mhurhangee/patent-ind-claim-en huggingface dataset:
A plant for production of cement clinker, comprising - at least one rotary kiln for sintering the cement clinker from precalcined raw meal , - at least one heat exchanger connected downstream of the rotary kiln in gas flow direction for recuperation of process heat from the at least one rotary kiln , - at least one entrained flow calciner for precalcination (deacidification) of raw meal , - at least one clinker cooler connected downstream of the rotary kiln in material flow direction for cooling of the sintered cement clinker, wherein a conduit for guiding cooler waste air into the plant for recuperation of heat has been provided, characterized in that the entrained flow calciner has been arranged upstream of the heat exchanger in material flow direction. - at least one rotary kiln for sintering the cement clinker from precalcined raw meal , - at least one heat exchanger connected downstream of the rotary kiln in gas flow direction for recuperation of process heat from the at least one rotary kiln , - at least one entrained flow calciner for precalcination (deacidification) of raw meal , - at least one clinker cooler connected downstream of the rotary kiln in material flow direction for cooling of the sintered cement clinker, wherein a conduit for guiding cooler waste air into the plant for recuperation of heat has been provided,
A capsule (100; 200; 300; 400; 500) comprising: a housing (102; 202); a gas generating unit (118; 302) for generating gas (120; 304) in the housing (102; 202); a compressible reservoir (112; 212) sealed relative to the gas generating unit (118; 302) and configured to obtain a substance to be dispensed from the capsule; an opening (108; 208) in the housing (102; 202) providing an outlet for the substance contained in the reservoir (112; 202); and a threshold valve (110; 210) sealing the opening (108; 208) until a pressure in the capsule (100; 200; 300; 400; 500) exceeds a threshold pressure, a deformable membrane forming at least a portion of the compressible reservoir (112; 212), characterized in that : the deformable membrane is configured to extend outside the housing (102; 202) when the threshold valve (110; 210) opens. a housing (102; 202); a gas generating unit (118; 302) for generating gas (120; 304) in the housing (102; 202); a compressible reservoir (112; 212) sealed relative to the gas generating unit (118; 302) and configured to obtain a substance to be dispensed from the capsule; an opening (108; 208) in the housing (102; 202) providing an outlet for the substance contained in the reservoir (112; 202); and a threshold valve (110; 210) sealing the opening (108; 208) until a pressure in the capsule (100; 200; 300; 400; 500) exceeds a threshold pressure, a deformable membrane forming at least a portion of the compressible reservoir (112; 212), characterized in that : the deformable membrane is configured to extend outside the housing (102; 202) when the threshold valve (110; 210) opens.
A process to produce a mono vinyl ether of formula I R-O-CH=CH 2 wherein R represents an organic group with at least three carbon atoms comprising a) reacting a mono hydroxy compound of formula II R-OH wherein R has the above meaning with acetylene in presence of a catalyst to get a product mixture comprising the mono vinyl ether, unconverted mono hydroxy compound and the catalyst b) adding an ester comprising at least one ester group of formula III X-O 2 C- wherein X is a hydrocarbon group comprising less carbon atoms than R to the product mixture obtained in process step a) and reacting the remaining mono hydroxy compound R-OH with the ester in the presence of the catalyst to get a transesterification product comprising at least one ester group of formula IV R-O 2 C- and an alcohol of formula V X-OH wherein R and X have the above meaning and c) isolating the mono vinyl ether from the product mixture obtained after process step b), optionally followed by purification of the mono vinyl ether by distillation. a) reacting a mono hydroxy compound of formula II R-OH wherein R has the above meaning with acetylene in presence of a catalyst to get a product mixture comprising the mono vinyl ether, unconverted mono hydroxy compound and the catalyst wherein R has the above meaning with acetylene in presence of a catalyst to get a product mixture comprising the mono vinyl ether, unconverted mono hydroxy compound and the catalyst b) adding an ester comprising at least one ester group of formula III X-O 2 C- wherein X is a hydrocarbon group comprising less carbon atoms than R to the product mixture obtained in process step a) and reacting the remaining mono hydroxy compound R-OH with the ester in the presence of the catalyst to get a transesterification product comprising at least one ester group of formula IV R-O 2 C- and an alcohol of formula V X-OH wherein R and X have the above meaning and wherein X is a hydrocarbon group comprising less carbon atoms than R to the product mixture obtained in process step a) and reacting the remaining mono hydroxy compound R-OH with the ester in the presence of the catalyst to get a transesterification product comprising at least one ester group of formula IV R-O 2 C- and an alcohol of formula V X-OH wherein R and X have the above meaning and c) isolating the mono vinyl ether from the product mixture obtained after process step b), optionally followed by purification of the mono vinyl ether by distillation.
