mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for servicing a moving stairway, comprising: a frame comprising one or more upright arm guides ; a first service system movably connected to the frame ; and a second service system removably mounted to the frame ; wherein the first service system and the second service system simultaneously engage the moving stairway; and characterized by the first service system comprising: a frame arm slidably received by the one or more upright arm guides ; a pivot arm pivotally attached to the frame arm ; a slide arm slidably attached to the pivot arm ; a rotatable guide member positioned on a distal end of the slide arm ; a lever mounted to the slide arm ; and, a first servicing unit operatively connected to the lever , the first servicing unit operable to clean each stair of the moving stairway. a frame comprising one or more upright arm guides ; a first service system movably connected to the frame ; and a second service system removably mounted to the frame ; wherein the first service system and the second service system simultaneously engage the moving stairway; and characterized by the first service system comprising: a frame arm slidably received by the one or more upright arm guides ; a pivot arm pivotally attached to the frame arm ; a slide arm slidably attached to the pivot arm ; a rotatable guide member positioned on a distal end of the slide arm ; a lever mounted to the slide arm ; and, a first servicing unit operatively connected to the lever , the first servicing unit operable to clean each stair of the moving stairway. a frame arm slidably received by the one or more upright arm guides ; a pivot arm pivotally attached to the frame arm ; a slide arm slidably attached to the pivot arm ; a rotatable guide member positioned on a distal end of the slide arm ; a lever mounted to the slide arm ; and, a first servicing unit operatively connected to the lever , the first servicing unit operable to clean each stair of the moving stairway.
A method for power management at a power node , the method comprising: monitoring a current power state of the power node , the power node being connected to a gateway node and configured to operate in a first mode of operation; characterized by evaluating critical usage window information using network data traffic of at least one network device connected to the gateway node ; and suspending power to the at least one network device when the current power state of the power node meets a criteria and the at least one network device is operating outside of a critical usage window until the at least one network device enters the critical usage window. monitoring a current power state of the power node , the power node being connected to a gateway node and configured to operate in a first mode of operation; characterized by evaluating critical usage window information using network data traffic of at least one network device connected to the gateway node ; and suspending power to the at least one network device when the current power state of the power node meets a criteria and the at least one network device is operating outside of a critical usage window until the at least one network device enters the critical usage window.
Use of a connector plate for a vacuum cleaner dust container , the connector plate comprising an opening , wherein the connector plate correctly positions the opening within a vacuum cleaner by being slid into a holder of the vacuum cleaner, the connector plate comprising a central portion surrounding said opening, and an extending portion projecting from the central portion in the plane thereof, whereby the extending portion , by being slid into said holder, is bent in a first direction (A) at a first section , characterized in that the extending portion, by being slid into said holder, is bent in a second direction (B) being opposite to the first direction (A) at a second section , wherein the extending portion is leading in the direction of insertion and with the central portion as a trailing part, when slid into said holder in the vacuum cleaner. whereby the extending portion , by being slid into said holder, is bent in a first direction (A) at a first section , characterized in that the extending portion, by being slid into said holder, is bent in a second direction (B) being opposite to the first direction (A) at a second section , wherein the extending portion is leading in the direction of insertion and with the central portion as a trailing part, when slid into said holder in the vacuum cleaner.
Method for industrial communication by an application (PUB, SUB) of an OPC UA server via a time sensitive networking server (TSN) with at least one TSN client (DC) by means of the OPC UA protocol, characterized by a) a first configuration phase for establishing a data stream, having the following steps: - connection setup by the application to a TCP/IP stack by producing a socket (Create Socket), - binding the socket produced to an address of a TSN driver, - configuring the connection of the socket produced (configuration) by sending reservation parameters from the application to the socket (reservation), - establishing a TSN stream and setting a StreamID by means of the TSN driver, which is returned to the application, - communicating the StreamID to the TSN client, and b) a second phase after the TSN stream is established with at least one receiver in the form of the at least one TSN client (DC), in which user data (Data1) are sent to the at least one TSN client (DC) using the socket. a) a first configuration phase for establishing a data stream, having the following steps: - connection setup by the application to a TCP/IP stack by producing a socket (Create Socket), - binding the socket produced to an address of a TSN driver, - configuring the connection of the socket produced (configuration) by sending reservation parameters from the application to the socket (reservation), - establishing a TSN stream and setting a StreamID by means of the TSN driver, which is returned to the application, - communicating the StreamID to the TSN client, and - connection setup by the application to a TCP/IP stack by producing a socket (Create Socket), - binding the socket produced to an address of a TSN driver, - configuring the connection of the socket produced (configuration) by sending reservation parameters from the application to the socket (reservation), - establishing a TSN stream and setting a StreamID by means of the TSN driver, which is returned to the application, - communicating the StreamID to the TSN client, and b) a second phase after the TSN stream is established with at least one receiver in the form of the at least one TSN client (DC), in which user data (Data1) are sent to the at least one TSN client (DC) using the socket.
