mhurhangee/ep-ind-claims huggingface dataset:
A reaction product UA of at least one cyclic urea U and at least one multifunctional aldehyde A which reaction product has as substituents on the carbonyl carbon atoms of the aldehyde A at least one kind of functional groups selected from the group consisting of hydroxyl groups -OH and alkoxy groups -OR characterised in that the groups -OR comprise alkoxy groups -OR 1 and -OR 2, where R 1 and R 2 are both selected from the group consisting of linear, branched or cyclic alkyl groups having from one to twelve carbon atoms, which may be interrupted by one or more of -O-, -NR"-, -S-, where R" stands for H, or an alkyl group having from one to six carbon atoms, with the proviso that not two -O- or not two -S- atoms may be immediately adjacent, wherein either - R 1 and R 2 are different from each other, and R 2 has at least one carbon atom more than R 1, the reaction product UA being made by a process comprising the steps of a) mixing a multifunctional aldehyde A with a cyclic urea U to effect an addition reaction, optionally, in the presence of a co-solvent which does not react with any of the multifunctional aldehyde A, the cyclic urea U, and the reaction product UA, and further optionally, removing water, b) adding an aliphatic alcohol R 1 -OH, and etherifying under acid conditions c) further etherifying under acid conditions with an added aliphatic alcohol R 2 -OH which has at least one carbon atom in its molecule more that there is in R 1 -OH. - R 1 and R 2 are different from each other, and R 2 has at least one carbon atom more than R 1, the reaction product UA being made by a process comprising the steps of a) mixing a multifunctional aldehyde A with a cyclic urea U to effect an addition reaction, optionally, in the presence of a co-solvent which does not react with any of the multifunctional aldehyde A, the cyclic urea U, and the reaction product UA, and further optionally, removing water, b) adding an aliphatic alcohol R 1 -OH, and etherifying under acid conditions c) further etherifying under acid conditions with an added aliphatic alcohol R 2 -OH which has at least one carbon atom in its molecule more that there is in R 1 -OH. a) mixing a multifunctional aldehyde A with a cyclic urea U to effect an addition reaction, optionally, in the presence of a co-solvent which does not react with any of the multifunctional aldehyde A, the cyclic urea U, and the reaction product UA, and further optionally, removing water, b) adding an aliphatic alcohol R 1 -OH, and etherifying under acid conditions c) further etherifying under acid conditions with an added aliphatic alcohol R 2 -OH which has at least one carbon atom in its molecule more that there is in R 1 -OH.
Computer aided assistance system for use in endoscopic colonoscopy procedures, the assistance system comprising at least one videoendoscopic instrument, a control unit connected with the at least one videoendoscopic instrument and a display device connected or integral with the control unit, said computer aided assistance system being characterised in that the control unit is configured to automatically select a treatment guideline based on a combination of both the size and the classification of a lesion shown by the videoendoscopic instrument and to display the selected treatment guideline on the display device, wherein the control unit, in particular the image analysis subunit, is configured to provide at least one of structured voice interaction functionality and unstructured voice interaction functionality for at least one of - in-procedure reporting, in particular documentation of resected mucosal areas and resection result, - correcting at least one of computer aided detection algorithm findings and computer aided diagnosis algorithm findings and - documenting findings not covered by computer aided detection algorithms and computer aided diagnosis algorithms, and to provide at least one of the following additional functionalities: - providing detection algorithms for detecting endotherapy tools and automatic suppression of CAD overlays when endotherapy tools are detected; - indicating insufficient coverage of mucosal surface to the operator; and - presenting previous reports or findings to the operator for comparison. wherein the control unit, in particular the image analysis subunit, is configured to provide at least one of structured voice interaction functionality and unstructured voice interaction functionality for at least one of - in-procedure reporting, in particular documentation of resected mucosal areas and resection result, - correcting at least one of computer aided detection algorithm findings and computer aided diagnosis algorithm findings and - documenting findings not covered by computer aided detection algorithms and computer aided diagnosis algorithms, - in-procedure reporting, in particular documentation of resected mucosal areas and resection result, - correcting at least one of computer aided detection algorithm findings and computer aided diagnosis algorithm findings and - documenting findings not covered by computer aided detection algorithms and computer aided diagnosis algorithms, and to provide at least one of the following additional functionalities: - providing detection algorithms for detecting endotherapy tools and automatic suppression of CAD overlays when endotherapy tools are detected; - indicating insufficient coverage of mucosal surface to the operator; and - presenting previous reports or findings to the operator for comparison. - providing detection algorithms for detecting endotherapy tools and automatic suppression of CAD overlays when endotherapy tools are detected; - indicating insufficient coverage of mucosal surface to the operator; and - presenting previous reports or findings to the operator for comparison.
