mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a mobile device, comprising: receiving, via a user interface, a selection to call a contact's mobile device; detecting a feature, on the contact's mobile device, that supports presenting a priority call notification, wherein the mobile phone uses SIP OPTIONS signals to discover capabilities information of other mobile devices associated with contacts stored in a memory of the mobile device; initiating, via a Session Initiation Protocol, SIP, a pending call to the contact's mobile device, wherein a call is pending before the call is answered or rejected; presenting, after the initiating of the pending call and prior to the pending call being connected, and based on the detecting the feature, a user interface to select a priority indicator option; receiving, via the user interface and after the initiating of the pending call, a selection of the priority indicator option; and sending, via a second communication protocol, a priority indication flag for the pending call, wherein sending the priority indication flag for the pending call includes at least one of: sending a Session Initiation Protocol, SIP, message that includes a tag to indicate the feature for presenting a priority call notification, or sending a Message Session Relay Protocol, MSRP, message with data indicating the priority call notification. receiving, via a user interface, a selection to call a contact's mobile device; detecting a feature, on the contact's mobile device, that supports presenting a priority call notification, wherein the mobile phone uses SIP OPTIONS signals to discover capabilities information of other mobile devices associated with contacts stored in a memory of the mobile device; initiating, via a Session Initiation Protocol, SIP, a pending call to the contact's mobile device, wherein a call is pending before the call is answered or rejected; presenting, after the initiating of the pending call and prior to the pending call being connected, and based on the detecting the feature, a user interface to select a priority indicator option; receiving, via the user interface and after the initiating of the pending call, a selection of the priority indicator option; and sending, via a second communication protocol, a priority indication flag for the pending call, wherein sending the priority indication flag for the pending call includes at least one of: sending a Session Initiation Protocol, SIP, message that includes a tag to indicate the feature for presenting a priority call notification, or sending a Message Session Relay Protocol, MSRP, message with data indicating the priority call notification. sending a Session Initiation Protocol, SIP, message that includes a tag to indicate the feature for presenting a priority call notification, or sending a Message Session Relay Protocol, MSRP, message with data indicating the priority call notification.
A method of fabricating a semiconductor structure, characterized in that the method comprises: forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, forming a nanocrystalline outer shell from a third semiconductor material, different from the semiconductor material of the nanocrystalline shell, at least partially surrounding the nanocrystalline shell wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer, comprising a first metal oxide layer, encapsulating the quantum dot and the outer shell to create a coated quantum dot; and forming at least one additional insulator layer on the coated quantum dot, comprising forming at least one organic layer of water-absorbing polymer, wherein the water-absorbing polymer is selected from a group consisting of: poly(ethylene oxide) PEO, polyacrylamide, polyacrylate and poly(acrylic acid). forming a nanocrystalline core from a first semiconductor material; forming at least one nanocrystalline shell from a second, different, semiconductor material that at least partially surrounds the nanocrystalline core, forming a nanocrystalline outer shell from a third semiconductor material, different from the semiconductor material of the nanocrystalline shell, at least partially surrounding the nanocrystalline shell wherein the nanocrystalline core and the nanocrystalline shell(s) form a quantum dot; forming an insulator layer, comprising a first metal oxide layer, encapsulating the quantum dot and the outer shell to create a coated quantum dot; and forming at least one additional insulator layer on the coated quantum dot, comprising forming at least one organic layer of water-absorbing polymer, wherein the water-absorbing polymer is selected from a group consisting of: poly(ethylene oxide) PEO, polyacrylamide, polyacrylate and poly(acrylic acid).
An inner ring for supporting the variable-pitch blades of an axial compressor stator of a turbomachine, comprising at least two ring sectors, assembled circumferentially end to end so as to form said inner ring, each ring sector comprising a plurality of housings for receiving a radially inner pivot axis of one of said blades, such that at each junction plane between the ends of two successive ring sectors, the assembly is performed by cooperation of an assembly pin and a cavity for receiving this assembly pin, said assembly pin being fixed on the end of one of said two successive ring sectors and said cavity being formed at the end of the other of said two successive ring sectors, the cavity is configured and dimensioned to receive said assembly pin with a mounting clearance allowing a mounting by sliding fit, and said assembly pin is made of a material having a coefficient of thermal expansion greater than that of the material constituting said successive ring sectors so that during the temperature rise resulting from the use of said axial compressor, the assembly pin expands more inside said cavity than the cavity itself, thus ensuring the inseparable assembly of the two successive ring sectors and so that during the temperature decrease resulting from the cessation of the use of said axial compressor, the assembly pin retracts inside said cavity, by allowing the dismounting of said two successive ring sectors. such that at each junction plane between the ends of two successive ring sectors, the assembly is performed by cooperation of an assembly pin and a cavity for receiving this assembly pin, said assembly pin being fixed on the end of one of said two successive ring sectors and said cavity being formed at the end of the other of said two successive ring sectors, the cavity is configured and dimensioned to receive said assembly pin with a mounting clearance allowing a mounting by sliding fit, and said assembly pin is made of a material having a coefficient of thermal expansion greater than that of the material constituting said successive ring sectors so that during the temperature rise resulting from the use of said axial compressor, the assembly pin expands more inside said cavity than the cavity itself, thus ensuring the inseparable assembly of the two successive ring sectors and so that during the temperature decrease resulting from the cessation of the use of said axial compressor, the assembly pin retracts inside said cavity, by allowing the dismounting of said two successive ring sectors.
