mhurhangee/ep-ind-claims huggingface dataset:
A directional holding rotary transfer manipulator comprises a main seat, a rotating shaft, a rotating frame, a suction nozzle mechanism and a rotary power source, wherein the rotating shaft is installed in the main seat and connected with the rotary power source in a transmission way, the rotating frame is installed on the rotating shaft, and the suction nozzle mechanism is installed on the rotating frame, and a holding cam and a lifting cam are installed on the main seat; a lifting guide groove is arranged on a cylindrical surface of the lifting cam along the circumference, the lifting guide groove is provided with a lifting bending section, a holding guide groove is arranged on a cylindrical surface of the holding cam along the circumference, the holding guide groove is provided with a holding bending section, and the holding bending section of the holding guide groove corresponds to the position of the lifting bending section on the lifting guide groove; the suction nozzle mechanism includes a suction nozzle, a suction rod, a guide block, a lifting roller and a retaining roller, characterized in that the suction nozzle is installed on the suction rod, the suction rod is rotatably installed on the rotating frame, the guide block is rotatably installed on the suction rod, the lifting roller is installed on the inner side of the guide block and located in the lifting guide groove, the retaining roller is connected with the suction rod through a rotary arm, and the retaining roller is positioned in the holding guide groove.
A method for authenticating a first mobile device (405, 105) for wireless communication, the method performed by a second mobile device and comprising: - receiving a communication request from the first mobile device (405,105) wherein the first mobile device (405, 105) is operable to exchange data over a primary channel, and wherein the communication request is received using the primary channel; and thereafter - receiving authentication data from the first mobile device (405, 105) over a secondary channel, wherein the authentication data exchanged over the secondary channel includes information encoded on a bar code, wherein the bar code is electronically generated and presented on a display of the first mobile device, wherein the bar code is changing according to a predetermined schedule or in a random manner, wherein the secondary channel is a short-range channel operable for exchanging data when the first mobile device (405, 105) is within physical proximity and is different from the primary channel, wherein the primary channel, relative to the secondary channel, is a longer range channel permitting greater physical mobility, wherein the primary channel is a Bluetooth channel or a WiFi channel; and - processing the authentication data to determine whether the first mobile device is a trusted device by using the authentication data as a time varying parameter input into an authentication algorithm programmed on an authentication controller. - receiving a communication request from the first mobile device (405,105) wherein the first mobile device (405, 105) is operable to exchange data over a primary channel, and wherein the communication request is received using the primary channel; and thereafter - receiving authentication data from the first mobile device (405, 105) over a secondary channel, wherein the authentication data exchanged over the secondary channel includes information encoded on a bar code, wherein the bar code is electronically generated and presented on a display of the first mobile device, wherein the bar code is changing according to a predetermined schedule or in a random manner, wherein the secondary channel is a short-range channel operable for exchanging data when the first mobile device (405, 105) is within physical proximity and is different from the primary channel, wherein the primary channel, relative to the secondary channel, is a longer range channel permitting greater physical mobility, wherein the primary channel is a Bluetooth channel or a WiFi channel; and - processing the authentication data to determine whether the first mobile device is a trusted device by using the authentication data as a time varying parameter input into an authentication algorithm programmed on an authentication controller.
A system for pulmonary treatment, comprising: a pulmonary treatment device having an energy delivery element positionable through at least a portion of a trachea into an airway, configured to deliver energy to a wall of the airway to alter nerve tissue located at a target site in or proximate to the wall of the airway, and configured to receive a cooling media to cool the energy delivery element; characterized in that the system further comprises a protection device having a protection member positionable in an esophagus while the pulmonary treatment device is positioned in the airway, the protection member being configured to receive a cooling media to cool the protection member and absorb heat from a wall of the esophagus to inhibit damage to esophageal tissue, wherein the pulmonary treatment system is configured to cooperatively cool the pulmonary treatment device and the protection device to alter the nerve tissue located at the target site while cooling the energy delivery element and protecting the esophagus from permanent injury. a pulmonary treatment device having an energy delivery element positionable through at least a portion of a trachea into an airway, configured to deliver energy to a wall of the airway to alter nerve tissue located at a target site in or proximate to the wall of the airway, and configured to receive a cooling media to cool the energy delivery element; characterized in that the system further comprises a protection device having a protection member positionable in an esophagus while the pulmonary treatment device is positioned in the airway, the protection member being configured to receive a cooling media to cool the protection member and absorb heat from a wall of the esophagus to inhibit damage to esophageal tissue, wherein the pulmonary treatment system is configured to cooperatively cool the pulmonary treatment device and the protection device to alter the nerve tissue located at the target site while cooling the energy delivery element and protecting the esophagus from permanent injury.
