mhurhangee/ep-ind-claims huggingface dataset:
An agricultural distributor machine for distributing a granular or grainy material such as fertiliser or seed, having a transport system for transporting a gas flow, wherein the transport system has a hose connection device, said hose connection device comprising: - a hose line having an elastic, dimensionally stable hose through which a gas flow is transported; - a plug receptacle in which a plug opening is arranged in a surrounding wall; and - a plug component with an opening for transporting the gas flow, wherein the plug component can be inserted into the plug opening with a proximal end portion and wherein a hose end of the elastic, dimensionally stable hose is received at a distal end portion, wherein the proximal end portion has at least one flexible tongue (32, 33) with a locking protrusion (34, 35); wherein an edge of the wall surrounding the plug opening has a saddle shape on one side facing away from the plug component, such that first edge sections (41a, 41b), which are opposite to each other along a first imaginary connecting line crossing the plug opening, are recessed relative to second edge sections (42a, 42b), which are opposite to each other along a second imaginary connecting line crossing the plug opening, which extends transversely to the first imaginary connecting line; wherein, when the proximal end portion is inserted into the plug opening, the plug component can be rotated between a coupling position, in which the locking protrusion (34, 35) of the flexible tongue reaches behind the edge in the area of one of the first edge sections (41a, 41b) in a locking position, and an uncoupling position, in which the flexible tongue (32, 33) is pushed inward, such that the locking protrusion (34, 35) in a non-locking position is arranged at least partially on an interior surface of the surrounding wall facing the plug opening in the area adjacent to one of the second edge sections (42a, 42b) and is pre-tensioned against the interior surface; and wherein a ramp mechanism with ramps (43a, 43b) allocated to each other is provided on the plug receptacle and the plug component, in which the ramps (43a, 43b) slide on top of each other at least during the transition from the coupling position to the uncoupling position effected by means of the rotation of the plug receptacle relative to the plug component about a rotational axis, thereby moving the plug receptacle and the plug component away from each other in the axial direction of the rotational axis. - a hose line having an elastic, dimensionally stable hose through which a gas flow is transported; - a plug receptacle in which a plug opening is arranged in a surrounding wall; and - a plug component with an opening for transporting the gas flow, wherein the plug component can be inserted into the plug opening with a proximal end portion and wherein a hose end of the elastic, dimensionally stable hose is received at a distal end portion, wherein the proximal end portion has at least one flexible tongue (32, 33) with a locking protrusion (34, 35);
A non-aqueous electrolyte for a lithium ion battery, comprising one or more compounds A represented by formula 1, wherein R 1 is independently selected from a halogen atom or a group containing 1-5 carbon atoms, and R 2 is independently selected from a group containing 0-5 carbon atoms; X 1 is independently selected from a phosphorus oxygen group or a phosphorus atom; X 2 is independently selected from an oxygen atom, a carboxylate group, a sulfonate group or a carbonate group.
A coupling device for the attachment of an airbag module to a steering wheel base body of a vehicle steering wheel in an oscillatory manner, comprising a mounting member having, with respect to a steering wheel axis, an axial lower side which faces the steering wheel base body in the assembled state of the vehicle steering wheel, and an opposite axial upper side which faces the airbag module in the assembled state of the vehicle steering wheel, an abutment face for a damping element provided on the axial lower side for coupling the mounting member to the steering wheel base body in an oscillatory manner, and a latching element disposed on the upper side of the mounting member for latching with the airbag module, wherein the latching element is configured so that the airbag module can be coupled to the mounting member by a latching connection to be substantially axially fixed or axially movable to a restricted extent, characterized in that the coupling device includes a damping element which abuts on the abutment face on the axial lower side of the mounting member and couples the mounting member to the steering wheel base body in an oscillatory manner so that, with respect to the mounting member, vibration is absorbed on the side of the steering wheel base body, whereas a horn function is realized on the airbag module side.
