mhurhangee/ep-ind-claims huggingface dataset:
Sliding components (10, 20) for a shaft sealing device that shaft-seals a rotary shaft of a rotating machine in a seal field, wherein the sliding components (10, 20) having sliding surfaces (11, 21) sliding relative to each other in a surface contact state, a carbon film in which a polymer structure is dispersed is formed on the sliding surface (11, 21) of one of the sliding components (10, 20), characterized in that a proportion of the polymer structure dispersed in the carbon film is such that an extinction coefficient of 0.2 or less and a refractive index of 1.5 to 2.0 are satisfied in a wavelength range of 550 nm of spectroscopic ellipsometry. a carbon film in which a polymer structure is dispersed is formed on the sliding surface (11, 21) of one of the sliding components (10, 20), characterized in that a proportion of the polymer structure dispersed in the carbon film is such that an extinction coefficient of 0.2 or less and a refractive index of 1.5 to 2.0 are satisfied in a wavelength range of 550 nm of spectroscopic ellipsometry.
A time deviation determining method, wherein the method is used to determine a clock time deviation between a terminal and a base station in a wireless network, the method comprises: determining an uplink timing advance TA between the terminal and the base station, and determining a one-way transmission delay Q1 based on the uplink timing advance TA and a sampling time of a network in which the terminal is located; receiving a first packet, wherein the first packet comprises a base-station clock time T1 of a first system frame, and the first system frame is any system frame existing after downlink synchronization between the base station and the terminal is completed, wherein the base-station clock time T1 corresponds to a base-station clock time of sending the first system frame at the base station; determining a terminal clock time T2 of a second system frame, wherein the second system frame is any system frame following the first system frame, the terminal clock time T2 corresponds to a terminal clock time of receiving the second system frame at the terminal; characterised by determining a quantity of frames spaced between the first system frame and the second system frame, and obtaining an inter-frame time difference Q2 based on the quantity of spaced frames, wherein the inter-frame time difference Q2 is a product of the quantity of spaced frames and duration of one system frame; and determining the time deviation between the terminal and the base station, wherein the time deviation is duration obtained after the one-way transmission delay Q1 and the inter-frame time difference Q2 are deducted from a time interval between T1 and T2. determining an uplink timing advance TA between the terminal and the base station, and determining a one-way transmission delay Q1 based on the uplink timing advance TA and a sampling time of a network in which the terminal is located; receiving a first packet, wherein the first packet comprises a base-station clock time T1 of a first system frame, and the first system frame is any system frame existing after downlink synchronization between the base station and the terminal is completed, wherein the base-station clock time T1 corresponds to a base-station clock time of sending the first system frame at the base station; determining a terminal clock time T2 of a second system frame, wherein the second system frame is any system frame following the first system frame, the terminal clock time T2 corresponds to a terminal clock time of receiving the second system frame at the terminal; characterised by determining a quantity of frames spaced between the first system frame and the second system frame, and obtaining an inter-frame time difference Q2 based on the quantity of spaced frames, wherein the inter-frame time difference Q2 is a product of the quantity of spaced frames and duration of one system frame; and determining the time deviation between the terminal and the base station, wherein the time deviation is duration obtained after the one-way transmission delay Q1 and the inter-frame time difference Q2 are deducted from a time interval between T1 and T2.
A curable organopolysiloxane composition, containing the following components to: 100 parts by mass of an organopolysiloxane having at least two alkenyl groups per one molecule; 0.05 to 10 parts by mass of a trialcoxysilyl containing siloxane having one silicon atom-bonded hydrogen atom and at least one trialcoxysilyl group per one molecule and represented by the following formula. (wherein R 1 is the same or different monovalent hydrocarbon group not having an aliphatic unsaturated bond, R 2 is an alkyl group, R 3 is an alkylene group, and p is an integer of 1 to 50.); 0.1 to 30 parts by mass of a chain or cyclic organopolysiloxane having at least two silicon atom-bonded hydrogen atoms per one molecule; 0.1 to 10 parts by mass of a chain organopolysiloxane having at least three silicon atom-bonded hydrogen atoms per one molecule, {wherein the total amount of the silicon atom-bonded hydrogen atoms of,, and with respect to the number of the alkenyl groups in all the components is 0.3 to 10}; a catalyst amount of a catalyst for a hydrosilylation reaction; a catalyst amount of a catalyst for a condensation reaction; and an adhesion promoter. 100 parts by mass of an organopolysiloxane having at least two alkenyl groups per one molecule; 0.05 to 10 parts by mass of a trialcoxysilyl containing siloxane having one silicon atom-bonded hydrogen atom and at least one trialcoxysilyl group per one molecule and represented by the following formula. (wherein R 1 is the same or different monovalent hydrocarbon group not having an aliphatic unsaturated bond, R 2 is an alkyl group, R 3 is an alkylene group, and p is an integer of 1 to 50.); 0.1 to 30 parts by mass of a chain or cyclic organopolysiloxane having at least two silicon atom-bonded hydrogen atoms per one molecule; 0.1 to 10 parts by mass of a chain organopolysiloxane having at least three silicon atom-bonded hydrogen atoms per one molecule, {wherein the total amount of the silicon atom-bonded hydrogen atoms of,, and with respect to the number of the alkenyl groups in all the components is 0.3 to 10}; a catalyst amount of a catalyst for a hydrosilylation reaction; a catalyst amount of a catalyst for a condensation reaction; and an adhesion promoter.
