mhurhangee/ep-ind-claims huggingface dataset:
A blade comprising: - a structure made of composite material comprising a fibrous reinforcement obtained by three-dimensional weaving and a matrix in which the fibrous reinforcement is embedded, the structure made of composite material comprising an aerofoil portion with aerodynamic profile and a blade root portion; - a blade root attachment part comprising a wall delimiting a cavity, a first opening formed in the wall and a second opening located under the blade root portion, on an opposite side of the attachment part relative to the first opening, the structure made of composite material extending through the first opening such that the aerofoil portion is located outside the attachment part and the blade root portion is located inside the cavity, the attachment part further comprising a shoulder, extending into the cavity from the wall; - two locking parts, each locking part having an upper surface configured to axially abut against the shoulder and a lower surface inclined relative to the upper surface and configured to bear against the blade root portion; and - a cover, fixed on the attachment part at the second opening such that the blade root portion is compressed between the cover and the locking parts, the blade being characterized in that at least one recess is formed in the shoulder, each locking part being housed in the at least one recess. - a structure made of composite material comprising a fibrous reinforcement obtained by three-dimensional weaving and a matrix in which the fibrous reinforcement is embedded, the structure made of composite material comprising an aerofoil portion with aerodynamic profile and a blade root portion; - a blade root attachment part comprising a wall delimiting a cavity, a first opening formed in the wall and a second opening located under the blade root portion, on an opposite side of the attachment part relative to the first opening, the structure made of composite material extending through the first opening such that the aerofoil portion is located outside the attachment part and the blade root portion is located inside the cavity, the attachment part further comprising a shoulder, extending into the cavity from the wall; - two locking parts, each locking part having an upper surface configured to axially abut against the shoulder and a lower surface inclined relative to the upper surface and configured to bear against the blade root portion; and - a cover, fixed on the attachment part at the second opening such that the blade root portion is compressed between the cover and the locking parts,
An apparatus for an aircraft propulsion system, comprising: an exhaust nozzle including a flowpath, a passage, an outer door, an inner door and an actuator configured to move the outer door and the inner door (63, 64) between an open arrangement and a closed arrangement, wherein the outer door closes an inlet to the passage when the outer door is in the closed arrangement, and the inner door (63, 64) closes an outlet from the passage when the inner door (63, 64) is in the closed arrangement; the flowpath extending axially along a centerline through the exhaust nozzle; the passage extending laterally into the exhaust nozzle to the flowpath when the outer door and the inner door (63, 64) are in the open arrangement; and the outer door configured to pivot inwards towards the centerline when the outer door moves from the closed arrangement to the open arrangement, characterized in that: the inner door (63, 64) is configured to pivot outwards away from the centerline when the inner door (63, 64) moves from the closed arrangement to the open arrangement. an exhaust nozzle including a flowpath, a passage, an outer door, an inner door and an actuator configured to move the outer door and the inner door (63, 64) between an open arrangement and a closed arrangement, wherein the outer door closes an inlet to the passage when the outer door is in the closed arrangement, and the inner door (63, 64) closes an outlet from the passage when the inner door (63, 64) is in the closed arrangement; the flowpath extending axially along a centerline through the exhaust nozzle; the passage extending laterally into the exhaust nozzle to the flowpath when the outer door and the inner door (63, 64) are in the open arrangement; and the outer door configured to pivot inwards towards the centerline when the outer door moves from the closed arrangement to the open arrangement, characterized in that: the inner door (63, 64) is configured to pivot outwards away from the centerline when the inner door (63, 64) moves from the closed arrangement to the open arrangement.
