A system for detecting security threats in a computing device receives a first set of signals from components of the computing device. The first set of signals includes intercommunication electrical signals between the components of the computing device and electromagnetic radiation signals propagated from the components of the computing device. The system extracts baseline features from the first set of signals. The baseline features represent a unique electrical signature of the computing device. The system extracts test features from a second set of signals received from the component of the system. The system determines whether there is a deviation between the test features and baseline features. If the system detects the deviation, the system determines that the computing device is associated with a particular anomaly that makes the computing device vulnerable to unauthorized access.

A system for securing electronic devices includes a processor, non-transitory machine readable storage medium communicatively coupled to the processor, security applications, and a security controller. The security controller includes computer-executable instructions on the medium that are readable by the processor. The security application is configured to determine a suspicious file from a client using the security applications, identify whether the suspicious file has been encountered by other clients using the security applications, calculate a time range for which the suspicious file has been present on the clients, determine resources accessed by the suspicious file during the time range, and create a visualization of the suspicious file, a relationship between the suspicious file and the clients, the time range, and the resources accessed by the suspicious file during the time range.

Systems, apparatuses and methods may provide for technology that assumes, by a root of trust located in a trusted region of a system on chip (SOC), control over a reset of the SOC and conducting, by the root of trust, an authentication of an update package in response to an update condition. The root of trust technology may also apply the update package to firmware located in non-volatile memory (NVM) associated with a microcontroller of the SOC if the authentication is successful.

Embodiments are disclosed for a method for a security model. The method includes generating a Bloch sphere based on a system information and event management (SIEM) of a security domain and a structured threat information expression trusted automated exchange of indicator information. The method also includes generating a quantum state probabilities matrix based on the Bloch sphere. Further, the method includes training a security threat model to perform security threat classifications based on the quantum state probabilities matrix. Additionally, the method includes performing a machine learning classification of the security domain based on the quantum state probabilities matrix.

In accordance with some embodiments, a method and system for establishing the trustworthiness of software and running systems by analyzing software and its provenance using automated means. In some embodiments, a risk score is produced. In some embodiments, software is analyzed for insecure behavior or structure. In some embodiments, parts of the software are hardened by producing possibly multiple different versions of the software with different hardening techniques applied, and a choice can be made based on user or environmental needs. In some embodiments, the software is verified and constraints are enforced on the endpoint using techniques such as verification injection and secure enclaves. In some embodiments, endpoint injection is managed through container orchestration.

A method for a cyber threat defense system is provided. The method comprises receiving a first abnormal behavior pattern where the first abnormal behavior pattern represents behavior on a first network deviating from a normal benign behavior of that network; and receiving a second abnormal behavior pattern where the second abnormal behavior pattern representing either behavior on the first network or on a second network deviating from a normal benign behavior of that network. The method further comprises comparing the first and second abnormal behavior patterns to determine a similarity score between the first and second abnormal behavior patterns and determining, based on the comparison, that the first abnormal behavior pattern likely corresponds to malicious behavior when the similarity score is above a threshold. A corresponding non-transitory computer readable medium is also provided.

The systems and methods disclosed herein comprise computer-based platforms configured for automated early-stage application security monitoring for allowing users (e.g., application developers) to make decisions at the early stage of the application development.

In method of identifying capabilities of a malware intrusion that has been detected by an intrusion detection system, a notification that the malware intrusion has been detected is received from the intrusion detection system. A memory image associated with the malware is then captured. The memory image is parsed and a prior execution context is reconstructed by loading a last central processing unit (CPU) state and memory state into a symbolic environment. Addresses and prototype summaries associated with the malware are extracted from the memory image from the symbolic environment. Paths that are possible for execution due to the malware based on the addresses and prototype summaries are determined. Each path is modeled and a probability of each path being executed with concrete data is assigned. Paths with a low probability of leaving a plurality of paths of interest are pruned. Application programming interfaces (APIs) detected in the plurality of paths of interest are matched to a repository of capability analysis plugins. Any application programming interface (API) that matches at least one plugin in the repository of capability analysis plugins is reported to an analyst.

A code repository stores source code. An insider threat detection system stores instructions for detecting code defects and criteria indicating predetermined types of code defects that, when present, are associated with intentional obfuscation of one or more functions of the source code. The insider threat detection system receives an entry of source code and detects, using the model, a set of code defects in the entry of source code. A defect type is determined for each code defect, thereby determining a set of defect types included in the entry of source code. If it is determined that each of the predetermined types of code defects indicated by the criteria is included in the determined set of defect types, the entry of source code is determined to include an insider threat.

The technology disclosed relates to streamlined analysis of security posture of a cloud environment. In particular, the disclosed technology relates to accessing permissions data and access control data for pairs of compute resources and storage resources in the cloud environment, tracing network communication paths between the pairs of the compute resources and the storage resources based on the permissions data and the access control data, accessing sensitivity classification data for objects in the storage resources, qualifying a subset of the pairs of the compute resources and the storage resources as vulnerable to breach attack based on an evaluation of the permissions data, the access control data, and the sensitivity classification data against a set risk criterion, and generating a representation of propagation of the breach attack along the network communication paths, the representation identifying relationships between the subset of the pairs of the compute resources and the storage resources.