mhurhangee/ep-ind-claims huggingface dataset:
A fireproof system for protecting an aircraft engine structure during a fire event, the system characterised by: a fire resistant panel defining a first attachment opening and disposed adjacent to the structure; a canister including a side wall defining a first end and a second end, and an end wall enclosing the first end and defining a second attachment opening that is aligned with the first attachment opening; a fastener extending through the canister at the second attachment opening and the fire resistant panel at the first attachment opening such that the canister, the fire resistant panel, and the structure are fastened together; and a fire retardant agent disposed within the canister in an inactive condition and configured to transition out of the second end of the canister in an active condition at a predetermined temperature. a fire resistant panel defining a first attachment opening and disposed adjacent to the structure; a canister including a side wall defining a first end and a second end, and an end wall enclosing the first end and defining a second attachment opening that is aligned with the first attachment opening; a side wall defining a first end and a second end, and an end wall enclosing the first end and defining a second attachment opening that is aligned with the first attachment opening; a fastener extending through the canister at the second attachment opening and the fire resistant panel at the first attachment opening such that the canister, the fire resistant panel, and the structure are fastened together; and a fire retardant agent disposed within the canister in an inactive condition and configured to transition out of the second end of the canister in an active condition at a predetermined temperature.
A propulsion unit having a propeller for an aircraft comprising: - a nacelle configured to be attached to a structural element of the aircraft; - a propeller which is rotatably mounted in the nacelle about a longitudinal axis of rotation by means of a hub, the propeller comprising blades each of which is mounted in a pivotally fixed manner to an associated blade cuff which is pivotally mounted about a radial pitch axis with respect to the hub, and each blade being pivotally mounted with respect to the blade cuff about a folding axis orthogonal to the radial pitch axis; - a folding device which comprises a folding actuator controlling the pivoting of each blade relative to its blade cuff between a deployed position in which the blades extend radially with respect to the axis of rotation and a folded position in which the blades extend generally longitudinally against the nacelle; the folding device comprising a transmission associated with each blade, each transmission comprising: - a movable control member which is mounted in a rotationally fixed manner to the blade cuff and which is moved by the folding actuator, and - a link comprising a first end pivotally mounted on a root of the associated blade eccentrically with respect to the folding axis and a second end pivotally mounted on the movable control member, characterised in that the movable control member is formed by a crank which is pivotally mounted in the blade cuff around of a control axis parallel to the folding axis and in that the pivoting of the movable control member is actuated by means of a gearing between a toothed sector of the crank and a rack which is mounted so as to slide longitudinally and driven by the folding actuator. - a nacelle configured to be attached to a structural element of the aircraft; - a propeller which is rotatably mounted in the nacelle about a longitudinal axis of rotation by means of a hub, the propeller comprising blades each of which is mounted in a pivotally fixed manner to an associated blade cuff which is pivotally mounted about a radial pitch axis with respect to the hub, and each blade being pivotally mounted with respect to the blade cuff about a folding axis orthogonal to the radial pitch axis; - a folding device which comprises a folding actuator controlling the pivoting of each blade relative to its blade cuff between a deployed position in which the blades extend radially with respect to the axis of rotation and a folded position in which the blades extend generally longitudinally against the nacelle; - a movable control member which is mounted in a rotationally fixed manner to the blade cuff and which is moved by the folding actuator, and - a link comprising a first end pivotally mounted on a root of the associated blade eccentrically with respect to the folding axis and a second end pivotally mounted on the movable control member,
A process for preparing an alkylate comprising contacting in a reaction zone a hydrocarbon mixture comprising at least an isoparaffin and an olefin with an acidic ionic liquid catalyst under alkylation conditions to obtain an alkylate-comprising effluent, in which process: - solids are formed in the reaction zone; - a solids-comprising effluent comprising hydrocarbons and acidic ionic liquid is withdrawn from the reaction zone; - the solids-comprising effluent is separated into a catalyst-rich phase and a hydrocarbon-rich phase; - at least part of the the catalyst-rich phase of the solids-comprising effluent is treated to remove at least part of the solids in the form of a slurry of solids to obtain a solids-depleted effluent; and - at least part of the solids-depleted effluent is recycled to the reaction zone; wherein solids are removed from the reaction zone to an extent that the reaction zone comprises at most 5wt% of solids, preferably at most 2wt% of solids, more preferably in the range of from 0.1 to 2wt% of solids based on the total weight of the acidic ionic liquid catalyst in the reaction zone. - solids are formed in the reaction zone; - a solids-comprising effluent comprising hydrocarbons and acidic ionic liquid is withdrawn from the reaction zone; - the solids-comprising effluent is separated into a catalyst-rich phase and a hydrocarbon-rich phase; - at least part of the the catalyst-rich phase of the solids-comprising effluent is treated to remove at least part of the solids in the form of a slurry of solids to obtain a solids-depleted effluent; and - at least part of the solids-depleted effluent is recycled to the reaction zone;