Valve (11, 11-1, 11-2, 11-3, 11-4, 21, 31)for defining a one way flow, having one pair of lips (12, 22, 32) that are arranged in a converging relationship, wherein each lip has a lip base end (12B, 22B, 32B) and a lip outer end (12A, 22A, 32A), wherein the lip base ends form part of an open valve base end and the lip outer ends are disposed adjacent each other to define one slit (13, 13-1, 13-2, 13-3), wherein the valve further comprises a flange (15, 15-4) extending outwardly at the valve base end, wherein each lip base end runs along one or more substantially straight lines (12B, 22B, 32B), wherein the lips are interconnected at the sides (14, 24, 34) and the straight lines (12B, 22B, 32B) of the lip base end generally form a polygon characterized in that each lip (12, 22, 32) is provided with one or more folding lines (12F, 22F, 23F, 32F, 33F, 35F) running over the surface of the lip from the lip base end towards the slit and at least one of the folding lines (12F, 22F, 23F, 32F, 33F, 35F) starts at an angle of the polygon and ends at the slit.
Physiotherapeutic apparatus for the treatment of a patient by physical movement comprising: an arm trainer for rotationally moving the patient's arms with a first axis and a leg trainer for the rotational movement of the patient's legs with a second axis, wherein the first and the second axis have a height adjustability, wherein the distance of the first axis to the second axis is constant, wherein a height adjustability of the arm and leg trainer (1, 2) is provided in such a way that the arm trainer and the leg trainer move uniformly when the height is adjusted, so that a different training position of the patient can result, wherein the training position changes from a sitting to a lying position, wherein the device comprises a foot element and a body element, wherein the arm trainer and the leg trainer are arranged on the body element, characterised in that the height adjustability results from the displacement of the foot element relative to the body element.
A gas turbine engine comprising: an inlet duct and a compressor section connected with the inlet duct, the compressor section including a plurality of circumferentially-spaced blades having abrasive blade tips, wherein the compressor section has a maximum diameter to the blade tips of 23 centimeters and wherein the inlet duct opens radially with respect to a central rotational axis of the compressor section; a combustor section; a turbine section connected to drive the compressor section; and a seal disposed radially outwards of the blades, wherein the seal comprises: a substrate having a substrate hardness; an abradable layer formed of a metallic alloy having an abradable layer hardness; and a hard interlayer between the substrate and the abradable layer formed of a metal matrix composite having a metallic matrix and hard particles dispersed in the metallic matrix, the hard interlayer having an interlayer hardness that is higher than the abradable layer hardness and higher than the substrate hardness. an inlet duct and a compressor section connected with the inlet duct, the compressor section including a plurality of circumferentially-spaced blades having abrasive blade tips, wherein the compressor section has a maximum diameter to the blade tips of 23 centimeters and wherein the inlet duct opens radially with respect to a central rotational axis of the compressor section; a combustor section; a turbine section connected to drive the compressor section; and a seal disposed radially outwards of the blades, wherein the seal comprises: a substrate having a substrate hardness; an abradable layer formed of a metallic alloy having an abradable layer hardness; and a hard interlayer between the substrate and the abradable layer formed of a metal matrix composite having a metallic matrix and hard particles dispersed in the metallic matrix, the hard interlayer having an interlayer hardness that is higher than the abradable layer hardness and higher than the substrate hardness. a substrate having a substrate hardness; an abradable layer formed of a metallic alloy having an abradable layer hardness; and a hard interlayer between the substrate and the abradable layer formed of a metal matrix composite having a metallic matrix and hard particles dispersed in the metallic matrix, the hard interlayer having an interlayer hardness that is higher than the abradable layer hardness and higher than the substrate hardness.
