mhurhangee/ep-ind-claims huggingface dataset:
A production method of a grease composition, the production method comprising: providing a styrene-based polymer, an amine compound, an isocyanate compound, a lubricating oil, a first solvent that does not dissolve a urea compound that is generated, and a second solvent that does not dissolve the urea compound that is generated wherein the content of the styrene-based polymer is 2% by mass or more and 30% by mass or less as to the total amount of the urea compound and the styrene-based polymer; dissolving or dispersing the amine compound in the first solvent, dissolving or dispersing the isocyanate compound in the second solvent, dissolving or dispersing the styrene-based polymer in one or both of the first solvent and the second solvent, such that a first blended solution containing at least the amine compound and a second blended solution containing at least the isocyanate compound are prepared; blending the first blended solution and the second blended solution, and carrying out reaction of the amine compound and the isocyanate compound, such that a third blended solution containing the styrene-based polymer and the urea compound is generated; and adding the lubricating oil after removing the first solvent and the second solvent from the third blended solution. providing a styrene-based polymer, an amine compound, an isocyanate compound, a lubricating oil, a first solvent that does not dissolve a urea compound that is generated, and a second solvent that does not dissolve the urea compound that is generated wherein a styrene-based polymer, an amine compound, an isocyanate compound, a lubricating oil, a first solvent that does not dissolve a urea compound that is generated, and a second solvent that does not dissolve the urea compound that is generated wherein the content of the styrene-based polymer is 2% by mass or more and 30% by mass or less as to the total amount of the urea compound and the styrene-based polymer; dissolving or dispersing the amine compound in the first solvent, dissolving or dispersing the isocyanate compound in the second solvent, dissolving or dispersing the styrene-based polymer in one or both of the first solvent and the second solvent, such that a first blended solution containing at least the amine compound and a second blended solution containing at least the isocyanate compound are prepared; blending the first blended solution and the second blended solution, and carrying out reaction of the amine compound and the isocyanate compound, such that a third blended solution containing the styrene-based polymer and the urea compound is generated; and adding the lubricating oil after removing the first solvent and the second solvent from the third blended solution.
A green-roof module comprising a trough formed in a supporting frame and bounded by side walls (3, 4) and a bottom, wherein the trough is divided by a partition into a lower section near the base, which forms a water collection tank, and an upper section for receiving plants, wherein the partition has three wall sections (12, 13), in each case an adjoining, in cross-section, unbroken side section, in each case one of two mutually opposite side walls, and a centre section having a plurality of through-openings, wherein the side sections extend from the two opposite side walls to the centre section and are inclined in the direction of the base, characterised in that planting material is placed on the partition in the upper section.
A method for improving a surface finish of an additively manufactured AM part, comprising: fluidly communicating at least one internal channel of an additively manufactured AM part to an abrasive fluid media source; and rotating the additively manufactured AM part to induce abrasive fluid media to flow through the AM part to smooth a surface of the AM part, further comprising rotating the AM part about an axis that the AM part is configured to rotate during operation of the AM part, wherein the AM part is configured to generate flow in use through rotating around a central axis of the AM part, wherein rotating includes rotating the AM part about a central axis of the AM part, characterised in that fluidly communicating the at least one internal channel of the AM part includes connecting the internal channel of the AM part to a conduit connected to the abrasive fluid media source. fluidly communicating at least one internal channel of an additively manufactured AM part to an abrasive fluid media source; and rotating the additively manufactured AM part to induce abrasive fluid media to flow through the AM part to smooth a surface of the AM part, further comprising rotating the AM part about an axis that the AM part is configured to rotate during operation of the AM part, wherein the AM part is configured to generate flow in use through rotating around a central axis of the AM part, wherein rotating includes rotating the AM part about a central axis of the AM part, characterised in that fluidly communicating the at least one internal channel of the AM part includes connecting the internal channel of the AM part to a conduit connected to the abrasive fluid media source.
