mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous particle-free inkjet ink composition that has a viscosity of less than 5 centipoises (0.005 N-sec) at 25°C, and comprises: an anionic polyether polyurethane having an acid number of at least 50 and an anionic acrylic polymer or anionic styrene-acrylic polymer having an acid number of at least 50; wherein the weight ratio of the anionic polyether polyurethane to the anionic acrylic polymer or anionic styrene-acrylic polymer is from 1:9 to and including 9:1, and the total amount of the anionic polyether polyurethane and the anionic acrylic polymer or anionic styrene-acrylic polymer is less than or equal to 20 weight % based on the total aqueous particle-free inkjet ink composition weight, and a defoamer that has a hydrophilic-lipophilic balance value of at least 3 and up to and including 5, which defoamer is present in an amount of at least 0.15 weight % and up to and including 1 weight %, based on the total aqueous particle-free inkjet ink composition weight. an anionic polyether polyurethane having an acid number of at least 50 and an anionic acrylic polymer or anionic styrene-acrylic polymer having an acid number of at least 50; wherein the weight ratio of the anionic polyether polyurethane to the anionic acrylic polymer or anionic styrene-acrylic polymer is from 1:9 to and including 9:1, and the total amount of the anionic polyether polyurethane and the anionic acrylic polymer or anionic styrene-acrylic polymer is less than or equal to 20 weight % based on the total aqueous particle-free inkjet ink composition weight, and a defoamer that has a hydrophilic-lipophilic balance value of at least 3 and up to and including 5, which defoamer is present in an amount of at least 0.15 weight % and up to and including 1 weight %, based on the total aqueous particle-free inkjet ink composition weight.
A method for an Access Point, AP, to transmit a Block Acknowledgement, BA, signal for transmission data from a plurality of Stations, STAs, in a Wireless Local Area Network, WLAN, system, the method comprising: receiving data from the plurality of STAs; and transmitting a multi-STA BA frame for the data received from the plurality of STAs, wherein the multi-STA BA frame includes a Media Access Control, MAC, header field, a BA control field, and a BA information field, and wherein the BA information field includes an individual information field including: Association Identifier, AID, information for one or more STAs, to which ACK/Negative ACK is directed, among the plurality of STAs, and BA indicator information indicating whether the BA information field includes one or more of a block ACK bitmap subfield and a starting sequence control subfield, wherein the BA information field does not include the block ACK bitmap subfield and the starting sequence control subfield, if the BA indicator information of the individual information field indicates a first value, wherein the BA information field includes the starting sequence control subfield and does not include the block ACK bitmap subfield, if the BA indicator information of the individual information field indicates a second value, and wherein the BA Information field includes both the block ACK bitmap subfield and the starting sequence control subfield, if the BA indicator information of the individual information field indicates a third value. receiving data from the plurality of STAs; and transmitting a multi-STA BA frame for the data received from the plurality of STAs, wherein the multi-STA BA frame includes a Media Access Control, MAC, header field, a BA control field, and a BA information field, and wherein the BA information field includes an individual information field including: Association Identifier, AID, information for one or more STAs, to which ACK/Negative ACK is directed, among the plurality of STAs, and BA indicator information indicating whether the BA information field includes one or more of a block ACK bitmap subfield and a starting sequence control subfield, wherein the BA information field does not include the block ACK bitmap subfield and the starting sequence control subfield, if the BA indicator information of the individual information field indicates a first value, wherein the BA information field includes the starting sequence control subfield and does not include the block ACK bitmap subfield, if the BA indicator information of the individual information field indicates a second value, and wherein the BA Information field includes both the block ACK bitmap subfield and the starting sequence control subfield, if the BA indicator information of the individual information field indicates a third value.