Bicycle wireless electronic derailleur (200, 300, 400, 500), comprising: - a support body (202, 302, 402, 502), configured to be mounted on a frame of a bicycle at an assembly of coaxial toothed wheels (1002, 1004) of the bicycle, - a movable body (204, 304, 404, 504), comprising a chain guide (204, 306, 406, 506), - actuation means (208, 308, 408, 508) configured to move the movable body (204, 304, 404, 504) with respect to the support body (202, 302, 402, 502), comprising an electric motor (210, 310, 410, 510), - a controller of the electric motor (210, 310, 410, 510), - a wireless communication device, part of or in communication with the controller, configured to receive gearshifting request signals from a wireless transmitter, the wireless communication device being housed in a first casing (202, 208, 302, 413, 513), the first casing (202, 208, 302, 413, 513) being part of or fixed to the support body (202, 302, 402, 502), part of or fixed to a connecting rod of a linkage in the actuation means comprising an articulated parallelogram linkage, from the first casing (202, 208, 302, 413, 513), and is in communication through at least one cable (320, 320A, 420, 520) with the wireless communication device. - a support body (202, 302, 402, 502), configured to be mounted on a frame of a bicycle at an assembly of coaxial toothed wheels (1002, 1004) of the bicycle, - a movable body (204, 304, 404, 504), comprising a chain guide (204, 306, 406, 506), - actuation means (208, 308, 408, 508) configured to move the movable body (204, 304, 404, 504) with respect to the support body (202, 302, 402, 502), comprising an electric motor (210, 310, 410, 510), - a controller of the electric motor (210, 310, 410, 510), - a wireless communication device, part of or in communication with the controller, configured to receive gearshifting request signals from a wireless transmitter, the wireless communication device being housed in a first casing (202, 208, 302, 413, 513), the first casing (202, 208, 302, 413, 513) being part of or fixed to the support body (202, 302, 402, 502), part of or fixed to a connecting rod of a linkage in the actuation means comprising an articulated parallelogram linkage, from the first casing (202, 208, 302, 413, 513), and is in communication through at least one cable (320, 320A, 420, 520) with the wireless communication device.
A catheter assembly, comprising a hallow catheter hub, the distal end of which is connectable to a catheter and on the proximal end of which connection means for an additional means are provided, a port on the catheter hub radially branching off between the proximal and the distal ends, a first valve element in the catheter hub, wherein the first valve element is formed in the form of a flexible hose member, which abuts on the inner circumference of the catheter hub and closes the port in the ready positon, and unblocks the connection between the port and the catheter by deformation, when external pressure is applied to the port, and a second valve element that prevents emergence of blood from the catheter hub in the proximal direction, wherein the second valve element is formed by a valve disc provided with at least one slit, which closes the proximal end of the first valve element, characterised in that the valve disc is formed as a two-way valve such that throughflow in both directions is possible, and wherein the valve disc opens for a throughflow in a proximal direction only if a correspondingly strong suction pressure is applied on the proximal side of the valve disc.
A method for designing a dental appliance intended for a facial mass comprising dental arches, said method comprising the following steps: - acquiring reference points (5, 6, 7) characterizing the facial mass, - determining reference planes (8, 9) of the facial mass from said reference points, - obtaining a volume model of each dental arch of said facial mass, - matching the volume models of the dental arches and said reference planes of the facial mass, - recording the mandibular kinematics, - designing said dental appliance by taking into account the recording of the mandibular kinematics during a plurality of movements of said mandible, characterized: - in that said step of recording the mandibular kinematics is performed by means of an infrared camera, and - in a last step of producing a file usable by numerically-controlled machines able to manufacture a dental appliance. - acquiring reference points (5, 6, 7) characterizing the facial mass, - determining reference planes (8, 9) of the facial mass from said reference points, - obtaining a volume model of each dental arch of said facial mass, - matching the volume models of the dental arches and said reference planes of the facial mass, - recording the mandibular kinematics, - designing said dental appliance by taking into account the recording of the mandibular kinematics during a plurality of movements of said mandible, characterized: - in that said step of recording the mandibular kinematics is performed by means of an infrared camera, and - in a last step of producing a file usable by numerically-controlled machines able to manufacture a dental appliance. - in that said step of recording the mandibular kinematics is performed by means of an infrared camera, and - in a last step of producing a file usable by numerically-controlled machines able to manufacture a dental appliance.
Contact tube formed from two contact shells for contacting a welding wire in a welding torch, each contact shell comprising a contact region, in the exit region for the welding wire, which contact region is intended for contacting the welding wire at a radial contact force, and an opposite holding region, arranged in the entry region for the welding wire, which holding region has an end face for fastening in the welding torch, characterised in that two opposing contact points for contacting a holding device of a sleeve surrounding the contact shells and for ensuring that the contact shells can move freely in the sleeve are arranged on the end face of the holding region of each contact shell, the connection between the contact points representing an axis of rotation in the holding region, about which axis the contact shells are movably arranged, a raised part arranged parallel to the axis of rotation being arranged on the end face of the holding region of each contact shell, the axis of rotation being arranged below the raised part such that an axial compressive force can be applied over the raised parts, in order to move the contact shells about the axis of rotation and to convert the axial compressive force into the radial contact force in the contact region.
