mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing isocyanate containing alkoxysilane groups, in which, in the sequence of steps A) to D), A) alkoxysilanoalkylamine is reacted with urea in the presence of an alcohol, optionally in the presence of at least one catalyst, to give alkoxysilanoalkylurethane, B) simultaneously or successively - if used, the catalyst is removed and/or deactivated, and - low boilers, medium boilers and/or high boilers are removed, C) purified alkoxysilanoalkylurethane is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the bottoms material and collected, characterized in that, in step C), i) the bottoms material is wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step B) or C), is fed in again. A) alkoxysilanoalkylamine is reacted with urea in the presence of an alcohol, optionally in the presence of at least one catalyst, to give alkoxysilanoalkylurethane, B) simultaneously or successively - if used, the catalyst is removed and/or deactivated, and - low boilers, medium boilers and/or high boilers are removed, - if used, the catalyst is removed and/or deactivated, and - low boilers, medium boilers and/or high boilers are removed, C) purified alkoxysilanoalkylurethane is thermally cleaved to release isocyanate containing alkoxysilane groups and by-product, leaving bottoms material, and D) isocyanate containing alkoxysilane groups and by-product are separated from one another and from the bottoms material and collected, i) the bottoms material is wholly or partly discharged from the cleavage apparatus, ii) subjected to thermal treatment and/or purification and/or an aftertreatment in the presence of alcohol and iii) the material removed, after thermal treatment and/or purification and/or aftertreatment in step B) or C), is fed in again.
A slave (2.1, 2.2, 4.1, 4.2) provided on a communication network and transmitting a signal via a communication cable, comprising: a circuit board for transmitting a signal, said circuit board including a line pattern (16, 19) for passing noise current entering said slave (2.1, 2.2, 4.1, 4.2), at least one transformer module (12A, 12B) provided on a path for transmitting a signal of said circuit board, wherein said at least one transformer module (12A, 12B) includes: a first pulse transformer for passing a signal received by said slave (2.1, 2.2, 4.1, 4.2) via said communication cable, and a second pulse transformer for passing a signal transmitted from said slave (2.1, 2.2, 4.1, 4.2) to said communication cable, and a shield member (15A, 15B) provided in association with said at least one transformer module (12A, 12B) for preventing noise which is generated due to noise current from entering said at least one transformer module (12A, 12B), wherein said shield member (15A, 15B) covering a part of a surface of said at least one transformer module (12A, 12B), said part intersecting concentric circles having a central axis extending along a direction in which said noise current flows, wherein said first and second pulse transformers (21, 22) are housed in a package mounted on said circuit board, and wherein said shield member (15A, 15B) covers an upper surface of said package and a side of said package that is located opposite to said line pattern (16, 19). a circuit board for transmitting a signal, said circuit board including a line pattern (16, 19) for passing noise current entering said slave (2.1, 2.2, 4.1, 4.2), at least one transformer module (12A, 12B) provided on a path for transmitting a signal of said circuit board, wherein said at least one transformer module (12A, 12B) includes: a first pulse transformer for passing a signal received by said slave (2.1, 2.2, 4.1, 4.2) via said communication cable, and a second pulse transformer for passing a signal transmitted from said slave (2.1, 2.2, 4.1, 4.2) to said communication cable, and a first pulse transformer for passing a signal received by said slave (2.1, 2.2, 4.1, 4.2) via said communication cable, and a second pulse transformer for passing a signal transmitted from said slave (2.1, 2.2, 4.1, 4.2) to said communication cable, and a shield member (15A, 15B) provided in association with said at least one transformer module (12A, 12B) for preventing noise which is generated due to noise current from entering said at least one transformer module (12A, 12B), wherein said shield member (15A, 15B) covering a part of a surface of said at least one transformer module (12A, 12B), said part intersecting concentric circles having a central axis extending along a direction in which said noise current flows, wherein said first and second pulse transformers (21, 22) are housed in a package mounted on said circuit board, and wherein said shield member (15A, 15B) covers an upper surface of said package and a side of said package that is located opposite to said line pattern (16, 19).
