mhurhangee/ep-ind-claims huggingface dataset:
A method of assembling a fitting comprising: applying a predetermined torque between a first fitting component that includes a drive surface (17, 517) and a member that includes a first camming surface to cause a first amount of axial advance of the drive surface (17, 517) relative to the first camming surface to pre-install a conduit gripping device onto a conduit so that the conduit gripping device grips the conduit; said first amount of axial advance being less than an axial advance used to cause the conduit gripping device to grip and seal the conduit; removing the first fitting component from the member; assembling the first fitting component with a second fitting component that includes a second camming surface; applying said predetermined torque between the first fitting component and the second fitting component to cause a second amount of axial advance of the drive surface (17, 517) relative to the second camming surface to compress the conduit gripping device, such that the conduit gripping device grips and seals the conduit. applying a predetermined torque between a first fitting component that includes a drive surface (17, 517) and a member that includes a first camming surface to cause a first amount of axial advance of the drive surface (17, 517) relative to the first camming surface to pre-install a conduit gripping device onto a conduit so that the conduit gripping device grips the conduit; said first amount of axial advance being less than an axial advance used to cause the conduit gripping device to grip and seal the conduit; removing the first fitting component from the member; assembling the first fitting component with a second fitting component that includes a second camming surface; applying said predetermined torque between the first fitting component and the second fitting component to cause a second amount of axial advance of the drive surface (17, 517) relative to the second camming surface to compress the conduit gripping device, such that the conduit gripping device grips and seals the conduit.
A storing and forwarding method of hybrid service flows comprising at least one data packet, the storing and forwarding method comprises cache processing of the data packet and scheduling and outputting of the data packet, wherein the cache processing of the data packet comprises: B1, configuring at least one port cache area for each input port receiving the hybrid service flows, and configuring at least one type cache area for each service type of the hybrid service flows; B2, storing control information of the data packet into the port cache area corresponding to the input port of the data packet; and B3, acquiring the control information of the data packet from the port cache area, indentifying the service type of the data packet from the acquired control information of the data packet, and storing the acquired control information of the data packet into the type cache area corresponding to the service type of the data packet. B1, configuring at least one port cache area for each input port receiving the hybrid service flows, and configuring at least one type cache area for each service type of the hybrid service flows; B2, storing control information of the data packet into the port cache area corresponding to the input port of the data packet; and B3, acquiring the control information of the data packet from the port cache area, indentifying the service type of the data packet from the acquired control information of the data packet, and storing the acquired control information of the data packet into the type cache area corresponding to the service type of the data packet.
Device for determining at last one physical, chemical and/or biological characteristic of a liquid medium (50.4) introduced into a sealable container comprising - a measuring head system with at least one pressure measuring unit (11.2) for measuring a medium pressure of a gaseous medium and/or the liquid medium (50.4) present in the container and a temperature measuring unit (11.2) for measuring a medium temperature of the gaseous medium and/or the liquid medium (50.4), - a movement device at least for moving the container and - a determination system at least for determining the physical, chemical and/or biological characteristic of the liquid medium (50.4) from at least one value relating to the measured medium pressure and the measured medium temperature in each case, wherein slide contacts (10.2) are present between the measuring head system and a stationary base section (10.1) of the device in order to allow data exchange via a lead or a communication module (11.3, 10.3) is arranged in or on both the measuring head system and the base section (10.1) of the device in order to enable wireless data exchange to take place. - a measuring head system with at least one pressure measuring unit (11.2) for measuring a medium pressure of a gaseous medium and/or the liquid medium (50.4) present in the container and a temperature measuring unit (11.2) for measuring a medium temperature of the gaseous medium and/or the liquid medium (50.4), - a movement device at least for moving the container and - a determination system at least for determining the physical, chemical and/or biological characteristic of the liquid medium (50.4) from at least one value relating to the measured medium pressure and the measured medium temperature in each case,
An iron-type golf club, comprising: a club shaft; a club head configured at one end of the club shaft and having a striking face, the club head including: a first head portion formed of a first material; and a second head portion, formed separately from the first head portion and stacked vertically, relative to an orientation of typical use, on top of the first head portion, the second head portion is connected to the first head portion at a top surface of the first head portion and forms a top portion of the club head, the second head portion is formed of a second material, the second material being less dense than the first material; wherein the first head portion is arranged completely below a horizontal tangent, relative to an orientation of typical use, to a notch radius of the club and the second head portion is arranged completely above the horizontal tangent to the notch radius of the club. a club shaft; a club head configured at one end of the club shaft and having a striking face, the club head including: a first head portion formed of a first material; and a second head portion, formed separately from the first head portion and stacked vertically, relative to an orientation of typical use, on top of the first head portion, the second head portion is connected to the first head portion at a top surface of the first head portion and forms a top portion of the club head, the second head portion is formed of a second material, the second material being less dense than the first material; wherein the first head portion is arranged completely below a horizontal tangent, relative to an orientation of typical use, to a notch radius of the club and the second head portion is arranged completely above the horizontal tangent to the notch radius of the club. a first head portion formed of a first material; and a second head portion, formed separately from the first head portion and stacked vertically, relative to an orientation of typical use, on top of the first head portion, the second head portion is connected to the first head portion at a top surface of the first head portion and forms a top portion of the club head, the second head portion is formed of a second material, the second material being less dense than the first material; wherein the first head portion is arranged completely below a horizontal tangent, relative to an orientation of typical use, to a notch radius of the club and the second head portion is arranged completely above the horizontal tangent to the notch radius of the club.
