mhurhangee/ep-ind-claims huggingface dataset:
A rolling element bearing, comprising: a plurality of rolling elements arranged circumferentially around an axis, and radially between a bearing inner ring and a bearing outer ring; the inner ring extending axially between a first end and a second end, and including a plurality of first passages, a plurality of second passages and an outlet channel at the second end; the first passages for directing lubricant from respective first passage inlets at the first end to the outlet channel: the second passages for directing lubricant from respective second passage inlets at the first end to the rolling elements, wherein one of the second passage inlets is substantially axially aligned with one of the first passage inlets; and the outlet channel extending axially into the inner ring from the second end, and including a gutter that extends radially into and axially within the inner ring. a plurality of rolling elements arranged circumferentially around an axis, and radially between a bearing inner ring and a bearing outer ring; the inner ring extending axially between a first end and a second end, and including a plurality of first passages, a plurality of second passages and an outlet channel at the second end; the first passages for directing lubricant from respective first passage inlets at the first end to the outlet channel: the second passages for directing lubricant from respective second passage inlets at the first end to the rolling elements, wherein one of the second passage inlets is substantially axially aligned with one of the first passage inlets; and the outlet channel extending axially into the inner ring from the second end, and including a gutter that extends radially into and axially within the inner ring. the second passages for directing lubricant from respective second passage inlets at the first end to the rolling elements, wherein one of the second passage inlets is substantially axially aligned with one of the first passage inlets; and the outlet channel extending axially into the inner ring from the second end, and including a gutter that extends radially into and axially within the inner ring.
Pick-up device for an agricultural implement, in particular for a forage wagon, a chopper or a baler, for picking up cut harvested material, and preferably harvested material combined into a swath, from the ground, having a base body that can be driven rotating about a horizontally running base body axis, with several tine brackets mounted on the base body, to each of which several pick-up tines are secured and which are rotatable relative to the base body about tine bracket axes running parallel to the base body axis, and having at least one control unit via which the rotation of the tine brackets can be controlled, wherein the or each control unit is formed as a closed transmission unit, wherein the respective control unit comprises a closed housing made of a first rotating housing part, facing the base body, and a second fixed housing part, facing away from the base body, wherein a central shaft, which serves to drive the base body, extends through the first housing part and the second housing part and is connected in a rotatably fixed manner to the first housing part, characterized in that the respective control unit comprises an enclosed housing, wherein there is positioned between the two housing parts (7, 8) and the central shaft a sealing element which is positioned radially outwards on a disc body of the central shaft.
A container refrigeration apparatus including a refrigerant circuit, the apparatus comprising: a failure determiner configured to perform a failure diagnosis to successively evaluate functions of the refrigerant circuit and components forming the refrigerant circuit for a plurality of evaluation items, wherein the failure determiner is further configured so that, if the failure diagnosis is interrupted due to a loss of power from a power supply to the container refrigeration apparatus, the failure determiner has a restarting function to restart the failure diagnosis from an intermediate point of the failure diagnosis after restoration of power to the container refrigeration apparatus. a failure determiner configured to perform a failure diagnosis to successively evaluate functions of the refrigerant circuit and components forming the refrigerant circuit for a plurality of evaluation items, wherein the failure determiner is further configured so that, if the failure diagnosis is interrupted due to a loss of power from a power supply to the container refrigeration apparatus, the failure determiner has a restarting function to restart the failure diagnosis from an intermediate point of the failure diagnosis after restoration of power to the container refrigeration apparatus.
A modified Cyanobacterium comprising one or more exogenous polynucleotides encoding one or more enzymes associated with triglyceride or lipid biosynthesis, wherein at least one exogenous polynucleotide encodes a diacylglycerol acyltransferase (DGAT) that uses fatty acyl-ACP as a substrate and wherein said modified Cyanobacterium produces triglycerides, wax esters or both.