Method for interaction between at least one first sensory stimulator and at least one second sensory stimulator separate from the first sensory stimulator, the first sensory stimulator comprising at least one first haptic unit, the second sensory stimulator comprising at least one second haptic unit, the first and second sensory stimulators, being represented in a common virtual space, their representations being suitable for sharing this common virtual space, the representation of the first sensory stimulator in the common virtual space comprising at least one first image body linked to at least one first perceiving body via a first virtual link, the first haptic unit being suitable for moving at least the first perceiving body in the common virtual space, the representation of the second sensory stimulator in the common virtual space comprising at least one second image body linked to at least one second perceiving body via a second virtual link, the second haptic unit being suitable for moving at least the second perceiving body in the common virtual space, the first sensory stimulator being suitable for being placed in a first active state when the first perceiving body moving in the common virtual space touches the second image body in the common virtual space, the interaction method comprising at least one first step of deforming at least the first image body in the common virtual space when at least the first sensory stimulator is in the first active state, the first step of deforming being initiated by means of the first haptic unit, the second sensory stimulator being suitable for being placed in a second active state when the second perceiving body moving in the common virtual space touches the first image body in the common virtual space, and the interaction method comprising at least one second step of deforming at least the second image body in the common virtual space when at least the second sensory stimulator is in the second active state, the second step of deforming being initiated by means of the second haptic unit, characterised in that the interaction method comprises: - a step of positioning first and second sensory stimulators, in a real physical space using means of geolocating embedded respectively by the first and second sensory stimulators,, - a step of reconstituting the real physical space in the common virtual space, and - a step of projecting in the common virtual space real respective movements of the first and second sensory stimulators, in the real physical space. - a step of positioning first and second sensory stimulators, in a real physical space using means of geolocating embedded respectively by the first and second sensory stimulators,, - a step of reconstituting the real physical space in the common virtual space, and - a step of projecting in the common virtual space real respective movements of the first and second sensory stimulators, in the real physical space.
System for time-correlated photon-number-resolved counting applications, the system comprising the following components: - A photon-number-resolving detector connected to - A plurality of comparators, wherein each comparator is adjusted to a different reference value (V ref), wherein each comparator is configured to output a comparator-signal in the event that the modulus of a received detection signal (100, 101) from the photon-number-resolving detector exceeds the modulus of the reference value (V ref) of the comparator; - A conversion electronics configured to receive the comparator-signals from the plurality of comparators and to generate a digital detection event for each detection signal of the photon-number-resolving detector, wherein each detection event comprises a time code for the detection event comprising a time information of the detection signal and an associated photon-number code obtained from the number of coinciding comparator-signals; - A recording electronics, wherein the recording electronics is configured to record the time code of the detection event and the associated photon-number code, wherein the reference values (V ref) of the comparators are adjusted such that a photon number for each detection signal can be resolved by the system. - A photon-number-resolving detector connected to - A plurality of comparators, wherein each comparator is adjusted to a different reference value (V ref), wherein each comparator is configured to output a comparator-signal in the event that the modulus of a received detection signal (100, 101) from the photon-number-resolving detector exceeds the modulus of the reference value (V ref) of the comparator; - A conversion electronics configured to receive the comparator-signals from the plurality of comparators and to generate a digital detection event for each detection signal of the photon-number-resolving detector, wherein each detection event comprises a time code for the detection event comprising a time information of the detection signal and an associated photon-number code obtained from the number of coinciding comparator-signals; - A recording electronics, wherein the recording electronics is configured to record the time code of the detection event and the associated photon-number code,
A method of optically reading data stored in a recording medium which comprises a recording layer that comprises an optically active material in which a change in properties of the recording layer corresponding with recorded data has been induced in one or more regions and that stores data by the change in the properties of the recording layer, wherein the change in properties is detectable via a response of the recording layer to optical radiation having a first characteristic, and wherein the response of the recording layer can be inhibited by optical radiation having a second characteristic, the method comprising: focusing a first beam of optical radiation having the first characteristic on a region of the recording layer, the first beam having sufficient intensity within a central portion of the irradiated region and being of sufficient duration to cause the response, but of insufficient intensity and duration to cause an optically induced change in properties of the recording layer; simultaneously focusing a second beam of optical radiation having the second characteristic on said region of the recording layer, the second beam having a local intensity minimum within the central portion of the irradiated region, and a local intensity maximum in at least one portion of the irradiated region adjacent to the central portion which is sufficient to inhibit the response of the recording layer to the first beam of optical radiation; and detecting whether the recording layer exhibits the response to the first beam of optical radiation within the central portion of the irradiated region. focusing a first beam of optical radiation having the first characteristic on a region of the recording layer, the first beam having sufficient intensity within a central portion of the irradiated region and being of sufficient duration to cause the response, but of insufficient intensity and duration to cause an optically induced change in properties of the recording layer; simultaneously focusing a second beam of optical radiation having the second characteristic on said region of the recording layer, the second beam having a local intensity minimum within the central portion of the irradiated region, and a local intensity maximum in at least one portion of the irradiated region adjacent to the central portion which is sufficient to inhibit the response of the recording layer to the first beam of optical radiation; and detecting whether the recording layer exhibits the response to the first beam of optical radiation within the central portion of the irradiated region.
