mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a liquid ammonia nitrogen containing more than 8 mass % i.e. 80.000 g/ton ammonia nitrogen in high amount output stream from an initial ammonia nitrogen containing more than 50 g/ton ammonia nitrogen in low amount liquid or solid input stream , whereby with solid input stream is meant a liquid stream with solids suspended therein, with an energy consumption less than 40 MJ/kg, with an arrangement , said arrangement comprising: a stripping system ; and a scrubbing system , producing from a gaseous input flow , a gaseous output flow and said liquid output stream after addition of an acid to produce an ammonium salt, whereby said gaseous input flow originates from said stripping system ; and said gaseous output flow is re-used in said stripping system , said arrangement being characterized in that part of the heat (generated by the exogenous scrubbing reaction, and re-entered in the stripping system) of the output stream of said stripping system is recovered in that said heat is used to increase the temperature of said input stream before use in said stripping system wherein the initial liquid of said input stream or a second mixture of the initial liquid of said input stream and the recovered liquid from the output stream of said stripping system is mixed to a third mixture with part of or the entire re-used gaseous output flow of the scrubbing system , before it enters the stripping system and wherein said third mixture with part of the re-used gaseous output flow of the scrubbing system is made by a Venturi or Sonolator like system , preferably with an air to liquid ratio between 3/l and 20/l, more preferably 6/l and 8/l and optionally comprising one or more sonication_systems , applied to the initial liquid of said input stream or said second mixture, before it enters the stripping system to bring the ammonia molecule in an excited state and enhances the transfer from liquid to gas phase..
A dispenser for a flotation device for a water ride, comprising: a housing comprising an aperture ; a plurality of flotation devices positioned in the housing ; and a base positioned in the housing and supporting the plurality of flotation devices , wherein the base is configured to move relative to the housing to move the plurality of flotation devices jointly to position at least one flotation device adjacent to the aperture to permit removal of the at least one flotation device from the housing via the aperture , wherein the aperture is configured to be in a default closed condition, and the dispenser further comprises a mechanical controller configured to receive an input and open the aperture in response to the input. a housing comprising an aperture ; a plurality of flotation devices positioned in the housing ; and a base positioned in the housing and supporting the plurality of flotation devices , wherein the base is configured to move relative to the housing to move the plurality of flotation devices jointly to position at least one flotation device adjacent to the aperture to permit removal of the at least one flotation device from the housing via the aperture , wherein the aperture is configured to be in a default closed condition, and the dispenser further comprises a mechanical controller configured to receive an input and open the aperture in response to the input.
A coating composition, comprising a flexible hyperbranched polyol prepared by (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or its mono- or diesters with alcohols having 1 to 4 carbon atoms or its anhydrides to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the hyperbranched polyol. (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or its mono- or diesters with alcohols having 1 to 4 carbon atoms or its anhydrides to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the hyperbranched polyol.
A thermosetting resin composition for laser direct structuring (LDS), used for LDS, comprising a thermosetting resin; an inorganic filler; a non-conductive metal compound that forms a metal nucleus upon irradiation with active energy rays; and a coupling agent, wherein the non-conductive metal compound includes one or more selected from the group consisting of a spinel-type metal oxide, a metal oxide having two or more transition metal elements in groups adjacent to each other, the groups being selected from groups 3 to 12 of the periodic table, and a tin-containing oxide, and the coupling agent includes one or more selected from the group consisting of mercaptosilane, aminosilane, and epoxysilane, wherein the inorganic filler includes one or two or more inorganic fillers selected from the group consisting of silica, alumina, aluminum hydroxide, silicon nitride, and aluminum nitride, and wherein the thermosetting resin composition for LDS is in a powdery, granular, tablet, or sheet shape, and a content of the non-conductive metal compound is equal to or more than 3% by mass and equal to or less than 20% by mass with respect to the total amount of the thermosetting resin composition for LDS. a thermosetting resin; an inorganic filler; a non-conductive metal compound that forms a metal nucleus upon irradiation with active energy rays; and a coupling agent, wherein the non-conductive metal compound includes one or more selected from the group consisting of a spinel-type metal oxide, a metal oxide having two or more transition metal elements in groups adjacent to each other, the groups being selected from groups 3 to 12 of the periodic table, and a tin-containing oxide, and the coupling agent includes one or more selected from the group consisting of mercaptosilane, aminosilane, and epoxysilane, wherein the inorganic filler includes one or two or more inorganic fillers selected from the group consisting of silica, alumina, aluminum hydroxide, silicon nitride, and aluminum nitride, and wherein the thermosetting resin composition for LDS is in a powdery, granular, tablet, or sheet shape, and a content of the non-conductive metal compound is equal to or more than 3% by mass and equal to or less than 20% by mass with respect to the total amount of the thermosetting resin composition for LDS.
