mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a polymer, comprising polycondensation of a polyether macromonomer A, a monomer B and an aldehyde C, wherein - the polyether macromonomer A has a structural formula (Ia), (Ib), (Ic), or (Id): in which Z is NR 3 , O or O(CH 2 ) f O, L = O(CH 2 ) f or (CH 2 ) f , f is an integer from 1 to 10, Q is C2 to C24 alkylene, R 2 is H or C1 to C10 alkyl, R 3 is a C1 to C10 alkyl, m = 8 to 112, n = 8 to 112; - the monomer B has a structural formula (IIa) or (IIb): in which G is N(CH 2 -PO 3 H 2 ) 2 or C(OH)(PO 3 H 2 ) 2 , wherein R 1 is H, a C1 to C10 alkyl or SO 3 H, K is a C1 to C10 alkylene, X = NR 8 or O, Y is OH or OR 7 , R 7 is a C1 to C10 alkyl, and R 8 is a C1 to C10 alkyl, - the aldehyde C has a structural formula (III): R 5 CHO (III) in which R 5 is H, COOH, or a C1 to C10 alkyl; and the molar ratio of the polyether macromonomer A and the monomer B is 1 : (0.5 to 12). - the polyether macromonomer A has a structural formula (Ia), (Ib), (Ic), or (Id): in which Z is NR 3 , O or O(CH 2 ) f O, L = O(CH 2 ) f or (CH 2 ) f , f is an integer from 1 to 10, Q is C2 to C24 alkylene, R 2 is H or C1 to C10 alkyl, R 3 is a C1 to C10 alkyl, m = 8 to 112, n = 8 to 112; - the monomer B has a structural formula (IIa) or (IIb): in which G is N(CH 2 -PO 3 H 2 ) 2 or C(OH)(PO 3 H 2 ) 2 , wherein R 1 is H, a C1 to C10 alkyl or SO 3 H, K is a C1 to C10 alkylene, X = NR 8 or O, Y is OH or OR 7 , R 7 is a C1 to C10 alkyl, and R 8 is a C1 to C10 alkyl, - the aldehyde C has a structural formula (III): R 5 CHO (III) in which R 5 is H, COOH, or a C1 to C10 alkyl; and the molar ratio of the polyether macromonomer A and the monomer B is 1 : (0.5 to 12). in which R 5 is H, COOH, or a C1 to C10 alkyl; and the molar ratio of the polyether macromonomer A and the monomer B is 1 : (0.5 to 12).
A channel coding method in a communication system using a Low-Density Parity-Check ,LDPC, code, comprising: determining a degree distribution for a plurality of column groups of an information part and a plurality of column groups of a parity part; determining degrees for the plurality of column groups of the information part based on the degree distribution; determining a shortening order based on the degrees for the plurality of column groups of the information part; generating a parity check matrix based on the shortening order; and performing coding using the generated parity check matrix; wherein the degrees for the plurality of column groups of the information part are determined according to a change in a number of column groups of the information part, which have a same degree. determining a degree distribution for a plurality of column groups of an information part and a plurality of column groups of a parity part; determining degrees for the plurality of column groups of the information part based on the degree distribution; determining a shortening order based on the degrees for the plurality of column groups of the information part; generating a parity check matrix based on the shortening order; and performing coding using the generated parity check matrix; wherein the degrees for the plurality of column groups of the information part are determined according to a change in a number of column groups of the information part, which have a same degree.
Particles of a mixed oxide of cerium and of lanthanum characterized: - by a molar ratio La / (La + Ce) comprised between 0.01 and 0.15, more particularly between 0.01 and 0.12; - by a specific surface area (BET) between 3 and 14 m 2 /g, more particularly between 7 and 13 m 2 /g, even more particularly between 8 and 12 m 2 /g; - in that they are substantially cubic. - by a molar ratio La / (La + Ce) comprised between 0.01 and 0.15, more particularly between 0.01 and 0.12; - by a specific surface area (BET) between 3 and 14 m 2 /g, more particularly between 7 and 13 m 2 /g, even more particularly between 8 and 12 m 2 /g; - in that they are substantially cubic.
