mhurhangee/ep-ind-claims huggingface dataset:
A method of broadcasting beacon signals at a wireless accessory comprising: performing a key exchange between the wireless accessory and an electronic device to establish an anti-tracking secret for paired devices, wherein the wireless accessory is paired with the electronic device; deriving, at the wireless accessory, a first public key based on a current timestamp and the anti-tracking secret; transmitting a first beacon signal at a first frequency during a first period, wherein the first beacon signal includes the first public key, wherein the first frequency defines a beacon rate for transmission of each beacon during the first period; determining a second frequency for transmission of a second beacon signal based on whether a response is received from the electronic device in response to the transmission of the first beacon signal; in response to determining the wireless accessory has entered a new key period, deriving a second public key based on a current timestamp and the anti-tracking secret; and transmitting the second beacon signal at the second frequency during a second period, wherein the second beacon signal includes the second public key. performing a key exchange between the wireless accessory and an electronic device to establish an anti-tracking secret for paired devices, wherein the wireless accessory is paired with the electronic device; deriving, at the wireless accessory, a first public key based on a current timestamp and the anti-tracking secret; transmitting a first beacon signal at a first frequency during a first period, determining a second frequency for transmission of a second beacon signal based on whether a response is received from the electronic device in response to the transmission of the first beacon signal; in response to determining the wireless accessory has entered a new key period, deriving a second public key based on a current timestamp and the anti-tracking secret; and transmitting the second beacon signal at the second frequency during a second period, wherein the second beacon signal includes the second public key.
A cathode comprising: a cathode material; and a current collector, wherein: the cathode material comprises a cathode active material and a carbon material of secondary particles consisting of a plurality of primary particles, wherein the carbon material of secondary particles has an average chain length less than 30 primary particles connected to each other; wherein the amount of solid of the cathode material is 65 wt% or higher based on the total weight of the cathode; and. wherein an average particle diameter of the primary particles is in a range of 18 nm to 28 nm. a cathode material; and a current collector, wherein: the cathode material comprises a cathode active material and a carbon material of secondary particles consisting of a plurality of primary particles, wherein the carbon material of secondary particles has an average chain length less than 30 primary particles connected to each other; wherein the amount of solid of the cathode material is 65 wt% or higher based on the total weight of the cathode; and. the cathode material comprises a cathode active material and a carbon material of secondary particles consisting of a plurality of primary particles, wherein the carbon material of secondary particles has an average chain length less than 30 primary particles connected to each other; wherein the amount of solid of the cathode material is 65 wt% or higher based on the total weight of the cathode; and. wherein an average particle diameter of the primary particles is in a range of 18 nm to 28 nm.
An automatic analyzer having a reaction vessel for causing a sample to react with a reagent, and a measurement unit for measuring the reaction in the reaction vessel, the automatic analyzer comprising: power switches (207, 303) which turn on and off a power source of at least two of components configuring the automatic analyzer, the components including a heat source (204, 205, 206) for raising the temperature inside the analyzer and a cold source (202, 203) for lowering the temperature inside the analyzer; and a control mechanism (104, 309) which controls the on/off operations of the power switch coupled to each of the components, characterised by: selection means which allows a user to select any of a plurality of startup modes (621∼624) each corresponding to a temperature rise speed inside the analyzer following an analyzer startup and including an emergency sample measurement mode and an energy saving mode, wherein the control mechanism (104, 309) is adapted to control the on/off operations of the power switch coupled to each of the components in accordance with the startup mode selected by the selection means. power switches (207, 303) which turn on and off a power source of at least two of components configuring the automatic analyzer, the components including a heat source (204, 205, 206) for raising the temperature inside the analyzer and a cold source (202, 203) for lowering the temperature inside the analyzer; and a control mechanism (104, 309) which controls the on/off operations of the power switch coupled to each of the components, characterised by: selection means which allows a user to select any of a plurality of startup modes (621∼624) each corresponding to a temperature rise speed inside the analyzer following an analyzer startup and including an emergency sample measurement mode and an energy saving mode, wherein the control mechanism (104, 309) is adapted to control the on/off operations of the power switch coupled to each of the components in accordance with the startup mode selected by the selection means. selection means which allows a user to select any of a plurality of startup modes (621∼624) each corresponding to a temperature rise speed inside the analyzer following an analyzer startup and including an emergency sample measurement mode and an energy saving mode, wherein the control mechanism (104, 309) is adapted to control the on/off operations of the power switch coupled to each of the components in accordance with the startup mode selected by the selection means.
