mhurhangee/ep-ind-claims huggingface dataset:
A combination of: - a heater for a beverage machine (1,1',1",1"') having: a heating chamber for containing liquid, such as water, to be heated; a plurality of electric heating elements, such as heating resistors (R1,R2,R3), that are in thermal communication with the heating chamber; and a heater connector with electric heater conductors connected to the electric heating elements (R1,R2,R3); - a first connection device having a first output connector, such as a socket, with conductors for connection to the conductors of the heater connector and a first input connector, such as a first plug, for connection to a first standard connector of a first power source with a first voltage level; and - a second connection device having a second output connector, such as a socket, with conductors for connection to the conductors of the heater connector and a second input connector, such as a second plug, for connection to a second standard connector of a second power source with a second voltage level, the second input connector, standard connector and voltage level being different to the first input connector, standard connector and voltage level, respectively, wherein the conductors of the first output connector have a first connection configuration in the first connection device and the conductors of the second output connector have a second connection configuration in the second connection device different to the first connection configuration; and in that at least two of said electric heating elements (R1,R2,R3) are so connected to the electric heater conductors as to be powered: - in a first electric configuration via the first connection device to said first power source with said first voltage level; and - in a different, second electric configuration via the second connection device to said second power source with said second voltage level. - a heater for a beverage machine (1,1',1",1"') having: a heating chamber for containing liquid, such as water, to be heated; a plurality of electric heating elements, such as heating resistors (R1,R2,R3), that are in thermal communication with the heating chamber; and a heater connector with electric heater conductors connected to the electric heating elements (R1,R2,R3); - a first connection device having a first output connector, such as a socket, with conductors for connection to the conductors of the heater connector and a first input connector, such as a first plug, for connection to a first standard connector of a first power source with a first voltage level; and - a second connection device having a second output connector, such as a socket, with conductors for connection to the conductors of the heater connector and a second input connector, such as a second plug, for connection to a second standard connector of a second power source with a second voltage level, - in a first electric configuration via the first connection device to said first power source with said first voltage level; and - in a different, second electric configuration via the second connection device to said second power source with said second voltage level.
A mutein of human tear lipocalin (hTLc), wherein the mutein binds an extracellular region or a domain of Met receptor tyrosine kinase (c-Met) with a K D of 200 nM or less, and wherein said mutein comprises at least 10 amino acid substitutions at positions of the amino acid sequence of mature human tear lipocalin (SEQ ID NO: 36) selected from the group consisting of Arg 26 → Thr, Val, Pro, Ser, Gly; Glu 27 → Gln, Gly, Val, Ser; Phe 28 → Met, Asp; Pro 29 → Leu, Ile, Ala, Trp; Glu 30 → Leu, Gly, Arg, Phe; Met 31 → Ser; Asn 32 → Leu, Arg, Val, Gln; Leu 33 → Tyr, Val, Ile, Thr, Phe; Glu 34 → Val, Arg, Ala; Leu 56 → Asn; Ile 57 → Gln; Ser 58 → Ile, Val; Asp 80 → Tyr; Lys 83 → Ala; Glu 104 → Asp; Leu 105 → Thr; His 106 → Trp; and Lys 108 → Gly.
An information processing apparatus configured to perform cryptographic processing in response to a request from a server transmitting encrypted information to control an integrated circuit chip, the information processing apparatus comprising: managing means for managing types of the cryptographic processing granted in accordance with requests, the managing means including means for determining whether a software application of the server should be granted access to a key for generating cryptographic information and access to predetermined cryptographic processing based on information contained in an access control list, the access control list including key access information including a key identifier, a valid period for the key, and a type of cryptographic processing to be granted to the software application, authentication information for the software application including application key information, a valid period for the software application, codes for authentication between the integrated circuit chip and the software application, and a cryptographic processing used, and authentication information for operator access including operator key information, a valid period for the operator, and information indicating a content of access granted to the operator; and output means for performing the predetermined cryptographic processing requested from the server and supplying information concerning the processing result to the server as information to be transmitted to the integrated circuit chip to be controlled when the means for determining determines that the access to the requested predetermined cryptographic processing should be granted. managing means for managing types of the cryptographic processing granted in accordance with requests, the managing means including means for determining whether a software application of the server should be granted access to a key for generating cryptographic information and access to predetermined cryptographic processing based on information contained in an access control list, the access control list including key access information including a key identifier, a valid period for the key, and a type of cryptographic processing to be granted to the software application, authentication information for the software application including application key information, a valid period for the software application, codes for authentication between the integrated circuit chip and the software application, and a cryptographic processing used, and authentication information for operator access including operator key information, a valid period for the operator, and information indicating a content of access granted to the operator; and output means for performing the predetermined cryptographic processing requested from the server and supplying information concerning the processing result to the server as information to be transmitted to the integrated circuit chip to be controlled when the means for determining determines that the access to the requested predetermined cryptographic processing should be granted.
