Abstract: A measuring assembly for a measuring tape device may include a blade, an end hook and an anti-rollover attachment. The blade may include a first end configured to extend from an aperture in a housing of the measuring tape device and a second end configured to be wound on a reel assembly. The end hook may be disposed at the first end of the blade to engage an object for measurement, and may extend substantially perpendicular to a longitudinal centerline of the blade to extend away from an underside of the blade. The anti-rollover attachment may be disposed proximate to the end hook at the first end of the blade such that a center of gravity of the anti-rollover attachment is spaced apart from the underside of the blade. A combined weight of the end hook and the anti-rollover attachment may be in a range between about 10 grams and about 55 grams.

Abstract: A hand tool includes an elongate, plate shaped steel core having a top face and a bottom face in parallel planes, a drive head portion formed at one end of the steel core and having a drive head cavity formed therein, a tang portion extending from the drive head portion to the other end of the steel core, a ratchet assembly disposed in the drive head cavity, and a first encapsulation layer covering the tang portion and the drive head portion, but not covering at least a portion of the ratchet assembly. The first encapsulation layer may include a fiber reinforced plastic composite material.

Abstract: The present disclosure provides systems and methods related to electroencephalography (EEG) electrode arrays. In particular, the present disclosure provides systems and methods relating to the manufacture and use of high-resolution electrocorticography (ECOG) electrode arrays and stereoelectroencephalography (SEEG) electrode arrays having various combinations and arrangements of microelectrodes and macroelectrodes for recording and modulating nervous system activity.

Abstract: A device (1) comprises: a cylindrical shell (4); a first spring (5) encased inside the cylindrical shell (4); a second spring (6) encased inside the cylindrical shell (4); a separator (13) in the cylindrical shell (4) separating the first and second springs (5, 6); a first end plate (12) on a first side (13a) of the separator (13) and a second end plate (11) on a second side (13b) of the separator (13); a first rod (2) and a second rod (3) passing openings (20a, 20b) provided at each end of the cylindrical shell (4), with the first rod (2) connected to the first end plate (12) and the second rod (3) connected to the second end plate (11); and a spacer (14) inserted between the first end plate (12) and the first spring (5).

Abstract: Per United States Federal Aviation Administration (FAA)'s long standing airworthiness regulation, Advisory Circular (AC), failures of all systems/components that are catastrophic must be “extremely improbable”. Advanced Flight Control Subsystem shall supplement current commercial passenger aircrafts' Flight Control Computers (FCC) to meet and exceed this requirement.

Abstract: Systems and methods for monitoring posture of a user wearing an exosuit are discussed herein. Exosuits worn by users can monitor several movement factors that characterize the user's movements and posture. The user's posture is identified and analyzed, and feedback is provided to the user based on the analyzed posture.

Abstract: Systems and methods related to centrifuge energy harvesting chambers (CEHCs) for gas production simulation are provided. Certain CEHCs may include a high-pressure chamber, high-pressure syringe pumps, cooling systems, an actuator and surcharge, backpressure control inside the wellbore, a heating element on the wellbore, water gas separation systems, and flow measurement systems. Certain CEHCs may also provide software operably connected to sensors and instrumentation, comprising a module to continuously, in real-time, periodically, or asynchronously, measure and monitor simulation variables.

Abstract: An example modular meal system includes two or more modular meal components. Example modular meal components include a tray, a meal component disposed within the tray, and a sauce component disposed within the tray. The meal component is selected from a protein component, a starch component, a vegetable component, an appetizer component, and a dessert component. Each modular meal component is configured and/or formulated to reach at least 165° F. or at least 167° F. when heated from frozen for a heating time period within the range of from about 20 minutes to about 60 minutes and at a heating temperature within the range of about 350° F. to about 450° F.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media, for providing data and analysis for advertising on networked devices. One of the methods includes creating a vector of identifiers representing an ad opportunity. The method includes linking data attributes that describe the ad opportunity to the identifiers. The method includes expressing the data attributes following predefined scheme of hierarchy. The method includes linking a taxonomy describing data attributes. The method includes obtaining outcome measurements of ad events associated with the ad opportunity. The method also includes associating user interaction events with the ad with at least one of the identifiers or data attributes associated with the identifier.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media, for providing data and analysis for advertising on networked devices. One of the methods includes creating a vector of identifiers representing an ad opportunity. The method includes linking data attributes that describe the ad opportunity to the identifiers. The method includes expressing the data attributes following predefined scheme of hierarchy. The method includes linking a taxonomy describing data attributes. The method includes obtaining outcome measurements of ad events associated with the ad opportunity. The method also includes associating user interaction events with the ad with at least one of the identifiers or data attributes associated with the identifier.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media, for an audience of network devices. One of the methods includes receiving information from a source, the information associated with a device identifier. The method includes determining, based on the device identifier, a unique user identifier, wherein the unique user identifier identifies a user independent of network, media, and location. The method includes identifying at least one user attribute based on the received information. The method includes associating the user attribute with the unique user identifier. The method also includes storing the user attribute in a repository. The repository stores a plurality of other user attributes associated with the unique user identifier, the other stored user attributes being received from a plurality of different sources.

