mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber optic assembly comprising: a ferrule assembly including a ferrule and a fiber stub ; a fiber optic cable including a cable fiber that is fusion spliced to the fiber stub at a splice location ; and a hub mounted over a rear end of the ferrule and also over the splice location , the hub including a front hub portion and a rear hub portion , the rear hub portion including an outer hub shell defining an interior chamber that is occupied by a splice over mold material that encapsulates the splice location ; wherein the outer hub shell functions as a mold for shaping the over mold material around the splice location and along lengths of the cable fiber and the fiber stub , and wherein the outer hub shell remains a permanent part of the hub after the over mold material has been injected therein, characterized in that the front hub portion includes a series of flats used for rotationally positioning the ferrule assembly in a connector. a ferrule assembly including a ferrule and a fiber stub ; a fiber optic cable including a cable fiber that is fusion spliced to the fiber stub at a splice location ; and a hub mounted over a rear end of the ferrule and also over the splice location , the hub including a front hub portion and a rear hub portion , the rear hub portion including an outer hub shell defining an interior chamber that is occupied by a splice over mold material that encapsulates the splice location ; wherein the outer hub shell functions as a mold for shaping the over mold material around the splice location and along lengths of the cable fiber and the fiber stub , and wherein the outer hub shell remains a permanent part of the hub after the over mold material has been injected therein, characterized in that the front hub portion includes a series of flats used for rotationally positioning the ferrule assembly in a connector.
A method of controlling a target device utilizing neural data , the method comprising: sampling the neural data from a user; transforming the neural data into a common representational space of a brain-machine interface system ; supplying the common representational space as a state representation to inform an Actor recurrent neural network policy of the brain-machine interface system; generating and evaluating , utilizing a deep recurrent neural network of the brain-machine interface system having a generative sequence decoder, predictive sequences of control signals for the target device; supplying a specific control signal derived from the predictive sequences of control signals to the target device to produce an output of the target device; determining an intrinsic biometric-based reward signal, by decoding an emotional response of the user from the common representational space, based on an expectation of the user of an intended action of the target device and the output of the target device; and supplying the intrinsic biometric-based reward signal to a Critic model of the brain-machine interface system to inform the Critic model based on how successfully the intended action was performed by the target device, thereby enabling continual or substantially continual adaptation of the mapping from the neural data to the control signals for the target device. sampling the neural data from a user; transforming the neural data into a common representational space of a brain-machine interface system ; supplying the common representational space as a state representation to inform an Actor recurrent neural network policy of the brain-machine interface system; generating and evaluating , utilizing a deep recurrent neural network of the brain-machine interface system having a generative sequence decoder, predictive sequences of control signals for the target device; supplying a specific control signal derived from the predictive sequences of control signals to the target device to produce an output of the target device; determining an intrinsic biometric-based reward signal, by decoding an emotional response of the user from the common representational space, based on an expectation of the user of an intended action of the target device and the output of the target device; and supplying the intrinsic biometric-based reward signal to a Critic model of the brain-machine interface system to inform the Critic model based on how successfully the intended action was performed by the target device, thereby enabling continual or substantially continual adaptation of the mapping from the neural data to the control signals for the target device.
Fume cupboard for a laboratory space, having a housing with a work space located therein, which is delimited on the front side by a front sash , on the bottom by a base plate and on each side by a side wall , and a first hollow profile arranged on a front end face side of each side wall , wherein each first hollow profile defines a first pressure chamber , which is fluidically connected to a plurality of first openings , from which air jet streams in the form of wall jet streams consisting of pressurised air can be emitted along the respective side wall into the work space, characterized in that at least one of the first openings is fluidically connected to the first pressure chamber via a first longitudinal duct , and that the first duct has a length L in the direction of flow that is at least three times as long as the hydraulic diameter of a cross-sectional area of the first opening viewed perpendicularly to the direction of flow, in order to prevent a flow separation of the wall jet stream exiting the first opening of the side wall in an area from the front side of the work space up to at least 25% of the depth of the work space.
