mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling of a Downlink Data Notification, DDN, message comprising: setting a DDN flag value to a predetermined value when uplink data are received from an eNodeB, eNB, while a user equipment, UE, is in an inactive state; resetting a Notify Flag in order to indicate that a Fast Path, FP, board does not transmit the DDN message to a Control Plane, CP, board and activating a flag timer having a predetermined time; checking whether the DDN flag is set to the predetermined value if the FP board receives the DDN message; if the DDN flag is set to the predetermined value, buffering the received DDN message and downlink data; if the FP board receives a Modify Bearer Response message from a PDN Gateway, P-GW, resetting the DDN flag and stopping operation of the flag timer; and if the FP board receives the Modify Bearer Response message from the P-GW, removing the buffered DDN message and transmitting the downlink data to the eNB via an activated bearer. setting a DDN flag value to a predetermined value when uplink data are received from an eNodeB, eNB, while a user equipment, UE, is in an inactive state; resetting a Notify Flag in order to indicate that a Fast Path, FP, board does not transmit the DDN message to a Control Plane, CP, board and activating a flag timer having a predetermined time; checking whether the DDN flag is set to the predetermined value if the FP board receives the DDN message; if the DDN flag is set to the predetermined value, buffering the received DDN message and downlink data; if the FP board receives a Modify Bearer Response message from a PDN Gateway, P-GW, resetting the DDN flag and stopping operation of the flag timer; and if the FP board receives the Modify Bearer Response message from the P-GW, removing the buffered DDN message and transmitting the downlink data to the eNB via an activated bearer.
An antenna feeding network, including at least one antenna feeding line, each antenna feeding line comprising a coaxial line having a central inner conductor and a surrounding outer conductor, wherein the outer conductor is made of an elongated tubular compartment having an elongated opening along one side of the compartment, and that the inner conductor is suspended within the tubular compartment by means of dielectric support means, and wherein the feeding network is used as a reflector wherein the compartments of the coaxial lines together with the reflector are forming a self-supporting framework, characterised in that the antenna feeding network further comprises a cross-over element, and two inner conductors of adjacent compartments are connected to each other by said cross-over element inserted through an opening in a wall between the adjacent compartments.
A method for airborne rooting and/or callusing of cuttings, comprising: placing at least one unrooted cutting having a basal portion and a top portion into at least one receptacle, wherein said basal portion is held in the receptacle; and humidifying the unrooted cutting to generate at least one callused or rooted cutting; without any direct application of a liquid to the basal portion of said unrooted cutting; characterised in that a basal portion of the at least one unrooted cutting is kept at or below 10.8 lux. placing at least one unrooted cutting having a basal portion and a top portion into at least one receptacle, wherein said basal portion is held in the receptacle; and humidifying the unrooted cutting to generate at least one callused or rooted cutting; without any direct application of a liquid to the basal portion of said unrooted cutting; characterised in that a basal portion of the at least one unrooted cutting is kept at or below 10.8 lux.
Electrostatic separation method of a granular mixture made of different materials, comprising the following steps: a) injecting, between two electrodes (105, 106) in a separation chamber defined by walls and having an air inlet and an air outlet, a fluidisation air flow; b) placing the granule mixture made of different materials, in the fluidisation air flow; c) controlling the fluidisation air flow, such that the granules levitate in the air flow in a turbulent mode and become electrically charged by means of the contact therebetween and/or by means of the contact with the walls of the separation chamber; d) generating an electrical field between the two electrodes (105, 106), substantially perpendicular to the direction of the air flow, such that the charged granules in step c) move, either in the direction of the electric field if they are positively charged, or in the opposite direction if the charge thereof is negative; e) adhering the charged granules to the surface of the electrodes (105, 106); f) discharging and collecting the granules adhering to each electrode; a) injecting, between two electrodes (105, 106) in a separation chamber defined by walls and having an air inlet and an air outlet, a fluidisation air flow; b) placing the granule mixture made of different materials, in the fluidisation air flow; c) controlling the fluidisation air flow, such that the granules levitate in the air flow in a turbulent mode and become electrically charged by means of the contact therebetween and/or by means of the contact with the walls of the separation chamber; d) generating an electrical field between the two electrodes (105, 106), substantially perpendicular to the direction of the air flow, such that the charged granules in step c) move, either in the direction of the electric field if they are positively charged, or in the opposite direction if the charge thereof is negative; e) adhering the charged granules to the surface of the electrodes (105, 106); f) discharging and collecting the granules adhering to each electrode;