A steering mechanism for use in a medical device, comprising: a first lever rotatable about a first axis, the first lever coupled to a first cam and configured to move the first cam from a first position to a second position when rotated about the first axis to deflect the distal portion; a second lever rotatable about a second axis, the second lever coupled to a second cam and configured to move the second cam from a first position to a second position when rotated about the second axis to deflect the distal portion, wherein the first lever is coupled to the second lever; a housing coupled to the first lever and the second lever, the housing having a proximal end and a distal end, wherein the first lever and the second lever are curved to match a curvature of an end of the housing; and an object connecting the first lever to the second lever, wherein the first lever includes a first slot and the second lever includes a second slot, and the object is configured to simultaneously slide within the first slot and the second slot on the outside of the curved end of the housing so as to rotate the first lever and/or the second lever, wherein the first lever has a first end coupled to the housing at a first pivot and a second free end and wherein the second lever has a first end coupled to the housing at a second pivot and a second free end. a first lever rotatable about a first axis, the first lever coupled to a first cam and configured to move the first cam from a first position to a second position when rotated about the first axis to deflect the distal portion; a second lever rotatable about a second axis, the second lever coupled to a second cam and configured to move the second cam from a first position to a second position when rotated about the second axis to deflect the distal portion, wherein the first lever is coupled to the second lever; a housing coupled to the first lever and the second lever, the housing having a proximal end and a distal end, wherein the first lever and the second lever are curved to match a curvature of an end of the housing; and an object connecting the first lever to the second lever, wherein the first lever includes a first slot and the second lever includes a second slot, and the object is configured to simultaneously slide within the first slot and the second slot on the outside of the curved end of the housing so as to rotate the first lever and/or the second lever, wherein the first lever has a first end coupled to the housing at a first pivot and a second free end and wherein the second lever has a first end coupled to the housing at a second pivot and a second free end.
A method for making a glove, the method comprising:- a) providing a liner, b) coating at least part of the liner with at least one polymeric material comprising polyvinyl chloride paste to form an inner layer, c) at least partially gelling the inner layer, d) coating at least a portion of the at least partially gelled inner layer with polyvinyl chloride paste to form an outer layer, e) applying particles of a soluble solid to the outer layer, wherein 50-99% of the particles have a particle size in the range 400 to 900μm, f) at least partially gelling the outer layer, g) leaching the at least partially gelled outer layer with a solvent, so that the particles of the soluble solid dissolve leaving indentations in the outer layer, and h) curing the outer layer. a) providing a liner, b) coating at least part of the liner with at least one polymeric material comprising polyvinyl chloride paste to form an inner layer, c) at least partially gelling the inner layer, d) coating at least a portion of the at least partially gelled inner layer with polyvinyl chloride paste to form an outer layer, e) applying particles of a soluble solid to the outer layer, wherein 50-99% of the particles have a particle size in the range 400 to 900μm, f) at least partially gelling the outer layer, g) leaching the at least partially gelled outer layer with a solvent, so that the particles of the soluble solid dissolve leaving indentations in the outer layer, and h) curing the outer layer.
A method for making an electrical connection between an electronic chip and a support plate on which this chip is mounted, comprising the following steps: placing an electrical connection wire between an exposed electrical connection pad of the electronic chip and an exposed electrical connection pad of the support plate and making electrical junctions (14, 15) between the ends of the wire and the pads, producing a local dielectric coating made of a dielectric material, which surrounds the electrical connection wire and covers the pads (7, 10) and the junctions, by local distribution of a determined amount of the dielectric material in the liquid state, in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe, and hardening this dielectric material, and producing a local conductive shield from an electrically conductive material, which covers said local dielectric coating, by local distribution of a determined amount of an electrically conductive material in the liquid state, in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe, and hardening this conductive material. placing an electrical connection wire between an exposed electrical connection pad of the electronic chip and an exposed electrical connection pad of the support plate and making electrical junctions (14, 15) between the ends of the wire and the pads, producing a local dielectric coating made of a dielectric material, which surrounds the electrical connection wire and covers the pads (7, 10) and the junctions, by local distribution of a determined amount of the dielectric material in the liquid state, in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe, and hardening this dielectric material, and producing a local conductive shield from an electrically conductive material, which covers said local dielectric coating, by local distribution of a determined amount of an electrically conductive material in the liquid state, in the form of a calibrated drop which flows by capillarity or wetting effect, using a controlled tool comprising a controlled dispensing syringe, and hardening this conductive material.
