mhurhangee/patent-ind-claim-en huggingface dataset:
A tray for a mass transfer column , the tray being adapted to allow contact between a liquid phase and a gas phase, the tray comprising: - a tray inlet via which the tray is fed with the liquid phase; - a tray outlet via which the liquid phase drains from the tray ; - first guide means for guiding the liquid phase, the first guide means forming a first path along which the liquid phase flows from the tray feed to the tray drain ; - an inlet for a tempering fluid; - an outlet for the tempering fluid; and - second guide means for guiding the tempering fluid for heat exchange with the liquid phase, the second guide means forming a second flow path overlapping with the first flow path and leading from the inlet to the outlet , wherein: - the first guide means for guiding the liquid phase form the first course path with at least two sub-paths which are arranged concentrically with respect to one another and each run in the form of a pitch circle; and wherein - the tempering fluid flows along the second path in at least one of the at least two sub-paths in a direction opposite to the direction of flow of the liquid phase - wherein the liquid phase flows in a first of the at least two sub-paths along one direction of rotation and in a second sub-path in the opposite direction of rotation. - a tray inlet via which the tray is fed with the liquid phase; - a tray outlet via which the liquid phase drains from the tray ; - first guide means for guiding the liquid phase, the first guide means forming a first path along which the liquid phase flows from the tray feed to the tray drain ; - an inlet for a tempering fluid; - an outlet for the tempering fluid; and - second guide means for guiding the tempering fluid for heat exchange with the liquid phase, the second guide means forming a second flow path overlapping with the first flow path and leading from the inlet to the outlet , - the first guide means for guiding the liquid phase form the first course path with at least two sub-paths which are arranged concentrically with respect to one another and each run in the form of a pitch circle; and wherein - the tempering fluid flows along the second path in at least one of the at least two sub-paths in a direction opposite to the direction of flow of the liquid phase - wherein the liquid phase flows in a first of the at least two sub-paths along one direction of rotation and in a second sub-path in the opposite direction of rotation.
A computer-implemented method of collecting aircraft data, comprising: receiving, by one or more computing devices located on a first aircraft , a first transmission from a second aircraft , wherein the first transmission comprises a first set of data associated with the second aircraft ; determining, by the one or more computing devices , a communication time period during which the first aircraft can receive data sent from the second aircraft , wherein the communication time period is determined based at least in part on the first set of data, a velocity associated with the first aircraft , a velocity associated with the second aircraft , and a distance between the first and second aircraft; sending, by the one or more computing devices , a second transmission to the second aircraft , wherein the second transmission comprises a second set of data indicative of at least the communication time period; and receiving, by the one or more computing devices , one or more third transmissions from the second aircraft , wherein the one or more third transmissions comprise a third set of data indicative of one or more parameters associated with the second aircraft , and wherein a size of the third set of data is based at least in part on the communication time period. receiving, by one or more computing devices located on a first aircraft , a first transmission from a second aircraft , wherein the first transmission comprises a first set of data associated with the second aircraft ; determining, by the one or more computing devices , a communication time period during which the first aircraft can receive data sent from the second aircraft , wherein the communication time period is determined based at least in part on the first set of data, a velocity associated with the first aircraft , a velocity associated with the second aircraft , and a distance between the first and second aircraft; sending, by the one or more computing devices , a second transmission to the second aircraft , wherein the second transmission comprises a second set of data indicative of at least the communication time period; and receiving, by the one or more computing devices , one or more third transmissions from the second aircraft , wherein the one or more third transmissions comprise a third set of data indicative of one or more parameters associated with the second aircraft , and wherein a size of the third set of data is based at least in part on the communication time period.
Device (100; 300; 303; 1400) to prevent the closing of a door (600; 900), comprising a blocking means and an actuating means , wherein the blocking means is adapted to be attached to the door (600; 900) and, in the attached state in a blocking position, to prevent the closing of the door (600; 900) and, in a releasing position, to enable the closing of the door (600; 900), wherein the actuating means is adapted to trigger a movement of the blocking means from the blocking position into the releasing position, wherein the device (100; 300; 303; 1400) comprises a fixing means (1500; 1700) which is able to be moved from a first position into a second and vice versa, and is adapted, in the first position, to hold the blocking means in the releasing position, characterised in that the device (100; 300; 303; 1400) comprises a triggering means (1502; 1702) which is adapted to impact against the door frame (601; 901) on closing of the door (600; 900) and to trigger the movement of the fixing means from the first into the second position.