A mixed dimer or mixed oligomer composition, (a) the mixed dimer composition comprising a monosulfonated cross-dimer, or a salt thereof, of: (i) an alpha-olefin sulfonic acid (AOS acid); and (ii) an unsulfonated olefin, an unsulfonated olefin precursor, or a functionalized olefin; or (b) the mixed oligomer composition comprising a mono- or polysulfonated cross-oligomer, or a salt thereof, of: (i) an alpha-olefin sulfonic acid; and (ii) an unsulfonated diolefin or an unsulfonated diolefin precursor. (a) the mixed dimer composition comprising a monosulfonated cross-dimer, or a salt thereof, of: (i) an alpha-olefin sulfonic acid (AOS acid); and (ii) an unsulfonated olefin, an unsulfonated olefin precursor, or a functionalized olefin; or (i) an alpha-olefin sulfonic acid (AOS acid); and (ii) an unsulfonated olefin, an unsulfonated olefin precursor, or a functionalized olefin; or (b) the mixed oligomer composition comprising a mono- or polysulfonated cross-oligomer, or a salt thereof, of: (i) an alpha-olefin sulfonic acid; and (ii) an unsulfonated diolefin or an unsulfonated diolefin precursor. (i) an alpha-olefin sulfonic acid; and (ii) an unsulfonated diolefin or an unsulfonated diolefin precursor.
A perfuming composition in the form of a transparent and ethanol-free microemulsion comprising: - 0.5% to 50% of a fragrance oil; - 1.0% to 36% of a solvent; - a surfactant system comprising: a) at least a non-ionic surfactant present in an amount of 1.0% to 35%; and b) at least a ionic surfactant present in an amount of 0% to 12%; - 0.01% to 12% of at least a cooling hydrotrope; and - water; wherein the perfuming composition remains stable during freeze-thaw cycles from -25°C to 50°C, and wherein all concentrations are based on the weight of the composition. - 0.5% to 50% of a fragrance oil; - 1.0% to 36% of a solvent; - a surfactant system comprising: a) at least a non-ionic surfactant present in an amount of 1.0% to 35%; and b) at least a ionic surfactant present in an amount of 0% to 12%; a) at least a non-ionic surfactant present in an amount of 1.0% to 35%; and b) at least a ionic surfactant present in an amount of 0% to 12%; - 0.01% to 12% of at least a cooling hydrotrope; and - water;
A detector unit (100, 202) for tracking high energy particles, the detector unit comprising: - a first panel (102, 304) having a first surface and a second surface opposite to the first surface, - a first support member arranged between the first surface and the second surface of the first panel, - a second panel (108, 306) having a first surface and a second surface opposite to the first surface, - a second support member arranged between the first surface and the second surface of the second panel, - a plurality of first fibres arranged in the second surface of the first panel; and - a plurality of second fibres arranged in the second surface of the second panel; and - wherein the first panel is stacked upon the second panel such that the second surface of the first panel and the second surface of the second panel are facing each other, - wherein the plurality of the first fibres comprises two or more layers of first fibres arranged in the first panel, - wherein the plurality of the second fibres comprises two or more layers of second fibres arranged in the second panel, and characterized in that the first support member and second support member include a honeycomb or a foam structure and are fabricated with a material selected from at least one of: foam, plastics, paper, wood material, metal material, composite material, or any combination thereof. - a first panel (102, 304) having a first surface and a second surface opposite to the first surface, - a first support member arranged between the first surface and the second surface of the first panel, - a second panel (108, 306) having a first surface and a second surface opposite to the first surface, - a second support member arranged between the first surface and the second surface of the second panel, - a plurality of first fibres arranged in the second surface of the first panel; and - a plurality of second fibres arranged in the second surface of the second panel; and - wherein the first panel is stacked upon the second panel such that the second surface of the first panel and the second surface of the second panel are facing each other, - wherein the plurality of the first fibres comprises two or more layers of first fibres arranged in the first panel, - wherein the plurality of the second fibres comprises two or more layers of second fibres arranged in the second panel, and
Piezoelectric device comprising: - a transparent substrate; - a transparent piezoelectric layer on the transparent substrate; - a transparent conductive layer of interdigitated electrodes on the transparent piezoelectric layer; characterized in that the piezoelectric device further comprises: - a transparent dielectric layer directly on the transparent piezoelectric layer, contacting the interdigitated electrodes, and having a dielectric strength greater than 3 MV/m; and in that: the transparent dielectric layer has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent piezoelectric layer; and/or the transparent dielectric layer covers the transparent conductive layer of interdigitated electrodes and has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent conductive layer of interdigitated electrodes. - a transparent substrate; - a transparent piezoelectric layer on the transparent substrate; - a transparent conductive layer of interdigitated electrodes on the transparent piezoelectric layer; - a transparent dielectric layer directly on the transparent piezoelectric layer, contacting the interdigitated electrodes, and having a dielectric strength greater than 3 MV/m; and in that: the transparent dielectric layer has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent piezoelectric layer; and/or the transparent dielectric layer covers the transparent conductive layer of interdigitated electrodes and has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent conductive layer of interdigitated electrodes. the transparent dielectric layer has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent piezoelectric layer; and/or the transparent dielectric layer covers the transparent conductive layer of interdigitated electrodes and has a refractive index, in a wavelength range from 400nm to 700nm, that is lower, within said wavelength range, than a refractive index in said wavelength range of the transparent conductive layer of interdigitated electrodes.
