forward error correction fortigate

Does any one know how to build a FortiAnalyzer query for this? The number of base Forward Error Correction packets (1 - 100, default = 20). The time before sending Forward Error Correction packets, in milliseconds (1 - 1000, default = 8). Home; Product Pillars. On FortiGate A, apply the FEC mappings on vd1-p1: The FEC base and redundant values are used when the link quality has not exceeded the limits specified in the FEC profile mapping. FEC can be applied only to streams that are sensitive to packet loss. After each install, I need to connect to the FortiGate and add "set forward error correction disabled" to both of the ports, and the comm restores. The number of base Forward Error Correction packets (1 - 100, default = 20). FEC provides the receiver with the ability to correct errors without a reverse channel to request the retransmission of data. FEC is a technique used to control and correct errors in data transmission by sending redundant data across the VPN. FortiAnalyzer Fortigate 35 0 Share Reply All forum topics Previous Topic Next Topic 11-26-2020 Copyright 2023 Fortinet, Inc. All Rights Reserved. In order to correct the errors, one has to know the exact position of the error. Forwarding Error Correction (FEC) is a method of obtaining error control in data transmission over an unreliable or noisy channel in which the source (transmitter) encodes the data in a redundant way using Error Correcting Code, and the destination (receiver) recognizes it and corrects the errors without requiring a retransmission. The URL category must be specified on the traffic shaping policy. Adaptive FEC considers link conditions and dynamically adjusts the FEC packet ratio: The FEC base and redundant packet relationship is dynamically adjusted based on changes to the network SLA metrics defined in the SD-WAN SLA health checks. Just found this video demonstration, pretty solid results it seems. If more than one tunnel is available, duplicated packets will be sent over the tunnel with the best parameters. If fec-codec is set to xor the base and redundant packet values will not be updated. Forward error connection is not supported for interfaces in FortiGates with NP7 processors operating at any other speeds. Even when the physical layer of a WAN is error-free, some technologies and provisioning practices still lead to packet loss at the network layer. Forward Error Correction (FEC) is used to control and correct errors in data transmission by sending redundant data across the VPN in anticipation of dropped packets occurring during transit. The time before dropping Forward Error Correction packets, in milliseconds (1 - 1000, default = 5000). FEC is enabled on vd1-p1, and health-check works on vd1-p1. The DMZ interface and IPsec tunnel vd1-p1 are SD-WAN members. Created on Technical Tip: changes in Forward Error Correct (F Technical Tip: changes in Forward Error Correct (FEC) settings. For example how many redundant packets are being sent. I would like to see that is actually is working. It does this by introducing redundant data, called error correcting code, prior to data transmission or storage. On both FortiGates, enable FEC and NPU offloading on the IPsec tunnel vd1-p1: The VPN overlay member (vd1-p1) must be included in the health-check and configured as the higher priority member in the SD-WAN rule. On FortiGate A, create a policy to specify performing FEC on UDP traffic, and a policy for other traffic: On FortiGate A, configure FEC mapping to bind network SLA metrics and FEC base and redundant packets: The mappings are matched from top to bottom: packet loss greater than 10% with eight base and two redundant packets, and then uploading bandwidth greater than 950 Mbps with nine base and three redundant packets. On FortiGate A, create a policy to specify performing FEC on UDP traffic, and a policy for other traffic: On FortiGate A, configure FEC mapping to bind network SLA metrics and FEC base and redundant packets: The mappings are matched from top to bottom: packet loss greater than 10% with eight base and two redundant packets, and then uploading bandwidth greater than 950 Mbps with nine base and three redundant packets. ECE2305: Forward Error Correction Basics Error Detection vs. Network Security. On FortiGate A, check the health-check result and the corresponding FEC base and redundant packets: Because bandwidth-up is more than 950000kbps, base and redundant are set to 9 and 3: Make packet loss more than 10%, then check the health-check result and the corresponding FEC base and redundant packets again: Because packet loss is more than 10%, entry one in FEC mapping is first matched, and base and redundant