mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode for a lithium secondary battery, the negative electrode comprising: a plurality of lithium thin films; and a salt coating layer formed between the plurality of lithium thin films, wherein the salt coating layer comprises a lithium salt and an additive, wherein the lithium salt comprises one or more selected from the group consisting of LiN(C 2 F 5 SO 2 ) 2 (Lithium bis(perfluoroethylsulfonyl)imide, LiBETI), LiN (C 2 F 5 SO 3 ) 2 , LiN(FSO 2 ) 2 (Lithium bis(fluorosulfonyl)imide, LiFSI), LiN(CF 3 SO 2 ) 2 (Lithium bis(trifluoromethanesulfonyl)imide, LiTFSI), LiPF 6 , LiClO 4 , LiAsF 6 , LiBF 4 , LiSbF 6 , LiAlO 4 , LiAlCl 4 , LiCF 3 SO 3 , and LiC 4 F 9 SO 3 , wherein the additive comprises one or more selected from the group consisting of an inorganic nitric acid compound and an organic nitric acid compound, wherein the inorganic nitric acid compound includes one or more selected from the group consisting of lithium nitrate (LiNO 3 ) and lithium nitrite (LiNO 2 ), and wherein the organic nitric acid compound includes one or more selected from the group consisting of nitromethane (CH 3 NO 2 ) and methyl nitrate (CH 3 NO 3 ). a plurality of lithium thin films; and a salt coating layer formed between the plurality of lithium thin films, wherein the salt coating layer comprises a lithium salt and an additive, wherein the lithium salt comprises one or more selected from the group consisting of LiN(C 2 F 5 SO 2 ) 2 (Lithium bis(perfluoroethylsulfonyl)imide, LiBETI), LiN (C 2 F 5 SO 3 ) 2 , LiN(FSO 2 ) 2 (Lithium bis(fluorosulfonyl)imide, LiFSI), LiN(CF 3 SO 2 ) 2 (Lithium bis(trifluoromethanesulfonyl)imide, LiTFSI), LiPF 6 , LiClO 4 , LiAsF 6 , LiBF 4 , LiSbF 6 , LiAlO 4 , LiAlCl 4 , LiCF 3 SO 3 , and LiC 4 F 9 SO 3 , wherein the additive comprises one or more selected from the group consisting of an inorganic nitric acid compound and an organic nitric acid compound, wherein the inorganic nitric acid compound includes one or more selected from the group consisting of lithium nitrate (LiNO 3 ) and lithium nitrite (LiNO 2 ), and wherein the organic nitric acid compound includes one or more selected from the group consisting of nitromethane (CH 3 NO 2 ) and methyl nitrate (CH 3 NO 3 ).
Method for joining materials, comprising: - a) providing a first material (W1) and a second material (W2), characterized by the following steps: - b) providing the first material (W1) at a joint (VS) with a lattice structure (GS), wherein the first material (W1) is a metallic material, in particular a nickel-based or cobalt-based super alloy, wherein the second material (W2) is a ceramic material, in particular a ceramic fibre-reinforced material, and wherein the lattice structure (GS) is manufactured by an additive manufacturing method, specifically selective laser melting or electron-beam melting, wherein the lattice structure (GS) is manufactured from the same material as the first material (W1); and - c) connecting, in particular soldering, the second material (W2) to the lattice structure (GS) such that a material composite from the first material (W1) and the second material (W2) is created, wherein the lattice structure (GS) is configured in such a manner that stresses in the material composite are at least partially compensated for by the lattice structure (GS), wherein the material composite does not have any buffer layer or adhesion-promoting layer for compensating mechanical stresses. - a) providing a first material (W1) and a second material (W2), - b) providing the first material (W1) at a joint (VS) with a lattice structure (GS), wherein the first material (W1) is a metallic material, in particular a nickel-based or cobalt-based super alloy, wherein the second material (W2) is a ceramic material, in particular a ceramic fibre-reinforced material, and wherein the lattice structure (GS) is manufactured by an additive manufacturing method, specifically selective laser melting or electron-beam melting, wherein the lattice structure (GS) is manufactured from the same material as the first material (W1); and - c) connecting, in particular soldering, the second material (W2) to the lattice structure (GS) such that a material composite from the first material (W1) and the second material (W2) is created, wherein the lattice structure (GS) is configured in such a manner that stresses in the material composite are at least partially compensated for by the lattice structure (GS), wherein the material composite does not have any buffer layer or adhesion-promoting layer for compensating mechanical stresses.
