mhurhangee/patent-ind-claim-en huggingface dataset:
Volume meter for liquids, having an arithmetic unit, a volume measuring device with a measuring chamber through which a medium can flow, with at least one inflow and at least one outlet, and with a measuring insert which comprises a measuring body rotatably mounted via a shaft and a pulse generator arrangement as well as a receptacle for at least one meter module , wherein an electronic meter board having an interface and having a capture device with at least one transmitting unit and at least one receiving unit is provided, with which the pulse generator arrangement can be scanned and metering pulses proportional to the volume can be captured or generated and stored in a retrievable manner and the respective flow rate or the respective meter reading of the volume meter can therefore be determined, and the meter reading can be retrieved or transmitted via the interface , characterized in that the electronic meter board interacts with a meter module via the interface by virtue of the interface being addressed during or after insertion of the meter module into the volume meter and the respective meter information being retrieved from the electronic meter board by means of the meter module , wherein the serial number or the meter number or the meter type can be retrieved from the electronic meter board and can be transmitted to the inserted meter module .
A combustion chamber for a gas turbine, comprising a damper wherein the damper comprises: a resonator cavity with an inlet and a neck tube in flow communication with the interior of the combustion chamber and the resonator cavity, and a compensation assembly pivotably connected with the neck tube and is inserted between the resonator cavity and the combustion chamber to permit relative rotation between the combustion chamber and the resonator cavity, wherein the neck tube is air-tightly attached at a first end thereof to one of a wall of the combustion chamber and an inlet of the resonator cavity, wherein further the compensation assembly is pivotably connected with a second end of the neck tube, characterized in that , the compensation assembly comprises a bulb portion formed on the second end of the neck tube and a socket portion air-tightly fitted with the bulb portion to provide the relative rotation between the combustion chamber and the resonator cavity. a resonator cavity with an inlet and a neck tube in flow communication with the interior of the combustion chamber and the resonator cavity, and a compensation assembly pivotably connected with the neck tube and is inserted between the resonator cavity and the combustion chamber to permit relative rotation between the combustion chamber and the resonator cavity, wherein the neck tube is air-tightly attached at a first end thereof to one of a wall of the combustion chamber and an inlet of the resonator cavity, wherein further the compensation assembly is pivotably connected with a second end of the neck tube, characterized in that , the compensation assembly comprises a bulb portion formed on the second end of the neck tube and a socket portion air-tightly fitted with the bulb portion to provide the relative rotation between the combustion chamber and the resonator cavity.
A method, comprising: estimating crosstalk from at least one first communication line not operating according to a vector standard to at least one second communication line operating according to a vector standard, and adapting a vectoring based on the estimated crosstalk, characterized in that estimating crosstalk comprises estimating crosstalk from the at least one first line to the at least one second line based on uncorrelated data symbols on the at least one first line. estimating crosstalk from at least one first communication line not operating according to a vector standard to at least one second communication line operating according to a vector standard, and adapting a vectoring based on the estimated crosstalk, characterized in that estimating crosstalk comprises estimating crosstalk from the at least one first line to the at least one second line based on uncorrelated data symbols on the at least one first line.
A composition for use in treating a patient having a cancer, wherein cells of the cancer have been tested for: (i) a hemizygous loss of the TP53 gene; (ii) a hemizygous loss of the POLR2A gene; or (iii) a decreased level of expression of a POLR2A gene product relative to a reference expression level, the composition comprising a therapeutically effective amount of a POLR2A inhibitor, wherein the POLR2A inhibitor comprises an amatoxin, and wherein the amatoxin is conjugated to an antibody which specifically binds to a tumor- associated antigen.