An electronic monitoring device, comprising: A triple axis accelerometer sensor (10,610) having an output; an electronic processor having an input coupled to the output of the sensor and an output; and a memory holding instructions for the electronic processor and coupled to the electronic processor so that the electronic processor is operable to isolate a cardiac signal including cardiac pulses combined with other cardiac signal variations, and the electronic processor is further operable to execute a filter that separates a varying blood flow signal from the cardiac pulses, and to output information based on at least the varying blood flow signal, wherein the electronic processor is further operable to also separate cardiac pulses from the cardiac signal and to produce an electronic representation of a hemodynamic parameter based on a time difference between a selected cardiac pulse and a peak in the varying blood flow signal after the selected cardiac pulse. A triple axis accelerometer sensor (10,610) having an output; an electronic processor having an input coupled to the output of the sensor and an output; and a memory holding instructions for the electronic processor and coupled to the electronic processor so that the electronic processor is operable to isolate a cardiac signal including cardiac pulses combined with other cardiac signal variations, and the electronic processor is further operable to execute a filter that separates a varying blood flow signal from the cardiac pulses, and to output information based on at least the varying blood flow signal, wherein the electronic processor is further operable to also separate cardiac pulses from the cardiac signal and to produce an electronic representation of a hemodynamic parameter based on a time difference between a selected cardiac pulse and a peak in the varying blood flow signal after the selected cardiac pulse.
An assembly comprising a packaging device for packaging a fluid dispenser together with said dispenser, said dispenser comprising at least one reservoir containing fluid, and a dispenser unit that is actuated manually so as to dispense said fluid, said packaging device comprising a casing that is provided with a base body and with a cover that is separable from said base body, starting from a closed position in which said dispenser is packaged in said casing and going to an open position in which said dispenser may be removed from said casing, said casing including at least one projection that is adapted to co-operate with said dispenser at least in the closed position of the cover, so as to block said dispenser unit and prevent it from being actuated, the assembly being characterized in that said dispenser includes a body portion that is provided with at least one blocking opening that receives said projection, such that when said projection is arranged in said blocking opening, said projection prevents said dispenser unit from being actuated, at least one of said at least one projection being arranged on the inside face of said cover.
A module for a computing center having a temperable interior and an air conduction space, wherein in a rack is disposed in the interior that separates a first space zone from a second space zone, wherein the air conduction space has a first chamber and a second chamber, wherein - first air passage openings permit an air passage between the first space zone and the first chamber and between the second space zone and the second chamber, - second closable air passage openings in the open state permit an air passage between the first chamber and the second chamber, - third closable air passage openings in the open state permit an air passage between the first chamber and the environment, and - fourth closable air passage openings in the open state permit an air passage between the second chamber and the environment, wherein the module has a wall separating the interior from the air conduction space, wherein the wall is the bottom or the ceiling of the interior and the first air passage openings are formed in the wall; and wherein the air conduction space has a separating wall dividing the air conduction space in the first chamber and the second chamber and the second closable air passage openings are formed in the separating wall; and wherein the third closable air passage openings are formed in an outer wall of the first chamber and the fourth closable air passage openings are formed in an outer wall of the second chamber; and wherein the interior is formed by a container, wherein the container has a wall to which the air conduction space is attached, wherein the first air passage openings are formed in the wall of the container at least in the region of the first space zone and the second space zone. - first air passage openings permit an air passage between the first space zone and the first chamber and between the second space zone and the second chamber, - second closable air passage openings in the open state permit an air passage between the first chamber and the second chamber, - third closable air passage openings in the open state permit an air passage between the first chamber and the environment, and - fourth closable air passage openings in the open state permit an air passage between the second chamber and the environment, wherein the module has a wall separating the interior from the air conduction space, wherein the wall is the bottom or the ceiling of the interior and the first air passage openings are formed in the wall; and wherein the air conduction space has a separating wall dividing the air conduction space in the first chamber and the second chamber and the second closable air passage openings are formed in the separating wall; and wherein the third closable air passage openings are formed in an outer wall of the first chamber and the fourth closable air passage openings are formed in an outer wall of the second chamber; and wherein the interior is formed by a container, wherein the container has a wall to which the air conduction space is attached, wherein the first air passage openings are formed in the wall of the container at least in the region of the first space zone and the second space zone.
