Migration Services
Move self-hosted machine learning and generative AI models to Vertex AI through a structured migration focused on reliability, scalability, and governance.
Why Vertex AI?
Deploy models to managed endpoints without maintaining inference servers, Kubernetes clusters, or custom autoscaling infrastructure.
Run custom-trained models, open models, proprietary frameworks, and specialized inference code using prebuilt or custom containers.
Manage model versions, deployments, metadata, evaluations, and approvals through Vertex AI Model Registry.
Use managed CPU, GPU, and TPU resources for training and inference based on workload performance and cost requirements.
How We Migrate
Review model artifacts, frameworks, containers, inference servers, hardware, dependencies, endpoints, traffic, security, monitoring, and data access.
Define the Vertex AI architecture for model storage, registry, containers, endpoints, compute, networking, autoscaling, monitoring, and governance.
Move model artifacts and container images to Google Cloud and adapt serving code, dependencies, health checks, and prediction interfaces.
Deploy models to Vertex AI endpoints and compare predictions, latency, throughput, resource usage, reliability, and security.
Transition production traffic gradually, enable monitoring, tune compute and autoscaling, and retire approved self-hosted infrastructure.
Why Codimite?
Codimite combines Google Cloud architecture, machine learning engineering, containerization, MLOps, and production operations expertise.
Start Your MigrationInfrastructure and Model Discovery. We identify model formats, runtime dependencies, inference servers, hardware requirements, scaling behavior, and operational risks.
Deployment Architecture Selection. We choose managed endpoints, custom containers, Model Garden deployment, batch prediction, or another suitable Vertex AI serving option.
Performance-Led Migration. We benchmark prediction quality, latency, throughput, memory, accelerator usage, and cost before production rollout.
Controlled Production Transition. We reduce risk through shadow traffic, parallel serving, staged routing, health checks, monitoring, and rollback planning.
Platform Comparison
Both approaches can support production AI, but Vertex AI provides managed infrastructure, centralized operations, and deeper Google Cloud integration.
| Area | Self-Hosted Models | Vertex AI |
|---|---|---|
| Platform approach | Models deployed on customer-managed servers, VMs, Kubernetes, or private infrastructure | Managed AI platform for training, registering, deploying, evaluating, and monitoring models |
| Infrastructure | Teams provision, configure, patch, secure, and maintain compute infrastructure | Google manages core serving and training infrastructure |
| Model support | Model compatibility depends on custom runtime and infrastructure design | Supports custom-trained models, supported open models, prebuilt containers, and custom containers |
| Serving framework | Uses custom APIs, inference servers, Kubernetes services, or framework-specific serving tools | Managed endpoints with prebuilt or custom prediction containers |
| Container support | Teams build, host, scan, deploy, and operate container images | Custom images can be stored in Artifact Registry and deployed through Vertex AI |
| Scaling | Requires custom autoscaling rules, capacity planning, and infrastructure automation | Managed endpoints support configurable compute and autoscaling |
| Accelerators | Teams select, provision, schedule, and maintain GPU or accelerator infrastructure | Managed CPU, GPU, and TPU options are available for supported workloads |
| High availability | Requires custom redundancy, load balancing, recovery, and failover design | Managed serving infrastructure supports scalable endpoint deployment and traffic management |
| Model registry | Often uses custom repositories, object storage, MLflow, or manual version tracking | Vertex AI Model Registry centralizes models, versions, metadata, and deployment workflows |
| Online inference | Operated through customer-managed endpoints and networking | Managed online endpoints support production prediction workloads |
| Batch inference | Requires custom batch jobs, schedulers, or processing pipelines | Vertex AI Batch Prediction supports managed offline inference |
| Monitoring | Teams build logging, metrics, drift detection, alerts, and dashboards | Vertex AI Model Monitoring integrates with Cloud Logging and Cloud Monitoring |
| Evaluation | Uses custom scripts, notebooks, benchmarks, and reporting | Vertex AI supports managed model evaluation for registered and custom-trained models |
| Security | Teams manage identity, network controls, secrets, patching, and auditability | IAM, service accounts, private networking, encryption, audit logs, and organization policies |
| Open models | Teams download, verify, package, optimize, and operate open models independently | Model Garden supports discovering, testing, customizing, and deploying selected open and partner models |
| Generative AI serving | Requires custom inference servers such as vLLM, TGI, or other runtimes | Supports managed and self-deployed open-model options, including custom vLLM containers |
| MLOps integration | Requires combining separate tools for pipelines, registries, evaluation, and deployment | Integrates with Vertex AI Pipelines, Experiments, Model Registry, evaluation, and monitoring |
| Data integration | Data connectivity depends on custom application and network design | Closely integrated with BigQuery, Cloud Storage, Dataflow, Dataproc, and Google Cloud databases |
| Operations | Teams handle upgrades, scaling, failures, capacity, observability, and security | Google manages core infrastructure while teams focus on models and applications |
| Best suited for | Workloads requiring complete control over hardware, runtime, and deployment infrastructure | Teams seeking managed, scalable, and governed AI delivery on Google Cloud |
FAQs
Codimite can migrate model artifacts, Docker containers, inference code, online endpoints, batch jobs, model registries, monitoring, pipelines, and connected AI applications.
Many TensorFlow, PyTorch, scikit-learn, XGBoost, Hugging Face, MLflow, custom-framework, and open-weight models can be migrated when their artifacts, dependencies, licenses, and compute requirements are compatible.
Often yes. Reuse depends on the model format, framework version, runtime dependencies, prediction interface, hardware requirements, and container compatibility with Vertex AI.
Not always. Compatible model artifacts can often be imported and deployed directly. Retraining may be required when feature pipelines, runtimes, frameworks, or model dependencies change.
Endpoints are redesigned using Vertex AI online or batch prediction. Model versions and metadata can move to Vertex AI Model Registry, while logs, drift checks, alerts, and performance monitoring are rebuilt using Vertex AI Model Monitoring and Google Cloud operations tools.
We compare model outputs, evaluation metrics, latency, throughput, concurrency, memory and accelerator usage, autoscaling, failure recovery, security, and business acceptance criteria before production cutover.
Assess your models, containers, endpoints, infrastructure, and operational requirements to build a practical Vertex AI migration roadmap.
Start Your Migration