mhurhangee/ep-ind-claims huggingface dataset:
An optical system for spectroscopic probing of a sample, said system comprising: a tunable laser; and means for detection; wherein said tunable laser is operative to emit tunable radiation over an emission wavelength range having a center wavelength, with an output power spectrum over said wavelength range and an average emission power, said tunable laser comprising: an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); a tuning region; and means for adjusting an optical path length of said tuning region; wherein: a free spectral range of said optical cavity exceeds 5% of said center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; and said means for adjusting an optical path length has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; wherein said system is configured to scan said wavelength range by application of a drive waveform in response to a transient spectroscopy event. a tunable laser; and means for detection; wherein said tunable laser is operative to emit tunable radiation over an emission wavelength range having a center wavelength, with an output power spectrum over said wavelength range and an average emission power, said tunable laser comprising: an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); a tuning region; and means for adjusting an optical path length of said tuning region; wherein: a free spectral range of said optical cavity exceeds 5% of said center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; and said means for adjusting an optical path length has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); a tuning region; and means for adjusting an optical path length of said tuning region; a free spectral range of said optical cavity exceeds 5% of said center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; and said means for adjusting an optical path length has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; wherein said system is configured to scan said wavelength range by application of a drive waveform in response to a transient spectroscopy event.
A dot sighting device comprising: a reflection mirror; an illumination unit having an illumination device irradiating light to the reflection mirror and a reticle that is positioned in front of the illumination device and forms a dot image; and a fixing grille formed on a lower portion of the dot sighting device,wherein the dot sighting device is attachable to and detachable from a mount by the fixing grille, and a width X of the reflection mirror is greater than a distance Y between both eyes of a user, wherein the reflection mirror comprises a doublet with a first surface, an interior second surface and a third surface, wherein the first and third surfaces are spherical.
A sprinkler bulb comprising a sealed frangible housing containing fluid, and a circuit device within the housing, wherein the circuit device is disposed within the fluid and comprises: a capacitor arranged to be used as a pressure sensor to detect pressure changes within the housing; a heating element operable to heat the fluid within the housing of the sprinkler bulb, and a control unit configured to monitor changes in the capacitance of the capacitor and thereby use the capacitor as a pressure sensor. a capacitor arranged to be used as a pressure sensor to detect pressure changes within the housing; a heating element operable to heat the fluid within the housing of the sprinkler bulb, and a control unit configured to monitor changes in the capacitance of the capacitor and thereby use the capacitor as a pressure sensor.
A fiber-optic device having a high Brillouin threshold comprising: - an optical fiber suitable for the propagation of a signal beam of high optical power and having an external surface; - means for coupling a signal beam into an entry end of the optical fiber; - a tubular structure comprising at least one first tube with an internal surface and at least one first adhesive material, such that: ∘ at least one portion of the optical fiber is immobilized in the tubular structure by means of the first adhesive material, adhering to the internal surface of the first tube and to the external surface of the optical fiber; ∘ at room temperature and with no other external stresses on the device, the immobilized portion of the optical fiber is maintained in a compressive state by the tubular structure, in such a way that ▪ the strain of the immobilized portion of the optical fiber in the tubular structure is negative or zero; and ▪ the maximum absolute value of the strain of the immobilized portion of the optical fiber is greater than 0.3%. - an optical fiber suitable for the propagation of a signal beam of high optical power and having an external surface; - means for coupling a signal beam into an entry end of the optical fiber; - a tubular structure comprising at least one first tube with an internal surface and at least one first adhesive material, such that: ∘ at least one portion of the optical fiber is immobilized in the tubular structure by means of the first adhesive material, adhering to the internal surface of the first tube and to the external surface of the optical fiber; ∘ at room temperature and with no other external stresses on the device, the immobilized portion of the optical fiber is maintained in a compressive state by the tubular structure, in such a way that ▪ the strain of the immobilized portion of the optical fiber in the tubular structure is negative or zero; and ▪ the maximum absolute value of the strain of the immobilized portion of the optical fiber is greater than 0.3%. ∘ at least one portion of the optical fiber is immobilized in the tubular structure by means of the first adhesive material, adhering to the internal surface of the first tube and to the external surface of the optical fiber; ∘ at room temperature and with no other external stresses on the device, the immobilized portion of the optical fiber is maintained in a compressive state by the tubular structure, in such a way that ▪ the strain of the immobilized portion of the optical fiber in the tubular structure is negative or zero; and ▪ the maximum absolute value of the strain of the immobilized portion of the optical fiber is greater than 0.3%. ▪ the strain of the immobilized portion of the optical fiber in the tubular structure is negative or zero; and ▪ the maximum absolute value of the strain of the immobilized portion of the optical fiber is greater than 0.3%.
