mhurhangee/ep-ind-claims huggingface dataset:
A clock synchronization method, wherein the method comprises: receiving, by a network device, a first announce message from a first master clock node and a second announce message from a second master clock node, wherein the first announce message carries a first identifier of a first clock source node and a first maximum clock deviation accumulated value, and the second announce message carries a second identifier of a second clock source node and a second maximum clock deviation accumulated value, wherein the first maximum clock deviation accumulated value is a sum of a plurality of first maximum clock deviations on a path from the first clock source node to the first master clock node, and the second maximum clock deviation accumulated value is a sum of a plurality of second maximum clock deviations on a path from the second clock source node to the second master clock node; comparing, by the network device, the identifier of the first clock source node with the identifier of the second clock source node; when the first identifier is the same as the second identifier, selecting, by the network device from the first master clock node and the second master clock node based on the first maximum clock deviation accumulated value and the second maximum clock deviation accumulated value, the master clock node for performing clock synchronization; and calibrating, by the network device, a clock of the network device based on time information of the selected master clock node, wherein the network device communicates with the master clock node according to IEEE1588-2008 by using a PTP message. receiving, by a network device, a first announce message from a first master clock node and a second announce message from a second master clock node, wherein the first announce message carries a first identifier of a first clock source node and a first maximum clock deviation accumulated value, and the second announce message carries a second identifier of a second clock source node and a second maximum clock deviation accumulated value, wherein the first maximum clock deviation accumulated value is a sum of a plurality of first maximum clock deviations on a path from the first clock source node to the first master clock node, and the second maximum clock deviation accumulated value is a sum of a plurality of second maximum clock deviations on a path from the second clock source node to the second master clock node; comparing, by the network device, the identifier of the first clock source node with the identifier of the second clock source node; when the first identifier is the same as the second identifier, selecting, by the network device from the first master clock node and the second master clock node based on the first maximum clock deviation accumulated value and the second maximum clock deviation accumulated value, the master clock node for performing clock synchronization; and calibrating, by the network device, a clock of the network device based on time information of the selected master clock node, wherein the network device communicates with the master clock node according to IEEE1588-2008 by using a PTP message.
A refrigerator comprising: a main body having a first storage compartment in which food is stored; a right door for the first storage compartment, the right door being installed to a right side of the main body to open the first storage compartment via pivotal rotation thereof about the right side of the first storage compartment; a left door for the first storage compartment, the left door being installed to a left side of the main body to open the first storage compartment via pivotal rotation thereof about the left side of the first storage compartment; a first camera installed to the right door for the first storage compartment; and a second camera installed to the left door for the first storage compartment; characterized by a control unit configured to combine a plurality of pictures taken by the first camera and the second camera with one another and correct the pictures into an image showing an interior of the right door for the first storage compartment, an interior of the first storage compartment and an interior of the left door for the first storage compartment, wherein the first camera takes a picture during rotation of the right door for the first storage compartment and the second camera takes a picture during rotation of the left door for the first storage compartment. a main body having a first storage compartment in which food is stored; a right door for the first storage compartment, the right door being installed to a right side of the main body to open the first storage compartment via pivotal rotation thereof about the right side of the first storage compartment; a left door for the first storage compartment, the left door being installed to a left side of the main body to open the first storage compartment via pivotal rotation thereof about the left side of the first storage compartment; a first camera installed to the right door for the first storage compartment; and a second camera installed to the left door for the first storage compartment; characterized by a control unit configured to combine a plurality of pictures taken by the first camera and the second camera with one another and correct the pictures into an image showing an interior of the right door for the first storage compartment, an interior of the first storage compartment and an interior of the left door for the first storage compartment, wherein the first camera takes a picture during rotation of the right door for the first storage compartment and the second camera takes a picture during rotation of the left door for the first storage compartment.
