mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transferring a security context during a handover of a user equipment , the method implemented by one or more core network nodes in a core network of a wireless communication network , wherein the one or more core network nodes provide a source Access and Mobility Management Function , the method comprising: receiving, from a source base station in an access network of the wireless communication network , a first handover message indicating that a handover of the user equipment is needed; deriving a new non-access stratum key responsive to deciding that an operator specific security policy is met; sending, responsive to the first handover message, the new non-access stratum key to a target Access and Mobility Management Function in the core network of the wireless communication network ; and sending, in a second handover message, a key change indication to the user equipment , the key change indication comprising a key change indicator flag set to a value indicating a change of the non-access stratum key. receiving, from a source base station in an access network of the wireless communication network , a first handover message indicating that a handover of the user equipment is needed; deriving a new non-access stratum key responsive to deciding that an operator specific security policy is met; sending, responsive to the first handover message, the new non-access stratum key to a target Access and Mobility Management Function in the core network of the wireless communication network ; and sending, in a second handover message, a key change indication to the user equipment , the key change indication comprising a key change indicator flag set to a value indicating a change of the non-access stratum key.
A method for detecting zearalenone effect, wherein zearalenone effect refers to exposure of a biological system to zearalenone or an effect of zearalenone on a biological system, comprising: (c) determining in a test sample the expression level of at least one miRNA selected from the group consisting of ssc-miR-1, ssc-miR-181c, ssc-miR-206, ssc-miR-503, ssc-miR-542-3p, ssc-miR-135, ssc-miR-129a-3p, ssc-miR-142-3p, ssc-miR-432-5p, ssc-miR-455-5p, ssc-miR-182, ssc-miR-493-3p, ssc-miR-455-3p, ssc-miR-183, and ssc-miR-140-3p, wherein the test sample is a blood sample; and (d) comparing the expression level with a reference value. (c) determining in a test sample the expression level of at least one miRNA selected from the group consisting of ssc-miR-1, ssc-miR-181c, ssc-miR-206, ssc-miR-503, ssc-miR-542-3p, ssc-miR-135, ssc-miR-129a-3p, ssc-miR-142-3p, ssc-miR-432-5p, ssc-miR-455-5p, ssc-miR-182, ssc-miR-493-3p, ssc-miR-455-3p, ssc-miR-183, and ssc-miR-140-3p, wherein the test sample is a blood sample; and (d) comparing the expression level with a reference value.
A composition in powder or tablet form comprising a combination of: (a) a hydrogen peroxide source (b) an acetyl source (c) a peracetic acid bleachable dye wherein, in solution, colour generated by said peracetic acid bleachable dye is substantially discharged when a biocidally effective concentration of peracetic acid is achieved. (a) a hydrogen peroxide source (b) an acetyl source (c) a peracetic acid bleachable dye
A method of operating a binaural hearing assistance system (10;30) that comprises a binaural hearing device that comprises first and second earpieces (16;18), each earpiece adapted to be worn over, on or in one ear, each earpiece comprising an electroacoustic transducer (45;47) that converts an input electrical audio signal for the ear into sound, and at least one microphone (46;48) that converts sound external to the earpieces into an electrical microphone output signal, where the binaural hearing assistance system is adapted to use a binaural beamforming microphone algorithm to process microphone output signals from microphones from both earpieces to create the electrical audio signals that are used to drive the transducers of both earpieces, the method comprising: detecting when only one of the first and second earpieces is not over, on or in an ear, i.e. it has been dropped; and in response to detecting when only one of the first and second earpieces is dropped, modifying the binaural beamforming microphone algorithm, said modifying comprising band limiting the microphone output signals from the dropped earpiece. detecting when only one of the first and second earpieces is not over, on or in an ear, i.e. it has been dropped; and in response to detecting when only one of the first and second earpieces is dropped, modifying the binaural beamforming microphone algorithm, said modifying comprising band limiting the microphone output signals from the dropped earpiece.
A liquid dispenser, comprising: a tank having an upper opening and a chamber defined by a wall ; a pump provided in the chamber; a pipe to transfer liquid discharged from the pump ; a plate provided above the tank and supplied with liquid from the pipe ; and a base provided below the wall of the tank to support the wall , wherein the wall defines a cross-sectional area, the cross-section area increases from an upper end of the tank to a lower end of the tank , the wall is inclined inward from a bottom end to a top end, the wall includes a main wall having a bottom end provided on the base and an upper end from which an upper wall extends, and wherein an upper end of the upper wall includes an upper opening that is exposed when the plate is lifted away from the upper wall , wherein a UV light that emits UV light toward the main wall , wherein the UV light is provided at a position that has a height at or below a midpoint height of the main wall . a tank having an upper opening and a chamber defined by a wall ; a pump provided in the chamber; a pipe to transfer liquid discharged from the pump ; a plate provided above the tank and supplied with liquid from the pipe ; and a base provided below the wall of the tank to support the wall , wherein the wall defines a cross-sectional area, the cross-section area increases from an upper end of the tank to a lower end of the tank , the wall is inclined inward from a bottom end to a top end, the wall includes a main wall having a bottom end provided on the base and an upper end from which an upper wall extends, and wherein an upper end of the upper wall includes an upper opening that is exposed when the plate is lifted away from the upper wall , wherein a UV light that emits UV light toward the main wall , wherein the UV light is provided at a position that has a height at or below a midpoint height of the main wall .