Hand-held power tool comprising a linear motor having a rotor and comprising a bearing device having a bearing point for supporting the rotor and designed to be mounted in the hand-held power tool, the bearing point having at least one guide bar (152; 154; 156; 158) engaging in a recess provided in the rotor, characterised in that the bearing point has at least three guide bars (152, 154, 156), two of which are aligned at an angle of more than 25° relative to one another.
An apparatus for cutting a web of woven sheet material, characterised in that said apparatus comprises: - a first side plate and a second side plate connected to and supported by a base frame structure; - a cutting platform onto which the continuous moving web from an unwinder is conveyed and passes through a set of web guiding rollers (6, 6A, and 6B) so as to maintain proper tension and, thereby avoiding shrinkage of the web; - a pre-draw roller assembly and post-draw roller assembly, both individually constructed to have a plurality of rollers mounted on a single shaft; - a cross cutter apparatus having moveable knife assembly, mounted at an inclined angle between said roller assemblies (9, 11), - a first tension rollers assembly and second tension roller assembly respectively mounted corresponding to said pre-draw assembly and post-draw assembly; - a pair of pneumatic cylinders, namely a first pneumatic cylinder and a second pneumatic cylinder connected to said first tension roller assembly using a first lever, and a second lever, respectively, and another pair of pneumatic cylinders, namely third pneumatic cylinder and a fourth pneumatic cylinder corresponding to said second tension roller assembly, connected to said second tension roller assembly using a third lever, and a fourth lever, respectively, wherein said cross cutter apparatus is capable of cutting said web using said movable knife assembly in between of the rollers (9, 11) on the cutting platform, whereby the continuous web is cut into the web cut pieces. - a first side plate and a second side plate connected to and supported by a base frame structure; - a cutting platform onto which the continuous moving web from an unwinder is conveyed and passes through a set of web guiding rollers (6, 6A, and 6B) so as to maintain proper tension and, thereby avoiding shrinkage of the web; - a pre-draw roller assembly and post-draw roller assembly, both individually constructed to have a plurality of rollers mounted on a single shaft; - a cross cutter apparatus having moveable knife assembly, mounted at an inclined angle between said roller assemblies (9, 11), - a first tension rollers assembly and second tension roller assembly respectively mounted corresponding to said pre-draw assembly and post-draw assembly; - a pair of pneumatic cylinders, namely a first pneumatic cylinder and a second pneumatic cylinder connected to said first tension roller assembly using a first lever, and a second lever, respectively, and another pair of pneumatic cylinders, namely third pneumatic cylinder and a fourth pneumatic cylinder corresponding to said second tension roller assembly, connected to said second tension roller assembly using a third lever, and a fourth lever, respectively,
A fixing device for fastening panels, specifically for the fixing of a primary panel, provided with an opening, with a secondary panel provided with at least one opening for the loose assembly of said fixing device, said fixing device comprising a stop piece provided with a central opening for its coupling with a shifting rod provided with a rear head; the stop piece and/or the rear head of the shifting rod having a front surface (10, 20) intended to face the secondary panel, and to exert pressure against said secondary panel, thus fixing it with respect to the primary panel; and it comprises a plurality of prongs; said prongs forming means intended to be embedded into the material of the secondary panel, and to prevent the sideways movement of said secondary panel with respect to the fixing device, characterised in that said prongs are partially embedded in said front surface (10, 20) and protrude from said front surface (10, 20).
A cable assembly, comprising: a connector head (102, 104, 204, 254) electrically coupled to a plurality of conductors (203, 253) disposed in a cable; a metal shell (206, 256) encasing a portion of the connector head and a portion of the cable; a metal foil (208, 258) that wraps conformably around an exterior of the metal shell, wherein the metal foil covers substantially all of the exterior of the metal shell and extends beyond the metal shell (i) onto a grounding layer surrounding the plurality of conductors, and (ii) onto a portion of the connector head; and a solder layer disposed about the metal foil, wherein the solder layer bonds and electrically couples the metal foil (i) to the grounding layer, and (ii) to the connector head. a connector head (102, 104, 204, 254) electrically coupled to a plurality of conductors (203, 253) disposed in a cable; a metal shell (206, 256) encasing a portion of the connector head and a portion of the cable; a metal foil (208, 258) that wraps conformably around an exterior of the metal shell, wherein the metal foil covers substantially all of the exterior of the metal shell and extends beyond the metal shell (i) onto a grounding layer surrounding the plurality of conductors, and (ii) onto a portion of the connector head; and a solder layer disposed about the metal foil, wherein the solder layer bonds and electrically couples the metal foil (i) to the grounding layer, and (ii) to the connector head.
