mhurhangee/patent-ind-claim-en huggingface dataset:
A chip for an adhesive composition, comprising a chloroprene-based polymer rubber, wherein: a temperature near a center of the chip 60 seconds after the chip heated to 140°C is kept in a room at 23°C is less than 130°C; time required for A X to exceed A 0 + 20 is less than 500 minutes; A 0 is a Type A durometer hardness measured in accordance with JIS K 6253-3 of a 6 mm thickness sheet, prepared by press molding the chip at 70°C, taken out from a mold and allowed to stand for 1 hour in a 23°C environment; A X is a Type A durometer hardness after X minutes of placing the 6 mm thick sheet in a thermostatic chamber at -10°C. a temperature near a center of the chip 60 seconds after the chip heated to 140°C is kept in a room at 23°C is less than 130°C; time required for A X to exceed A 0 + 20 is less than 500 minutes; A 0 is a Type A durometer hardness measured in accordance with JIS K 6253-3 of a 6 mm thickness sheet, prepared by press molding the chip at 70°C, taken out from a mold and allowed to stand for 1 hour in a 23°C environment; A X is a Type A durometer hardness after X minutes of placing the 6 mm thick sheet in a thermostatic chamber at -10°C.
A process cartridge detachably mountable to a main assembly of an electrophotographic image forming apparatus, comprising: an electrophotographic photosensitive drum ; a developing roller for developing an electrostatic latent image formed on said electrophotographic photosensitive drum ; a drum frame supporting said electrophotographic photosensitive drum ; a developing frame supporting said developing roller , said developing roller being movable relative to said drum frame between a contacting position in which said developing roller is in contact with said electrophotographic photosensitive drum and a spacing position in which said developing roller is spaced from said electrophotographic photosensitive drum ; a force receiving member provided on said developing frame and movable relative to said developing frame between a protrusive position in which said force receiving member receives and transmits a force to keep said developing frame being in the spacing position, and a stand-by position in which said force receiving member is prevented from moving toward the protrusive position by engaging with a releasing member ; a coupling member receiving a driving force from the apparatus main assembly to rotate said developing roller ; and a gear rotated by the driving force which said coupling member has received from the apparatus main assembly , wherein said force receiving member moves from the stand-by position to the protrusive position by a rotation of said gear . an electrophotographic photosensitive drum ; a developing roller for developing an electrostatic latent image formed on said electrophotographic photosensitive drum ; a drum frame supporting said electrophotographic photosensitive drum ; a developing frame supporting said developing roller , said developing roller being movable relative to said drum frame between a contacting position in which said developing roller is in contact with said electrophotographic photosensitive drum and a spacing position in which said developing roller is spaced from said electrophotographic photosensitive drum ; a force receiving member provided on said developing frame and movable relative to said developing frame between a protrusive position in which said force receiving member receives and transmits a force to keep said developing frame being in the spacing position, and a stand-by position in which said force receiving member is prevented from moving toward the protrusive position by engaging with a releasing member ; a coupling member receiving a driving force from the apparatus main assembly to rotate said developing roller ; and a gear rotated by the driving force which said coupling member has received from the apparatus main assembly , wherein said force receiving member moves from the stand-by position to the protrusive position by a rotation of said gear .
A composition or kit comprising at least first and second amplification oligomers, wherein: the first amplification oligomer comprises a target hybridizing sequence selected from the group consisting of SEQ ID NOs: 71-74 and wherein the second amplification oligomer comprises a target hybridizing sequence selected from the group consisting of SEQ ID NOs: 61-62. the first amplification oligomer comprises a target hybridizing sequence selected from the group consisting of SEQ ID NOs: 71-74 and wherein the second amplification oligomer comprises a target hybridizing sequence selected from the group consisting of SEQ ID NOs: 61-62.
