mhurhangee/ep-ind-claims huggingface dataset:
A method of separating an amount of osmium from a mixture comprising the amount of osmium and at least one additional metal, the method comprising: a. contacting the mixture with an oxidizing solution to form a volatile OsO 4 vapor, wherein the oxidizing solution comprises an aqueous solution of an oxidizing agent chosen from NaClO, LiClO, KClO, NalO 4, Na 2 S 4 O 8, XeO 3, NaClO 2, NaClO 3, NaClO 4, NaOH in contact with Cl 2 gas, other alkali salts of ClO -, ClO 2 -, ClO 3 - and ClO 4 -, or combinations thereof, and wherein the mixture is contacted with the oxidizing solution at a temperature ranging from 20°C to 95°C, wherein the mixture is an irradiated Os-190 metal target, the amount of osmium comprises an amount of Os-191, and the at least one additional metal is chosen from Ir-192, Ir-193, Ir-194, Pt-192, Pt-194, and combinations thereof, and wherein the Os-190 metal target is irradiated by a thermal neutron stream; b. bubbling the OsO 4 vapor through a KOH trapping solution to form an amount of K 2 [OsO 4 2] dissolved in the KOH trapping solution; c. contacting the dissolved K 2 [OsO 4 2] with a reducing agent to form an Os precipitate; and d. separating the Os precipitate from the KOH trapping solution. a. contacting the mixture with an oxidizing solution to form a volatile OsO 4 vapor, wherein the oxidizing solution comprises an aqueous solution of an oxidizing agent chosen from NaClO, LiClO, KClO, NalO 4, Na 2 S 4 O 8, XeO 3, NaClO 2, NaClO 3, NaClO 4, NaOH in contact with Cl 2 gas, other alkali salts of ClO -, ClO 2 -, ClO 3 - and ClO 4 -, or combinations thereof, and wherein the mixture is contacted with the oxidizing solution at a temperature ranging from 20°C to 95°C, wherein the mixture is an irradiated Os-190 metal target, the amount of osmium comprises an amount of Os-191, and the at least one additional metal is chosen from Ir-192, Ir-193, Ir-194, Pt-192, Pt-194, and combinations thereof, and wherein the Os-190 metal target is irradiated by a thermal neutron stream; b. bubbling the OsO 4 vapor through a KOH trapping solution to form an amount of K 2 [OsO 4 2] dissolved in the KOH trapping solution; c. contacting the dissolved K 2 [OsO 4 2] with a reducing agent to form an Os precipitate; and d. separating the Os precipitate from the KOH trapping solution.
A wavy disc blade, comprising: a first side; a second side; a generally circular central portion having at least one opening formed therein; a wavy portion adjacent to, extending radially from and circumferentially about the central portion, the wavy portion having a plurality of waves extending from the central portion to an edge portion, the waves forming a plurality of crests and valleys between the central portion and the edge portion; a plurality of teeth formed along the edge portion; and a plurality of notches formed along the edge portion, wherein notches of the plurality of notches are alternately positioned between teeth of the plurality of teeth, each notch of the plurality of notches having one of a first beveled portion formed on the first side of the disc blade or a second beveled portion formed on the second side of the disc blade, wherein the notches include a first set of notches and a second set of notches and the first set of notches includes the first beveled portion and the second set of notches includes the second beveled portion. a first side; a second side; a generally circular central portion having at least one opening formed therein; a wavy portion adjacent to, extending radially from and circumferentially about the central portion, the wavy portion having a plurality of waves extending from the central portion to an edge portion, the waves forming a plurality of crests and valleys between the central portion and the edge portion; a plurality of teeth formed along the edge portion; and a plurality of notches formed along the edge portion, wherein notches of the plurality of notches are alternately positioned between teeth of the plurality of teeth, each notch of the plurality of notches having one of a first beveled portion formed on the first side of the disc blade or a second beveled portion formed on the second side of the disc blade, wherein the notches include a first set of notches and a second set of notches and the first set of notches includes the first beveled portion and the second set of notches includes the second beveled portion.
Dental composition comprising a) carbosilane containing component comprising - at least 1 Si - Aryl bond - at least 1 silicon atom - at least 1 unsaturated moiety being a (meth)acrylate group, - no Si - Oxygen bond b) initiator; c) optionally filler; d) optionally component selected from modifiers, dyes, pigments, thixotropic agents, flow improvers, polymeric thickeners, surfactants, odorous substances, diluting agent(s) and flavourings. a) carbosilane containing component comprising - at least 1 Si - Aryl bond - at least 1 silicon atom - at least 1 unsaturated moiety being a (meth)acrylate group, - no Si - Oxygen bond - at least 1 Si - Aryl bond - at least 1 silicon atom - at least 1 unsaturated moiety being a (meth)acrylate group, - no Si - Oxygen bond b) initiator; c) optionally filler; d) optionally component selected from modifiers, dyes, pigments, thixotropic agents, flow improvers, polymeric thickeners, surfactants, odorous substances, diluting agent(s) and flavourings.
