mhurhangee/ep-ind-claims huggingface dataset:
An adsorbent material comprising a silicate composition, wherein the silicate composition comprises 5% to 95% by weight of a crystalline phase; wherein the silicate composition comprises an interconnected porous scaffold having a total mercury (Hg) pore volume of 0.005 cc/g to 0.25 cc/g for pores having a diameter of 20-10,000 Å, a total mercury (Hg) pore volume of 0.10 cc/g to 0.25 cc/g for pores having a diameter of 200-10,000 Å, and a total nitrogen pore volume of 0.02 cc/g to 0.10 cc/g for pores having a diameter of 20-600 Å; wherein the silicate composition comprises: 20% to 60% by weight of the crystalline phase comprising Y-zeolite; 5% to 95% by weight of a non-zeolitic matrix phase based on the total weight of the silicate composition; and wherein the silicate composition has a surface composition comprising 5% to 20% sodium calculated as atomic percent and a surface area of 200 m 2 /g to 500 m 2 /g; and wherein the composition further comprises additional adsorbent comprising titanosilicate. wherein the silicate composition comprises an interconnected porous scaffold having a total mercury (Hg) pore volume of 0.005 cc/g to 0.25 cc/g for pores having a diameter of 20-10,000 Å, a total mercury (Hg) pore volume of 0.10 cc/g to 0.25 cc/g for pores having a diameter of 200-10,000 Å, and a total nitrogen pore volume of 0.02 cc/g to 0.10 cc/g for pores having a diameter of 20-600 Å; wherein the silicate composition comprises: 20% to 60% by weight of the crystalline phase comprising Y-zeolite; 5% to 95% by weight of a non-zeolitic matrix phase based on the total weight of the silicate composition; and wherein the silicate composition has a surface composition comprising 5% to 20% sodium calculated as atomic percent and a surface area of 200 m 2 /g to 500 m 2 /g; and wherein the composition further comprises additional adsorbent comprising titanosilicate. 20% to 60% by weight of the crystalline phase comprising Y-zeolite; 5% to 95% by weight of a non-zeolitic matrix phase based on the total weight of the silicate composition; and wherein the silicate composition has a surface composition comprising 5% to 20% sodium calculated as atomic percent and a surface area of 200 m 2 /g to 500 m 2 /g; and wherein the composition further comprises additional adsorbent comprising titanosilicate.
Process for multilayer coating of metal substrates, comprising the following steps: 1. Pretreating the metal substrate to be coated with an acidic aqueous composition comprising: a) phosphate ions and/or b) at least one water-soluble titanium and/or zirconium compound, and c) water; 2. Optionally flashing off the pretreated metal substrate, 3. Applying a surfacer layer of an organic-solvent based surfacer coating composition comprising: A) at least one polyaspartic acid ester, B) at least one polyisocyanate cross-linking agent with free isocyanate groups, C) pigments and/or extenders, and D) at least one organic solvent; and 4. Curing the surfacer layer. 1. Pretreating the metal substrate to be coated with an acidic aqueous composition comprising: a) phosphate ions and/or b) at least one water-soluble titanium and/or zirconium compound, and c) water; a) phosphate ions and/or b) at least one water-soluble titanium and/or zirconium compound, and c) water; 2. Optionally flashing off the pretreated metal substrate, 3. Applying a surfacer layer of an organic-solvent based surfacer coating composition comprising: A) at least one polyaspartic acid ester, B) at least one polyisocyanate cross-linking agent with free isocyanate groups, C) pigments and/or extenders, and D) at least one organic solvent; and A) at least one polyaspartic acid ester, B) at least one polyisocyanate cross-linking agent with free isocyanate groups, C) pigments and/or extenders, and D) at least one organic solvent; and 4. Curing the surfacer layer.
