Security | Threat Detection | Cyberattacks | DevSecOps | Compliance

Preventing container runtime attacks with Sysdig's Drift Control

Containers revolutionized how we build, deploy, and run applications with increased speed, agility, and scalability. But, as often happens with transformative technologies, they require an evolution to security strategy. Centralized deployments inside a protected perimeter gave way to continuous and distributed deployment of containers, creating a growing, dynamic, and distributed attack surface. IT and security teams were left blind and exposed in the cloud.

What have we learned from scanning over 10,000 Kubernetes clusters with Kubescape?

With Kubernetes adoption continuing to rise, we've seen multiple studies add to the growing body of research for enterprise K8s deployments this past year. Companies leveraging managed services and packaged platforms drive much of the continued growth in adoption. An annual study conducted by the Cloud Native Computing Foundation (CNCF) found that 96% of organizations surveyed are either using or evaluating K8s currently.

How to Secure AWS Route 53 with Sysdig

Either through human error or intentionally, configuration changes in the cloud may suddenly increase your attack surface. AWS Route 53 is an example of a service that needs to be continuously tracked for risky changes. As the first line of defense of our cloud, it is necessary to secure Amazon Route 53 and monitor risky configuration changes to avoid unwanted surprises. As you probably know, AWS Route 53 is of course a very popular DNS service offered by AWS, with millions of top-level domains.

Secure your cloud from source to run

Security is changing, you need to adapt to the Cloud. Sysdig: Secure your Cloud from Source to Run. Cloud security that avoids, that alerts, closes gaps, grants access, takes charge. That checks out, that scales up, that keeps up. That’s there From source, to run. That’s Sysdig! A single view of risk. With no blind spots. Rich context to prioritize what matters. With no guesswork. A platform based on open standards. With no black boxes.

Zero trust for cloud-native workloads: Mitigating future Log4j incidents

In my previous blog, I introduced the brief history of zero trust, the core pillars of a zero-trust model, and how to build a zero-trust model for cloud-native workloads. In this blog, you will learn how Calico can help mitigate vulnerabilities such as the recent zero-day Log4j vulnerability with its zero-trust workload security approach.

Safely handling containers

Snyk Ambassadors are passionate about sharing their security expertise. Become one today by signing up! In the shipping industry, the container format follows ISO 668, a standard format that regulates the safe stacking of containers. Imagine your applications with multiple containers, running different applications, serving different purposes for people all over the world.

How to detect the containers' escape capabilities with Falco

Attackers use container escape techniques when they manage to control a container so the impact they can cause is much greater. This’s why it is a recurring topic in infosec and why it is so important to have tools like Falco to detect it. Container technologies rely on various features such as namespaces, cgroups, SecComp filters, and capabilities to isolate services running on the same host and apply the least privileges principle.

How to secure Kubernetes Ingress?

Ingress aims to simplify the way you create access to your Kubernetes services by leveraging traffic routing rules that are defined during the creation of the Ingress resource. This ultimately allows you to expose HTTP and HTTPS from outside the Kubernetes cluster so you no longer need to expose each service separately—something that can be expensive and tedious as an application scales, resulting in an increase in services.