mhurhangee/ep-ind-claims huggingface dataset:
A mechanical reduction gear for an aircraft turbomachine, this reduction gear comprising: - a planet carrier comprising a first axis of rotation, - a sun gear mounted in the planet carrier and centered on the first axis, - a ring gear extending around the sun gear and the first axis, and - planet gears carried by the planet carrier and meshing with the sun gear and the ring gear, the planet gears comprising second axes of rotation parallel to the first axis, the sun gear comprising an annular body extending about the axis and having a central through bore centered on the axis, the bore being provided with coupling splines, and the annular body comprising at its outer periphery at least one meshing toothing, characterised in that the body comprises two coaxial rings, respectively an outer ring and an inner ring, the outer ring comprising an inner surface which surrounds an outer surface of the inner ring and which is situated at a radial distance from this outer surface, the body further comprising an annular web for connection between the inner surface of the outer ring and the outer surface of the inner ring and the annular web being formed in a single part with the inner ring and the outer ring, this annular web comprising an inner peripheral edge connected to the outer surface of the inner ring and an outer peripheral edge connected to the inner surface of the outer ring, these inner and outer edges (38, 40) being situated in the same plane perpendicular to said axis and passing axially through the middles of said inner and outer rings (28, 30), the annular web further comprising at least one connecting wall between its inner and outer edges (38, 40) which extend outside the plane, the annular web preferably having a general bellows shape or a generally corrugated shape in the radial direction. - a planet carrier comprising a first axis of rotation, - a sun gear mounted in the planet carrier and centered on the first axis, - a ring gear extending around the sun gear and the first axis, and - planet gears carried by the planet carrier and meshing with the sun gear and the ring gear, the planet gears comprising second axes of rotation parallel to the first axis,
A mechanical timepiece movement comprising a chronograph mechanism arranged to be capable of carrying out at least one countdown of a predetermined time interval, comprising display means arranged to display at least the time remaining until the end of the countdown of said predetermined time interval, at least one member for controlling the start of the countdown, and a striking-mechanism, said striking-mechanism being arranged to start striking at a specified time before the end of the countdown and to stop striking at the end of said countdown of said predetermined time interval, characterized in that the chronograph mechanism is configured to be capable of being kinematically connected to a base movement by a lateral or vertical clutch device.
An elongated microdialysis device comprising a distal part and a proximal part, said proximal part comprising an inlet and an outlet, said inlet and outlet adapted to allow a fluid to flow through said microdialysis device from said inlet through said proximal part via said distal part and back to said outlet, along substantially an entire length of said microdialysis device, wherein said distal part of said microdialysis device is configured for temporary attachment and/or placement on a surface of a human or animal organ, and said distal part comprises a probe for sampling substances present on said surface of said organ and indicating a condition of said organ, said probe comprising an inlet channel adapted to receive fluid originating from said inlet, an outlet channel adapted to receive fluid originating from said inlet channel, wherein at least part of an outer surface of said probe is adapted to be placed on said surface of an organ, said part of an outer surface of said probe comprising a semi-permeable material (13, 23) adapted to allow passage of substances from the outside of said probe through said semi-permeable material (13, 23) into said fluid within said microdialysis device, wherein said device comprises an attachment sheet, said attachment sheet being configured to facilitate placement and/or attachment of said probe to said organ surface, the side of the probe comprising the semi-permeable material being adapted to lie against said organ surface, characterized in that said attachment sheet is adapted to cover said probe when said distal part is arranged on said surface of a human or animal organ, said probe being covered on the side facing away from the sampling site, and wherein said attachment sheet is made of a substantially fluid-tight material to minimize access of surrounding fluids and/or tissue to said semi-permeable material of said probe. wherein said distal part of said microdialysis device is configured for temporary attachment and/or placement on a surface of a human or animal organ, and said distal part comprises a probe for sampling substances present on said surface of said organ and indicating a condition of said organ, said probe comprising an inlet channel adapted to receive fluid originating from said inlet, an outlet channel adapted to receive fluid originating from said inlet channel, wherein at least part of an outer surface of said probe is adapted to be placed on said surface of an organ, said part of an outer surface of said probe comprising a semi-permeable material (13, 23) adapted to allow passage of substances from the outside of said probe through said semi-permeable material (13, 23) into said fluid within said microdialysis device,
A fire-fighting unit comprising: an inlet connection for supplying an extinguishing substance to the fire-fighting unit; a controller having inputs for input data and outputs for control signals; a hydrant flow-connected to the inlet connection by means of a valve; a sensor) for detecting the opening of the valve, electrically connected to one of the inputs of the controller; and a distributor flow-connected to the inlet connection, characterized in that the distributor comprises electrovalves, which are output connections for discharging the extinguishing substance from the fire-fighting unit, and these electrovalves are electrically connected to the outputs of the controller. an inlet connection for supplying an extinguishing substance to the fire-fighting unit; a controller having inputs for input data and outputs for control signals; a hydrant flow-connected to the inlet connection by means of a valve; a sensor) for detecting the opening of the valve, electrically connected to one of the inputs of the controller; and a distributor flow-connected to the inlet connection, characterized in that the distributor comprises electrovalves, which are output connections for discharging the extinguishing substance from the fire-fighting unit, and these electrovalves are electrically connected to the outputs of the controller.