are set to 8 and 2: Connecting FortiExplorer to a FortiGate via WiFi, Transfer a device to another FortiCloud account, Viewing device dashboards in the Security Fabric, Creating a fabric system and license dashboard, Viewing session information for a compromised host, FortiView Top Source and Top Destination Firewall Objects monitors, Viewing top websites and sources by category, Enhanced hashing for LAG member selection, PRP handling in NAT mode with virtual wire pair, Virtual switch support for FortiGate 300E series, Failure detection for aggregate and redundant interfaces, Upstream proxy authentication in transparent proxy mode, Agentless NTLM authentication for web proxy, Multiple LDAP servers in Kerberos keytabs and agentless NTLM domain controllers, IP address assignment with relay agent information option, NetFlow on FortiExtender and tunnel interfaces, Enable or disable updating policy routes when link health monitor fails, Add weight setting on each link health monitor server, IPv6 tunnel inherits MTU based on physical interface, Specify an SD-WAN zone in static routes and SD-WAN rules, Passive health-check measurement by internet service and application, Minimum number of links for a rule to take effect, Use MAC addresses in SD-WAN rules and policy routes, SDN dynamic connector addresses in SD-WAN rules, Static application steering with a manual strategy, Dynamic application steering with lowest cost and best quality strategies, DSCP tag-based traffic steering in SD-WAN, ECMP support for the longest match in SD-WAN rule matching, Override quality comparisons in SD-WAN longest match rule matching, Controlling traffic with BGP route mapping and service rules, Applying BGP route-map to multiple BGP neighbors, Hold down time to support SD-WAN service strategies, Speed tests run from the hub to the spokes in dial-up IPsec tunnels, Interface based QoS on individual child tunnels based on speed test results, Configuring SD-WAN in an HA cluster using internal hardware switches, Configuring the VPN overlay between the HQ FortiGate and cloud FortiGate-VM, Configuring the VPN overlay between the HQ FortiGate and AWS native VPN gateway, Configuring the VIP to access the remote servers, Configuring the SD-WAN to steer traffic between the overlays, NGFW policy mode application default service, Using extension Internet Service in policy, Allow creation of ISDB objects with regional information, Enabling advanced policy options in the GUI, Recognize anycast addresses in geo-IP blocking, Matching GeoIP by registered and physical location, HTTP to HTTPS redirect for load balancing, Use Active Directory objects directly in policies, FortiGate Cloud / FDNcommunication through an explicit proxy, Seven-day rolling counter for policy hit counters, Cisco Security Group Tag as policy matching criteria, ClearPass integration for dynamic address objects, Group address objects synchronized from FortiManager, Using wildcard FQDN addresses in firewall policies, IPv6 MAC addresses and usage in firewall policies, Traffic shaping with queuing using a traffic shaping profile, Changing traffic shaper bandwidth unit of measurement, Multi-stage DSCP marking and class ID in traffic shapers, Interface-based traffic shaping with NP acceleration, QoS assignment and rate limiting for FortiSwitch quarantined VLANs, Establish device identity and trust context with FortiClient EMS, ZTNA HTTPS access proxy with basic authentication example, ZTNA TCP forwarding access proxy without encryption example, ZTNA proxy access with SAML authentication example, ZTNA access proxy with SAML and MFA using FortiAuthenticator example, Posture check verification for active ZTNA proxy session examples, Migrating from SSL VPN to ZTNA HTTPS access proxy, FortiAI inline blocking and integration with an AV profile, FortiGuard category-based DNS domain filtering, Applying DNS filter to FortiGate DNS server, Excluding signatures in application control profiles, SSL-based application detection over decrypted traffic in a sandwich topology, Matching multiple parameters on application control signatures, Protecting a server running web applications, Handling SSL offloaded traffic from an external decryption device, Redirect to WAD after handshake completion, HTTP/2 support in proxy mode SSL inspection, Define multiple certificates in an SSL profile in replace mode, Application groups in traffic shaping policies, Blocking applications with custom signatures, Blocking unwanted IKE negotiations and ESP packets with a local-in policy, Basic site-to-site VPN with pre-shared key, Site-to-site VPN with digital certificate, Site-to-site VPN with overlapping subnets, IKEv2 IPsec site-to-site VPN to an AWS VPN