mhurhangee/ep-ind-claims huggingface dataset:
A surgical fastener deployment device comprising: a handle; a shaft extending distally from the handle; a surgical fastener disposed in the shaft, the surgical fastener including a head, and a distally extending coil body attached to the head, characterised in that the head has a through hole with an internal thread; and the surgical fastener deployment device further comprises a mandrel including a threaded portion, wherein the threaded portion is engaged with the internal thread of the head and the distally extending coil body of the surgical fastener, wherein a pitch of the internal thread of the through hole, and the threaded portion of the mandrel that is engaged with the internal thread, is different from a pitch of the coil body of the surgical fastener, and a rotator associated with the surgical fastener, wherein the rotator rotates the surgical fastener relative to the mandrel to displace the surgical fastener in a distal direction. a handle; a shaft extending distally from the handle; a surgical fastener disposed in the shaft, the surgical fastener including a head, and a distally extending coil body attached to the head, characterised in that the head has a through hole with an internal thread; and the surgical fastener deployment device further comprises a mandrel including a threaded portion, wherein the threaded portion is engaged with the internal thread of the head and the distally extending coil body of the surgical fastener, wherein a pitch of the internal thread of the through hole, and the threaded portion of the mandrel that is engaged with the internal thread, is different from a pitch of the coil body of the surgical fastener, and a rotator associated with the surgical fastener, wherein the rotator rotates the surgical fastener relative to the mandrel to displace the surgical fastener in a distal direction.
Assembly for managing components (100, 100a, 100b, 150, 150a, 150b) of a telecommunication system, comprising: - a supporting frame having at least one shaped opening; - at least one supporting member for said component (100, 100a, 100b, 150, 150a, 150b), said supporting member having an integral portion adapted to be inserted into said shaped opening along an inserting direction; - a locking element associated with said supporting member and movable on said supporting member, along a direction parallel to the inserting direction, between a first operative position in which said integral portion of the supporting member can be inserted into said shaped opening and extracted therefrom, and a second operative position in which extraction of said integral portion of the supporting member from said shaped opening is prevented, thereby fixedly associating said supporting member with said supporting frame. - a supporting frame having at least one shaped opening; - at least one supporting member for said component (100, 100a, 100b, 150, 150a, 150b), said supporting member having an integral portion adapted to be inserted into said shaped opening along an inserting direction; - a locking element associated with said supporting member and movable on said supporting member, along a direction parallel to the inserting direction, between a first operative position in which said integral portion of the supporting member can be inserted into said shaped opening and extracted therefrom, and a second operative position in which extraction of said integral portion of the supporting member from said shaped opening is prevented, thereby fixedly associating said supporting member with said supporting frame.
A computer-implemented method, comprising: obtaining a first script associated with a blockchain transaction, the first script comprising: a first set of commands; and one or more cryptographic hash values (418, 414); generating a second script comprising: a second set of commands; one or more subsets of a plurality of elements (412, 416), wherein the plurality of elements collectively form a verification key and the one or more subsets collectively include each element of verification key; the first script; and an identifier associated with a computer system generating the second script; and generating an attestation that the computer system has access to the verification key based at least in part on executing the first set of commands and the second set of commands and on determining therewith that the one or more cryptographic hash values match the one or more subsets of the verification key. obtaining a first script associated with a blockchain transaction, the first script comprising: a first set of commands; and one or more cryptographic hash values (418, 414); a first set of commands; and one or more cryptographic hash values (418, 414); generating a second script comprising: a second set of commands; one or more subsets of a plurality of elements (412, 416), wherein the plurality of elements collectively form a verification key and the one or more subsets collectively include each element of verification key; the first script; and an identifier associated with a computer system generating the second script; and a second set of commands; one or more subsets of a plurality of elements (412, 416), wherein the plurality of elements collectively form a verification key and the one or more subsets collectively include each element of verification key; the first script; and an identifier associated with a computer system generating the second script; and generating an attestation that the computer system has access to the verification key based at least in part on executing the first set of commands and the second set of commands and on determining therewith that the one or more cryptographic hash values match the one or more subsets of the verification key.
