mhurhangee/ep-ind-claims huggingface dataset:
A separator, comprising: a porous substrate having a plurality of pores; and a porous coating layer formed on at least one surface of the porous substrate and made of a mixture of a plurality of filler particles and a binder polymer, wherein the filler particles include electrode active material particles that are electrochemically oxidized and reduced, and wherein the binder polymer includes a copolymer having (a) a first monomer unit with a contact angle to water of 5 to 30° and (b) a second monomer unit with a contact angle to water of 70 to 120°. a porous substrate having a plurality of pores; and a porous coating layer formed on at least one surface of the porous substrate and made of a mixture of a plurality of filler particles and a binder polymer, wherein the filler particles include electrode active material particles that are electrochemically oxidized and reduced, and wherein the binder polymer includes a copolymer having (a) a first monomer unit with a contact angle to water of 5 to 30° and (b) a second monomer unit with a contact angle to water of 70 to 120°.
A method for manufacturing a vacuum insulated structure, comprising: adhering a trim breaker to a wrapper and a liner via an adhesive to define an insulated structure; positioning the insulated structure within an evacuation chamber proximate to a first heater and a second heater; heating the insulated structure and the evacuation chamber via the first heater and the second heater; evacuating the evacuation chamber via a first vacuum pump; and evacuating the insulated structure via a second vacuum pump. adhering a trim breaker to a wrapper and a liner via an adhesive to define an insulated structure; positioning the insulated structure within an evacuation chamber proximate to a first heater and a second heater; heating the insulated structure and the evacuation chamber via the first heater and the second heater; evacuating the evacuation chamber via a first vacuum pump; and evacuating the insulated structure via a second vacuum pump.
A method of fractionating a mannosylerythritol lipid -containing composition which comprises, (i) loading the composition onto an adsorbing support, optionally (ii) separating a fraction from the support using liquid carbon dioxide, (iii) separating a fraction which is enriched in MEL from the support using supercritical carbon dioxide, and optionally (iv) separating one or more further fractions enriched in MEL from the support using supercritical carbon dioxide and an optional co-solvent.
A method for antimicrobial coating of the surface of a substrate, comprising the steps of: adding an inorganic antimicrobial agent to a coating agent including urushiol; impregnating the substrate with the coating agent and performing high temperature polymerization, wherein the substrate to which the coating agent is introduced is subjected to high temperature treatment to induce thermal crosslinking and polymerization of urushiol; and drying the substrate; wherein the inorganic antimicrobial agent is fixed on the surface of the substrate and urushiol is crosslinked; wherein the inorganic antimicrobial agent is selected from copper oxide, zinc oxide, zinc pyrithione, and metal ions on an inorganic carrier, the metal ions being selected from silver ions, copper ions, manganese ions and zinc ions, and the inorganic carrier being selected from zeolite and silica-alumina; and wherein the heating temperature for inducing the polymerization reaction of urushiol is 70 to 200°C and the heating time is 1 to 100 hours. adding an inorganic antimicrobial agent to a coating agent including urushiol; impregnating the substrate with the coating agent and performing high temperature polymerization, wherein the substrate to which the coating agent is introduced is subjected to high temperature treatment to induce thermal crosslinking and polymerization of urushiol; and drying the substrate; wherein the inorganic antimicrobial agent is fixed on the surface of the substrate and urushiol is crosslinked; wherein the inorganic antimicrobial agent is selected from copper oxide, zinc oxide, zinc pyrithione, and metal ions on an inorganic carrier, the metal ions being selected from silver ions, copper ions, manganese ions and zinc ions, and the inorganic carrier being selected from zeolite and silica-alumina; and wherein the heating temperature for inducing the polymerization reaction of urushiol is 70 to 200°C and the heating time is 1 to 100 hours.
