mhurhangee/patent-ind-claim-en huggingface dataset:
An optical projection system for a weapon system aiming scope , comprising: a primary beamsplitter positioned in an optical path, wherein objective and ocular lenses define said optical path; a secondary beamsplitter positioned adjacent the primary beamsplitter and off the optical path; a micro-display that provides a data image containing targeting information; and an illumination source , wherein the illumination source generates light directed through the secondary beamsplitter to illuminate and reflect off the micro-display so as to define a reflected data image, wherein the secondary beamsplitter directs the reflected data image into the primary beamsplitter, and wherein the primary beamsplitter combines the data image with an optical target image in the optical path so as to convey targeting information to a shooter viewing the optical target image, wherein a) the primary beamsplitter is situated between ocular and objective lenses, the optical projection system comprising said lenses; and/or b) the secondary beamsplitter is positioned against the primary beamsplitter; and/or c) the optical projection system comprises a scope body and at least said objective lens and at least said ocular lens, wherein said components of the optical projection system except said scope body are housed within said scope body. a primary beamsplitter positioned in an optical path, wherein objective and ocular lenses define said optical path; a secondary beamsplitter positioned adjacent the primary beamsplitter and off the optical path; a micro-display that provides a data image containing targeting information; and an illumination source , wherein the illumination source generates light directed through the secondary beamsplitter to illuminate and reflect off the micro-display so as to define a reflected data image, wherein the secondary beamsplitter directs the reflected data image into the primary beamsplitter, and wherein the primary beamsplitter combines the data image with an optical target image in the optical path so as to convey targeting information to a shooter viewing the optical target image, wherein a) the primary beamsplitter is situated between ocular and objective lenses, the optical projection system comprising said lenses; and/or b) the secondary beamsplitter is positioned against the primary beamsplitter; and/or c) the optical projection system comprises a scope body and at least said objective lens and at least said ocular lens, wherein said components of the optical projection system except said scope body are housed within said scope body. a) the primary beamsplitter is situated between ocular and objective lenses, the optical projection system comprising said lenses; and/or b) the secondary beamsplitter is positioned against the primary beamsplitter; and/or c) the optical projection system comprises a scope body and at least said objective lens and at least said ocular lens, wherein said components of the optical projection system except said scope body are housed within said scope body.
An agricultural seeding machine having a machine frame and a plurality of seed singulation devices and drill units arranged on the machine frame next to one another, wherein the drill units comprise at least one furrow opener , a conveying line for conveying the seed from the seed singulation device to a planting zone with an output opening arranged near the ground and a pressure roller , and the at least one furrow opener , the output opening and the pressure roller are arranged in the drill unit in this work sequence relative to one another, wherein the pressure roller is connected via link arms to the machine frame and/or frame parts of the furrow opener and/or link arms for guiding the furrow opener so that the same is height-moveable independently of the furrow opener , and that the seed singulation device is at least partly or completely supported directly on the pressure roller , characterised in that the seed singulation device is embodied as double or multiple singulation device, wherein the seed singulation device is assigned two or more furrow openers . wherein the pressure roller is connected via link arms to the machine frame and/or frame parts of the furrow opener and/or link arms for guiding the furrow opener so that the same is height-moveable independently of the furrow opener , and that the seed singulation device is at least partly or completely supported directly on the pressure roller , characterised in that the seed singulation device is embodied as double or multiple singulation device, wherein the seed singulation device is assigned two or more furrow openers .
A multiphase separation system, comprising: an inlet line configured to feed a multiphase fluid into a circular distribution header within the multiphase separation system, wherein the circular distribution header is coupled to a number of upper lines and a number of lower lines ; each upper line configured to feed gases into a circular gas header , wherein the circular gas header is in a second plane that is above a plane of the circular distribution header ; each lower line configured to feed liquids into a circular liquid header , wherein the circular liquid header is in a third plane that is below the plane of the circular distribution header ; wherein the number of upper lines and the number of lower lines are perpendicular to the circular distribution header ; a gas outlet line that is coupled to the circular gas header and is configured to flow the gases out of the multiphase separation system; and a liquid outlet line that is coupled to the circular liquid header and is configured to flow the liquids out of the multiphase separation system; wherein the gas outlet line and the liquid outlet line are coupled via a downcomer configured to allow entrained liquids to flow from the gas outlet line to the liquid outlet line . an inlet line configured to feed a multiphase fluid into a circular distribution header within the multiphase separation system, wherein the circular distribution header is coupled to a number of upper lines and a number of lower lines ; each upper line configured to feed gases into a circular gas header , wherein the circular gas header is in a second plane that is above a plane of the circular distribution header ; each lower line configured to feed liquids into a circular liquid header , wherein the circular liquid header is in a third plane that is below the plane of the circular distribution header ; wherein the number of upper lines and the number of lower lines are perpendicular to the circular distribution header ; a gas outlet line that is coupled to the circular gas header and is configured to flow the gases out of the multiphase separation system; and a liquid outlet line that is coupled to the circular liquid header and is configured to flow the liquids out of the multiphase separation system; wherein the gas outlet line and the liquid outlet line are coupled via a downcomer configured to allow entrained liquids to flow from the gas outlet line to the liquid outlet line .
