Cisco Hybrid Email Security is a unique service offering that combines a cloud-based email security deployment with an appliance-based email security deployment (on premises) to provide maximum choice and control for your organization. The cloud-based infrastructure is typically used for inbound email cleansing, while the onpremises appliances provide granular control - protecting sensitive information with data loss prevention (DLP) and encryption technologies. Reference: https://www.cisco.com/c/dam/en/us/td/docs/security/ces/overview_guide/ Cisco_Cloud_Hybrid_Email_Security_Overview_Guide.pdf with an appliance-based email security deployment (on premises) to provide maximum choice and control for your organization. The cloud-based infrastructure is typically used for inbound email cleansing, while the onpremises appliances provide granular control - protecting sensitive information with data loss prevention (DLP) and encryption technologies.
Reference:
Cisco Hybrid Email Security is a unique service offering that combines a cloud-based email security deployment with an appliance-based email security deployment (on premises) to provide maximum choice and control for your organization. The cloud-based infrastructure is typically used for inbound email cleansing, while the onpremises appliances provide granular control - protecting sensitive information with data loss prevention (DLP) and encryption technologies. Reference: https://www.cisco.com/c/dam/en/us/td/docs/security/ces/overview_guide/ Cisco_Cloud_Hybrid_Email_Security_Overview_Guide.pdf

Private Network Monitoring (PNM) provides visibility and threat detection for the on-premises network, delivered from the cloud as a SaaS solution. It is the perfect solution for organizations who prefer SaaS products and desire better awareness and security in their on-premises environments while reducing capital expenditure and operational overhead. It works by deploying lightweight software in a virtual machine or server that can consume a variety of native sources of telemetry or extract metadata from network packet flow. It encrypts this metadata and sends it to the Stealthwatch Cloud analytics platform for analysis. Stealthwatch Cloud consumes metadata only. The packet payloads are never retained or transferred outside the network. This lab focuses on how to configure a Stealthwatch Cloud Private Network Monitoring (PNM) Sensor, in order to provide visibility and effectively identify active threats, and monitors user and device behavior within onpremises networks. The Stealthwatch Cloud PNM Sensor is an extremely flexible piece of technology, capable of being utilized in a number of different deployment scenarios. It can be deployed as a complete Ubuntu based virtual appliance on different hypervisors (e.g. -VMware, VirtualBox). It can be deployed on hardware running a number of different Linux-based operating systems. Reference: https://www.ciscolive.com/c/dam/r/ciscolive/us/docs/2019/pdf/5eU6DfQV/LTRSEC-2240-LG2.pdf operational overhead. It works by deploying lightweight software in a virtual machine or server that can consume a variety of native sources of telemetry or extract metadata from network packet flow. It encrypts this metadata and sends it to the Stealthwatch Cloud analytics platform for analysis. Stealthwatch Cloud consumes metadata only. The packet payloads are never retained or transferred outside the network.
This lab focuses on how to configure a Stealthwatch Cloud Private Network Monitoring (PNM) Sensor, in order to provide visibility and effectively identify active threats, and monitors user and device behavior within onpremises networks.
The Stealthwatch Cloud PNM Sensor is an extremely flexible piece of technology, capable of being utilized in a number of different deployment scenarios. It can be deployed as a complete Ubuntu based virtual appliance on different hypervisors (e.g. -VMware, VirtualBox). It can be deployed on hardware running a number of different Linux-based operating systems.
Private Network Monitoring (PNM) provides visibility and threat detection for the on-premises network, delivered from the cloud as a SaaS solution. It is the perfect solution for organizations who prefer SaaS products and desire better awareness and security in their on-premises environments while reducing capital expenditure and operational overhead. It works by deploying lightweight software in a virtual machine or server that can consume a variety of native sources of telemetry or extract metadata from network packet flow. It encrypts this metadata and sends it to the Stealthwatch Cloud analytics platform for analysis. Stealthwatch Cloud consumes metadata only. The packet payloads are never retained or transferred outside the network. This lab focuses on how to configure a Stealthwatch Cloud Private Network Monitoring (PNM) Sensor, in order to provide visibility and effectively identify active threats, and monitors user and device behavior within onpremises networks. The Stealthwatch Cloud PNM Sensor is an extremely flexible piece of technology, capable of being utilized in a number of different deployment scenarios. It can be deployed as a complete Ubuntu based virtual appliance on different hypervisors (e.g. -VMware, VirtualBox). It can be deployed on hardware running a number of different Linux-based operating systems. Reference: https://www.ciscolive.com/c/dam/r/ciscolive/us/docs/2019/pdf/5eU6DfQV/LTRSEC-2240-LG2.pdf

Talos Threat Source is a regular intelligence update from Cisco Talos, highlighting the biggest threats each week and other security news.
Talos Threat Source is a regular intelligence update from Cisco Talos, highlighting the biggest threats each week and other security news.
Talos Threat Source is a regular intelligence update from Cisco Talos, highlighting the biggest threats each week and other security news.