Magnetic coupling assembly for coupling of a first rotary shaft and a second rotary shaft, wherein the first rotary shaft is a drive shaft and the second rotary shaft is a load shaft, the magnetic coupling assembly comprising: - a motor side rotary hub connectable to the drive shaft; - a load side rotary hub connectable to the load shaft; - a first and a second rotatable inductor rotor (21,22); - at least one rotatable central magnet rotor connected to the load side rotary hub comprising a set of permanent magnets, wherein the at least one rotatable central magnet rotor is arranged centrally between the first and second rotatable inductor rotor (21,22) in order to transfer torque between the magnet rotor and the inductor rotors - a positioning mechanism configured to adjust the axial distances between the at least one magnet rotor and the respective inductor rotors; characterized in that the positioning mechanism is coupled to the first and second rotatable inductor rotors (21,22) and configured to selectively move the inductor rotors relative to each other to adjust the axial distances between the at least one magnet rotor and the respective inductor rotors (21,22); in that the magnetic coupling assembly further comprises: - a central shaft connected to or part of the motor side rotary hub, the first and second rotatable inductor rotor (21,22) being connected to the central shaft, the inductor rotors (21,22) being configured to be rotated by the central shaft and to be movable in axial direction along the central shaft by the positioning mechanism; and in that the at least one rotatable central magnet rotor is a single central magnet rotor, the single central magnet rotor having two opposite sides facing in opposite axial directions and comprising a number of permanent magnets arranged in the magnet rotor to provide a magnetic field extending from both opposite sides of the magnet rotor. - a motor side rotary hub connectable to the drive shaft; - a load side rotary hub connectable to the load shaft; - a first and a second rotatable inductor rotor (21,22); - at least one rotatable central magnet rotor connected to the load side rotary hub comprising a set of permanent magnets, wherein the at least one rotatable central magnet rotor is arranged centrally between the first and second rotatable inductor rotor (21,22) in order to transfer torque between the magnet rotor and the inductor rotors - a positioning mechanism configured to adjust the axial distances between the at least one magnet rotor and the respective inductor rotors; - a central shaft connected to or part of the motor side rotary hub, the first and second rotatable inductor rotor (21,22) being connected to the central shaft, the inductor rotors (21,22) being configured to be rotated by the central shaft and to be movable in axial direction along the central shaft by the positioning mechanism; and in that
Method for producing a spectacle lens, comprising the steps of: a) joining together i. a mould and a mould shell produced by primary forming, ii. and a sealing ring, which comprises a peripheral seal, on a first end face an opening for receiving a mould, and on the second end face a flexible membrane, to form a mould cavity, b) introducing a polymerizable material into the mould cavity, c) fixing the flexible membrane of the sealing ring in the desired surface shape, d) carrying out the polymerization, e) removing the mould with the moulded-on spectacle lens blank from the sealing ring, characterized in that the mould has an integrated block piece and the introduction of the polymerizable material into the mould cavity takes place with the aid of a pumping action of the flexible membrane of the sealing ring. a) joining together i. a mould and a mould shell produced by primary forming, ii. and a sealing ring, which comprises a peripheral seal, on a first end face an opening for receiving a mould, and on the second end face a flexible membrane, to form a mould cavity, i. a mould and a mould shell produced by primary forming, ii. and a sealing ring, which comprises a peripheral seal, on a first end face an opening for receiving a mould, and on the second end face a flexible membrane, b) introducing a polymerizable material into the mould cavity, c) fixing the flexible membrane of the sealing ring in the desired surface shape, d) carrying out the polymerization, e) removing the mould with the moulded-on spectacle lens blank from the sealing ring,
A ride system for an amusement park, comprising: a ride vehicle configured to carry one or more passengers, the ride vehicle being in a suspended ride position under a rail system of the ride system; a first evacuation platform for evacuating the one or more passengers from the ride vehicle when an unplanned ride stoppage occurs, the first evacuation platform comprising a first section configured to be moved towards the ride vehicle and disposed underneath the ride vehicle, wherein in use, the first section slides and is disposed under the feet of the one or more passengers so that the one or more passengers evacuate the ride vehicle by exiting onto the first section. a ride vehicle configured to carry one or more passengers, the ride vehicle being in a suspended ride position under a rail system of the ride system; a first evacuation platform for evacuating the one or more passengers from the ride vehicle when an unplanned ride stoppage occurs, the first evacuation platform comprising a first section configured to be moved towards the ride vehicle and disposed underneath the ride vehicle, wherein in use, the first section slides and is disposed under the feet of the one or more passengers so that the one or more passengers evacuate the ride vehicle by exiting onto the first section.
