mhurhangee/ep-ind-claims huggingface dataset:
A method for thermochemically treating a part, the method comprising the steps of: - providing a mask comprising a body with a seat, at least a deformable sealing washer located in the seat, and a tightening bushing moveable with respect to the body between a tightened position where the tightening bushing presses the sealing washer and a loosened position, the body having a cavity which can be accessed through a passage delimited in the sealing washer when the tightening bushing is in its loosened position, - placing a first portion of the part in the cavity while the tightening bushing is in its loosened position, a second portion of the part being located in the passage, and a third portion of the part being located outside the mask, - moving the tightening bushing to its tightened position so that the sealing washer is deformed and applied against the second portion of the part, and - applying a thermochemical treatment to the third portion of the part. - providing a mask comprising a body with a seat, at least a deformable sealing washer located in the seat, and a tightening bushing moveable with respect to the body between a tightened position where the tightening bushing presses the sealing washer and a loosened position, the body having a cavity which can be accessed through a passage delimited in the sealing washer when the tightening bushing is in its loosened position, - placing a first portion of the part in the cavity while the tightening bushing is in its loosened position, a second portion of the part being located in the passage, and a third portion of the part being located outside the mask, - moving the tightening bushing to its tightened position so that the sealing washer is deformed and applied against the second portion of the part, and - applying a thermochemical treatment to the third portion of the part.
A vehicle axle assembly, comprising: - a hub which is mounted on a cylindrical axle body by way of a ball bearing so as to be rotatable about a central longitudinal axis, wherein the ball bearing has an inner race connected to the axle body and has an outer race connected to the hub; - an axially inner shaft sealing ring and an axially outer shaft sealing ring which are sealingly arranged between the two races (18, 20) in the region of one axial end of the ball bearing and which delimit a ring-shaped chamber between the two races (18, 20); - a first pressure medium line which extends through the inner race or one of the two shaft sealing rings (50, 52) and which opens into the ring-shaped chamber; and - a second pressure medium line which extends from the ring-shaped chamber through the outer race and which is configured to be connected to a wheel fastened on the hub. - a hub which is mounted on a cylindrical axle body by way of a ball bearing so as to be rotatable about a central longitudinal axis, wherein the ball bearing has an inner race connected to the axle body and has an outer race connected to the hub; - an axially inner shaft sealing ring and an axially outer shaft sealing ring which are sealingly arranged between the two races (18, 20) in the region of one axial end of the ball bearing and which delimit a ring-shaped chamber between the two races (18, 20); - a first pressure medium line which extends through the inner race or one of the two shaft sealing rings (50, 52) and which opens into the ring-shaped chamber; and - a second pressure medium line which extends from the ring-shaped chamber through the outer race and which is configured to be connected to a wheel fastened on the hub.
Wind turbine yaw drive with a gear assembly comprising a ring gear and at least one pinion gear characterized in that the ring gear comprises a surface which is coated with an abrasion resistant coating and the surface of the at least one pinion gear has a lower hardness than the surface of the ring gear.
A light-emitting module comprising: a light-emitting element unit having outer lateral surfaces and a bottom surface, the light-emitting element unit comprising: a light-emitting element having a main light-emitting surface and lateral surfaces, a light-transmissive member covering the main light-emitting surface of the light-emitting element, and a first light-reflective member covering the lateral surfaces of the light-emitting element; a light-transmissive light-guiding plate having: a first main surface serving as a light-emitting surface, and a second main surface opposite to the first main surface and forming a recess accommodating the light-emitting element unit, the recess having inner lateral surfaces and a bottom surface; a second light-reflective member covering the second main surface of the light-transmissive light-guiding plate and the light-emitting element unit; and a light-transmissive bonding member disposed in contact with the inner lateral surfaces and the bottom surface of the recess, as well as the outer lateral surfaces of the light-emitting element unit and the second main surface of the light-transmissive light-guiding plate, wherein at least a portion of the first light-reflective member is located outside the recess in a sectional view, and is in contact with the light-transmissive bonding member. a light-emitting element having a main light-emitting surface and lateral surfaces, a light-transmissive member covering the main light-emitting surface of the light-emitting element, and a first light-reflective member covering the lateral surfaces of the light-emitting element; a light-transmissive light-guiding plate having: a first main surface serving as a light-emitting surface, and a second main surface opposite to the first main surface and forming a recess accommodating the light-emitting element unit, the recess having inner lateral surfaces and a bottom surface; a first main surface serving as a light-emitting surface, and a second main surface opposite to the first main surface and forming a recess accommodating the light-emitting element unit, the recess having inner lateral surfaces and a bottom surface; a second light-reflective member covering the second main surface of the light-transmissive light-guiding plate and the light-emitting element unit; and a light-transmissive bonding member disposed in contact with the inner lateral surfaces and the bottom surface of the recess, as well as the outer lateral surfaces of the light-emitting element unit and the second main surface of the light-transmissive light-guiding plate, wherein at least a portion of the first light-reflective member is located outside the recess in a sectional view, and is in contact with the light-transmissive bonding member.
