mhurhangee/ep-ind-claims huggingface dataset:
Use of copolymers containing i) 49 to 99 wt%, preferably 55 to 90 wt% of repeat units derived from at least one alkyl acrylate other than repeat units ii), ii) 1 to 51 wt% of repeat units derived from at least one monomer of general formula CH 2 =C(R 1)(COO(R 2 O) n R 3) where R 1 represents hydrogen or methyl, R 2 at each occurrence independently represents a linear or branched C 2 to C 6 alkylene group, R 3 represents hydrogen, unsubstituted or C 1 -C 3 alkyl substituted phenyl, a linear or branched C 1 -C 8 alkyl group or -C(=O)R 4 R 4 represents hydrogen or a linear or branched C 1 -C 8 alkyl group, and n represents a number from 2 to 30, and iii) 0 to 50 wt%, preferably 0 to 45 wt% of repeat units derived from ethylene, wherein the amounts are each based on the combined amount of repeat units i) to iii), in the manufacture of vulcanizates and vulcanizable compositions. i) 49 to 99 wt%, preferably 55 to 90 wt% of repeat units derived from at least one alkyl acrylate other than repeat units ii), ii) 1 to 51 wt% of repeat units derived from at least one monomer of general formula CH 2 =C(R 1)(COO(R 2 O) n R 3) where R 1 represents hydrogen or methyl, R 2 at each occurrence independently represents a linear or branched C 2 to C 6 alkylene group, R 3 represents hydrogen, unsubstituted or C 1 -C 3 alkyl substituted phenyl, a linear or branched C 1 -C 8 alkyl group or -C(=O)R 4 R 4 represents hydrogen or a linear or branched C 1 -C 8 alkyl group, and n represents a number from 2 to 30, and R 1 represents hydrogen or methyl, R 2 at each occurrence independently represents a linear or branched C 2 to C 6 alkylene group, R 3 represents hydrogen, unsubstituted or C 1 -C 3 alkyl substituted phenyl, a linear or branched C 1 -C 8 alkyl group or -C(=O)R 4 R 4 represents hydrogen or a linear or branched C 1 -C 8 alkyl group, and n represents a number from 2 to 30, and iii) 0 to 50 wt%, preferably 0 to 45 wt% of repeat units derived from ethylene, wherein the amounts are each based on the combined amount of repeat units i) to iii),
A monitoring system, the monitoring system comprising: a transmitter configured to transmit to a monitoring control system physiological monitoring information that is responsive to information received from sensors that are carried by a patient; and wherein the monitoring system is characterized by further comprising multiple sensor managers, wherein a sensor manager is configured to modify a monitoring state of a first sensor out of the sensors in response to instructions that are determined by the monitoring control system in response to an adequacy of the physiological monitoring information to monitoring of sleeping of the patient; the multiple sensor managers configured to manage the reception of information from sensors, and including an internal sensor manager (210.1) and one or more external sensor managers (210.2); wherein the transmitter is further configured to transmit to the monitoring control system physiological monitoring information responsive to information received from the first sensor after the modifying of its monitoring state. a transmitter configured to transmit to a monitoring control system physiological monitoring information that is responsive to information received from sensors that are carried by a patient; and wherein the monitoring system is characterized by further comprising multiple sensor managers, wherein a sensor manager is configured to modify a monitoring state of a first sensor out of the sensors in response to instructions that are determined by the monitoring control system in response to an adequacy of the physiological monitoring information to monitoring of sleeping of the patient; the multiple sensor managers configured to manage the reception of information from sensors, and including an internal sensor manager (210.1) and one or more external sensor managers (210.2); wherein the transmitter is further configured to transmit to the monitoring control system physiological monitoring information responsive to information received from the first sensor after the modifying of its monitoring state.
