mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: transferring a streamer cleaning device to a geophysical sensor streamer , the transferring by: towing the geophysical sensor streamer through water while the geophysical sensor streamer is submerged; and towing a tow fish through water by way of an umbilical , the streamer cleaning device coupled within a payload area of the tow fish during the towing of the tow fish through the water; characterised by : landing the tow fish on the geophysical sensor streamer by abutting a channel at a proximal end of the tow fish against an outside surface of the geophysical sensor streamer , and thereby abutting the streamer cleaning device against the geophysical sensor streamer ; closing the streamer cleaning device around the geophysical sensor streamer ; releasing the streamer cleaning device from the payload area ; and separating the tow fish from streamer cleaning device and the geophysical sensor streamer . towing the geophysical sensor streamer through water while the geophysical sensor streamer is submerged; and towing a tow fish through water by way of an umbilical , the streamer cleaning device coupled within a payload area of the tow fish during the towing of the tow fish through the water; characterised by : landing the tow fish on the geophysical sensor streamer by abutting a channel at a proximal end of the tow fish against an outside surface of the geophysical sensor streamer , and thereby abutting the streamer cleaning device against the geophysical sensor streamer ; closing the streamer cleaning device around the geophysical sensor streamer ; releasing the streamer cleaning device from the payload area ; and separating the tow fish from streamer cleaning device and the geophysical sensor streamer . landing the tow fish on the geophysical sensor streamer by abutting a channel at a proximal end of the tow fish against an outside surface of the geophysical sensor streamer , and thereby abutting the streamer cleaning device against the geophysical sensor streamer ; closing the streamer cleaning device around the geophysical sensor streamer ; releasing the streamer cleaning device from the payload area ; and separating the tow fish from streamer cleaning device and the geophysical sensor streamer .
A method of generating a chart for navigation through an open environment, the method comprising: retrieving a navigation chart from a navigation database; determining one or more barriers in the navigation chart; generating a plurality of first navigation nodes at a first predetermined distance from the one or more barriers; generating a plurality of second navigation nodes disposed within a first threshold distance range, wherein the first threshold distance range includes a minimum distance from the one or more barriers that is greater than the first predetermined distance; generating a first plurality of potential route segments (PRSs), wherein each of the first plurality of PRSs extend between two first navigation nodes or between a first navigation node and a second navigation node that are within a first proximity distance of each other; and generating a second plurality of PRSs that each extend between two second navigation nodes that are within a second proximity distance of each other. retrieving a navigation chart from a navigation database; determining one or more barriers in the navigation chart; generating a plurality of first navigation nodes at a first predetermined distance from the one or more barriers; generating a plurality of second navigation nodes disposed within a first threshold distance range, wherein the first threshold distance range includes a minimum distance from the one or more barriers that is greater than the first predetermined distance; generating a first plurality of potential route segments (PRSs), wherein each of the first plurality of PRSs extend between two first navigation nodes or between a first navigation node and a second navigation node that are within a first proximity distance of each other; and generating a second plurality of PRSs that each extend between two second navigation nodes that are within a second proximity distance of each other.
A drive system for raising or lowering at least one sliding piece of a current collector for rail vehicles, the sliding piece being disposed on a positioning device of the current collector, said positioning device being adjustable by the drive system, and the sliding piece being configured to be brought into contact with an overhead line using a contact pressure, the drive system comprising a bellows drive which is configured to be actuated by means of compressed air for actuating the positioning device, the drive system comprising a pneumatic control unit having a control valve for supplying or withdrawing compressed air to/from the bellows drive, and the drive system comprising a lowering unit having a pneumatic detection line and a lowering valve for venting the bellows drive when pressure drops in the detection line, wherein the lowering valve is a 3/2-way valve , the lowering valve being disposed in a pneumatic supply line between the control valve and the bellows drive.