A tool bit , comprising: a shaft having a shank at a first end and a working region disposed at a second end, said shaft having a shaft section between said shank and said working region, said shaft section having a reduced diameter region disposed between two shoulders , the reduced diameter region providing a torsion zone that allows the shaft section to twist to absorb forces while the tool bit is being used to drive a fastener; and a ring magnet assembly movably disposed at said second end of said shaft to magnetize a fastener to retain the fastener to the working region of the tool bit, wherein said ring magnet assembly comprises a sliding sleeve retained on the reduced diameter region, the sliding sleeve being moveable in a forward and rearward axial direction while retained on the reduced diameter region; the tool bit characterised in that the sliding sleeve is retained on said reduced diameter portion by one or more balls that is received in a hole in said sliding sleeve and between the two shoulders on opposite sides of said reduced diameter region. a shaft having a shank at a first end and a working region disposed at a second end, said shaft having a shaft section between said shank and said working region, said shaft section having a reduced diameter region disposed between two shoulders , the reduced diameter region providing a torsion zone that allows the shaft section to twist to absorb forces while the tool bit is being used to drive a fastener; and a ring magnet assembly movably disposed at said second end of said shaft to magnetize a fastener to retain the fastener to the working region of the tool bit, wherein said ring magnet assembly comprises a sliding sleeve retained on the reduced diameter region, the sliding sleeve being moveable in a forward and rearward axial direction while retained on the reduced diameter region; the tool bit characterised in that the sliding sleeve is retained on said reduced diameter portion by one or more balls that is received in a hole in said sliding sleeve and between the two shoulders on opposite sides of said reduced diameter region.
Dishwasher, in particular a domestic dishwasher, comprising a washing container which provides a washing compartment for receiving washware, a collecting vessel into which the washing compartment opens, a circulating pump and a discharge pump which are each fluidically connected to the collecting vessel , the circulating pump being connected to the collecting vessel with the fluidic interposition of a pipe connection piece which provides a suction mouth, and comprising a fresh water inlet formed on the suction mouth side of the circulating pump , characterised in that the pipe connection piece has the fresh water inlet and a bypass line opening into the collecting vessel is provided for the pipe connection piece , or in that the fresh water inlet opens into a chamber which is provided by the collecting vessel and formed on the fresh water inlet side of the pipe connection piece . the pipe connection piece has the fresh water inlet and a bypass line opening into the collecting vessel is provided for the pipe connection piece , or in that the fresh water inlet opens into a chamber which is provided by the collecting vessel and formed on the fresh water inlet side of the pipe connection piece .
A method comprising: receiving, by a mobility management function, a message indicating a revocation of an authentication and/or authorization, AA, of an aerial service of a wireless device; and sending, by the mobility management function to the wireless device, after an expiration of a time period in which a session associated with the aerial service is available after the revocation, a release message indicating a release of the session. receiving, by a mobility management function, a message indicating a revocation of an authentication and/or authorization, AA, of an aerial service of a wireless device; and sending, by the mobility management function to the wireless device, after an expiration of a time period in which a session associated with the aerial service is available after the revocation, a release message indicating a release of the session.
