#Ssdlc

[infosectrain03]

[professionalhackersindia]

Witcher - Managing GitHub Advanced Security (GHAS) Controls At Scale

Implement and monitor Appsec control at scale. Requirements NodeJS 20.13 Tested on Mac Ubuntu How to install $ git clone [email protected]:mf-labs/witcher.git$ cd witcher$ npm i Build a Docker image $ git clone [email protected]:mf-labs/witcher.git$ cd witcher$ docker build -t witcher .# Running docker image$ docker run -e GITHUB_TOKEN=$GITHUB_TOKEN -e ORG=$ORG witcher -a status -m ghas -r…

[arpanrai]

What is a secure software development lifecycle?

A Secure Software Development Lifecycle (SSDLC) ensures security is integrated into every stage of software development rather than being an afterthought. Think of it like building a house, if security isn’t part of the foundation, everything else becomes vulnerable.

Key Phases of Secure Software Development Lifecycle (SSDLC)

Planning & Risk Assessment — Identify potential security threats and compliance requirements early.

Secure Design — Implement security best practices like encryption, authentication and access control.

Development & Secure Coding — Follow industry standards to avoid vulnerabilities like SQL injection and XSS.

Security Testing — Conduct static/dynamic analysis, penetration testing and code reviews.

Deployment & Monitoring — Ensure secure configurations, monitor threats and apply patches regularly.

Maintenance & Continuous Improvement — Stay updated with evolving security risks and improve security measures over time.

Why Secure Software Development Lifecycle Matters

Prevents Security Breaches — Reduces risks like data leaks, hacking and malware attacks.

Enhances Software Reliability — Ensures applications function securely under all conditions.

Protects User Data — Strengthens data encryption, authentication and access control.

Reduces Long-Term Costs — Fixing vulnerabilities early is cheaper than post-launch security patches.

Ensures Compliance — Meets industry regulations like GDPR, ISO 27001 and PCI-DSS to avoid legal issues.

Builds Customer Trust — Secure software fosters credibility and brand reputation.

Final Thoughts

Ignoring security in development is like leaving your front door unlocked eventually, someone will take advantage of it. A Secure Software Development Lifecycle is essential for any business looking to build reliable, secure, and compliant applications. If you need expert solutions for developing secure software, partnering with a leading software development company ensures best practices are followed from the start.

[xaltius]

A Comprehensive Guide to Preventing Supply Chain Attacks

In the interconnected digital world of mid-2025, cybersecurity has moved beyond merely protecting your own perimeters. Attackers have recognized that the weakest link often lies not within an organization's direct control, but within the extended network of trusted partners, vendors, and suppliers. This vulnerability gives rise to supply chain attacks – a insidious and increasingly prevalent threat that can have devastating and far-reaching consequences.

A supply chain attack occurs when a malicious actor compromises a trusted third-party vendor or software component, then uses that compromised trust to infiltrate their clients. This could involve embedding malware in legitimate software updates, tampering with hardware during manufacturing, or exploiting vulnerabilities in a cloud service provider's infrastructure. The danger lies in their stealth and scale: compromise one supplier, and you potentially gain access to hundreds or thousands of their downstream customers.

Understanding this threat is crucial, and effective prevention requires a multi-faceted, proactive, and continuously evolving strategy.

Why Supply Chain Attacks Are So Dangerous

Exploitation of Trust: They leverage the inherent trust organizations place in their software, hardware, and service providers. This makes traditional perimeter defenses less effective.

Widespread Impact: A single breach in one component or vendor can cascade across an entire industry, affecting numerous organizations simultaneously. Think of widely used software libraries or cloud services.

Stealthy & Hard to Detect: The malicious payload is often hidden within legitimate code or updates, making it difficult to differentiate from normal operations. Attacks can remain undetected for long periods.

Sophisticated Tactics: These attacks often require advanced planning, deep technical knowledge, and significant resources, making them a favorite tactic of state-sponsored actors and highly organized criminal groups.

A Comprehensive Guide to Prevention

Preventing supply chain attacks requires a holistic approach that extends security measures beyond your immediate organizational boundaries.

1. Robust Vendor Risk Management (VRM)

Your supply chain is only as strong as its weakest link. Comprehensive VRM is paramount.

