Cloud-Native Application Development Services

Engineer Future-Proof Software

Accelerate time to market with resilient microservices and automated deployment. Cloud-native development cuts infrastructure costs and allows your business to adapt instantly to market demands.

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AI in Software Development

Accelerate Software Development by Up to 60% with AI-Driven SDLC

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Launch products up to 60% faster

Performance & Scalability

Add up to 60% more features

cost reduction

Same budget and no extra hires

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80-100% Al-Generated Code

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Copyright Compliance

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Cost-per-Feature Tracked Every Sprint

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SAST + Security Review on Every Commit

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Multi-Layer Al + Human Review

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SOC 2 / HIPAA-Ready

When Cloud-Native Application Development Makes Business Sense 

Go cloud native when your business needs rapid feature releases and seamless scaling during peak loads. You can turn your software infrastructure into a growth engine. 

    • Frequent Software Updates
    • Flexible Application Scaling
    • High Availability Demands
    • Heavy, Hard-to-Predict Traffic
    • Multiple Business Entities
    • Continuous Integration and Deployment
    • Global Application Availability
    • Broad Automation
    • Last-Minute Platform Changes

The Four Pillars of Cloud-Native Architecture

Each pillar targets a different challenge, and you need all of them to reap the full reward. If you leave one behind, the rest won't deliver nearly as much value as they could.

  • Microservices

    Your application is divided into focused services tied to specific features like search, checkout, or auth. Each piece deploys and scales separately, meaning team updates never trigger a risky, full-system redeployment.

  • Containers

    Code and libraries are packaged into one portable unit that behaves the same on a developer laptop, in the CI pipeline, and in production. This allows for eliminating works-on-my-machine failures before release.

  • Continuous Delivery (CI/CD)

    Code changes are automatically tested and shipped, enabling teams to release updates safely several times a day. Removing manual releases reduces human error and gets new features to users much faster.

  • DevOps

    Developers and ops unite around shared ownership and infrastructure as code. Building and running software together shortens feedback loops, plus keeping systems reliable becomes everyone's job.

Cloud-Native Apps That Handle Traffic Spikes

Talk to our engineers about building cloud native applications that scale smoothly alongside demand.

Drive Innovation with Our Cloud-Native App Development Services

From a quick proof of concept to enterprise-wide modernization, we take care of the entire lifecycle: building, migrating, hosting, and running your software.

Cloud-Native Rearchitecting

Modernize legacy monoliths through re-platforming or strategic re-architecting. We break legacy systems into agile, modular services for quicker releases, isolated failures, and effortless scale.

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Cloud Native Rearchitecting

In-House Development or a Trusted Partner?

The right answer depends on your team and your timeline. Glorium Technologies brings the cloud native mindset and microservices architecture experience most in-house teams are still building.

Glorium Technologies In-House Development
You need production-ready delivery before hiring senior talent
Cloud native is core to your product, and you plan to hire a team
Kubernetes and observability are not among your team's core strengths
You already employ senior DevOps, SRE, and security engineers
You have a deadline, a migration window, or a compliance date to hit
Timelines are flexible enough to absorb a long learning curve
You operate under HIPAA, GDPR, SOC 2, or ISO 27001
Your compliance load is light, and strict regulatory demands are rare

Our Cloud-Native Software Development Projects

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    • Telecom & Media
    • Cloud & DevOps

    Secure Cloud Migration for a Media Company

    On-premises data centers no longer scaled with the business, and migration risked downtime or data loss. Our DevOps engineers moved data to Google Cloud, containerized legacy apps, and added CI/CD pipelines. Migration finished with zero data loss and minimal downtime; delivery is now continuous.

    Read the Full Success Story
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    • Healthcare & Lifescience
    • Cloud & DevOps

    Radiology Workflow Management Tool

    Slow performance, a confusing UI, and uneven exam distribution frustrated medium to large hospitals. We optimized database queries, added caching, load balancing, and redesigned the entire UI. Page responsiveness dropped to under 1 sec., and infrastructure now supports up to 10 million studies yearly.

    Read the Full Success Story

Inside Our Cloud-Native Development Process

Every stage, from discovery to launch, follows cloud native devops practices and a disciplined software delivery process.

Cloud Native Development Process
  1. 1

    Discovery & Assessment

    We map users, workloads, compliance needs, and scale targets, then recommend an architecture and realistic roadmap.

  2. 2

    Architecture & Proof of Concept

    Our team designs the service and container strategy, then validates the risky parts early with a working proof of concept.