A method for producing a glass composition, comprising the steps of: i) preparing a molten raw material glass composition, preferably by heating a raw material glass composition or the components of a raw material glass composition, and ii) adding one or more reducing agents to the raw material glass composition before, during or after melting in step i), wherein the reducing agent is one or more selected from aluminum, magnesium, sodium, silicon, hydrogen, carbon monoxide, potassium, lithium, calcium, strontium, barium, gallium, germanium, and boron, or any combination thereof, wherein the addition of the reducing agent(s) leads to the formation of gaseous and/or solid by-product(s), and iii) optionally removing precipitates formed after steps i) and ii) from the molten glass composition, wherein the content of one or more ions selected from iron ions, chromium ions, manganese ions, copper ions, nickel ions, cobalt ions and uranium ions in the glass composition is reduced by 50 wt-% or more, relative to their content in the raw material glass composition, and the one or more reducing agents may be added before, during or after melting the raw material glass composition or its components. i) preparing a molten raw material glass composition, preferably by heating a raw material glass composition or the components of a raw material glass composition, and ii) adding one or more reducing agents to the raw material glass composition before, during or after melting in step i), wherein the reducing agent is one or more selected from aluminum, magnesium, sodium, silicon, hydrogen, carbon monoxide, potassium, lithium, calcium, strontium, barium, gallium, germanium, and boron, or any combination thereof, wherein the addition of the reducing agent(s) leads to the formation of gaseous and/or solid by-product(s), and iii) optionally removing precipitates formed after steps i) and ii) from the molten glass composition, wherein the content of one or more ions selected from iron ions, chromium ions, manganese ions, copper ions, nickel ions, cobalt ions and uranium ions in the glass composition is reduced by 50 wt-% or more, relative to their content in the raw material glass composition, and the one or more reducing agents may be added before, during or after melting the raw material glass composition or its components.
Reusable absorbent layer type structure, having a longitudinal XX axis and comprising an outer support element adjustable on the body of a user, a flat absorbent element and an impermeable intermediate element for the retention of the absorbent element, the intermediate element being linked by attachment means to the outer element, said intermediate element having on each of its lengths an elastic border which, in the stretched and flattened state, makes it possible to cover at least one longitudinal zone (34,34') of the absorbent element characterized in that the dimension of the outer element measured along the XX axis and between said attachment means, is less than the dimension of the intermediate element measured in the same direction XX, between said attachment means, so that the elastic edge of the intermediate element remains in permanent contact with the skin of the user.
A detectable conjugate of androstenedione comprising an androstenedione compound conjugated to a chemiluminescent acridinium moiety, said conjugate having the structure of formula: A——L——Ψ wherein A is androstenedione or a derivative thereof; L is a linker; and Ψ is a chemiluminescent acridinium label, wherein said androstenedione compound is covalently bonded to L through any one of carbons 3, 6, 7, 17, or 19 of said androstenedione ring system, wherein the androstenedione derivatives are 4-androsten-3,17-dione; 4-androsten-3,17-dione 3-O-carboxymethyloxime; 4-androsten-3,17-dione 17-O-carboxymethyloxime and 19-hydroxy-4-androsten-3,17-dione. wherein A is androstenedione or a derivative thereof; L is a linker; and Ψ is a chemiluminescent acridinium label,
Fastening system comprising: - a structure-holding element, which can be fastened on a structural unit; - a unit-holding element, which can be fastened on a unit to be fastened and which can be moved relative to the structure-holding element between a first operating position and a second operating position; - a first lever element, which is connected to the structure-holding element for rotation about a first axis-of-rotation element and which is connected to the unit-holding element for rotation about a second axis-of-rotation element; and - a connecting element, which is connected to the unit-holding element for rotation about a third axis-of-rotation element and which is connected to the structure-holding element for displacement in translatory fashion relative to the structure-holding element in such a manner that, when the unit-holding element is being transferred from its first operating position into its second operating position, the second axis-of-rotation element is displaced in a plane which extends perpendicularly in relation to the second axis-of-rotation element, characterized in that the connecting element is connected to the structure-holding element for displacement in translatory fashion relative to the structure-holding element in such a manner that a translatory movement path, along which the connecting element is displaced relative to the structure-holding element when the unit-holding element is being transferred from its first operating position, intersects an