A filament production device, in particular a filament reaction-spinning production device, comprising at least one spinning nozzle unit (10a - 10f), which is provided for producing at least one filament (16a - 16f), which is formed as a hollow fibre membrane, from at least one polymer solution, and comprising a polymerisation unit (18a - 18f), which is provided for initiating a polymerisation of the polymer solution (12a; 14b), wherein the polymerisation unit (18a - 18f) is provided for initiating the polymerisation at least partially within the spinning nozzle unit (10a - 10f); wherein the spinning nozzle unit (10a - 10f) has at least one inner fluid channel (26a - 26f), which is provided for guiding an inner fluid (30a - 30c), and has at least one polymer solution channel (34a - 34f), which is provided for guiding the polymer solution (12a - 12c), wherein the polymer solution channel (34a - 34f) surrounds the inner fluid channel (26a - 26f) at least partially in at least one cross-section, characterised in that the polymerisation unit comprises an irradiation unit for applying electromagnetic radiation to the inner fluid within the spinning nozzle unit and in that the polymerisation unit (18a - 18c) has a temperature-control unit (44a - 44c), which is provided for applying heat energy to at least the polymer solution (12a - 12c; 14c), for initiating the polymerisation.
A method for transmitting channel quality information, CQI, by a subscriber station, SS, in a communication system, the method comprising: receiving, from a base station, BS, a message for requesting CQI of subchannels included in an allocation region corresponding to a frequency reuse factor K, the frequency reuse factor K being designated by the message; measuring, by the SS, channel quality of subchannels included in the allocation region corresponding to the frequency reuse factor K, in response to the request for CQI by measuring a boosted reference signal; and transmitting, to the BS, CQI corresponding to the measured channel quality. receiving, from a base station, BS, a message for requesting CQI of subchannels included in an allocation region corresponding to a frequency reuse factor K, the frequency reuse factor K being designated by the message; measuring, by the SS, channel quality of subchannels included in the allocation region corresponding to the frequency reuse factor K, in response to the request for CQI by measuring a boosted reference signal; and transmitting, to the BS, CQI corresponding to the measured channel quality.
Method for spreading fertilizer, wherein a predetermined spreading pattern is generated and a wind strength and wind direction are measured, wherein signals (S1, S2) which correspond to the measured wind strength and/or wind direction are passed on to a display which indicates the wind strength and/or wind direction, wherein, in order to correct the actual spreading pattern which is distorted by the wind, a setpoint value for actuating/controlling in each case at least one actuator element (4, 9) in order to generate the predetermined spreading pattern is adapted as a function of the measured wind strength and wind direction, characterized in that a warning signal (S Warn) is generated if and/or before the predetermined spreading pattern can no longer be generated by changing the setpoint value.
A telecommunications network comprising: at least one conference bridge (142, 144); and a least one routing device configured to: receive a communication from a user of the telecommunications network, the communication comprising a request to initiate a collaboration conference; identify the at least one conference bridge (142, 144); and transmit a SIP refer command configured to route the communication from the user to the at least one conference bridge (142, 144); wherein, the at least one conference bridge (142, 144) is a Session Initiation Protocol based telecommunications device and is configured to host the collaboration conference in response to the communication from the user, and characterised in that the at least one conference bridge (142, 144) is configured to: receive a SIP-reinvite command comprising a header having at least an identifier of the user and an identifier of a destination collaboration conference; and in response to receiving the SIP-reinvite command having the header: switch the user, on the basis of said user identifier and the identifier of the destination collaboration conference, and independently of a dialled number of the user, from a first collaboration conference of a session to the destination collaboration conference of the session. at least one conference bridge (142, 144); and a least one routing device configured to: receive a communication from a user of the telecommunications network, the communication comprising a request to initiate a collaboration conference; identify the at least one conference bridge (142, 144); and transmit a SIP refer command configured to route the communication from the user to the at least one conference bridge (142, 144); receive a communication from a user of the telecommunications network, the communication comprising a request to initiate a collaboration conference; identify the at least one conference bridge (142, 144); and transmit a SIP refer command configured to route the communication from the user to the at least one conference bridge (142, 144); wherein, the at least one conference bridge (142, 144) is a Session Initiation Protocol based telecommunications device and is configured to host the collaboration conference in response to the communication from the user, and
Opening device of the type constrainable to a multilayer container for products pourable at one punchable portion thereof, said opening device comprising a collar couplable to said punchable portion, and a cutting element moving inside said collar in a way constrained by helical guide means interposed between said cutting element and said collar, said cutting element comprising at least one first tooth having a substantially triangular section, said tooth is provided with at least two flanks (8,9), at least one side face, at least one cutting edge defined by the intersection of said side face with at least one of said flanks and provided with at least one ending portion having a vertex, to punch said punchable portion, said cutting edge being connected to said ending portion at said vertex, characterized in that said ending portion is rounded at least at said vertex.