An antenna controlling device for an aircraft having multiple antennas for communicating with a wingman aircraft, the multiple antennas being provided at different points on a fuselage, the aircraft-antenna controlling device comprising: a wingman-aircraft-position predicting means for predicting the current position of the wingman aircraft based on a temporal change in position information indicating the position of the wingman aircraft; a selecting means for selecting, from among the multiple antennas, an antenna with which the elongation with respect to the center axis of the antenna at the current position of the wingman aircraft predicted by the wingman-aircraft-position predicting means falls within a coverage angle of the antenna; and a communication controlling means for executing communication with the wingman aircraft via the antenna selected by the selecting means, wherein, in the case where multiple antennas have been selected by the selecting means, one of the selected multiple antennas is selected based on the difference between the coverage angle and the elongation of each of the antennas. a wingman-aircraft-position predicting means for predicting the current position of the wingman aircraft based on a temporal change in position information indicating the position of the wingman aircraft; a selecting means for selecting, from among the multiple antennas, an antenna with which the elongation with respect to the center axis of the antenna at the current position of the wingman aircraft predicted by the wingman-aircraft-position predicting means falls within a coverage angle of the antenna; and a communication controlling means for executing communication with the wingman aircraft via the antenna selected by the selecting means, wherein, in the case where multiple antennas have been selected by the selecting means, one of the selected multiple antennas is selected based on the difference between the coverage angle and the elongation of each of the antennas.
Process for preparing surface-modified carbonaceous particles wherein said carbonaceous particles are coated with a surface layer of amorphous carbon, comprising a. dispersing carbonaceous particles together with an amphiphilic organic compound, wherein the amphiphilic organic compound is a sulfated lignin, a lignosulfonate salt, or mixtures thereof, and wherein the carbonaceous particles and the amphiphilic organic compound are dispersed in the presence of a solvent, b. spray-drying the dispersion, and c. effecting carbonization of the spray-dried particles comprising the amphiphilic organic compound on the surface of said particles. a. dispersing carbonaceous particles together with an amphiphilic organic compound, wherein the amphiphilic organic compound is a sulfated lignin, a lignosulfonate salt, or mixtures thereof, and wherein the carbonaceous particles and the amphiphilic organic compound are dispersed in the presence of a solvent, b. spray-drying the dispersion, and c. effecting carbonization of the spray-dried particles comprising the amphiphilic organic compound on the surface of said particles.
A method of manufacturing particle structures, the method comprising the steps of: forming a film on a substrate; and stretching the substrate to fracture the film into particle structures. forming a film on a substrate; and stretching the substrate to fracture the film into particle structures.
A method of manufacturing an epitaxial substrate, comprising the steps of: a) epitaxially forming an upper layer of a first group III nitride crystal on a main surface of a base with a predetermined off angle on the main surface repeatedly forming steps at a predetermined temperature for formation, wherein the steps have an average interval of 0.1 μm and a height of 0.2 to 1 nm; characterized by b) heating said base together with said upper layer at a heating temperature which is higher than said temperature for formation after the formation of said upper layer so that a main surface of the upper layer has repeating steps which are larger than the steps on the main surface of the base, wherein said first group III nitride crystal has an Al content of not less than 80 mole percent of all of the group III elements, said heating temperature is not lower than 1500°C for several tens of hours, an average interval of the repeating steps is 5 μm after the heating, and a height of the repeating steps is not less than 2 nm after the heating. a) epitaxially forming an upper layer of a first group III nitride crystal on a main surface of a base with a predetermined off angle on the main surface repeatedly forming steps at a predetermined temperature for formation, wherein the steps have an average interval of 0.1 μm and a height of 0.2 to 1 nm; characterized by b) heating said base together with said upper layer at a heating temperature which is higher than said temperature for formation after the formation of said upper layer so that a main surface of the upper layer has repeating steps which are larger than the steps on the main surface of the base, wherein
A compound having one the following structures, its individual diastereoisomers, its hydrates, its solvates, its crystal forms, its individual tautomers or a pharmaceutically acceptable salt thereof:
A method of inspecting a connection joint including a first side coupled to an opposite second side along a bond, extending along an edge, said method comprising: generating at least one first sound wave at a first location on the first side, wherein the first location is at a first distance from the edge; receiving the at least one first sound wave at a plurality of sensors coupled to the second side; determining that the bond is present at the first location; generating at least one second sound wave at a second location on the first side, wherein the second location is offset a predetermined distance from the first location; receiving the at least one second sound wave at the plurality of sensors; and determining a width of the bond. generating at least one first sound wave at a first location on the first side, wherein the first location is at a first distance from the edge; receiving the at least one first sound wave at a plurality of sensors coupled to the second side; determining that the bond is present at the first location; generating at least one second sound wave at a second location on the first side, wherein the second location is offset a predetermined distance from the first location; receiving the at least one second sound wave at the plurality of sensors; and determining a width of the bond.