A wireless communication device comprising: a communication interface configured to: receive packets; and a processor configured to: process the packets in order to determine characteristics of the packets, the characteristics including the number of channels via which the packets are received, bandwidths of said channels and rates at which the packets are received; selecting at least one clear channel assessment "CCA" level based on said number of channels, bandwidths of said channels and rates at which the packets are received; processing the packets in order to determine a status of said channels within a predetermined frequency band using the at least one selected clear channel assessment "CCA" level; wherein the status is indicative of whether the channels are busy or clear; selecting at least one of the channels based on the determined status of the channels; wherein the communication interface is configured to support communication with one other wireless communication device (390, 391) using the selected channel. a communication interface configured to: receive packets; and receive packets; and a processor configured to: process the packets in order to determine characteristics of the packets, the characteristics including the number of channels via which the packets are received, bandwidths of said channels and rates at which the packets are received; selecting at least one clear channel assessment "CCA" level based on said number of channels, bandwidths of said channels and rates at which the packets are received; processing the packets in order to determine a status of said channels within a predetermined frequency band using the at least one selected clear channel assessment "CCA" level; wherein the status is indicative of whether the channels are busy or clear; selecting at least one of the channels based on the determined status of the channels; process the packets in order to determine characteristics of the packets, the characteristics including the number of channels via which the packets are received, bandwidths of said channels and rates at which the packets are received; selecting at least one clear channel assessment "CCA" level based on said number of channels, bandwidths of said channels and rates at which the packets are received; processing the packets in order to determine a status of said channels within a predetermined frequency band using the at least one selected clear channel assessment "CCA" level; wherein the status is indicative of whether the channels are busy or clear; selecting at least one of the channels based on the determined status of the channels; wherein the communication interface is configured to support communication with one other wireless communication device (390, 391) using the selected channel.
A control node of a first network, comprising: - a first interface towards a radio access node of the first network, - a second interface towards a subscriber server node, - at least one processor configured to receive, via the first interface, a connectivity message (203, 301, 405, 1301), the connectivity message (203, 301, 405, 1301) including an identifier indicating an access point node of a second network and further including an identifier indicating a subscriber, wherein the at least one processor is configured to check authorization of the subscriber to establish a packet data session with the second network via the access point node, wherein the at least one processor is configured to send, via the second interface, a report message (304, 354, 1304) in response to said checking yielding failed authorization of the subscriber, wherein the at least one processor is configured to receive, via the second interface, a policy message including a policy, wherein the policy includes an identifier indicating at least one candidate access point node for which said sending of the report message (304, 354, 1304) is requested. wherein the at least one processor is configured to selective execute said sending of the report message (304, 354, 1304) depending on whether the connectivity message identifies one of the candidate access point nodes. - a first interface towards a radio access node of the first network, - a second interface towards a subscriber server node, - at least one processor configured to receive, via the first interface, a connectivity message (203, 301, 405, 1301), the connectivity message (203, 301, 405, 1301) including an identifier indicating an access point node of a second network and further including an identifier indicating a subscriber, wherein the at least one processor is configured to check authorization of the subscriber to establish a packet data session with the second network via the access point node, wherein the at least one processor is configured to send, via the second interface, a report message (304, 354, 1304) in response to said checking yielding failed authorization of the subscriber, wherein the at least one processor is configured to receive, via the second interface, a policy message including a policy, wherein the policy includes an identifier indicating at least one candidate access point node for which said sending of the report message (304, 354, 1304) is requested. wherein the at least one processor is configured to selective execute said sending of the report message (304, 354, 1304) depending on whether the connectivity message identifies one of the candidate access point nodes.