gateway, IPsec VPN to Azure with virtual network gateway, IPSec VPN between a FortiGate and a Cisco ASA with multiple subnets, Add FortiToken multi-factor authentication, Dialup IPsec VPN with certificate authentication, OSPF with IPsec VPN for network redundancy, IPsec aggregate for redundancy and traffic load-balancing, Packet distribution for aggregate dial-up IPsec tunnels, Per packet distribution and tunnel aggregation, Weighted round robin for IPsec aggregate tunnels, Hub-spoke OCVPN with inter-overlay source NAT, IPsec VPN wizard hub-and-spoke ADVPN support, Fragmenting IP packets before IPsec encapsulation, VXLAN over IPsec tunnel with virtual wire pair, VXLAN over IPsec using a VXLAN tunnel endpoint, Defining gateway IP addresses in IPsec with mode-config and DHCP, Set up FortiToken multi-factor authentication, Connecting from FortiClient with FortiToken, SSL VPN with LDAP-integrated certificate authentication, SSL VPN for remote users with MFA and user sensitivity, SSL VPN with FortiToken mobile push authentication, SSL VPN with RADIUS on FortiAuthenticator, SSL VPN with RADIUS and FortiToken mobile push on FortiAuthenticator, SSL VPN with RADIUS password renew on FortiAuthenticator, Dynamic address support for SSL VPN policies, Dual stack IPv4 and IPv6 support for SSL VPN, Disable the clipboard in SSL VPN web mode RDP connections, Running a file system check automatically, FortiGuard distribution of updated Apple certificates, Integrate user information from EMS and Exchange connectors in the user store, Enabling Active Directory recursive search, Configuring LDAP dial-in using a member attribute, Configuring least privileges for LDAP admin account authentication in Active Directory, Tracking users in each Active Directory LDAP group, Restricting RADIUS user groups to match selective users on the RADIUS server, Support for Okta RADIUS attributes filter-Id and class, Sending multiple RADIUS attribute values in a single RADIUS Access-Request, Traffic shaping based on dynamic RADIUS VSAs, Outbound firewall authentication for a SAML user, Using a browser as an external user-agent for SAML authentication in an SSL VPN connection, Outbound firewall authentication with Azure AD as a SAML IdP, Activating FortiToken Mobile on a mobile phone, Configuring the maximum log in attempts and lockout period, FSSO polling connector agent installation, Configuring the FSSO timeout when the collector agent connection fails, Associating a FortiToken to an administrator account, FortiGate administrator log in using FortiCloud single sign-on, Downgrading to a previous firmware version, Setting the administrator password retries and lockout time, Controlling return path with auxiliary session, Out-of-band management with reserved management interfaces, HA between remote sites over managed FortiSwitches, HA using a hardware switch to replace a physical switch, Override FortiAnalyzer and syslog server settings, Routing NetFlow data over the HA management interface, Force HA failover for testing and demonstrations, Resume IPS scanning of ICCP traffic after HA failover, Querying autoscale clusters for FortiGate VM, Synchronizing sessions between FGCP clusters, Session synchronization interfaces in FGSP, UTM inspection on asymmetric traffic in FGSP, UTM inspection on asymmetric traffic on L3, Encryption for L3 on asymmetric traffic in FGSP, FGSP four-member session synchronization and redundancy, Layer 3 unicast standalone configuration synchronization, SNMP traps and query for monitoring DHCP pool, FortiGuard anycast and third-party SSL validation, Using FortiManager as a local FortiGuard server, FortiAP query to FortiGuard IoT service to determine device details, Procuring and importing a signed SSL certificate, FortiGate encryption algorithm cipher suites, Configuring the root FortiGate and downstream FortiGates, Configuring other Security Fabric devices, Deploying the Security Fabric in a multi-VDOM environment, Synchronizing objects across the Security Fabric, Leveraging LLDP to simplify Security Fabric negotiation, Configuring the Security Fabric with SAML, Configuring single-sign-on in the Security Fabric, Configuring the root FortiGate as the IdP, Configuring a downstream FortiGate as an SP, Verifying the single-sign-on configuration, Navigating between Security Fabric members with SSO, Integrating FortiAnalyzer management using SAML SSO, Integrating FortiManager management using SAML SSO, Execute a CLI script based on CPU and memory thresholds, Getting started with public and private SDN connectors, Azure SDN connector using service principal, Cisco ACI SDN connector using a standalone connector, ClearPass endpoint connector via FortiManager, AliCloud