mhurhangee/ep-ind-claims huggingface dataset:
A single dose pharmaceutical preparation of T3 and T4 thyroid hormones, suitable for oral administration, in ready-to-use packaging consisting of a container pre-filled with a water-alcohol solution of hormone T3 and/or T4, said container being one of the following: (a) a container with nominal volume of 1 mL made of one-component LDPE plastic, being contained in a sealed sachet having the following features: stratified film: Polyester 12 micrometers, Al 9 micrometers, Polyethylene 50 micrometers, each of these values ranging by ± 5-6%; oxygen permeability of 0.1-0.2 cc/m 2 /day; water vapour permeability of 0.1-0.2 g/m 2 /day. (b)1: a 5-layer laminated disposable container, transparent or opacified, with thickness of approx. 600 micrometers, consisting of laminated layers of the following materials: LDPE, EVOH, NF408 adhesive. (b)2: a 1.1 mL disposable laminated container, with thickness of approx. 400 micrometers, consisting of layers of the following materials: polyethylene, EVOH, PP, ACLAR ®. (b)3: a 1.1 mL disposable laminated container, with thickness of approx. 300 micrometers, consisting of layers of the following materials: PVC, PVDC, polyethylene. (a) a container with nominal volume of 1 mL made of one-component LDPE plastic, being contained in a sealed sachet having the following features: stratified film: Polyester 12 micrometers, Al 9 micrometers, Polyethylene 50 micrometers, each of these values ranging by ± 5-6%; oxygen permeability of 0.1-0.2 cc/m 2 /day; water vapour permeability of 0.1-0.2 g/m 2 /day. (b)1: a 5-layer laminated disposable container, transparent or opacified, with thickness of approx. 600 micrometers, consisting of laminated layers of the following materials: LDPE, EVOH, NF408 adhesive. (b)2: a 1.1 mL disposable laminated container, with thickness of approx. 400 micrometers, consisting of layers of the following materials: polyethylene, EVOH, PP, ACLAR ®. (b)3: a 1.1 mL disposable laminated container, with thickness of approx. 300 micrometers, consisting of layers of the following materials: PVC, PVDC, polyethylene.
Method for disinfecting air, wherein a disinfectant is dispersed into a volume to be disinfected, wherein the disinfectant comprises electrolyzed and/or sterilized water containing hypochlorous acid, characterized in that a dispersion rate of the disinfectant is adjusted such, that a concentration of the hypochlorous acid in the volume is continuously between 0.05 mg/m 3 and 2.0 mg/m 3.
A curable composition, comprising: a polymerization product comprising a polyorganosiloxane comprising a functional group having an aliphatic unsaturated bond, a siloxane unit of Formula 2 and a siloxane unit of Formula 3, in which a proportion of the siloxane units of Formula 3 with respect to the entire bifunctional siloxane units is from 30 mol% to 65 mol%; and a silicon compound comprising a hydrogen atom binding to a silicon atom: [Formula 2] (R 1 R 2 SiO 2/2) [Formula 3] (R 3 2 SiO 2/2) wherein R 1 and R 2 are each independently an epoxy group or a monovalent hydrocarbon group, and R 3 is an aryl group, and wherein the polymerization product comprises a cyclic compound which comprises a compound of Formula 6 and of which a weight average molecular weight is 800 or less: wherein R a and R b are each independently an epoxy group or a monovalent hydrocarbon group, R c is an aryl group, m is 0 to 10, n is 0 to 10, and the sum of m and n (m+n) is 2 to 20. a polymerization product comprising a polyorganosiloxane comprising a functional group having an aliphatic unsaturated bond, a siloxane unit of Formula 2 and a siloxane unit of Formula 3, in which a proportion of the siloxane units of Formula 3 with respect to the entire bifunctional siloxane units is from 30 mol% to 65 mol%; and a silicon compound comprising a hydrogen atom binding to a silicon atom: [Formula 2] (R 1 R 2 SiO 2/2) [Formula 3] (R 3 2 SiO 2/2) wherein R 1 and R 2 are each independently an epoxy group or a monovalent hydrocarbon group, and R 3 is an aryl group, and wherein the polymerization product comprises a cyclic compound which comprises a compound of Formula 6 and of which a weight average molecular weight is 800 or less: wherein R a and R b are each independently an epoxy group or a monovalent hydrocarbon group, R c is an aryl group, m is 0 to 10, n is 0 to 10, and the sum of m and n (m+n) is 2 to 20.
