mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for the additive manufacturing of components, comprising an additive manufacturing head with an extrusion nozzle and a plasma source for producing plasma arranged around the extrusion nozzle or integrated in the extrusion nozzle , characterized in that the plasma source comprises a precursor gas feed line , the precursor gas feed line being connected to a depression arranged on a surface of the plasma source , which depression is arranged around the extrusion nozzle .
A system for land vehicles , namely trucks and truck trailers, which is located on the bottom surface of the vehicle, facing the road surface on the rear end portion of the truck, comprising at least one longitudinally-inclined portion, tapering toward the back of the vehicle , and characterized in that , substantially at the end of the inclined wall , after the last axle of the vehicle, an element is interposed between the road surface and the inclined wall and wherein the horizontal axis of the element has substantially the same inclination as the inclined wall .
A method for preparing graphene comprising: a step of subjecting a dispersion solution containing expanded graphite and a dispersant to high speed homogenization by stirring the dispersion solution at 3000 to 8000 rpm to prepare a feed solution; and a step of passing the feed solution under application of a pressure of 50 to 300 MPa (500 to 3000 bar) through a high-pressure homogenizer including an inlet, an outlet, and a micro-channel that connects between the inlet and the outlet and has a diameter in a micrometer scale. a step of subjecting a dispersion solution containing expanded graphite and a dispersant to high speed homogenization by stirring the dispersion solution at 3000 to 8000 rpm to prepare a feed solution; and a step of passing the feed solution under application of a pressure of 50 to 300 MPa (500 to 3000 bar) through a high-pressure homogenizer including an inlet, an outlet, and a micro-channel that connects between the inlet and the outlet and has a diameter in a micrometer scale.
A method performed by a terminal , the method comprising: receiving, from a base station , a radio resource control, RRC, message including first information associated with a number of a plurality of uplink transmission units including symbols for a physical uplink shared channel, PUSCH, wherein an uplink transmission unit is configured as one or more uplink subframes; receiving, from the base station , downlink control information, DCI, including second information, the second information associated with a starting symbol and a number of symbols; and transmitting, to the base station , uplink data through the PUSCH based on the first information associated with the number of the plurality of uplink transmission units and the second information associated with the starting symbol and the number of symbols, wherein the second information associated with the starting symbol and the number of symbols is applied to each of the plurality of uplink transmission units. receiving, from a base station , a radio resource control, RRC, message including first information associated with a number of a plurality of uplink transmission units including symbols for a physical uplink shared channel, PUSCH, wherein an uplink transmission unit is configured as one or more uplink subframes; receiving, from the base station , downlink control information, DCI, including second information, the second information associated with a starting symbol and a number of symbols; and transmitting, to the base station , uplink data through the PUSCH based on the first information associated with the number of the plurality of uplink transmission units and the second information associated with the starting symbol and the number of symbols, wherein the second information associated with the starting symbol and the number of symbols is applied to each of the plurality of uplink transmission units.
A method for manufacturing a negative electrode for a lithium metal secondary battery, comprising the steps of: (S11) preparing a negative electrode material provided with an electrode active material layer; and (S12) dipping the negative electrode material in an acid solution for a predetermined time to form a LiF protective film on the surface of the electrode active material layer, the protective film having a thickness of 1 μm-20 μm and a porosity of 25%-50%, wherein the electrode active material layer comprises lithium metal, and wherein the acid solution comprises HF and polyethylene glycol (PEG).
A superconducting wire connector comprising: (a)superconducting wires ; and (b)a sintered body containing MgB 2 , wherein the superconducting wires are connected by the sintered body , the superconducting wires include a superconducting core having a first outer surface, and the sintered body is in contact with the first outer surface, wherein the superconducting wires further include a metal sheath disposed around the superconducting core and having an opening, characterized in that the opening is positioned at an intermediate portion in a longitudinal direction of the superconducting wires , and the sintered body is in direct contact with the first outer surface through the opening. (a)superconducting wires ; and (b)a sintered body containing MgB 2 , wherein the superconducting wires are connected by the sintered body , the superconducting wires include a superconducting core having a first outer surface, and the sintered body is in contact with the first outer surface, wherein the superconducting wires further include a metal sheath disposed around the superconducting core and having an opening, characterized in that the opening is positioned at an intermediate portion in a longitudinal direction of the superconducting wires , and the sintered body is in direct contact with the first outer surface through the opening.
