mhurhangee/ep-ind-claims huggingface dataset:
A method comprising at least: authenticating a user of a remote support application for remote support of industrial automation devices, the remote support application running in a mobile device, at a first cloud service; establishing, after successful authentication of the user, a remote support session between the mobile device and the first cloud service; receiving, at the first cloud service, in the remote support session, from the mobile device, a request for a token for a second cloud service for an industrial automation device and industrial automation device information of the industrial automation device, wherein the second cloud service is another cloud service for the industrial automation device than the first cloud service; generating at the first cloud service a token to be used as authentication information required to send data from the industrial automation device to the second cloud service or to receive data in the industrial automation device from the second cloud service, or to acquire, by the second cloud service, data from the industrial automation device, the mobile device not being involved in the information exchange; and causing sending at least the token for the industrial automation device to the mobile device. authenticating a user of a remote support application for remote support of industrial automation devices, the remote support application running in a mobile device, at a first cloud service; establishing, after successful authentication of the user, a remote support session between the mobile device and the first cloud service; receiving, at the first cloud service, in the remote support session, from the mobile device, a request for a token for a second cloud service for an industrial automation device and industrial automation device information of the industrial automation device, wherein the second cloud service is another cloud service for the industrial automation device than the first cloud service; generating at the first cloud service a token to be used as authentication information required to send data from the industrial automation device to the second cloud service or to receive data in the industrial automation device from the second cloud service, or to acquire, by the second cloud service, data from the industrial automation device, the mobile device not being involved in the information exchange; and causing sending at least the token for the industrial automation device to the mobile device.
A method for realizing load balance in a Distributed Hash Table network, characterized by comprising: determining a quantity Z of first virtual identifiers according to node planning of the DHT network, said node planning comprising the quantity of nodes in the DHT network and the capacity of each node and a preset threshold of load unbalance degree, wherein said load unbalance degree represents the deviation degree of a node's actual load from the balanced load in an ideal condition, wherein Z is a natural number; equally dividing whole load space of the DHT network into Z portions, wherein each portion of the load space is respectively identified by one different first virtual identifier; and allocating the Z first virtual identifiers to nodes according to ability of each node, so that each node is in charge of the load space corresponding to the first virtual identifiers allocated to each node. determining a quantity Z of first virtual identifiers according to node planning of the DHT network, said node planning comprising the quantity of nodes in the DHT network and the capacity of each node and a preset threshold of load unbalance degree, wherein said load unbalance degree represents the deviation degree of a node's actual load from the balanced load in an ideal condition, wherein Z is a natural number; equally dividing whole load space of the DHT network into Z portions, wherein each portion of the load space is respectively identified by one different first virtual identifier; and allocating the Z first virtual identifiers to nodes according to ability of each node, so that each node is in charge of the load space corresponding to the first virtual identifiers allocated to each node.
Valve cartridge having a valve and a head piece, which is centrally penetrated by a spindle, which is rotatably and axially displaceably held in the head piece and which has an axial through-bore for the passage of water, wherein the valve can be actuated by the spindle, by means of which valve the flow of water through the through-bore can be controlled and wherein the spindle has a coupling section with a non-circular cross-section outside the head piece.
A bioprinter spray head assembly, comprising a first flow channel and a second flow channel, an outlet of the first flow channel is adjacent to an outlet of the second flow channel, the second flow channel is at least partially tapered along a direction towards its outlet, and the outlet of the second flow channel is configured to make a second material sprayed therefrom move towards a first material from the outlet of the first flow channel, such that the second material sprayed from the outlet of the second flow channel and the first material sprayed from the outlet of the first flow channel are combined together to form a fluid printing unit; wherein the bioprinter spray head assembly comprises a spray head body and an extension rod, wherein the first flow channel communicates with an outlet of the spray head body, the extension rod is provided adjacent to the outlet of the spray head body, an open recess is provided on an end face of the extension rod adjacent to the spray head body, the outlet of the spray head body protrudes into the open recess, and an annular space between an outer wall of the spray head body and an inner wall of the open recess serves as the second flow channel, and an inclination of the inner wall of the open recess is greater than that of the outer wall of the spray head body.