An adapter for connecting a motor to a printed circuit board, the adapter comprising: • a base having a motor-facing side and a board-facing side; • motor holding means on the motor-facing side of the base; and • a plurality of electrical and mechanical connectors for making an electrical and mechanical contact with the motor, the adapter being characterised in that the plurality of electrical and mechanical connectors pass through the base from the motor-facing side to the board-facing side, and wherein the connectors on the board-facing side are press fit contacts protruding from the surface of the base on the board-facing side. • a base having a motor-facing side and a board-facing side; • motor holding means on the motor-facing side of the base; and • a plurality of electrical and mechanical connectors for making an electrical and mechanical contact with the motor,
Method of preparing polymer materials based on polydicyclopentadiene including solution of a catalyst in dicyclopentadiene, introduction of modifying additives into the solution, and polymerization of the reaction mixture, wherein compounds with the following general formula are used as the catalyst: where L is substituent selected from the following group: with dicyclopentadiene mixed with the catalysts at catalyst/dicyclopentadiene mole ratios of 1:70000 to 1:1000000, and polymerization is carried out by heating reaction mixture from 30°C up to 200°C, with modifying additives being one or combination of several cyclo-olefin co-monomers selected from the group: cyclo-pentene, cyclo-octene, cyclo-octadiene, norbornene, norbornadiene, in the amount of 5-50 wt.% of modifying additive in ratio to dicyclopentadiene, or with cyclopentadiene oligomers additive in the form of trimers and tetramers mixture in the amount of 5-65 wt.% of dicyclopentadiene, or with such modifiers being esters of dibasic carboxylic acids, primarily, dibutylphthalate and dioctylphthalate in the amount of 5-25 wt.% of dicyclopentadiene, or with such modifiers being alkyl-phenols selected from group: pentaerythritol tetrakis-(3,5-di-tert-butyl-4-hydroxy-cinnamate), 4,4-methylene bis (2,6-di-tert-butyl-phenol), octadecyl 3-(3,5-di-tert-butyl-4-hydroxy-phenyl)proprionate taken in the amount of 1-5 wt.% of dicyclopentadiene, or with such modifiers being used as simultaneous introduction of the following combinations selected from the group: cyclo-olefin and/or cyclo-olefins with alkyl-phenol; cyclo-olefin with an ester of dibasic carboxylic acid and alkyl-phenol; ester of dibasic carboxylic acid with alkyl-phenol, with cyclo-olefin being selected from the group: cyclo -pentene, cyclo-octene, cyclo-octadiene, norbornene, norbornadiene in the amount of 5-50 wt.% of dicyclopentadiene; alkyl-phenol being selected from the group: pentaerythritol tetrakis- (3,5-di-tert-butyl-4-hydroxy-cinnamate, 4,4-methylene bis (2,6-di-tert-butyl-phenol), octadecyl 3-(3,5-di-tert-butyl -4- hydroxy-phenyl)propionate, in the amount of 1-5 wt.% of dicyclopentadiene, and an ester of dibasic carboxylic acid and alkyl-phenol being selected from the group: dibutilphthalate and dioctylphthalate in the amount of 5-25 wt.% of dicyclopentadiene.