Rotationally symmetrical boot having a first end ring and a second end ring with a smaller diameter, and three folds which, in the relaxed position, have in each case two flanks which run in opposite directions with respect to one another with the formation of a bend and extend approximately parallel to a rotational axis (X) of the boot , wherein, in the relaxed position of the boot , the second end ring is arranged at an axial distance (a) from the first end ring , characterised in that in the relaxed position, a flank adjoining the first end ring has a height of 6 to 8 mm and is dimensioned such that the adjoining bend terminates approximately with that end face of the first end ring which is averted from the second end ring and the distance (a) is defined as the measure between that free end face of the second end ring which forms an upper edge and the facing upper edge of the first end ring , wherein the distance (a) is at least 8 mm, wherein a bend facing the upper edge of the second end ring and a bend facing the lower edge of the first end ring are connected to each other by a flank which is longer than the flanks adjoining the end rings .
A tandem axle four wheeled weight training sled comprising: (a) a chassis having longitudinally spaced first and second ends and laterally spaced first and second sides , (b) a pair of wheels mounted on each of two axles , the wheels supporting the chassis upon a surface and rotatable for effecting reciprocating travel of the chassis along a longitudinal path, characterized in that the training sled further comprises: (c) two brakes , one in operable braking communication with each of the axles for applying resistance to rotation of the associated axle, (d) a first pair of laterally spaced push handles extending upward from proximate a first longitudinal end of the chassis, (e) a second pair of laterally spaced push handles extending upward from proximate a second longitudinal end of the chassis, and (f) a hand grip on each of the first and second pair of push handles. (a) a chassis having longitudinally spaced first and second ends and laterally spaced first and second sides , (b) a pair of wheels mounted on each of two axles , the wheels supporting the chassis upon a surface and rotatable for effecting reciprocating travel of the chassis along a longitudinal path, characterized in that the training sled further comprises: (c) two brakes , one in operable braking communication with each of the axles for applying resistance to rotation of the associated axle, (d) a first pair of laterally spaced push handles extending upward from proximate a first longitudinal end of the chassis, (e) a second pair of laterally spaced push handles extending upward from proximate a second longitudinal end of the chassis, and (f) a hand grip on each of the first and second pair of push handles.
An electronic device inspection apparatus for inspecting an electronic device disposed on or formed on an inspection object (W), the apparatus comprising: a stage on which the inspection object (W) is placed; and a contact terminal in electrical contact with the electronic device of the inspection object (W) placed on the stage , wherein the stage further comprises: a cooling mechanism on which the inspection object (W) is placed; and a light irradiation mechanism disposed to face the inspection object (W) across from the cooling mechanism , wherein the cooling mechanism is formed of light-transmitting material, and a coolant transmitting light flows in the cooling mechanism , wherein the light irradiation mechanism includes a plurality of LEDs oriented to face the inspection object (W), wherein irradiation and non-irradiation of the plurality of LEDs is partially controlled to irradiate light to a desired portion to be inspected in the inspection object (W) such that the desired portion to be inspected in the inspection object (W) is heated while the entirety of the inspection object (W) is cooled by the cooling mechanism , wherein the plurality of LEDs is divided into a plurality of LED groups (33a to 33f), and wherein the irradiation and the non-irradiation of each of the plurality of LEDs are controlled in the units of the LED groups (33a to 33f). a stage on which the inspection object (W) is placed; and a contact terminal in electrical contact with the electronic device of the inspection object (W) placed on the stage , wherein the stage further comprises: a cooling mechanism on which the inspection object (W) is placed; and a light irradiation mechanism disposed to face the inspection object (W) across from the cooling mechanism , a cooling mechanism on which the inspection object (W) is placed; and a light irradiation mechanism disposed to face the inspection object (W) across from the cooling mechanism , wherein the cooling mechanism is formed of light-transmitting material, and a coolant transmitting light flows in the cooling mechanism , wherein the light irradiation mechanism includes a plurality of LEDs oriented to face the inspection object (W), wherein irradiation and non-irradiation of the plurality of LEDs is partially controlled to irradiate light to a desired portion to be inspected in the inspection object (W) such that the desired portion to be inspected in the inspection object (W) is heated while the entirety of the inspection object (W) is cooled by the cooling mechanism , wherein the plurality of LEDs is divided into a plurality of LED groups (33a to 33f), and wherein the irradiation and the non-irradiation of each of the plurality of LEDs are controlled in the units of the LED groups (33a to 33f).
