mhurhangee/ep-ind-claims huggingface dataset:
A biomimetic catalyst, said catalyst comprising: a polymeric silica matrix, wherein preparation of the matrix comprises reacting at least one tetraorthosilicate with at least one silane in the presence of an imprinting molecule to form said polymeric silica matrix impregnated with said imprinting molecule, and removing said imprinting molecule from said impregnated polymeric silica matrix via washing or burning; wherein at least 1 mol percent of said at least one silane is an acid functionalized silane; wherein said imprinting molecule is at least one selected from the group consisting of cellulose, cellobiose, linear oligomeric β linked glucose chains longer than cellobiose but shorter than cellulose, carboxymethylcellulose, methylcellulose, hydropropylcellulose, linear and branched α-linked glucose oligomer and polymers, sucrose, lactose, trehalose, fructans, pectins, glycosaminoglycans, agar, gum Arabic, karageenan, glucose, and D-glucose 6-phosphate; at least one active site imprinted into said matrix, wherein said active site binds and hydrolyzes at least one glucose substrate to glucose, wherein said glucose substrate is at least one selected from the group consisting of cellulose, cellobiose, linear oligomeric β linked glucose chains longer than cellobiose but shorter than cellulose, and linear and branched α-linked glucose oligomers and polymers, and at least one acidic functionality in said active site. a polymeric silica matrix, wherein preparation of the matrix comprises reacting at least one tetraorthosilicate with at least one silane in the presence of an imprinting molecule to form said polymeric silica matrix impregnated with said imprinting molecule, and removing said imprinting molecule from said impregnated polymeric silica matrix via washing or burning; wherein at least 1 mol percent of said at least one silane is an acid functionalized silane; wherein said imprinting molecule is at least one selected from the group consisting of cellulose, cellobiose, linear oligomeric β linked glucose chains longer than cellobiose but shorter than cellulose, carboxymethylcellulose, methylcellulose, hydropropylcellulose, linear and branched α-linked glucose oligomer and polymers, sucrose, lactose, trehalose, fructans, pectins, glycosaminoglycans, agar, gum Arabic, karageenan, glucose, and D-glucose 6-phosphate; at least one active site imprinted into said matrix, wherein said active site binds and hydrolyzes at least one glucose substrate to glucose, wherein said glucose substrate is at least one selected from the group consisting of cellulose, cellobiose, linear oligomeric β linked glucose chains longer than cellobiose but shorter than cellulose, and linear and branched α-linked glucose oligomers and polymers, and at least one acidic functionality in said active site.
Wheel-carrying member for a vehicle suspension, with a hybrid structure comprising a body in a composite material with a fibre-reinforced thermoplastic matrix, at least one shell element (28, 28', 28", 28"') formed by a laminate with a thermoplastic matrix and fixed on an external side of the body, which is a side of the body that, in the mounted condition of the wheel-carrying member on the vehicle, is directed laterally outwards of the vehicle, and a plurality of metal inserts (32, 34, 36, 38, 52) for connecting or fixing the wheel-carrying member to other components (18, 22) of the suspension or of the vehicle, said metal inserts (32, 34, 36, 38, 52) being at least partially embedded in the body so that they are firmly connected to the body without the use of adhesive means.
An egg processing apparatus, comprising: a plurality of egg processing devices configured to interact with a plurality of eggs carried by an egg carrier; an egg support assembly positioned beneath the egg processing devices and being movable between an operative position and a retracted position, characterized by the egg support assembly having a plurality of pedestals, each pedestal having a plurality of discrete egg support members cooperating to form a seating arrangement portion upon which a respective egg is supported entirely thereby when in the operative position, to support the eggs during an egg processing event; and wherein each discrete egg support member is a shaped wire form such that each pedestal is formed of a rigid wireframe structure for supporting a respective egg entirely. a plurality of egg processing devices configured to interact with a plurality of eggs carried by an egg carrier; an egg support assembly positioned beneath the egg processing devices and being movable between an operative position and a retracted position, characterized by the egg support assembly having a plurality of pedestals, each pedestal having a plurality of discrete egg support members cooperating to form a seating arrangement portion upon which a respective egg is supported entirely thereby when in the operative position, to support the eggs during an egg processing event; and wherein each discrete egg support member is a shaped wire form such that each pedestal is formed of a rigid wireframe structure for supporting a respective egg entirely.
