Security | Threat Detection | Cyberattacks | DevSecOps | Compliance

Today’s security operations require coordinated efforts from multiple team members, many of whom are in different roles and technology specializations. Complexity inhibits the ability to conduct time-sensitive operations such as incident response. Security engineers and the threat hunters have to be on the same page when it comes to establishing priorities and conducting investigation, across the entire detection & response lifecycle.

Teleport 4.4 is here! The major innovation we’re introducing in this version is much improved control over interactive sessions for SSH and Kubernetes protocols. We’ll do a deeper dive into session control later, but for those who aren’t familiar with it, Teleport is an open source project. It provides access to SSH servers and Kubernetes clusters on any infrastructure, on any cloud, or any IoT device, anywhere, even behind NAT.

A SSH session can be interactive or non-interactive. The session starts when a computer or human connects to a node using SSH. SSH sessions can be established using public/private key cryptography or can use short lived SSH Certificates, similar to how Teleport works. Organizations often want to know who is accessing the systems and provide a greater level of control over who and when people are accessing them, which is where Teleport 4.4 comes into play.

By 2025 the amount of data stored in the cloud by both governments, organizations, and individuals will exceed 75 Zettabytes – an estimated 49% of the world’s 175 zettabytes of data at that time. This trend has no doubt been accelerated by COVID, as organizations have been forced to shorten cloud migration timeframes to ensure business continuity during the pandemic.

In a prior blog post, we explained how to install or update Artifactory through the Azure Marketplace in the amount of time it takes for your coffee order to arrive on the counter. Now you can add to your self-managed (BYOL) Artifactory deployment Xray, the cream of software component analysis (SCA) tools, through the Azure Marketplace as well.

Recall from Part One that we identified three different places in a SASE product where TLS 1.3 support is relevant. In descending order of importance, those places are: proxy, tunnel, and management interface.

A number of high-profile data breaches have resulted directly from misconfigured permissions or unpatched vulnerabilities. For instance, the 2017 Equifax breach was the result of exploiting an unpatched flaw in Apache Struts allowing remote code execution. More recently, the Capital One breach last year stemmed from a misconfigured web application firewall. Verizon’s 2020 DBIR reported that only hacking was more prevalent than misconfiguration errors as the culprit of data breaches.