An apparatus for inserting a pipeline lining into a pipe and for final positioning of the pipeline lining inserted in a pipe , comprising a housing , especially a drum-shaped housing, wherein a winding apparatus is formed in the housing and an attachment element , especially an attachment ring, is formed on a first housing opening , characterised in that either a cover plate or an inverter add-on is fastened to an at least second housing opening , wherein, in a first state for inserting the pipeline lining , the inverter add-on and, in a second state for final positioning of the pipeline lining , the cover plate is fastened to the second housing opening . either a cover plate or an inverter add-on is fastened to an at least second housing opening , wherein, in a first state for inserting the pipeline lining , the inverter add-on and, in a second state for final positioning of the pipeline lining , the cover plate is fastened to the second housing opening .
A soluble zinc polyphosphate complex in a solvent, wherein the ingredients comprise: zinc chloride; and sodium hexametaphosphate; wherein the relative amounts of zinc chloride and sodium hexametaphosphate provide a phosphorus to zinc mole ratio of 15:1 to 25:1. zinc chloride; and sodium hexametaphosphate; wherein the relative amounts of zinc chloride and sodium hexametaphosphate provide a phosphorus to zinc mole ratio of 15:1 to 25:1.
A method for selectively separating a population of cancer stem cells from a plurality of cancer cells, comprising the steps of: a. subjecting said plurality of cancer cells to a cell culture substrate, wherein said cell culture substrate is in the form of a gel comprising a conjugate of a glycosaminoglycan and a substituted phenalkylamine; and b. allowing said cancer stem cells to interact with said cell culture substrate to thereby separate said cancer stem cells from said plurality of cancer cells, wherein said cancer stem cells contain a marker that interacts with said glycosaminoglycan, the method further comprising removing cancer cells that are not attached to said cell culture substrate. a. subjecting said plurality of cancer cells to a cell culture substrate, wherein said cell culture substrate is in the form of a gel comprising a conjugate of a glycosaminoglycan and a substituted phenalkylamine; and b. allowing said cancer stem cells to interact with said cell culture substrate to thereby separate said cancer stem cells from said plurality of cancer cells,
A method for managing waste associated with the processing of guayule shrubs for the extraction of rubber, the method comprising: utilizing harvested guayule shrubs including leaves, bark, woody material, and optionally roots from a harvest site; utilizing a local sub-station to remove at least one of the leaves and dirt from the harvested guayule shrubs thereby producing a semi-processed guayule material with a weight that is at least 10% lower than the weight of the harvested guayule shrubs, wherein the local sub-station is located within 1.6 km (1 mile) of the harvest site; wherein the local sub-station is further utilized to chop the semi-processed guayule material using at least one of a shredder, granulator, or hammer mill prior to transporting but subsequent to the leaf removal and/or dirt removal, and transporting the semi-processed guayule material to a remote rubber extraction plant capable of producing rubber, resin and waste bagasse from the semi-processed guayule material where the waste bagasse comprises at least 60% by weight of the semi-processed guayule material. utilizing harvested guayule shrubs including leaves, bark, woody material, and optionally roots from a harvest site; utilizing a local sub-station to remove at least one of the leaves and dirt from the harvested guayule shrubs thereby producing a semi-processed guayule material with a weight that is at least 10% lower than the weight of the harvested guayule shrubs, wherein the local sub-station is located within 1.6 km (1 mile) of the harvest site; wherein the local sub-station is further utilized to chop the semi-processed guayule material using at least one of a shredder, granulator, or hammer mill prior to transporting but subsequent to the leaf removal and/or dirt removal, and transporting the semi-processed guayule material to a remote rubber extraction plant capable of producing rubber, resin and waste bagasse from the semi-processed guayule material where the waste bagasse comprises at least 60% by weight of the semi-processed guayule material.
