mhurhangee/patent-ind-claim-en huggingface dataset:
A dental restoration comprising: a lithium silicate glass ceramic heated and pressed onto a metal alloy substrate, the metal alloy substrate being shaped to conform to a base impression or scan of the relevant portion of the mouth, characterised in that the lithium silicate glass ceramic has a flexural strength of between 300 to 380 MPa and is shaped to replicate the dental structure being restored, and the coefficient of thermal expansion of the metal alloy is in the range of 12 to 13.5 x 10 -6 /K, and the coefficient of thermal expansion of the lithium silicate glass ceramic is in the range of 11.5 to 12.5 x 10 -6 /K, wherein the coefficient of thermal expansion of the metal alloy is selected to be slightly greater than the coefficient of thermal expansion of the lithium silicate glass ceramic. a lithium silicate glass ceramic heated and pressed onto a metal alloy substrate, the metal alloy substrate being shaped to conform to a base impression or scan of the relevant portion of the mouth, characterised in that the lithium silicate glass ceramic has a flexural strength of between 300 to 380 MPa and is shaped to replicate the dental structure being restored, and the coefficient of thermal expansion of the metal alloy is in the range of 12 to 13.5 x 10 -6 /K, and the coefficient of thermal expansion of the lithium silicate glass ceramic is in the range of 11.5 to 12.5 x 10 -6 /K, wherein the coefficient of thermal expansion of the metal alloy is selected to be slightly greater than the coefficient of thermal expansion of the lithium silicate glass ceramic.
High-energy surge current limiter for a voltage intermediate circuit converter, comprising a primary winding having two electrical terminals and a secondary winding magnetically coupled to the primary winding, wherein the secondary winding is short-circuited, characterized in that the primary winding and the secondary winding are electrically connected at points, whereby the electrical short circuit for the secondary winding is realized by way of the primary winding, and the primary and the secondary winding are fixed to a tensioning brace.
Battery for electric bicycles comprising a total number N of cells distributed in a plurality of blocks of a number n of cells , a management system for batteries and at least one connector , where the blocks are arranged lengthwise one after the other between a first end of the battery and a second end of the battery , where the battery is characterized by further comprising: - one semi-block having a number of cells at least one cell fewer than n and one additional semi-block comprising at least one cell , the semi-block and the additional semi-block being arranged lengthwise one after the other at the first end of the battery , such that - the battery comprises at least first and second spaces , where - the first space is found in the semi-block , and - the second space is in the additional semi-block , and where - the management system and the connector are provided in said spaces . - one semi-block having a number of cells at least one cell fewer than n and one additional semi-block comprising at least one cell , the semi-block and the additional semi-block being arranged lengthwise one after the other at the first end of the battery , such that - the battery comprises at least first and second spaces , where - the first space is found in the semi-block , and - the second space is in the additional semi-block , and where - the management system and the connector are provided in said spaces .
A pack comprising: a. a container, the container having a container body, and the container body being sufficiently oxygen permeable to prevent an anaerobically curable composition held therein from curing due to absence of oxygen; and b. an anaerobically curable composition held within the container; wherein the container body is constructed from a plastics material which is formed from a blend of a thermoplastic starch component and a polyethylene. a. a container, the container having a container body, and the container body being sufficiently oxygen permeable to prevent an anaerobically curable composition held therein from curing due to absence of oxygen; and b. an anaerobically curable composition held within the container;
A method for transmitting a message in an electronic device , the method comprising: displaying a screen comprising an input window and a plurality of dialog windows ; displaying an input message on the input window, the input message being inputted by a user of the electronic device; receiving a gesture comprising a movement in a first direction towards a first dialog window and in a second direction towards a second dialog window; determining the first and second dialog window among the plurality of dialog windows based on the respective first and second direction of the movement in the gesture; transmitting the input message to each of the determined first and second dialog window; and displaying the input message in the determined first and second dialog window. displaying a screen comprising an input window and a plurality of dialog windows ; displaying an input message on the input window, the input message being inputted by a user of the electronic device; receiving a gesture comprising a movement in a first direction towards a first dialog window and in a second direction towards a second dialog window; determining the first and second dialog window among the plurality of dialog windows based on the respective first and second direction of the movement in the gesture; transmitting the input message to each of the determined first and second dialog window; and displaying the input message in the determined first and second dialog window.
