mhurhangee/ep-ind-claims huggingface dataset:
A thermionic electron emitter comprising: an inner part including a heatable flat emission surface; an outer part including a surrounding surface substantially enclosing the emission surface; a heating arrangement for heating the emission surface to a temperature for thermionic electron emission; wherein the heating arrangement comprises two emitter terminals arranged at the inner part at opposing position with respect to the emission surface such that an electrical heating current can be induced in the emission surface by applying a voltage to the emitter terminals; and wherein the surrounding surface is thermally isolated from the emission surface in an isolation region apart from the connection region, characterizen in that the outer part is mechanically connected to the inner part in a connection region opposite to the emission surface with respect to the emitter terminal. an inner part including a heatable flat emission surface; an outer part including a surrounding surface substantially enclosing the emission surface; a heating arrangement for heating the emission surface to a temperature for thermionic electron emission; wherein the heating arrangement comprises two emitter terminals arranged at the inner part at opposing position with respect to the emission surface such that an electrical heating current can be induced in the emission surface by applying a voltage to the emitter terminals; and wherein the surrounding surface is thermally isolated from the emission surface in an isolation region apart from the connection region, characterizen in that the outer part is mechanically connected to the inner part in a connection region opposite to the emission surface with respect to the emitter terminal.
An extract containing phytochemicals from a pomegranate, obtainable by: providing pomegranate solids comprising the pericarp, inner membrane and seeds; creating a mixture comprising the pomegranate solids in an aqueous solution; milling the mixture, heating the mixture to a temperature of about 43°C to 71°C (110°F to 160°F); adding enzymes to the mixture before or after heating, the enzymes being added in an amount sufficient to liberate phytochemicals from plant tissues and/or cells, and the enzymes comprising a combination of pectinase, cellulase, and hemi-cellulase; maintaining the heated mixture at said temperature for about 45 to 195 minutes to allow at least partial degradation of the pomegranate solids; and removing residual insoluble solid materials from the mixture and concentrating the mixture to about 60 to 80 Bx resulting in an extract that contains higher levels of polyphenols than is obtainable from pomegranate juice. providing pomegranate solids comprising the pericarp, inner membrane and seeds; creating a mixture comprising the pomegranate solids in an aqueous solution; milling the mixture, heating the mixture to a temperature of about 43°C to 71°C (110°F to 160°F); adding enzymes to the mixture before or after heating, the enzymes being added in an amount sufficient to liberate phytochemicals from plant tissues and/or cells, and the enzymes comprising a combination of pectinase, cellulase, and hemi-cellulase; maintaining the heated mixture at said temperature for about 45 to 195 minutes to allow at least partial degradation of the pomegranate solids; and removing residual insoluble solid materials from the mixture and concentrating the mixture to about 60 to 80 Bx resulting in an extract that contains higher levels of polyphenols than is obtainable from pomegranate juice.
A catheter comprising an elongated structure, wherein the elongated structure has a distal portion and a proximal portion, wherein the proximal portion comprises a handle, the distal portion comprises a shaft, wherein the shaft comprises a first inner polymer layer bonded to a second outer hydrophobic polymer layer, wherein the second outer hydrophobic polymer layer comprises an ethylene-perfluoroethylenepropylene ("EFEP") copolymer, wherein the EFEP copolymer comprises end functional groups selected from the group consisting of carboxyl groups, carbonate groups, carboxyl halide groups, and carbonyl halide groups, and the first layer comprises a reactive polar polymer, wherein the reactive polar polymer comprises an amine-terminated polar polymer.