Blocking element for a roll mantle of a roll line of a continuous casting apparatus comprising a rotatable shaft having a coolant line , whereby the roll mantle is arranged to be supported on said rotatable shaft in a rotationally fixed manner, and whereby said roll mantle comprises at least one coolant channel arranged to be in fluid communication with said coolant line , which coolant channel has at least one fluid inlet and at least one fluid outlet , wherein said blocking element is arranged to be placed in said coolant line to interrupt the flow of coolant in the coolant line in such a way that coolant passes into the roll mantle , characterized in that said blocking element is further arranged to supply coolant to said at least one fluid inlet and to receive coolant from said at least one coolant outlet .
A component for a gas turbine engine comprising: an airfoil having an airfoil body formed of a plastic; and a reinforcement portion , said reinforcement portion having webs formed of a metallic material and extending into said airfoil , wherein said webs are buried within the plastic of said airfoil body , and said airfoil body comprises a passage and a shaft on said reinforcement portion is extending through said passage , characterised in that : said shaft connects trunnions at opposed ends of said shaft , and said trunnions extend outwardly of said airfoil body . an airfoil having an airfoil body formed of a plastic; and a reinforcement portion , said reinforcement portion having webs formed of a metallic material and extending into said airfoil , wherein said webs are buried within the plastic of said airfoil body , and said airfoil body comprises a passage and a shaft on said reinforcement portion is extending through said passage , characterised in that : said shaft connects trunnions at opposed ends of said shaft , and said trunnions extend outwardly of said airfoil body .
A method for processing a web application package, comprising: determining (S201) a resource required by a web application comprising determining a jar package and class information in the jar package, a page rendering control file, and a view resource that are required by the web application; storing (S203) the resource, and determining a resource address corresponding to the resource comprising: storing the page rendering control file and the view resource; obtaining a storage address of the page rendering control file and the view resource; and determining the storage address as the resource address; generating a configuration file of the class information, so that a class loader is established based on the configuration file when the web application package is loaded; and generating (S205) a web application package that comprises the resource address and the configuration file, wherein the web application package does not comprise the resource corresponding to the resource address. determining (S201) a resource required by a web application comprising determining a jar package and class information in the jar package, a page rendering control file, and a view resource that are required by the web application; storing (S203) the resource, and determining a resource address corresponding to the resource comprising: storing the page rendering control file and the view resource; obtaining a storage address of the page rendering control file and the view resource; and determining the storage address as the resource address; storing the page rendering control file and the view resource; obtaining a storage address of the page rendering control file and the view resource; and determining the storage address as the resource address; generating a configuration file of the class information, so that a class loader is established based on the configuration file when the web application package is loaded; and generating (S205) a web application package that comprises the resource address and the configuration file, wherein the web application package does not comprise the resource corresponding to the resource address.
Method for determining parameters for controlling N electric generators at an instant t , said method including, for a required power P tot t = ∑ i = 1 N P i t at an instant t with P i ( t ) the electric power supplied by the electric generator i at the instant t and a reserve power P reserve t ≤ ∑ i = 1 N P i max − P i t × δ i t at an instant t with P i max the maximum power that the electric generator i can develop and δ i ( t ) the coefficient of activation of the electric generator i which is equal to 1 when said electric generator is on and 0 when said electric generator is off, a step of determining the optimal power P i opt ( t ) at the instant t associated with each electric generator i so as to minimise the fuel consumption per unit of electrical energy produced sfc t = 1 P tot t ∑ i = 1 N f i P i t × P i t with f i ( x ) the function giving the fuel consumption of the electric generator i for the electric power x .
