mhurhangee/patent-ind-claim-en huggingface dataset:
A precoding unit configured to precode a communication between a satellite and at least one terminal (20; 20 1 -20 5 ) based on a channel state of a channel between the terminal (20; 20 1 -20 5 ) and the satellite, wherein the precoding unit is configured for: receiving a location related information indicating a location (38; L 1 -L 3 ) of the terminal; determining a predicted channel state information related to the channel state between the terminal (20; 20 1 -20 5 ) and the satellite using the location related information ; and precoding the communication between the satellite and the at least one terminal (20; 20 1 -20 5 ) according to the predicted channel state information ; characterized in that the precoding unit has access to a memory (36; 36') having stored thereon different predetermined channel state values associated with different locations (38; L 1 -L 3 ), wherein the precoding unit is configured for deriving the predicted channel state information using at least one predetermined channel state value ; and the precoding unit is configured for interpolating or extrapolating the predicted channel state information using the location related information and a combination of at least a first predetermined channel state value (42 1 ) and a second predetermined channel state value (42 2 ). receiving a location related information indicating a location (38; L 1 -L 3 ) of the terminal; determining a predicted channel state information related to the channel state between the terminal (20; 20 1 -20 5 ) and the satellite using the location related information ; and precoding the communication between the satellite and the at least one terminal (20; 20 1 -20 5 ) according to the predicted channel state information ; characterized in that the precoding unit has access to a memory (36; 36') having stored thereon different predetermined channel state values associated with different locations (38; L 1 -L 3 ), wherein the precoding unit is configured for deriving the predicted channel state information using at least one predetermined channel state value ; and the precoding unit is configured for interpolating or extrapolating the predicted channel state information using the location related information and a combination of at least a first predetermined channel state value (42 1 ) and a second predetermined channel state value (42 2 ).
A method for operating a vehicle , wherein - a vehicle is operated using a digital environmental model, the digital environmental model being defined by at least one environmental sensor of the vehicle and comprising object data related to one or more objects detected in a detection environment of the vehicle ; - the vehicle provides an edge data center of a cellular network with positional data of the vehicle via a wireless connection to the cellular network ; - the edge data center provides the vehicle with virtual object data via the wireless connection , the virtual object data being related to one or more objects in a virtual environment of the provided positional data which spatially exceeds the detection environment of the vehicle ; - the vehicle is operated using an extended digital environmental model comprising a union of the detected object data and the virtual object data and covering an extended environment of the vehicle , the extended environment exceeding the detection environment of the vehicle , characterised in that the virtual environment comprises additional objects missing in the detection environment, wherein the edge data center transposes the additional object data into the future dependent on a downlink latency of the wireless connection and a runtime within the cellular network ; - a vehicle is operated using a digital environmental model, the digital environmental model being defined by at least one environmental sensor of the vehicle and comprising object data related to one or more objects detected in a detection environment of the vehicle ; - the vehicle provides an edge data center of a cellular network with positional data of the vehicle via a wireless connection to the cellular network ; - the edge data center provides the vehicle with virtual object data via the wireless connection , the virtual object data being related to one or more objects in a virtual environment of the provided positional data which spatially exceeds the detection environment of the vehicle ; - the vehicle is operated using an extended digital environmental model comprising a union of the detected object data and the virtual object data and covering an extended environment of the vehicle , the extended environment exceeding the detection environment of the vehicle , characterised in that the virtual environment comprises additional objects missing in the detection environment, wherein the edge data center transposes the additional object data into the future dependent on a downlink latency of the wireless connection and a runtime within the cellular network ;
A motor device provided with an output shaft configured to be rotated by a rotation shaft , the motor device comprising: a housing including an opening that is opened in an axial direction of the output shaft ; a connector storage unit provided in the housing and configured to store a connector member to which an external connector (CN) is connected; a cover configured to block the opening; an exposure hole provided in the cover and configured to expose a connector connecting unit of the connector member to which the external connector (CN) is connected to outside; a first securing unit provided in the periphery of the exposure hole in the cover ; a second securing unit provided in a periphery of the cover other than the periphery of the exposure hole in the cover ; and a positioning unit (7 Id) provided at a portion of the cover at which the first securing unit is configured to abut on the connector member and position the connector member with respect to the connector storage unit , and the positioning unit has a width in a radial direction of the exposure hole wider than a width of the first securing unit in the radial direction of the exposure hole , wherein the motor device is characterized in that the cover is made of a resin, the positioning unit is provided with a weld line (WL) and the first and second securing units are secured to the housing through laser welding. a housing including an opening that is opened in an axial direction of the output shaft ; a connector storage unit provided in the housing and configured to store a connector member to which an external connector (CN) is connected; a cover configured to block the opening; an exposure hole provided in the cover and configured to expose a connector connecting unit of the connector member to which the external connector (CN) is connected to outside; a first securing unit provided in the periphery of the exposure hole in the cover ; a second securing unit provided in a periphery of the cover other than the periphery of the exposure hole in the cover ; and a positioning unit (7 Id) provided at a portion of the cover at which the first securing unit is configured to abut on the connector member and position the connector member with respect to the connector storage unit , and the positioning unit has a width in a radial direction of the exposure hole wider than a width of the first securing unit in the radial direction of the exposure hole , wherein the motor device is characterized in that the cover is made of a resin, the positioning unit is provided with a weld line (WL) and the first and second securing units are secured to the housing through laser welding.