A process for producing treated filler comprising: (a) treating a slurry comprising untreated filler wherein said untreated filler has not been previously dried, with a treating composition comprising a treating agent, thereby forming a treated filler slurry; and (b) drying said treated filler slurry to produce treated filler, wherein said treating agent comprises a polymer comprising (i) at least one first group that interacts with said untreated filler and (ii) at least one second group that interacts with a rubber matrix into which said treated filler is incorporated, wherein said untreated filler is chosen from aluminum silicate, silica gel, colloidal silica, precipitated silica, and mixtures thereof; the at least one first group is selected from an ester, carboxylic acid, imide, anhydride, diacid, lactone, oxirane, isocyanate, hydrolysis products thereof, salts thereof, or combinations thereof; and the at least one second group is selected from formyl, keto, thiol, sulfido, halo, amino, alkenyl, alkynyl, alkyl, hydroxyl, anhydride, oxirane, hydrolysis products thereof, salts thereof, or combinations thereof. (a) treating a slurry comprising untreated filler wherein said untreated filler has not been previously dried, with a treating composition comprising a treating agent, thereby forming a treated filler slurry; and (b) drying said treated filler slurry to produce treated filler, wherein said treating agent comprises a polymer comprising (i) at least one first group that interacts with said untreated filler and (ii) at least one second group that interacts with a rubber matrix into which said treated filler is incorporated, wherein said untreated filler is chosen from aluminum silicate, silica gel, colloidal silica, precipitated silica, and mixtures thereof; the at least one first group is selected from an ester, carboxylic acid, imide, anhydride, diacid, lactone, oxirane, isocyanate, hydrolysis products thereof, salts thereof, or combinations thereof; and the at least one second group is selected from formyl, keto, thiol, sulfido, halo, amino, alkenyl, alkynyl, alkyl, hydroxyl, anhydride, oxirane, hydrolysis products thereof, salts thereof, or combinations thereof. wherein said treating agent comprises a polymer comprising (i) at least one first group that interacts with said untreated filler and (ii) at least one second group that interacts with a rubber matrix into which said treated filler is incorporated, wherein said untreated filler is chosen from aluminum silicate, silica gel, colloidal silica, precipitated silica, and mixtures thereof; the at least one first group is selected from an ester, carboxylic acid, imide, anhydride, diacid, lactone, oxirane, isocyanate, hydrolysis products thereof, salts thereof, or combinations thereof; and the at least one second group is selected from formyl, keto, thiol, sulfido, halo, amino, alkenyl, alkynyl, alkyl, hydroxyl, anhydride, oxirane, hydrolysis products thereof, salts thereof, or combinations thereof.
An apparatus (10, 10', 10") for forming an opening device on each one of a number of receiving portions provided on a sheet packaging material for packaging pourable food products and equally spaced to each other in a lengthwise direction of the sheet packaging material itself; said apparatus (10, 10', 10") comprising a molding unit operating at a molding zone of the apparatus (10, 10', 10") and having a first and a second mold (32, 33; 71, 70) selectively set in an open configuration, in which they are spaced from one another to allow feed of said sheet packaging material in said lengthwise direction through the space between the first and the second mold (32, 33) themselves, and in a closed configuration, in which they cooperate with opposite faces of said sheet packaging material and delimit a closed mold cavity housing one of said receiving portions of said sheet packaging material and adapted to be filled with molten plastic material to define, when the plastic material sets, the relative opening device; characterized by further comprising: - feeding means to feed a dose of molten plastic material to said molding zone in said open configuration of said first and second mold (32, 33; 71, 70); and - pressing means carried by said molding unit and exerting pressure on said dose to force it to fill said mold cavity and to form the opening device. - feeding means to feed a dose of molten plastic material to said molding zone in said open configuration of said first and second mold (32, 33; 71, 70); and - pressing means carried by said molding unit and exerting pressure on said dose to force it to fill said mold cavity and to form the opening device.
A working machine comprising: a traveling device to change a traveling speed in accordance with a flow rate of an operation fluid; a traveling operation device to change the flow rate of the operation fluid to be supplied to the traveling device; a switching operation portion to change, at multiple steps, a supply amount of the operation fluid to be supplied to the traveling device, the supply amount corresponding to an operation extent of the traveling operation device, a working device; and a working operation device to operate the working device and to be gripped in being operated, wherein the switching operation portion is arranged in the working operation device, wherein the working operation device includes: a first working operation device arranged on one side of an operator seat; and a second working operation device arranged on the other side of an operator seat, wherein the switching operation portion includes: a speed-down switch arranged in the first working operation device and configured to shift a step down; characterized in that the switching operation portion includes: a speed-up switch arranged in the second working operation device and configured to shift the step up. a traveling device to change a traveling speed in accordance with a flow rate of an operation fluid; a traveling operation device to change the flow rate of the operation fluid to be supplied to the traveling device; a switching operation portion to change, at multiple steps, a supply amount of the operation fluid to be supplied to the traveling device, the supply amount corresponding to an operation extent of the traveling operation device, a working device; and a working operation device to operate the working device and to be gripped in being operated, wherein the switching operation portion is arranged in the working operation device, wherein the working operation device includes: a first working operation device arranged on one side of an operator seat; and a second working operation device arranged on the other side of an operator seat, a first working operation device arranged on one side of an operator seat; and a second working operation device arranged on the other side of an operator seat, wherein the switching operation portion includes: a speed-down switch arranged in the first working operation device and configured to shift a step down; characterized in that the switching operation portion includes: a speed-up switch arranged in the second working operation device and configured to shift the step up. a speed-down switch arranged in the first working operation device and configured to shift a step down; characterized in that the switching operation portion includes: a speed-up switch arranged in the second working operation device and configured to shift the step up.
