Soluciones de Nube y Resiliencia
Modernize your infrastructure, protect critical workloads, and ensure business continuity—through resilient cloud architecture, disaster recovery engineering, and operational readiness.
Availability Engineering
Improved service continuity
Through multi-zone architecture and failover design
Recovery Readiness
Faster restoration of critical systems
Through defined RTO/RPO alignment and tested recovery plans
Cloud Governance
Controlled cost and security posture
Through policy-driven provisioning and access controls
Cloud Architecture
Multi-region, scalable foundations
Data Protection
Backup, replication, retention
Recovery Automation
Orchestrated failover and restoration
Continuity Operations
Monitoring, testing, and governance
Systemic Pressures Modern Infrastructure Faces
Architecture Fragility
Single-region or legacy infrastructure becomes a single point of failure.
- Production outages cascade quickly
- Scaling creates instability instead of elasticity
Recovery Uncertainty
Recovery plans exist on paper but fail under real stress.
- Backups are untested
- Recovery timelines are unclear or unrealistic
Cost Volatility
Cloud growth outpaces governance.
- Idle resources inflate spend
- Poor tagging obscures accountability
Security Exposure
Expanding cloud surfaces increase attack vectors.
- Inconsistent IAM policies
- Unmonitored configuration drift
Operational Gaps
Monitoring is reactive instead of predictive.
- Alerts lack prioritization
- Incident response lacks rehearsal
This solution converts fragile infrastructure into engineered resilience.
Before & After
What changes when this solution is deployed.
Without Structured Implementation
- Infrastructure scales unpredictably
- Backups exist but recovery is uncertain
- Security controls vary across environments
- Business continuity depends on manual coordination
With This Solution Deployed
- Architecture supports multi-zone resilience
- Recovery processes are tested and automated
- Access and configurations follow enforceable policies
- Continuity procedures are rehearsed and documented
Friction to Outcome
Use Cases
Interactive scenarios showing how this solution works in practice.
Cloud Migration & Modernization
Move from legacy to resilient cloud foundations
Trigger
Legacy infrastructure limits scalability and recovery capabilities.
What Happens
Architecture assessment defines target-state cloud design.
Workloads are migrated in structured waves.
Governance and monitoring layers are implemented post-migration.
Systems Involved
Result
Modern cloud architecture built for resilience and scale.
How the System Is Built
A 5-layer build sequence from experience to infrastructure.
Experience
Clear visibility into system health and continuity status.
Capabilities
- Unified dashboards
- Incident status tracking
- Role-based operational views
Responsibility
Shared
Dependency
Monitoring & Data layers
AI Intelligence Embedded in This Solution
Scope & Engagement
What's included and how we work together.
What's Included
Cloud Architecture Engineering
- Target-state architecture design
- Multi-region strategy
- Identity & network segmentation
Resilience Engineering
- Backup & replication setup
- Disaster recovery orchestration
- Recovery time objective alignment
Continuity Governance
- BCDR planning workshops
- Runbook documentation
- Testing simulations and audits
Engagement Options
Project Implementation
Defined architecture + deployment.
Best for: Migration or DR launch initiatives.
Co-Managed
Shared monitoring and improvement cycles.
Best for: Growing cloud environments.
Fully Managed
End-to-end cloud and resilience management.
Best for: Organizations prioritizing operational continuity over internal resourcing.
What Clients Say
“TechStrata’s BCDR planning gave us true confidence in our ability to recover.”
Douglas McBratney
CEO, City of Lake Forest
Frequently Asked Questions
We start from business impact, not guesswork. We map critical workflows, dependencies, and acceptable downtime/data loss, then set realistic RTO/RPO targets per workload—often tiered (mission-critical vs important vs non-critical).
Yes. We design hybrid and multi-cloud resilience with unified identity, networking, and observability, while keeping clear boundaries for where workloads run and how failover or recovery works across environments.
We recommend a schedule that matches risk: automated checks frequently (backups, restore validation where possible) and full simulations periodically (tabletop + technical failover drills). The key is proving recovery under real constraints, not just having a document.
Through governance-by-default: tagging/accountability, policy-driven provisioning, visibility dashboards, and regular optimization cycles. We focus on eliminating idle spend, avoiding overprovisioning, and preventing untracked cost drift.
Yes—identity governance, segmentation, encryption, secure configuration baselines, and monitoring are designed-in from day one so resilience doesn’t create new attack surface.
Backups protect data. Disaster recovery ensures the system can be restored within defined RTO/RPO—including infrastructure, application dependencies, identity, DNS, and verified runbooks. Many orgs have backups but don’t actually have DR.
Either—based on cost, complexity, and downtime tolerance. We help you choose the right pattern per workload: active-active for ultra-critical continuity, active-passive for controlled cost, and hybrid patterns where only the most critical services are hot.
We design resilience across layers: multi-zone redundancy, fault-isolated networking, resilient data services, service-level timeouts/retries, and clear dependency mapping—so one component failure doesn’t cascade into platform failure.
It means you can prove: backups are valid, recovery steps are executable, dependencies are known, access and secrets work during recovery, and people know their role. Readiness is measured through repeatable tests + operational rituals, not confidence.
We implement backup and replication strategies aligned to retention needs, including immutable storage options where required. Retention and deletion are treated as enforceable controls—not manual policy statements.
Both are supported. For high-risk failovers, we design approval gates; for predefined safe scenarios, we can automate triggers. The decision depends on blast radius, business criticality, and risk tolerance.
We establish a known-good baseline and detect deviations through configuration monitoring and policy enforcement. Drift detection is paired with workflows: alert → triage → approve remediation → log outcome.
Continuity is operational: escalation paths, communication runbooks, severity definitions, and rehearsal exercises. We tie monitoring signals to response workflows so teams aren’t inventing processes mid-crisis.
We review your current architecture, recovery posture, and operational gaps—then deliver a practical next-step roadmap: what to fix first, what to test, and what to automate, tied to your risk priorities.
We migrate in waves with clear rollback plans, environment parity (dev/test/prod), and monitoring in place before cutovers. The goal is controlled transitions—not “big bang” moves that introduce downtime surprises.
We establish ongoing signals: policy compliance, cost accountability, drift incidents, backup validation results, and recovery test outcomes—reviewed in a consistent cadence so resilience stays true as the environment changes.
What This Session Covers
Current-State Assessment
Review architecture fragility, backup validation, and recovery confidence levels.
System Architecture Framing
Define resilient multi-zone design and automated failover framework.
Defined Next-Phase Path
Prioritize disaster recovery engineering and testing roadmap.