Method for determining the quality of semen of an animal, comprising the steps of: - collecting at least one fresh or frozen semen sample, - measuring at least one absorption spectrum X j from at least one sample of said semen, characterised in that said method further comprises the steps of: - determining, from said at least one absorption spectrum X j , a value of the first derivative of the absorptions X j ′ , - calculating at least one of the parameters, representative of the quality of said semen, chosen from the group consisting of concentration Y1, motility Y2, rate of progressive spermatozoa Y3, viability Y4, percentage of live spermatozoa with stable phospholipids Y5, mitochondrial potential Y6, percentage of spermatozoa with peroxidised lipids Y7, percentage of spermatozoa with an intact acrosome Y8, total antioxidant capacity (TAC) Y9, fatty acid composition Y10, percentage of spermatozoa with normal morphology Y11, osmolarity Y12 and glutathione rate GSH Y13, non-return rate at 56 days Y14, non-return rate at 90 days Y15, pregnancy diagnosis Y16, from said first derivative of the absorption X j ′ previously determined for determining the quality of said semen. - collecting at least one fresh or frozen semen sample, - measuring at least one absorption spectrum X j from at least one sample of said semen, - determining, from said at least one absorption spectrum X j , a value of the first derivative of the absorptions X j ′ , - calculating at least one of the parameters, representative of the quality of said semen, chosen from the group consisting of concentration Y1, motility Y2, rate of progressive spermatozoa Y3, viability Y4, percentage of live spermatozoa with stable phospholipids Y5, mitochondrial potential Y6, percentage of spermatozoa with peroxidised lipids Y7, percentage of spermatozoa with an intact acrosome Y8, total antioxidant capacity (TAC) Y9, fatty acid composition Y10, percentage of spermatozoa with normal morphology Y11, osmolarity Y12 and glutathione rate GSH Y13, non-return rate at 56 days Y14, non-return rate at 90 days Y15, pregnancy diagnosis Y16, from said first derivative of the absorption X j ′ previously determined for determining the quality of said semen.
Keyboard for a striking mechanism of a musical watch or music box, characterised in that the keyboard includes at least two parts, joined to each other so as to obtain a one-piece keyboard, manufactured in at least two materials, a first part forming a first set of strips made of a first material (M1) so as to produce sounds in a first frequency range, and at least a second part forming a second set of strips made of a second material (M2) so as to produce sounds in a second frequency range.
A system for facilitating treatment via a vascular wall defining a vascular lumen containing an occlusion therein, the system comprising: an intramural orienting device having an elongate shaft with a lumen extending therethrough to a distal side opening , the intramural orienting device including a distal orienting element comprising one or more lateral extensions , wherein the side opening faces orthogonally relative to the lateral extensions ; and a re-entry device front-loaded through the lumen of the orienting device , wherein advancement of the re-entry device causes a distal tip of the re-entry device to penetrate the vascular wall and enter into the vascular lumen ; wherein the lateral extensions may be actuated between a collapsed configuration and an expanded configuration by an actuation mechanism , characterized in that the side opening exits the shaft at an acute angle relative to a longitudinal axis of the shaft and that the orienting device is configured such that the front-loaded re-entry device is directed toward the side opening and a back-loaded device is permitted to pass proximally through the lumen. an intramural orienting device having an elongate shaft with a lumen extending therethrough to a distal side opening , the intramural orienting device including a distal orienting element comprising one or more lateral extensions , wherein the side opening faces orthogonally relative to the lateral extensions ; and a re-entry device front-loaded through the lumen of the orienting device , wherein advancement of the re-entry device causes a distal tip of the re-entry device to penetrate the vascular wall and enter into the vascular lumen ; wherein the lateral extensions may be actuated between a collapsed configuration and an expanded configuration by an actuation mechanism , characterized in that the side opening exits the shaft at an acute angle relative to a longitudinal axis of the shaft and that the orienting device is configured such that the front-loaded re-entry device is directed toward the side opening and a back-loaded device is permitted to pass proximally through the lumen.
