mhurhangee/patent-ind-claim-en huggingface dataset:
A control method for an air conditioner, the air conditioner comprising a compressor and an outdoor unit, characterized in that the control method comprises: acquiring suction temperature of the outdoor unit; and operating the compressor at a decreased frequency if the suction temperature of the outdoor unit is lower than a first preset temperature; maintaining the operating frequency of the compressor unchanged if the suction temperature of the outdoor unit is higher than or equal to the first preset temperature and lower than or equal to a second preset temperature, operating the compressor at an increased frequency if the suction temperature of the outdoor unit is higher than the second preset temperature and lower than or equal to a third preset temperature, wherein the first preset temperature is lower than the second preset temperature and the second preset temperature is lower than the third preset temperature. acquiring suction temperature of the outdoor unit; and operating the compressor at a decreased frequency if the suction temperature of the outdoor unit is lower than a first preset temperature; maintaining the operating frequency of the compressor unchanged if the suction temperature of the outdoor unit is higher than or equal to the first preset temperature and lower than or equal to a second preset temperature, operating the compressor at an increased frequency if the suction temperature of the outdoor unit is higher than the second preset temperature and lower than or equal to a third preset temperature, wherein the first preset temperature is lower than the second preset temperature and the second preset temperature is lower than the third preset temperature.
An anion exchange stationary phase formed by a method comprising: reacting a polyepoxide with a primary amine to form a base condensation polymer layer on a negatively charged substrate particle; carrying out a number of reaction cycles on the base condensation polymer layer to form a crosslinked ethanolamine polymer layer, in which the number of reaction cycles ranges from about three to about ten and each reaction cycle includes a polyepoxide treatment followed by an ethanolamine treatment; and reacting the crosslinked ethanolamine polymer layer with a glycidol. reacting a polyepoxide with a primary amine to form a base condensation polymer layer on a negatively charged substrate particle; carrying out a number of reaction cycles on the base condensation polymer layer to form a crosslinked ethanolamine polymer layer, in which the number of reaction cycles ranges from about three to about ten and each reaction cycle includes a polyepoxide treatment followed by an ethanolamine treatment; and reacting the crosslinked ethanolamine polymer layer with a glycidol.
An eyewear cleaning device, comprising: a wash chamber ; a support bracket located within the wash chamber , the support bracket being configured to support eyewear within the wash chamber ; at least one nozzle located within the wash chamber and configured to direct wash fluid onto the eyewear when the eyewear is supported by the support bracket ; an input device configured to receive input from a user of the eyewear cleaning device; and a controller configured to: receive an input signal from the input device indicating a change in the orientation of the support bracket ; and based on the received input signal, change the orientation of the support bracket relative to the at least one nozzle while the nozzle is expelling wash fluid; characterised in that : the support bracket comprises: a support ; two bars protruding in generally opposite directions from the support , each of the two bars comprising a loop disposed at one end of the bar, each of the loops being configured to allow the corresponding arm of the eyewear to pass through the loop when the eyewear is supported by the support bracket ; and a bracket bar oriented generally perpendicular to the bars and configured to support a nosepiece of the eyewear when the eyewear is supported by the support bracket. a wash chamber ; a support bracket located within the wash chamber , the support bracket being configured to support eyewear within the wash chamber ; at least one nozzle located within the wash chamber and configured to direct wash fluid onto the eyewear when the eyewear is supported by the support bracket ; an input device configured to receive input from a user of the eyewear cleaning device; and a controller configured to: receive an input signal from the input device indicating a change in the orientation of the support bracket ; and based on the received input signal, change the orientation of the support bracket relative to the at least one nozzle while the nozzle is expelling wash fluid; receive an input signal from the input device indicating a change in the orientation of the support bracket ; and based on the received input signal, change the orientation of the support bracket relative to the at least one nozzle while the nozzle is expelling wash fluid; a support ; two bars protruding in generally opposite directions from the support , each of the two bars comprising a loop disposed at one end of the bar, each of the loops being configured to allow the corresponding arm of the eyewear to pass through the loop when the eyewear is supported by the support bracket ; and a bracket bar oriented generally perpendicular to the bars and configured to support a nosepiece of the eyewear when the eyewear is supported by the support bracket.
