Tag config

Hello everyone , in this video I will describe and configure vlan on hp switch and assign vlans to ports as access and trunk. In HP (Hewlett-Packard) networking switches, “tagged” and “untagged” are terms commonly used to describe how VLANs (Virtual LANs) are handled on switch ports. Tagged ports are used to carry traffic for multiple VLANs simultaneously. These ports are typically used to interconnect switches or to connect devices that need to communicate with multiple VLANs. Tagged ports are also known as “trunk” ports in Cisco networking terminology. Untagged ports are used to connect end-user devices, such as computers, printers, or IP phones, to the network. Each untagged port is associated with a specific VLAN. Untagged ports are also known as “access” ports in cisco networking terminology.

Tagged Ports (Trunk Ports): Tagged ports are used to interconnect switches, routers, or other networking devices and carry traffic for multiple VLANs. They are configured with additional information called VLAN tags, which helps identify which VLAN each Ethernet frame belongs to. Here are the key details:

• Port Configuration: To configure a port as tagged (trunk), you typically need to access the switch’s command-line interface or web-based management interface.

In Cisco devices, you might use commands like:

interface GigabitEthernet0/1

switchport mode trunk

switchport trunk allowed vlan 10,20,30

switchport trunk native vlan 10

In HP/Aruba switches, you might use commands like:

vlan 10

tagged 1-48

• VLAN Membership: You specify which VLANs can traverse the tagged port using the “switchport trunk allowed vlan” (Cisco) or “tagged” (HP/Aruba) command. In the example above, VLANs 10, 20, and 30 are allowed to traverse the trunk port.
• Native VLAN: The native VLAN is used for untagged frames on a tagged port. In the Cisco example, VLAN 10 is the native VLAN. Any untagged traffic entering the port is treated as part of this VLAN.

Untagged Ports (Access Ports): Untagged ports are used to connect end-user devices, such as computers, phones, or printers, to the network. They are associated with a single VLAN, and traffic on these ports is not tagged with VLAN information. Here are the key details:

• Port Configuration: To configure a port as untagged (access), you typically follow a similar process as configuring tagged ports through the switch’s management interface or CLI.

In Cisco devices, you might use commands like:

interface FastEthernet0/1

switchport mode access

switchport access vlan 10

In HP/Aruba switches, you might use commands like:

• VLAN Assignment: You specify which VLAN the port is associated with using the “switchport access vlan” (Cisco) or “untagged” (HP/Aruba) command. In the examples above, the port is assigned to VLAN 10.

Use Cases:

• Tagged Ports: Tagged ports are used for scenarios where you need to carry traffic for multiple VLANs between network devices. Common use cases include connecting switches together, connecting to routers that perform inter-VLAN routing, and connecting to virtualization hosts where multiple virtual networks exist.
• Untagged Ports: Untagged ports are used to connect end devices to the network. For example, a computer in a specific department would connect to an untagged port in that department’s VLAN, ensuring that all its traffic is part of that VLAN.

In summary, configuring tagged and untagged ports correctly is crucial for effective VLAN management. Tagged ports allow traffic from multiple VLANs to traverse a single physical link, while untagged ports connect end devices to a specific VLAN. This segmentation helps in maintaining network security, optimizing traffic flow, and organizing network resources.

Hello everyone , in this video I will integrate my fortigate firewall with windows active directory , by doing this I can write the policies based on logged on users to their desktops , for example for one security group I can write a policy that can be access to facebook and for another group facebook will be blocked , or allow internet just for specific users that raised in security. Writing policies is depend on your environment.

1. Understanding Active Directory:

• Active Directory is a Microsoft directory service that stores information about objects on a network, such as users, computers, groups, and more.
• It provides centralized authentication and authorization services for network resources.

2. Purpose of Integration:

• Integrating FortiGate with Active Directory helps streamline user authentication and access control for network resources.
• It simplifies user management by allowing administrators to use AD user accounts for firewall policies.

3. Steps for FortiGate Active Directory Integration:

a. Configuration in Active Directory: – Ensure your Active Directory is properly configured with user accounts, groups, and organizational units (OUs).

b. FortiGate Web Interface Access: – Access the FortiGate web interface using a web browser.

c. Create a New LDAP Server Object: – Navigate to the “System” menu and select “Authentication” > “LDAP Servers.” – Click “Create New” to add a new LDAP server object. – Configure the LDAP server settings, including the server’s IP address or hostname, port (typically 389 for LDAP, 636 for LDAPS), and authentication credentials (usually a service account in AD).

d. Test LDAP Server Connectivity: – After configuring the LDAP server object, you can test the connectivity to ensure FortiGate can communicate with your AD server.

e. Create LDAP Authentication Group: – Go to “User & Device” > “User Definition” > “LDAP Servers.” – Create an LDAP authentication group and specify the LDAP server you created earlier.

f. Define Firewall Policies: – Create firewall policies that use LDAP authentication groups for user-based access control. – For example, you can define policies that allow or deny access to specific resources based on user group membership.

g. User Authentication: – When a user attempts to access a network resource, FortiGate will use the LDAP server to verify the user’s credentials. – Users will need to enter their AD username and password for authentication.