A method for controlling temperature of a switching device of an electrical power system, the electrical power system having a generator and a power converter containing the switching device, the method comprising: monitoring , via one or more sensors, at least one operating condition of the electrical power system, the at least one operating condition of the electrical power system comprising at least one of coolant temperature, baseplate temperature, modeled switching device temperature, DC link voltage, DC link current, bridge currents, system current feedbacks, system voltage feedbacks, generator speed, wind speed, wind turbulence, and grid frequency; monitoring a temperature of the switching device; and controlling , via a control system communicatively coupled to the one or more sensors, torque of the generator of the electrical power system based on the at least one operating condition of the electrical power system, wherein the method is characterized by the controlling comprising: increasing, in response to certain grid and wind conditions, the torque to prevent an increase in generator speed of the electrical power system from causing an increase in the temperature of the switching device, and, otherwise, decreasing the torque in response to the coolant temperature, the baseplate temperature, and the modeled switching temperature exceeding a predetermined temperature threshold. monitoring , via one or more sensors, at least one operating condition of the electrical power system, the at least one operating condition of the electrical power system comprising at least one of coolant temperature, baseplate temperature, modeled switching device temperature, DC link voltage, DC link current, bridge currents, system current feedbacks, system voltage feedbacks, generator speed, wind speed, wind turbulence, and grid frequency; monitoring a temperature of the switching device; and controlling , via a control system communicatively coupled to the one or more sensors, torque of the generator of the electrical power system based on the at least one operating condition of the electrical power system, wherein the method is characterized by the controlling comprising: increasing, in response to certain grid and wind conditions, the torque to prevent an increase in generator speed of the electrical power system from causing an increase in the temperature of the switching device, and, otherwise, decreasing the torque in response to the coolant temperature, the baseplate temperature, and the modeled switching temperature exceeding a predetermined temperature threshold.
A circuit for feeding a fluid to an inflatable chamber, comprising: - a compressor ; - a two-way and two-position solenoid valve , provided with a first port and a second port and operable between an open configuration, in which the ports are in communication with one another, and a closed configuration, wherein at least the second port is closed; - a first conduit connecting the compressor to the solenoid valve ; - a second conduit connected to the solenoid valve and predisposed for being connected to an inflatable chamber; - a pressure detector (P), arranged for measuring the pressure inside the second conduit ; - a control module (M), predisposed for receiving a pressure signal from the pressure detector (P), and controlling the solenoid valve as well as the compressor ; characterized in that it comprises a vent opening (A) arranged along the first conduit . - a compressor ; - a two-way and two-position solenoid valve , provided with a first port and a second port and operable between an open configuration, in which the ports are in communication with one another, and a closed configuration, wherein at least the second port is closed; - a first conduit connecting the compressor to the solenoid valve ; - a second conduit connected to the solenoid valve and predisposed for being connected to an inflatable chamber; - a pressure detector (P), arranged for measuring the pressure inside the second conduit ; - a control module (M), predisposed for receiving a pressure signal from the pressure detector (P), and controlling the solenoid valve as well as the compressor ;
An axle assembly comprising: an input member ; a first planetary gear set having a first transmission input that is drivable by the input member ; and a second planetary gear set ; and a motor; wherein a sun gear of the first planetary gear set is non-rotatably coupled to a sun gear of the second planetary gear set ; and wherein the motor is drivingly coupled to the input member through an auxiliary gear reduction; wherein the motor is an electric motor and the axle assembly further comprising: a differential assembly having a differential carrier and first and second differential output members received in the differential carrier ; the second planetary gear set having a planet carrier coupled to the differential carrier for common rotation, the differential assembly further comprises a plurality of pinion gears that are mounted in the differential carrier , and the output members of the differential assembly are side gears that are meshingly engaged to the pinion gears. an input member ; a first planetary gear set having a first transmission input that is drivable by the input member ; and a second planetary gear set ; and a motor; wherein a sun gear of the first planetary gear set is non-rotatably coupled to a sun gear of the second planetary gear set ; and wherein the motor is drivingly coupled to the input member through an auxiliary gear reduction; wherein the motor is an electric motor and the axle assembly further comprising: a differential assembly having a differential carrier and first and second differential output members received in the differential carrier ; the second planetary gear set having a planet carrier coupled to the differential carrier for common rotation, the differential assembly further comprises a plurality of pinion gears that are mounted in the differential carrier , and the output members of the differential assembly are side gears that are meshingly engaged to the pinion gears. a differential assembly having a differential carrier and first and second differential output members received in the differential carrier ; the second planetary gear set having a planet carrier coupled to the differential carrier for common rotation, the differential assembly further comprises a plurality of pinion gears that are mounted in the differential carrier , and the output members of the differential assembly are side gears that are meshingly engaged to the pinion gears.
