Abstract: The present invention relates to mounting assemblies for optical devices, including enhanced night vision goggles (ENVG), and more particularly to a multi-adjustable and multi-stowable mount for a single or dual enhanced night vision goggles (ENVG). The mounting assemblies can include a quick release system for detachment of the optical device from the mount.

Abstract: A rope anchor with a J-shaped a body having a hook and spine. The end of the spine has an attachment hole for a rope and an elongated, teardrop-shaped rope slot that is either enclosed or gated. The gate is biased closed to span the open side of the rope slot and pushed opened to allow access for a rope. A tip, composed of a flat chip of metallic material, fits into a slot at the end of the hook. The tip is generally triangular with two or three sharp corners, or square or rectangular with four sharp corners. The slot orients the tip so that only one of the sharp corners is exposed, or so that two adjacent sharp corners are exposed. When an exposed sharp corner is not suitable for use, the tip can be reoriented to expose a different sharp corner.

Abstract: The present invention relates to a helmet mounting assembly for enhanced night vision goggles, and more particularly to a flip-up helmet mount (2) designed to allow for automatic shutoff of an attached ENVG (8) when stowed, and automatic activation of an ENVG when returned to the in-use position. An automatic shutdown assembly including a magnet module (26) and a magnetically-responsive sensor (36) wherein the magnet module comprising a magnet (28) that emits the necessary magnetic field (34) which influences the magnetically-responsive sensor when in the stowed position in order to turn the ENVG off.

Abstract: The present invention relates to mounting assemblies for optical devices, including enhanced night vision goggles (ENVG), and more particularly to a multi-adjustable and multi-stowable mount for a single or dual enhanced night vision goggles (ENVG). The mounting assemblies can include a quick release system for detachment of the optical device from the mount.

Abstract: A velocity and collision detection system and particularly a system for detecting collisions and calculating the velocity of the object at the moment that an object strikes another.

Abstract: A Human-Machine Interface (HMI) system provides graphical displays to communication devices. The HMI system processes status data from machine systems to generate display data for the graphical displays. The HMI system receives selection information indicating one of the communication devices and one of the graphical displays. In response, the HMI system retrieves display parameters for the selected communication device and retrieves the display data for the selected graphical display. The HMI system processes the display data and the display parameters to display a first model of the selected communication device rendering the selected graphical display. The HMI system allows the user to modify the graphical display and view a second model of the communication device rendering the modified graphical display.

Abstract: An operator interface terminal receives individual data points from a machine at individual time points. The operator interface terminal correlates the individual data points to the individual time points as the data points are received. The operator interface terminal transfers the data points correlated to the time points to a central information system. The operator interface terminal receives a control instruction from an operator. The operator interface terminal processes the control instruction to transfer a control signal to the machine, wherein the control signal drives the machine to operate based on the control instruction.

Abstract: An operator interface terminal receives individual data points from a machine at individual time points. The operator interface terminal correlates the individual data points to the individual time points as the data points are received. The operator interface terminal transfers the data points correlated to the time points to a central information system. The operator interface terminal receives a control instruction from an operator. The operator interface terminal processes the control instruction to transfer a control signal to the machine, wherein the control signal drives the machine to operate based on the control instruction.

Abstract: An operator interface terminal receives individual data points from a machine at individual time points. The operator interface terminal correlates the individual data points to the individual time points as the data points are received. The operator interface terminal transfers the data points correlated to the time points to a central information system. The operator interface terminal receives a control instruction from an operator. The operator interface terminal processes the control instruction to transfer a control signal to the machine, wherein the control signal drives the machine to operate based on the control instruction.

Abstract: Within an industrial automation environment, a human-machine interface (HMI) is provided comprising a HMI computer, a display electrically coupled with the computer, and a controller wirelessly coupled with the computer. The controller is configured to detect motion of the controller, and wirelessly transmit motion data related to the motion of the controller to the HMI computer. The HMI computer is configured to receive industrial automation data, wirelessly receive motion data from the controller, process the motion data into control data, and select a first set of industrial automation data for display in response to the control data.

Abstract: A method of displaying automation data is provided. First individual data points correlated with individual time points are received from a machine system. The first individual data points are stored in correlation with the individual time points. A user input is received indicating a selected time. The selected time is processed to determine if any of the individual time points are later in time than the selected time. In response to determining that none o the individual time points are later in time than the selected time, a graphical representation of second individual data points from the machine system are displayed. In response to determining that a one of the individual time points is later in time than the selected time, a graphical representation of at least the individual data point correlated with the selected time is displayed.

Abstract: A pillow for supporting the head of a user during sleeping, having a generally rectangular main body of resiliently compressible foam material presenting a lower surface configured to overlie stably on a sleeping platform and an upper surface for supporting a user's head. An interior void extending longitudinally between opposite ends of the main body generally centrally between the upper and lower surfaces and generally centrally between the longitudinal sides of the main body. A central opening extends interiorly into the main body and merges into the interior void of the main body.

Abstract: In order to update control and visualization configurations in an industrial automation environment, a method is performed including the operations of; receiving a single software object containing machine configuration information related to a new machine attribute, updating a visualization configuration with a new visualization attribute corresponding to the new machine attribute, and updating a control configuration with a new control attribute corresponding to the new machine attribute.

Abstract: A Human-Machine Interface (HMI) system provides graphical displays to communication devices. The HMI system processes status data from machine systems to generate display data for the graphical displays. The HMI system receives selection information indicating one of the communication devices and one of the graphical displays. In response, the HMI system retrieves display parameters for the selected communication device and retrieves the display data for the selected graphical display. The HMI system processes the display data and the display parameters to display a first model of the selected communication device rendering the selected graphical display. The HMI system allows the user to modify the graphical display and view a second model of the communication device rendering the modified graphical display.

Abstract: Within an industrial automation environment, a human-machine interface (HMI) is provided comprising a HMI computer, a display electrically coupled with the computer, and a controller wirelessly coupled with the computer. The controller is configured to detect motion of the controller, and wirelessly transmit motion data related to the motion of the controller to the HMI computer. The HMI computer is configured to receive industrial automation data, wirelessly receive motion data from the controller, process the motion data into control data, and select a first set of industrial automation data for display in response to the control data.