A method of manufacturing a display panel, the method comprising: forming a mother panel on a base substrate; attaching an upper passivation film to the mother panel; detaching the base substrate from the mother panel; attaching a lower film to the mother panel; and cutting the mother panel to which the upper passivation film and the lower film are attached to form the display panel, the display panel being in a form of a cell unit, wherein the display panel includes a display substrate, a display device layer formed on the display substrate, and a thin film encapsulation layer formed on the display device layer, the upper passivation film is attached to the thin film encapsulation layer, the thin film encapsulation layer is formed by alternately laminating one or more organic layers and one or more inorganic layers, and the method further comprises: removing the upper passivation film from the thin film encapsulation layer of the display panel after being in the form of the cell unit and attaching a functional layer to the thin film encapsulation layer. forming a mother panel on a base substrate; attaching an upper passivation film to the mother panel; detaching the base substrate from the mother panel; attaching a lower film to the mother panel; and cutting the mother panel to which the upper passivation film and the lower film are attached to form the display panel, the display panel being in a form of a cell unit, wherein the display panel includes a display substrate, a display device layer formed on the display substrate, and a thin film encapsulation layer formed on the display device layer, the upper passivation film is attached to the thin film encapsulation layer, the thin film encapsulation layer is formed by alternately laminating one or more organic layers and one or more inorganic layers, and the method further comprises: removing the upper passivation film from the thin film encapsulation layer of the display panel after being in the form of the cell unit and attaching a functional layer to the thin film encapsulation layer. removing the upper passivation film from the thin film encapsulation layer of the display panel after being in the form of the cell unit and attaching a functional layer to the thin film encapsulation layer.
A method for wireless communication at a user equipment, UE, comprising: receiving, from a first access point using a first radio access technology, RAT, a configuration associated with a logical traffic connection, the configuration comprising at least one parameter for communicating data associated with the logical traffic connection via a second access point associated with a second RAT; characterized by estimating a subset of a total amount of data buffered in a packet data convergence protocol, PDCP, queue associated with the logical traffic connection expected to be transmitted via the second access point for a time period ending at an expected time of receipt of an uplink grant from the first access point; wherein the subset of the total amount of data is estimated based at least in part on a minimum data size associated with communicating with the second access point using the second RAT, a maximum data size associated with communicating with the second access point using the second RAT, a history of uplink transmission scheduling by the first access point, or combinations thereof; determining a buffer reporting value associated with the logical traffic connection based at least in part on the subset of the total amount of data and the at least one parameter; and transmitting a buffer status report, BSR, including the buffer reporting value to the first access point. receiving, from a first access point using a first radio access technology, RAT, a configuration associated with a logical traffic connection, the configuration comprising at least one parameter for communicating data associated with the logical traffic connection via a second access point associated with a second RAT; characterized by estimating a subset of a total amount of data buffered in a packet data convergence protocol, PDCP, queue associated with the logical traffic connection expected to be transmitted via the second access point for a time period ending at an expected time of receipt of an uplink grant from the first access point; wherein the subset of the total amount of data is estimated based at least in part on a minimum data size associated with communicating with the second access point using the second RAT, a maximum data size associated with communicating with the second access point using the second RAT, a history of uplink transmission scheduling by the first access point, or combinations thereof; determining a buffer reporting value associated with the logical traffic connection based at least in part on the subset of the total amount of data and the at least one parameter; and transmitting a buffer status report, BSR, including the buffer reporting value to the first access point.
A method for three-dimensional segmentation based on machine learning in a medical imaging system, the method comprising: loading, from memory, a medical dataset representing a three-dimensional region of a patient; applying, by a machine, the medical dataset to a multi-scale deep reinforcement machine-learnt model, the multi-scale deep reinforcement machine-learned model trained with multi-scale deep reinforcement learning to segment boundaries of a three-dimensional object from the medical dataset, the multi-scale deep reinforcement machine-learnt model including a machine-learnt policy for shape evolution over iterative refinements of the boundaries, the boundaries and refinements described using statistical shape-modeling, front propagation modeling, or voxel mask modeling; and rendering, by a renderer, an image of the three-dimensional object based on the boundaries determined with the policy, wherein applying comprises applying the multi-scale deep reinforcement machine learnt model trained as a Markov decision process with deep Q-learning. loading, from memory, a medical dataset representing a three-dimensional region of a patient; applying, by a machine, the medical dataset to a multi-scale deep reinforcement machine-learnt model, the multi-scale deep reinforcement machine-learned model trained with multi-scale deep reinforcement learning to segment boundaries of a three-dimensional object from the medical dataset, the multi-scale deep reinforcement machine-learnt model including a machine-learnt policy for shape evolution over iterative refinements of the boundaries, the boundaries and refinements described using statistical shape-modeling, front propagation modeling, or voxel mask modeling; and rendering, by a renderer, an image of the three-dimensional object based on the boundaries determined with the policy, wherein applying comprises applying the multi-scale deep reinforcement machine learnt model trained as a Markov decision process with deep Q-learning.
