Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: The present disclosure relates to methods of monitoring the status of an allograft in a transplant recipient, as well as to methods of monitoring and adjusting immunosuppressive therapies being administered to the transplant recipient.

Abstract: Methods and kits are provided for detecting and discriminating between immune quiescence and allograft rejections, such as T cell-mediated rejection and antibody-mediated rejection, using differential gene expression signatures alone or in combination with levels of transplant-derived cell-free nucleic acids.

Abstract: Space system TT&C monitoring includes analyzing network traffic comprising of data packets between a front-end processor (FEP) and a cryptographic unit. A JavaScript Object Notation (JSON) object is created when the network traffic containing a vehicle command is detected. The JSON object is transmitted, by way of a data transport mechanism, to either a cyber defense module or a security information and event management (SIEM) module for further ingestions and visualization. The JSON object is analyzed using machine learning (ML) module or a rule-based intrusion detection system (IDS) module to generate an anomaly score for the SIEM module for further ingestions and visualization.

Abstract: The present disclosure relates to methods of monitoring allogeneic cells, for example, in samples from a recipient of allogeneic cells from one or two genetically related or genetically unrelated sources, via measurement of cell DNA, as well as to methods of assessing treatment efficacy and/or monitoring and adjusting therapies.

Abstract: Space system TT&C monitoring includes analyzing network traffic comprising of data packets between a front-end processor (FEP) and a cryptographic unit. A JavaScript Object Notation (JSON) object is created when the network traffic containing a vehicle command is detected. The JSON object is transmitted, by way of a data transport mechanism, to either a cyber defense module or a security information and event management (SIEM) module for further ingestions and visualization. The JSON object is analyzed using machine learning (ML) module or a rule-based intrusion detection system (IDS) module to generate an anomaly score for the SIEM module for further ingestions and visualization.

Abstract: A method. At least some embodiments are a method including detecting docking of a mobile computer system to a docking device. In response to detecting the docking, the method further includes connecting an external data communication network to a bridge logic device in the mobile computer system via the docking device, and uploading, via the external data communication network, first data to a non-volatile random access memory coupled to the bridge logic device in the mobile computer system. The method further includes uploading, via the external data communication network, second data to the non-volatile random access memory coupled to the bridge logic device in the mobile computer system, the second data comprising programming instructions for execution on a computer system external to the mobile computer system.

Abstract: At least some embodiments are a method including connecting a mobile computer system to a vehicle computer system, wherein the vehicle computer system does not include a display device. Mission control data is received from the vehicle computer system, the mission control data generated by one or more vehicle I/O sensors coupled to the vehicle computer system. The mission control data is displayed on a display device of the mobile computer system.

Abstract: A network. At least some embodiments are a network including a first root node connected to a first port of a first switch and a second root node connected to a first port of a second switch. A first link is connected to a second port of the first switch and connected to a second port of the second switch. A second link is connected to a third port of a first switch and connected to a third port of the second switch.

Abstract: A magnetic tool (10) has a probe (12) made of a material having very high permeability and a magnetic field source (14). The magnetic tool (10) has a body (18) which supports the probe (12) and the magnetic field source (14). The source (14) can be moved move within the body 18/cylinder (20). The probe (12) is in the form of a mu-metal needle formed with a sharpened point at its tip (16) and having an opposite end (26) embedded or otherwise fixed in the body (18). Therefore the tip (16) is at a fixed distance from the end of the body (18). The tool (10) is arranged to vary magnetic coupling between the magnetic field source (14) and the probe (12) between a maximum when the source (14) contacts the end (26) of the probe (12) and a minimum when the source is moved away from the probe (16).

Abstract: At least some embodiments are a method including connecting a mobile computer system to a vehicle computer system, wherein the vehicle computer system does not include a display device. Mission control data is received from the vehicle computer system, the mission control data generated by one or more vehicle I/O sensors coupled to the vehicle computer system. The mission control data is displayed on a display device of the mobile computer system.

Abstract: A system. At least some embodiments are a system including a first processor and a non-volatile random access memory coupled to the first processor, the non-volatile random access memory storing program instructions for execution by the first processor in which the programming instructions are stored only in encrypted form. The system further includes an encryption engine coupled to the first processor and coupled to the non-volatile random access memory. A bridge logic device coupled is to the processor and configured to couple to an external peripheral network bus. The encryption engine is configured to decrypt software program instructions stored in the non-volatile random access memory for execution by the first processor.