mhurhangee/ep-ind-claims huggingface dataset:
A microstructure-transferring stamp comprising the cured product of a UV-curable silicone pressure-sensitive adhesive composition comprising: 100 parts by weight of an organopolysiloxane containing per molecule two groups having the general formula: wherein R 1 is each independently a C 1 -C 20 monovalent hydrocarbon group, R 2 is oxygen or a C 1 -C 20 alkylene group, R 3 is each independently an acryloyloxyalkyl, methacryloyloxyalkyl, acryloyloxyalkyloxy or methacryloyloxyalkyloxy group, p is a number of 0 to 10, and "a" is a number of 1 to 3, 1 to 200 parts by weight of a monofunctional (meth)acrylate compound free of a siloxane structure, 1 to 1,000 parts by weight of an organopolysiloxane resin comprising (a) units having the general formula: wherein R 1, R 2, R 3, a, and p are as defined above, (b) R 4 3 SiO 1/2 units wherein R 4 is a C 1 -C 10 monovalent hydrocarbon group, and (c) SiO 4/2 units, a molar ratio of the total of units (a) and (b) to units (c) being in the range of from 0.4: 1 to 1.2:1, and 0.01 to 20 parts by weight of a photopolymerization initiator, the composition being free of a non-crosslinkable organopolysiloxane resin. 100 parts by weight of an organopolysiloxane containing per molecule two groups having the general formula: wherein R 1 is each independently a C 1 -C 20 monovalent hydrocarbon group, R 2 is oxygen or a C 1 -C 20 alkylene group, R 3 is each independently an acryloyloxyalkyl, methacryloyloxyalkyl, acryloyloxyalkyloxy or methacryloyloxyalkyloxy group, p is a number of 0 to 10, and "a" is a number of 1 to 3, 1 to 200 parts by weight of a monofunctional (meth)acrylate compound free of a siloxane structure, 1 to 1,000 parts by weight of an organopolysiloxane resin comprising (a) units having the general formula: wherein R 1, R 2, R 3, a, and p are as defined above, (b) R 4 3 SiO 1/2 units wherein R 4 is a C 1 -C 10 monovalent hydrocarbon group, and (c) SiO 4/2 units, a molar ratio of the total of units (a) and (b) to units (c) being in the range of from 0.4: 1 to 1.2:1, and 0.01 to 20 parts by weight of a photopolymerization initiator, the composition being free of a non-crosslinkable organopolysiloxane resin.
A method for heating a preform, the method comprising the steps of: providing a plurality of preforms suitable for blow molding; heating each preform; and measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed prior to the heating step; further heating each preform; further measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference to generate a temperature profile; comparing the temperature profile from the further measuring step to a standard temperature profile of each of the plurality of preforms; and blow molding any preform that has an acceptable temperature profile based on the comparing step. providing a plurality of preforms suitable for blow molding; heating each preform; and measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed prior to the heating step; further heating each preform; further measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference to generate a temperature profile; comparing the temperature profile from the further measuring step to a standard temperature profile of each of the plurality of preforms; and blow molding any preform that has an acceptable temperature profile based on the comparing step. inspecting each preform to identify at least a material from which the preform is formed prior to the heating step; further heating each preform; further measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference to generate a temperature profile; comparing the temperature profile from the further measuring step to a standard temperature profile of each of the plurality of preforms; and blow molding any preform that has an acceptable temperature profile based on the comparing step.
A polynucleic acid polymer for use in the treatment or prevention of a disease or condition, wherein: (i) said polynucleic acid polymer hybridizes to a target sequence within a retained entire intron of a partially processed mRNA transcript, wherein the target sequence of the partially processed mRNA transcript does not comprise a splice site, and wherein the partially processed mRNA transcript comprising the target sequence encodes a full-length functional form of a protein as encoded by the fully processed mRNA transcript; and (ii) said polynucleic acid polymer induces splicing out of the retained entire intron from the partially processed mRNA transcript to produce the fully processed mRNA transcript that encodes the full-length functional form of the protein; thereby (iii) intron retention in the mRNA transcript is corrected, thereby increasing expression of the full-length functional form of the protein encoded by the mRNA transcript. (i) said polynucleic acid polymer hybridizes to a target sequence within a retained entire intron of a partially processed mRNA transcript, wherein the target sequence of the partially processed mRNA transcript does not comprise a splice site, and wherein the partially processed mRNA transcript comprising the target sequence encodes a full-length functional form of a protein as encoded by the fully processed mRNA transcript; and (ii) said polynucleic acid polymer induces splicing out of the retained entire intron from the partially processed mRNA transcript to produce the fully processed mRNA transcript that encodes the full-length functional form of the protein; thereby (iii) intron retention in the mRNA transcript is corrected, thereby increasing expression of the full-length functional form of the protein encoded by the mRNA transcript.