Spring brake actuator, providing particularly a service brake function and a parking brake function and comprising a housing with a housing base and a first housing cover, wherein in the housing a compression spring, a dividing wall and a spring brake piston are arranged, the dividing wall separating a spring chamber, in which the compression spring is located, from a parking chamber, the compression spring is enabled to act on the spring brake piston via the dividing wall to provide the parking brake function, in which case the spring brake piston is shifted by the dividing wall through a hole of the housing base in the direction of a diaphragm causing a braking action via a push rod, the spring brake actuator comprises further a mechanical release mechanism with a release bolt and a running nut, the release bolt extending from the outside of the spring brake actuator through a hole of the first housing cover and a hole of the dividing wall into a cavity of the spring brake piston, and the running nut being screwed onto a first outside thread of the release bolt and being adapted to move along the release bolt within the spring brake piston upon a rotational movement of the release bolt, and wherein a compressible spring element (50, 60) is provided, which is trapped inside the spring brake piston, between the running nut and the spring brake piston, characterized in that the compressible spring element (50, 60) is a part being manufactured from a non-metallic material or at least partly from a non-metallic material, in particular from a plastic material. in the housing a compression spring, a dividing wall and a spring brake piston are arranged, the dividing wall separating a spring chamber, in which the compression spring is located, from a parking chamber, the compression spring is enabled to act on the spring brake piston via the dividing wall to provide the parking brake function, in which case the spring brake piston is shifted by the dividing wall through a hole of the housing base in the direction of a diaphragm causing a braking action via a push rod, the spring brake actuator comprises further a mechanical release mechanism with a release bolt and a running nut, the release bolt extending from the outside of the spring brake actuator through a hole of the first housing cover and a hole of the dividing wall into a cavity of the spring brake piston, and the running nut being screwed onto a first outside thread of the release bolt and being adapted to move along the release bolt within the spring brake piston upon a rotational movement of the release bolt, and wherein a compressible spring element (50, 60) is provided, which is trapped inside the spring brake piston, between the running nut and the spring brake piston, characterized in that the compressible spring element (50, 60) is a part being manufactured from a non-metallic material or at least partly from a non-metallic material, in particular from a plastic material.
A method for manufacturing a capacitor, comprising the method steps: a) provision of an electrode body made of an electrode material, wherein a dielectric at least partially covers a surface of this electrode material, to obtain an anode body; b) introduction of a dispersion, which comprises particles of an electrically conductive polymer with a particle size (d 50) of 70 nm and less and a dispersing agent, into at least a part of the anode body; c) at least partial removal of the dispersing agent, to obtain a capacitor body; d) introduction, into the capacitor body, of a polyalkylene glycol or a polyalkylene glycol derivative or a combination of at least two thereof as an impregnating agent. a) provision of an electrode body made of an electrode material, wherein a dielectric at least partially covers a surface of this electrode material, to obtain an anode body; b) introduction of a dispersion, which comprises particles of an electrically conductive polymer with a particle size (d 50) of 70 nm and less and a dispersing agent, into at least a part of the anode body; c) at least partial removal of the dispersing agent, to obtain a capacitor body; d) introduction, into the capacitor body, of a polyalkylene glycol or a polyalkylene glycol derivative or a combination of at least two thereof as an impregnating agent.
Holder (1, 10, 12, 20) for a sample to be cooled to a low temperature in a vacuum space, comprising a carrier body for carrying the sample in thermal contact and contact means (3, 4, 5; 3', 4', 5') for bringing the carrier body into thermal contact with a cooling body to be brought to the low temperature, which contact means (3, 4, 5; 3', 4', 5') can be switched between a first mode, in which there is no thermal contact between the carrier body and the cooling body, and a second mode in which there is thermal contact between the carrier body and the cooling body, wherein the cooling body is provided by the walls of the vacuum space, and the contact means (3, 4, 5; 3', 4', 5') comprise at least one pair of contact bodies (4, 4') which are provided with respective contact surfaces (5, 5') co-acting with at least a part of a wall of the vacuum space, which contact surfaces (5, 5') can be brought into contact simultaneously with the respective wall parts, characterized in that the contact bodies are mutually coupled by respective coupling arms, which are each coupled at an outer end to a contact body for pivoting about a first pivot shaft and coupled at another outer end to a coupling body for pivoting about a second pivot shaft, wherein the respective first and second pivot shafts are mutually parallel and the coupling body is displaceable in a direction transversely of the pivot shafts (7, 8) between a first position, in which the contact means (3, 4, 5; 3', 4', 5') are in the first mode, and a second position in which the contact means (3, 4, 5; 3', 4', 5') are in the second mode.