A binder with a core-shell structure for a secondary battery electrode, wherein the core comprises styrene-butadiene rubber, the shell comprises a copolymer of two or more monomers selected from the group consisting of a conjugated diene-based monomer, a (meth)acrylic ester-based monomer, an acrylate-based monomer, a vinyl-based monomer, a nitrile-based monomer, and an ethylenically unsaturated carboxylic acid monomer, and the binder comprises a functional group providing binding capacity to particle surfaces of the shell part, wherein the functional group is derived from compounds including a polar group, said compounds being included in an amount of 4 wt% to 12 wt% based on the total weight of the monomer forming the shell part, and wherein the particle diameter of the binder is 180 nm to 350 nm.
A method of rendering a graphical object with a computing device having an output interface, comprising: determining a transformation to be applied to a graphical object based on received transformation commands, said transformation represented by a matrix; characterized by: determining verification data based on a scaling factor determined from the transformation commands; and adjusting said matrix using said verification data; and rendering said graphical object transformed with the adjusted matrix via said output interface. determining a transformation to be applied to a graphical object based on received transformation commands, said transformation represented by a matrix; characterized by: determining verification data based on a scaling factor determined from the transformation commands; and adjusting said matrix using said verification data; and rendering said graphical object transformed with the adjusted matrix via said output interface. determining verification data based on a scaling factor determined from the transformation commands; and adjusting said matrix using said verification data; and rendering said graphical object transformed with the adjusted matrix via said output interface.
Load selector comprising a load changeover switch insert with a switching tube rotatable about an axis, at least one switching segment, which is fastened to the switching tube, and at least two vacuum interrupters (33, 34), which are arranged in the at least one switching segment, wherein each vacuum interrupter (33, 34) has in the direction of the axis of the switching tube a movable contact which co-operates at its free end with an actuating lever, characterised in that the vacuum interrupters (33, 34) are so arranged in alternation in opposite sense that the movable contacts of the at least two vacuum interrupters (33, 34) are oriented in opposite directions and movable with respect to the axis.
A microfluidic assay device comprising: an elongated flow path comprising a polymeric medium having a directional axis, wherein the polymeric medium fills an interior volume of the elongated flow path and comprises a first analyte detection domain along the directional axis comprising a first immobilized capture member that specifically binds to a first analyte and a second analyte detection domain along the directional axis comprising a second immobilized capture member that specifically binds to a second analyte wherein the device is configured to electrophoretically transport sample constituents through the device. an elongated flow path comprising a polymeric medium having a directional axis, wherein the polymeric medium fills an interior volume of the elongated flow path and comprises a first analyte detection domain along the directional axis comprising a first immobilized capture member that specifically binds to a first analyte and a second analyte detection domain along the directional axis comprising a second immobilized capture member that specifically binds to a second analyte wherein the device is configured to electrophoretically transport sample constituents through the device.
A handover method in dual connectivity, comprising: receiving, by a target primary base station, a handover request sent by a source primary base station, wherein the handover request comprises first configuration information of a source secondary base station, and the source primary base station and the source secondary base station jointly provide services for user equipment; sending, by the target primary base station, a first indication and a user equipment identity allocated by the source secondary base station to the source secondary base station, wherein the first indication is used to instruct the source secondary base station to remain as the secondary base station for the user equipment; and sending, by the target primary base station, a handover acknowledgement to the source primary base station, wherein the handover acknowledgement comprises second configuration information of the source secondary base station, and the second configuration information is used to jointly provide services for the user equipment by the target primary base station and the source secondary base station. receiving, by a target primary base station, a handover request sent by a source primary base station, wherein the handover request comprises first configuration information of a source secondary base station, and the source primary base station and the source secondary base station jointly provide services for user equipment; sending, by the target primary base station, a first indication and a user equipment identity allocated by the source secondary base station to the source secondary base station, wherein the first indication is used to instruct the source secondary base station to remain as the secondary base station for the user equipment; and sending, by the target primary base station, a handover acknowledgement to the source primary base station, wherein the handover acknowledgement comprises second configuration information of the source secondary base station, and the second configuration information is used to jointly provide services for the user equipment by the target primary base station and the source secondary base station.
