mhurhangee/patent-ind-claim-en huggingface dataset:
Riding saddle having a saddle tree and a seat disposed thereon, and a stirrup mount on each side of the saddle , having by damping devices arranged between the saddle and each stirrup mount and/or damping devices arranged between the saddle tree and a saddle flap carrying a knee roll , said damping devices comprising a first carrier connected to the saddle and a second carrier which is pivotally connected to the first carrier by a first lever , the stirrup holder and/or the saddle flap being attached to the second carrier , with an energy accumulator which is arranged to counteract the movement of the second carrier from a first position over the apex of the pivoting movement of the first lever into a second position at a greater distance from the first carrier .
A back-side illuminated solid-state image capturing device comprising: a first semiconductor substrate and a second semiconductor substrate , wherein the first semiconductor substrate includes: a first region (22, R11) having a photoelectric conversion section , and a via portion ; a second region (R12) adjacent to the first region (22, R11); characterized in that the first semiconductor substrate further includes a connection portion disposed on the surface of the second region (R12) that receives light, and electrically couples the first semiconductor substrate to the second semiconductor substrate in a stacked configuration, wherein the connection portion is an electrode of a land structure including a first electrode and a metal layer provided in an upper portion of the first electrode between the first electrode and the second semiconductor substrate ; and in that a width of the connection portion is greater than a width of the via portion. a first semiconductor substrate and a second semiconductor substrate , wherein the first semiconductor substrate includes: a first region (22, R11) having a photoelectric conversion section , and a via portion ; a second region (R12) adjacent to the first region (22, R11); characterized in that the first semiconductor substrate further includes a connection portion disposed on the surface of the second region (R12) that receives light, and electrically couples the first semiconductor substrate to the second semiconductor substrate in a stacked configuration, wherein the connection portion is an electrode of a land structure including a first electrode and a metal layer provided in an upper portion of the first electrode between the first electrode and the second semiconductor substrate ; and in that a width of the connection portion is greater than a width of the via portion. a first region (22, R11) having a photoelectric conversion section , and a via portion ; a second region (R12) adjacent to the first region (22, R11); characterized in that the first semiconductor substrate further includes a connection portion disposed on the surface of the second region (R12) that receives light, and electrically couples the first semiconductor substrate to the second semiconductor substrate in a stacked configuration, wherein the connection portion is an electrode of a land structure including a first electrode and a metal layer provided in an upper portion of the first electrode between the first electrode and the second semiconductor substrate ; and in that a width of the connection portion is greater than a width of the via portion.
A fluid dispenser head (T) including a spray wall (26; 26a; 26b; 26c; 26d; 26e; 26f; 26g; 26h; 26i) that is perforated with holes (O) through which the fluid under pressure passes so as to be sprayed in small droplets, the number of holes lying in the range 10 to 500, and the holes presenting a diameter lying in the range about 1 μm to about 100 μm, advantageously in the range about 5 μm to about 30 μm, and preferably in the range about 5 μm to about 20 μm, the spray wall (26; 26a; 26b; 26c; 26d; 26e; 26f; 26g; 26h; 26i) being plane so as to define: a main plane Pp; a central axis Y that is orthogonal to the main plane Pp; normals N that are parallel to the central axis Y and that are perpendicular to the main plane Pp; an orthogonal plane Po containing the central axis Y and the normal N of the hole under consideration; and a radial axis X that corresponds to the intersection between the main plane Pp and the orthogonal plane Po, the dispenser head being characterized in that most of the holes (O) extend along an axis Zn that forms an angle α lying in the range 5° to 45°, and advantageously in the range 5° to 30°, relative to the corresponding normal N, the axis Zn presenting an orientation that diverges relative to the central axis Y, with a normal projection onto the orthogonal plan Po having a non-zero radial component along the radial axis X.
An aircraft door seal comprising: door seal sections (10a - 10d) defining an interior space and having abutted ends establishing a seal junction ; and a lap joint junction seal assembly to sealingly join the abutted ends of the door seal sections, wherein the lap joint junction seal assembly comprises: (i) a lap joint member having a lap joint base and a lap joint shelf extending from the lap joint base and sealingly engaged with a lower surface of the door seal sections (10a - 10d) over the seal junction; and (ii) an interior support spigot inserted within the interior space of each of the door seal sections at the abutted ends thereof; characterized in that the lap joint shelf is arcuately shaped in conformity with the lower surface of the door seal sections (10a - 10d). door seal sections (10a - 10d) defining an interior space and having abutted ends establishing a seal junction ; and a lap joint junction seal assembly to sealingly join the abutted ends of the door seal sections, wherein the lap joint junction seal assembly comprises: (i) a lap joint member having a lap joint base and a lap joint shelf extending from the lap joint base and sealingly engaged with a lower surface of the door seal sections (10a - 10d) over the seal junction; and (ii) an interior support spigot inserted within the interior space of each of the door seal sections at the abutted ends thereof; (i) a lap joint member having a lap joint base and a lap joint shelf extending from the lap joint base and sealingly engaged with a lower surface of the door seal sections (10a - 10d) over the seal junction; and (ii) an interior support spigot inserted within the interior space of each of the door seal sections at the abutted ends thereof; characterized in that the lap joint shelf is arcuately shaped in conformity with the lower surface of the door seal sections (10a - 10d).