A cAMP sensor protein comprising the hinge region from an exchange protein activated by cAMP (Epac) protein, wherein the hinge region is flanked by a first polypeptide and a second polypeptide, and inserted into the hinge region is an uninterrupted, circularly permuted, fluorescent protein, wherein: a. the first polypeptide comprises the regulatory domain of an Epac protein or a protein kinase A protein, and the second polypeptide comprises the catalytic domain of an Epac protein or a PKA protein; or b. the first polypeptide comprises the amino acid sequence of an Epac protein or a PKA protein, and the second polypeptide comprises a the amino acid sequence of a protein selected from the group consisting of an Epac protein, a PKA protein and a RAP1B protein; and wherein binding of cAMP to a cAMP-binding site of the sensor protein alters the level of fluorescence produced by the fluorescent protein. a. the first polypeptide comprises the regulatory domain of an Epac protein or a protein kinase A protein, and the second polypeptide comprises the catalytic domain of an Epac protein or a PKA protein; or b. the first polypeptide comprises the amino acid sequence of an Epac protein or a PKA protein, and the second polypeptide comprises a the amino acid sequence of a protein selected from the group consisting of an Epac protein, a PKA protein and a RAP1B protein;
Wooden fibre board with coated and sealed edges, wherein the composition used for the sealing/coating of the edges is producible from - at least one compound of the general formula R 1 a SiX (4-a), and/or hydrolysis products thereof, wherein - X is H, OH or a hydrolysable group selected from the group comprising alkoxyaryloxy, acyloxy, and - R 1 is an organic radical selected from the group comprising alkyl, aryl, cycloalkyl, which may be interrupted by -O- or -NH-, and - wherein R 1 has at least one functional group Q 1 selected from a group containing a hydroxy, amino, monoalkylamino, carboxy, mercapto, alkoxy, aldehyde, acrylic, acryloxy, methacrylic, methacryloxy, cyano, isocyano and epoxy group, and - a = 0, 1, 2, 3, in particular 0 or 1, - at least one compound of the general formula R 2 b SiX (4-b), and/or hydrolysis products thereof, wherein - X has the above meaning, - R 2 is a non-hydrolysable organic radical R 2 selected from the group comprising alkyl, aryl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, and - b = 1, 2, 3, or 4, and - at least one polymer dispersion. - at least one compound of the general formula R 1 a SiX (4-a), and/or hydrolysis products thereof, wherein - X is H, OH or a hydrolysable group selected from the group comprising alkoxyaryloxy, acyloxy, and - R 1 is an organic radical selected from the group comprising alkyl, aryl, cycloalkyl, which may be interrupted by -O- or -NH-, and - wherein R 1 has at least one functional group Q 1 selected from a group containing a hydroxy, amino, monoalkylamino, carboxy, mercapto, alkoxy, aldehyde, acrylic, acryloxy, methacrylic, methacryloxy, cyano, isocyano and epoxy group, and - a = 0, 1, 2, 3, in particular 0 or 1, - at least one compound of the general formula R 2 b SiX (4-b), and/or hydrolysis products thereof, wherein - X has the above meaning, - R 2 is a non-hydrolysable organic radical R 2 selected from the group comprising alkyl, aryl, alkenyl, alkynyl, cycloalkyl, cycloalkenyl, and - b = 1, 2, 3, or 4, and - at least one polymer dispersion.
