mhurhangee/ep-ind-claims huggingface dataset:
A non-pneumatic tire (100; 200), rim (130; 205), and cover assembly, the assembly comprising: a non-pneumatic tire (100; 200) including: a lower ring having a first diameter, an upper ring having a second diameter greater than the first diameter, the upper ring being substantially coaxial with the lower ring, and support structure extending between the lower ring and the upper ring; a rim (130; 205) connected to the lower ring of the non-pneumatic tire (100; 200); an upper cover (135; 220) connected to a first side of the non-pneumatic tire (100; 200), wherein the upper cover (135; 220) has an annulus shape that covers at least a portion of the support structure, wherein a lower portion of the upper cover (135; 220) includes a circumferential projection (150; 230) that projects axially outward relative to a region above the circumferential projection (150; 230); and a lower cover (160; 235) connected to the upper cover (135; 220), wherein the lower cover (160; 235) has a circumferential groove (175; 245) disposed on a rear surface that receives the circumferential projection (150; 230) of the upper cover (135; 220). a non-pneumatic tire (100; 200) including: a lower ring having a first diameter, an upper ring having a second diameter greater than the first diameter, the upper ring being substantially coaxial with the lower ring, and support structure extending between the lower ring and the upper ring; a lower ring having a first diameter, an upper ring having a second diameter greater than the first diameter, the upper ring being substantially coaxial with the lower ring, and support structure extending between the lower ring and the upper ring; a rim (130; 205) connected to the lower ring of the non-pneumatic tire (100; 200); an upper cover (135; 220) connected to a first side of the non-pneumatic tire (100; 200), wherein the upper cover (135; 220) has an annulus shape that covers at least a portion of the support structure, wherein a lower portion of the upper cover (135; 220) includes a circumferential projection (150; 230) that projects axially outward relative to a region above the circumferential projection (150; 230); and wherein the upper cover (135; 220) has an annulus shape that covers at least a portion of the support structure, wherein a lower portion of the upper cover (135; 220) includes a circumferential projection (150; 230) that projects axially outward relative to a region above the circumferential projection (150; 230); and a lower cover (160; 235) connected to the upper cover (135; 220), wherein the lower cover (160; 235) has a circumferential groove (175; 245) disposed on a rear surface that receives the circumferential projection (150; 230) of the upper cover (135; 220).
A method of assessment of oscillatory function of the skin microcirculation, the method comprising: - illumination of a selected location on non-hairy skin of a human subject in a resting steady condition without any blockage or stimulation of the blood flow with exciting light capable of inducing skin NADH fluorescence signal for a period of time; - simultaneously with said illumination detecting, measuring and recording as a function of time the induced NADH fluorescence signal emitted from the said selected location to obtain the time course of the NADH fluorescence signal intensity in the said period of time; and - computer implemented steps of: - fitting of a baseline about which the NADH fluorescence signal oscillates to the said time course of the NADH fluorescence signal; and - determination of a mean squared error of the deviation of the NADH fluorescence signal from the fitted baseline as a parameter of oscillatory function of the skin microcirculation. - illumination of a selected location on non-hairy skin of a human subject in a resting steady condition without any blockage or stimulation of the blood flow with exciting light capable of inducing skin NADH fluorescence signal for a period of time; - simultaneously with said illumination detecting, measuring and recording as a function of time the induced NADH fluorescence signal emitted from the said selected location to obtain the time course of the NADH fluorescence signal intensity in the said period of time; and - computer implemented steps of: - fitting of a baseline about which the NADH fluorescence signal oscillates to the said time course of the NADH fluorescence signal; and - determination of a mean squared error of the deviation of the NADH fluorescence signal from the fitted baseline as a parameter of oscillatory function of the skin microcirculation. - fitting of a baseline about which the NADH fluorescence signal oscillates to the said time course of the NADH fluorescence signal; and - determination of a mean squared error of the deviation of the NADH fluorescence signal from the fitted baseline as a parameter of oscillatory function of the skin microcirculation.
A lighting device (11, 12, 13, 14) comprising: - a light source (101, 102, 103, 104) emitting light, and - at least two optical elements (30, 301, 401, 303, 403) arranged in front of said light source, said at least two optical elements comprising an at least partially transparent material such as to allow at least part of said light emitted by said light source to be transmitted therethrough, wherein said at least two optical elements comprise a plurality of through openings (20, 201, 211, 203, 213) adapted for collimating said light emitted by said light source such as to cause light exiting said at least two optical elements to comprise a brightness varying with the direction in which said light exits said at least two optical elements. - a light source (101, 102, 103, 104) emitting light, and - at least two optical elements (30, 301, 401, 303, 403) arranged in front of said light source, said at least two optical elements comprising an at least partially transparent material such as to allow at least part of said light emitted by said light source to be transmitted therethrough, wherein said at least two optical elements comprise a plurality of through openings (20, 201, 211, 203, 213) adapted for collimating said light emitted by said light source such as to cause light exiting said at least two optical elements to comprise a brightness varying with the direction in which said light exits said at least two optical elements.