Method for automated defect detection during borescoping of an engine, in which a video borescope is inserted into an engine in such a way that, during rotation of an engine shaft , the engine blades of an engine stage which are secured to said engine shaft are moved successively through the image region of the video borescope , wherein the following steps are carried out: - Identifying a possible defect on an engine blade by image recognition on the basis of a frame of the video borescope; - Detecting the movement of the engine blades in the image region of the video borescope by comparing in each case two successive frames ; - Tracking the possible defect on the video image along the detected movement by optical image recognition on the basis of the frames used for detecting the movement; - If the trace of a possible defect on the video image corresponds to the detected movement in terms of direction and speed over a predefined length: identifying the possible defect as an actual defect. - Identifying a possible defect on an engine blade by image recognition on the basis of a frame of the video borescope; - Detecting the movement of the engine blades in the image region of the video borescope by comparing in each case two successive frames ; - Tracking the possible defect on the video image along the detected movement by optical image recognition on the basis of the frames used for detecting the movement; - If the trace of a possible defect on the video image corresponds to the detected movement in terms of direction and speed over a predefined length: identifying the possible defect as an actual defect.
A method for preparing a functionalized polymer, the method comprising the steps of: (i) preparing an active polymerization mixture including a reactive polymer by polymerizing conjugated diene monomer with a lanthanide-based catalyst; (ii) introducing a heterocyclic nitrile compound with the reactive polymer to form a functionalized polymer within the polymerization mixture; and (iii) introducing water as a quenching agent to the polymerization mixture including the functionalized polymer, where the ratio of water as the quenching agent to the lanthanide atoms in the lanthanide-based catalyst is less than 1500 to 1. (i) preparing an active polymerization mixture including a reactive polymer by polymerizing conjugated diene monomer with a lanthanide-based catalyst; (ii) introducing a heterocyclic nitrile compound with the reactive polymer to form a functionalized polymer within the polymerization mixture; and (iii) introducing water as a quenching agent to the polymerization mixture including the functionalized polymer, where the ratio of water as the quenching agent to the lanthanide atoms in the lanthanide-based catalyst is less than 1500 to 1.
Device (10, 10.2) for testing the tightness of a pump assembly for spray applicators, wherein the pump assembly has a nozzle unit , which is mounted in a pressure-tight manner on a housing , characterized in that the device comprises: - a coupling element (30, 30.2) by way of which the testing device (10, 10.2) is connectable to the pump assembly , - a generating unit for negative and/or positive pressure, which is connected to the coupling element (30, 30.2), - a sensor unit by way of which the pressure inside the pump assembly is able to be measured. - a coupling element (30, 30.2) by way of which the testing device (10, 10.2) is connectable to the pump assembly , - a generating unit for negative and/or positive pressure, which is connected to the coupling element (30, 30.2), - a sensor unit by way of which the pressure inside the pump assembly is able to be measured.
A method for wireless communication at a user equipment, UE , comprising: receiving, from a base station , a configuration for autonomous uplink, UL transmissions of the UE ; identifying an autonomous UL transmission to transmit on a first component carrier, CC in a shared radio frequency, RF spectrum band during a time period; and transmitting, in a power headroom report on a second CC in a second RF spectrum band during the time period, an indication of whether the UE will attempt to transmit the autonomous UL transmission, wherein the indication of whether the UE will attempt to transmit the autonomous UL transmission is transmitted based at least in part on the received configuration. receiving, from a base station , a configuration for autonomous uplink, UL transmissions of the UE ; identifying an autonomous UL transmission to transmit on a first component carrier, CC in a shared radio frequency, RF spectrum band during a time period; and transmitting, in a power headroom report on a second CC in a second RF spectrum band during the time period, an indication of whether the UE will attempt to transmit the autonomous UL transmission, wherein the indication of whether the UE will attempt to transmit the autonomous UL transmission is transmitted based at least in part on the received configuration.
A memory apparatus comprising multiple buffers (2210-1, 2210-2, 2210-N), the memory apparatus comprising: a memory controller connected to each of the multiple buffers, the memory controller configured to obtain memory allocation information and graphics data based on a multi-write operation command; and a memory configured to store the obtained graphics data as same graphics data in each of at least two of the multiple buffers based on the memory allocation information, characterized in that : in response to the memory being driven according to an Nth multiple buffer method, wherein N is an integer equal to or greater than 3, the memory stores the same graphics data, corresponding to a frame difference, in each of buffers (2210-1, 2210-2, 2210-N) excluding a buffer on which a read operation is performed. a memory controller connected to each of the multiple buffers, the memory controller configured to obtain memory allocation information and graphics data based on a multi-write operation command; and a memory configured to store the obtained graphics data as same graphics data in each of at least two of the multiple buffers based on the memory allocation information, characterized in that : in response to the memory being driven according to an Nth multiple buffer method, wherein N is an integer equal to or greater than 3, the memory stores the same graphics data, corresponding to a frame difference, in each of buffers (2210-1, 2210-2, 2210-N) excluding a buffer on which a read operation is performed.