An industrial controller unit adapted to be coupled to a plurality of programming units via a network , the industrial controller unit comprising: a controller storage element adapted to store a plurality of characteristics associated with a plurality of source code objects of a source code pertaining to an industrial control program; wherein each source code object has at least one characteristic and wherein the at least one characteristic comprises data pertaining to a location of the source code object on at least one of the plurality of programming units ; and a distribution element adapted to receive an inquiry for a source code object from a first programming unit among the plurality of programming units , to retrieve from the controller storage element data pertaining to a corresponding location of the source code object on a second programming unit among the plurality of programming units , the second programming unit being different from the first programming unit , and to cause the source code object to be transferred from the second programming unit to the first programming unit ; wherein the distribution element is adapted to receive, from the first programming unit , a characteristic of a first source code object stored locally on the first programming unit , and to compare a first characteristic of the first source code object to a corresponding characteristic of the source code object, and is adapted to cause the source code object to be transferred from the second programming unit to the first programming unit only if the comparison reveals a difference. a controller storage element adapted to store a plurality of characteristics associated with a plurality of source code objects of a source code pertaining to an industrial control program; wherein each source code object has at least one characteristic and wherein the at least one characteristic comprises data pertaining to a location of the source code object on at least one of the plurality of programming units ; and a distribution element adapted to receive an inquiry for a source code object from a first programming unit among the plurality of programming units , to retrieve from the controller storage element data pertaining to a corresponding location of the source code object on a second programming unit among the plurality of programming units , the second programming unit being different from the first programming unit , and to cause the source code object to be transferred from the second programming unit to the first programming unit ; wherein the distribution element is adapted to receive, from the first programming unit , a characteristic of a first source code object stored locally on the first programming unit , and to compare a first characteristic of the first source code object to a corresponding characteristic of the source code object, and is adapted to cause the source code object to be transferred from the second programming unit to the first programming unit only if the comparison reveals a difference.
Apparatus for laterally securing a load in a loading space of a vehicle , in particular of a trailer, comprising the loading space and at least one securing element (11.1-11.3) for securing the load in the loading space , wherein the securing element (11.1-11.3) can be shifted from a first position into a second position, for the purpose of retaining the load , wherein the second position of the securing element (11.1-11.3) is located within the loading space , and the securing element (11.1-11.3) can be shifted inwards, from a peripheral region of the loading space , towards the centre of the loading space into the second position of the securing element (11.1-11.3), characterized in that the apparatus comprises at least two supports (30.1, 30.2) and at least two arms (13.1-13.4), wherein the at least two arms (13.1-13.4) are each mounted in a pivotable manner on a support (30.1, 30.2) and the securing element (11.1-11.3) is mounted in a pivotable manner between the two arms (13.1-13.4), and wherein the pivotable mounting allows the securing element (11.1-11.3) to be moved from its first position into its second position and back.
A spool for use with an elongate flexible signal transmitting conductor which has a first end configured to be coupled to a detonator and a second end configured to be coupled to a connector , the spool including a first flange with a first inner face and a first outer face, a second flange with a second inner face and a second outer face, and a core which is positioned between and which is connected to the first and second flanges with the first inner face opposing the second inner face thereby defining an annular space within which most of the elongate flexible conductor is coiled, around the core, the first flange including detonator locating formations and connector locating formations on the first outer face, a first exit formation for the conductor and a second exit formation for the conductor whereby said first end and said second end are positionable on the first outer face and are respectively engageable with the detonator engaged with the detonator locating formations and the connector engaged with the connector locating formations.