A spinal construct (20; 200; 400) comprising: a first member (28; 228; 428) including a surface (34; 242; 448) that defines a first cavity (36; 244; 452) and a second cavity (38; 246; 450), the first member (28; 228; 428) being configured to engage a first vertebral surface; a second member (62; 280; 430) including a surface (68; 462) that defines a first cavity (70; 245; 466) and a second cavity (72; 247; 464), the second member (62; 280; 430) being configured to engage a second vertebral surface; at least one spacer (54; 254, 272); at least one first rod (22; 202, 204); and a plurality of second rods (24, 26; 206, 208), wherein the members (28, 62; 228, 280; 428, 430) are spaced and the first cavities (36, 70; 244, 245; 452, 466) are disposed in substantial alignment such that the at least one first rod (22; 202, 204) is disposed in the first cavities (36, 70; 244, 245; 452, 466) and the second cavities (38, 72; 246, 247; 450, 464) are disposed in substantial alignment such that the plurality of second rods (24, 26; 206, 208) are disposed in the second cavities (38, 72; 246, 247; 450, 464) and spaced via the at least one spacer (54; 254, 272) disposed between the second rods (24, 26; 206, 208) within at least one of the second cavities (38, 72; 246, 247; 450, 464). a first member (28; 228; 428) including a surface (34; 242; 448) that defines a first cavity (36; 244; 452) and a second cavity (38; 246; 450), the first member (28; 228; 428) being configured to engage a first vertebral surface; a second member (62; 280; 430) including a surface (68; 462) that defines a first cavity (70; 245; 466) and a second cavity (72; 247; 464), the second member (62; 280; 430) being configured to engage a second vertebral surface; at least one spacer (54; 254, 272); at least one first rod (22; 202, 204); and a plurality of second rods (24, 26; 206, 208), wherein the members (28, 62; 228, 280; 428, 430) are spaced and the first cavities (36, 70; 244, 245; 452, 466) are disposed in substantial alignment such that the at least one first rod (22; 202, 204) is disposed in the first cavities (36, 70; 244, 245; 452, 466) and the second cavities (38, 72; 246, 247; 450, 464) are disposed in substantial alignment such that the plurality of second rods (24, 26; 206, 208) are disposed in the second cavities (38, 72; 246, 247; 450, 464) and spaced via the at least one spacer (54; 254, 272) disposed between the second rods (24, 26; 206, 208) within at least one of the second cavities (38, 72; 246, 247; 450, 464).
A method of wireless communication, comprising: detecting, by a user equipment, UE, operating according to a new radio, NR, radio access technology, RAT, an overlapping portion of at least one resource element of a downlink control channel candidate of a configured control resource set, CORESET, that overlaps with at least one resource element of a downlink signal occasion of the NR RAT or a neighboring legacy RAT coexisting with the NR RAT; ending, by the UE, a monitoring of the downlink control channel candidate within a search space of the configured CORESET in response to the detected overlapping portion; detecting, by the UE, a collision between a scheduled demodulation reference signal, DMRS, within the overlapping portion and the downlink signal occasion; and discarding, by the UE, at least a portion of the CORESET in response to the detected collision. detecting, by a user equipment, UE, operating according to a new radio, NR, radio access technology, RAT, an overlapping portion of at least one resource element of a downlink control channel candidate of a configured control resource set, CORESET, that overlaps with at least one resource element of a downlink signal occasion of the NR RAT or a neighboring legacy RAT coexisting with the NR RAT; ending, by the UE, a monitoring of the downlink control channel candidate within a search space of the configured CORESET in response to the detected overlapping portion; detecting, by the UE, a collision between a scheduled demodulation reference signal, DMRS, within the overlapping portion and the downlink signal occasion; and discarding, by the UE, at least a portion of the CORESET in response to the detected collision.
A beverage preparation capsule containing a beverage preparation ingredient, the beverage capsule comprising a body having side walls formed from one or more substantially air- and liquid-impermeable sheet materials defining a chamber containing a beverage preparation ingredient and further defining an outlet channel having an upstream end in fluid communication with said chamber for escape of beverage from said chamber, characterised in that at least a region of said outlet channel is filled by a filtration material for filtering said beverage escaping from said chamber.
