mhurhangee/patent-ind-claim-en huggingface dataset:
A bifocal-glasses frame comprising: a pair of lens-holding frames , each holding lenses (A, B) that are vertically arranged a bridge coupling the pair of lens-holding frames ; a temple hinged, at a front end thereof, to an outer periphery of each of the lens-holding frames ; nose pads configured to be brought into contact with a nose for support; a vertical movement unit configured to vertically move the lens-holding frames along a front vertically bent portion of the temple ; and a vertical slide provided to the bridge , the vertical slide being configured to vertically slide the nose pads . a pair of lens-holding frames , each holding lenses (A, B) that are vertically arranged a bridge coupling the pair of lens-holding frames ; a temple hinged, at a front end thereof, to an outer periphery of each of the lens-holding frames ; nose pads configured to be brought into contact with a nose for support; a vertical movement unit configured to vertically move the lens-holding frames along a front vertically bent portion of the temple ; and a vertical slide provided to the bridge , the vertical slide being configured to vertically slide the nose pads .
A composite article comprising: a thermoplastic fiber-reinforced porous core layer comprising a web formed from a plurality of reinforcing fibers and a thermoplastic material; and a non-woven scrim coupled to the core layer at a first surface of the core layer, the non-woven scrim comprising a plurality of bi-component fibers. a thermoplastic fiber-reinforced porous core layer comprising a web formed from a plurality of reinforcing fibers and a thermoplastic material; and a non-woven scrim coupled to the core layer at a first surface of the core layer, the non-woven scrim comprising a plurality of bi-component fibers.
A device for imaging tissue comprising: an image capture unit configured to capture three-dimensional images inside of the tissue ; wherein the image capture unit is configured to capture a first image; an electronic device comprising a memory coupled to one or more processors and configured to: display the first image; receive from an operator a selection of points from within the first image; establish a boundary of a region of interest corresponding to the selected points; and capture a three-dimensional image of the tissue within the designated boundary as a second image having a higher resolution than the first image, wherein the second image includes only the region; display the second image; wherein the first and second image each comprise: i) a planar image along a vessel as an image longitudinal display, and ii) a tomographic view as a cross-sectional view of a vessel; wherein the image capture unit is configured to capture the first image and the second three-dimensional image using sound waves or light waves; and wherein the image capture unit comprises an intravascular ultrasound or OCT device. an image capture unit configured to capture three-dimensional images inside of the tissue ; wherein the image capture unit is configured to capture a first image; an electronic device comprising a memory coupled to one or more processors and configured to: display the first image; receive from an operator a selection of points from within the first image; establish a boundary of a region of interest corresponding to the selected points; and capture a three-dimensional image of the tissue within the designated boundary as a second image having a higher resolution than the first image, wherein the second image includes only the region; display the second image; wherein the first and second image each comprise: i) a planar image along a vessel as an image longitudinal display, and ii) a tomographic view as a cross-sectional view of a vessel; display the first image; receive from an operator a selection of points from within the first image; establish a boundary of a region of interest corresponding to the selected points; and capture a three-dimensional image of the tissue within the designated boundary as a second image having a higher resolution than the first image, wherein the second image includes only the region; display the second image; wherein the first and second image each comprise: i) a planar image along a vessel as an image longitudinal display, and ii) a tomographic view as a cross-sectional view of a vessel; wherein the image capture unit is configured to capture the first image and the second three-dimensional image using sound waves or light waves; and wherein the image capture unit comprises an intravascular ultrasound or OCT device.
A roller assembly device or a trolley device for a cable transportation system, the device comprising: - a frame comprising two facing walls , which have two respective first holes having a common first axis (A1); - a pin that engages the first holes ; - a body mounted rotatably about the pin between the two facing walls of the frame , the body , having a hole , which has a second axis (A2) and houses the pin ; characterized in that the device comprises: - an auxiliary device configured to keep the first and the second axes (A1, A2) coincident in the absence of the pin . - a frame comprising two facing walls , which have two respective first holes having a common first axis (A1); - a pin that engages the first holes ; - a body mounted rotatably about the pin between the two facing walls of the frame , the body , having a hole , which has a second axis (A2) and houses the pin ; - an auxiliary device configured to keep the first and the second axes (A1, A2) coincident in the absence of the pin .