A trailer for an autonomous vehicle, the trailer comprising: a trailer body configured to retain the autonomous vehicle in an undeployed configuration, the trailer configured to anchor the autonomous vehicle in a deployed configuration; a tether having a first end coupled to the trailer body and a second end configured to couple to the autonomous vehicle; a winch for adjusting a length of the tether to move the autonomous vehicle between the undeployed configuration and deployed configuration; a communication system including a control system configured to communicate with a command and control interface and with the autonomous vehicle to control an operation of the winch to move the autonomous vehicle between the undeployed configuration and deployed configuration; characterized in that the control system comprises a plurality of sensors positioned on the trailer body, wherein the sensors monitor environmental data, the environmental data including at least one of mean power consumption of an autonomous vehicle for 30 seconds, one minute, 10 minutes, or an entire mission, remaining autonomous vehicle battery charge, wind speed, wind direction, or ambient pressure and temperature and wherein the winch is controlled based on the environmental data. a trailer body configured to retain the autonomous vehicle in an undeployed configuration, the trailer configured to anchor the autonomous vehicle in a deployed configuration; a tether having a first end coupled to the trailer body and a second end configured to couple to the autonomous vehicle; a winch for adjusting a length of the tether to move the autonomous vehicle between the undeployed configuration and deployed configuration; a communication system including a control system configured to communicate with a command and control interface and with the autonomous vehicle to control an operation of the winch to move the autonomous vehicle between the undeployed configuration and deployed configuration; characterized in that the control system comprises a plurality of sensors positioned on the trailer body, wherein the sensors monitor environmental data, the environmental data including at least one of mean power consumption of an autonomous vehicle for 30 seconds, one minute, 10 minutes, or an entire mission, remaining autonomous vehicle battery charge, wind speed, wind direction, or ambient pressure and temperature and wherein the winch is controlled based on the environmental data.
A grinding tool, in particular a cutting disc, comprising a matrix, in particular a sintered metal matrix, and diamonds embedded in the matrix, characterised in that - associated with at least the majority of the diamonds is at least one respective wear-promoting particle and/or at least one respective wear-inhibiting particle, - the at least one wear-promoting particle and the at least one wear-inhibiting particle respectively is also embedded in the matrix, - the grinding tool has a preferred grinding direction, and - the at least one respective wear-promoting particle is embedded in the matrix upstream of the diamond with which it is associated in the grinding direction and the at least one respective wear-inhibiting particle respectively is embedded in the matrix downstream of the diamond with which it is associated in the grinding direction, and - the grinding tool has a grinding contact surface which is towards the article to be ground in the condition of use, wherein the at least one respective wear-inhibiting particle is at a greater spacing (A h) relative to the grinding contact surface in relation to the diamond with which it is associated. - associated with at least the majority of the diamonds is at least one respective wear-promoting particle and/or at least one respective wear-inhibiting particle, - the at least one wear-promoting particle and the at least one wear-inhibiting particle respectively is also embedded in the matrix, - the grinding tool has a preferred grinding direction, and - the at least one respective wear-promoting particle is embedded in the matrix upstream of the diamond with which it is associated in the grinding direction and the at least one respective wear-inhibiting particle respectively is embedded in the matrix downstream of the diamond with which it is associated in the grinding direction, and - the grinding tool has a grinding contact surface which is towards the article to be ground in the condition of use, wherein the at least one respective wear-inhibiting particle is at a greater spacing (A h) relative to the grinding contact surface in relation to the diamond with which it is associated.
A method for planning treatment on the teeth of a patient, the planning being based on a representation of a chewing movement of the patient during which the upper and lower rows of teeth move against each other, characterised in that a camera is used to record a first data set containing three-dimensional image data of the surfaces of the at least partially toothed upper jaw and of the at least partially toothed lower jaw, the patient is fitted with a bite pattern plate, which has cured impressions of the upper jaw and of the lower jaw, identifiable markers being provided on and/or in the bite pattern plate, a second data set containing three-dimensional image data including surface data of the bite pattern plate, in which the surfaces of the jaws (13, 14) and the markers of the bite pattern plate can be identified, is recorded without involving the patient, a movement sensor is releasably fastened to the lower jaw of the patient while the patient is biting on the fitted bite pattern plate, the position of the movement sensor relative to the bite pattern plate being registered, the bite pattern plate is removed, the movements of the movement sensor during chewing movements are recorded using a detector releasably fastened to the head of the patient and are stored as movement data in a third data set, the three-dimensional image data of the first data set are combined with the movement data of the third data set, registration taking place by means of the second data set, the chewing movements of the lower jaw relative to the upper jaw are displayed on a screen for the purpose of treatment planning.