A method for sequential loading of multiple delivery vectors onto an autonomously replicating nucleic acid in a cell by removal and reuse of a recyclable selectable marker and drug resistant gene cassette comprising: integrating a first delivery vector comprising a recyclable selectable marker gene and a drug resistant gene cassette and a first nucleic acid of interest onto the autonomously replicating nucleic acid using a first recombination system; excising the recyclable cassette from the autonomously replicating nucleic acid using a second recombination system with signal sites alpha, wherein the first nucleic acid of interest remains on the autonomously replicating nucleic acid; integrating a second delivery vector comprising the recyclable cassette and a second nucleic acid of interest onto the autonomously replicating nucleic acid using the first recombination system; and excising the recyclable cassette from the autonomously replicating nucleic acid using the second recombination system with signal sites beta, wherein the second nucleic acid of interest remains on the autonomously replicating nucleic acid. integrating a first delivery vector comprising a recyclable selectable marker gene and a drug resistant gene cassette and a first nucleic acid of interest onto the autonomously replicating nucleic acid using a first recombination system; excising the recyclable cassette from the autonomously replicating nucleic acid using a second recombination system with signal sites alpha, wherein the first nucleic acid of interest remains on the autonomously replicating nucleic acid; integrating a second delivery vector comprising the recyclable cassette and a second nucleic acid of interest onto the autonomously replicating nucleic acid using the first recombination system; and excising the recyclable cassette from the autonomously replicating nucleic acid using the second recombination system with signal sites beta, wherein the second nucleic acid of interest remains on the autonomously replicating nucleic acid.
A lithium ion conducting electrolyte comprising at least one non-fluorinated organic solvent and at least one lithium salt, characterised in that it further comprises a non-fluorinated ionic liquid consisting of the association of a cation which is a compound including at least one nitrogen atom, the positive charge of which is carried by said nitrogen atom and a borate anion, the cation corresponding to the following formula (X): wherein: - N + and R 27 form together an alicyclic group; - R 28 and R 29 represent, independently of each other, a linear alkyl group comprising from 1 to 5 carbon atoms. - N + and R 27 form together an alicyclic group; - R 28 and R 29 represent, independently of each other, a linear alkyl group comprising from 1 to 5 carbon atoms.
Method for producing an ingot of a solid-glass-forming alloy, having the steps of: a. providing a homogeneous melt of a solid-glass-forming alloy; b. casting the homogeneous melt into a casting mold, wherein the casting mold at the contact surface with the melt does not cool to below the glass formation temperature of the alloy for at least 5 seconds; and c. cooling the melt to below the glass transition temperature of the solid-glass-forming alloy, obtaining the ingot, wherein, after the melt has been cast, no additional pressure which is substantially above the standard atmospheric pressure is exerted on the melt. a. providing a homogeneous melt of a solid-glass-forming alloy; b. casting the homogeneous melt into a casting mold, wherein the casting mold at the contact surface with the melt does not cool to below the glass formation temperature of the alloy for at least 5 seconds; and c. cooling the melt to below the glass transition temperature of the solid-glass-forming alloy, obtaining the ingot, wherein, after the melt has been cast, no additional pressure which is substantially above the standard atmospheric pressure is exerted on the melt.
A hand-held cleaning implement comprising a holder , a wiper lip and two pressure elements wherein the wiper lip has a first distal end which can be fixed to the holder , wherein the wiper lip has a wiper edge at its distal end opposite the first distal end , wherein the wiper edge is spaced from the first distal end by a lip length (L), wherein each pressure element has a material more resistant to bending than the wiper lip and is supported on the holder , wherein each pressure element is engageable in a pressure region (D) on the wiper lip to support the wiper lip when bent, wherein the wiper lip has a first side edge and a second side edge , wherein one of the pressure elements is arranged on each side and in the vicinity of a side edge of the wiper lip .