A radio network controller connected to a first exchange (SGSN#1) and a second exchange (SGSN#2) which manage a same location registration area, the radio network controller comprising: a manager configured to manage a mobile station under control of the radio network controller, in association with the first exchange (SGSN#1) or the second exchange (SGSN#2); a transfer configured to transfer a signal transmitted from the mobile station to the first exchange (SGSN#1) or the second exchange (SGSN#2) which is associated with the mobile station; and a monitor configured to monitor state of the first exchange (SGSN#1) and the second exchange (SGSN#2); and wherein the transfer is configured to transfer a signal from the mobile station associated with the first exchange (SGSN#1), to the second exchange (SGSN#2), when the monitor detects inaccessibility to the first exchange (SGSN#1); and characterized in that the manager is configured to manage a temporary user identifier (IMSI) newly allocated to the mobile station after the mobile station under control of the radio network controller completes location registration to the second exchange (SGSN#2), in association with the second exchange (SGSN#2), when the monitor detects inaccessibility to the first exchange (SGSN#1) after the mobile station under control of the radio network controller completes location registration to the first exchange (SGSN#1). a manager configured to manage a mobile station under control of the radio network controller, in association with the first exchange (SGSN#1) or the second exchange (SGSN#2); a transfer configured to transfer a signal transmitted from the mobile station to the first exchange (SGSN#1) or the second exchange (SGSN#2) which is associated with the mobile station; and a monitor configured to monitor state of the first exchange (SGSN#1) and the second exchange (SGSN#2); and wherein the transfer is configured to transfer a signal from the mobile station associated with the first exchange (SGSN#1), to the second exchange (SGSN#2), when the monitor detects inaccessibility to the first exchange (SGSN#1); and characterized in that the manager is configured to manage a temporary user identifier (IMSI) newly allocated to the mobile station after the mobile station under control of the radio network controller completes location registration to the second exchange (SGSN#2), in association with the second exchange (SGSN#2), when the monitor detects inaccessibility to the first exchange (SGSN#1) after the mobile station under control of the radio network controller completes location registration to the first exchange (SGSN#1).
A joint assembly (600; 1300A; 1300B) residing within a wellbore, comprising: a first base pipe (610a-610f) and a second base pipe (610a-610f) connected in series, each base pipe comprising: a tubular body having a first end, a second end and a bore there between forming a primary flow path for fluids; and at least two transport conduits (930; 932, 934) along an outer diameter configured to transport fluids as a secondary flow path; and a coupling assembly (901; 1250) operatively connecting the second end of the first base pipe to the first end of the second base pipe, wherein the coupling assembly comprises a manifold that places respective transport conduits of the base pipes in fluid communication, characterized in that the coupling assembly further comprises a flow port adjacent the manifold that places the primary flow path in fluid communication with the secondary flow path along a portion of the wellbore. a first base pipe (610a-610f) and a second base pipe (610a-610f) connected in series, each base pipe comprising: a tubular body having a first end, a second end and a bore there between forming a primary flow path for fluids; and at least two transport conduits (930; 932, 934) along an outer diameter configured to transport fluids as a secondary flow path; and a tubular body having a first end, a second end and a bore there between forming a primary flow path for fluids; and at least two transport conduits (930; 932, 934) along an outer diameter configured to transport fluids as a secondary flow path; and a coupling assembly (901; 1250) operatively connecting the second end of the first base pipe to the first end of the second base pipe, wherein the coupling assembly comprises a manifold that places respective transport conduits of the base pipes in fluid communication, characterized in that the coupling assembly further comprises a flow port adjacent the manifold that places the primary flow path in fluid communication with the secondary flow path along a portion of the wellbore.