A method for determining concentration of polyelectrolyte or phosphonate in a sample comprising polyelectrolyte or phosphonate, the method comprising - optionally diluting and/or purifying the sample, - admixing the sample with a reagent comprising a lanthanide(III) ion, - admixing the sample with silica, - allowing the polyelectrolyte or phosphonate in the sample to interact with the reagent comprising the lanthanide(III) ion and the silica, - exciting the sample at a excitation wavelength and detecting a sample signal deriving from the lanthanide(III) ion at a signal wavelength by using time-resolved fluorescence measurement, and - determining the concentration of the polyelectrolyte or phosphonate in the sample by using the detected sample signal. - optionally diluting and/or purifying the sample, - admixing the sample with a reagent comprising a lanthanide(III) ion, - admixing the sample with silica, - allowing the polyelectrolyte or phosphonate in the sample to interact with the reagent comprising the lanthanide(III) ion and the silica, - exciting the sample at a excitation wavelength and detecting a sample signal deriving from the lanthanide(III) ion at a signal wavelength by using time-resolved fluorescence measurement, and - determining the concentration of the polyelectrolyte or phosphonate in the sample by using the detected sample signal.
A method for preparing an acrylic acid, the method comprising: dehydrating a lactic acid aqueous solution in a reaction unit to prepare a reaction product stream; passing the reaction product stream through a cooling unit and a refining unit sequentially and supplying a discharge stream from the refining unit to an acrylic acid separation column; and separating an unreacted lactic acid as a side discharge stream and separating the acrylic acid as an upper discharge stream in the acrylic acid separation column. dehydrating a lactic acid aqueous solution in a reaction unit to prepare a reaction product stream; passing the reaction product stream through a cooling unit and a refining unit sequentially and supplying a discharge stream from the refining unit to an acrylic acid separation column; and separating an unreacted lactic acid as a side discharge stream and separating the acrylic acid as an upper discharge stream in the acrylic acid separation column.
A method of wireless communication comprising: receiving a packet from a device in an overlapping basic service set, OBSS, wherein a received power of the packet is greater than a first power threshold that is associated with a first transmission power; determining that a backoff condition has been satisfied; increasing the first power threshold to a higher power level in the form of a second power threshold; selecting , based at least in part on the backoff condition being satisfied, a second transmission power for a transmission, wherein the second transmission power is less than the first transmission power and is associated with the second power threshold; characterized by determining that a transmission time of the packet or a transmission opportunity of the packet has passed; and selecting a third transmission power for the transmission based at least in part on the determination that the transmission time of the packet or the transmission opportunity of the packet has passed, wherein the third transmission power is greater than the second transmission power. receiving a packet from a device in an overlapping basic service set, OBSS, wherein a received power of the packet is greater than a first power threshold that is associated with a first transmission power; determining that a backoff condition has been satisfied; increasing the first power threshold to a higher power level in the form of a second power threshold; selecting , based at least in part on the backoff condition being satisfied, a second transmission power for a transmission, wherein the second transmission power is less than the first transmission power and is associated with the second power threshold; characterized by determining that a transmission time of the packet or a transmission opportunity of the packet has passed; and selecting a third transmission power for the transmission based at least in part on the determination that the transmission time of the packet or the transmission opportunity of the packet has passed, wherein the third transmission power is greater than the second transmission power.
An operation device having a touch-screen-type operation surface installed in a vehicle, wherein: a plurality of operation units (11,..,16) formed in a convex shape or a concave shape associated with a plurality of components mounted in the vehicle, respectively, are formed at different positions on the touch-screen-type operation surface , respectively; and the plurality of operation units (11,..,16) are configured to accept an input touch operation as an operation instruction for the component associated with each of the operation units, characterized in that at each of the different positions on the touch-screen-type operation surface corresponding to a relative positional relation of a plurality of windows mounted in the vehicle, an operation unit associated with one of the windows is formed; and the plurality of operation units (11,..,16) are configured to accept an input touch operation as an operation instruction for the window associated with a corresponding one of the operation units (11,..,16). a plurality of operation units (11,..,16) formed in a convex shape or a concave shape associated with a plurality of components mounted in the vehicle, respectively, are formed at different positions on the touch-screen-type operation surface , respectively; and the plurality of operation units (11,..,16) are configured to accept an input touch operation as an operation instruction for the component associated with each of the operation units, characterized in that at each of the different positions on the touch-screen-type operation surface corresponding to a relative positional relation of a plurality of windows mounted in the vehicle, an operation unit associated with one of the windows is formed; and the plurality of operation units (11,..,16) are configured to accept an input touch operation as an operation instruction for the window associated with a corresponding one of the operation units (11,..,16).
