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ISAKMP Header Part 3 and ISAKMP keepalives and DPD ( Day 40)
 
01:26:48
In this video we will talk about ISAKMP header again and will discuss about ISAKMP DPD and Keepalives
Views: 1494 Ajay Grewal
Learn about Cisco ASAv route based VPN (Demo connecting AWS and Azure)
 
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Learn about Cisco ASAv route based VPN (Demo connecting AWS and Azure) ASAv (AWS) crypto ikev1 enable management ! crypto ikev1 policy 10  authentication pre-share  encryption aes  hash sha  group 2  lifetime 28800 ! crypto ipsec ikev1 transform-set AWS esp-aes esp-sha-hmac  ! crypto ipsec profile AWS  set ikev1 transform-set AWS  set pfs group2  set security-association lifetime seconds 3600 ! tunnel-group 104.43.128.159 type ipsec-l2l     ! tunnel-group 104.43.128.159 ipsec-attributes    ikev1 pre-shared-key cisco  isakmp keepalive threshold 10 retry 10 ! interface Tunnel1  nameif AWS  ip address 1.1.1.2 255.255.255.0   tunnel source interface management  tunnel destination 104.43.128.159  tunnel mode ipsec ipv4  tunnel protection ipsec profile AWS  no shut ! router bgp 64502  bgp log-neighbor-changes  address-family ipv4 unicast   neighbor 1.1.1.1 remote-as 64501   neighbor 1.1.1.1 activate   neighbor 1.1.1.1 default-originate   redistribute connected   redistribute static   no auto-summary   no synchronization  exit-address-family ! ASAv (Azure) crypto ikev1 enable management ! crypto ikev1 policy 10  authentication pre-share  encryption aes  hash sha  group 2  lifetime 28800 ! crypto ipsec ikev1 transform-set Azure esp-aes esp-sha-hmac  ! crypto ipsec profile Azure  set ikev1 transform-set Azure  set pfs group2  set security-association lifetime seconds 3600 ! tunnel-group 54.213.122.209 type ipsec-l2l     ! tunnel-group 54.213.122.209 ipsec-attributes    ikev1 pre-shared-key cisco  isakmp keepalive threshold 10 retry 10 ! interface Tunnel1  nameif Azure  ip address 1.1.1.1 255.255.255.0   tunnel source interface management  tunnel destination 54.213.122.209  tunnel mode ipsec ipv4  tunnel protection ipsec profile Azure  no shut ! router bgp 64502  bgp log-neighbor-changes  address-family ipv4 unicast   neighbor 1.1.1.1 remote-as 64501   neighbor 1.1.1.1 activate   neighbor 1.1.1.1 default-originate   redistribute connected   redistribute static   no auto-summary   no synchronization  exit-address-family !
Views: 841 Anubhav Swami
DMVPN Introduction  ( Day 44)
 
56:53
In this video we will talk about DMVPN Introduction and its feature
Views: 1423 Ajay Grewal
Passing vpn traffic though the ASA and Route Based VPN (  Day 41)
 
01:06:06
In this video we will talk about how to allow or inspect the traffic in the ASA and how to create a route based VPN
Views: 1557 Ajay Grewal
Configuring Site to Site VPN on ROUTER  and ASA ( Day 37)
 
01:04:57
In this video we will talk about how to configure site to site vpn on router and ASA
Views: 2954 Ajay Grewal
Static Cisco VTI VPN with FortiGate 5.x Guide
 
