mhurhangee/ep-ind-claims huggingface dataset:
A method of a network node (103; 702) for delivering a plurality of simultaneous sessions to a client (101; 701) via a Radio Access Network, RAN, the method comprising: identifying a streaming session (111; A) among the plurality of simultaneous sessions, reshaping the streaming session into a sequence of bursts and silent periods, identifying at least one non-time-critical session (112, 113; B, C) among the plurality of simultaneous sessions, reshaping the at least one non-time-critical session into respective sequences (520, 530) of bursts and silent periods, and transmitting the sequences of bursts and silent periods to the RAN, characterized in that the at least one non-time-critical session is reshaped into respective sequences (520, 530) of bursts and silent periods such that bursts, or silent periods, or both, of the at least one non-time-critical session (B, C) are aligned with bursts, silent periods, or both, respectively, of the streaming session. identifying a streaming session (111; A) among the plurality of simultaneous sessions, reshaping the streaming session into a sequence of bursts and silent periods, identifying at least one non-time-critical session (112, 113; B, C) among the plurality of simultaneous sessions, reshaping the at least one non-time-critical session into respective sequences (520, 530) of bursts and silent periods, and transmitting the sequences of bursts and silent periods to the RAN,
A method of cutting an article from a substrate, comprising: focusing a pulsed laser beam into a laser beam focal line; directing the laser beam focal line into the substrate at a first plurality of locations along a first predetermined path, the laser beam focal line generating an induced absorption within the substrate that produces a defect line within the substrate along the laser beam focal line at each location of the first plurality of locations, wherein the first predetermined path is a closed path; heating the substrate along the first predetermined path to propagate a crack through each defect line of the first plurality of locations, thereby isolating an interior plug from the substrate; further characterised in; heating the interior plug after the isolating so that at least a portion of the plug is heated to a temperature equal to or greater than a softening temperature of the substrate; and allowing the interior plug to cool after the heating to remove the plug from the substrate. focusing a pulsed laser beam into a laser beam focal line; directing the laser beam focal line into the substrate at a first plurality of locations along a first predetermined path, the laser beam focal line generating an induced absorption within the substrate that produces a defect line within the substrate along the laser beam focal line at each location of the first plurality of locations, wherein the first predetermined path is a closed path; heating the substrate along the first predetermined path to propagate a crack through each defect line of the first plurality of locations, thereby isolating an interior plug from the substrate; further characterised in; heating the interior plug after the isolating so that at least a portion of the plug is heated to a temperature equal to or greater than a softening temperature of the substrate; and allowing the interior plug to cool after the heating to remove the plug from the substrate. heated to a temperature equal to or greater than a softening temperature of the substrate; and allowing the interior plug to cool after the heating to remove the plug from the substrate.
A method for preparing a thermal interface material, the method comprising: • growing carbon nanotubes on two surfaces of a zirconium foil to form a carbon nanotube array on each of the two surfaces of the zirconium foil, wherein the two surfaces comprise zirconium oxide (step 401), and • placing, in an H 2 atmosphere for annealing reduction processing, the zirconium foil with the carbon nanotube array grown on the two surfaces, • performing the annealing reduction processing, wherein in the process of the annealing reduction processing in the H 2 atmosphere, an H 2 flow rate is 5 to 100 SCCM, atmospheric pressure is 0.005 to 0.5 MPa, annealing processing temperature is 350°C to 650°C, and a duration of the annealing processing is 5 to 30 min, thereby performing a reduction reaction on the two surfaces of the zirconium foil after the carbon nanotube array is formed on each of the two surfaces of the zirconium foil to obtain the thermal interface material, wherein the two surfaces of the zirconium foil in the thermal interface material comprise, after the annealing reduction processing, on an interface between the zirconium foil and each carbon nanotube of the carbon nanotube array zirconium and on the remaining parts of the two surfaces exposed zirconium (step 402). • growing carbon nanotubes on two surfaces of a zirconium foil to form a carbon nanotube array on each of the two surfaces of the zirconium foil, wherein the two surfaces comprise zirconium oxide (step 401), and • placing, in an H 2 atmosphere for annealing reduction processing, the zirconium foil with the carbon nanotube array grown on the two surfaces, • performing the annealing reduction processing, wherein in the process of the annealing reduction processing in the H 2 atmosphere, an H 2 flow rate is 5 to 100 SCCM, atmospheric pressure is 0.005 to 0.5 MPa, annealing processing temperature is 350°C to 650°C, and a duration of the annealing processing is 5 to 30 min, thereby performing a reduction reaction on the two surfaces of the zirconium foil after the carbon nanotube array is formed on each of the two surfaces of the zirconium foil to obtain the thermal interface material, wherein the two surfaces of the zirconium foil in the thermal interface material comprise, after the annealing reduction processing, on an interface between the zirconium foil and each carbon nanotube of the carbon nanotube array zirconium and on the remaining parts of the two surfaces exposed zirconium (step 402).
