mhurhangee/ep-ind-claims huggingface dataset:
Telescopic shaft for motor vehicles, which comprises an inner shaft with a first length axis, an outer shaft with a second length axis, which defines a tube and surrounds a part of the inner shaft and which is movable in the axial direction in relation to the inner shaft, two ball tracks (8, 9) arranged in the inner shaft, and balls arranged in the ball tracks (8, 9), wherein the inner shaft is arranged so that turning of the inner shaft in relation to the outer shaft is prevented, wherein each one of the ball tracks (8, 9) comprises an outer ball track portion and an inner ball track portion for returning the balls to the outer ball track portion, wherein the outer ball track portion is partly open so that the balls which are arranged in the outer ball track portion are arranged to roll between the outer ball track portion and the inside of the outer shaft when the inner shaft is moved axially in relation to the outer shaft, characterized in that the telescopic shaft comprises a ball holding member which is arranged fixed on the inner shaft, in which ball holding member the inner ball track portions and the outer ball track portions are arranged, at least one end cover which connects the inner ball track portions and the outer ball track portions in one end of the ball holding member along the first length axis, at least one movable ball track member which constitutes at least a part of the outer ball track portion and a spring member which is arranged between the inner shaft and the movable ball track member, which spring member is arranged to press the movable ball track member and the balls arranged in the ball track member against the inside of the outer shaft, in order to pretension the telescopic shaft.
A continuous cycle bottling line for containers of thermoplastic material, comprising: - at least one moulding unit for making parisons of thermoplastic material from the thermoplastic material in its raw form; - at least one blow-moulding unit configured to receive the parisons and to blow-mould them in such a way as to make containers designed to be filled; - at least one filling unit configured to receive the containers from the blow-moulding unit and to fill them with liquid or semi-liquid food products; - an automatic storage system internally defining a controlled atmosphere, configured to contain the parisons; - a parison thermal conditioning structure configured to receive the parisons from the moulding unit and to heat and cool the parisons, wherein the thermal conditioning structure includes at least one cooling module, connected downstream of the parison moulding unit to receive parisons to be cooled and to the storage system to transfer the cooled parisons, and at least one heating module connected to the storage system to receive previously stored parisons to be heated and connected upstream of the blow-moulding unit in order to feed it with heated parisons; - at least one sterilizing unit configured to sterilize objects processed by the line, wherein these objects include parisons or containers, wherein the continuous cycle bottling line is characterized in that the automatic storage system comprises a plurality of drawers; a structure defining a plurality of housings for the drawers, the housings being arranged in a plurality of juxtaposed columns; a lift, which includes a carriage designed to receive and move the drawers. - at least one moulding unit for making parisons of thermoplastic material from the thermoplastic material in its raw form; - at least one blow-moulding unit configured to receive the parisons and to blow-mould them in such a way as to make containers designed to be filled; - at least one filling unit configured to receive the containers from the blow-moulding unit and to fill them with liquid or semi-liquid food products; - an automatic storage system internally defining a controlled atmosphere, configured to contain the parisons; - a parison thermal conditioning structure configured to receive the parisons from the moulding unit and to heat and cool the parisons, wherein the thermal conditioning structure includes at least one cooling module, connected downstream of the parison moulding unit to receive parisons to be cooled and to the storage system to transfer the cooled parisons, and at least one heating module connected to the storage system to receive previously stored parisons to be heated and connected upstream of the blow-moulding unit in order to feed it with heated parisons; - at least one sterilizing unit configured to sterilize objects processed by the line, wherein these objects include parisons or containers, wherein the continuous cycle bottling line is characterized in that the automatic storage system comprises
A method of making a doped graphene thin film, the method comprising: hetero-epitaxially growing an intermediate graphene thin film on a catalyst thin film, the catalyst thin film having a single-orientation large-grain crystal structure; doping the intermediate graphene thin film with n-type or p-type dopants in making the doped graphene thin film, wherein the doped graphene thin film has a sheet resistance less than 150 ohms/square, wherein the doping of the intermediate graphene thin film comprises: pre-implanting solid state dopants in the catalyst thin film; and allowing the solid-state dopants in the catalyst thin film to migrate into the intermediate graphene thin film by thermal diffusion, wherein the catalyst thin film includes 1-5% solid-state dopant atoms in its bulk. hetero-epitaxially growing an intermediate graphene thin film on a catalyst thin film, the catalyst thin film having a single-orientation large-grain crystal structure; doping the intermediate graphene thin film with n-type or p-type dopants in making the doped graphene thin film, wherein the doped graphene thin film has a sheet resistance less than 150 ohms/square, wherein the doping of the intermediate graphene thin film comprises: pre-implanting solid state dopants in the catalyst thin film; and allowing the solid-state dopants in the catalyst thin film to migrate into the intermediate graphene thin film by thermal diffusion, wherein the catalyst thin film includes 1-5% solid-state dopant atoms in its bulk. pre-implanting solid state dopants in the catalyst thin film; and allowing the solid-state dopants in the catalyst thin film to migrate into the intermediate graphene thin film by thermal diffusion, wherein the catalyst thin film includes 1-5% solid-state dopant atoms in its bulk.