A battery production system comprising: a tray comprising a battery; a plurality of collectors configured to perform wireless communication with the tray; and a server configured to track a position of the tray and whether an impact occurs in the tray based on information received from the plurality of collectors, wherein the tray comprises a measurement unit configured to sense an impact and a communication unit configured to perform wireless communication with the plurality of collectors, the measurement unit is configured to reduce a measurement interval at a designated first rate upon sensing the impact, and the communication unit is configured to reduce an interval of the wireless communication at a designated second rate upon sensing the impact. a tray comprising a battery; a plurality of collectors configured to perform wireless communication with the tray; and a server configured to track a position of the tray and whether an impact occurs in the tray based on information received from the plurality of collectors, wherein the tray comprises a measurement unit configured to sense an impact and a communication unit configured to perform wireless communication with the plurality of collectors, the measurement unit is configured to reduce a measurement interval at a designated first rate upon sensing the impact, and the communication unit is configured to reduce an interval of the wireless communication at a designated second rate upon sensing the impact.
A process for washing a substrate fabric consisting a. providing a laundry detergent composition in powder form including a surfactant and a granulated foam control agent comprising an antifoam supported on a particulate carrier, wherein the antifoam comprises (a) a hydrophobic fluid organopolysiloxane containing phenyl groups bonded to silicon; said hydrophobic fluid organopolysiloxane having a surface tension of at least 27 mN/m and less than 40 mN/m when measured by drop the shape method at 25°C, and (b) a finely divided solid at 100°C hydrophobic filler dispersed in the hydrophobic fluid; b. washing the substrate in an aqueous medium with the detergent composition such that the detergent is applied to the substrate during the washing step, wherein the concentration of the surfactant in the aqueous medium during the washing step is above a critical micelle concentration whereby the antifoam does not affect foaming during the washing step; and c. rinsing the substrate with the applied detergent composition with water, wherein the concentration of the surfactant in the rinse water from the rinsing step is below the critical micelle concentration whereby foaming during the rinsing step is inhibited, and wherein the washing step and the rinsing step occur in hand washing applications. a. providing a laundry detergent composition in powder form including a surfactant and a granulated foam control agent comprising an antifoam supported on a particulate carrier, wherein the antifoam comprises (a) a hydrophobic fluid organopolysiloxane containing phenyl groups bonded to silicon; said hydrophobic fluid organopolysiloxane having a surface tension of at least 27 mN/m and less than 40 mN/m when measured by drop the shape method at 25°C, and (b) a finely divided solid at 100°C hydrophobic filler dispersed in the hydrophobic fluid; b. washing the substrate in an aqueous medium with the detergent composition such that the detergent is applied to the substrate during the washing step, wherein the concentration of the surfactant in the aqueous medium during the washing step is above a critical micelle concentration whereby the antifoam does not affect foaming during the washing step; and c. rinsing the substrate with the applied detergent composition with water, wherein the concentration of the surfactant in the rinse water from the rinsing step is below the critical micelle concentration whereby foaming during the rinsing step is inhibited, and wherein the washing step and the rinsing step occur in hand washing applications.
A site controller comprising a processor, a memory storing a parametrized model for control of a heating, ventilation, air-conditioning installation (3a - 3e, 4a - 4e, 5a - 5d) associated with the site , a sensor interface configured to establish a connection to at least one first sensor (5a - 5d), an actuator interface configured to establish a connection to at least one first actuator (3a - 3e, 4a - 4e), a cloud interface configured to establish a connection to a remote controller , the remote controller being located remotely from the site controller , the processor being configured to: read a first set of sensor signals from the at least one first sensor (5a - 5d) via the sensor interface; process the first set of sensor signals into a first set of measured values; transmit the first set of measured values to the remote controller via the cloud interface; characterised in that the processor is configured to: in consequence of the transmittal of the first set of measured values, receive a set of model parameters from the remote controller via the cloud interface; read the parametrized model from the memory; read at least one additional first sensor signal from the at least one first sensor (5a - 5d) via the sensor interface; compute at least one actuator setting signal from the at least one additional first sensor signal using the parametrized model and using the set of model parameters; and transmit the at least one actuator setting signal to the at least one first actuator (3a - 3e, 4a - 4e) via the actuator interface. read a first set of sensor signals from the at least one first sensor (5a - 5d) via the sensor interface; process the first set of sensor signals into a first set of measured values; transmit the first set of measured values to the remote controller via the cloud interface; characterised in that the processor is configured to: in consequence of the transmittal of the first set of measured values, receive a set of model parameters from the remote controller via the cloud interface; read the parametrized model from the memory; read at least one additional first sensor signal from the at least one first sensor (5a - 5d) via the sensor interface; compute at least one actuator setting signal from the at least one additional first sensor signal using the parametrized model and using the set of model parameters; and transmit the at least one actuator setting signal to the at least one first actuator (3a - 3e, 4a - 4e) via the actuator interface. in consequence of the transmittal of the first set of measured values, receive a set of model parameters from the remote controller via the cloud interface; read the parametrized model from the memory; read at least one additional first sensor signal from the at least one first sensor (5a - 5d) via the sensor interface; compute at least one actuator setting signal from the at least one additional first sensor signal using the parametrized model and using the set of model parameters; and transmit the at least one actuator setting signal to the at least one first actuator (3a - 3e, 4a - 4e) via the actuator interface.