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In this short video I show a brief overview of the step by step requirements to create a VPN between a Cisco IOS using VTI and FortiGate 5.2.x track using 0.0.0.0/0.0.0.0 Quick mode selectors (Single P2) Reason to configure your Cisco with this type of VPN: • Simplifies management---Customers can use the Cisco IOS® Software virtual tunnel constructs to configure an IPSec virtual tunnel interface, thus simplifying VPN configuration complexity, which translates into reduced costs because the need for local IT support is minimized. In addition, existing management applications that can monitor interfaces can be used for monitoring purposes. • Supports multicast encryption---Customers can use the Cisco IOS Software IPSec VTIs to transfer the multicast traffic, control traffic, or data traffic---for example, many voice and video applications---from one site to another securely. • Provides a routable interface---Cisco IOS Software IPSec VTIs can support all types of IP routing protocols. Customers can use these VTI capabilities to connect larger office environments---for example, a branch office, complete with a private branch exchange (PBX) extension. • Improves scaling---IPSec VTIs need fewer established security associations to cover different types of traffic, both unicast and multicast, thus enabling improved scaling. • Offers flexibility in defining features---An IPSec VTI is an encapsulation within its own interface. This offers flexibility of defining features to run on either the physical or the IPSec interface. You can find me on: Twitter - @RyanBeney - https://twitter.com/ryanbeney Linkedin - /RyanBeney - https://uk.linkedin.com/in/ryanbeney Cisco Configuration I used: ### crypto isakmp policy 1 encr des authentication pre-share group 2 crypto isakmp key test123 address 10.200.3.1 ! ! crypto ipsec transform-set Trans-1 esp-des esp-md5-hmac mode tunnel ! crypto ipsec profile testvpn set transform-set Trans-1 set pfs group2 interface Tunnel1 tunnel source 10.200.3.254 Tunnel ip add 192.168.0.1 tunnel mode ipsec ipv4 tunnel destination 10.200.3.1 tunnel protection ipsec profile testvpn ip route 172.16.0.0 255.255.255.0 tunnel 1 ###
Views: 7307 Ryan Beney
Improving GRE stability | VPN Tunnels Part 3
 
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Improving GRE stability | VPN Tunnels Part 3 Once you’ve built your GRE tunnel, you need to make sure it is stable. One of the potential issues that you may face is called Recursive Routing. This can cause your tunnel to flap repeatedly. Recursive Routing occurs when underlay routes are incorrectly advertised into the overlay. This can be worse when little attention is paid to LPM (Longest Prefix Match), the route metric, and the administrative distance. Another concern is the stateless nature of the tunnel. This can result in traffic being blackholed. We can use keepalives (heartbeats), as well as tuning the source and destination interfaces, in order to resolve this issue. There is a catch though. Keepalives do not work with route-based IPSec encryption. Neither does BFD for that matter! Some valid work arounds include using crypto-maps (policy-based encryption), using routing protocols, or using IP SLA with an EEM script. Part 1: How GRE Works - See the encapsulation process, as a packet moves from one side of the network to another Part 2: GRE Encryption with IPSec - GRE is not encrypted by default! See the basics of IPSec, and how we can use it with GRE tunnels Part 3: Improving GRE Stability - There are a few pitfalls to watch out for, including recursive routing. See some of the best practices that you can apply to make your tunnel stable For more information, have a look at https://networkdirection.net/Advanced+GRE Anatomy of GRE Tunnels (by ‘Sarah’): https://learningnetwork.cisco.com/blogs/vip-perspectives/2017/03/14/anatomy-of-gre-tunnels How to Detect IPSec GRE Tunnel Status: https://learningnetwork.cisco.com/message/590257#590257 This video is useful for Cisco #CCNA and #CCNP certifications 🌏 https://www.youtube.com/c/networkdirection 🌏 https://twitter.com/NetwrkDirection 🌏 https://www.patreon.com/NetworkDirection 🌏 https://www.facebook.com/networkdirection 🌏 https://www.networkdirection.net 🌏 https://www.patreon.com/NetworkDirection
Views: 553 Network Direction
How to Setup a Site to Site VPN Tunnel Cisco ASA
 
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http://www.meetup.com/cisco-Networkers/ Another video on how to setup site to site VPN tunnel between two Cisco ASA. In this example I am using two 5505s but any other model should work as well. Thanks for viewing!
Views: 94999 NYC Networkers
REMOTE VPN  Configuration on IOS ( Day 43)
 