Blast-resistant bulletproof apparatus for an automotive vehicle, comprising a blast-resistant bulletproof window that has a ballistic block having a peripheral edge (11.1) and a plurality of panes of glass (4, 6, 8), ceramic or plastic material (10, 15) bonded to each other over their surfaces in a layered composite, and interposed bonding interlayers (5, 7, 9, 14) of plastic material or adhesive, characterized by at least one or more edge groove(s) with particularly rectangular cross section and provided on and along at least a part of the peripheral edge (11.1), and an edge recess provided on an inside surface (11.2) of the ballistic block or blast-resistant bulletproof window on and along at least a part of the peripheral edge (11.1) of the blast-resistant bulletproof window, wherein the edge recess is provided in the extension of a pane made of PC (polycarbonate) and/or in the extension of a pane of glass and/or in the extension of a pane made of vitreous ceramic; and wherein the ballistic block comprises a protective anti-splinter PC pane, arranged between the edge groove and the edge recess and adjoining the edge recess; and comprising a bullet-resistant armoring device for engaging the at least one or more edge groove(s) and the edge recess of the blast-resistant bulletproof window, and provided on a vehicle body or door frame.
A gas turbine engine (10, 20), comprising: a first bearing compartment; a seal assembly within the first bearing compartment, comprising: a rotatable seal seat; a gutter radially outward of the seal seat and fixed against rotation, the gutter including a channel on its radially inner face; a second bearing compartment; a scavenge pump in communication with a first supply line configured to supply the first bearing compartment and a second supply line configured to supply the second bearing compartment, wherein the gutter is in communication with the scavenge pump through a gutter scavenge line; and a valve between the scavenge pump and the second supply line configured to close in response to a dry port event, such that closing the valve stops oil supply to the second supply line, while allowing oil supply to the first supply line. a first bearing compartment; a seal assembly within the first bearing compartment, comprising: a rotatable seal seat; a gutter radially outward of the seal seat and fixed against rotation, the gutter including a channel on its radially inner face; a rotatable seal seat; a gutter radially outward of the seal seat and fixed against rotation, the gutter including a channel on its radially inner face; a second bearing compartment; a scavenge pump in communication with a first supply line configured to supply the first bearing compartment and a second supply line configured to supply the second bearing compartment, wherein the gutter is in communication with the scavenge pump through a gutter scavenge line; and a valve between the scavenge pump and the second supply line configured to close in response to a dry port event, such that closing the valve stops oil supply to the second supply line, while allowing oil supply to the first supply line.
An R-T-B-based rare-earth magnet containing a rare-earth element R, a transition metal element T, and boron B; wherein the rare-earth magnet further contains Cu and Co; wherein the rare-earth magnet has a Cu concentration distribution with a gradient along a direction from a surface of the rare-earth magnet to the inside thereof; wherein Cu has a higher concentration on the surface side of the rare-earth magnet than on the inside thereof; wherein the rare-earth magnet has a Co concentration distribution with a gradient along a direction from the surface of the rare-earth magnet to the inside thereof; and wherein Co has a higher concentration on the surface side of the rare-earth magnet than on the inside thereof.
Solution for intravenous infusion containing: curcumin and/or one or more curcumin derivatives, namely demethoxycurcumin and/or bisdemethoxycurcumin, dimethyl sulfoxide, one or more solubilizers, sodium selenite, and a buffer in an aqueous infusion medium. curcumin and/or one or more curcumin derivatives, namely demethoxycurcumin and/or bisdemethoxycurcumin, dimethyl sulfoxide, one or more solubilizers, sodium selenite, and a buffer in an aqueous infusion medium.