An electronic surgical apparatus comprising: a circuit portion that is configured to control an operation of the electronic surgical apparatus; and a shape-memory material, the shape-memory material having a property such that the shape-memory material is configured to assume a predetermined shape when the electronic surgical apparatus is heated to a transition temperature; characterised in that the shape-memory material is configured to disable the apparatus by acting on the circuit portion when the shape-memory material assumes the predetermined shape. a circuit portion that is configured to control an operation of the electronic surgical apparatus; and a shape-memory material, the shape-memory material having a property such that the shape-memory material is configured to assume a predetermined shape when the electronic surgical apparatus is heated to a transition temperature; characterised in that the shape-memory material is configured to disable the apparatus by acting on the circuit portion when the shape-memory material assumes the predetermined shape.
A method for the manufacture of a three-dimensional object, comprising: (a) providing a three-dimensional model of the object, which divides the object in voxels; (b) applying a first layer of a radiation-curable slurry onto a target surface, wherein the slurry contains a polymerizable resin and a photoinitiator; (c) cause polymerization of the resin to form a cross-linked polymeric matrix by illuminating the voxels of the first layer in accordance with the model with radiation at a temperature above room temperature and above the glass transition temperature of the cross-linked polymeric matrix; (d) applying a subsequent layer of the slurry on top of the first layer; (e) cause polymerization of the resin to form a cross-linked polymeric matrix by illuminating the voxels of the subsequent layer in accordance with the model with radiation at a temperature above room temperature and above the glass transition temperature of the cross-linked polymeric matrix; (f) repeating steps (d) and (e), wherein each time a subsequent layer is applied onto the previous layer, to produce a green body; and optionally: (g) removing the cross-linked polymeric matrix from the green body obtained in step (f) to obtain a brown body; and (h) sintering the brown body obtained in step (h) to obtain a white body, wherein the green body or the white body is the three-dimensional object. (a) providing a three-dimensional model of the object, which divides the object in voxels; (b) applying a first layer of a radiation-curable slurry onto a target surface, wherein the slurry contains a polymerizable resin and a photoinitiator; (c) cause polymerization of the resin to form a cross-linked polymeric matrix by illuminating the voxels of the first layer in accordance with the model with radiation at a temperature above room temperature and above the glass transition temperature of the cross-linked polymeric matrix; (d) applying a subsequent layer of the slurry on top of the first layer; (e) cause polymerization of the resin to form a cross-linked polymeric matrix by illuminating the voxels of the subsequent layer in accordance with the model with radiation at a temperature above room temperature and above the glass transition temperature of the cross-linked polymeric matrix; (f) repeating steps (d) and (e), wherein each time a subsequent layer is applied onto the previous layer, to produce a green body; (g) removing the cross-linked polymeric matrix from the green body obtained in step (f) to obtain a brown body; and (h) sintering the brown body obtained in step (h) to obtain a white body,
A polyamide resin composition comprising a polyamide resin composed of a diamine structural unit and a dicarboxylic acid structural unit wherein 70 mol % or more of the diamine structural unit is derived from xylylenediamine and 50 mol % or more of the dicarboxylic acid structural unit is derived from sebacic acid, and 5 to 35 parts by mass of at least one copolyamide selected from the following group consisting of (B-1)-(B-3) per 100 parts by mass of the polyamide resin; (B-1): a copolyamide 6/66/12; (B-2): a copolyamide 6/66/11; (B-3): a polyether-polyamide copolymer composed of a polyamide 12 unit or a polyamide 11 unit and a polyether unit; wherein the copolyamide 6/66/12 (B-1) has a copolymerization ratio consisting of 60 to 95 % by mass of a polyamide 6 unit, 0.5 to 25 % by mass of a polyamide 66 unit, and 0.5 to 25 % by mass of a polyamide 12 unit; and the copolyamide 6/66/11 (B-2) has a copolymerization ratio consisting of 60 to 95 % by mass of a polyamide 6 unit; 0.5 to 25 % by mass of a polyamide 66 unit, and 0.5 to 25 % by mass of a polyamide 11 unit. (B-1): a copolyamide 6/66/12; (B-2): a copolyamide 6/66/11; (B-3): a polyether-polyamide copolymer composed of a polyamide 12 unit or a polyamide 11 unit and a polyether unit;
A method, comprising: detecting, in a three dimensional, 3D, virtual environment generated by a computing device, a plurality of commands to be executed in the virtual environment; executing the plurality of commands; assigning each command of the plurality of commands to a batch, of a plurality of batches, by analyzing each command detected within a moving temporal window, determining an associated type or category for each detected command, and assigning each detected command to a batch based on a common type or category of the command; and executing (735, 745, 755) a supplementary command associated with at least one of the plurality of batches of commands, wherein the supplementary command comprises an un-do command, a re-do command, or a re-play command. detecting, in a three dimensional, 3D, virtual environment generated by a computing device, a plurality of commands to be executed in the virtual environment; executing the plurality of commands; assigning each command of the plurality of commands to a batch, of a plurality of batches, by analyzing each command detected within a moving temporal window, determining an associated type or category for each detected command, and assigning each detected command to a batch based on a common type or category of the command; and executing (735, 745, 755) a supplementary command associated with at least one of the plurality of batches of commands, wherein the supplementary command comprises an un-do command, a re-do command, or a re-play command.