A wireless communication device on an aircraft, the wireless communication device comprising an antenna array and a beamforming control module configured to interface with the antenna array to generate a steerable beam, the beamforming control module comprising processing circuitry configured to: receive fixed position information indicative of a fixed geographic location of a first base station and a second base station; receive dynamic position information indicative of a three dimensional position of the aircraft, wherein the dynamic position information further includes heading and speed of the aircraft; determine an expected relative position of the aircraft relative to the second base station based on the fixed position information and the dynamic position information, the second base station being a candidate for a handover of the wireless communication device while the wireless communication device has an established communication link with the first base station; and provide instructions to direct predictive formation of the steerable beam from the antenna array of the aircraft to the base station based on the expected relative position, wherein determining the expected relative position comprises determining a future position of the aircraft and corresponding estimated future time at which the aircraft will be at the future position to direct the steerable beam based on the future position to prepare for a future need for the steerable beam with the second base station, and wherein a width of the steerable beam in both azimuth and elevation angle is less than five degrees. receive fixed position information indicative of a fixed geographic location of a first base station and a second base station; receive dynamic position information indicative of a three dimensional position of the aircraft, wherein the dynamic position information further includes heading and speed of the aircraft; determine an expected relative position of the aircraft relative to the second base station based on the fixed position information and the dynamic position information, the second base station being a candidate for a handover of the wireless communication device while the wireless communication device has an established communication link with the first base station; and provide instructions to direct predictive formation of the steerable beam from the antenna array of the aircraft to the base station based on the expected relative position,
A process for making 1-hydroxyethylformamide or N-methyl-1-hydroxylethylformamide, said process comprising: (a) introducing formamide or N-methylformamide and acetaldehyde into a first reaction zone, wherein the molar ratio of formamide or N-methylformamide to acetaldehyde added to said first reaction zone is at least 1.5:1; and (b) reacting at least a portion of said formamide or said N-methylformamide with at least a portion of said acetaldehyde in the presence of a basic catalyst in said first reaction zone to thereby form a reaction mixture comprising 1-hydroxyethylformamide or N-methyl, 1-hydroxyethylformamide. (a) introducing formamide or N-methylformamide and acetaldehyde into a first reaction zone, wherein the molar ratio of formamide or N-methylformamide to acetaldehyde added to said first reaction zone is at least 1.5:1; and (b) reacting at least a portion of said formamide or said N-methylformamide with at least a portion of said acetaldehyde in the presence of a basic catalyst in said first reaction zone to thereby form a reaction mixture comprising 1-hydroxyethylformamide or N-methyl, 1-hydroxyethylformamide.
A particle formation and collection equipment assembly comprising: at least one high pressure particle formation system comprising a pressurizable precipitation chamber comprising a supercritical fluid inlet (21a, 21b), a process fluid inlet, a fluid outlet, a process fluid disperser configured to disperse process fluid into the chamber, wherein the system is configured to form a particle-containing high pressure liquid suspension; wherein the collection equipment assembly comprises at least one particle filtration system comprising: at least one high pressure harvesting filter system (6, 50) comprising at least one gas supply, at least one porous element, and a housing defining a cavity (63, 64), wherein the system is configured to receive a particle-containing high pressure liquid suspension from the particle formation system, to filter the high pressure liquid suspension through the porous element such that particles are retained in the cavity (63, 64) and high pressure liquid passes through the porous element in a first forward process direction, to flow a low pressure gas from the gas supply through the porous element in a second reverse process direction, and to dispense a particle-containing low pressure gaseous suspension, wherein process direction is with respect to flow through the porous element; and at least one low pressure collection filter system (12, 75) in tandem and downstream to the harvesting filter (6, 50) and configured to receive a particle-containing low pressure gaseous suspension from the harvesting filter (6, 50), to separate gas from particles and to dispense particles to at least one collection system; and at least one particle collection system comprising at least one collection vessel and being configured to receive and collect particles from the at least one low pressure collection filter system.