A bicycle saddle comprising a saddle shell , a saddle cushion connected with the top surface of the saddle shell , a saddle frame whose front end is connected with the saddle shell in the region of a saddle tip , a holding element connected with a rear end of the saddle frame , and a damper element arranged between the holding element and the saddle shell , wherein the damper element is in surface connection with a lower side of the saddle shell , characterized in that the damper element is made of a particle foam which preferably comprises an E-TPU, EPP, EPS and/or EPE as base material.
A lithium secondary battery comprising: a positive electrode layer composed of a lithium complex oxide sintered body; a negative electrode layer composed of a titanium-containing sintered body; a ceramic separator interposed between the positive electrode layer and the negative electrode layer; an electrolytic solution with which the positive electrode layer, the negative electrode layer, and the ceramic separator are impregnated; an exterior body comprising a closed space, the closed space accommodating the positive electrode layer, the negative electrode layer, the ceramic separator, and the electrolytic solution, wherein the positive electrode layer, the ceramic separator, and the negative electrode layer are bonded together, wherein the ceramic separator is composed of MgO and glass, wherein the glass has an average grain size of 0.5 to 25 μm, and wherein a ratio of the average grain size of the glass to the average grain size of the MgO is 1.5 to 85, wherein the average grain sizes of MgO and glass are determined by the measurement method described in the description. a positive electrode layer composed of a lithium complex oxide sintered body; a negative electrode layer composed of a titanium-containing sintered body; a ceramic separator interposed between the positive electrode layer and the negative electrode layer; an electrolytic solution with which the positive electrode layer, the negative electrode layer, and the ceramic separator are impregnated; an exterior body comprising a closed space, the closed space accommodating the positive electrode layer, the negative electrode layer, the ceramic separator, and the electrolytic solution, wherein the positive electrode layer, the ceramic separator, and the negative electrode layer are bonded together, wherein the ceramic separator is composed of MgO and glass, wherein the glass has an average grain size of 0.5 to 25 μm, and wherein a ratio of the average grain size of the glass to the average grain size of the MgO is 1.5 to 85, wherein the average grain sizes of MgO and glass are determined by the measurement method described in the description.
A printing assembly , wherein the printing assembly has at least one frame , which has at least two side walls and wherein the printing assembly has a crossmember which extends at least in a transverse direction (A) between the side walls and wherein the printing assembly has at least one supporting body which can be moved relative to the frame in at least one parking direction (C), said supporting body extending at least in the transverse direction (A) between the side walls and extending in the transverse direction (A) over at least 75% of a working width of the at least one printing assembly , wherein at least two printing heads are arranged on the at least one supporting body and can be moved jointly with the at least one supporting body and wherein at least one first contact point arranged on the supporting body and at least one second contact point arranged on the at least one crossmember form a first contact-point pair , the contact points of which lie opposite each other in the parking direction (C) and are in contact and/or can be brought into contact with each other and wherein the at least one first contact point pair has a respective distance from each side wall with respect to the transverse direction (A) which corresponds to at least 20% of the working width of the printing assembly and wherein at least one third contact point arranged on the supporting body and at least one fourth contact point arranged on the crossmember form a second contact-point pair , the contact points of which lie opposite each other at least at times at least also in a supporting direction orthogonal to the parking direction (C) and orthogonal to the transverse direction (A) and are in contact and/or can be brought into contact with each other.
A tissue paper product comprising: a first ply having a highly porous, open-celled foam formed structure comprising cellulosic fibers, a water insoluble binder and a foaming surfactant and wherein the cellulosic fiber comprises greater than 50% by weight of the first ply; said cellulosic fibers of said first ply are bonded to one another by hydrogen bonding; and wherein said first ply has a density less than 0.04 g/cc, Gelbo Lint Value less than 5 and a wet tensile strength of at least 10 g-f (98.1 m/s 2 ). a first ply having a highly porous, open-celled foam formed structure comprising cellulosic fibers, a water insoluble binder and a foaming surfactant and wherein the cellulosic fiber comprises greater than 50% by weight of the first ply; said cellulosic fibers of said first ply are bonded to one another by hydrogen bonding; and wherein said first ply has a density less than 0.04 g/cc, Gelbo Lint Value less than 5 and a wet tensile strength of at least 10 g-f (98.1 m/s 2 ).
A process for producing water-absorbent resin particles comprising the step of allowing a water-soluble ethylenically unsaturated monomer to undergo a reversed-phase suspension polymerization in the presence of a dispersion stabilizer, using a radical polymerization initiator in a hydrocarbon dispersion medium, wherein the dispersion stabilizer contains a tall oil fatty acid ester.