A touch sensitive display device, comprising: a substrate; a first electrode disposed on the substrate; an emission layer on the first electrode; a second electrode on the emission layer; a capacitive touch sensor disposed on the second electrode; and a conductive layer disposed on the capacitive touch sensor, wherein the capacitive touch sensor comprises a plurality of touch electrodes (T1, T2) having a mesh form, the touch electrodes (T1, T2) comprise a first touch electrode and a second touch electrode; and the second touch electrode is spaced apart from the first touch electrode and forms a capacitance with the first touch electrode, wherein one of the first and second touch electrodes (T1, T2) is a driving electrode, and the remaining one of the first and second touch electrodes (T1, T2) is a receiving electrode, the touch sensitive display device further comprising a sensor control unit to receive corresponding values of a capacitance between the touch electrodes (T1, T2) and a variation of the capacitance between the touch electrodes (T1, T2), wherein the variation of the capacitance between the touch electrodes (T1, T2) is changed by a capacitance between the touch electrodes (T1, T2) and the conductive layer and by a capacitance between the touch electrodes (T1, T2) and the second electrode when a touch is made by a user. and when the conductive layer is touched by the user, the conductive layer is configured to change capacitance between the touch electrodes (T1, T2) of the capacitive touch sensor and the capacitive touch sensor and the user. a substrate; a first electrode disposed on the substrate; an emission layer on the first electrode; a second electrode on the emission layer; a capacitive touch sensor disposed on the second electrode; and a conductive layer disposed on the capacitive touch sensor, wherein the capacitive touch sensor comprises a plurality of touch electrodes (T1, T2) having a mesh form, the touch electrodes (T1, T2) comprise a first touch electrode and a second touch electrode; and the second touch electrode is spaced apart from the first touch electrode and forms a capacitance with the first touch electrode, wherein one of the first and second touch electrodes (T1, T2) is a driving electrode, and the remaining one of the first and second touch electrodes (T1, T2) is a receiving electrode, the touch sensitive display device further comprising a sensor control unit to receive corresponding values of a capacitance between the touch electrodes (T1, T2) and a variation of the capacitance between the touch electrodes (T1, T2), wherein the variation of the capacitance between the touch electrodes (T1, T2) is changed by a capacitance between the touch electrodes (T1, T2) and the conductive layer and by a capacitance between the touch electrodes (T1, T2) and the second electrode when a touch is made by a user. and when the conductive layer is touched by the user, the conductive layer is configured to change capacitance between the touch electrodes (T1, T2) of the capacitive touch sensor and the capacitive touch sensor and the user.
A method for transmitting uplink control information, comprising: determining, by a user equipment, a Physical Uplink Control Channel, PUCCH, switching carrier group and a maximum feedback delay, wherein the PUCCH switching carrier group comprises one licensed primary carrier and N unlicensed carriers, and N is an integer more than or equal to 1; performing, by the user equipment, Listen Before Talk, LBT, detection for the unlicensed carriers in the PUCCH switching carrier group during the maximum feedback delay; and when the LBT detection succeeds, selecting one of the unlicensed carriers to transmit uplink control information; or when the LBT detection fails, transmitting the uplink control information over the licensed primary carrier. determining, by a user equipment, a Physical Uplink Control Channel, PUCCH, switching carrier group and a maximum feedback delay, wherein the PUCCH switching carrier group comprises one licensed primary carrier and N unlicensed carriers, and N is an integer more than or equal to 1; performing, by the user equipment, Listen Before Talk, LBT, detection for the unlicensed carriers in the PUCCH switching carrier group during the maximum feedback delay; and when the LBT detection succeeds, selecting one of the unlicensed carriers to transmit uplink control information; or when the LBT detection fails, transmitting the uplink control information over the licensed primary carrier.