A method of notifying one or more user equipments, UEs of network-connection information within a wireless communications system, comprising: receiving at a server, a network-connection report from a given UE that identifies a type of physical-layer network to which the given UE is connected; and in response to a determination that the given UE is engaged in a communication session with at least one other UE, sending from the server a notification message to the at least one other UE that indicates the type of physical-layer network to which the given UE is connected; and wherein the sending step occurs during an in-call phase of the communication session, and wherein the at least one other UE selectively transitions to the physical layer network to which the given UE is connected, wherein the sending step is triggered if the network-connection report corresponds to a supplemental network-connection report that is sent from the given UE and indicates that the given UE has switched to a different type of physical-layer network during the communication session. receiving at a server, a network-connection report from a given UE that identifies a type of physical-layer network to which the given UE is connected; and in response to a determination that the given UE is engaged in a communication session with at least one other UE, sending from the server a notification message to the at least one other UE that indicates the type of physical-layer network to which the given UE is connected; and wherein the sending step occurs during an in-call phase of the communication session, and wherein the at least one other UE selectively transitions to the physical layer network to which the given UE is connected, wherein the sending step is triggered if the network-connection report corresponds to a supplemental network-connection report that is sent from the given UE and indicates that the given UE has switched to a different type of physical-layer network during the communication session.
A photovoltaic module including an assembly of photovoltaic cells disposed between a front plate and a rear plate, with contacts between interconnection means between the cells and the unwelded cells, and a joint for sealing the plates (2, 3), at least partially gas and moisture tight and delimiting an internal volume under vacuum pressure relative to the atmospheric pressure, the vacuum pressure in the internal volume of the module allowing making the contact between the interconnection means and the photovoltaic cells, characterised in that the internal volume comprises at least one oxygen getter.
A photoacoustic spectrometer for analyzing a plurality of gas components of a gas mixture, comprising an infrared emitter comprising a micro-heating element a measuring cell that can be filled with the gas mixture, and a sound pressure detector, wherein the measuring cell is in the beam path of the infrared emitter, so that the infrared radiation that can be emitted by the infrared emitter can stimulate gas in the measuring cell to form sound pressure waves which can be measured using the sound pressure detector, wherein the infrared emitter comprises a MEMS Fabry-Pérot interferometer which is monolithically integrated on the micro-heating element and enabling a time- and wavelength-dependent modulation of the infrared radiation, characterized in that the infrared emitter comprises at least two substrate layers and is formed by bonding at least two wafers (9, 11), wherein a cover wafer comprises the MEMS Fabry-Pérot interferometer and a device wafer comprises the micro-heating element and wherein the cover wafer has a cavity under which the micro-heating element defined on the device wafer is located after the cover wafer and device wafer have been bonded. an infrared emitter comprising a micro-heating element a measuring cell that can be filled with the gas mixture, and a sound pressure detector, wherein the measuring cell is in the beam path of the infrared emitter, so that the infrared radiation that can be emitted by the infrared emitter can stimulate gas in the measuring cell to form sound pressure waves which can be measured using the sound pressure detector, wherein the infrared emitter comprises a MEMS Fabry-Pérot interferometer which is monolithically integrated on the micro-heating element and enabling a time- and wavelength-dependent modulation of the infrared radiation, characterized in that the infrared emitter comprises at least two substrate layers and is formed by bonding at least two wafers (9, 11), wherein a cover wafer comprises the MEMS Fabry-Pérot interferometer and a device wafer comprises the micro-heating element and wherein the cover wafer has a cavity under which the micro-heating element defined on the device wafer is located after the cover wafer and device wafer have been bonded.