  3. 3

    Development & CI/CD

    Engineers develop services using automated pipelines with security scanning and observability built-in from the start.

  4. 4

    Post-Launch Optimization

    Post-launch, we monitor performance, optimize reliability, and keep costs in check so your system hits its target performance.

Have a question?

Drive Speed and Scale Through Cloud Adoption

Build flexible, cloud-native systems that cut infrastructure costs and boost reliability.

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Written by
Hanna Reshetniak
Hanna Reshetniak in
Project Manager

The Cloud-Native Engineering Decisions Behind a Build That Scales

A cloud-native build succeeds or struggles based on a handful of early engineering decisions. With adoption reaching 98% of organizations surveyed in the 2025 CNCF Annual Survey, using these cloud-native technologies is no longer the primary challenge. What separates scalable applications from those that crash under initial traffic spikes is a consistent operational strategy, aka. a cloud-native approach. Your core methodology, Kubernetes platform, and system observability all play a critical role.

Delivering resilient cloud applications requires more than just high-level theory. The following insights draw directly on our hands-on cloud-native development services work, helping organizations architect, scale, and optimize their systems for real-world production demands.

The 12-Factor App Methodology

It remains a foundational framework for delivering scalable, predictable software within a modern cloud computing model. First established around 2011 by Heroku co-founder Adam Wiggins, these principles have outlasted rapid changes in technology, remaining vital even as containers, Kubernetes, and serverless platforms became standard.

Cloud-native development focuses heavily on portability, flexibility, and operational efficiency across distributed systems. That flexibility begins at the ground level by stripping hardcoded settings out of your application code and injecting them via the cloud environment instead.

Factor Principle Modern Implementation
1 Codebase One codebase tracked in version control, many deploys Git and GitOps workflows
2 Dependencies Declare and isolate every dependency explicitly Docker, package managers, SBOMs
3 Config Store configuration in the environment, not the code Kubernetes ConfigMaps and Secrets, Vault
4 Backing Services Treat databases and queues as attached, swappable resources Service discovery, managed cloud services
5 Build, Release, Run Keep build and run stages strictly separate CI/CD pipelines such as GitHub Actions or GitLab
6 Processes Run the app as stateless, disposable processes Containers, serverless functions
7 Port Binding Export services through port binding, not a host web server Container networking, service mesh
8 Concurrency Scale out through the process model Kubernetes HPA, autoscaling groups
9 Disposability Start fast and shut down gracefully Container orchestration
10 Dev/Prod Parity Keep environments as similar as possible Infrastructure as code, containers
11 Logs Treat logs as event streams, not files Centralized logging platforms
12 Admin Processes Run one-off admin tasks the same way as the app Kubernetes Jobs, scheduled tasks

CNCF research points to a 31% year-over-year growth in CI/CD use, with 60% of organizations using automated platforms to build and deploy their cloud-native applications. A major driver of this growth is the Twelve-Factor discipline, particularly Factor V’s strict separation of build and release stages. This separation is what makes frequent, automated releases safe while enforcing immutable infrastructure principles. Once a build is packaged, that same artifact is deployed across environments.

Modern platforms like Kubernetes take this philosophy further with declarative APIs where teams declare their desired state, and container orchestration handles the execution. You don’t have to tune the underlying operating system of each node; you scale out apps horizontally via your own process model. This high degree of abstraction guarantees that containers behave uniformly, regardless of the disparities between specific operating systems or cloud hosting providers.

Choosing Between AWS EKS, Google GKE, and Azure AKS

Once your entire application adheres to twelve-factor principles, you still need an execution platform capable of supporting that level of elasticity and declarative control. Managed Kubernetes has become the default choice across all major cloud service providers for this reason. Because core Kubernetes features are now largely standardized, your decision typically comes down to a few practical considerations like existing cloud ecosystem integration, pricing models, and operational overhead (rather than a dense feature-by-feature scorecard).