Process for the preparation of an aqueous suspension comprising at least one calcium carbonate-containing material, the process comprising: a) providing a substantially dispersant-free aqueous suspension of at least one calcium carbonate-containing material, wherein the aqueous dispersion comprises dispersants in an amount of < 0.05 wt.-%, based on the total dry weight of the at least one calcium carbonate-containing material, b) pre-heating the suspension of step a) to a temperature of from 40 to 95 °C at ambient pressure, c) contacting the aqueous suspension of step a) before and/or during and/or after pre-heating step b) and/or before and/or during wet-grinding step d) with at least one base for obtaining an aqueous suspension having a pH measured at 25°C of ≥ 9.0, and d) wet-grinding the pre-heated suspension of step b) or of step c) in at least one grinding step for obtaining an aqueous suspension of at least one calcium carbonate-containing material having a ratio of particles having an average particle size d 80 value to particles having an average particle size d 20 value [ d 80 / d 20 ] of ≤ 2.50. a) providing a substantially dispersant-free aqueous suspension of at least one calcium carbonate-containing material, wherein the aqueous dispersion comprises dispersants in an amount of < 0.05 wt.-%, based on the total dry weight of the at least one calcium carbonate-containing material, b) pre-heating the suspension of step a) to a temperature of from 40 to 95 °C at ambient pressure, c) contacting the aqueous suspension of step a) before and/or during and/or after pre-heating step b) and/or before and/or during wet-grinding step d) with at least one base for obtaining an aqueous suspension having a pH measured at 25°C of ≥ 9.0, and d) wet-grinding the pre-heated suspension of step b) or of step c) in at least one grinding step for obtaining an aqueous suspension of at least one calcium carbonate-containing material having a ratio of particles having an average particle size d 80 value to particles having an average particle size d 20 value [ d 80 / d 20 ] of ≤ 2.50.
A composition for a heat dissipating member comprising: a first inorganic filler having thermal conductivity that is bonded to one end of a coupling agent ; and a second inorganic filler having thermal conductivity that is bonded to one end of a coupling agent , in which a bifunctional or higher polymerizable compound is additionally bonded to the other end of the coupling agent bonded to the second inorganic filler ; wherein the other end of the coupling agent bonded to the first inorganic filler is to be bonded to the polymerizable compound on the second inorganic filler during curing. a first inorganic filler having thermal conductivity that is bonded to one end of a coupling agent ; and a second inorganic filler having thermal conductivity that is bonded to one end of a coupling agent , in which a bifunctional or higher polymerizable compound is additionally bonded to the other end of the coupling agent bonded to the second inorganic filler ; wherein the other end of the coupling agent bonded to the first inorganic filler is to be bonded to the polymerizable compound on the second inorganic filler during curing.