An apparatus, comprising: a tunable laser , a wavemeter , and means for performing analog operations; wherein the tunable laser is configured to produce a laser output, wherein the tunable laser includes a set of tunable elements configured to be tuned based on a set of laser tuning signals, wherein the set of tunable elements includes at least two tunable elements and the set of laser tuning signals includes at least two laser tuning signals; characterized by that the wavemeter includes at least one interferometer configured to provide at least one set of I/Q outputs forming a set of wavemeter electrical signals based on the laser output and to provide the set of wavemeter electrical signals to the means for performing analog operations; and wherein the means for performing analog operations is configured to control the set of laser tuning signals based on the set of wavemeter electrical signals so as to analog control an output wavelength of the laser. a tunable laser , a wavemeter , and means for performing analog operations; wherein the tunable laser is configured to produce a laser output, wherein the tunable laser includes a set of tunable elements configured to be tuned based on a set of laser tuning signals, wherein the set of tunable elements includes at least two tunable elements and the set of laser tuning signals includes at least two laser tuning signals; characterized by that the wavemeter includes at least one interferometer configured to provide at least one set of I/Q outputs forming a set of wavemeter electrical signals based on the laser output and to provide the set of wavemeter electrical signals to the means for performing analog operations; and wherein the means for performing analog operations is configured to control the set of laser tuning signals based on the set of wavemeter electrical signals so as to analog control an output wavelength of the laser.
A radio frequency, RF, coil device comprising: a plurality of RF coil elements configured to generate an RF magnetic field; a support member configured to support the plurality of RF coil elements; a driver and controller configured to drive and control the plurality of RF coil elements; and a probe configured to measure a strength of an RF magnetic field generated by the plurality of RF coil elements, wherein the support member has a cylindrical shape and is configured to be disposed on an inner surface of a cylindrical housing of a magnetic resonance imaging, MRI, apparatus; and the plurality of RF coil elements are arranged along a circumference of the support member, wherein each of the plurality of RF coil elements comprises a plurality of sub-elements arranged in a length direction of the cylindrical housing; and the support member is further configured to support the plurality of sub-elements so that the sub-elements of each of the plurality of RF coil elements are independently movable in the length direction; the driver and the controller is further configured to independently control a magnitude and a phase of power input to the plurality of RF coil elements; and the driver and the controller is further configured to predict a specific absorption rate, SAR, of a target exposed to electromagnetic waves when performing magnetic resonance imaging of the target positioned within the cylindrical housing, based on the strength of the RF magnetic field measured by the probe. a plurality of RF coil elements configured to generate an RF magnetic field; a support member configured to support the plurality of RF coil elements; a driver and controller configured to drive and control the plurality of RF coil elements; and a probe configured to measure a strength of an RF magnetic field generated by the plurality of RF coil elements, wherein the support member has a cylindrical shape and is configured to be disposed on an inner surface of a cylindrical housing of a magnetic resonance imaging, MRI, apparatus; and the plurality of RF coil elements are arranged along a circumference of the support member, wherein each of the plurality of RF coil elements comprises a plurality of sub-elements arranged in a length direction of the cylindrical housing; and the support member is further configured to support the plurality of sub-elements so that the sub-elements of each of the plurality of RF coil elements are independently movable in the length direction; the driver and the controller is further configured to independently control a magnitude and a phase of power input to the plurality of RF coil elements; and the driver and the controller is further configured to predict a specific absorption rate, SAR, of a target exposed to electromagnetic waves when performing magnetic resonance imaging of the target positioned within the cylindrical housing, based on the strength of the RF magnetic field measured by the probe.
An engine control device for controlling a cylinder direct fuel injection type spark ignition engine provided with a fuel injection valve configured to directly inject fuel into a cylinder and an ignition plug configured to perform spark ignition for a gas mixture inside the cylinder, the device comprising: a controller configured to: retard an ignition timing is-in a case where warm-up of an exhaust gas purifying catalyst inserted into an exhaust passage is required, and increase a valve overlap period as a piston crown surface temperature increases to a predetermined temperature and decrease the valve overlap period when the piston crown surface temperature increases beyond the predetermined temperature during the retardation of the ignition timing. retard an ignition timing is-in a case where warm-up of an exhaust gas purifying catalyst inserted into an exhaust passage is required, and increase a valve overlap period as a piston crown surface temperature increases to a predetermined temperature and decrease the valve overlap period when the piston crown surface temperature increases beyond the predetermined temperature during the retardation of the ignition timing.
