Security | Threat Detection | Cyberattacks | DevSecOps | Compliance

The transition from IPv4 to IPv6 won't happen overnight—but it doesn't have to be an ongoing headache. Learn how you can bridge the shift from IPv4 to IPv6 with a lifecycle strategy that meets both short-term needs and long-term requirements for your customers, subscribers and business.

As the world experiences uncertainty stemming from economic, social, and geopolitical disruption, digital connectivity has never been more important to address inequality, support communities and drive global business recovery. This survey interviewed 2,750 communication service provider IT professionals. Respondents come from a broad range of provider types, data center/co-location, service providers and fixed wireless access providers.

A10 Next-Gen WAF, powered by Fastly, leverages advanced technology to protect web applications from complex modern threats while minimizing false positives and ensuring availability. See how our integrated Next-Gen WAF, enabled on Thunder ADC, effectively blocks attacks while remaining user-friendly. Get insights into its visibility, DevOps, security tool integrations, and analytics features for advanced web application protection.

Today we'll be discussing CGNAT, or Carrier-Grade Network Address Translation. This technology was created to address the finite number of public IP addresses that were available under the IPv4 protocol. In the 1980s, it was anticipated that each computer would have its own unique public IP address, but the total number of addresses available, 4 billion, eventually ran out. As a result, IPv6 was developed to address the limited address space of IPv4, but it is not backwards compatible.

Navigating the digital landscape can present performance and security challenges. Interruptions caused by jitter and downtime can negatively impact the performance of your applications. Additionally, modern cyber threats, including DDoS attacks and encrypted malware, can compromise data and disrupt operations.

In the same way that conventional software relies on application load balancers for dependability, accessibility, and efficiency, a cloud-based setup necessitates a cloud load balancer to distribute workloads across a company's cloud resources. It's crucial to balance the traffic of Kubernetes applications for optimal user experience. A cloud load balancer spreads network traffic across multiple clouds and load balancing traffic for Kubernetes applications, allowing for the distribution of demand evenly across the Kubernetes pods that constitute the service.