Transonic compressor of an aircraft turbomachine comprising exactly two or exactly three annular rows of rotor blades and respectively exactly one or exactly two annular row(s) of intermediate stator vanes , interposed between two successive rows of rotor blades , wherein when the rotor blades are driven at a rotational speed (ω) such that the velocity (U) of the radially outer end of the rotor blades is between 360 m/s and 420 m/s, the angle of the outlet airflow (41. 2, 43.2) of the intermediate stator vanes of the single annular row of stator vanes or of at least one of the two annular rows of stator vanes, in particular the more upstream one, is on average greater than 15° along the entire height (H) of these blades and is greater than 15°, preferably greater than 20°, over a radial portion (H7) of these stator vanes that is comprised between 60% and 80% of the radial height of these stator vanes .
A combustion boiler control method, comprising the steps of: a) monitoring the current load (Q h ) of a combustion boiler; b) finding such a numerical value (Q h, candidate ) for a current computational maximum boiler momentary load (Q h, max ) for which at least one flue gas factor (df i ) computed using currently monitored process data with a numerical model of the boiler fulfills an acceptance condition, and selecting the numerical value (Q h, candidate ) as the current computational maximum boiler momentary load (Q h,max ); c) indicating the current computational maximum boiler momentary load (Q h,max ) to the operator and/or, if the current load (Q h ) is c1) smaller than the current computational maximum boiler momentary load (Q h,max ): c1i) indicating the boiler operator that the boiler load (Q h ) may be increased, and/or c1ii) automatically increasing the boiler load (Q h ), and/or c2) larger than the current computational maximum boiler momentary load (Q h,max ): c2i) indicating the boiler operator that the boiler load (Q h ) exceeds the current computational maximum boiler momentary load, and/or c2ii) automatically reducing the boiler load (Q h ). a) monitoring the current load (Q h ) of a combustion boiler; b) finding such a numerical value (Q h, candidate ) for a current computational maximum boiler momentary load (Q h, max ) for which at least one flue gas factor (df i ) computed using currently monitored process data with a numerical model of the boiler fulfills an acceptance condition, and selecting the numerical value (Q h, candidate ) as the current computational maximum boiler momentary load (Q h,max ); c) indicating the current computational maximum boiler momentary load (Q h,max ) to the operator and/or, if the current load (Q h ) is c1) smaller than the current computational maximum boiler momentary load (Q h,max ): c1i) indicating the boiler operator that the boiler load (Q h ) may be increased, and/or c1ii) automatically increasing the boiler load (Q h ), and/or c2) larger than the current computational maximum boiler momentary load (Q h,max ): c2i) indicating the boiler operator that the boiler load (Q h ) exceeds the current computational maximum boiler momentary load, and/or c2ii) automatically reducing the boiler load (Q h ). c1) smaller than the current computational maximum boiler momentary load (Q h,max ): c1i) indicating the boiler operator that the boiler load (Q h ) may be increased, and/or c1ii) automatically increasing the boiler load (Q h ), and/or c1i) indicating the boiler operator that the boiler load (Q h ) may be increased, and/or c1ii) automatically increasing the boiler load (Q h ), c2) larger than the current computational maximum boiler momentary load (Q h,max ): c2i) indicating the boiler operator that the boiler load (Q h ) exceeds the current computational maximum boiler momentary load, and/or c2ii) automatically reducing the boiler load (Q h ). c2i) indicating the boiler operator that the boiler load (Q h ) exceeds the current computational maximum boiler momentary load, and/or c2ii) automatically reducing the boiler load (Q h ).
A system for performing adjustment operations on a motor vehicle , in particular during axle measurement, comprising: - at least one camera for recording images of one or more vehicle details, - a data-processing unit for processing the images recorded by the camera , - a memory storing documentation and/or image information about adjustment operations on motor vehicles and/or image information of vehicle details, - a reproduction device for displaying documentation and/or images and/or image information, - an axle-measuring device which measures the motor vehicle and supplies axle-measurement data to the data-processing unit , - characterised in that the displayed documentation and/or image inform - ation pertaining to adjustment operations provide information to the user about the next working step, the location where the working step is to be carried out, and the current progress of his operations as a function of the respective axle-measurement data and the respective images. - at least one camera for recording images of one or more vehicle details, - a data-processing unit for processing the images recorded by the camera , - a memory storing documentation and/or image information about adjustment operations on motor vehicles and/or image information of vehicle details, - a reproduction device for displaying documentation and/or images and/or image information, - an axle-measuring device which measures the motor vehicle and supplies axle-measurement data to the data-processing unit , - characterised in that the displayed documentation and/or image inform - ation pertaining to adjustment operations provide information to the user about the next working step, the location where the working step is to be carried out, and the current progress of his operations as a function of the respective axle-measurement data and the respective images.