A system for monitoring a circuit breaker, the system comprising: - at least one sensor; and - a processing unit; wherein the at least one sensor is configured to be located and utilized to obtain at least one sensor data of a main shaft of an operational circuit breaker, wherein the at least one sensor utilized to obtain the at least one sensor data of the main shaft of the operational circuit breaker comprises one or more of: acceleration sensor; main shaft angle sensor; wherein the at least one sensor is configured to provide the at least one sensor data of the main shaft of the operational circuit breaker to the processing unit; and wherein the processing unit is configured to determine position and/or velocity information for a moveable contact of the operational circuit breaker, characterised in that the determination comprises analysis of the at least one sensor data of the main shaft of the operational circuit breaker by a trained neural network implemented by the processing unit; wherein the neural network was trained on the basis of at least one sensor data of a main shaft of a calibration circuit breaker and at least one sensor data of a moveable contact and/or pushrod of the calibration circuit breaker, wherein at least one sensor (20, 60) utilized to obtain the at least one sensor data of the main shaft of the calibration circuit breaker comprises one or more of: acceleration sensor; main shaft angle sensor, wherein at least one sensor utilized to obtain the at least one sensor data of the moveable contact and/or pushrod of the calibration circuit breaker comprises one or more of: position sensor; velocity sensor. - at least one sensor; and - a processing unit; wherein the at least one sensor is configured to be located and utilized to obtain at least one sensor data of a main shaft of an operational circuit breaker, wherein the at least one sensor utilized to obtain the at least one sensor data of the main shaft of the operational circuit breaker comprises one or more of: acceleration sensor; main shaft angle sensor; wherein the at least one sensor is configured to provide the at least one sensor data of the main shaft of the operational circuit breaker to the processing unit; and wherein the processing unit is configured to determine position and/or velocity information for a moveable contact of the operational circuit breaker, wherein the at least one sensor is configured to be located and utilized to obtain at least one sensor data of a main shaft of an operational circuit breaker, wherein the at least one sensor utilized to obtain the at least one sensor data of the main shaft of the operational circuit breaker comprises one or more of: acceleration sensor; main shaft angle sensor; wherein the at least one sensor is configured to provide the at least one sensor data of the main shaft of the operational circuit breaker to the processing unit; and wherein the processing unit is configured to determine position and/or velocity information for a moveable contact of the operational circuit breaker,
A hair care composition comprising by weight: (a) from 0.1% to 10% of a cationic surfactant system; (b) from 0.1% to 20% of a high melting point fatty compound, wherein the high melting point fatty compound has a melting point of 25°C or higher, and is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof, wherein the total amount of high melting point fatty compound ranges from 0.1% to 20% by weight; (c) from 0.1% to 15% of a fatty ester of benzoic acid, wherein the fatty ester of benzoic acid is the one having a fatty chain from 12 to 15 carbon atoms, and is straight or branched, saturated or unsaturated, having OH group or not, wherein the total amount of fatty ester of benzoic acid ranges from 0.1% to 15% by weight; (d) from 0.1% to 15% of a triester compound, wherein the triester compound includes a glycerol triester being trioctanoin, wherein the total amount of triester compound ranges from 0.1% to 15% by weight; and (e) an aqueous carrier. (a) from 0.1% to 10% of a cationic surfactant system; (b) from 0.1% to 20% of a high melting point fatty compound, wherein the high melting point fatty compound has a melting point of 25°C or higher, and is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof, wherein the total amount of high melting point fatty compound ranges from 0.1% to 20% by weight; (c) from 0.1% to 15% of a fatty ester of benzoic acid, wherein the fatty ester of benzoic acid is the one having a fatty chain from 12 to 15 carbon atoms, and is straight or branched, saturated or unsaturated, having OH group or not, wherein the total amount of fatty ester of benzoic acid ranges from 0.1% to 15% by weight; (d) from 0.1% to 15% of a triester compound, wherein the triester compound includes a glycerol triester being trioctanoin, wherein the total amount of triester compound ranges from 0.1% to 15% by weight; and (e) an aqueous carrier.