Method for preparing platinum particles bonded to a carbon material, said particles being grafted with grafts consisting of at least one polymer comprising at least one styrene repeating unit having at least one proton-conducting group, said method comprising: a) a step of preparing said platinum particles bonded to a carbon material comprising an operation of heating under microwaves of a mixture comprising a platinum salt, said carbon material and at least one polyol compound, subject to which said particles are obtained; b) a step of preparing at least one ethylene polymer by ATRP polymerisation of an ethylene monomer with an ATRP initiator having the following formula: wherein: - the R 1 groups represent, independently of one another, an organic spacer group; - the Z groups represent, independently of one another, a single bond or an organic spacer group; - the R 2 groups represent, independently of one another, a halogen atom; the resulting polymer having the following formula: wherein Y corresponds to the styrene repeating unit having at least one proton-conducting group and n 1 to the repetition number of the repeating unit taken in parentheses, the R 1, R 2 and Z being such as defined hereinabove; c) a step of contacting particles obtained in a) with the polymer obtained in b), subject to which particles are obtained grafted with grafts having the following formula: the brace indicating the location where the grafts are bonded, covalently, to the particles and the R 1, R 2, Z, Y and n 1 being such as defined hereinabove. a) a step of preparing said platinum particles bonded to a carbon material comprising an operation of heating under microwaves of a mixture comprising a platinum salt, said carbon material and at least one polyol compound, subject to which said particles are obtained; b) a step of preparing at least one ethylene polymer by ATRP polymerisation of an ethylene monomer with an ATRP initiator having the following formula: wherein: - the R 1 groups represent, independently of one another, an organic spacer group; - the Z groups represent, independently of one another, a single bond or an organic spacer group; - the R 2 groups represent, independently of one another, a halogen atom; the resulting polymer having the following formula: wherein Y corresponds to the styrene repeating unit having at least one proton-conducting group and n 1 to the repetition number of the repeating unit taken in parentheses, the R 1, R 2 and Z being such as defined hereinabove; - the R 1 groups represent, independently of one another, an organic spacer group; - the Z groups represent, independently of one another, a single bond or an organic spacer group; - the R 2 groups represent, independently of one another, a halogen atom; c) a step of contacting particles obtained in a) with the polymer obtained in b), subject to which particles are obtained grafted with grafts having the following formula: the brace indicating the location where the grafts are bonded, covalently, to the particles and the R 1, R 2, Z, Y and n 1 being such as defined hereinabove.
Hydraulic renewable energy plant comprising tanks that are connected in series to other tanks forming batteries, these batteries being joined together in series forming blocks, these blocks in turn being connected sequentially forming a row, which is joined in parallel with other rows equal to that described so that each of these tanks contains copper sheets and zinc sheets which are filled and renewed with water with a continuous volume through a hydraulic system which introduces water thereto from a main pipe through a secondary pipe, said copper and zinc sheets being fully submerged and isolated, so that the energy produced by a redox reaction of galvanic type is transmitted to an external electrical circuit via terminals, wherein the hydraulic system further comprises a charging valve through which water enters directly to the tank, so that when this charging valve is closed for an estimated time, a discharging valve actuates, through which all the fluid is evacuated to a secondary outlet pipe, which has a solenoid valve before connecting to a main evacuation pipe; and there is also a drain auxiliary pipe connected directly to the tank which connects to the main evacuation pipe previously mentioned, and it has a solenoid valve; and it is characterized in that both the charging valve and the discharging valve are synchronized moreover, inside the tank there is a failure sensor for the charging and discharge valves (4 and 5) sending a warning signals to a panel when said valves (4 and 5) are not working properly, and a filling shut-off sensor which is activated when the filling of the tank is via an auxiliary pipe having a solenoid valve on its inlet.
A sensor package, comprising - an integrated device comprising a sensitive element which is sensitive to one or more of humidity, temperature, gas, pressure, gas flow or differential pressure, - a front side of a material A, wherein the material A comprises mold compound, - a back side of a material B opposite to the front side, wherein the material B comprises mold compound and metal of a lead frame, - side walls that link the front side and the back side, each side wall being coated with a coating material to at least 80 % of its area, the coating material being different from the material A and being different from the material B, wherein the coating material is a glue or an encapsulant, each with less than 10 % filler particles, wherein one of: - the front side is free from coating material; or - the coating material coated on at least one of the side walls wraps around a lateral end of the front side and/or back side and covers less than 20 % of the area of the front side and/or back side. - an integrated device comprising a sensitive element which is sensitive to one or more of humidity, temperature, gas, pressure, gas flow or differential pressure, - a front side of a material A, wherein the material A comprises mold compound, - a back side of a material B opposite to the front side, wherein the material B comprises mold compound and metal of a lead frame, - side walls that link the front side and the back side, each side wall being coated with a coating material to at least 80 % of its area, the coating material being different from the material A and being different from the material B, wherein the coating material is a glue or an encapsulant, each with less than 10 % filler particles, wherein one of: - the front side is free from coating material; or - the coating material coated on at least one of the side walls wraps around a lateral end of the front side and/or back side and covers less than 20 % of the area of the front side and/or back side. - the front side is free from coating material; or - the coating material coated on at least one of the side walls wraps around a lateral end of the front side and/or back side and covers less than 20 % of the area of the front side and/or back side.