A method for assessing the load bearing capacity of an inserted pile , , comprising: - inserting the pile by a vibrator device with a maximum inserting frequency, - applying, by the vibrator device arranged at the inserted pile , after the insertion of the inserted pile with a measuring pulse string during at least one vibration time period, wherein a maximum measuring frequency of the measuring pulse string is at most 80 % of the maximum inserting frequency, - detecting, by at least one detection module , motion data of the inserted pile caused by the measuring pulse string during a measuring time period, - determining at least one downward motion data set from the detected motion data; and - evaluating the downward motion data set such that a load bearing capacity criterion is determined. - inserting the pile by a vibrator device with a maximum inserting frequency, - applying, by the vibrator device arranged at the inserted pile , after the insertion of the inserted pile with a measuring pulse string during at least one vibration time period, wherein a maximum measuring frequency of the measuring pulse string is at most 80 % of the maximum inserting frequency, - detecting, by at least one detection module , motion data of the inserted pile caused by the measuring pulse string during a measuring time period, - determining at least one downward motion data set from the detected motion data; and - evaluating the downward motion data set such that a load bearing capacity criterion is determined.
A vacuum cup assembly comprising: a vacuum device adapted to connect to a pressurized air supply, said vacuum device having a vacuum passageway and a venturi positioned within said vacuum device ; a vacuum cup configured to engage an object; said pressurized air supply being activatable to force pressurized air through said venturi to generate an at least partial vacuum in the vacuum passageway and at the vacuum cup when the vacuum cup is engaged with an object, the pressurized air flowing through the venturi and drawing air from the vacuum passageway and into the venturi via at least one vacuum port of the venturi ; the vacuum cup is configured to substantially seal against the object when the venturi generates at least a partial vacuum in the vacuum passageway ; a device at a discharge of the venturi nozzle , the device comprising a housing defining a chamber, a plurality of spaced exit openings and a movable cap , air discharged at the venturi is diverted in the chamber and flows out through the exit openings; wherein the device at the discharge of the venturi nozzle is a noise reduction device or a diffuser device . and characterised in that the movable cap is movable to cover the plurality of exit opening to override the vacuum, enabling the vacuum cup to be positioned or repositioned on the object. a vacuum device adapted to connect to a pressurized air supply, said vacuum device having a vacuum passageway and a venturi positioned within said vacuum device ; a vacuum cup configured to engage an object; said pressurized air supply being activatable to force pressurized air through said venturi to generate an at least partial vacuum in the vacuum passageway and at the vacuum cup when the vacuum cup is engaged with an object, the pressurized air flowing through the venturi and drawing air from the vacuum passageway and into the venturi via at least one vacuum port of the venturi ; the vacuum cup is configured to substantially seal against the object when the venturi generates at least a partial vacuum in the vacuum passageway ; a device at a discharge of the venturi nozzle , the device comprising a housing defining a chamber, a plurality of spaced exit openings and a movable cap , air discharged at the venturi is diverted in the chamber and flows out through the exit openings; wherein the device at the discharge of the venturi nozzle is a noise reduction device or a diffuser device . and characterised in that the movable cap is movable to cover the plurality of exit opening to override the vacuum, enabling the vacuum cup to be positioned or repositioned on the object.
