mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner comprising: an outdoor unit including a compressor ; a plurality of indoor units , each including an indoor expansion valve and an indoor heat exchanger ; a liquid-refrigerant connection pipe and a gas-refrigerant connection pipe that connect the outdoor unit and the indoor units to each other; a plurality of relay units , which are respectively connected to the indoor units and disposed in the liquid-refrigerant connection pipe and the gas-refrigerant connection pipe, each relay unit including a liquid relay shut-off valve in a liquid connection pipe connected to the liquid-refrigerant connection pipe and a gas relay shut-off valve in a gas connection pipe connected to the gas-refrigerant connection pipe , each relay unit being configured to individually switch an indoor heat exchanger so that the indoor heat exchanger is capable of functioning as an evaporator for refrigerant or a radiator for the refrigerant; refrigerant leakage detection means for detecting leakage of the refrigerant; and a control unit configured to control components of the outdoor unit, the indoor units, and the relay unit, characterized in that the control unit is configured to, when leakage of the refrigerant occurs, perform first shut-off control to open a liquid relay shut-off valve and close an indoor expansion valve and a gas relay shutoff valve on the basis of information from the refrigerant leakage detection means to separate a portion between the indoor expansion valve and the gas relay shut-off valve including the indoor heat exchanger from which refrigerant is likely to leak. an outdoor unit including a compressor ; a plurality of indoor units , each including an indoor expansion valve and an indoor heat exchanger ; a liquid-refrigerant connection pipe and a gas-refrigerant connection pipe that connect the outdoor unit and the indoor units to each other; a plurality of relay units , which are respectively connected to the indoor units and disposed in the liquid-refrigerant connection pipe and the gas-refrigerant connection pipe, each relay unit including a liquid relay shut-off valve in a liquid connection pipe connected to the liquid-refrigerant connection pipe and a gas relay shut-off valve in a gas connection pipe connected to the gas-refrigerant connection pipe , each relay unit being configured to individually switch an indoor heat exchanger so that the indoor heat exchanger is capable of functioning as an evaporator for refrigerant or a radiator for the refrigerant; refrigerant leakage detection means for detecting leakage of the refrigerant; and a control unit configured to control components of the outdoor unit, the indoor units, and the relay unit, characterized in that the control unit is configured to, when leakage of the refrigerant occurs, perform first shut-off control to open a liquid relay shut-off valve and close an indoor expansion valve and a gas relay shutoff valve on the basis of information from the refrigerant leakage detection means to separate a portion between the indoor expansion valve and the gas relay shut-off valve including the indoor heat exchanger from which refrigerant is likely to leak.
A measurement system for an aircraft gas turbine engine, the measurement system comprising: a probe comprising: a probe body extending lengthwise along a probe axis , the probe body defining an internal cavity of the probe; a plurality of sensor inlet ports extending through the probe body and configured to receive a sensed fluid flow, the plurality of sensor inlet ports axially spaced along the probe axis ; and characterized by a plurality of probe conduits , each probe conduit of the plurality of probe conduits coupled to a respective sensor inlet port of the plurality of sensor inlet ports and extending from the respective sensor inlet port to an exterior of the probe body ; and by the measurement system comprising a heated-gas source in fluid communication with the probe and configured to supply a heated gas flow to one or both of: the plurality of sensor inlet ports via the plurality of probe conduits ; and an interior of the probe body outside of the plurality of probe conduits . a probe comprising: a probe body extending lengthwise along a probe axis , the probe body defining an internal cavity of the probe; a plurality of sensor inlet ports extending through the probe body and configured to receive a sensed fluid flow, the plurality of sensor inlet ports axially spaced along the probe axis ; and characterized by a plurality of probe conduits , each probe conduit of the plurality of probe conduits coupled to a respective sensor inlet port of the plurality of sensor inlet ports and extending from the respective sensor inlet port to an exterior of the probe body ; and by the measurement system comprising a probe body extending lengthwise along a probe axis , the probe body defining an internal cavity of the probe; a plurality of sensor inlet ports extending through the probe body and configured to receive a sensed fluid flow, the plurality of sensor inlet ports axially spaced along the probe axis ; and characterized by a plurality of probe conduits , each probe conduit of the plurality of probe conduits coupled to a respective sensor inlet port of the plurality of sensor inlet ports and extending from the respective sensor inlet port to an exterior of the probe body ; and by the measurement system comprising a heated-gas source in fluid communication with the probe and configured to supply a heated gas flow to one or both of: the plurality of sensor inlet ports via the plurality of probe conduits ; and an interior of the probe body outside of the plurality of probe conduits . the plurality of sensor inlet ports via the plurality of probe conduits ; and an interior of the probe body outside of the plurality of probe conduits .