4. Additional Considerations:

• Security: Ensure secure communication between FortiGate and Active Directory by using LDAPS (LDAP over SSL/TLS) for encrypted communication.
• User Mapping: FortiGate can map AD groups to local FortiGate groups, simplifying policy management.
• Fallback Mechanisms: Configure fallback authentication methods in case the LDAP server is unreachable or for users not in AD.

5. Monitoring and Maintenance:

• Regularly monitor the integration for any issues, such as LDAP server connectivity problems or changes in AD group memberships.
• Keep FortiGate and Active Directory servers up-to-date with security patches.

Hello everyone , in this video I am going to install and configure vmware vsphere replication , by using this tools you can replicate virtual machines disks from one one datastore to another datastore. For example you can replicate your disks to disaster center datastore and if your server gets down you can bring up or restore your virtual machine in your disaster center in some seconds ,

Prerequisites:

Before you begin, make sure you have the following prerequisites in place:

1. VMware Infrastructure: You should have a VMware vSphere environment set up with at least two vCenter Servers or ESXi hosts that you want to replicate VMs between.
2. Network Connectivity: Ensure that there is proper network connectivity between the source and target vSphere environments. This includes firewalls, routers, and other networking components.
3. vSphere Replication Appliance: Download the vSphere Replication appliance OVA file from the VMware website or portal.
4. Licensing: Ensure that you have the necessary licensing for vSphere Replication. It’s typically included with VMware’s vSphere Essentials Plus and higher editions.

Installation and Configuration:

Follow these steps to install and configure VMware vSphere Replication:

1. Deploy vSphere Replication Appliance:
   • Log in to the vCenter Server where you want to deploy the vSphere Replication Appliance.
   • From the vCenter Web Client, select “Hosts and Clusters.”
   • Right-click on a host or cluster and select “Deploy OVF Template.”
   • Browse to the location of the vSphere Replication Appliance OVA file and follow the deployment wizard, specifying network settings, deployment size, and other necessary configurations.
2. Configure vSphere Replication Appliance:
   • After deploying the appliance, power it on and access the web-based management interface by entering its IP address in a web browser.
   • Log in with the default credentials (admin/vcdr).
3. Pair vSphere Replication Appliances:
   • In the vSphere Replication management interface, select the “Configuration” tab.
   • Under “VR Servers,” click on “Add VR Server” to add the remote vSphere Replication Appliance. This pairs the appliances from the source and target sites.
4. Create Replication VMs:
   • In the vSphere Web Client, navigate to the VM you want to replicate.
   • Right-click on the VM, select “All vSphere Replication Actions,” and then choose “Configure Replication.”
   • Follow the wizard to configure replication settings, including the target location, RPO (Recovery Point Objective), and other options.
5. Monitor and Manage Replications:
   • In the vSphere Replication management interface, you can monitor and manage replication jobs.
   • You can perform actions like starting, stopping, or deleting replications, monitoring replication status, and configuring email notifications for replication events.
6. Failover and Recovery:
   • In the event of a disaster or for planned migrations, you can initiate a failover to the replicated VMs in the target site.
7. Testing and Validation:
   • It’s crucial to periodically test and validate your replication setup to ensure it meets your recovery objectives.
8. Documentation and Best Practices:
   • Consult VMware’s documentation and best practices guides for vSphere Replication to optimize your setup and ensure data integrity.

Hello everyone, in this video I am going to install mikrotik router os on hyper-v and after that I will be configure routerOS to provide internet access for clients by configuring dhcp server , create a nat rule , setup pptp vpn server. Ok lets start

1. Hardware Requirements:
   • MikroTik router device (such as a MikroTik RouterBOARD)
   • Ethernet cables
   • Computer with an Ethernet port
   • Power source for the router
2. Initial Setup:
   • Connect the MikroTik router to a power source and to your computer using an Ethernet cable. The router usually has a default IP address for the initial configuration, such as 192.168.88.1. Ensure that your computer is set to obtain an IP address automatically through DHCP.
3. Access the Router:
   • Open a web browser on your computer and enter the default IP address of the MikroTik router in the address bar (e.g., http://192.168.88.1).
   • You should see the MikroTik login page. The default username is “admin,” and there is no password by default. It is crucial to change the default password during the initial setup for security reasons.
4. Basic Configuration:
   • Once logged in, you can start configuring the router. Here are some basic configurations:
     • Set a strong password for the “admin” user.
     • Set the router’s hostname.
     • Configure the time zone.
     • Set the DNS servers.
5. LAN Configuration:
   • Configure the LAN (Local Area Network) settings, including the IP address and subnet mask for the router’s LAN interface.
   • You can create DHCP server pools to assign IP addresses to devices on your local network automatically.
6. WAN Configuration:
   • Configure the WAN (Wide Area Network) interface, which could be connected to your internet service provider (ISP). This often involves configuring the IP address, subnet mask, gateway, and DNS servers provided by your ISP.
   • Set up NAT (Network Address Translation) if you have multiple devices on your LAN and want them to share a single public IP address.
7. Firewall Configuration:
   • Create firewall rules to control incoming and outgoing traffic. MikroTik routers have a powerful firewall system that allows you to filter and control traffic based on various criteria.
8. Security and Access Control:
   • Configure access control lists (ACLs) to restrict or allow specific traffic.
   • Enable SSH or secure Winbox access for remote management and disable insecure services like Telnet.
9. Additional Features:
   • Depending on your needs, you can configure various additional features such as VPNs, VLANs, QoS (Quality of Service), routing protocols, and more.
10. Save and Backup Configuration:
    • After configuring your MikroTik router, make sure to save your configuration settings and create regular backups. This can be done through the router’s web interface.
11. Testing:
    • Test your network to ensure everything is working as expected. Check internet connectivity, LAN connectivity, and any specific services or features you’ve configured.
12. Documentation:
    • Keep thorough documentation of your MikroTik router’s configuration, including any changes you make over time. This will be helpful for troubleshooting and future reference.

1. Install Windows Deployment Services Role:

• Open Server Manager on a Windows Server machine.
• Click on “Add roles and features.”
• Select “Windows Deployment Services” as the role to install.
• Follow the wizard to complete the installation.

2. Configure Windows Deployment Services:

• After installing the role, open the Windows Deployment Services console from the Server Manager.
• Right-click on the server name and select “Configure Server.”
• Follow the wizard to configure the server.
• Choose the location to store the images (you can use the default location).
• Select “Integrated with Active Directory” if you want to use Active Directory Domain Services (AD DS) to authorize clients and manage computer accounts.
• Specify the DHCP server settings. You can choose to configure DHCP options 60, 66, and 67, or you can manually configure DHCP options if you’re using a separate DHCP server.

3. Add Boot and Install Images:

• In the Windows Deployment Services console, expand the server name.
• Right-click on “Boot Images” and select “Add Boot Image.”
• Browse to the location of the Windows installation files and select the boot image (boot.wim) file.
• Repeat the process to add the install image (install.wim) file for the Windows version you want to deploy.

4. Configure DHCP Options (if not done in step 2):

• If you didn’t configure DHCP options during the WDS configuration, you’ll need to do it manually on your DHCP server.
• Configure option 60 to PXEClient.
• Configure option 66 to the IP address of the WDS server.
• Configure option 67 to boot\x64\pxeboot.n12 for BIOS-based systems or boot\x64\wdsmgfw.efi for UEFI-based systems.

5. PXE Boot and Install Windows:

• Boot the client computer from the network (PXE boot). This usually involves pressing a key (e.g., F12) during startup to access the boot menu and selecting the network boot option.
• The client will contact the WDS server and load the boot image.
• Follow the on-screen instructions to select the install image and complete the Windows installation.

6. Monitor Deployment:

• Use the Windows Deployment Services console to monitor the deployment process and view the status of client installations.

By following these steps, you can set up Windows Deployment Services to deploy Windows operating systems over the network, making it easier to manage and deploy Windows installations across multiple computers.

1. Preparing the Environment:

• Ensure that both servers meet the hardware and software requirements for Windows Server and DHCP.
• Assign static IP addresses to each server.
• Ensure that DNS is properly configured and that both servers can resolve each other’s names.

2. Installing the DHCP Server Role:

• Open Server Manager on both servers.
• Select “Add roles and features” and proceed with the installation wizard.
• Select “DHCP Server” as the role to install.
• Complete the DHCP Server installation wizard.

3. Configuring DHCP Failover:

• Open DHCP Manager on one of the servers.
• Right-click on the DHCP server name and select “Configure Failover.”
• Follow the wizard to configure DHCP failover.
• Choose the partner server, configure the shared secret, and set the mode (Load Balance or Hot Standby) and relationship (Primary or Secondary).

4. Installing the Failover Clustering Feature:

• Open Server Manager on both servers.
• Select “Add roles and features” and proceed with the installation wizard.
• Select “Failover Clustering” as the feature to install.

5. Creating the Cluster:

• Open Failover Cluster Manager on one of the servers.
• Click on “Create Cluster” and follow the wizard.
• Add both servers to the cluster.
• Configure cluster settings such as the cluster name and IP address.

6. Configuring DHCP Server Role in the Cluster:

• In Failover Cluster Manager, right-click on “Services and Applications” and select “Configure a Service or Application.”
• Select “DHCP Server” as the service to configure.
• Follow the wizard to add the DHCP server role to the cluster.

7. Testing Failover:

• Perform a failover test to ensure that the DHCP server cluster functions correctly.
• Use the Failover Cluster Manager to initiate a failover and verify that DHCP services remain available during the failover process.

8. Monitoring and Maintenance:

• Regularly monitor the DHCP server cluster using Failover Cluster Manager to ensure it remains healthy.
• Perform regular maintenance tasks, such as applying updates and patches, to keep the cluster secure and up-to-date.

Note: Ensure that you have sufficient IP address ranges and leases configured to handle the increased demand that comes with clustering. Additionally, testing failover in a controlled environment is crucial to ensure proper functioning in a production environment.