A method for fabricating a conductive plug structure, comprising: providing a substrate; forming a mask layer having an opening on a surface of the substrate; etching the substrate to form a contact hole using the mask layer as an etching mask; etching the mask layer to increase a feature size of the opening; forming an insulation layer on an inner surface of the opening, an inner surface of the enlarged opening and a surface of the mask layer to have more edge corners, a thickness of the insulation layer being greater than a thickness of the remaining mask layer; forming a conductive layer (240; 340) filling the contact hole on the insulation layer, wherein the conductive layer is formed by an electroplating process with an inhibitor added in an electroplating solution; and planarizing the conductive layer (240; 340) and the insulation layer until a surface of the mask layer is exposed. providing a substrate; forming a mask layer having an opening on a surface of the substrate; etching the substrate to form a contact hole using the mask layer as an etching mask; etching the mask layer to increase a feature size of the opening; forming an insulation layer on an inner surface of the opening, an inner surface of the enlarged opening and a surface of the mask layer to have more edge corners, a thickness of the insulation layer being greater than a thickness of the remaining mask layer; forming a conductive layer (240; 340) filling the contact hole on the insulation layer, wherein the conductive layer is formed by an electroplating process with an inhibitor added in an electroplating solution; and planarizing the conductive layer (240; 340) and the insulation layer until a surface of the mask layer is exposed.
Washing machine having a drum for accommodating laundry items to be treated, which is supported in a rotatable manner in an outer tub, comprising a water supply system (8, 10), a control apparatus, a water container and a water drop producer (18, 22), wherein the water drop producer (18, 22) has an ultrasonic nebuliser, which is arranged in the water container, characterised in that the water container and drum together with a mist channel and a mist return channel form a circuit.
A method for predicting whether a subject suffering from glioblastoma will be eligible to a treatment with a SRC inhibitor comprising i) determining the expression level of CD90 in a sample obtained from the subject, ii) comparing the expression level determined at step i) with a predetermined reference level and iii) concluding that the subject will be eligible to a treatment with a SRC inhibitor when the level determined at step i) is higher than the predetermined reference level or concluding that the subject will not be eligible to a treatment with a SRC inhibitor when the level determined at step i) is lower than the predetermined expression level.
A method of making a dry-erase coating composition, the method comprising: providing an aminoalkoxysilane; in the substantial absence of water, reacting a portion of said aminoalkoxysilane with a carbonate, the carbonate having a formula according to the following formula: wherein R 2 and R 3 each independently include an alkyl group, or R 2 and R 3 form a cyclic structure that may include any one or more of an alkyl group, a hydroxyalkyl group, and a hydroxyl group as substituents; and reacting a portion of said aminoalkoxysilane with an epoxy compound of the following formula wherein A 4 - A 6 are the same or different and comprise hydrogen or a carbon-containing group with one to three carbon atoms, A 7 is a carbonyl-containing linking group, and R 19 is an aliphatic group having at least four carbon atoms; and the reactions yielding a mixture of alkoxysilylamines and alkoxysilylcarbamates; the method including providing an alkylamine in an amount effective to catalytically deprotect alkoxy groups in said alkoxysilylamines to yield silanol groups. providing an aminoalkoxysilane; in the substantial absence of water, reacting a portion of said aminoalkoxysilane with a carbonate, the carbonate having a formula according to the following formula: wherein R 2 and R 3 each independently include an alkyl group, or R 2 and R 3 form a cyclic structure that may include any one or more of an alkyl group, a hydroxyalkyl group, and a hydroxyl group as substituents; and reacting a portion of said aminoalkoxysilane with an epoxy compound of the following formula wherein A 4 - A 6 are the same or different and comprise hydrogen or a carbon-containing group with one to three carbon atoms, A 7 is a carbonyl-containing linking group, and R 19 is an aliphatic group having at least four carbon atoms; and the reactions yielding a mixture of alkoxysilylamines and alkoxysilylcarbamates; the method including providing an alkylamine in an amount effective to catalytically deprotect alkoxy groups in said alkoxysilylamines to yield silanol groups.
An immunogenic composition comprising recombinant PCV2 ORF2 protein for use in a method for conferring protective immunity against the clinical signs of PCV2 infection in a pig, wherein said method consists of the administration of one dose of said immunogenic composition to said pig.