A weft insertion device for an air jet loom, comprising: a first air tank configured to store air; and a weft insertion nozzle configured to inject a weft yarn by discharging air supplied from the first air tank; wherein a second air tank (50, 52, 53) is connected to the first air tank through a pipe and configured to store the air supplied from the first air tank, wherein an air valve (22, 32), the weft insertion nozzle, and the second air tank (50, 52, 53) are connected altogether without any pipe disposed therebetween, and the air valve (22, 32) is controllable to supply air from the second air tank (50, 52, 53) to the weft insertion nozzle and to stop supplying the air from the second air tank (50, 52, 53) to the weft insertion nozzle. a first air tank configured to store air; and a weft insertion nozzle configured to inject a weft yarn by discharging air supplied from the first air tank; wherein a second air tank (50, 52, 53) is connected to the first air tank through a pipe and configured to store the air supplied from the first air tank, wherein an air valve (22, 32), the weft insertion nozzle, and the second air tank (50, 52, 53) are connected altogether without any pipe disposed therebetween, and the air valve (22, 32) is controllable to supply air from the second air tank (50, 52, 53) to the weft insertion nozzle and to stop supplying the air from the second air tank (50, 52, 53) to the weft insertion nozzle.
A cooking oven including an apparatus for detecting the three-dimensional shape of food stuff on a food stuff carrier, in particular a baking tray, of said cooking oven, wherein: - the apparatus includes at least one laser arranged above an oven cavity of the cooking oven, - a laser beam from the laser is directed downwardly, - the apparatus includes at least one camera arranged above the food stuff carrier of the cooking oven, - the camera is arranged in a front portion of the cooking oven, - an upper side of the food stuff carrier is within a range of vision of the camera, and - an angle between a central axis of a range of vision of the camera and the laser beam is predetermined, characterized in, that the cooking oven comprises a drawer, wherein the camera is arranged at a top portion of a vertical part of said drawer, and wherein the food stuff carrier is arranged at the vertical part and/or on a horizontal part of said drawer, and wherein the laser is arranged behind a front frame of the oven cavity, and wherein the food stuff carrier and the camera are mechanically coupled, so that the camera and the food stuff carrier are synchronously moveable. - the apparatus includes at least one laser arranged above an oven cavity of the cooking oven, - a laser beam from the laser is directed downwardly, - the apparatus includes at least one camera arranged above the food stuff carrier of the cooking oven, - the camera is arranged in a front portion of the cooking oven, - an upper side of the food stuff carrier is within a range of vision of the camera, and - an angle between a central axis of a range of vision of the camera and the laser beam is predetermined,
A linear regulator configured to derive an output voltage from an input voltage, the linear regulator comprising - an amplifier configured to derive an amplifier output signal from an amplifier input signal; - a pass device configured to convert the amplifier output signal into the output voltage; - a positive feedback loop configured to determine a positive feedback signal from the amplifier output signal, using a positive feedback gain γ; and - a negative feedback loop configured to determine a negative feedback signal from the output voltage; characterised in that - the negative feedback loop is configured to determine the negative feedback signal from the output voltage, using a negative feedback gain β; and - the linear regulator further comprises a combining unit configured to determine the amplifier input signal from the input voltage, from the positive feedback signal and from the negative feedback voltage; wherein a transfer function of the linear regulator exhibits a first and a second pole at a first frequency wp 1 and at a second frequency wp2, respectively. - an amplifier configured to derive an amplifier output signal from an amplifier input signal; - a pass device configured to convert the amplifier output signal into the output voltage; - a positive feedback loop configured to determine a positive feedback signal from the amplifier output signal, using a positive feedback gain γ; and - a negative feedback loop configured to determine a negative feedback signal from the output voltage; - the negative feedback loop is configured to determine the negative feedback signal from the output voltage, using a negative feedback gain β; and - the linear regulator further comprises a combining unit configured to determine the amplifier input signal from the input voltage, from the positive feedback signal and from the negative feedback voltage; wherein a transfer function of the linear regulator exhibits a first and a second pole at a first frequency wp 1 and at a second frequency wp2, respectively.
A vaccine against PRRSV, said vaccine comprising an inactivated or attenuated whole type 1 PRRSV strain wherein the genome of said type 1 PRRSV strain comprises SEQ ID N°1, SEQ ID N°12, or SEQ ID N°13, or a sequence having at least 95% sequence identity with SEQ ID N° 1; and wherein said vaccine is capable of inducing an antibody response against said PRRSV strain.