Process for making up an area of human keratin materials using a makeup device (1, 1') comprising a deformable substrate bearing a transfer surface intended to come into contact with the keratin materials and configured to receive a coat of cosmetic ink, the process comprising the following steps: a. depositing at least one cosmetic ink onto the transfer surface by means of at least one digital printer, b. placing the transfer surface in contact with the area to be made up by mechanical action, especially by exerting a pressure on a surface opposite the transfer surface, c. moving the transfer surface away from the area of the human keratin materials after the ink has been transferred, in which process, the substrate is plated on the support of the device (1, 1'), at least during step b) of placing the transfer surface in contact with the area to be made up, and between the printing step a) and step b) of placing the transfer surface in contact with the area to be made up, the substrate is plated onto an imprint of the support via the action of deformation means. a. depositing at least one cosmetic ink onto the transfer surface by means of at least one digital printer, b. placing the transfer surface in contact with the area to be made up by mechanical action, especially by exerting a pressure on a surface opposite the transfer surface, c. moving the transfer surface away from the area of the human keratin materials after the ink has been transferred,
A matrix converter for converting electricity between at least one voltage source, in particular a supply system, and at least one current source, in particular a charge, said converter including a matrix of switches (6; 16) connecting said voltage sources to said current sources, characterized in that said switches (6, 16) each include two terminals (5, 9; 15, 19) arranged in two separate parallel planes and a photoconductive diamond substrate inserted between said two terminals (5, 9; 15, 19) of the switch (6; 16), each switch (6; 16) being controlled using an optical source radiating the diamond substrate (4, 14) inserted between the two terminals (5, 9; 15, 19), and in that each switch of the converter is formed by an individual diamond substrate that is supported by a ceramic substrate, said individual diamond substrate being connected to the support ceramic substrate via a layer of glass.
A method for implementing a virtual private network, VPN, connection between a first machine executing on a first host computer in a datacenter that comprises a plurality of host computers and an external machine outside the datacenter, the method comprising: at an edge gateway of the datacenter that allows for the external machine to connect to the datacenter: negotiating an encryption key with the external machine for encrypting and/or decrypting packets sent between the first machine and the external machine through the VPN connection; and providing the negotiated encryption key to the first host computer for encrypting a set of outgoing packets generated from the first machine and destined to the external machine by using the negotiated encryption key; and forwarding an incoming first encrypted packet received from the external machine and encrypted by the negotiated encryption key to the first machine executing on the first host computer; wherein the first host computer decrypts the incoming first encrypted packet by using the negotiated encryption key. negotiating an encryption key with the external machine for encrypting and/or decrypting packets sent between the first machine and the external machine through the VPN connection; and providing the negotiated encryption key to the first host computer for encrypting a set of outgoing packets generated from the first machine and destined to the external machine by using the negotiated encryption key; and forwarding an incoming first encrypted packet received from the external machine and encrypted by the negotiated encryption key to the first machine executing on the first host computer; wherein the first host computer decrypts the incoming first encrypted packet by using the negotiated encryption key.
A computer-implemented method comprising: receiving or capturing an image of a room from a perspective of a non-line-of-sight gesture recognition system; receiving or determining dimensions of the room; determining, based at least in part on the image and the dimensions of the room, a volume (120-1, 120-2) of the room in which there is no line-of-sight to the non-line-of-sight gesture-recognition system; and determining, by providing radar transmissions from the non-line-of-sight gesture-recognition system and into the room, a set of transmission paths sufficient to cause a reflected radar field to be provided within at least a portion of the volume, the reflected radar field enabling capture of gesture interactions with the reflected radar field. receiving or capturing an image of a room from a perspective of a non-line-of-sight gesture recognition system; receiving or determining dimensions of the room; determining, based at least in part on the image and the dimensions of the room, a volume (120-1, 120-2) of the room in which there is no line-of-sight to the non-line-of-sight gesture-recognition system; and determining, by providing radar transmissions from the non-line-of-sight gesture-recognition system and into the room, a set of transmission paths sufficient to cause a reflected radar field to be provided within at least a portion of the volume, the reflected radar field enabling capture of gesture interactions with the reflected radar field.