A liquid crystal display panel, comprising: a first substrate and a second substrate that are cell-assembled together and liquid crystal between the first substrate and the second substrate; and a plurality of first electrodes and a plurality of second electrodes for generating a driving electrical field, wherein each of the first electrodes is an electrode of plate shape and disposed at an inner side of the first substrate; and each of the second electrodes is a slit electrode, and disposed on the first substrate at an inner side of the first electrode, and the second electrodes and the first electrodes are insulated from each other and form a storage capacitor; wherein each of the first electrodes is disposed in two pixel units (p) which are adjacent in a first direction, and each of the second electrodes is disposed in two pixel units (p) which are adjacent in the first direction, the first electrodes and the second electrodes are disposed to be offset from each other by one pixel unit (p) in the first direction, and the first direction is a row direction or a column direction. a first substrate and a second substrate that are cell-assembled together and liquid crystal between the first substrate and the second substrate; and a plurality of first electrodes and a plurality of second electrodes for generating a driving electrical field, wherein each of the first electrodes is an electrode of plate shape and disposed at an inner side of the first substrate; and each of the second electrodes is a slit electrode, and disposed on the first substrate at an inner side of the first electrode, and the second electrodes and the first electrodes are insulated from each other and form a storage capacitor; wherein each of the first electrodes is disposed in two pixel units (p) which are adjacent in a first direction, and each of the second electrodes is disposed in two pixel units (p) which are adjacent in the first direction, the first electrodes and the second electrodes are disposed to be offset from each other by one pixel unit (p) in the first direction, and the first direction is a row direction or a column direction.
A method for managing power quality events in an electrical system, the method comprising: processing electrical measurement data from voltage and/or current signals captured by an intelligent electronic device "IED" to identify at least one power quality event associated with one or more loads monitored by the IED, wherein the IED and the one or more loads are installed at respective locations in the electrical system; and determining an impact of the at least one identified power quality event on one or more of the loads, characterized in that the method further comprises: using the at least one identified power quality event and the determined impact of the at least one identified power quality event to generate or update a tolerance curve associated with the one or more of the loads, wherein the tolerance curve characterizes a tolerance level of the one or more of the loads to certain power quality events. processing electrical measurement data from voltage and/or current signals captured by an intelligent electronic device "IED" to identify at least one power quality event associated with one or more loads monitored by the IED, wherein the IED and the one or more loads are installed at respective locations in the electrical system; and determining an impact of the at least one identified power quality event on one or more of the loads, characterized in that the method further comprises: using the at least one identified power quality event and the determined impact of the at least one identified power quality event to generate or update a tolerance curve associated with the one or more of the loads, wherein the tolerance curve characterizes a tolerance level of the one or more of the loads to certain power quality events.
Holding device for fixing polymeric motor-vehicle bumpers during a machining operation, in particular a punching operation, having - a main frame and - a fixing device for fixing the bumper on the main frame characterised in that the fixing device comprises at least one fixing arm group (4, 5, 6) having at least two independently movable fixing arms (7, 8, 9, 10) for different bumper models, wherein the fixing arms (7, 8, 9, 10) possess different contact contours (7', 8', 9', 10') abutting in the fixing position against the corresponding bumper model and the contact contour (7', 8', 9', 10') of the fixing arms (7, 8, 9, 10) is matched in each case to the local shape of a particular bumper model, and in that in the region of the contact contour (7', 8', 9', 10') the fixing arms (7, 8, 9, 10) each comprise at least one vacuum fixing element which is connected to a, preferably central, vacuum system. - a main frame and - a fixing device for fixing the bumper on the main frame
A process for converting rubber granulates into a carbonized substance comprising the following steps: a) pyrolyzing the rubber granulates at a temperature between 400 and 500° C while introducing liquid water during the pyrolysis, whereby carbonized substance and a gaseous phase are obtained, b) recovering the carbonized substance obtained during step a). a) pyrolyzing the rubber granulates at a temperature between 400 and 500° C while introducing liquid water during the pyrolysis, whereby carbonized substance and a gaseous phase are obtained, b) recovering the carbonized substance obtained during step a).