A chemical conversion treatment agent for a metal material, for forming a coating on and/or over a surface of the metal material, the chemical conversion treatment agent comprising: an ion containing at least one metal selected from the group consisting of titanium, zirconium and hafnium; a fluorine ion; at least one selected from the group consisting of an alkanesulfonic acid, an alkanolsulfonic acid, and ions thereof; and an ion containing trivalent iron, wherein the blending amount of a component source of the ion containing trivalent iron falls within the range of 5 mg/kg or more and 2000 mg/kg or less in iron equivalent mass, characterized in that the component source of the ion containing trivalent iron is at least one selected from the group consisting of iron (III) nitrate, iron (III) sulfate, and iron (III) chloride. an ion containing at least one metal selected from the group consisting of titanium, zirconium and hafnium; a fluorine ion; at least one selected from the group consisting of an alkanesulfonic acid, an alkanolsulfonic acid, and ions thereof; and an ion containing trivalent iron, wherein the blending amount of a component source of the ion containing trivalent iron falls within the range of 5 mg/kg or more and 2000 mg/kg or less in iron equivalent mass, characterized in that the component source of the ion containing trivalent iron is at least one selected from the group consisting of iron (III) nitrate, iron (III) sulfate, and iron (III) chloride.
A method for determining the properties of a fiber material at a workstation of a textile machine , particularly an open-end or air-jet spinning machine, the textile machine comprising a plurality of workstations , and each workstation comprising at least one drive , namely an electric drive, by means of which at least one processing means of the particular workstation associated with the drive is driven for processing the fiber material , wherein at least one property of the fiber material processed by means of the processing means associated with the drive is determined using a measurement of a load parameter of the at least one drive characterized in that the load parameter is a load angle (α) and that after the determination of the at least one property of the fiber material , parameters for controlling the drives and/or the treatment means are adapted. the textile machine comprising a plurality of workstations , and each workstation comprising at least one drive , namely an electric drive, by means of which at least one processing means of the particular workstation associated with the drive is driven for processing the fiber material , wherein at least one property of the fiber material processed by means of the processing means associated with the drive is determined using a measurement of a load parameter of the at least one drive characterized in that the load parameter is a load angle (α) and that after the determination of the at least one property of the fiber material , parameters for controlling the drives and/or the treatment means are adapted.
A nacelle assembly for a gas turbine engine comprising: a core nacelle defined about an engine centerline axis; a fan nacelle assembly mounted at least partially around the core nacelle to define a fan bypass flow path, the fan nacelle assembly including a fan duct nacelle section and a fan nozzle nacelle section moveable relative to the fan duct nacelle section ; a thrust reverser system including a plurality of pivot doors movable relative to the fan nacelle assembly between a stowed position and a deployed position; a variable area fan nozzle in communication with the fan bypass flow path; a first actuator mounted to the fan duct nacelle section to actuate the pivot door thrust reverser system, wherein the first actuator includes a first housing mounted to the fan duct nacelle section forward of the pivot doors and a first rod that extends outwardly of the first housing to a distal end that is pivotally coupled to at least one pivot door of the plurality of pivot doors; and a second actuator mounted to the fan duct nacelle section to move the fan nozzle nacelle section relative to the fan duct nacelle section to vary a fan nozzle exit area, and wherein the second actuator includes a second housing mounted to the fan duct nacelle section and a second rod that extends outwardly of the second housing to a distal end that is coupled to the fan nozzle nacelle section, and wherein the second housing is positioned aft of the pivot doors and aft of the first actuator. a core nacelle defined about an engine centerline axis; a fan nacelle assembly mounted at least partially around the core nacelle to define a fan bypass flow path, the fan nacelle assembly including a fan duct nacelle section and a fan nozzle nacelle section moveable relative to the fan duct nacelle section ; a thrust reverser system including a plurality of pivot doors movable relative to the fan nacelle assembly between a stowed position and a deployed position; a variable area fan nozzle in communication with the fan bypass flow path; a first actuator mounted to the fan duct nacelle section to actuate the pivot door thrust reverser system, wherein the first actuator includes a first housing mounted to the fan duct nacelle section forward of the pivot doors and a first rod that extends outwardly of the first housing to a distal end that is pivotally coupled to at least one pivot door of the plurality of pivot doors; and a second actuator mounted to the fan duct nacelle section to move the fan nozzle nacelle section relative to the fan duct nacelle section to vary a fan nozzle exit area, and wherein the second actuator includes a second housing mounted to the fan duct nacelle section and a second rod that extends outwardly of the second housing to a distal end that is coupled to the fan nozzle nacelle section, and wherein the second housing is positioned aft of the pivot doors and aft of the first actuator.
