mhurhangee/ep-ind-claims huggingface dataset:
A circuit comprising: a plurality of direct current voltage inputs including at least one shared terminal; a primary transformer winding (L 1, L 3, L 5) including a high voltage end and a low voltage end, said primary transformer winding with a tap operatively connected to said at least one shared terminal through a first switch (G 4); a secondary transformer winding (L 2, L 4, L 6) including a high voltage end and a low voltage end, said secondary transformer winding electromagnetically coupled to said primary transformer winding, said secondary transformer winding with a tap operatively connected to said at least one shared terminal through a second switch (G 3); and a direct current voltage output terminal connecting said high voltage ends of said primary and secondary transformer windings. a plurality of direct current voltage inputs including at least one shared terminal; a primary transformer winding (L 1, L 3, L 5) including a high voltage end and a low voltage end, said primary transformer winding with a tap operatively connected to said at least one shared terminal through a first switch (G 4); a secondary transformer winding (L 2, L 4, L 6) including a high voltage end and a low voltage end, said secondary transformer winding electromagnetically coupled to said primary transformer winding, said secondary transformer winding with a tap operatively connected to said at least one shared terminal through a second switch (G 3); and a direct current voltage output terminal connecting said high voltage ends of said primary and secondary transformer windings.
A method, in a wireless terminal, for a handover of a sub-set of bearers associated with the wireless terminal, said sub-set of bearers being less than all bearers associated with the wireless terminal, the method comprising: receiving, from a source or a target base station, a message, said message indicating that a handover procedure will take place for an identified sub-set of bearers; and characterised by handing over the identified sub-set of bearers to the target base station, wherein at least one bearer associated with the wireless terminal, which is not part of the identified sub-set of bearers, remains connected to the source base station. receiving, from a source or a target base station, a message, said message indicating that a handover procedure will take place for an identified sub-set of bearers; and characterised by handing over the identified sub-set of bearers to the target base station,
A fuser assembly for a xerographic apparatus, comprising: a fuser belt; a first roll supporting the fuser belt, the first roll including a first heating element extending axially along the first roll and along a width of the fuser belt; and a second roll supporting the fuser belt, the second roll including a third heating element extending axially along the second roll and along the width of the fuser belt, characterized by: the first roll including a second heating element extending axially along the first roll and along the width of the fuser belt, the first heating element being longer than the second heating element; and the second roll including a fourth heating element extending axially along the second roll and along the width of the fuser belt, the third heating element being longer than the fourth heating element; wherein the first and third heating elements have the same length; and the second and fourth heating elements have different lengths. a fuser belt; a first roll supporting the fuser belt, the first roll including a first heating element extending axially along the first roll and along a width of the fuser belt; and a second roll supporting the fuser belt, the second roll including a third heating element extending axially along the second roll and along the width of the fuser belt, characterized by: the first roll including a second heating element extending axially along the first roll and along the width of the fuser belt, the first heating element being longer than the second heating element; and the second roll including a fourth heating element extending axially along the second roll and along the width of the fuser belt, the third heating element being longer than the fourth heating element; wherein the first and third heating elements have the same length; and the second and fourth heating elements have different lengths. the first roll including a second heating element extending axially along the first roll and along the width of the fuser belt, the first heating element being longer than the second heating element; and the second roll including a fourth heating element extending axially along the second roll and along the width of the fuser belt, the third heating element being longer than the fourth heating element; wherein the first and third heating elements have the same length; and the second and fourth heating elements have different lengths. the first and third heating elements have the same length; and the second and fourth heating elements have different lengths.
An imaging work station comprising: one or more processors programmed to: receive an image depicting a distribution of a radiotracer in a region of interest; register the image to a common space defined by a template or an MRI image of the region of interest which includes a segmented anatomical feature; and extract a volume representation of the image which depicts the distribution of the radiotracer in the segmented anatomical feature and suppresses the radiotracer outside of the segmented anatomical feature, wherein the anatomical feature segmentation represents a probability that indicates the presence of gray matter in each voxel and the processor extracts the volume representation by combining each voxel of the image with the probability of the voxel being gray matter wherein the processor is further programmed to: calculate a surface projection image by projecting voxel values of the volume representation onto a brain surface, wherein the calculation of the surface projection includes a weighing based on said probability. receive an image depicting a distribution of a radiotracer in a region of interest; register the image to a common space defined by a template or an MRI image of the region of interest which includes a segmented anatomical feature; and extract a volume representation of the image which depicts the distribution of the radiotracer in the segmented anatomical feature and suppresses the radiotracer outside of the segmented anatomical feature, wherein the anatomical feature segmentation represents a probability that indicates the presence of gray matter in each voxel and the processor extracts the volume representation by combining each voxel of the image with the probability of the voxel being gray matter wherein the processor is further programmed to: calculate a surface projection image by projecting voxel values of the volume representation onto a brain surface, wherein the calculation of the surface projection includes a weighing based on said probability.