A spectrometric probe for sampling bulk material characterized in that it comprises: - at least one sampling module mounted on a section of the probe and which is formed by a casing having at least one front wall having a transparent inspection window , - the casing further having a capacitive sensor that protrudes outside the casing for contacting the mass of the bulk material to be sampled; and - being arranged within said casing at least one optical sampling sensor directed according to a reading path towards said inspection window , the optical sampling sensor being operatively connected to a remote-control panel ; and - the optical sampling sensor comprising a light source that defines a light beam along a path of illumination directed towards said window , and a reader of light reflected on the mass of the bulk material, wherein said reader is directed according to said reading path, said reader being connected to said control panel by optical fiber; and - the sampling module further having a linear actuator comprising an actuator connected to a piston that carries at its end a black plate and a white plate that lie between temporary operative positions in front of the reading path of the reader . - at least one sampling module mounted on a section of the probe and which is formed by a casing having at least one front wall having a transparent inspection window , - the casing further having a capacitive sensor that protrudes outside the casing for contacting the mass of the bulk material to be sampled; and - being arranged within said casing at least one optical sampling sensor directed according to a reading path towards said inspection window , the optical sampling sensor being operatively connected to a remote-control panel ; and - the optical sampling sensor comprising a light source that defines a light beam along a path of illumination directed towards said window , and a reader of light reflected on the mass of the bulk material, wherein said reader is directed according to said reading path, said reader being connected to said control panel by optical fiber; and - the sampling module further having a linear actuator comprising an actuator connected to a piston that carries at its end a black plate and a white plate that lie between temporary operative positions in front of the reading path of the reader .
A fuel cell comprising a) at least two fuel cell boards, each fuel cell board comprising at least one ion permeable membrane and a plurality of anodes and a plurality of cathodes, wherein the anodes and the cathodes are arranged in pairs such that each anode is located on the opposite side of a membrane to a cathode; b) gas flow channels arranged between adjacent fuel cell boards for supplying an oxidisable gas to each anode and a reducible gas to each cathode; and c) electrical connectors for connecting adjacent pairs of anodes and cathodes on the same fuel cell board; wherein each fuel cell board is arranged so that the anodes and cathodes on one board are located opposite to anodes and cathodes respectively on an adjacent board, and between each fuel cell board is a multi-layer Printed Circuit Board (PCB) comprising a first current collection and distribution layer, a reactant distribution layer, and a second current collection and distribution layer, and wherein the first current collection and distribution layer, the reactant distribution layer and the second current collection and distribution layer are bonded together to form the PCB. a) at least two fuel cell boards, each fuel cell board comprising at least one ion permeable membrane and a plurality of anodes and a plurality of cathodes, wherein the anodes and the cathodes are arranged in pairs such that each anode is located on the opposite side of a membrane to a cathode; b) gas flow channels arranged between adjacent fuel cell boards for supplying an oxidisable gas to each anode and a reducible gas to each cathode; and c) electrical connectors for connecting adjacent pairs of anodes and cathodes on the same fuel cell board;
A method by a user equipment, UE , comprising: receiving by a Radio Resource Control, RRC, entity of the UE , a Physical Uplink Control Channel, PUCCH, release request from lower layers of the UE ; and applying a release of a scheduling request configuration for a concerned secondary cell, upon receiving the PUCCH release request from the lower layers of the UE , wherein the PUCCH release request is notified by a Medium Access Control, MAC, entity of the UE in a case that a time alignment timer expires, the time alignment timer is associated with a secondary timing advance group, sTAG, and the concerned secondary cell belongs to the sTAG. receiving by a Radio Resource Control, RRC, entity of the UE , a Physical Uplink Control Channel, PUCCH, release request from lower layers of the UE ; and applying a release of a scheduling request configuration for a concerned secondary cell, upon receiving the PUCCH release request from the lower layers of the UE , wherein the PUCCH release request is notified by a Medium Access Control, MAC, entity of the UE in a case that a time alignment timer expires, the time alignment timer is associated with a secondary timing advance group, sTAG, and the concerned secondary cell belongs to the sTAG.
A heat dissipation device, comprising: a fin group including a plurality of heat dissipation fins that form a whole structure; and a heat pipe group including a plurality of heat pipes , wherein the fin group is substantially located on one side of the heat pipe group in a first direction, the fin group contacts the heat pipe group in the first direction, the heat dissipation fins include a first heat dissipation fin that contacts at least one of the plurality of heat pipes in a second direction so as to locate at least one of the plurality of heat pipes in the second direction, characterized in that the plurality of heat pipes are arranged parallelly in the second direction, and the plurality of heat dissipation fins are arranged parallelly in the second direction. a fin group including a plurality of heat dissipation fins that form a whole structure; and a heat pipe group including a plurality of heat pipes , wherein the fin group is substantially located on one side of the heat pipe group in a first direction, the fin group contacts the heat pipe group in the first direction, the heat dissipation fins include a first heat dissipation fin that contacts at least one of the plurality of heat pipes in a second direction so as to locate at least one of the plurality of heat pipes in the second direction, characterized in that the plurality of heat pipes are arranged parallelly in the second direction, and the plurality of heat dissipation fins are arranged parallelly in the second direction.