A method for modifying a light absorption layer, comprising: (a) providing a substrate; (b) forming a light absorption layer on the substrate, wherein the light absorption layer comprises a Group IB element, Group IIIA element and Group VIA element different from sulfur; (c) forming a slurry on the light absorption layer, wherein the slurry comprises a sulfur powder; and (d) conducting a thermal process for the light absorption layer with the slurry. (a) providing a substrate; (b) forming a light absorption layer on the substrate, wherein the light absorption layer comprises a Group IB element, Group IIIA element and Group VIA element different from sulfur; (c) forming a slurry on the light absorption layer, wherein the slurry comprises a sulfur powder; and (d) conducting a thermal process for the light absorption layer with the slurry.
A window unit comprising: an insulating frame in which both an inboard glass lite and an outboard glass lite are partially embedded, the inboard lite comprising a vacuum IG unit including first and second spaced apart glass sheets that are separated from one another via a gap that is a pressure less than atmospheric, and the outboard lite comprising a monolithic glass sheet spaced apart from the vacuum IG unit; wherein the frame comprises insulating material that separates the outer surface of the vacuum IG unit from the inner surface of the monolithic glass sheet; characterized in that along at least one of a top edge, a bottom edge, and/or a side edge of the window unit, the outer edge of the monolithic glass sheet is vertically offset from the outer edge of the vacuum IG unit so that the outer edge of the vacuum IG unit is closer to a periphery of the window unit than is the outer edge of the monolithic glass sheet, and wherein the frame has a bite between a bottom edge of the vacuum IG unit and an upper edge of a bottom frame portion of from about 2.5 to 7.5 centimeters. an insulating frame in which both an inboard glass lite and an outboard glass lite are partially embedded, the inboard lite comprising a vacuum IG unit including first and second spaced apart glass sheets that are separated from one another via a gap that is a pressure less than atmospheric, and the outboard lite comprising a monolithic glass sheet spaced apart from the vacuum IG unit; wherein the frame comprises insulating material that separates the outer surface of the vacuum IG unit from the inner surface of the monolithic glass sheet; characterized in that along at least one of a top edge, a bottom edge, and/or a side edge of the window unit, the outer edge of the monolithic glass sheet is vertically offset from the outer edge of the vacuum IG unit so that the outer edge of the vacuum IG unit is closer to a periphery of the window unit than is the outer edge of the monolithic glass sheet, and wherein the frame has a bite between a bottom edge of the vacuum IG unit and an upper edge of a bottom frame portion of from about 2.5 to 7.5 centimeters.
Diagnostic element for determining at least one analyte, comprising (a) a specific detection reagent for the analyte and (b) a defined amount of the analyte to be determined (indicator analyte), in which the indicator analyte is present in a form so that it may be released and is inaccessible for a reaction with the detection reagent. (a) a specific detection reagent for the analyte and (b) a defined amount of the analyte to be determined (indicator analyte), in which the indicator analyte is present in a form so that it may be released and is inaccessible for a reaction with the detection reagent.
A light-emitting diode, LED, module, comprising: a plurality of LEDs assembled on a flexible substrate, and a cover at least partly covering the plurality of LEDs, wherein the cover comprises a first constituent having elastic properties and a transformable second constituent inserted within said first constituent and adapted to, after transformation, form an interpenetrating polymer network to fix the shape of the LED module. a plurality of LEDs assembled on a flexible substrate, and a cover at least partly covering the plurality of LEDs, wherein the cover comprises a first constituent having elastic properties and a transformable second constituent inserted within said first constituent and adapted to, after transformation, form an interpenetrating polymer network to fix the shape of the LED module.