Kubernetes SDN connector using access key, AWS Kubernetes (EKS)SDNconnector using access key, Azure Kubernetes (AKS)SDNconnector using client secret, GCP Kubernetes (GKE)SDNconnector using service account, Oracle Kubernetes (OKE) SDNconnector using certificates, Private cloud K8s SDNconnector using secret token, Nuage SDN connector using server credentials, Nutanix SDN connector using server credentials, OpenStack SDN connector using node credentials, VMware ESXi SDNconnector using server credentials, VMware NSX-T Manager SDNconnector using NSX-T Manager credentials, Support for wildcard SDN connectors in filter configurations, Monitoring the Security Fabric using FortiExplorer for Apple TV, Adding the root FortiGate to FortiExplorer for Apple TV, Viewing a summary of all connected FortiGates in a Security Fabric, Log buffer on FortiGates with an SSD disk, Supported log types to FortiAnalyzer, FortiAnalyzer Cloud, FortiGate Cloud, and syslog, Sending traffic logs to FortiAnalyzer Cloud, Configuring multiple FortiAnalyzers on a FortiGate in multi-VDOM mode, Configuring multiple FortiAnalyzers (or syslog servers) per VDOM, Logging the signal-to-noise ratio and signal strength per client, RSSO information for authenticated destination users in logs, Configuring and debugging the free-style filter, Backing up log files or dumping log messages, PFand VFSR-IOV driver and virtual SPU support, FIPS cipher mode for AWS, Azure, OCI, and GCP FortiGate-VMs, Troubleshooting CPU and network resources, Verifying routing table contents in NAT mode, Verifying the correct route is being used, Verifying the correct firewall policy is being used, Checking the bridging information in transparent mode, Performing a sniffer trace (CLI and packet capture), Displaying detail Hardware NIC information, Identifying the XAUI link used for a specific traffic stream, Troubleshooting process for FortiGuard updates. The sender adds parts of the data again. to deliver error-free, well-formed Protocol Data Units (PDUs) to upper layers. Adaptive FEC considers link conditions and dynamically adjusts the FEC packet ratio: The FEC base and redundant packet relationship is dynamically adjusted based on changes to the network SLA metrics defined in the SD-WAN SLA health checks. If fec-codec is set to xor the base and redundant packet values will not be updated. This means that all traffic suffers a performance impact. FortiGate Next Generation Firewall utilizes purpose-built security processors and threat intelligence security services from FortiGuard labs to deliver top-rated protection and high performance, including encrypted traffic. This technique is known as the Forward Error Correction technique. The time before dropping Forward Error Correction packets, in milliseconds (1 - 10000, default = 5000). Send TCP and UDP traffic from PC1 to PC2, then check the sessions on FortiGate A: Non-FEC protected TCP traffic is offloaded, while FEC protected UDP traffic is not offloaded. 10-29-2019 Lastly, it is necessary to make sure the correct media type is configured on the interface settings. The Fortinet Security Fabric brings together the concepts of convergence and consolidation to provide comprehensive cybersecurity protection for all users, devices, and applications and across all network edges. Created on FG22E1-2 (port25) # set forward-error-correction ?disable <----- Disable forward error correction (FEC).cl91-rs-fec <----- Reed-Solomon (FEC CL91).cl74-fc-fec <----- Fire-Code (FEC CL74). This means that all traffic suffers a performance impact. Following are some NSE7_SDW-6.4 Exam Questions for Review. FEC is enabled on vd1-p1, and health-check works on vd1-p1. In this example, a FortiSwitch 3032E that is managed by the FortiGate device is configured with Clause 74 FC-FEC on port 16.1 and Clause 91 RS-FEC on port 8. Forward error correction In telecommunications Forward error correction (FEC) is a special code for error detection and correction. Forward Error Correction (FEC) is used to lower the packet loss ratio by consuming more bandwidth. The mechanism sends out x number of redundant packets for every y number of base packets. A. FEC is useful to increase speed at which traffic is routed through IPsec tunnels. Show Forward Error Correction (FEC) in FAZ reporting Hi All, We are using FEC on some FortiGates. Network Security. FortiGate is not performing traffic shaping as expected, based on the policies shown in the exhibits. Forward Error Correction (FEC) is used to control and correct errors in data transmission by sending redundant data across the VPN in anticipation of dropped packets occurring during transit. meraas board of directors; missile silos in illinois