Motor vehicle comprising a powertrain arranged transversely at the front, comprising a transmission fixed to a heat engine , having a flat rear face disposed in front of a cross member of the apron of the passenger compartment, which comes into contact with this crossmember when the power train is backing down during a standard frontal impact on the vehicle, characterized in that the rear face of the transmission is formed by a cover which is attached to the housing of the transmission, comprising a substantially flat upper face having a reduced thickness compared to that of the casing, which has a downward inclination starting towards the rear.
Cooking oven comprising a muffle closed by a door , said muffle and said door defining a cooking chamber , and at least one divider plate dividing said cooking chamber into a plurality of independent cooking compartments , said divider plate comprising a seal interacting with a plurality of internal walls of said cooking chamber, characterised in that said cooking chamber is provided with parallel and substantially horizontal plate guides for positioning the divider plate , said plate guides comprising, at their outermost end, at least one segment extending at a lower height than a preceding segment so as to form a step and to allow for a downward movement of the divider plate when said plate is inserted into the cooking chamber, in that a plurality of internal walls of the muffle comprise a protruding flange projecting towards the interior of the cooking chamber , and in that the divider plate and the protruding flange of the internal walls of the muffle interact so that the seal is supported against the protruding flange of the internal walls .
A compound of Formula (I): or a pharmaceutically acceptable salt, solvate, hydrate, geometrical isomer, tautomer, or optical isomer thereof.
A medical device system comprising: an electric field generating circuit configured to generate one or more electric fields; and control circuitry in communication with the electric field generating circuit, the control circuitry configured to control delivery of the one or more electric fields from the at least one electric field generating circuit; and one or more electrodes disposed on a first stimulation lead to deliver the electric fields to a site of a cancerous tumor within a patient; one or more electrodes disposed on a second stimulation lead to deliver the electric fields to the site of a cancerous tumor within a patient; wherein the first and second stimulation leads are configured to be implanted on or about a duodenum ; wherein the control circuitry causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 10 kHz to 1 MHz, characterised in that at least one of the first and second stimulation leads comprises one or more thermal shielding pads disposed thereon, wherein the one or more thermal shielding pads are configured to pivot around the first or second stimulation lead. an electric field generating circuit configured to generate one or more electric fields; and control circuitry in communication with the electric field generating circuit, the control circuitry configured to control delivery of the one or more electric fields from the at least one electric field generating circuit; and one or more electrodes disposed on a first stimulation lead to deliver the electric fields to a site of a cancerous tumor within a patient; one or more electrodes disposed on a second stimulation lead to deliver the electric fields to the site of a cancerous tumor within a patient; wherein the first and second stimulation leads are configured to be implanted on or about a duodenum ; wherein the control circuitry causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 10 kHz to 1 MHz, characterised in that at least one of the first and second stimulation leads comprises one or more thermal shielding pads disposed thereon, wherein the one or more thermal shielding pads are configured to pivot around the first or second stimulation lead.
A delivery and deployment device configured to deliver an implantable medical device (IMD) to a chamber of a patient's heart and deploy the IMD therein, the delivery and deployment device comprising: a handle assembly ; a shaft extending distally from the handle assembly , the shaft including a distal region; a device containment housing coupled to the distal region of the shaft and extending distally therefrom, the device containment housing configured to accommodate the IMD therein; at least one of the shaft and device containment housing including a compressible region (222. 322) that is configured to compress by an amount that is related to an applied force; a first position indicator and a second position indicator , wherein at least part of the compressible region (222. 322) is situated between the first position indicator and the second position indicator ; and wherein a force applied to the device containment housing causes the compressible region to compress by an amount that is related to the applied force, which causes a change in distance between the first position indicator and the second position indicator , which provides an indication of the applied force. a handle assembly ; a shaft extending distally from the handle assembly , the shaft including a distal region; a device containment housing coupled to the distal region of the shaft and extending distally therefrom, the device containment housing configured to accommodate the IMD therein; at least one of the shaft and device containment housing including a compressible region (222. 322) that is configured to compress by an amount that is related to an applied force; a first position indicator and a second position indicator , wherein at least part of the compressible region (222. 322) is situated between the first position indicator and the second position indicator ; and wherein a force applied to the device containment housing causes the compressible region to compress by an amount that is related to the applied force, which causes a change in distance between the first position indicator and the second position indicator , which provides an indication of the applied force.