A method of testing if a human, who is thought to be predisposed to having lung cancer, has or is predisposed to having lung cancer which comprises the steps of: a) analyzing a biological sample from said human for detecting the presence of a single nucleotide polymorphism associated with lung cancer, and b) confirming if said human has or is predisposed for having lung cancer, wherein said SNP associated with lung cancer is selected from the group comprising rs17483548 (nucleotide N at position 16 of SEQ ID NO:1, wherein allele A is associated to lung cancer), rs17405217 (nucleotide N at position 16 of SEQ ID NO:2, wherein allele T is associated to lung cancer), rs17483721 (nucleotide N at position 16 of SEQ ID NO:3, wherein allele C is associated to lung cancer), rs2656052 (nucleotide N at position 16 of SEQ ID NO:4, wherein allele G is associated to lung cancer), rs2568494 (nucleotide N at position 16 of SEQ ID NO:5, wherein allele A is associated to lung cancer), rs7181486 (nucleotide N at position 16 of SEQ ID NO:6, wherein allele C is associated to lung cancer), rs17483929 (nucleotide N at position 16 of SEQ ID NO:7, wherein allele A is associated to lung cancer), rs2656065 (nucleotide N at position 16 of SEQ ID NO:8, wherein allele T is associated to lung cancer), rs2009746 (nucleotide N at position 16 of SEQ ID NO:9, wherein allele C is associated to lung cancer), rs17484235 (nucleotide N at position 16 of SEQ ID NO:10, wherein allele G is associated to lung cancer), rs1504550 (nucleotide N at position 16 of SEQ ID NO:11, wherein allele C is associated to lung cancer), rs17484524 (nucleotide N at position 16 of SEQ ID NO:12, wherein allele G is associated to lung cancer), rs9788721 (nucleotide N at position 16 of SEQ ID NO:13, wherein allele C is associated to lung cancer), rs8034191 (nucleotide N at position 16 of SEQ ID NO:14, wherein allele C is associated to lung cancer), rs10519203 (nucleotide N at position 16 of SEQ ID NO:15, wherein allele G is associated to lung cancer), rs8031948 (nucleotide N at position 16 of SEQ ID NO:16, wherein allele T is associated to lung cancer), rs931794 (nucleotide N at position 31 of SEQ ID NO:17, wherein allele G is associated to lung cancer), rs2036527 (nucleotide N at position 31 of SEQ ID NO:18, wherein allele A is associated to lung cancer), rs17486278 (nucleotide N at position 16 of SEQ ID NO:19, wherein allele C is associated to lung cancer), rs7180002 (nucleotide N at position 16 of SEQ ID NO:20, wherein allele T is associated to lung cancer), rs951266 (nucleotide N at position 16 of SEQ ID NO:21, wherein allele T is associated to lung cancer), rs1317286 (nucleotide N at position 16 of SEQ ID NO:24, wherein allele G is associated to lung cancer), and rs17487223 (nucleotide N at position 16 of SEQ ID NO:25, wherein allele T is associated to lung cancer). a) analyzing a biological sample from said human for detecting the presence of a single nucleotide polymorphism associated with lung cancer, and b) confirming if said human has or is predisposed for having lung cancer,
A mild-hybrid energy storage system architecture for supplying electric power to an engine starter, comprising: a battery; an ultracapacitor connected in parallel with the battery; a passive battery pre-charge circuit connected between a terminal of the battery and a DC bus and configured to pre-charge the DC bus; a battery main contactor connected in parallel with the battery pre-charge circuit between the terminal of the battery and the DC bus; a passive ultracapacitor pre-charge circuit connected between a terminal of the ultracapacitor and the DC bus and configured to charge the ultracapacitor; an ultracapacitor main contactor connected in parallel with the ultracapacitor pre-charge circuit between the terminal of the ultracapacitor and the DC bus; and a control module (112, 114) configured to independently control operation of the battery pre-charge circuit, the battery main contactor, the ultracapacitor pre-charge circuit and the ultracapacitor main contactor such that the ultracapacitor is isolable by opening both an ultracapacitor pre-charge switch of the passive ultracapacitor pre-charge circuit and the ultracapacitor main contactor at engine shutdown. a battery; an ultracapacitor connected in parallel with the battery; a passive battery pre-charge circuit connected between a terminal of the battery and a DC bus and configured to pre-charge the DC bus; a battery main contactor connected in parallel with the battery pre-charge circuit between the terminal of the battery and the DC bus; a passive ultracapacitor pre-charge circuit connected between a terminal of the ultracapacitor and the DC bus and configured to charge the ultracapacitor; an ultracapacitor main contactor connected in parallel with the ultracapacitor pre-charge circuit between the terminal of the ultracapacitor and the DC bus; and a control module (112, 114) configured to independently control operation of the battery pre-charge circuit, the battery main contactor, the ultracapacitor pre-charge circuit and the ultracapacitor main contactor such that the ultracapacitor is isolable by opening both an ultracapacitor pre-charge switch of the passive ultracapacitor pre-charge circuit and the ultracapacitor main contactor at engine shutdown.