A modular valve prosthesis comprising: an anchor stent including a self-expanding tubular frame member configured to be deployed in the aorta by engaging the inner wall of the ascending aorta, a proximal arm component extending from a proximal end of the tubular frame member configured to be deployed in the sinuses of the aortic valve, and attachment members extending from an internal surface of the tubular frame member; and a valve component including a valve frame configured to be deployed within the tubular frame member such that the valve frame engages with the attachment members of the tubular frame member, and a prosthetic valve coupled to the valve frame wherein "distal" refers to positions distant from, or a direction away from the heart and "proximal" refers to positions near to, or a direction towards to the heart. an anchor stent including a self-expanding tubular frame member configured to be deployed in the aorta by engaging the inner wall of the ascending aorta, a proximal arm component extending from a proximal end of the tubular frame member configured to be deployed in the sinuses of the aortic valve, and attachment members extending from an internal surface of the tubular frame member; and a valve component including a valve frame configured to be deployed within the tubular frame member such that the valve frame engages with the attachment members of the tubular frame member, and a prosthetic valve coupled to the valve frame wherein "distal" refers to positions distant from, or a direction away from the heart and "proximal" refers to positions near to, or a direction towards to the heart.
A voice interaction method, applicable to a server, characterized by: acquiring a Text To Speech, TTS, synthesis request; based on the TTS synthesis request, searching a first cache of the server for a target audio file corresponding to the TTS synthesis request; searching a second cache of the server for the target audio file corresponding to the TTS synthesis request when the target audio file is not present in the first cache; synthesizing the target audio file using a third party service when the target audio file is not present in the second cache; and returning the target audio file to a vehicle terminal for playback as a response to the TTS synthesis request, wherein the second cache is updated by: acquiring inventory data, wherein said inventory data is obtained by the server based on text content of each TTS synthesis request acquired within a specified period of time and the number of occurrences of each TTS synthesis request; and pre-synthesizing audio streams using the third party service based on the inventory data, and storing the audio streams to the second cache to obtain preset audio file data for the second cache, and the method further comprises updating the target audio file using the third party service when the target audio file is found in the second cache. acquiring a Text To Speech, TTS, synthesis request; based on the TTS synthesis request, searching a first cache of the server for a target audio file corresponding to the TTS synthesis request; searching a second cache of the server for the target audio file corresponding to the TTS synthesis request when the target audio file is not present in the first cache; synthesizing the target audio file using a third party service when the target audio file is not present in the second cache; and returning the target audio file to a vehicle terminal for playback as a response to the TTS synthesis request, wherein the second cache is updated by: acquiring inventory data, wherein said inventory data is obtained by the server based on text content of each TTS synthesis request acquired within a specified period of time and the number of occurrences of each TTS synthesis request; and pre-synthesizing audio streams using the third party service based on the inventory data, and storing the audio streams to the second cache to obtain preset audio file data for the second cache, and acquiring inventory data, wherein said inventory data is obtained by the server based on text content of each TTS synthesis request acquired within a specified period of time and the number of occurrences of each TTS synthesis request; and pre-synthesizing audio streams using the third party service based on the inventory data, and storing the audio streams to the second cache to obtain preset audio file data for the second cache, and the method further comprises updating the target audio file using the third party service when the target audio file is found in the second cache.
