mhurhangee/ep-ind-claims huggingface dataset:
Process for preparing a molecularly imprinted polymer comprising a first step of polymerization of a mixture comprising: i) one or more basic ethylene monomer(s) having an amine group; ii) one or more crosslinking agent(s) comprising at least 2 polymerizable ethylene unsaturations; iii) one or more porogenic solvent(s); iv) one or more C 14 -C 20 fatty acid(s), followed by a second step of removing the C 14 -C 20 fatty acid present in the polymer obtained from the first step. i) one or more basic ethylene monomer(s) having an amine group; ii) one or more crosslinking agent(s) comprising at least 2 polymerizable ethylene unsaturations; iii) one or more porogenic solvent(s); iv) one or more C 14 -C 20 fatty acid(s),
A method for manufacturing a gas sensor, said method including a step of obtaining an assembled body constituting said gas sensor by performing a predetermined processing on a semi-assembled body (40α) which is manufactured in advance, and said semi-assembled body (40α) comprising: an annular-mounted assembly in which a plurality of annularly-mounted members (7, 8, 9), at least one of which is a ceramic powder compact, each having a disc shape or cylindrical shape are annularly mounted to a sensor element with an elongated plate shape which is made of a ceramic; and a tubular body which is annularly mounted to an outer periphery of said annularly-mounted members (7, 8, 9) and capable of engaging one end side of said annularly-mounted members therein, and said step of obtaining said assembled body comprising steps of: a) causing one end of said sensor element constituting said semi-assembled body (40α) to abut to a positioning member for positioning said sensor element; and b) applying a first force to said annularly-mounted members (7, 8, 9) from other end side of said sensor element having been positioned through said step a) and thereby compressing said powder compact so as to fix said sensor element inside of said tubular body, wherein said step b) is performed while constraining said sensor element in a predetermined constraining region in said other end side of said sensor element. an annular-mounted assembly in which a plurality of annularly-mounted members (7, 8, 9), at least one of which is a ceramic powder compact, each having a disc shape or cylindrical shape are annularly mounted to a sensor element with an elongated plate shape which is made of a ceramic; and a tubular body which is annularly mounted to an outer periphery of said annularly-mounted members (7, 8, 9) and capable of engaging one end side of said annularly-mounted members therein, and said step of obtaining said assembled body comprising steps of: a) causing one end of said sensor element constituting said semi-assembled body (40α) to abut to a positioning member for positioning said sensor element; and b) applying a first force to said annularly-mounted members (7, 8, 9) from other end side of said sensor element having been positioned through said step a) and thereby compressing said powder compact so as to fix said sensor element inside of said tubular body, wherein a) causing one end of said sensor element constituting said semi-assembled body (40α) to abut to a positioning member for positioning said sensor element; and b) applying a first force to said annularly-mounted members (7, 8, 9) from other end side of said sensor element having been positioned through said step a) and thereby compressing said powder compact so as to fix said sensor element inside of said tubular body, wherein said step b) is performed while constraining said sensor element in a predetermined constraining region in said other end side of said sensor element.
An airbag module for an automotive vehicle, comprising a folded inflatable airbag which at an airbag edge includes a mounting tab for fastening the airbag to the automotive vehicle, and a flexible mounting envelope in which the folded airbag is received and fixed, the mounting envelope being a mounting tube elongated along a longitudinal axis having a circumferential panel and having a slit through which the mounting tab of the airbag extends to the outside of the mounting envelope, characterized in that the slit defines at least one envelope tab that is foldable in the radial direction, the slit being configured to be curved and/or has at least two linear slit portions (32, 34, 36) inclined toward each other which are merging, and wherein a connecting means for fastening the airbag to the automotive vehicle is provided, the connecting means extending both through an opening in the envelope tab and through an opening in the mounting tab. a folded inflatable airbag which at an airbag edge includes a mounting tab for fastening the airbag to the automotive vehicle, and a flexible mounting envelope in which the folded airbag is received and fixed, the mounting envelope being a mounting tube elongated along a longitudinal axis having a circumferential panel and having a slit through which the mounting tab of the airbag extends to the outside of the mounting envelope, characterized in that the slit defines at least one envelope tab that is foldable in the radial direction, the slit being configured to be curved and/or has at least two linear slit portions (32, 34, 36) inclined toward each other which are merging, and wherein a connecting means for fastening the airbag to the automotive vehicle is provided, the connecting means extending both through an opening in the envelope tab and through an opening in the mounting tab.