Enable/disable Forward Error Correction for egress IPsec traffic (default = disable). Technical Tip: changes in Forward Error Correct (FEC) settings Description This article describes how to cover the changes in FEC settings for some FortiGates. It is important to keep FEC settings the same on both FortiGate and switch sides, otherwise, ports will not get up due to mismatch. Connecting FortiExplorer to a FortiGate via WiFi, Zero touch provisioning with FortiManager, Viewing device dashboards in the security fabric, Creating a fabric system and license dashboard, Viewing top websites and sources by category, FortiView Top Source and Top Destination Firewall Objects widgets, Configuring the root FortiGate and downstream FortiGates, Configuring other Security Fabric devices, Synchronizing FortiClient EMS tags and configurations, Viewing and controlling network risks via topology view, Synchronizing objects across the Security Fabric, Leveraging LLDP to simplify security fabric negotiation, Configuring the Security Fabric with SAML, Configuring single-sign-on in the Security Fabric, Configuring the root FortiGate as the IdP, Configuring a downstream FortiGate as an SP, Verifying the single-sign-on configuration, Navigating between Security Fabric members with SSO, Integrating FortiAnalyzer management using SAML SSO, Integrating FortiManager management using SAML SSO, Advanced option - unique SAML attribute types, OpenStack (Horizon)SDN connector with domain filter, ClearPass endpoint connector via FortiManager, Cisco ACI SDN connector with direct connection, Support for wildcard SDN connectors in filter configurations, External Block List (Threat Feed) Policy, External Block List (Threat Feed) - Authentication, External Block List (Threat Feed)- File Hashes, Execute a CLI script based on CPU and memory thresholds, Viewing a summary of all connected FortiGates in a Security Fabric, Virtual switch support for FortiGate 300E series, Failure detection for aggregate and redundant interfaces, Upstream proxy authentication in transparent proxy mode, Restricted SaaS access (Office 365, G Suite, Dropbox), Proxy chaining (web proxy forwarding servers), Agentless NTLM authentication for web proxy, IP address assignment with relay agent information option, Static application steering with a manual strategy, Dynamic application steering with lowest cost and best quality strategies, SDN dynamic connector addresses in SD-WAN rules, Forward error correction on VPN overlay networks, Controlling traffic with BGP route mapping and service rules, Applying BGP route-map to multiple BGP neighbors, SD-WAN health check packet DSCP marker support, Dynamic connector addresses in SD-WAN policies, Configuring SD-WAN in an HA cluster using internal hardware switches, Downgrading to a previous firmware version, Setting the administrator password retries and lockout time, FGSP (session synchronization) peer setup, UTM inspection on asymmetric traffic in FGSP, UTM inspection on asymmetric traffic on L3, Encryption for L3 on asymmetric traffic in FGSP, Synchronizing sessions between FGCP clusters, Using standalone configuration synchronization, HA using a hardware switch to replace a physical switch, Routing data over the HA management interface, Override FortiAnalyzer and syslog server settings, Force HA failover for testing and demonstrations, Querying autoscale clusters for FortiGate VM, SNMP traps and query for monitoring DHCP pool, FortiGuard anycast and third-party SSL validation, Using FortiManager as a local FortiGuard server, Purchase and import a signed SSL certificate, NGFW policy mode application default service, Using extension Internet Service in policy, Allow creation of ISDB objects with regional information, Multicast processing and basic Multicast policy, Enabling advanced policy options in the GUI, Recognize anycast addresses in geo-IP blocking, Matching GeoIP by registered and physical location, HTTP to HTTPS redirect for load balancing, Use active directory objects directly in policies, FortiGate Cloud / FDNcommunication through an explicit proxy, ClearPass integration for dynamic address objects, Group address objects synchronized from FortiManager, Using wildcard FQDN addresses in firewall policies, Changing traffic shaper bandwidth unit of measurement, Type of Service-based prioritization and policy-based traffic shaping, Interface-based traffic shaping with NP acceleration, QoS assignment and rate limiting for quarantined VLANs, Content disarm and reconstruction for antivirus, External malware block list for antivirus, Using FortiSandbox appliance with antivirus, How to configure and apply a DNS filter profile, FortiGuard category-based DNS domain