mhurhangee/ep-ind-claims huggingface dataset:
A slurry composition for a negative electrode for a lithium ion secondary battery, the slurry composition comprising: a negative electrode active material, a particulate binder, a water soluble polymer, and water, wherein the particulate binder comprises a first particulate binder and a second particulate binder, the first particulate binder comprises a copolymer including an aliphatic conjugated diene monomer unit and an aromatic vinyl monomer unit, has a degree of swelling in electrolysis solution of 110% by mass or more to 200% by mass or less, has a glass transition temperature of -30°C or higher to 60°C or lower, and has a gel content of 70% by mass or more to 98% by mass or less, and the second particulate binder comprises a copolymer including an aliphatic conjugated diene monomer unit and an aromatic vinyl monomer unit, has a degree of swelling in electrolysis solution of 250% by mass or more to 600% by mass or less, and has a gel content of 70% by mass or more to 98% by mass or less. a negative electrode active material, a particulate binder, a water soluble polymer, and water, wherein the particulate binder comprises a first particulate binder and a second particulate binder, the first particulate binder comprises a copolymer including an aliphatic conjugated diene monomer unit and an aromatic vinyl monomer unit, has a degree of swelling in electrolysis solution of 110% by mass or more to 200% by mass or less, has a glass transition temperature of -30°C or higher to 60°C or lower, and has a gel content of 70% by mass or more to 98% by mass or less, and the second particulate binder comprises a copolymer including an aliphatic conjugated diene monomer unit and an aromatic vinyl monomer unit, has a degree of swelling in electrolysis solution of 250% by mass or more to 600% by mass or less, and has a gel content of 70% by mass or more to 98% by mass or less.
A polar transmitter, Polar TX, system comprising: a Polar TX comprising a radio frequency digital to analog converter, RFDAC, (108, 115) to receive phase modulation information and first amplitude modulation, AM, information to provide a radio frequency transmission signal for broadcast, and a phase lock loop, PLL, to receive both a function of the phase modulation information and a first signal, to provide at least an Inphase local oscillator, LO_I, signal and a quadrature phase local oscillator, LO_Q, signal; and a feedback receiver, FBR, comprising a plurality of mixers (122, 124) to mix the radio frequency transmission signal with the LO_I signal and the LO_Q signal to obtain mixer output signals, and measuring circuitry to concurrently determine, as a function of the mixer output signals, an RF path delay and an IQ phase imbalance, wherein the measuring circuitry further derives at least second AM information from at least one of the mixer output signals, and concurrently varies the first signal and measures the variation of the second AM information as the first signal is varied to determine the RF path delay and the IQ phase imbalance, wherein the first signal is a tuned frequency modulation, FM, signal, FM_tune, and wherein the function of the phase modulation information is the conversion of the phase modulation information to a frequency information. a Polar TX comprising a radio frequency digital to analog converter, RFDAC, (108, 115) to receive phase modulation information and first amplitude modulation, AM, information to provide a radio frequency transmission signal for broadcast, and a phase lock loop, PLL, to receive both a function of the phase modulation information and a first signal, to provide at least an Inphase local oscillator, LO_I, signal and a quadrature phase local oscillator, LO_Q, signal; and a radio frequency digital to analog converter, RFDAC, (108, 115) to receive phase modulation information and first amplitude modulation, AM, information to provide a radio frequency transmission signal for broadcast, and a phase lock loop, PLL, to receive both a function of the phase modulation information and a first signal, to provide at least an Inphase local oscillator, LO_I, signal and a quadrature phase local oscillator, LO_Q, signal; and a feedback receiver, FBR, comprising a plurality of mixers (122, 124) to mix the radio frequency transmission signal with the LO_I signal and the LO_Q signal to obtain mixer output signals, and measuring circuitry to concurrently determine, as a function of the mixer output signals, an RF path delay and an IQ phase imbalance, a plurality of mixers (122, 124) to mix the radio frequency transmission signal with the LO_I signal and the LO_Q signal to obtain mixer output signals, and measuring circuitry to concurrently determine, as a function of the mixer output signals, an RF path delay and an IQ phase imbalance,
A method of handling, at a wireless mail server, a newly issued identity certificate, said method comprising: by the wireless mail server, obtaining from a database said newly issued identity certificate generated by a certificate authority for use by a user device, wherein the said newly issued identity certificate is associated with a certificate chain defined as a set of identity certificates; determining by the wireless mail server a subset of said set, said subset including all of said identity certificates, in said set, that have not previously been transmitted to said user device; transmitting by the wireless mail server, to said user device, each identity certificate in said subset; and transmitting by the wireless mail server, to said user device, said newly issued identity certificate. by the wireless mail server, obtaining from a database said newly issued identity certificate generated by a certificate authority for use by a user device, wherein the said newly issued identity certificate is associated with a certificate chain defined as a set of identity certificates; determining by the wireless mail server a subset of said set, said subset including all of said identity certificates, in said set, that have not previously been transmitted to said user device; transmitting by the wireless mail server, to said user device, each identity certificate in said subset; and transmitting by the wireless mail server, to said user device, said newly issued identity certificate.