An information processing device (100, 200) comprising: a voice processing unit (101, 233) that detects, from a voice signal, statements of a plurality of participants of a conversation; an image processing unit (102, 234) that detects, from an image signal, states of the plurality of participants of the conversation; a determination unit (103, 235) that determines a state of the conversation on a basis of the statements of the plurality of participants and the states of the plurality of participants; and an image generation unit that generates a planar map image of a space used for the conversation, wherein the planar map image contains a participant display indicating each of the participants participating in the conversation, and the planar map image contains a conversation line connecting two corresponding participant displays on a basis of the conversation that has been detected. a voice processing unit (101, 233) that detects, from a voice signal, statements of a plurality of participants of a conversation; an image processing unit (102, 234) that detects, from an image signal, states of the plurality of participants of the conversation; a determination unit (103, 235) that determines a state of the conversation on a basis of the statements of the plurality of participants and the states of the plurality of participants; and an image generation unit that generates a planar map image of a space used for the conversation, wherein the planar map image contains a participant display indicating each of the participants participating in the conversation, and the planar map image contains a conversation line connecting two corresponding participant displays on a basis of the conversation that has been detected.
A system for controlling operation of a radiofrequency treatment device (26a/26b) to apply radiofrequency energy to tissue to heat tissue to create lesions at a treatment range defined between under heating tissue to fail to achieve a therapeutic effect and overheating tissue to cause ablation of tissue, the system comprising a controller including a connector to which a first treatment device having a plurality of electrodes for applying radiofrequency energy to tissue is coupled for use, and a generator for applying radiofrequency energy to the electrodes, the controller controlling the generator for application of energy so that the tissue is thermally treated to create lesions but preventing thermal treatment beyond a threshold which would ablate the tissue, wherein measurement of at least one parameter selected from tissue temperature, electrode temperature and electrode impedance that would heat tissue outside of the treatment range activates a cut off function to cut off energy flow from the generator to disable an electrode, characterized in that the system further comprises a multiple error checking system in which if a measurement outside the treatment range is detected, the measurement is rechecked to determine if it remains outside the range before cutting off the energy flow thereby preventing premature disabling of an electrode.
A targeted therapeutic comprising: a lysosomal enzyme; and a lysosomal targeting moiety selected from a SORT1 peptide, a SORT1 propeptide, a progranulin peptide, and a prosaposin peptide, or a fragment thereof, wherein said peptide or fragment binds to SORT1. a lysosomal enzyme; and a lysosomal targeting moiety selected from a SORT1 peptide, a SORT1 propeptide, a progranulin peptide, and a prosaposin peptide, or a fragment thereof, wherein said peptide or fragment binds to SORT1.
A motorcycle tire for uneven terrain comprising: a tread; a pair of beads; a carcass (28; 68) extending on and between one of the beads and the other of the beads, and along the tread and inward of the tread in a radial direction; and a band (30; 70; 130) laminated on the carcass (28; 68) and located inward of the tread in the radial direction, wherein the tread includes a large number of blocks which stand substantially outward in the radial direction, the carcass (28; 68) includes a carcass ply which is turned up around each bead, the carcass ply includes a main portion which extends from an equator plane toward each bead; and a pair of turned-up portions (54; 84; 154) which extend from the main portion substantially outward in the radial direction, the band (30; 70; 130) includes a band cord which is helically wound along a circumferential direction, and an end portion of the band (30; 70; 130) and an end portion of the turned-up portion (54; 84; 154) overlap each other at an inner side, in the radial direction, of the tread, characterized in that a position of an end of the turned-up portion (54; 84; 154) varies in the circumferential direction. a tread; a pair of beads; a carcass (28; 68) extending on and between one of the beads and the other of the beads, and along the tread and inward of the tread in a radial direction; and a band (30; 70; 130) laminated on the carcass (28; 68) and located inward of the tread in the radial direction, wherein the tread includes a large number of blocks which stand substantially outward in the radial direction, the carcass (28; 68) includes a carcass ply which is turned up around each bead, the carcass ply includes a main portion which extends from an equator plane toward each bead; and a pair of turned-up portions (54; 84; 154) which extend from the main portion substantially outward in the radial direction, the band (30; 70; 130) includes a band cord which is helically wound along a circumferential direction, and an end portion of the band (30; 70; 130) and an end portion of the turned-up portion (54; 84; 154) overlap each other at an inner side, in the radial direction, of the tread, characterized in that a position of an end of the turned-up portion (54; 84; 154) varies in the circumferential direction.