Assembly system for assembling, disassembling and/or maintaining a gas turbine , comprising: - a first guide carriage for holding a first engine component , in particular a turbine module of the gas turbine ; - a second guide carriage for holding a second engine component , in particular a compressor module of the gas turbine ; and - a connection module which can be detachably connected to the first and to the second guide carriage by corresponding coupling means , characterized in that at least one of the guide carriages (14a-c) comprises an engine mount by means of which the associated engine component (16a-c) can be rotatably mounted, outside its center of mass, about three axes (x, y, z), and in that at least one of the guide carriages (14b, c) comprises an engine mount by means of which the associated engine component (16b, c) can be moved translationally along at least one axis (z). - a first guide carriage for holding a first engine component , in particular a turbine module of the gas turbine ; - a second guide carriage for holding a second engine component , in particular a compressor module of the gas turbine ; and - a connection module which can be detachably connected to the first and to the second guide carriage by corresponding coupling means ,
A transport refrigeration unit to cool an interior compartment of a container fluidly coupled to the transport refrigeration unit, the transport refrigeration unit comprising: a power system to provide power to the transport refrigeration unit comprising: an engine ; an exhaust system to expel exhausted air from the engine; a fuel supply system to transfer fuel to the engine via a fuel supply hose , and a thermal event detection system comprising: a safety controller ; characterised in that the thermal event detection system further comprises: a linear heat detector communicatively coupled to the safety controller, wherein the linear heat detector is operative to create, subsequent to being exposed to a temperature greater than or equal to a threshold temperature, a change in resistance along at least a portion of the linear heat detector, wherein the change in resistance is detectable by the safety controller, and wherein the safety controller is operative to initiate an action upon having detected the change in resistance. an engine ; an exhaust system to expel exhausted air from the engine; a fuel supply system to transfer fuel to the engine via a fuel supply hose , and a thermal event detection system comprising: a safety controller ; characterised in that the thermal event detection system further comprises: a linear heat detector communicatively coupled to the safety controller, wherein the linear heat detector is operative to create, subsequent to being exposed to a temperature greater than or equal to a threshold temperature, a change in resistance along at least a portion of the linear heat detector, wherein the change in resistance is detectable by the safety controller, and wherein the safety controller is operative to initiate an action upon having detected the change in resistance. a safety controller ; characterised in that the thermal event detection system further comprises: a linear heat detector communicatively coupled to the safety controller, wherein the linear heat detector is operative to create, subsequent to being exposed to a temperature greater than or equal to a threshold temperature, a change in resistance along at least a portion of the linear heat detector, wherein the change in resistance is detectable by the safety controller, and wherein the safety controller is operative to initiate an action upon having detected the change in resistance. a linear heat detector communicatively coupled to the safety controller, wherein the linear heat detector is operative to create, subsequent to being exposed to a temperature greater than or equal to a threshold temperature, a change in resistance along at least a portion of the linear heat detector, wherein the change in resistance is detectable by the safety controller, and wherein the safety controller is operative to initiate an action upon having detected the change in resistance.
A vehicle audio system, comprising an integrated control device for controlling massage units (102-1 to 102-n) in a vehicle seat , which is configured to convert an acoustic entertainment signal into at least one output signal driving the massage units (102-1 to 102-n) and to drive the massage units (102-1 to 102-n) based on the acoustic entertainment signal .
A tape support arrangement , the arrangement comprising: a tape take up core suitable for supporting a tape; and a tape supply core suitable for supporting a tape, the supply core comprising an inner surface , the inner surface defining an internal volume of the supply core and being configured for engagement with a tape drive support, and characterized in that the take up core is sized, shaped and configured such that it can be located in the internal volume of the supply core. a tape take up core suitable for supporting a tape; and a tape supply core suitable for supporting a tape, the supply core comprising an inner surface , the inner surface defining an internal volume of the supply core and being configured for engagement with a tape drive support, and characterized in that the take up core is sized, shaped and configured such that it can be located in the internal volume of the supply core.
A method for predicting a software build error, comprising: detecting a plurality of changes in software since the last software build; identifying a plurality of change lists, wherein a change list is identified for each of the plurality of changes in the software; identifying a characteristic for each change list in the plurality of change lists, the characteristic comprising a complexity metric based in part on a number of nested loops surrounding a changed line of software code; calculating a plurality of probabilities based on the characteristic of each of the plurality of change lists, wherein each of the probabilities indicates the likelihood of one of the plurality of change lists creating the software build error, the software build error preventing the software from being compiled into an executable file or preventing the software from being translated into machine executable code, and wherein the plurality of probabilities are calculated based on a plurality of coefficients, each coefficient corresponding to each characteristic of each of the plurality of change lists, the coefficients determined from historical data; reporting the plurality of probabilities of the software build error; building the software; detecting the software build error; determining a change from the plurality of changes in the software that resulted in the software build error; and removing the change that resulted in the software build error from the software. detecting a plurality of changes in software since the last software build; identifying a plurality of change lists, wherein a change list is identified for each of the plurality of changes in the software; identifying a characteristic for each change list in the plurality of change lists, the characteristic comprising a complexity metric based in part on a number of nested loops surrounding a changed line of software code; calculating a plurality of probabilities based on the characteristic of each of the plurality of change lists, wherein each of the probabilities indicates the likelihood of one of the plurality of change lists creating the software build error, the software build error preventing the software from being compiled into an executable file or preventing the software from being translated into machine executable code, and wherein the plurality of probabilities are calculated based on a plurality of coefficients, each coefficient corresponding to each characteristic of each of the plurality of change lists, the coefficients determined from historical data; reporting the plurality of probabilities of the software build error; building the software; detecting the software build error; determining a change from the plurality of changes in the software that resulted in the software build error; and removing the change that resulted in the software build error from the software.