Process for the preparation of 2,5-furandicarboxylic acid (FDCA) by fermentation comprising fermenting a suitable starting compound to produce an aqueous solution of a salt of FDCA having a pH of at least 7, optionally removing solids from said solution, subsequently freeze crystallizing the said salt of FDCA from said solution at said pH, isolating the said FDCA salt in the form of solid crystals, preparing an aqueous solution of said salt and crystallizing FDCA as the free acid from said solution at an acidic pH in a crystallizer by adding at least one acid to said solution of the salt of FDCA to provide for the acidic pH, wherein the aqueous solution and the acid are added simultaneously to the crystallizer.
A riser assembly (400, 500) for transporting fluids from a sub-sea location, comprising: a riser comprising at least one segment of flexible pipe (103, 403); a plurality of buoyancy compensating elements (511 1-n) connected to the riser and connected together in an in-line configuration to form a mid-line buoyancy section; at least one buoyancy aid (521 1-n) connected to the riser at a position above and spaced apart from the mid-line buoyancy section, the at least one buoyancy aid (521 1-n) forming a first distributed buoyancy section and being sufficiently buoyant to maintain a tension load on the riser between the first distributed buoyancy section and the mid-line line buoyancy section; and at least one further buoyancy compensating element (531 1-n) connected to the riser at a position above and spaced apart from the first distributed buoyancy section to form a second distributed buoyancy section, the second distributed buoyancy section configured to support a portion of the riser in a wave configuration. a riser comprising at least one segment of flexible pipe (103, 403); a plurality of buoyancy compensating elements (511 1-n) connected to the riser and connected together in an in-line configuration to form a mid-line buoyancy section; at least one buoyancy aid (521 1-n) connected to the riser at a position above and spaced apart from the mid-line buoyancy section, the at least one buoyancy aid (521 1-n) forming a first distributed buoyancy section and being sufficiently buoyant to maintain a tension load on the riser between the first distributed buoyancy section and the mid-line line buoyancy section; and at least one further buoyancy compensating element (531 1-n) connected to the riser at a position above and spaced apart from the first distributed buoyancy section to form a second distributed buoyancy section, the second distributed buoyancy section configured to support a portion of the riser in a wave configuration.
An information storage device configured to be installed in a removable device configured to be removably installed in an image forming apparatus body, the image forming apparatus body comprising a pin having a body side earth terminal (573e25), the information storage device comprising: an information storage unit that stores information to be transmitted to the image forming apparatus body; a plurality of metallic terminals (35a1, 35a2, 35a3) disposed on a substrate, constituted to come in contact with body side terminals (573e2) installed in the image forming apparatus body; and an earth terminal constituted to come in contact with the body side earth terminal (573e25); wherein the substrate holds the information storage unit, the plurality of metallic terminals (35al, 35a2, 35a3), and the earth terminal, and the substrate includes an opening (535b21) constituted for insertion of the pin, wherein the earth terminal is between two of the metallic terminals (35a1, 35a2, 35a3) and is constituted to establish the contact to the body side earth terminal (573e25) when the pin is inserted in the opening (535b21). an information storage unit that stores information to be transmitted to the image forming apparatus body; a plurality of metallic terminals (35a1, 35a2, 35a3) disposed on a substrate, constituted to come in contact with body side terminals (573e2) installed in the image forming apparatus body; and an earth terminal constituted to come in contact with the body side earth terminal (573e25); wherein the substrate holds the information storage unit, the plurality of metallic terminals (35al, 35a2, 35a3), and the earth terminal, and the substrate includes an opening (535b21) constituted for insertion of the pin, wherein the earth terminal is between two of the metallic terminals (35a1, 35a2, 35a3) and is constituted to establish the contact to the body side earth terminal (573e25) when the pin is inserted in the opening (535b21).