01:28:59
In this video we are taking about remote vpn on IOS
Views: 1328 Ajay Grewal
Understanding Remote VPN Theory (Day 42)
 
01:21:30
In this video we will talk about remote vpn and why should we use it and how to configure it
Views: 1919 Ajay Grewal
GNS3 Topology  Layer 3 VPNs Over Multipoint L2TPv3 Tunnels Part 1 of 2
 
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http://www.olivenutrition.net
Views: 181 Synplify
Mikrotik Router Site to Site GRE Tunnel Over IPSec VPN Configuration | GRE Tunnel Setup
 
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This video provide how to configure GRE over IPSce VPN Tunnel, IPSec VPN cannot forward any multicast and broadcast traffic as a result any dynamic routing protocol such as OSPF,RIP or EIGRP cannot forward traffic.GRE Protocol support transport traffic over IPSec VPN Tunnel.Mikrotik IPSec VPN tunnel protect LAN Traffic between two remote sites. See More :http://mikrotikroutersetup.blogspot.com/2012/01/mikrotik-routers-site-to-site-gre-over-ipsec-tunnel-configuration.html
Views: 13904 Tania Sultana
VPN Technology Day 3
 
01:52:45
Views: 2036 Ajay Grewal
Architect Solutions: Building Site-to-Site IPSec VPN Tunnel Between SonicWall & Sophos XG Firewall
 
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This video demonstrates how you can build a Site-to-Site IPSec VPN Tunnel between a SonicWall and Sophos XG Firewall. In our previous video, Alan & Matt demonstrate how to configure the SonicWall device, so make sure to check that out first on the link below. Watch Part 1: https://www.youtube.com/watch?v=_OJ8j_xOTYQ
Views: 1734 Firewalls.com
SNMP with Control Plane Protection ( Day 11)
 
01:40:59
In this video we will talk about how snmp works and how to configure on router and what is control plane protection
Views: 1890 Ajay Grewal
GNS3 CCNP Lab 1.4: BGP lab: Answers Part 3: Lab completion (ISP2, ISP5, C3, C4 configuration)
 
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GNS3 Portable Project File: https://bit.ly/2rXwsYC This is one of multiple Cisco CCNP GNS3 Labs. Are you ready to pass your CCNP exam? For lots more content, visit http://www.davidbombal.com - learn about GNS3, CCNA, Packet Tracer, Python, Ansible and much, much more. 300-101 ROUTE Exam information: https://bit.ly/2GkcFXQ 300-115 SWITCH Exam information: https://bit.ly/2KrSWIe 300-135 TSHOOT Exam information: https://bit.ly/2IlHpgY Training: http://www.davidbombal.com Border Gateway Protocol (BGP) is a standardized exterior gateway protocol designed to exchange routing and reachability information among autonomous systems (AS) on the Internet The protocol is classified as a path vector protocol. The Border Gateway Protocol makes routing decisions based on paths, network policies, or rule-sets configured by a network administrator and is involved in making core routing decisions. BGP may be used for routing within an autonomous system. In this application it is referred to as Interior Border Gateway Protocol, Internal BGP, or iBGP. In contrast, the Internet application of the protocol may be referred to as Exterior Border Gateway Protocol, External BGP, or eBGP. BGP neighbors, called peers, are established by manual configuration between routers to create a TCP session on port 179. A BGP speaker sends 19-byte keep-alive messages every 60 seconds to maintain the connection. Among routing protocols, BGP is unique in using TCP as its transport protocol. When BGP runs between two peers in the same autonomous system (AS), it is referred to as Internal BGP (iBGP or Interior Border Gateway Protocol). When it runs between different autonomous systems, it is called External BGP (eBGP or Exterior Border Gateway Protocol). Routers on the boundary of one AS exchanging information with another AS are called border or edge routers or simply eBGP peers and are typically connected directly, while iBGP peers can be interconnected through other intermediate routers. Other deployment topologies are also possible, such as running eBGP peering inside a VPN tunnel, allowing two remote sites to exchange routing information in a secure and isolated manner. The main difference between iBGP and eBGP peering is in the way routes that were received from one peer are propagated to other peers. For instance, new routes learned from an eBGP peer are typically redistributed to all iBGP peers as well as all other eBGP peers (if transit mode is enabled on the router). However, if new routes are learned on an iBGP peering, then they are re-advertised only to all eBGP peers. These route-propagation rules effectively require that all iBGP peers inside an AS are interconnected in a full mesh. How routes are propagated can be controlled in detail via the route-maps mechanism. This mechanism consists of a set of rules. Each rule describes, for routes matching some given criteria, what action should be taken. The action could be to drop the route, or it could be to modify some attributes of the route before inserting it in the routing table.
Views: 877 David Bombal
Large Scale BGP and route manipulation lab: GNS3 CCNP Lab 1.6:  Answers Part 1: OSPF config AS 65000
 