An injection molded body comprising: a ceramic material with a positive temperature coefficient at least in a certain range of temperature, wherein the temperature coefficient is the relative change of the resistivity at a given temperature, containing less than 10 ppm of metallic impurities. a ceramic material with a positive temperature coefficient at least in a certain range of temperature, wherein the temperature coefficient is the relative change of the resistivity at a given temperature, containing less than 10 ppm of metallic impurities.
A method for the rail-bound transportation in and away of material to or from railroad work vehicles, in which the material is transported by means of a plurality of railroad cars which can be coupled together, wherein the railroad cars each have at least one conveyor track (6, 7) on which the material is movable along the railroad cars and which is configured such that the conveyor tracks (6, 7) of railroad cars which are coupled together adjoin one another; wherein the material is transported on the railroad cars by means of transport containers; and wherein the transport containers are moved on the railroad cars from railroad car to railroad car along mutually adjoining conveyor tracks (6, 7) which preferably extend at least substantially horizontally and/or which adjoin one another without a step, in particular directly on the conveyor tracks (6, 7) and/or in particular without additional loading means such as cranes, characterized in that different materials are simultaneously supplied to a railroad work vehicle by means of the transport containers; and/or in that different materials are simultaneously supplied away from a railroad work vehicle by means of the transport containers, with these different materials also including types of materials such as water, ironware, sleepers or fuel.
A power control method, comprising: Obtaining, by a terminal, configuration signaling indicating a target reference signal, wherein the target reference signal comprises a synchronization signal, SS; Obtaining, by the terminal, parameter information required for power control, wherein the parameter information comprises cell-specific target power; Determining, by the terminal, received signal strength based on the target reference signal; Determining, by the terminal, a path loss of a target beam based on filtering the received signal strength; wherein a filtering type of the filtering the received signal strength is layer-1 filtering, layer-2 filtering or layer-3 filtering; and Determining, by the terminal based on the parameter information and the path loss of the target beam by using a power control formula, uplink transmit power used when uplink transmission is performed on the target beam. Obtaining, by a terminal, configuration signaling indicating a target reference signal, wherein the target reference signal comprises a synchronization signal, SS; Obtaining, by the terminal, parameter information required for power control, wherein the parameter information comprises cell-specific target power; Determining, by the terminal, received signal strength based on the target reference signal; Determining, by the terminal, a path loss of a target beam based on filtering the received signal strength; wherein a filtering type of the filtering the received signal strength is layer-1 filtering, layer-2 filtering or layer-3 filtering; and Determining, by the terminal based on the parameter information and the path loss of the target beam by using a power control formula, uplink transmit power used when uplink transmission is performed on the target beam.
An electric impedance tomography method of determining characteristics of a multi-material object, the method comprising: providing an applied electrical signal set of individual electrical signal patterns to electrodes surrounding the object for producing a rotating electric field which changes direction at a constant angular rate corresponding to the applied signal frequency or its integer multiples; obtaining a measured electrical signal set of electrical signals at the electrodes corresponding to each applied electrical signal pattern; determining an electrical network representation of the object based on the applied electrical signal set, the measured electrical signal set, and an inverse of the applied electrical signal set; and determining the characteristics of the multi-material object by analyzing the electrical network. providing an applied electrical signal set of individual electrical signal patterns to electrodes surrounding the object for producing a rotating electric field which changes direction at a constant angular rate corresponding to the applied signal frequency or its integer multiples; obtaining a measured electrical signal set of electrical signals at the electrodes corresponding to each applied electrical signal pattern; determining an electrical network representation of the object based on the applied electrical signal set, the measured electrical signal set, and an inverse of the applied electrical signal set; and determining the characteristics of the multi-material object by analyzing the electrical network.