An apparatus for treating a plate-shaped process item comprising a bottom side, a top side and edges between the bottom side and the top side, with a process medium , comprising: a means for providing a process medium with a process media level ; a transport means comprising an endless means with support elements projecting from the same, on which a bottom side of the plate-shaped process item to be treated can be supported, wherein the transport means is implemented to move the support elements together with the supported plate-shaped process item in parallel to the process media level of the process medium , wherein the means for providing the process medium and the transport means are adapted for a plate-shaped process item to be treated such that during movement of the plate-shaped process item in parallel to the process media level of the process medium , at least those parts of the bottom side of the plate-shaped process item that are not supported on the support elements are in contact with the process medium , characterized in that the transport means is implemented such that in a first operating mode, during movement of the plate-shaped process item in parallel to the process media level , no parts of the transport means engage the edges of the plate-shaped process item , wherein the first operating mode corresponds to a one side processing treatment of the bottom side of the plate-shaped process item, in which the edges of the plate-shaped process item may be treated or not. a means for providing a process medium with a process media level ; a transport means comprising an endless means with support elements projecting from the same, on which a bottom side of the plate-shaped process item to be treated can be supported, wherein the transport means is implemented to move the support elements together with the supported plate-shaped process item in parallel to the process media level of the process medium , wherein the means for providing the process medium and the transport means are adapted for a plate-shaped process item to be treated such that during movement of the plate-shaped process item in parallel to the process media level of the process medium , at least those parts of the bottom side of the plate-shaped process item that are not supported on the support elements are in contact with the process medium , characterized in that the transport means is implemented such that in a first operating mode, during movement of the plate-shaped process item in parallel to the process media level , no parts of the transport means engage the edges of the plate-shaped process item , wherein the first operating mode corresponds to a one side processing treatment of the bottom side of the plate-shaped process item, in which the edges of the plate-shaped process item may be treated or not.
A polymer composition comprising components selected from the group consisting of: (i) at least one a poly(aryl ether ketone) (PAEK), (ii) a poly(ether sulfone) (PES), (iii) a reactive poly(ether sulfone) (rPES), (iv) a reactive poly(aryl ether ketone) (rPAEK), (v) an acid component having a pKa ≤ 7.5, and (vi) from about 0.05 to about 2 wt.% of at least one alkali metal carbonate, based on the total weight of polymers in the polymer composition, wherein the polymer composition comprises: - components (i), (ii), (iii), (vi), and optionally (v), - components (i), (ii), (iv), (vi), and optionally (v), - components (i), (ii), (v), and (vi), - components (iii), (iv), and (vi), - components (iii), (iv), (v), and (vi), - components (i), (iii), (vi), and optionally (v), or - components (ii), (iv), (vi), and optionally (v). (i) at least one a poly(aryl ether ketone) (PAEK), (ii) a poly(ether sulfone) (PES), (iii) a reactive poly(ether sulfone) (rPES), (iv) a reactive poly(aryl ether ketone) (rPAEK), (v) an acid component having a pKa ≤ 7.5, and (vi) from about 0.05 to about 2 wt.% of at least one alkali metal carbonate, based on the total weight of polymers in the polymer composition, - components (i), (ii), (iii), (vi), and optionally (v), - components (i), (ii), (iv), (vi), and optionally (v), - components (i), (ii), (v), and (vi), - components (iii), (iv), and (vi), - components (iii), (iv), (v), and (vi), - components (i), (iii), (vi), and optionally (v), or - components (ii), (iv), (vi), and optionally (v).
A damper assembly , comprising: a pressure tube defining a chamber ; a body supported by the pressure tube , the body having a first surface and a second surface opposite and spaced from the first surface along an axis (A1), the body defining a passage extending from the first surface to the second surface ; and an orifice disc movable from an unflexed position to a first flexed position and movable from the first flexed position to a second flexed position; the orifice disc in the unflexed position is spaced from the first surface radially outward and radially inward of the passage ; the orifice disc in the first flexed position is spaced from the first surface radially outward of the passage and abuts the first surface radially inward of the passage ; the orifice disc in the second flexed position abuts the first surface radially outward and radially inward of the passage ; and characterized in that the orifice disc includes an orifice at the passage . a pressure tube defining a chamber ; a body supported by the pressure tube , the body having a first surface and a second surface opposite and spaced from the first surface along an axis (A1), the body defining a passage extending from the first surface to the second surface ; and an orifice disc movable from an unflexed position to a first flexed position and movable from the first flexed position to a second flexed position; the orifice disc in the unflexed position is spaced from the first surface radially outward and radially inward of the passage ; the orifice disc in the first flexed position is spaced from the first surface radially outward of the passage and abuts the first surface radially inward of the passage ; the orifice disc in the second flexed position abuts the first surface radially outward and radially inward of the passage ; and characterized in that the orifice disc includes an orifice at the passage .
