mhurhangee/patent-ind-claim-en huggingface dataset:
A grill comprising: a selector ; a cooking element having a cooking surface with holes therein to allow matter to pass there through during cooking; a controller (1-11) coupled to said selector such that an input received from said selector is indicative of a selected temperature for the cooking element ; said grill being characterized in that it further comprises: an electric heat source coupled to said controller wherein said controller is configured to adjust heat output from said heat source ; a temperature sensor installed below the cooking element and directly in contact with the cooking element , said temperature sensor including a housing which contacts the underside of the cooking element and wherein said cooking element is removable with respect to the temperature sensor and said electric heat source ; said controller (1-11) receiving a temperature reading from said temperature sensor and adjusting the heat output of said heat source to maintain said cooking element at approximately the selected temperature ; said cooking element including a receiving channel sized to receive said temperature sensor therein, and wherein a part of the cooking element aligning with the channel is configured without holes; said electric heat source being positioned between two walls extending from the cooking element , with a second part of the cooking element between the two walls configured without holes therein, such that matter passing through the plurality of holes does not contact the electric heat source. a selector ; a cooking element having a cooking surface with holes therein to allow matter to pass there through during cooking; a controller (1-11) coupled to said selector such that an input received from said selector is indicative of a selected temperature for the cooking element ; an electric heat source coupled to said controller wherein said controller is configured to adjust heat output from said heat source ; a temperature sensor installed below the cooking element and directly in contact with the cooking element , said temperature sensor including a housing which contacts the underside of the cooking element and wherein said cooking element is removable with respect to the temperature sensor and said electric heat source ; said controller (1-11) receiving a temperature reading from said temperature sensor and adjusting the heat output of said heat source to maintain said cooking element at approximately the selected temperature ; said cooking element including a receiving channel sized to receive said temperature sensor therein, and wherein a part of the cooking element aligning with the channel is configured without holes; said electric heat source being positioned between two walls extending from the cooking element , with a second part of the cooking element between the two walls configured without holes therein, such that matter passing through the plurality of holes does not contact the electric heat source.
A flame-blocking nonwoven fabric having a density of 200 kg/m 3 or more and comprising non-melting fibers A whose high-temperature shrinkage rate, which is measured by the method described herein, is 3% or less and whose Young' s modulus multiplied by the cross-sectional area of the fibers is 2.0 N or less, and thermoplastic fibers B whose LOI value is 25 or more as determined according to JIS K 7201-2 , wherein the non-melting fibers A are flame-resistant fibers produced by applying flame-resistant treatment to raw fibers selected from acrylonitrile fibers, pitch fibers, cellulose fibers and phenol fibers or meta-aramid fibers, the thermoplastic fibers B are fibers made from a resin selected from the group consisting of an anisotropic melt-phase forming polyester, a flame-retardant poly(alkylene terephthalate), a flame-retardant poly(acrylonitrile-butadiene-styrene), a flame-retardant polysulfone, a poly(ether-ether-ketone), a poly (ether-ketone-ketone), a polyether sulfone, a polyarylate, a polyphenyl sulfone, a polyether imide, a polyamide-imide, a polyphenylene sulfide and a mixture thereof, and the amount of the non-melting fibers A contained in the fabric is from 15 to 70% by weight.
Polyurethane composition for coating flexible supports, comprising: a) a prepolymer A having an average molecular weight between 5000 and 12000 containing blocked isocyanate groups, said prepolymer A being obtained by a reaction of a diisocyanate with a polyhydroxy compound containing from two to four reactive hydroxyl groups and having an average molecular weight between 1000 and 6000; b) a prepolymer B containing blocked isocyanate groups, said prepolymer B being obtained by reaction of an aliphatic diisocyanate with a polysiloxane compound; wherein said prepolymer A and/or said prepolymer B comprise isocyanate groups blocked with a dimethylpyrazole. a) a prepolymer A having an average molecular weight between 5000 and 12000 containing blocked isocyanate groups, said prepolymer A being obtained by a reaction of a diisocyanate with a polyhydroxy compound containing from two to four reactive hydroxyl groups and having an average molecular weight between 1000 and 6000; b) a prepolymer B containing blocked isocyanate groups, said prepolymer B being obtained by reaction of an aliphatic diisocyanate with a polysiloxane compound;
An infusion set cannula comprising: a resiliently deformable hub portion configured to be engaged with a base of an infusion set , a stem portion extending from the hub portion, wherein the hub portion and the stem portion are integrally formed, and characterised in that the hub portion defines a sealing area and a contour , wherein the contour allows the sealing area to flex and conform to a sealing surface of a connector of the infusion set. a resiliently deformable hub portion configured to be engaged with a base of an infusion set , a stem portion extending from the hub portion, wherein the hub portion and the stem portion are integrally formed, and characterised in that the hub portion defines a sealing area and a contour , wherein the contour allows the sealing area to flex and conform to a sealing surface of a connector of the infusion set.
