mhurhangee/ep-ind-claims huggingface dataset:
A vehicle drive device comprising: a wheel bearing configured to support a wheel; a horizontally-mounted electric motor configured to rotate a rotating ring of the wheel bearing; and an oil supply mechanism configured to cool the electric motor with lubricating oil, wherein the electric motor includes a housing, a stator provided inside the housing, and a rotor configured to be rotatable with respect to the stator, the stator is composed of a stator core and a stator coil, the stator core has a plurality of teeth arranged in a circumferential direction around an axis of the rotor, and the stator coil is composed of a plurality of individual coils provided on the respective teeth, the oil supply mechanism has a lubricating oil supply portion (70,71) configured to supply lubricating oil onto coil ends of upper individual coils among the plurality of individual coils, and a lower portion of the stator is immersed in the lubricating oil accumulated in a bottom portion of the housing, a temperature detector configured to detect a temperature of the stator coil is disposed at a position that is lower than the axis of the rotor and higher than an oil level of the lubricating oil accumulated in the bottom portion of the housing, wherein the temperature detector is located within a range of a gap between individual coils adjacent in the circumferential direction, except a portion between coil ends of the adjacent individual coils, and wherein a lower end of the rotor has a height such that the rotor, in a normal state, is not immersed in the lubricating oil accumulated in the bottom portion of the housing, and the rotor comes into contact with the lubricating oil when the oil level of the lubricating oil varies due to turning or abrupt acceleration/deceleration of a vehicle, and the temperature detector is disposed, in the housing, at a position on a side opposite to a side where the lower end of the rotor moves due to rotation of the rotor when the vehicle travels forward, with respect to the axis of the rotor, such that scooped-up lubricating oil is not applied to the temperature detector.
A staple cartridge for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities configured to seat staples therein; and, a biocompatible, compressible adjunct material (3000, 3100, 3013) releasably retained on the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the material having a compressible elastic core layer configured to compress upon application of a compressive force and expand upon removal of the compressive force, and at least one flexible support layer (3001, 3002) coupled to at least a first surface of the compressible elastic core layer; wherein either: the elastic core layer is formed from a woven material and the at least one flexible support layer (3001, 3002) is formed from a woven material and coupled to the first surface and to an opposed second surface of the compressible elastic core layer, wherein a weave density of the elastic core layer is less dense than a weave density of the flexible support layer (3001, 3002); or wherein: the adjunct material is comprised of a fleece, the fleece having a first density in the compressible elastic core layer and a second, different density in the flexible support layer (3001, 3002). a cartridge body having a plurality of staple cavities configured to seat staples therein; and, a biocompatible, compressible adjunct material (3000, 3100, 3013) releasably retained on the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the material having a compressible elastic core layer configured to compress upon application of a compressive force and expand upon removal of the compressive force, and at least one flexible support layer (3001, 3002) coupled to at least a first surface of the compressible elastic core layer;
Fastening system, comprising a first machine element having a through-hole, a second machine element having a threaded hole, a thin-shaft screw which penetrates through the through-hole and is screwed into the threaded hole, and a securing element, wherein the thin-shaft screw comprises a screw head, an unthreaded shaft portion and a threaded portion and wherein the threaded portion is connected to the screw head via the unthreaded shaft portion, wherein the securing element is arranged in the region of the unthreaded shaft portion, wherein the securing element is arranged between the first machine element and the second machine element and creates a sealing of the gap between the first machine element and the second machine element, wherein the securing element comprises a securing element body provided with a through-opening, wherein the thin-shaft screw penetrates through the through-opening of the securing element, wherein a retaining element is assigned to the through-opening, wherein the retaining element is configured to secure the thin-shaft screw against unintended release, wherein at least one sealing element is assigned to the securing element body, characterised in that the securing element body is formed dimensionally stable and disc-shaped, and in that the sealing element is arranged on the external circumference of the securing element body, characterised in that the retaining element is formed from resilient material.
