mhurhangee/ep-ind-claims huggingface dataset:
Composition including: a) a copolymer produced by copolymerization of at least one monomer of the formula, at least one monomer of the formula, at least one monomer of the formula and at least one monomer of the formula: R f -(CH 2) 2 -OC -P 1 R 2 -OC -P 2 R 3 -OC -P 3 R 4 -NH-C -P 4 wherein R f is a branched or unbranched perfluoroalkyl group, P 1, P 2, P 3 and P 4 are polymerizable branched or unbranched hydrocarbon groups comprising at least one double bond, R 2 is a cycloalkyl group and R 3 is an alkyl group, and wherein R 4 is an alkylamino group, wherein the copolymer is not produced from other monomers; and b) at least one non-fluorinated organic solvent. a) a copolymer produced by copolymerization of at least one monomer of the formula, at least one monomer of the formula, at least one monomer of the formula and at least one monomer of the formula: R f -(CH 2) 2 -OC -P 1 R 2 -OC -P 2 R 3 -OC -P 3 R 4 -NH-C -P 4 wherein R f is a branched or unbranched perfluoroalkyl group, P 1, P 2, P 3 and P 4 are polymerizable branched or unbranched hydrocarbon groups comprising at least one double bond, R 2 is a cycloalkyl group and R 3 is an alkyl group, and wherein R 4 is an alkylamino group, wherein the copolymer is not produced from other monomers; and b) at least one non-fluorinated organic solvent.
A method performed by a master base station in a wireless communication system, the method comprising: transmitting, to a secondary base station, a secondary base station setup request message for requesting the secondary base station to allocate resources for a dual connectivity, DC, operation; receiving, from the secondary base station, a secondary base station setup response message, after transmitting the secondary base station setup request message; and transmitting, to the secondary base station, a modification message, after receiving the secondary base station setup response message, wherein the secondary base station setup request message comprises a quality of service, QoS, flow identifier, ID, and a data radio bearer, DRB, ID, wherein the secondary base station setup response message comprises the QoS flow ID and a new DRB ID corresponding to the QoS flow ID, and wherein the modification message comprises tunnel information for the new DRB ID, comprising an internet protocol, IP, address and a tunnel endpoint identifier, TEID. transmitting, to a secondary base station, a secondary base station setup request message for requesting the secondary base station to allocate resources for a dual connectivity, DC, operation; receiving, from the secondary base station, a secondary base station setup response message, after transmitting the secondary base station setup request message; and transmitting, to the secondary base station, a modification message, after receiving the secondary base station setup response message, wherein the secondary base station setup request message comprises a quality of service, QoS, flow identifier, ID, and a data radio bearer, DRB, ID, wherein the secondary base station setup response message comprises the QoS flow ID and a new DRB ID corresponding to the QoS flow ID, and wherein the modification message comprises tunnel information for the new DRB ID, comprising an internet protocol, IP, address and a tunnel endpoint identifier, TEID.
A protective relay for protecting electrical equipment in a power distribution system, comprising an input module for receiving a signal indicative of a condition of a medium voltage power line, a processing module for digitally processing the signal, an output module for supplying energy to an actuator of a circuit breaker, and an interface for data exchange between the processing module and a detachable optional Human Machine Interface HMI with input means for specifying, by a user, a setting of an operating parameter of the protective relay, characterized in that it comprises a base Human Machine Interface with mechanical switches for specifying, by a user, a coarse setting of the operating parameter of the protective relay, and in that the processing module is adapted to receive a fine setting, with a higher resolution than the coarse setting, of said operating parameter from the detachable HMI.
