mhurhangee/ep-ind-claims huggingface dataset:
A method to be implemented at a device configured to be connected to a customer premises equipment of a first type network, said first type network comprising at least one network apparatus in communication with said customer premises equipment, said method comprising: - defining one or several routing rules to route packets of said device, based on capabilities information received from the customer premises equipment and said at least one network apparatus, - sending commands to enforce the defined routing rules either at the customer premises equipment or at the at least one network apparatus, said routing rules identifying either the customer premises equipment or said at least one network apparatus to forward packets between the first type network and a second type network. - defining one or several routing rules to route packets of said device, based on capabilities information received from the customer premises equipment and said at least one network apparatus, - sending commands to enforce the defined routing rules either at the customer premises equipment or at the at least one network apparatus,
Conductor terminal with a contact frame and with a clamping spring for clamping an electrical conductor, the contact frame having a busbar section, a partition wall and a wall opening, the clamping spring having a clamping limb arranged at least partially in the space between the busbar section and the partition wall and having a clamping edge aligned with the busbar section, a spring bend and an abutment leg, and the clamping edge and the busbar section form a clamping point for the electrical conductor, and an actuating section for opening and closing the clamping point is arranged on the clamping leg of the clamping spring, wherein the actuating section projects into the wall opening and, at least in the closed state of the clamping point, extends on a side facing away from the clamping point next to the partition wall, wherein the conductor terminal has an actuating element which is pivotably arranged above the conductor rail section and is in operative connection with the actuating section of the clamping spring by means of an actuating finger extending next to the partition wall to the actuating section and is designed to open or close the clamping point, the partition wall being between the conductor rail section and the wall opening, characterized in that the actuating finger projects into the wall opening.
Process for fortifying a food product containing fruit with calcium, comprising adding to the food product calcium chloride and calcium lactate, wherein 20 to 80 wt. % of total calcium added is supplied by calcium lactate and 20 to 80 wt. % of total calcium added is supplied by calcium chloride, and, wherein the fruit in the food product is a fruit containing anthocyanins.
A fire-retardant composite comprising: (a) a porous core material comprising a first thermoplastic polymer comprising polyethylene terephthalate, a fire-retardant polypropylene, a polycarbonate, a polyimide, a polyethersulfone, a polyurethane, or a poly(phenylene ether)/styrene blend, or a blend thereof; (b) a first reinforced laminate disposed on a first side of the porous core, the first reinforced laminate comprising at least one layer, the layer comprising, based on the total weight of the layer: (i) 50 wt.% to 80 wt.% fibers, (ii) 20 wt.% to 50 wt.% of a second thermoplastic polymer comprising polypropylene, polyethylene, a polycarbonate, a polycarbonate copolymer, a polyethylene terephthalate, a polyethersulfone, a poly(phenylene) ether, poly(p-phenyl)oxide, or a polyimide, or a blend thereof; and (iii) 0 wt.% to 30 wt.% of a first fire-retardant composition; (c) a first fire-retardant film disposed on the outer surface of the first reinforced laminate, wherein the first fire-retardant film comprises, based on the total weight of first fire-retardant film: (i) 59 wt. % to 95 wt. % of a third thermoplastic polymer compatible with the second thermoplastic polymer; (ii) 5 to 40 wt.%, of a second fire-retardant composition; and (iii) 0 to 1 wt.% additives. (a) a porous core material comprising a first thermoplastic polymer comprising polyethylene terephthalate, a fire-retardant polypropylene, a polycarbonate, a polyimide, a polyethersulfone, a polyurethane, or a poly(phenylene ether)/styrene blend, or a blend thereof; (b) a first reinforced laminate disposed on a first side of the porous core, the first reinforced laminate comprising at least one layer, the layer comprising, based on the total weight of the layer: (i) 50 wt.% to 80 wt.% fibers, (ii) 20 wt.% to 50 wt.% of a second thermoplastic polymer comprising polypropylene, polyethylene, a polycarbonate, a polycarbonate copolymer, a polyethylene terephthalate, a polyethersulfone, a poly(phenylene) ether, poly(p-phenyl)oxide, or a polyimide, or a blend thereof; and (iii) 0 wt.% to 30 wt.% of a first fire-retardant composition; (i) 50 wt.% to 80 wt.% fibers, (ii) 20 wt.% to 50 wt.