A soft robotic device comprising: an elastomeric body having one chamber or a plurality of interconnected chambers disposed within the body and a pressurizing inlet that is configured to receive fluid for the chamber or the plurality of interconnected chambers; and a plurality of sensors configured to generate a readout correlating with the state of the soft robotic device; a processor operably linked to the plurality of sensors to receive the readout from the plurality of sensors and interpret the readout; wherein the soft robotic device further comprises a strain limited layer disposed along one side of the elastomeric body ; wherein the plurality of sensors comprise a network of magnetic sensors embedded in the strain limited layer ; and wherein the processor comprises a magnetic motion capture system and the network of magnetic sensors acts as active markers for the magnetic motion capture system for use as a data input for the processor to conduct a finite element analysis or to fit a reduced system model of the soft robotic device . an elastomeric body having one chamber or a plurality of interconnected chambers disposed within the body and a pressurizing inlet that is configured to receive fluid for the chamber or the plurality of interconnected chambers; and a plurality of sensors configured to generate a readout correlating with the state of the soft robotic device; a processor operably linked to the plurality of sensors to receive the readout from the plurality of sensors and interpret the readout; wherein the soft robotic device further comprises a strain limited layer disposed along one side of the elastomeric body ; wherein the plurality of sensors comprise a network of magnetic sensors embedded in the strain limited layer ; and wherein the processor comprises a magnetic motion capture system and the network of magnetic sensors acts as active markers for the magnetic motion capture system for use as a data input for the processor to conduct a finite element analysis or to fit a reduced system model of the soft robotic device .
A ready to use surface veil and surface film integrated prepreg layer which is suitable to use in the production of lightweight structural parts/panels with class A surfaces comprising; - curable bottom base resin formulation comprising curable bottom base resin, at least one first toughening agent, at least one accelerator, at least one curing agent and at least one hardener; - a release paper that is coated with curable bottom base resin formulation to obtained curable bottom base resin formulation coated release paper as a first resin film; - a reinforcement fabric; - an outer resin formulation comprising outer resin which is curable bottom base resin being 10% more viscous than the resin, at least one thermoplastic toughening agent, at least one accelerator, at least one curing agent and at least one hardener agent, - wherein the outer resin and/or curable bottom base resin are thermosetting resins, - wherein thermosetting resins are epoxy resins, - characterized in that - wherein the epoxy resins have an Epoxy Equivalent Weight (EEW) in the range of from 150 to 400. - curable bottom base resin formulation comprising curable bottom base resin, at least one first toughening agent, at least one accelerator, at least one curing agent and at least one hardener; - a release paper that is coated with curable bottom base resin formulation to obtained curable bottom base resin formulation coated release paper as a first resin film; - a reinforcement fabric; - an outer resin formulation comprising outer resin which is curable bottom base resin being 10% more viscous than the resin, at least one thermoplastic toughening agent, at least one accelerator, at least one curing agent and at least one hardener agent, - wherein the outer resin and/or curable bottom base resin are thermosetting resins, - wherein thermosetting resins are epoxy resins, - characterized in that - wherein the epoxy resins have an Epoxy Equivalent Weight (EEW) in the range of from 150 to 400.
A projection display device comprising: a plurality of semiconductor lasers ; a collimating lens configured to collimate a plurality of laser beams output from the plurality of semiconductor lasers ; an integrator illumination system (INT) configured to overlap the plurality of laser beams collimated by the collimating lens to form a rectangular illumination region (IM1); a deflection element arranged on a collimating lens side with respect to a position where the rectangular illumination region (IM1) is formed by the integrator illumination system (INT; a transfer optical system configured to enlarge and transfer the rectangular illumination region (IM1) deflection-scanned by the deflection element to a reflective optical modulation element ; and a projection lens configured to project video light output from the reflective optical modulation element . a plurality of semiconductor lasers ; a collimating lens configured to collimate a plurality of laser beams output from the plurality of semiconductor lasers ; an integrator illumination system (INT) configured to overlap the plurality of laser beams collimated by the collimating lens to form a rectangular illumination region (IM1); a deflection element arranged on a collimating lens side with respect to a position where the rectangular illumination region (IM1) is formed by the integrator illumination system (INT; a transfer optical system configured to enlarge and transfer the rectangular illumination region (IM1) deflection-scanned by the deflection element to a reflective optical modulation element ; and a projection lens configured to project video light output from the reflective optical modulation element .