A method for station keeping of a spacecraft in a defined slot of a geostationary orbit, wherein the spacecraft comprises: at least two propulsion units having forces with components in an east-, a west-, a south- and a north-direction in a coordinate system fixed to the spacecraft, wherein the method comprises the steps of: placing the spacecraft in said defined slot of the geostationary orbit, controlling a direction of an apogee vector originating at the center of the earth and pointing towards an apogee of the geostationary orbit of the spacecraft to point in a direction with an angle in the interval from -90 to 90 degrees from a direction of a sun vector originating at the center of the earth and pointing towards the sun, and simultaneously controlling the eccentricity and inclination of the geostationary orbit to be within the defined slot. at least two propulsion units having forces with components in an east-, a west-, a south- and a north-direction in a coordinate system fixed to the spacecraft, wherein the method comprises the steps of: placing the spacecraft in said defined slot of the geostationary orbit, controlling a direction of an apogee vector originating at the center of the earth and pointing towards an apogee of the geostationary orbit of the spacecraft to point in a direction with an angle in the interval from -90 to 90 degrees from a direction of a sun vector originating at the center of the earth and pointing towards the sun, and simultaneously controlling the eccentricity and inclination of the geostationary orbit to be within the defined slot. placing the spacecraft in said defined slot of the geostationary orbit, controlling a direction of an apogee vector originating at the center of the earth and pointing towards an apogee of the geostationary orbit of the spacecraft to point in a direction with an angle in the interval from -90 to 90 degrees from a direction of a sun vector originating at the center of the earth and pointing towards the sun, and simultaneously controlling the eccentricity and inclination of the geostationary orbit to be within the defined slot.
A granulated powder comprising at least one vegetable protein and at least one starch hydrolyzate, characterized in that it has: - a laser volume average diameter D4,3 of between 10 μm and 500 μm, preferably between 50 μm and 350 μm, and even more preferably between 70 μm and 250 μm, and - a dry matter content, determined after stoving at 130°C for 2 hours, of greater than 80%, preferably greater than 85%, and even more preferably greater than 90%; wherein said vegetable protein is a pea protein, said starch hydrolysate is a maltodextrin of which the DE is between 15 and 19, the sum of the amounts of vegetable protein and of starch hydrolyzate is between 50% and 100%, of the total mass of said granulated powder (dry/dry), and wherein the weight ratio of the vegetable protein to the starch hydrolyzate is between 80:20 and 45:55, wherein the vegetable proteins have more than 50 % of proteins of more than 1,000 Da. - a laser volume average diameter D4,3 of between 10 μm and 500 μm, preferably between 50 μm and 350 μm, and even more preferably between 70 μm and 250 μm, and - a dry matter content, determined after stoving at 130°C for 2 hours, of greater than 80%, preferably greater than 85%, and even more preferably greater than 90%;
An oven comprising a casing, a cooking chamber which is located inside this casing and wherein the trays the foods to be baked are placed in, are disposed, a fan which is located at the side the rear wall of the casing is situated in, and which moves the heated air, a fan compartment wherein the fan is disposed, a fan covering plate which separates the cooking chamber and the fan compartment inside the casing, more than one opening which is located on the fan covering plate and which provides the air moved by the fan to be transmitted to the cooking chamber, more than one guiding means (8, 108) which is located on the fan covering plate which is positioned before the openings on the flow path of the air, that moves forward at the rear surface of the fan covering plate by being moved by the fan with respect to the direction of rotation of the fan, and which partially surrounds the openings, characterized by the guiding means (8, 108) which is formed by performing a deep drawing process on the fan covering plate towards the fan compartment side and which has a diverter which inclines towards the opening with an acute angle in comparison to the plane of the fan covering plate 'and with a slight incline, and which moves the air flow away from the plane of the fan covering plate before it reaches the opening, and that has a support member which extends almost vertically to the plane of the fan covering plate near the opening and which supports the diverter. which is located on the fan covering plate which is positioned before the openings on the flow path of the air, that moves forward at the rear surface of the fan covering plate by being moved by the fan with respect to the direction of rotation of the fan, and which partially surrounds the openings,
A method, comprising: receiving, by a first messaging application, app, on a first device, a message and metadata from a second device, the message including content created by a second extension app that operated with a second messaging app on the second device; displaying the content in a message container within a message transcript in the first messaging app; receiving a selection of the message container; launching a first extension app, if it is installed on the first device, in response to the selection, the first extension app being identified for launching by an app identifier in the metadata received from the second device; and displaying, after the launching, a user interface of the first extension app within the user interface of the first messaging app. receiving, by a first messaging application, app, on a first device, a message and metadata from a second device, the message including content created by a second extension app that operated with a second messaging app on the second device; displaying the content in a message container within a message transcript in the first messaging app; receiving a selection of the message container; launching a first extension app, if it is installed on the first device, in response to the selection, the first extension app being identified for launching by an app identifier in the metadata received from the second device; and displaying, after the launching, a user interface of the first extension app within the user interface of the first messaging app.