Thorough Due Diligence: Before engaging any third-party vendor (software, hardware, cloud services, managed service providers), conduct exhaustive security assessments. This includes reviewing their security certifications, audit reports (e.g., SOC 2, ISO 27001), incident response capabilities, and patching policies.

Strong Contractual Obligations: Embed strict security clauses in all contracts. Mandate adherence to specific security standards, require immediate notification of breaches, and reserve the right to conduct independent security audits.

Continuous Monitoring & Re-evaluation: Vendor risk is not static. Implement continuous monitoring of third-party security postures using security ratings services and regular audits. Re-evaluate vendor risk periodically, especially after significant security incidents in the wider industry.

Vendor Segmentation: Classify vendors by the level of risk they pose (e.g., access to critical data, direct impact on core operations) and apply security controls and scrutiny commensurate with that risk.

2. Secure Software Development Lifecycle (SSDLC) & Software Supply Chain Integrity

The integrity of the software you use is a prime target.

Software Bill of Materials (SBOMs): Demand and utilize SBOMs from all software suppliers. This provides transparency into all open-source and commercial components within your software, allowing you to track known vulnerabilities (CVEs) in your dependencies.

Code Signing and Verification: Implement rigorous code signing practices for all software you use or develop internally. Crucially, verify digital signatures upon deployment to ensure the software hasn't been tampered with.

Supply Chain Security Tools (SSCs): Leverage specialized tools and frameworks (like the Supply Chain Levels for Software Artifacts - SLSA, and in-toto) to verify the integrity and provenance of software artifacts throughout the build and deployment pipeline. This ensures that what you build or receive hasn't been maliciously altered.

Vulnerability Scanning & Penetration Testing: Continuously scan all software components, including third-party libraries and frameworks, for known vulnerabilities. Conduct regular penetration tests of your entire software delivery pipeline.

Open-Source Software (OSS) Hygiene: Be extremely judicious with OSS components. Use automated tools to scan for vulnerabilities, outdated versions, and licensing issues in OSS dependencies.

3. Internal Network & System Hardening (Your Defenses)

Even with robust vendor security, your own internal defenses are critical.

Zero Trust Architecture (ZTA): Adopt a Zero Trust model, meaning "never trust, always verify." Assume no user, device, or application is inherently trustworthy, regardless of its location or previous authentication. Implement granular access controls, continuous authentication, and micro-segmentation.

Strong Authentication Everywhere: Enforce Multi-Factor Authentication (MFA) across all systems, especially for vendor access portals, administrative accounts, and critical infrastructure. Consider phishing-resistant MFA methods.

Network Segmentation: Isolate critical systems, sensitive data, and operational technology (OT) networks from less secure parts of your network. Limit communication paths between segments.

Least Privilege Principle: Grant users and systems only the minimum access necessary to perform their functions. Regularly review and revoke unnecessary privileges.

Advanced Threat Detection: Deploy Endpoint Detection & Response (EDR) and Extended Detection & Response (XDR) solutions for continuous monitoring, behavioral anomaly detection, and automated response across endpoints, networks, and cloud environments.

4. Incident Response & Recovery Preparedness

Anticipate the inevitable and be ready to respond.

Dedicated Incident Response Plan: Develop a specific, detailed incident response plan for supply chain attacks. This plan should outline roles, responsibilities, communication protocols, and steps for identification, containment, eradication, and recovery.

Tabletop Exercises: Conduct regular tabletop exercises simulating supply chain attack scenarios. This tests the effectiveness of your plan, identifies gaps, and familiarizes your team with response procedures.

Immutable Backups & Disaster Recovery: Maintain isolated, immutable backups of critical data and systems. Ensure a robust disaster recovery plan is in place to restore operations quickly in the event of a successful attack.

Communication Strategy: Have a clear plan for communicating with affected customers, regulators, and other stakeholders in the event of a breach.

5. Employee Training & Awareness

Humans are often the first line of defense, but also a common target.

Social Engineering Awareness: Provide continuous training to all employees on recognizing and reporting phishing attempts, suspicious communications (especially those impersonating vendors or partners), and social engineering tactics.

