What is Lateral Movement? Lateral movement refers to the techniques that a cyber-attacker uses, after gaining initial access, to move deeper into a network in search of sensitive data and other high-value assets. Lateral movement techniques are widely used in sophisticated cyber-attacks such as advanced persistent threats (APTs).

New applications and workloads are constantly being added to Kubernetes clusters. Those same apps need to securely communicate with resources outside the cluster behind a firewall or other control point. Firewalls require a consistent IP, but routable IPs are a limited resource that can be quickly depleted if applied to every service.

As our enterprise customers build out large, multi-cluster Kubernetes environments, they are encountering an entirely new set of security challenges, requiring solutions that operate at scale and can be deployed both on-premises and across multiple clouds.

Calico is an open source networking and network security solution for containers, virtual machines, and native host-based workloads. Calico supports a broad range of platforms including Kubernetes, OpenShift, Docker EE, OpenStack, and bare metal. In this blog, we will focus on Kubernetes pod networking and network security using Calico. Calico uses etcd as the back-end datastore. When you run Calico on Kubernetes, you can use the same etcd datastore through the Kubernetes API server.

Container use continues to grow, and Kubernetes is the most widely adopted container orchestration system, managing nearly half of all container deployments.1 Successful integration of container services within the enterprise depends heavily on access to external resources such as databases, cloud services, third-party application programming interfaces (APIs), and other applications. All this egress activity must be controlled for security and compliance reasons.

2020 is predicted to be an exciting year with more organizations adopting Kubernetes than ever before. As critical workloads with sensitive data migrate to the cloud, we can expect to encounter various Advanced Persistent Threats (APT) targeting that environment.

We are excited to announce the general availability of Calico Enterprise 2.7. With this release, Fortinet’s 400,000 customers can use FortiGate to enforce network security policies into and out of the Kubernetes cluster as well as traffic between pods within the cluster.

2019 was a big year for Kubernetes adoption, and 2020 is sure to exceed that pace. Already, we have seen a large number of organizations migrating their workloads to Kubernetes (k8s) both in public and private clouds as they embrace a hybrid cloud strategy. With so much at stake, what are you currently using for network security inside your k8s cluster?

In part 1 of the GitOps blog series, we discussed the value of using GitOps for Calico policies, and how to roll out such a framework. In this second part of the series, we will expand the scope to include decentralized deployment and GitOps.

“How do I enable GitOps for my network security policies?” This is a common question we hear from security teams. Getting started with Kubernetes is relatively simple, but moving production workloads to Kubernetes requires alignment from all stakeholders – developers, platform engineering, network engineering, and security. Most security teams already have a high-level security blueprint for their data centers.