An ink comprising: an organic solvent, and a polyethylene wax having a penetration of 1.2 or less as measured according to JIS K2235 format, wherein an ink film of a solid image formed with the ink has a dynamic friction coefficient of 0.35 or less, and wherein solid matter of the ink has an endothermic peak and an exothermic peak in a temperature range of from 100 to 130 degrees C in differential scanning calorimetry measuring and a peak area of the exothermic peak is from greater than 0 to 40 J/g. an organic solvent, and a polyethylene wax having a penetration of 1.2 or less as measured according to JIS K2235 format, wherein an ink film of a solid image formed with the ink has a dynamic friction coefficient of 0.35 or less, and wherein solid matter of the ink has an endothermic peak and an exothermic peak in a temperature range of from 100 to 130 degrees C in differential scanning calorimetry measuring and a peak area of the exothermic peak is from greater than 0 to 40 J/g.
A fault detection assembly for an aircraft system comprising: a transmitter configured to communicate an electrical input signal to a first portion (82; 182) of an electrical connector (80; 180), the first portion (82; 182) moveable between a fully seated position and a fully unseated position relative to a second portion (84; 184) of the electrical connector (80; 180) to define a range of insertion depths; a receiver configured to sense an electrical output signal relating to the electrical input signal; and a comparison module configured to determine an insertion depth in the range of insertion depths based on a change in a resonant frequency of the electrical output signal with respect to the electrical input signal. a transmitter configured to communicate an electrical input signal to a first portion (82; 182) of an electrical connector (80; 180), the first portion (82; 182) moveable between a fully seated position and a fully unseated position relative to a second portion (84; 184) of the electrical connector (80; 180) to define a range of insertion depths; a receiver configured to sense an electrical output signal relating to the electrical input signal; and a comparison module configured to determine an insertion depth in the range of insertion depths based on a change in a resonant frequency of the electrical output signal with respect to the electrical input signal.
A chimeric antigen receptor characterized in that it comprises: a) at least one ectodomain which comprises: i) a extracellular antigen binding domain; and ii) a switch domain comprising at least a first multimerizing ligand-binding domain and a second multimerizing ligand-binding domain which are capable of binding to a predetermined multivalent ligand to form a multimer comprising said two binding domains and the multivalent ligand to which they are capable of binding; b) at least one transmembrane domain; and c) at least one endodomain comprising a signal transducing domain and optionally a co-stimulatory domain; wherein the switch domain is located between the extracellular antigen binding domain and the transmembrane domain; and wherein the first multimerizing ligand-binding domain and second multimerizing ligand-binding domain are selected from the pairs of multimerizing ligand-binding domains consisting of: FK506 binding protein (FKBP12):FKBP-rapamycin binding domain of mTOR, FKBP12:FKBP12, FKBP (F36V): FKBP (F36V), FKBP12:FRB (T2098L), FKBP12:Calcineurin A (CnA), FKBP12:Cyclophilin (CyP), GyrB:GyrB, GAI:GID1A, GAI:GID1B, GAI:GID1C, Snap-tag:Halo-tag, Snap-tag:CLIP-tag, DHFR:DHFR, glucocorticoid receptor ligand-binding domain:DHFR and PYL1:ABI1. a) at least one ectodomain which comprises: i) a extracellular antigen binding domain; and ii) a switch domain comprising at least a first multimerizing ligand-binding domain and a second multimerizing ligand-binding domain which are capable of binding to a predetermined multivalent ligand to form a multimer comprising said two binding domains and the multivalent ligand to which they are capable of binding; i) a extracellular antigen binding domain; and ii) a switch domain comprising at least a first multimerizing ligand-binding domain and a second multimerizing ligand-binding domain which are capable of binding to a predetermined multivalent ligand to form a multimer comprising said two binding domains and the multivalent ligand to which they are capable of binding; b) at least one transmembrane domain; and c) at least one endodomain comprising a signal transducing domain and optionally a co-stimulatory domain;
A method of transmitting an uplink data in a wireless communication system, the method comprising: receiving, by a User Equipment, UE, from a Base Station, BS, a message allocating persistent resources for an uplink data transmission based on a persistent scheduling scheme; monitoring, by the UE, a control channel so as to find an uplink scheduling grant, the uplink scheduling grant comprising information related to uplink radio resources for the uplink data transmission over a physical channel; if the uplink scheduling grant is found on the control channel, overriding the persistent resources; transmitting the uplink data using the uplink radio resources indicated by the uplink scheduling grant; and if the uplink scheduling grant is not found on the control channel, transmitting the uplink data based on the persistent resources. receiving, by a User Equipment, UE, from a Base Station, BS, a message allocating persistent resources for an uplink data transmission based on a persistent scheduling scheme; monitoring, by the UE, a control channel so as to find an uplink scheduling grant, the uplink scheduling grant comprising information related to uplink radio resources for the uplink data transmission over a physical channel; if the uplink scheduling grant is found on the control channel, overriding the persistent resources; transmitting the uplink data using the uplink radio resources indicated by the uplink scheduling grant; and if the uplink scheduling grant is not found on the control channel, transmitting the uplink data based on the persistent resources.