A computer-implemented method for initialising keyframes in a map of a 3-D environment, for visual-inertial localisation in the environment and/or mapping of the environment, the method comprising: obtaining visual data generated at a mobile device, comprising a series of image frames captured by a camera of the mobile device; obtaining inertial data generated at the mobile device, comprising at least one or any combination of two or more of: accelerometer, gyroscope and compass measurements; selecting one or more of the image frames to be keyframes; and initialising one or more new keyframes in the map from the respective selected one or more image frames, wherein the selecting is based at least in part on the inertial data, wherein the map includes a plurality of existing keyframes, and each existing keyframe has associated with it a plurality of landmarks, each landmark being a detected visual feature that is present in two or more keyframes and each landmark defining a 3-D position for the respective visual feature, the method comprising extracting visual features from an image frame in the series of image frames, and wherein the selecting includes comparing the extracted visual features of said image frame with the landmarks of the preceding keyframe. obtaining visual data generated at a mobile device, comprising a series of image frames captured by a camera of the mobile device; obtaining inertial data generated at the mobile device, comprising at least one or any combination of two or more of: accelerometer, gyroscope and compass measurements; selecting one or more of the image frames to be keyframes; and initialising one or more new keyframes in the map from the respective selected one or more image frames, wherein the selecting is based at least in part on the inertial data, wherein the map includes a plurality of existing keyframes, and each existing keyframe has associated with it a plurality of landmarks, each landmark being a detected visual feature that is present in two or more keyframes and each landmark defining a 3-D position for the respective visual feature, the method comprising extracting visual features from an image frame in the series of image frames, and wherein the selecting includes comparing the extracted visual features of said image frame with the landmarks of the preceding keyframe.
A polymer comprising: a monomer unit (A) represented by general formula (I), shown below, where, in general formula (I), R 1 is a chlorine atom, R 2 is an unsubstituted alkyl group or a fluorine atom-substituted alkyl group, and R 3 and R 4 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different; and a monomer unit (B) represented by general formula (II), shown below, where, in general formula (II), R 5 , R 6 , R 8 , and R 9 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, R 7 is a hydrogen atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group, p and q are each an integer of at least 0 and not more than 5, and p + q = 5, wherein at least one of the monomer unit (A) and the monomer unit (B) includes at least one fluorine atom; the polymer has a weight average molecular weight of at least 10,000 and not more than 150,000; and the polymer has a molecular weight distribution (Mw/Mn) of at least 1.30 and not more than 1.60. a monomer unit (A) represented by general formula (I), shown below, where, in general formula (I), R 1 is a chlorine atom, R 2 is an unsubstituted alkyl group or a fluorine atom-substituted alkyl group, and R 3 and R 4 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different; and a monomer unit (B) represented by general formula (II), shown below, where, in general formula (II), R 5 , R 6 , R 8 , and R 9 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, R 7 is a hydrogen atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group, p and q are each an integer of at least 0 and not more than 5, and p + q = 5, wherein at least one of the monomer unit (A) and the monomer unit (B) includes at least one fluorine atom; the polymer has a weight average molecular weight of at least 10,000 and not more than 150,000; and the polymer has a molecular weight distribution (Mw/Mn) of at least 1.30 and not more than 1.60.
A multi-position shuttle valve assembly , comprising: a housing comprising at least one flow path, the at least one flow path configured to receive steam from a froth heater of an aircraft brewing apparatus; a froth wand fitting ; and a shuttle , a first portion of the shuttle configured to extrude from a front surface of the housing, a second portion of the shuttle configured to fit within a shuttle cavity defined by one or more interior surfaces of the housing, the at least one flow path configured to direct the steam to the defined cavity, the shuttle configured to divert the steam to the froth wand fitting when the shuttle is in a first position, the shuttle configured to divert the steam via the first portion of the shuttle to a froth module when a froth module is installed on the housing when the shuttle is in a second position, a translation of the shuttle between the first position and the second position being dependent on the froth module being installed on the housing. a housing comprising at least one flow path, the at least one flow path configured to receive steam from a froth heater of an aircraft brewing apparatus; a froth wand fitting ; and a shuttle , a first portion of the shuttle configured to extrude from a front surface of the housing, a second portion of the shuttle configured to fit within a shuttle cavity defined by one or more interior surfaces of the housing, the at least one flow path configured to direct the steam to the defined cavity, the shuttle configured to divert the steam to the froth wand fitting when the shuttle is in a first position, the shuttle configured to divert the steam via the first portion of the shuttle to a froth module when a froth module is installed on the housing when the shuttle is in a second position, a translation of the shuttle between the first position and the second position being dependent on the froth module being installed on the housing.