Railway vehicle comprising a driver's cab , wherein the driver's cab comprises a head-up display , the display comprising: • a projector able to project images, • a combiner able to display the images projected by the projector , and • a displacement system for the combiner and the projector , the displacement system being able to rotate the combiner and the projector with respect to a main axis (A1) among a plurality of adjustment positions. • a projector able to project images, • a combiner able to display the images projected by the projector , and • a displacement system for the combiner and the projector , the displacement system being able to rotate the combiner and the projector with respect to a main axis (A1) among a plurality of adjustment positions.
A virtual private network,VPN, tunnel system comprising: a client computer ; a universal serial bus, USB, VPN device comprising a controller, said controller coupled to the client computer , said controller including a microprocessor containing at least one memory, said memory containing an operating system program; wherein said memory stores certificate, password and endpoint information only in said controller instead of in a database of said client computer ; wherein when authentication information received by said client computer is validated by said controller, said microprocessor executes said operating system program of said controller to implement at least one VPN tunnel which connects said client computer to a VPN server and to a private network of computers and servers , via an internet connection, and wherein said operating system program to implement said at least one VPN tunnel is stored and executed only from said microprocessor of said USB VPN device , and wherein only driver and routing information is installed on said client computer (102/103). a client computer ; a universal serial bus, USB, VPN device comprising a controller, said controller coupled to the client computer , said controller including a microprocessor containing at least one memory, said memory containing an operating system program; wherein said memory stores certificate, password and endpoint information only in said controller instead of in a database of said client computer ; wherein when authentication information received by said client computer is validated by said controller, said microprocessor executes said operating system program of said controller to implement at least one VPN tunnel which connects said client computer to a VPN server and to a private network of computers and servers , via an internet connection, and wherein said operating system program to implement said at least one VPN tunnel is stored and executed only from said microprocessor of said USB VPN device , and wherein only driver and routing information is installed on said client computer (102/103).
A method comprising: determining , for each of a plurality of measurement periods within a thermal average period, an energy usage estimate for a packet processing block configured to process ingress packets at a power gated clock rate; determining , for each of the plurality of measurement periods, a target clock rate for the packet processing block based on the determined energy usage estimates to meet a target energy value that is averaged for the thermal average period; and adjusting , for each of the plurality of measurement periods, the power gated clock rate towards the target clock rate, wherein the adjusting causes the packet processing block to process the ingress packets at the adjusted power gated clock rate; characterized in that the target clock rate is determined based on whether a buffer fill rate for the ingress packets exceeds a threshold fill rate; and wherein multiple threshold levels are provided for the threshold fill rate such that target clock rates are chosen to be distributed between a maximum target clock rate and a minimum target clock rate. determining , for each of a plurality of measurement periods within a thermal average period, an energy usage estimate for a packet processing block configured to process ingress packets at a power gated clock rate; determining , for each of the plurality of measurement periods, a target clock rate for the packet processing block based on the determined energy usage estimates to meet a target energy value that is averaged for the thermal average period; and adjusting , for each of the plurality of measurement periods, the power gated clock rate towards the target clock rate, wherein the adjusting causes the packet processing block to process the ingress packets at the adjusted power gated clock rate; characterized in that the target clock rate is determined based on whether a buffer fill rate for the ingress packets exceeds a threshold fill rate; and wherein multiple threshold levels are provided for the threshold fill rate such that target clock rates are chosen to be distributed between a maximum target clock rate and a minimum target clock rate.
Control and display module for a motor vehicle, comprising a screen , a capacitive touchpad on top of said screen and a frame surrounding said capacitive touchpad and of which a border overlaps a peripheral edge of said capacitive touchpad while delimiting a cavity between said capacitive touchpad and said frame , characterized in that the control and display module comprises a glass plate adhesively bonded to said capacitive touchpad , filling said cavity in order to compensate at least partially for the difference in level between the capacitive touchpad and the upper surface of the frame .