Process comprising heat aging a composition comprising melt-fabricable tetrafluoroethylene/perfluoro(alkyl vinyl ether) copolymer, wherein said perfluoroalkyl contains 1 to 5 carbon atoms, and melt flowable polytetrafluoroethylene, wherein said melt-fabricable tetrafluoroethylene/perfluoro(alkyl vinyl ether) copolymer has a melt flow rate of from 0.1 to 50 g/10 minutes before said heat aging, and wherein said melt flowable polytetrafluoroethylene has a melt flow rate of at least 0.1 g/10 minutes before said heat aging, wherein said composition comprises from 15 to less than 50 weight percent of melt flowable polytetrafluoroethylene, based on the combined weights of melt flowable polytetrafluoroethylene and tetrafluoroethylene-perfluoro(alkyl vinyl ether) copolymer, said heat aging being carried out at a temperature of at least 280°C and for at least 4 hours with said composition being in the solid state, and wherein melt flow rate is measured using the extrusion plastometer described in ASTM D 1238 under the conditions disclosed in ASTM D 3307 at a melt temperature of 372°C and under a load of 5 kg.
Compound of the formula, wherein m and n independently of one another are ≥ I, Ar 1 is an unsubstituted phenyl radical, an unsubstituted 1-napthyl radical, an unsubstituted 2-naphtyl radical, a monosubstituted phenyl radical, a monosubstituted 1-naphtyl radical or a monosubstituted 2-naphtyl radical, wherein the monosubstituted phenyl radical, the monosubstituted 1-naphtyl radical or the monosubstituted 2-naphtyl radical is substituted with a C 1 -C 5 -alkyl radical, an alkenyl radical, an aklinyl radical, a benzyl radical, an RO radical, a halogen radical, an ROC radical, an RO 2 C radical, a CN radical, an NO 2 radical, an R-SO 2 O radical, an RO-SO 2 radical, an R-NH-SO 2 radical, an R-SO 2 NH radical, an R-NH-CO-NH radical, an R-SO 2 -NH-CO-NH radical, an R-NH-CO-NH-SO 2 radical or an R-CO-NH radical, wherein R is a C 1 -C 5 -alkyl radical, an alkenyl radical, an alkinyl radical, a phenyl radical, a tolyl radical or a benzyl radical, Ar 2 is an unsubstituted or substituted phenyl radical, and Y is at least one (m+n)-times substituted benzene or naphthalene group.
A method for data transmission, comprising: receiving, by a terminal device, indication information from a network device, the indication information indicating a first downlink scheduling time-domain resource in a first time-frequency resource region, the first time-frequency resource region corresponding to a scheduling unit on a time domain, and a frequency-domain resource in the first time-frequency resource region being a part of a system bandwidth, wherein a plurality of time-frequency resource regions comprising the first time-frequency resource region for the terminal device are configured by the network device, the plurality of time-frequency resource regions have different subcarrier spacings, and the plurality of time-frequency resource regions correspond to different frequency bands in a same time-domain resource; and receiving, by the terminal device, data from the network device on the first downlink data time-domain resource according to the indication information; wherein the indication information is configured to indicate a starting symbol and time-domain length of the first downlink data time-domain resource. receiving, by a terminal device, indication information from a network device, the indication information indicating a first downlink scheduling time-domain resource in a first time-frequency resource region, the first time-frequency resource region corresponding to a scheduling unit on a time domain, and a frequency-domain resource in the first time-frequency resource region being a part of a system bandwidth, wherein a plurality of time-frequency resource regions comprising the first time-frequency resource region for the terminal device are configured by the network device, the plurality of time-frequency resource regions have different subcarrier spacings, and the plurality of time-frequency resource regions correspond to different frequency bands in a same time-domain resource; and receiving, by the terminal device, data from the network device on the first downlink data time-domain resource according to the indication information; wherein the indication information is configured to indicate a starting symbol and time-domain length of the first downlink data time-domain resource.
A method of processing broadcast data in a mobile Ad-hoc network comprising: providing transmitting nodes consisting of at least one sender node (10, 20) and a relayer node to relay broadcast packets from the sender node to a receiver node; managing, at the receiver node, an identifier ID of the relayer node and a broadcast count number of broadcast packets (S304, S901) in a neighbor table when receiving packets broadcasted by the relayer node; transmitting, at the relayer node, periodically a hello packet containing the broadcast count number of the packets broadcasted by itself; and comparing, at the receiver node, a broadcast count number of actually received broadcast packets with the broadcast count number of the hello packet, and requesting retransmission of missing packets using a hello response packet. providing transmitting nodes consisting of at least one sender node (10, 20) and a relayer node to relay broadcast packets from the sender node to a receiver node; managing, at the receiver node, an identifier ID of the relayer node and a broadcast count number of broadcast packets (S304, S901) in a neighbor table when receiving packets broadcasted by the relayer node; transmitting, at the relayer node, periodically a hello packet containing the broadcast count number of the packets broadcasted by itself; and comparing, at the receiver node, a broadcast count number of actually received broadcast packets with the broadcast count number of the hello packet, and requesting retransmission of missing packets using a hello response packet.
