mhurhangee/ep-ind-claims huggingface dataset:
Portable fat burning analyser for monitoring of the fat burning intensity of a user from the user's breath, the analyser comprising a sampling part, an analysis unit and a processing unit; wherein the sampling part is equipped for collecting a breath sample from the user, wherein the sampling part is equipped for collecting information on the conditions of the breath sample collection, wherein the sampling part is equipped to provide a sampling signal correlated to the collection condition; wherein the sampling signal is capable of indicating the beginning of the end-tidal portion of the breath sample; wherein the analysis unit is equipped to provide a detection signal corresponding to an acetone presence in the collected breath sample of the end-tidal portion of the breath sample; wherein the processing unit is equipped to receive the sampling signal and/or detection signal and to evaluate the sampling signal and/or the detection signal and to provide an output signal correlated to the fat burning intensity of the user; characterized in that the sampling part and the analysis unit are spatially separated; and wherein the analysis unit is configured to receive the end-tidal breath portion due to triggered guidance upon indication of the beginning of the end-tidal portion of the breath sample by the sampling signal. a sampling part, an analysis unit and a processing unit; wherein the sampling part is equipped for collecting a breath sample from the user, wherein the sampling part is equipped for collecting information on the conditions of the breath sample collection, wherein the sampling part is equipped to provide a sampling signal correlated to the collection condition; wherein the sampling signal is capable of indicating the beginning of the end-tidal portion of the breath sample; wherein the sampling part is equipped for collecting a breath sample from the user, wherein the sampling part is equipped for collecting information on the conditions of the breath sample collection, wherein the sampling part is equipped to provide a sampling signal correlated to the collection condition; wherein the sampling signal is capable of indicating the beginning of the end-tidal portion of the breath sample; wherein the analysis unit is equipped to provide a detection signal corresponding to an acetone presence in the collected breath sample of the end-tidal portion of the breath sample; wherein the processing unit is equipped to receive the sampling signal and/or detection signal and to evaluate the sampling signal and/or the detection signal and to provide an output signal correlated to the fat burning intensity of the user; to receive the sampling signal and/or detection signal and to evaluate the sampling signal and/or the detection signal and to provide an output signal correlated to the fat burning intensity of the user; characterized in that the sampling part and the analysis unit are spatially separated; and wherein the analysis unit is configured to receive the end-tidal breath portion due to triggered guidance upon indication of the beginning of the end-tidal portion of the breath sample by the sampling signal.
A voltage controlled oscillator (200; 300; 400), comprising an oscillator (200; 300; 400) having an active device (210; 310; 410) having first (214; 313; 413), second (216; 315; 415) and third terminals (218; 317; 417), characterized by a circuitry (224; 323) coupled between the first (214; 313; 413) and second (216; 315; 415) terminals of said active device (210; 310; 410) and operative to provide a bias voltage to said active device (210; 310; 410) and to feedback a select amount of phase noise into said active device (210; 310; 410); a tuning diode network (234; 329; 442) coupled to the second terminal (216; 315; 415) of said active device (210; 310; 410), wherein the tuning diode network (234; 329; 442) and the second terminal (216; 315; 415) of said active device (210; 310; 410) are coupled with the terminals (456; 454) on the top side of a slot-cut-microstrip-line printed board (230; 332; 440) having a base of width w and a slot of width d that divides the base into regions having length dimensions l 1 and l 2; and a network comprising a feedback capacitor (244; 342) coupled to the third terminal (218; 317; 417) through a resistor and to ground through a capacitor, which feeds back a select amount of phase noise from the third terminal (218; 317; 417) to the second terminal (216; 315; 415); wherein the slot-cut-microstrip-line printed board (230; 332; 440) is configured as an evanescent mode buffer between a resonator (240; 338; 448) coupled thereto and said active device (210; 310; 410); and wherein the tuning diode network (234; 329; 442) and the resonator (240; 338; 448) are coupled in parallel with the slot-cut-microstrip-line printed board (230; 332; 440). a circuitry (224; 323) coupled between the first (214; 313; 413) and second (216; 315; 415) terminals of said active device (210; 310; 410) and operative to provide a bias voltage to said active device (210; 310; 410) and to feedback a select amount of phase noise into said active device (210; 310; 410); a tuning diode network (234; 329; 442) coupled to the second terminal (216; 315; 415) of said active device (210; 310; 410), wherein the tuning diode network (234; 329; 442) and the second terminal (216; 315; 415) of said active device (210; 310; 410) are coupled with the terminals (456; 454) on the top side of a slot-cut-microstrip-line printed board (230; 332; 440) having a base of width w and a slot of width d that divides the base into regions having length dimensions l 1 and l 2; and a network comprising a feedback capacitor (244; 342) coupled to the third terminal (218; 317; 417) through a resistor and to ground through a capacitor, which feeds back a select amount of phase noise from the third terminal (218; 317; 417) to the second terminal (216; 315; 415); wherein the slot-cut-microstrip-line printed board (230; 332; 440) is configured as an evanescent mode buffer between a resonator (240; 338; 448) coupled thereto and said active device (210; 310; 410); and wherein the tuning diode network (234; 329; 442) and the resonator (240; 338; 448) are coupled in parallel with the slot-cut-microstrip-line printed board (230; 332; 440).