An imaging device comprising a plurality of light sources, an illuminating optical system comprising a light guide (15, 16, 172) configured to reflect and diffuse light from the plurality of light sources received by a first surface, and an imaging optical system that is arranged on an inner side of the illuminating optical system and that is configured to receive light reflected from the target object and to pick up an image corresponding to at least a part of the target object; the imaging device being configured such that light reflected from the target object enters a space on an inner side of the illuminating optical system; wherein the illuminating optical system comprises a first illuminating optical element forming the first surface, and a second illuminating optical element provided on the first illuminating optical element and forming a second surface; and wherein a first diffusing surface is provided at the first illuminating optical element, characterized in that: the first surface has a groove (15-1, 15-2, 15-20) under which the plurality of light sources are arranged; the first diffusing surface is provided between the first illuminating optical element and the second illuminating optical element; the second surface has a concave shape (16-1C, 16-1D) that is curved inwards toward the first surface; and a second diffusing surface is provided on the second surface.
Tyre pressure monitoring unit to be disposed within a motor vehicle tyre for measuring the tyre inflation pressure, wherein the tyre pressure monitoring unit has a housing, in which electronic parts (8, 9) and at least one pressure sensor are arranged, wherein the housing has an air inlet, by means of which the tyre inflation pressure is applied to the pressure sensor, characterised in that the housing is designed as a multi-component plastic injection-moulded part, in particular as a two-component plastic injection-moulded part, wherein a first component forms a lower housing shell and an upper housing shell and wherein a second component forms a seal between the air inlet and the pressure sensor.
Adjustment mechanism for adjusting a bridge of a timepiece movement of a watch, fixed to a structure, said adjustment mechanism comprising, coaxial and movable one with respect to the other by sliding along a common axis and/or in rotation with respect to said axis, which defines the adjustment direction, and returned one towards the other by an elastic return means or pressed one against the other by a clamping means, a first component arranged so as to be fixed to said structure or to said bridge, and at least one second component (4, 8) arranged so as to be fixed to said bridge or respectively to said structure, said first component including, on a first annular or circular sector around said axis, a first relief (3, 7) facing a second relief that said second component (4, 8) includes on a second annular or respectively circular sector around said axis, said first relief (3, 7) and said second relief having variable cooperation depending on the relative angular position between said first component and said second component (4, 8), each said particular relative angular position defining a particular distance H value between reference surfaces (S1, S2) perpendicular to said axis of said first component and of said second component (4, 8), characterised in that said first relief (3, 7) and said second relief are arranged to guide said first component and said second component (4, 8) in an additional relative rotation towards a stable position among a finite number of stable equilibrium positions when they are pushed one towards the other, and in that each said stable position corresponds to a particular distance value among a finite number of possible distance values between said reference surfaces (S1, S2).
A vapor chamber based on a flat plate loop heat pipe, wherein the vapor chamber is suitable to be attached to heat sources, and is characterized by comprising: a heat spreading plate and the flat plate loop heat pipe composed of an evaporator, a reservoir and a gas/liquid line; the flat plate loop heat pipe is pre-buried in the heat spreading plate; the evaporator is arranged at a position, that, in use, may be attached to a biggest heat source in the heat sources, on the heat spreading plate; the reservoir is used to supply liquid to the evaporator; heat source attached regions are positions that are, in use, suitable to be attached to other heat sources except the biggest heat source in the heat sources, on the heat spreading plate, and heat sink attached regions are positions not intended to be attached, in use, to the heat sources, on the heat spreading plate; the gas/liquid line led out from an outlet of the evaporator is cyclically disposed between the heat source attached regions and the heat sink attached regions on the heat spreading plate, so that, when in use, a liquid working fluid enters the heat sink attached regions after absorbing heat of the heat source attached regions and being evaporated into vapor, and a gas working fluid releases heat in the heat sink attached regions and is condensed into liquid; and circulation is performed hereby, and the working fluid finally flows back into the reservoir after being condensed by the heat sink attached regions into liquid, thus forming a loop. the gas/liquid line led out from an outlet of the evaporator is cyclically disposed between the heat source attached regions and the heat sink attached regions on the heat spreading plate, so that, when in use, a liquid working fluid enters the heat sink attached regions after absorbing heat of the heat source attached regions and being evaporated into vapor, and a gas working fluid releases heat in the heat sink attached regions and is condensed into liquid; and circulation is performed hereby, and the working fluid finally flows back into the reservoir after being condensed by the heat sink attached regions into liquid, thus forming a loop.
