mhurhangee/patent-ind-claim-en huggingface dataset:
Method for tightening a thread joint of a base part and a part to be attached by rotating a differential thread connector in screw-in direction, wherein the differential thread connector has one-directional thread portions with a small thread pitch (S1) and a large thread pitch (S2), characterized in that initially, the differential thread connector is screwed in to a predetermined length with a stopper element , wherein the stopper element has an inner thread with the large thread pitch (S2) and a contact surface to contact with the part to be attached; subsequently, the differential thread connector is screwed into the base part with the small thread pitch (S1) until a tight coupling of the contact surface of the stopper element and the part to be attached is reached, wherein the preliminary tightening is carried out in screw-in direction; thereafter, the differential thread connector is rotated in screw-out direction, and the final tightening is carried out.
Method for automatically registering a user on a field device for the purpose of administering the field device , comprising a) providing (S1) user information (U1) on the basis of an identity of the user and an identity of the field device by way of a security device , b) transmitting (S2) the provided user information (U1) to a mobile device of the user, c) generating (S3) field-device-specific registration information (U2) on the basis of the transmitted user information (U1) by way of the mobile device , and d) registering (S4) the user on the field device by means of the generated registration information (U2), characterized in that there is provision for a receiving apparatus , couplable to the field device , that registers on the field device as an interface device and that uses a communication connection (K2) to the mobile device to receive the registration information (U2) from the mobile device and registers the user on the field device , and the mobile device sends an administration input for administering the field device to the receiving apparatus in addition to the registration information (U2) and after the user has been registered on the field device . a) providing (S1) user information (U1) on the basis of an identity of the user and an identity of the field device by way of a security device , b) transmitting (S2) the provided user information (U1) to a mobile device of the user, c) generating (S3) field-device-specific registration information (U2) on the basis of the transmitted user information (U1) by way of the mobile device , and d) registering (S4) the user on the field device by means of the generated registration information (U2),
A method for transmitting data, comprising: determining, by a network device, a numerology for transmitting data and determining, by the network device, one target frequency band for transmitting the data (S210), wherein the target frequency band comprises a transmission frequency band for transmitting the data and a guard tone; wherein determining, by the network device, the numerology for transmitting the data comprises: determining, by the network device, the numerology for transmitting the data from a plurality of predefined numerologies; sending, by the network device, configuration information to a terminal device (S220), wherein the configuration information comprises the numerology and information of the target frequency band; and receiving, by the network device, the data sent by the terminal device on the transmission frequency band according to the numerology (S422), or sending, by the network device, the data to the terminal device on the transmission frequency band according to the numerology (S411); wherein, the guard tone is located at both a high-frequency end and a low-frequency end of the target band; wherein the bandwidth of the guard tone is an integer multiple of minimum subcarrier spacing supported by the network device; wherein the information of the target frequency band comprises a start position and an end position of the target frequency band and both start and end position of the part of the guard tone located at the low-frequency end and start and end position of the part of the guard tone located at the high-frequency end. determining, by a network device, a numerology for transmitting data and determining, by the network device, one target frequency band for transmitting the data (S210), wherein the target frequency band comprises a transmission frequency band for transmitting the data and a guard tone; wherein determining, by the network device, the numerology for transmitting the data comprises: determining, by the network device, the numerology for transmitting the data from a plurality of predefined numerologies; sending, by the network device, configuration information to a terminal device (S220), wherein the configuration information comprises the numerology and information of the target frequency band; and receiving, by the network device, the data sent by the terminal device on the transmission frequency band according to the numerology (S422), or sending, by the network device, the data to the terminal device on the transmission frequency band according to the numerology (S411); wherein, the guard tone is located at both a high-frequency end and a low-frequency end of the target band; wherein the bandwidth of the guard tone is an integer multiple of minimum subcarrier spacing supported by the network device; wherein the information of the target frequency band comprises a start position and an end position of the target frequency band and both start and end position of the part of the guard tone located at the low-frequency end and start and end position of the part of the guard tone located at the high-frequency end.
