mhurhangee/ep-ind-claims huggingface dataset:
A shaft assembly for a gas turbine engine, comprising: a shaft comprising a threaded shaft segment; an annular rotor disposed on the shaft; and an annular stack nut comprising a base nut segment comprising a threaded nut bore that is mated with the threaded shaft segment; and a clamping nut segment axially extending from the base nut segment to a load bearing surface, and comprising a radial thickness that decreases as the clamping nut segment extends from the load bearing surface towards the base nut segment, wherein the load bearing surface exerts a force against the annular rotor, securing the annular rotor to the shaft, characterised in that: the annular stack nut further comprises an annular channel that extends diagonally into a radially inner, axial surface of the clamping nut segment and a radial surface of the base nut segment. a shaft comprising a threaded shaft segment; an annular rotor disposed on the shaft; and an annular stack nut comprising a base nut segment comprising a threaded nut bore that is mated with the threaded shaft segment; and a clamping nut segment axially extending from the base nut segment to a load bearing surface, and comprising a radial thickness that decreases as the clamping nut segment extends from the load bearing surface towards the base nut segment, wherein the load bearing surface exerts a force against the annular rotor, securing the annular rotor to the shaft, characterised in that: the annular stack nut further comprises an annular channel that extends diagonally into a radially inner, axial surface of the clamping nut segment and a radial surface of the base nut segment.
A process for producing a crystalline perovskite A/M/X material, which crystalline A/M/X material comprises a compound of formula: a b c wherein: comprises one or more A cations, selected from an (H 2 N-C =NH 2) +, alkali metal cation, C 1-10 alkylammonium, C 2-10 alkenylammonium, C 1-10 alkyliminium, C 3-10 cycloalkylammonium and C 3-10 cycloalkyliminium optionally substituted with one or more substituents selected from amine, C 1-6 alkylamine, imine, C 1-6 alkylimine, C 1-6 alkyl, C 2-6 alkenyl, C 3-6 cycloalkyl and C 6-12 aryl; comprises one or more M cations which are metal or metalloid cations selected from Pd 4+, W 4+, Re 4+, Os 4+, Ir 4+, Pt 4+, Sn 4+, Pb 4+, Ge 4+, Te 4+, Bi 3+, Sb 3+, Ca 2+, Sr 2+, Cd 2+, Cu 2+, Ni 2+, Mn 2+, Fe 2+, Co 2+, Pd 2+, Ge 2+, Sn 2+, Pb 2+, Yb 2+ and Eu 2+; comprises one or more X anions, selected from F -, Cl -, Br - and I -; a is a number from 1 to 6; b is a number from 1 to 6; and c is a number from 1 to 18, the process comprising: a) contacting an aqueous solution comprising an A precursor and an aqueous solvent with an organic solution comprising an M precursor and an organic solvent, wherein the aqueous solution and/or the organic solution comprises an X precursor or wherein there is a further solution comprising a further solvent and an X precursor; and b) allowing a precipitate to form when the said aqueous and organic solutions are contacted; and wherein the process further comprises producing an optoelectronic device comprising the crystalline A/M/X material, wherein the optoelectronic device is a photovoltaic device. comprises one or more A cations, selected from an (H 2 N-C =NH 2) +, alkali metal cation, C 1-10 alkylammonium, C 2-10 alkenylammonium, C 1-10 alkyliminium, C 3-10 cycloalkylammonium and C 3-10 cycloalkyliminium optionally substituted with one or more substituents selected from amine, C 1-6 alkylamine, imine, C 1-6 alkylimine, C 1-6 alkyl, C 2-6 alkenyl, C 3-6 cycloalkyl and C 6-12 aryl; comprises one or more M cations which are metal or metalloid cations selected from Pd 4+, W 4+, Re 4+, Os 4+, Ir 4+, Pt 4+, Sn 4+, Pb 4+, Ge 4+, Te 4+, Bi 3+, Sb 3+, Ca 2+, Sr 2+, Cd 2+, Cu 2+, Ni 2+, Mn 2+, Fe 2+, Co 2+, Pd 2+, Ge 2+, Sn 2+, Pb 2+, Yb 2+ and Eu 2+; comprises one or more X anions, selected from F -, Cl -, Br - and I -; a is a number from 1 to 6; b is a number from 1 to 6; and c is a number from 1 to 18, a) contacting an aqueous solution comprising an A precursor and an aqueous solvent with an organic solution comprising an M precursor and an organic solvent, wherein the aqueous solution and/or the organic solution comprises an X precursor or wherein there is a further solution comprising a further solvent and an X precursor; and b) allowing a precipitate to form when the said aqueous and organic solutions are contacted;
Fastening device for a circuit board plug connector for enabling and/or simplifying its soldering to a circuit board by means of wave soldering, having at least one spring-elastic, integral wire clip, with a central part (11, 11') for at least partially engaging around an insulating body of the circuit board plug connector, and with two end sections, each for reaching through a fastening opening in a circuit board in order to fasten the insulating body to the circuit board, characterized in that the two end sections are each bent over to form a fastening loop which can be pressed through the fastening opening in the circuit board.