A field-effect transistor comprising: a source electrode, a gate electrode and a drain electrode; and an active layer formed of an oxide semiconductor, wherein the source electrode and the drain electrode each include a metal region (12A, 13A) formed of a metal and an oxide region (12B, 13B) formed of one or more metal oxides, and wherein a part of the oxide region in each of the source electrode and the drain electrode is in contact with the active layer, wherein oxygen concentration in a region of the oxide region (12B, 13B) in each of the source electrode and the drain electrode decreases toward the metal region (12A, 12B), the region of the oxide region (12B, 13B) in each of the source electrode and the drain electrode being in contact with the active layer, wherein the metal oxide in the source electrode and the drain electrode includes a transition metal having a positive valence and a substitutional dopant having a positive valence larger than the positive valence of the transition metal, and wherein the metal includes the element of the transition metal and the element of the substitutional dopant. a source electrode, a gate electrode and a drain electrode; and an active layer formed of an oxide semiconductor, wherein the source electrode and the drain electrode each include a metal region (12A, 13A) formed of a metal and an oxide region (12B, 13B) formed of one or more metal oxides, and wherein a part of the oxide region in each of the source electrode and the drain electrode is in contact with the active layer, wherein oxygen concentration in a region of the oxide region (12B, 13B) in each of the source electrode and the drain electrode decreases toward the metal region (12A, 12B), the region of the oxide region (12B, 13B) in each of the source electrode and the drain electrode being in contact with the active layer, wherein the metal oxide in the source electrode and the drain electrode includes a transition metal having a positive valence and a substitutional dopant having a positive valence larger than the positive valence of the transition metal, and wherein the metal includes the element of the transition metal and the element of the substitutional dopant.
A method for facilitating network communication, comprising: receiving, by a first forwarder, a first packet stream from a customer premises equipment, CPE, via a first point-to-point, PTP, connection through an overlay network; identifying a first service component (120, 206) able to provide a first network function, NF, in accordance with the first packet stream; forwarding, by the first forwarder, at least a portion of the first packet stream to the first service component via a second PTP connection through the overlay network based on a set of predefined requirements; receiving, by the first forwarder, a first processed packet stream from the first service component via the second PTP connection, wherein the first processed packet stream is a processing result of the first packet stream; and forwarding, by the first forwarder, the first processed packet stream to a second forwarder via a first hop-to-hop, HTH, link through the overlay network, wherein the second forwarder is identified based on the content of the first processed packet stream. a first packet stream from a customer premises equipment, CPE, via a first point-to-point, PTP, connection through an overlay network; identifying a first service component (120, 206) able to provide a first network function, NF, in accordance with the first packet stream; forwarding, by the first forwarder, at least a portion of the first packet stream to the first service component via a second PTP connection through the overlay network based on a set of predefined requirements; receiving, by the first forwarder, a first processed packet stream from the first service component via the second PTP connection, wherein the first processed packet stream is a processing result of the first packet stream; and forwarding, by the first forwarder, the first processed packet stream to a second forwarder via a first hop-to-hop, HTH, link through the overlay network, wherein the second forwarder is identified based on the content of the first processed packet stream.
An immersive simulation method for coaching and training a crew in the use of an armoured vehicle turret, the turret comprising a control computer, as well as acquisition interfaces (36,38) for commanding equipment units of the turret and rendering interfaces (40,42) for the presentation of data to the crew, the control computer as well as the acquisition interfaces and the rendering interfaces being connected to each other by means of a computer bus, the method comprising the following: the control computer is connected to a simulation computer, to which the control computer communicates the status of the turret; the simulation computer produces a virtual environment which is presented at least in part to the crew by means of the rendering interfaces; one or more motorised equipment units of the turret are in operation; and the commands entered by the crew via the acquisition interfaces to the motorised equipment units that are in operation are transmitted to the latter, the movements of these equipment units that are brought about by these commands inducing in the crew sensations of an optical or auditory nature, and/or of acceleration; the method further comprising the simulation of the movements of the armoured vehicle bearing the turret in said virtual environment by means of a simulator (64a-64d) for the driver station of said armoured vehicle, the simulator for the driver station being located apart from said armoured vehicle and being connected to the simulation computer. the control computer is connected to a simulation computer, to which the control computer communicates the status of the turret; the simulation computer produces a virtual environment which is presented at least in part to the crew by means of the rendering interfaces; one or more motorised equipment units of the turret are in operation; and the commands entered by the crew via the acquisition interfaces to the motorised equipment units that are in operation are transmitted to the latter, the movements of these equipment units that are brought about by these commands inducing in the crew sensations of an optical or auditory nature, and/or of acceleration; the method further comprising the simulation of the movements of the armoured vehicle bearing the turret in said virtual environment by means of a simulator (64a-64d) for the driver station of said armoured vehicle, the simulator for the driver station being located apart from said armoured vehicle and being connected to the simulation computer.