A fabricating method of an electrode assembly comprising: forming a radical unit having a four-layered structure obtained by stacking a first electrode, a first separator, a second electrode, and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode, the first separator, the second electrode, the second separator, the first electrode, the first separator, the second electrode and the second separator one by one; stacking at least two of said radical units one by one to form a unit stack part; stacking a first auxiliary unit on a first distal end electrode, the first distal end electrode being the first electrode positioned at an uppermost or a lowermost portion of the unit stack part, and stacking a second auxiliary unit on a second distal end separator, the second distal end separator being the second separator positioned at an uppermost or a lowermost portion of the unit stack part, wherein the first electrode is anode, and the second electrode is a cathode, the first auxiliary unit is formed by stacking from the first distal end electrode, the separator, the cathode one by one, and the second auxiliary unit is formed by stacking from the second distal end separator, the anode, the separator, the cathode, the separator and the anode, one by one. forming a radical unit having a four-layered structure obtained by stacking a first electrode, a first separator, a second electrode, and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode, the first separator, the second electrode, the second separator, the first electrode, the first separator, the second electrode and the second separator one by one; stacking at least two of said radical units one by one to form a unit stack part; stacking a first auxiliary unit on a first distal end electrode, the first distal end electrode being the first electrode positioned at an uppermost or a lowermost portion of the unit stack part, and stacking a second auxiliary unit on a second distal end separator, the second distal end separator being the second separator positioned at an uppermost or a lowermost portion of the unit stack part, wherein the first electrode is anode, and the second electrode is a cathode, the first auxiliary unit is formed by stacking from the first distal end electrode, the separator, the cathode one by one, and the second auxiliary unit is formed by stacking from the second distal end separator, the anode, the separator, the cathode, the separator and the anode, one by one.
A signal processing apparatus comprising: analyzing means analyzing input signal characteristics; a plurality of mapping processing means each conducting amplitude conversion of the input signal on the basis of one of a plurality of predetermined linear functions or one of a plurality of predetermined nonlinear functions, wherein the amplitude conversion comprises substitution of a sample value of each of a plurality of samples included of the input signal with an output of the one of the plurality of predetermined linear functions or the one of the plurality of predetermined nonlinear functions for which the each of the sample values is used as an input; weighting controlling means respectively multiplying a plurality of the input signals, which have been respectively amplitude-converted on the basis of mutually different functions by a plurality of the mapping processing means, by weights determined by the analysis result for the input signal characteristics, wherein the weights are configured to increase for steeper ones of the plurality of predetermined linear functions or the plurality of predetermined nonlinear functions as a volume of the each of the samples of the input signal decreases; and adding means generating an output signal by adding together the plurality of input signals which have been multiplied by the weights. analyzing means analyzing input signal characteristics; a plurality of mapping processing means each conducting amplitude conversion of the input signal on the basis of one of a plurality of predetermined linear functions or one of a plurality of predetermined nonlinear functions, wherein the amplitude conversion comprises substitution of a sample value of each of a plurality of samples included of the input signal with an output of the one of the plurality of predetermined linear functions or the one of the plurality of predetermined nonlinear functions for which the each of the sample values is used as an input; weighting controlling means respectively multiplying a plurality of the input signals, which have been respectively amplitude-converted on the basis of mutually different functions by a plurality of the mapping processing means, by weights determined by the analysis result for the input signal characteristics, wherein the weights are configured to increase for steeper ones of the plurality of predetermined linear functions or the plurality of predetermined nonlinear functions as a volume of the each of the samples of the input signal decreases; and adding means generating an output signal by adding together the plurality of input signals which have been multiplied by the weights.
A method for generating a codeword for transmitting a control signal, the method comprising: obtaining a primary unit by taking a column vector from an (N-1)×N simplex code or by taking a row vector from a Nx(N-1) simplex code, the simplex code obtained by removing a first row or a first column from an N × N orthogonal matrix; and mapping the control signal to the codeword, the codeword obtained by combining a plurality of primary units, wherein the combination of the plurality of primary units is based on a concatenation of primary units using repetition of at least one of the plurality of primary units, the method being characterised in that: a number of primary units to encode bits on a MSB side of the control signal is different from that of primary units to encode bits on a LSB side of the control signal. obtaining a primary unit by taking a column vector from an (N-1)×N simplex code or by taking a row vector from a Nx(N-1) simplex code, the simplex code obtained by removing a first row or a first column from an N × N orthogonal matrix; and mapping the control signal to the codeword, the codeword obtained by combining a plurality of primary units, wherein the combination of the plurality of primary units is based on a concatenation of primary units using repetition of at least one of the plurality of primary units, the method being characterised in that: a number of primary units to encode bits on a MSB side of the control signal is different from that of primary units to encode bits on a LSB side of the control signal. a number of primary units to encode bits on a MSB side of the control signal is different from that of primary units to encode bits on a LSB side of the control signal.