A system for idle reduction in a hybrid vehicle , the system comprising: a control system for causing the vehicle to operate in a charge depletion mode , or a charge accumulation mode in response to job site data, the job site data including an estimate of the amount of energy required at a job site , wherein the control system receives the estimate before the vehicle reaches the job site and stores the estimate in an electronic memory, the job site being a location where the vehicle is stationary and uses equipment, the equipment being powered by the vehicle at the job site , whereby fuel consumption by the vehicle and consumption of energy stored on-board the vehicle is optimized for use at the job site, characterized in that the charge accumulation mode is entered during transit to the job site at least in part in response to the estimate being more than an amount of energy stored in a rechargeable energy source , wherein the vehicle comprises a power takeoff coupled to an electric motor configured to charge the rechargeable energy source and rotate a shaft of the power take off .
Apparatus for the cleaning of industrial filters, comprising at least a storage tank of compressed air, at least an air supply duct , at least one valve configured to generate an air flow for the cleaning of industrial filters, and a valve driving system comprising: - at least a remote control unit ; - at least a driving unit operatively connected to said at least one valve ; characterized in that said valve driving system comprises: - storage means of electric energy connected to said driving unit ; - transformation means for transforming pneumatic energy into electric energy, which are connected to said storage means and which are configured to transform the pneumatic energy generated by at least one said air flow inside said apparatus into electric energy for powering said driving unit . - at least a remote control unit ; - at least a driving unit operatively connected to said at least one valve ; - storage means of electric energy connected to said driving unit ; - transformation means for transforming pneumatic energy into electric energy, which are connected to said storage means and which are configured to transform the pneumatic energy generated by at least one said air flow inside said apparatus into electric energy for powering said driving unit .
A method for selectively applying gloss effects to any and/or all portions of an image, comprising: with an inkjet printing system, printing as a first layer an image on a medium using a first set of color print heads; curing said printed image with a first curing operation; with said inkjet printing system, using a second set of color print heads to print as a second layer at least a portion of the same image on said medium over said cured image printed by said first set of color print heads; allowing said image printed by said second set of color print heads to remain uncured for a predetermined interval until ink drops applied to said medium by said second set of color print heads spread to create a desired gloss effect; and curing said image printed by said second set of color print heads with a second curing operation once said desired gloss effect is achieved. with an inkjet printing system, printing as a first layer an image on a medium using a first set of color print heads; curing said printed image with a first curing operation; with said inkjet printing system, using a second set of color print heads to print as a second layer at least a portion of the same image on said medium over said cured image printed by said first set of color print heads; allowing said image printed by said second set of color print heads to remain uncured for a predetermined interval until ink drops applied to said medium by said second set of color print heads spread to create a desired gloss effect; and curing said image printed by said second set of color print heads with a second curing operation once said desired gloss effect is achieved.
A composition comprising antibody-albumin nanoparticle complexes, said complexes comprising albumin, an antibody, and paclitaxel, wherein the nanoparticle complexes have been preformed in vitro by mixing of albumin-paclitaxel nanoparticles with the antibody under conditions to form the antibody-albumin nanoparticle complexes, such that the antibody retains antibody mediated anti-cancer binding specificity, wherein the average diameter of at least 5% of said antibody-albumin nanoparticle complexes of said composition is between 0.1 and 0.9 μm, as measured by light refraction, and wherein the antibody is trastuzumab or rituximab.
A method of wireless communication, comprising: sensing , by a base station, a channel in a spatial domain based on a plurality of expected beam transmission directions, wherein the base station is associated with a first network operating entity, and wherein the channel is shared by a plurality of network operating entities including the first network operating entity, wherein the sensing includes monitoring the channel for a transmission from a wireless communication device using an omnidirectional reception beam before a discovery period; transmitting, by the base station, a channel reservation signal using an omnidirectional transmission beam before the discovery period based on the sensing; and transmitting , by the base station, a plurality of discovery signals in one or more of the plurality of expected beam transmission directions during the discovery period to facilitate synchronization in the channel based on the sensing. sensing , by a base station, a channel in a spatial domain based on a plurality of expected beam transmission directions, wherein the base station is associated with a first network operating entity, and wherein the channel is shared by a plurality of network operating entities including the first network operating entity, wherein the sensing includes monitoring the channel for a transmission from a wireless communication device using an omnidirectional reception beam before a discovery period; transmitting, by the base station, a channel reservation signal using an omnidirectional transmission beam before the discovery period based on the sensing; and transmitting , by the base station, a plurality of discovery signals in one or more of the plurality of expected beam transmission directions during the discovery period to facilitate synchronization in the channel based on the sensing.