A photonic device comprising: a coupler having two inputs and two outputs making a total of four inputs and outputs ; a plurality of photodetectors coupled to three of the four inputs and outputs and configured to provide signals indicative of power of light at each of the three of the four inputs and outputs ; and a processing section configured to receive the signals provided by the plurality of photodetectors ; characterized in that the photonic device further comprises: a further coupler connected in series with the coupler and having two further inputs and two further outputs for a total of four further inputs and outputs ; and a set of one or more further photodetectors coupled to a respective one or more of the four further inputs and outputs of the further coupler and configured to provide signals indicative of power of light at each of the respective one or more of the four further inputs and outputs of the further coupler , wherein signals provided by the set of further photodetectors are provided to the processing section . a coupler having two inputs and two outputs making a total of four inputs and outputs ; a plurality of photodetectors coupled to three of the four inputs and outputs and configured to provide signals indicative of power of light at each of the three of the four inputs and outputs ; and a processing section configured to receive the signals provided by the plurality of photodetectors ; characterized in that the photonic device further comprises: a further coupler connected in series with the coupler and having two further inputs and two further outputs for a total of four further inputs and outputs ; and a set of one or more further photodetectors coupled to a respective one or more of the four further inputs and outputs of the further coupler and configured to provide signals indicative of power of light at each of the respective one or more of the four further inputs and outputs of the further coupler , wherein signals provided by the set of further photodetectors are provided to the processing section . a further coupler connected in series with the coupler and having two further inputs and two further outputs for a total of four further inputs and outputs ; and a set of one or more further photodetectors coupled to a respective one or more of the four further inputs and outputs of the further coupler and configured to provide signals indicative of power of light at each of the respective one or more of the four further inputs and outputs of the further coupler , wherein signals provided by the set of further photodetectors are provided to the processing section .
A well bore fluid sensor , comprising: an inner plate defining an axially extending interior cavity of the sensor ; a plurality of outer plates, including a first outer plate and a second outer plate , disposed radially outside of the inner plate ; a first cable fixture disposed at a first axial end of the sensor and a second cable fixture disposed at a second axial end of the sensor; and an electronics module that includes a resonant circuit and a power supply , the electronics module in signal communication with the inner plate and at least one of the first cable fixture and the second cable fixture ; wherein the inner plate , the first outer plate , the second outer plate , the first cable fixture , and the second cable fixture are coupled together to form a unitary structure; and wherein the inner plate is electrically insulated from the first outer plate , the second outer plate , the first cable fixture , and the second cable fixture , and the first outer plate and the second outer plate are electrically insulated from one another, and the inner plate is capacitively coupled to the first outer plate and the second outer plate . an inner plate defining an axially extending interior cavity of the sensor ; a plurality of outer plates, including a first outer plate and a second outer plate , disposed radially outside of the inner plate ; a first cable fixture disposed at a first axial end of the sensor and a second cable fixture disposed at a second axial end of the sensor; and an electronics module that includes a resonant circuit and a power supply , the electronics module in signal communication with the inner plate and at least one of the first cable fixture and the second cable fixture ; wherein the inner plate , the first outer plate , the second outer plate , the first cable fixture , and the second cable fixture are coupled together to form a unitary structure; and wherein the inner plate is electrically insulated from the first outer plate , the second outer plate , the first cable fixture , and the second cable fixture , and the first outer plate and the second outer plate are electrically insulated from one another, and the inner plate is capacitively coupled to the first outer plate and the second outer plate .