Optical device, comprising: - a lens having an adjustable focal length (f), a first photoensitive element and a housing, - a light source which is configured to emit light that is affected by said lens and impinges on at least the first photosensitive element, which is designed to generate a first output signal corresponding to the intensity of light impinging on it, - wherein the first photosensitive element is configured to measure only a portion of the intensity distribution of said emitted light, and - wherein the light source, the lens and the first photosensitive element are configured such that a change of the focal length (f) of said lens changes the intensity distribution of the emitted light that impinges on the first photosensitive element, so that each focal length (f) of the lens is associated to a specific first output signal generated by the first photosensitive element, - the lens has a first and a second optical element (80, 90) in the form of transparent cover elements (80, 90), wherein the deformable membrane defining surface is arranged between said two cover elements (80, 90), and wherein the membrane is arranged in the housing of the lens and faces a first optical element in the form of a cover element, and wherein the membrane, the housing and said cover element delimit a volume of the lens that is filled with a fluid, characterized in that the light source is arranged on an inner side of a lateral circumferential wall of the housing of the lens. - a lens having an adjustable focal length (f), a first photoensitive element and a housing, - a light source which is configured to emit light that is affected by said lens and impinges on at least the first photosensitive element, which is designed to generate a first output signal corresponding to the intensity of light impinging on it, - wherein the first photosensitive element is configured to measure only a portion of the intensity distribution of said emitted light, and - wherein the light source, the lens and the first photosensitive element are configured such that a change of the focal length (f) of said lens changes the intensity distribution of the emitted light that impinges on the first photosensitive element, so that each focal length (f) of the lens is associated to a specific first output signal generated by the first photosensitive element, - the lens has a first and a second optical element (80, 90) in the form of transparent cover elements (80, 90), wherein the deformable membrane defining surface is arranged between said two cover elements (80, 90), and wherein the membrane is arranged in the housing of the lens and faces a first optical element in the form of a cover element, and wherein the membrane, the housing and said cover element delimit a volume of the lens that is filled with a fluid,
Dishwasher with a washing container and devices for rinsing dishes using washing liquor, wherein the dishwasher has a sorption column containing reversibly dehydratable material connected in an air-conducting manner to the washing container, wherein the sorption column can be used at least partially on the one hand in order to dry the dishes and on the other hand for the thermal energy used to desorb the sorption column in order to heat the washing liquor located in the washing container and the dishes, wherein the washing container has an outlet with a line to the sorption column, wherein the washing container has an inlet with a line from the sorption column, wherein a fan is arranged in the line to the sorption column, said fan at least temporarily introducing at least one part of the air in the washing container or from the ambient air of the sorption column, characterised in that in order to desorb the reversibly dehydratable material, a heating element in the line to the sorption column is arranged between the fan and the sorption column.
Retaining wall system comprising basis stones having a length, a height, wherein said basis stones are configured to be stacked and hereby constitute a retaining wall that is angled with a non-zero angle (α) relative to vertical, characterised in that the relationship between the angle (α), the height and the length is selected in such a manner that: tan α = L 6 H, hereby - when three or more layers of basis stones are stacked on top of each other, laid in stretcher bond and - a cutting line is drawn along the facade of the retaining wall, wherein the cutting line is angled with the angle (α) relative to vertical and - wherein the cutting line intersects a first basis stone positioned in a first layer in a marking point relative to said first basis stone, then the cutting line will intersect a second basis stone (B') positioned three layers above the first layer and being horizontally displaced half the length of a stone (L/2) in the same marking point relative to said second basis stone (B'). - when three or more layers of basis stones are stacked on top of each other, laid in stretcher bond and - a cutting line is drawn along the facade of the retaining wall, wherein the cutting line is angled with the angle (α) relative to vertical and - wherein the cutting line intersects a first basis stone positioned in a first layer in a marking point relative to said first basis stone,
A position determining device comprising: first lighting means arranged to emit light to an edge portion of a substrate; second lighting means arranged to emit light to at least one mark on a surface of the substrate; rotating means arranged to rotate the substrate; light receiving means disposed at a position to face the first lighting means and the at least one mark on the surface of the substrate to receive light emitted from the first lighting means which passes the substrate via a region outside the substrate and to receive light emitted from the second lighting means reflected by the at least one mark; and determining means arranged to determine a position of the substrate by determining a position of the at least one mark and a position of the edge portion based on a result of light received by the light receiving means while the substrate is rotated by the rotating means, wherein in case where the at least one mark has not been detected while the substrate is rotated by 360°/n, where n is the number of marks, the determining means are arranged to determine the position of the substrate by determining the position of the at least one mark and the position of the edge portion while the substrate is further rotated by 360°/n after a lighting condition for the second lighting means is changed. first lighting means arranged to emit light to an edge portion of a substrate; second lighting means arranged to emit light to at least one mark on a surface of the substrate; rotating means arranged to rotate the substrate; light receiving means disposed at a position to face the first lighting means and the at least one mark on the surface of the substrate to receive light emitted from the first lighting means which passes the substrate via a region outside the substrate and to receive light emitted from the second lighting means reflected by the at least one mark; and determining means arranged to determine a position of the substrate by determining a position of the at least one mark and a position of the edge portion based on a result of light received by the light receiving means while the substrate is rotated by the rotating means, wherein in case where the at least one mark has not been detected while the substrate is rotated by 360°/n, where n is the number of marks, the determining means are arranged to determine the position of the substrate by determining the position of the at least one mark and the position of the edge portion while the substrate is further rotated by 360°/n after a lighting condition for the second lighting means is changed.