An apparatus for positioning single pole segments during the manufacture of stators of dynamoelectric machines formed as an assembly of single pole segments , the apparatus comprising: - a seat configured to seat the assembly of single pole segments ; - an engagement assembly configured to engage first axial ends of the single pole segments and to cause the single pole segments to translate from the seat to a transfer device , the engagement assembly comprising a plurality of engagement members aligned with the seat , each engagement member being arranged to engage a respective first axial end of the respective single pole segment and to move the respective single pole segment towards a reference surface to bring a respective opposite axial end in abutment against said reference surface ; - the transfer device comprising a first holding assembly comprising a first plurality of holding members arranged to clamp the single pole segments at a first position (A) and to hold the single pole segments as an assembly of single pole segments, the transfer device being arranged to move for transferring the assembly of single pole segments from the first position (A) to a second position (B), where a containing assembly is located; and - the containing assembly provided with a second holding assembly comprising a second plurality of holding members configured to hold the assembly of single pole segments; the second holding assembly being positioned on the containing assembly to maintain the assembly of single pole segments in a predetermined position when the single pole segments are located at the containing assembly . - a seat configured to seat the assembly of single pole segments ; - an engagement assembly configured to engage first axial ends of the single pole segments and to cause the single pole segments to translate from the seat to a transfer device , the engagement assembly comprising a plurality of engagement members aligned with the seat , each engagement member being arranged to engage a respective first axial end of the respective single pole segment and to move the respective single pole segment towards a reference surface to bring a respective opposite axial end in abutment against said reference surface ; - the transfer device comprising a first holding assembly comprising a first plurality of holding members arranged to clamp the single pole segments at a first position (A) and to hold the single pole segments as an assembly of single pole segments, the transfer device being arranged to move for transferring the assembly of single pole segments from the first position (A) to a second position (B), where a containing assembly is located; and - the containing assembly provided with a second holding assembly comprising a second plurality of holding members configured to hold the assembly of single pole segments; the second holding assembly being positioned on the containing assembly to maintain the assembly of single pole segments in a predetermined position when the single pole segments are located at the containing assembly .
Guide vane arrangement for a turbomachine , comprising a guide vane blade and a platform , the guide vane blade being arranged on a side (21.1) of the platform facing the gas channel, an opposite side (21.2) of the platform facing away from the gas channel being contoured at least in one region (30.1, 30.2) by elevations and depressions which follow one another in the circumferential direction relative to a longitudinal axis of the turbomachine , and the elevations and depressions on the side (21.2) facing away from the gas channel being determined by a platform thickness which is taken radially in each case, is variable in the circumferential direction and repeatedly increases and decreases with a continuous profile in the circumferential direction , characterized in that the contoured region is in a radially open pocket (44.1,44.2,54.1,54.2) of the platform , which pocket is peripherally surrounded by a side bar in each case. a platform , the guide vane blade being arranged on a side (21.1) of the platform facing the gas channel, an opposite side (21.2) of the platform facing away from the gas channel being contoured at least in one region (30.1, 30.2) by elevations and depressions which follow one another in the circumferential direction relative to a longitudinal axis of the turbomachine , and the elevations and depressions on the side (21.2) facing away from the gas channel being determined by a platform thickness which is taken radially in each case, is variable in the circumferential direction and repeatedly increases and decreases with a continuous profile in the circumferential direction , characterized in that the contoured region is in a radially open pocket (44.1,44.2,54.1,54.2) of the platform , which pocket is peripherally surrounded by a side bar in each case.
A wiring board comprising: an insulating base comprising a main face and a side face; a cutout section having a quadrilateral shape opened in the main face and the side face; an electrode disposed on an inner face of the cutout section ; and a wiring conductor disposed on one of an inner part and a surface of the insulating base , and connected to the electrode , characterised in that a side wall of the cutout section comprises a protruding portion that curves and protrudes outward relative to the side face at a center region in a direction along the side face, wherein the electrode is extended about 0.05 to 0.1 mm into the inner part of the insulating base at a connecting portion with the wiring conductor . an insulating base comprising a main face and a side face; a cutout section having a quadrilateral shape opened in the main face and the side face; an electrode disposed on an inner face of the cutout section ; and a wiring conductor disposed on one of an inner part and a surface of the insulating base , and connected to the electrode , characterised in that a side wall of the cutout section comprises a protruding portion that curves and protrudes outward relative to the side face at a center region in a direction along the side face, wherein the electrode is extended about 0.05 to 0.1 mm into the inner part of the insulating base at a connecting portion with the wiring conductor .
A composition comprising in weight percent (wt%) based on the weight of the composition: (A) 22-42% polypropylene (PP), (B) 50-65% high density polyethylene (HDPE), (C) 7-12% compatibilizer comprising in wt% based on the weight of the compatibilizer: 30-90% olefin block composite comprising ethylene-propylene (EP) copolymer, isotactic polypropylene (iPP), and an EP-iPP diblock polymer, and 10-70% maleic anhydride grafted HDPE (MAH-g-HDPE); and (D) 0.05-5.0% nucleating agent. (A) 22-42% polypropylene (PP), (B) 50-65% high density polyethylene (HDPE), (C) 7-12% compatibilizer comprising in wt% based on the weight of the compatibilizer: 30-90% olefin block composite comprising ethylene-propylene (EP) copolymer, isotactic polypropylene (iPP), and an EP-iPP diblock polymer, and 10-70% maleic anhydride grafted HDPE (MAH-g-HDPE); and 30-90% olefin block composite comprising ethylene-propylene (EP) copolymer, isotactic polypropylene (iPP), and an EP-iPP diblock polymer, and 10-70% maleic anhydride grafted HDPE (MAH-g-HDPE); and (D) 0.05-5.0% nucleating agent.