A process for removal of α and β alkyne compounds from a hydrocarbon stream comprising olefinic compounds or olefinic and aromatic compounds, the process comprising: contacting a hydrocarbon stream comprising 5 to 10 wt.% C 4 olefins and diolefins, 30 to 50 wt.% C 5 olefins and di-olefins, 39 to 64 wt.% of aromatics and paraffins, and up to 3 wt.% alkynes with a supported CuO catalyst under conditions sufficient to crack the alkynes to form a product stream comprising cracked compounds; and separating the product stream comprising the cracked compounds from the hydrocarbon stream; wherein the conditions sufficient to crack the alkynes to cracked compounds comprise a temperature of 100 to 125 °C and a pressure of 0.5 MPa to 2.5 MPa at a liquid hourly space velocity of 5 to 15 h -1 . contacting a hydrocarbon stream comprising 5 to 10 wt.% C 4 olefins and diolefins, 30 to 50 wt.% C 5 olefins and di-olefins, 39 to 64 wt.% of aromatics and paraffins, and up to 3 wt.% alkynes with a supported CuO catalyst under conditions sufficient to crack the alkynes to form a product stream comprising cracked compounds; and separating the product stream comprising the cracked compounds from the hydrocarbon stream;
Motor vehicle latch housing arrangement, comprising at least one latch housing and a carrier housing , wherein the latch housing is configured to accommodate at least one locking-mechanism-side structural component , such as an actuator , wherein the carrier housing further accommodates at least one electronics carrier , and wherein the latch housing and the carrier housing are connected to one another in a media-impermeable manner, wherein the carrier housing and the electronics carrier define a pre-assembled structural unit which is modularly coupled to the latch housing by means of the interposition of at least one seal , and wherein the pre-assembled structural unit additionally has a base carrier , for example an electrical component carrier, characterized in that the base carrier accommodates a sensor , wherein the sensor operates contactlessly.
A solar thermal power system comprising a solar receiver steam generator , a thermal energy storage arrangement including a thermal energy storage fluid, and a multistage steam turbine for driving an electrical generator (G) to produce electrical power, wherein the solar thermal power system has: a first operating mode in which steam is generated by the solar receiver steam generator and is supplied to the thermal energy storage arrangement to heat the thermal energy storage fluid and to a high pressure turbine inlet of the multistage steam turbine to drive the steam turbine by expansion through a high pressure stage (HP), an intermediate pressure stage (IP) and a low pressure stage (LP); and a second operating mode in which steam is generated by recovering stored thermal energy from the thermal energy storage fluid to drive the steam turbine , wherein the steam generated by recovering stored thermal energy from the thermal energy storage fluid is injected into the multistage steam turbine to drive the steam turbine at a turbine stage downstream of the high pressure turbine inlet where the pressure of the steam generated by recovering stored thermal energy exceeds the pressure present in the turbine stage downstream of the high pressure turbine inlet during the first operational mode and hence increases the mass flow through the turbine compared to the mass flow during the first operational mode. a first operating mode in which steam is generated by the solar receiver steam generator and is supplied to the thermal energy storage arrangement to heat the thermal energy storage fluid and to a high pressure turbine inlet of the multistage steam turbine to drive the steam turbine by expansion through a high pressure stage (HP), an intermediate pressure stage (IP) and a low pressure stage (LP); and a second operating mode in which steam is generated by recovering stored thermal energy from the thermal energy storage fluid to drive the steam turbine , wherein the steam generated by recovering stored thermal energy from the thermal energy storage fluid is injected into the multistage steam turbine to drive the steam turbine at a turbine stage downstream of the high pressure turbine inlet where the pressure of the steam generated by recovering stored thermal energy exceeds the pressure present in the turbine stage downstream of the high pressure turbine inlet during the first operational mode and hence increases the mass flow through the turbine compared to the mass flow during the first operational mode.
Feeding bottle for the intake of milk for infants, consisting of a water bottle , a teat and an external heating device , wherein the feeding bottle has a separate milk powder reservoir and the external heating device has a temperature sensor and the milk powder reservoir has an opening device which can be manually actuated so that milk can be mixed at any time, characterised in that the opening device is formed from a releasable component that functions as a base part of the milk powder reservoir and from a plunger , the actuating surface of which protrudes into the teat arranged above the milk powder reservoir and can be actuated manually by the teat.