% of a second thermoplastic polymer comprising polypropylene, polyethylene, a polycarbonate, a polycarbonate copolymer, a polyethylene terephthalate, a polyethersulfone, a poly(phenylene) ether, poly(p-phenyl)oxide, or a polyimide, or a blend thereof; and (iii) 0 wt.% to 30 wt.% of a first fire-retardant composition; (c) a first fire-retardant film disposed on the outer surface of the first reinforced laminate, wherein the first fire-retardant film comprises, based on the total weight of first fire-retardant film: (i) 59 wt. % to 95 wt. % of a third thermoplastic polymer compatible with the second thermoplastic polymer; (ii) 5 to 40 wt.%, of a second fire-retardant composition; and (iii) 0 to 1 wt.% additives. (i) 59 wt. % to 95 wt. % of a third thermoplastic polymer compatible with the second thermoplastic polymer; (ii) 5 to 40 wt.%, of a second fire-retardant composition; and (iii) 0 to 1 wt.% additives.
A color conversion panel comprising: a plurality of partitioning walls disposed on a substrate; a plurality of reflective layers, each reflective layer being disposed on an outer surface of a partitioning wall; a plurality of overcoat layers, each overcoat layer being disposed on an outer surface of a reflective layer and having water repellency; a spacer overlapping a part of a partitioning wall and protruding from a part of a corresponding one of the plurality of overcoat layers; and a plurality of color conversion layers (300b, 300c), each color conversion layer (300b, 300c) being disposed in an area between two overcoat layers defined by two adjacent partitioning walls, wherein the spacer and the corresponding overcoat layer are formed as a same layer. a plurality of partitioning walls disposed on a substrate; a plurality of reflective layers, each reflective layer being disposed on an outer surface of a partitioning wall; a plurality of overcoat layers, each overcoat layer being disposed on an outer surface of a reflective layer and having water repellency; a spacer overlapping a part of a partitioning wall and protruding from a part of a corresponding one of the plurality of overcoat layers; and a plurality of color conversion layers (300b, 300c), each color conversion layer (300b, 300c) being disposed in an area between two overcoat layers defined by two adjacent partitioning walls, wherein the spacer and the corresponding overcoat layer are formed as a same layer.
An applicator system (1,1',1'';13,28,47;15,22) comprising at least one skin tag removing device (1, 1',1'') and an applicator (13,28,47;15,22) for application of the skin tag removing device (1,1',1'') on a skin tag, wherein - the skin tag removing device (1,1',1'') has an aperture delimited by occlusion members (6,7;6',7'), and opposite flexible pressure members (3,4;3',4') to apply pressure to the occlusion members (6,7;6',7') towards the aperture, - the applicator (13,28,47;15,22) comprises a housing (15;22) with a guideway that extends between an inlet and an outlet, - which guideway is provided for receiving at least a part of a reciprocating applicator rod (13;28;47), - which applicator rod (13;28;47) has a length that is longer than the length of the guideway, an applicator end provided with an applicator head (17,17') for engaging the skin tag removing device (1,1',1'') when the applicator head (17,17') is moved out of the outlet of the guideway and forced through the aperture of said skin tag removing device (1,1',1''), and an opposite operating end located outside the inlet of the guideway, and - the applicator head (17,17') has a space for accommodating a skin tag, characterized in that - the applicator head (17,17') of the applicator end is bifurcated, whereby said head is divided into two opposite branches, parts or legs, and the space is delimited between said at least two opposite branches, parts or legs. - the skin tag removing device (1,1',1'') has an aperture delimited by occlusion members (6,7;6',7'), and opposite flexible pressure members (3,4;3',4') to apply pressure to the occlusion members (6,7;6',7') towards the aperture, - the applicator (13,28,47;15,22) comprises a housing (15;22) with a guideway that extends between an inlet and an outlet, - which guideway is provided for receiving at least a part of a reciprocating applicator rod (13;28;47), - which applicator rod (13;28;47) has a length that is longer than the length of the guideway, an applicator end provided with an applicator head (17,17') for engaging the skin tag removing device (1,1',1'') when the applicator head (17,17') is moved out of the outlet of the guideway and forced through the aperture of said skin tag removing device (1,1',1''), and an opposite operating end located outside the inlet of the guideway, and - the applicator head (17,17') has a space for accommodating a skin tag, - the applicator head (17,17') of the applicator end is bifurcated, whereby said head is divided into two opposite branches, parts or legs, and the space is delimited between said at least two opposite branches, parts or legs.