A beauty mask for the skin around the eyes of a user, configured to be fitted to the skin around the eyes of the user, comprising: a right eye hole and a left eye hole each corresponding to one of the eyes; a nose pad section that is formed in a center section of the lower side of the beauty mask and configured to abut on the nose root section of the user; a stimulator storage section (14; 15) that is formed on at least one of a right side of the right eye hole and a left side of the left eye hole ; and wherein the beauty mask for the skin around the eyes is made of elastic material so as to conform to the shape of the user's face, and includes left and right fitting members (16; 17) extending in a leftward and rightward direction respectively, the left and right fitting members being configured to be wound around the occiput of the user and to be fastend; and a stimulator having a first electrode section stored in the stimulator storage section (14; 15) and configured to exert an electrical stimulation on the user's temporal muscles, and a second electrode section configured to stimulate the user's orbicularis oculi muscles over or under the right and left eye holes (11; 12), wherein the stimulator is detachably fitted into the stimulator storage section (14; 15); characterized in, that the second electrode section is provided in the stimulator and the stimulator storage section (14; 15) includes an extension region in which the second electrode section is stored. a right eye hole and a left eye hole each corresponding to one of the eyes; a nose pad section that is formed in a center section of the lower side of the beauty mask and configured to abut on the nose root section of the user; a stimulator storage section (14; 15) that is formed on at least one of a right side of the right eye hole and a left side of the left eye hole ; and wherein the beauty mask for the skin around the eyes is made of elastic material so as to conform to the shape of the user's face, and includes left and right fitting members (16; 17) extending in a leftward and rightward direction respectively, the left and right fitting members being configured to be wound around the occiput of the user and to be fastend; and a stimulator having a first electrode section stored in the stimulator storage section (14; 15) and configured to exert an electrical stimulation on the user's temporal muscles, and a second electrode section configured to stimulate the user's orbicularis oculi muscles over or under the right and left eye holes (11; 12), wherein the stimulator is detachably fitted into the stimulator storage section (14; 15); characterized in, that the second electrode section is provided in the stimulator and the stimulator storage section (14; 15) includes an extension region in which the second electrode section is stored.
A hiding fan, comprising a turntable , a plurality of fan blades , and a synchronization mechanism , wherein the synchronization mechanism comprises a rotation ring and a plurality of connection rods , a total number of the connection rods is equal to a total number of the fan blades , the rotation ring is mounted on the turntable , the rotation ring is configured to rotate relative to the turntable around a central axis of the turntable , the hiding fan is characterised in that each of the fan blades has an installation end and a free end, the installation end has an installation portion and a connection portion that are spaced apart from each other, the installation portion is mounted on the turntable through a first rotation connection portion , a first end of the each of the connection rods is mounted on the turntable on the rotation ring through a second rotation connection portion , a second end of the each of the connection rods is mounted on the connection portion through a third rotation connection portion , the each of the fan blades is configured to rotate around a central axis of the first rotation connection portion , and the each of the fan blades is configured to switch between a storage position and a unfolded position by rotating.
Aircraft seat device with at least one load-bearing constructional unit (10a-d) which is, in at least one outer subregion of the constructional unit (10a-d), implemented of a synthetic material that is reinforced with reinforcing fibres characterised in that within the bounds of manufacturing possibilities and/or within the bounds of standardised tolerances, the reinforcing fibres are distributed homogeneously over the entire outer subregion , the constructional unit (10a-d) comprising at least one structural unit (16a-d) which at least substantially defines a shape of the constructional unit (10a-d) and comprises the outer subregion , the constructional unit comprising at least one functional unit , which is at least partially embedded in the structural unit , and the functional unit comprising at least one support element that is configured for a support of the structural unit . the constructional unit (10a-d) comprising at least one structural unit (16a-d) which at least substantially defines a shape of the constructional unit (10a-d) and comprises the outer subregion , the constructional unit comprising at least one functional unit , which is at least partially embedded in the structural unit , and the functional unit comprising at least one support element that is configured for a support of the structural unit .
A handover method performed by a target base station for supporting terminal mobility, the handover is performed as an X2 interface handover between base stations, the method comprising: receiving , from a source base station, a handover request message including information of a local-gateway, L-GW, for the source base station; determining , based on the handover request message, whether the target base station is available to access the L-GW for the source base station; if it is determined that the target base station is not available to access the L-GW for the source base station, transmitting , to the source base station, a response message for indicating a failure of the handover; and if it is determined that the target base station is available to access the L-GW for the source base station, transmitting , to a mobile management entity, MME, a path switch request message. receiving , from a source base station, a handover request message including information of a local-gateway, L-GW, for the source base station; determining , based on the handover request message, whether the target base station is available to access the L-GW for the source base station; if it is determined that the target base station is not available to access the L-GW for the source base station, transmitting , to the source base station, a response message for indicating a failure of the handover; and if it is determined that the target base station is available to access the L-GW for the source base station, transmitting , to a mobile management entity, MME, a path switch request message.