Device forming a pressure sensor including: - a substrate made of electrical insulation material including a first reservoir , a second reservoir in communication with the first reservoir, Characterized in that : - two internal walls of the second reservoir are each equipped with an electrode ; - a flexible membrane made of an electrical insulation material, including a protuberance and secured to the substrate so as to enable the movement of the protuberance between a position in which it is at a distance from a liquid at least partly filling the first reservoir and at least one second position in which it exerts a pressure on the liquid, thus discharging it at least partially from the first reservoir toward the second reservoir with mechanical contact with the two electrodes, the first reservoir having a shape substantially complementary to the protuberance except on a short distance, said short distance enabling the liquid to be discharged from the first reservoir toward the second reservoir when pressure is applied on the protuberance, said mechanical contact of the liquid with the two electrodes establishing a resistance or capacitance between the two electrodes. - a substrate made of electrical insulation material including a first reservoir , a second reservoir in communication with the first reservoir, - two internal walls of the second reservoir are each equipped with an electrode ; - a flexible membrane made of an electrical insulation material, including a protuberance and secured to the substrate so as to enable the movement of the protuberance between a position in which it is at a distance from a liquid at least partly filling the first reservoir and at least one second position in which it exerts a pressure on the liquid, thus discharging it at least partially from the first reservoir toward the second reservoir with mechanical contact with the two electrodes, the first reservoir having a shape substantially complementary to the protuberance except on a short distance, said short distance enabling the liquid to be discharged from the first reservoir toward the second reservoir when pressure is applied on the protuberance, said mechanical contact of the liquid with the two electrodes establishing a resistance or capacitance between the two electrodes.
A method by a user equipment, UE, for redefining a time alignment timer of a wireless communication network, the method comprising: determining that a Radio Resource Control, RRC, connection from the UE to a network node is operating in Connected Discontinuous Reception, CDRX, mode; transmitting , to the network node , in response to the determining that the RRC connection is operating in CDRX mode, an initial message comprising a Protocol Feature Type, PFT; and receiving , from the network node , in response to the initial message, a handshake message comprising the PFT, and one or more values for redefining a time alignment timer. determining that a Radio Resource Control, RRC, connection from the UE to a network node is operating in Connected Discontinuous Reception, CDRX, mode; transmitting , to the network node , in response to the determining that the RRC connection is operating in CDRX mode, an initial message comprising a Protocol Feature Type, PFT; and receiving , from the network node , in response to the initial message, a handshake message comprising the PFT, and one or more values for redefining a time alignment timer.
Panel machining system , which comprises: a machining device for machining, in particular dividing, large-scale panel-shaped workpieces , at least one stacking station arranged downstream of the machining device in the material flow for stacking machining workpieces , and a control device , characterized in that the panel machining system comprises an output device , which is controlled by the control device and outputs information for operating the panel machining system , in the form of a projector or a laser projection display, the control device controlling the output device such that stacking information regarding the target position and target orientation on the stacking station for a specific machined workpiece is visualized by means of the projector or the laser projection display.
Method for carrying ceramic tiles or slabs along a decoration line, this latter being formed by a plurality of spray decoration stations (S1, S2, S3) arranged in series, in which said ceramic tiles or slabs (P) are intended to enter, pass through and exit with a constant advancement speed, said decoration stations (S, S2, S3) being provided with respective internal conveyors (TS1, TS2, TS3), activated independently from one another, and with at least one independently operated connecting conveyor (TR) provided between said decoration stations (S1, S2, S3) and controlled by a control unit upon suitable consents, said method comprising: positioning at least one of said ceramic tiles or slabs (P) upstream of a first decoration station (S1) belonging to said decoration line (LD), occupying a total space in length less than or equal to the minimum distance between two said consecutive decoration stations (S1, S2, S3); starting introduction and transit of at least one of said ceramic tiles or slabs (P) at the first decoration station (S1) or any of the subsequent decoration stations (S2, S3) only upon receipt of a consent indicative of the absence of further slabs or tiles (P) on the connecting conveyor (TR) directly downstream of the decoration station (S1, S2, S3) involved.