Device for actuating a frictionally acting converter lock-up clutch of a hydrodynamic torque converter, wherein a piston of the converter lock-up clutch can be acted on with a pressure (pWD), which acts in the closing direction of the converter lock-up clutch, of a converter interior and with a pressure (pWK), which acts in the opening direction, of a piston chamber which is delimited by the piston, and the piston chamber is connected to the converter interior at least in the open operating state of the converter lock-up clutch, and wherein the converter interior can be charged with hydraulic fluid via a first line, and hydraulic fluid can be discharged from the converter interior via a second line, and the piston chamber of the converter lock-up clutch is connectable to a pressure-conducting region and to a substantially unpressurized region, characterized in that a device is provided by means of which a transmission capability of the converter lock-up clutch can be modulated through variation of the pressure (pWK) in the piston chamber, and wherein the device comprises a regulating valve device which is arranged between the pressure-conducting region and the piston chamber and between the unpressurized region and the piston chamber, wherein the piston chamber can be operatively connected by way of the regulating valve device to the pressure-conducting region and to the unpressurized region, and wherein the device comprises a throttle device which connects the piston chamber and the converter interior.
A reversible article having a first surface and a second surface, said reversible article (10; 150; 160; 170) comprising: (a) a center structure (30; 35) comprising: a first microporous film; and a second microporous film having thereon an oleophobic layer, said second microporous film or said oleophobic layer containing at least one infrared suppressive additive within said second microporous film or said oleophobic layer; (b) a first textile layer positioned on said first microporous film; and (c) a second textile layer positioned on said second microporous film such that said oleophobic coating is positioned adjacent said second textile layer, wherein infrared suppressive performance, as measured as described in the description specification, in said first surface and said second surface is different. (a) a center structure (30; 35) comprising: a first microporous film; and a second microporous film having thereon an oleophobic layer, said second microporous film or said oleophobic layer containing at least one infrared suppressive additive within said second microporous film or said oleophobic layer; a first microporous film; and a second microporous film having thereon an oleophobic layer, said second microporous film or said oleophobic layer containing at least one infrared suppressive additive within said second microporous film or said oleophobic layer; (b) a first textile layer positioned on said first microporous film; and (c) a second textile layer positioned on said second microporous film such that said oleophobic coating is positioned adjacent said second textile layer, wherein infrared suppressive performance, as measured as described in the description specification, in said first surface and said second surface is different.
Suction return filter with a filter housing, comprising a connecting head which has two service connections and a tank connecting piece provided with a tank connection, between which a sleeve part forming a first filter chamber is attached, which surrounds a first filter element which is received by filter connection plates sealingly arranged in the connecting head and the tank connecting piece, each having a tube connector, wherein in the tank connection a spring-loaded non-return valve is arranged as well as a load-free non-return valve, which is designed as an integral part of the spring-loaded non-return valve, characterised in that in the connecting head a second filter chamber is arranged, which receives a second filter element and which is connected to the first filter chamber via at least one line provided with a bypass valve held in a closed position in a spring-loaded manner, characterised in that the second filter chamber is formed by a first, upper cap, which is connected to a second, lower cap via struts, whereby a support cage is formed for the second filter element, which is positioned around the struts, wherein the struts are moulded on the first or the second cap and engage in receptacles of the second or the first cap, wherein the support cage together with the first filter element is prestressed via a spring against the filter connection plate, which abuts on the sleeve part, wherein the sleeve part engages behind a projection arranged within the head housing of the connecting head and wherein at least one hollow cylinder is moulded on the first, upper cap at a distance from the struts, in which the valve plunger of a bypass valve is displaceably guided.
A cooling system comprising - at least one first component, which is to be cooled and into which a first coolant line opens, wherein - a first ventilation line is fluidically connected to the first component for ventilating the first component in such a way that - the first ventilation line opens into a second coolant line, wherein - the second coolant line is formed as coolant path in a second component, which is to be cooled, or wherein - the second coolant line leads to the second component, wherein the first ventilation line opens into the second coolant line outside of the second component, characterized in that - the first component is formed as turbine housing of an exhaust-gas turbocharger, wherein the second component is formed as compressor housing of the exhaust-gas turbocharger. - at least one first component, which is to be cooled and into which a first coolant line opens, wherein - a first ventilation line is fluidically connected to the first component for ventilating the first component in such a way that - the first ventilation line opens into a second coolant line, wherein - the second coolant line is formed as coolant path in a second component, which is to be cooled, or wherein - the second coolant line leads to the second component, wherein the first ventilation line opens into the second coolant line outside of the second component, characterized in that - the first component is formed as turbine housing of an exhaust-gas turbocharger, wherein the second component is formed as compressor housing of the exhaust-gas turbocharger.
