mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting data, the method comprising: establishing, via a plurality of communication modules (104, 106) on a movable object, a plurality of simultaneous respective communication links (112, 114) to a remote terminal, wherein each of the plurality of communication modules (104, 106) is configured to communicate with the remote terminal including transmitting data to the remote terminal and receiving data from the remote terminal, and wherein each of the plurality of communication modules (104, 106) is configured to communicate using a different communication method; selecting, based on a switching criterion, at least one of the plurality of simultaneous respective communication links (112, 114) to be used to transmit data to the remote terminal and receive data from the remote terminal, wherein one or more characteristics of the at least one of the plurality of simultaneous respective communication links (112, 114) meets the switching criterion; and transmitting data to the remote terminal and receiving data from the remote terminal via said at least one of the plurality of simultaneous respective communication links (112, 114) selected based on the switching criterion; characterized in that: the switching criterion is dynamically determined based on a state of a payload of the movable object. establishing, via a plurality of communication modules (104, 106) on a movable object, a plurality of simultaneous respective communication links (112, 114) to a remote terminal, wherein each of the plurality of communication modules (104, 106) is configured to communicate with the remote terminal including transmitting data to the remote terminal and receiving data from the remote terminal, and wherein each of the plurality of communication modules (104, 106) is configured to communicate using a different communication method; selecting, based on a switching criterion, at least one of the plurality of simultaneous respective communication links (112, 114) to be used to transmit data to the remote terminal and receive data from the remote terminal, wherein one or more characteristics of the at least one of the plurality of simultaneous respective communication links (112, 114) meets the switching criterion; and transmitting data to the remote terminal and receiving data from the remote terminal via said at least one of the plurality of simultaneous respective communication links (112, 114) selected based on the switching criterion; characterized in that: the switching criterion is dynamically determined based on a state of a payload of the movable object. the switching criterion is dynamically determined based on a state of a payload of the movable object.
A twin cable spring suspended weight arrangement for emergency closing of a spherical valve of a turbine, the closing weight arrangement comprising: at least one closing weight operable in tandem and suspended by cables attached to two lever arms sheave sectors and capable of moving in a weight pit for closing and opening of the spherical valve of the turbine; wherein the closing weight is disposed at a distant end from a trunnion axis of the spherical valve, characterised in that the closing weight arrangement is provided with increased sheave radius for enabling reduction in magnitude of weights; and in that each weight is connected to a plurality of cables attached to each lever arms sheave sectors, each weight being suspended through a plurality of pre-loaded disc springs. at least one closing weight operable in tandem and suspended by cables attached to two lever arms sheave sectors and capable of moving in a weight pit for closing and opening of the spherical valve of the turbine; wherein the closing weight is disposed at a distant end from a trunnion axis of the spherical valve, characterised in that the closing weight arrangement is provided with increased sheave radius for enabling reduction in magnitude of weights; and in that each weight is connected to a plurality of cables attached to each lever arms sheave sectors, each weight being suspended through a plurality of pre-loaded disc springs.
Autonomous and self-propelled barn vehicle for substantially laterally displacing feed situated on a ground at a feed fence in a barn, the vehicle comprising a frame, a control unit for controlling the vehicle and moving it in a direction of travel, a housing arranged on the frame, wherein the housing comprises main feed-displacement (7,34) means for displacement of feed in a main outward direction which is substantially lateral with respect to the direction of travel, and separate ancillary feed-displacement means for lateral displacement of feed in an outward direction opposite to said main direction and wherein the outer periphery of the housing forms the outer periphery of the vehicle except for the ancillary feed-displacement means which is positioned outside the outer periphery and in the direction of travel operatively ahead of the main feed-displacement means.
