Abstract: A network device includes one or more processors and a memory storing firmware that when executed by the one or more processors causes the network device to perform operations including executing the firmware according to a configuration file, wherein the executing includes receiving one or more commands updating the configuration file to become a modified configuration file; and executing the firmware according to the modified configuration file. Wherein executing the firmware according to the modified configuration file includes: extracting a mode from the modified configuration file, the mode indicating a condition, a set of parameters, and a rule mapping the condition to an action; evaluating the condition based on one or more parameter values associated with the set of parameters; and in response to determining that the condition has been met, performing the action, wherein performing the action modifies how a resource is distributed at a location.

Abstract: A network device includes one or more processors and a memory storing firmware that when executed by the one or more processors causes the network device to perform operations including executing the firmware according to a configuration file, wherein the executing includes receiving one or more commands updating the configuration file to become a modified configuration file; and executing the firmware according to the modified configuration file. Wherein executing the firmware according to the modified configuration file includes: extracting a mode from the modified configuration file, the mode indicating a condition, a set of parameters, and a rule mapping the condition to an action; evaluating the condition based on one or more parameter values associated with the set of parameters; and in response to determining that the condition has been met, performing the action, wherein performing the action modifies how a resource is distributed at a location.

Abstract: A node includes a firmware application that analyzes sensor data to detect and respond to events associated with the distribution of resources. During execution, the firmware application reads a configuration file that specifies a set of conditions and different actions that should be performed in response to different events associated with those conditions. The configuration file can be dynamically updated during execution of the firmware application to modify the set of conditions the firmware application evaluates and the different actions to be performed when occurrences of specific events are detected. Accordingly, the operational behavior of the node can be modified without needing the node to undergo a firmware update.

Abstract: A node includes a firmware application that analyzes sensor data to detect and respond to events associated with the distribution of resources. During execution, the firmware application reads a configuration file that specifies a set of conditions and different actions that should be performed in response to different events associated with those conditions. The configuration file can be dynamically updated during execution of the firmware application to modify the set of conditions the firmware application evaluates and the different actions to be performed when occurrences of specific events are detected. Accordingly, the operational behavior of the node can be modified without needing the node to undergo a firmware update.

Abstract: Methods for reducing the impact of malware during a booting sequence for an interrupt driven computing device are disclosed. One or more parameters associated with an interrupt vector table (IVT) are manipulated to force the computing device into a clean state following a system level portion of the booting sequence. In another embodiment, occurring prior to the loading of an operating system or a call to a non-returnable main( ) function, one or more unused interrupt vectors in an IVT are replaced. A function filter is implemented for one or more interrupt vectors in the IVT to disallow unnecessary interrupt functions from being executed. One or more required interrupt vector functions are replaced with one or more corresponding custom vector functions. One or more memory locations are wiped if the one or more memory locations do not hold at least a portion of the IVT and/or the interrupt vector functions.

Abstract: Methods for reducing the impact of malware during a booting sequence for an interrupt driven computing device are disclosed. One or more parameters associated with an interrupt vector table (IVT) are manipulated to force the computing device into a clean state following a system level portion of the booting sequence. In another embodiment, occurring prior to the loading of an operating system or a call to a non-returnable main( ) function, one or more unused interrupt vectors in an IVT are replaced. A function filter is implemented for one or more interrupt vectors in the IVT to disallow unnecessary interrupt functions from being executed. One or more required interrupt vector functions are replaced with one or more corresponding custom vector functions. One or more memory locations are wiped if the one or more memory locations do not hold at least a portion of the IVT and/or the interrupt vector functions.