Sleeve for holding and carrying of cups and containers with hot or cold contents, where the cup or container is covered with the sleeve, the sleeve being made for different sizes of cups and containers and delivering a heating and cooling protection to the user of the sleeve against the contents in the cup or container and the sleeve being foldable through two hinges to be opened or closed, where the sleeve has a conical shape in the unfolded state and consists of two sleeve parts (2, 3) which each are connected on the right and left lateral outer edge with a hinge, where by putting pressure on the lateral outer edges of the sleeve a placement on a cup and container from below is feasible and the sleeve consists of layers of material which form a heat and cold protective material, characterized in that the individual layers of material are bonded together over the whole surface, and where the bonding is accurately and uniformly realized by adhesive films.
A method for authenticating an authentication device by an interrogator device, the method comprising: receiving (302, 402) at the interrogator device an authentication request from the authentication device; selecting (304, 404) an initial challenge value at the interrogator device in response to receiving the authentication request, the initial challenge value selected from a plurality of challenge values based on challenge-response distribution data stored on the interrogator device, the challenge-response distribution data indicating selection probabilities for the plurality of challenge values; sending (306, 406) an interrogation message from the interrogator device to the authentication device, the interrogation message comprising the initial challenge value; receiving, at the interrogator device, a reply message from the authentication device in response to the interrogation message, wherein the reply message includes a proffered response value; comparing the proffered response value to a particular response value that corresponds to the initial challenge value; approving the authentication device if the proffered response value matches the particular response value; and modifying (310, 408) the challenge-response distribution data stored on the interrogator device, wherein modifying the challenge-response distribution data changes the selection probability for at least one of the plurality of challenge values. receiving (302, 402) at the interrogator device an authentication request from the authentication device; selecting (304, 404) an initial challenge value at the interrogator device in response to receiving the authentication request, the initial challenge value selected from a plurality of challenge values based on challenge-response distribution data stored on the interrogator device, the challenge-response distribution data indicating selection probabilities for the plurality of challenge values; sending (306, 406) an interrogation message from the interrogator device to the authentication device, the interrogation message comprising the initial challenge value; receiving, at the interrogator device, a reply message from the authentication device in response to the interrogation message, wherein the reply message includes a proffered response value; comparing the proffered response value to a particular response value that corresponds to the initial challenge value; approving the authentication device if the proffered response value matches the particular response value; and modifying (310, 408) the challenge-response distribution data stored on the interrogator device, wherein modifying the challenge-response distribution data changes the selection probability for at least one of the plurality of challenge values.
A method performed at a wireless local area network "WLAN" transmitter of a communication system in response to interference with a long term evolution "LTE" receiver, the method comprising: determining a de-sense value of the LTE receiver; determining a transmission power based on the de-sense value; determining a transmission rate for the WLAN transmitter, the transmission rate requiring an equal or lower receiver sensitivity than a received signal strength threshold; the method characterized in that it further comprises: determining a frame aggregation size based on the transmission rate and an LTE frame configuration for the LTE receiver; determining a throughput based on the transmission rate and the frame aggregation size; determining that the throughput is greater than a throughput for a current transmission rate and a current frame aggregation size; and in response to the determining that the throughput is greater, transmitting data during a downlink receiving period of the LTE receiver using the transmission rate, the frame aggregation size, and the transmission power. determining a de-sense value of the LTE receiver; determining a transmission power based on the de-sense value; determining a transmission rate for the WLAN transmitter, the transmission rate requiring an equal or lower receiver sensitivity than a received signal strength threshold; the method characterized in that it further comprises: determining a frame aggregation size based on the transmission rate and an LTE frame configuration for the LTE receiver; determining a throughput based on the transmission rate and the frame aggregation size; determining that the throughput is greater than a throughput for a current transmission rate and a current frame aggregation size; and in response to the determining that the throughput is greater, transmitting data during a downlink receiving period of the LTE receiver using the transmission rate, the frame aggregation size, and the transmission power. determining a frame aggregation size based on the transmission rate and an LTE frame configuration for the LTE receiver; determining a throughput based on the transmission rate and the frame aggregation size; determining that the throughput is greater than a throughput for a current transmission rate and a current frame aggregation size; and in response to the determining that the throughput is greater, transmitting data during a downlink receiving period of the LTE receiver using the transmission rate, the frame aggregation size, and the transmission power.
A method of preparing at least one choline ellagate salt, the method comprising: (a) obtaining ellagic acid; (b) contacting a choline salt with the ellagic acid in methanol at a pH of 6.95 to 8 and an environment with reduced oxygen to form a liquid solution containing at least one choline ellagate salt, (c) cooling the liquid solution of step (b) to -20 °C to -80 °C; (d) isolating the choline ellagate salt(s) from the liquid solution as a precipitate; and (e) drying the isolated choline ellagate salt(s). (a) obtaining ellagic acid; (b) contacting a choline salt with the ellagic acid in methanol at a pH of 6.95 to 8 and an environment with reduced oxygen to form a liquid solution containing at least one choline ellagate salt, (c) cooling the liquid solution of step (b) to -20 °C to -80 °C; (d) isolating the choline ellagate salt(s) from the liquid solution as a precipitate; and (e) drying the isolated choline ellagate salt(s).
A sample tube for a polymerase chain reaction, characterized by comprising: a sample tube body, including an annular side wall, and a bottom wall functioning as a converging lens and connected to the annular side wall to form an accommodating space for accommodating a reaction mixture; and a first extension member, being made of a transparent material, being a light converging lens or a light guiding element, and extending from the bottom wall of the sample tube body to the accommodating space, configured for a light beam of a light source to enter the reaction mixture via the bottom wall and the first extension member sequentially, wherein the bottom wall and the first extension member are integrally formed to converge the light beam. a sample tube body, including an annular side wall, and a bottom wall functioning as a converging lens and connected to the annular side wall to form an accommodating space for accommodating a reaction mixture; and a first extension member, being made of a transparent material, being a light converging lens or a light guiding element, and extending from the bottom wall of the sample tube body to the accommodating space, configured for a light beam of a light source to enter the reaction mixture via the bottom wall and the first extension member sequentially, wherein the bottom wall and the first extension member are integrally formed to converge the light beam.
A method for receiving by a user equipment, UE, a physical downlink shared channel, PDSCH, in a wireless communication system, the method comprising: receiving configuration information related to the PDSCH; receiving a downlink control information, DCI, message for scheduling the PDSCH, the DCI message including information related to a first transmission configuration indication, TCI,-related information and a second TCI-related information; and receiving a first PDSCH and a second PDSCH based on the configuration information and the DCI message, wherein based on a predefined rule, a first frequency resource for the first PDSCH is configured based on the first TCI-related information, and a second frequency resource for the second PDSCH is configured based on the second TCI-related information, wherein the first frequency resource is different from the second frequency resource, and wherein a transport block size related to the first PDSCH and the second PDSCH is determined based on the first frequency resource. receiving configuration information related to the PDSCH; receiving a downlink control information, DCI, message for scheduling the PDSCH, the DCI message including information related to a first transmission configuration indication, TCI,-related information and a second TCI-related information; and receiving a first PDSCH and a second PDSCH based on the configuration information and the DCI message, wherein based on a predefined rule, a first frequency resource for the first PDSCH is configured based on the first TCI-related information, and a second frequency resource for the second PDSCH is configured based on the second TCI-related information, wherein the first frequency resource is different from the second frequency resource, and wherein a transport block size related to the first PDSCH and the second PDSCH is determined based on the first frequency resource.
A method of wireless communication performed by a user equipment, UE, comprising: determining that beam measurement resources, associated with performing beam management, are to be activated; and transmitting to a base station an activation signal associated with requesting activation of the beam measurement resources, characterised in that the activation signal indicates a number of communication cycles during which the beam measurement resources are to be activated. determining that beam measurement resources, associated with performing beam management, are to be activated; and transmitting to a base station an activation signal associated with requesting activation of the beam measurement resources, characterised in that the activation signal indicates a number of communication cycles during which the beam measurement resources are to be activated.