A perforating gun, comprising: a body having an axial length extending between a first axial end surface and a second axial end surface , and an outer radial surface extending between the first and second axial end surfaces , an inner bore , and at least one shaped charge cavity disposed in the outer radial surface , wherein the shaped charge cavity is in fluid communication with the inner bore ; at least one inner bore fluid escape port disposed within the body and in communication with the inner bore , which inner bore fluid escape port extends from the inner bore to an exterior of the body , wherein the at least one inner bore fluid escape port includes a first inner escape port extending from the inner bore to the first axial end surface of the body , and a second inner bore escape port extending from the inner bore to the second axial end surface of the body , each inner bore fluid escape port intersects with the inner bore an axial distance away from the respective axial end surface ; and at least one cavity liner disposed in the shaped charge cavity and configured to retain an explosive material within the shaped charge cavity , wherein the inner bore extends between the first axial end surface and the second axial end surface and is in fluid communication with the first axial end surface and the second axial end surface . a body having an axial length extending between a first axial end surface and a second axial end surface , and an outer radial surface extending between the first and second axial end surfaces , an inner bore , and at least one shaped charge cavity disposed in the outer radial surface , wherein the shaped charge cavity is in fluid communication with the inner bore ; at least one inner bore fluid escape port disposed within the body and in communication with the inner bore , which inner bore fluid escape port extends from the inner bore to an exterior of the body , wherein the at least one inner bore fluid escape port includes a first inner escape port extending from the inner bore to the first axial end surface of the body , and a second inner bore escape port extending from the inner bore to the second axial end surface of the body , each inner bore fluid escape port intersects with the inner bore an axial distance away from the respective axial end surface ; and at least one cavity liner disposed in the shaped charge cavity and configured to retain an explosive material within the shaped charge cavity , wherein the inner bore extends between the first axial end surface and the second axial end surface and is in fluid communication with the first axial end surface and the second axial end surface .
An illuminator device , comprising a housing , a heat dissipation member provided at an end of the housing , a light source module configured to comprise an end in thermal contact with the heat dissipation member , an optical member provided at another end of the light source module , and a driving power supply module electrically connected with the light source module , wherein the light source module and the housing are respectively provided at two ends of the heat dissipation member , a plurality of channels communicating inside of the illuminator device with outside of the illuminator device are provided in the illuminator device , and the plurality of channels penetrate through the housing and the heat dissipation member , wherein the illuminator device further comprises an encloser which positions the optical member at the another end of the light source module , and wherein the housing is formed with a plurality of first through grooves ; a plurality of pipes are formed in the heat dissipation member ; the encloser is provided with a plurality of first openings ; the plurality of pipes are respectively communicated with the plurality of first through grooves and the plurality of first openings ; and the plurality of first through grooves , the plurality of pipes and the plurality of first openings form the plurality of channels characterized in that the heat dissipating member is made of an aluminum profile. wherein the illuminator device further comprises an encloser which positions the optical member at the another end of the light source module , and wherein the housing is formed with a plurality of first through grooves ; a plurality of pipes are formed in the heat dissipation member ; the encloser is provided with a plurality of first openings ; the plurality of pipes are respectively communicated with the plurality of first through grooves and the plurality of first openings ; and the plurality of first through grooves , the plurality of pipes and the plurality of first openings form the plurality of channels
A heart monitoring system , characterized by including a gyroscope using Coriolis effect, configured to be applied in a position on a chest of a subject and in that position to obtain an angular ballistocardiograph signal indicative of rotational recoil movement, which occurs on the chest of the subject in response to cardiovascular rotation within the chest of the subject; signal processing means configured to generate from the angular ballistocardiograph signal measured values indicative of angular velocity of the heart of the subject, indicative of cardiac operation of the subject. a gyroscope using Coriolis effect, configured to be applied in a position on a chest of a subject and in that position to obtain an angular ballistocardiograph signal indicative of rotational recoil movement, which occurs on the chest of the subject in response to cardiovascular rotation within the chest of the subject; signal processing means configured to generate from the angular ballistocardiograph signal measured values indicative of angular velocity of the heart of the subject, indicative of cardiac operation of the subject.