Process for preparing a silicon dioxide powder with a BET surface area of 10 to 40 m2/g, in which a) an aerosol obtained by atomizing at least one liquid siloxane is introduced with an oxygen-containing gas into a flame obtainable by igniting a hydrogenous combustion gas and an oxygen-containing gas with an oxygen content of 25 to 35% by volume, said siloxane being selected from the group consisting of the linear siloxanes of the general formula (R 1) 3 SiO[SiR 2 R 3 O] m Si(R 1) 3 and the cyclic siloxanes of the general formula [SiR 1 R 2 O] n, where R 1, R 2, R 3 = Me or Et, m = 1 to 20, n = 3 to 7, where R 1, R 2, R 3, m and n are independent of one another, and where b) at the time of injection into the flame, b1) the molar ratio of oxygen used/oxygen required for complete oxidation of the siloxane is 1.1 to 2.5, b2) the molar oxygen/hydrogenous combustion gas ratio is 0.5 to 1 and b3) the ratio of oxygen used/oxygen required for oxidation of the siloxane and of the combustion gas is 0.80 to 0.99, c) air is additionally introduced along the flame, where the quantitative ratio of air to the oxygen-enriched air used to generate the flame is 0.9 to 1.40, d) then water is added to the reaction mixture for cooling, where the amount of water is 0.1 to 1.5 kg/m 3 of process gas, and e) the solid is removed. a) an aerosol obtained by atomizing at least one liquid siloxane is introduced with an oxygen-containing gas into a flame obtainable by igniting a hydrogenous combustion gas and an oxygen-containing gas with an oxygen content of 25 to 35% by volume, said siloxane being selected from the group consisting of the linear siloxanes of the general formula (R 1) 3 SiO[SiR 2 R 3 O] m Si(R 1) 3 and the cyclic siloxanes of the general formula [SiR 1 R 2 O] n, where R 1, R 2, R 3 = Me or Et, m = 1 to 20, n = 3 to 7, where R 1, R 2, R 3, m and n are independent of one another, and where b) at the time of injection into the flame, b1) the molar ratio of oxygen used/oxygen required for complete oxidation of the siloxane is 1.1 to 2.5, b2) the molar oxygen/hydrogenous combustion gas ratio is 0.5 to 1 and b3) the ratio of oxygen used/oxygen required for oxidation of the siloxane and of the combustion gas is 0.80 to 0.99, b1) the molar ratio of oxygen used/oxygen required for complete oxidation of the siloxane is 1.1 to 2.5, b2) the molar oxygen/hydrogenous combustion gas ratio is 0.5 to 1 and b3) the ratio of oxygen used/oxygen required for oxidation of the siloxane and of the combustion gas is 0.80 to 0.99, c) air is additionally introduced along the flame, where the quantitative ratio of air to the oxygen-enriched air used to generate the flame is 0.9 to 1.40, d) then water is added to the reaction mixture for cooling, where the amount of water is 0.1 to 1.5 kg/m 3 of process gas, and e) the solid is removed.