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid; a first condenser and a second condenser configured to condense the operating fluid; a liquid pipe connecting the evaporator and the first condenser and second condenser; wherein the liquid pipe comprises: a first liquid pipe having a first flow path and connected to the first condenser, a second liquid pipe having a second flow path and connected to the second condenser, and a third liquid pipe having a third flow path connecting to the first flow path and the second flow path and connected to the evaporator, characterised by: a first vapor pipe connecting the evaporator and the first condenser; a second vapor pipe connecting the evaporator and the second condenser, wherein the evaporator, the first vapor pipe, the first condenser, the first liquid pipe and the third liquid pipe are forming a loop-shaped flow path, and wherein the evaporator, the second vapor pipe, the second condenser, the second liquid pipe and the third liquid pipe are forming a loop-shaped flow path. an evaporator configured to vaporize an operating fluid; a first condenser and a second condenser configured to condense the operating fluid; a liquid pipe connecting the evaporator and the first condenser and second condenser; wherein the liquid pipe comprises: a first liquid pipe having a first flow path and connected to the first condenser, a second liquid pipe having a second flow path and connected to the second condenser, and a third liquid pipe having a third flow path connecting to the first flow path and the second flow path and connected to the evaporator, characterised by: a first vapor pipe connecting the evaporator and the first condenser; a second vapor pipe connecting the evaporator and the second condenser, wherein the evaporator, the first vapor pipe, the first condenser, the first liquid pipe and the third liquid pipe are forming a loop-shaped flow path, and wherein the evaporator, the second vapor pipe, the second condenser, the second liquid pipe and the third liquid pipe are forming a loop-shaped flow path. a first liquid pipe having a first flow path and connected to the first condenser, a second liquid pipe having a second flow path and connected to the second condenser, and a third liquid pipe having a third flow path connecting to the first flow path and the second flow path and connected to the evaporator, characterised by: a first vapor pipe connecting the evaporator and the first condenser; a second vapor pipe connecting the evaporator and the second condenser, a first vapor pipe connecting the evaporator and the first condenser; a second vapor pipe connecting the evaporator and the second condenser, wherein the evaporator, the first vapor pipe, the first condenser, the first liquid pipe and the third liquid pipe are forming a loop-shaped flow path, and wherein the evaporator, the second vapor pipe, the second condenser, the second liquid pipe and the third liquid pipe are forming a loop-shaped flow path.
A medical data transmission system including: - a first transceiver coupled to a first computing entity at a first port and configured to detect the presence of and wirelessly receive data from a first medical device, - a second transceiver coupled to the first computing entity at a second port and configured to detect the presence of and wirelessly receive data from a second medical device, and - software running on the first computing entity, characterized in that the software includes: - a first module that simultaneously scans the first and second ports to determine whether the first and/or second transceivers (106; 206) have detected a medical device and - a second module invoked by the first module upon detection of a medical device (104; 204), the second module being configured to execute one of automatic downloading of data from the detected medical device (104; 204) and prompting a user to authorize downloading of data from the detected medical device (104; 204). - a first transceiver coupled to a first computing entity at a first port and configured to detect the presence of and wirelessly receive data from a first medical device, - a second transceiver coupled to the first computing entity at a second port and configured to detect the presence of and wirelessly receive data from a second medical device, and - software running on the first computing entity, characterized in that the software includes: - a first module that simultaneously scans the first and second ports to determine whether the first and/or second transceivers (106; 206) have detected a medical device and - a second module invoked by the first module upon detection of a medical device (104; 204), the second module being configured to execute one of automatic downloading of data from the detected medical device (104; 204) and prompting a user to authorize downloading of data from the detected medical device (104; 204). - a first module that simultaneously scans the first and second ports to determine whether the first and/or second transceivers (106; 206) have detected a medical device and - a second module invoked by the first module upon detection of a medical device (104; 204), the second module being configured to execute one of automatic downloading of data from the detected medical device (104; 204) and prompting a user to authorize downloading of data from the detected medical device (104; 204).
