mhurhangee/patent-ind-claim-en huggingface dataset:
A method for establishing a connection in a wireless communications network comprising, performed by the wireless network : reserving a common connection for use by more than one access terminal, AT, for communications associated with ATs that do not have AT-specific contexts established, wherein the common connection includes i) an A10 connection between an access node, AN, and a packet data switching node, PDSN, and ii) a common mobile Internet Protocol, MIP, tunnel between the PDSN and an Internet Protocol, IP, network side element, wherein said network side element is one of a home agent, HA, or a local mobility anchor, LMA, or a call originator gateway component ; associating the common connection with a network identifier corresponding to an AT ; deleting a network identifier-related context for the AT while maintaining the network identifier ; transmitting a message, based on a call to the AT, via the common connection and based on the network identifier to notify and thereby trigger the AT to establish an AT specific connection corresponding to the AT , wherein the AT specific connection has one or more AT specific contexts or resources; and establishing the specific connection corresponding to the AT for carrying the call based on a response to the message. reserving a common connection for use by more than one access terminal, AT, for communications associated with ATs that do not have AT-specific contexts established, wherein the common connection includes i) an A10 connection between an access node, AN, and a packet data switching node, PDSN, and ii) a common mobile Internet Protocol, MIP, tunnel between the PDSN and an Internet Protocol, IP, network side element, wherein said network side element is one of a home agent, HA, or a local mobility anchor, LMA, or a call originator gateway component ; associating the common connection with a network identifier corresponding to an AT ; deleting a network identifier-related context for the AT while maintaining the network identifier ; transmitting a message, based on a call to the AT, via the common connection and based on the network identifier to notify and thereby trigger the AT to establish an AT specific connection corresponding to the AT , wherein the AT specific connection has one or more AT specific contexts or resources; and establishing the specific connection corresponding to the AT for carrying the call based on a response to the message.
A process for deeply catalytically oxidizing hydrogen sulfide to element sulfur comprises the following steps: providing an isothermal reactor and an adiabatic reactor which are connected in series; wherein the isothermal reactor is filled with a catalyst for selectively catalytically oxidizing the hydrogen sulfide to element sulfur, wherein the catalyst for selectively catalytically oxidizing the hydrogen sulfide to element sulfur comprises components of a mass percent of: 24-34% of iron trioxide, 60-70% of anatase titanium dioxide and a balance which are auxiliary agents; and wherein the adiabatic reactor is filled with a catalyst for burning tail-gas, wherein the catalyst for burning the tail-gas comprises components of a mass percent of: 48-78% of iron trioxide, 18-48% of anatase titanium dioxide and a balance which are auxiliary agents, isothermal reaction: injecting air in a gas mixture at an entrance of the isothermal reactor according to the O 2 /H 2 S mole ratio required by the catalyst for selective oxidation contained therein and selective oxidation of hydrogen sulfide by the catalyst in the isothermal reactor under the following conditions: temperature 150-250°C, a space velocity of 300-2000/h, and an O 2 /H 2 S mole ratio of 0.5-1.5, providing an isothermal reactor and an adiabatic reactor which are connected in series; wherein the isothermal reactor is filled with a catalyst for selectively catalytically oxidizing the hydrogen sulfide to element sulfur, wherein the catalyst for selectively catalytically oxidizing the hydrogen sulfide to element sulfur comprises components of a mass percent of: 24-34% of iron trioxide, 60-70% of anatase titanium dioxide and a balance which are auxiliary agents; and wherein the adiabatic reactor is filled with a catalyst for burning tail-gas, wherein the catalyst for burning the tail-gas comprises components of a mass percent of: 48-78% of iron trioxide, 18-48% of anatase titanium dioxide and a balance which are auxiliary agents, isothermal reaction: injecting air in a gas mixture at an entrance of the isothermal reactor according to the O 2 /H 2 S mole ratio required by the catalyst for selective oxidation contained therein and selective oxidation of hydrogen sulfide by the catalyst in the isothermal reactor under the following conditions: temperature 150-250°C, a space velocity of 300-2000/h, and an O 2 /H 2 S mole ratio of 0.5-1.5,
An image processing method executed by a graphics processor, comprising: down-sampling an input image into smaller images with a smaller resolution than the input image ; concatenating the smaller images; inputting the concatenated smaller images into a convolutional neural network (CNN) comprisinga plurality of convolution and pooling layers and a plurality of groups of fully-connected layers; wherein the plurality of convolution and pooling layers includes a last convolution and pooling layer having a plurality of subsets of nodes, the outputs of each subset of nodes being forwarded to a respective group of fully-connected layers, each group of fully-connected layers providing an output including N-way Softmax functions producing a distribution over N class labels; combining the outputs from each of the groups of fully-connected layers to provide a final classification result; and outputting the final classification result. down-sampling an input image into smaller images with a smaller resolution than the input image ; concatenating the smaller images; inputting the concatenated smaller images into a convolutional neural network (CNN) comprisinga plurality of convolution and pooling layers and a plurality of groups of fully-connected layers; wherein the plurality of convolution and pooling layers includes a last convolution and pooling layer having a plurality of subsets of nodes, the outputs of each subset of nodes being forwarded to a respective group of fully-connected layers, each group of fully-connected layers providing an output including N-way Softmax functions producing a distribution over N class labels; combining the outputs from each of the groups of fully-connected layers to provide a final classification result; and outputting the final classification result.