Method of synchronization of data packet transmission (P1, P2, P3) in a network (N), the method comprising and/or initiating the steps of: Receiving (S1), from a terminal device (T1, T2, T3) of the network (N), one or more data packets (P1, P2, P3) after a threshold time interval (tt) of a periodic transmission window (RT, BE), wherein the threshold time interval (tt) is arranged at the beginning of said periodic transmission window (RT, BE), and Forwarding (S2) the one or more data packets (P1, P2, P3) in a subsequent transmission window (RT, BE), within the threshold time interval (tt) of the subsequent transmission window (RT, BE). Receiving (S1), from a terminal device (T1, T2, T3) of the network (N), one or more data packets (P1, P2, P3) after a threshold time interval (tt) of a periodic transmission window (RT, BE), wherein the threshold time interval (tt) is arranged at the beginning of said periodic transmission window (RT, BE), and Forwarding (S2) the one or more data packets (P1, P2, P3) in a subsequent transmission window (RT, BE), within the threshold time interval (tt) of the subsequent transmission window (RT, BE).
A sizer tooth assembly for a mineral sizer, the tooth assembly including a horn protrusion extending from a rotatable support, the horn protrusion having a pair of opposed front and rear faces; and a shell structure encapsulating the horn protrusion and defining the outer shape of the sizer tooth; wherein the shell structure comprises exactly two cover formations (121, 123; 221, 223; 321, 323) which are non-releasably secured to one another but not to the horn protrusion, to define when so secured a unitary tooth assembly; and wherein each of the two cover formations seats upon and presents an inward engagement face to a respective one of the pair of opposed front and rear faces of the horn protrusion; characterised in that : each of the two cover formations (121, 123; 221, 223; 321, 323) is provided as a single integral construction fabricated as a monolithic one-piece casting; and each such engagement face of a cover formation and its corresponding face of the horn protrusion are provided with a complementary arrangement of projections and recesses configured such that when the two cover formations are non-releasably secured to one another the shell structure is releasably connected upon the horn protrusion.
A rechargeable lithium battery , comprising a negative electrode ; a positive electrode including a positive active material; and a non-aqueous electrolyte, wherein the non-aqueous electrolyte comprises a non-aqueous organic solvent, a lithium salt, a first additive including at least one of compounds represented by Chemical Formulae 1 to 4 and a second additive including at least one of compounds represented by Chemical Formula 5 and Chemical Formula 6, the positive active material comprises a compound including 70 mol% or greater of Ni, wherein, R 1 to R 9 are independently a primary, secondary, or tertiary alkyl group, alkenyl group, or aryl group, X is hydrogen or a halogen atom, n is an integer ranging from 0 to 3, and m1 and m2 are independently an integer ranging from 0 to 3, wherein, R g , R h , R i , and R j are independently a halogen; or a halogen-substituted or unsubstituted alkyl group or at least two of R g , R h , R i , and R j are linked to form an oxalate group, and R k and R p are independently a halogen; or a halogen-substituted or unsubstituted alkyl group or R k and R p are linked to form an oxalate group; wherein the amount of the first additive ranges from 0.1 wt% to 7 wt% based on the total weight of the electrolyte; and wherein the amount of the second additive ranges from 0.1 wt% to 10 wt% based on the total weight of the electrolyte. R 1 to R 9 are independently a primary, secondary, or tertiary alkyl group, alkenyl group, or aryl group, X is hydrogen or a halogen atom, n is an integer ranging from 0 to 3, and m1 and m2 are independently an integer ranging from 0 to 3, R g , R h , R i , and R j are independently a halogen; or a halogen-substituted or unsubstituted alkyl group or at least two of R g , R h , R i , and R j are linked to form an oxalate group, and R k and R p are independently a halogen; or a halogen-substituted or unsubstituted alkyl group or R k and R p are linked to form an oxalate group; wherein the amount of the first additive ranges from 0.1 wt% to 7 wt% based on the total weight of the electrolyte; and wherein the amount of the second additive ranges from 0.1 wt% to 10 wt% based on the total weight of the electrolyte.
Hydrogen generating arrangement for generating hydrogen, which is used to operate a fuel cell, from hydrocarbon fuel , wherein the arrangement comprises a fuel reformer which is suitable for reforming hydrocarbon fuel to a hydrogen rich gas comprising at least hydrogen, carbon monoxide, and possibly unconverted fuel compounds characterized in that the arrangement further comprises a molten salt reactor which is arranged in connection with the fuel reformer and is designed as a container comprising molten salt , wherein the container has an inlet for supplying the hydrogen rich gas produced by the fuel reformer to the molten salt contained in the molten salt reactor , whereby the molten salt contained in the molten salt reactor is suitable for reacting with the unconverted fuel compounds and carbon monoxide, and wherein the molten salt reactor container has an outlet for removing hydrogen rich gas from the molten salt reactor , wherein the hydrogen rich gas removed from the molten salt reactor has a lower amount of carbon monoxide and unconverted fuel compounds compared with the hydrogen rich gas supplied from the fuel reformer to the molten salt reactor .