An ink composition comprising: an adhesiveness providing component comprising an acrylate monomer for providing such an improved adhesiveness with respect to a print medium that makes the ink composition more adhesive than when the ink composition does not comprise the acrylate monomer, the print medium comprising a metal or a glass; and a rigidity providing component for providing a layer resulting from curing of the ink composition with such an improved rigidity that makes the layer more rigid than when the ink composition does not comprise the rigidity providing component, the rigidity providing component comprising at least one substance selected from the group consisting of a multi-functional acrylate monomer and a multi-functional acrylate oligomer, characterized in that the adhesiveness providing component comprises ω-carboxy-polycaprolactone acrylate and an epoxy acrylate monomer; the rigidity providing component comprises at least one substance selected from the group consisting of a multi-functional acrylate monomer having an acryloyl base via a soft segment and a multi-functional acrylate oligomer having an acryloyl base via a soft segment. an adhesiveness providing component comprising an acrylate monomer for providing such an improved adhesiveness with respect to a print medium that makes the ink composition more adhesive than when the ink composition does not comprise the acrylate monomer, the print medium comprising a metal or a glass; and a rigidity providing component for providing a layer resulting from curing of the ink composition with such an improved rigidity that makes the layer more rigid than when the ink composition does not comprise the rigidity providing component, the rigidity providing component comprising at least one substance selected from the group consisting of a multi-functional acrylate monomer and a multi-functional acrylate oligomer, characterized in that the adhesiveness providing component comprises ω-carboxy-polycaprolactone acrylate and an epoxy acrylate monomer; the rigidity providing component comprises at least one substance selected from the group consisting of a multi-functional acrylate monomer having an acryloyl base via a soft segment and a multi-functional acrylate oligomer having an acryloyl base via a soft segment.
A slat-flap control lever assembly comprising a retention member monitoring system, the assembly comprises: a control lever movable over a range of discrete angular positions; a retention member engageable with the control lever to retain the control lever in each of the discrete angular positions; and at least one electric device in communication with the retention member to determine the structural integrity of the retention member; wherein the retention member is a retention pin , wherein the retention pin is engaged with the control lever at a mid-point of the retention pin along a longitudinal direction of the retention member; and characterised in that the at least one electric device is an electric fuse disposed within the retention pin, the electric fuse extending along the longitudinal direction of the retention pin from a location on a first side of the mid-point to a location on a second side of the mid-point. a control lever movable over a range of discrete angular positions; a retention member engageable with the control lever to retain the control lever in each of the discrete angular positions; and at least one electric device in communication with the retention member to determine the structural integrity of the retention member; wherein the retention member is a retention pin , wherein the retention pin is engaged with the control lever at a mid-point of the retention pin along a longitudinal direction of the retention member; and characterised in that the at least one electric device is an electric fuse disposed within the retention pin, the electric fuse extending along the longitudinal direction of the retention pin from a location on a first side of the mid-point to a location on a second side of the mid-point.
A gear unit, having an input shaft , a flange part and a housing part which is screw-connected to the flange part , wherein the input shaft is mounted in the housing part by means of bearings , wherein a fan is connected non-rotatably to the shaft , wherein the housing part has cooling fins , in particular which extend in the axial direction, i.e. the axis direction of the shaft , wherein the cooling fins are embodied in a stepped manner, wherein the flange part surrounds the stepped region of the cooling fins , in particular surrounds it in a housing-forming manner, characterised in that with each cooling fin which is arranged on the housing part and the covered radial distance region of which overlaps with the radial distance region covered by the flange part there is associated, in particular is associated one-to-one, an elevation arranged on the flange part , the respective elevation being arranged at the same angle-at-circumference position as the cooling fin which is associated in each case.
A method comprising: sending , by a user equipment, an indication to an access point of a network, wherein the indication represents that there is a preference for power savings at the user equipment; and characterized by : performing , at the user equipment after the indication is sent, one or more power savings actions autonomously without the network signaling the user equipment to initiate said one or more power saving actions, wherein the one or more power savings actions includes at least one of the following: deactivating a secondary cell associated with a carrier aggregation configuration; releasing, by the user equipment, a secondary cell associated with the carrier aggregation configuration; releasing a physical uplink control channel configuration; terminating a timing advance timer before expiration of the timing advance timer; releasing a connection; configuring a longer discontinuous receive cycle; configuring a longer measurement cycle; or releasing a radio resource control connection.