06:59
GNS3 Portable Project File: https://bit.ly/2JjtYh6 This is one of multiple Cisco CCNP GNS3 Labs. Are you ready to pass your CCNP exam? For lots more content, visit http://www.davidbombal.com - learn about GNS3, CCNA, Packet Tracer, Python, Ansible and much, much more. 300-101 ROUTE Exam information: https://bit.ly/2GkcFXQ 300-115 SWITCH Exam information: https://bit.ly/2KrSWIe 300-135 TSHOOT Exam information: https://bit.ly/2IlHpgY Training: http://www.davidbombal.com Border Gateway Protocol (BGP) is a standardized exterior gateway protocol designed to exchange routing and reachability information among autonomous systems (AS) on the Internet. The protocol is classified as a path vector protocol. The Border Gateway Protocol makes routing decisions based on paths, network policies, or rule-sets configured by a network administrator and is involved in making core routing decisions. BGP may be used for routing within an autonomous system. In this application it is referred to as Interior Border Gateway Protocol, Internal BGP, or iBGP. In contrast, the Internet application of the protocol may be referred to as Exterior Border Gateway Protocol, External BGP, or eBGP. BGP neighbors, called peers, are established by manual configuration between routers to create a TCP session on port 179. A BGP speaker sends 19-byte keep-alive messages every 60 seconds to maintain the connection. Among routing protocols, BGP is unique in using TCP as its transport protocol. When BGP runs between two peers in the same autonomous system (AS), it is referred to as Internal BGP (iBGP or Interior Border Gateway Protocol). When it runs between different autonomous systems, it is called External BGP (eBGP or Exterior Border Gateway Protocol). Routers on the boundary of one AS exchanging information with another AS are called border or edge routers or simply eBGP peers and are typically connected directly, while iBGP peers can be interconnected through other intermediate routers. Other deployment topologies are also possible, such as running eBGP peering inside a VPN tunnel, allowing two remote sites to exchange routing information in a secure and isolated manner. The main difference between iBGP and eBGP peering is in the way routes that were received from one peer are propagated to other peers. For instance, new routes learned from an eBGP peer are typically redistributed to all iBGP peers as well as all other eBGP peers (if transit mode is enabled on the router). However, if new routes are learned on an iBGP peering, then they are re-advertised only to all eBGP peers. These route-propagation rules effectively require that all iBGP peers inside an AS are interconnected in a full mesh. How routes are propagated can be controlled in detail via the route-maps mechanism. This mechanism consists of a set of rules. Each rule describes, for routes matching some given criteria, what action should be taken. The action could be to drop the route, or it could be to modify some attributes of the route before inserting it in the routing table.
Views: 1048 David Bombal
FortiGate (Web Mod - SSLVPN) (v5.0.2)
 
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Web Portal bağlantısı ile SSLVPN nasıl yapılır ? RZK Mühendislik ve Bilgisayar Sistemleri
Views: 5561 RZK Mühendislik

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