An antenna device, comprising a first substrate; a first conductive layer disposed on the first substrate; a first insulating structure disposed on the first conductive layer, the first insulating structure comprising a first region and a second region; a second substrate disposed opposite to the first substrate; a second conductive layer disposed on the second substrate; and a liquid-crystal layer disposed between the first conductive layer and the second conductive layer; wherein a thickness of the first region is less than a thickness of the second region, and at least a portion of the first region is disposed in an overlapping region of the first conductive layer and the second conductive layer, characterized in that the first insulating structure comprises a first insulating layer and a second insulating layer disposed on the first insulating layer, and in the first region the second insulating layer exposes the first insulating layer. a first substrate; a first conductive layer disposed on the first substrate; a first insulating structure disposed on the first conductive layer, the first insulating structure comprising a first region and a second region; a second substrate disposed opposite to the first substrate; a second conductive layer disposed on the second substrate; and a liquid-crystal layer disposed between the first conductive layer and the second conductive layer; wherein a thickness of the first region is less than a thickness of the second region, and at least a portion of the first region is disposed in an overlapping region of the first conductive layer and the second conductive layer, characterized in that the first insulating structure comprises a first insulating layer and a second insulating layer disposed on the first insulating layer, and in the first region the second insulating layer exposes the first insulating layer.
A system for the separation of a biological fluid into its components, wherein the system comprises: a centrifugal separating chamber rotatable about an axis of rotation and having walls that define a hollow interior, a top end, a bottom end and an axial opening positioned at said top end; an axially movable member contained within said chamber which, along with said walls, defines a separation space of variable volume, within said chamber; a plurality of valves wherein each valve is in selective fluid connection with one of a plurality of tubes; at least one container fluidly connected to said plurality of tubes whereby said chamber and said at least one container are in selective fluid communication; a length of tubing for establishing fluid communication between said chamber and said plurality of valves, said tubing including a portion which forms at least a part of a pump for fluid pumping within the tubing; and a pulse dampener positioned along said tubing between said chamber and the position for said portion; characterized in that: a valve of the plurality of valves in the flow path between a container of said at least one container and the separation space is adjustable to open a path between the container and the separation space, and wherein the pump is activatable to promote movement of the biological fluid from the container to the separation space as well as movement of the axially movable member towards the bottom end of the separating chamber. a centrifugal separating chamber rotatable about an axis of rotation and having walls that define a hollow interior, a top end, a bottom end and an axial opening positioned at said top end; an axially movable member contained within said chamber which, along with said walls, defines a separation space of variable volume, within said chamber; a plurality of valves wherein each valve is in selective fluid connection with one of a plurality of tubes; at least one container fluidly connected to said plurality of tubes whereby said chamber and said at least one container are in selective fluid communication; a length of tubing for establishing fluid communication between said chamber and said plurality of valves, said tubing including a portion which forms at least a part of a pump for fluid pumping within the tubing; and a pulse dampener positioned along said tubing between said chamber and the position for said portion; characterized in that: a valve of the plurality of valves in the flow path between a container of said at least one container and the separation space is adjustable to open a path between the container and the separation space, and wherein the pump is activatable to promote movement of the biological fluid from the container to the separation space as well as movement of the axially movable member towards the bottom end of the separating chamber.
A compound of formula: (wherein: R 1 is an optionally substituted 2-(1-azathiaxanthone); each -R 2 is independently of the formula -CH 2 -C(=O)-R 4, wherein R 4 is an amino acid or a salt thereof, attached to the remainder of R 2 through the nitrogen atom of the amino group; and R 3 is hydrogen or a C 1-6 alkyl group). R 1 is an optionally substituted 2-(1-azathiaxanthone); each -R 2 is independently of the formula -CH 2 -C(=O)-R 4, wherein R 4 is an amino acid or a salt thereof, attached to the remainder of R 2 through the nitrogen atom of the amino group; and R 3 is hydrogen or a C 1-6 alkyl group).
A method for treating an acidic solution containing zinc sulphate in order to separate at least one metal in solution from the solution, whereby the metal to be separated is one of the group of indium, gallium and germanium, wherein the solution containing zinc sulphate is neutralised in a pre-neutralisation stage to a pH value of 2.5 - 3.5 and at least one of the group of metals to be separated is separated from the solution in a cementation stage by means of zinc powder, wherein the precipitate formed in the pre-neutralisation stage contains a first portion of the gallium and indium of the zinc sulphate solution.