A separation zone for separating a hydrocarbon phase and an ionic liquid phase, the separation zone comprising: a separation vessel having an outlet for an ionic liquid stream, an outlet for a hydrocarbon effluent stream, and, an inlet for an effluent stream, wherein the separation vessel comprises an upper portion with a first diameter and a lower portion with a second diameter being smaller than the first diameter; a plurality of ionic liquid distribution members disposed in the separation vessel between the outlet for a hydrocarbon effluent stream and the inlet for an effluent stream, the ionic liquid distribution members configured to allow up-flowing fluid to pass through the at least one ionic liquid distribution member and contact ionic liquid, and wherein the ionic liquid distribution members each comprise a tray, each tray comprising a plurality of passageways for the up-flowing fluid and a downcomer, and wherein downcomers of adjacent trays are staggered in relation to each other; and, a line configured to pass ionic liquid to the separation vessel above the plurality of ionic liquid distribution members; wherein the separation vessel comprises a vertically orientated separation vessel; wherein the separation zone further comprises a pump configured to pass the ionic liquid stream from the separation zone to a reaction zone, and wherein the pump is also configured to pass ionic liquid to the separation vessel. a separation vessel having an outlet for an ionic liquid stream, an outlet for a hydrocarbon effluent stream, and, an inlet for an effluent stream, wherein the separation vessel comprises an upper portion with a first diameter and a lower portion with a second diameter being smaller than the first diameter; a plurality of ionic liquid distribution members disposed in the separation vessel between the outlet for a hydrocarbon effluent stream and the inlet for an effluent stream, the ionic liquid distribution members configured to allow up-flowing fluid to pass through the at least one ionic liquid distribution member and contact ionic liquid, and wherein the ionic liquid distribution members each comprise a tray, each tray comprising a plurality of passageways for the up-flowing fluid and a downcomer, and wherein downcomers of adjacent trays are staggered in relation to each other; and, a line configured to pass ionic liquid to the separation vessel above the plurality of ionic liquid distribution members; wherein the separation vessel comprises a vertically orientated separation vessel; wherein the separation zone further comprises a pump configured to pass the ionic liquid stream from the separation zone to a reaction zone, and wherein the pump is also configured to pass ionic liquid to the separation vessel.
Method for processing messages exchanged between a first user and at least one second user, this method comprising: - a step of detecting the composing of a first message by the first user in a message composition window displayed on a screen of a terminal of the first user; - a step of detecting, during this composing, the arrival of a second message for the first user from said at least one second user; - in response to the detection of the arrival of the second message, a step of interrupting the composing of the first message, the elements input by the user between said detection of the composing of the first message and said detection of the arrival of the second message forming a first message part; - an input by the first user in the composition window after this interruption resulting in the creation of a third message, which is intended to contain the elements input by the user after the detection of the arrival of the second message, this third message forming a second message part, - said elements input by the user before the detection of the arrival of the second message and after the detection of the arrival of the second message thus being split into said first message part and said second message part; and - a step of displaying the first message and the second message on the screen of the terminal, each message being displayed on the screen outside of the composition window and in association with at least one predetermined action (ACT3, ACT4) that can be confirmed by the first user. - a step of detecting the composing of a first message by the first user in a message composition window displayed on a screen of a terminal of the first user; - a step of detecting, during this composing, the arrival of a second message for the first user from said at least one second user; - in response to the detection of the arrival of the second message, a step of interrupting the composing of the first message, the elements input by the user between said detection of the composing of the first message and said detection of the arrival of the second message forming a first message part; - an input by the first user in the composition window after this interruption resulting in the creation of a third message, which is intended to contain the elements input by the user after the detection of the arrival of the second message, this third message forming a second message part, - said elements input by the user before the detection of the arrival of the second message and after the detection of the arrival of the second message thus being split into said first message part and said second message part; and - a step of displaying the first message and the second message on the screen of the terminal, each message being displayed on the screen outside of the composition window and in association with at least one predetermined action (ACT3, ACT4) that can be confirmed by the first user.
A method for removing oxide selectively to a material comprising at least silicon and at least nitrogen, the method comprising: - providing in a reactor a structure having a surface comprising a region, wherein said region comprises a material comprising at least silicon and at least nitrogen, - providing on said structure an oxide layer overlying at least a part of said region, and, - removing said oxide layer selective to said material by etching, thereby exposing at least a part of said at least overlaid part of said region, wherein said etching is done only by providing an etchant gas consisting of a mixture of BCl 3 and Cl 2 whereby a voltage bias lower than 30 V is applied to the structure, wherein said material is selected from a group consisting of SiON, SiCN and Si x N y with 1<y/x<2, and wherein said oxide layer is SiO 2. - providing in a reactor a structure having a surface comprising a region, wherein said region comprises a material comprising at least silicon and at least nitrogen, - providing on said structure an oxide layer overlying at least a part of said region, and, - removing said oxide layer selective to said material by etching, thereby exposing at least a part of said at least overlaid part of said region,