A wireless communication device comprising: - a control unit ; - an antenna interface ; - one or more active wireless transceivers operable together with the control unit and antenna interface; and - a passive wireless transceiver operable together with the antenna interface and operable by harvesting power from received radio messages ; and wherein the device is further configured to: - deactivate the one or more active wireless transceivers and control unit to an inactive state; and - subsequently, by the passive wireless transceiver, activate the control unit and at least one of the active wireless transceivers to an active state when the passive wireless transceiver receives a message from the antenna interface; characterized in that the antenna interface further comprises: - an RF front-end interface (209-210, 309-310); and - a switch for coupling the RF front-end interface to the at least one of the active wireless transceivers or to the passive wireless transceiver ; and wherein the switch is configured to couple the front-end (209-210, 309-310) to the passive wireless transceiver when the one or more active wireless transceivers and control unit are in the inactive state; and wherein the switch is configured to couple the front-end to the at least one of the active wireless transceivers when the at least one of the active wireless transceivers and control unit are in the active state. - a control unit ; - an antenna interface ; - one or more active wireless transceivers operable together with the control unit and antenna interface; and - a passive wireless transceiver operable together with the antenna interface and operable by harvesting power from received radio messages ; - deactivate the one or more active wireless transceivers and control unit to an inactive state; and - subsequently, by the passive wireless transceiver, activate the control unit and at least one of the active wireless transceivers to an active state when the passive wireless transceiver receives a message from the antenna interface; - an RF front-end interface (209-210, 309-310); and - a switch for coupling the RF front-end interface to the at least one of the active wireless transceivers or to the passive wireless transceiver ;
A method for pairing a bidirectional object having emission and reception capabilities and acting as a home automation system orders receiver, with a bidirectional object having emission and reception capabilities acting as a home automation system orders transmitter, the orders receiver having three distinct states: a first state in which the orders receiver is not paired, a second state in which the orders receiver is temporarily assigned to an orders transmitter and a third state in which the orders receiver is paired, comprising the steps of: a) temporary assignment of at least one bidirectional object acting as an orders receiver to a bidirectional object acting as an orders transmitter, so that, during the temporary assignment, the receiver does not or no longer respond to commands received from orders transmitters other than the orders transmitter to which it is temporarily assigned; b) selection of a bidirectional object acting as an orders receiver amongst said temporarily assigned objects; c) pairing of the selected object, the order receiver switching from the second state to the third state when it receives a pairing command; and d) clearance of the temporarily assigned objects that are distinct from the paired object or paired objects. a) temporary assignment of at least one bidirectional object acting as an orders receiver to a bidirectional object acting as an orders transmitter, so that, during the temporary assignment, the receiver does not or no longer respond to commands received from orders transmitters other than the orders transmitter to which it is temporarily assigned; b) selection of a bidirectional object acting as an orders receiver amongst said temporarily assigned objects; c) pairing of the selected object, the order receiver switching from the second state to the third state when it receives a pairing command; and d) clearance of the temporarily assigned objects that are distinct from the paired object or paired objects.
A coupling structure for coupling a UHV characterization instrument-interconnected in-situ reaction cell and a built-in mass spectrometer electro quadrupole, the coupling structure comprising an independent in-situ reaction cell , an in-situ reaction cell gas output pipeline connected to the independent in-situ reaction cell , and a vacuum buffer chamber , wherein the independent in-situ reaction cell connects with the vacuum buffer chamber ; wherein a vacuum interconnecting transfer device is configured to transfer a sample to a sample chamber of a UHV characterization instrument through the vacuum interconnecting transfer device , and the vacuum buffer chamber is separated from the sample chamber by a 1 st gate valve ; the sample chamber is configured to connect with a mass spectrometer electro quadrupole , and a 2 nd turbo molecular pump-mechanical pump set is configured on the sample chamber ; characterized in that , the coupling structure comprises a stainless steel capillary pipeline , wherein one end of the stainless steel capillary pipeline is connected to the in-situ reaction cell gas output pipeline , and the other end of the stainless steel capillary pipeline is a sampling port; wherein the coupling structure is configured to divide a sampling gas flowing out of the sampling port into two gas paths, wherein, one gas path enters the vacuum buffer chamber through a valve with a low flow control ratio, and the other gas path enters the mass spectrometer electro quadrupole through a valve with a high flow control ratio. the coupling structure comprising an independent in-situ reaction cell , an in-situ reaction cell gas output pipeline connected to the independent in-situ reaction cell , and a vacuum buffer chamber , wherein the independent in-situ reaction cell connects with the vacuum buffer chamber ; wherein a vacuum interconnecting transfer device is configured to transfer a sample to a sample chamber of a UHV characterization instrument through the vacuum interconnecting transfer device , and the vacuum buffer chamber is separated from the sample chamber by a 1 st gate valve ; the sample chamber is configured to connect with a mass spectrometer electro quadrupole , and a 2 nd turbo molecular pump-mechanical pump set is configured on the sample chamber ; characterized in that , the coupling structure comprises a stainless steel capillary pipeline , wherein one end of the stainless steel capillary pipeline is connected to the in-situ reaction cell gas output pipeline , and the other end of the stainless steel capillary pipeline is a sampling port; wherein the coupling structure is configured to divide a sampling gas flowing out of the sampling port into two gas paths, wherein, one gas path enters the vacuum buffer chamber through a valve with a low flow control ratio, and the other gas path enters the mass spectrometer electro quadrupole through a valve with a high flow control ratio.