Method for operating a vehicle, in particular a motor vehicle or utility vehicle, having an acquisition device for acquiring defined route section data of an upcoming route section to be passed through using a vehicle, in particular using a utility vehicle, the route section data, which is acquired by means of the acquisition device, of the upcoming route section to be passed through being evaluated in an evaluation device with respect to the wear reduction potential of at least one vehicle-side wearing part for the upcoming route section to be passed through such that at least one actuating parameter, in particular an actuating time and/or an actuating duration, for the at least one wearing part in the upcoming route section to be passed through is predetermined to reduce and/or optimize the wear of the at least one wearing part, and at least one auxiliary device, which supports the at least one wearing part in its action, being activated in the upcoming route section to be passed through in accordance with at least one predefined auxiliary device parameter, characterized in that the at least one auxiliary device is only activated for the case in which a wear reduction potential, which has reached or exceeded a predefined threshold value, is ascertained during the evaluation of an upcoming route section to be passed through.
A fuel injector, comprising: a sleeve having a first end proximate an outlet; a piston slidingly received in the sleeve, the piston having a first end proximate the outlet; a pumping chamber at least partially defined by the sleeve between the first end of the piston and the outlet; and a normally-open valve through which fuel passes to enter or exit the pumping chamber; wherein the normally-open valve closes in response to a movement of the piston; and wherein the normally-open valve closes when the piston has sufficient velocity to create sufficient pressure inside the fluid pumping chamber or the piston has sufficient acceleration to close the normally-open valve. a sleeve having a first end proximate an outlet; a piston slidingly received in the sleeve, the piston having a first end proximate the outlet; a pumping chamber at least partially defined by the sleeve between the first end of the piston and the outlet; and a normally-open valve through which fuel passes to enter or exit the pumping chamber; wherein the normally-open valve closes in response to a movement of the piston; and wherein the normally-open valve closes when the piston has sufficient velocity to create sufficient pressure inside the fluid pumping chamber or the piston has sufficient acceleration to close the normally-open valve.
An isolated polypeptide comprising the amino acids sequence SEQ ID N°1 (LKTLKIFVLFSLLIAILPYFAGCL), or derivatives having a percentage of identity of at least 90% with the amino acid sequence SEQ ID N°1, or fragments of SEQ ID N°1, said derivatives or fragments being capable of stimulating competence in Streptococcus thermophilus.
A hermetically-sealed package comprising a housing and a feedthrough assembly that forms a part of the housing, wherein the feedthrough assembly comprises a non-conductive substrate and a feedthrough, wherein the feedthrough comprises: a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via; wherein the laser bond is in contact with the external contact and characterized in that the laser bond is in contact with the outer surface of the non-conductive substrate. a via from an outer surface to an inner surface of the non-conductive substrate; a conductive material disposed in the via; and an external contact disposed over the via on the outer surface of the non-conductive substrate, wherein the external contact is electrically coupled to the conductive material disposed in the via, and wherein the external contact is hermetically sealed to the outer surface of the non-conductive substrate by a laser bond surrounding the via; wherein the laser bond is in contact with the external contact and characterized in that the laser bond is in contact with the outer surface of the non-conductive substrate.
A base station comprising means for: transmitting to a user equipment, UE (102, 103), in a master information block, MIB, first information indicating a resource allocation related to a system information block, SIB, and second information indicating a subcarrier spacing value for the SIB; and transmitting the SIB in accordance with the MIB, wherein the subcarrier spacing value is dependent on a frequency band region of transmission of the MIB. transmitting to a user equipment, UE (102, 103), in a master information block, MIB, first information indicating a resource allocation related to a system information block, SIB, and second information indicating a subcarrier spacing value for the SIB; and transmitting the SIB in accordance with the MIB, wherein the subcarrier spacing value is dependent on a frequency band region of transmission of the MIB.