Mechanism for connecting a first furniture-part element , such as a front component , to a second furniture-part element , such as a side component , so that the connected furniture-part elements form a constituent part of a furniture part , wherein the mechanism comprises an engagement element , which can be fitted on the first furniture-part element , and a catch device with a main body and a force-applying unit , wherein the catch device can be fitted on the second furniture-part element , so that the engagement element can be arranged on the catch device via a front side of the catch device , and wherein, in the state in which the furniture-part elements have been connected by the mechanism, an engagement member of the catch device , said engagement member being accommodated in a movable manner on the main body of the catch device , and the engagement element are locked to one another under the action of the force-applying unit , wherein a two-armed locking lever of the catch device is provided, this locking lever being pivotable about a pivot axis and extending in the longitudinal direction of the catch device , wherein the locking lever has a front arm portion , which extends from the pivot axis in the direction of the front side of the catch device , wherein the engagement member is present on that end portion of the front arm portion which is directed away from the pivot axis, and wherein the locking lever has a rear arm portion , which extends from the pivot axis in the direction of a rear side of the catch device , and wherein the force-applying unit acts on that end portion of the rear arm portion which is directed away from the pivot axis, whereby the locking lever can be prestressed, by the force-applying unit , into a locking-action pivot position of the locking lever , wherein, in the state in which the furniture-part elements have been connected, the engagement member and the engagement element are locked to one another under the action of the locking lever subjected to force, characterized in that the force-applying unit provides a force which acts in a direction transverse to the longitudinal direction of the catch device .
An arrangement for the electrically conductive connection of a plurality of electrical lines (102A-102C, 301A-301D), which are provided with an electrically conductive shield , wherein the conductors of the lines are electrically conductively connected with one another in the region of a connecting point (V), wherein the arrangement (100; 300) comprises a mechanically stable housing (101; 302), which completely surrounds the connecting point (V), wherein the arrangement comprises a seal carrier , which has a cone , which is accommodated in the mounting position in the housing , characterized in that the seal carrier carries a line seal and a housing seal .
An apparatus for charging a battery, comprising: a charging component configured to receive a voltage at a voltage level on a power bus connectable to an external device , wherein the charging component is arranged to charge the battery with the voltage level received; and characterized by : an authentication component configured to enable identification information of the apparatus to be authenticated by the external device via a plurality of signal lines, wherein the authentication component is configured to transmit one or more authentication signals corresponding to the identification information on one or more of the plurality of signal lines to the external device, and the power bus is arranged to receive a first voltage from the external device, the first voltage being a default amount of voltage transmitted by the external device when the apparatus is not authenticated by the external device based on the identification information; and a configuration component configured to transmit a modified voltage signal and a modified current signal to the external device via the plurality of signal lines when the apparatus is authenticated by the external device based on the identification information, wherein the modified voltage signal and the modified current signal which when received by the external device, cause the external device to transmit a second voltage to the charging component via the power bus, wherein the second voltage is configured to be different from the first voltage to enable the battery to be charged at an increased rate by the charging component. an authentication component configured to enable identification information of the apparatus to be authenticated by the external device via a plurality of signal lines, wherein the authentication component is configured to transmit one or more authentication signals corresponding to the identification information on one or more of the plurality of signal lines to the external device, and the power bus is arranged to receive a first voltage from the external device, the first voltage being a default amount of voltage transmitted by the external device when the apparatus is not authenticated by the external device based on the identification information; and a configuration component configured to transmit a modified voltage signal and a modified current signal to the external device via the plurality of signal lines when the apparatus is authenticated by the external device based on the identification information, wherein the modified voltage signal and the modified current signal which when received by the external device, cause the external device to transmit a second voltage to the charging component via the power bus, wherein the second voltage is configured to be different from the first voltage to enable the battery to be charged at an increased rate by the charging component.