An apparatus for classifying aerosol particles suspended in a gas and producing a monodisperse aerosol, the apparatus comprising: two cylinders about a central rotational axis defining surfaces of a carrier flow channel or plurality of channels, including an outer surface; a source of a substantially laminar carrier fluid flow into the carrier flow channel or channels, the carrier fluid not being pre-mixed with particles to be classified; a source of aerosol particles connected to supply the particles into suspension in the carrier fluid in the carrier flow channel or channels; a drive connected to rotate the cylinders about the central rotational axis to supply an acceleration to the cylinders at an angle to the flow of fluid through the carrier flow channel or channels, the acceleration imparting radial motion on the suspended aerosol particles, the drive controlling a rotational speed of the cylinders independently of a flow rate of the carrier fluid flow; and a classification system for classifying the suspended aerosol particles according to their trajectories when the suspended particles move with a component of their velocity parallel to the axis of the rotation, in which the classification system comprises a sampling exit located in the outer surface and an exhaust to classify the suspended aerosol particles according to whether the trajectories of the suspended aerosol particles bring the suspended aerosol particles through the sampling exit to exit the apparatus as a monodisperse aerosol or flow past the sampling exit to be carried out of the classification system with the exhaust. two cylinders about a central rotational axis defining surfaces of a carrier flow channel or plurality of channels, including an outer surface; a source of a substantially laminar carrier fluid flow into the carrier flow channel or channels, the carrier fluid not being pre-mixed with particles to be classified; a source of aerosol particles connected to supply the particles into suspension in the carrier fluid in the carrier flow channel or channels; a drive connected to rotate the cylinders about the central rotational axis to supply an acceleration to the cylinders at an angle to the flow of fluid through the carrier flow channel or channels, the acceleration imparting radial motion on the suspended aerosol particles, the drive controlling a rotational speed of the cylinders independently of a flow rate of the carrier fluid flow; and a classification system for classifying the suspended aerosol particles according to their trajectories when the suspended particles move with a component of their velocity parallel to the axis of the rotation, in which the classification system comprises a sampling exit located in the outer surface and an exhaust to classify the suspended aerosol particles according to whether the trajectories of the suspended aerosol particles bring the suspended aerosol particles through the sampling exit to exit the apparatus as a monodisperse aerosol or flow past the sampling exit to be carried out of the classification system with the exhaust.
A method of automatically preparing a Musical Instrument Digital Interface, MIDI, file based on a target MIDI file (T) and a source MIDI file (S), the method comprising: segmenting (M1) the source MIDI file into source segments (s); segmenting (M2) the target MIDI file into target segments (t) having the same length or lengths as the source segments (s); reordering (M3) at least some of the source segments; aligning (M4) each target segment of the target MIDI file with a corresponding source segment of the reordered (M3) source segments; concatenating (M5) the reordered (M3) source segments to obtain a new MIDI file (O) having the same length as the target MIDI file; and outputting (M6) the new MIDI file; characterised in that the aligning (M4) of each segment (t) of the target MIDI file (T) with a corresponding source segment (s) of the new MIDI file (O) results in a combined MIDI file (C) comprising the target MIDI file (T) aligned with the new MIDI file (O); and wherein the outputting (M6) of the new MIDI file comprises outputting the combined MIDI file comprising the new MIDI file. segmenting (M1) the source MIDI file into source segments (s); segmenting (M2) the target MIDI file into target segments (t) having the same length or lengths as the source segments (s); reordering (M3) at least some of the source segments; aligning (M4) each target segment of the target MIDI file with a corresponding source segment of the reordered (M3) source segments; concatenating (M5) the reordered (M3) source segments to obtain a new MIDI file (O) having the same length as the target MIDI file; and outputting (M6) the new MIDI file; characterised in that the aligning (M4) of each segment (t) of the target MIDI file (T) with a corresponding source segment (s) of the new MIDI file (O) results in a combined MIDI file (C) comprising the target MIDI file (T) aligned with the new MIDI file (O); and wherein the outputting (M6) of the new MIDI file comprises outputting the combined MIDI file comprising the new MIDI file.