A Radio Access Technology, RAT, controller comprising: a plurality of network interfaces to communicate with a plurality of RAT communication managers, wherein a first RAT communication manager is capable of controlling and/or managing communication in a first network of a first RAT, a second RAT communication manager is capable of controlling and/or managing communication in a second network of a second RAT, the first RAT and the second RAT being different RATs; and controller circuitry configured to receive from the first RAT communication manager of said plurality of RAT communication managers measurement information corresponding to the first network controlled by said first RAT communication manager, to determine, based on said measurement information, traffic steering information corresponding to the second network controlled by the second RAT communication manager of said plurality of RAT communication managers, and to send the traffic steering information to said second RAT communication manager; wherein the RAT controller further comprises a Core Network, CN, interface to receive from a CN user information corresponding to one or more User Equipment, UE, and said controller circuitry is configured to determine said traffic steering information based on said user information. a plurality of network interfaces to communicate with a plurality of RAT communication managers, wherein a first RAT communication manager is capable of controlling and/or managing communication in a first network of a first RAT, a second RAT communication manager is capable of controlling and/or managing communication in a second network of a second RAT, the first RAT and the second RAT being different RATs; and controller circuitry configured to receive from the first RAT communication manager of said plurality of RAT communication managers measurement information corresponding to the first network controlled by said first RAT communication manager, to determine, based on said measurement information, traffic steering information corresponding to the second network controlled by the second RAT communication manager of said plurality of RAT communication managers, and to send the traffic steering information to said second RAT communication manager; wherein the RAT controller further comprises a Core Network, CN, interface to receive from a CN user information corresponding to one or more User Equipment, UE, and said controller circuitry is configured to determine said traffic steering information based on said user information.
A thin-film photovoltaic device in the form of a semi-transparent photovoltaic panel, comprising: - a substrate, - at least a first electrically conductive thin layer forming a first electrical contact of the photovoltaic device on the substrate, - an absorber arranged on the first electrical contact, - at least a second electrically conductive thin layer forming a second electrical contact of the photovoltaic device on the substrate, - a transparent conductive layer arranged on the absorber, the second electrical contact being spaced apart from the first electrical contact, and the transparent conductive layer being in contact with the absorber and the second electrical contact, and wherein the second electrical contact and the first electrical contact are structured in an interleaved manner. - a substrate, - at least a first electrically conductive thin layer forming a first electrical contact of the photovoltaic device on the substrate, - an absorber arranged on the first electrical contact, - at least a second electrically conductive thin layer forming a second electrical contact of the photovoltaic device on the substrate, - a transparent conductive layer arranged on the absorber,
Amonoclonal antibody comprising: (a) a light chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs:13, 14 and 15, respectively, and a heavy chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs:16, 17 and 18; and/or (b) a light chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs: 19, 20 and 21, respectively, and a heavy chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs:22, 23 and 24, respectively; and/or (c) an amino acid sequence comprising SEQ ID NOs: 9 and 11 for the light and heavy chains, respectively; and/or (d) an amino acid sequence comprising SEQ ID NOs:10 and 12 for the light and heavy chains, respectively. (a) a light chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs:13, 14 and 15, respectively, and a heavy chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs:16, 17 and 18; and/or (b) a light chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs: 19, 20 and 21, respectively, and a heavy chain variable region comprising CDR1, CDR2 and CDR3 having sequences as set forth in SEQ ID NOs:22, 23 and 24, respectively; and/or (c) an amino acid sequence comprising SEQ ID NOs: 9 and 11 for the light and heavy chains, respectively; and/or (d) an amino acid sequence comprising SEQ ID NOs:10 and 12 for the light and heavy chains, respectively.