Method for mutually adhering a polymeric material comprising a polyamide polymer or a copolymer thereof, and a polyester material comprising a polyester polymer or a copolymer thereof, comprising steps of a. selecting for the polymeric material a polyamide material comprising a thermoplastic polyamide and having a softening temperature TA, b. selecting for the polyester material a polyester material having a softening temperature TB and comprising a thermoplastic polyester comprising urethane linkages; and/or a polyurethane elastomer comprising polyurethane hard blocks and polymeric soft blocks, and a thermoplastic polyester, c. heating the polyamide material to a temperature T1 and heating the polyester material to a temperature T2, wherein either i. T1 is above TA and T2 is above TB, or ii. T1 is above TA and T2 is below TB, and (T1+T2)/2 > TB, or iii. T1 is below TA and T2 is above TB, and (T1+T2)/2 > TA, d. processing the polyamide material at T1 if T1 is above TA and/or processing the polyester material at T2 if T2 is above TB, e. contacting the polyamide material and the polyester material thereby forming an interface area across which area the polyamide material and the polyester material are in direct contact with each other, and f. cooling the polyamide material and the polyester material, while maintaining the direct contact between and, to a temperature below TA and TB, and wherein TA and TB are measured by differential scanning calorimetry (2nd run, 10°C/min.). a. selecting for the polymeric material a polyamide material comprising a thermoplastic polyamide and having a softening temperature TA, b. selecting for the polyester material a polyester material having a softening temperature TB and comprising a thermoplastic polyester comprising urethane linkages; and/or a polyurethane elastomer comprising polyurethane hard blocks and polymeric soft blocks, and a thermoplastic polyester, c. heating the polyamide material to a temperature T1 and heating the polyester material to a temperature T2, wherein either i. T1 is above TA and T2 is above TB, or ii. T1 is above TA and T2 is below TB, and (T1+T2)/2 > TB, or iii. T1 is below TA and T2 is above TB, and (T1+T2)/2 > TA, i. T1 is above TA and T2 is above TB, or ii. T1 is above TA and T2 is below TB, and (T1+T2)/2 > TB, or iii. T1 is below TA and T2 is above TB, and (T1+T2)/2 > TA, d. processing the polyamide material at T1 if T1 is above TA and/or processing the polyester material at T2 if T2 is above TB, e. contacting the polyamide material and the polyester material thereby forming an interface area across which area the polyamide material and the polyester material are in direct contact with each other, and f. cooling the polyamide material and the polyester material, while maintaining the direct contact between and, to a temperature below TA and TB,
Isolated nucleic acid molecule comprising (a) a nucleotide sequence having the sequence of SEQ ID NO: 174 or a precursor of SEQ ID NO: 174 having the sequence AGCUCUGAGAACUGAAUUCCAUGGGUUAUAUCAAUGUCAGA CCUGUGAAAUUCAGUUCUUCAGCU, and/or (b) a nucleotide sequence which is the complement of (a), and/or (c) a nucleotide sequence comprising an miRNA or miRNA precursor which has an identity of at least 80% to the sequence of (a) or (b), wherein the identity is determined as I = n: L, wherein l is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NO: 174 or a precursor thereof having the sequence AGCUCUGAGAACUGAAUUCCAUGGGUUAUAUCAAUGUCAGA CCUGUGAAAUUCAGUUCUUCAGCU, or a complement of SEQ ID NO: 174 or said precursor, and L is the length of the comparative sequence, wherein said isolated nucleic acid comprising (a), (b) or (c) has a length of 18-80 nucleotides. (a) a nucleotide sequence having the sequence of SEQ ID NO: 174 or a precursor of SEQ ID NO: 174 having the sequence AGCUCUGAGAACUGAAUUCCAUGGGUUAUAUCAAUGUCAGA CCUGUGAAAUUCAGUUCUUCAGCU, and/or (b) a nucleotide sequence which is the complement of (a), and/or (c) a nucleotide sequence comprising an miRNA or miRNA precursor which has an identity of at least 80% to the sequence of (a) or (b), wherein the identity is determined as I = n: L, wherein l is the identity in percent, n is the number of identical nucleotides between a given sequence and a comparative sequence having the sequence of SEQ ID NO: 174 or a precursor thereof having the sequence AGCUCUGAGAACUGAAUUCCAUGGGUUAUAUCAAUGUCAGA CCUGUGAAAUUCAGUUCUUCAGCU, or a complement of SEQ ID NO: 174 or said precursor, and L is the length of the comparative sequence,
A roll of glass ribbon, comprising: a glass ribbon; an interlayer wound together with the glass ribbon, wherein the glass ribbon has a thickness of 0.3 mm or less, wherein the static coefficient of friction between the interlayer and the glass ribbon is greater than or equal to 3.0 (as measured with a vertical force of 0.5 N). a glass ribbon; an interlayer wound together with the glass ribbon, wherein the glass ribbon has a thickness of 0.3 mm or less, wherein the static coefficient of friction between the interlayer and the glass ribbon is greater than or equal to 3.0 (as measured with a vertical force of 0.5 N).