A method of relaying a code sequence (304, 310) for an infrared blaster, the method comprising: monitoring the code sequence; if the code sequence approaches a violating sequence, control the infrared blaster to emit infrared light with a corrected sequence (314, 316) that does not express the violating sequence; and if the code sequence does not approach the violating sequence, control the infrared blaster to emit infrared light with the code sequence. monitoring the code sequence; if the code sequence approaches a violating sequence, control the infrared blaster to emit infrared light with a corrected sequence (314, 316) that does not express the violating sequence; and if the code sequence does not approach the violating sequence, control the infrared blaster to emit infrared light with the code sequence.
A wear member for earth working equipment comprising an exterior surface subject to wearing by engagement with the ground, an interior surface for mounting the wear member on the earth working equipment, and a hole opening to the interior surface and the exterior surface, characterized in that the hole includes opposing walls each having retainers (54, 56) for securing a lock to the wear member in two distinct positions including a first position that permits installation of the wear member on the earth working equipment and a second position where the lock can secure the wear member to the earth working equipment.
An ultrasound catheter system (102, 402) for providing therapy to a treatment site at one or more locations of a subject, the system comprising: a tubular member (118, 418) having a proximal region and distal region, said distal region being adapted to advance to or in proximity to the subject's treatment site; a microbubble reservoir in hydraulic communication with said tubular member (118, 418), said microbubble reservoir is adapted to release microbubbles that are intended to be located into or proximal to the treatment site; an ultrasonic energy source (112, 412) in communication with said distal region of said tubular member, said ultrasonic energy adapted for: imaging the treatment site, and rupturing said microbubbles, wherein said ultrasonic energy source (112, 412) comprises an ultrasound transducer being disposed within said distal region of said tubular member (118, 418); wherein said ultrasound transducer comprises: a therapeutic transducer for said rupturing of said microbubbles; and an imaging transducer for said imaging of the treatment site; wherein said therapeutic transducer and said imaging transducer are stacked, one on top of the other, and form two active layers of said ultrasound transducer, or are configured as a single transducer; and control circuitry configured to send electrical activation to said ultrasonic energy source (112, 412). a tubular member (118, 418) having a proximal region and distal region, said distal region being adapted to advance to or in proximity to the subject's treatment site; a microbubble reservoir in hydraulic communication with said tubular member (118, 418), said microbubble reservoir is adapted to release microbubbles that are intended to be located into or proximal to the treatment site; an ultrasonic energy source (112, 412) in communication with said distal region of said tubular member, said ultrasonic energy adapted for: imaging the treatment site, and rupturing said microbubbles, wherein said ultrasonic energy source (112, 412) comprises an ultrasound transducer being disposed within said distal region of said tubular member (118, 418); wherein said ultrasound transducer comprises: a therapeutic transducer for said rupturing of said microbubbles; and an imaging transducer for said imaging of the treatment site; wherein said therapeutic transducer and said imaging transducer are stacked, one on top of the other, and form two active layers of said ultrasound transducer, or are configured as a single transducer; and control circuitry configured to send electrical activation to said ultrasonic energy source (112, 412). imaging the treatment site, and rupturing said microbubbles, a therapeutic transducer for said rupturing of said microbubbles; and an imaging transducer for said imaging of the treatment site; wherein said therapeutic transducer and said imaging transducer are stacked, one on top of the other, and form two active layers of said ultrasound transducer, or are configured as a single transducer; and control circuitry configured to send electrical activation to said ultrasonic energy source (112, 412).