A copolymer comprising repeat units of formulae, and/or and optionally: wherein in formula R is selected from H and C 1-6 alkyl; X 1 is selected from COO, CONH and OCO; m is 0 or 1; R 1 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkylene; n is 0 or 1; and R 2 is a substituted or unsubstituted heterocyclyl, NR x R y, NHCOR x or CONR x R y, wherein R x and R y are independently selected from substituted or unsubstituted, linear or branched, C 1-8 alkyl, in formulae and R is selected from H and C 1-6 alkyl; and preferably H and methyl X 2 is selected from COOR 3 and OCOR 3 and preferably COOR 3; o is 0 or 1, preferably 1; R 3 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkylene; each R 4 is independently selected from C 1-10 alkyl and C 5-10 aryl; and in formula q is an integer from 1 to 160; and in formula q is 0 or an integer from 1 to 80 R 5 is selected from C 1-10 alkyl, C 5-10 aryl or O-Si(R 6) 3, wherein R 6 is independently selected from C 1-10 alkyl and C 5-10 aryl; in formula: R is selected from H and C 1-6 alkyl; and X 3 is selected from COOH, COOR 7, OCOR 7,OH or OR 7 wherein R 7 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkyl; wherein said copolymer comprises 1-40 wt% of repeat unit, a total of 10-90 wt% of repeat units and/or and 0 to 70 wt% of repeat unit. in formula R is selected from H and C 1-6 alkyl; X 1 is selected from COO, CONH and OCO; m is 0 or 1; R 1 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkylene; n is 0 or 1; and R 2 is a substituted or unsubstituted heterocyclyl, NR x R y, NHCOR x or CONR x R y, wherein R x and R y are independently selected from substituted or unsubstituted, linear or branched, C 1-8 alkyl, in formulae and R is selected from H and C 1-6 alkyl; and preferably H and methyl X 2 is selected from COOR 3 and OCOR 3 and preferably COOR 3; o is 0 or 1, preferably 1; R 3 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkylene; each R 4 is independently selected from C 1-10 alkyl and C 5-10 aryl; and in formula q is an integer from 1 to 160; and in formula q is 0 or an integer from 1 to 80 R 5 is selected from C 1-10 alkyl, C 5-10 aryl or O-Si(R 6) 3, wherein R 6 is independently selected from C 1-10 alkyl and C 5-10 aryl; in formula: R is selected from H and C 1-6 alkyl; and X 3 is selected from COOH, COOR 7, OCOR 7,OH or OR 7 wherein R 7 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkyl; wherein said copolymer comprises 1-40 wt% of repeat unit, a total of 10-90 wt% of repeat units and/or and 0 to 70 wt% of repeat unit. R is selected from H and C 1-6 alkyl; and X 3 is selected from COOH, COOR 7, OCOR 7,OH or OR 7 wherein R 7 is selected from substituted or unsubstituted, linear or branched, C 1-8 alkyl; wherein said copolymer comprises 1-40 wt% of repeat unit, a total of 10-90 wt% of repeat units and/or and 0 to 70 wt% of repeat unit.
Brake arrangement for a vehicle, comprising - at least two electropneumatic directional valve devices (3, 18) in, respectively, a first and a second brake control path and a first and a second output (7, 22) of the directional valve devices (3, 18), characterised in that the first and the second output (7, 22) are connected to, respectively, a first control input (9, 15) of two relay valves (10, 16), and that the brake arrangement additionally comprises - a first compressed air line with which a second control input of the first relay valve is connectable by means of a magnetic valve device to the first control input of the second relay valve, and - a second compressed air line with which a second control input of the second relay valve is connectable by means of the magnetic valve device to the first control input of the first relay valve. - at least two electropneumatic directional valve devices (3, 18) in, respectively, a first and a second brake control path and a first and a second output (7, 22) of the directional valve devices (3, 18), characterised in that the first and the second output (7, 22) are connected to, respectively, a first control input (9, 15) of two relay valves (10, 16), and that the brake arrangement additionally comprises - a first compressed air line with which a second control input of the first relay valve is connectable by means of a magnetic valve device to the first control input of the second relay valve, and - a second compressed air line with which a second control input of the second relay valve is connectable by means of the magnetic valve device to the first control input of the first relay valve.
A multistage radical emulsion polymerization process for producing a polymer dispersion of discrete particles dispersed in water, said process comprising the steps of; polymerizing in a first stage a core of the discrete particles, as the main polymeric part comprising from 0 to 4.5% by weight of one or more monoethylenically unsaturated monomers containing an acidic functional group based on the total monomer composition of the main polymeric part, polymerizing in a second stage a swellable/soluble outer layer as the second polymeric part comprising at least 5% by weight of one or more monoethylenically unsaturated monomers containing an acidic functional group based on the total monomer composition of the swellable/soluble outer layer, wherein the swellable/soluble outer polymeric layer is polymerized onto the surface of the main polymeric part, wherein the amount of swellable/soluble outer layer represents between 3% to 50% by weight of the total polymeric composition, and adding a swelling agent selected from a base in sufficient amount as to raise the pH and bring the swellable/soluble outer layer to the desired degree of swelling or dissolution, whereby that outer layer undergoes swelling or dissolving when submitted to a pH change, while the main particle remains substantially unaffected. polymerizing in a first stage a core of the discrete particles, as the main polymeric part comprising from 0 to 4.5% by weight of one or more monoethylenically unsaturated monomers containing an acidic functional group based on the total monomer composition of the main polymeric part, polymerizing in a second stage a swellable/soluble outer layer as the second polymeric part comprising at least 5% by weight of one or more monoethylenically unsaturated monomers containing an acidic functional group based on the total monomer composition of the swellable/soluble outer layer, wherein the swellable/soluble outer polymeric layer is polymerized onto the surface of the main polymeric part, wherein the amount of swellable/soluble outer layer represents between 3% to 50% by weight of the total polymeric composition, and adding a swelling agent selected from a base in sufficient amount as to raise the pH and bring the swellable/soluble outer layer to the desired degree of swelling or dissolution, whereby that outer layer undergoes swelling or dissolving when submitted to a pH change, while the main particle remains substantially unaffected.