A continuous process for producing an aliphatic polyester constructed from: i-a) 90 to 100 mol% based on the components i-a to i-b of succinic acid; i-b) 0 to 10 mol% based on the components i-a to i-b of one or more C 6 -C 20 dicarboxylic acids and especially preferably adipic acid, azelaic acid, sebacic acid or brassylic acid; i-c) 99 to 100 mol% based on the components i-a to i-b of 1,3-propanediol or especially preferably 1,4-butanediol; i-d) 0% to 1% by weight based on the components i-a to i-c of a chain extender and/or branching agent; comprising the steps of a) esterification, b) polycondensation and optionally c) chain extension, wherein during step b) in which the polycondenser functions as a degassing apparatus and/or b') after the polycondensation in an additional degassing apparatus (B') the crude polyester is degassed at a pressure of 0.01 to 5 mbar in the presence of 1% to 7% by weight, based on the total weight of the crude polyester, of water, introduced into the gas space of the degassing apparatus B and/or B' as an entraining agent. i-a) 90 to 100 mol% based on the components i-a to i-b of succinic acid; i-b) 0 to 10 mol% based on the components i-a to i-b of one or more C 6 -C 20 dicarboxylic acids and especially preferably adipic acid, azelaic acid, sebacic acid or brassylic acid; i-c) 99 to 100 mol% based on the components i-a to i-b of 1,3-propanediol or especially preferably 1,4-butanediol; i-d) 0% to 1% by weight based on the components i-a to i-c of a chain extender and/or branching agent;
A precision seed drill for discharge of plant propagation materials onto an underlying agricultural surface for seed, the drill comprising: a. a reservoir container for the plant propagation material, b. a separating device which is configured to separate plant propagation material fed from the reservoir container, and to output them individually, and c. an application device configured to selectively apply an aliquot of a dressing composition to the separated plant propagation materials directly before it is injected into the soil, and external of the device, wherein the application device is configured to apply the aliquot to the separated plant propagation materials while it falls freely onto the underlying surface, and wherein the application device comprises: i. a sensor array comprising at least one sensor (32, 33) for measuring the trajectory of the plant propagation materials while falling, ii. a controller configured for calculating the trajectory from the data received from the sensor array; and for coordinating and applying the dressing composition; and iii. an outlet device for dispensing an aliquot of the dressing composition selectively onto the plant propagation materials during free-falling. a. a reservoir container for the plant propagation material, b. a separating device which is configured to separate plant propagation material fed from the reservoir container, and to output them individually, and c. an application device configured to selectively apply an aliquot of a dressing composition to the separated plant propagation materials directly before it is injected into the soil, and external of the device, wherein the application device is configured to apply the aliquot to the separated plant propagation materials while it falls freely onto the underlying surface, and wherein the application device comprises: i. a sensor array comprising at least one sensor (32, 33) for measuring the trajectory of the plant propagation materials while falling, ii. a controller configured for calculating the trajectory from the data received from the sensor array; and for coordinating and applying the dressing composition; and iii. an outlet device for dispensing an aliquot of the dressing composition selectively onto the plant propagation materials during free-falling. i. a sensor array comprising at least one sensor (32, 33) for measuring the trajectory of the plant propagation materials while falling, ii. a controller configured for calculating the trajectory from the data received from the sensor array; and for coordinating and applying the dressing composition; and iii. an outlet device for dispensing an aliquot of the dressing composition selectively onto the plant propagation materials during free-falling.