A first wall structure for a plasma chamber, the first wall structure comprising: an inner wall formed from a refractory metal or an alloy or composite thereof and having a plurality of pores; a solid deposit in thermal contact with the inner wall, such that the plurality of pores provide a passage from an exterior of the first wall structure to the deposit, wherein the deposit consists of a material having a boiling point less than a melting point of the refractory metal; wherein the first wall structure is configured such that at a normal operating temperature of the first wall structure, the deposit is solid; characterized in that the solid deposit comprises lithium and/or tin. an inner wall formed from a refractory metal or an alloy or composite thereof and having a plurality of pores; a solid deposit in thermal contact with the inner wall, such that the plurality of pores provide a passage from an exterior of the first wall structure to the deposit, wherein the deposit consists of a material having a boiling point less than a melting point of the refractory metal; wherein the first wall structure is configured such that at a normal operating temperature of the first wall structure, the deposit is solid; characterized in that the solid deposit comprises lithium and/or tin.
A gas insulated switchgear , comprising: a main body portion in which a switching apparatus is housed; and a mid tank comprising a container , the mid tank being provided in the rear of the main body portion and comprising conductor portions extended out from the main body portion into the container having sealed therein an insulating gas, the mid tank further comprising bushings to which end portions of the conductor portions are connected, the gas insulated switchgear further comprising a connection target component portion which is a bushing tank to which external electrical power can be supplied, and the bushing tank is disposed above the mid tank , wherein cables extended out from the connection target component portion are connected to the respective bushings , and the bushings and the cables are connected together in a support panel which supports the bushing tank above the mid tank and which is an open space, and wherein the bushings are disposed on the top side of the mid tank , and the cables extend linearly upward from the bushings . a main body portion in which a switching apparatus is housed; and a mid tank comprising a container , the mid tank being provided in the rear of the main body portion and comprising conductor portions extended out from the main body portion into the container having sealed therein an insulating gas, the mid tank further comprising bushings to which end portions of the conductor portions are connected, the gas insulated switchgear further comprising a connection target component portion which is a bushing tank to which external electrical power can be supplied, and the bushing tank is disposed above the mid tank , wherein cables extended out from the connection target component portion are connected to the respective bushings , and the bushings and the cables are connected together in a support panel which supports the bushing tank above the mid tank and which is an open space, and wherein the bushings are disposed on the top side of the mid tank , and the cables extend linearly upward from the bushings .
A coating composition for producing a coating, the coating composition comprising a mixture of: • a thermosetting resin system, • graphene nanoplatelets, and • a natural or synthetic oil, wherein the graphene nanoplatelets and the natural or synthetic oil are dispersed in the thermosetting resin system; wherein the thermosetting resin system comprises an allyl resin, an amino resin, a polyester resin, a bis-maleimide resin, a cyanate ester resin, an epoxy resin, a furan resin, a phenolic resin, a polyurea resin, a polyurethane resin, a silicone resin, or a vinyl ester resin; and wherein the synthetic oil is a polyalphaolefin oil, a diester oil, a polyolester oil, a phosphate ester oil, a polyalkylene glycol oil, or a silicone oil; or the natural oil is Albizia benth oil, anchovy oil, argemone oil, avocado oil, canola oil, Capparis zeylanica oil, Cardamine impatiens oil, castor oil, coconut oil, Coriaria oil, corn oil, cottonseed oil, crambe oil, fish oil, grape seed oil, hemp oil, laurel oil, lesquerollic acid, linseed oil, lumbang oil, meadowfoam seed oil, Mesua ferrea oil, mineral oil, mustard oil, neem oil, olive oil, palm oil, peanut oil, pongamia oil, radish oil, rapeseed oil, Ricinus communis oil, rubber seed oil, safflower oil, Santalum album oil, Sebastiana commersoniana oil, sesame oil, Strophantus oil, soybean oil, sugar apple (Annona squamosa) oil, sunflower oil, tigernut oil, or tung oil. • a thermosetting resin system, • graphene nanoplatelets, and • a natural or synthetic oil, wherein the graphene nanoplatelets and the natural or synthetic oil are dispersed in the thermosetting resin system; wherein the thermosetting resin system comprises an allyl resin, an amino resin, a polyester resin, a bis-maleimide resin, a cyanate ester resin, an epoxy resin, a furan resin, a phenolic resin, a polyurea resin, a polyurethane resin, a silicone resin, or a vinyl ester resin; and wherein the synthetic oil is a polyalphaolefin oil, a diester oil, a polyolester oil, a phosphate ester oil, a polyalkylene glycol oil, or a silicone oil; or the natural oil is Albizia benth oil, anchovy oil, argemone oil, avocado oil, canola oil, Capparis zeylanica oil, Cardamine impatiens oil, castor oil, coconut oil, Coriaria oil, corn oil, cottonseed oil, crambe oil, fish oil, grape seed oil, hemp oil, laurel oil, lesquerollic acid, linseed oil, lumbang oil, meadowfoam seed oil, Mesua ferrea oil, mineral oil, mustard oil, neem oil, olive oil, palm oil, peanut oil, pongamia oil, radish oil, rapeseed oil, Ricinus communis oil, rubber seed oil, safflower oil, Santalum album oil, Sebastiana commersoniana oil, sesame oil, Strophantus oil, soybean oil, sugar apple (Annona squamosa) oil, sunflower oil, tigernut oil, or tung oil.