A combination of a therapeutic agent and a biologically inert fluid for use in the treatment of a CNS disorder, wherein the biologically inert fluid is infused into the subcortical white matter of the brain via convection enhanced delivery in combination with the therapeutic agent such that the biologically inert fluid drives the therapeutic agent to the cerebral cortex.
Seal for a housing of a plug-type connector with an annular seal body having an elongated shape along an axial direction, wherein the seal comprises at least one mounting projection for mounting the seal to the housing, wherein at least one mounting projection projects from the seal body in an axial direction and wherein the at least one mounting projection forms a recess for a complementary formed positive locking feature of a housing, characterized in that the recess opens in the axial direction for receiving a complementary formed positive locking feature of the housing and has an entrance opening with a smaller diameter than the remaining recess perpendicular to the axial direction.
A protection system for a hydraulic shock absorber connecting a suspension element to the body shell of a motor vehicle, including a rod sliding in a tube, this protection system comprising a gaiter having one end intended to be connected to the shock absorber rod, characterized in that this end of the gaiter comprises cutouts permitting the passage of a compression strap that keeps the rod compressed.
A positioning block for use in total knee replacement surgery, permitting five degrees-of-freedom movement relative to a bone element to which it is fixed, the positioning block comprising: a rotational mounting element being removably engageable to the bone element such that the mounting element is selectively rotatable relative to the bone element, about three substantially perpendicular axes of rotation; and a guide body portion for guiding a cutting tool, the guide body portion being engaged with the rotational mounting element such that it is translatable relative thereto along a proximal-distal axis and an anterior-posterior axis, while being rotationally fixed relative to the mounting element such that the guide body portion and the mounting element rotate together relative to the bone element, wherein the rotational mounting element comprises a polyaxial screw having a substantially spherical head, the polyaxial screw being adapted to engage the rotational mounting element to the bone element. a rotational mounting element being removably engageable to the bone element such that the mounting element is selectively rotatable relative to the bone element, about three substantially perpendicular axes of rotation; and a guide body portion for guiding a cutting tool, the guide body portion being engaged with the rotational mounting element such that it is translatable relative thereto along a proximal-distal axis and an anterior-posterior axis, while being rotationally fixed relative to the mounting element such that the guide body portion and the mounting element rotate together relative to the bone element, wherein the rotational mounting element comprises a polyaxial screw having a substantially spherical head, the polyaxial screw being adapted to engage the rotational mounting element to the bone element.
Method for balancing an annular part, notably a part of a bearing, notably a bearing cage or a bearing cup, the method comprising the following steps: - placing the annular part on a balancing plate of a balancing bench, the balancing plate being capable of turning around a reference axis of the balancing bench; - measuring, by the balancing bench and while turning the balancing plate, an apparent imbalance of the annular part placed on the balancing plate, with respect to the reference axis of the balancing bench; - dimensionally measuring a contour of a reference annular surface of the annular part placed on the balancing plate; - calculating an actual imbalance of the annular part function of the mass of the annular part, the measured contour and the apparent imbalance. - placing the annular part on a balancing plate of a balancing bench, the balancing plate being capable of turning around a reference axis of the balancing bench; - measuring, by the balancing bench and while turning the balancing plate, an apparent imbalance of the annular part placed on the balancing plate, with respect to the reference axis of the balancing bench; - dimensionally measuring a contour of a reference annular surface of the annular part placed on the balancing plate; - calculating an actual imbalance of the annular part function of the mass of the annular part, the measured contour and the apparent imbalance.
A vehicle state analysis system for a vehicle including an engine, comprising: - a sensor which detects an air-fuel ratio of the exhaust of the engine, and - a processor which is configured to: - compute a weight of fuel consumed by the engine based on an intake air amount and the air-fuel ratio, and - compute a fuel consumption rate of the vehicle based on the computed weight of consumed fuel and the running distance of the vehicle. - a sensor which detects an air-fuel ratio of the exhaust of the engine, and - a processor which is configured to: - compute a weight of fuel consumed by the engine based on an intake air amount and the air-fuel ratio, and - compute a fuel consumption rate of the vehicle based on the computed weight of consumed fuel and the running distance of the vehicle.