A method for checking a touch screen of an installation for contamination by at least one contaminant, the touch screen being suitable for receiving commands from user(s) by finger pressure, the method being implemented by an electronic control system and being characterized in that it comprises the following steps: - determining at least one unit surface area on the touch screen , the touch screen comprising at least two unit surface areas , - detecting the unit surface area(s) having been pressed by a user , - updating an indicator of the number of presses per unit surface area , - estimating at least one contamination indicator by at least one predetermined contaminant, based on the indicators of number of presses associated with each unit surface area , the contamination indicator being associated with at least one of the unit surface areas , and - if the or at least one of the contamination indicators reaches or exceeds a threshold, emitting an alert signal during the estimating step , a predefined model being applied to the or at least one of the number of press indicators, the model producing the at least one contamination indicator, the predefined model depending on physical parameters of diffusion and/or concentration of the contaminant on the touch screen , the model taking account of the incline of the touch screen , in a predefined manner. - determining at least one unit surface area on the touch screen , the touch screen comprising at least two unit surface areas , - detecting the unit surface area(s) having been pressed by a user , - updating an indicator of the number of presses per unit surface area , - estimating at least one contamination indicator by at least one predetermined contaminant, based on the indicators of number of presses associated with each unit surface area , the contamination indicator being associated with at least one of the unit surface areas , and - if the or at least one of the contamination indicators reaches or exceeds a threshold, emitting an alert signal during the estimating step , a predefined model being applied to the or at least one of the number of press indicators, the model producing the at least one contamination indicator, the predefined model depending on physical parameters of diffusion and/or concentration of the contaminant on the touch screen , the model taking account of the incline of the touch screen , in a predefined manner.
A battery pack for providing power to a medical device, comprising: a battery ; an electrical interface having a pair of output terminals , wherein the interface is configured to be electrically coupled to an interface of a medical device, wherein the electrical interface is configured to provide power from the battery to the medical device via the output terminals; a processor configured to send an electrical power output to the output terminals; a sensor in communication with the processor, wherein the sensor is configured to sense at least one characteristic of the medical device, said at least one characteristic comprising a current drawn by the medical device; and a voltage regulator in communication with the processor and configured to regulate a voltage of the electrical power output, wherein the voltage regulator is configured to provide partial power to the medical device using a polling voltage having a level of voltage insufficient to power the medical device for normal use, to sense the at least one characteristic; wherein the processor is further configured to: adjusting a polarity of the output terminals based on the sensed current of the medical device such that the electrical interface of the battery pack and the interface of medical device are operationally compatible; and operate the battery pack according to an operational profile associated with the medical device. a battery ; an electrical interface having a pair of output terminals , wherein the interface is configured to be electrically coupled to an interface of a medical device, wherein the electrical interface is configured to provide power from the battery to the medical device via the output terminals; a processor configured to send an electrical power output to the output terminals; a sensor in communication with the processor, wherein the sensor is configured to sense at least one characteristic of the medical device, said at least one characteristic comprising a current drawn by the medical device; and a voltage regulator in communication with the processor and configured to regulate a voltage of the electrical power output, wherein the voltage regulator is configured to provide partial power to the medical device using a polling voltage having a level of voltage insufficient to power the medical device for normal use, to sense the at least one characteristic; wherein the processor is further configured to: adjusting a polarity of the output terminals based on the sensed current of the medical device such that the electrical interface of the battery pack and the interface of medical device are operationally compatible; and operate the battery pack according to an operational profile associated with the medical device. adjusting a polarity of the output terminals based on the sensed current of the medical device such that the electrical interface of the battery pack and the interface of medical device are operationally compatible; and operate the battery pack according to an operational profile associated with the medical device.