A method for the in-vivo selection of a genetic coding sequence encoding at least one primary modulator compound modulating the action of an effector compound, comprising growing an expression library of host micro-organisms in the presence of at least two growth regulator compounds each capable normally of preventing proliferation of said micro-organisms, which expression library expresses a library of DNA fragments potentially expressing said primary modulator compound, and selecting micro-organisms in said library which proliferate; wherein said primary modulator compound - effects a chemical transformation of a substrate into said effector compound and said substrate is provided to said microorganisms; or - transports said effector compound into said micro-organisms, and wherein said host microorganisms comprise a regulatable gene expression construct, said regulatable gene expression construct comprising a nucleic acid molecule, said nucleic acid molecule comprising at least two regulation sequences, each said regulation sequence encoding an RNA molecule comprising a riboswitch operably linked to a respective coding region, wherein each riboswitch regulates expression of its respective coding region in response to the presence of said effector compound, and each coding region encodes a respective secondary modulator compound for modulating the action of a respective said growth regulator compound, and wherein said at least two regulation sequences encode different secondary modulator compounds that act against different said at least two growth regulator compounds; whereby a micro-organism in said library which produces a desired primary modulator compound is enabled to proliferate in the presence of said at least two growth regulator compounds. - effects a chemical transformation of a substrate into said effector compound and said substrate is provided to said microorganisms; or - transports said effector compound into said micro-organisms, and wherein said host microorganisms comprise a regulatable gene expression construct, said regulatable gene expression construct comprising a nucleic acid molecule, said nucleic acid molecule comprising at least two regulation sequences, each said regulation sequence encoding an RNA molecule comprising a riboswitch operably linked to a respective coding region, wherein each riboswitch regulates expression of its respective coding region in response to the presence of said effector compound, and each coding region encodes a respective secondary modulator compound for modulating the action of a respective said growth regulator compound, and wherein said at least two regulation sequences encode different secondary modulator compounds that act against different said at least two growth regulator compounds; whereby a micro-organism in said library which produces a desired primary modulator compound is enabled to proliferate in the presence of said at least two growth regulator compounds.
A device (100, 300, 500) for mixing a coolant and a lubricant, the device (100, 300, 500) comprising: an inlet port for receiving the coolant, a pressure amplifier coupled to the inlet port and configured to increase the pressure of the lubricant by means of the pressure of the coolant; a mixing unit coupled to the inlet port and the pressure amplifier and configured to mix the coolant and the lubricant provided by the pressure amplifier; wherein said pressure amplifier comprises a low pressure chamber coupled to the inlet port and a high pressure chamber configured to contain the lubricant and coupled to the mixing unit, and a piston contained in a cylinder, wherein the piston separates the low pressure chamber from the high pressure chamber; a lubricant flow valve arranged between the pressure amplifier and the mixing unit, a displacement sensor configured to measure the displacement of the piston; and a control unit configured to receive data on the displacement of the piston from the displacement sensor and to control the lubricant flow valve using the data on the displacement of the piston. an inlet port for receiving the coolant, a pressure amplifier coupled to the inlet port and configured to increase the pressure of the lubricant by means of the pressure of the coolant; a mixing unit coupled to the inlet port and the pressure amplifier and configured to mix the coolant and the lubricant provided by the pressure amplifier; wherein said pressure amplifier comprises a low pressure chamber coupled to the inlet port and a high pressure chamber configured to contain the lubricant and coupled to the mixing unit, and a piston contained in a cylinder, wherein the piston separates the low pressure chamber from the high pressure chamber; a lubricant flow valve arranged between the pressure amplifier and the mixing unit, a displacement sensor configured to measure the displacement of the piston; and a control unit configured to receive data on the displacement of the piston from the displacement sensor and to control the lubricant flow valve using the data on the displacement of the piston.
A mobile device for receiving notification messages, comprising: a processor to determine a courier device for connecting to the mobile device, wherein the courier device provisions a zone for the mobile device in response to connecting; a memory to store a token, wherein the token is a combination of a unique identifier for the mobile device and a zone identifier persistently associated with the zone, and wherein the courier device is configured to connect with multiple gateways; a transmitter to transmit the token to a provider application; and a receiver to receive a notification message from the provider application via a gateway based on the zone identifier. a processor to determine a courier device for connecting to the mobile device, wherein the courier device provisions a zone for the mobile device in response to connecting; a memory to store a token, wherein the token is a combination of a unique identifier for the mobile device and a zone identifier persistently associated with the zone, and wherein the courier device is configured to connect with multiple gateways; a transmitter to transmit the token to a provider application; and a receiver to receive a notification message from the provider application via a gateway based on the zone identifier.
