Abstract: In an approach to detecting hardware anomalies, a Radio Frequency (RF) signal emitted by a target device is received. The received signal from the target device is decomposed into a plurality of windows, where each window is a time slice. At least one hardware anomaly condition is determined for the target device based on a first hardware anomaly model and the plurality of windows. At least one predetermined action is determined based on the at least one hardware anomaly condition.

Abstract: In an approach to providing virtualized hardware resources, one or more reconfigurable hardware devices (RHDs) are configured to instantiate a first virtual System-on-Chip (vSoC) instance of one or more vSoC instances, the first vSoC instance implementing at least one virtualized system component.

Abstract: In an approach to virtualizing communication channels between one or more hardware components and a controller, a system includes: a first controller implemented in a reconfigurable hardware device; and a virtual platform stratus having a plurality of input/output (I/O) ports for electrically coupling with the one or more hardware components and receiving one or more electrical signals therefrom, and where the VPS is configured to generate one or more data frames from the one or more electrical signals; and where the virtual platform stratus is configured to send the data frames to the first controller and/or provide electrical signaling to the one or the one or more hardware components based on data frames received from the first controller.

Abstract: An aspect of the present disclosure is directed to a system for dynamic provisioning of hardware instances via reprogrammable fabric provided by a reprogrammable hardware device (RHD). The system preferably includes a memory having a first instruction set disposed therein, the first instruction set for provisioning a hypervisor processing unit (HPU) instance (also referred to herein as an orchestrator instance) within the reprogrammable fabric of the RHD, and a startup sequence for execution by the HPU instance. The startup sequence of the HPU instance is preferably configured to cause provisioning of at least a first hardware instance within the second portion of the reprogrammable fabric of the RHD, and for provisioning an interface instance to allow for a physical hardware device of the host computer system to communicate with the first hardware instance via a virtualized communication channel.

Abstract: An aspect of the present disclosure is directed to a system for dynamic provisioning of hardware instances via reprogrammable fabric provided by a reprogrammable hardware device (RHD). The system preferably includes a memory having a first instruction set disposed therein, the first instruction set for provisioning a hypervisor processing unit (HPU) instance (also referred to herein as an orchestrator instance) within the reprogrammable fabric of the RHD, and a startup sequence for execution by the HPU instance. The startup sequence of the HPU instance is preferably configured to cause provisioning of at least a first hardware instance within the second portion of the reprogrammable fabric of the RHD, and for provisioning an interface instance to allow for a physical hardware device of the host computer system to communicate with the first hardware instance via a virtualized communication channel.

Abstract: A method and system of synergizing hardware, firmware, software, and useful feature(s) into a trusted, secure, and verifiable operating environment (TSVOE) that is critical for businesses and consumers that rely on information technology products and/or services. Such products provide various capabilities such as protecting the corporate infrastructure from attack, protecting the client from attack, designing a customizable operating schema, advanced validation of client authentication, establishing a clean environment within a dirty environment, etcetera. Moreover, by ensuring that operating environment security is achieved, a product can provide guarantees that modern state-of-the-art systems cannot. Finally, diversification of hardware, software, firmware, and features creates robust products.

Abstract: A method and system of synergizing hardware, firmware, software, and useful feature(s) into a trusted, secure, and verifiable operating environment (TSVOE) that is critical for businesses and consumers that rely on information technology products and/or services. Such products provide various capabilities such as protecting the corporate infrastructure from attack, protecting the client from attack, designing a customizable operating schema, advanced validation of client authentication, establishing a clean environment within a dirty environment, etcetera. Moreover, by ensuring that operating environment security is achieved, a product can provide guarantees that modern state-of-the-art systems cannot. Finally, diversification of hardware, software, firmware, and features creates robust products.