A modular and autonomous assembly for detecting the angular position of the blades of a turbine engine, the modular assembly being configured to be mounted in a reversible way on a turbine engine including a first impeller comprising a first number of blades (111 to 115) and a second impeller comprising a second number of blades (121 to 127), each of the two impellers (11, 12) having an air flow passing through it and being coupled directly or indirectly to one another, and the first number of blades of the first impeller and the second number of blades of the second impeller being distinct and mutually prime, the assembly comprising: - at least one electrical power source (711b, 71b, 72b) allowing the operation of the elements of the detection assembly independently of the turbine engine on which it is intended to be carried, - at least one first sensor configured to be associated with the first impeller, - at least one second sensor configured to be associated with the second impeller, - and a main housing including a main processing unit and storage means, each of said sensors (71, 72) being configured to generate a signal (S 1, S 2) at each passage of a blade of an impeller in front of the sensor, and the main processing unit being configured to determine the time interval separating the detection of a blade (111 to 115) of the first impeller with the detection of each of the blades (121 to 127) of the second impeller. the assembly comprising: - at least one electrical power source (711b, 71b, 72b) allowing the operation of the elements of the detection assembly independently of the turbine engine on which it is intended to be carried, - at least one first sensor configured to be associated with the first impeller, - at least one second sensor configured to be associated with the second impeller, - and a main housing including a main processing unit and storage means, - at least one electrical power source (711b, 71b, 72b) allowing the operation of the elements of the detection assembly independently of the turbine engine on which it is intended to be carried, - at least one first sensor configured to be associated with the first impeller, - at least one second sensor configured to be associated with the second impeller, - and a main housing including a main processing unit and storage means, each of said sensors (71, 72) being configured to generate a signal (S 1, S 2) at each passage of a blade of an impeller in front of the sensor, and the main processing unit being configured to determine the time interval separating the detection of a blade (111 to 115) of the first impeller with the detection of each of the blades (121 to 127) of the second impeller.
A leaf spring assembly for a wheel suspension of a motor vehicle, comprising: a leaf spring of fibre-reinforced plastics for resiliently supporting a wheel carrier of the motor vehicle, wherein the leaf spring comprises a first end portion, a spring portion extending therefrom, a bendable portion and a second end portion, wherein the spring portion extends substantially in longitudinal direction of the motor vehicle in the built-in condition and is configured for accommodating the wheel carrier, wherein the spring portion and the bendable portion are connected to each other by a curved transition portion and the spring portion is longer than the bendable portion; a first receiving device for supporting the first end portion; a second receiving portion device for supporting the second end portion; wherein the first receiving device and the second receiving device are designed such that the first end portion and the second end portion are held in a non-displaceable way relative to one another, such that the leaf spring, with increasing load due to vertical forces introduced from the wheel carrier, is increasingly subjected to tensile loading, characterised in that at least one of the first and second receiving devices (4, 6) is designed such that the respective associated end portion (5, 7) is pivotably supported around a pivot axis (X4, X6) extending transversely to a longitudinal axis of the vehicle and that in the built-in condition of the leaf spring the first end portion is arranged at the front and the second end portion is arranged at the back in direction of travel of the motor vehicle. a leaf spring of fibre-reinforced plastics for resiliently supporting a wheel carrier of the motor vehicle, wherein the leaf spring comprises a first end portion, a spring portion extending therefrom, a bendable portion and a second end portion, wherein the spring portion extends substantially in longitudinal direction of the motor vehicle in the built-in condition and is configured for accommodating the wheel carrier, wherein the spring portion and the bendable portion are connected to each other by a curved transition portion and the spring portion is longer than the bendable portion; a first receiving device for supporting the first end portion; a second receiving portion device for supporting the second end portion; wherein the first receiving device and the second receiving device are designed such that the first end portion and the second end portion are held in a non-displaceable way relative to one another, such that the leaf spring, with increasing load due to vertical forces introduced from the wheel carrier, is increasingly subjected to tensile loading, characterised in that at least one of the first and second receiving devices (4, 6) is designed such that the respective associated end portion (5, 7) is pivotably supported around a pivot axis (X4, X6) extending transversely to a longitudinal axis of the vehicle and that in the built-in condition of the leaf spring the first end portion is arranged at the front and the second end portion is arranged at the back in direction of travel of the motor vehicle.
