A system and method of security assessment of a network is described. The system may include one or more security assessment computers controlled by a security assessor, and connected to a network, and first executable program code for acting as an agent on a first end device on the network. The first executable program code is configured to be executed by a browser application of the first end device, and is configured to collect software information, hardware information, and/or vulnerability information of the first end device and transmit the same to a first security assessment computer of the one or more security assessment computers. The information may be transmitted as part of a domain name server (DNS) request. The DNS request may include information identifying the first end device to thus allow modification of the first end device in response to analysis of the collected information.

An example method of secure attestation of a workload deployed in a virtualized computing system is described. The virtualized computing system includes a host cluster and a virtualization management server, the host cluster having hosts and a virtualization layer executing on hardware platforms of the hosts. The method includes: launching, in cooperation with a security module of a host, a guest as a virtual machine (VM) managed by the virtualization layer, the security module generating an attestation report from at least a portion of the VM loaded into memory of the host; sending the attestation report from the security module to a trust authority; receiving, in response to verification of the attestation report by the trust authority, a secret from the trust authority at the security module; and providing the secret from the security module to the guest.

An interaction method includes receiving a service request from a client application (CA) installed on a terminal and that runs in a rich execution environment (REE), determining a trusted user interface (TUI) identifier, sending a TUI call instruction carrying the TUI identifier to a trusted execution environment (TEE) to instruct to draw an image based on the TUI template or the TUI function component to call a TUI to display the drawn image, receiving response information from the TEE, and executing a corresponding service procedure based on the response information.

An interaction method includes receiving a service request from a client application (CA) installed on a terminal and that runs in a rich execution environment (REE), determining a trusted user interface (TUI) identifier, sending a TUI call instruction carrying the TUI identifier to a trusted execution environment (TEE) to instruct to draw an image based on the TUI template or the TUI function component to call a TUI to display the drawn image, receiving response information from the TEE, and executing a corresponding service procedure based on the response information.

This technical solution relates to systems and methods of cyber attack detection, and more specifically it relates to analysis methods and systems for protocols of interaction of malware and cyber attack detection and control centres (servers). The method comprises: uploading the malware application into at least one virtual environment; collecting, by the server, a plurality of malware requests transmitted by the malware application to the malware control center; analyzing the plurality of malware requests to determine, for each given malware request: at least one malware request parameter contained therein; and an order thereof of the at least one malware request parameter. The method then groups the plurality of malware requests based on shared similar malware request parameters contained therein and order thereof and for each group of the at least one group containing at least two malware requests, generates a regular expression describing malware request parameters and order thereof of the group, which regular expression can be used as an emulator of the malware application.

A computer-implemented method, computer program product and computing system for: defining a training routine for a specific attack of a computing platform; and generating a simulation of the specific attack by executing the training routine within a controlled test environment.

In an aspect of the disclosure, a method, a computer-readable medium, and one or more apparatuses are provided. The apparatuses may be one or more thin clients. Each of the one or more thin clients wirelessly connects with at least one peripheral. Each of the one or more thin clients establishes a remote session with a remote machine. The one or more thin clients are placed in an environment that is isolated from the at least one peripheral of each of the thin clients.

Methods and systems for token transfer are described herein. A remote computing device may receive, from a mobile computing device, a public key of a public-private key pair. The public key may be associated with a first application of the mobile computing device. The first application may be configured to send credentials to a second application of the mobile computing device. The second application may be isolated from other applications executable on the mobile computing device. The remote computing device may receive, from the first application, a token. The token may have been previously issued to the first application and may have been encrypted, using the public key, by the first application. The remote computing device may send, to the second application, the token to enable the second application to authenticate with a plurality of services that interact with the second application.

In an embodiment, dynamically-generated code may be supported in the system by ensuring that the code either remains executing within a predefined region of memory or exits to one of a set of valid exit addresses. Software embodiments are described in which the dynamically-generated code is scanned prior to permitting execution of the dynamically-generated code to ensure that various criteria are met including exclusion of certain disallowed instructions and control of branch target addresses. Hardware embodiments are described in which the dynamically-generated code is permitted to executed but is monitored to ensure that the execution criteria are met.

In an embodiment, dynamically-generated code may be supported in the system by ensuring that the code either remains executing within a predefined region of memory or exits to one of a set of valid exit addresses. Software embodiments are described in which the dynamically-generated code is scanned prior to permitting execution of the dynamically-generated code to ensure that various criteria are met including exclusion of certain disallowed instructions and control of branch target addresses. Hardware embodiments are described in which the dynamically-generated code is permitted to executed but is monitored to ensure that the execution criteria are met.