A system for storing and releasing energy, wherein said system is deployed in a body of water, said system comprising: a platform ; multiple weights stored on a floor of the body of water; a hoist system , said hoist system capable of moving at least one weight between a first elevation position and a second elevation position; and a remotely operated attachment device coupled to said hoist system , said remotely operated attachment device configured to locate and couple to at least one weight on the floor of the body of water, said hoist system selectively raises and lowers at least one weight when coupled to said remotely operated attachment device from the first elevation position to the second elevation position, said system stores and releases energy when at least one weight moves between the first elevation position and the second elevation position, characterised in that said platform is capable of moving over the body of water so that said multiple weights may be located at different locations on the floor of the body of water. a platform ; multiple weights stored on a floor of the body of water; a hoist system , said hoist system capable of moving at least one weight between a first elevation position and a second elevation position; and a remotely operated attachment device coupled to said hoist system , said remotely operated attachment device configured to locate and couple to at least one weight on the floor of the body of water, said hoist system selectively raises and lowers at least one weight when coupled to said remotely operated attachment device from the first elevation position to the second elevation position, said system stores and releases energy when at least one weight moves between the first elevation position and the second elevation position, characterised in that said platform is capable of moving over the body of water so that said multiple weights may be located at different locations on the floor of the body of water.
Ground-fixing system for a tyre characteristics sensor housing , the housing fixing being designed to withstand the severe stresses associated with numerous vehicles driving over the housing, said ground-fixing system comprising: i) a fixing plate comprising a plurality of recesses of a given profile distributed over the surface of the fixing plate; ii) a plurality of fastening pins suitable for cooperating with the profiles of the recesses of the fixing plate, similarly distributed on a fixing face of said sensor housing with a degree of freedom in rotation so as to allow the pins to be inserted and immobilized by simple rotation in the corresponding recesses; iii) the shapes and dimensions of the recesses and of the pins for fixing being provided so as to allow, on the one hand, in a position of insertion of the pins, engagement of the latter in said recesses and, on the other hand, in a locking position of the pins resulting from a rotation of said pins, fixing of the sensor housing on the fixing plate . i) a fixing plate comprising a plurality of recesses of a given profile distributed over the surface of the fixing plate; ii) a plurality of fastening pins suitable for cooperating with the profiles of the recesses of the fixing plate, similarly distributed on a fixing face of said sensor housing with a degree of freedom in rotation so as to allow the pins to be inserted and immobilized by simple rotation in the corresponding recesses; iii) the shapes and dimensions of the recesses and of the pins for fixing being provided so as to allow, on the one hand, in a position of insertion of the pins, engagement of the latter in said recesses and, on the other hand, in a locking position of the pins resulting from a rotation of said pins, fixing of the sensor housing on the fixing plate .
Handheld power tool having a gear mechanism and a torque clutch which has a limiting unit which is assigned to the gear mechanism and which is assigned a transmission element which is acted on by at least one spring element , wherein a torque level of the torque clutch can be set at least within predetermined limits via an operating element actuated by a user, wherein the limiting unit has at least one latching body which engages in the transmission element at least in certain portions in the axial direction of the torque clutch , wherein the transmission element has at least one cutout for axially receiving at least one latching body at least in certain portions, and the at least one cutout is formed in the manner of an opening , and the at least one latching body is ball-shaped, wherein the at least one ball-shaped latching body engages in the opening at least in certain portions, or the at least one cutout has a polygonal basic surface area , and the at least one latching body is cylindrical in form, wherein the at least one cylindrical latching body engages in the at least one cutout at least in certain portions, characterized in that a diameter (D A ) of the at least one cutout is less than a diameter (D K ) of the at least one ball-shaped latching body , or a circumferential width of the at least one cutout is less than a diameter (D Z ) of the at least one cylindrical latching body .
A system information transmission method, wherein the method comprises: broadcasting (S201), by a network device , a minimum system information, MSI, message, wherein the MSI message comprises identification information of at least one system information block, SIB, group, characterized in that the identification information of each SIB group comprises an identifier of the SIB group and a type indication of the SIB group, the type indication of the SIB group indicating that a type of the SIB group is area specific system information or cell specific system information.
Marine transmission having a housing , having a main drive shaft , which is connectable to a main drive motor , having a first intermediate shaft , having a second intermediate shaft and having an output shaft , via which at least one propeller is drivable, wherein an output gearwheel arranged on the output shaft is in engagement with a first drive pinion , with a second drive pinion and with a third drive pinion , wherein the first drive pinion is connectable to the main drive shaft via a first power-shiftable clutch , wherein the second drive pinion is connectable to the first intermediate shaft via a second power-shiftable clutch , wherein the third drive pinion is connected to the second intermediate shaft in a manner resistant to torsion, and wherein the marine transmission comprises an electric machine as an auxiliary drive; characterized in that the marine transmission comprises a planetary transmission , in that the electric machine is connectable via the planetary transmission to the second intermediate shaft of the marine transmission , in that a spur gear stage is arranged between the planetary transmission and the second intermediate shaft , and in that the electric machine is located outside the housing .