A current regulation apparatus comprising: a trans unit comprising an auxiliary winding unit ; a first switching unit controlling an operation of the trans unit ; a voltage detection unit detecting a voltage induced to the auxiliary winding unit ; a voltage comparison unit comparing a voltage detected by the voltage detection unit and a reference voltage; a control unit adjusting a turn-on section of the first switching unit according to an output voltage of the voltage comparison unit ; characterized in that it comprises a feedback unit connected to a tap of the auxiliary winding unit to feed back an output voltage of the trans unit to a feedback terminal of the control unit ; and an error voltage detection unit and a feedback unit are connected to the auxiliary winding unit of the trans unit , wherein the error voltage detection unit and the feedback unit are connected to both ends of the auxiliary winding unit, respectively, and wherein the error voltage detection unit comprises the voltage detection unit and the voltage comparison unit , wherein the error voltage detection unit is connected to a first tap of the auxiliary winding unit of the trans unit , the feedback unit is connected to a second tap of the auxiliary winding unit , a center tap of the auxiliary winding unit is grounded, a voltage having polarity opposite to a secondary winding of the trans unit is induced to the first tap of the auxiliary winding unit , and a voltage having the same polarity as the secondary winding of the trans unit is induced to the second tap of the auxiliary winding unit . a trans unit comprising an auxiliary winding unit ; a first switching unit controlling an operation of the trans unit ; a voltage detection unit detecting a voltage induced to the auxiliary winding unit ; a voltage comparison unit comparing a voltage detected by the voltage detection unit and a reference voltage; a control unit adjusting a turn-on section of the first switching unit according to an output voltage of the voltage comparison unit ; characterized in that it comprises a feedback unit connected to a tap of the auxiliary winding unit to feed back an output voltage of the trans unit to a feedback terminal of the control unit ; and an error voltage detection unit and a feedback unit are connected to the auxiliary winding unit of the trans unit , wherein the error voltage detection unit and the feedback unit are connected to both ends of the auxiliary winding unit, respectively, and wherein the error voltage detection unit comprises the voltage detection unit and the voltage comparison unit , wherein the error voltage detection unit is connected to a first tap of the auxiliary winding unit of the trans unit , the feedback unit is connected to a second tap of the auxiliary winding unit , a center tap of the auxiliary winding unit is grounded, a voltage having polarity opposite to a secondary winding of the trans unit is induced to the first tap of the auxiliary winding unit , and a voltage having the same polarity as the secondary winding of the trans unit is induced to the second tap of the auxiliary winding unit .
A device for pulsed electric discharge in a liquid, said device comprising at least a pair of electrodes , configured to be immersed in said liquid, and a voltage generator capable of applying a heating voltage (Vc) between the electrodes of said at least one pair of electrodes for a so-called "heating" period in order to heat the liquid until a pulsed electric discharge is caused in said liquid, said device being characterized in that it further comprises a control module configured to: - control the voltage generator from a predetermined heating voltage set point so that said voltage generator applies a heating voltage (Vc) between the electrodes of said at least one pair of electrodes during the heating period until a pulsed electric discharge is obtained between said electrodes , - measure the voltage across the electrodes in order to determine the breakdown voltage (V B ) at which the pulsed electric discharge occurred, the device being characterized in that the control module is further configured to: - estimate the quantity of energy supplied to the liquid during the heating period, so-called "quantity of heating energy" (E loss ), from the predetermined heating voltage set point (Vc) and the breakdown voltage (V B ) measured, - determine a new heating voltage set point (Vc) to be applied between the electrodes of said at least one pair of electrodes at the next pulsed electric discharge from the heating energy quantity (E loss ) estimated and a predefined breakdown voltage set point (V B ). - control the voltage generator from a predetermined heating voltage set point so that said voltage generator applies a heating voltage (Vc) between the electrodes of said at least one pair of electrodes during the heating period until a pulsed electric discharge is obtained between said electrodes , - measure the voltage across the electrodes in order to determine the breakdown voltage (V B ) at which the pulsed electric discharge occurred, the device being characterized in that the control module is further configured to: - estimate the quantity of energy supplied to the liquid during the heating period, so-called "quantity of heating energy" (E loss ), from the predetermined heating voltage set point (Vc) and the breakdown voltage (V B ) measured, - determine a new heating voltage set point (Vc) to be applied between the electrodes of said at least one pair of electrodes at the next pulsed electric discharge from the heating energy quantity (E loss ) estimated and a predefined breakdown voltage set point (V B ).
