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@ -47,7 +47,7 @@ Each of the cryptographic modules has a defined security policy that must be met
### Step 3: Enable the FIPS security policy
Windows provides the security policy setting, *System cryptography: Use FIPS-compliant algorithms for encryption, hashing, and signing*. This setting is used by some Microsoft products to determine whether to run in FIPS mode. When this policy is turned on, the validated cryptographic modules in Windows will also operate in FIPS mode. This policy may be set using Local Security Policy, as part of Group Policy, or through a Modern Device Management (MDM) solution. For more information on the policy, see [System cryptography: Use FIPS-compliant algorithms for encryption, hashing, and signing](security-policy-settings/system-cryptography-use-fips-compliant-algorithms-for-encryption-hashing-and-signing.md).
Windows provides the security policy setting, *System cryptography: Use FIPS-compliant algorithms for encryption, hashing, and signing*. This setting is used by some Microsoft products to determine whether to run in FIPS mode. When this policy is turned on, the validated cryptographic modules in Windows will also operate in FIPS mode. This policy may be set using Local Security Policy, as part of Group Policy, or through a Modern Device Management (MDM) solution. For more information on the policy, see [System cryptography: Use FIPS compliant algorithms for encryption, hashing, and signing](../../threat-protection/security-policy-settings/system-cryptography-use-fips-compliant-algorithms-for-encryption-hashing-and-signing.md).
### Step 4: Ensure that only FIPS validated cryptographic algorithms are used

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---
title: Microsoft Security Development Lifecycle
description: Download the Microsoft Security Development Lifecycle white paper that covers a security assurance process focused on software development.
ms.prod: windows-client
author: aczechowski
ms.author: aaroncz
manager: dougeby
author: paolomatarazzo
ms.author: paoloma
manager: aaroncz
ms.topic: article
ms.localizationpriority: medium
ms.technology: itpro-security
ms.date: 12/31/2017
ms.date: 07/31/2023
---
# Microsoft Security Development Lifecycle
@ -20,10 +17,11 @@ The Security Development Lifecycle (SDL) is a security assurance process that is
With the help of the combination of a holistic and practical approach, the SDL aims to reduce the number and severity of vulnerabilities in software. The SDL introduces security and privacy throughout all phases of the development process.
The Microsoft SDL is based on three core concepts:
- Education
- Continuous process improvement
- Accountability
To learn more about the SDL, visit the [Security Engineering site](https://www.microsoft.com/en-us/securityengineering/sdl).
And, download the [Simplified Implementation of the Microsoft SDL whitepaper](https://go.microsoft.com/?linkid=9708425).
And, download the [Simplified Implementation of the Microsoft SDL whitepaper](https://www.microsoft.com/download/details.aspx?id=12379).

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@ -41,7 +41,7 @@ Attestation helps verify the identity and status of essential components and tha
These determinations are made with the help of a secure root of trust using the Trusted Platform Module (TPM). Devices can attest that the TPM is enabled, and that the device hasn't been tampered with.
Windows includes many security features to help protect users from malware and attacks. However, trusting the Windows security components can only be achieved if the platform boots as expected and wasn't tampered with. Windows relies on Unified Extensible Firmware Interface (UEFI) Secure Boot, Early-launch antimalware (ELAM), Dynamic Root of Trust for Measurement (DRTM), Trusted Boot, and other low-level hardware and firmware security features. When you power on your PC until your anti-malware starts, Windows is backed with the appropriate hardware configuration to help keep you safe. [Measured and Trusted boot](operating-system-security/system-security/secure-the-windows-10-boot-process.md), implemented by bootloaders and BIOS, verifies and cryptographically records each step of the boot in a chained manner. These events are bound to a security coprocessor (TPM) that acts as the Root of Trust. Remote Attestation is the mechanism by which these events are read and verified by a service to provide a verifiable, unbiased, and tamper resilient report. Remote attestation is the trusted auditor of your system's boot, allowing specific entities to trust the device.
Windows includes many security features to help protect users from malware and attacks. However, trusting the Windows security components can only be achieved if the platform boots as expected and wasn't tampered with. Windows relies on Unified Extensible Firmware Interface (UEFI) Secure Boot, Early-launch antimalware (ELAM), Dynamic Root of Trust for Measurement (DRTM), Trusted Boot, and other low-level hardware and firmware security features. When you power on your PC until your anti-malware starts, Windows is backed with the appropriate hardware configuration to help keep you safe. [Measured and Trusted boot](../operating-system-security/system-security/secure-the-windows-10-boot-process.md), implemented by bootloaders and BIOS, verifies and cryptographically records each step of the boot in a chained manner. These events are bound to a security coprocessor (TPM) that acts as the Root of Trust. Remote Attestation is the mechanism by which these events are read and verified by a service to provide a verifiable, unbiased, and tamper resilient report. Remote attestation is the trusted auditor of your system's boot, allowing specific entities to trust the device.
A summary of the steps involved in attestation and Zero Trust on the device side are as follows: