mhurhangee/ep-ind-claims huggingface dataset:
An engine mount device comprising: two or more struts (202, 212, 222) configured to pivotably couple to an aft portion of an engine of an aircraft and to a support structure of the aircraft, wherein each of the two or more struts (202, 212, 222) is configured to pivot in response to rotation of the engine about an axis of rotation, wherein each of the two or more struts (202, 212, 222) is oriented substantially along lines between one or more positions on the support structure and a focal point located along the axis of rotation of the engine; wherein the two or more struts (202, 212, 222) are together configured to react forces generated in a vertical direction and in a lateral direction transverse to the engine; and wherein the two or more struts (202, 212, 222) are configured to allow substantially unrestricted rotation of the engine with respect to the support structure about an axis of rotation of the engine. two or more struts (202, 212, 222) configured to pivotably couple to an aft portion of an engine of an aircraft and to a support structure of the aircraft, wherein each of the two or more struts (202, 212, 222) is configured to pivot in response to rotation of the engine about an axis of rotation, wherein each of the two or more struts (202, 212, 222) is oriented substantially along lines between one or more positions on the support structure and a focal point located along the axis of rotation of the engine; wherein the two or more struts (202, 212, 222) are together configured to react forces generated in a vertical direction and in a lateral direction transverse to the engine; and wherein the two or more struts (202, 212, 222) are configured to allow substantially unrestricted rotation of the engine with respect to the support structure about an axis of rotation of the engine.
A flight-operable, modular aircraft having an operational life, an engine (436, 438) that provides a propulsive force for the aircraft sufficient to counteract a drag of the aircraft at a flight condition, and originally deployed left and right wing members (404,402) that each provide at least 20% of the lift of the aircraft during at least some portion of cruise flight, the aircraft comprising: a center section comprising an aircraft core, and that includes a centerline cavity, and avionics (462,466) sufficient to operate the aircraft without receiving controls from outside the center section; a forward coupling adapted to couple or decouple a forward component to the center section during the operational life, facilitated by a quick disconnect connector; horizontally curved fore and aft spars (422, 424) positioned fore and aft of the centerline cavity, respectively, comprising a composite (422, 424) the aircraft core further comprising a first hardpoint and a second hardpoint (430, 432) and wherein the left and right wing members (404,402) are structurally coupled to the first and second hardpoints (430, 432), respectively; which serve as left and right wing couplings (430,432) adapted to couple or decouple the left and right wing members (404,402), respectively, during the operational life, wherein the left and right wing members (404,402) comprise left and right spars, respectively (426, 427), and wherein first and second quick disconnect connectors are located within 61cm of the first and second hardpoints (430, 432), respectively. a center section comprising an aircraft core, and that includes a centerline cavity, and avionics (462,466) sufficient to operate the aircraft without receiving controls from outside the center section; a forward coupling adapted to couple or decouple a forward component to the center section during the operational life, facilitated by a quick disconnect connector; horizontally curved fore and aft spars (422, 424) positioned fore and aft of the centerline cavity, respectively, comprising a composite (422, 424) the aircraft core further comprising a first hardpoint and a second hardpoint (430, 432) and wherein the left and right wing members (404,402) are structurally coupled to the first and second hardpoints (430, 432), respectively; which serve as left and right wing couplings (430,432) adapted to couple or decouple the left and right wing members (404,402), respectively, during the operational life, wherein the left and right wing members (404,402) comprise left and right spars, respectively (426, 427), and wherein first and second quick disconnect connectors are located within 61cm of the first and second hardpoints (430, 432), respectively.
A method for producing an aged skin equivalent, characterized by the steps of a) providing dermal matrices; b) providing a suspension of cells in a fibroblast medium having a fibroblast concentration of from 50,000 to 1,500,000 fibroblasts/ml c) equilibrating the matrices using a cell-free fibroblast medium; d) applying the suspension from step b) to the equilibrated matrices; e) culturing the fibroblasts on the matrix; f) treating the cultured dermis model with mitomycin C. a) providing dermal matrices; b) providing a suspension of cells in a fibroblast medium having a fibroblast concentration of from 50,000 to 1,500,000 fibroblasts/ml c) equilibrating the matrices using a cell-free fibroblast medium; d) applying the suspension from step b) to the equilibrated matrices; e) culturing the fibroblasts on the matrix; f) treating the cultured dermis model with mitomycin C.
A process comprising: introducing hydrogen sulfide and an oxirane compound into a plug flow reactor having a fixed bed containing a solid catalyst comprising a Type Y zeolite; reacting the hydrogen sulfide and the oxirane compound in the presence of the solid catalyst to yield a reaction product comprising a mercapto-alcohol, wherein during a steady state operation of the plug flow reactor, the hydrogen sulfide and the ozirane compound are introduced in a mole ratio in a range of about 5:1 to about 50:1, wherein after a single pass through the plug flow reactor, greater than or equal to 90 wt. % of the oxirane is converted into a mercapto-alcohol reaction product, and wherein conversion is calculated by dividing a weight of the oxirane that is converted to the reaction product by a weight of the oxirane fed to the reactor, optionally, wherein (i) the oxirane compound is ethylene oxide, optionally wherein the oxirane compound is propylene oxide, and/or (ii) wherein the mercapto-alcohol is 2-mercapto-1-ethanol. introducing hydrogen sulfide and an oxirane compound into a plug flow reactor having a fixed bed containing a solid catalyst comprising a Type Y zeolite; reacting the hydrogen sulfide and the oxirane compound in the presence of the solid catalyst to yield a reaction product comprising a mercapto-alcohol, wherein during a steady state operation of the plug flow reactor, the hydrogen sulfide and the ozirane compound are introduced in a mole ratio in a range of about 5:1 to about 50:1, wherein after a single pass through the plug flow reactor, greater than or equal to 90 wt. % of the oxirane is converted into a mercapto-alcohol reaction product, and wherein conversion is calculated by dividing a weight of the oxirane that is converted to the reaction product by a weight of the oxirane fed to the reactor, optionally, wherein (i) the oxirane compound is ethylene oxide, optionally wherein the oxirane compound is propylene oxide, and/or (ii) wherein the mercapto-alcohol is 2-mercapto-1-ethanol.
A pump for pumping liquid, comprising a pump chamber and an impeller arranged to rotate in said pump chamber, said impeller being suspended in a lower end of an axially extending drive shaft unit, wherein said lower end of the drive shaft unit is received in a cylinder-shaped recess of the impeller, wherein the impeller is displaceable back and forth in the axial direction in relation to the drive shaft unit, and wherein the impeller comprises an axially extending hole that connects the cylinder-shaped recess and the pump chamber, characterized in that the drive shaft unit comprises an axially extending pin that projects from said lower end of the drive shaft unit, wherein said pin is arranged in said hole and arranged to prevent that the pumped liquid enters the cylinder-shaped recess of the impeller.
Electrosurgical pencil adapted to receive an electrode controllable by an electrical signal for performing surgical operations, comprising: a housing, a circuit, switching means (3, 71) adapted to be activated from outside the housing for closing the circuit, wherein the housing comprises receiving means for receiving the electrode, the housing comprises a sheath in a soft and/or resilient material, which sheath encloses mainly the main part of the housing (4,5,6,7), characterized in that the sheath has actuators in form of buttons that are integral with and protrude from said sheath, and the thickness of the sheath is greater than 0.35 mm in the area of the switching means (3, 71). a housing, a circuit, switching means (3, 71) adapted to be activated from outside the housing for closing the circuit, wherein the housing comprises receiving means for receiving the electrode, the housing comprises a sheath in a soft and/or resilient material, which sheath encloses mainly the main part of the housing (4,5,6,7), characterized in that the sheath has actuators in form of buttons that are integral with and protrude from said sheath, and the thickness of the sheath is greater than 0.35 mm in the area of the switching means (3, 71).
An injection unit, comprising: a first cylinder; a second cylinder; a nozzle; and a direction changeover valve which switches a flow direction of a molding material between the first cylinder, the second cylinder, and the nozzle, the direction changeover valve includes a valve casing and a valve body, the valve casing includes a first cylinder connection port which communicates with the inside of the first cylinder, a second cylinder connection port which communicates with the inside of the second cylinder, and a nozzle connection port which communicates with the inside of the nozzle, wherein the valve body is rotatable inside the valve casing and the direction changeover valve changes a flow path by the rotation of the valve body, characterized in that the valve body includes a first plug portion which blocks the nozzle connection port and communicates the first cylinder connection port and the second cylinder connection port with each other and a second plug portion which blocks the first cylinder connection port and communicates the second cylinder connection port and the nozzle connection port with each other, the first plug portion and the second plug portion have a gap therebetween along an outer periphery of the valve body. a first cylinder; a second cylinder; a nozzle; and a direction changeover valve which switches a flow direction of a molding material between the first cylinder, the second cylinder, and the nozzle, the direction changeover valve includes a valve casing and a valve body, the valve casing includes a first cylinder connection port which communicates with the inside of the first cylinder, a second cylinder connection port which communicates with the inside of the second cylinder, and a nozzle connection port which communicates with the inside of the nozzle,
A device for knotting a thread end such that a loop is formed, in particular a thread end of a retrieval thread for tampons, comprising: a. a knotter assembly for knotting two thread sections of the thread end; b. a driver for feeding the thread sections to the knotter assembly; c. an orbital path along which the driver is guided around the knotter assembly, and characterized in that the orbital path has a knotting region in which the driver is movable at a first speed, and an envelope region in which the driver is movable at a second speed, and further comprising a holding device, designed as a latch, which is designed to exert a restoring force on a loop end of the thread end to be knotted. a. a knotter assembly for knotting two thread sections of the thread end; b. a driver for feeding the thread sections to the knotter assembly; c. an orbital path along which the driver is guided around the knotter assembly, and the orbital path has a knotting region in which the driver is movable at a first speed, and an envelope region in which the driver is movable at a second speed, and further comprising a holding device, designed as a latch, which is designed to exert a restoring force on a loop end of the thread end to be knotted.
A terminal apparatus configured to perform communication using a cell included in a master cell group and a cell included in a secondary cell group, the terminal apparatus comprising: an RRC layer configured to, in a case that a random access problem is indicated from a MAC entity corresponding to the cell included in the secondary cell group, suspend a data radio bearer that corresponds to the cell included in the secondary cell group, suspend an uplink transmission for a split data radio bearer for the secondary cell group, reset the MAC entity that corresponds to the cell included in the secondary cell group, and set a message indicating a detection of random access failure for the secondary cell group. suspend a data radio bearer that corresponds to the cell included in the secondary cell group, suspend an uplink transmission for a split data radio bearer for the secondary cell group, reset the MAC entity that corresponds to the cell included in the secondary cell group, and set a message indicating a detection of random access failure for the secondary cell group.
Method for processing inflation defects of a tyre of a vehicle, said tyre being equipped with sensors for measuring the pressure and the temperature of the internal cavity of said tyre, in which the pressure and temperature of the internal cavity of the tyre are measured periodically and, as soon as an inflation defect of a tyre is detected, an alert is signalled to the driver of the vehicle, characterized in that there is also transmitted to the driver of the vehicle a maximum speed setpoint: - which, when the measured inflation pressure of the tyre is greater than or equal to a first inflation pressure threshold value p 1, is a first maximum speed setpoint value V 1; and - which, when the measured inflation pressure of the tyre is less than said first pressure threshold value p 1 and greater than or equal to a second pressure threshold value p 2, decreases as a function of said measured inflation pressure of the tyre. - which, when the measured inflation pressure of the tyre is greater than or equal to a first inflation pressure threshold value p 1, is a first maximum speed setpoint value V 1; and - which, when the measured inflation pressure of the tyre is less than said first pressure threshold value p 1 and greater than or equal to a second pressure threshold value p 2, decreases as a function of said measured inflation pressure of the tyre.
A system, comprising: a digital camera configured to capture image frames in a continuous mode or a periodic capture mode; a machine-learned regression network executing on the digital camera; wherein the machine-learned regression network is generated as a pre-trained network, PTN by pre-training a deep convolution network by applying supervised machine learning to a set of training images and corresponding camera exposure data to mimic an exposure control system of a camera type used to capture the set of training images; wherein a machine-learned reward network RN is generated by training a deep convolution network on human scored image sets and corresponding camera exposure data to emulate human perception with respect to gauging image exposure quality as a function of exposure settings and semantics associated with those scored image sets; wherein the machine-learned regression network is a contextual-bandit network, CBN, the CBN being generated by refining PTN via the RN by contextual-bandit learning; and wherein regression network automatically predicts optimized camera exposure values from a current image frame captured by the digital camera as an implicit function of scene semantics extracted from the current image frame; and wherein the digital camera is configured to apply the predicted camera exposure values to capture a next image frame. a digital camera configured to capture image frames in a continuous mode or a periodic capture mode; a machine-learned regression network executing on the digital camera; wherein the machine-learned regression network is generated as a pre-trained network, PTN by pre-training a deep convolution network by applying supervised machine learning to a set of training images and corresponding camera exposure data to mimic an exposure control system of a camera type used to capture the set of training images; wherein a machine-learned reward network RN is generated by training a deep convolution network on human scored image sets and corresponding camera exposure data to emulate human perception with respect to gauging image exposure quality as a function of exposure settings and semantics associated with those scored image sets; wherein the machine-learned regression network is a contextual-bandit network, CBN, the CBN being generated by refining PTN via the RN by contextual-bandit learning; and wherein regression network automatically predicts optimized camera exposure values from a current image frame captured by the digital camera as an implicit function of scene semantics extracted from the current image frame; and wherein the digital camera is configured to apply the predicted camera exposure values to capture a next image frame.
Method for updating software for a plurality of cloud gateways via which automation solutions are connected to what is known as the cloud, having the following steps: ascertaining a rank of the cloud gateways according to a hazard potential of the or each automation solution connected to each cloud gateway; updating the cloud gateway or a group of cloud gateways having the lowest hazard potential; checking the success of the update effected in the preceding step; continuing updating with a cloud gateway or a group of cloud gateways having the next highest hazard potential if it has been ascertained in the step of checking the success of the preceding update that the update has been effected without error, or terminating updating if it has been ascertained in the step of checking the success of the preceding update that the update has not been effected without error, and repeating the step of continuing updating and checking the success of the preceding update until the update has also been effected for the cloud gateway or a group of cloud gateways having the highest hazard potential, characterized in that the ascertaining of a rank of the cloud gateways according to a hazard potential of the or each automation solution connected to the cloud gateways involves allowance being made for a hazard potential of functional units that are part of an automation solution and the hazard potential of said functional units in turn being ascertained on the basis of prescribed or prescribable and in a database maintained in the cloud. ascertaining a rank of the cloud gateways according to a hazard potential of the or each automation solution connected to each cloud gateway; updating the cloud gateway or a group of cloud gateways having the lowest hazard potential; checking the success of the update effected in the preceding step; continuing updating with a cloud gateway or a group of cloud gateways having the next highest hazard potential if it has been ascertained in the step of checking the success of the preceding update that the update has been effected without error, or terminating updating if it has been ascertained in the step of checking the success of the preceding update that the update has not been effected without error, and repeating the step of continuing updating and checking the success of the preceding update until the update has also been effected for the cloud gateway or a group of cloud gateways having the highest hazard potential, characterized in that the ascertaining of a rank of the cloud gateways according to a hazard potential of the or each automation solution connected to the cloud gateways involves allowance being made for a hazard potential of functional units that are part of an automation solution and the hazard potential of said functional units in turn being ascertained on the basis of prescribed or prescribable and in a database maintained in the cloud.
A Global Navigation Satellite System, GNSS, reference apparatus, including: a vector error generator arranged to generate a sequence of reference erroneous positions for a reference position, each reference erroneous position of said sequence of reference erroneous positions being synthesized by the vector error generator from a vector sum of the reference position and a synthetic offset vector; and a reference data server arranged to issue GNSS position-determination reference data based on the reference erroneous positions to enable GNSS position determination; characterized in that the synthetic offset vector is a vector sum of one or more keyed intentional error vectors (24, 25, 26) from respectively one or more pseudo-random sequences of keyed intentional error vectors, the one or more pseudo-random sequences of keyed intentional error vectors being generated by the vector error generator in a confidential but reproducible manner with one or more random confidential error keys, respectively. a vector error generator arranged to generate a sequence of reference erroneous positions for a reference position, each reference erroneous position of said sequence of reference erroneous positions being synthesized by the vector error generator from a vector sum of the reference position and a synthetic offset vector; and a reference data server arranged to issue GNSS position-determination reference data based on the reference erroneous positions to enable GNSS position determination; characterized in that the synthetic offset vector is a vector sum of one or more keyed intentional error vectors (24, 25, 26) from respectively one or more pseudo-random sequences of keyed intentional error vectors, the one or more pseudo-random sequences of keyed intentional error vectors being generated by the vector error generator in a confidential but reproducible manner with one or more random confidential error keys, respectively.
Cable duct, comprising the following features: 1.1 a base body insertable in the opening of a wall; 1.2 the base body has receptacles (30, 32) for receiving at least one strain relief (14, 16); 1.3 the at least one strain relief (14, 16) has a slot (48, 56) for unfolding and receiving a cable; characterized by the following features: 1.4 the base body consists of a hand-deformable rubber or plastic; 1.5 the base body has a number of slots (44, 46) for unfolding which correspond to the number of receptacles (30, 32); 1.6 the base body is integral. 1.1 a base body insertable in the opening of a wall; 1.2 the base body has receptacles (30, 32) for receiving at least one strain relief (14, 16); 1.3 the at least one strain relief (14, 16) has a slot (48, 56) for unfolding and receiving a cable; characterized by the following features: 1.4 the base body consists of a hand-deformable rubber or plastic; 1.5 the base body has a number of slots (44, 46) for unfolding which correspond to the number of receptacles (30, 32); 1.6 the base body is integral.
A solder composition comprising a blend of a first powder component and a second powder component, wherein the first powder component is a first solder alloy, the first solder alloy being SnBi, and the second powder component is a metal selected from Ag, Au, Cr, In, Sc, Y, Ce, Co, Ge, Mn, and Ti or rare earth elements.