A communication method, comprising: receiving, by user equipment, a first handover message sent by a first base station, wherein the first handover message is used to instruct to hand over the user equipment from a first cell to a second cell, and the first handover message comprises instruction information, wherein the instruction information is used to instruct the user equipment to maintain uplink synchronization of the user equipment with the first cell controlled by the first base station; and handing over the user equipment according to the instruction; when the user equipment is in uplink synchronization with the first cell according to the instruction information, the user equipment is in a radio resource control RRC connected state, and a serving cell of the user equipment is the second cell controlled by a second base station; and when a radio link between the user equipment and the second cell fails, or after the user equipment receives a second handover message sent by the second base station and used to instruct to hand over the user equipment from the second cell to the first cell, handing over the user equipment from the second cell to the first cell that is in uplink synchronization with the user equipment, and performing communication based on the first cell. receiving, by user equipment, a first handover message sent by a first base station, wherein the first handover message is used to instruct to hand over the user equipment from a first cell to a second cell, and the first handover message comprises instruction information, wherein the instruction information is used to instruct the user equipment to maintain uplink synchronization of the user equipment with the first cell controlled by the first base station; and handing over the user equipment according to the instruction; when the user equipment is in uplink synchronization with the first cell according to the instruction information, the user equipment is in a radio resource control RRC connected state, and a serving cell of the user equipment is the second cell controlled by a second base station; and when a radio link between the user equipment and the second cell fails, or after the user equipment receives a second handover message sent by the second base station and used to instruct to hand over the user equipment from the second cell to the first cell, handing over the user equipment from the second cell to the first cell that is in uplink synchronization with the user equipment, and performing communication based on the first cell.
A method of programming a laser scanning assembly for curing a composite filling in a cavity of a tooth surface, the method comprising: determining a geometry of the composite filling based on digital imaging data; based on the geometry, calculating a predetermined polymerization pattern for minimizing shrinkage stress at interfaces between the composite filling and the tooth surface; and programming a laser scanning assembly with the predetermined polymerization pattern. determining a geometry of the composite filling based on digital imaging data; based on the geometry, calculating a predetermined polymerization pattern for minimizing shrinkage stress at interfaces between the composite filling and the tooth surface; and programming a laser scanning assembly with the predetermined polymerization pattern.
A closed-loop current transducer comprising a magnetic circuit with low magnetic reluctance configured to conduct magnetic flux and concentrate a magnetic field, a magnetic field detector, and a compensation coil assembly configured to generate a magnetic field opposing a magnetic field created by an electrical current to be measured flowing in one or more primary conductors extending through a central opening of the magnetic circuit, the magnetic circuit comprising a first branch, a second branch, and first and second end branches (16a, 16b) interconnecting the first and second branches such that the branches surround said central opening, the second branch comprising a receptacle that defines a cavity extending in an axial direction A for receiving a sensing portion of the magnetic field detector, the second branch comprising two second branch portions (14a, 14b) separated by an interface resulting from the bringing together of opposed ends (31a, 31b) of the magnetic circuit, wherein the receptacle comprises receptacle portions (22a, 22b), one in each second branch portion (14a, 14b), each receptacle portion formed by two lateral extensions (24a, 24b) extending laterally on each side of the wall portions (221a, 221b), going around into sidewall portions (222a, 222b) and coming together on an opposite side to form wall portions (223a, 223b) separated by a longitudinal gap, and wherein at least one of said second branch portions comprises an overlapping extension extending integrally from a wall portion of said at least one second branch portion, said extension overlapping and in contact against a wall portion of the other second branch portion, characterised in that the magnetic circuit is integrally formed as a single part.
