Abstract: An exemplary method and system are disclosed for a fully implantable soft-membrane electronic system that can provide the continuous monitoring of real-time or semi real-time measurements of strain and/or other mechanical properties, via electrical measurements such as capacitance, over an inductive coupling between the measurement system and the implanted device.

Abstract: A wireless hemodynamic sensor system is provided comprising a stent and a sensor member. The stent can have an outer perimeter defining an interior volume. The sensor member can be positioned along the outer perimeter. The sensor member can comprise a first sensor positioned proximate a first end of the stent and a second sensor positioned proximate a second end of the stent. The sensor system can be configured to simultaneously measure one or more of blood pressure, pulse rate, and blood flow rate of blood passing through the interior volume.

Abstract: Disclosed herein is an implantable cerebral sensor, comprising: an insulator layer; a first electrode disposed on the first insulator: a dielectric layer disposed on the first electrode; and a second electrode disposed on the dielectric layer, the second electrode being electrically separated from the first electrode by the dielectric layer. The first electrode and the second electrode can comprise a conductor, and the insulator layer and the dielectric layer can comprise a polymer. The sensor can be configured to sense a condition in a blood vessel and generate a wireless signal indicative of the sensed condition. Also disclosed herein are systems using the disclosed implantable cerebral sensors and methods of making and using the same.

Abstract: A system and method for an automated improvised explosive device training is disclosed. According to one embodiment of the present invention, the system utilizes an IED mock-up that embeds a processor and wireless modem. A separate processor and wireless modem is embedded in a trainee unit. A wireless network interface is provided, allowing for communication between the IED and trainee processors. Upon a simulated detonation, the IED processor queries each trainee unit for their current position using a wireless local area network message. The IED processor is configured to determine distance differentiation and casualty assessment data based on received signal strength of exchanged wireless messages or GPS coordinates. The trainee processor is configured to automatically signal casualty status to the trainee based on casualty assessment data.

Abstract: A system and method for an automated improvised explosive device training is disclosed. According to one embodiment of the present invention, the system utilizes an IED mock-up that embeds a processor and wireless modem. A separate processor and wireless modem is embedded in a trainee unit. A wireless network interface is provided, allowing for communication between the IED and trainee processors. Upon a simulated detonation, the IED processor queries each trainee unit for their current position using a wireless local area network message. The IED processor is configured to determine distance differentiation and casualty assessment data based on received signal strength of exchanged wireless messages or GPS coordinates. The trainee processor is configured to automatically signal casualty status to the trainee based on casualty assessment data.

Abstract: A method of producing metals and alloys, the method comprising heating raw materials comprising at least one metal oxide, and agglomerates comprising a carbonaceous reducing agent and a cured binder to effect reduction of the metal oxide to the metal, wherein each agglomerate has at least one molded open channel, and an apparent density not greater than 99% of the apparent density of an identical agglomerate except without the channel.

Abstract: This disclosure describes novel systems, methods and software for providing flight training. In an aspect of some embodiments, flight data is collected during a training flight. That flight data then can be used to provide a review and/or simulation of the training flight. The student may be allowed to participate in the simulation by providing input from a set of controls. In some cases, an instructor (or another) might provide modified flight data, which can be used to modify the simulation. Advantageously, this allows for the analysis and simulation of a variety of hypothetical, “what-if” scenarios.