An apparatus comprising: a transceiver-and-code-generator module that is configured to be installed in a vehicle, wherein the transceiver-and-code-generator module includes: a Bluetooth transceiver configured to establish a Bluetooth connection with a smartphone; a code generator that is configured to: communicate a secret key to one or more vehicle electronic control units while learning the code generator to the vehicle, subsequently use the secret key to encrypt communications between the code generator and the vehicle, and not store in code-generator memory the secret key in unencrypted form thereby preventing unauthorized access, via the code generator, to the secret key by a person who has access to the vehicle. a Bluetooth transceiver configured to establish a Bluetooth connection with a smartphone; a code generator that is configured to: communicate a secret key to one or more vehicle electronic control units while learning the code generator to the vehicle, subsequently use the secret key to encrypt communications between the code generator and the vehicle, and not store in code-generator memory the secret key in unencrypted form thereby preventing unauthorized access, via the code generator, to the secret key by a person who has access to the vehicle. communicate a secret key to one or more vehicle electronic control units while learning the code generator to the vehicle, subsequently use the secret key to encrypt communications between the code generator and the vehicle, and not store in code-generator memory the secret key in unencrypted form thereby preventing unauthorized access, via the code generator, to the secret key by a person who has access to the vehicle.
A process for energy recovery from organics-containing waste materials, whereby a) the organics-containing waste materials in pre-comminuted form are subjected to a measurement for identifying the constituents and also to determination of the ratio of the fraction of carbonaceous material to the fraction of silicatic material, in order to ensure, by admixing carbonaceous and/or silicatic material where appropriate, that the ratio of carbonaceous to silicatic material is about 90% to about 10% in the waste materials for further processing, b) as the process continues, there is ongoing measurement of the fractions of carbonaceous material and silicatic material, c) the organics-containing waste materials are further comminuted and mixed with additional tectosilicate-containing materials, with continued comminution down into the μ range, d) compacting of the comminuted waste material mixture is carried out, with addition of phyllosilicates, heating of the mixture and separation thereof into individual solid, liquid and gaseous phases under reduced pressure, after which the solids which remain are mixed with further-added phyllosilicates and are pelletized, e) the pellets produced are subjected to pyrolysis, and f) the gaseous substances obtained in this pyrolysis are supplied to a tank and/or to a combined heat and power process, characterised in that g) the solids recovered by the pyrolysis undergo separation of silicatic from carbonaceous materials, with the carbonaceous materials recovered therefrom being stored as end product. a) the organics-containing waste materials in pre-comminuted form are subjected to a measurement for identifying the constituents and also to determination of the ratio of the fraction of carbonaceous material to the fraction of silicatic material, in order to ensure, by admixing carbonaceous and/or silicatic material where appropriate, that the ratio of carbonaceous to silicatic material is about 90% to about 10% in the waste materials for further processing, b) as the process continues, there is ongoing measurement of the fractions of carbonaceous material and silicatic material, c) the organics-containing waste materials are further comminuted and mixed with additional tectosilicate-containing materials, with continued comminution down into the μ range, d) compacting of the comminuted waste material mixture is carried out, with addition of phyllosilicates, heating of the mixture and separation thereof into individual solid, liquid and gaseous phases under reduced pressure, after which the solids which remain are mixed with further-added phyllosilicates and are pelletized, e) the pellets produced are subjected to pyrolysis, and f) the gaseous substances obtained in this pyrolysis are supplied to a tank and/or to a combined heat and power process, g) the solids recovered by the pyrolysis undergo separation of silicatic from carbonaceous materials, with the carbonaceous materials recovered therefrom being stored as end product.