A bicycle helmet for a cyclist, with: a helmet body , wherein the helmet body comprises an outer plastic shell and an inner damping layer , and wherein the helmet body comprises at least one aperture , which penetrates the outer plastic shell and the inner damping layer , at least one damping element , which is arranged in the at least one aperture , and is designed to absorb forces acting on the helmet body and to protect the cyclist's head, characterised in that the at least one damping element has a chamber structure with a plurality of chambers , which are each bounded laterally by chamber crosspieces , wherein the chambers of the plurality of chambers each comprise a lower annular chamber plane (125-1), each comprise an upper annular chamber plane (125-3) and each comprise an annular chamber middle plane (125-2) arranged between the lower annular chamber plane (125-1) and the upper annular chamber plane (125-3), wherein the annular chamber middle plane (125-2) is connected by chamber crosspieces to the lower annular chamber plane (125-1) and the upper annular chamber plane (125-3), wherein the respective chamber extends along a chamber longitudinal axis from the upper annular chamber plane (125-1) to the lower annular chamber plane (125-3), and wherein the chamber crosspieces each extend at an angle to the chamber longitudinal axis . a helmet body , wherein the helmet body comprises an outer plastic shell and an inner damping layer , and wherein the helmet body comprises at least one aperture , which penetrates the outer plastic shell and the inner damping layer , at least one damping element , which is arranged in the at least one aperture , and is designed to absorb forces acting on the helmet body and to protect the cyclist's head, characterised in that the at least one damping element has a chamber structure with a plurality of chambers , which are each bounded laterally by chamber crosspieces , wherein the chambers of the plurality of chambers each comprise a lower annular chamber plane (125-1), each comprise an upper annular chamber plane (125-3) and each comprise an annular chamber middle plane (125-2) arranged between the lower annular chamber plane (125-1) and the upper annular chamber plane (125-3), wherein the annular chamber middle plane (125-2) is connected by chamber crosspieces to the lower annular chamber plane (125-1) and the upper annular chamber plane (125-3), wherein the respective chamber extends along a chamber longitudinal axis from the upper annular chamber plane (125-1) to the lower annular chamber plane (125-3), and wherein the chamber crosspieces each extend at an angle to the chamber longitudinal axis .
A computer-implemented method comprising: obtaining, by a robot (104A-104D; 1110), sensor data indicating characteristics of an object; determining, by the robot, a classification (120; 132) for the object; generating, by the robot, a first embedding (118; 126; 314) for the object using a machine learning model (214; 402) that is stored by the robot and which encodes input information to generate the first embedding or to generate an output that is processed to generate the first embedding, wherein the input information is, or is generated from, the sensor data; storing, by the robot, the generated first embedding and data indicating the classification for the object in a local cache (218; 404A-404C) of the robot; sending, by the robot, the generated first embedding and the data indicating the classification to a server system over a communication network; receiving, by the robot, a second embedding and a corresponding classification from the server system over the communication network, wherein the received second embedding is generated by a second robot and corresponds to a second object, wherein the first embedding is an encoded representation of the characteristics of the object and the second embedding is an encoded representation of characteristics of the second object; and storing, by the robot, the received second embedding and corresponding classification in the local cache of the robot. obtaining, by a robot (104A-104D; 1110), sensor data indicating characteristics of an object; determining, by the robot, a classification (120; 132) for the object; generating, by the robot, a first embedding (118; 126; 314) for the object using a machine learning model (214; 402) that is stored by the robot and which encodes input information to generate the first embedding or to generate an output that is processed to generate the first embedding, wherein the input information is, or is generated from, the sensor data; storing, by the robot, the generated first embedding and data indicating the classification for the object in a local cache (218; 404A-404C) of the robot; sending, by the robot, the generated first embedding and the data indicating the classification to a server system over a communication network; receiving, by the robot, a second embedding and a corresponding classification from the server system over the communication network, wherein the received second embedding is generated by a second robot and corresponds to a second object, wherein the first embedding is an encoded representation of the characteristics of the object and the second embedding is an encoded representation of characteristics of the second object; and storing, by the robot, the received second embedding and corresponding classification in the local cache of the robot.
A method for adjusting a steering column for a motor vehicle, comprising a casing unit in which a steering spindle is mounted rotatably about a longitudinal axis (L) and which has at least two casing tubes which are guided so as to be adjustable relative to one another by an adjustment travel in the longitudinal direction of the longitudinal axis (L), wherein, along the adjustment travel, the casing tubes are extended further out of one another in an operating region (x1) than in a transitional region (x2), wherein a motorized adjustment drive acting on the casing tubes is actuated electrically for the relative adjustment of the casing tubes at a predetermined adjustment speed (v1, v2, v3), characterized in that a first adjustment speed (v1) is set in portions in the operating region (x1) and a second adjustment speed (v2), which is higher than the first adjustment speed (v1), is set in the transitional region (x2), wherein the adjustment speed changes at the transition between the first and second adjustment speeds (v1, v2).