filtering, SSL-based application detection over decrypted traffic in a sandwich topology, Matching multiple parameters on application control signatures, Protecting a server running web applications, Redirect to WAD after handshake completion, Blocking unwanted IKE negotiations and ESP packets with a local-in policy, Basic site-to-site VPN with pre-shared key, Site-to-site VPN with digital certificate, IKEv2 IPsec site-to-site VPN to an AWS VPN gateway, IPsec VPN to Azure with virtual network gateway, IPSec VPN between a FortiGate and a Cisco ASA with multiple subnets, Add FortiToken multi-factor authentication, OSPF with IPsec VPN for network redundancy, Adding IPsec aggregate members in the GUI, Represent multiple IPsec tunnels as a single interface, IPsec aggregate for redundancy and traffic load-balancing, Per packet distribution and tunnel aggregation, Weighted round robin for IPsec aggregate tunnels, Hub-spoke OCVPN with inter-overlay source NAT, IPsec VPN wizard hub-and-spoke ADVPN support, Fragmenting IP packets before IPsec encapsulation, Defining gateway IP addresses in IPsec with mode-config and DHCP, Set up FortiToken multi-factor authentication, Connecting from FortiClient with FortiToken, SSL VPN with FortiToken mobile push authentication, SSL VPN with RADIUS on FortiAuthenticator, SSL VPN with RADIUS and FortiToken mobile push on FortiAuthenticator, SSL VPN with RADIUS password renew on FortiAuthenticator, SSL VPN with LDAP-integrated certificate authentication, Dynamic address support for SSL VPN policies, Running a file system check automatically, FortiGuard distribution of updated Apple certificates, FSSO polling connector agent installation, Enabling Active Directory recursive search, Configuring LDAP dial-in using a member attribute, Exchange Server connector with Kerberos KDC auto-discovery, Configuring least privileges for LDAP admin account authentication in Active Directory, Support for Okta RADIUS attributes filter-Id and class, Configuring the maximum log in attempts and lockout period, VLAN interface templates for FortiSwitches, FortiLink auto network configuration policy, Standalone FortiGate as switch controller, Multiple FortiSwitches managed via hardware/software switch, Multiple FortiSwitches in tiers via aggregate interface with redundant link enabled, Multiple FortiSwitches in tiers via aggregate interface with MCLAG enabled only on distribution, HA (A-P) mode FortiGate pairs as switch controller, Multiple FortiSwitches in tiers via aggregate interface with MCLAG enabled on all tiers, MAC layer control - Sticky MAC and MAC Learning-limit, Use FortiSwitch to query FortiGuard IoT service for device details, Dynamic VLAN name assignment from RADIUS attribute, Log buffer on FortiGates with an SSD disk, Supported log types to FortiAnalyzer, syslog, and FortiAnalyzer Cloud, Configuring multiple FortiAnalyzers on a multi-VDOM FortiGate, Configuring multiple FortiAnalyzers (or syslog servers) per VDOM, Backing up log files or dumping log messages, Troubleshooting CPU and network resources, Verifying routing table contents in NAT mode, Verifying the correct route is being used, Verifying the correct firewall policy is being used, Checking the bridging information in transparent mode, Performing a sniffer trace (CLI and packet capture), Displaying detail Hardware NIC information, Identifying the XAUI link used for a specific traffic stream, Troubleshooting process for FortiGuard updates. FEC is far more complex then that. Which two reasons make forward error correction (FEC) ideal to enable in a phase one VPN interface? FortiGate Cloud; Enterprise Networking. Secure SD-WAN; FortiLAN Cloud . It is possible to see the FEC type in the output of '# diagnose hardware deviceinfo nic ' in the Link Settings section: FG22E1-2 # diag hardware deviceinfo nic port25======== Link Settings ==========link_autonego :0link_setting :1link_speed :25000link_duplex :1link_fec :RS (0x3) ---> current value, Reed-Solomonlink_fec_cap :Off,RS,BaseR (0x1c) --->possible values: off, Reed-Solomon and Fire-Codelink_serdes_if :SRserdes_if_cap :GMII,SGMII,SR,LR,CR (0x3e)serdes_dflt :3pm_mode_setting :2pm_mode :0x6pm_mode_dflt :2pm_port :Yesmedium_mode :0========== Link Status ==========. (Choose two ) A The debug output shows per-IP shaper values and real-time readings. It uses six parameters in IPsec phase1/phase1-interface settings: For every fec-base number of sent packets, the tunnel will send fec-redundant number of redundant packets. Show Forward Error Correction (FEC) in FAZ reporting Hi All, We are using FEC on some FortiGates.

What Happens To Nordstrom Notes When You Return, Damien Johnson Nashville, Tn, Lexington, Ky Obituaries, Articles F