A method of manufacturing an extended release pharmaceutical composition comprising a protein particle coated with a biodegradable polymer, the method comprising the steps of: (a) subjecting a solution of the therapeutic protein to dispersion and drying by spray-drying to form micronized protein particles, wherein the inlet temperature of the spray dryer is set at a temperature above the boiling point of water, and the outlet temperature is set at a temperature below the boiling point of water; (b) suspending the micronized protein particles in an organic solution comprising a biodegradable polymer and an organic solvent; and (c) spray-drying the suspension of (b) to form a population of protein polymer microparticles, wherein the microparticles in the extended release pharmaceutical composition release protein for at least 60 days in a physiological aqueous environment at 37°C. (a) subjecting a solution of the therapeutic protein to dispersion and drying by spray-drying to form micronized protein particles, wherein the inlet temperature of the spray dryer is set at a temperature above the boiling point of water, and the outlet temperature is set at a temperature below the boiling point of water; (b) suspending the micronized protein particles in an organic solution comprising a biodegradable polymer and an organic solvent; and (c) spray-drying the suspension of (b) to form a population of protein polymer microparticles,
A method of viewing an activity, comprising: positioning a moveable device within a control volume , the moveable device being equipped with a viewing device configured to view the activity; measuring one or more motion characteristics of the moveable device using a motion capture system operatively disposed with respect to the control volume as the moveable device operates within the control volume ; receiving the one or more measured motion characteristics from the motion capture system using at least one communication network; determining a command signal based on the one or more motion characteristics, wherein determining a command signal includes receiving the one or more measured motion characteristics from the communication network into an on-board processing component positioned on the moveable device and computing the command signal using the on-board processing component ; and transmitting the command signal to the moveable device to control at least one motion characteristic of the moveable device in a closed-loop feedback manner; wherein measuring one or more motion characteristics includes measuring one or more motion characteristics using a plurality of retro-reflective markers positioned on the moveable device . positioning a moveable device within a control volume , the moveable device being equipped with a viewing device configured to view the activity; measuring one or more motion characteristics of the moveable device using a motion capture system operatively disposed with respect to the control volume as the moveable device operates within the control volume ; receiving the one or more measured motion characteristics from the motion capture system using at least one communication network; determining a command signal based on the one or more motion characteristics, wherein determining a command signal includes receiving the one or more measured motion characteristics from the communication network into an on-board processing component positioned on the moveable device and computing the command signal using the on-board processing component ; and transmitting the command signal to the moveable device to control at least one motion characteristic of the moveable device in a closed-loop feedback manner; wherein measuring one or more motion characteristics includes measuring one or more motion characteristics using a plurality of retro-reflective markers positioned on the moveable device .
A massage system comprising: a sleep assessment system , the sleep assessment system comprising a blood flow measurement unit configured to acquire first biological information related to blood flow of a user and a controller configured to determine a sleep stage of the user based on the first biological information; and a massage unit configured to massage the user; wherein the controller is configured to determine a timing of a massage by the massage unit based on the first biological information, wherein the controller is configured to determine the timing of the massage synchronized with a pulse wave of the user based on a positional relationship between a first site of the user where the first biological information is acquired and a second site of the user where the massage is to be performed, so as to increase the circulating blood volume that returns to the user's heart. a sleep assessment system , the sleep assessment system comprising a blood flow measurement unit configured to acquire first biological information related to blood flow of a user and a controller configured to determine a sleep stage of the user based on the first biological information; and a massage unit configured to massage the user; wherein the controller is configured to determine a timing of a massage by the massage unit based on the first biological information, wherein the controller is configured to determine the timing of the massage synchronized with a pulse wave of the user based on a positional relationship between a first site of the user where the first biological information is acquired and a second site of the user where the massage is to be performed, so as to increase the circulating blood volume that returns to the user's heart.
A core for casting a part for a gas turbine engine, comprising: a core body ; and a first cooling hole forming portion and a second cooling hole portion that extends from said core body , wherein said core body includes a varying thickness across a length of said core body , said core body includes an undulating shaped section comprising a plurality of peak portions and a plurality of trough portions , said first cooling hole forming portion includes at least a metering section and a diffusing section , said metering section is disposed between said core body and said diffusing section , said first cooling hole forming portion includes a first cross-sectional area (AR1) and said second cooling hole forming portion includes a second cross sectional area (AR2) that is less than said first cross-sectional area (AR1), and said first cooling hole forming portion extends a first distance (D1) from said core body and said second cooling hole forming portion extends a second distance (D2) from said core body that is less than said first distance (D1). a core body ; and a first cooling hole forming portion and a second cooling hole portion that extends from said core body , wherein said core body includes a varying thickness across a length of said core body , said core body includes an undulating shaped section comprising a plurality of peak portions and a plurality of trough portions , said first cooling hole forming portion includes at least a metering section and a diffusing section , said metering section is disposed between said core body and said diffusing section , said first cooling hole forming portion includes a first cross-sectional area (AR1) and said second cooling hole forming portion includes a second cross sectional area (AR2) that is less than said first cross-sectional area (AR1), and said first cooling hole forming portion extends a first distance (D1) from said core body and said second cooling hole forming portion extends a second distance (D2) from said core body that is less than said first distance (D1).