A method of a mobile communication device for improving uplink transmission, comprising: receiving a transmission including a commanded modulation and coding scheme MCS, having a first robustness; transmitting a transmission of an encoded data block in accordance with the received commanded MCS; determining that no satisfactory response to the transmission of the encoded data block in accordance with the received commanded MCS was received within a predetermined period of time; determining an alternative MCS having a second robustness that is different from the received commanded MCS having first robustness when determining that no response to the transmission of the encoded data block in accordance with the received commanded MCS was received with the predetermined period of time wherein: each MCS belongs to one of a plurality of MCS families; the received commanded MCS and the alternative MCS are in a same MCS family, and the second robustness of the alternative MCS is more robust than the first robustness of the received commanded MCS; and preemptively transmitting a transmission of the encoded data block in accordance with the alternative MCS; determining that a response to the transmission of the encoded data block in accordance with the alternative MCS was received; transmitting a subsequent transmission of another encoded data block in accordance with the received commanded MCS. receiving a transmission including a commanded modulation and coding scheme MCS, having a first robustness; transmitting a transmission of an encoded data block in accordance with the received commanded MCS; determining that no satisfactory response to the transmission of the encoded data block in accordance with the received commanded MCS was received within a predetermined period of time; determining an alternative MCS having a second robustness that is different from the received commanded MCS having first robustness when determining that no response to the transmission of the encoded data block in accordance with the received commanded MCS was received with the predetermined period of time wherein: each MCS belongs to one of a plurality of MCS families; the received commanded MCS and the alternative MCS are in a same MCS family, and the second robustness of the alternative MCS is more robust than the first robustness of the received commanded MCS; and the received commanded MCS and the alternative MCS are in a same MCS family, and the second robustness of the alternative MCS is more robust than the first robustness of the received commanded MCS; and preemptively transmitting a transmission of the encoded data block in accordance with the alternative MCS; determining that a response to the transmission of the encoded data block in accordance with the alternative MCS was received; transmitting a subsequent transmission of another encoded data block in accordance with the received commanded MCS.
A system , comprising: a detector comprising an X-ray absorption layer , an electronics layer ; a cooling system configured to control temperature of the detector and prevent condensation of water vapor on the detector; wherein the X-ray absorption layer comprises a plurality of pixels, each pixel configured to count numbers of X-ray photons incident thereon whose energy falls in a plurality of bins, within a period of time; wherein the electronics layer comprises an electronic system configured to add the numbers of X-ray photons for the bins of the same energy range counted by all the pixels; characterized in that the cooling system comprises a chiller configured to lower temperature and moisture level of air, and a fan configured to blow the air that is cooled and dried to the detector; wherein the detector is not vacuum-encapsulated in a gas tight housing. a detector comprising an X-ray absorption layer , an electronics layer ; a cooling system configured to control temperature of the detector and prevent condensation of water vapor on the detector; wherein the X-ray absorption layer comprises a plurality of pixels, each pixel configured to count numbers of X-ray photons incident thereon whose energy falls in a plurality of bins, within a period of time; wherein the electronics layer comprises an electronic system configured to add the numbers of X-ray photons for the bins of the same energy range counted by all the pixels; characterized in that the cooling system comprises a chiller configured to lower temperature and moisture level of air, and a fan configured to blow the air that is cooled and dried to the detector; wherein the detector is not vacuum-encapsulated in a gas tight housing.