Arrangement for a data centre, comprising an enclosure and a first series of racks arranged therein, for or containing IT components, in particular servers, an aisle being located in the enclosure in front of the first series of racks, and IT components are able to be inserted into the series of racks or IT components are able to be removed from the series of racks from the aisle, wherein the arrangement has a means for cooling the IT components and comprises a terminal that is arranged on an end face of the enclosure, characterized in that the terminal acts as a temperature control airlock for the transfer of IT components between the enclosure and their environment and in that the arrangement comprises a picking system for the fully automatic insertion and removal of IT components, in particular servers, into and from the one or more series of racks, in particular wherein the picking system contains a robot able to be moved over preferably the entire length of the series of racks.
A method (70, 150) of modeling effects of operational procedures during startup of a fluid production or injection system at a field, comprising: determining (72, 152), via a processor, one or more initial conditions of the field at a first time based on one or more field measurements of the field; simulating (76, 154), via the processor, one or more startups of the fluid production or injection system based on the one or more initial conditions; determining (78, 156), via the processor, one or more operational procedures for starting up the fluid production or injection system based on the one or more simulated startups; determining, via the processor, whether a startup command has been received; and sending, via the processor, one or more instructions to startup the fluid production or injection system using the one or more operational procedures when the startup command is received. determining (72, 152), via a processor, one or more initial conditions of the field at a first time based on one or more field measurements of the field; simulating (76, 154), via the processor, one or more startups of the fluid production or injection system based on the one or more initial conditions; determining (78, 156), via the processor, one or more operational procedures for starting up the fluid production or injection system based on the one or more simulated startups; determining, via the processor, whether a startup command has been received; and sending, via the processor, one or more instructions to startup the fluid production or injection system using the one or more operational procedures when the startup command is received.
An insert assembly that is configured to be disposed inside a turbine airfoil composed of an airfoil body and an outer shroud and an inner shroud formed respectively at both ends of the airfoil body in a radial direction (Dr), and that is configured to be provided inside an airfoil air passage through which cooling air (Ac) is supplied, in use, into the airfoil body, the insert assembly comprising: an insert that is formed as a cylindrical body having a plurality of cooling holes and is configured to be fixed to an end of the airfoil body on one side in the radial direction (Dr); a plate-shaped reinforcing member (85;86) that is provided inside the insert, extends in a direction (Dir) orthogonal to the radial direction (Dr), is fixed at outer ends to an inner circumferential surface (80c;84a) of the cylindrical body and is disposed adjacent to an end of the cylindrical body on the other side in the radial direction (Dr); and an annular retaining member (90;110) that is configured to be fixed to an end of the airfoil body on the other side in the radial direction (Dr), is configured to come in contact with an end of the insert so as to form a sealing interface on which the insert is slidable in the radial direction (Dr), and allows the insert to be positioned relative to the airfoil body in the direction (Dir) orthogonal to the radial direction (Dr), characterised in that end edges of the reinforcing member (85;86) are bent at a right angle toward a radially inner side (Dri) to form mount portions (85b;86b) which are fixed by welding to the inner circumferential surface (80c;84a). an insert that is formed as a cylindrical body having a plurality of cooling holes and is configured to be fixed to an end of the airfoil body on one side in the radial direction (Dr); a plate-shaped reinforcing member (85;86) that is provided inside the insert, extends in a direction (Dir) orthogonal to the radial direction (Dr), is fixed at outer ends to an inner circumferential surface (80c;84a) of the cylindrical body and is disposed adjacent to an end of the cylindrical body on the other side in the radial direction (Dr); and an annular retaining member (90;110) that is configured to be fixed to an end of the airfoil body on the other side in the radial direction (Dr), is configured to come in contact with an end of the insert so as to form a sealing interface on which the insert is slidable in the radial direction (Dr), and allows the insert to be positioned relative to the airfoil body in the direction (Dir) orthogonal to the radial direction (Dr), characterised in that end edges of the reinforcing member (85;86) are bent at a right angle toward a radially inner side (Dri) to form mount portions (85b;86b) which are fixed by welding to the inner circumferential surface (80c;84a).