A system comprising: at least one remote client central processing unit in communication with at least one non-public host web server for the limited purpose of validating remote client user access; a hardware management console having hardware management console application software in communication with said non-public host web server; a mainframe central processing unit, wherein said hardware management console software operates, monitors and controls said mainframe central processing unit; at least one remote security administrator communicably attached to said at least one remote client central processing unit and to said non-public host web server; characterized by an emulated device controller central processing unit in communication with said non-public host web server; first software means to validate authorized remote client user access to said at least one non-public host web server, wherein said first software means is resident on said emulated device controller central processing unit; and second software means to remotely configure and utilize said hardware management console application software in communication with said non-public host web server, said second software means is resident on said emulated device controller central processing unit. at least one remote client central processing unit in communication with at least one non-public host web server for the limited purpose of validating remote client user access; a hardware management console having hardware management console application software in communication with said non-public host web server; a mainframe central processing unit, wherein said hardware management console software operates, monitors and controls said mainframe central processing unit; at least one remote security administrator communicably attached to said at least one remote client central processing unit and to said non-public host web server; characterized by an emulated device controller central processing unit in communication with said non-public host web server; first software means to validate authorized remote client user access to said at least one non-public host web server, wherein said first software means is resident on said emulated device controller central processing unit; and second software means to remotely configure and utilize said hardware management console application software in communication with said non-public host web server, said second software means is resident on said emulated device controller central processing unit.
A biomimetic tactile sensor for providing an electrical indication of contact comprising: a) a substantially rigid core having a curved surface, configured to hold a plurality of electrodes along the curved surface; b) at least one deformable layer, configured to attach to the core, having an inner and an outer surface; c) a volume of deformable material enclosed between the core and the at least one deformable layer inner surface made of a conductive liquid; and d) detection circuitry electrically and independently coupled to the plurality of the electrodes and configured to detect changes in the electrical impedance of the conductive liquid between electrodes caused by force exerted on the deformable layer outer surface. a) a substantially rigid core having a curved surface, configured to hold a plurality of electrodes along the curved surface; b) at least one deformable layer, configured to attach to the core, having an inner and an outer surface; c) a volume of deformable material enclosed between the core and the at least one deformable layer inner surface made of a conductive liquid; and d) detection circuitry electrically and independently coupled to the plurality of the electrodes and configured to detect changes in the electrical impedance of the conductive liquid between electrodes caused by force exerted on the deformable layer outer surface.
Method for communication between at least two computing facilities of a medical imaging facility, a magnetic resonance facility, via a single communication line, wherein communication information assigned to different communication types received in each case via a dedicated data input is merged to form data structures of a defined size to be transmitted via the communication line, wherein the data structures are transmitted cyclically with an interval of one cycle time via the communication line and communication information of the different communication types is extracted from data structures received via the communication line and output at data outputs assigned to the respective communication types, wherein the communication types comprise a first packet-oriented communication type and a second isochronous communication type corresponding to isochronous direct channel communication, wherein the magnetic resonance facility has a central control facility as a first computing facility, computing facilities of at least one gradient unit, at least one transmit unit, at least one receive unit and at least one peripheral unit as second computing facilities and computing facilities of at least one peripheral subunit as third computing facilities, wherein the first computing facility, as a master, is connected in each case via one of the at least one communication facility to the second computing facilities, as a slave, and wherein the peripheral unit, as a master, is connected via in each case one of the at least one communication facility to the third computing facilities, as a slave, characterised in that at least one prespecified subportion of the data structure is used to transfer an interrupt from a slave to a master.