A method for upgrading a hydrocarbon containing mercaptans, comprising: (a) contacting the hydrocarbon under substantially anaerobic conditions with a first phase of a treatment composition containing water, alkali metal hydroxide, cobalt phthalocyanine sulfonate, and alkylphenols and having at least two phases, (i) the first phase containing dissolved alkali metal alkylphenylate, dissolved alkali metal hydroxide, water, and dissolved sulfonated cobalt phthalocyanine, and (ii) the second phase containing water and dissolved alkali metal hydroxide; (b) extracting mercaptan sulfur from the hydrocarbon to the first phase; (c) separating an upgraded hydrocarbon; (d) conducting an oxidizing amount oxygen and the first phase containing mercaptan sulfur to an oxidizing region and oxidizing the mercaptan sulfur to disulfides; (e) separating the disulfides from the first phase; and then (f) conducting the first phase to step (a) for re-use. (a) contacting the hydrocarbon under substantially anaerobic conditions with a first phase of a treatment composition containing water, alkali metal hydroxide, cobalt phthalocyanine sulfonate, and alkylphenols and having at least two phases, (i) the first phase containing dissolved alkali metal alkylphenylate, dissolved alkali metal hydroxide, water, and dissolved sulfonated cobalt phthalocyanine, and (ii) the second phase containing water and dissolved alkali metal hydroxide; (i) the first phase containing dissolved alkali metal alkylphenylate, dissolved alkali metal hydroxide, water, and dissolved sulfonated cobalt phthalocyanine, and (ii) the second phase containing water and dissolved alkali metal hydroxide; (b) extracting mercaptan sulfur from the hydrocarbon to the first phase; (c) separating an upgraded hydrocarbon; (d) conducting an oxidizing amount oxygen and the first phase containing mercaptan sulfur to an oxidizing region and oxidizing the mercaptan sulfur to disulfides; (e) separating the disulfides from the first phase; and then (f) conducting the first phase to step (a) for re-use.
A gas chromatography apparatus, comprising: an analytical column; a sample gas introduction device communicating with the analytical column; a gas pressure controller comprising a carrier gas inlet, a carrier gas outlet communicating with the sample gas introduction device, and a gas pressure reference outlet; a gas detector comprising a sample gas inlet communicating with the analytical column and a sample gas outlet; a gas buffer vessel communicating with the gas pressure reference outlet and the sample gas outlet, the gas buffer vessel comprising a gas buffer outlet; and a gas outlet valve configured for switching the gas buffer outlet between an open condition in which the pressure controller, the detector and the gas buffer vessel are in fluid communication with an ambient environment surrounding the gas chromatography apparatus, and a closed condition in which the pressure controller, the detector and the gas buffer vessel are fluidly isolated from the ambient environment. an analytical column; a sample gas introduction device communicating with the analytical column; a gas pressure controller comprising a carrier gas inlet, a carrier gas outlet communicating with the sample gas introduction device, and a gas pressure reference outlet; a gas detector comprising a sample gas inlet communicating with the analytical column and a sample gas outlet; a gas buffer vessel communicating with the gas pressure reference outlet and the sample gas outlet, the gas buffer vessel comprising a gas buffer outlet; and a gas outlet valve configured for switching the gas buffer outlet between an open condition in which the pressure controller, the detector and the gas buffer vessel are in fluid communication with an ambient environment surrounding the gas chromatography apparatus, and a closed condition in which the pressure controller, the detector and the gas buffer vessel are fluidly isolated from the ambient environment.