Method for producing an aerosol can main part, wherein the method comprises the steps: - a) extruding a slug into a can main part blank comprising a can body, a can shoulder and a can neck, wherein the can shoulder has a shoulder wall thickness of at least 180 um, wherein the can body has a body wall thickness of at least 150 um and of at most 300 um, and wherein the shoulder wall thickness is at least 1.2 times as large as the body wall thickness, and - b) supporting the can shoulder on an inside of the can shoulder by means of a support device, and forming at least one portion of the can neck into a spray valve seat while supported. - a) extruding a slug into a can main part blank comprising a can body, a can shoulder and a can neck, wherein the can shoulder has a shoulder wall thickness of at least 180 um, wherein the can body has a body wall thickness of at least 150 um and of at most 300 um, and wherein the shoulder wall thickness is at least 1.2 times as large as the body wall thickness, and - b) supporting the can shoulder on an inside of the can shoulder by means of a support device, and forming at least one portion of the can neck into a spray valve seat while supported.
Bidirectional wireless data transmission method for transmitting measured value data messages in an unsynchronized manner from meter transmitters via wireless uplink connections to a concentrator receiver and with wireless downlink connections of a concentrator transmitter to meter receivers, characterized in that, in the concentrator, information relating to the quality of a receivable wireless uplink connection compared with at least one other receivable wireless uplink connection is determined in a program-controlled manner and at least one parameter of at least one of the wireless uplink connections is influenced via the wireless downlink connection in the sense that it is reduced in the direction of the quality of a poorer but still functional wireless uplink connection.
Device for checking the operability of a container inspection unit, comprising: - at least one test container (1, 11), on which at least one test feature (3-6, 13) and a data carrier with information for identifying the test container (1, 11) are provided; and - a reading unit for reading the data carrier, wherein the information is stored in the form of a code on the data carrier, characterized in that the code is a standardized, optically readable, multidimensional code, and the device is configured to individually assign a reference value to the test container (1, 11) with the help of the reading unit and to derive a desired value for the inspection of the test feature, in particular in that information stored centrally in an evaluation unit about the test container and/or the test feature is assigned to the respective test feature (3-6, 13) after identification of the test container (1, 11). - at least one test container (1, 11), on which at least one test feature (3-6, 13) and a data carrier with information for identifying the test container (1, 11) are provided; and - a reading unit for reading the data carrier, wherein the information is stored in the form of a code on the data carrier,
An apparatus for engaging an electrical conductor, comprising: a gripping contact having a plurality of fingers on a first end thereof, and an internally threaded bore on a second distal end thereof, the plurality of fingers having a substantially conical outer surface; a contact receptacle having a substantially conical inner surface; and a male threaded tension member threadedly engageable with the internally threaded bore of the gripping contact, wherein the apparatus has a fully engaged configuration in which the tension member engages the internally threaded bore of the gripping contact, to pull the gripping contact into the contact receptacle, characterized in that, in the fully engaged configuration, the substantially conical outer surface of the fingers engages the substantially conical inner surface along the axial length of the substantially conical outer surface, so as to force the plurality of fingers to compress engagingly an electrical conductor placed between the fingers. a gripping contact having a plurality of fingers on a first end thereof, and an internally threaded bore on a second distal end thereof, the plurality of fingers having a substantially conical outer surface; a contact receptacle having a substantially conical inner surface; and a male threaded tension member threadedly engageable with the internally threaded bore of the gripping contact,
A light emitting device, comprising: a base substrate having a recessed portion at an upper surface thereof, the diameter of the recessed portion being enlarged upward from a bottom surface thereof, in which an inclination angle is in a range of 95° or more and 120° or less from the bottom surface of the recessed portion; a light emitting element provided in the recessed portion; and a sealing member provided in the recessed portion, wherein the sealing member contains surface-treated particles, or particles with a dispersing agent adsorbed thereto, and half or more of an edge portion of the sealing member is a region located in the vicinity of an edge of the recessed portion, at least either one of the particles and aggregates of particles being unevenly distributed in the region, wherein the edge of the recessed portion of the base substrate is a boundary between an inner wall surface of the recessed portion of the base substrate and the upper surface, characterized in that the particles are nanoparticles having a diameter of 1 nm or more and 100 nm or less and the sealing member contains phosphors, wherein the phosphors are unevenly distributed on a bottom side of the recessed portion.