A method of producing electrolytic manganese dioxide having a high discharge capacity at high discharge rates by electrolysis in an electrolytic cell having cathodic and anodic electrodes disposed therein comprising the steps of: maintaining an aqueous electrolyte solution comprising sulfuric acid at a concentration of from 20 to 60 grams of sulfuric acid per litre of solution, and manganese sulfate in the electrolytic cell at a temperature of from 95 °C to 98 °C, the solution having manganese sulfate therein in an amount sufficient to provide manganese ion in an amount of from 5 to 50 grams of manganese ion per litre of solution; maintaining the amount of sulfuric acid and manganese ion in the electrolyte solution at a ratio of sulfuric acid to manganese ion of greater than or equal to 2; and applying electric current to the electrodes to the electrodes to provide an anodic electrode current density of from 26.9 to 64.5 amperes/m 2 (2.5 to 6 amp/ft 2) and the high discharge capacity EMD produced is deposited on the anodic electrode. maintaining an aqueous electrolyte solution comprising sulfuric acid at a concentration of from 20 to 60 grams of sulfuric acid per litre of solution, and manganese sulfate in the electrolytic cell at a temperature of from 95 °C to 98 °C, the solution having manganese sulfate therein in an amount sufficient to provide manganese ion in an amount of from 5 to 50 grams of manganese ion per litre of solution; maintaining the amount of sulfuric acid and manganese ion in the electrolyte solution at a ratio of sulfuric acid to manganese ion of greater than or equal to 2; and applying electric current to the electrodes to the electrodes to provide an anodic electrode current density of from 26.9 to 64.5 amperes/m 2 (2.5 to 6 amp/ft 2) and the high discharge capacity EMD produced is deposited on the anodic electrode.
An emergency lighting device for operating a light source, in particular a LED, wherein the emergency lighting device has: • a battery, • a charging connection to be supplied with a mains supply voltage (Uin) for charging the battery during a charging operation, as well as • a driver circuit supplied during an emergency lighting operation by the battery for operating the light source, wherein a measuring resistor is connected in series to the battery, in order to detect both the battery charging current as well as the battery discharge current as a measurement signal, and wherein a regulation of the detected battery charging current takes place by means of control of a linear regulator or switched-mode regulator connected in series to the battery, characterized in that a regulation of the battery discharge current occurs by means of control of the linear regulator or switched-mode regulator. • a battery, • a charging connection to be supplied with a mains supply voltage (Uin) for charging the battery during a charging operation, as well as • a driver circuit supplied during an emergency lighting operation by the battery for operating the light source,
Spectrometer measuring head for an optical spectrometer system for analysing parameters of liquid, paste-like or solid substances, a rotatably mounted mirror and at least one source of optical radiation or a device which couples out optical radiation being arranged in a housing such that, by flapping the rotatably mounted mirror between two end positions, the optical radiation is incident upon either a reference body in the housing in one end position or the substance, via a window of the housing, in the other end position, and such that the rotatably mounted mirror is mechanically coupled to a translational drive in the housing in order to be flapped between the two end positions, and such that at least one light guide is arranged in the housing such that at least some of the optical radiation reflected or transmitted by the surface either of the reference body or of the substance is coupled into the light guide, characterised in that the rotatably mounted mirror is the first arm of a rocker and in that the drive is coupled to the second arm of the rocker.
A test kit for detection of meningococcal disease, the test comprising a nucleic acid primer set capable of detecting Neisseria meningitides in a LAMP based molecular test, wherein the primer set consists of LAMP SET 3 primers as listed in Table 1, and consists of the sequences defined as SEQUENCE IDs from ID: 11 to ID: 17.