A method of isolating a bio-adhesive composition from a bio-oil, the method comprising: (a) providing a bio-oil derived from animal manure; (b) distilling the bio-oil to remove a light liquid fraction such that the viscosity of the pot liquor is not allowed to exceed about 1 centipoise (cP) at 135°C, wherein the distilling occurs at a vacuum pressure of between about 1 mm Hg and about 80 mm Hg while heating to a temperature of up to 60°C; and I. isolating the pot liquor to provide a bio-adhesive composition; or II. continuing to distill the pot liquor to provide a distilled heavy liquid fraction and a bio-residue that is not distilled, wherein the viscosity of the bio-residue is not allowed to exceed about 1 cP at 135°C; wherein the distilling occurs under vacuum pressure of between about 1 mm Hg and about 80 mm Hg while heating to i. a temperature ranging from about 60°C to about 100°C, or ii. a temperature ranging from about 100°C to about 160°C, and isolating the heavy liquid fraction from (i) and/or (ii) to provide a bio-adhesive composition: and optionally isolating the bio-residue to provide a bio-adhesive composition. (a) providing a bio-oil derived from animal manure; (b) distilling the bio-oil to remove a light liquid fraction such that the viscosity of the pot liquor is not allowed to exceed about 1 centipoise (cP) at 135°C, wherein the distilling occurs at a vacuum pressure of between about 1 mm Hg and about 80 mm Hg while heating to a temperature of up to 60°C; and I. isolating the pot liquor to provide a bio-adhesive composition; or II. continuing to distill the pot liquor to provide a distilled heavy liquid fraction and a bio-residue that is not distilled, wherein the viscosity of the bio-residue is not allowed to exceed about 1 cP at 135°C; wherein the distilling occurs under vacuum pressure of between about 1 mm Hg and about 80 mm Hg while heating to i. a temperature ranging from about 60°C to about 100°C, or ii. a temperature ranging from about 100°C to about 160°C, and isolating the heavy liquid fraction from (i) and/or (ii) to provide a bio-adhesive composition: and optionally isolating the bio-residue to provide a bio-adhesive composition. I. isolating the pot liquor to provide a bio-adhesive composition; or II. continuing to distill the pot liquor to provide a distilled heavy liquid fraction and a bio-residue that is not distilled, wherein the viscosity of the bio-residue is not allowed to exceed about 1 cP at 135°C; wherein the distilling occurs under vacuum pressure of between about 1 mm Hg and about 80 mm Hg while heating to i. a temperature ranging from about 60°C to about 100°C, or ii. a temperature ranging from about 100°C to about 160°C, and isolating the heavy liquid fraction from (i) and/or (ii) to provide a bio-adhesive composition: and optionally isolating the bio-residue to provide a bio-adhesive composition. i. a temperature ranging from about 60°C to about 100°C, or ii. a temperature ranging from about 100°C to about 160°C,
An oral care device , the oral care device either comprising or being operably coupleable to a cleaning or treatment portion for being at least partially received in an oral cavity of a user for performing a cleaning or treatment function, the oral care device comprising: a signal generator operable to generate radiofrequency (RF) and/or microwave frequency electromagnetic radiation when said generator is operatively coupled to an emitter arrangement , wherein for oral care purposes, the signal generator is selectively operable in a cleaning or treatment mode in which the signal generator is adapted to generate signals for causing the emitter arrangement to generate electromagnetic radiation for performing an oral cleaning or treatment function, and wherein for performing sanitization of the cleaning or treatment portion, the signal generator is selectively operable in a sanitization mode in which the signal generator is adapted to generate signals for causing the emitter arrangement to generate RF and/or microwave frequency electromagnetic radiation in a sanitization area around the emitter arrangement, the radiation suitable for causing heating to a temperature of at least 50 °C, preferably at least 70 °C, of water in contact with any exposed surfaces of the cleaning or treatment portion located in the sanitization area. a signal generator operable to generate radiofrequency (RF) and/or microwave frequency electromagnetic radiation when said generator is operatively coupled to an emitter arrangement , wherein for oral care purposes, the signal generator is selectively operable in a cleaning or treatment mode in which the signal generator is adapted to generate signals for causing the emitter arrangement to generate electromagnetic radiation for performing an oral cleaning or treatment function, and wherein for performing sanitization of the cleaning or treatment portion, the signal generator is selectively operable in a sanitization mode in which the signal generator is adapted to generate signals for causing the emitter arrangement to generate RF and/or microwave frequency electromagnetic radiation in a sanitization area around the emitter arrangement, the radiation suitable for causing heating to a temperature of at least 50 °C, preferably at least 70 °C, of water in contact with any exposed surfaces of the cleaning or treatment portion located in the sanitization area.