An anti-fouling lighting panel for mounting over a surface to protect the surface against biofouling while the surface is submerged in water, comprising: a light source arrangement comprising a plurality of portions; a water sensor for sensing water thereby to detect whether or not each portion of the light source arrangement is submerged in water; and a controller for controlling each portion of the light source arrangement in dependence on the water sensor output in respect of the respective portion, wherein the light source arrangement comprises a plurality of rows of light sources, each row comprising one of said portions of the light source arrangement, wherein a water sensor is provided for each row; and characterized in that the water sensor is a non-contact water sensor, and it comprises: a capacitive sensor, comprising a sense pad, a ground electrode, and a capacitance readout circuit; or an inductive sensor, comprising an oscillator circuit, a sensor coil, a ground shield having an opening which is exposed to water when the water sensor is submerged, and a frequency detector circuit. a light source arrangement comprising a plurality of portions; a water sensor for sensing water thereby to detect whether or not each portion of the light source arrangement is submerged in water; and a controller for controlling each portion of the light source arrangement in dependence on the water sensor output in respect of the respective portion, wherein the light source arrangement comprises a plurality of rows of light sources, each row comprising one of said portions of the light source arrangement, wherein a water sensor is provided for each row; and characterized in that the water sensor is a non-contact water sensor, and it comprises: a capacitive sensor, comprising a sense pad, a ground electrode, and a capacitance readout circuit; or an inductive sensor, comprising an oscillator circuit, a sensor coil, a ground shield having an opening which is exposed to water when the water sensor is submerged, and a frequency detector circuit. a capacitive sensor, comprising a sense pad, a ground electrode, and a capacitance readout circuit; or an inductive sensor, comprising an oscillator circuit, a sensor coil, a ground shield having an opening which is exposed to water when the water sensor is submerged, and a frequency detector circuit.
Method for detecting avian necrotic enteritis, the method comprising: a) collecting sample material of a specific avian or of a specific avian population at consecutive points in time; b) determining the amount of a first marker and a second marker contained in the sample material; and c) determining the ratio of the first marker to the second marker contained in the sample material; wherein the first marker is netB and the second marker is cpa; and wherein an increase in the ratio of the first marker to the second marker in the analyzed sample material over time is an indication of avian necrotic enteritis. a) collecting sample material of a specific avian or of a specific avian population at consecutive points in time; b) determining the amount of a first marker and a second marker contained in the sample material; and c) determining the ratio of the first marker to the second marker contained in the sample material;
A method for managing presence information based on position information by a presence system , comprising: registering , in the presence system , presence information corresponding to a presentity , wherein the presence information comprises communication intention data that indicates whether communication is possible or impossible at at least one respective position; receiving , in the presence system , current position information that indicates a current position of the presentity ; and providing the current presence information corresponding to the current position of the presentity to at least one watcher that requests the current presence information of the presentity based on the current position information and the registered presence information; wherein the communication intention data is determined according to whether the current position information corresponds to the at least one respective position for a predetermined length of time. registering , in the presence system , presence information corresponding to a presentity , wherein the presence information comprises communication intention data that indicates whether communication is possible or impossible at at least one respective position; receiving , in the presence system , current position information that indicates a current position of the presentity ; and providing the current presence information corresponding to the current position of the presentity to at least one watcher that requests the current presence information of the presentity based on the current position information and the registered presence information; wherein the communication intention data is determined according to whether the current position information corresponds to the at least one respective position for a predetermined length of time.