A power-on self-test method for an electric power tool, wherein the electric power tool comprises a brushless motor , a motor driving circuit , a controller , and a voltage detection circuit ; wherein the motor driving circuit comprises an inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6), the inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6)comprises an upper bridge arm switching element (Q1, Q3, Q5) and a lower bridge arm switching element (Q2, Q4, Q6); a phase voltage input terminal of the brushless motor is connected to the inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6); and a line connected between the phase voltage input terminal of the brushless motor and the inverter bridge (Q1, Q2, Q3, Q4, Q5, Q6) is connected to the voltage detection circuit , and the voltage detection circuit is connected to the controller ; and wherein the power-on self-test method for the electric power tool comprises: detecting, by the voltage detection circuit , a phase voltage or a line voltage of a winding of the brushless motor ; and determining, according to the phase voltage or the line voltage of the winding of the brushless motor , whether the upper bridge arm switching element (Q1, Q3, Q5), the lower bridge arm switching element (Q2, Q4, Q6), and/or the brushless motor is short-circuited, characterized in that the power-on self-test method further comprises monitoring whether the electric power tool is started and outputting a power-on signal in response to monitoring that the electric power tool is started; in response to monitoring the power-on signal from the electric power tool, outputting, by the controller , a driving signal to the motor driving circuit and acquiring a position of a rotor of the brushless motor ; and detecting the phase voltage or the line voltage, during acquiring the position of the rotor of the brushless motor . detecting, by the voltage detection circuit , a phase voltage or a line voltage of a winding of the brushless motor ; and determining, according to the phase voltage or the line voltage of the winding of the brushless motor , whether the upper bridge arm switching element (Q1, Q3, Q5), the lower bridge arm switching element (Q2, Q4, Q6), and/or the brushless motor is short-circuited, characterized in that the power-on self-test method further comprises monitoring whether the electric power tool is started and outputting a power-on signal in response to monitoring that the electric power tool is started; in response to monitoring the power-on signal from the electric power tool, outputting, by the controller , a driving signal to the motor driving circuit and acquiring a position of a rotor of the brushless motor ; and detecting the phase voltage or the line voltage, during acquiring the position of the rotor of the brushless motor .
A turbine generator assembly comprising: • a turbine configured to be supplied with combustion gases by a combustion device ; • a compressor mechanically coupled to the turbine by a central element ; • a motor-generator axially offset from the compressor and mechanically coupled to the turbine and the compressor by the central element ; • a first radial bearing located axially between the turbine and the compressor and designed to guide the central element in rotation; and • a second radial bearing located axially between the compressor and the motor-generator and designed to guide the central element in rotation; characterised in that the first radial bearing is the only radial bearing between the turbine and the compressor . • a turbine configured to be supplied with combustion gases by a combustion device ; • a compressor mechanically coupled to the turbine by a central element ; • a motor-generator axially offset from the compressor and mechanically coupled to the turbine and the compressor by the central element ; • a first radial bearing located axially between the turbine and the compressor and designed to guide the central element in rotation; and • a second radial bearing located axially between the compressor and the motor-generator and designed to guide the central element in rotation;
A system comprising: one or more processors located on a computing device; at least one tangible computer-readable storage medium storing instructions executable by the one or more processors, the executable instructions configured to cause the computing device to: obtain a virtual pointer identifying an address for directly accessing a memory of a Field Programmable Gate Array, FPGA, ; initiate a transmission of the virtual pointer to a Graphics Processing Unit, GPU, driver associated with a GPU that is external to the FPGA ; and initiate a transfer of data directly between the GPU and the FPGA via a bus interface external to the FPGA without storing the data in a memory of a central processing unit, CPU, as an intermediary operation. one or more processors located on a computing device; at least one tangible computer-readable storage medium storing instructions executable by the one or more processors, the executable instructions configured to cause the computing device to: obtain a virtual pointer identifying an address for directly accessing a memory of a Field Programmable Gate Array, FPGA, ; initiate a transmission of the virtual pointer to a Graphics Processing Unit, GPU, driver associated with a GPU that is external to the FPGA ; and initiate a transfer of data directly between the GPU and the FPGA via a bus interface external to the FPGA without storing the data in a memory of a central processing unit, CPU, as an intermediary operation. obtain a virtual pointer identifying an address for directly accessing a memory of a Field Programmable Gate Array, FPGA, ; initiate a transmission of the virtual pointer to a Graphics Processing Unit, GPU, driver associated with a GPU that is external to the FPGA ; and initiate a transfer of data directly between the GPU and the FPGA via a bus interface external to the FPGA without storing the data in a memory of a central processing unit, CPU, as an intermediary operation.
A method for forming a DRAM structure, comprising: (S110) providing a substrate , forming a sacrificial layer on the substrate; patterning (S120) the sacrificial layer to form trenches and through holes distributed side by side in the sacrificial layer; forming (S130) insulating layers covering a sidewall of the trenches and a sidewall of the through holes; sequentially forming (S140) a conductive layer and a passivation layer in the trenches and the through holes to form a bitline structure in the trenches; and removing (S150) the passivation layer in the through holes to form a capacitor contact structure in the through holes. (S110) providing a substrate , forming a sacrificial layer on the substrate; patterning (S120) the sacrificial layer to form trenches and through holes distributed side by side in the sacrificial layer; forming (S130) insulating layers covering a sidewall of the trenches and a sidewall of the through holes; sequentially forming (S140) a conductive layer and a passivation layer in the trenches and the through holes to form a bitline structure in the trenches; and removing (S150) the passivation layer in the through holes to form a capacitor contact structure in the through holes.