A method for preparing insulin lispro crystals comprising: (a) providing a solution comprising the insulin lispro, a water miscible organic solvent, and a crystal stabilizing agent, wherein the solution has a pH that is about 8.0; and (b) adding a zinc salt to the solution at a temperature of about 25°C to provide a crystalizing solution, cooling the solution to about 5°C, and incubating the crystalizing solution for a time sufficient for the insulin lispro to produce the insulin lispro crystals. (a) providing a solution comprising the insulin lispro, a water miscible organic solvent, and a crystal stabilizing agent, wherein the solution has a pH that is about 8.0; and (b) adding a zinc salt to the solution at a temperature of about 25°C to provide a crystalizing solution, cooling the solution to about 5°C, and incubating the crystalizing solution for a time sufficient for the insulin lispro to produce the insulin lispro crystals.
Remote control device comprising a generator that is intended to convert light or mechanical energy to electrical energy, a wireless transmitter that is able to send messages to a remote receiver, a first electrical energy storage element that is connected to the energy generator and is intended to be charged with the electrical energy generated by the generator in order to supply power to the wireless transmitter in a first operating mode of the control device, and a second electrical energy storage element that is intended to supply power to the wireless transmitter in a second operating mode, the control device being characterized in that the second electrical energy storage element is connected to the generator via parallel connection of a first resistor and a first diode, the cathode of the first diode being connected to the positive terminal of the generator.
A method for optimizing bandwidth allocation when carrying a data stream that is associated with a required bandwidth allocation for carrying the data stream and is associated with a bandwidth sharing definition that defines the bandwidth sharing of the data stream with allocated bandwidths over segments in a network, the method comprising: defining a first path from a first node (A, 24) to a second node (E, 24) in the network, the first path comprises first (25, A-B) and second (25, B-C) segments; and responsive to the first and second bandwidths, transporting (40, 48) the data stream over the first path, characterized in that the first and second segments are respectively associated with first and second allocated bandwidths, and the method further comprising: calculating a first additional allocation bandwidth required for carrying the data stream over the first segment based on the first allocated bandwidth according to the bandwidth sharing definition; calculating a second additional allocation bandwidth required for carrying the data stream over the second segment based on the second allocated bandwidth according to the bandwidth sharing definition; and wherein the transporting (40, 48) of the data stream over the first path is responsive to the first and second additional allocation bandwidths. defining a first path from a first node (A, 24) to a second node (E, 24) in the network, the first path comprises first (25, A-B) and second (25, B-C) segments; and responsive to the first and second bandwidths, transporting (40, 48) the data stream over the first path, characterized in that the first and second segments are respectively associated with first and second allocated bandwidths, and the method further comprising: calculating a first additional allocation bandwidth required for carrying the data stream over the first segment based on the first allocated bandwidth according to the bandwidth sharing definition; calculating a second additional allocation bandwidth required for carrying the data stream over the second segment based on the second allocated bandwidth according to the bandwidth sharing definition; and wherein the transporting (40, 48) of the data stream over the first path is responsive to the first and second additional allocation bandwidths. calculating a first additional allocation bandwidth required for carrying the data stream over the first segment based on the first allocated bandwidth according to the bandwidth sharing definition; calculating a second additional allocation bandwidth required for carrying the data stream over the second segment based on the second allocated bandwidth according to the bandwidth sharing definition; and wherein the transporting (40, 48) of the data stream over the first path is responsive to the first and second additional allocation bandwidths.