An electrophotographic member, comprising: an elastic layer comprising a silicone rubber; an intermediate layer comprising at least one of an aromatic polyimide and an aromatic polyamideimide, and a fluororesin; and a surface layer comprising a fluororesin, the electrophotographic member is characterized in that the aromatic polyimide or the aromatic polyamideimide is bonded to the elastic layer through an amide bond-containing group, and a carbon atom constituting the amide bond is directly bonded to a carbon atom constituting an aromatic ring in a molecule of the aromatic polyimide or aromatic polyamideimide. an elastic layer comprising a silicone rubber; an intermediate layer comprising at least one of an aromatic polyimide and an aromatic polyamideimide, and a fluororesin; and a surface layer comprising a fluororesin, the electrophotographic member is characterized in that the aromatic polyimide or the aromatic polyamideimide is bonded to the elastic layer through an amide bond-containing group, and a carbon atom constituting the amide bond is directly bonded to a carbon atom constituting an aromatic ring in a molecule of the aromatic polyimide or aromatic polyamideimide.
Shoulder prosthesis (1; 101), consisting of: - a glenoid component , which is designed to be secured to a human glenoid (G), and - a glenohumeral component (20; 20' ; 120; 120'), which comprises a first side (20A; 120A) and a second side (20B; 120B), which are opposite each other and which, in an implanted state in which the glenohumeral component is free-floating with respect to a humerus (H) and a glenoid (G) of a human shoulder, are in contact respectively with an end portion (PH1) of the humerus and with the glenoid component secured to the glenoid, wherein the first side of the glenohumeral component includes a convex articular surface (21; 121) that is designed to articulate with a concave bone surface (PH2) prepared within the end portion of the humerus, characterized in that the second side of the glenohumeral component includes a concave articular surface (23; 123) that articulates with a convex articular surface of the glenoid component. - a glenoid component , which is designed to be secured to a human glenoid (G), and - a glenohumeral component (20; 20' ; 120; 120'), which comprises a first side (20A; 120A) and a second side (20B; 120B), which are opposite each other and which, in an implanted state in which the glenohumeral component is free-floating with respect to a humerus (H) and a glenoid (G) of a human shoulder, are in contact respectively with an end portion (PH1) of the humerus and with the glenoid component secured to the glenoid, wherein the first side of the glenohumeral component includes a convex articular surface (21; 121) that is designed to articulate with a concave bone surface (PH2) prepared within the end portion of the humerus, characterized in that the second side of the glenohumeral component includes a concave articular surface (23; 123) that articulates with a convex articular surface of the glenoid component.
A resin impregnation measurement system comprising: a container (10; a plurality of first electrodes that extend in parallel; a plurality of second electrodes disposed so as to oppose to the first electrodes across the container in which a fiber base material is to be placed and extending in a direction intersecting the first electrodes , the container being configured to be filled with a resin; a measurement controller configured to sequentially switch between the plurality of first electrodes and the plurality of second electrodes and measure electrostatic capacities of a plurality of measurement regions where the first electrodes are opposite to the second electrodes ; and an impregnation ratio deriving unit configured to derive an impregnation ratio of the resin to the fiber base material in the container on a basis of a distribution of the electrostatic capacities (C) of the plurality of measurement regions ; wherein a region other than the measurement regions in the first electrodes has a smaller cross section in a longitudinal direction of the first electrodes than the measurement regions have. a container (10; a plurality of first electrodes that extend in parallel; a plurality of second electrodes disposed so as to oppose to the first electrodes across the container in which a fiber base material is to be placed and extending in a direction intersecting the first electrodes , the container being configured to be filled with a resin; a measurement controller configured to sequentially switch between the plurality of first electrodes and the plurality of second electrodes and measure electrostatic capacities of a plurality of measurement regions where the first electrodes are opposite to the second electrodes ; and an impregnation ratio deriving unit configured to derive an impregnation ratio of the resin to the fiber base material in the container on a basis of a distribution of the electrostatic capacities (C) of the plurality of measurement regions ; wherein a region other than the measurement regions in the first electrodes has a smaller cross section in a longitudinal direction of the first electrodes than the measurement regions have.