Sunday, October 22, 2023

Unable to update the password. The value provided for the new password does not meet the length, complexity, or history requirements of the domain

 

 


Hi Guys,

Welcome to Tricks Updater, Today we will discuss about Password policy. 

Enforcing a password policy in Windows 10 is a security measure that helps ensure strong and secure passwords for user accounts on the system. Password policies typically include requirements such as minimum password length, complexity, and expiration.

Here's an example of how to enforce a password policy in Windows 10:

1. Local Password Policy:
   You can enforce a password policy for a single Windows 10 machine using the Local Security Policy editor. Here's how to do it:

   a. Press `Win + R` to open the Run dialog, then type `secpol.msc` and press Enter.

   b. In the Local Security Policy window, expand "Account Policies" and select "Password Policy."

   c. You can then set various policies like:
      Password History: This sets the number of unique passwords a user must use before they can reuse a password.
      Maximum Password Age: This sets the maximum number of days a password can be used before it must be changed.
      Minimum Password Age: This sets the minimum number of days a user must wait before changing their password again.
      Minimum Password Length: This specifies the minimum number of characters required for a password.
      Password must meet complexity requirements: Enabling this ensures that passwords meet certain complexity criteria.

For your quick reference, I have attached a screenshot:

Tricks Updater


   1.1 After configuring your desired policies, close the Local Security Policy window. The password policy will be enforced for local accounts on that specific Windows 10 machine.


2. Domain Password Policy (for networks with Active Directory):
   In a domain environment, you can enforce a password policy for all user accounts using Active Directory. Here's how to do it:

   a. Open "Group Policy Management" on a Windows Server with Active Directory installed.

   b. Create or edit a Group Policy Object (GPO) linked to the domain or organizational unit (OU) where your Windows 10 computers are located.

   c. Within the GPO, navigate to "Computer Configuration" > "Policies" > "Windows Settings" > "Security Settings" > "Account Policies" > "Password Policy."

   d. Set the password policy settings as required, similar to the steps outlined in the local password policy section.

   e. Link the GPO to the appropriate domain or OU.

   f. Perform a `gpupdate /force` on the Windows 10 client machines to apply the new policy immediately.

The specific policy settings will depend on your organization's security requirements. It's important to ensure that the password policy is balanced to enhance security without making it overly difficult for users to create and manage their passwords.

Remember that enforcing password policies is a critical security measure, and you should have a plan for handling password resets and account lockouts, as stringent policies can lead to user frustration and helpdesk support requests.


How to enable secure boot for HP Laptops Tricks Updater

 

 


Hi Guys, 

Welcome to Tricks Updater, I am Thanesh. Today we will see about Secure Boot and features.

Secure Boot is a security feature implemented in the Unified Extensible Firmware Interface (UEFI) of modern computer systems. It is designed to protect the boot process of a computer from being compromised by malware or unauthorized software. Secure Boot ensures that only trusted and digitally signed software components are allowed to run during the boot sequence. Here are some key features and aspects of Secure Boot:


1. Digital Signature Verification: Secure Boot verifies the digital signatures of bootloader and operating system components during the boot process. This ensures that these components have not been tampered with or modified by unauthorized parties.


2. Chain of Trust: Secure Boot establishes a chain of trust by verifying the digital signatures of each component in the boot process. This means that even if one component is compromised, subsequent components in the chain won't run unless they are also signed and trusted.


3. UEFI Firmware Integration: Secure Boot is typically implemented at the UEFI firmware level, which is responsible for initializing and configuring hardware components during the boot process. UEFI firmware contains a database of trusted keys and certificates to verify digital signatures.


4. Key Management: Secure Boot relies on a system of keys and certificates. The manufacturer of the computer or motherboard includes a set of manufacturer-specific keys in the UEFI firmware. Users can also add their own custom keys to the firmware if needed.


5. Revocation: In the event that a key or certificate is compromised or no longer trusted, Secure Boot can revoke these keys to prevent booting with components signed by them.


6. Compatibility Mode: Secure Boot includes a compatibility mode that allows non-signed or self-signed components to run. This mode is typically used during development or when users want to install custom operating systems that do not have a digital signature.


7. Operating System Support: Operating systems need to support Secure Boot to take full advantage of its features. Many modern operating systems, including Windows, Linux, and macOS, have incorporated Secure Boot support.