A method for preparing graphene, comprising the steps of a) providing a high-pressure homogenizer including an inlet, an outlet, and a micro-channel that connects between the inlet and the outlet and has a diameter in a micrometer scale, b) passing a feed solution including graphite through the pressure homogenizer and thereby applying a shear force to the graphite in the feed solution to exfoliate the graphite and thereby preparing graphene; wherein the feed solution includes a block copolymer which is represented by the following Chemical Formula 3: in Chemical Formula 3, X is a bond R 1 is hydrogen; or C 1-4 alkyl, R 2 is a carboxy group; or C 6-20 aryl substituted with a carboxyl group or a sulfonic acid group, R 3 and R 4 are each independently hydrogen; C 6-20 aryl; -COO-(C 6-20 aryl); or -COO-(C 1-4 alkylene)-(C 6-20 aryl), n is an integer of 1 to 10,000, and m is an integer of 1 to 10,000. a) providing a high-pressure homogenizer including an inlet, an outlet, and a micro-channel that connects between the inlet and the outlet and has a diameter in a micrometer scale, b) passing a feed solution including graphite through the pressure homogenizer and thereby applying a shear force to the graphite in the feed solution to exfoliate the graphite and thereby preparing graphene; X is a bond R 1 is hydrogen; or C 1-4 alkyl, R 2 is a carboxy group; or C 6-20 aryl substituted with a carboxyl group or a sulfonic acid group, R 3 and R 4 are each independently hydrogen; C 6-20 aryl; -COO-(C 6-20 aryl); or -COO-(C 1-4 alkylene)-(C 6-20 aryl), n is an integer of 1 to 10,000, and m is an integer of 1 to 10,000.
An internal gear grinding machine for use in grinding a to-be-machined internal gear comprising: a barrel-shaped threaded tool, wherein the internal gear grinding machine is configured to grind the to-be-machined internal gear by synchronously rotating the to-be-machined internal gear and the barrel-shaped threaded tool in mesh with each other, wherein the to-be-machined internal gear is rotatable about a work rotation axis, and wherein the barrel-shaped threaded tool is rotatable about a tool rotation axis having a predetermined crossed axes angle (∑) with respect to the work rotation axis, wherein the internal gear grinding machine comprises: dressing means for dressing the threaded tool in accordance with a shape of the threaded tool, characterized by the dressing means having a disk-shaped dresser rotatable about a dresser rotation axis; and the dressing means further comprising: dresser turning means for turning the dresser about a horizontal dresser pivot axis perpendicular to the dresser rotation axis; and braking and maintaining means for applying a braking force to the dresser turning means, and maintaining the dresser at a turned position thereof. a barrel-shaped threaded tool, wherein the internal gear grinding machine is configured to grind the to-be-machined internal gear by synchronously rotating the to-be-machined internal gear and the barrel-shaped threaded tool in mesh with each other, wherein the to-be-machined internal gear is rotatable about a work rotation axis, and wherein the barrel-shaped threaded tool is rotatable about a tool rotation axis having a predetermined crossed axes angle (∑) with respect to the work rotation axis, wherein the internal gear grinding machine comprises: dressing means for dressing the threaded tool in accordance with a shape of the threaded tool, characterized by the dressing means having a disk-shaped dresser rotatable about a dresser rotation axis; and the dressing means further comprising: dresser turning means for turning the dresser about a horizontal dresser pivot axis perpendicular to the dresser rotation axis; and braking and maintaining means for applying a braking force to the dresser turning means, and maintaining the dresser at a turned position thereof. dressing means for dressing the threaded tool in accordance with a shape of the threaded tool, characterized by the dressing means having a disk-shaped dresser rotatable about a dresser rotation axis; and the dressing means further comprising: dresser turning means for turning the dresser about a horizontal dresser pivot axis perpendicular to the dresser rotation axis; and braking and maintaining means for applying a braking force to the dresser turning means, and maintaining the dresser at a turned position thereof. dresser turning means for turning the dresser about a horizontal dresser pivot axis perpendicular to the dresser rotation axis; and braking and maintaining means for applying a braking force to the dresser turning means, and maintaining the dresser at a turned position thereof.