Machine for the production of sand moulds comprising a machine structure with a moulding chamber , a front plate and a rear plate , said front plate and rear plate being arranged for pressing sand within said moulding chamber so as to form a sand mould, said front plate and rear plate being arranged for receiving respective pattern plates for providing front and rear surfaces of the sand mould with corresponding patterns, characterized in that the machine further comprises a robot arm arranged for replacing the pattern plates , said robot arm being attached to the machine structure.
Mobile waste shredding device comprising: at least one shredding shaft ; an internal combustion engine ; a first and a second powertrain between the internal combustion engine and the shredding shaft; at least one energy converter coupled to the internal combustion engine in the first powertrain for converting mechanical energy of the internal combustion engine into storable energy; at least one auxiliary motor supplied with the storable energy in the first powertrain for introducing mechanical energy into the first powertrain; an energy store for storing at least part of the storable energy and for at least partially supplying the at least one additional motor with the storable energy, in particular for storing storable energy in the event of periods of low power demand and for delivering energy in the event of periods of high power demand; and a control unit ; wherein the second powertrain comprises a clutch for coupling the internal combustion engine to the at least one shredding shaft; characterized in that the control unit is adapted to control the mobile waste shredding device so that a reversing operation of the least one shredding shaft is carried out with the clutch open and the direction of rotation of the at least one shredding shaft reversed with the auxiliary motor with the energy supply from the energy storage device . at least one shredding shaft ; an internal combustion engine ; a first and a second powertrain between the internal combustion engine and the shredding shaft; at least one energy converter coupled to the internal combustion engine in the first powertrain for converting mechanical energy of the internal combustion engine into storable energy; at least one auxiliary motor supplied with the storable energy in the first powertrain for introducing mechanical energy into the first powertrain; an energy store for storing at least part of the storable energy and for at least partially supplying the at least one additional motor with the storable energy, in particular for storing storable energy in the event of periods of low power demand and for delivering energy in the event of periods of high power demand; and a control unit ; wherein the second powertrain comprises a clutch for coupling the internal combustion engine to the at least one shredding shaft; characterized in that the control unit is adapted to control the mobile waste shredding device so that a reversing operation of the least one shredding shaft is carried out with the clutch open and the direction of rotation of the at least one shredding shaft reversed with the auxiliary motor with the energy supply from the energy storage device .
Polypropylene composition (C) comprising (a) 70 to 80 parts per weight of a heterophasic propylene copolymer (HECO); (b) 7 to 12 parts per weight of a plastomer (PL); and (c) 13 to 18 parts per weight of an inorganic filler (F); based on the total parts per weight of compounds (a), (b) and (c); wherein the polypropylene composition (C) has an amount of xylene cold soluble (XCS) fraction of at least 22 wt.-%, based on the weight of the polypropylene composition (C); and wherein the intrinsic viscosity (IV) of the xylene soluble (XCS) fraction of the polypropylene composition (C) is not more than 3.3 dl/g. (a) 70 to 80 parts per weight of a heterophasic propylene copolymer (HECO); (b) 7 to 12 parts per weight of a plastomer (PL); and (c) 13 to 18 parts per weight of an inorganic filler (F);
Electronic device comprising at least: - a plurality of MOSFET FD-SOI type transistors among which first transistors of a same design are such that each first transistor comprises a channel having a thickness less than 20 nm and in which a concentration of the same type of dopants as those present in the source and drain of said first transistor is greater than the concentration in the channel of each of the other transistors in said plurality of transistors of the same type of conductivity as said first transistor ; and - an identification circuit configured to determine a unique identifier of PUF type of the electronic device starting from at least one intrinsic electrical characteristic of each of the first transistors , the value of which depends at least partly on the conductance of said first transistor . and in which the length of a gate of each of the first transistors is less than or equal to about 20 nm. - a plurality of MOSFET FD-SOI type transistors among which first transistors of a same design are such that each first transistor comprises a channel having a thickness less than 20 nm and in which a concentration of the same type of dopants as those present in the source and drain of said first transistor is greater than the concentration in the channel of each of the other transistors in said plurality of transistors of the same type of conductivity as said first transistor ; and - an identification circuit configured to determine a unique identifier of PUF type of the electronic device starting from at least one intrinsic electrical characteristic of each of the first transistors , the value of which depends at least partly on the conductance of said first transistor .