A particulate slurry fuel atomiser injector comprising: a central tube terminating in a first outlet for emitting a jet of particulate slurry fuel along a central axis; and structure adjacent to the central tube so as to define with the central tube a duct means communicating with one or more second outlets for blast gas about said first outlet, characterised in that said duct means is configured to accelerate the blast gas to a blast stream of supersonic velocity that emerges from the second outlet(s); and in that adjacent the second outlet(s) an undercut internal face or faces of said structure opposed to a surface of the central tube are axially convergent arranged to direct the emergent supersonic blast stream into the jet of particulate slurry fuel downstream of the first outlet, thereby atomising the fuel downstream of the first outlet, wherein said structure surrounds the central tube whereby said one or more second outlets comprise an annular outlet about the first outlet, and said undercut internal face or faces of said structure adjacent the second outlet comprise a continuous marginal face portion adjacent the second outlet, and wherein said opposed surface of the central tube comprises a conical or pyramidal end surface of the central tube opposed to said continuous marginal face portion for further facilitating said directing of the emergent supersonic blast stream into the jet of particulate slurry fuel downstream of the first outlet. a central tube terminating in a first outlet for emitting a jet of particulate slurry fuel along a central axis; and structure adjacent to the central tube so as to define with the central tube a duct means communicating with one or more second outlets for blast gas about said first outlet, characterised in that said duct means is configured to accelerate the blast gas to a blast stream of supersonic velocity that emerges from the second outlet(s); and in that adjacent the second outlet(s) an undercut internal face or faces of said structure opposed to a surface of the central tube are axially convergent arranged to direct the emergent supersonic blast stream into the jet of particulate slurry fuel downstream of the first outlet, thereby atomising the fuel downstream of the first outlet, wherein said structure surrounds the central tube whereby said one or more second outlets comprise an annular outlet about the first outlet, and said undercut internal face or faces of said structure adjacent the second outlet comprise a continuous marginal face portion adjacent the second outlet, and wherein said opposed surface of the central tube comprises a conical or pyramidal end surface of the central tube opposed to said continuous marginal face portion for further facilitating said directing of the emergent supersonic blast stream into the jet of particulate slurry fuel downstream of the first outlet.
A humidifying device humidifying liner paper transported in one direction and affixed to medium paper via a glue applied to an apex of a wave shape of the medium paper formed into the wave shape, the device being suitable for being provided downstream of a preheater of a corrugating machine and comprising: a liquid application roller heating the liner paper prior to the affixing and applying a heated liquid to the liner paper; and a chamber disposed to face a peripheral face of the liquid application roller and provided with an internal space to which the liquid is supplied, wherein the chamber has an opening communicating with the internal space at a vertically upper part thereof, the opening being for supplying the liquid to the peripheral face of the liquid application roller, wherein a portion in a vertically downward direction of the liquid application roller enters the chamber from the opening to contact the liquid in the chamber, characterized in that a length of the opening in a direction orthogonal to an axial direction of the liquid application roller is less than a diameter of the liquid application roller. a liquid application roller heating the liner paper prior to the affixing and applying a heated liquid to the liner paper; and a chamber disposed to face a peripheral face of the liquid application roller and provided with an internal space to which the liquid is supplied, wherein the chamber has an opening communicating with the internal space at a vertically upper part thereof, the opening being for supplying the liquid to the peripheral face of the liquid application roller, wherein a portion in a vertically downward direction of the liquid application roller enters the chamber from the opening to contact the liquid in the chamber, characterized in that a length of the opening in a direction orthogonal to an axial direction of the liquid application roller is less than a diameter of the liquid application roller.