A conductive polymer aqueous solution, comprising: a π-conjugated conductive polymer, a polyanion, a compound having oxetane ring, wherein, the polyanion is coordinated by the n-conjugated conductive polymer and the total amount of the n-conjugated conductive polymer and the polyanion in the conductive polymer solution is 0.05 to 5.0% by mass, the amount of the compound having oxetane ring is within the range of 1 to 500 % by mass based on a value of 100% by mass for the total amount of the π-conjugated conductive polymer and the polyanion, the compound having oxetane ring is at least one selected from the group consisting of xylenebisoxetane, 3-ethyl-3{[(3-ethyloxetane-3-yl)methoxy]methyl}oxetane, 4,4'-(3-ethyloxetane-3-ylmethyloxymethyl)biphenyl, 1,4-bis{[(3-ethyl-3-oxetanyl)methoxy]methyl}benzene, di{1-ethyl(3-oxetanyl)}methyl ether, 1,6-bis{(3-ethyl-3-oxetanyl)methoxy}hexane, 9,9-bis{2-methyl-4-[2-(3-oxetanyl)]butoxyphenyl}fluorene, 9,9-bis {4- {2-[2-(3-oxetanyl)]butoxy} ethoxyphenyl} fluorine, oxetane novolac resin, 3-ethyl-3-(hydroxymethyl)oxetane, 3-ethyl-3-(2-ethylhexoxymethyl)oxetane, 3-ethyl-3-phenoxymethyloxetane, 3-(methacryloyloxymethyl)oxetane, and 3-(methacryloyloxymethyl)-2-phenyloxetane, the polyanion is polystyrene sulfonic acid, and the π-conjugated conductive polymer is poly(3,4-ethylenedioxythiophene). a π-conjugated conductive polymer, a polyanion, a compound having oxetane ring, wherein, the polyanion is coordinated by the n-conjugated conductive polymer and the total amount of the n-conjugated conductive polymer and the polyanion in the conductive polymer solution is 0.05 to 5.0% by mass, the amount of the compound having oxetane ring is within the range of 1 to 500 % by mass based on a value of 100% by mass for the total amount of the π-conjugated conductive polymer and the polyanion, the compound having oxetane ring is at least one selected from the group consisting of xylenebisoxetane, 3-ethyl-3{[(3-ethyloxetane-3-yl)methoxy]methyl}oxetane, 4,4'-(3-ethyloxetane-3-ylmethyloxymethyl)biphenyl, 1,4-bis{[(3-ethyl-3-oxetanyl)methoxy]methyl}benzene, di{1-ethyl(3-oxetanyl)}methyl ether, 1,6-bis{(3-ethyl-3-oxetanyl)methoxy}hexane, 9,9-bis{2-methyl-4-[2-(3-oxetanyl)]butoxyphenyl}fluorene, 9,9-bis {4- {2-[2-(3-oxetanyl)]butoxy} ethoxyphenyl} fluorine, oxetane novolac resin, 3-ethyl-3-(hydroxymethyl)oxetane, 3-ethyl-3-(2-ethylhexoxymethyl)oxetane, 3-ethyl-3-phenoxymethyloxetane, 3-(methacryloyloxymethyl)oxetane, and 3-(methacryloyloxymethyl)-2-phenyloxetane, the polyanion is polystyrene sulfonic acid, and the π-conjugated conductive polymer is poly(3,4-ethylenedioxythiophene).
Composition for use in the treatment of cancer by inhibition of tumour progression and reduction of tumour size and in the treatment of cancer comorbidities selected from cancer-related fatigue, cachexia, pain, anemia, asthenia and depression, said treatment comprising the administration by oral route, injection route, and/or as adjuvant potentiator in cell therapies, or topical route, or parenteral route, or intra-tumoral injection, or in combination thereof, of the composition, said composition containing as active ingredient a native extract of Allium species, which contains quercetin, of Citrus species and of Paullinia species and an aqueous-alcoholic or a native extract of Theobroma species.