As the new device does not have a supplicant, we cannot use 802.1X.
MAC Authentication Bypass (MAB) is a fallback option for devices that don't support 802.1x. It is virtually always used in deployments in some way shape or form. MAB works by having the authenticator take the connecting device's MAC address and send it to the authentication server as its username and password. The authentication server will check its policies and send back an Access-Accept or Access-Reject just like it would with 802.1x.
Cisco ISE Profiling Services provides dynamic detection and classification of endpoints connected to the network. Using MAC addresses as the unique identifier, ISE collects various attributes for each network endpoint to build an internal endpoint database. The classification process matches the collected attributes to prebuilt or user-defined conditions, which are then correlated to an extensive library of profiles. These profiles include a wide range of device types, including mobile clients (iPads, Android tablets, Chromebooks, and so on), desktop operating systems (for example, Windows, Mac OS X, Linux, and others), and numerous non-user systems such as printers, phones, cameras, and game consoles.
Once classified, endpoints can be authorized to the network and granted access based on their profile. For example, endpoints that match the IP phone profile can be placed into a voice VLAN using MAC Authentication Bypass (MAB) as the authentication method. Another example is to provide differentiated network access to users based on the device used. For example, employees can get full access when accessing the network from their corporate workstation but be granted limited network access when accessing the network from their personal iPhone.
As the new device does not have a supplicant, we cannot use 802.1X.
MAC Authentication Bypass (MAB) is a fallback option for devices that don't support 802.1x. It is virtually always used in deployments in some way shape or form. MAB works by having the authenticator take the connecting device's MAC address and send it to the authentication server as its username and password. The authentication server will check its policies and send back an Access-Accept or Access-Reject just like it would with 802.1x.
Cisco ISE Profiling Services provides dynamic detection and classification of endpoints connected to the network. Using MAC addresses as the unique identifier, ISE collects various attributes for each network endpoint to build an internal endpoint database. The classification process matches the collected attributes to prebuilt or user-defined conditions, which are then correlated to an extensive library of profiles. These profiles include a wide range of device types, including mobile clients (iPads, Android tablets, Chromebooks, and so on), desktop operating systems (for example, Windows, Mac OS X, Linux, and others), and numerous non-user systems such as printers, phones, cameras, and game consoles.
Once classified, endpoints can be authorized to the network and granted access based on their profile. For example, endpoints that match the IP phone profile can be placed into a voice VLAN using MAC Authentication Bypass (MAB) as the authentication method. Another example is to provide differentiated network access to users based on the device used. For example, employees can get full access when accessing the network from their corporate workstation but be granted limited network access when accessing the network from their personal iPhone.
Reference:
As the new device does not have a supplicant, we cannot use 802.1X.
MAC Authentication Bypass (MAB) is a fallback option for devices that don't support 802.1x. It is virtually always used in deployments in some way shape or form. MAB works by having the authenticator take the connecting device's MAC address and send it to the authentication server as its username and password. The authentication server will check its policies and send back an Access-Accept or Access-Reject just like it would with 802.1x.
Cisco ISE Profiling Services provides dynamic detection and classification of endpoints connected to the network. Using MAC addresses as the unique identifier, ISE collects various attributes for each network endpoint to build an internal endpoint database. The classification process matches the collected attributes to prebuilt or user-defined conditions, which are then correlated to an extensive library of profiles. These profiles include a wide range of device types, including mobile clients (iPads, Android tablets, Chromebooks, and so on), desktop operating systems (for example, Windows, Mac OS X, Linux, and others), and numerous non-user systems such as printers, phones, cameras, and game consoles.
Once classified, endpoints can be authorized to the network and granted access based on their profile. For example, endpoints that match the IP phone profile can be placed into a voice VLAN using MAC Authentication Bypass (MAB) as the authentication method. Another example is to provide differentiated network access to users based on the device used. For example, employees can get full access when accessing the network from their corporate workstation but be granted limited network access when accessing the network from their personal iPhone.