A device for managing the supply of electric energy to a user belonging to a community of users (UP1, UP2, ... UPN), said community having available at least one system for producing electric energy from a local source and at least one system for supplying electric energy managed by an external distributor , comprising: • combining means (∑) for combining electric energy coming from said at least one system for producing energy from a local source and from said at least one system for distributing energy managed by an external distributor ; • adjusting means (∑, 320) for adjusting the fraction of electric energy supplied to said user from said local source as a function of the electric energy coming from said local source that must be supplied to the other users of said community of users (UP1, UP2, ... UPN); characterized in that it comprises: • communication means for acquiring a fraction of electric energy supplied to the other users of said community (UP1, UP2, ... UPN) so as to determine the total electric energy absorbed by said other users from said local source , • said adjusting means (∑, 320) being configured to give priority to taking electric energy directly from said system for producing energy from a local source over said at least one system for supplying electric energy managed by an external distributor by supplying to said user at least one unused fraction of the electric energy generated by said local source assigned to one or more other users of said community (UP1, UP2, ... UPN) in case an instantaneous electric energy absorption of said user exceeds said electric energy fraction assigned to said user. • combining means (∑) for combining electric energy coming from said at least one system for producing energy from a local source and from said at least one system for distributing energy managed by an external distributor ; • adjusting means (∑, 320) for adjusting the fraction of electric energy supplied to said user from said local source as a function of the electric energy coming from said local source that must be supplied to the other users of said community of users (UP1, UP2, ... UPN); • communication means for acquiring a fraction of electric energy supplied to the other users of said community (UP1, UP2, ... UPN) so as to determine the total electric energy absorbed by said other users from said local source , • said adjusting means (∑, 320) being configured to give priority to taking electric energy directly from said system for producing energy from a local source over said at least one system for supplying electric energy managed by an external distributor by supplying to said user at least one unused fraction of the electric energy generated by said local source assigned to one or more other users of said community (UP1, UP2, ... UPN) in case an instantaneous electric energy absorption of said user exceeds said electric energy fraction assigned to said user.
Process for producing a lens, comprising the steps of: - preheating a laminated film comprising an outer layer of cellulose triacetate , an intermediate layer of polyvinyl alcohol and an outer layer of polycarbonate (1.1), with different temperatures for the outer layers of the laminated film, - thermoforming the laminated film by carrying out a differentiated heating of the outer layers, - placing the thermoformed film in a lens-shaped mold so that the outer layer of cellulose triacetate extends against one wall of the mold, - injecting polycarbonate into the mold so that the polycarbonate layer (1.1) merges with the injected polycarbonate (1.2) in order to form the mechanical support layer of the lens , - removing the lens thus formed from the mold. - preheating a laminated film comprising an outer layer of cellulose triacetate , an intermediate layer of polyvinyl alcohol and an outer layer of polycarbonate (1.1), with different temperatures for the outer layers of the laminated film, - thermoforming the laminated film by carrying out a differentiated heating of the outer layers, - placing the thermoformed film in a lens-shaped mold so that the outer layer of cellulose triacetate extends against one wall of the mold, - injecting polycarbonate into the mold so that the polycarbonate layer (1.1) merges with the injected polycarbonate (1.2) in order to form the mechanical support layer of the lens , - removing the lens thus formed from the mold.
A separating membrane for use particularly in pressure sensors, for separating between a process fluid and a pressure-transferring fluid, in the form of a thin foil covering an opening into a volume containing the pressure-transferring fluid, the foil being fastened to the edges of the opening, characterized in that the separating membrane is fastened to the edges of the opening in such a manner that, in at least one region of the area thereof, it exhibits one or more bi-stable transition zones with a transition from a concave to a convex bulging, whereby the membrane is able to absorb a volume change of the pressure-transferring fluid through a non-energy requiring translation of the transition, such that in the presence of pressure and temperature conditions resulting in a volume change of the pressure transferring fluid, the transition zone of the membrane will move dynamically in a wave motion back and forth such that the concave and convex bulge will move along the membrane and thereby absorb a volume change of the fluid to be measured.