A modular automated dispensing system for dispensing secured medications in a medical environment, the modular automated dispensing system comprising: a compact enclosure configured to be disposed on a support surface in a medical treatment area, wherein the compact enclosure does not require floor space in the medical treatment area; a lock assembly ; one or more drawers for storing medications, each drawer configured to be secured in the compact enclosure when locked by the lock assembly, and each drawer configured to be slideably openable from the compact enclosure when unlocked by the lock assembly; one or more compartments disposed within at least one of the drawers; an access control interface operatively coupled to the lock assembly, the access control interface configured to provide an unlock signal to the lock assembly based on received authorization input; characterized in that the modular automated dispensing system comprises a radio frequency identification (RFID) reader configured to read an RFID tag on a medication stored in a first drawer, wherein removal of the RFID tag from the first drawer automatically clears the removed medication from an electronically displayed dispensing queue on a display device and updates the inventory information of the modular automated dispensing system by a processor . a compact enclosure configured to be disposed on a support surface in a medical treatment area, wherein the compact enclosure does not require floor space in the medical treatment area; a lock assembly ; one or more drawers for storing medications, each drawer configured to be secured in the compact enclosure when locked by the lock assembly, and each drawer configured to be slideably openable from the compact enclosure when unlocked by the lock assembly; one or more compartments disposed within at least one of the drawers; an access control interface operatively coupled to the lock assembly, the access control interface configured to provide an unlock signal to the lock assembly based on received authorization input; characterized in that the modular automated dispensing system comprises a radio frequency identification (RFID) reader configured to read an RFID tag on a medication stored in a first drawer, wherein removal of the RFID tag from the first drawer automatically clears the removed medication from an electronically displayed dispensing queue on a display device and updates the inventory information of the modular automated dispensing system by a processor .
Mechanically controllable valve drive having an intermediate lever with a first roller element rotating about a first axis of rotation and cooperating with a circumferential contour of a camshaft , two roller elements , in particular a second roller element and a third roller element , which rotate about a common second axis of rotation offset in parallel from the first axis of rotation, wherein the second and third roller element each cooperate with a link and a peripheral contour of a control shaft , and a working cam contour via which the intermediate lever acts on a drag lever of a gas exchange valve , wherein the first roller element is arranged axially between the second roller element and third roller element , the intermediate lever has two mutually parallel legs , wherein the first roller element is arranged between the two legs and the legs are arranged between the second and third roller element such that a cam of the camshaft passes through the intermediate lever during rotational movement, wherein the cam extends between the two legs .
A method performed in a first WLAN ProSe capable wireless transmit/receive unit, WTRU, for establishing direct wireless local area network, WLAN, proximity service, ProSe, connectivity with a second WLAN ProSe capable WTRU , the method comprising: transmitting a request from the first WLAN ProSe capable WTRU to a network node to establish a direct WLAN ProSe connection with the second WLAN ProSe capable WTRU, the request including at least an identification of the second WLAN ProSe capable WTRU; receiving, from the network node, a configuration message associated with the second WLAN ProSe capable WTRU, wherein the configuration message includes: WLAN ProSe ID of the second WLAN ProSe capable WTRU, security keys for the WTRU to use for the direct WLAN ProSe connection with the second WLAN ProSe capable WTRU, said connection being implemented as WLAN ad hoc connection, and a channel number on which to communicate with the second WLAN ProSe capable WTRU; performing a WLAN ProSe discovery process using the WLAN ProSe ID of the second ProSe Capable WTRU; and establishing the direct WLAN ProSe connection with the second WLAN ProSe capable WTRU based on the configuration message. transmitting a request from the first WLAN ProSe capable WTRU to a network node to establish a direct WLAN ProSe connection with the second WLAN ProSe capable WTRU, the request including at least an identification of the second WLAN ProSe capable WTRU; receiving, from the network node, a configuration message associated with the second WLAN ProSe capable WTRU, wherein the configuration message includes: WLAN ProSe ID of the second WLAN ProSe capable WTRU, security keys for the WTRU to use for the direct WLAN ProSe connection with the second WLAN ProSe capable WTRU, said connection being implemented as WLAN ad hoc connection, and a channel number on which to communicate with the second WLAN ProSe capable WTRU; performing a WLAN ProSe discovery process using the WLAN ProSe ID of the second ProSe Capable WTRU; and establishing the direct WLAN ProSe connection with the second WLAN ProSe capable WTRU based on the configuration message.