Cleaning device for a mechanical cleaning of a gas nozzle of a protective gas welding burner, comprising a controlled, rotatably driven cleaning head having at least one co-rotating cleaning element, and a supplying and centring device to provide a coaxial position of the gas nozzle with respect to the axis of rotation of the cleaning head in the region of the at least one cleaning element, characterised in that the cleaning element is in the form of cleaning scissors with two cleaning arms (19, 20), which are arranged suspended so as to form scissors that swing freely on a pivot bearing transversely to the axis of rotation in the cleaning head, that on each of the cleaning arms (19, 20) are arranged centrifugal weights (23, 24) on the end regions facing away from the gas nozzle, so that with a rotation of the cleaning head the cleaning scissors are spread open, that the cleaning arms (19, 20) each have on the upper end regions facing towards the gas nozzle scraper structures (27, 28), which are introduced in the folded state of the cleaning scissors into the gas nozzle and which, when the cleaning scissors are spread open, are pressed with a rotation of the cleaning head, in a sliding and scraping manner, to the gas nozzle inner surface of the gas nozzle held in a rotationally fixed manner.
Process for producing one or more reaction products by means of a build-up reaction, in which higher-molecular-weight compounds are formed at least in part from low-molecular-weight compounds of a synthesis gas, wherein the low-molecular-weight compound is a class of substances having a low molecular mass which have lower molecular masses than the higher-molecular-weight compound, comprising the steps: - providing the synthesis gas comprising CO and H 2 - introducing at least a part of the synthesis gas into a reactor and also carrying out the build-up reaction in the reactor, wherein a product stream containing the higher-molecular-weight compounds, CO 2, CO and H 2 is generated, - separating the product stream in a separation appliance into a first stream having the higher-molecular-weight compounds, and also into a second stream comprising CO 2, CO, H 2 wherein at least CO 2 is separated off from the second stream in a temperature-swing adsorption appliance downstream of the separation appliance by means of temperature-swing adsorption, wherein, in the temperature-swing adsorption, the CO 2 is adsorbed to at least one adsorbent and the at least one CO 2 -loaded adsorbent is regenerated by heating the at least one adsorbent, wherein CO 2 is desorbed, and wherein the at least one loaded adsorbent is heated by transferring at least heat of a fluid heat-carrier medium indirectly to the adsorbent, wherein the stream that is withdrawn from the temperature-swing adsorption appliance and from which the CO 2 was separated off is fed in the circuit to the reactor, characterized in that the synthesis gas, before it is introduced into the reactor, is passed into the temperature-swing adsorption appliance. - providing the synthesis gas comprising CO and H 2 - introducing at least a part of the synthesis gas into a reactor and also carrying out the build-up reaction in the reactor, wherein a product stream containing the higher-molecular-weight compounds, CO 2, CO and H 2 is generated, - separating the product stream in a separation appliance into a first stream having the higher-molecular-weight compounds, and also into a second stream comprising CO 2, CO, H 2
An assembly for a gas turbine engine, comprising: a seal support assembly; and a seal element mounted to the seal support assembly, the seal element configured with a seal element fluid passage, characterised in that: the assembly comprises a guide pin configured with a pin fluid passage; the seal support assembly is mated with and slidable along the guide pin; and the seal element fluid passage is fluidly coupled with the pin fluid passage through the seal support assembly. a seal support assembly; and a seal element mounted to the seal support assembly, the seal element configured with a seal element fluid passage, characterised in that: the assembly comprises a guide pin configured with a pin fluid passage; the seal support assembly is mated with and slidable along the guide pin; and the seal element fluid passage is fluidly coupled with the pin fluid passage through the seal support assembly. the assembly comprises a guide pin configured with a pin fluid passage; the seal support assembly is mated with and slidable along the guide pin; and the seal element fluid passage is fluidly coupled with the pin fluid passage through the seal support assembly.
A human anti-CD38 specific antibody comprising: (i) an H-CDR1, H-CDR2 and H-CDR3 region depicted in SEQ ID NO: 21, and an L-CDR1, L-CDR2 and L-CDR3 region depicted in SEQ ID NO: 51; (ii) a variable heavy chain of SEQ ID NO: 21, and a variable light chain of SEQ ID NO: 51; or (iii) a variable heavy chain encoded by SEQ ID NO: 6, and a variable light chain encoded by SEQ ID NO: 36. (i) an H-CDR1, H-CDR2 and H-CDR3 region depicted in SEQ ID NO: 21, and an L-CDR1, L-CDR2 and L-CDR3 region depicted in SEQ ID NO: 51; (ii) a variable heavy chain of SEQ ID NO: 21, and a variable light chain of SEQ ID NO: 51; or (iii) a variable heavy chain encoded by SEQ ID NO: 6, and a variable light chain encoded by SEQ ID NO: 36.