Lubricant composition comprising: a) 20% to 99.5% by weight, based on the total weight of the lubricant composition, of a main oil, wherein the main oil has a solubility of the ionic liquid methyltrioctylammonium bis (fluorosulfonyl) imide of at least 3% by weight at a room temperature of 20°C and wherein the main oil comprises a base oil A in a proportion of at least 50% by weight based on the total weight of the main oil, wherein the base oil A has a solubility for the ionic liquid methyltrioctylammonium bis(fluorosulfonyl)imide of at least 3% by weight at a room temperature of 20°C, b) 0.5% to 80% by weight, based on the total weight of the lubricant composition, of an ionic liquid whose anion is bis(fluorosulfonyl)imide, characterized in that the base oil A is an ester and/or a polyglycol. a) 20% to 99.5% by weight, based on the total weight of the lubricant composition, of a main oil, wherein the main oil has a solubility of the ionic liquid methyltrioctylammonium bis (fluorosulfonyl) imide of at least 3% by weight at a room temperature of 20°C and wherein the main oil comprises a base oil A in a proportion of at least 50% by weight based on the total weight of the main oil, wherein the base oil A has a solubility for the ionic liquid methyltrioctylammonium bis(fluorosulfonyl)imide of at least 3% by weight at a room temperature of 20°C, b) 0.5% to 80% by weight, based on the total weight of the lubricant composition, of an ionic liquid whose anion is bis(fluorosulfonyl)imide,
A die (10, 110) for extrusion coating an elongated substrate, said die (10, 110) comprising: a die block defining at least a portion of a coating cavity, said die block further defining a coating supply channel for supplying a coating material to said coating cavity; a guide plug removably coupled to said die block and defining a substrate inlet for receiving said substrate and directing said substrate towards said coating cavity; and a die plate removably coupled to said die block and defining a substrate outlet for discharging said substrate from said die (10, 110), said substrate outlet having a non-circular lateral cross-section substantially corresponding in shape to the lateral cross-section of said substrate inlet, wherein the term "removably coupled" means that the guide plug and the die plate are capable of being removed from the die block without uncoupling the die block from the coating material source, characterized in that die (10, 110) is configured to maintain a pressure of at least 172369 Pa (25 psi) in the die (10, 110) during the coating process. a die block defining at least a portion of a coating cavity, said die block further defining a coating supply channel for supplying a coating material to said coating cavity; a guide plug removably coupled to said die block and defining a substrate inlet for receiving said substrate and directing said substrate towards said coating cavity; and a die plate removably coupled to said die block and defining a substrate outlet for discharging said substrate from said die (10, 110), said substrate outlet having a non-circular lateral cross-section substantially corresponding in shape to the lateral cross-section of said substrate inlet, wherein the term "removably coupled" means that the guide plug and the die plate are capable of being removed from the die block without uncoupling the die block from the coating material source, characterized in that die (10, 110) is configured to maintain a pressure of at least 172369 Pa (25 psi) in the die (10, 110) during the coating process.
A method of determining whether a head and neck cancer in a human is HPV-related, comprising conducting an RNA in situ hybridization assay on a head and neck cancer sample obtained from said human, wherein said sample is in a tissue section, wherein said ISH assay comprises: (i) more than one target probe sets which are designed to individually hybridize to E6/E7 mRNA of more than one high-risk HPV subtypes, and (ii) a universal signal amplification system, wherein each target probe set contains a plurality of target probes, wherein each target probe within one target probe set comprises a first polynucleotide sequence that is complementary to E6/E7 mRNA of one high-risk HPV subtype, and a second polynucleotide sequence that is complementary to a polynucleotide sequence of the universal signal amplification system, and wherein said second polynucleotide sequence is identical across different target probe sets, and wherein the presence of E6/E7 mRNA of said one or more high-risk HPV subtypes indicates that the head and neck cancer in said human is HPV-related. (i) more than one target probe sets which are designed to individually hybridize to E6/E7 mRNA of more than one high-risk HPV subtypes, and (ii) a universal signal amplification system,
A method of depositing a tin layer on a metal substrate, said method comprising: (a) providing said metal substrate; (b) depositing a nickel/phosphorous alloy underlayer on at least one surface of said metal substrate; (c) depositing said tin layer on said nickel/phosphorous alloy underlayer, wherein said tin layer is deposited comprising using a pulse plating method, wherein said pulse plating method is a unipolar pulse plating method, said unipolar pulse plating method comprising successive pulse periods each comprising a cathodic pulse section and a zero current pulse section, and wherein said cathodic pulse section has a cathodic pulse duration of at least 0.1 s and wherein said zero current pulse section has a zero current pulse duration of at least 0.1 s; wherein said method further comprises: depositing a nickel underlayer on said at least one surface of said substrate prior to depositing said tin layer in said method step (c) and that said nickel underlayer is deposited prior to depositing said nickel/phosphorous alloy underlayer in said method step (b); and (d) depositing a silver or silver alloy top layer on said tin layer. (a) providing said metal substrate; (b) depositing a nickel/phosphorous alloy underlayer on at least one surface of said metal substrate; (c) depositing said tin layer on said nickel/phosphorous alloy underlayer, wherein said tin layer is deposited comprising using a pulse plating method, wherein said pulse plating method is a unipolar pulse plating method, said unipolar pulse plating method comprising successive pulse periods each comprising a cathodic pulse section and a zero current pulse section, and wherein said cathodic pulse section has a cathodic pulse duration of at least 0.1 s and wherein said zero current pulse section has a zero current pulse duration of at least 0.1 s; wherein said method further comprises: depositing a nickel underlayer on said at least one surface of said substrate prior to depositing said tin layer in said method step (c) and that said nickel underlayer is deposited prior to depositing said nickel/phosphorous alloy underlayer in said method step (b); and depositing a nickel underlayer on said at least one surface of said substrate prior to depositing said tin layer in said method step (c) and that said nickel underlayer is deposited prior to depositing said nickel/phosphorous alloy underlayer in said method step (b); and (d) depositing a silver or silver alloy top layer on said tin layer.