An ultra-high voltage electro-thermal energy storage device, comprising a separated heat energy storage body part, a heat exchanger part and an outer thermal insulation layer part, characterized in that: the separated heat energy storage body is composed of an isolation layer, a safety gap, a heat storage module, an electric heating wire, a convection chamber for heat dissipation, an insulating air-duct, a power supply sheath, a back flow air passage, a fan and a motor, a front end of a leading wire for a power supply, a tail end of the leading wire for the power supply, and an outer thermal insulation layer; the separated heat energy storage body is a component of the ultra-high voltage electro-thermal energy storage device, characterized in that 3(n+1) separated heat energy storage bodies are provided for composing the ultra-high voltage electro-thermal energy storage device with any two adjacent separated heat energy storage bodies being isolated by isolation layers and the electric heating wires of n separated heat energy storage bodies being connected end to end (11, 12) to be connected in series; and the heat storage module is a heat storage unit for the separated heat energy storage body arranged to store heat energy from the electric heating wires, and the heat storage module also is a frame configured to support the electric heating wires, and heat dissipating holes are provided between the respective heat storage modules. the separated heat energy storage body is composed of an isolation layer, a safety gap, a heat storage module, an electric heating wire, a convection chamber for heat dissipation, an insulating air-duct, a power supply sheath, a back flow air passage, a fan and a motor, a front end of a leading wire for a power supply, a tail end of the leading wire for the power supply, and an outer thermal insulation layer; the separated heat energy storage body is a component of the ultra-high voltage electro-thermal energy storage device, characterized in that 3(n+1) separated heat energy storage bodies are provided for composing the ultra-high voltage electro-thermal energy storage device with any two adjacent separated heat energy storage bodies being isolated by isolation layers and the electric heating wires of n separated heat energy storage bodies being connected end to end (11, 12) to be connected in series; and the heat storage module is a heat storage unit for the separated heat energy storage body arranged to store heat energy from the electric heating wires, and the heat storage module also is a frame configured to support the electric heating wires, and heat dissipating holes are provided between the respective heat storage modules.
A filter assembly for an engine, comprising: a housing having a longitudinal axis and defining an internal volume, the housing having an open end, the housing defining an oil inlet and an oil outlet, the internal volume having a first zone and a second zone, the first zone in fluid communication with the oil inlet, the second zone in fluid communication with the oil outlet; a cartridge assembly having a filter cartridge extending into the internal volume, and a cover sealingly engageable to the housing to close the open end of the housing, the filter cartridge axially locked in the housing by the cover, the cover removably securable to the housing to allow replacement of the filter cartridge via the open end; and a sealing member between the housing and the filter cartridge, the sealing member separating the first zone from the second zone such that the first zone communicates with the second zone through the filter cartridge, wherein the filter cartridge includes an annular flange extending circumferentially around a filtering medium of the filter cartridge, the sealing member located between the annular flange and the housing, wherein a radial dimension of the annular flange relative to the longitudinal axis is maximal at a circumferential location relative to the longitudinal axis, the circumferential location registering with the oil outlet of the housing, characterised in that: the annular flange and the filtering medium are non-concentric. a housing having a longitudinal axis and defining an internal volume, the housing having an open end, the housing defining an oil inlet and an oil outlet, the internal volume having a first zone and a second zone, the first zone in fluid communication with the oil inlet, the second zone in fluid communication with the oil outlet; a cartridge assembly having a filter cartridge extending into the internal volume, and a cover sealingly engageable to the housing to close the open end of the housing, the filter cartridge axially locked in the housing by the cover, the cover removably securable to the housing to allow replacement of the filter cartridge via the open end; and a sealing member between the housing and the filter cartridge, the sealing member separating the first zone from the second zone such that the first zone communicates with the second zone through the filter cartridge, wherein the filter cartridge includes an annular flange extending circumferentially around a filtering medium of the filter cartridge, the sealing member located between the annular flange and the housing, wherein a radial dimension of the annular flange relative to the longitudinal axis is maximal at a circumferential location relative to the longitudinal axis, the circumferential location registering with the oil outlet of the housing,