Wall-flow filter for removing particles from the exhaust gas of combustion engines, comprising a wall-flow filter substrate of length L and coatings Z and F that differ from one another, wherein the wall-flow filter substrate has channels E and A, which extend in parallel between a first and a second end of the wall-flow filter substrate, are separated by porous walls and form surfaces O E and O A respectively, and wherein the channels E are closed at the second end and the channels A are closed at the first end, and wherein the coating Z is located in the porous walls and/or on the surfaces O A, but not on the surfaces O E, and comprises palladium and/or rhodium and a cerium/zirconium mixed oxide, characterized in that the coating F is located in the porous walls and/or on the surfaces O E, but not on the surfaces O A, and comprises a particulate metal compound and no precious metal, and the wall-flow filter substrate has a coating Y which is different from the coatings Z and F, which comprises platinum, palladium or platinum and palladium, which does not contain rhodium or cerium/zirconium mixed oxide, and which is located in the porous walls, but not on the surfaces O A. wherein the wall-flow filter substrate has channels E and A, which extend in parallel between a first and a second end of the wall-flow filter substrate, are separated by porous walls and form surfaces O E and O A respectively, and wherein the channels E are closed at the second end and the channels A are closed at the first end, and wherein the coating Z is located in the porous walls and/or on the surfaces O A, but not on the surfaces O E, and comprises palladium and/or rhodium and a cerium/zirconium mixed oxide, characterized in that the coating F is located in the porous walls and/or on the surfaces O E, but not on the surfaces O A, and comprises a particulate metal compound and no precious metal, and the wall-flow filter substrate has a coating Y which is different from the coatings Z and F, which comprises platinum, palladium or platinum and palladium, which does not contain rhodium or cerium/zirconium mixed oxide, and which is located in the porous walls, but not on the surfaces O A.
A fluid filtration device comprising: (a) a holder comprising an inlet, a filtrate outlet, a retentate outlet; and (b) a composite media located in the holder such that it separates the holder into an upstream compartment and a downstream compartment, the inlet and retentate outlet being upstream of the composite media and the filtrate outlet being downstream of the composite media, the composite media comprising: (i) a porous interlayer having opposing first and second sides, (ii) a first fiber containing filter layer located on the first side of the interlayer, and (iii) a second fiber containing filter layer located on the second side of the interlayer, wherein the fibers in the first and second fiber containing filter layers are polymeric nanofibers having a different fiber diameter, and each fiber containing filter layer has a different pore size rating, and the interlayer is non-woven and has a coarser pore size than either the first or second fiber containing filter layers. (a) a holder comprising an inlet, a filtrate outlet, a retentate outlet; and (b) a composite media located in the holder such that it separates the holder into an upstream compartment and a downstream compartment, the inlet and retentate outlet being upstream of the composite media and the filtrate outlet being downstream of the composite media, the composite media comprising: (i) a porous interlayer having opposing first and second sides, (ii) a first fiber containing filter layer located on the first side of the interlayer, and (iii) a second fiber containing filter layer located on the second side of the interlayer, (i) a porous interlayer having opposing first and second sides, (ii) a first fiber containing filter layer located on the first side of the interlayer, and (iii) a second fiber containing filter layer located on the second side of the interlayer,
Exhaust aftertreatment system for an internal combustion engine, including: a. a device for introducing hydrocarbons into an exhaust gas pipe carrying the process exhaust gas of the internal combustion engine, wherein the hydrocarbons in the device are at least partially vaporized and chemically modified by cracking reactions and/or by partial oxidation and wherein the device for at least partial vaporization and for chemical modification of the hydrocarbons caused by cracking reactions and/or by partial oxidation is an arrangement which has a burner with a supply device (8a, 8b) for fuel and air, and a combustion chamber and an exhaust gas line that is provided with an injection device for hydrocarbons and that opens into the exhaust gas pipe at the point of introduction, and b. downstream of the outlet, a treatment device which has catalytically coated components and through which the process exhaust gas flows and which increases the process exhaust gas temperature by oxidation of the introduced, partially vaporized hydrocarbons chemically modified by cracking reactions and/or by