A management control method for a virtual machine, the method being carried out by a security control platform and comprising: receiving, a virtual machine starting request message that is from user equipment and forwarded by a management platform, wherein the virtual machine starting request message comprises an identifier of a virtual machine that needs to be enabled and user information; invoking a third-party trusted platform to generate data encrypted by using a key of the third-party trusted platform; sending the encrypted data to the user equipment by using the management platform, so that the user equipment decrypts the encrypted data by using a private key provided by the third-party trusted platform for the authorized user, and returns decrypted data to the security control platform; and if it is determined that the decrypted data is the same as the data before encryption, determining that the virtual machine starting request message is initiated by the user equipment according to the instruction of the authorized user; and performing authentication on the user information, and based on successful authentication, invoking the third-party trusted platform to decapsulate the virtual machine that needs to be enabled. receiving, a virtual machine starting request message that is from user equipment and forwarded by a management platform, wherein the virtual machine starting request message comprises an identifier of a virtual machine that needs to be enabled and user information; invoking a third-party trusted platform to generate data encrypted by using a key of the third-party trusted platform; sending the encrypted data to the user equipment by using the management platform, so that the user equipment decrypts the encrypted data by using a private key provided by the third-party trusted platform for the authorized user, and returns decrypted data to the security control platform; and if it is determined that the decrypted data is the same as the data before encryption, determining that the virtual machine starting request message is initiated by the user equipment according to the instruction of the authorized user; and
A method for the long-term storage of the waste nuclear fuel of the nuclear reactor comprising the allocation of the waste nuclear reactor fuel assembly (WNRFA) in the steel canister and sealing with the lid characterized by the preliminary filling of the canister with the material chemically resistant to the fuel element jackets of WNRFA, canister material, air and water, then putting the canister in the heating unit, heating the canister filled with material until it liquefies afterwards the WNRFA is taken out of the nuclear reactor is placed in the canister so the fueling section of WNRFA is below the liquefied material level in the canister, the WNRFA is fixed in this position, sealed with the liquified material, afterwards the sealed steel canister is removed from the heating unit and placed in the storage cooled with the ambient air.
A method of manufacturing an electrode substrate, the method comprising: forming a transparent conductive layer on a base substrate made of glass having a strain point of 520°C or higher; forming a metal wiring layer on the transparent conductive layer; providing a paste that forms a base material of a low-melting glass so as to cover a top surface and side surfaces of the metal wiring layer; and forming an insulating layer by sintering the paste by means of a heat treatment at a temperature that is 20°C or more lower than the strain point of the base substrate but is at least 400°C and at most 550°C. forming a transparent conductive layer on a base substrate made of glass having a strain point of 520°C or higher; forming a metal wiring layer on the transparent conductive layer; providing a paste that forms a base material of a low-melting glass so as to cover a top surface and side surfaces of the metal wiring layer; and forming an insulating layer by sintering the paste by means of a heat treatment at a temperature that is 20°C or more lower than the strain point of the base substrate but is at least 400°C and at most 550°C.
A pH-buffer measurement system for a dialysis system, comprising: at least one source (59, 60, 61, 62) for modifying the pH of a fluid entering the pH-buffer measurement system, the source selected from an acid source and a base source; and wherein the acid source adds an acid equivalent to provide an acid reacted fluid and the base source adds a base equivalent to provide a base reacted fluid; and wherein the source is in fluid communication with a flow path; and a sensor (54, 64, 63) positioned downstream of the acid source or base source for determining a fluid characteristic of the acid reacted fluid or the base reacted fluid; wherein the fluid characteristic that is measured is any one of a gas phase pressure, an electrical conductivity, or thermal conductivity. wherein the acid reacted fluid comprises at least a portion of the acid equivalent reacted with buffer in the fluid entering the pH-buffer measurement system, and the base reacted fluid comprises at least a portion of the base equivalent reacted with buffer in the fluid entering the pH-buffer measurement system; and a control system configured to calculate a bicarbonate concentration in the dialysate based on the gas phase pressure, the electrical conductivity, or the thermal conductivity of the acid reacted fluid or the base reacted fluid. at least one source (59, 60, 61, 62) for modifying the pH of a fluid entering the pH-buffer measurement system, the source selected from an acid source and a base source; and wherein the acid source adds an acid equivalent to provide an acid reacted fluid and the base source adds a base equivalent to provide a base reacted fluid; and wherein the source is in fluid communication with a flow path; and a sensor (54, 64, 63) positioned downstream of the acid source or base source for determining a fluid characteristic of the acid reacted fluid or the base reacted fluid; wherein the fluid characteristic that is measured is any one of a gas phase pressure, an electrical conductivity, or thermal conductivity. wherein the acid reacted fluid comprises at least a portion of the acid equivalent reacted with buffer in the fluid entering the pH-buffer measurement system, and the base reacted fluid comprises at least a portion of the base equivalent reacted with buffer in the fluid entering the pH-buffer measurement system; and a control system configured to calculate a bicarbonate concentration in the dialysate based on the gas phase pressure, the electrical conductivity, or the thermal conductivity of the acid reacted fluid or the base reacted fluid.
