Abstract: A protective cover apparatus for a direct-view LED (DV LED) screen is provided. The protective cover apparatus may comprise a back wall mount, a plurality of panel flex safety spacers, a front frame, a plurality of rigid DV LED protective panels, and a ventilated edge covering. The front frame may be attached to the back wall mount. The plurality of panel flex safety spacers may forwardly distance the front frame from the back wall mount by a panel flex safety clearance of at least 3 inches. The front frame may have an inner frame perimeter bounding a DV LED viewing window and an outer frame perimeter. The plurality of rigid DV LED protective panels may be rotatably mounted to the front frame. Each DV LED protective panel may have a transparent portion and a frame portion bordering the transparent portion.

Abstract: A protective cover apparatus for a direct-view LED (DV LED) screen is provided. The protective cover apparatus may comprise a back wall mount, a plurality of panel flex safety spacers, a front frame, a plurality of rigid DV LED protective panels, and a ventilated edge covering. The front frame may be attached to the back wall mount. The plurality of panel flex safety spacers may forwardly distance the front frame from the back wall mount by a panel flex safety clearance of at least 3 inches. The front frame may have an inner frame perimeter bounding a DV LED viewing window and an outer frame perimeter. The plurality of rigid DV LED protective panels may be rotatably mounted to the front frame. Each DV LED protective panel may have a transparent portion and a frame portion bordering the transparent portion.

Abstract: A method of configuring a visualization device for a machine zone is provided in which at least one sensor is arranged, wherein a reference marker is attached in the machine zone and an object marker is attached to the sensor, a respective at least two markers are detected by a detection device, and the two markers are linked to one another abstractly in their proximity relationship and/or geometrically in their mutual spatial locations.

Abstract: A system (300) for radiation dose monitoring in a medical environment (305) includes an imaging device (310) for directing radiation (312) onto a patient (315) and a radiation dose measuring device (325) for measuring a radiation dose of at least one medical personnel (320) within the medical environment (305). The system further includes a processor (327) for receiving radiation dose information of the patient or of the at least one medical personnel, and for rendering, in real-time, a virtual object (401) associated with each radiation dose measuring device (325), the virtual object (401) representing radiation dose information. The system can further include a display (340) for displaying distribution of radiation (505) in the medical environment (305).

Abstract: A method of carrying out modifications to a software application having an application code that has a graphical user interface (GUI) is provided. The method includes the steps of: injecting a dynamic library into the software application to allow control of the software application; reading at least one portion of the application code, with the portion relating to the GUI; modifying a section of the GUI; and saving the amended section of the GUI.

Abstract: The invention relates to a method of carrying out modifications to a software application having an application code that has a graphical user interface (GUI). The method comprises: injecting a dynamic library into the software application to allow a control of the software application; reading at least one portion of the application code, with the portion relating to the GUI modifying a section of the GUI; and saving the amended section of the GUI.