A winding assembly for an electric generator comprising: a stator core having a relatively cylindrical inner shape; a rotor core coaxially rotatable within the stator core, wherein the rotor core includes an input shaft having an axis; a rotor winding support structure on the rotor core and comprising a radially inner location, a radially outer location and a surface extending between the radially inner location and the radially outer location, the surface having an entire length extending radially outward from the input shaft toward the stator core, the entire length of the surface disposed at an angle that is non-perpendicular and non-parallel to an axis of rotation of the rotor core; and a rotor winding bundle that includes a plurality of magnet wires disposed along, and supported by, the surface of the rotor winding support structure, wherein the angle relative to the axis of the input shaft is less than 90 degrees as the surface extends radially outwardly to form an incline of resistance for the rotor winding bundle, the incline of resistance extending along the entire length of the surface extending between the radially inner location and the radially outer location and arranged such that the incline of resistance provides greater resistance to magnet wires from moving in an outwardly direction toward an outer diameter of the rotor core due to centrifugal forces. a stator core having a relatively cylindrical inner shape; a rotor core coaxially rotatable within the stator core, wherein the rotor core includes an input shaft having an axis; a rotor winding support structure on the rotor core and comprising a radially inner location, a radially outer location and a surface extending between the radially inner location and the radially outer location, the surface having an entire length extending radially outward from the input shaft toward the stator core, the entire length of the surface disposed at an angle that is non-perpendicular and non-parallel to an axis of rotation of the rotor core; and a rotor winding bundle that includes a plurality of magnet wires disposed along, and supported by, the surface of the rotor winding support structure, wherein the angle relative to the axis of the input shaft is less than 90 degrees as the surface extends radially outwardly to form an incline of resistance for the rotor winding bundle, the incline of resistance extending along the entire length of the surface extending between the radially inner location and the radially outer location and arranged such that the incline of resistance provides greater resistance to magnet wires from moving in an outwardly direction toward an outer diameter of the rotor core due to centrifugal forces.
A cooler placed on a heat generating component to cool the heat generating component with refrigerant through a refrigerant pipe, and including a heat transfer member having a groove into which the refrigerant pipe is fitted, and a presser plate configured to press the refrigerant pipe against the groove while being in contact with the refrigerant pipe, characterized in that the cooler comprises: an opening/closing mechanism configured to rotatably attach the presser plate to the heat transfer member such that the presser plate is switched between an open position at which the groove is exposed and a closed position at which the presser plate covers the groove. an opening/closing mechanism configured to rotatably attach the presser plate to the heat transfer member such that the presser plate is switched between an open position at which the groove is exposed and a closed position at which the presser plate covers the groove.
A method for a user equipment, UE, comprising: responsive to a first pathloss between the UE and a base station, BS, satisfying a threshold for a same-frequency full-duplex, SFFD, operation, transmitting first data from the UE to the BS over a first frequency band while receiving second data from the BS at the UE over the first frequency band; and responsive to a second pathloss between the UE and the BS failing to satisfy the threshold, transmitting third data from the UE to the BS over a second frequency band while simultaneously receiving fourth data from the BS at the UE over a third frequency band that is distinct from the second frequency band according to an offset-frequency full-duplex, FD, operation, wherein the second frequency band and the third frequency band are within a same carrier bandwidth, and wherein the second frequency band and the third frequency band are spaced apart by a frequency separation; and wherein the frequency separation between the second frequency band and the third frequency band is based on the second pathloss. responsive to a first pathloss between the UE and a base station, BS, satisfying a threshold for a same-frequency full-duplex, SFFD, operation, transmitting first data from the UE to the BS over a first frequency band while receiving second data from the BS at the UE over the first frequency band; and responsive to a second pathloss between the UE and the BS failing to satisfy the threshold, transmitting third data from the UE to the BS over a second frequency band while simultaneously receiving fourth data from the BS at the UE over a third frequency band that is distinct from the second frequency band according to an offset-frequency full-duplex, FD, operation, wherein the second frequency band and the third frequency band are within a same carrier bandwidth, and wherein the second frequency band and the third frequency band are spaced apart by a frequency separation; and wherein the frequency separation between the second frequency band and the third frequency band is based on the second pathloss.