A process for the preparation of a heparin derivative having an average molecular weight of from about 4.6 to about 6.9 kDa and an anti-factor Xa activity of less than about 10 IU/mg, and wherein the heparin derivative has a predominantly occurring disaccharide as shown in formula I below, wherein and n is an integer from 2 to 20, corresponding to molecular weights between 1.2 and 12 kDa, and wherein the heparin derivative has signals in the 5.0 ppm to 6.5 ppm region in a 1 H NMR spectrum with an intensity (% ratio) of less than or equal to about 4% relative to the signal at 5.42 ppm of the 1 H NMR spectrum of unfractionated heparin, comprising the consecutive steps of: (i) oxidising an acidic aqueous solution of unfractionated heparin by addition of an oxidising agent; (ii) depolymerising the oxidised heparin by subjecting the product of step (i) to alkali to form an alkaline solution; (iii) maintaining said solution from step (ii) at an alkaline pH for a period of time required to provide depolymerised heparin with a molecular weight within the aforesaid range; and (iv) reducing terminal aldehyde groups of said depolymerised heparin by addition of a hydride reducing agent to the solution obtained from step (iii), wherein the period of time between the completion of step (i) and the start of step (iv) is controlled in order to minimise the effect of residual oxidising agents; and wherein said period of time in step (iii) is determined by analysis of said solution, or by reference to a previously-performed substantially identical step (iii). (i) oxidising an acidic aqueous solution of unfractionated heparin by addition of an oxidising agent; (ii) depolymerising the oxidised heparin by subjecting the product of step (i) to alkali to form an alkaline solution; (iii) maintaining said solution from step (ii) at an alkaline pH for a period of time required to provide depolymerised heparin with a molecular weight within the aforesaid range; and (iv) reducing terminal aldehyde groups of said depolymerised heparin by addition of a hydride reducing agent to the solution obtained from step (iii),
Holder for a supply container of additives in a vehicle treatment installation for automatically holding the supply container after the supply container has been inserted into the holder, having an inlet for transferring the additives to a metering device, and having a coupling arranged on the inlet and intended for releasable locking with a coupling mating piece arranged on an outlet of the container, characterized in that an actuating element (9; 28) for actuating the coupling is arranged on the holder, in that a valve element, which is closed in the uncoupled state, is provided in the coupling, and in that the actuating element (9; 28) is arranged along the direction of insertion of the supply container in the holder.
A system for a TV set including a motorized television stand that can turn according to the three dimensional position of the user and a remote control device that can transmit RF signals and a microprocessor circuit intended to control the turning television stand; comprising; - at least three sensors that are positioned separate from each other which can receive the signals emitted by the said remote control device, wherein said microprocessor circuit can detect the position of the user by comparing the power levels of the signals received by the said sensors; - at least one motor allowing the said stand to move vertically and horizontally to turn the said rotating television stand according to the estimated position of the user characterized in that said system further comprises - a reference table for assuming the position of the user and for determining how much and to which direction the said motor will turn according to the result of the comparison of the power level of the signals received by said sensors using the microprocessor circuit aimed for detecting the position of the user. - at least three sensors that are positioned separate from each other which can receive the signals emitted by the said remote control device, wherein said microprocessor circuit can detect the position of the user by comparing the power levels of the signals received by the said sensors; - at least one motor allowing the said stand to move vertically and horizontally to turn the said rotating television stand according to the estimated position of the user - a reference table for assuming the position of the user and for determining how much and to which direction the said motor will turn according to the result of the comparison of the power level of the signals received by said sensors using the microprocessor circuit aimed for detecting the position of the user.