Method for estimating a loading state of a vehicle , comprising the following steps: capturing or receiving at least one manipulated steering variable in a time-resolved manner by means of an input device , characterized by deriving at least one frequency spectrum from the captured or received at least one time-resolved manipulated steering variable by means of an analysis device , determining a loading state of the vehicle by means of a classification device , wherein the classification device classifies the respective frequency spectrum for this purpose and respectively assigns a loading state class to said frequency spectrum, outputting a resulting loading state class as a loading state signal by means of an output device . capturing or receiving at least one manipulated steering variable in a time-resolved manner by means of an input device , characterized by deriving at least one frequency spectrum from the captured or received at least one time-resolved manipulated steering variable by means of an analysis device , determining a loading state of the vehicle by means of a classification device , wherein the classification device classifies the respective frequency spectrum for this purpose and respectively assigns a loading state class to said frequency spectrum, outputting a resulting loading state class as a loading state signal by means of an output device .
Magnetic resonance imaging device comprising a field generation unit , wherein the field generation unit comprises a first magnet and a second magnet confining an imaging volume of the magnetic resonance imaging device in two spatial directions and wherein the field generation unit is configured to provide a static magnetic field within the imaging volume , wherein the first magnet and the second magnet are arranged asymmetrically with respect to the imaging volume and wherein the first magnet and the second magnet are arranged in such a way to provide an access to the imaging volume along at least two perpendicular spatial directions, wherein a direction of access to the imaging volume is angled with respect to a main magnetic field direction of the magnetic field in the imaging volume , wherein the first magnet comprises a superconducting magnet with a plurality of magnet segments, wherein each magnet segment comprises a magnetic field axis and wherein the magnetic field axes of the plurality of magnet segments are oriented in parallel to a magnetic field axis of the first magnet , wherein each magnet segment comprises a tubular shape, wherein • a diameter of at least a first magnet segment of the plurality of magnet segments differs from a diameter of at least a second magnet segment of the plurality of magnet segments and • characterized in that the magnetic field axis of each magnet segment of the plurality of magnet segments is positioned along the magnetic field axis of the first magnet in such a way, that an overall shape of the first magnet corresponds to a cone, a frustum or a sequence thereof. • a diameter of at least a first magnet segment of the plurality of magnet segments differs from a diameter of at least a second magnet segment of the plurality of magnet segments and • characterized in that the magnetic field axis of each magnet segment of the plurality of magnet segments is positioned along the magnetic field axis of the first magnet in such a way, that an overall shape of the first magnet corresponds to a cone, a frustum or a sequence thereof.
A method for performing a data communication between at least two devices , wherein - the at least two devices are connected via an electrical bus line , the method is characterized in that - each of the devices detects the magnitude of a device current flowing from the respective device to the bus line , - one device raises the device current of the other devices in order to announce the transfer of data, - data is transferred after announcing the transfer of data by means of modulation of the device current of the other devices . - the at least two devices are connected via an electrical bus line , the method is characterized in that - each of the devices detects the magnitude of a device current flowing from the respective device to the bus line , - one device raises the device current of the other devices in order to announce the transfer of data, - data is transferred after announcing the transfer of data by means of modulation of the device current of the other devices .
A negative electrode for lithium secondary batteries, the negative electrode comprising: a negative electrode current collector; and a lithiophilic material (LPM) coated on at least one surface of the negative electrode current collector in a dispersed state, wherein the lithiophilic material is an oxidized product of the coating material coated on the negative electrode current collector and comprises at least one of a metal or a metal oxide, and an oxide layer is formed on a surface of the negative electrode current collector while the lithiophilic material is formed thereon, wherein the coating material is at least one of: a metal salt comprising HAuCl 4 , H 2 PtCl 6 , AgNO 2 , AuCl, Aucl 3 , K(AuCl 4 ), AuBr 3 , PtCl 2 , PtCl 4 , AgCl, or AgCN; a metal comprising Au, Ag, or Pt; and wherein the lithiophilic material is at least one of: a metal comprising Au, Ag, or Pt. a negative electrode current collector; and a lithiophilic material (LPM) coated on at least one surface of the negative electrode current collector in a dispersed state, wherein the lithiophilic material is an oxidized product of the coating material coated on the negative electrode current collector and comprises at least one of a metal or a metal oxide, and an oxide layer is formed on a surface of the negative electrode current collector while the lithiophilic material is formed thereon, wherein the coating material is at least one of: a metal salt comprising HAuCl 4 , H 2 PtCl 6 , AgNO 2 , AuCl, Aucl 3 , K(AuCl 4 ), AuBr 3 , PtCl 2 , PtCl 4 , AgCl, or AgCN; a metal comprising Au, Ag, or Pt; and wherein the lithiophilic material is at least one of: a metal comprising Au, Ag, or Pt.