An apparatus for the controlled machining of workpiece surfaces with saucer-shaped grinding tools with a tool controller, wherein the grinding tools have a flexible machining surface, in which a spindle holder is arranged in a rotatably driven manner, and the spindle holder is at least vertically movably arranged in relation to a transport track for accommodating the workpieces (6, 6') to be machined and is connected to a controlled drive for the vertical movement, wherein at least one sensor for detecting oscillations or noises by the grinding tools on the workpiece (6, 6') are arranged on the apparatus and are operatively connected to the tool controller, characterized in that the at least one sensor is formed to detect the oscillations or noises by the grinding tools on the workpiece (6, 6') in a power-dependent manner, and to determine the machining pressure and/or the machining power of the grinding tools on the workpiece (6, 6') on the basis of the detection, and to thus set a respectively predetermined value for the controlled machining by controlling the controlled drive.
A system for processing large volumes of biological cell suspensions to arrive at a therapeutically useful concentration of targeted cells comprising: a. a disposable fluid circuit including a separation device, a fluid flow path in flow communication with said separation device and one more fluid access devices for establishing fluid communication between said flow path and one or more source containers (102, 102a-c) of a biological cell suspension; b. a reusable hardware unit comprising a separation device drive unit for receiving said separation device, an operator input and a controller coupled to said input, the controller configured: i. to receive a processing parameter comprising the total volume of a biological cell suspension to be processed from one or more source containers (102, 102 a-c); ii. to receive a processing parameter comprising the concentration of cells in said one or more source containers (102, 102a-c); iii. to receive or provide a processing parameter comprising a final targeted cell concentration; iv. to determine whether processing conditions based at least in part on said processing parameters are acceptable, and v. to calculate the number of draws from said one or more source containers and the volume of each said draw. a. a disposable fluid circuit including a separation device, a fluid flow path in flow communication with said separation device and one more fluid access devices for establishing fluid communication between said flow path and one or more source containers (102, 102a-c) of a biological cell suspension; b. a reusable hardware unit comprising a separation device drive unit for receiving said separation device, an operator input and a controller coupled to said input, the controller configured: i. to receive a processing parameter comprising the total volume of a biological cell suspension to be processed from one or more source containers (102, 102 a-c); ii. to receive a processing parameter comprising the concentration of cells in said one or more source containers (102, 102a-c); iii. to receive or provide a processing parameter comprising a final targeted cell concentration; iv. to determine whether processing conditions based at least in part on said processing parameters are acceptable, and v. to calculate the number of draws from said one or more source containers and the volume of each said draw. i. to receive a processing parameter comprising the total volume of a biological cell suspension to be processed from one or more source containers (102, 102 a-c); ii. to receive a processing parameter comprising the concentration of cells in said one or more source containers (102, 102a-c); iii. to receive or provide a processing parameter comprising a final targeted cell concentration; iv. to determine whether processing conditions based at least in part on said processing parameters are acceptable, and v. to calculate the number of draws from said one or more source containers and the volume of each said draw.