Method for preparing a catalyst coated membrane including the steps of: • coating a substrate with a first catalyst dispersion thereby obtaining a first catalyst dispersion coated substrate , • providing a second side of a membrane with a support film , • coating a first side of the membrane with a second catalyst dispersion , thereby obtaining a second catalyst dispersion coated first side of the membrane , • drying the first catalyst dispersion thereby obtaining a first catalyst coated substrate or drying the second catalyst dispersion coated first side of the membrane thereby obtaining a second catalyst coated first side of the membrane, • laminating the first catalyst coated substrate to the second catalyst dispersion coated first side of the membrane or laminating the first catalyst dispersion coated substrate to the second catalyst coated first side of the membrane so that the first catalyst and the second catalyst superimpose, thereby forming a laminate including a membrane comprising a first catalyst layer , • drying the laminate , • removing the support film from the second side of the membrane , • coating a third catalyst dispersion on the second side of the membrane , • drying the third catalyst dispersion , thereby obtaining a second catalyst layer on the membrane , and • removing the substrate from the first catalyst coated substrate . • coating a substrate with a first catalyst dispersion thereby obtaining a first catalyst dispersion coated substrate , • providing a second side of a membrane with a support film , • coating a first side of the membrane with a second catalyst dispersion , thereby obtaining a second catalyst dispersion coated first side of the membrane , • drying the first catalyst dispersion thereby obtaining a first catalyst coated substrate or drying the second catalyst dispersion coated first side of the membrane thereby obtaining a second catalyst coated first side of the membrane, • laminating the first catalyst coated substrate to the second catalyst dispersion coated first side of the membrane or laminating the first catalyst dispersion coated substrate to the second catalyst coated first side of the membrane so that the first catalyst and the second catalyst superimpose, thereby forming a laminate including a membrane comprising a first catalyst layer , • drying the laminate , • removing the support film from the second side of the membrane , • coating a third catalyst dispersion on the second side of the membrane , • drying the third catalyst dispersion , thereby obtaining a second catalyst layer on the membrane , and • removing the substrate from the first catalyst coated substrate .
Ladder assembly for a rescue vehicle, said ladder assembly comprising a plurality of segments carried one within the other in a telescopic manner, said ladder assembly comprising actuator means configured to allow retraction or extraction of ladder assembly between a minimum and a maximum length along said longitudinal axis (B), said ladder assembly comprises a hydraulic equipment , said hydraulic equipment comprising a plurality of rigid segments each associated to a respective segments of said ladder assembly , the first segment of said ladder assembly comprising a terminal portion and a main portion (5a"), said terminal portion being carried in a movable manner by said main portion (5a"), said first segment of said hydraulic equipment comprising a first portion and a second portion (10a") respectively carried by said terminal and main portions (5a', 5a"), said first portion being connected to said second portion (10a") via a flexible element , wherein said flexible element is configured to vary its length via a length compensator , wherein a first extremity of said flexible element is fixedly carried to one of said terminal portion and said main portion (5a") and a second extremity of said flexible element is movably carried to the other of said terminal portion and said main portion (5a"). characterized in that said second extremity is fixedly carried to a first element that is slidably carried by said other of said terminal portion and said main portion (5a"), wherein length compensator comprises elastic means operatively interposed between said first element and a portion fixed with respect to said other of said terminal portion and said main portion (5a"). wherein said flexible element is configured to vary its length via a length compensator , wherein a first extremity of said flexible element is fixedly carried to one of said terminal portion and said main portion (5a") and a second extremity of said flexible element is movably carried to the other of said terminal portion and said main portion (5a"). characterized in that said second extremity is fixedly carried to a first element that is slidably carried by said other of said terminal portion and said main portion (5a"), wherein length compensator comprises elastic means operatively interposed between said first element and a portion fixed with respect to said other of said terminal portion and said main portion (5a").