A flame-retardant resin composition comprising a thermoplastic resin, a copolymerized polyester resin wherein a phosphorus-containing component represented by the following general formula is copolymerized, and a phosphorus-containing compound represented by the following general formula: General Formula: (in the general formula, each of R 1 and R 2 independently represents an alkyl group having 1 to 4 carbon atoms, an aryl group, a cycloalkyl group, an aralkyl group, an alkoxyl group, an aryloxy group, a cycloalkyloxy group, an aralkyloxy group, a carboxyl group, a carboxylic acid ester group, a carboxylic acid base or a halogen atom; each of m and n independently represents an integer of 0 to 4; and B is an ester-forming functional group) General Formula: (in the general formula, each of R 1 to R 5 independently represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group, an aralkyl group, an aryl group or a hydroxyl group; and each of X 1 to X 3 independently represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group, an aryl group or an aralkyl group) General Formula: (in the general formula, each of R 1 and R 2 independently represents an alkyl group having 1 to 4 carbon atoms, an aryl group, a cycloalkyl group, an aralkyl group, an alkoxyl group, an aryloxy group, a cycloalkyloxy group, an aralkyloxy group, a carboxyl group, a carboxylic acid ester group, a carboxylic acid base or a halogen atom; each of m and n independently represents an integer of 0 to 4; and B is an ester-forming functional group) General Formula: (in the general formula, each of R 1 to R 5 independently represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group, an aralkyl group, an aryl group or a hydroxyl group; and each of X 1 to X 3 independently represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a cycloalkyl group, an aryl group or an aralkyl group)
An exoskeleton structure that provides force assistance to a user, comprising: - a first module (1, 5) capable of being attached to a first portion of the body of a user, - a second module (5, 6) capable of being attached to a second portion of the body of the user, the second module (5, 6) being connected to the first module (1, 5) by means of a joint (52, 62) allowing a rotation of the second module (5, 6) with respect to the first module (1, 5), - an actuator comprising a stator and a rotor capable of being driven in rotation with respect to the stator to move the second module (5, 6) in rotation with respect to the first module (1, 5), and - an elastic return element arranged to: in a first angular range of movement (α 1) of the rotor with respect to the stator, not exert any return force on the rotor, and in a second angular range of movement (α 2) of the rotor with respect to the stator, exert a return force tending to oppose rotation of the rotor with respect to the stator in a first direction of rotation, and to assist rotation of the rotor with respect to the stator in a second direction of rotation, opposite to the first direction of rotation. - a first module (1, 5) capable of being attached to a first portion of the body of a user, - a second module (5, 6) capable of being attached to a second portion of the body of the user, the second module (5, 6) being connected to the first module (1, 5) by means of a joint (52, 62) allowing a rotation of the second module (5, 6) with respect to the first module (1, 5), - an actuator comprising a stator and a rotor capable of being driven in rotation with respect to the stator to move the second module (5, 6) in rotation with respect to the first module (1, 5), and - an elastic return element arranged to: in a first angular range of movement (α 1) of the rotor with respect to the stator, not exert any return force on the rotor, and in a second angular range of movement (α 2) of the rotor with respect to the stator, exert a return force tending to oppose rotation of the rotor with respect to the stator in a first direction of rotation, and to assist rotation of the rotor with respect to the stator in a second direction of rotation, opposite to the first direction of rotation.
An implantable lubrication device for lubricating a joint of a human or mammal patient by adding a biocompatible lubricating fluid, the implantable lubrication device comprising: an added biocompatible lubricating fluid imitating the synovial fluid of a joint, an implantable refillable reservoir adapted to store the added biocompatible lubricating fluid, and an implantable refill injection port connected to said implantable refillable reservoir for refilling said implantable refillable reservoir with said added biocompatible lubricating fluid, characterized by an implantable infusion needle in fluid connection with said implantable refillable reservoir, wherein said implantable infusion needle is arranged for longitudinal displacement and has a tip end having a fluid delivery exit port, and an implantable drive unit coupled to the implantable infusion needle and configured to advance and retract the tip end of the implantable infusion needle for injecting said added biocompatible lubricating fluid into an area of said joint. an added biocompatible lubricating fluid imitating the synovial fluid of a joint, an implantable refillable reservoir adapted to store the added biocompatible lubricating fluid, and an implantable refill injection port connected to said implantable refillable reservoir for refilling said implantable refillable reservoir with said added biocompatible lubricating fluid, characterized by an implantable infusion needle in fluid connection with said implantable refillable reservoir, wherein said implantable infusion needle is arranged for longitudinal displacement and has a tip end having a fluid delivery exit port, and an implantable drive unit coupled to the implantable infusion needle and configured to advance and retract the tip end of the implantable infusion needle for injecting said added biocompatible lubricating fluid into an area of said joint.