A liquid cartridge configured to be inserted into an attachment portion of a printing device in an insertion direction crossing a gravitational direction and to be attached to the attachment portion in an upright posture, the attachment portion including a contact , the liquid cartridge comprising: a liquid chamber storing liquid therein; a liquid passage in communication with the liquid chamber and extending frontward in the insertion direction from the liquid chamber; a substrate having a first surface and a second surface opposite to each other, the first surface comprising a first region and a second region , the first region facing upward in the upright posture, the second region being positioned lower than the first region in the upright posture; a contact formed on the first region of the first surface, the contact of the cartridge being electrically connectable to the contact of the device; and a memory electrically connected to the contact of the cartridge, characterised in that the memory is mounted on the substrate at a position lower than the contact of the cartridge in the upright posture. a liquid chamber storing liquid therein; a liquid passage in communication with the liquid chamber and extending frontward in the insertion direction from the liquid chamber; a substrate having a first surface and a second surface opposite to each other, the first surface comprising a first region and a second region , the first region facing upward in the upright posture, the second region being positioned lower than the first region in the upright posture; a contact formed on the first region of the first surface, the contact of the cartridge being electrically connectable to the contact of the device; and a memory electrically connected to the contact of the cartridge, characterised in that the memory is mounted on the substrate at a position lower than the contact of the cartridge in the upright posture.
A device for supporting a rear region of a driver's cab of a commercial vehicle, having: a support , preferably transverse support; a bracket which is designed for fastening to a vehicle frame of the commercial vehicle; a fastening device which is designed for fastening to the driver's cab and is attachable, preferably in an articulated and/or lockable manner, to the support and/or the bracket for supporting the driver's cab ; characterized by a crash element which connects a connecting portion of the support to a connecting portion of the bracket and is arranged between the connecting portion of the support and the connecting portion of the bracket with respect to a longitudinal axis of the commercial vehicle. a support , preferably transverse support; a bracket which is designed for fastening to a vehicle frame of the commercial vehicle; a fastening device which is designed for fastening to the driver's cab and is attachable, preferably in an articulated and/or lockable manner, to the support and/or the bracket for supporting the driver's cab ; characterized by a crash element which connects a connecting portion of the support to a connecting portion of the bracket and is arranged between the connecting portion of the support and the connecting portion of the bracket with respect to a longitudinal axis of the commercial vehicle.
An injection unit comprising: a cylinder ; a screw which is disposed to be rotatable and movable forward or rearward in the cylinder ; rotating means for rotating the screw ; and forward/rearward movement means for moving the screw forward or rearward, wherein the screw includes a screw head , a seal ring , and a flight screw which integrally rotate with each other, and a non-co-rotation backflow prevention ring , characterized in that the screw head includes a head groove portion which is spirally formed in a direction opposite to a direction of a spiral groove which is formed along a flight of the flight screw . a cylinder ; a screw which is disposed to be rotatable and movable forward or rearward in the cylinder ; rotating means for rotating the screw ; and forward/rearward movement means for moving the screw forward or rearward, wherein the screw includes a screw head , a seal ring , and a flight screw which integrally rotate with each other, and a non-co-rotation backflow prevention ring , characterized in that the screw head includes a head groove portion which is spirally formed in a direction opposite to a direction of a spiral groove which is formed along a flight of the flight screw .