A method for detecting the presence of a portable communication device in a vehicle, the method comprising: detecting, with an electronic processor of the portable communication device, that the portable communication device is receiving wireless power from a wireless charger located in the vehicle; establishing a short-range wireless connection between the portable communication device and a vehicle control head; and sending a message from the portable communication device to the vehicle control head to transfer control of channel selection for the portable communication device to the vehicle control head, such that controls of the vehicle control head may be used to select a channel of the portable communication device. detecting, with an electronic processor of the portable communication device, that the portable communication device is receiving wireless power from a wireless charger located in the vehicle; establishing a short-range wireless connection between the portable communication device and a vehicle control head; and sending a message from the portable communication device to the vehicle control head to transfer control of channel selection for the portable communication device to the vehicle control head, such that controls of the vehicle control head may be used to select a channel of the portable communication device.
An apparatus for a serving network node, comprising means for computing (200, 300) at least one beam camp time of at least one user equipment based on at least one metric; means for signaling (202, 302) the at least one beam camp time to the at least one user equipment; means for transmitting (200, 304) to at least one network node, at least one user equipment identifier, the at least one beam camp time, and at least one radio beacon parameterization for the at least one user equipment; means for receiving, from the at least one network node, at least one updated relative timing for the at least one user equipment, after transmitting to the at least one network node; and means for performing (210, 306) at least one beam reselection for the at least one user equipment based on at least one updated relative timing for the at least one user equipment. means for computing (200, 300) at least one beam camp time of at least one user equipment based on at least one metric; means for signaling (202, 302) the at least one beam camp time to the at least one user equipment; means for transmitting (200, 304) to at least one network node, at least one user equipment identifier, the at least one beam camp time, and at least one radio beacon parameterization for the at least one user equipment; means for receiving, from the at least one network node, at least one updated relative timing for the at least one user equipment, after transmitting to the at least one network node; and means for performing (210, 306) at least one beam reselection for the at least one user equipment based on at least one updated relative timing for the at least one user equipment.
A method for in-substrate tinting of a spectacle lens substrate, the method comprising the following steps: - S1: providing a spectacle lens substrate comprising a polymeric lens material, - S2: providing a composition comprising a polymeric carrier material, - S3: applying a pattern of the composition on a surface of the spectacle lens substrate, and - S4: heating the spectacle lens substrate to allow for diffusion of a dye substance between the carrier material and the lens material, characterized in that a congealing point Tc(carrier) of the carrier material is above a glass transition temperature Tg(lens) of the lens material. - S1: providing a spectacle lens substrate comprising a polymeric lens material, - S2: providing a composition comprising a polymeric carrier material, - S3: applying a pattern of the composition on a surface of the spectacle lens substrate, and - S4: heating the spectacle lens substrate to allow for diffusion of a dye substance between the carrier material and the lens material,
Autoprovisioning system of at least one service in at least one application server of at least one IMS architecture, the IMS architecture comprising at least one user authentication server, referred to as HSS, including processing means accessing at least one database which stores at least data relating to the authorisation for access by users to various services supported by the IMS architecture these data being indexed according to at least one public identifier, referred to as IMPU, of the users, and at least one application server including processing means arranged to supply at least one service to the users and to access at least one database storing at least data relating to the users authorised to access said service, indexed according to at least one public identifier of the users, the HSS and the application server communicating via notifications standardised according to a standard protocol, the processing means of the HSS also being arranged in order, on the one hand, to receive a request for changing a first public identifier (IMPU1) to a second public identifier (IMPU2), for a user provisioned in the HSS and autoprovisioned in the application server, and to process this request, at least by the creation of a second public identifier (IMPU2) and in order, on the other hand, to generate a notification sent to the application server, including at least data representative of the modification of the public identifier, the processing means of the application server also being arranged in order to process this notification, at least by recording in the database users authorised to access the service, in response to this notification, the second public identifier (IMPU2) with the data which were indexed according to the first public identifier (IMPU1), the processing means (10, 20) of the HSS and of the application server being arranged in order to establish a subscription to notifications for automatic updating of the data of the database of the application server during changes of data of the database of the HSS, the processing means of the application server being arranged in order to request, from the HSS, a new notification subscription for the second public identifier (IMPU2) following the recording of the modification when the HSS does not save the subscription in the database storing at least data relating to the authorisation of access by users to various services supported by the IMS architecture, following the modification, and the processing means of the HSS being arranged in order to create this new subscription upon receiving this request or in order to modify the public identifier corresponding to the subscription in the data of the database storing at least data relating to the authorisation of access by users when the HSS saves the subscription following the modification.
