May 24, 2022. By Anil Abraham Kuriakose
The move to the cloud does come with its share of difficulties. Traditional observability solutions cannot keep up with the rapid developments in cloud settings. To achieve cloud-native observability, you will require improved solutions to manage non-discrete architecture. Providing a high level of observability inside cloud infrastructure is one of these challenges.
What is cloud-native observability? Data on telemetry is gathered from various sources and then subjected to analysis to provide actionable insights. However, when it comes to reading data flows and system logs, IT teams must guarantee high observability of the cloud environment. The capacity to monitor the operating condition of software systems and other components linked to a cloud environment is called cloud-native observability. You can always be aware of the current performance state of your linked systems if you use cloud-native observability.
What are the observability challenges with cloud-native technologies? Because conventional monitoring tools do not function well in a cloud setting, there is a growing need for monitoring systems that use AI data analytics. In addition, a high level of observability may help assure more accurate application performance monitoring. The following is a list of issues that are presented by specific observability solutions for cloud monitoring: • Observability technologies as we know them now were created back when software systems were isolated in silos. These days, just a few servers are utilized for many software systems, which has led to a rise in interdependencies. Therefore, monitoring technologies that use AI data analytics are required to meet the need for increased observability in cloud environments. • A cloud environment is a dynamic setting where processes are discarded in the next second. Traditional observability tools were compatible when the processes were stable and ran via the physical storage servers. • The cloud environment is scalable, but conventional observability technologies cannot keep up with its scalability. • Databases and processes that have only been active in the cloud environment for a limited amount of time are not retrievable using the conventional methods of observability. • Conventional observability technologies cannot predict the performance of cloud architecture components in the foreseeable future.
How can cloud-native observability be implemented? Prometheus is, without a doubt, the technology that has had the greatest adoption to create cloud-native observability. According to the survey's findings, 86 percent of large-scale production settings employ Prometheus, a prominent CNCF project that has graduated, to fuel their monitoring and alerting systems. In addition to that, it provides a time-series database that can be queried in great detail. Other well-liked cloud-native solutions for observability include OpenTelemetry (used by 49% of respondents), Fluentd (used by 46% of respondents), and Jaeger (used by 4% of respondents) (39 percent ). OpenTracing, Cortex, and Open Metrics are three other technologies used today but are used less often. The increasing availability of observability has led to the development of a wide variety of new approaches to integrating applications and monitoring metrics. Consequently, the majority of teams use numerous observability tools concurrently for various functions, including monitoring and the collection of logging and tracing data. Seventy-two percent of respondents use up to nine distinct methods to achieve these objectives. Moreover, one-fifth of those polled said they use between 10 and 15 different tools.
How AIOps helps in cloud-native observability? You may accomplish cloud-native observability with the help of AIOps by using the following means: • Root cause analysis: A cloud environment contains various infrastructure elements. Because of the simultaneous execution of several processes, determining the underlying cause of an occurrence may be challenging. A solution for AI-automated root cause analysis may help you discover the reason for an event inside your cloud infrastructure. AIOps solutions provide stringent monitoring of cloud architecture components to notify problems in real-time. • Data collection: AI data analytics monitoring solutions don't simply gather telemetry and log data; they also collect other data types. They also gather data on users and company operations to provide in-depth insights. With the assistance of AIOps-based analytics systems, it is possible to retrieve data from a virtual database that was only active for a brief period. • Monitoring the performance of applications requires many software systems to be linked to your cloud infrastructure. To accurately forecast the exhausting capacity of critical software systems, you will need to evaluate their health and performance. A platform for analytics based on AIOps can recognize signals such as traffic, latency, and saturation. With sophisticated analytics, it is then possible to estimate when capacity will be exhausted, allowing one to take preventative measures to avert power disruptions. • Site Reliability Engineer (SRE): The burden of an SRE may be decreased by using an analytics platform based on AIOps. Monitoring the user experience at endpoints linked to your cloud architecture can be done by AIOps systems. AIOps solutions can track the user's journey to pinpoint the precise location of the fault that has been triggered. You can determine where the end-user experience is lacking by using an analytics platform built on AIOps. In addition, customers may use individualized cloud-based apps and other services that you provide.
What are the benefits of cloud-native observability? Before you learn about the function of artificial intelligence, you need to be familiar with the advantages of cloud-native observability: Efficiency: The observability of cloud-native applications increases the efficiency of IT operations. The use of cloud-native observability means that an all-encompassing strategy is used when locating issues inside the IT infrastructure. Using cloud-native observability, problems that arise across distinct processes may be handled rapidly. However, since so many processes are running simultaneously in the cloud environment, it can be challenging to keep track of them. If you use cloud-native observability, you can uncover problems that the system administrators would otherwise overlook. Availability: Cloud-native observability means that data is always available, no matter the day. Every operation that occurs inside the environment of the cloud may be recalled. AI-led cloud observability ensures that nothing is overlooked when a holistic approach is taken. Identify problems: Cloud-native observability may assist in anticipating potential problems and finding preventative solutions to such problems. Something those conventional techniques for observability could never be capable of doing. AIOps is a trustworthy solution, which coincides with the rise in the number of companies using cloud-based architecture. You will be able to maximize the value of your customer, system, and business data with the assistance of cloud-native observability combined with AIOps. Adopt AIOps as soon as possible for monitoring the cloud! Then, it will take much less time to resolve the problems inside the cloud infrastructure. To learn more about Algomox cloud-native observability ,please visit our CloudOps page