A method of adaptively transmitting a data stream over an IP, Internet Protocol, network to a plurality of client devices connected to a common mobile base station, the method being performed by a node and comprising: for at least one respective outgoing data stream being transmitted to a respective client device, analyzing at least one data stream characteristic of a corresponding received data stream of at least one of said respective client devices; determining at least one system characteristic of access technology type or network type; selecting, based at least in part on the analysis, a lower adaptive bitrate, ABR, level; and providing a transmission strategy for applying the selected ABR level per client device for said at least one respective outgoing data stream based on (i) said analyzed data stream characteristics, and (ii) the at least one system characteristic; wherein said transmission strategy is coordinated for ABR for said plurality of client devices connected to the common mobile base station, such that when shared capacity is exhausted, said plurality of client devices are instructed to request retransmission only for audio and images. for at least one respective outgoing data stream being transmitted to a respective client device, analyzing at least one data stream characteristic of a corresponding received data stream of at least one of said respective client devices; determining at least one system characteristic of access technology type or network type; selecting, based at least in part on the analysis, a lower adaptive bitrate, ABR, level; and providing a transmission strategy for applying the selected ABR level per client device for said at least one respective outgoing data stream based on (i) said analyzed data stream characteristics, and (ii) the at least one system characteristic; wherein said transmission strategy is coordinated for ABR for said plurality of client devices connected to the common mobile base station, such that when shared capacity is exhausted, said plurality of client devices are instructed to request retransmission only for audio and images.
A method of forming a tube for a heat exchanger comprising: advancing an expansion tool into a tube a first time; engaging a bullet of the expansion tool with the tube to expand the tube diametrically at least partially along a length of the tube to form an interference fit of the tube with fins of the heat exchanger; and at least partially retracting the expansion tool from the tube; characterised by: advancing the expansion tool into the tube one or more subsequent times; and once the expansion of the tube by the bullet is complete, continuing a stroke of the expansion tool and engaging a bell tool portion of the expansion tool with a tube end of the tube to further expand the tube end in order for the tube end to receive a return bend. advancing an expansion tool into a tube a first time; engaging a bullet of the expansion tool with the tube to expand the tube diametrically at least partially along a length of the tube to form an interference fit of the tube with fins of the heat exchanger; and at least partially retracting the expansion tool from the tube; characterised by: advancing the expansion tool into the tube one or more subsequent times; and once the expansion of the tube by the bullet is complete, continuing a stroke of the expansion tool and engaging a bell tool portion of the expansion tool with a tube end of the tube to further expand the tube end in order for the tube end to receive a return bend. advancing the expansion tool into the tube one or more subsequent times; and once the expansion of the tube by the bullet is complete, continuing a stroke of the expansion tool and engaging a bell tool portion of the expansion tool with a tube end of the tube to further expand the tube end in order for the tube end to receive a return bend.
A process for preparing a fiber-polymer composite product comprising the steps of a) introducing fibers from the blowline or from the housing of a refiner into a flash tube dryer, wherein the fibers originate from refiner pulp, thermomechanical pulp or chemi-thermomechanical pulp production processes; b) separating the dried fibers obtained in step a) from humid air in a cyclone; c) optionally introducing the product of step b) into a mixing unit where additives are added; d) compacting the product of step b) or step c) in a compactor to increase the bulk density and form a compacted fiber material having a bulk density of 100-350 kg/m 3, e) introducing the compacted fiber material into a compounder where the fibers are mixed with at least one polymer; and f) pelletizing the product of step e). a) introducing fibers from the blowline or from the housing of a refiner into a flash tube dryer, wherein the fibers originate from refiner pulp, thermomechanical pulp or chemi-thermomechanical pulp production processes; b) separating the dried fibers obtained in step a) from humid air in a cyclone; c) optionally introducing the product of step b) into a mixing unit where additives are added; d) compacting the product of step b) or step c) in a compactor to increase the bulk density and form a compacted fiber material having a bulk density of 100-350 kg/m 3, e) introducing the compacted fiber material into a compounder where the fibers are mixed with at least one polymer; and f) pelletizing the product of step e).