A light emitting diode package comprising: a submount including a chip region and a supporting region; a light emitting diode chip over the chip region of the submount; and an encapsulating material and a fluorescent material over the light emitting diode chip, wherein the top surface of the chip region is higher than the top surface of the supporting region, wherein the encapsulating material is at least partially transparent, wherein an area of the encapsulating material and the fluorescent material covering the submount is coextensive with the chip region, wherein a first area between the edge of the chip region and the edge of the supporting region is greater than a second area between the edge of the chip region and the light emitting diode chip, characterized in that a groove is formed inside the top surface of the chip region at a location not covered by the light emitting diode chip, said groove being located in the second area, wherein the encapsulating material extends into the groove, and the length of the surface between the edge of the chip region and the light emitting diode chip is two to ten times the thickness (t) of the light emitting diode chip, said length being included in the second area which is not covered by the light emitting diode chip. a submount including a chip region and a supporting region; a light emitting diode chip over the chip region of the submount; and an encapsulating material and a fluorescent material over the light emitting diode chip, wherein the top surface of the chip region is higher than the top surface of the supporting region, wherein the encapsulating material is at least partially transparent, wherein an area of the encapsulating material and the fluorescent material covering the submount is coextensive with the chip region, wherein a first area between the edge of the chip region and the edge of the supporting region is greater than a second area between the edge of the chip region and the light emitting diode chip, characterized in that a groove is formed inside the top surface of the chip region at a location not covered by the light emitting diode chip, said groove being located in the second area, wherein the encapsulating material extends into the groove, and the length of the surface between the edge of the chip region and the light emitting diode chip is two to ten times the thickness (t) of the light emitting diode chip, said length being included in the second area which is not covered by the light emitting diode chip.
An ultrasound imaging device adapted for insertion within a body, comprising: an elongate housing having a proximal section, a distal section, and a distal tip; a first ultrasonic sensor within the housing and configured for acquiring far-field images within the body, the first ultrasonic sensor disposed within the distal section of the housing and configured to transmit substantially side-directed first ultrasonic waves at a first frequency; a second ultrasonic sensor within the housing and configured for acquiring near-field images within the body, the second ultrasonic sensor disposed within the distal tip and configured to transmit substantially forward-directed second ultrasonic waves at a second frequency greater than the first frequency; a rotating driveshaft within an interior space of the housing, the driveshaft coupled to the first and second ultrasonic sensors and configured to rotate the first and second ultrasonic sensors within the interior space of the housing; and a drive and control system, wherein the driveshaft serves as mechanical link from the drive and control system to the first and second ultrasonic sensors, characterized in that a motor/drive shaft connector and a hub are provided between the drive and control system and the proximal section of the elongate housing, wherein the hub includes a fluid port for providing acoustic coupling/cooling fluid to one or both of the first and second ultrasonic sensors (38, 40) and is supported by the connector in a stationary position as the drive and control system rotates the ultrasonic sensors (38, 40). an elongate housing having a proximal section, a distal section, and a distal tip; a first ultrasonic sensor within the housing and configured for acquiring far-field images within the body, the first ultrasonic sensor disposed within the distal section of the housing and configured to transmit substantially side-directed first ultrasonic waves at a first frequency; a second ultrasonic sensor within the housing and configured for acquiring near-field images within the body, the second ultrasonic sensor disposed within the distal tip and configured to transmit substantially forward-directed second ultrasonic waves at a second frequency greater than the first frequency; a rotating driveshaft within an interior space of the housing, the driveshaft coupled to the first and second ultrasonic sensors and configured to rotate the first and second ultrasonic sensors within the interior space of the housing; and a drive and control system, wherein the driveshaft serves as mechanical link from the drive and control system to the first and second ultrasonic sensors,