A cladded aluminum-alloy material comprising an aluminum alloy core material, a coating material used to clad both surfaces of the core material and a brazing material used to clad both of the coating material surfaces, or one of the coating material surfaces which is not at the core material side, wherein the core material comprises an aluminum alloy consisting of 0.05 to 1.50 mass% Si, 0.05 to 2.00 mass% Fe, 2.00 to 7.00 mass% Zn, 0.50 to 3.00 mass% Mg, optionally one or two or more selected from 0.05 to 1.50 mass% Cu, 0.05 to 2.00 mass% Mn, 0.05 to 0.30 mass% Ti, 0.05 to 0.30 mass% Zr, 0.05 to 0.30 mass% Cr and 0.05 to 0.30 mass% V, and a balance of Al and unavoidable impurities, the coating material comprises an aluminum alloy consisting of 0.50 to 1.50 mass% Si, 0.05 to 2.00 mass% Fe, 0.05 to 2.00 mass% Mn, optionally one or two or more selected from 0.05 to 0.30 mass% Ti, 0.05 to 0.30 mass% Zr, 0.05 to 0.30 mass% Cr and 0.05 to 0.30 mass% V, and a balance of Al and unavoidable impurities, the brazing material comprises an aluminum alloy consisting of 2.50 to 13.00 mass% Si, 0.05 to 1.20 mass% Fe, optionally one or two or more selected from 0.05 to 1.50 mass% Cu, 0.05 to 2.00 mass% Mn, 0.05 to 0.30 mass% Ti, 0.05 to 0.30 mass% Zr, 0.05 to 0.30 mass% Cr and 0.05 to 0.30 mass% V, optionally one or two selected from 0.001 to 0.050 mass% Na and 0.001 to 0.050 mass% Sr, and a balance of Al and unavoidable impurities, a crystal grain size of the coating material before brazing heating is at least 60 μm, and in a cross section of the core material in the rolling direction before brazing heating, when R1 (μm) represents the crystal grain size in the plate thickness direction, and R2 (μm) represents the crystal grain size in the rolling direction, R1/R2 is not more than 0.50.
A process for production of porous amorphous silica from siliceous plant matter containing non-siliceous inorganic matter comprising the steps of: a) soaking said siliceous plant matter in an aqueous solution comprising a chelating agent wherein said chelating agent is present in an amount which extracts at least some of said non-siliceous inorganic matter; b) separating the aqueous solution from said siliceous plant matter; c) manipulating the amount of at least one preselected non-siliceous inorganic substance in said siliceous plant matter by controlling the amount of the chelating agent, or by introducing mineral acids into said siliceous plant matter, or by mixing the desired amount of preselected non-siliceous inorganic matter into the siliceous plant matter, such that the amount of the preselected non-siliceous inorganic substance remaining in the plant matter is established at a preselected amount of from 20 ppm to 25,000 ppm, said preselected amount of the at least one preselected non-siliceous inorganic substance selected to control the surface area of the porous amorphous silica obtained after heat treatment within the range of 10 m 2 /g and 450 m 2 /g, the preselected non-siliceous inorganic substance including elements or compounds of alkali metals, alkali earth metals, aluminum, boron, iron, manganese, titanium, and/or phosphorus; and d) heat treating said siliceous plant matter in the presence of oxygen at a temperature in the range of 200° C to 1,000° C wherein the resulting silica is comprised of silica of porous amorphous form. a) soaking said siliceous plant matter in an aqueous solution comprising a chelating agent wherein said chelating agent is present in an amount which extracts at least some of said non-siliceous inorganic matter; b) separating the aqueous solution from said siliceous plant matter; c) manipulating the amount of at least one preselected non-siliceous inorganic substance in said siliceous plant matter by controlling the amount of the chelating agent, or by introducing mineral acids into said siliceous plant matter, or by mixing the desired amount of preselected non-siliceous inorganic matter into the siliceous plant matter, such that the amount of the preselected non-siliceous inorganic substance remaining in the plant matter is established at a preselected amount of from 20 ppm to 25,000 ppm, said preselected amount of the at least one preselected non-siliceous inorganic substance selected to control the surface area of the porous amorphous silica obtained after heat treatment within the range of 10 m 2 /g and 450 m 2 /g, the preselected non-siliceous inorganic substance including elements or compounds of alkali metals, alkali earth metals, aluminum, boron, iron, manganese, titanium, and/or phosphorus; and d) heat treating said siliceous plant matter in the presence of oxygen at a temperature in the range of 200° C to 1,000° C wherein the resulting silica is comprised of silica of porous amorphous form.