A cooled stator heat shield for a gas turbine, the gas turbine having a rotor defining an axis of rotation, the stator heat shield comprising a plurality of cooling units disposed in array substantially along the axis of rotation and covering the whole hot gas exposed surface of the heat shield,, wherein each of the cooling units comprises an outside part facing hot gas path of the gas turbine, and an inside plate positioned on the outside part and exposed to cooling air, the outside part comprises a cooling air channel formed therein with a first central portion to receive the cooling air and a second spiral portion around the first central portion to convey the cooling air outward to a cooling air outlet of the second spiral portion, characterized in that, the inside plate comprises a plurality of inlet openings formed through the inside plate to introduce the cooling air into the outside part, thereby impingement cooling of the outside part.
Cooling device for cooling at least two separate heat sources, comprising: - a closed circuit in which a diphasic fluid flows, - a single capillary evaporator designed to be positioned in thermal contact with one of the heat sources, known as the primary heat source, - for each other heat source, known as the secondary heat source (15, 20), to be cooled, at least one heat exchanger (14, 19) designed to be positioned in thermal contact with said secondary heat source, - at least one condenser, known as the first condenser, disposed downstream of the evaporator, and upstream of the at least one heat exchanger (14, 19), - at least one condenser, known as the last condenser, disposed upstream of the evaporator and downstream of the at least one heat exchanger (14, 19), these heat exchangers and condensers being dimensioned such that head losses in the circuit are less than the maximum capillary pressure of the capillary evaporator. - a closed circuit in which a diphasic fluid flows, - a single capillary evaporator designed to be positioned in thermal contact with one of the heat sources, known as the primary heat source, - for each other heat source, known as the secondary heat source (15, 20), to be cooled, at least one heat exchanger (14, 19) designed to be positioned in thermal contact with said secondary heat source, - at least one condenser, known as the first condenser, disposed downstream of the evaporator, and upstream of the at least one heat exchanger (14, 19), - at least one condenser, known as the last condenser, disposed upstream of the evaporator and downstream of the at least one heat exchanger (14, 19),
An internal combustion engine, comprising: an intake manifold; a plurality of jumper tubes coupled to the intake manifold and at least one cylinder head, the plurality of jumper tubes each having a passageway and a central axis; the jumper tubes including a first portion coupled to the intake manifold, a third portion coupled to the at least one cylinder head, and a second portion coupled to the first portion and the third portion such that the second portion of the jumper tube can be removed without removing the intake manifold or the at least one cylinder head. an intake manifold; a plurality of jumper tubes coupled to the intake manifold and at least one cylinder head, the plurality of jumper tubes each having a passageway and a central axis; the jumper tubes including a first portion coupled to the intake manifold, a third portion coupled to the at least one cylinder head, and a second portion coupled to the first portion and the third portion such that the second portion of the jumper tube can be removed without removing the intake manifold or the at least one cylinder head.
A compound of formula or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof: wherein E represents -CH 2 -; Q represents -CH 2 -; Z represents hydrogen or methyl; R 11 represents pyrazolyl, which group may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkyl; R 15 represents hydrogen, fluoro, chloro, methyl, trifluoromethyl, methoxy, difluoromethoxy or trifluoromethoxy; and R 16 represents hydrogen, fluoro, chloro, cyano, methyl, trifluoromethyl, difluoromethoxy or amino. E represents -CH 2 -; Q represents -CH 2 -; Z represents hydrogen or methyl; R 11 represents pyrazolyl, which group may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkyl; R 15 represents hydrogen, fluoro, chloro, methyl, trifluoromethyl, methoxy, difluoromethoxy or trifluoromethoxy; and R 16 represents hydrogen, fluoro, chloro, cyano, methyl, trifluoromethyl, difluoromethoxy or amino.