Bacteroides for use in treating obesity or diabetes, wherein the Bacteroides are at least one of Bacteroides intestinalis DSM 17393, Bacteroides intestinalis JCM 13266 and Bacteroides intestinalis AM-1.
Method for checking the braking force in a vehicle, in which a hydraulic vehicle brake, with a brake booster, and an electromechanical braking apparatus, with an electric brake motor for generating a braking force, act on the same brake piston of a wheel-brake device, wherein for the build-up of a braking force firstly the brake booster sets a defined hydraulic brake pressure in the hydraulic vehicle brake and subsequently an electromechanical braking force is generated by applying torque by means of the electric brake motor, characterized in that a fault signal is generated if a drop in pressure arising in the brake fluid lies outside a permissible range of values.
A wearable body temperature monitoring device, configured to be mounted on an object worn on a to-be-sensed body, and the wearable body temperature monitoring device comprising: a hollow shell member comprising a sensing surface and an outer surface, wherein the sensing surface and the outer surface are two side surfaces opposite to each other, and the sensing surface is provided with a hole; and a circuit board accommodated in the hollow shell member and comprising a first side surface corresponding in position to the sensing surface and a second side surface corresponding in position to the outer surface, wherein the circuit board is provided with a non-contact temperature sensor, a wireless transmission module, a processing unit, and a battery, and the non-contact temperature sensor is disposed at the first side surface and aligned with the hole of the sensing surface; wherein a wave collector covered on the non-contact temperature sensor and aligned with the hole of the sensing surface includes a trumpet-shaped opening; characterized by a clip disposed at the sensing surface of the hollow shell member and configured to fasten with the object and make the hole of the sensing surface face towards the to-be-sensed body; and an indicator light located at the second side surface and exposed out of the outer surface of the hollow shell member, and the processing unit is electrically connected to the indicator light and the non-contact temperature sensor to calculate a temperature sensing value, and control the indicator light to emit light with different colors to indicate a variation of the temperature sensing value. a hollow shell member comprising a sensing surface and an outer surface, wherein the sensing surface and the outer surface are two side surfaces opposite to each other, and the sensing surface is provided with a hole; and a circuit board accommodated in the hollow shell member and comprising a first side surface corresponding in position to the sensing surface and a second side surface corresponding in position to the outer surface, wherein the circuit board is provided with a non-contact temperature sensor, a wireless transmission module, a processing unit, and a battery, and the non-contact temperature sensor is disposed at the first side surface and aligned with the hole of the sensing surface; wherein a wave collector covered on the non-contact temperature sensor and aligned with the hole of the sensing surface includes a trumpet-shaped opening; a clip disposed at the sensing surface of the hollow shell member and configured to fasten with the object and make the hole of the sensing surface face towards the to-be-sensed body; and an indicator light located at the second side surface and exposed out of the outer surface of the hollow shell member, and the processing unit is electrically connected to the indicator light and the non-contact temperature sensor to calculate a temperature sensing value, and control the indicator light to emit light with different colors to indicate a variation of the temperature sensing value.
A display apparatus (100, 200, 300), comprising: a display panel (110, 110_1, 210, 310, 410) including: a plurality of pixels arranged in m rows (ROW_1, ROW_e, ROW_f, ROW_m) and n columns (COL_1, COL_g, COL_p, COL_n); a plurality of gate lines (GL1, GLm) extending in a first direction and connected to the pixels; and a plurality of data lines (DL1, DLn) connected to the pixels, wherein k pixels are in an a-th row (ROW_a) of the rows, n pixels are in each of an e-th row (ROW_e) to an f-th row (ROW_f) of the rows between a first row (ROW_1) and an m-th row (ROW_m) that is a last row, and a number of pixels equal to or greater than k and less than n are in each of the remaining rows, where a, k, e, f, m, and n are natural numbers and f is equal to or greater than e, wherein n>k, and characterized in that L data lines (DL1, DLn) are arranged in each first area of the a-th row, the first areas being the k-1 areas between adjacent pixels of the a-th row plus one area adjacent to a side of one of the pixel of the first column (COL_g) and the last column (COL_p) of the a-th row, said side being opposite to the side facing the remaining pixels of the a-th row, wherein L is a natural number based on a value obtained by dividing n by k so that n=k*Q+b, with b and Q being a natural number and wherein: L=n/k, when b=0, and L equal one of Q and Q+1, when b is greater than 0, wherein, Q+1 data lines are arranged in b first areas and Q data lines are arranged in the remaining first areas. a plurality of pixels arranged in m rows (ROW_1, ROW_e, ROW_f, ROW_m) and n columns (COL_1, COL_g, COL_p, COL_n); a plurality of gate lines (GL1, GLm) extending in a first direction and connected to the pixels; and a plurality of data lines (DL1, DLn) connected to the pixels, wherein k pixels are in an a-th row (ROW_a) of the rows, n pixels are in each of an e-th row (ROW_e) to an f-th row (ROW_f) of the rows between a first row (ROW_1) and an m-th row (ROW_m) that is a last row, and a number of pixels equal to or greater than k and less than n are in each of the remaining rows, where a, k, e, f, m, and n are natural numbers and f is equal to or greater than e, wherein n>k, and L=n/k, when b=0, and L equal one of Q and Q+1, when b is greater than 0, wherein, Q+1 data lines are arranged in b first areas and Q data lines are arranged in the remaining first areas.