A catheter pump system comprising: an impeller ; a catheter body having a lumen in which fluid flows proximally therethrough during operation of the catheter pump system; a drive shaft disposed inside the catheter body and coupled with the impeller at a distal portion of the drive shaft , the drive shaft being configured such that rotation of the drive shaft causes the impeller to rotate; and a motor assembly comprising: a chamber , at least a portion of the chamber being in fluid communication with the lumen of the catheter body ; a rotor disposed in the at least a portion of the chamber , the rotor being mechanically coupled with a proximal portion of the drive shaft such that rotation of the rotor causes the drive shaft to rotate; and a stator assembly disposed about the rotor and configured to cause the rotor to rotate, wherein the rotor includes a longitudinal rotor lumen therethrough, and wherein, during operation of the catheter pump system, the fluid flows from the lumen into the chamber such that at least a portion of the fluid flows proximally through the longitudinal rotor lumen. an impeller ; a catheter body having a lumen in which fluid flows proximally therethrough during operation of the catheter pump system; a drive shaft disposed inside the catheter body and coupled with the impeller at a distal portion of the drive shaft , the drive shaft being configured such that rotation of the drive shaft causes the impeller to rotate; and a motor assembly comprising: a chamber , at least a portion of the chamber being in fluid communication with the lumen of the catheter body ; a rotor disposed in the at least a portion of the chamber , the rotor being mechanically coupled with a proximal portion of the drive shaft such that rotation of the rotor causes the drive shaft to rotate; and a stator assembly disposed about the rotor and configured to cause the rotor to rotate, wherein the rotor includes a longitudinal rotor lumen therethrough, and wherein, during operation of the catheter pump system, the fluid flows from the lumen into the chamber such that at least a portion of the fluid flows proximally through the longitudinal rotor lumen. a chamber , at least a portion of the chamber being in fluid communication with the lumen of the catheter body ; a rotor disposed in the at least a portion of the chamber , the rotor being mechanically coupled with a proximal portion of the drive shaft such that rotation of the rotor causes the drive shaft to rotate; and a stator assembly disposed about the rotor and configured to cause the rotor to rotate, wherein the rotor includes a longitudinal rotor lumen therethrough, and wherein, during operation of the catheter pump system, the fluid flows from the lumen into the chamber such that at least a portion of the fluid flows proximally through the longitudinal rotor lumen.
Refrigeration appliance comprising a fan module which is accommodated in a housing comprising a housing front side part and a housing rear side part , wherein the fan module is secured to the housing rear side part and is held in place by means of the housing front side part , wherein the housing rear side part incorporates at least one support stud for slipping on the fan module , characterised in that the support stud is in contact with an end support for holding the fan module in place, so that a displacement of the fan module is prevented, wherein the end support is a projecting segment in the housing front side part .
A rail vehicle having at least one car body , and a monitoring device comprising a video camera for monitoring a monitored zone located outside the car body , wherein the monitored zone extends either above a roof of the car body to include a current collector in an operative position and in a retracted position or alongside several side door openings provided in a side wall of the car body for boarding and alighting from the rail vehicle , characterised in that the video camera is located inside the car body and the monitoring device further comprises at least one image deflecting device which, in an operative position, is located at least partially outside the car body so as to redirect light from the monitored zone towards the video camera , wherein the car body comprises a window opening located in a light path between a front lens of the video camera and the image deflecting device in the operative position, and the window opening is perpendicular to the light path.
A system for dynamically adjusting an operation of a magnetostrictive position sensor , the system comprising: a controller configured to: receive an electrical signal from the magnetostrictive position sensor that includes a response pulse ; identify factory calibration data that correlates initial recorded values of amplitudes of response pulses received from the magnetostrictive position sensor at different locations (d1, d2) of a position magnet along a length of the magnetostrictive position sensor ; identify an initial amplitude of the response pulse based on the factory calibration data ; calculate a difference between the initial amplitude and an amplitude of the response pulse ; determine if the difference is greater than a threshold value ; and generate an alert in response to determining that the difference is greater than the threshold value . receive an electrical signal from the magnetostrictive position sensor that includes a response pulse ; identify factory calibration data that correlates initial recorded values of amplitudes of response pulses received from the magnetostrictive position sensor at different locations (d1, d2) of a position magnet along a length of the magnetostrictive position sensor ; identify an initial amplitude of the response pulse based on the factory calibration data ; calculate a difference between the initial amplitude and an amplitude of the response pulse ; determine if the difference is greater than a threshold value ; and generate an alert in response to determining that the difference is greater than the threshold value .