A method of preparing an edible oil-in-water emulsion having a pH in the range of 3.0 to 5.0 and comprising 30-78 wt.% of oil and 65-20 wt.% water, and further 0.5-6 wt.% hen's egg yolk proteinaceous component by dry weight, said egg yolk proteinaceous component consisting of a combination of low-density lipoprotein, livetin, high-density lipoprotein, and phosvitin, said method comprising the steps of: a. increasing the pH of a liquid aqueous mixture comprising a first egg yolk plasma fraction to a pH of at least 9 and keeping the liquid aqueous mixture at said pH for 1-300 minutes followed by decreasing the pH of the mixture to a pH of 7 or less to produce an alkaline treated egg yolk plasma liquid comprising alkaline treated egg yolk plasma fraction; b. preparing a first pre-emulsion by combining oil, water, egg yolk granules fraction and optionally a second egg yolk plasma fraction; c. combining the alkaline treated egg yolk plasma liquid with the pre-emulsion to produce a second pre-emulsion; d. introducing into the second pre-emulsion one or more acidulants; and e. homogenizing the second pre-emulsion to obtain an oil-in-water emulsion; wherein the egg yolk proteinaceous component of the oil-in-water emulsion has the following composition: • 60-75 wt.% LDL; • 8-14 wt.% livetin; • 11-18 wt.% HDL; • 2-5 wt.% phosvitin. a. increasing the pH of a liquid aqueous mixture comprising a first egg yolk plasma fraction to a pH of at least 9 and keeping the liquid aqueous mixture at said pH for 1-300 minutes followed by decreasing the pH of the mixture to a pH of 7 or less to produce an alkaline treated egg yolk plasma liquid comprising alkaline treated egg yolk plasma fraction; b. preparing a first pre-emulsion by combining oil, water, egg yolk granules fraction and optionally a second egg yolk plasma fraction; c. combining the alkaline treated egg yolk plasma liquid with the pre-emulsion to produce a second pre-emulsion; d. introducing into the second pre-emulsion one or more acidulants; and e. homogenizing the second pre-emulsion to obtain an oil-in-water emulsion; • 60-75 wt.% LDL; • 8-14 wt.% livetin; • 11-18 wt.% HDL; • 2-5 wt.% phosvitin.
An implantable composition comprising a biodegradable scaffold as an active ingredient, wherein the biodegradable scaffold comprises MIP (Macrophage Inflammatory Protein)-3α or a combination of IL (interleukin)-8 and MIP (Macrophage Inflammatory Protein)-3α_ for use in the treatment of a damaged tissue, wherein the damaged tissue is a bone tissue, an articular tissue or a skin tissue.
An optical waveguide element, comprising: an optical waveguide formed in a substrate; and an electrode (264b-1) controlling optical waves that are propagated in the optical waveguide and having an intersecting part intersecting the optical waveguide thereabove, wherein a portion of a resin layer is provided between the optical waveguide and the electrode (264b-1) in a portion of the substrate including the intersecting part, the optical waveguide element being characterized in that an upper surface of the resin layer is in direct contact with a bottom surface of the electrode (264b-1) and a bottom surface of the resin layer opposite to the upper surface is in contact with a top surface of the optical waveguide, and a corner of the resin layer on a side of the electrode is constituted to be a curve in a cross section in an extending direction of the electrode (264b-1), wherein the curvature of the corner of the resin layer is finite and non-zero, defined by a non infinite radius, that is distinct from a flat plane, and in the resin layer, a distance measured in the extending direction of the electrode (264b-1) from a starting point to an end part of the curve constituting the corner in the cross section is longer than a height of the resin layer measured from a surface of the substrate. an optical waveguide formed in a substrate; and an electrode (264b-1) controlling optical waves that are propagated in the optical waveguide and having an intersecting part intersecting the optical waveguide thereabove, wherein a portion of a resin layer is provided between the optical waveguide and the electrode (264b-1) in a portion of the substrate including the intersecting part, the optical waveguide element being characterized in that an upper surface of the resin layer is in direct contact with a bottom surface of the electrode (264b-1) and a bottom surface of the resin layer opposite to the upper surface is in contact with a top surface of the optical waveguide, and a corner of the resin layer on a side of the electrode is constituted to be a curve in a cross section in an extending direction of the electrode (264b-1), wherein the curvature of the corner of the resin layer is finite and non-zero, defined by a non infinite radius, that is distinct from a flat plane, and in the resin layer, a distance measured in the extending direction of the electrode (264b-1) from a starting point to an end part of the curve constituting the corner in the cross section is longer than a height of the resin layer measured from a surface of the substrate.