A meta device (100, 100A, 100B) comprising: a plurality of electrodes that are respectively spaced apart from each other; an insulating layer (130, 160) covering the plurality of electrodes; a meta material comprising a plurality of meta structures (110, 210) that are respectively spaced apart from each other; and an active layer (140, 240) that is disposed between the insulating layer (130, 160) and the meta material and has a charge density which varies according to an electric signal applied thereto; wherein regions between adjacent ones of the plurality of electrodes are filled by the insulating layer (130, 160). a plurality of electrodes that are respectively spaced apart from each other; an insulating layer (130, 160) covering the plurality of electrodes; a meta material comprising a plurality of meta structures (110, 210) that are respectively spaced apart from each other; and an active layer (140, 240) that is disposed between the insulating layer (130, 160) and the meta material and has a charge density which varies according to an electric signal applied thereto; wherein regions between adjacent ones of the plurality of electrodes are filled by the insulating layer (130, 160).
A turbine rotor blade, comprising: an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges (128, 130), the outer walls (124, 126) defining a radially extending chamber for receiving a coolant flow; a platform extending laterally outward relative to the airfoil body and terminating at at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of the coolant flow; and at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform; characterized in that the at least one slash face (230, 230PS, 230SS) includes an extension member, and wherein the at least one cooling passage (172, 240) extends through the extension member. an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges (128, 130), the outer walls (124, 126) defining a radially extending chamber for receiving a coolant flow; a platform extending laterally outward relative to the airfoil body and terminating at at least one slash face (230, 230PS, 230SS); a cooling circuit defined within the platform and in fluid communication with a source of the coolant flow; and at least one cooling passage (172, 240) defined in the platform and in fluid communication with the cooling circuit, the at least one cooling passage (172, 240) extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face (230, 230PS, 230SS) of the platform; characterized in that the at least one slash face (230, 230PS, 230SS) includes an extension member, and wherein the at least one cooling passage (172, 240) extends through the extension member.
A vibration polishing device, comprising: - a vibration drive for generating an oscillating vibration for polishing samples; - a polishing disc which is connected to and can be driven by the vibration drive; and - a polishing bowl which is designed to receive a polishing medium and the samples to be polished and is coupled with the polishing disc for being entrained therewith, wherein the polishing bowl is releasably attached to the polishing disc and wherein the releasable attachment is accomplished by magnetic adhesion force; characterized by - form-fitting engagement portions which cause centering and/or horizontal or lateral form-fitting coupling of the polishing bowl to the polishing disc and can thus contribute to the entrainment of the polishing bowl in the oscillatory vibration movement of the polishing disc. - a vibration drive for generating an oscillating vibration for polishing samples; - a polishing disc which is connected to and can be driven by the vibration drive; and - a polishing bowl which is designed to receive a polishing medium and the samples to be polished and is coupled with the polishing disc for being entrained therewith, wherein the polishing bowl is releasably attached to the polishing disc and wherein the releasable attachment is accomplished by magnetic adhesion force; characterized by - form-fitting engagement portions which cause centering and/or horizontal or lateral form-fitting coupling of the polishing bowl to the polishing disc and can thus contribute to the entrainment of the polishing bowl in the oscillatory vibration movement of the polishing disc.