extension of the first axis-of-rotation element. - a structure-holding element, which can be fastened on a structural unit; - a unit-holding element, which can be fastened on a unit to be fastened and which can be moved relative to the structure-holding element between a first operating position and a second operating position; - a first lever element, which is connected to the structure-holding element for rotation about a first axis-of-rotation element and which is connected to the unit-holding element for rotation about a second axis-of-rotation element; and - a connecting element, which is connected to the unit-holding element for rotation about a third axis-of-rotation element and which is connected to the structure-holding element for displacement in translatory fashion relative to the structure-holding element in such a manner that, when the unit-holding element is being transferred from its first operating position into its second operating position, the second axis-of-rotation element is displaced in a plane which extends perpendicularly in relation to the second axis-of-rotation element,
Imidazolium salts of the general formula I, wherein b, l, m, n and q, where applicable, are the same or different and each independent of each other zero or 1; and X - is an anion; R 1 and R 2 are the same or different and open chained, branched or unbranched or are part of a ring or a ring system and are chosen from the group of hydrogen, C 1 -C 12 -n-alkyl, C 3 -C 12 -branched alkyl, C 3 -C 12 -cycloalkyl, C 2 -C 12 -alkenyl, C 7 -C 20 -arylalkyl, C 5 -C 14 -aryl, which itself is either the same or differently substituted by one or more branched or unbranched C 1 -C 3 -alkyl residues, wherein the cyclic and aromatic systems are single rings or several condensed, annelated or isolated rings or form a ring system together with the imidazolium ring of the structure according to formula I; R 3 is chosen from the group of -NH 2, -COOH, -CONH 2 and -COOR" residue, wherein R" is a C 1 -C 6 -n-alkyl residue; R 4 is hydrogen or R 5, wherein R 5 is an imidazolium ring of formula II, wherein q is zero or 1; R 6 is the same or different to R 1 and R 2 and chosen from the same group as R 1, R 2.
An aqueous 2-methylisothiazolin-3-one-free polymer solution which has been stabilized with a preservative mixture composed of phenoxyethanol and at least one further alcohol, wherein the polymer is selected from vinyl lactam polymers and polyurethanes, and wherein either the preservative mixture comprises the following constituents as active biocidal ingredients: - from 25 to 50% by weight of a mixture composed of 50% 3-phenylpropanol, 25% 1,3-propanediol and 25% 1,2-octanediol and - from 50 to 75% by weight of phenoxyethanol, and is then used in an amount of from 0.10 to 1.40% by weight in the aqueous polymer solution, or the preservative mixture comprises the following constituents as active biocidal ingredients: - from 20 to 57% by weight of a mixture composed of 50% 1,2-pentanediol, 30% 1,2-octanediol and 20% 1,2-decanediol and - from 43 to 80% by weight of phenoxyethanol, and is then used in an amount of from 0.20 to 1.40% by weight in the aqueous polymer solution. - from 25 to 50% by weight of a mixture composed of 50% 3-phenylpropanol, 25% 1,3-propanediol and 25% 1,2-octanediol and - from 50 to 75% by weight of phenoxyethanol, and is then used in an amount of from 0.10 to 1.40% by weight in the aqueous polymer solution, - from 20 to 57% by weight of a mixture composed of 50% 1,2-pentanediol, 30% 1,2-octanediol and 20% 1,2-decanediol and - from 43 to 80% by weight of phenoxyethanol, and is then used in an amount of from 0.20 to 1.40% by weight in the aqueous polymer solution.
A headlight assembly for a two-wheeler comprising a left region and a right region, the headlight assembly being configured to reduce an intensity of a light beam when an oncoming automobile is detected, the headlight assembly comprising: at least two high beam light sources wherein at least one high beam light source is positioned in the left region and at least one high beam light source is positioned in the right region; at least two light detectors configured to detect the oncoming automobile and generate a signal, wherein at least one light detector is placed in the left region and at least one light detector is placed in the right region; a control module configured to receive the signal from at least one light detector and reduce the intensity of the light beam by changing beam spread, wherein to change the beam spread, the control module is configured to selectively switch off at least one high beam light source corresponding to the at least one light detector from which the signal is received. at least two high beam light sources wherein at least one high beam light source is positioned in the left region and at least one high beam light source is positioned in the right region; at least two light detectors configured to detect the oncoming automobile and generate a signal, wherein at least one light detector is placed in the left region and at least one light detector is placed in the right region; a control module configured to receive the signal from at least one light detector and reduce the intensity of the light beam by changing beam spread, wherein to change the beam spread, the control module is configured to selectively switch off at least one high beam light source corresponding to the at least one light detector from which the signal is received.