A tire component, the tire component comprising a rubber composition that is based upon a cross-linkable elastomer composition, the cross-linkable rubber composition comprising, per 100 parts by weight of rubber (phr): a highly unsaturated diene elastomer; a reinforcing filler; between 3 phr and 10 phr of TMQ, wherein the TMQ is poly-2,2,4-trimethyl- 1,2-dihydroquinoline; between 10 phr and 30 phr of a methylene acceptor that is a novolac resin; and a methylene donor. a highly unsaturated diene elastomer; a reinforcing filler; between 3 phr and 10 phr of TMQ, wherein the TMQ is poly-2,2,4-trimethyl- 1,2-dihydroquinoline; between 10 phr and 30 phr of a methylene acceptor that is a novolac resin; and a methylene donor.
A method for adjusting a gain level for a receiver of a first radio simultaneously operational with a transmitter of a second radio, the first radio and the second radio being deployed in a single wireless device, comprising: determining a signal-to-noise ratio ("SNR") value for signals received by the receiver from an access point ("AP"); and, when the first radio is associated with the AP and the transmitter is not transmitting, if the SNR value exceeds a SNR threshold, reducing the gain level for the receiver from an initial level and initiating transmission from the transmitter, otherwise maintaining the gain level for the receiver at the initial level and initiating transmission from the transmitter; wherein the SNR threshold is a SNR value above which beacon signals from the AP can be successfully received by the receiver. determining a signal-to-noise ratio ("SNR") value for signals received by the receiver from an access point ("AP"); and, when the first radio is associated with the AP and the transmitter is not transmitting, if the SNR value exceeds a SNR threshold, reducing the gain level for the receiver from an initial level and initiating transmission from the transmitter, otherwise maintaining the gain level for the receiver at the initial level and initiating transmission from the transmitter;
A sensor assembly, comprising: an electrostatic sensor comprising: an outer housing, an electrode configured within the outer housing, wherein the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; a circuit board configured within the outer housing and electrically coupled to the electrostatic sensor; and a controller configured to receive one or more signals from the circuit board indicative of the particle level, wherein the controller comprises one or more processors and one or more memory devices. an outer housing, an electrode configured within the outer housing, wherein the electrode comprising a first end and an opposing second end separated by a predetermined length, the first end being secured within the outer housing, the second end comprising a sensing face that is substantially flush with an edge of the outer housing, the electrode comprising a plurality of electrons that respond to one or more charged particles that flow past the sensing face, said electrons moving either towards or away from the second end, an amplifier configured within the outer housing and electrically coupled to the electrode, wherein a particle level flowing past the sensing face as a function of electron movement is detected via said amplifier; a circuit board configured within the outer housing and electrically coupled to the electrostatic sensor; and a controller configured to receive one or more signals from the circuit board indicative of the particle level, wherein the controller comprises one or more processors and one or more memory devices.
Inserting device comprising an envelope feed and in particular a mounting rail, an adjusting rail or a stop, and comprising a packing pocket, the packing pocket having a center line M with respect to a transport direction of the envelopes, as well as several slats arranged parallel to the center line M, with a flap guide of the packing pocket in a plane K, the slats being mountable on the inserting device and to at least one or more slats a sheet guide is assigned being spaced apart from the flap guide, wherein the sheet guide is resilient with respect to the flap guide at least in a front region of the packing pocket, said region being at the front of the packing pocket with respect to the envelope feed, characterized in that the sheet guide in the rear area is firmly connected to a slat, a mounting rail, an adjustment rail, a stop or to the inserting device, and the slats are mounted on the inserting device, a mounting rail, an adjustment rail or a stop, so that the packing pocket is not moved during the inserting process, and the sheet guide extends finger-shaped up to the front area of the slat, directed obliquely against the flap guide.