A scaling tool for replicating filtration characteristics of a large-scale filtration device, wherein said scaling tool comprising a housing having a fluid inlet and a fluid outlet, and a filter receiving region (15") in fluid communication with said fluid inlet and said fluid outlet and configured to contain a pleated membrane comprising one or more pleats, said filter receiving region (15") being defined by a rigid wall framework with: (a) a base having a width proportional to said base width occupied by a pleat in said large scale device, (b) walls extending from said base at an angle corresponding to said determined angle of said adjacent pleat centers of said pleats of said large scale, and (c) a length of between about 1.2cm (1⁄2 inch) and about 2.5cm (1 inch), wherein said filter receiving region is wedge-shaped and is configured to compress said one or more pleats of said membrane in an amount effective to proportionally replicate the filtration performance of said large-scale filtration device. (a) a base having a width proportional to said base width occupied by a pleat in said large scale device, (b) walls extending from said base at an angle corresponding to said determined angle of said adjacent pleat centers of said pleats of said large scale, and (c) a length of between about 1.2cm (1⁄2 inch) and about 2.5cm (1 inch),
A computer implemented method for deploying a generic application engine in a browser program executing on a client platform; comprising: (a) receiving, from a server in response to an HTTP request for a resource identified by a URL from a user of the browser, an HTTP response in the form of an HTML page comprising an application engine kernel; (b) forming an application engine kernel in the browser program that is independent of the client platform and the class of browser program such that the application engine kernel supports concurrent thread execution within said application engine kernel in the browser program, and wherein the forming comprises bootstrapping the application engine kernel, wherein the bootstrapping loads only enough kernel components sufficient to recursively load a next larger set of kernel components until there are enough application engine components suitable for initial processing of the user request; (c) loading a minimum required subset of application engine components by the kernel; and (d) concurrently with the forming (b), loading user interface components and corresponding data components associated with the application engine. (a) receiving, from a server in response to an HTTP request for a resource identified by a URL from a user of the browser, an HTTP response in the form of an HTML page comprising an application engine kernel; (b) forming an application engine kernel in the browser program that is independent of the client platform and the class of browser program such that the application engine kernel supports concurrent thread execution within said application engine kernel in the browser program, and wherein the forming comprises bootstrapping the application engine kernel, wherein the bootstrapping loads only enough kernel components sufficient to recursively load a next larger set of kernel components until there are enough application engine components suitable for initial processing of the user request; (c) loading a minimum required subset of application engine components by the kernel; and (d) concurrently with the forming (b), loading user interface components and corresponding data components associated with the application engine.
A peptide product comprising a surfactant X covalently attached to a peptide, the peptide comprising a linker amino acid U and at least one other amino acid: wherein X is wherein: A is a hydrophobic group which is a substituted or unsubstituted C 1 -C 30 alkyl group, a substituted or unsubstituted alkoxyaryl group, a substituted or unsubstituted aralkyl group, or a steroid nucleus-containing moiety; and B is a melibiose or melibiouronic acid group covalently attached to the peptide via the linker amino acid U. A is a hydrophobic group which is a substituted or unsubstituted C 1 -C 30 alkyl group, a substituted or unsubstituted alkoxyaryl group, a substituted or unsubstituted aralkyl group, or a steroid nucleus-containing moiety; and B is a melibiose or melibiouronic acid group covalently attached to the peptide via the linker amino acid U.
A method implemented at an Access and Mobility Management Function, AMF, node for managing a communication of a Non-Access-Stratum, NAS, cause code for a first User Equipment, UE, the method comprising: upon determining that there is a NAS cause code to be communicated to another UE different from the first UE, retrieving subscription data for the first UE from a Unified Data Management, UDM, node, the subscription data indicating an identifier of a second UE which is a target of the NAS cause code for the first UE, wherein retrieving the subscription data comprises transmitting a subscription data request with an identifier of the first UE to the UDM and receiving a subscription data response including the identifier of the second UE, the NAS cause code being the cause code with which a network rejects a request of the first UE in a NAS response, transmitting the NAS cause code and the identifier of the second UE to a Short Message Service Function, SMSF, node, receiving a Short Message Service, SMS, message built with the NAS cause code from the SMSF node, and transmitting the SMS message to the second UE. upon determining that there is a NAS cause code to be communicated to another UE different from the first UE, retrieving subscription data for the first UE from a Unified Data Management, UDM, node, the subscription data indicating an identifier of a second UE which is a target of the NAS cause code for the first UE, wherein retrieving the subscription data comprises transmitting a subscription data request with an identifier of the first UE to the UDM and receiving a subscription data response including the identifier of the second UE, the NAS cause code being the cause code with which a network rejects a request of the first UE in a NAS response, transmitting the NAS cause code and the identifier of the second UE to a Short Message Service Function, SMSF, node, receiving a Short Message Service, SMS, message built with the NAS cause code from the SMSF node, and transmitting the SMS message to the second UE.