Device for applying a material measure of a position measuring apparatus to a mounting surface of a carrier (5, 105), comprising - a base body (1, 101), - a punch, which can be displaced relative to the base body (1, 101) along an axis at right angles to the mounting surface, and which has a holding element for the detachable holding of the material measure, characterized by - a spring element, which is arranged between the base body (1, 101) and the punch in such a way that, during the application of the material measure to the mounting surface, the spring element exerts a compressive force on the punch along the axis towards the mounting surface, wherein - at a first position along the axis, the base body (1, 101) has a first abutment (11, 111), on which the punch is supported when in the rest state, so that the punch is held on the base body (1, 101) in a defined position along the axis, and wherein - at a second position along the axis, the base body (1, 101) has a second abutment (6, 61), which is formed as a stop surface and, during the application of the material measure to the carrier (5, 105), is brought into contact with a reference surface of the carrier (5, 105), and wherein - the holding element is a clamping mechanism, which is designed to hold the material measure on the punch in a clamping manner in such a way that the material measure is forced onto the mounting surface by the compressive force during the application. - a base body (1, 101), - a punch, which can be displaced relative to the base body (1, 101) along an axis at right angles to the mounting surface, and which has a holding element for the detachable holding of the material measure, - a spring element, which is arranged between the base body (1, 101) and the punch in such a way that, during the application of the material measure to the mounting surface, the spring element exerts a compressive force on the punch along the axis towards the mounting surface, wherein - at a first position along the axis, the base body (1, 101) has a first abutment (11, 111), on which the punch is supported when in the rest state, so that the punch is held on the base body (1, 101) in a defined position along the axis, and wherein - at a second position along the axis, the base body (1, 101) has a second abutment (6, 61), which is formed as a stop surface and, during the application of the material measure to the carrier (5, 105), is brought into contact with a reference surface of the carrier (5, 105), and wherein - the holding element is a clamping mechanism, which is designed to hold the material measure on the punch in a clamping manner in such a way that the material measure is forced onto the mounting surface by the compressive force during the application.
A fume extraction and/or filtration hood, in particular for household kitchens, comprising: - a chimney having a hollow interior and comprising lateral walls, a back wall and a front wall; - an inlet section through which fumes flow into said chimney; - a motor fan accommodated in said chimney opposite to said inlet section; - an extraction volume placed between said lateral walls and said motor fan, said lateral walls and said extraction volume being substantially symmetrical with respect to a common plane of symmetry, wherein said lateral walls comprise at least: - a first segment located proximate to said inlet section and inclined toward said plane of symmetry; - a second segment inclined in a opposite direction with respect to said plane of symmetry, said hood being characterized by said first segment and second segment being formed with radiused surfaces, each segment having a first length obtained by measuring said segment on a reference plane substantially parallel to the plane of symmetry, wherein said first length is ranging from 70 mm to 110 mm. - a chimney having a hollow interior and comprising lateral walls, a back wall and a front wall; - an inlet section through which fumes flow into said chimney; - a motor fan accommodated in said chimney opposite to said inlet section; - an extraction volume placed between said lateral walls and said motor fan, - a first segment located proximate to said inlet section and inclined toward said plane of symmetry; - a second segment inclined in a opposite direction with respect to said plane of symmetry,
A method in a Radio Unit, RU, for facilitating Clear Channel Assessment, CCA, comprising: - detecting, in a first transmission period while the RU is operating in a first channel, whether one or more candidate channels are unoccupied; - determining, when the first channel is not clear for transmission in a second transmission period, whether any of the one or more candidate channels that is detected to be unoccupied is clear for transmission in the second transmission period; - characterized by selecting one of the one or more candidate channels that is determined to be clear, for transmission in the second transmission period; - transmitting a reservation signal over the selected candidate channel; - reporting the selected candidate channel to a Digital Unit, DU; and - receiving a transmission configuration associated with the selected candidate channel from the DU; and - reporting a CCA failure to a Digital Unit, DU, only when none of the one or more candidate channels is detected to be unoccupied or determined to be clear. - detecting, in a first transmission period while the RU is operating in a first channel, whether one or more candidate channels are unoccupied; - determining, when the first channel is not clear for transmission in a second transmission period, whether any of the one or more candidate channels that is detected to be unoccupied is clear for transmission in the second transmission period; - characterized by selecting one of the one or more candidate channels that is determined to be clear, for transmission in the second transmission period; - transmitting a reservation signal over the selected candidate channel; - reporting the selected candidate channel to a Digital Unit, DU; and - receiving a transmission configuration associated with the selected candidate channel from the DU; and - reporting a CCA failure to a Digital Unit, DU, only when none of the one or more candidate channels is detected to be unoccupied or determined to be clear.
Filler element for filling containers with a liquid product, with a liquid channel formed in a filling element housing through which the product can flow, with at least one liquid valve in the liquid channel, with an outlet opening following the liquid valve in the direction of flow of the product for the discharge of the product into the respective container when the liquid valve is open, and with an element which determines the filling height of the product in the container and is guided through the filling element housing, which during filling extends into the container with a first end (17.1) projecting over the outlet opening, and is guided out of the filling element housing with a second end, remote from the first end, sealed at a housing passage region, and with a protection space connecting directly to the housing passage region for accommodating a length of the element which determines the filling height, this length corresponding to an axial setting lift movement, wherein the protection space can be opened by an opening lift movement of the element which determines the filling height, deviating from an adjustment lift movement, characterized in that the protection space opens, by means of the axial opening lift movement of the element which determines the filling height, into a space (25.2) formed in the filling element housing.