A method, implemented at a computer system that includes one or more processors, to efficiently emulate execution of machine code compiled from source code, the method being characterized by : using compiler-generated metadata that preserves behaviors expressed in source code, each behavior representing a type of information that is available to a compiler at compile time, the method comprising: based on accessing compiler-generated metadata associated with executable machine code that executes as part of a thread, identifying one or more behaviors of the source code from which the machine code is compiled which are not implied by the machine code; based on the identified one or more behaviors of the source code from which the machine code is compiled, identifying one or more emulator optimizations that can be applied during emulation of execution of the thread that reduce a number of steps needed to emulate execution of one or more machine code instructions of the machine code while preserving one or more side-effects of said execution that are visible external to the thread, the one or more emulator optimizations including at least one of (i) reducing a number of emulator operations needed to emulate execution of the one or more machine code instructions, or (ii) eliding the one or more machine code instructions from emulation; and while emulating execution of the machine code as part of emulating execution of the thread, applying the one or more emulator optimizations to at least (i) reduce the number of emulator operations needed to emulate execution of the one or more machine code instructions while preserving the one or more side-effects, or (ii) elide the one or more machine code instructions from emulation while preserving the one or more side-effects. based on accessing compiler-generated metadata associated with executable machine code that executes as part of a thread, identifying one or more behaviors of the source code from which the machine code is compiled which are not implied by the machine code; based on the identified one or more behaviors of the source code from which the machine code is compiled, identifying one or more emulator optimizations that can be applied during emulation of execution of the thread that reduce a number of steps needed to emulate execution of one or more machine code instructions of the machine code while preserving one or more side-effects of said execution that are visible external to the thread, the one or more emulator optimizations including at least one of (i) reducing a number of emulator operations needed to emulate execution of the one or more machine code instructions, or (ii) eliding the one or more machine code instructions from emulation; and while emulating execution of the machine code as part of emulating execution of the thread, applying the one or more emulator optimizations to at least (i) reduce the number of emulator operations needed to emulate execution of the one or more machine code instructions while preserving the one or more side-effects, or (ii) elide the one or more machine code instructions from emulation while preserving the one or more side-effects.
An oral care composition for use in the treatment of white spot lesions on teeth of a patient in need thereof, wherein the oral care composition comprises: a) partially hydrolyzed plant protein, comprising oligo- and polypeptide molecules wherein at least 90% of the oligo- and polypeptide molecules are from about 500 to about 15000 D; and b) an orally acceptable carrier; wherein the partially hydrolyzed plant protein is partially hydrolyzed wheat protein, and wherein the oral care composition is applied at least once a day, e.g., 1-3 times per day, for a period of at least a week, e.g., at least 10 days, e.g., for two weeks to six months, e.g., until the white spot lesions are reduced or no longer visible. a) partially hydrolyzed plant protein, comprising oligo- and polypeptide molecules wherein at least 90% of the oligo- and polypeptide molecules are from about 500 to about 15000 D; and b) an orally acceptable carrier;
A filter cartridge for use as a serviceable filter cartridge with a liquid filter assembly in an in-tank filter system with a cover member ; the filter cartridge comprising: (a) a region of filter media defining a central, open, volume , (i) the region of filter media having first and second ends; (b) a first end cap secured to the first end of the region of filter media and closed to the central open volume ; (c) an axial stem comprising a portion of the first end cap and having a portion projecting away from the filter media ; (i) an end of the axial stem remote from the filter media comprising a locker engagement tip to permit the cover member to close the liquid filter assembly ; (d) a second end cap secured to the second end of the region of filter media ; the second end cap defining a central liquid flow conduit therethrough, in liquid flow communication with the central, open, volume defined by the filter media ; and (e) a plurality of retaining clips projecting away from the filter media ; the retaining clips comprising a portion of the first end cap . (a) a region of filter media defining a central, open, volume , (i) the region of filter media having first and second ends; (i) the region of filter media having first and second ends; (b) a first end cap secured to the first end of the region of filter media and closed to the central open volume ; (c) an axial stem comprising a portion of the first end cap and having a portion projecting away from the filter media ; (i) an end of the axial stem remote from the filter media comprising a locker engagement tip to permit the cover member to close the liquid filter assembly ; (i) an end of the axial stem remote from the filter media comprising a locker engagement tip to permit the cover member to close the liquid filter assembly ; (d) a second end cap secured to the second end of the region of filter media ; the second end cap defining a central liquid flow conduit therethrough, in liquid flow communication with the central, open, volume defined by the filter media ; and (e) a plurality of retaining clips projecting away from the filter media ; the retaining clips comprising a portion of the first end cap .
A method for extracting broadband error calibration parameters, comprising: performing frequency band splitting on link broadband signals of an ultra-wide band system according to a received frequency band index table to generate sub-bands (S10); extracting an amplitude error and a phase error of each sub-band (S20); and iteratively weighting and accumulating, according to the frequency band index table and a preset broadband weight table, the amplitude error and the phase error of each sub-band one by one to an initial amplitude error compensation parameter and an initial phase error compensation parameter respectively, to synthesize and extract broadband error calibration parameters (S30). performing frequency band splitting on link broadband signals of an ultra-wide band system according to a received frequency band index table to generate sub-bands (S10); extracting an amplitude error and a phase error of each sub-band (S20); and iteratively weighting and accumulating, according to the frequency band index table and a preset broadband weight table, the amplitude error and the phase error of each sub-band one by one to an initial amplitude error compensation parameter and an initial phase error compensation parameter respectively, to synthesize and extract broadband error calibration parameters (S30).