A 2-component reactive polyisocyanate system for the formation of polyurethane, said 2-component reactive system comprising: - A first system made by combining and/or mixing a monool or polyol composition comprising isocyanate reactive compounds and at least one epoxide compound(s) composition. - A second system made by combining and/or mixing a polyisocyanate composition comprising polyisocyanate compounds with at least one lithium halide compound(s) wherein the first and the second system are combined at an isocyanate index in the range 80-150 such that the number of epoxide equivalents per isocyanate equivalents is from larger than 0 up to 0.095 and the number of moles of lithium halide per isocyanate equivalent ranging of from 0.0001 up to 0.06 in order to form an in situ polyurethane catalyst. - A first system made by combining and/or mixing a monool or polyol composition comprising isocyanate reactive compounds and at least one epoxide compound(s) composition. - A second system made by combining and/or mixing a polyisocyanate composition comprising polyisocyanate compounds with at least one lithium halide compound(s) wherein the first and the second system are combined at an isocyanate index in the range 80-150 such that the number of epoxide equivalents per isocyanate equivalents is from larger than 0 up to 0.095 and the number of moles of lithium halide per isocyanate equivalent ranging of from 0.0001 up to 0.06 in order to form an in situ polyurethane catalyst.
Method for the arrangement of at least one component during the installation of a wind turbine , wherein the component is releasably attached to a tower segment prior to a coupling of the tower segment to a tower segment support structure , wherein the tower segment forms at least a section of a tower of the wind turbine to be installed and wherein the component is attached to an attachment area at the outer surface of the tower segment , wherein the component is moved from the attachment area to an arrangement position after coupling of the tower segment to the tower segment support structure , characterized in that the arrangement position is on a platform arrangement attached to the tower segment support structure , and/or at the outer circumference of the tower segment support structure , and/or at a flange between the tower segment and the tower segment support structure .
Method of manufacturing a motor vehicle component by hot forming and hot cutting and press hardening: - providing a blank made from a hardenable steel alloy sheet, - complete heating to a temperature greater than Ac1, in particular greater than Ac3, - laying into a combined forming and cutting tool , wherein the forming and cutting tool comprises a bottom tool and a top tool ; wherein the bottom dead point is achieved when the top tool is completely lowered or when the forming tool is completely closed, - fixing the laid-in blank in the forming and cutting tool using a stamp arranged in the interior of the tool, - carrying out an at least partially peripheral edge cut prior to starting the forming or carrying out the edge cut at least 20 mm prior to reaching the bottom dead point, wherein the cutting tool is driven exclusively by a pressing stroke of the forming and cutting tool , - hot forming in the pressing stroke with the edge cut and press hardening. - providing a blank made from a hardenable steel alloy sheet, - complete heating to a temperature greater than Ac1, in particular greater than Ac3, - laying into a combined forming and cutting tool , wherein the forming and cutting tool comprises a bottom tool and a top tool ; wherein the bottom dead point is achieved when the top tool is completely lowered or when the forming tool is completely closed, - fixing the laid-in blank in the forming and cutting tool using a stamp arranged in the interior of the tool, - carrying out an at least partially peripheral edge cut prior to starting the forming or carrying out the edge cut at least 20 mm prior to reaching the bottom dead point, wherein the cutting tool is driven exclusively by a pressing stroke of the forming and cutting tool , - hot forming in the pressing stroke with the edge cut and press hardening.
A method of manufacturing a preform for a wind turbine blade, said method comprising the steps of - providing a plurality of support elements , each support element comprising a planar member having a front surface and an opposing back surface , a top surface and an opposing bottom surface , and two opposing lateral surfaces , - arranging a plurality of strips on the top surface of the planar member of each support element to provide a preform mould, wherein the strips are arranged in juxtaposition, wherein the strips extend in a longitudinal direction of the preform mould, such that their longitudinal direction is aligned with the longitudinal direction of the preform mould, wherein the plurality of strips form a concave, or inwardly curved, moulding surface for forming the preform, - laying a fibre material, and optionally a binding agent, on at least part of the strips for forming the preform. - providing a plurality of support elements , each support element comprising a planar member having a front surface and an opposing back surface , a top surface and an opposing bottom surface , and two opposing lateral surfaces , - arranging a plurality of strips on the top surface of the planar member of each support element to provide a preform mould, wherein the strips are arranged in juxtaposition, wherein the strips extend in a longitudinal direction of the preform mould, such that their longitudinal direction is aligned with the longitudinal direction of the preform mould, wherein the plurality of strips form a concave, or inwardly curved, moulding surface for forming the preform, - laying a fibre material, and optionally a binding agent, on at least part of the strips for forming the preform.