A rotor blade having a structural spar, wherein the rotor blade includes a blade root for connection to a hub and a blade tip, wherein the structural spar extends longitudinally between the blade root and the blade tip and a surrounding aerodynamically-shaped structural skin of the rotor blade, wherein the cross sectional shape of the structural spar is generally rectangular, wherein the structural spar has a closed channel configuration, wherein the shape of the structural skin is of a cambered airfoil, and wherein the structural spar comprises: a plurality of adjoining structural strips (52, 54) axially aligned to form said structural spar, at least one of said strips comprising a shape memory alloy strip; at least one heating element positioned adjacent said at least one shape memory alloy strip to change a temperature of said at least one shape memory alloy strip, wherein heat applied to said at least one shape memory alloy strip causes said structural spar to twist or bend; and a temperature control system coupled to said at least one heating element. a plurality of adjoining structural strips (52, 54) axially aligned to form said structural spar, at least one of said strips comprising a shape memory alloy strip; at least one heating element positioned adjacent said at least one shape memory alloy strip to change a temperature of said at least one shape memory alloy strip, wherein heat applied to said at least one shape memory alloy strip causes said structural spar to twist or bend; and a temperature control system coupled to said at least one heating element.
Electrical line, comprising at least three cores (8, 12) with respectively one conductor (8a, 12a) surrounded by a core sheath (8b, 12b), wherein - two of the cores are designed as signal cores and, with a common partial line sheath surrounding them, form a first partial line, in particular a signal line, - another of the cores is designed as a power core and forms a second partial line, in particular a power line, - the cores (8, 12) are surrounded by a separating sleeve, which in turn is surrounded by a common sheath of the electrical line, wherein the partial line sheath has an inner sheath section and an outer sheath section, and the outer sheath section is harder than the inner sheath section, characterized in that the partial line sheath of the first partial line is formed from a thermoplastic polyurethane elastomer, wherein the material composition is varied in such a way that the outer sheath section is harder. - two of the cores are designed as signal cores and, with a common partial line sheath surrounding them, form a first partial line, in particular a signal line, - another of the cores is designed as a power core and forms a second partial line, in particular a power line, - the cores (8, 12) are surrounded by a separating sleeve, which in turn is surrounded by a common sheath of the electrical line, wherein the partial line sheath has an inner sheath section and an outer sheath section, and the outer sheath section is harder than the inner sheath section,
A process for preparing polymers from monomers and/or oligomers by adding a liquid comprising the monomers and/or oligomers dropwise to a continuous liquid phase in a reactor, the continuous liquid phase being immiscible with the liquid comprising the monomers and/or oligomers, and the monomers and/or oligomers reacting in the continuous liquid phase to give the polymer, which comprises shaping the liquid comprising the monomers and/or oligomers to droplets outside the continuous liquid phase and then introducing them into the continuous liquid phase, wherein the reactor is configured as a tubular reactor.
A nuclear reactor, comprising a shell with a reflector, forming a reactor core, first process channels, located in the reactor core, designed for coolant circulation, second process channels, located in the reactor core, designed for placement of control and protection system, CPS, components, and fuel rod arrays, wherein the reactor further contains a first loop coolant supply and discharge chambers, separated by a partition, the first process channels are designed as Field tubes, i.e. tubes consisting of a single-ended external tube and an open-ended internal tube, whose external tubes are attached to the bottom of the first loop coolant supply chamber and internal tubes are attached to the partition, the fuel rod arrays are installed inside the internal tubes of the Field tubes on suspenders, which are attached to the upper part of the first loop coolant discharge chamber, second process channels are isolated from the first loop coolant supply and discharge chambers, and the space between the tubes within the reactor's core is filled with a medium or material that is transparent for neutrons.
A system, comprising: - an electronic control unit having a service oriented architecture, SOA ECU; wherein the SOA ECU is located within a vehicle; wherein the SOA ECU comprises: - at least one partition that comprises: - at least one SOA server; wherein the at least one SOA server is configured to provide at least one service to: at least one client ECU that is located within the vehicle, at least one external client that is located outside the vehicle, or both; wherein the at least one SOA server is configured to assign at least one service dedicated processing resource and at least one service dedicated memory resource to provide the at least one service; and - a separation kernel; wherein the separation kernel is configured to ensure that i) the at least one service dedicated processing resource is allocated from at least one respective partition dedicated processing resource and ii) the at least one service dedicated memory resource is allocated from at least one respective partition dedicated memory resource. - an electronic control unit having a service oriented architecture, SOA ECU; - at least one partition that comprises: - at least one SOA server; - at least one SOA server; - a separation kernel; i) the at least one service dedicated processing resource is allocated from at least one respective partition dedicated processing resource and ii) the at least one service dedicated memory resource is allocated from at least one respective partition dedicated memory resource.