Structured packing comprising at least one first packing layer, comprising a first wavy profile, said first wavy profile being designed as a plurality of open channels (12, 14, 16), said channels comprising a fist wave trough, a first wave crest and a second wave crest, the first wave crest and the second wave crest confining the first wave trough and said first wave crest and said second wave crest comprising a first apex and a second apex, a spacer being arranged on the first apex of the first wave crest, said spacer extending in the direction of the first apex said first wave trough exhibiting a trough base, said spacer exhibiting an edge which has a larger normal distance from the trough base of the wave trough than the first apex of the first wave crest, the structured packing comprising a second packing layer, having a second wavy profile, the first wavy profile of the first packing layer being oriented crosswise with respect to the second wavy profile of the second packing layer, with at least part of the apices (33, 43) being designed as an edge, spacers (24, 34, 44) being arranged on each of the first and second packing layers (10, 100) and the second packing layer exhibiting a wavy profile like the first packing layer, with the spacers (24, 34, 44) of the first packing layer being in touching contact with the spacers of the second packing layer.
A method at a unified data management, UDM, network function node that provides a Nudm_EventExposure Service, comprising: receiving a first request for updating an event subscription to one or more monitoring events from a second network function node; and sending a first response including an updating result to the second network function node. receiving a first request for updating an event subscription to one or more monitoring events from a second network function node; and sending a first response including an updating result to the second network function node.
A wind turbine, with a tower, a nacelle with a nacelle housing, which is placed on the tower, at least one cooling flap, which is configured to close an opening in or on an area of the wind turbine to be cooled, at least one temperature-dependent actuator, which is configured to activate and open the cooling flap as a function of temperature, so as to enable a heat compensation in the area to be cooled by means of the opening, wherein the temperature-dependent passive actuator can change its shape and/or its length without external electrical energy as a function of the temperature. a tower, a nacelle with a nacelle housing, which is placed on the tower, at least one cooling flap, which is configured to close an opening in or on an area of the wind turbine to be cooled, at least one temperature-dependent actuator, which is configured to activate and open the cooling flap as a function of temperature, so as to enable a heat compensation in the area to be cooled by means of the opening, wherein the temperature-dependent passive actuator can change its shape and/or its length without external electrical energy as a function of the temperature.
A pyrolysis installation for the gasification of a gasification mass, such as biomass and energetic residues, with an electrically heated pyrolysis reactor, in which several guide tubes equipped with conveying devices are arranged horizontally or with a slight inclination, wherein a feeding device is provided for feeding an inlet guide tube with the gasification mass and wherein a gas outlet for discharging the pyrolysis gas and a conveying device for discharging the degassed residue mass are arranged at the discharge end of the outlet guide tube, characterized in that at least two, preferably three, guide tubes (19, 21, 23) with one conveying device each are arranged one above the other and connected via connecting channels (20, 22), in that the guide tubes can be individually heated, in that the feeding device has an air lock reducing or preventing the inflow of supply air, and in that the pyrolysis reactor is surrounded by a heat-insulating jacket preventing the inflow of external air on all sides, wherein the heat-insulating material completely encloses the pyrolysis reactor, and wherein the jacket has an airtight outer skin which encloses the pyrolysis reactor on all sides, and the inlet tubes and openings for the conveying devices are arranged so sealingly that the inflow of air is prevented.