Multiple-part rail vehicle with a wagon train comprising a support wagon, which is equipped in each case with running gear at its wagon ends which lie opposite one another, and two gangway connection modules which are connected in each case via gangway bellows to the support wagon on the end sides of the support wagon which lie opposite one another, are configured without running gear, and are supported on the support wagon in an articulated manner, characterized in that a passenger interior compartment of the carrier wagon and at least one part of an interior space of one of the gangway connection modules are configured as one climate control unit, the carrier wagon supporting an air conditioning system for providing conditioned feed air for the climate control unit, and the gangway connection module supporting at least one outgoing air unit for the climate control unit, and the carrier wagon module being free from outgoing air units, and the gangway connection module being free from air-conditioning systems.
A transmitting apparatus that applies a multi-link system employing a logical plurality of communication lines, the transmitting apparatus comprising a transmitting unit that transmits transmission data to a receiving apparatus of a communication partner, wherein the transmitting unit is adapted to monitor changes in transmission rates of each of the communication lines, calculate, for each of the communication lines, based on a transmission time (ΔT3) for first data (a2-c2) transmitted in the past and a deviation (ΔV2) that is a rate difference between a first effective transmission rate during transmission of the first data (a2-c2) and a second effective transmission rate during transmission of second data (a1-c1) transmitted immediately before the transmission of the first data (a2-c2), new transmission rates that are the difference between a rated transmission rate that is the transmission rate of an initial setting of the communication line, and a rate of change (f) that is calculated from the transmission time (ΔT3) and the deviation (ΔV2), and determines, based on a division of data that is to be transmitted by the calculated new transmission rates, allocation amounts to the communication lines for the data that is to be transmitted.
An immediate release tablet pharmaceutical composition comprising Aripiprazole or a pharmaceutical acceptable salt thereof as the active ingredient, pregelatinized starch maize, croscarmellose sodium, magnesium stearate, at least one colorant, maltose in an amount of 25% to 35% by weight to the total weight of the composition, and the water insoluble diluent microcrystalline cellulose, wherein the ratio of maltose to microcrystalline cellulose is in the range of 1:1 to 1:2 by weight.
A method for forming a finished laminate comprising the steps of: providing a laminate material to a lamination machine; providing at least one readable element; implanting the readable element into the laminate material; providing a layment forming machine comprising a readable element detector; providing the laminate comprising the readable element to the layment forming machine, detecting the at least one readable element and precisely positioning the laminate on the layment forming machine to form a layment; removing the layment from the layment forming machine; providing a curing mandrel comprising a readable element detector; directing the layment to the curing mandrel; detecting the at least one readable element and precisely positioning the layment on the curing mandrel; and curing the layment to form a finished laminate; wherein the method further comprises uniquely identifying the laminate using said readable element to provide precise and desired positioning of the laminate for further processing, installation and part identification downstream from lamination processing stations. providing a laminate material to a lamination machine; providing at least one readable element; implanting the readable element into the laminate material; providing a layment forming machine comprising a readable element detector; providing the laminate comprising the readable element to the layment forming machine, detecting the at least one readable element and precisely positioning the laminate on the layment forming machine to form a layment; removing the layment from the layment forming machine; providing a curing mandrel comprising a readable element detector; directing the layment to the curing mandrel; detecting the at least one readable element and precisely positioning the layment on the curing mandrel; and curing the layment to form a finished laminate; wherein the method further comprises uniquely identifying the laminate using said readable element to provide precise and desired positioning of the laminate for further processing, installation and part identification downstream from lamination processing stations.