Dimension AWS EKS Google GKE Azure AKS
Managed Kubernetes service Amazon Elastic Kubernetes Service Google Kubernetes Engine Azure Kubernetes Service
Control plane cost $0.10/hour (~$73/month) per cluster in Standard Support $0.10/hour, offset by a monthly credit that covers one zonal or Autopilot cluster Free Tier available; $0.10 per cluster per hour on the Standard Tier
CNCF conformance CNCF-certified conformant, standard Kubernetes API CNCF-certified conformant, standard Kubernetes API CNCF-certified conformant, standard Kubernetes API
Vendor lock-in risk Low at the Kubernetes layer; grows with Fargate, VPC Lattice, and IAM-bound services Low at the Kubernetes layer; grows with Autopilot and Google-native services Low at the Kubernetes layer; tightest when bound to Entra ID and Azure-native services
Node scaling & provisioning Karpenter for fast, flexible node provisioning Cluster Autoscaler plus Autopilot fully managed nodes Cluster Autoscaler plus Karpenter-based Node Autoprovisioning
Serverless containers AWS Fargate GKE Autopilot and Cloud Run Virtual nodes on Azure Container Instances
Managed service mesh Istio or Amazon VPC Lattice; App Mesh retires Sept 30, 2026 Cloud Service Mesh, a managed Istio Istio-based mesh add-on, managed by AKS
Incremental migration (strangler-fig) Shift traffic service by service with the AWS Load Balancer Controller or Istio Shift traffic service by service with Gateway API or Cloud Service Mesh Shift traffic service by service with Application Gateway or the Istio add-on
Observability Amazon Managed Prometheus, Managed Grafana, CloudWatch; OpenTelemetry via ADOT Managed Service for Prometheus, Cloud Monitoring; native OpenTelemetry Azure Monitor managed Prometheus, Azure Managed Grafana; native OpenTelemetry
Native CI/CD CodePipeline and CodeBuild; pairs with Argo CD and GitHub Actions Cloud Build and Cloud Deploy; pairs with Argo CD Azure DevOps and GitHub Actions; pairs with Argo CD
AI & GPU strengths Inferentia and Trainium chips, SageMaker, GPU nodes via Karpenter Leading TPU support, GPU auto-provisioning, strong spot pricing Azure Machine Learning integration and NVIDIA GPU nodes
Cost & networking watch-outs Per-cluster fee plus NAT and egress charges Sustained-use discounts; egress volume tiers help at scale No inter-AZ transfer charge; strong cluster density
Best fit Teams already on AWS, or building AI inference on custom silicon Teams wanting the most automated Kubernetes and AI/ML tooling Teams standardized on Microsoft and Azure identity

In the 2025 CNCF Annual Cloud Native Survey, 82% of container users said they run Kubernetes in production. As managed offerings become the default building block for modern infrastructure, choosing the right provider has become a key strategic choice. That decision is rarely dictated by a feature spec sheet, but rather by four main factors:

  • Existing cloud footprint: Integration across the ecosystem is usually more important than feature-for-feature comparisons
  • Team expertise: Success is determined as much by your team’s skill set and operational familiarity as it is by the native capabilities of the platform
  • Workload demands: Specific requirements, such as GPU orchestration and AI inference, can quickly swing the balance in favor of a provider
  • Compliance & governance: Stringent requirements around identity management, security, and data residency often filter out providers long before cost comes into play

Observability Is Not Optional Anymore

When your application follows twelve-factor principles, you treat logs as continuous event streams. Once you deploy distributed microservices across a managed Kubernetes cluster, this practice becomes non-negotiable. Given the distributed nature of a modern cloud native environment, a single user request often traverses dozens of microservices. You must be able to observe what your system is doing in real time, otherwise, you will hear about problems from your users first.

To gain that visibility, you need an open, unified telemetry standard. OpenTelemetry has quickly become a cornerstone of the CNCF ecosystem (with more than 24,000 contributors now working on it) precisely because it addresses this challenge. When you pair OpenTelemetry with Prometheus for metrics and Grafana for dashboards, you give your team a vendor-neutral observability stack for monitoring cloud native services that behave consistently whether you deploy on EKS, GKE, or AKS.

Glorium Technologies for Cloud-Native App Development

Getting twelve-factor discipline, platform selection, and observability right are critical milestones, ideally, decisions you only want to make once. At Glorium Technologies, our development and operations teams have gained 16+ years of experience applying these principles to complex builds, backed by strict ISO 27001, HIPAA, GDPR, and SOC 2 compliance standards.

Beyond technical choices, a robust cloud-native strategy makes for a central pillar of your business strategy. It drives new product launches or wider digital transformations.

Whether you need a dedicated build team to architect a build from scratch, targeted staff augmentation to fill an internal skills gap, or a partner to manage a complex legacy migration, we are here for you. We offer real-world engineering-based end-to-end support. Schedule a free introductory call with our team, and let’s discuss your project.

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