A disintegrating particle composition, which is prepared by dispersing inorganic excipient(s) and starch(es) in particles which are composed of xylitol solid-dispersed in mannitol wherein (a) the sum of mannitol and xylitol is 70 to 90 parts by weight; (b) the inorganic excipient(s) are in the amount of 2 to 15 parts by weight; (c) the starch(es) are in the amount of 5 to 25 parts by weight, and the total amount of the ingredients (a), (b) and (c) is 100 parts by weight. (a) the sum of mannitol and xylitol is 70 to 90 parts by weight; (b) the inorganic excipient(s) are in the amount of 2 to 15 parts by weight; (c) the starch(es) are in the amount of 5 to 25 parts by weight, and the total amount of the ingredients (a), (b) and (c) is 100 parts by weight.
A hybrid heating system comprising: a compressor configured to compress a refrigerant; a first heat exchanger configured to heat heating water through heat exchange with the refrigerant compressed through the compressor; a second heat exchanger configured to evaporate the refrigerant through heat exchange with exterior air; a first boiler heat exchanger configured to heat the heating water using combustion heat; a second boiler heat exchanger configured to allow for heat exchange between an exhaust gas discharged from the first boiler heat exchanger and the refrigerant flowing into the second heat exchanger; the hybrid heating system being characterised by further comprising: a defrosting valve configured to send the refrigerant discharged from the first heat exchanger to the second heat exchanger or to send the refrigerant to the second heat exchanger through the second boiler heat exchanger; and a controller configured to control the defrosting valve, wherein the controller is configured to adjust the defrosting valve such that the refrigerant discharged from the first heat exchanger flows to the second heat exchanger through the second boiler heat exchanger with regular intervals in a hybrid heating mode that heats the heating water through the first heat exchanger and the first boiler heat exchanger. a compressor configured to compress a refrigerant; a first heat exchanger configured to heat heating water through heat exchange with the refrigerant compressed through the compressor; a second heat exchanger configured to evaporate the refrigerant through heat exchange with exterior air; a first boiler heat exchanger configured to heat the heating water using combustion heat; a second boiler heat exchanger configured to allow for heat exchange between an exhaust gas discharged from the first boiler heat exchanger and the refrigerant flowing into the second heat exchanger; the hybrid heating system being characterised by further comprising: a defrosting valve configured to send the refrigerant discharged from the first heat exchanger to the second heat exchanger or to send the refrigerant to the second heat exchanger through the second boiler heat exchanger; and a controller configured to control the defrosting valve, wherein the controller is configured to adjust the defrosting valve such that the refrigerant discharged from the first heat exchanger flows to the second heat exchanger through the second boiler heat exchanger with regular intervals in a hybrid heating mode that heats the heating water through the first heat exchanger and the first boiler heat exchanger.