A horse bit (10, 210) comprising a shackle (20, 220) configured to be inserted into a horse's mouth, the shackle (20, 220) having at least one joint (30, 40; 230) and two side portions (50, 60, 250, 260), wherein the two side portions are connected by the at least one joint (30, 40; 230) such that the side portions (50, 60, 250, 260) are pivotable to each other, at least two eyelet members (80, 90, 100, 110; 280, 290) each having an eyelet bore (82, 92, 102, 112; 282, 292), wherein the eyelet members (80, 90, 100, 110; 280, 290) are interlocked with play via their eyelet bores (82, 92, 102, 112; 282, 292) to provide the at least one joint (30, 40; 230), wherein in a cross section in the range of one of the eyelet members (80, 90, 100, 110; 280, 290) along or substantially parallel to an axis of the eyelet bore (82, 92, 102, 112; 282, 292) a cross-sectional width (W1, W2) of the one eyelet member (80, 90, 100, 110; 280, 290) is larger than the inner width of the eyelet bore (82, 92, 102,112; 282, 292) of the other eyelet member (80, 90, 100, 110; 280, 290), characterised in that an angular range of free rotation of each of the two side portions (50, 60, 250, 260) lies within only a lower quadrant of a hemisphere whose origin lies at a mating point where inner surfaces of the eyelet bores (82, 92, 102, 112; 282, 292) interlock and contact each other to form the joint. at least one joint (30, 40; 230) and two side portions (50, 60, 250, 260), wherein the two side portions are connected by the at least one joint (30, 40; 230) such that the side portions (50, 60, 250, 260) are pivotable to each other, at least two eyelet members (80, 90, 100, 110; 280, 290) each having an eyelet bore (82, 92, 102, 112; 282, 292), wherein the eyelet members (80, 90, 100, 110; 280, 290) are interlocked with play via their eyelet bores (82, 92, 102, 112; 282, 292) to provide the at least one joint (30, 40; 230), wherein in a cross section in the range of one of the eyelet members (80, 90, 100, 110; 280, 290) along or substantially parallel to an axis of the eyelet bore (82, 92, 102, 112; 282, 292) a cross-sectional width (W1, W2) of the one eyelet member (80, 90, 100, 110; 280, 290) is larger than the inner width of the eyelet bore (82, 92, 102,112; 282, 292) of the other eyelet member (80, 90, 100, 110; 280, 290), characterised in that an angular range of free rotation of each of the two side portions (50, 60, 250, 260) lies within only a lower quadrant of a hemisphere whose origin lies at a mating point where inner surfaces of the eyelet bores (82, 92, 102, 112; 282, 292) interlock and contact each other to form the joint.
A method of managing an overlay network overlaid on data-storage transactions of a blockchain, whereby data content of the overlay network is stored in payloads of the data-storage transactions and overlay-layer links are defined between the data-storage transactions; the method comprising, by a first software module run on first computer equipment: identifying a graph structure of the overlay network, the graph structure comprising a plurality of nodes and edges between nodes, wherein each of the nodes corresponds to a different respective one of the data-storage transactions and each of the edges corresponds to a different respective one of the links, wherein and each node is associated with a respective first key for signing an input of a child data-storage transaction in the graph structure of the overlay network in order to authorise writing the child to the blockchain, the first keys being generated from a first seed; and using a child key derivation, CKD, function applied to a second seed (601E, 601F) in order to determine a hierarchical set of second keys having the same graph structure as the overlay network, each second key corresponding to a different respective one of the nodes at a same position in the graph structure as the respective data-storage transaction, wherein the second keys are not used to sign inputs of the data-storage transactions but instead are provided to enable an additional function. identifying a graph structure of the overlay network, the graph structure comprising a plurality of nodes and edges between nodes, wherein each of the nodes corresponds to a different respective one of the data-storage transactions and each of the edges corresponds to a different respective one of the links, wherein and each node is associated with a respective first key for signing an input of a child data-storage transaction in the graph structure of the overlay network in order to authorise writing the child to the blockchain, the first keys being generated from a first seed; and using a child key derivation, CKD, function applied to a second seed (601E, 601F) in order to determine a hierarchical set of second keys having the same graph structure as the overlay network, each second key corresponding to a different respective one of the nodes at a same position in the graph structure as the respective data-storage transaction, wherein the second keys are not used to sign inputs of the data-storage transactions but instead are provided to enable an additional function.
A method of wireless communication, comprising: determining, by a mobile device, a portion of resources which are protected from a set of resources related to a base station comprising determining the portion of resources which are protected corresponding to a portion of the signal measurements over the set of resources that are above a threshold signal quality, wherein the portion of resources which are protected is allocated by the base station according to resource partitioning with one or more other base stations so that the base station can communicate to the mobile device over the portion of resources which are protected with reduced interference; performing, by the mobile device, signal measurements of one or more signals from the base station over at least the portion of resources which are protected; generating, by the mobile device, a measurement value of the base station based on the signal measurements, wherein generating the measurement value comprises computing the measurement value as a function of the signal measurements; and utilizing, by the mobile device, the computed measurement value in determining whether to perform cell reselection. determining, by a mobile device, a portion of resources which are protected from a set of resources related to a base station comprising determining the portion of resources which are protected corresponding to a portion of the signal measurements over the set of resources that are above a threshold signal quality, wherein the portion of resources which are protected is allocated by the base station according to resource partitioning with one or more other base stations so that the base station can communicate to the mobile device over the portion of resources which are protected with reduced interference; performing, by the mobile device, signal measurements of one or more signals from the base station over at least the portion of resources which are protected; generating, by the mobile device, a measurement value of the base station based on the signal measurements, wherein generating the measurement value comprises computing the measurement value as a function of the signal measurements; and utilizing, by the mobile device, the computed measurement value in determining whether to perform cell reselection.