A process for producing a multi-layered film web from at least two starting film webs (1, 2) of thermoplastic polymer material, each starting film web comprising at least one low-melting polymer component and at least one high-melting polymer component, the process comprising the following steps: producing the at least two starting film webs (1, 2) by blown film extrusion, cast extrusion or a combination of blown film extrusion and cast extrusion, passing the at least two starting film webs (1, 2) up to their partly molten state, in which in each starting film web, the at least one low-melting polymer component exists in the molten liquid state, and the at least one high-melting polymer component does not exist in the molten liquid state, jointly over at least one heating roller, and passing the multi-layered, partly molten film web through a cooled roller nip. producing the at least two starting film webs (1, 2) by blown film extrusion, cast extrusion or a combination of blown film extrusion and cast extrusion, passing the at least two starting film webs (1, 2) up to their partly molten state, in which in each starting film web, the at least one low-melting polymer component exists in the molten liquid state, and the at least one high-melting polymer component does not exist in the molten liquid state, jointly over at least one heating roller, and passing the multi-layered, partly molten film web through a cooled roller nip.
A method of operating a self-propelled harvester having a plurality of working assemblies (3, 9, 15, 16) for processing picked-up crop material, which is controlled by a control device associated with the harvester, wherein at least one working assembly is actuated by an input means operatively connected to the control device with a specific first function in the harvesting mode of operation, characterised in that a second function differing from the first function is assigned to the input means by the control device in dependence on a change in operating state, which second function is specific for the working assembly in an operating state differing from the harvesting mode.
A relay node of a wireless telecommunications system, the said relay nod comprising: a processor configured to aggregate a plurality of acknowledgement/negative-acknowledgement messages, ACK/NACKs, when an access node sends multiple transmissions of data to the relay node before the next opportunity for the relay node to transmit corresponding ACK/NACKs for the data transmissions to the access node, the processor further configured to send the aggregated ACK/NACKs to the access node in a single subframe, at a time specified by the access node, wherein the time is either explicitly specified or specified by a pre-defined rule; wherein the access node includes an indicator with each downlink transmission to the relay node, the indicator indicating whether the ACK/NACK for that downlink transmission can be aggregated; wherein, when the indicator indicates that the ACK/NACK can be aggregated, the ACK/NACK is held for later transmission at the specified time, and when the indicator indicates that the ACK/NACK cannot be aggregated, the ACK/NACK and any held ACK/NACKS are transmitted to the access node. a processor configured to aggregate a plurality of acknowledgement/negative-acknowledgement messages, ACK/NACKs, when an access node sends multiple transmissions of data to the relay node before the next opportunity for the relay node to transmit corresponding ACK/NACKs for the data transmissions to the access node, the processor further configured to send the aggregated ACK/NACKs to the access node in a single subframe, at a time specified by the access node, wherein the time is either explicitly specified or specified by a pre-defined rule; wherein the access node includes an indicator with each downlink transmission to the relay node, the indicator indicating whether the ACK/NACK for that downlink transmission can be aggregated; wherein, when the indicator indicates that the ACK/NACK can be aggregated, the ACK/NACK is held for later transmission at the specified time, and when the indicator indicates that the ACK/NACK cannot be aggregated, the ACK/NACK and any held ACK/NACKS are transmitted to the access node.
A method comprising: providing one or more drill pipe segments (360, 660, 760, 860, 960, 1060); disposing a quantity of lost circulation material objects (362, 662, 762a, 762b, 862, 962, 1062) within the one or more drill pipe segments; providing a retention element that retains the lost circulation material objects within the one or more drill pipe segments; connecting the one or more drill pipe segments to a drill string at a wellbore (120, 220); and flowing drilling fluid (142, 342) through the drill string, wherein the flowing of drilling fluid (142, 342) through the drill string causes the retention element to release the lost circulation material objects (362, 662, 762a, 762b, 862, 962, 1062) to propagate further. providing one or more drill pipe segments (360, 660, 760, 860, 960, 1060); disposing a quantity of lost circulation material objects (362, 662, 762a, 762b, 862, 962, 1062) within the one or more drill pipe segments; providing a retention element that retains the lost circulation material objects within the one or more drill pipe segments; connecting the one or more drill pipe segments to a drill string at a wellbore (120, 220); and flowing drilling fluid (142, 342) through the drill string, wherein the flowing of drilling fluid (142, 342) through the drill string causes the retention element to release the lost circulation material objects (362, 662, 762a, 762b, 862, 962, 1062) to propagate further.