Smart card comprising: a light-emitting diode having an anode terminal coupled to a node of application of a power supply voltage (Vcc) by a first transistor, and a cathode terminal coupled to a node of application of a reference voltage (Gnd) by a second transistor; and a microcontroller, characterized in that the microcontroller comprises a digital-to-analog converter and a comparator having a first input coupled to one of the anode and cathode terminals of the diode and a second input configured to receive an output voltage (Vref) of the converter, and in that an output signal of the comparator controls one of the first and second transistors (T1, T2) for turning off the supply of the light-emitting diode when a current flowing therein reaches a maximal targeted current in said light-emitting diode. a light-emitting diode having an anode terminal coupled to a node of application of a power supply voltage (Vcc) by a first transistor, and a cathode terminal coupled to a node of application of a reference voltage (Gnd) by a second transistor; and a microcontroller, characterized in that the microcontroller comprises a digital-to-analog converter and a comparator having a first input coupled to one of the anode and cathode terminals of the diode and a second input configured to receive an output voltage (Vref) of the converter, and in that an output signal of the comparator controls one of the first and second transistors (T1, T2) for turning off the supply of the light-emitting diode when a current flowing therein reaches a maximal targeted current in said light-emitting diode.
A system comprising a gas management assembly (100, 200) and a high pressure heat-treatment apparatus, the gas management assembly configured for being used with the high pressure heat-treatment apparatus, the assembly comprising: a housing (110, 210) having an inner space (111, 211); a gas supply module disposed in the inner space and configured to supply a gas to internal chamber and external chamber of the high pressure heat-treatment apparatus; a gas exhaust module (130, 230) disposed in the inner space and configured to exhaust the gas caused by heat treatment of an object from the internal chamber; a detection module (140, 240) connected to the gas exhaust module in the inner space and configured to detect the residual gas remaining in the internal chamber; and a control module configured to control at least one of the gas supply module and the gas exhaust module based on a detection result of the residual gas by the detection module. a housing (110, 210) having an inner space (111, 211); a gas supply module disposed in the inner space and configured to supply a gas to internal chamber and external chamber of the high pressure heat-treatment apparatus; a gas exhaust module (130, 230) disposed in the inner space and configured to exhaust the gas caused by heat treatment of an object from the internal chamber; a detection module (140, 240) connected to the gas exhaust module in the inner space and configured to detect the residual gas remaining in the internal chamber; and a control module configured to control at least one of the gas supply module and the gas exhaust module based on a detection result of the residual gas by the detection module.
A method for manufacturing a dairy product, wherein a protein deamidating enzyme is added to raw milk and allowed to act on the milk protein in the raw milk, wherein the protein deamidating enzyme acts directly on the amide groups of a protein and has an action to deamidate with neither peptide bond cleavage nor protein crosslink accompanied.
Method of mounting a fastening element having a shank in an anchor rail without play, said anchor rail having an elongated receiving space with a receiving opening for the insertion of the fastening element extending in a longitudinal direction and delimited by two longitudinal arms of the anchor rail converging in cross section, wherein the receiving space is expanded laterally departing from the receiving opening and wherein the fastening element projects into the receiving space by means of a head provided on the shank of the fastening element, comprising the following steps: - inserting the fastening element into the receiving space of the anchor rail, the head engaging behind the longitudinal arms in the receiving space, - introducing a curable material into the receiving opening and/or the receiving space and - curing the material, characterised in that the curable material is introduced exclusively in the region of the fastening element and the space between the shank of the fastening element and the longitudinal arms is filled completely in this region. - inserting the fastening element into the receiving space of the anchor rail, the head engaging behind the longitudinal arms in the receiving space, - introducing a curable material into the receiving opening and/or the receiving space and - curing the material,