Small teams ask me regularly whether they should adopt a multi-cloud strategy. My answer is almost always: not yet. Multi-cloud is often presented as an aspirational best practice — use the best service from each cloud, avoid vendor lock-in, improve resilience. The reality for a 2-5 person engineering team is different: multi-cloud multiplies operational complexity, skills requirements, and tooling costs before it delivers most of its advertised benefits. That said, I run a practical multi-cloud setup at Commsult Indonesia — GCP for managed services and GKE, DigitalOcean for simple VPS workloads — and it works because we're deliberate about what goes where.
The motivations for multi-cloud are real: avoiding vendor lock-in, regional compliance requirements (an Indonesian company may need data residency in Indonesia, which not all providers support equally), best-of-breed services (GCP's BigQuery is better than DigitalOcean's analytics; DigitalOcean's simplicity is better than GCP's for basic VPS), and cost optimization (using spot pricing competitions between providers). However, Flexera's 2025 Cloud Report shows that 87% of enterprises use multi-cloud — but most of those enterprises have dedicated platform engineering teams. For a small team without a dedicated cloud operations person, multi-cloud adds overhead that doesn't add proportional value.
Each cloud provider has its own console, CLI, IAM model, networking primitives, billing structure, and support process. Your team needs to be proficient in all of them. Infrastructure-as-code across two providers means Terraform configurations that span multiple provider blocks, state files, and authentication methods. Monitoring requires aggregating metrics from two different sources. Incident response requires knowing which provider an alert came from and how to respond in each. For a 2-person DevOps team, this overhead is significant — every hour spent on cloud provider-specific knowledge is an hour not spent on product features.
Multi-cloud is justified when: (1) You have a specific service that one provider offers and the other doesn't — we use GCP BigQuery for analytics because DigitalOcean has no equivalent; (2) You have regulatory requirements for geographic data distribution across different providers; (3) You've hit scale limits or pricing cliffs on one provider and the migration cost to a second provider is less than staying; (4) Your clients explicitly require redundancy across providers as part of their SLA. All four of these are specific business needs, not abstract architectural goals. If you can't point to one of these, you're probably not ready for multi-cloud.
From my experience: the easiest multi-cloud starting point is using Cloudflare as a layer above both providers. Cloudflare handles DNS, CDN, and DDoS protection regardless of which cloud your origin is on. You can migrate traffic between GCP and DigitalOcean origins by updating Cloudflare's origin IP without changing DNS TTLs or client behavior. This gives you cloud provider flexibility at the edge without managing cross-cloud networking inside your VPCs.
The architecture that works for us at Commsult Indonesia: Cloudflare at the edge for DNS, CDN, and WAF; DigitalOcean Droplets for web APIs and application servers where simplicity and predictable pricing matter; GCP Cloud Run for event-driven serverless workloads; GCP BigQuery for analytics and reporting. The providers don't communicate directly — each service is standalone. There's no VPC peering across providers, no cross-cloud service mesh. This simplicity is deliberate: we avoid the complexity of cross-cloud networking while still benefiting from each provider's strengths.
┌─────────────────────────────────────────────────────┐
│ Practical Multi-Cloud Architecture │
│ (Commsult Indonesia) │
├─────────────────────────────────────────────────────┤
│ │
│ ┌──────────────────────┐ │
│ │ Cloudflare Edge │ DNS, CDN, WAF │
│ └──────────┬───────────┘ │
│ │ │
│ ┌────────────┴────────────┐ │
│ │ │ │
│ ┌────▼────────┐ ┌──────────▼──────────┐ │
│ │ DigitalOcean │ │ GCP │ │
│ │ Droplets │ │ Cloud Run + BigQuery│ │
│ │ (web APIs) │ │ (serverless + DWH) │ │
│ └─────────────┘ └─────────────────────┘ │
└─────────────────────────────────────────────────────┘Terraform manages both GCP and DigitalOcean resources in our setup, using provider blocks for each. The secret to making this manageable: separate Terraform workspaces and state files per provider. Don't create a monolithic Terraform project that manages all providers in one state — it creates dependencies where none should exist and makes partial applies dangerous. Keep the GCP Terraform configuration completely independent of the DigitalOcean configuration. They connect only at the application level (an app on DigitalOcean calls GCP BigQuery via API), not at the infrastructure level.
A trap I see teams fall into: they design systems where data flows from one cloud provider to another as part of normal request handling. A typical scenario: app on DigitalOcean calls a service on GCP, which returns 500KB of data per request. At 10,000 daily requests, that's 5GB of inter-cloud egress per day from GCP — approximately $12.75/month on top of GCP's $0.085/GB Asia egress rate. This sounds small but scales linearly. Design your multi-cloud architecture so data flows are primarily intra-cloud, and cross-cloud calls happen asynchronously for non-latency-sensitive operations like analytics writes.
Unified observability is one of the most practical challenges of multi-cloud. Our solution: a self-hosted Prometheus + Grafana stack on DigitalOcean that scrapes metrics from both our DigitalOcean Droplets (via Node Exporter) and GCP (via GCP Monitoring's Prometheus integration). All infrastructure metrics flow to one Grafana instance. For logs, we use a simple centralized Loki instance that both environments ship logs to via Promtail. This approach costs less than using each provider's native monitoring (Cloud Monitoring and DigitalOcean Monitoring) separately and provides a single pane of glass.
# Terraform multi-cloud provider configuration
# Keep separate state files per provider
# providers.tf
terraform {
required_providers {
google = {
source = "hashicorp/google"
version = "~> 5.0"
}
digitalocean = {
source = "digitalocean/digitalocean"
version = "~> 2.0"
}
}
}
# gcp/main.tf — completely independent state
terraform {
backend "gcs" {
bucket = "my-tf-state"
prefix = "gcp/prod"
}
}
# digitalocean/main.tf — separate state file
terraform {
backend "gcs" {
bucket = "my-tf-state"
prefix = "digitalocean/prod"
}
}If you're starting a new project today, pick one cloud provider and become excellent at it before adding a second. Master GCP's IAM, networking, and billing model. Build expertise in their managed services. Understand how to optimize costs on that single platform. When you hit a genuine limitation — a service that doesn't exist, a pricing wall, a compliance requirement — then add the second provider for that specific need. Incremental multi-cloud, driven by real needs, is much more sustainable than aspirational multi-cloud driven by theoretical best practices.
If you commit to multi-cloud, these tools reduce overhead significantly: Terraform Cloud or Spacelift for centralized IaC execution with policy controls across both providers; Grafana Cloud (free tier is generous) for unified metrics and logging without managing your own stack; Infisical or HashiCorp Vault for secrets management that works across providers; Cloudflare Workers and R2 as a provider-neutral edge and storage layer. The goal is to reduce the surface area where you need provider-specific knowledge while maintaining the flexibility to run workloads on either cloud.
Sources & Further Reading