A resolver offset correction device of an eco-friendly vehicle, the resolver offset correction device, comprising: a resolver mounted on a shaft of a motor rotor; a resolver offset determination unit configured to receive a torque command T*, an inverse magnetic flux 1/λ, current commands id* and iq*, currents id and iq fed back by a motor , and d-axis and q-axis voltages Vd* and Vq* monitored upon current control to determine the resolver offset; and a torsion angle compensator configured to estimate a resolver offset deviation based on a calculated torsion angle of the shaft of the motor rotor for the motor to be operated based on the resolver offset deviation. a resolver mounted on a shaft of a motor rotor; a resolver offset determination unit configured to receive a torque command T*, an inverse magnetic flux 1/λ, current commands id* and iq*, currents id and iq fed back by a motor , and d-axis and q-axis voltages Vd* and Vq* monitored upon current control to determine the resolver offset; and a torsion angle compensator configured to estimate a resolver offset deviation based on a calculated torsion angle of the shaft of the motor rotor for the motor to be operated based on the resolver offset deviation.
A square baler comprising: a frame ; a feed system coupled to the frame ; an auger housing defining a volume therein, wherein the volume of the auger housing is configured to receive crop material from the feed system during operation; and the auger housing also defines an auger housing axis extending along the length of the auger housing proximate its center, and a first and a second auger at least partially positioned within the volume and rotatable with respect to the auger housing ; wherein the first and second auger define an auger inlet plane , the one or more augers include a first auger rotatable about a first axis , and a second auger rotatable about a second axis , and a plurality of strippers coupled to the auger housing and configured to engage crop material, wherein each stripper includes a leading edge , and wherein the leading edge of at least one stripper is positioned upstream of the auger inlet plane , characterized in that the first axis and the second axis extend lengthwise along the direction of the auger housing , and the auger inlet plane is oriented perpendicular to the axis auger housing axis and aligned with a front end of the first and second auger . a frame ; a feed system coupled to the frame ; an auger housing defining a volume therein, wherein the volume of the auger housing is configured to receive crop material from the feed system during operation; and the auger housing also defines an auger housing axis extending along the length of the auger housing proximate its center, and a first and a second auger at least partially positioned within the volume and rotatable with respect to the auger housing ; wherein the first and second auger define an auger inlet plane , the one or more augers include a first auger rotatable about a first axis , and a second auger rotatable about a second axis , and a plurality of strippers coupled to the auger housing and configured to engage crop material, wherein each stripper includes a leading edge , and wherein the leading edge of at least one stripper is positioned upstream of the auger inlet plane , characterized in that the first axis and the second axis extend lengthwise along the direction of the auger housing , and the auger inlet plane is oriented perpendicular to the axis auger housing axis and aligned with a front end of the first and second auger .
A medical fluid-flow regulating device (100, 100', 100", 400, 500, 600, 700) comprising a rotor (10, 10', 10", 410, 510, 610, 710) and a flow-regulator element (50, 50") engaged or engageable with each other via a coupling (30, 30', 30", 430, 530, 630, 730) that below a torque and/or fluidic-pressure threshold value allows the flow-regulator element (50, 50") to move upon rotation of the rotor (10, 10', 10", 410, 510, 610, 710) and thereby regulate fluid flow, characterised in that the medical fluid-flow regulating device (100, 100', 100", 400, 500, 600, 700) further comprises a blocking unit (40, 40', 40", 440, 540, 640, 740) that above the torque and/or fluidic-pressure threshold value irreversibly blocks the rotor (10, 10', 10", 410, 510, 610, 710) or the flow-regulator element (50, 50") or the coupling (30, 30', 30", 430, 530, 630, 730) between the rotor (10, 10', 10", 410, 510, 610, 710) and the flow-regulator element (50, 50"), wherein above the torque and/or the fluidic pressure threshold value, any one or more of the rotor (10, 10', 10", 410, 510, 610, 710), the flow-regulator element (50, 50"), the coupling (30, 30', 30", 430, 530, 630, 730), the blocking unit (40, 40', 40", 440, 540, 640, 740) or any elements thereof are displaceable with respect to each other resulting in irreversible engagement with the blocking unit (40, 40', 40", 440, 540, 640, 740) and therefore in permanent inactivation of the medical fluid-flow regulating device (100, 100', 100", 400, 500, 600, 700).