Method for placing fibre-reinforced pre-impregnated planar semi-finished products on a placement tool for producing a fibre scrim, comprising the steps of: - applying a placement film for receiving the semi-finished products on the placement tool; - fixing the placement film by means of applying a vacuum, which is created by way of an inner array of holes; - placing the semi-finished products in layers on the placement film to form skin plies, - transferring the built-up fibre scrim to a downstream production means by pivoting the placement tool and subsequently ending the vacuum; and - removing the placement film from the first skin ply, wherein the skin plies are compacted by the application of at least an intermediate vacuum, which is created by way of an outer vacuum zone, wherein the outer array of holes encloses the inner array of holes in the manner of a frame, and wherein the application of the vacuum takes place by arrays of holes that can be activated separately from one another. - applying a placement film for receiving the semi-finished products on the placement tool; - fixing the placement film by means of applying a vacuum, which is created by way of an inner array of holes; - placing the semi-finished products in layers on the placement film to form skin plies, - transferring the built-up fibre scrim to a downstream production means by pivoting the placement tool and subsequently ending the vacuum; and - removing the placement film from the first skin ply, wherein the skin plies are compacted by the application of at least an intermediate vacuum, which is created by way of an outer vacuum zone, wherein the outer array of holes encloses the inner array of holes in the manner of a frame, and wherein the application of the vacuum takes place by arrays of holes that can be activated separately from one another.
Cover element assembly for a front end of a vehicle, with a cover element which extends over the front end in the transverse direction of the vehicle and is secured to a body of the vehicle by means of at least one fastening means, wherein the cover element has, on its rear side facing the body, at least one hooking-in and positioning web, by means of which the cover element can be hooked in and positioned on an associated body-side web receptacle, characterized in that the hooking-in and positioning web is provided with at least one sealing element in such a manner that, in the state accommodated in the web receptacle, the hooking-in and positioning web lies tightly against the windscreen.
A process for the production of a light converter comprising a siloxane polymer matrix with light converter nano particles embedded therein, the process comprising: (a) mixing (i) light converter nano particles having an outer surface grafted with grafting ligands and (ii) curable siloxane polymers, and (b) curing the curable siloxane polymers, thereby producing the light converter; - wherein the grafting ligands comprise siloxane grafting ligands having x1 Si backbone elements, wherein at least one Si backbone element of each siloxane grafting ligand comprises a side group having a grafting functionality selected from the group consisting of an amine comprising side group, a carboxylic acid comprising side group, a phosphine comprising side group, a phosphine oxide comprising side group, a phosphate comprising side group, and a thiol comprising side group, wherein the side group is a side group of a non-terminal Si backbone element; - wherein the curable siloxane polymers have y1 Si backbone elements; - wherein x1 is at least 20, wherein y1 is at least 2, and wherein x1/y1 >1. (a) mixing (i) light converter nano particles having an outer surface grafted with grafting ligands and (ii) curable siloxane polymers, and (b) curing the curable siloxane polymers, thereby producing the light converter; - wherein the grafting ligands comprise siloxane grafting ligands having x1 Si backbone elements, wherein at least one Si backbone element of each siloxane grafting ligand comprises a side group having a grafting functionality selected from the group consisting of an amine comprising side group, a carboxylic acid comprising side group, a phosphine comprising side group, a phosphine oxide comprising side group, a phosphate comprising side group, and a thiol comprising side group, wherein the side group is a side group of a non-terminal Si backbone element; - wherein the curable siloxane polymers have y1 Si backbone elements; - wherein x1 is at least 20, wherein y1 is at least 2, and wherein x1/y1 >1. - wherein the grafting ligands comprise siloxane grafting ligands having x1 Si backbone elements, wherein at least one Si backbone element of each siloxane grafting ligand comprises a side group having a grafting functionality selected from the group consisting of an amine comprising side group, a carboxylic acid comprising side group, a phosphine comprising side group, a phosphine oxide comprising side group, a phosphate comprising side group, and a thiol comprising side group, wherein the side group is a side group of a non-terminal Si backbone element; - wherein the curable siloxane polymers have y1 Si backbone elements; - wherein x1 is at least 20, wherein y1 is at least 2, and wherein x1/y1 >1.
