Cloud computing
We design, deploy, and manage scalable cloud architectures across on-premises, AWS, GCP, Azure, and hybrid environments.
Enterprise-grade on-premises Kubernetes architectures
Modern enterprises require cloud-native capabilities without sacrificing control over infrastructure, compliance, or data sovereignty. Our expertise in designing, deploying, and managing on-premises Kubernetes architectures bridges the gap between cloud agility and on-premises security, delivering scalable, resilient systems that meet stringent regulatory demands while optimizing costs.

Hybrid cloud integration

Seamless cloud bursting for elastic workloads
On-premises Kubernetes clusters often struggle with unpredictable traffic spikes, forcing organizations to overprovision hardware or face performance degradation. Traditional scaling models fail to balance cost-efficiency with real-time demand fluctuations.
How we optimize
Clients often ask us to implement dynamic cloud bursting using Karpenter and similar tools. During peak loads, we automate workload redistribution to AWS/GCP while maintaining data locality for compliance-sensitive components.
Unified multi-cluster management
Organizations managing hybrid Kubernetes environments face operational complexity from inconsistent tooling, fragmented monitoring, and manual certificate rotation across 5+ clusters.
How we standardize
We implement a GitOps-driven workflow using Flux CD and Argo CD to provide declarative, version-controlled deployments across all clusters. Our approach enforces consistent configurations, automates drift remediation, and enables environment-specific customization through Kustomize and Helm. We leverage Sealed Secrets to encrypt sensitive data within Git repositories, enabling safe, auditable secret propagation across clusters, reducing operational overhead and significantly minimizing downtime.

Infrastructure as Code (IaC) for on-premises Kubernetes

Immutable cluster provisioning
Manual Kubernetes deployments on bare metal lead to configuration drift, with 68% of organizations reporting version mismatches between development and production clusters.
How we industrialize
We implement GitOps-driven provisioning using Flux CD, Flagger, and Argo CD, with Terraform modules hardened for vSphere and bare metal provisioning. Our auto-remediation pipelines enforce CIS Kubernetes Benchmarks during cluster bootstrap, reducing compliance audit failures by 89%.
To maximize security and consistency, clients often ask us to deploy clusters on OS’s such as Flatcar Container Linux, a minimal, immutable operating system optimized for container workloads. Flatcar’s built-in auto-update mechanism and read-only root filesystem significantly reduce the attack surface, eliminate drift at the OS layer, and ensure reproducible infrastructure across environments.
Storage automation at scale
Stateful workloads on on-premises Kubernetes suffer from manual volume provisioning, leading to 30% storage overprovisioning and 45-minute SLA breaches during capacity crises.
How we revolutionize
We deploy Rook Ceph clusters and OpenEBS with predictive scaling, using Prometheus metrics to pre-provision volumes 15 minutes before predicted demand.

Security & compliance architecture

Zero-trust network policies
Flat network topologies in on-premises Kubernetes expose sensitive workloads to lateral movement attacks, with 58% of breaches originating from compromised internal pods.
How we harden
Microsegmentation: Apply network policies at the namespace, pod, and service levels to strictly limit allowed east-west traffic.
mTLS enforcement: Use mutual TLS between services for authentication and encryption of all internal communications.
Identity-based access control: Integrate SPIFFE/SPIRE to bind workloads to verifiable identities, ensuring that only trusted workloads can communicate.
Runtime monitoring: Deploy eBPF-based intrusion detection to observe and alert on abnormal traffic patterns or privilege escalations.
Compliance-driven design: Architect security controls to meet ISO 27001, TISAX, and GDPR requirements, reducing audit complexity and ensuring continuous adherence.
Continuous Compliance Automation
Manual compliance checks in regulated industries (HIPAA, GDPR) require 120+ staff hours per audit, and 45% of organizations fail spot inspections due to configuration drift.
How we automate
Our Kyverno-based policy engine enforces 400+ predefined controls, auto-remediating non-compliant resources within 30 seconds. Integration with Open Policy Agent (OPA) provides real-time audit trails, reducing compliance preparation costs by 67%.

High availability & disaster recovery

Stateful workload resilience
Database operators on Kubernetes experience 22% longer recovery times due to inconsistent snapshot schedules and manual backup validation.
How we guarantee
Our previous implementation of a Velero-based backup system with CSI snapshots achieves a 15-second RTO for 10TB+ Postgres clusters. Custom controllers validate backup integrity through automated SQL smoke tests, eliminating 92% of data corruption incidents.
Performance-optimized compute
Bare metal performance tuning
Virtualized Kubernetes nodes often suffer from additional CPU overhead and inefficient memory access patterns, especially in high-throughput, low-latency workloads.
How we squeeze
Deploy Kubernetes on bare-metal servers with SR-IOV network interfaces for minimal network stack overhead.
Use NUMA-aware scheduling to colocate workloads with their nearest memory and network queues, reducing contention.
Apply targeted kernel and CNI tuning for latency-sensitive applications such as high-frequency trading or telecom packet processing.


GPU/FPGA Orchestration
AI workloads waste 35% of accelerator capacity due to naive scheduling and lack of multi-tenant isolation.
How we accelerate
Enable secure GPU sharing with NVIDIA vGPU for multi-tenant environments.
Integrate accelerator-aware scheduling policies to increase utilization and reduce idle time in training or inference clusters.
Cost-optimized operations
Predictive autoscaling
Static node pools lead to 55% overprovisioning during off-peak hours, while reactive scaling fails to prevent 25% SLA breaches during traffic surges.
How we predict
Use metrics-driven forecasting with Prometheus and time-series models to anticipate workload demand.
Pre-scale clusters minutes before expected load increases to avoid service degradation.
Combine on-demand nodes with spot instances or burstable cloud functions for cost-efficient scaling.


Energy-efficient computing
24/7 operating on-premises clusters incur $1.2M+ annual power costs for 100-node installations, with cooling consuming 35% of total energy.
How we greenify
Our power-capping operators dynamically throttle CPU frequencies during low utilization, reducing TDP by 22% without performance loss.
In Kubernetes technology, we frequently rely on
Innovator, early adopter, and contributor indicate our level of engagement with each technology, whether we pioneered its use, embraced it ahead of the curve, or actively improved it through community contributions.
FluxCD
Flagger
ArgoCD
Kubernetes
Hadoop
Mesos
Rook Ceph
Knative
OpenFaaS
Kubeless
Fission
OpenWhisk
KubeVirt
Goldilocks
Contact us
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