Abstract: A system and method for using the system comprising a head mounted device (HMD), a remote maintenance server (RMS), and a control section operable to identify the system under test (SUT) using an image recognition function, to identify a plurality of subsystems (PLoS) within the SUT in a data library, to create three dimensional models of the PLoS and displaying the same on a visual interface of the HMD using an augmented reality function, to connect to the RMS using an encryption algorithm via streaming video or images sent to the RMS, to collect SUT data and external (to the SUT) sensor data, to conduct a prognostics and/or health, maintenance, and/or management (HMM) service on the collected data to determine system health and projected health of the SUT and/or PLoS, to authenticate remote user access to the RMS, to update the data library, and to insert a plurality of (HMM) designators on the visual interface.

Abstract: A system and method for using the system comprising a head mounted device (HMD), a remote maintenance server (RMS), and a control section operable to identify the system under test (SUT) using an image recognition function, to identify a plurality of subsystems (PLoS) within the SUT in a data library, to create three dimensional models of the PLoS and displaying the same on a visual interface of the HMD using an augmented reality function, to connect to the RMS using an encryption algorithm via streaming video or images sent to the RMS, to collect SUT data and external (to the SUT) sensor data, to conduct a prognostics and/or health, maintenance, and/or management (HMM) service on the collected data to determine system health and projected health of the SUT and/or PLoS, to authenticate remote user access to the RMS, to update the data library, and to insert a plurality of (HMM) designators on the visual interface.

Abstract: A system and method for using the system comprising a head mounted device (HMD), a remote maintenance server (RMS), and a control section operable to identify the system under test (SUT) using an image recognition function, to identify a plurality of subsystems (PLoS) within the SUT in a data library, to create three dimensional models of the PLoS and displaying the same on a visual interface of the HMD using an augmented reality function, to connect to the RMS using an encryption algorithm via streaming video or images sent to the RMS, to collect SUT data and external (to the SUT) sensor data, to conduct a prognostics and/or health, maintenance, and/or management (HMM) service on the collected data to determine system health and projected health of the SUT and/or PLoS, to authenticate remote user access to the RMS, to update the data library, and to insert a plurality of (HMM) designators on the visual interface.

Abstract: A system and method for using the system comprising a head mounted device (HMD), a remote maintenance server (RMS), and a control section operable to identify the system under test (SUT) using an image recognition function, to identify a plurality of subsystems (PLoS) within the SUT in a data library, to create three dimensional models of the PLoS and displaying the same on a visual interface of the HMD using an augmented reality function, to connect to the RMS using an encryption algorithm via streaming video or images sent to the RMS, to collect SUT data and external (to the SUT) sensor data, to conduct a prognostics and/or health, maintenance, and/or management (HMM) service on the collected data to determine system health and projected health of the SUT and/or PLoS, to authenticate remote user access to the RMS, to update the data library, and to insert a plurality of (HMM) designators on the visual interface.