A waveguide system, comprising: a first planar waveguide having first and second opposite surfaces and a first index of refraction; a plurality of diffractive optical elements disposed upon the first surface of the first planar waveguide to diffract light in a first direction out of the first planar waveguide towards a viewer and in a second direction into the first planar waveguide away from the viewer; and an anti-reflective coating disposed upon the second surface of the first planar waveguide through which the light refracted in the second direction leaves the first planar waveguide with the anti-reflective coating increasing transmission through the second surface, characterized by a second planar waveguide having first and second opposite surfaces and the first index of refraction, wherein said transmission is into the second planar waveguide . a first planar waveguide having first and second opposite surfaces and a first index of refraction; a plurality of diffractive optical elements disposed upon the first surface of the first planar waveguide to diffract light in a first direction out of the first planar waveguide towards a viewer and in a second direction into the first planar waveguide away from the viewer; and an anti-reflective coating disposed upon the second surface of the first planar waveguide through which the light refracted in the second direction leaves the first planar waveguide with the anti-reflective coating increasing transmission through the second surface, characterized by a second planar waveguide having first and second opposite surfaces and the first index of refraction, wherein said transmission is into the second planar waveguide .
A polymeric composition comprising a water-soluble anionic P2 polymer obtained by radical polymerization of at least one anionic monomer, in the presence of a water-soluble P1 homopolymer with an average molecular weight by weight of between 5,000 and 100,000 daltons, said water-soluble anionic P2 polymer having a weight-average molecular weight greater than 100,000 daltons and less than or equal to 40 million daltons, wherein the weight average molecular weights are determined from the intrinsic viscosity by the method disclosed in the description, said water-soluble P1 homopolymer having been prepared from 2-acrylamido-2-methylpropane sulfonic acid in salified form and in the presence of 200 to 20,000 ppm by weight of 2-methyl-2-propenyl-sulfonic acid in salified form. said water-soluble anionic P2 polymer having a weight-average molecular weight greater than 100,000 daltons and less than or equal to 40 million daltons, wherein the weight average molecular weights are determined from the intrinsic viscosity by the method disclosed in the description, said water-soluble P1 homopolymer having been prepared from 2-acrylamido-2-methylpropane sulfonic acid in salified form and in the presence of 200 to 20,000 ppm by weight of 2-methyl-2-propenyl-sulfonic acid in salified form.
A process of communication between two elements constitutive of an electrical energy distribution network of a single-phase or three-phase domestic or industrial installation, the method comprising the following steps: - the assignment of a first IP address to a first constituent element of the distribution network, wherein said first element is a wall switch having a first electronic circuit comprising first memory circuits configured for the storage of said first IP address assigned during a phase configuration; - the assignment of a second IP address to a second constituent element of the electrical energy distribution network, in which said second element is a 2P+E wall socket or a Light Connection Device (LCD - 131) comprising a second electronic circuit comprising second memory circuits configured for the storage of said second IP address assigned during a configuration phase; Wherein said configuration uses the MAC address of said switch and the MAC address of said 2P+E wall socket or of said Light Connection Device (LCD 131) for assigning an IP address; - the establishment, after said configuration phase, of a communication between said first and second elements of said electrical energy distribution network, in which said first and second IP addresses are exchanged so as to create an association between said first and second elements allowing the control of said 2P+E wall socket or said Light connection device (LCD - 131) by said wall switch through the exchange of IP packets, wherein the communication between said switch and said 2P+E or said Light connection Device (DCL 131) is performed through a radio-frequency communication. - the assignment of a first IP address to a first constituent element of the distribution network, wherein said first element is a wall switch having a first electronic circuit comprising first memory circuits configured for the storage of said first IP address assigned during a phase configuration; - the assignment of a second IP address to a second constituent element of the electrical energy distribution network, in which said second element is a 2P+E wall socket or a Light Connection Device (LCD - 131) comprising a second electronic circuit comprising second memory circuits configured for the storage of said second IP address assigned during a configuration phase; - the establishment, after said configuration phase, of a communication between said first and second elements of said electrical energy distribution network, in which said first and second IP addresses are exchanged so as to create an association between said first and second elements allowing the control of said 2P+E wall socket or said Light connection device (LCD - 131) by said wall switch through the exchange of IP packets, wherein the communication between said switch and said 2P+E or said Light connection Device (DCL 131) is performed through a radio-frequency communication.