A convective device, comprising: a first inflatable section having a first opening, a second inflatable section having a second opening, and a flow control device disposed between the first inflatable section and the second inflatable section, the flow control device configured to open when the second inflatable section is inflated with inflating medium and remain closed when the first inflatable section is inflated with inflating medium; wherein the flow control device is disposed proximate the boundaries of the first inflatable section and the second inflatable section; characterised in that the flow control device comprises an air permeable strip and an air impermeable strip, wherein the air permeable strip is formed from an air permeable material. a first inflatable section having a first opening, a second inflatable section having a second opening, and a flow control device disposed between the first inflatable section and the second inflatable section, the flow control device configured to open when the second inflatable section is inflated with inflating medium and remain closed when the first inflatable section is inflated with inflating medium; wherein the flow control device is disposed proximate the boundaries of the first inflatable section and the second inflatable section; characterised in that the flow control device comprises an air permeable strip and an air impermeable strip, wherein the air permeable strip is formed from an air permeable material.
An integrated hermetically sealed turboexpander-generator, comprising: a hermetically sealed casing arrangement (23; 23.1, 23.2); a turboexpander (25; 25.1, 25.2) arranged in the hermetically sealed casing arrangement; a fluid pressurizing turbomachine (27; 27.1, 27.2), arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); and an electric generator, arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); wherein: the turboexpander (25; 25.1, 25.2), the fluid pressurizing turbomachine (27; 27.1, 27.2) and the electric generator are arranged on a common shaft line (31; 31.1, 31.2), comprising at least one shaft rotatingly supported by active magnetic bearings (41, 41.1-41.5) in the hermetically sealed casing arrangement (23; 23.1, 23.2); at least one of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) is arranged between bearings; characterized in that the other of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) comprises a high-pressure machine section (25.1; 27.2) and a low-pressure machine section (25.2), fluidly coupled in sequence and arranged in an overhung configuration at a first end of the shaft line (31; 31.1, 31.2) and at a second end of the shaft line (31; 31.1, 31.2), respectively; and the electric generator and the at least one of the turboexpander (25; 25.1, 25.2) and said fluid pressurizing turbomachine (27; 27.1, 27.2) are arranged between the high-pressure machine section (25.1; 27.2) and the low-pressure machine section (25.2; 27.1). a hermetically sealed casing arrangement (23; 23.1, 23.2); a turboexpander (25; 25.1, 25.2) arranged in the hermetically sealed casing arrangement; a fluid pressurizing turbomachine (27; 27.1, 27.2), arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); and an electric generator, arranged in the hermetically sealed casing arrangement (23; 23.1, 23.2); the turboexpander (25; 25.1, 25.2), the fluid pressurizing turbomachine (27; 27.1, 27.2) and the electric generator are arranged on a common shaft line (31; 31.1, 31.2), comprising at least one shaft rotatingly supported by active magnetic bearings (41, 41.1-41.5) in the hermetically sealed casing arrangement (23; 23.1, 23.2); at least one of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) is arranged between bearings; characterized in that the other of the turboexpander (25; 25.1, 25.2) and the fluid pressurizing turbomachine (27; 27.1, 27.2) comprises a high-pressure machine section (25.1; 27.2) and a low-pressure machine section (25.2), fluidly coupled in sequence and arranged in an overhung configuration at a first end of the shaft line (31; 31.1, 31.2) and at a second end of the shaft line (31; 31.1, 31.2), respectively; and the electric generator and the at least one of the turboexpander (25; 25.1, 25.2) and said fluid pressurizing turbomachine (27; 27.1, 27.2) are arranged between the high-pressure machine section (25.1; 27.2) and the low-pressure machine section (25.2; 27.1).