A blade assembly comprising: a first elongated blade and a second elongated blade , wherein the first elongated blade and the second elongated blade each comprise a trimming portion and a high-capacity trimming portion , the trimming portion of each of the first elongated blade and the second elongated blade comprising a set of trimming teeth , and the high-capacity trimming portion of each of the first elongated blade and the second elongated blade comprising one or more high-capacity trimming teeth that are longer than the trimming teeth , and wherein the high-capacity trimming portion of the first elongated blade or the second elongated blade further comprises a first guide tooth , the first guide tooth being disposed on a first side of the one or more high-capacity trimming teeth of the first elongated blade or the second elongated blade , wherein the high-capacity trimming portion of the first elongated blade or the second elongated blade further comprises a second guide tooth , the second guide tooth being disposed on a second side of the one or more high-capacity trimming teeth of the first elongated blade or the second elongated blade , and wherein the first guide tooth and the second guide tooth are longer than the one or more high-capacity trimming teeth of the first elongated blade and the second elongated blade . a first elongated blade and a second elongated blade , wherein the first elongated blade and the second elongated blade each comprise a trimming portion and a high-capacity trimming portion , the trimming portion of each of the first elongated blade and the second elongated blade comprising a set of trimming teeth , and the high-capacity trimming portion of each of the first elongated blade and the second elongated blade comprising one or more high-capacity trimming teeth that are longer than the trimming teeth , and wherein the high-capacity trimming portion of the first elongated blade or the second elongated blade further comprises a first guide tooth , the first guide tooth being disposed on a first side of the one or more high-capacity trimming teeth of the first elongated blade or the second elongated blade , wherein the high-capacity trimming portion of the first elongated blade or the second elongated blade further comprises a second guide tooth , the second guide tooth being disposed on a second side of the one or more high-capacity trimming teeth of the first elongated blade or the second elongated blade , and wherein the first guide tooth and the second guide tooth are longer than the one or more high-capacity trimming teeth of the first elongated blade and the second elongated blade .
A disinfection kit for a medical instrument comprising a disinfection system and a detection kit for the medical instrument , the disinfection system being configured to implement a disinfection cycle of a medical instrument by UV radiation, the disinfection system comprising: - a disinfection chamber configured to receive at least one portion of the medical instrument ; - a suspension means for suspending said at least one portion of the medical instrument in said disinfection chamber ; - a detection device configured to detect a marker integral with said medical instrument , in a predetermined detection area of the disinfection system ; - a controller configured to generate a non-detection signal in case of non-detection of said marker in said predetermined detection area, - the detection kit being intended for disinfection in the disinfection system , said medical instrument comprising a head and a connection cable of the head , - the detection kit comprising: - a marker configured to be integrally affixed to a portion of the connection cable adjacent the head for detection by said detection device ; and - a protective ring of said marker , said protective ring further interacting with said suspension means for suspending the connection cable . - a disinfection chamber configured to receive at least one portion of the medical instrument ; - a suspension means for suspending said at least one portion of the medical instrument in said disinfection chamber ; - a detection device configured to detect a marker integral with said medical instrument , in a predetermined detection area of the disinfection system ; - a controller configured to generate a non-detection signal in case of non-detection of said marker in said predetermined detection area, - the detection kit being intended for disinfection in the disinfection system , said medical instrument comprising a head and a connection cable of the head , - the detection kit comprising: - a marker configured to be integrally affixed to a portion of the connection cable adjacent the head for detection by said detection device ; and - a protective ring of said marker , said protective ring further interacting with said suspension means for suspending the connection cable . - a marker configured to be integrally affixed to a portion of the connection cable adjacent the head for detection by said detection device ; and - a protective ring of said marker , said protective ring further interacting with said suspension means for suspending the connection cable .