A method comprising: detecting a change in signal strength of a carrier wave communicated between a radiofrequency-RF transmitter of an electronic device and an RF receiver of the electronic device, the change in the signal strength being influenced by proximity of a dielectric body positioned external to the electronic device relative to the RF transmitter; and adjusting transmission power of the carrier wave transmitted from the RF transmitter based on the detected change in signal strength of the carrier wave. detecting a change in signal strength of a carrier wave communicated between a radiofrequency-RF transmitter of an electronic device and an RF receiver of the electronic device, the change in the signal strength being influenced by proximity of a dielectric body positioned external to the electronic device relative to the RF transmitter; and adjusting transmission power of the carrier wave transmitted from the RF transmitter based on the detected change in signal strength of the carrier wave.
A method for monitoring and controlling a burner flame of a burner of a heating device with a control device, wherein an ionization electrode is positioned in contact with the burner flame, via a voltage generator, a voltage is led via a flame amplifier to the ionization electrode, and an ionization current measured by the ionization electrode in the burner flame is measured by the flame amplifier and transmitted to the control device, characterized in that, during the entire burner operation, the voltage generator alternatingly and continuously supplies the flame amplifier and thus the ionization electrode with at least two different fixed voltages (32, 33), wherein the at least two resulting ionization currents are measured and a difference of the ionization currents resulting therefrom is determined, wherein, as a function of the amount of the difference of the ionization currents, a monitoring of the burner flame or a control of the burner flame by the control device occurs.
A method for cleaning a rotating surface of a printing press cylinder or a rotating surface of a printing press roller or a rotating surface of a printing plate or transfer form arranged on a printing press cylinder inside a printing unit, comprising the following steps: applying a liquid, water-based detergent, which has at least 60 % water and at least surfactants for the remainder, to the surface to be cleaned within the printing unit; detaching impurities from the surface to be cleaned inside the printing unit with the help of the detergent and a cleaning device; removing the detached impurities from the surface to be cleaned within the printing unit at least with the help of the cleaning device; characterized in that the liquid, water-based detergent is applied to the surface to be cleaned with the help of the cleaning device, which is embodied as cleaning brush and which rotates at a speed of between 100 U/min and 500 U/min and which rolls on the surface to be cleaned, wherein, for this purpose, the liquid, water-based detergent is sprayed onto the cleaning brush, which serves for the application of the detergent, at a pressure of between 100 kPa and 500 kPa, and is applied to the surface to be cleaned via the cleaning brush. applying a liquid, water-based detergent, which has at least 60 % water and at least surfactants for the remainder, to the surface to be cleaned within the printing unit; detaching impurities from the surface to be cleaned inside the printing unit with the help of the detergent and a cleaning device; removing the detached impurities from the surface to be cleaned within the printing unit at least with the help of the cleaning device; characterized in that the liquid, water-based detergent is applied to the surface to be cleaned with the help of the cleaning device, which is embodied as cleaning brush and which rotates at a speed of between 100 U/min and 500 U/min and which rolls on the surface to be cleaned, wherein, for this purpose, the liquid, water-based detergent is sprayed onto the cleaning brush, which serves for the application of the detergent, at a pressure of between 100 kPa and 500 kPa, and is applied to the surface to be cleaned via the cleaning brush.
A temperature control apparatus for a building, the apparatus comprising: an electricity generator, operable to contribute to an electrical power supply for electrical appliances at the building; a heat transfer circuit adapted to circulate heat transfer fluid to cool the electricity generator; a heating system comprising a heat source for providing heat energy to a space heater for heating at least one zone of the building and a heat exchanger adapted to supplement the heat energy from the heat source with heat energy obtained from the heat transfer circuit; a user interface adapted to enable a user to select a desired temperature for the at least one zone of the building, and a first time period during which the desired temperature is to be maintained; a controller configured to operate the electricity generator to generate electricity and to preheat the space heater using the heat exchanger and to obtain a first signal based on the temperature of the at least one zone of the building and a second signal based on the rate of change of the temperature and to determine when to switch on the heat source based on the user selected first time period, the desired temperature, the first signal and the second signal. an electricity generator, operable to contribute to an electrical power supply for electrical appliances at the building; a heat transfer circuit adapted to circulate heat transfer fluid to cool the electricity generator; a heating system comprising a heat source for providing heat energy to a space heater for heating at least one zone of the building and a heat exchanger adapted to supplement the heat energy from the heat source with heat energy obtained from the heat transfer circuit; a user interface adapted to enable a user to select a desired temperature for the at least one zone of the building, and a first time period during which the desired temperature is to be maintained; a controller configured to operate the electricity generator to generate electricity and to preheat the space heater using the heat exchanger and to obtain a first signal based on the temperature of the at least one zone of the building and a second signal based on the rate of change of the temperature and to determine when to switch on the heat source based on the user selected first time period, the desired temperature, the first signal and the second signal.