A method comprising: capturing a plurality of images, each image in the plurality of images corresponding to an angle into which a video surveillance device can be positioned; characterized in that the method additionally comprises; upon receiving user input indicating a desired position of the video surveillance device; displaying one of the plurality of images, the one of the plurality of images corresponding to the desired position of the video surveillance device; receiving user input confirming the one of the plurality of images; and transmitting instructions to the video surveillance device, the instructions containing coordinate information corresponding to the one of the plurality of images. capturing a plurality of images, each image in the plurality of images corresponding to an angle into which a video surveillance device can be positioned; characterized in that the method additionally comprises; upon receiving user input indicating a desired position of the video surveillance device; displaying one of the plurality of images, the one of the plurality of images corresponding to the desired position of the video surveillance device; receiving user input confirming the one of the plurality of images; and transmitting instructions to the video surveillance device, the instructions containing coordinate information corresponding to the one of the plurality of images.
A platform door control apparatus having a plurality of platform doors (a3001, b3002, c3003) provided on a platform and fixed in relation to the platform, wherein the plurality of platform doors (a3001, b3002, c3003) are provided at intervals such that the gate (La, Ra, Lb, Rb, Lc, Rc) of each platform door (a3001, b3002, c3003) is located at a position corresponding to a different train door (a102, b103, c104) of a train having any of a plurality of formations, the gates (La, Ra, Lb, Rb, Lc, Rc) being movable parts, the platform door control apparatus being characterized by comprising: a receiving means for receiving formation information of a train from the train; a storing means for storing information about a distance of moving for opening and closing of a gate (La, Ra, Lb, Rb, Lc, Rc) of each of the platform doors (a3001, b3002, c3003) corresponding to the formation information of each train; and a control apparatus (a4001, b4002, c4003, d4004, e4005) capable of controlling openings of the platform doors (a3001, b3002, c3003) in accordance with train doors (a102, b103, c104) of the trains of a plurality of formations by controlling the distance of moving for opening and closing of a gate (La, Ra, Lb, Rb, Lc, Rc) of each of the platform doors (a3001, b3002, c3003) based on the formation information of the train received by the receiving means and on the information about the distance of moving for opening and closing of a gate (La, Ra, Lb, Rb, Lc, Rc) of each of the platform doors (a3001, b3002, c3003) stored in the storing means. a receiving means for receiving formation information of a train from the train; a storing means for storing information about a distance of moving for opening and closing of a gate (La, Ra, Lb, Rb, Lc, Rc) of each of the platform doors (a3001, b3002, c3003) corresponding to the formation information of each train; and a control apparatus (a4001, b4002, c4003, d4004, e4005) capable of controlling openings of the platform doors (a3001, b3002, c3003) in accordance with train doors (a102, b103, c104) of the trains of a plurality of formations by controlling the distance of moving for opening and closing of a gate (La, Ra, Lb, Rb, Lc, Rc) of each of the platform doors (a3001, b3002, c3003) based on the formation information of the train received by the receiving means and on the information about the distance of moving for opening and closing of a gate (La, Ra, Lb, Rb, Lc, Rc) of each of the platform doors (a3001, b3002, c3003) stored in the storing means.
Fuel cell system with a turbomachine with a turbine and with an air compressor which serves to compress an air mass flow which is fed to at least one fuel cell, and with a cooling air path, via which a cooling air mass flow for cooling the turbomachine is branched off from the compressed air mass flow, a requirement-dependent control means for the compressed cooling air mass flow being provided, the temperature of the cooling air at a cooling air outlet of the turbomachine serving as control variable of the control means, a fluidic resistance being used as actuating variable of the control means in the cooling air path, the throughflow resistance of which fluidic resistance changes in a manner which is dependent on the temperature of the cooling air at the cooling air outlet, in order to meter the compressed cooling air mass flow in a requirement-dependent manner, characterized in that a bimetal matrix is arranged in the cooling air path, which bimetal matrix serves to represent the actuating variable of the control means and comprises bimetals arranged next to one another with different coefficients of thermal expansion, and in that the bimetal matrix is fed cooling air from the cooling air outlet as control variable.