An apparatus (110,115) comprising: a first electrode (305, 405, 505, 610, 705) and a second electrode (310, 410, 505, 610, 710) configured to provide electrolysis; a probe (300, 400) configured to provide cell membrane permeabilization, the probe (300, 400) comprising at least one of the first electrode (305, 405, 505, 610, 705) or the second electrode (310, 410, 505, 610, 710); a controller configured to control the first electrode (305, 405, 505, 610, 705) and the second electrode (310, 410, 505, 610, 710) to provide electrolysis, and the probe (300, 400) to provide cell membrane permeabilization; and a catheter including the at least one of the first electrode (305, 405, 505, 610, 705) or the second electrode (310, 410, 505, 610, 710). a first electrode (305, 405, 505, 610, 705) and a second electrode (310, 410, 505, 610, 710) configured to provide electrolysis; a probe (300, 400) configured to provide cell membrane permeabilization, the probe (300, 400) comprising at least one of the first electrode (305, 405, 505, 610, 705) or the second electrode (310, 410, 505, 610, 710); a controller configured to control the first electrode (305, 405, 505, 610, 705) and the second electrode (310, 410, 505, 610, 710) to provide electrolysis, and the probe (300, 400) to provide cell membrane permeabilization; and a catheter including the at least one of the first electrode (305, 405, 505, 610, 705) or the second electrode (310, 410, 505, 610, 710).
An arginase activity measurement method, comprising: a step of adding a sample including arginase and a solution including a divalent cation to a reaction vessel, and thereby activating arginase; a step of adding an arginine solution to the sample including the activated arginase, and performing an enzyme-substrate reaction; and a step of adding an acidic solution including α-isonitrosopropiophenone as a urea detection reagent and physiological saline or distilled water to the sample subjected to the enzyme-substrate reaction, and simultaneously performing deactivation of enzyme and a urea detection reaction. a step of adding a sample including arginase and a solution including a divalent cation to a reaction vessel, and thereby activating arginase; a step of adding an arginine solution to the sample including the activated arginase, and performing an enzyme-substrate reaction; and a step of adding an acidic solution including α-isonitrosopropiophenone as a urea detection reagent and physiological saline or distilled water to the sample subjected to the enzyme-substrate reaction, and simultaneously performing deactivation of enzyme and a urea detection reaction.
A pharmaceutical composition comprising a nicotinic acetylcholine receptor (nAChR) agonist selected from the group consisting of -(1-methyl-2-pyrrolidinyl)-pyridine, -(1-methyl-2-pyrrolidinyl)-pyridine, or a mixture thereof, or a pharmaceutically acceptable salt thereof and at least one pharmaceutically acceptable diluent, excipient, or carrier for use in a method of treating or preventing a condition of a nasal or paranasal mucous membrane in a subject in need thereof, the method comprising administering to the nasal or paranasal mucous membrane of the subject a therapeutically effective amount of said pharmaceutical composition, wherein the condition of the nasal or paranasal mucous membrane is selected from the group consisting of hemorrhages and minor bleeding.
An active hearing protection device comprising: a communication device configured to provide active hearing protection to a user; a set of earmuffs connected to the communication device, wherein each earmuff comprises an indicator mechanism configured to indicate to the communication device when the earmuff is inserted into the user's ear; a processor configured to receive information from the set of earmuffs and the indicator mechanisms of the earmuffs, and configured to automatically power the active hearing protection device on or off based on the information received from the indicator mechanisms; wherein the active hearing protection device is configured to power on when each indicator mechanism indicates that the earmuffs are inserted into the user's ears; wherein the indicator mechanisms comprise one or more of the following: a pressure sensor, a push button, a thermal sensor, and an accelerometer. a communication device configured to provide active hearing protection to a user; a set of earmuffs connected to the communication device, wherein each earmuff comprises an indicator mechanism configured to indicate to the communication device when the earmuff is inserted into the user's ear; a processor configured to receive information from the set of earmuffs and the indicator mechanisms of the earmuffs, and configured to automatically power the active hearing protection device on or off based on the information received from the indicator mechanisms; wherein the active hearing protection device is configured to power on when each indicator mechanism indicates that the earmuffs are inserted into the user's ears; wherein the indicator mechanisms comprise one or more of the following: a pressure sensor, a push button, a thermal sensor, and an accelerometer.