Estrogen for use in a method of preventing ovarian cancer or non-small cell lung cancer in a KRAS -variant subject, the method comprising: administering to the KRAS -variant subject the estrogen in an amount effective to reduce the risk of developing ovarian cancer or non-small cell lung cancer.
An absorbable polymer blend for the manufacture of a medical device, comprising: a first absorbable polymer comprising at least 50 weight percent of a lactide-rich polymer comprising 100 mole percent to 70 mole percent polymerized lactide and 0 mole percent to 30 mole percent polymerized glycolide; and, a second absorbable polymer comprising poly( p -dioxanone), wherein the maximum weight percent of poly( p -dioxanone) in the blend is 50 weight percent and the minimum weight percent of poly( p -dioxanone) in the blend is sufficient so that the polymer blend effectively provides dimensional stability to a manufactured article, and further wherein one or both of the first absorbable polymer and the second absorbable polymer are bimodal molecular weight distribution polymers each bimodal molecular weight distribution polymer comprising a blend of: (a) from 60 to 95 wt. % of a first component polymer having a first weight average molecular weight between 50,000 to 500,000 Daltons; and (b) from 5 to 40 wt. % of a second component polymer having a second weight average molecular weight between 10,000 to 50,000 Daltons, the weight average molecular weight ratio of said first molecular weight to said second molecular weight is at least two to one. a first absorbable polymer comprising at least 50 weight percent of a lactide-rich polymer comprising 100 mole percent to 70 mole percent polymerized lactide and 0 mole percent to 30 mole percent polymerized glycolide; and, a second absorbable polymer comprising poly( p -dioxanone), (a) from 60 to 95 wt. % of a first component polymer having a first weight average molecular weight between 50,000 to 500,000 Daltons; and (b) from 5 to 40 wt. % of a second component polymer having a second weight average molecular weight between 10,000 to 50,000 Daltons, the weight average molecular weight ratio of said first molecular weight to said second molecular weight is at least two to one.
An additive for a fuel, the additive comprising at least one compound represented by general formula below: wherein R is a saturated or unsaturated hydrocarbon group having 14 to 20 carbon atoms; and n is an integer of 1 to 6; wherein the additive further encompasses at least one benzotriazole; wherein the additive has an antimicrobial effect; wherein the additive encompasses 50 to 90 wt% of the at least one compound represented by general formula and 5 to 10 wt% of the at least one benzotriazole. R is a saturated or unsaturated hydrocarbon group having 14 to 20 carbon atoms; and n is an integer of 1 to 6; wherein the additive further encompasses at least one benzotriazole; wherein the additive has an antimicrobial effect; wherein the additive encompasses 50 to 90 wt% of the at least one compound represented by general formula and 5 to 10 wt% of the at least one benzotriazole.
Additive manufacturing machine, this additive manufacturing machine comprising a manufacturing chamber inside which at least one source of heat or energy is used to melt additive manufacturing powder on a working surface, the manufacturing chamber being formed by at least one working plane, a front wall, a rear wall, a left-hand lateral wall, a right-hand lateral wall, and an upper wall, at least one of these walls supporting the source of energy or heat used to melt the additive manufacturing powder, the additive manufacturing machine being characterized in that it comprises an inner skin that is positioned inside the manufacturing chamber in front of each wall of this chamber supporting the source of energy or heat and at a non-zero distance (D1, D2, D3) from each wall supporting the source of energy or heat so as to create a circulation volume for a flow of gas between the inner skin and each wall of this chamber in front of which this inner skin is positioned, and in that the additive manufacturing machine comprises a device for generating the flow of gas that is connected to the circulation volume, each wall supporting the source of energy or heat being subjected less to the heat radiating from the working surface and being thus less likely to deform by virtue of the inner skin and the flow of gas which cools the inner skin.
A child safety gate, intended to be mounted in an opening, such as door openings or staircase openings, and comprising a plurality of panels, which may be connected with each other, a mounting fitting intended to be mounted at one side of the opening, and a closure device indented to be mounted at the opposite side of the opening, wherein at least one of the panels is capable of rotating about a first axis of rotation in the mounting fitting, at least two of the panels may be connected with each other either via a gripping part disposed on the one panel intended to engage a receiving part disposed on the other panel, characterized in that a plurality of the panels comprises two panel parts (20, 21), said gripping part being arranged on the one panel part, said receiving part being arranged on the other panel part and wherein two panel parts of different panels may be separated from each other and subsequently be put together; wherein the two panel parts (20, 21) of a panel are joined with a flexible hinge, extruded together with the panel parts (20, 21).