Indicator device for a movably mounted element, in particular a backrest of a vehicle seat , which can be locked in at least one position by means of an unlockable locking apparatus , the indicator device comprising at least one indicator element , which can be moved from a rest position retracted in a housing into a display position protruding from the housing , and an actuator device for moving the indicator element depending on a state of the locking apparatus , characterized in that the actuator device is designed as an electromagnetic actuator .
An electrode assembly having a one directionally spiral-wound structure with a separator sheet interposed between a positive electrode sheet and a negative electrode sheet, wherein the electrode assembly has a horizontal length x which is a same direction to the electrode assembly being wound, and the vertical length y which is perpendicular to the horizontal length with respect to an electrode plate of the electrode assembly, wherein the spiral-winding is performed five times or less, and both side end portions of the electrode assembly are bent together in the same direction within the range of a curvature radius R satisfying the following Equation 1: S 1 / ln x / y * t = R wherein t is an average thickness (mm) of the spiral-wound electrode assembly, x is the horizontal length (mm) of the electrode assembly, and y is the vertical length (mm) of the electrode assembly, and S is a constant between 9 to 12, R is 5 mm to 20 mm, and ln(x/y) ≥ 1, a ratio of y to x (y:x) is from 1:3 to 1:20. wherein the electrode assembly has a horizontal length x which is a same direction to the electrode assembly being wound, and the vertical length y which is perpendicular to the horizontal length with respect to an electrode plate of the electrode assembly, wherein the spiral-winding is performed five times or less, and both side end portions of the electrode assembly are bent together in the same direction within the range of a curvature radius R satisfying the following Equation 1: S 1 / ln x / y * t = R wherein t is an average thickness (mm) of the spiral-wound electrode assembly, x is the horizontal length (mm) of the electrode assembly, and y is the vertical length (mm) of the electrode assembly, and S is a constant between 9 to 12, R is 5 mm to 20 mm, and ln(x/y) ≥ 1, a ratio of y to x (y:x) is from 1:3 to 1:20.
A method for manufacturing a joined article (C) obtained by j oining joint surfaces of first and second metal members (E, D), the joint surface of one of the metal members being a leading end portion-outer circumferential surface of the metal member, the other of the metal members having a hole, the hole being defined by an inner circumferential surface of the other metal member, the inner circumferential surface being the joint surface of the other metal member, the method comprising: providing (ST1) the first metal member (E); providing (ST2) the second metal member (D); the method being characterised in preheating (ST3) the joint surface of the first metal member (E) using a high-frequency induced electric current; applying pressure (ST4) on the first metal member (E) and the second metal member (D) in a manner in which the leading end portion is pressed into the hole; applying a first electric current (ST5) between the first metal member (E) and the second metal member (D) at a timing at which a temperature of the first metal member (E) has reached a prescribed temperature due to the preheating; and solid phase joining the first and second metal members (E, D) through the application of pressure and the application of the first electric current, the first metal member (E) is iron or an iron steel material, the second metal member (D) is aluminum or an aluminum alloy, temperatures of the first metal member (E) and the second metal member (D) at the solid-phase joining do not exceed respective melting points of the members, and the preheating the joint surface of the first metal member (E) is performed in a state where the first metal member (E) and the second metal member (D) are held removed from each other. providing (ST1) the first metal member (E); providing (ST2) the second metal member (D); the method being characterised in preheating (ST3) the joint surface of the first metal member (E) using a high-frequency induced electric current; applying pressure (ST4) on the first metal member (E) and the second metal member (D) in a manner in which the leading end portion is pressed into the hole; applying a first electric current (ST5) between the first metal member (E) and the second metal member (D) at a timing at which a temperature of the first metal member (E) has reached a prescribed temperature due to the preheating; and solid phase joining the first and second metal members (E, D) through the application of pressure and the application of the first electric current, the first metal member (E) is iron or an iron steel material, the second metal member (D) is aluminum or an aluminum alloy, temperatures of the first metal member (E) and the second metal member (D) at the solid-phase joining do not exceed respective melting points of the members, and the preheating the joint surface of the first metal member (E) is performed in a state where the first metal member (E) and the second metal member (D) are held removed from each other.