Security | Threat Detection | Cyberattacks | DevSecOps | Compliance

File Integrity Monitoring (FIM) is a process that provides security by monitoring and verifying changes made to critical files, directories, and system configurations in an IT environment. This is accomplished by taking the current state of files, operating system binaries, application files, configuration files, logs, or sensitive data, and comparing them against a known and trusted baseline.

Think of how painful it would be to spend a few weeks creating a mobile app to watch users abandon it because of a faulty update or chronic feature rollout. Your coders are fed up. Your QA team is flooded. And with every release, it is a tightrope walk with the blindfold on. That is the sad state of mobile app development without CI/CD. But here is what you can imagine: whenever your team pushes code, a test, a build, and a deploy happen automatically. No eleventh-hour rush. No delays.

On September 8, 2025, a large-scale npm supply chain attack quickly compromised 18 popular packages (with the 18 packages representing more than 2.6 billion weekly downloads within the bioinformatics ecosystem). Attackers hijacked a maintainer’s account by impersonating npm support in a phishing campaign to upload backdoored versions of popular packages like chalk, debug, ansi-styles, and supports-color.

In 5-7 years, quantum computers will likely crack RSA and other currently used encryption methods. That’s not fear-mongering. That’s math. Your enterprise code signing certificates? The ones protecting your software distributions right now? They’re sitting ducks. Every single RSA-2048 and ECDSA certificate you own will be worthless the moment a sufficiently powerful quantum computer comes online. Most enterprises have zero post-quantum cryptography strategy.

An important supply chain incident has rocked the security industry by showing us that some of the biggest security enterprises are also threatened by the risk of third-party SaaS product integrations. The incident, involving Salesloft Drift, a marketing automation solution integrated with Salesforce, resulted in the threat actor getting OAuth tokens. These tokens allowed them to exfiltrate massive volumes of sensitive data about customers, including account records, case information, and contact data.

Microsoft has also been enhancing cloud security by ensuring that multi-factor authentication (MFA) is enabled for all of its Azure and Microsoft 365 administrative accounts. The rollout will begin with Azure portals in October 2025 and progressively to command-line tools, APIs, and Infrastructure-as-Code (IaC) environments in October of that year. For organizations, it means adapting their authentication workflows to align with Microsoft’s phased enforcement plan or risk disruption.

In 2021, a critical vulnerability in a popular Node.js library allowed hackers to carry out code injection and silently compromise thousands of applications, with disastrous effects. It wasn’t a brute-force attack. It wasn’t ransomware. It was some wittily constructed pieces of malevolent code that got through defences and provided attackers with complete carte blanche. Code injection attacks are no longer rare. They’re alarmingly common.

You’ve built an amazing app. You upload it. A user downloads it. But instead of launching, their system throws a terrifying warning. “The publisher of this app could not be verified.” Trust destroyed. Install abandoned. Reputation at risk. That’s where code signing tools come in and why you can’t afford to skip them.

In August 2025, AWS made native support available to deploy AWS Lambda functions straight from GitHub Actions. With this integration, a lot of the complexity developers have had to undergo conventionally with serverless automatic deployment is eliminated. As a valuable practical improvement, teams will now gain the ability to utilize declarative GitHub workflows with OIDC-secured authentication and auto-packaging of code for simpler CI/CD pipelines.

Most people don’t think about the software running inside their devices. But your washing machine, your car, even your electric toothbrush, they all run code. And not just any code firmware, the invisible layer that controls how hardware behaves. We live in a world where physical things are now digital. A thermostat can call home. A pacemaker can receive updates. But with that power comes a simple, unsettling question.