A method of determining a discrete application boundary, the method performed in a computing environment, comprising: identifying one or more initial components of an application; using static methods for identifying statically related components of the one or more initial components of the application, wherein the static methods involve examining artifacts on a system to determine a subset of the system content which belongs to the given application; using dynamic methods for identifying dynamically related components of the one or more initial components of the application, wherein the dynamic methods involve monitoring application usage by injecting a monitoring layer into the application which intercepts and interprets resource requests, in order to determine which resources the application accesses; wherein identifying statically related components and identifying dynamically related components is performed iteratively; and identifying a discrete boundary for the application based on the one or more initial components, the statically related components and the dynamically related components, wherein the discrete boundary defines components needed for a functional instance of the application. identifying one or more initial components of an application; using static methods for identifying statically related components of the one or more initial components of the application, wherein the static methods involve examining artifacts on a system to determine a subset of the system content which belongs to the given application; using dynamic methods for identifying dynamically related components of the one or more initial components of the application, wherein the dynamic methods involve monitoring application usage by injecting a monitoring layer into the application which intercepts and interprets resource requests, in order to determine which resources the application accesses; wherein identifying statically related components and identifying dynamically related components is performed iteratively; and identifying a discrete boundary for the application based on the one or more initial components, the statically related components and the dynamically related components, wherein the discrete boundary defines components needed for a functional instance of the application.
A method for imparting heat resistance to an optical device comprising a supporting substrate and an optical function layer provided on the supporting substrate and formed by curing a polymerizable liquid crystal material while retaining predetermined liquid crystal regularity, characterized by comprising the steps of: stacking a polymerizable liquid crystal material on the substrate and holding the polymerizable liquid crystal material at a temperature which brings the polymerizable liquid crystal material to a liquid crystal phase, to form a liquid crystal layer having a predetermined liquid crystal regularity; applying an actinic radiation to the liquid crystal layer to convert the liquid crystal layer to an optical function layer by polymerization; and heat treating the optical function layer at a temperature in the range of 80 to 120 °C when the substrate is formed of a polymeric stretched film, or at a temperature in the range of 180 to 240 °C when the substrate is formed of a glass, whereby heat resistance is imparted to the optical device, wherein the heat treatment is carried out for 10 to 60 min, characterized in that the polymerizable liquid crystal material contains a photopolymerization initiator having such an oxygen dependency that causes a lowering in polymerization rate in the presence of oxygen, and wherein the polymerization is carried out under conditions such that oxygen comes into contact with only the surface side of the optical function layer. stacking a polymerizable liquid crystal material on the substrate and holding the polymerizable liquid crystal material at a temperature which brings the polymerizable liquid crystal material to a liquid crystal phase, to form a liquid crystal layer having a predetermined liquid crystal regularity; applying an actinic radiation to the liquid crystal layer to convert the liquid crystal layer to an optical function layer by polymerization; and heat treating the optical function layer at a temperature in the range of 80 to 120 °C when the substrate is formed of a polymeric stretched film, or at a temperature in the range of 180 to 240 °C when the substrate is formed of a glass, whereby heat resistance is imparted to the optical device, wherein the heat treatment is carried out for 10 to 60 min, characterized in that the polymerizable liquid crystal material contains a photopolymerization initiator having such an oxygen dependency that causes a lowering in polymerization rate in the presence of oxygen, and wherein the polymerization is carried out under conditions such that oxygen comes into contact with only the surface side of the optical function layer.
