak intensity is a peak integral area value, wherein the XRD measurement condition are 2θ= 20° to 80°, a scan speed (°/S) of 0.044 to 0.089, and a step size (°/step) of 0.013 to 0.039. a current collector; and a negative active material layer formed on the current collector, including a negative active material and a conductive material, wherein the negative active material comprises a silicon-based active material, the conductive material comprises carbon nanotubes, the negative electrode has an orientation ratio represented by Equation 1 of 50 to 100, and the carbon nanotubes have an average length of 1 μm to 10 μm: Orientation ratio = I 110 / I 002 wherein in Equation 1, I is a peak intensity at a plane when XRD is measured by using a CuKα ray, and I is a peak intensity at a plane when XRD is measured by using a CuKα ray, the peak intensity is a peak integral area value, wherein the XRD measurement condition are 2θ= 20° to 80°, a scan speed (°/S) of 0.044 to 0.089, and a step size (°/step) of 0.013 to 0.039.
An abrasive material comprising a plurality of abrasive elements formed on a backing layer, the abrasive elements being grouped into at least a first set and a second set in accordance with orientation with respect to the backing layer, each abrasive element of the first and second set having an elongate cutting edge (335, 345) and at least one plane (337, 347) passing through the elongate cutting edge and extending in a direction which is normal to the backing layer, the planes of abrasive elements of the first set and the planes of abrasive elements of the second set defining a first intersection angle (α); wherein the abrasive elements of at least the first set comprise elongate pyramidal elements, each elongate pyramidal element having an elongate apex extending along its length which forms the elongate cutting edge; wherein the abrasive material is characterised in that the elongate pyramidal elements are arranged to define a first open parallelogram area, the first open parallelogram area being defined by parallel sets of abrasive elements of the first set arranged to be offset by the first intersection angle to parallel sets of abrasive elements of the second set. wherein the abrasive elements of at least the first set comprise elongate pyramidal elements, each elongate pyramidal element having an elongate apex extending along its length which forms the elongate cutting edge; wherein the abrasive material is characterised in that the elongate pyramidal elements are arranged to define a first open parallelogram area, the first open parallelogram area being defined by parallel sets of abrasive elements of the first set arranged to be offset by the first intersection angle to parallel sets of abrasive elements of the second set.
A method of controlling a wind turbine having at least one blade and a controller to effect removal of ice or other foreign material from a blade, including: detecting the location of ice or other foreign material adhered to the blade by sensors mounted on the blade and communicatively coupled to the controller; determining the resonance mode of the blade to be excited based on the location of the ice or other foreign material by the controller; and exciting the blade to the desired resonance mode; wherein the resonance mode is one higher than the first order resonance mode. detecting the location of ice or other foreign material adhered to the blade by sensors mounted on the blade and communicatively coupled to the controller; determining the resonance mode of the blade to be excited based on the location of the ice or other foreign material by the controller; and exciting the blade to the desired resonance mode;
An illuminating apparatus comprising: a housing comprising a lower plate and a side plate; and a light emitting module comprising a substrate disposed on the lower plate and a plurality of light sources disposed on the substrate to be spaced apart from each other, characterized in that, a height of the side plate is determined as a value obtained by dividing a separation distance between adjacent ones of the light sources by a value obtained by multiplying a tangent value of a max intensity angle (θ) of each of the light sources by a luminance compensation factor A, wherein A = - 0.1 × D + 1.6, and D is a diameter of the light sources. a housing comprising a lower plate and a side plate; and a light emitting module comprising a substrate disposed on the lower plate and a plurality of light sources disposed on the substrate to be spaced apart from each other, characterized in that, a height of the side plate is determined as a value obtained by dividing a separation distance between adjacent ones of the light sources by a value obtained by multiplying a tangent value of a max intensity angle (θ) of each of the light sources by a luminance compensation factor A,
A data security system including at least a first party and a second party that are mutually coupled via a data communication arrangement, wherein the data communication arrangement is operable to provide for user authentications and/or user sign-in, wherein: (i) the first and second parties are provided with identical or mutually compatible copies of at least one digital key code list (106a, 106b) that includes keys and indices referencing the keys; (ii) the first party is operable to deliver to the second party an authentication message including, instead of a key, an index of the key, a unique identifier of a digital key code list from which the key is to be derived, and additional information indicative of at least one of: a unique user ID associated with the first party, a session token previously-received from the second party, a date and time at which an attempt for user authentications and/or user sign-in is made, wherein the additional information is provided in an encrypted form; and (iii) the first and second parties are operable to use, when performing data communication therebetween, for providing user authentications and/or user sign-in, the key that is derived from the digital key code list based upon the index included within the authentication message, and to dispose of the key after use, wherein the key is arranged to be usable only once between the first and second parties. (i) the first and second parties are provided with identical or mutually compatible copies of at least one digital key code list (106a, 106b) that includes keys and indices referencing the keys; (ii) the first party is operable to deliver to the second party an authentication message including, instead of a key, an index of the key, a unique identifier of a digital key code list from which the key is to be derived, and additional information indicative of at least one of: a unique user ID associated with the first party, a session token previously-received from the second party, a date and time at which an attempt for user authentications and/or user sign-in is made, wherein the additional information is provided in an encrypted form; and (iii) the first and second parties are operable to use, when performing data communication therebetween, for providing user authentications and/or user sign-in, the key that is derived from the digital key code list based upon the index included within the authentication message, and to dispose of the key after use, wherein the key is arranged to be usable only once between the first and second parties.
Flushing device for automatically performing hygienic flushing processes in a drinking water system, wherein the flushing device comprises a temperature sensor for measuring the temperature of water which passes through the flushing device during a hygienic flushing process, wherein the flushing device is configured to determine temperature profiles of separate hygienic flushing processes performed by the flushing device using the temperature sensor, wherein the flushing device comprises a timer and a controller which is connected to the temperature sensor and by means of which the performance of hygienic flushing processes by the flushing device is controlled, and wherein the controller is configured to measure and record the temperature as a function of time by means of the temperature sensor and the timer, characterized in that the flushing device is configured to compare a temperature profile with a plurality of other temperature profiles, to determine deviations between the temperature profiles by comparing the temperature profiles, and to change the performance of future hygienic flushing processes if a deviation between temperature profiles fulfils at least one test criterion. wherein the flushing device comprises a temperature sensor for measuring the temperature of water which passes through the flushing device during a hygienic flushing process, wherein the flushing device is configured to determine temperature profiles of separate hygienic flushing processes performed by the flushing device using the temperature sensor, wherein the flushing device comprises a timer and a controller which is connected to the temperature sensor and by means of which the performance of hygienic flushing processes by the flushing device is controlled, and wherein the controller is configured to measure and record the temperature as a function of time by means of the temperature sensor and the timer, characterized in that the flushing device is configured to compare a temperature profile with a plurality of other temperature profiles, to determine deviations between the temperature profiles by comparing the temperature profiles, and to change the performance of future hygienic flushing processes if a deviation between temperature profiles fulfils at least one test criterion.