A motor bobbin around which a coil is to be wound, comprising a first and a second motor bobbin; each motor bobbin comprising: an insulating paper; and a pair of molded resin articles, wherein the insulating paper and the molded resin articles are connected and fixed to each other without using an adhesive agent, a surface of the insulating paper in contact with the molded resin articles comprises an aramid paper comprising an aramid fibrid and an aramid short fiber, the insulating paper is obtained by melt-extruding and thermally melt-bonding a resin onto the aramid paper comprising the aramid fibrid and the aramid short fiber and subjecting the surface comprising the aramid paper to a surface treatment, each motor bobbin is obtained by bringing a molten portion of the molded resin articles into contact with the aramid paper, each motor bobbin further comprising a bobbin body at least partially made of the insulating paper, and a pair of the molded resin articles connected to both ends of the bobbin body in longitudinal direction; the first and the second motor bobbin being arranged such that a stator core can be arranged between them when they are connected. an insulating paper; and a pair of molded resin articles, wherein the insulating paper and the molded resin articles are connected and fixed to each other without using an adhesive agent, a surface of the insulating paper in contact with the molded resin articles comprises an aramid paper comprising an aramid fibrid and an aramid short fiber, the insulating paper is obtained by melt-extruding and thermally melt-bonding a resin onto the aramid paper comprising the aramid fibrid and the aramid short fiber and subjecting the surface comprising the aramid paper to a surface treatment, each motor bobbin is obtained by bringing a molten portion of the molded resin articles into contact with the aramid paper, each motor bobbin further comprising a bobbin body at least partially made of the insulating paper, and a pair of the molded resin articles connected to both ends of the bobbin body in longitudinal direction; the first and the second motor bobbin being arranged such that a stator core can be arranged between them when they are connected.
A method of treating a skin condition associated with loss of elastin fibers in the skin, comprising topically applying to skin in need thereof a LOXL-1 production enhancing non-proteogenic aminoacid or derivative thereof selected from the group consisting of a salt, a N-acyl derivative and a ester according to formula Ib: wherein n is 0 (zero) or 1; Z is a single bond or a group (CH 2) k unit where k is an integer from 1 to 3; Y is C, CH, or N; and T, U, V, and W are independently selected from CH, CR 1, N, NH, NR N, O, and S, wherein at least one of T, U, V, and W is S, where R 1 is independently, at each occurrence, selected from hydrogen, halogen; -OH; -NH 2; -NR N R N; -SH; -CN; oxo; -CHO; -CO 2 H; -O-(C=O)-H; -O-(C=O)-C 1-10 alkyl; -O-(C=O)-Ar; -(C=O)-O-C 1-10 alkyl; -(C=O)-O-Ar; -(C=O)-NR N R N; -O-C 1-10 alkyl; -O-Ar; -S-C 1-10 alkyl; -S-Ar; -Ar; -C 1-10 alkyl; -NR N -CHO; -NR N -(C=O)-C 1-10 alkyl; -C 1-10 alkyl-O-C 1-10 alkyl; perflouroalkyl; epoxy; azido; thiocyanate; -SO 2 -R N; and nitro and R N is hydrogen, C 1-6 alkyl, alkenyl, alkynyl, or aryl; and wherein the ring is optionally aromatic or may comprise zero, one, or two double bonds. wherein n is 0 (zero) or 1; Z is a single bond or a group (CH 2) k unit where k is an integer from 1 to 3; Y is C, CH, or N; and T, U, V, and W are independently selected from CH, CR 1, N, NH, NR N, O, and S, wherein at least one of T, U, V, and W is S, where R 1 is independently, at each occurrence, selected from hydrogen, halogen; -OH; -NH 2; -NR N R N; -SH; -CN; oxo; -CHO; -CO 2 H; -O-(C=O)-H; -O-(C=O)-C 1-10 alkyl; -O-(C=O)-Ar; -(C=O)-O-C 1-10 alkyl; -(C=O)-O-Ar; -(C=O)-NR N R N; -O-C 1-10 alkyl; -O-Ar; -S-C 1-10 alkyl; -S-Ar; -Ar; -C 1-10 alkyl; -NR N -CHO; -NR N -(C=O)-C 1-10 alkyl; -C 1-10 alkyl-O-C 1-10 alkyl; perflouroalkyl; epoxy; azido; thiocyanate; -SO 2 -R N; and nitro and R N is hydrogen, C 1-6 alkyl, alkenyl, alkynyl, or aryl; and wherein the ring is optionally aromatic or may comprise zero, one, or two double bonds.