Apparatus for the fitting and dismantling of aircraft landing gear , with - an actuating device , and - a receiving frame which comprises adjustable receiving elements for receiving different aircraft landing gear, the actuating device comprising an actuating arm which is attached adjustably on a substructure and is configured to couple by means of a coupling adapter to the receiving frame and to move the latter by means of rough positioning elements and precision positioning elements into a desired landing gear mounting position, characterized in that the apparatus has a counterweight which is configured such that it can be moved out in the opposite direction to an arm movement of the actuating arm . - an actuating device , and - a receiving frame which comprises adjustable receiving elements for receiving different aircraft landing gear,
A display system comprising: a display ; a removable lens removably coupleable to the display ; a lens detection sensor to detect the removable lens coupled to the display; and a controller configured to: determine lens information of the removable lens ; receive user information ; compare the lens information to the user information to determine lens compatibility; and provide an indication of compatibility of the removable lens with the user information . a display ; a removable lens removably coupleable to the display ; a lens detection sensor to detect the removable lens coupled to the display; and a controller configured to: determine lens information of the removable lens ; receive user information ; compare the lens information to the user information to determine lens compatibility; and provide an indication of compatibility of the removable lens with the user information . determine lens information of the removable lens ; receive user information ; compare the lens information to the user information to determine lens compatibility; and provide an indication of compatibility of the removable lens with the user information .
A process pressure transmitter , comprising: a transmitter housing; a liquid detector coupled to the transmitter housing, comprising: a temperature sensor configured to generate signals indicative of a presence of liquid within the transmitter housing; communication circuitry disposed within electronic housing being able to be coupled to a process communication loop through conductors , whereas by virtue of coupling to the process communication loop , the communication circuitry allows the process pressure transmitter to communicate in accordance with an industry-standard process communication protocol; and a controller coupled to the liquid detector configured to receive the generated signals, determine the presence of liquid within the transmitter housing based on the received signals, and generate an output indicative of the determined presence of liquid within the transmitter housing; wherein the liquid detector further comprises: a heating element coupled to the temperature sensor configured to receive current from the controller and generate heat for the temperature sensor ; wherein the heating element and the temperature sensor are the same physical structure, wherein the heating element comprises a resistor and the temperature sensor comprises a diode connected in parallel within an electrical circuit of the liquid detector. a transmitter housing; a liquid detector coupled to the transmitter housing, comprising: a temperature sensor configured to generate signals indicative of a presence of liquid within the transmitter housing; communication circuitry disposed within electronic housing being able to be coupled to a process communication loop through conductors , whereas by virtue of coupling to the process communication loop , the communication circuitry allows the process pressure transmitter to communicate in accordance with an industry-standard process communication protocol; and a controller coupled to the liquid detector configured to receive the generated signals, determine the presence of liquid within the transmitter housing based on the received signals, and generate an output indicative of the determined presence of liquid within the transmitter housing; wherein the liquid detector further comprises: a heating element coupled to the temperature sensor configured to receive current from the controller and generate heat for the temperature sensor ; wherein the heating element and the temperature sensor are the same physical structure, wherein the heating element comprises a resistor and the temperature sensor comprises a diode connected in parallel within an electrical circuit of the liquid detector. a heating element coupled to the temperature sensor configured to receive current from the controller and generate heat for the temperature sensor ; wherein the heating element and the temperature sensor are the same physical structure, wherein the heating element comprises a resistor and the temperature sensor comprises a diode connected in parallel within an electrical circuit of the liquid detector.
A method for transmitting, by a terminal, a sounding reference signal, SRS, through an unlicensed band, comprising: receiving a downlink control information, DCI, for scheduling uplink multiple subframes comprising up to four subframes from a base station; determining an SRS subframe for a SRS transmission among the uplink multiple subframes on the basis of SRS transmission position information of 2 bits included in the DCI received from the base station; and transmitting the SRS in the SRS subframe, wherein the SRS transmission position information of 2 bits indicates that the SRS is not transmitted, or the SRS is configured in a first subframe of the uplink multiple subframes, or the SRS is configured in a second subframe of the uplink multiple subframes, or the SRS is configured in a last subframe of the uplink multiple subframes. receiving a downlink control information, DCI, for scheduling uplink multiple subframes comprising up to four subframes from a base station; determining an SRS subframe for a SRS transmission among the uplink multiple subframes on the basis of SRS transmission position information of 2 bits included in the DCI received from the base station; and transmitting the SRS in the SRS subframe, wherein the SRS transmission position information of 2 bits indicates that the SRS is not transmitted, or the SRS is configured in a first subframe of the uplink multiple subframes, or the SRS is configured in a second subframe of the uplink multiple subframes, or the SRS is configured in a last subframe of the uplink multiple subframes.