A carbon- ceramic brake disc assemble 200 comprising: a carbon- ceramic brake disc 210 having a first axis hole 211 in the center thereof, and a plurality of first holes 212 around the first axis hole 211; a hat part 220 having a second axis hole 221 in the center thereof, and a plurality of second holey 222 around the second axis hole 221; and a connection unit connecting the carbon- ceramic brake disc and the hat part 220, characterised by: bushings 231, each of which includes a head 231A, a body 231B connecting to the head 231A, and serrations 231C protruding the outer surface of the body 231B along the length of the body, with a threaded hole 231D pierced through the head and body, lengthwise, the body 231B being inserted into the first hole 212 in the carbon-ceramic brake disc 210, and the serrations 231C being penetrated into the internal surface of the second hole 222 in the hat part 220 when forced to be inserted into the second hole in the hat part and a bolt 232 being inserted into the threaded hole 231D in the head and body of the bushing 231. a carbon- ceramic brake disc 210 having a first axis hole 211 in the center thereof, and a plurality of first holes 212 around the first axis hole 211; a hat part 220 having a second axis hole 221 in the center thereof, and a plurality of second holey 222 around the second axis hole 221; and a connection unit connecting the carbon- ceramic brake disc and the hat part 220, characterised by: bushings 231, each of which includes a head 231A, a body 231B connecting to the head 231A, and serrations 231C protruding the outer surface of the body 231B along the length of the body, with a threaded hole 231D pierced through the head and body, lengthwise, the body 231B being inserted into the first hole 212 in the carbon-ceramic brake disc 210, and the serrations 231C being penetrated into the internal surface of the second hole 222 in the hat part 220 when forced to be inserted into the second hole in the hat part and a bolt 232 being inserted into the threaded hole 231D in the head and body of the bushing 231. bushings 231, each of which includes a head 231A, a body 231B connecting to the head 231A, and serrations 231C protruding the outer surface of the body 231B along the length of the body, with a threaded hole 231D pierced through the head and body, lengthwise, the body 231B being inserted into the first hole 212 in the carbon-ceramic brake disc 210, and the serrations 231C being penetrated into the internal surface of the second hole 222 in the hat part 220 when forced to be inserted into the second hole in the hat part and a bolt 232 being inserted into the threaded hole 231D in the head and body of the bushing 231.
A spectrum sharing method, wherein the method is implemented by a base station of a first network and comprises: • determining (101, 301) a first frequency band, a second frequency band, and a third frequency band, wherein the first frequency band and the second frequency band are used for a communication of a second network; and • performing (102, 302) communication by using the second frequency band and the third frequency band, wherein the second frequency band and the third frequency band form a carrier of the first network, wherein the method further comprises: • dividing the second frequency band into a first carrier group and a second carrier group, wherein the first carrier group comprises at least one carrier of the second network, and the second carrier group comprises at least one carrier of the second network; the method characterized in that it further comprises: • dividing the third frequency band into a first frequency sub-band and a second frequency sub-band, wherein the first frequency sub-band is adjacent to the first carrier group, the second carrier group is adjacent to the first carrier group, and the second frequency sub-band is adjacent to the second carrier group, • wherein the first frequency sub-band of the third frequency band is reserved for a Physical Uplink Control Channel, PUCCH, of the first network, the first carrier group of the second frequency band is used in a case a base station of the second network uses the second frequency band and the second carrier group of the second frequency band is only used in a case in which the frequency resources of the first carrier group are insufficient. • determining (101, 301) a first frequency band, a second frequency band, and a third frequency band, wherein the first frequency band and the second frequency band are used for a communication of a second network; and • performing (102, 302) communication by using the second frequency band and the third frequency band, wherein the second frequency band and the third frequency band form a carrier of the first network, • dividing the second frequency band into a first carrier group and a second carrier group, wherein the first carrier group comprises at least one carrier of the second network, and the second carrier group comprises at least one carrier of the second network; • dividing the third frequency band into a first frequency sub-band and a second frequency sub-band, wherein the first frequency sub-band is adjacent to the first carrier group, the second carrier group is adjacent to the first carrier group, and the second frequency sub-band is adjacent to the second carrier group, • wherein the first frequency sub-band of the third frequency band is reserved for a Physical Uplink Control Channel, PUCCH, of the first network, the first carrier group of the second frequency band is used in a case a base station of the second network uses the second frequency band and the second carrier group of the second frequency band is only used in a case in which the frequency resources of the first carrier group are insufficient.