Abstract: A redundant processing system with profile-based monitoring is disclosed. In embodiments, the redundant system includes two or more redundant lanes, each lane having equivalent processing components. In a testing state, template processors and hardware monitoring sensors are connected to a selected trusted lane and input vectors submitted thereto; the hardware sensors characterize the response of the selected lane and the resulting testing data compiled into system templates. In an operational environment, the template processors send challenges based on the input vectors to each of the redundant lanes in real time, collecting response data from each lane via identical sets of monitoring sensors. The template processors correlate the response data with the corresponding system templates, identifying anomalous lanes and system anomalies based on discorrelations between the response data and the system templates.

Abstract: A hardware malware profiling and detection system is disclosed. In embodiments, the system includes a primary (e.g., trusted) system including template processors and hardware sensors. The template processors submit input vectors to the primary system and characterize the system response via power trace data collected by the hardware sensors. Based on the input vectors and power trace data, the template processors generate system templates and derive system challenges therefrom. The template processors submit the system challenges to a remote system under test and characterize the remote system response in real time via identical remote hardware sensors. The template processors correlate the real-time remote system response data with the system templates corresponding to the issued challenges to detect system anomalies or malware within the remote system or its components.

Abstract: A hardware malware profiling and detection system is disclosed. In embodiments, the system includes a primary (e.g., trusted) system including template processors and hardware sensors. The template processors submit input vectors to the primary system and characterize the system response via power trace data collected by the hardware sensors. Based on the input vectors and power trace data, the template processors generate system templates and derive system challenges therefrom. The template processors submit the system challenges to a remote system under test and characterize the remote system response in real time via identical remote hardware sensors. The template processors correlate the real-time remote system response data with the system templates corresponding to the issued challenges to detect system anomalies or malware within the remote system or its components.

Abstract: A redundant processing system with profile-based monitoring is disclosed. In embodiments, the redundant system includes two or more redundant lanes, each lane having equivalent processing components. In a testing state, template processors and hardware monitoring sensors are connected to a selected trusted lane and input vectors submitted thereto; the hardware sensors characterize the response of the selected lane and the resulting testing data compiled into system templates. In an operational environment, the template processors send challenges based on the input vectors to each of the redundant lanes in real time, collecting response data from each lane via identical sets of monitoring sensors. The template processors correlate the response data with the corresponding system templates, identifying anomalous lanes and system anomalies based on discorrelations between the response data and the system templates.

Abstract: A computing device within a reflective memory system includes a memory block and a special purpose processor. The memory block includes a plurality of memory areas, which are configured to store data of a corresponding one of a plurality of external devices. The special purpose processor is configured to intercept a write request. The write request is associated with a first external device of the plurality of external devices, and the first external device is associated with a first memory area of the plurality of memory areas. The special purpose processor is configured to determine whether the write request is valid or invalid, write the data of the first external device to the first memory area if the write request is valid, and prevent the data of the first external device from being written to the memory block if the write request is invalid.

Abstract: A method, system and/or apparatus for remotely monitoring the operation of a radiation sensor may include a radiation sensor configured to detect a presence of radiation in the area, the radiation sensor including a Geiger-Muller tube, a test signal generator configured to generate a high frequency test signal used to test the radiation sensor, the high frequency test signal transmitted to the radiation sensor, and a test signal detector configured to detect a response of the radiation sensor to the test signal, and determine whether the radiation sensor is operating correctly.

Abstract: A computing system includes at least a first division and a second division. The first division has a first clock rate and the second division has a second clock rate. The computing system includes a first processor configured to execute a task on the first division and a second processor configured to execute the task of the second division. The task executed on the first division operates according to the first clock rate, and the task executed on the second division operates according to the second clock rate. A method of executing a task in order to reduce common mode failures in a computing system includes varying a program speed of each of the plurality of divisions such that the task, when executed on a corresponding one of the plurality of divisions, operates at a clock rate according to the corresponding one of the plurality of divisions.

Abstract: A method, system and/or apparatus for remotely monitoring the operation of a radiation sensor may include a radiation sensor configured to detect a presence of radiation in the area, the radiation sensor including a Geiger-Muller tube, a test signal generator configured to generate a high frequency test signal used to test the radiation sensor, the high frequency test signal transmitted to the radiation sensor, and a test signal detector configured to detect a response of the radiation sensor to the test signal, and determine whether the radiation sensor is operating correctly.

Abstract: A computing device within a reflective memory system includes a memory block and a special purpose processor. The memory block includes a plurality of memory areas, which are configured to store data of a corresponding one of a plurality of external devices. The special purpose processor is configured to intercept a write request. The write request is associated with a first external device of the plurality of external devices, and the first external device is associated with a first memory area of the plurality of memory areas. The special purpose processor is configured to determine whether the write request is valid or invalid, write the data of the first external device to the first memory area if the write request is valid, and prevent the data of the first external device from being written to the memory block if the write request is invalid.

Abstract: A computing system includes at least a first division and a second division. The first division has a first clock rate and the second division has a second clock rate. The computing system includes a first processor configured to execute a task on the first division and a second processor configured to execute the task of the second division. The task executed on the first division operates according to the first clock rate, and the task executed on the second division operates according to the second clock rate. A method of executing a task in order to reduce common mode failures in a computing system includes varying a program speed of each of the plurality of divisions such that the task, when executed on a corresponding one of the plurality of divisions, operates at a clock rate according to the corresponding one of the plurality of divisions.