A manufacturing method for a press component in which press working is performed on a metal stock sheet to mold a press component having an L shaped hat shaped cross-section formed from a hat shaped cross-section configured by a top plate section, two vertical walls joined to both sides of the top plate section, and two flanges joined to the two respective vertical walls, and from a curved portion that curves along the longitudinal direction in plan view, or a press component having such an L shaped hat shaped cross-section over a portion thereof, characterized in that the method comprises molding the press component by: placing the metal stock sheet between a punch and a blank holder, and a pad, a die, and a bender; pressing and clamping a portion of the metal stock sheet for forming the top plate section against the punch using the pad, and pressing and clamping a portion of the metal stock sheet that will be further to the outside of the curve portion than the portion of the metal stock sheet for forming the top plate section against the die using the blank holder; and after molding the vertical wall at the inside periphery of the curved portion and the flange portion joined to that vertical wall through working the metal stock sheet by relatively moving the bender in the direction toward where the punch is positioned, molding the vertical wall at the outside periphery of the curved portion and the flange portion joined to that vertical wall, by relatively moving the die and the blank holder in the direction toward where the blank holder is positioned relative to the metal stock sheet and working the metal stock sheet while maintaining the state in which the metal stock sheet is pressed and clamped against the die by the blank holder. placing the metal stock sheet between a punch and a blank holder, and a pad, a die, and a bender; pressing and clamping a portion of the metal stock sheet for forming the top plate section against the punch using the pad, and pressing and clamping a portion of the metal stock sheet that will be further to the outside of the curve portion than the portion of the metal stock sheet for forming the top plate section against the die using the blank holder; and after molding the vertical wall at the inside periphery of the curved portion and the flange portion joined to that vertical wall through working the metal stock sheet by relatively moving the bender in the direction toward where the punch is positioned, molding the vertical wall at the outside periphery of the curved portion and the flange portion joined to that vertical wall, by relatively moving the die and the blank holder in the direction toward where the blank holder is positioned relative to the metal stock sheet and working the metal stock sheet while maintaining the state in which the metal stock sheet is pressed and clamped against the die by the blank holder.
Condensate extraction device for a heat exchanger, comprising: - a condensate discharge opening; - a lock device having a condensate collection chamber, it being possible for the lock device to be arranged in a collection position and in a discharge position; it being possible for the condensate extraction device to be attached to a heat exchanger in such a way that the condensate collection chamber is opened in the collection position toward an interior of the heat exchanger and is closed toward the condensate discharge opening, and in that the condensate collection chamber is closed in the discharge position toward the interior of the heat exchanger and is opened toward the condensate discharge opening, the lock device having a lock capsule in which the condensate discharge opening is formed and which can be connected to the heat exchanger, and the lock device having a lock head element which is arranged in the lock capsule and in which the condensate collection chamber is formed, and which is pivotable in the lock capsule between the collection position and the discharge position, characterized in that the lock device has at least one flushing recess which extends from an outer face of the lock head element toward the condensate collection chamber and is designed to guide a flushing fluid into the condensate collection chamber. - a condensate discharge opening; - a lock device having a condensate collection chamber, it being possible for the lock device to be arranged in a collection position and in a discharge position;
Gas injector for injecting a gaseous fuel, comprising: - a magnetic actuator with an armature, an internal pole and a coil, - a closing element which opens and closes a gas path on a valve seat, the armature being connected to the closing element, - a self-contained lubricant space which is filled with a lubricant and in which the armature is arranged, the lubricant ensuring lubrication of the armature, and - a flexible sealing element which seals the lubricant space with respect to the gas path, characterized in that a braking device is arranged in the lubricant space, which braking device is configured to brake the closing element in the case of a resetting procedure of the gas injector from the open into the closed state, the braking device having a brake bolt and an elastic brake element, it being possible for the brake bolt and the elastic brake element to be brought into an operative connection with the closing element and/or the armature in the case of the resetting procedure, and the closing element being a valve needle which is configured separately from the brake bolt. - a magnetic actuator with an armature, an internal pole and a coil, - a closing element which opens and closes a gas path on a valve seat, the armature being connected to the closing element, - a self-contained lubricant space which is filled with a lubricant and in which the armature is arranged, the lubricant ensuring lubrication of the armature, and - a flexible sealing element which seals the lubricant space with respect to the gas path, characterized
A glass container comprising as container parts i) a glass tube with a first end and a further end, the glass tube having a wall thickness d w; ii) a glass bottom, wherein the glass bottom closes the glass tube at the first end; iii) a curved glass heel extending from an outer area of the glass bottom to the first end of the glass tube; wherein the curved glass heel is defined by an outer radius (r o), an inner radius (r i) and a thickness of the glass (d h) in the curved glass heel and wherein the following condition is fulfilled: d h 3 / r o × d w > 0.8 mm. i) a glass tube with a first end and a further end, the glass tube having a wall thickness d w; ii) a glass bottom, wherein the glass bottom closes the glass tube at the first end; iii) a curved glass heel extending from an outer area of the glass bottom to the first end of the glass tube;