A method of adhering two honeycomb cores , the method comprising: applying an adhesive layer between a first honeycomb core and a second honeycomb core , the adhesive layer directly interfacing the first honeycomb core and the second honeycomb core ; inserting each of a first plurality of tie clips into the first honeycomb core and into the second honeycomb core ; and curing the adhesive layer while each of the first plurality of tie clips is inserted into the first honeycomb core and the second honeycomb core , wherein inserting each of the first plurality of tie clips into the first honeycomb core and the second honeycomb core comprises bridging a full cell of the first honeycomb core with a full cell of the second honeycomb core , wherein bridging the full cell of the first honeycomb core with the full cell of the second honeycomb core comprises inserting a first leg of each tie clip of the first plurality into a full cell of the first honeycomb core and further comprises inserting a second leg of each tie clip of the first plurality into a full cell of the second honeycomb core . applying an adhesive layer between a first honeycomb core and a second honeycomb core , the adhesive layer directly interfacing the first honeycomb core and the second honeycomb core ; inserting each of a first plurality of tie clips into the first honeycomb core and into the second honeycomb core ; and curing the adhesive layer while each of the first plurality of tie clips is inserted into the first honeycomb core and the second honeycomb core , wherein inserting each of the first plurality of tie clips into the first honeycomb core and the second honeycomb core comprises bridging a full cell of the first honeycomb core with a full cell of the second honeycomb core , wherein bridging the full cell of the first honeycomb core with the full cell of the second honeycomb core comprises inserting a first leg of each tie clip of the first plurality into a full cell of the first honeycomb core and further comprises inserting a second leg of each tie clip of the first plurality into a full cell of the second honeycomb core .
An emulsion of an aqueous phase in a lipid phase, with an improved pick-up behaviour, wherein the lipid phase comprises non-fatty cocoa and/or milk solids, and the aqueous phase comprises a sweetener composition and is dispersed throughout the lipid phase in the form of droplets, characterized in that the lipid phase comprises lipids that have been tempered.
A talar implant, comprising: a. a superior surface, defined by an arc having at least one first radius (ri); b. an inferior surface, defined by an arc having at least one second radius (rz), c. a lateral side; d. a medial side; e. a posterior portion having a first width; and f. an anterior portion having a second width; wherein the implant is configured to restore a joint tension between a tibio-talar joint in a neutral position, wherein the superior surface is separated from the inferior surface by a thickness, defining a height of the medial and lateral sides, wherein the at least one first radius (r 1 ) is smaller than the at least one second radius (r 2 ), wherein the center of the arc having at least one first radius (r 1 ) is offset from the center of the arc having at least one second radius (r 2 ) in at least one plane of the talar implant selected from the group consisting of: a superior/inferior plane, an anterior/posterior plane, and a medial/lateral plane, wherein the inferior surface is configured to attach to a superior surface of the talus, and wherein the anterior portion further comprises an extension configured to provide support, characterized in that a ratio of the at least one first radius to the at least one second radius is in the range of from about 0.60 to about 0.95. a. a superior surface, defined by an arc having at least one first radius (ri); b. an inferior surface, defined by an arc having at least one second radius (rz), c. a lateral side; d. a medial side; e. a posterior portion having a first width; and f. an anterior portion having a second width; wherein the implant is configured to restore a joint tension between a tibio-talar joint in a neutral position, wherein the superior surface is separated from the inferior surface by a thickness, defining a height of the medial and lateral sides, wherein the at least one first radius (r 1 ) is smaller than the at least one second radius (r 2 ), wherein the center of the arc having at least one first radius (r 1 ) is offset from the center of the arc having at least one second radius (r 2 ) in at least one plane of the talar implant selected from the group consisting of: a superior/inferior plane, an anterior/posterior plane, and a medial/lateral plane, wherein the inferior surface is configured to attach to a superior surface of the talus, and wherein the anterior portion further comprises an extension configured to provide support,