Secure Coding Practices: For internal development teams, enforce secure coding standards and provide training on identifying and mitigating common vulnerabilities.

Reporting Mechanisms: Ensure employees know how and when to report suspicious activity or potential security incidents.

6. Threat Intelligence Sharing & Collaboration

Stay informed and collaborate with the wider security community.

Participate in Information Sharing and Analysis Centers (ISACs): Join industry-specific ISACs or other threat intelligence sharing groups to receive early warnings about emerging threats and contribute to collective defense efforts.

Stay Abreast of Trends: Continuously monitor cybersecurity news, research, and advisories related to supply chain attack vectors and defensive strategies.

Conclusion

In 2025, the digital supply chain is a prime battleground for cybersecurity. Preventing supply chain attacks is not a one-time project but an ongoing commitment to vigilance, collaboration, and continuous improvement. By implementing robust vendor risk management, ensuring software integrity, strengthening internal defenses, preparing for incidents, empowering employees, and fostering information sharing, organizations can significantly enhance their resilience against these sophisticated and potentially devastating threats. The future of cybersecurity success hinges on securing not just your enterprise, but its entire extended ecosystem.

[aitoolswhitehattoolbox]

Dot Net Developer - A Level

Level- ALocation- ChennaiExperience- 4 to 6 yearsRole Title Dot Net DeveloperPrimary Technical Skills “ Highly technical with a good knowledge of .Net MVC,.Net core, MS SQL Server , and JavaScript. Thorough with SSDLC process; agile development Detailed JD (Minimum 700 characters) – Job Summary and Roles & Responsibilities to beHighlighted separately”The person should be Highly technical…

[australiajobstoday]

SENIOR SOFTWARE DEVELOPER - .Net/Angular

. CHALLENGES TO BE MET Participate in all phases of the Secure Software Development Life Cycle (SSDLC). Design and implement… technical solutions that conform both to customer requirements and software development standards. Produce and maintain… Apply Now

[zennaxxtech]

Embedding security throughout the software development life cycle (SDLC) is vital for protecting digital assets. From planning to maintenance, integrating security measures like code reviews and threat modeling mitigates risks and builds trust. By fostering a security-aware culture among teams, organizations ensure proactive risk management and resilient software systems.

[ericvanderburg]

Navigating the Maze of SSDLC Models: A DevOps-Centric Analysis

http://securitytc.com/T46PKW

[techrobot1235]

Cloud Native Security: How to Build Secure Cloud-Native Applications

Cloud Native

A set of design guidelines, programs, and services known as “cloud native” concentrate on creating system architectures with the cloud as the intended main hosting platform. By utilizing the capabilities of contemporary cloud-based infrastructure and utilizing continuous integration approaches to enable quicker development and deployment, a cloud-native application’s main goal is to be highly scalable, resilient, and safe.

Leveraging automation and software-driven infrastructure models simplifies operations by reducing overhead associated with traditional server infrastructure.

Cloud Native Security

Cloud-native apps require a security strategy to ensure security at all stages of the lifecycle, from planning to delivery and maintenance.

A security policy exists in every company. The majority of policies place priority on having a fully patched and hacker-proof system, and they are reluctant to change the configuration because doing so can compromise some security features. But the situation with infrastructure security now is quite different. It must move quickly and implement improvements. To create a fully secured company, improvements and modifications must be made regularly. by using continuous delivery and infrastructure automation.

The three Rs of enterprise security are: Rotate, Repave, and Repair.

1. Rotate

Every few minutes, people, storage systems, automated services, etc. should change their credentials for the data center. These credentials could be any kind of access token, password, or certificate. It is often not possible to prevent credentials from being leaked, but rotating them every few hours or minutes makes it more difficult for attackers to obtain these credentials.

2. Repave

Rebuild each data center server and application from a known secure state. By erasing the outdated containers and VMs and reconstructing them from a known secure state, you can repair the entire stack in addition to patching the specific applications.

3. Repair

Although faulty components should be replaced, protecting the system from vulnerability should take precedence. The system, software, or technique should therefore be fixed as soon as a vulnerability is discovered. Addressing the vulnerability and minimizing the attack surface contributes to the system’s increased security.