Device for the treatment of esophageal stenoses, comprising at least a body of elongated shape intended to be inserted within the esophagus of a patient, and at least a tubular sheath mounted around said body to define an interspace between said body and said tubular sheath, at least a stiffening element (8, 9) accommodated in said interspace and comprising a plurality of ribs which extend along said interspace, characterized in that it comprises at least two connection elements for connecting said tubular sheath to said body, associated with the axial ends to said tubular sheath and shaped so as to taper the outer surface of said tubular sheath to the outer surface of said body.
A compound represented by the following Chemical Formula 1: in Chemical Formula 1, L 1 is a single bond, or substituted or unsubstituted C 6-60 arylene; L 2 is a single bond, substituted or unsubstituted C 6-60 arylene, or substituted or unsubstituted C 2-60 heteroarylene containing at least one of O, N, Si and S; Ar 1 is any one of the following structural formulae: Ar 2 is any one of following structural formulae: X is C(R' 2)(R' 3), Si(R' 4)(R' 5), S, or O; R 1 is cyano, trifluoromethyl, or trifluoromethoxy; and R' 2 to R' 5, R 2 to R 10, and R 13 to R 19 are each independently hydrogen deuterium; halogen, cyano, nitro, amino, substituted or unsubstituted C 1-60 alkyl, C 1-60 haloalkyl, C 1-60 haloalkoxy, substituted or unsubstituted C 3-60 cycloalkyl, substituted or unsubstituted C 2-60 alkenyl, substituted or unsubstituted C 6-60 aryl, or a substituted or unsubstituted C 2-60 heterocyclic group containing at least one of O, N, Si and S. L 1 is a single bond, or substituted or unsubstituted C 6-60 arylene; L 2 is a single bond, substituted or unsubstituted C 6-60 arylene, or substituted or unsubstituted C 2-60 heteroarylene containing at least one of O, N, Si and S; Ar 1 is any one of the following structural formulae: Ar 2 is any one of following structural formulae: X is C(R' 2)(R' 3), Si(R' 4)(R' 5), S, or O; R 1 is cyano, trifluoromethyl, or trifluoromethoxy; and R' 2 to R' 5, R 2 to R 10, and R 13 to R 19 are each independently hydrogen deuterium; halogen, cyano, nitro, amino, substituted or unsubstituted C 1-60 alkyl, C 1-60 haloalkyl, C 1-60 haloalkoxy, substituted or unsubstituted C 3-60 cycloalkyl, substituted or unsubstituted C 2-60 alkenyl, substituted or unsubstituted C 6-60 aryl, or a substituted or unsubstituted C 2-60 heterocyclic group containing at least one of O, N, Si and S.
A method pertaining to SCR systems which comprise a dosing unit to supply reducing agent to an exhaust duct for exhaust cleaning, and a container for reducing agent, whereby a certain amount of said reducing agent fed to said dosing unit is led back to said container, comprising the step of: - choosing an initial limit level for reducing agent in said container, characterised by the steps of: - determining a cooling requirement of said dosing unit, and - choosing a limit level for reducing agent in said container on the basis of said cooling requirement, which limit level for reducing agent in said container corresponds to a smallest desirable volume of reducing agent in said container. - choosing an initial limit level for reducing agent in said container, - determining a cooling requirement of said dosing unit, and - choosing a limit level for reducing agent in said container on the basis of said cooling requirement,
A flexible chute for ammunition comprising successive sections linked by wall portions (11, 13) at the transverse faces thereof and comprising at least one tubular section of axis G, with a first wall portion (11 1, 11 2) integral with one of its two transverse faces and a second wall portion (13 1, 13 2) integral with the other transverse face, characterized in that the projections (26 1, 26 2, 26 3, 26 4) of these wall portions, perpendicularly to a transverse plane of the section, are at least partly distinct.