Gateway , called hybridization gateway, intended for the bidirectional data transmission with a mobile terminal in a telecommunications network comprising at least two distinct access networks to said mobile terminal, said hybridization gateway being configured to constitute an access point to each of said access networks, and to perform at least: • control functions for all of said access networks, • selection functions for the access network or networks to be used for the data transmission to said mobile terminal, said hybridization gateway being characterized in that it is further configured to perform: all of the network layer functions for said data transmission, adapted according to the access network or networks selected, and • all of the data link layer functions for said data transmission, adapted according to the access network or networks selected. • control functions for all of said access networks, • selection functions for the access network or networks to be used for the data transmission to said mobile terminal, • all of the data link layer functions for said data transmission, adapted according to the access network or networks selected.
Door operator for an overhead door system , said door operator being configured to move a door of said door system , the door operator comprising: - a first electric motor , - a second electric motor , - a planetary gearing , - a control unit configured to control the first and second electric motor , and wherein the first electric motor is connected to a first planetary gearing input shaft and wherein a planetary gearing output shaft is associated with a shaft for movement of the door , the door operator being characterised in that the second electric motor is connected to a second planetary gearing input shaft and in that the door operator is configured to, by control of the rotation of the first and second planetary gearing input shafts , to control the planetary gearing gear ratio and thus the angular velocity and the torque delivered by the planetary gearing output shaft . - a first electric motor , - a second electric motor , - a planetary gearing , - a control unit configured to control the first and second electric motor , and
A medical device comprising a coating, wherein the coating comprises an aminoquinoline and at least one of N-Acetylcysteine and an endonuclease, wherein the aminoquinoline is selected from the group consisting of 4-amino quinoline (quinolin-4-amine), chloroquine ((RS)-N'-(7-chloroquinolin-4-yl)-N,N-diethyl-pentane-1,4-diamine), amodiaquine (4-[(7-chloroquinolin-4-yl)amino]-2-[(diethylamino)methyl]phenol), and hydroxychloroquine ((RS)-2-[{4-[(7-chloroquinolin-4-yl)amino]pentyl}(ethyl)amino]ethanol).
A method in a User Equipment, UE , comprising: determining conflict information for a plurality of radio frequency, RF, channels in a plurality of frequency bands (390-396), wherein the UE includes one or more radio receivers associated with at least one of the plurality of RF channels in the plurality of frequency bands, the conflict information indicates whether two or more RF channels in two or more frequency bands conflict each other, wherein simultaneous operation of the UE in the two or more RF channels would reduce flexibility to make use of available frequency bands and decrease network coverage and handover performances of at least one of the one or more radio receivers; and wherein the conflict information further indicates whether a first RF channel in a first frequency band of a first radio access technology conflicts with a second RF channel in a second frequency band of a second radio access technology, the first frequency band being partially overlapped with the second frequency band, and based on the conflict information, disabling at least one of the plurality of RF channels in the plurality of frequency bands. determining conflict information for a plurality of radio frequency, RF, channels in a plurality of frequency bands (390-396), wherein the UE includes one or more radio receivers associated with at least one of the plurality of RF channels in the plurality of frequency bands, the conflict information indicates whether two or more RF channels in two or more frequency bands conflict each other, wherein simultaneous operation of the UE in the two or more RF channels would reduce flexibility to make use of available frequency bands and decrease network coverage and handover performances of at least one of the one or more radio receivers; and wherein the conflict information further indicates whether a first RF channel in a first frequency band of a first radio access technology conflicts with a second RF channel in a second frequency band of a second radio access technology, the first frequency band being partially overlapped with the second frequency band, and based on the conflict information, disabling at least one of the plurality of RF channels in the plurality of frequency bands.
A method for message reading, comprising: when there is a notification of an unread message displayed on a terminal screen, obtaining a reading operation instruction, wherein the reading operation instruction comprises a position at which a user's finger clicks on the terminal screen ; when the position is located in a first preset area having a fingerprint recognition function, recognizing fingerprint information of the user's finger ; and when the fingerprint information is valid, opening a reading interface corresponding to the notification of the unread message ; wherein the first preset area having the fingerprint recognition function comprises one or more second preset areas, each of the one or more second preset areas being an area where each notification of an unread message is located. when there is a notification of an unread message displayed on a terminal screen, obtaining a reading operation instruction, wherein the reading operation instruction comprises a position at which a user's finger clicks on the terminal screen ; when the position is located in a first preset area having a fingerprint recognition function, recognizing fingerprint information of the user's finger ; and when the fingerprint information is valid, opening a reading interface corresponding to the notification of the unread message ; wherein the first preset area having the fingerprint recognition function comprises one or more second preset areas, each of the one or more second preset areas being an area where each notification of an unread message is located.