partial oxidation, characterized in that the platinum content at least in a partial region of the catalytic coating of the components is less than 50% of the total mass of all catalytically active substances in this partial region of the coating, the palladium content of the catalytic coating of the partial region is at least 50% of the total mass of all noble metals of the partial region of the treatment device, and wherein the catalytically coated components are catalyst substrates or particle filters. a. a device for introducing hydrocarbons into an exhaust gas pipe carrying the process exhaust gas of the internal combustion engine, wherein the hydrocarbons in the device are at least partially vaporized and chemically modified by cracking reactions and/or by partial oxidation and wherein the device for at least partial vaporization and for chemical modification of the hydrocarbons caused by cracking reactions and/or by partial oxidation is an arrangement which has a burner with a supply device (8a, 8b) for fuel and air, and a combustion chamber and an exhaust gas line that is provided with an injection device for hydrocarbons and that opens into the exhaust gas pipe at the point of introduction, and b. downstream of the outlet, a treatment device which has catalytically coated components and through which the process exhaust gas flows and which increases the process exhaust gas temperature by oxidation of the introduced, partially vaporized hydrocarbons chemically modified by cracking reactions and/or by partial oxidation,
Apparatus for continuously pressing liquid out of a suspension, in particular a screw press, comprising a rotationally driven rotor which rotates in a tubular screw housing and supports a conveyor screw, wherein the screw housing includes a first filter casing which cooperates at least partially with the conveyor screw and has radial passages for diverting the filtered liquid and supplies a filter cake, consisting of retained solids, in the conveyance direction of the conveyor screw to a discharge, wherein the rotor, disposed downstream of the conveyor screw, is allocated an annular first sleeve, which coaxially encloses the rotor, for peeling off an outer filter cake layer from the filter cake, wherein a conveyance channel for the inner filter cake layer which has remained is provided between the sleeve and the rotor, and the rotor has, in the region of the conveyance channel, a second filter for diverting the filtered liquid through the rotor, characterised in that the first sleeve is allocated at least one scraper, which is aligned with respect to the rotor, for cleaning the filter cake from the second filter.
A method for producing a nickel oxide fine powder having a specific surface area of 3 m 2 /g or more but less than 6 m 2 /g, a sulfur content of 300 mass ppm or less, a chlorine content of 50 mass ppm or less, a sodium content of 100 mass ppm or less, and a D90 of 2 μm or less as measured by a laser scattering method, said method comprising the steps of: neutralizing an aqueous nickel sulfate solution with an alkali to obtain nickel hydroxide particles such that sulfur component is incorporated as a sulfate into a surface of or an interface between nickel hydroxide particles; heat-treating the obtained nickel hydroxide particles in a non-reducing atmosphere at a temperature of 870°C or higher but lower than 1050°C to form nickel oxide particles; and pulverizing a sintered compact of nickel oxide particles that may be formed during the heat treatment. neutralizing an aqueous nickel sulfate solution with an alkali to obtain nickel hydroxide particles such that sulfur component is incorporated as a sulfate into a surface of or an interface between nickel hydroxide particles; heat-treating the obtained nickel hydroxide particles in a non-reducing atmosphere at a temperature of 870°C or higher but lower than 1050°C to form nickel oxide particles; and pulverizing a sintered compact of nickel oxide particles that may be formed during the heat treatment.
Emergency call device for a vehicle for transmitting an emergency call, the emergency call device comprising: a communication unit for transmitting the emergency call to a receiving device outside the vehicle, the emergency call being transmitted at least partially via a voice channel; a control unit for controlling the communication unit; the control unit being constructed, on occurrence of a certain event, to generate a data record which thereupon is transmitted during the emergency call, characterized in that the certain event is a data request from the receiving device outside the vehicle to the control unit during the transmission of the emergency call and the data request is based on a predetermined tone sequence. a communication unit for transmitting the emergency call to a receiving device outside the vehicle, the emergency call being transmitted at least partially via a voice channel; a control unit for controlling the communication unit; the control unit being constructed, on occurrence of a certain event, to generate a data record which thereupon is transmitted during the emergency call,