A vessel operation system comprising: a propulsion apparatus configured to be disposed on a hull of a vessel to generate a thrust with an engine ; an electrically-driven trolling motor configured to be mounted externally to the hull to generate a thrust by being driven by electric power from a battery ; and a controller configured or programmed to control the propulsion apparatus and the trolling motor ; wherein in a state in which the trolling motor is generating the thrust, the controller is configured or programmed to control the propulsion apparatus so as to generate an assist thrust that hastens a behavior of the hull by the thrust generated by the trolling motor , characterized in that the propulsion apparatus is configured to generate electric power with the engine , and the electrically-driven trolling motor is configured to be driven by electric power from the battery that is chargeable by electric power generated by the propulsion apparatus , and in that when, in a state in which the trolling motor is generating the thrust, an output of the trolling motor exceeds a predetermined threshold, the controller is configured or programmed to control the propulsion apparatus so as to generate the assist thrust. a propulsion apparatus configured to be disposed on a hull of a vessel to generate a thrust with an engine ; an electrically-driven trolling motor configured to be mounted externally to the hull to generate a thrust by being driven by electric power from a battery ; and a controller configured or programmed to control the propulsion apparatus and the trolling motor ; wherein in a state in which the trolling motor is generating the thrust, the controller is configured or programmed to control the propulsion apparatus so as to generate an assist thrust that hastens a behavior of the hull by the thrust generated by the trolling motor , characterized in that the propulsion apparatus is configured to generate electric power with the engine , and the electrically-driven trolling motor is configured to be driven by electric power from the battery that is chargeable by electric power generated by the propulsion apparatus , and in that when, in a state in which the trolling motor is generating the thrust, an output of the trolling motor exceeds a predetermined threshold, the controller is configured or programmed to control the propulsion apparatus so as to generate the assist thrust.
Ground drilling device for cable-guided drilling with a drive unit for connecting and/or moving pipe segments of a drill pipe along a drill pipe axis (L) and a cable magazine for intake of a cable with a length of at least two pipe segments and a contact device for electrical contact with one end of the cable of the cable magazine , characterised in that the cable feed has a rotary union , which arranges the cable axially on the drill pipe axis and which has at one end an opening for the cable coming from the cable magazine and on the other side has a connector , which is to connect with the pipe segment of the drill pipe or a new pipe segment, which is to connect with the already bored drill pipe, wherein the cable magazine is arranged endways to the rotary union spaced apart from the connector which comes in contact with a pipe segment, wherein the cable from the cable magazine passes through the rotary union and the connector from the rear.
A support system for a passenger transport vehicle , the system comprising: a plurality of base support units configured to be mounted to a floor of the vehicle , wherein the plurality of base support units form a grid of base support units along a cross-sectional direction and a longitudinal direction of the passenger transport vehicle ; a first transport device (240-270) configured to hold a first type of good or person, the first transport device (240-270) comprising a standardized mounting unit mounted to one of the plurality of base support units ; a second transport device (240-270) configured to hold a second type of good or person, the second transport device (240-270) comprising a standardized mounting unit mounted to another one of the plurality of base support units ; and a third transport device (240-270) configured to hold a third type of good or person, the third transport device (240-270) comprising a plurality of standardized mounting units , each of which is mounted to a respective base support unit of a group of adjacent base support units in the grid of base support units . a plurality of base support units configured to be mounted to a floor of the vehicle , wherein the plurality of base support units form a grid of base support units along a cross-sectional direction and a longitudinal direction of the passenger transport vehicle ; a first transport device (240-270) configured to hold a first type of good or person, the first transport device (240-270) comprising a standardized mounting unit mounted to one of the plurality of base support units ; a second transport device (240-270) configured to hold a second type of good or person, the second transport device (240-270) comprising a standardized mounting unit mounted to another one of the plurality of base support units ; and a third transport device (240-270) configured to hold a third type of good or person, the third transport device (240-270) comprising a plurality of standardized mounting units , each of which is mounted to a respective base support unit of a group of adjacent base support units in the grid of base support units .