A composition comprising electrolyzed water for use as a healing medicament, wherein the electrolyzed water is obtained by electrolysis using at least one boron-doped diamond electrode attached to a substrate, wherein the concentration of boron is between 200 (3×10 19 B atoms/cm 3) and 2000 ppm (3.52×10 20 B atoms/cm 3), in particular between 200 ppm (3×10 19 B atoms/cm 3) and 1500 ppm (2×10 20 B atoms/cm 3)
A system for monitoring motion of a game ball, the system comprising: a game ball; a pressure sensor arranged to detect changes in internal gas pressure forces within the game ball with respect to time; an inertial sensor arranged to detect changes in ball motion with respect to time; and a ball motion monitoring system arranged to receive at least one data set selected from the group consisting of: (a) data generated by the pressure sensor and data generated by the inertial sensor or (b) data derived from the data generated by the pressure sensor and data derived from the data generated by the inertial sensor; wherein the system is characterized by being further arranged to determine whether the game ball was propelled by a throwing action or a kicking action based on the received data. a game ball; a pressure sensor arranged to detect changes in internal gas pressure forces within the game ball with respect to time; an inertial sensor arranged to detect changes in ball motion with respect to time; and a ball motion monitoring system arranged to receive at least one data set selected from the group consisting of: (a) data generated by the pressure sensor and data generated by the inertial sensor or (b) data derived from the data generated by the pressure sensor and data derived from the data generated by the inertial sensor; wherein the system is characterized by being further arranged to determine whether the game ball was propelled by a throwing action or a kicking action based on the received data.
A method for interference cancellation in a satellite communication system, the method comprising: (a) transmitting a hub signal from a first station to a second station via satellite; (b) receiving a hub echo signal in the first station; (c) in a computing device, performing an autocorrelation on the hub signal to detect a periodicity in the hub signal; (d) if the periodicity is detected, determining, in the computing device, a search range for a delay in the hub echo signal in accordance with the periodicity; (e) locating the delay in the hub echo signal, using the computing device; and (f) in the computing device, performing the interference cancellation in accordance with the delay located in step (e). (a) transmitting a hub signal from a first station to a second station via satellite; (b) receiving a hub echo signal in the first station; (c) in a computing device, performing an autocorrelation on the hub signal to detect a periodicity in the hub signal; (d) if the periodicity is detected, determining, in the computing device, a search range for a delay in the hub echo signal in accordance with the periodicity; (e) locating the delay in the hub echo signal, using the computing device; and (f) in the computing device, performing the interference cancellation in accordance with the delay located in step (e).
A method for concentrating metal chlorides in and separating same from an iron chloride-containing hydrochloric acid solution, wherein iron is precipitated from the solution as a hematite using hydrolysis at temperatures of from 150° to 300°C and at a pressure of from -0.8 bar to 20 bar and filtered off in a filtration device, wherein non-hydrolysable metal chlorides are removed by precipitating and filtrating from at least part of the obtained filtrate, this hydrochloric acid filtrate is directed into a pre-evaporator where a majority of the hydrogen chloride contained within the solution is stripped with the addition of energy and recovered as a regenerate, whereafter the concentrated solution is pumped from the pre-evaporator into the hydrolysis reactor, characterized in that a part of the regenerate recovered from the hydrolysis is removed and in a concentration step pure hydrogen chloride with a concentration of at least 70wt% is recovered from the regenerate which is used for the precipitation of the concentrated non-hydrolysable metal chlorides from the hydrochloric acid filtrate by increasing the concentration of free hydrogen chloride in the solution.