A method for wireless communication in a millimeter wave wireless communication system, comprising: refraining, by a first base station of the millimeter wave wireless communication system, from transmitting a synchronization signal during a synchronization period; monitoring, by the first base station of the millimeter wave wireless communication system during the synchronization period, for a synchronization signal transmitted by a second base station; determining, by the first base station of the millimeter wave wireless communication system, based on the synchronization signal transmitted by the second base station, a timing parameter and a propagation parameter associated with the second base station of the millimeter wave wireless communication; performing, by the first base station of the millimeter wave wireless communication system, a discovery procedure with the second base station based at least in part on the timing parameter and the propagation parameter, wherein at least a portion of the discovery procedure is performed wirelessly via the millimeter wave wireless communication system; and establishing, by the first base station of the millimeter wave wireless communication system, a backhaul communication link with the second base station based at least in part on the discovery procedure. refraining, by a first base station of the millimeter wave wireless communication system, from transmitting a synchronization signal during a synchronization period; monitoring, by the first base station of the millimeter wave wireless communication system during the synchronization period, for a synchronization signal transmitted by a second base station; determining, by the first base station of the millimeter wave wireless communication system, based on the synchronization signal transmitted by the second base station, a timing parameter and a propagation parameter associated with the second base station of the millimeter wave wireless communication; performing, by the first base station of the millimeter wave wireless communication system, a discovery procedure with the second base station based at least in part on the timing parameter and the propagation parameter, wherein at least a portion of the discovery procedure is performed wirelessly via the millimeter wave wireless communication system; and establishing, by the first base station of the millimeter wave wireless communication system, a backhaul communication link with the second base station based at least in part on the discovery procedure.
A method for controlling access to a shared resource for a plurality of collaborative users, wherein a resource created by a first user entity - resource owner entity - is securely provided on a storage and device entity, and wherein access control rules are specified for said created resource, and wherein said access control rules are translated into a smart contract, said smart contract being included into a blockchain, and wherein if a second user requests access to said resource, access decisions for said resource are performed by evaluating the smart contract with regard to the included access control rules.
A method for mutually authenticating a client and a server, the method comprising: transmitting, over a first connection, a token including a unique identifier, said token signed with a private key associated with a server certificate; receiving a first response to transmitting the token, the first response comprising a request to initiate a secure data transfer link over a second connection, the second connection being distinct from the first connection; transmitting the server certificate and a Uniform Resource Locator identifier over the second connection; in response to transmitting the server certificate and the Uniform Resource Locater identifier over the second connection, receiving a second response over the first connection comprising an authenticity identifier corresponding to a second private key associated with a second certificate distinct from the server certificate; and validating the second response; said method performed by a computing system that comprises one or more computing devices. transmitting, over a first connection, a token including a unique identifier, said token signed with a private key associated with a server certificate; receiving a first response to transmitting the token, the first response comprising a request to initiate a secure data transfer link over a second connection, the second connection being distinct from the first connection; transmitting the server certificate and a Uniform Resource Locator identifier over the second connection; in response to transmitting the server certificate and the Uniform Resource Locater identifier over the second connection, receiving a second response over the first connection comprising an authenticity identifier corresponding to a second private key associated with a second certificate distinct from the server certificate; and validating the second response; said method performed by a computing system that comprises one or more computing devices.
A dish treating appliance for treating dishes according to an automatic cycle of operation, the dish treating appliance comprising: a tub having at least a rear wall, a bottom wall, and a pair of opposing side walls and at least partially defining a treating chamber with an access opening; a rail mounting assembly comprising a pair of rail mounting braces (252, 254), each rail mounting brace (252, 254) biased outwardly against a different one of the opposing side walls; a rail assembly mounted to each rail mounting brace (252, 254); and a dish rack (32, 34) slidingly mounted to the rail assemblies for movement in and out of the treating chamber relative to the access opening, wherein each of the rail mounting braces (252, 254) comprises a first portion extending along at least a portion of the one of the opposing side walls and a second portion extending along at least a portion of the rear wall, characterised in that the second portions of each of the rail mounting braces (252, 254) are biased laterally outwardly from one another by a biasing assembly (300, 400, 500, 600). a tub having at least a rear wall, a bottom wall, and a pair of opposing side walls and at least partially defining a treating chamber with an access opening; a rail mounting assembly comprising a pair of rail mounting braces (252, 254), each rail mounting brace (252, 254) biased outwardly against a different one of the opposing side walls; a rail assembly mounted to each rail mounting brace (252, 254); and a dish rack (32, 34) slidingly mounted to the rail assemblies for movement in and out of the treating chamber relative to the access opening, wherein each of the rail mounting braces (252, 254) comprises a first portion extending along at least a portion of the one of the opposing side walls and a second portion extending along at least a portion of the rear wall, characterised in that the second portions of each of the rail mounting braces (252, 254) are biased laterally outwardly from one another by a biasing assembly (300, 400, 500, 600).