Applications of Cloud-Native Security

Refocusing on security is necessary to make sure that flaws are found and fixed during development for cloud-native security. Software development must incorporate security at every step, and the plan must be comprehensive.

A security platform should provide developers with the tools to deliver designs, make use of cloud native principles, and ensure code security. Building a genuinely cloud-native application might not be possible without cloud architecture.

Testing is essential for a secure software development life cycle (SSDLC). Static application testing (SAST), dynamic application testing (DAST), interactive application testing (IAST), and mobile application security testing (MAST) should be performed against cloud-native application code.

Cloud Native Security Infrastructure

Cloud-native applications present special security issues, so developers should receive insights and recommendations from security tools that connect with existing workflows. Priority should be given to automated scanning in source code management systems and scanning of derived artifacts such as container images through CI/CD systems. The outcomes of these integration scans should offer repair guidance so developers may choose priorities with ease.

Cloud native infrastructure eliminates the need for a logical network boundary, allowing for the quick deployment of new applications and resource reconfiguration. Businesses must embrace a “zero-trust” philosophy to ensure all nodes or resources in a system are authenticated.

Cloud Native Security Architecture

Cloud-native security architecture enables security teams to monitor and secure platforms, infrastructure, and applications. Virtual machines, containers, and serverless operations are only a few examples of the computing tools and runtimes used by cloud-native apps. To monitor and safeguard their runtime environments, containers require purpose-built security tools, and scanning artifacts and configuration during runtime is crucial for maintaining a strong security posture.

Final Thoughts

Businesses must update security best practices and incorporate them into the development lifecycle to address security issues caused by cloud-native architectures. To achieve a compromise between security and delivery speed, businesses have adopted automation, continuous delivery, and a DevOps culture.

[reportwire]

SSDL at a Glance - DZone Security

SSDL at a Glance – DZone Security

Introduction The Secure Software Design Lifecycle (SSDL) is the infusion of security with each step of software design, from architecture to end of life. By doing so we protect our customers from threats and reduce our risk and attack surface. There are no specific tools or frameworks mentioned in this article. You should choose the ones that work best for your context, based on compliance needs,…

[infosectrain03]

As the rate of cybercrimes continues to increase, cyberattacks are becoming increasingly complex in how they take advantage of vulnerabilities. In the age of cyberattacks

[akanshakonar-blog]

Secure the Design for Low Cost Security Control Implementation

[xceltecseo]

Why Choose .NET Core?

Current software development frameworks and stacks, which are used by organisations and development companies as solutions for software application engineering, usually incorporate features and capabilities that assist enterprises in enhancing operational productivity and workflow efficiency. On the other hand, contemporary software engineering platforms and development environments typically have problems that could discourage a business from using them for its projects. Having a strong, scalable, interoperable, cross-platform, cutting-edge development framework without the requirement for proprietary licences or being constrained to particular OSs and architectures has been a major ambition for both SMEs and larger enterprises. It has been given permission to expand in accordance with business requirements and to secure its code using a managed system.

A cross-platform, high-performance framework for modern, cloud-enabled, Internet-connected programmes is called ASP.NET Core. With ASP.NET Core, you can create web applications and services, Internet of Things (IoT) apps, and mobile backends. You can utilise your preferred programming tools on Windows, macOS, and Linux.

However, as the global software development ecosystem has expanded and development models and operations have changed, particularly with Agile and DevOps development models and businesses implementing the Secure Software Development Life Cycle (SSDLC) to build security into applications from the start, the demand for a more robust, flexible, and adaptable framework has led to Microsoft releasing the significantly improved.NET Core framework.

The.NETCore controlled development framework keeps all of the.NET framework's key advantages while greatly enhancing its capacity to help businesses increase development productivity while reducing overhead/costs and accelerating the pace at which applications and software are developed.

Final Thought

With greater flexibility and independence in how they use the robust platform, Microsoft's .NET Core development framework represents a substantial improvement over the.NET framework. It can be used to build effective, secure, manageable, robust web applications, cloud storage, desktop software, and even Internet of Things (IoT) apps, all the while potentially saving money, focusing on the desired systems and software platforms, and achieving the enterprise's business goals of remaining scalable and efficient.

Visit to explore more on Why Choose .NET Core?

