Brad Doctor

Network traffic in a cloud computing system is monitored in response to a request to capture network traffic of a tenant port of a first virtual machine (VM) executing in the cloud computing system, wherein the first VM is associated with a first tenant organization different from a second organization managing the cloud computing system. A decapsulating VM having a first network interface and a second network interface is instantiated, wherein the decapsulating VM is inaccessible to the first… Show more

Network traffic in a cloud computing system is monitored in response to a request to capture network traffic of a tenant port of a first virtual machine (VM) executing in the cloud computing system, wherein the first VM is associated with a first tenant organization different from a second organization managing the cloud computing system. A decapsulating VM having a first network interface and a second network interface is instantiated, wherein the decapsulating VM is inaccessible to the first tenant organization. An encapsulated port mirroring session from the tenant port of the first VM to the first network interface of the decapsulating VM is then established. A plurality of packets comprising captured network traffic received via the encapsulated port mirroring session are decapsulated, and the captured network traffic is forwarded via the second network interface of the decapsulating VM to a sniffer VM.

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Implementations of the present disclosure involve a system and/or method for identifying and mitigating malicious network threats. Network data associated is retrieved from various sources across a network and analyzed to identify a malicious network threat. When a threat is found, the system performs a mitigating action to neutralize the malicious network threat

Implementations of the present disclosure involve a system and/or method for identifying and mitigating malicious network threats. Network data associated is retrieved from various sources across a network and analyzed to identify a malicious network threat. When a threat is found, the system performs a mitigating action to neutralize the malicious network threat.

A system includes least one processor in communication with a memory storing instructions, the at least one processor to receive an authentication request comprising authentication information from a user requesting access to a computing device connected to a communications network, determine a type of authentication request sent by the user, transmit the authentication request to an appropriate authentication server responsive to the type of authentication request, receive an authentication… Show more

A system includes least one processor in communication with a memory storing instructions, the at least one processor to receive an authentication request comprising authentication information from a user requesting access to a computing device connected to a communications network, determine a type of authentication request sent by the user, transmit the authentication request to an appropriate authentication server responsive to the type of authentication request, receive an authentication response from the appropriate authentication server, determine a permission level for the user requesting access to the computing device and attach the permission level to the authentication response, and transmit the authentication response to the user requesting access to the computing device.

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Implementations of the present disclosure involve a system and/or method for identifying and mitigating malicious network threats. Network data associated is retrieved from various sources across a network and analyzed to identify a malicious network threat. When a threat is found, the system performs a mitigating action to neutralize the malicious network threat.

Implementations of the present disclosure involve a system and/or method of performing security asset management. The system and/or method may schedule vulnerability scanners to scan the various portions of one or more networks and obtain the results of the vulnerability scans. IP addresses may be assigned to each of vulnerability scanners to scan. The system obtains the results of the vulnerability scans and may adjust the results of the scans according to configuration of the one or more… Show more

Implementations of the present disclosure involve a system and/or method of performing security asset management. The system and/or method may schedule vulnerability scanners to scan the various portions of one or more networks and obtain the results of the vulnerability scans. IP addresses may be assigned to each of vulnerability scanners to scan. The system obtains the results of the vulnerability scans and may adjust the results of the scans according to configuration of the one or more networks that an IP address is associated with. The system and/or method may also assign and reassign IP addresses amongst the scanners to optimize scanning speed.
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Implementations of the present disclosure involve a system and/or method of performing security asset management. The system and/or method may schedule vulnerability scanners to scan the various portions of one or more networks and obtain the results of the vulnerability scans. IP addresses may be assigned to each of vulnerability scanners to scan. The system obtains the results of the vulnerability scans and may adjust the results of the scans according to configuration of the one or more… Show more

Implementations of the present disclosure involve a system and/or method of performing security asset management. The system and/or method may schedule vulnerability scanners to scan the various portions of one or more networks and obtain the results of the vulnerability scans. IP addresses may be assigned to each of vulnerability scanners to scan. The system obtains the results of the vulnerability scans and may adjust the results of the scans according to configuration of the one or more networks that an IP address is associated with. The system and/or method may also assign and reassign IP addresses amongst the scanners to optimize scanning speed.
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Network traffic in a cloud computing system is monitored in response to a request to capture network traffic of a tenant port of a first virtual machine (VM) executing in the cloud computing system, wherein the first VM is associated with a first tenant organization different from a second organization managing the cloud computing system. A decapsulating VM having a first network interface and a second network interface is instantiated, wherein the decapsulating VM is inaccessible to the first… Show more

Network traffic in a cloud computing system is monitored in response to a request to capture network traffic of a tenant port of a first virtual machine (VM) executing in the cloud computing system, wherein the first VM is associated with a first tenant organization different from a second organization managing the cloud computing system. A decapsulating VM having a first network interface and a second network interface is instantiated, wherein the decapsulating VM is inaccessible to the first tenant organization. An encapsulated port mirroring session from the tenant port of the first VM to the first network interface of the decapsulating VM is then established. A plurality of packets comprising captured network traffic received via the encapsulated port mirroring session are decapsulated, and the captured network traffic is forwarded via the second network interface of the decapsulating VM to a sniffer VM. Show less

Network traffic in a cloud computing system is monitored in response to a request to capture network traffic of a tenant port of a first virtual machine (VM) executing in the cloud computing system, wherein the first VM is associated with a first tenant organization different from a second organization managing the cloud computing system. A decapsulating VM having a first network interface and a second network interface is instantiated, wherein the decapsulating VM is inaccessible to the first… Show more

Network traffic in a cloud computing system is monitored in response to a request to capture network traffic of a tenant port of a first virtual machine (VM) executing in the cloud computing system, wherein the first VM is associated with a first tenant organization different from a second organization managing the cloud computing system. A decapsulating VM having a first network interface and a second network interface is instantiated, wherein the decapsulating VM is inaccessible to the first tenant organization. An encapsulated port mirroring session from the tenant port of the first VM to the first network interface of the decapsulating VM is then established. A plurality of packets comprising captured network traffic received via the encapsulated port mirroring session are decapsulated, and the captured network traffic is forwarded via the second network interface of the decapsulating VM to a sniffer VM. Show less