Core Cloud Native Platform Capabilities: Full Cycle Development

Startups are embracing the cloud at a breakneck speed, eager to reap the benefits it provides. Some companies are prioritising the virtualization of their cloud infrastructure with a cloud-native philosophy, while others are still defining their cloud strategy. However, there is still a lot of misunderstanding among IT pros about what "cloud-native" really means and what they can expect from it.

This page summarises information about using a cloud-native platform to enable full-cycle development, whether you are just starting your cloud-native journey or have already deployed it.

Table of content

Let us see Core Cloud Native Platform Capabilities: Full Cycle Development:
1. Cloud-Native Full-Cycle Development
2. Capabilities of a Core Cloud Native Platform
3. Advantages of Using the Cloud-native Applications
4. To Sum It Up

Let's start with a definition of "Cloud Native" and "Cloud Native Applications."

The term "cloud-native" is a simple one. Using the possibilities of cloud computing delivery architecture, an effective technique to creating and executing apps.

Businesses that develop and run cloud-native applications bring fresh ideas to the market and respond more quickly to client demands.

Cloud-Native Application Characteristics

These qualities can be found in a cloud-native application:

• Infrastructure built on containers

• A microservices-based architecture

• Continuous delivery and continuous integration are used.

• Cloud-Native Application Development

• Infrastructure in the cloud

The following ideas are included in cloud-native application development:

DevOps – DevOps is a term that refers to the collaboration of IT operations and software developers with the purpose of delivering high-quality software that addresses customer problems. DevOps fosters a culture in which software development, testing, and release are quick, frequent, and consistent.

Microservices - 

A microservices architecture is an architectural approach to software development, in the form of a collection of tiny services, each of which performs business functions runs its own process and communicates via messaging or HTTP APIs. Each microservice, usually as part of an integrated framework, can be installed, updated, scaled, and restarted independently of other systems in the same application, allowing for frequent upgrades to live apps while minimizing consumer impact.

Architecture of microservices - 

Containers - In terms of performance and speed, containers exceed traditional virtual machines (VMs). Using operating-system-level virtualization, for example, a single operating system is consistently partitioned into one or more isolated containers, each with its own writable file system and resource quota. Because of the cheap overhead of creating and deleting containers, containers are an ideal computing vehicle for deploying individual microservices.

Continuous Delivery and Continuous Integration -

Continuous integration (CI) and continuous delivery (CD) are terms used to describe a set of operating principles and practices that enable full-lifecycle application development teams to deploy code changes more often and reliably. The CI/CD pipeline is another name for this implementation.

Cloud-Native Full-Cycle Development

Engineers generally worked in silos when using traditional software development methods. Data centers were built and maintained by operators. Architects designed structures drew boxes and arrows and managed the planning process. Developers typically coded and tested a large number of changes on locally running instances of their monolithic software. Quality assurance (QA) engineers tested and advanced the technology in a series of gated staging environments. The applications that passed quality assurance were For deployment and service, the information was provided on to operations. Following that, the operations team identified any faults or unusual behavior and reported them to the developers.

The operations team has been able to ease platform provisioning and self-service framework implementations for the developers by embracing cloud technology such as Kubernetes-based platforms. Product-focused production teams will now work separately due to the utilization of microservices in cloud-native product development. As a result, the cloud-native SDLC has a distinct look and feel. Developers perform just enough architectural planning ahead of time. Minor incremental changes are being made to a variety of services, some of which may be running locally and others remotely. Developers are now seeking to automate QA-style checking as part of the coding process. This straightforward method of creating a software application "Full-cycle Development of cloud-native" is a term that describes how to make a process run more smoothly and quickly.

Capabilities of a Core Cloud Native Platform

Full-cycle developers must finish the SDLC (Software Development Life Cycle) independently when adopting a cloud-native method, and they must do so swiftly and accurately to give delivering value to end users. All of these needs serve as the foundation for four essential cloud-native platform characteristics that enable the development of comprehensive cloud-native software.

Container Management: This is capable of managing and operating container-based systems at scale and across numerous infrastructures. These tasks should be completed in a self-service paradigm that can be easily automated and monitored by developers. The platform team can use this feature to create policies for control, access, and audibility

Progressive Delivery: This feature aids developers in the creation of pipelines that automate the build, verification, implementation, release, and observability of applications. Platform teams can use this functionality to centralize the codification and validation of consistency and compliance attributes.

Edge Management: With successful edge management, developers should be able to self-serve new features. It should also allow for the centralized setup of sensible defaults like TLS compliance and DDoS rate-limiting, as well as the decentralized construction of various cross-functional traffic management standards like retries, authn/z, and circuit breaking.

Observability: With this feature, developers and the platform team may immediately capture and analyze end-user and device input. This allows product teams to iterate based on market demands and important metrics.

Advantages of Using the Cloud-native Applications

The following are some of the advantages of incorporating cloud-native applications into your company model:

Stay one step ahead of the competition
Shifting from an emphasis on IT cost savings to see the cloud as a source of business growth is what cloud native architecture entails. In the software era, businesses that can swiftly build and implement apps in response to customer requests will have a better chance of long-term success.

Encourages resiliency
When legacy infrastructure fails, services will suffer. As a result, in a cloud-native environment, teams should focus on architecting for long-term viability. Engineers and architects may use the rapidly expanding cloud native ecosystem to build structures that can withstand environmental disruptions while remaining functioning.

Allows for more flexibility
Vendors of public cloud services continue to provide good services at reasonable pricing. Most businesses, however, are unable to do so.  Make a sole commitment to a single cloud environment. Using a framework that allows cloud native creation, businesses may create apps that run on either a public or private cloud without requiring any changes. While avoiding cloud lock-in, teams will continue to operate programs and utilities where it makes the most business sense.

Ensures that operational and business requirements are in sync.

By automating IT activities, businesses will become lean, focused teams aligned with market interests. The potential of loss due to human error is removed when workers rely on technology to replace manual operations. Automated live patching and updates at all stages of the stack remove downtime and the need for ops veterans with "hand-me-down" expertise.

To Sum It Up

Adoption, as previously stated, Cloud-native technology and implementation methodologies will provide major benefits to full-cycle app development organizations by lowering complexity and the time it takes to get ideas to clients. To effectively gain the benefits of cloud-native development services, significant organizational, behavioral, and technological changes are required