Get in touch with us for more! 

Contact us on:- +91 987 979 9459 | +1 919 400 9200

Email us at:- sales@xceltec.com

[xaltius]

Top 10 Cybersecurity Trends and Strategies in 2025

As we navigate through 2025, the cybersecurity landscape continues its relentless evolution, driven by geopolitical tensions, rapid technological advancements, and the ever-increasing ingenuity of cybercriminals. For individuals and organizations, staying secure means not just reacting to threats, but anticipating them and implementing proactive strategies.

Here are the top 10 cybersecurity trends defining 2025 and the essential strategies to fortify your defenses:

1. The Escalating AI Arms Race: Both Sword and Shield

Trend: Generative AI (GenAI) is a double-edged sword. While it dramatically enhances threat detection, anomaly analysis, and automated response for defenders, it also empowers attackers to create more sophisticated and convincing phishing campaigns (including deepfakes), adaptive malware, and automated exploitation at an unprecedented scale and reduced cost. AI-driven cyber threats are expected to become more widespread.

Strategy: Invest in AI-powered security solutions (e.g., Extended Detection and Response (XDR), User and Entity Behavior Analytics (UEBA)) that leverage machine learning for advanced threat detection and automated response. Simultaneously, prioritize comprehensive security awareness training that specifically addresses AI-enhanced attacks, including deepfake recognition and sophisticated social engineering.

2. Zero Trust Architecture: The New Baseline

Trend: The traditional perimeter-based security model is obsolete. With hybrid workforces, extensive cloud adoption, and interconnected supply chains, the "never trust, always verify" principle of Zero Trust Architecture (ZTA) is becoming the fundamental security posture for most enterprises. Gartner predicts 70% of new remote access deployments will rely on ZTNA rather than VPNs by 2025.

Strategy: Implement ZTA across your entire IT environment, focusing on continuous verification of every user, device, application, and data flow, regardless of location. Prioritize microsegmentation, strong identity and access management (IAM), and least privilege access.

3. Supply Chain Security: Beyond Your Own Walls

Trend: Supply chain attacks continue to be one of the most devastating vectors. By compromising a trusted third-party vendor or software component, attackers can gain access to numerous downstream organizations. The interconnectedness of modern businesses makes this a critical vulnerability, with a growing focus on software supply chain integrity.

Strategy: Implement robust third-party risk management programs. Demand strong security assurances from vendors, conduct regular security assessments of your supply chain partners, and enforce secure software development lifecycle (SSDLC) practices for all purchased or integrated software components.

4. Cloud Security Posture Management (CSPM) & Cloud-Native Security

Trend: As cloud adoption accelerates and multi-cloud environments become standard, misconfigurations remain a leading cause of cloud breaches. Attackers are increasingly targeting cloud-native vulnerabilities, API keys, and non-human identities. Rapid digital transformation is driving significant cloud adoption, bringing these challenges to the forefront.

Strategy: Adopt comprehensive CSPM tools for continuous monitoring of cloud configurations and compliance. Implement robust Identity and Access Management (IAM) for cloud environments, focusing on least privilege for both human and non-human identities. Prioritize cloud-native security tools that integrate deeply with cloud provider APIs.

5. Cyber Resilience and Rapid Recovery: Expect the Breach

Trend: Organizations are shifting from a sole focus on "prevention" to "resilience." This acknowledges that breaches are often inevitable and emphasizes the ability to quickly recover, minimize impact, and maintain business continuity. Ransomware attacks, which are becoming more sophisticated and disruptive, continue to drive this imperative.

Strategy: Develop and regularly test comprehensive incident response plans. Implement robust, immutable backup strategies (e.g., the 3-2-1 rule with off-site, air-gapped copies). Invest in automated recovery solutions and conduct regular tabletop exercises to ensure rapid restoration of critical operations.

6. Identity-Centric Security & Passwordless Authentication

Trend: Passwords remain a weak link and a frequent target for attackers. The widespread adoption of strong, adaptive, and passwordless authentication methods (like FIDO passkeys, biometrics, and magic links) is gaining significant momentum, offering enhanced security and a superior user experience.