A bearing cup for cross shaft joint including: a cross shaft having four shaft portions arranged in a cross shape; and a joint yoke having fitting holes into which the shaft portions are respectively fitted, the bearing cup being press-fitted into the fitting hole of the cross shaft joint and supporting the shaft portion through a rolling element so that the shaft portion is able to rotate, wherein the bearing cup is fitted onto the shaft portion inside the fitting hole (31, 42) and holds the rolling element with the shaft portion, and the bearing cup includes a cylindrical portion in which an opening portion for receiving the shaft portion is formed in one end of the bearing cup in an axis direction, and a bottom portion that closes the other end of the cylindrical portion in the axis direction, characterized in that a diameter of an inner peripheral surface of the cylindrical portion, which serves as the raceway for the rolling element, is smaller on the opening portion side than the bottom portion side in a free state of the bearing cup before being press-fitted into the fitting hole (31, 42).
An ionic wind generator comprising: a power module; a first electrode configured to receive power from the power module by being connected to the power module to become an emitter electrode and to be a carbon brush comprising multiple carbon fibers; and a second electrode spaced apart from the first electrode and grounded at the same time of being connected to the power module to become a counter electrode, characterized in that: the first electrode is installed on a mounting arm part of an insulating material, the mounting arm part is disposed at an entrance of a module housing in which the first electrode and the second electrode are installed, and is connected to the module housing, and the mounting arm part has a coupling portion into which the first electrode is inserted, so that both ends (70a, 70b) of the first electrode protrude from the mounting arm part respectively, and the first electrode is movable in the direction of the second electrode. a power module; a first electrode configured to receive power from the power module by being connected to the power module to become an emitter electrode and to be a carbon brush comprising multiple carbon fibers; and a second electrode spaced apart from the first electrode and grounded at the same time of being connected to the power module to become a counter electrode, characterized in that: the first electrode is installed on a mounting arm part of an insulating material, the mounting arm part is disposed at an entrance of a module housing in which the first electrode and the second electrode are installed, and is connected to the module housing, and the mounting arm part has a coupling portion into which the first electrode is inserted, so that both ends (70a, 70b) of the first electrode protrude from the mounting arm part respectively, and the first electrode is movable in the direction of the second electrode. the first electrode is installed on a mounting arm part of an insulating material, the mounting arm part is disposed at an entrance of a module housing in which the first electrode and the second electrode are installed, and is connected to the module housing, and the mounting arm part has a coupling portion into which the first electrode is inserted, so that both ends (70a, 70b) of the first electrode protrude from the mounting arm part respectively, and the first electrode is movable in the direction of the second electrode.
A container comprising a cover member and a receptacle member at least partially slidingly received within said cover member and axially displaceable there within and configured for selective axial arresting within said cover member, said cover member comprising at least a polygonal locking neck telescopingly receiving a polygonal portion of the receptacle member; at least one inside wall of said locking neck comprising at least one arresting member and an angular locking member; at least one external face of the polygonal portion of the receptacle member comprising a flat face portion and an arresting portion extending at a reflex angle (α) with respect to said flat face portion, and a plurality of locking teeth disposed along said arresting portion, each configured for engaging with the at least one arresting member; and the polygonal portion of the receptacle member being slidingly displaceable within the polygonal locking neck of the cover member only when the flat face portion is substantially parallel with the inside wall surface of the polygonal locking neck and further wherein the receptacle member is axially arrested within the cover member when the arresting portion is substantially parallel with the inside wall surface of the polygonal locking neck; the container being characterized in said flat face portion being partitioned from the arresting portion by an axially extending angular arresting member configured for being arrested by said angular locking member; and said angular locking member being configured for selectively arresting the angular arresting member and retaining the receptacle member at a locked position at which the at least one arresting member is engaged with the locking tooth of the receptacle member, thereby preventing axial displacement thereof.
A particulate water-absorbing resin composition comprising: a supported hydrazide compound; and a particulate water-absorbing resin, wherein the particulate water-absorbing resin has a median particle diameter of 100 to 600 μm, wherein the median particle diameter is determined by a method as set out in the description. a supported hydrazide compound; and a particulate water-absorbing resin, wherein the particulate water-absorbing resin has a median particle diameter of 100 to 600 μm, wherein the median particle diameter is determined by a method as set out in the description.