Induction energy transmission system, in particular induction cooking system, having at least one supply unit (12a-b) that has at least one supply induction element (14a-b) that provides inductive energy in at least one operating state and having at least one receiving unit (16a-b) that has at least one receiving induction element (18a-b) that in the operating state receives at least a part of the energy that is provided by the supply induction element (14a-b) and transfers at least a large proportion of the received energy into electrical energy, and has at least one further receiving induction element (20a-b) that in the operating state, at least in part simultaneously, receives at least a further part of the energy that is provided by the supply induction element (14a-b) and transfers at least a large proportion of the received energy into thermal energy, wherein the receiving unit (16a-b) is designed as a placement unit that has at least one receiving space (30a-b) for receiving items of food, characterised in that in the operating state the further receiving induction element (20a-b) is designed as a wall that at least in sections delimits the receiving space (30a-b).
A computer-implemented method of determining rotation and scale of an auxiliary data signal embedded in a host image and decoding the auxiliary data signal, the method comprising: convolving the host image with differential kernels corresponding to a sparse differential pattern at plural different rotations and scales to obtain feature vectors, the sparse differential pattern comprising a two-dimensional square matrix having interleaved embedding locations of different data signal elements, each data signal element having plural embedding locations , comprising: elements at non-adjacent embedding locations spaced apart by neighboring elements and comprising elements in the non-adjacent embedding locations that have opposite polarity; obtaining rotation and scale parameters from the feature vectors by correlating the feature vectors with pre-computed feature vectors and determining a rotation and scale based on correlation between a feature vector obtained from the host image and a pre-computed feature vector ; applying an extraction filter at an orientation of the rotation and scale parameters to extract estimates of variable data elements of the auxiliary data signal ; and error correction decoding a variable message from the estimates . elements at non-adjacent embedding locations spaced apart by neighboring elements and comprising elements in the non-adjacent embedding locations that have opposite polarity; obtaining rotation and scale parameters from the feature vectors by correlating the feature vectors with pre-computed feature vectors and determining a rotation and scale based on correlation between a feature vector obtained from the host image and a pre-computed feature vector ; applying an extraction filter at an orientation of the rotation and scale parameters to extract estimates of variable data elements of the auxiliary data signal ; and error correction decoding a variable message from the estimates .
A conveyer device comprising: - a lower-level side conveyer line installed in a lower level; - an upper-level side conveyer line installed in an upper level; and - a connection line connecting the lower-level side conveyer line and the upper-level side conveyer line , wherein a conveying device is provided into at least one of the conveyer lines to form a branching unit , wherein the connection line is installed in an inclined attitude near the conveying device, wherein the connection line is a conveyer for conveying a conveyed object by power, wherein the conveying device comprises: - a main conveyer unit that includes a main conveying passage disposed in a fixed planar region and that conveys a conveyed object in a fixed direction; - a sub conveyer unit that includes a sub conveying passage disposed in the same planar region as the main conveying passage and that conveys the conveyed object in a direction intersecting with the conveying direction of the main conveying passage ; and - a lifting and lowering unit that lifts and lowers at least one of the main conveyer unit and the sub conveyer unit , the lifting and lowering unit being capable of lifting the sub conveying passage above the main conveying passage , wherein when the sub conveying passage is disposed above the main conveying passage , the sub conveying passage takes an inclined attitude in a height direction, characterized in that an idling roller is disposed between the sub conveying passage and the connection line , the idling roller intersecting with a conveying direction of the connection line , wherein an extension line of a conveying surface of the connection line abuts on an outer peripheral surface of the idling roller , and wherein when the sub conveying passage takes an inclined attitude, an extension line of a conveying surface of the sub conveying passage abuts on the outer peripheral surface of the idling roller . - a lower-level side conveyer line installed in a lower level; - an upper-level side conveyer line installed in an upper level; and - a connection line connecting the lower-level side conveyer line and the upper-level side conveyer line , - a main conveyer unit that includes a main conveying passage disposed in a fixed planar region and that conveys a conveyed object in a fixed direction; - a sub conveyer unit that includes a sub conveying passage disposed in the same planar region as the main conveying passage and that conveys the conveyed object in a direction intersecting with the conveying direction of the main conveying passage ; and - a lifting and lowering unit that lifts and lowers at least one of the main conveyer unit and the sub conveyer unit , the lifting and lowering unit being capable of lifting the sub conveying passage above the main conveying passage ,