A vehicle wheel end arrangement, comprising: - a wheel spindle, - a wheel hub rotatably mounted on the wheel spindle about a rotational axis, - a drive shaft for driving the wheel hub, - a reduction gear arranged in an inner section of the wheel hub, wherein the reduction gear is connected to the drive shaft for driving the wheel hub, - a reduction gear carrier member connected to the wheel spindle, wherein the reduction gear carrier member is carrying at least a portion of the reduction gear, wherein the vehicle wheel end arrangement further comprises a lubricant pump for circulating a lubricant in the wheel hub and a lubricant conduit which fluidly connects the lubricant pump with the inner section of the wheel hub, wherein the drive shaft is drivingly connected to the lubricant pump to drive the lubricant pump and wherein at least a section of the lubricant conduit is provided within the reduction gear carrier member. - a wheel spindle, - a wheel hub rotatably mounted on the wheel spindle about a rotational axis, - a drive shaft for driving the wheel hub, - a reduction gear arranged in an inner section of the wheel hub, wherein the reduction gear is connected to the drive shaft for driving the wheel hub, - a reduction gear carrier member connected to the wheel spindle, wherein the reduction gear carrier member is carrying at least a portion of the reduction gear, wherein the vehicle wheel end arrangement further comprises a lubricant pump for circulating a lubricant in the wheel hub and a lubricant conduit which fluidly connects the lubricant pump with the inner section of the wheel hub, wherein the drive shaft is drivingly connected to the lubricant pump to drive the lubricant pump and wherein at least a section of the lubricant conduit is provided within the reduction gear carrier member.
A dispenser for dispensing at least one web material, said web material comprising perforation lines dividing said web material into individual products, from a storage of web material, the dispenser comprising: a housing comprising said storage of said web material, wherein said web material extends along a web path in a feeding direction in an interior of said housing from a storage position to a dispensing opening of the dispenser, and a separation arrangement being arranged along said web path, for separating said at least one web material along said perforation lines, said separation arrangement comprising a first unit and a second unit, said second unit being arranged downstream said first unit, as seen in said feeding direction of said web path, said separation arrangement being adapted to provide a first pull force required to pull said web material downstream said first unit, and a second pull force required to pull said web material downstream said second unit, characterised in that said first pull force is 10 to 50 % of said second pull force, preferably 20 to 40%. a housing comprising said storage of said web material, wherein said web material extends along a web path in a feeding direction in an interior of said housing from a storage position to a dispensing opening of the dispenser, and a separation arrangement being arranged along said web path, for separating said at least one web material along said perforation lines, said separation arrangement comprising a first unit and a second unit, said second unit being arranged downstream said first unit, as seen in said feeding direction of said web path, said separation arrangement being adapted to provide a first pull force required to pull said web material downstream said first unit, and a second pull force required to pull said web material downstream said second unit, characterised in that said first pull force is 10 to 50 % of said second pull force, preferably 20 to 40%.
System simulating the detection of at least one moving radioactive source, including a at least one signals transmitter (E1, E2, EM), a device simulating the detection of the at least one moving radioactive source receiver, and an electronic processing unit to be tested, intended to be coupled, in nominal detection usage, to one or more detectors (D1, DN) of one or more radioactive sources, said device comprising: - a receiver (R1, RN) for receiving signals transmitted by the at least one signal transmitter (E1, E2, EM); and - a pulse generator (G1, GN, GV1, GV2) coupled to the receiver (R1, RN) and configured to determine a distance (Deltal) between the receiver (R1, RN) and the at least one transmitter (E1, E2, EM) from a signal received from the at least one transmitter by the receiver, to generate pulses of which the number (FeP) varies as a function of the detected distance, and to deliver the generated pulses to the electronic processing unit to be tested. - a receiver (R1, RN) for receiving signals transmitted by the at least one signal transmitter (E1, E2, EM); and - a pulse generator (G1, GN, GV1, GV2) coupled to the receiver (R1, RN) and configured to determine a distance (Deltal) between the receiver (R1, RN) and the at least one transmitter (E1, E2, EM) from a signal received from the at least one transmitter by the receiver, to generate pulses of which the number (FeP) varies as a function of the detected distance, and to deliver the generated pulses to the electronic processing unit to be tested.
A lubricant, comprising: hypochlorite; an emulsifier comprising sodium magnesium silicate; and a silicone polymer. hypochlorite; an emulsifier comprising sodium magnesium silicate; and a silicone polymer.