Method for inserting a rotor of a synchronous machine into an interior portion of a stator or for arranging a rotor of a synchronous machine in an exterior portion around a stator when assembling the synchronous machine, wherein the rotor is inserted or arranged on the stator by means of guide elements (5,6,7,8), one fastened on one side on the stator or two on either side, namely at the respective ends or in the end portions of the stator, and two guide elements (5,6,7,8) fastened on the rotor, thus respectively one at the first or upper end and one at the second or lower end of the rotor, and wherein, after the vertical insertion or arrangement of the rotor, one or multiple upper guide elements (5,7), in relation to the vertical position, are removed, in particular so that the rotor, preferably guided by at least one insertion chamfer at a centring rim of the one or multiple guide elements (5,7) on one side of the stator, characterised in that the synchronous machine, after the vertical insertion or arrangement of the rotor or the removal of the one or multiple upper guide elements (5, 7), is brought into a horizontal position and one or multiple lower guide elements (6, 8) are removed in particular so that the rotor, preferably guided by at least one insertion chamfer on the centring rim of the one or the multiple guide elements (6, 8), locates on one side of the stator and that, after removal of the one or multiple lower guide elements (6, 8) on the corresponding side of the stator, at least one bearing or bearing plate is fitted wherein, in particular due to at least one chamfer on a bearing plate, the rotor is returned to a central position.
A computer system for authorizing a user to process data received from one or more devices (1101, 1102, 1103, 1104) comprising: - an interface component configured to receive said data, - an application component configured to receive requests from the user, wherein said requests comprise one or more requests to perform data processing operations on at least a subset of said data, - a data storage and data access component (1070, 1080) configured to store and access said data, - one or more evaluation components (1030, 1110) configured to process said data and - an authorization component configured to grant or deny to the user access to process at least a subset of said data, said grant or denial being based on user-specific data stored in a user directory for a registered user, and further being based on device-specific data related to said requested data, wherein said user-specific data comprise: - data on a geographical location associated with the user and data on the type of a device to which type the user is authorized to get access, and wherein said device-specific data comprise: - device-specific data on the geographical location and the type of the device of the plurality of devices, and - device-specific time data reflecting the location history of one or more respective particular devices via time intervals specifying the time during which the one or more particular devices were operated at respective particular locations; the authorization component further configured to check whether said device-specific geographical location and type of device match with respective user-specific data, and to check if the requested data to be processed have associated time intervals matching with the device-specific time data, wherein access to the requested data is granted for requested data in time intervals associated with the user-specific data. - an interface component configured to receive said data, - an application component configured to receive requests from the user, wherein said requests comprise one or more requests to perform data processing operations on at least a subset of said data, - a data storage and data access component (1070, 1080) configured to store and access said data, - one or more evaluation components (1030, 1110) configured to process said data and - an authorization component configured to grant or deny to the user access to process at least a subset of said data, said grant or denial being based on user-specific data stored in a user directory for a registered user, and further being based on device-specific data related to said requested data, - data on a geographical location associated with the user and data on the type of a device to which type the user is authorized to get access, and - device-specific data on the geographical location and the type of the device of the plurality of devices, and - device-specific time data reflecting the location history of one or more respective particular devices via time intervals specifying the time during which the one or more particular devices were operated at respective particular locations;
A resist coating method, comprising: moving a nozzle on a substrate by a nozzle moving mechanism, wherein at least two rows of resists injection holes (201, 202) are included in the nozzle and the two adjacent rows of resist injection holes (201, 202) are separated by a spacer, and opening each row of resist injection holes (201, 202) in the nozzle successively in a direction opposite to the moving direction of the nozzle for resist application;, characterized in that an extension portion of the spacer extends from a plane in which openings of the resist injection holes (201, 202) are provided and forming a height difference between a top end of extension portion and the plane, and a first row of the two adjacent rows of resist injection holes (201, 202) is firstly opened to form a resist coating start region of a first layer of resist, a protection film is formed in a top surface of the resist coating start region through volatilization of a solution in the first layer of resist, and then a second row of the two adjacent rows of resist injection holes (201, 202) is opened to form a second layer of resist, wherein delamination of the first layer of resist and the second layer of resist occurs in the resist coating start region due to the protection film formed in the top surface of the resist coating start region. moving a nozzle on a substrate by a nozzle moving mechanism, wherein at least two rows of resists injection holes (201, 202) are included in the nozzle and the two adjacent rows of resist injection holes (201, 202) are separated by a spacer, and opening each row of resist injection holes (201, 202) in the nozzle successively in a direction opposite to the moving direction of the nozzle for resist application;, characterized in that an extension portion of the spacer extends from a plane in which openings of the resist injection holes (201, 202) are provided and forming a height difference between a top end of extension portion and the plane, and a first row of the two adjacent rows of resist injection holes (201, 202) is firstly opened to form a resist coating start region of a first layer of resist, a protection film is formed in a top surface of the resist coating start region through volatilization of a solution in the first layer of resist, and then a second row of the two adjacent rows of resist injection holes (201, 202) is opened to form a second layer of resist, wherein delamination of the first layer of resist and the second layer of resist occurs in the resist coating start region due to the protection film formed in the top surface of the resist coating start region.