A synchronization method, comprising: receiving, by a second access point, a monophonic signal transmitted by a first access point, wherein the monophonic signal is a signal with a single frequency; determining, by the second access point, a frequency offset between a first carrier and a second carrier based on the monophonic signal, wherein the first carrier is used by the first access point to transmit the monophonic signal, and the second carrier is used by the second access point to receive the monophonic signal; performing, by the second access point, phase compensation on a target data frame based on the frequency offset, so that a difference between a phase of the second carrier and a phase of the first carrier is less than or equal to a first threshold; and transmitting, by the second access point, a phase-compensated target data frame by using the second carrier. receiving, by a second access point, a monophonic signal transmitted by a first access point, wherein the monophonic signal is a signal with a single frequency; determining, by the second access point, a frequency offset between a first carrier and a second carrier based on the monophonic signal, wherein the first carrier is used by the first access point to transmit the monophonic signal, and the second carrier is used by the second access point to receive the monophonic signal; performing, by the second access point, phase compensation on a target data frame based on the frequency offset, so that a difference between a phase of the second carrier and a phase of the first carrier is less than or equal to a first threshold; and transmitting, by the second access point, a phase-compensated target data frame by using the second carrier.
A robot cleaner, comprising: a frame including a wheel for driving; a replaceable cleaning unit (70, 83), disposed to clean a surface, and disposed in front of the wheel; the robot cleaner further comprising: a tank disposed at an upper part of the wheel, and configured to supply fluid to the cleaning unit; a pump configured to pump the fluid contained in the tank such that the fluid contained in the tank is supplied to the cleaning unit; a hose configured to extend to the pump and the upper part of the cleaning unit, and through which the fluid pumped by the pump flows; and a bumper (2,3) formed on a side of the frame, characterized in that the replaceable cleaning unit includes: a first frame; a second frame hinge-coupled to the first frame; and a pad fixed between the first frame and the second frame to clean the surface, wherein the first frame is disposed to be hook-coupled to the second frame after the pad is inserted between the first frame and the second frame. a frame including a wheel for driving; a replaceable cleaning unit (70, 83), disposed to clean a surface, and disposed in front of the wheel; the robot cleaner further comprising: a tank disposed at an upper part of the wheel, and configured to supply fluid to the cleaning unit; a pump configured to pump the fluid contained in the tank such that the fluid contained in the tank is supplied to the cleaning unit; a hose configured to extend to the pump and the upper part of the cleaning unit, and through which the fluid pumped by the pump flows; and a bumper (2,3) formed on a side of the frame, characterized in that the replaceable cleaning unit includes: a first frame; a second frame hinge-coupled to the first frame; and a pad fixed between the first frame and the second frame to clean the surface, a tank disposed at an upper part of the wheel, and configured to supply fluid to the cleaning unit; a pump configured to pump the fluid contained in the tank such that the fluid contained in the tank is supplied to the cleaning unit; a hose configured to extend to the pump and the upper part of the cleaning unit, and through which the fluid pumped by the pump flows; and a bumper (2,3) formed on a side of the frame, characterized in that the replaceable cleaning unit includes: a first frame; a second frame hinge-coupled to the first frame; and a pad fixed between the first frame and the second frame to clean the surface, wherein the first frame is disposed to be hook-coupled to the second frame after the pad is inserted between the first frame and the second frame.
Method for determining at least one speed of a machine, wherein on the basis of the measurement of a vibration variable carried out on the machine over time, the complex spectrum of this variable is determined, wherein a frequency interpolation is carried out; boundary conditions are established for the evaluation of the spectrum, which include the permissible frequency range of an expected main speed, a set of relative frequencies with respect to the main speed, and a weighting factor for the particular relative frequency, wherein the relative frequencies are established in the form of frequency multipliers; a spectral probability density is calculated with consideration for these boundary conditions, which results for each frequency of the permissible frequency range as a sum of the amplitude of the spectrum, which has been weighted with the particular weighting factor, at the frequency multiplied by the particular frequency multiplier; and the main speed is determined on the basis of the frequency having the maximum probability density.