A pluripotent cell, wherein the pluripotent cell is genetically engineered not to be differentiated into a predetermined type of cell, (i) wherein the pluripotent cell has a Prdm14 knockout and an Otx2 knockout; or (ii) wherein the pluripotent cell has both a cytotoxic gene, which is operatively connected to an enhancer and/or promoter of a gene exhibiting germ cell specific expression, and a cytotoxic gene, that is operatively connected to an enhancer and/or promoter of a gene exhibiting forebrain specific expression, wherein the gene exhibiting germ cell specific expression is Prdm14, and the gene exhibiting forebrain specific expression is Otx1 or Otx2. (i) wherein the pluripotent cell has a Prdm14 knockout and an Otx2 knockout; or (ii) wherein the pluripotent cell has both a cytotoxic gene, which is operatively connected to an enhancer and/or promoter of a gene exhibiting germ cell specific expression, and a cytotoxic gene, that is operatively connected to an enhancer and/or promoter of a gene exhibiting forebrain specific expression, wherein the gene exhibiting germ cell specific expression is Prdm14, and the gene exhibiting forebrain specific expression is Otx1 or Otx2. a cytotoxic gene, which is operatively connected to an enhancer and/or promoter of a gene exhibiting germ cell specific expression, and a cytotoxic gene, that is operatively connected to an enhancer and/or promoter of a gene exhibiting forebrain specific expression, wherein the gene exhibiting germ cell specific expression is Prdm14, and the gene exhibiting forebrain specific expression is Otx1 or Otx2.
A composition comprising an effective amount of a chimeric molecule comprising a supercharged green fluorescent protein (s-GFP) and aurein, complexed or linked to one or more Myc proteins or peptides, Myc modulators, Notch proteins or peptides, Notch Intracellular domain (NICD) proteins or peptides, Atonal Homolog 1 (Atoh1), Atoh1 modulators, transcription factors, transcription modulators, or combinations thereof for use in the treatment of deafness or disorders thereof, associated with a genetic mutation.
A temporary valve device (100, 200) for hemodynamic support, comprising: a sheath having a first section and a second section, said first section attached to a distal end of said second section; and an invertible temporary valve attached to an outer surface of said first section of said sheath, said temporary valve having a valve body, a first valve end, and a second valve end; characterized in that said temporary valve is reversibly movable between an inverted delivery configuration and a deployed canopy configuration, wherein, in said inverted delivery configuration, said valve body and said first section of the sheath are inverted within said second section of the sheath, wherein said temporary valve is housed between two layers of said first section in said inverted configuration, and in said deployed configuration, said first section is moved distal of said second section of said sheath to permit radial expansion of said temporary valve. a sheath having a first section and a second section, said first section attached to a distal end of said second section; and an invertible temporary valve attached to an outer surface of said first section of said sheath, said temporary valve having a valve body, a first valve end, and a second valve end; characterized in that said temporary valve is reversibly movable between an inverted delivery configuration and a deployed canopy configuration, wherein, in said inverted delivery configuration, said valve body and said first section of the sheath are inverted within said second section of the sheath, wherein said temporary valve is housed between two layers of said first section in said inverted configuration, and in said deployed configuration, said first section is moved distal of said second section of said sheath to permit radial expansion of said temporary valve.
A credential production device comprising: a processing path; a transport mechanism configured to feed individual substrates along the processing path; a processing assembly comprising: a supply spool support; a take-up spool support; a plurality of ribbon supports that define a ribbon path; and one of a print head and a transfer roller; and characterized by at least one assembly guide configured to guide movement of the processing assembly substantially perpendicularly to the processing path between an operating position and a loading position relative to the processing path. a processing path; a transport mechanism configured to feed individual substrates along the processing path; a processing assembly comprising: a supply spool support; a take-up spool support; a plurality of ribbon supports that define a ribbon path; and one of a print head and a transfer roller; and characterized by a supply spool support; a take-up spool support; a plurality of ribbon supports that define a ribbon path; and one of a print head and a transfer roller; and characterized by at least one assembly guide configured to guide movement of the processing assembly substantially perpendicularly to the processing path between an operating position and a loading position relative to the processing path.
A method of inhibiting formation of a precipitate in a hematoxylin solution or dissolving the precipitate, wherein the method is performed within an automated hematoxylin stainer, the method comprising: introducing a cleaning composition comprising an aluminum chelator or aluminium complexing agent into the automated hematoxylin stainer before a staining cycle is started and/or after a staining cycle is completed using the hematoxylin solution; and mixing the hematoxylin solution with the cleaning composition, wherein when combined the hematoxylin solution and cleaning composition have a pH of 2 or above; and wherein the cleaning composition and the hematoxylin solution are mixed at a ratio that results in a concentration of the one or more elements sufficient to reduce formation of hematoxylin precipitate. introducing a cleaning composition comprising an aluminum chelator or aluminium complexing agent into the automated hematoxylin stainer before a staining cycle is started and/or after a staining cycle is completed using the hematoxylin solution; and mixing the hematoxylin solution with the cleaning composition, wherein when combined the hematoxylin solution and cleaning composition have a pH of 2 or above; and wherein the cleaning composition and the hematoxylin solution are mixed at a ratio that results in a concentration of the one or more elements sufficient to reduce formation of hematoxylin precipitate.