A gas supply system comprising: a gas consumption device; a tank that stores gas to be supplied to the gas consumption device, and that is configured to be detachably attached to the gas consumption device; and a control device, wherein the gas consumption device includes a supply channel configured such that the gas flows through the supply channel, and a pressure sensor configured to obtain in-channel pressure of the supply channel, the tank is configured to be connected to the supply channel, and is provided with an open/close valve at a portion where the tank is connected to the supply channel, and the control device is configured such that, when the tank is detached from the gas consumption device, the control device closes the open/close valve to stop supply of gas from the tank, stops consumption of the gas by the gas consumption device after the gas in the supply channel is consumed, and the control device is further configured such that it permits detachment of the tank when the pressure rise is no greater than a predetermined threshold value. a gas consumption device; a tank that stores gas to be supplied to the gas consumption device, and that is configured to be detachably attached to the gas consumption device; and a control device, wherein the gas consumption device includes a supply channel configured such that the gas flows through the supply channel, and a pressure sensor configured to obtain in-channel pressure of the supply channel, the tank is configured to be connected to the supply channel, and is provided with an open/close valve at a portion where the tank is connected to the supply channel, and the control device is configured such that, when the tank is detached from the gas consumption device, the control device closes the open/close valve to stop supply of gas from the tank, stops consumption of the gas by the gas consumption device after the gas in the supply channel is consumed, and the control device is further configured such that it permits detachment of the tank when the pressure rise is no greater than a predetermined threshold value.
A compound of formula I: wherein, independently for each occurrence: R 2 and R 3 are independently hydrogen, halogen, or C 1 -C 6 alkyl wherein said C 1 -C 6 alkyl is substituted with 0-6 halogen; R 5 is hydrogen, halogen, OH, or C 1 -C 6 alkyl wherein said C 1 -C 6 alkyl is substituted with 0-6 halogen and wherein up to two non-adjacent CH 2 units of said C 1 -C 6 alkyl may be replaced with -O-; R 7 is hydrogen, halogen, or C 1 -C 6 alkyl wherein said C 1 -C 6 alkyl is substituted with 0-6 halogen and wherein up to two non-adjacent CH 2 units of said C 1 -C 6 alkyl may be replaced with - O-; and X is -PO 2, -PO O - M +, -PO(O -) 2 ·2M +, or -PO(O -) 2 ·D 2+; M + is a pharmaceutically acceptable monovalent cation; and D 2+ is a pharmaceutically acceptable divalent cation; provided that R 2, R 3, R 5, and R 7 are not simultaneously hydrogen, wherein "alkyl" represents a straight-chain or branched hydrocarbon chain that is completely saturated or that contains one or more units of unsaturation. R 2 and R 3 are independently hydrogen, halogen, or C 1 -C 6 alkyl wherein said C 1 -C 6 alkyl is substituted with 0-6 halogen; R 5 is hydrogen, halogen, OH, or C 1 -C 6 alkyl wherein said C 1 -C 6 alkyl is substituted with 0-6 halogen and wherein up to two non-adjacent CH 2 units of said C 1 -C 6 alkyl may be replaced with -O-; R 7 is hydrogen, halogen, or C 1 -C 6 alkyl wherein said C 1 -C 6 alkyl is substituted with 0-6 halogen and wherein up to two non-adjacent CH 2 units of said C 1 -C 6 alkyl may be replaced with - O-; and X is -PO 2, -PO O - M +, -PO(O -) 2 ·2M +, or -PO(O -) 2 ·D 2+; M + is a pharmaceutically acceptable monovalent cation; and D 2+ is a pharmaceutically acceptable divalent cation; provided that R 2, R 3, R 5, and R 7 are not simultaneously hydrogen, wherein "alkyl" represents a straight-chain or branched hydrocarbon chain that is completely saturated or that contains one or more units of unsaturation.
A method for the production of a moisture curable composition, using a mixing vessel for the production of the prepolymer by the reaction of a reactive polymer with a cross-linking agent, whereby after closing the mixing vessel and the introduction of at least one liquid reagent for the reaction or another liquid ingredient of the formulation of the product, the content of the mixing vessel is stirred and the closed mixing vessel is at least temporarily put under a vacuum pressure, whereby the vacuum pressure is preferably at most 0.40 bar absolute (bara), and optionally at least 0.001 bara or 1 mbar absolute, whereby the vacuum pressure is decreased to a vacuum pressure of at most 0.40 bara within 60 seconds after closing the mixing vessel, whereby this vacuum pressure is broken by letting a gas into the mixing vessel, and whereby the gas is dried air having a dew point of at most -40°C.
A battery comprising a cathode, an anode, and an electrolyte, wherein the cathode has a cathode active material including a lithium composite oxide which contains lithium (Li), cobalt (Co) and nickel (Ni), and oxygen, the anode has an anode active material including at least one kind selected from the group consisting of anode materials capable of insertion and extraction of lithium, and lithium metals, a battery voltage at charging is 4.25 V or more, and moisture content in the electrolyte is 20 ppm mass ratio or less to the electrolyte, wherein the lithium composite oxide furthermore contains at least one kind selected from the group consisting of manganese (Mn), aluminum (Al), magnesium (Mg), titanium (Ti), chromium (Cr), and iron (Fe).