8. Hardware Requirements: To use Secure Boot, the hardware must support UEFI, and the firmware must have Secure Boot capabilities. Most modern computers and motherboards include Secure Boot support.


9. Enhanced Security: Secure Boot significantly enhances the security of the boot process, reducing the risk of rootkits, boot-time malware, and other unauthorized code from executing during startup.


10. Potential Challenges: While Secure Boot enhances security, it can also pose challenges for users who want to install custom or unsigned software. Some users may need to disable Secure Boot temporarily to install certain operating systems or drivers.


Secure Boot is an essential security feature that helps protect the integrity of a computer's boot process, but it's important for users to understand how it works and how to manage it to ensure a smooth and secure computing experience.


Procedure of enable secure boot for HP Laptops:


1.      Turn off the computer.

2.              2. Press the power button to turn on the computer, and then immediately press the Esc key                  repeatedly until the Startup Menu opens.

3.                  3. Select BIOS Setup (F10), and then press Enter.


4.              4. Select the Advanced tab, and then select Boot Options. 


5.              5. Disable the Legacy Boot order,


6.              6. Select the Advanced tab, and then select Secure Boot Configuration.

7.              7. Click the Configure Legacy Support and Secure Boot drop-down menu, and then                             select Legacy Support Disable and Secure Boot Enable to enable Secure Boot.

8.              8. Select the Main tab, select Save Changes and Exit, and then click Yes to confirm.

                To check if Secure Boot is enabled or disabled, open the Run command (shortcut: WIN+R) and                type 'msinfo32,' then press Enter. The System Information page will open, allowing you to                   verify the status of Secure Boot State (on or off).


How to enable secure boot for Lenovo Laptops Tricks Updater

 

 


Hi Guys, 

Welcome to Tricks Updater, I am Thanesh. Today we will see about Secure Boot and features.

Secure Boot is a security feature implemented in the Unified Extensible Firmware Interface (UEFI) of modern computer systems. It is designed to protect the boot process of a computer from being compromised by malware or unauthorized software. Secure Boot ensures that only trusted and digitally signed software components are allowed to run during the boot sequence. Here are some key features and aspects of Secure Boot:


1. Digital Signature Verification: Secure Boot verifies the digital signatures of bootloader and operating system components during the boot process. This ensures that these components have not been tampered with or modified by unauthorized parties.


2. Chain of Trust: Secure Boot establishes a chain of trust by verifying the digital signatures of each component in the boot process. This means that even if one component is compromised, subsequent components in the chain won't run unless they are also signed and trusted.


3. UEFI Firmware Integration: Secure Boot is typically implemented at the UEFI firmware level, which is responsible for initializing and configuring hardware components during the boot process. UEFI firmware contains a database of trusted keys and certificates to verify digital signatures.


4. Key Management: Secure Boot relies on a system of keys and certificates. The manufacturer of the computer or motherboard includes a set of manufacturer-specific keys in the UEFI firmware. Users can also add their own custom keys to the firmware if needed.


5. Revocation: In the event that a key or certificate is compromised or no longer trusted, Secure Boot can revoke these keys to prevent booting with components signed by them.


6. Compatibility Mode: Secure Boot includes a compatibility mode that allows non-signed or self-signed components to run. This mode is typically used during development or when users want to install custom operating systems that do not have a digital signature.


7. Operating System Support: Operating systems need to support Secure Boot to take full advantage of its features. Many modern operating systems, including Windows, Linux, and macOS, have incorporated Secure Boot support.


8. Hardware Requirements: To use Secure Boot, the hardware must support UEFI, and the firmware must have Secure Boot capabilities. Most modern computers and motherboards include Secure Boot support.


9. Enhanced Security: Secure Boot significantly enhances the security of the boot process, reducing the risk of rootkits, boot-time malware, and other unauthorized code from executing during startup.


10. Potential Challenges: While Secure Boot enhances security, it can also pose challenges for users who want to install custom or unsigned software. Some users may need to disable Secure Boot temporarily to install certain operating systems or drivers.


Secure Boot is an essential security feature that helps protect the integrity of a computer's boot process, but it's important for users to understand how it works and how to manage it to ensure a smooth and secure computing experience.