Abstract: The present invention includes an apparatus, method and centrifuge environmental chamber system for use in a centrifuge to induce different atmospheric paths as boundary conditions to a soil model during a centrifuge test. The invention is configured to be mounted on top of a strongbox, is based on a convection design principle, with components adapted for use in a centrifuge, and software for continuous control and data acquisition. An apparatus for a centrifuge environmental chamber can include a model strongbox including a model space, an airflow channel configured to pull air from the model space and push back the air to the model space, and a humidity nozzle placed in the model space.

Abstract: A system and method are described herein for a sensor device which biomechanically detects in real-time a user's movement state and posture and then provides real-time feedback to the user based on the user's real-time posture. The feedback is provided through immediate sensory feedback through the sensor device (e.g., a sound or vibration) as well as through an avatar within an associated application with which the sensor device communicates. The sensor device detects the user's movement state and posture by capturing data from a tri-axial accelerometer in the sensor device. Streamed data from the accelerometer is normalized to correct for sensor errors as well as variations in sensor placement and orientation. Normalization is based on accelerometer data collected while the user is wearing the device and performing specific actions.

Abstract: Systems and methods for monitoring posture of a user wearing an exosuit are discussed herein. Exosuits worn by users can monitor several movement factors that characterize the user's movements and posture. The user's posture is identified and analyzed, and feedback is provided to the user based on the analyzed posture.

Abstract: Systems and methods for detecting and analyzing lifting and bending motions performed by a user wearing an exosuit are discussed herein. Exosuits worn by users can monitor several movement factors that characterize the user's bending and lifting movements. The bend or lift is identified and analyzed, and feedback is provided to the user based on the analysis of the bend or lift.

Abstract: A system and method for using performance signatures can include generating a set of performance features during an activity of the first participant by collecting kinematic data from at least one inertial measurement unit and generating a set of biomechanical signals; combining the set of performance features into the performance signature; generating at least a second performance signature from a set of participants; comparing the performance signature of the first participant to at least the second performance signature; and applying a result of the comparison to an interaction with at least one participant.

Abstract: A system and method are described herein for a sensor device which biomechanically detects in real-time a user's movement state and posture and then provides real-time feedback to the user based on the user's real-time posture. The feedback is provided through immediate sensory feedback through the sensor device (e.g., a sound or vibration) as well as through an avatar within an associated application with which the sensor device communicates. The sensor device detects the user's movement state and posture by capturing data from a tri-axial accelerometer in the sensor device. Streamed data from the accelerometer is normalized to correct for sensor errors as well as variations in sensor placement and orientation. Normalization is based on accelerometer data collected while the user is wearing the device and performing specific actions.

Abstract: A system and method are described herein for a sensor device which biomechanically detects in real-time a user's movement state and posture and then provides real-time feedback to the user based on the user's real-time posture. The feedback is provided through immediate sensory feedback through the sensor device (e.g., a sound or vibration) as well as through an avatar within an associated application with which the sensor device communicates.

Abstract: A device (1) comprises: a cylindrical shell (4); a first spring (5) encased inside the cylindrical shell (4); a second spring (6) encased inside the cylindrical shell (4); a separator (13) in the cylindrical shell (4) separating the first and second springs (5, 6); a first end plate (12) on a first side (13a) of the separator (13) and a second end plate (11) on a second side (13b) of the separator (13); a first rod (2) and a second rod (3) passing openings (20a, 20b) provided at each end of the cylindrical shell (4), with the first rod (2) connected to the first end plate (12) and the second rod (3) connected to the second end plate (11); and a spacer (14) inserted between the first end plate (12) and the first spring (5).