Sound head for installation into a measurement tube of a flow meter for sound-based detection of a flow rate of a medium, having a longitudinal axis , and having a) a pot composed of a metallic pot material, which has a pot side wall , a pot base through which sound is to be passed and a pot opening which is opposite the pot base , b) an electromechanical sound transducer element , which is adhesively bonded to an inner side of the pot base , c) two electrical feed lines , which lead out of the pot opening and serve for the electrical contacting of the electromechanical sound transducer element , d) a closure part , which is inserted into the pot and closes off the pot opening , wherein e) the pot side wall , at the height of the pot opening , opens into a bent-over pot edge region which extends laterally away from the longitudinal axis , f) the pot side wall has a pot step , and the closure part has in a closure part side wall a closure part step which corresponds to the pot step , wherein the pot step and the closure part step abut directly on one another, g) the closure part has a laterally projecting and fully encircling connecting collar which is connected fixedly to the bent-over pot edge region of the pot side wall , and h) the pot , in the state in which the sound head is installed into a measurement tube, encapsulates the inner side of the pot with respect to the medium. a) a pot composed of a metallic pot material, which has a pot side wall , a pot base through which sound is to be passed and a pot opening which is opposite the pot base , b) an electromechanical sound transducer element , which is adhesively bonded to an inner side of the pot base , c) two electrical feed lines , which lead out of the pot opening and serve for the electrical contacting of the electromechanical sound transducer element , d) a closure part , which is inserted into the pot and closes off the pot opening , wherein e) the pot side wall , at the height of the pot opening , opens into a bent-over pot edge region which extends laterally away from the longitudinal axis , f) the pot side wall has a pot step , and the closure part has in a closure part side wall a closure part step which corresponds to the pot step , wherein the pot step and the closure part step abut directly on one another, g) the closure part has a laterally projecting and fully encircling connecting collar which is connected fixedly to the bent-over pot edge region of the pot side wall , and h) the pot , in the state in which the sound head is installed into a measurement tube, encapsulates the inner side of the pot with respect to the medium.
Component for guiding airflow in an airconditioning system of an aircraft, wherein the component is designed for the interior of the aircraft and, in an installed state, should be mounted there as intended, wherein the component is an air outlet component, - comprising at least one inlet opening and a multiplicity of outlet openings for air , - comprising at least two partial shells (6a, b), - wherein the partial shells (6a, b) are interconnected in an airtight manner in such a way that the inlet openings and the outlet openings remain free, - wherein the component contains at least one structural part (10a-d), - wherein at least one of the structural parts (10a-d) is an air-conducting element bringing about airflow guidance in the component, - wherein the air-conducting element is an outlet part forming the multiplicity of outlet openings , wherein the component is designed such that, in the installed state as intended, the outlet openings open into a free space, namely the interior of the aircraft, characterized in that - the partial shells (6a, b) are particle foam parts, and - the air-conducting element is a particle foam part. - comprising at least one inlet opening and a multiplicity of outlet openings for air , - comprising at least two partial shells (6a, b), - wherein the partial shells (6a, b) are interconnected in an airtight manner in such a way that the inlet openings and the outlet openings remain free, - wherein the component contains at least one structural part (10a-d), - wherein at least one of the structural parts (10a-d) is an air-conducting element bringing about airflow guidance in the component, - wherein the air-conducting element is an outlet part forming the multiplicity of outlet openings , wherein the component is designed such that, in the installed state as intended, the outlet openings open into a free space, namely the interior of the aircraft, characterized in that - the partial shells (6a, b) are particle foam parts, and - the air-conducting element is a particle foam part.
A method for forming a raised feature on a transparent substrate, the method comprising the steps of: providing a transparent substrate having a surface, the substrate having an absorption of less than 20% within a processing wavelength range; irradiating a portion of the transparent substrate with a processing light beam within the processing wavelength range to increase the absorption of the irradiated portion of the substrate in the processing wavelength range; continuing to irradiate the portion of the transparent substrate within the processing wavelength range to cause local heating and expansion of the substrate so as to form a raised feature on the substrate surface; and terminating the irradiation to stop heating of the substrate so as to fix the raised feature. providing a transparent substrate having a surface, the substrate having an absorption of less than 20% within a processing wavelength range; irradiating a portion of the transparent substrate with a processing light beam within the processing wavelength range to increase the absorption of the irradiated portion of the substrate in the processing wavelength range; continuing to irradiate the portion of the transparent substrate within the processing wavelength range to cause local heating and expansion of the substrate so as to form a raised feature on the substrate surface; and terminating the irradiation to stop heating of the substrate so as to fix the raised feature.