A compound of formula wherein R 1 is selected from i) H, ii) C 1-6 -alkyl, iii) C 1-6 -alkoxy, iv) C 1-6 -alkoxy-C 1-6 -alkyl, v) hydroxy, vi) hydroxy-C 1-6 -alkyl, vii) C 3-8 -cycloalkyl optionally substituted by R 7, R 8 and R 9, viii) amino-C 1-6 -alkyl ix) heteroaryl optionally substituted by R 7, R 8 and R 9, and x) heterocycloalkyl optionally substituted by R 7, R 8 and R 9; R 3 is selected from i) Cl, and ii) F; X is selected from i) CR 6, and ii) N; R 6 is selected from i) H, ii) Cl, and iii) F; R 4 is selected from i) Br, and ii) Cl; R 5 is selected from i) C 1-6 -alkyl, i) C 1-6 -alkoxy, ii) halogen, iii) halo-C 1-6 -alkyl, iv) cyano, and v) C 3-8 -cycloalkyl; R 7, R 8 and R 9 are independently selected from i) C 1-6 -alkyl, and ii) C 1-6 -alkoxy; or pharmaceutically acceptable salts or esters thereof. R 1 is selected from i) H, ii) C 1-6 -alkyl, iii) C 1-6 -alkoxy, iv) C 1-6 -alkoxy-C 1-6 -alkyl, v) hydroxy, vi) hydroxy-C 1-6 -alkyl, vii) C 3-8 -cycloalkyl optionally substituted by R 7, R 8 and R 9, viii) amino-C 1-6 -alkyl ix) heteroaryl optionally substituted by R 7, R 8 and R 9, and x) heterocycloalkyl optionally substituted by R 7, R 8 and R 9; i) H, ii) C 1-6 -alkyl, iii) C 1-6 -alkoxy, iv) C 1-6 -alkoxy-C 1-6 -alkyl, v) hydroxy, vi) hydroxy-C 1-6 -alkyl, vii) C 3-8 -cycloalkyl optionally substituted by R 7, R 8 and R 9, viii) amino-C 1-6 -alkyl ix) heteroaryl optionally substituted by R 7, R 8 and R 9, and x) heterocycloalkyl optionally substituted by R 7, R 8 and R 9; R 3 is selected from i) Cl, and ii) F; i) Cl, and ii) F; X is selected from i) CR 6, and ii) N; i) CR 6, and ii) N; R 6 is selected from i) H, ii) Cl, and iii) F; i) H, ii) Cl, and iii) F; R 4 is selected from i) Br, and ii) Cl; i) Br, and ii) Cl; R 5 is selected from i) C 1-6 -alkyl, i) C 1-6 -alkoxy, ii) halogen, iii) halo-C 1-6 -alkyl, iv) cyano, and v) C 3-8 -cycloalkyl; i) C 1-6 -alkyl, i) C 1-6 -alkoxy, ii) halogen, iii) halo-C 1-6 -alkyl, iv) cyano, and v) C 3-8 -cycloalkyl; R 7, R 8 and R 9 are independently selected from i) C 1-6 -alkyl, and ii) C 1-6 -alkoxy; i) C 1-6 -alkyl, and ii) C 1-6 -alkoxy;
A cleaner comprising: a suction inlet configured to guide air into the cleaner; a dust separation unit comprising: a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction inlet; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit, the second cyclone unit comprising a plurality of cyclone bodies that are configured to separate dust from the air that is discharged from the first cyclone unit; a suction motor having a rotary impeller, the suction motor being configured to drive a rotation of the rotary impeller via an impeller shaft to generate a suction force that suctions air into the cleaner through the suction inlet; a motor housing (26, 27) that is configured to house the suction motor and the impeller; and a pre-filter; characterized in that the pre-filter is configured to surround a portion of the motor housing (26,27) located above a top of the second cyclone unit; a first passage is located between a main body and the motor housing (26,27) and is configured to guide air discharged from the second cyclone unit toward the pre-filter, wherein the air passed through the pre-filter go into the suction motor through the opening of motor housing. a suction inlet configured to guide air into the cleaner; a dust separation unit comprising: a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction inlet; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit, the second cyclone unit comprising a plurality of cyclone bodies that are configured to separate dust from the air that is discharged from the first cyclone unit; a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction inlet; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit, the second cyclone unit comprising a plurality of cyclone bodies that are configured to separate dust from the air that is discharged from the first cyclone unit; a suction motor having a rotary impeller, the suction motor being configured to drive a rotation of the rotary impeller via an impeller shaft to generate a suction force that suctions air into the cleaner through the suction inlet; a motor housing (26, 27) that is configured to house the suction motor and the impeller; and a pre-filter; characterized in that the pre-filter is configured to surround a portion of the motor housing (26,27) located above a top of the second cyclone unit; a first passage is located between a main body and the motor housing (26,27) and is configured to guide air discharged from the second cyclone unit toward the pre-filter, wherein the air passed through the pre-filter go into the suction motor through the opening of motor housing.