A negative ion generating device, comprising: a housing; a negative ion assembly disposed in the housing, the negative ion assembly being configured to produce a negative ion, the negative ion assembly comprising a conductive fiber brush; and a cleaning assembly disposed in the housing, the cleaning assembly comprising a driving mechanism and a cleaning member coupled to a power output end of the driving mechanism, the driving mechanism being configured to provide power, the cleaning member being configured to move under action of the power provided by the driving mechanism, and contact or separate from the conductive fiber brush during movement; characterized in that: the conductive fiber brush is disposed along a circumferential horizontal edge of the housing: and the cleaning member is configured to rotate clockwise or counterclockwise around an edge of the housing in the horizontal direction under action of the power provided by the driving mechanism, and contact and separate from the conductive fiber brush during rotation. a housing; a negative ion assembly disposed in the housing, the negative ion assembly being configured to produce a negative ion, the negative ion assembly comprising a conductive fiber brush; and a cleaning assembly disposed in the housing, the cleaning assembly comprising a driving mechanism and a cleaning member coupled to a power output end of the driving mechanism, the driving mechanism being configured to provide power, the cleaning member being configured to move under action of the power provided by the driving mechanism, and contact or separate from the conductive fiber brush during movement; characterized in that: the conductive fiber brush is disposed along a circumferential horizontal edge of the housing: and the cleaning member is configured to rotate clockwise or counterclockwise around an edge of the housing in the horizontal direction under action of the power provided by the driving mechanism, and contact and separate from the conductive fiber brush during rotation. the conductive fiber brush is disposed along a circumferential horizontal edge of the housing: and the cleaning member is configured to rotate clockwise or counterclockwise around an edge of the housing in the horizontal direction under action of the power provided by the driving mechanism, and contact and separate from the conductive fiber brush during rotation. the cleaning member is configured to rotate clockwise or counterclockwise around an edge of the housing in the horizontal direction under action of the power provided by the driving mechanism, and contact and separate from the conductive fiber brush during rotation.
A stackable lighting unit configured to couple to a stackable storage unit, the stackable lighting unit comprising: a housing; a bottom surface defined by the housing, the bottom surface comprising coupling components that detachably couple the bottom surface of the stackable lighting unit to a top surface of the stackable storage unit; and a first light (32, 36, 40) pivotally coupled to the housing, the first light (32, 36, 40) pivotally rotating about a first rotational axis (38, 42, 70, 72) with respect to the housing. a housing; a bottom surface defined by the housing, the bottom surface comprising coupling components that detachably couple the bottom surface of the stackable lighting unit to a top surface of the stackable storage unit; and a first light (32, 36, 40) pivotally coupled to the housing, the first light (32, 36, 40) pivotally rotating about a first rotational axis (38, 42, 70, 72) with respect to the housing.
Apparatus for holding a line guide of a high-voltage transformer, comprising - a supporting frame which can be fastened to the high-voltage transformer, - a line guide receptacle which is arranged on the supporting frame and is designed to hold the line guide, and - a fastening unit for fixing the line guide to the line guide receptacle, wherein - the fastening unit has at least one clamping means which clamps the line guide to the line guide receptacle in a clamping position, and - a clamping securing means (14, 18) is provided for fixing the clamping means in its clamping position, - the clamping means comprises a clamping wedge which is configured in a wedge shape, - the line guide receptacle is guided in the supporting frame such that it can move in a clamping direction and the clamping wedge is arranged between the supporting frame and the line guide receptacle and is supported on them, and wherein - the supporting frame has stationary compensating elements on which the clamping wedge is supported, wherein the supporting frame has vertical supports (3, 4) which are situated opposite one another and between which the line guide receptacle and the compensating element each extend in the horizontal direction. - a supporting frame which can be fastened to the high-voltage transformer, - a line guide receptacle which is arranged on the supporting frame and is designed to hold the line guide, and - a fastening unit for fixing the line guide to the line guide receptacle, wherein - the fastening unit has at least one clamping means which clamps the line guide to the line guide receptacle in a clamping position, and - a clamping securing means (14, 18) is provided for fixing the clamping means in its clamping position, - the clamping means comprises a clamping wedge which is configured in a wedge shape, - the line guide receptacle is guided in the supporting frame such that it can move in a clamping direction and the clamping wedge is arranged between the supporting frame and the line guide receptacle and is supported on them, and wherein - the supporting frame has stationary compensating elements on which the clamping wedge is supported, wherein the supporting frame has vertical supports (3, 4) which are situated opposite one another and between which the line guide receptacle and the compensating element each extend in the horizontal direction.