An aromatic polycarbonate resin molded body, which is obtained by molding a resin molding material comprising an aromatic polycarbonate resin (A), wherein: the aromatic polycarbonate resin (A) is produced by interfacial polycondensation method; the resin molding material comprises at least one selected from a polyether compound (b1) having a polyoxyalkylene structure and an acid-generating compound (b2); the molded body has a thin-walled portion having a thickness of 0.5 mm or less; the molded body has an o-hydroxyacetophenone content of 1 ppm by mass or less and a nitrogen atom content of 15 ppm or less, measured as indicated in the description; and the molded body is free of a coloring agent having an absorption maximum in a wavelength range of from 500 nm to 600 nm, wherein the acid-generating compound (b2) comprises at least one selected from a boronic acid anhydride having an aromatic ring and a sulfonate having an aromatic ring, wherein a content of the polyether compound (b1) is from 0.01 part by mass to 5 parts by mass with respect to 100 parts by mass of the aromatic polycarbonate resin (A), wherein a content of the acid-generating compound (b2) is from 0.0001 part by mass to 0.5 part by mass with respect to 100 parts by mass of the aromatic polycarbonate resin (A), and wherein the absorption maximum is determined using the conditions and equipment described in the description. the aromatic polycarbonate resin (A) is produced by interfacial polycondensation method; the resin molding material comprises at least one selected from a polyether compound (b1) having a polyoxyalkylene structure and an acid-generating compound (b2); the molded body has a thin-walled portion having a thickness of 0.5 mm or less; the molded body has an o-hydroxyacetophenone content of 1 ppm by mass or less and a nitrogen atom content of 15 ppm or less, measured as indicated in the description; and the molded body is free of a coloring agent having an absorption maximum in a wavelength range of from 500 nm to 600 nm, wherein the acid-generating compound (b2) comprises at least one selected from a boronic acid anhydride having an aromatic ring and a sulfonate having an aromatic ring, wherein a content of the polyether compound (b1) is from 0.01 part by mass to 5 parts by mass with respect to 100 parts by mass of the aromatic polycarbonate resin (A), wherein a content of the acid-generating compound (b2) is from 0.0001 part by mass to 0.5 part by mass with respect to 100 parts by mass of the aromatic polycarbonate resin (A), and wherein the absorption maximum is determined using the conditions and equipment described in the description.
An inside spray coating composition comprising: an aqueous carrier; and an emulsion-polymerized latex copolymer dispersed in the aqueous carrier, and comprising: one or more mono-unsaturated monomers each having a single ethylenically-unsaturated group; and one or more multi-unsaturated monomers each having two or more ethylenically-unsaturated groups, wherein the multi-unsaturated monomer(s) each have a divalent chain length with at least two carbon atoms between at least two of the ethylenically-unsaturated groups, and constitute from greater than 5% by weight to 25% by weight of the monomers used to produce the emulsion-polymerized latex copolymer; wherein the coating composition preferably includes less than 1 weight percent, if any, of vegetable oils; wherein the coating composition has an average viscosity ranging from about 5 seconds to about 40 seconds, pursuant to the Viscosity Test in accordance with the description; and wherein the coating composition has a resin solids content ranging from about 10% by weight to about 30% by weight, based on a total weight of the coating composition. an aqueous carrier; and an emulsion-polymerized latex copolymer dispersed in the aqueous carrier, and comprising: one or more mono-unsaturated monomers each having a single ethylenically-unsaturated group; and one or more multi-unsaturated monomers each having two or more ethylenically-unsaturated groups, wherein the multi-unsaturated monomer(s) each have a divalent chain length with at least two carbon atoms between at least two of the ethylenically-unsaturated groups, and constitute from greater than 5% by weight to 25% by weight of the monomers used to produce the emulsion-polymerized latex copolymer; wherein the coating composition preferably includes less than 1 weight percent, if any, of vegetable oils; wherein the coating composition has an average viscosity ranging from about 5 seconds to about 40 seconds, pursuant to the Viscosity Test in accordance with the description; and wherein the coating composition has a resin solids content ranging from about 10% by weight to about 30% by weight, based on a total weight of the coating composition. one or more mono-unsaturated monomers each having a single ethylenically-unsaturated group; and one or more multi-unsaturated monomers each having two or more ethylenically-unsaturated groups, wherein the multi-unsaturated monomer(s) each have a divalent chain length with at least two carbon atoms between at least two of the ethylenically-unsaturated groups, and constitute from greater than 5% by weight to 25% by weight of the monomers used to produce the emulsion-polymerized latex copolymer; wherein the coating composition preferably includes less than 1 weight percent, if any, of vegetable oils; wherein the coating composition has an average viscosity ranging from about 5 seconds to about 40 seconds, pursuant to the Viscosity Test in accordance with the description; and wherein the coating composition has a resin solids content ranging from about 10% by weight to about 30% by weight, based on a total weight of the coating composition.