A safety device for passage of pipes on boat deck and bulkheads of boats, comprising at least one static sealing member comprising at least one double flange for being fixed in a sleeve/passage tubes of any diameter suitable for the passage of pipes for boats, said double flange comprising at least two cylindrical-shaped flange sides , which are coupled to one another, wherein said safety device comprises a gasket or a set of gaskets , wherein said flange sides are in turn divided into at least further two or more semi-flanges each (2a', 2a", 2b', 2b") of cylindrical sector shape, said semi-flanges (2a', 2a", 2b', 2b") comprising coupling zones to be coupled to form a first flange side and coupling zones to be coupled to form a second flange side , said flange sides being coupled facing between them to form the double flange, the safety device being modular and comprising several semi-flanges, adapted to be assembled directly on board of a boat in boat deck and/or bulkheads sleeves/tube passages of any type, being adaptable also to pre-existing tube passages , said semi-flanges of the first flange side being male semi-flanges comprising internal profiles , external profiles and radial profiles all raised above the plane of the semi-flanges (2a', 2a"), and said semi-flanges of the second flange side being female semi-flanges comprising internal profiles , external profiles and radial profiles lowered compared to the plane of the semi-flanges (2b', 2b"), said internal profiles , external profiles and radial profiles of said semi-flanges (2b', 2b") of the second flange side forming housings to house said gasket or set of gaskets of said safety device, wherein the semi-flanges are made with circumference (Cint, Cout) internal and external in the shape of a circular crown, with external and internal edges or profiles of respective radius (r2, r1) that are raised with respect to the plane of the semi-flange of the first side (2a', 2a"), these profiles having preferably wedge-shaped section , wherein at least one flange of the second side and its semi-flanges (2b', 2b") are made with internal and external circumference of circular crown shape (Cint, Cout) with external and internal edges or profiles of respective radius (r1, r2) embossed and lowered, with a hollow or excavation compared to the rest of the plane of flange , in particular to the plane that faces to couple to the flange of the first side (2a', 2a") and/or its semi-flange (2a', 2a") constituting said flange.
Sensor element for detecting at least one property of a measuring gas in a measuring gas chamber, in particular for detecting a proportion of a gas component in the measuring gas or a temperature of the measuring gas, comprising a ceramic layered structure having at least one electrochemical cell, wherein the electrochemical cell has at least a first electrode , a second electrode and at least one solid electrolyte connecting the first electrode and the second electrode , wherein an electrode cavity is formed in the layered structure , wherein the second electrode is arranged in the layered structure such that the second electrode faces the electrode cavity , wherein the second electrode has at least one first outer diameter that is larger than a first outer diameter of the electrode cavity , characterized in that the electrode cavity has an annular design and has at least two round electrode cavity sections that oppose one another with a midpoint of the electrode cavity between them, and in that the first outer diameter of the electrode cavity is defined by the two round electrode cavity sections , and in that the second electrode has an annular design and has at least two round electrode sections that oppose one another with a midpoint of the second electrode between them, and in that the first outer diameter of the second electrode is defined by the two round electrode sections , and in that the two round electrode cavity sections and the two round electrode sections are arranged parallel to one another, and in that the electrode cavity has at least two straight electrode cavity sections that oppose one another with a midpoint of the electrode cavity between them, and in that a second outer diameter of the electrode cavity is defined by the two straight electrode cavity sections , and in that the second electrode has at least two straight electrode sections that oppose one another with a midpoint of the second electrode between them, and in that a second outer diameter of the second electrode is defined by the two straight electrode sections , wherein the second outer diameter of the second electrode is larger than the second outer diameter of the electrode cavity , and in that the two straight electrode cavity sections and the two straight electrode sections are arranged parallel to one another, and in that the layered structure has a connection side , an end face , an upper side , a lower side and two side faces , and in that the side faces connect the upper side and the lower side , and in that the two straight electrode cavity sections and the two straight electrode sections are arranged parallel to the side faces .