An oven comprising: a main body having a cooking compartment; and a door configured to open and close, and thereby open and close, respectively, the cooking compartment, the door including: a window configured to provide a view of an inside of the cooking compartment from an outside of the cooking compartment when the door is closed; a door frame (41a, 41b, 300) having an opening (41aa, 41bb, 301) forming the window and the door frame (41a, 41b, 300) including a front frame, a rear frame and a middle frame disposed between the front frame and the rear frame; a light emitting member fixed at the middle frame to emit light; an opening formed as a hole in the middle frame at the fixing position of the light emitting member to transmit light from the light emitting member therethrough; and a guide member disposed to pass through the opening in the middle frame to guide the emitted light from the light emitting member toward the inside of the cooking compartment. a main body having a cooking compartment; and a door configured to open and close, and thereby open and close, respectively, the cooking compartment, the door including: a window configured to provide a view of an inside of the cooking compartment from an outside of the cooking compartment when the door is closed; a door frame (41a, 41b, 300) having an opening (41aa, 41bb, 301) forming the window and the door frame (41a, 41b, 300) including a front frame, a rear frame and a middle frame disposed between the front frame and the rear frame; a light emitting member fixed at the middle frame to emit light; an opening formed as a hole in the middle frame at the fixing position of the light emitting member to transmit light from the light emitting member therethrough; and a guide member disposed to pass through the opening in the middle frame to guide the emitted light from the light emitting member toward the inside of the cooking compartment. a window configured to provide a view of an inside of the cooking compartment from an outside of the cooking compartment when the door is closed; a door frame (41a, 41b, 300) having an opening (41aa, 41bb, 301) forming the window and the door frame (41a, 41b, 300) including a front frame, a rear frame and a middle frame disposed between the front frame and the rear frame; a light emitting member fixed at the middle frame to emit light; an opening formed as a hole in the middle frame at the fixing position of the light emitting member to transmit light from the light emitting member therethrough; and a guide member disposed to pass through the opening in the middle frame to guide the emitted light from the light emitting member toward the inside of the cooking compartment.
A row unit for a seeding machine comprising: a first seed meter having a first metering member for moving seeds sequentially from a first seed pool; a second seed meter having a second metering member for moving seeds sequentially from a second seed pool; and a seed loader (36, 106, 136, 236) in communication with the first and second seed meters (22a, 22b), the seed loader (36, 106, 136, 236) configured to selectively receive seeds (S1, S2) from one or both of the first and second seed meters (22a, 22b) characterized in that the seed loader (36, 106, 136, 236) is configured to rotate about an axis of rotation. a first seed meter having a first metering member for moving seeds sequentially from a first seed pool; a second seed meter having a second metering member for moving seeds sequentially from a second seed pool; and a seed loader (36, 106, 136, 236) in communication with the first and second seed meters (22a, 22b), the seed loader (36, 106, 136, 236) configured to selectively receive seeds (S1, S2) from one or both of the first and second seed meters (22a, 22b) characterized in that the seed loader (36, 106, 136, 236) is configured to rotate about an axis of rotation.
Method for the detection of the presence of gas hydrates or of ice in a medium containing water and capable of forming solid crystals, characterized in that comprises at least the following stages: - at at least one measurement point in said medium, two characteristic values of the Raman spectra corresponding to two distinct vibrational modes of the OH bonds of water are measured, said two vibrational modes corresponding to a first wavenumber located at 3160 cm -1 ± 40 cm -1 and to a second wavenumber located at 3400 cm -1 ± 150 cm -1, and the ratio τ of said two characteristic values is determined; - the temperature T in said medium at said point of measurement of said spectra is determined; - the ratio τ is compared with a value τ 0 corresponding to a predetermined threshold for formation of said crystals for said temperature T; and - a presence of water in the solid form is determined from said comparison and a presence of ice or a presence of gas hydrates are distinguished between from a comparison between said measured temperature T and the temperature of the formation of the ice under the measurement conditions. - at at least one measurement point in said medium, two characteristic values of the Raman spectra corresponding to two distinct vibrational modes of the OH bonds of water are measured, said two vibrational modes corresponding to a first wavenumber located at 3160 cm -1 ± 40 cm -1 and to a second wavenumber located at 3400 cm -1 ± 150 cm -1, and the ratio τ of said two characteristic values is determined; - the temperature T in said medium at said point of measurement of said spectra is determined; - the ratio τ is compared with a value τ 0 corresponding to a predetermined threshold for formation of said crystals for said temperature T; and - a presence of water in the solid form is determined from said comparison and a presence of ice or a presence of gas hydrates are distinguished between from a comparison between said measured temperature T and the temperature of the formation of the ice under the measurement conditions.