Method for avoiding changes of shape in metal coils, wherein - the metal coil is intermittently rotated about its longitudinal axis forwards in a first direction of rotation and then back in a second, opposite direction of rotation, or rotated further in the first direction of rotation, characterized in that - the forward rotation in the first direction of rotation is carried out counter to a coiling direction of the metal coil, and - the forward rotation and/or (reverse) rotation back and/or the further rotation of the metal coil are/is carried out in such a way that, in the process, the metal coil is not rotated beyond a coil start on an outer circumference of the metal coil, and - there is a pause between the forward rotation and the subsequent (reverse) rotation back of the metal coil or between the forward rotation and the subsequent further rotation of the metal coil. - the metal coil is intermittently rotated about its longitudinal axis forwards in a first direction of rotation and then back in a second, opposite direction of rotation, or rotated further in the first direction of rotation, - the forward rotation in the first direction of rotation is carried out counter to a coiling direction of the metal coil, and - the forward rotation and/or (reverse) rotation back and/or the further rotation of the metal coil are/is carried out in such a way that, in the process, the metal coil is not rotated beyond a coil start on an outer circumference of the metal coil, and - there is a pause between the forward rotation and the subsequent (reverse) rotation back of the metal coil or between the forward rotation and the subsequent further rotation of the metal coil.
A location tracking node (100 to 118) for a location tracking system comprising a plurality of location tracking nodes (100 to 118) disposed at fixed locations to cover an area where location tracking is to be carried out, mobile tags whose locations are being tracked, and a server connected to the plurality of location tracking nodes (100 to 118) of the location tracking system and storing the fixed locations of the location tracking nodes (100 to 118) and locations of the mobile tags (120 to 128), the location tracking node (100 to 118) comprising means configured to carry out an automatic calibration phase during operation of the location tracking system, wherein the calibration phase comprises in the location tracking node (100 to 118): transmit a test signal with at least one designated transmission power from the location tracking node (100 to 118), the test signal comprising an identifier of the location tracking node (100 to 118); receive another test signal from another location tracking node (100 to 118) and determining, from the received other test signal, an identifier of the other location tracking node (100 to 118) that transmitted the other test signal; transmit to a control apparatus comprised in the server a measurement report comprising the identifier of the other location tracking node (100 to 118) from which the test signal was received; wherein the calibration phase further comprises in the location tracking node (100 to 118): receiving reconfigured transmission power parameters from the control apparatus; and applying the received reconfigured transmission power parameters in communication with mobile tags (120 to 128) tracked by the location tracking system. transmit a test signal with at least one designated transmission power from the location tracking node (100 to 118), the test signal comprising an identifier of the location tracking node (100 to 118); receive another test signal from another location tracking node (100 to 118) and determining, from the received other test signal, an identifier of the other location tracking node (100 to 118) that transmitted the other test signal; transmit to a control apparatus comprised in the server a measurement report comprising the identifier of the other location tracking node (100 to 118) from which the test signal was received; wherein the calibration phase further comprises in the location tracking node (100 to 118): receiving reconfigured transmission power parameters from the control apparatus; and applying the received reconfigured transmission power parameters in communication with mobile tags (120 to 128) tracked by the location tracking system. receiving reconfigured transmission power parameters from the control apparatus; and applying the received reconfigured transmission power parameters in communication with mobile tags (120 to 128) tracked by the location tracking system.
A superabsorbent polymer comprising a base resin powder comprising crosslinked polymer formed by the crosslinking polymerization of water soluble ethylenically unsaturated monomers having acid groups of which at least a part are neutralized, in the presence of an internal crosslinking agent comprising a compound represented by the following Chemical Formula 1, and inorganic material; and a surface crosslink layer on the base resin powder, formed by the additional crosslinking of the crosslinked polymer, wherein the permeability calculated by the following Calculation Formula 1 is equal to or greater than 16 mL/1 minute: in the Chemical Formula 1, R 1 is methane-1,1-diyl, propane-1,3-diyl or propane-1,2-diyl, and R 2 is hydrogen or a methyl group, Perm = 20 mL / T 1 sec * 60 sec in the Calculation Formula 1, Perm is the permeability of superabsorbent polymer, and T 1 is a time(seconds) taken for a saline solution of 20 mL to pass through swollen superabsorbent polymer under pressure of 0.3 psi (2,1 kPa), after putting 0.2 g of superabsorbent polymer in a cylinder, and pouring a saline solution (0.9wt% sodium chloride aqueous solution) so that the superabsorbent polymer is completely submerged, thus swelling the superabsorbent polymer for 30 minutes. Perm is the permeability of superabsorbent polymer, and T 1 is a time(seconds) taken for a saline solution of 20 mL to pass through swollen superabsorbent polymer under pressure of 0.3 psi (2,1 kPa), after putting 0.2 g of superabsorbent polymer in a cylinder, and pouring a saline solution (0.9wt% sodium chloride aqueous solution) so that the superabsorbent polymer is completely submerged, thus swelling the superabsorbent polymer for 30 minutes.