Strategy: Enforce multi-factor authentication (MFA) across all systems as a foundational layer. Actively explore and implement passwordless authentication solutions for employees and customers where feasible, leveraging open standards like FIDO WebAuthn for secure and convenient logins.

7. OT/IoT Security Convergence and Challenges

Trend: The convergence of Operational Technology (OT) and Information Technology (IT) networks, coupled with the proliferation of Internet of Things (IoT) devices, creates new and complex attack surfaces. Legacy OT systems were often not built with modern cybersecurity in mind, making them vulnerable, especially in critical infrastructure sectors.

Strategy: Implement robust network segmentation to isolate OT/IoT environments from traditional IT networks. Deploy specialized OT/IoT security solutions for asset visibility, threat detection, and vulnerability management in these unique environments. Address legacy system risks through compensating controls and rigorous patch management.

8. Enhanced Data Privacy and Compliance Complexity

Trend: The global regulatory landscape around data privacy continues to expand and mature. The Digital Personal Data Protection Rules, 2025, are set to significantly enhance privacy and data protection, bringing new compliance requirements and greater accountability for organizations handling personal data.

Strategy: Develop and maintain robust data governance frameworks. Invest in data discovery and classification tools to understand where sensitive data resides. Ensure your cybersecurity practices align with all relevant national and international privacy regulations, potentially leveraging privacy-enhancing technologies (PETs).

9. Human Element: The Persistent and Evolving Vulnerability

Trend: Despite technological advancements, the human element remains the primary target for attackers. Social engineering, highly sophisticated phishing, deepfake voice/video scams, and insider threats (both malicious and accidental) continue to be highly effective attack vectors. AI only makes these attacks more convincing.

Strategy: Elevate security awareness and training programs beyond basic phishing simulations. Foster a strong, pervasive cybersecurity culture within the organization. Implement User and Entity Behavior Analytics (UEBA) to detect anomalous insider activities and enhance Data Loss Prevention (DLP) measures.

10. Cyber Workforce Development & Strategic Automation

Trend: The critical global shortage of skilled cybersecurity professionals persists, compounded by the rapid pace of technological change. This drives an urgent need for automation to augment human capabilities and improve efficiency.

Strategy: Invest in Security Orchestration, Automation, and Response (SOAR) platforms to automate repetitive tasks, streamline incident response, and reduce alert fatigue. Focus on upskilling existing security teams and leveraging AI to enhance their capabilities, allowing human experts to focus on strategic initiatives and complex problem-solving. Consider talent from non-traditional backgrounds and provide targeted training.

By understanding these prevailing trends and proactively implementing these strategies, organizations can build more resilient defenses, minimize their risk exposure, and navigate the complex digital challenges of 2025 and beyond. Stay adaptive, stay secure.

[aitoolswhitehattoolbox]

Application Security Engineer (prior Java or C#)-LOCAL REMOTE FOR NYC area

Application Security Engineer (prior Java or C#)-LOCAL REMOTE FOR NYC area New York, NY LOCAL REMOTE role. MUST live… of experience in Web Application Security, SSDLC and Threat Modelling. Prior hands on experience with Software Development Java / C… Apply Now

[hailbytes]

The secure software development life cycle (SSDLC) is a process that helps developers create software that is secure and reliable. The SSDLC helps organizations identify and manage security risks throughout the software development process. In this blog post, we will discuss the key components of the SSDLC and how it can help your business create more secure software! How does a Secure Software Development Life Cycle start? The SSDLC begins with a security requirement analysis, which is used to identify the security risks associated with a software project. Once the risks have been identified, developers can create a plan to mitigate these risks. The next step in the SSDLC is implementation, where developers write and test code to ensure that it meets all security requirements. What happens after the code is written and tested? After code has been written and tested, it must be reviewed by a team of security experts before it can be deployed. This review process helps to ensure that all vulnerabilities have been addressed and that the software is ready for production. Finally, once the software has been deployed, organizations must continuously monitor it for new threats and vulnerabilities. The SSDLC is an important tool for businesses that want to create more secure software. By following this process, businesses can ensure that their software is reliable and free of vulnerabilities. If you are interested in learning more about the SSDLC, contact a security expert today! https://www.youtube.com/watch?v=00p19c4cxbc