Procedure of enable secure boot for Lenovo Laptops:


1.      Turn off the computer.

2.      Press the power button to turn on the computer, and then immediately press the Enter key repeatedly until the Startup Interrupt Menu opens.


3.              2. Select BIOS Setup (F1), and then press Enter.



4.              3. Go to the Startup Menu: Navigate to Startup and select UEFI/Legacy Boot. Make sure it's set to             UEFI Only.



5.              4. Enable Secure Boot: Navigate to the Security tab, find Secure Boot, and set it to Enabled and             then select yes “Setup confirmation”.


6.              5. Save and Exit: Save changes and exit BIOS Setup. The computer will restart with Secure Boot             enabled.


To check if Secure Boot is enabled or disabled, open the Run command (shortcut: WIN+R) and type 'msinfo32,' then press Enter. The System Information page will open, allowing you to verify the status of Secure Boot State (on or off).


 

How to enable secure boot for Dell Laptops Tricks Updater

 

 


Hi Guys, 

Welcome to Tricks Updater, I am Thanesh. Today we will see about Secure Boot and features.

Secure Boot is a security feature implemented in the Unified Extensible Firmware Interface (UEFI) of modern computer systems. It is designed to protect the boot process of a computer from being compromised by malware or unauthorized software. Secure Boot ensures that only trusted and digitally signed software components are allowed to run during the boot sequence. Here are some key features and aspects of Secure Boot:


1. Digital Signature Verification: Secure Boot verifies the digital signatures of bootloader and operating system components during the boot process. This ensures that these components have not been tampered with or modified by unauthorized parties.


2. Chain of Trust: Secure Boot establishes a chain of trust by verifying the digital signatures of each component in the boot process. This means that even if one component is compromised, subsequent components in the chain won't run unless they are also signed and trusted.


3. UEFI Firmware Integration: Secure Boot is typically implemented at the UEFI firmware level, which is responsible for initializing and configuring hardware components during the boot process. UEFI firmware contains a database of trusted keys and certificates to verify digital signatures.


4. Key Management: Secure Boot relies on a system of keys and certificates. The manufacturer of the computer or motherboard includes a set of manufacturer-specific keys in the UEFI firmware. Users can also add their own custom keys to the firmware if needed.


5. Revocation: In the event that a key or certificate is compromised or no longer trusted, Secure Boot can revoke these keys to prevent booting with components signed by them.


6. Compatibility Mode: Secure Boot includes a compatibility mode that allows non-signed or self-signed components to run. This mode is typically used during development or when users want to install custom operating systems that do not have a digital signature.


7. Operating System Support: Operating systems need to support Secure Boot to take full advantage of its features. Many modern operating systems, including Windows, Linux, and macOS, have incorporated Secure Boot support.


8. Hardware Requirements: To use Secure Boot, the hardware must support UEFI, and the firmware must have Secure Boot capabilities. Most modern computers and motherboards include Secure Boot support.


9. Enhanced Security: Secure Boot significantly enhances the security of the boot process, reducing the risk of rootkits, boot-time malware, and other unauthorized code from executing during startup.


10. Potential Challenges: While Secure Boot enhances security, it can also pose challenges for users who want to install custom or unsigned software. Some users may need to disable Secure Boot temporarily to install certain operating systems or drivers.


Secure Boot is an essential security feature that helps protect the integrity of a computer's boot process, but it's important for users to understand how it works and how to manage it to ensure a smooth and secure computing experience.


Procedure of enable secure boot for Dell Laptops:

  1. From a power off state, power the system on and press F2 to boot into the BIOS setup menu.



  1. Select "Boot sequence"
  2. Change the option from "Legacy" to "UEFI", then select "Apply" in the right lower corner.



4.     4. Select "Advance Boot options" and disable "Enable Legacy Operation ROMs", then select "Apply" in the right lower corner.



  1. Select "Secure Boot", then "Secure Boot Enable".

6.               6. Change the option from "Disabled to Enabled".


7.            7. Select "Apply" in the right lower corner and then select ok “Apply setting confirmation”.


  1. Select "Exit" in the right lower corner and wait for the system to reboot.  

To check if Secure Boot is enabled or disabled, open the Run command (shortcut: WIN+R) and type 'msinfo32,' then press Enter. The System Information page will open, allowing you to verify the status of Secure Boot State (on or off).





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