A nuclear reactor comprising: a) a pressure vessel for containing a pressurized heavy water moderator at a first pressure, wherein the first pressure is between 5 and 35 Mpa; b) a plurality of fuel channels for a coolant fluid comprising at least one of heavy water, and light water and gas at a second pressure and fluidly connected at inlet ends thereof to a coolant supply conduit, the fuel channels adapted to receive nuclear fuel bundles and to be mounted within the pressure vessel and surrounded by the moderator, and outlet ends thereof being fluidly connected to a coolant outlet conduit to enable the coolant fluid to circulate from the coolant supply conduit through the fuel channels to the coolant outlet conduit, wherein the plurality of fuel channels maintain separation between the coolant fluid circulating within the fuel channels and the moderator; and a coolant inlet plenum having at least one inlet port for receiving the coolant fluid, the inlet ends of each fuel channel being coupled to the coolant inlet plenum to receive coolant fluid and the coolant inlet plenum having at least one inlet port for receiving the coolant fluid; characterized in that the the nuclear reactor further comprises a coolant outlet plenum disposed within the coolant inlet plenum , the outlet ends of each fuel channel being coupled to the outlet plenum to discharge the coolant fluid into the coolant outlet plenum . a) a pressure vessel for containing a pressurized heavy water moderator at a first pressure, wherein the first pressure is between 5 and 35 Mpa; b) a plurality of fuel channels for a coolant fluid comprising at least one of heavy water, and light water and gas at a second pressure and fluidly connected at inlet ends thereof to a coolant supply conduit, the fuel channels adapted to receive nuclear fuel bundles and to be mounted within the pressure vessel and surrounded by the moderator, and outlet ends thereof being fluidly connected to a coolant outlet conduit to enable the coolant fluid to circulate from the coolant supply conduit through the fuel channels to the coolant outlet conduit, wherein the plurality of fuel channels maintain separation between the coolant fluid circulating within the fuel channels and the moderator; and
A method for a first network function, wherein the first network function is a network repository function , the method comprising: - receiving , by the first network function , an access token request from a second function, wherein the second function is a network function consumer or an application function; and - responsive to receiving the access token request, transmitting by the first network function to the second function an access token usable in a service request to access a service of a third network function, wherein the third network function is a network exposure function or a network function producer and the access token comprises at least a throughput parameter, wherein the throughput parameter defines a limit on a total number of transactions for which the access token can be used within a lifetime of the access token. - receiving , by the first network function , an access token request from a second function, wherein the second function is a network function consumer or an application function; and - responsive to receiving the access token request, transmitting by the first network function to the second function an access token usable in a service request to access a service of a third network function, wherein the third network function is a network exposure function or a network function producer and the access token comprises at least a throughput parameter, wherein the throughput parameter defines a limit on a total number of transactions for which the access token can be used within a lifetime of the access token.
A system for absorbing gas supply shocks, the system comprising: a gas storage for storing pressurized gas; a gas consuming device ; a pressure sensing valve configured to allow gas flow from a gas supply into the gas storage during a positive pressure spike where a pressure of the gas supply increases and to allow the flow of at least some gas out of the gas storage to the gas consuming device during a negative pressure spike where the pressure of the gas supply decreases; a gas transmission apparatus connecting the gas supply, the gas storage and the gas consuming device such that gas can be provided from the gas supply to both the gas storage and the gas consuming device and such that gas can be provided to the gas consuming device from both the gas supply and the gas storage; and a pressure regulating valve configured to prevent gas flow from the gas supply to the gas consuming device when a pressure of the gas provided from the gas supply exceeds a pre-determined threshold, wherein the pressure sensing valve is configured to allow the gas flow from the gas supply into the gas storage only when the pressure of the gas provided from the gas supply exceeds the pre-determined threshold. a gas storage for storing pressurized gas; a gas consuming device ; a pressure sensing valve configured to allow gas flow from a gas supply into the gas storage during a positive pressure spike where a pressure of the gas supply increases and to allow the flow of at least some gas out of the gas storage to the gas consuming device during a negative pressure spike where the pressure of the gas supply decreases; a gas transmission apparatus connecting the gas supply, the gas storage and the gas consuming device such that gas can be provided from the gas supply to both the gas storage and the gas consuming device and such that gas can be provided to the gas consuming device from both the gas supply and the gas storage; and a pressure regulating valve configured to prevent gas flow from the gas supply to the gas consuming device when a pressure of the gas provided from the gas supply exceeds a pre-determined threshold, wherein the pressure sensing valve is configured to allow the gas flow from the gas supply into the gas storage only when the pressure of the gas provided from the gas supply exceeds the pre-determined threshold.
Use of piperonylic acid as an effective ingredient in a pharmaceutical composition for use in anti-aging or regenerating the skin.