An energy conversion device for converting water energy into electric energy, comprising: at least one rotor having a rotor rotational axis (D), the alignment of which is fixed, a flow housing which comprises a rotor mantle which surrounds the rotor radially to the rotor rotational axis (D), wherein the flow housing comprises a catching apparatus upstream of the rotor mantle , which is adapted and arranged to guide a movement of water to the rotor , wherein at least one cross-sectional tapering is arranged at the end of the catching apparatus facing the rotor mantle , wherein the catching apparatus comprises at least one manifold , wherein the manifold is located upstream of the cross-sectional tapering with respect to the direction of movement of the water, further comprising a supporting frame , wherein the alignment of the rotor rotational axis (D) is fixed by the supporting frame , further comprising a mounting to which a supporting frame , to which the rotor is fixed, is movably held transversely and/or parallel to the direction of the rotor rotational axis (D) in order to adjust the alignment of the rotor axis of rotation to a prevailing water level. at least one rotor having a rotor rotational axis (D), the alignment of which is fixed, a flow housing which comprises a rotor mantle which surrounds the rotor radially to the rotor rotational axis (D), wherein the flow housing comprises a catching apparatus upstream of the rotor mantle , which is adapted and arranged to guide a movement of water to the rotor , wherein at least one cross-sectional tapering is arranged at the end of the catching apparatus facing the rotor mantle , wherein the catching apparatus comprises at least one manifold , wherein the manifold is located upstream of the cross-sectional tapering with respect to the direction of movement of the water, further comprising a supporting frame , wherein the alignment of the rotor rotational axis (D) is fixed by the supporting frame , further comprising a mounting to which a supporting frame , to which the rotor is fixed, is movably held transversely and/or parallel to the direction of the rotor rotational axis (D) in order to adjust the alignment of the rotor axis of rotation to a prevailing water level.
A sintered body from a powder containing at least Co and/or Fe and B, and containing B in an amount of 10 to 50 at%, wherein an oxygen content is 100 wtppm or less and a total content of Al and Si is 100 wtppm or less.
A refrigerator comprising: a refrigerator body which includes a freezing compartment and a refrigerating compartment ; a refrigerating compartment door unit which opens or closes a front side of the refrigerating compartment ; an ice making compartment which is arranged inside the refrigerating compartment door unit , to make ice; a heat exchanger which generates cold air for freezing food stored in the freezing compartment ; and a cold air guiding device which guides the cold air generated by the heat exchanger to the ice making compartment , to enable the ice making compartment to make ice, wherein the cold air guiding device includes a duct unit including at least one duct which is arranged in a side wall of the refrigerating compartment , and communicates with the ice making compartment , and wherein the duct is arranged between an outer wall and an inner wall which form the side wall of the refrigerating compartment and spaced apart from the outer wall and the inner wall, wherein the ice making compartment includes a door duct which connects an interior of the ice making compartment to the duct unit . a refrigerator body which includes a freezing compartment and a refrigerating compartment ; a refrigerating compartment door unit which opens or closes a front side of the refrigerating compartment ; an ice making compartment which is arranged inside the refrigerating compartment door unit , to make ice; a heat exchanger which generates cold air for freezing food stored in the freezing compartment ; and a cold air guiding device which guides the cold air generated by the heat exchanger to the ice making compartment , to enable the ice making compartment to make ice, wherein the cold air guiding device includes a duct unit including at least one duct which is arranged in a side wall of the refrigerating compartment , and communicates with the ice making compartment , and wherein the duct is arranged between an outer wall and an inner wall which form the side wall of the refrigerating compartment and spaced apart from the outer wall and the inner wall, wherein the ice making compartment includes a door duct which connects an interior of the ice making compartment to the duct unit .