Turbine (1,2) driving a power conversion means, the power conversion means comprising several and preferably more than three power conversion units, preferably of approximately similar power conversion capacity, that have coupling means for coupling the power conversion units to the turbine, the turbine having measuring means for determining the rotation speed of the turbine and/or a flow speed of the turbine driving flow of wind or water and a control system for controlling the coupling means in dependence of the determined rotation speed and/or flow speed characterized in that the control system has means for activating and deactivating the coupling means for the different power conversion units so that the power conversion units are used equally.
A mobile device comprising: a scanning module that is configured to encounter a series of wireless access points, via periodic Wi-Fi scans, while the mobile device is traveling along a route; a tracking module that is configured to track the encountered series of wireless access points along the route taken by the mobile device based on a graph-based model of a user's patterns in which nodes and edges denote the places and routes between them; a learning module that is configured to learn, in response to tracking the encountered series of wireless access points, the route taken by the mobile device and to determine whether the route includes dropped calls; a crowd-sourced database that is configured to store the learned routes and a history of dropped calls along the route; a call monitoring module that is configured to monitor the route along which the mobile device is traveling and to compare the route along which the mobile device is traveling to the stored learned routes and history of dropped calls along the route and to determine when a dropped call has occurred; and a notification module that is configured to generate a coverage-hole notification if the comparison of the route along which the mobile device is traveling matches a stored learned route that has history of dropped calls. a scanning module that is configured to encounter a series of wireless access points, via periodic Wi-Fi scans, while the mobile device is traveling along a route; a tracking module that is configured to track the encountered series of wireless access points along the route taken by the mobile device based on a graph-based model of a user's patterns in which nodes and edges denote the places and routes between them; a learning module that is configured to learn, in response to tracking the encountered series of wireless access points, the route taken by the mobile device and to determine whether the route includes dropped calls; a crowd-sourced database that is configured to store the learned routes and a history of dropped calls along the route; a call monitoring module that is configured to monitor the route along which the mobile device is traveling and to compare the route along which the mobile device is traveling to the stored learned routes and history of dropped calls along the route and to determine when a dropped call has occurred; and a notification module that is configured to generate a coverage-hole notification if the comparison of the route along which the mobile device is traveling matches a stored learned route that has history of dropped calls.
A process for preparing cyclohexanol and cyclohexanone from cyclohexane, comprising steps of: non-catalyticly oxidizing cyclohexane with molecular oxygen to obtain an oxidized mixture liquid containing cyclohexyl hydroperoxide (CHHP) as a main product; performing a homogenous catalytic decomposition with an oil-soluble transitional metal compound which serves as a catalyst to decompose the CHHP into cyclohexanol and cyclohexanone; and rectifying to obtain products of the cyclohexanol and the cyclohexanone; wherein the step further comprises a step of serving as a scale inhibitor by 1-hydroxy ethidene-1,1-diphosphonic acid (di)octyl ester, or a combination of 1-hydroxy ethidene-1,1-diphosphonic acid (di)octyl ester and phosphoric acid octyl ester, wherein for the step of "serving as the scale inhibitor by 1-hydroxy ethidene-1,1-diphosphonic acid (di)octyl ester", a weight ratio of 1-hydroxy ethidene-1,1-diphosphonic acid (di)octyl ester to transitional metal ions of the transitional metal compound is 1:0.8∼1.2; for the step of "serving as the scale inhibitor by the combination of 1-hydroxy ethidene-1,1-diphosphonic acid (di)octyl ester and the phosphoric acid octyl ester", an amount of the scale inhibitor is calculated according to an equation that a descaling capacity of 20 tons of the phosphoric acid octyl ester is equal to a descaling capacity of 1 ton of 1-hydroxy ethidene-1,1-diphosphonic acid (di)octyl ester; wherein the oil-soluble transitional metal compound is one member selected from a group consisting of chromium naphthenate, chromium octoate and bis(tert-butyl) chromate. non-catalyticly oxidizing cyclohexane with molecular oxygen to obtain an oxidized mixture liquid containing cyclohexyl hydroperoxide (CHHP) as a main product; performing a homogenous catalytic decomposition with an oil-soluble transitional metal compound which serves as a catalyst to decompose the CHHP into cyclohexanol and cyclohexanone; and rectifying to obtain products of the cyclohexanol and the cyclohexanone; wherein