A lifting system for lifting elongated objects comprising: a sensor device arranged to identify position and location of an elongated object, a lifting and rotating device, and a control unit for controlling the movement of said lifting and rotating device in response to signals from the sensor device which indicate the position and location of the object, characterized in that: said lifting and rotating device is provided with an elongated gripping device including a first gripping arm, and said control unit is configured to control the lifting and rotating device to insert a part of the first gripping arm into the object from one end of said object in order to lift and rotate the object with the inserted part, and wherein the lifting system further comprise a moving device arranged to be inserted under a middle section of the elongated object, lift the elongated object and move the elongated object transversally or axially. a sensor device arranged to identify position and location of an elongated object, a lifting and rotating device, and a control unit for controlling the movement of said lifting and rotating device in response to signals from the sensor device which indicate the position and location of the object, characterized in that: said lifting and rotating device is provided with an elongated gripping device including a first gripping arm, and said control unit is configured to control the lifting and rotating device to insert a part of the first gripping arm into the object from one end of said object in order to lift and rotate the object with the inserted part, and wherein said lifting and rotating device is provided with an elongated gripping device including a first gripping arm, and said control unit is configured to control the lifting and rotating device to insert a part of the first gripping arm into the object from one end of said object in order to lift and rotate the object with the inserted part, and wherein the lifting system further comprise a moving device arranged to be inserted under a middle section of the elongated object, lift the elongated object and move the elongated object transversally or axially.
An airfoil, comprising: a platform; and a blade extending from the platform, wherein the blade has a root and a tip each radially outward from the platform, the root being located between the tip and the platform and the blade has a radial height from the platform, wherein a cross-sectional thickness of the blade at the root is greater than a cross-sectional thickness of the blade along at least 75% of the radial height of the blade; and further including a fillet joining the blade with the platform of the airfoil, wherein the fillet has a width that varies along an axial length of the blade; and wherein the blade includes a leading edge, a central portion, and a trailing edge; the leading edge interacting with incoming airflow before other surfaces of the blade, the trailing edge interacting with outgoing airflow, and the central portion extending between the leading and trailing edges (44,46); wherein the width of the fillet at the leading edge and the trailing edge of the blade is less than the width of the fillet at the central portion. a platform; and a blade extending from the platform, wherein the blade has a root and a tip each radially outward from the platform, the root being located between the tip and the platform and the blade has a radial height from the platform, wherein a cross-sectional thickness of the blade at the root is greater than a cross-sectional thickness of the blade along at least 75% of the radial height of the blade; and further including a fillet joining the blade with the platform of the airfoil, wherein the fillet has a width that varies along an axial length of the blade; and wherein the blade includes a leading edge, a central portion, and a trailing edge; the leading edge interacting with incoming airflow before other surfaces of the blade, the trailing edge interacting with outgoing airflow, and the central portion extending between the leading and trailing edges (44,46); wherein the width of the fillet at the leading edge and the trailing edge of the blade is less than the width of the fillet at the central portion.
A bone cement composition comprising large-diameter (meth)acrylate polymer particles having an average particle diameter of 10 to 60 μm, small-diameter (meth)acrylate polymer particles having an average particle diameter of 0.1 to 2.0 μm, a (meth)acrylate monomer and a polymerization initiator, wherein the content of the small-diameter (meth)acrylate polymer particles is 5 to 30% by mass based on the total mass of the small-diameter (meth)acrylate polymer particles and the large-diameter (meth)acrylate polymer particles, wherein the average particle diameter of the large-diameter (meth)acrylate polymer particles and of the small-diameter (meth)acrylate polymer particles is a median diameter measured by a layer diffraction/scattering-type particle size distribution analyzer.
An integrated circuit including a substrate, at least one first domain (Dl), and at least one second domain distinct from said at least one first domain (Dl), wherein the substrate is of the silicon-on-insulator type including in said at least one first domain (Dl), a semiconductor film, a first part of a carrier substrate and an insulating layer buried between said first part of the carrier substrate and the semiconductor film, and wherein the substrate contains a trap-rich region only in said at least one second domain and includes in said at least one second domain a second part of the carrier substrate surmounted by said trap-rich region, the semiconductor film and said buried insulating layer not extending into said at least one second domain.