Hyper-V Migration to eEVOS

eEVOS Hyper-V Import

Migrate Hyper-V virtual machines to eEVOS through a guided workflow.

Connect a Hyper-V host, discover Windows and Linux workloads, choose destination storage, map networks and convert virtual disks directly from the eEVOS interface.

eEVOS Hyper-V Import job overview
Guided offline importAdministrator-controlled discovery, mapping, conversion and validation.
File or Ceph storageWrite to qcow2 files or native Ceph RBD images.
Automatic guest preparationDetect the guest OS and install required paravirtualised drivers.
Powered-off destinationValidate configuration before the first production start.
One administrator-led process

From source discovery to a destination ready for validation.

The browser guides the decisions. The transfer and conversion run through privileged eEVOS services rather than through the browser.

1

Connect

Save a Hyper-V host connection using WinRM and the required Windows administration access.

2

Select VMs

Choose workloads, target names, guest profiles and an available file- or Ceph-backed drive.

3

Map networks

Map the source switch and access VLAN combinations to eEVOS networks or virtual switches.

4

Review and import

Confirm placement and mappings, then follow the persistent job state and per-VM logs.

Discovery and placement

Select several workloads and place each one appropriately.

Hyper-V inventory provides the source state, CPU, startup memory, firmware, disks, adapters and available guest metadata. Administrators choose the destination drive and can adjust the detected guest profile before conversion.

  • Generation 1 sources use BIOS; Generation 2 sources use UEFI.
  • Existing destination names are rejected—imports never overwrite a VM.
  • Available capacity is shown beside every destination drive.
  • Running sources can receive an explicitly approved graceful shutdown.

Select VMs, target drives, names and guest profiles in one step.
Guest preparation

Operating-system detection and driver preparation are part of the import.

When guest metadata is recognised, eEVOS selects the corresponding profile. For supported guests, the import process automatically installs the required paravirtualised drivers so that the destination can use its virtual storage and network devices efficiently.

Administrators should still validate boot behaviour, disks, network interfaces and application services before cutover.

Detected

Guest operating system

Recognised Hyper-V metadata is used to select an appropriate eEVOS guest profile.

Prepared

Paravirtualised drivers

Required drivers are installed automatically for supported guests, as with the vSphere import workflow.

Map only the source networks used by the selected VMs.
Explicit network translation

Map switches and VLANs instead of guessing after the import.

The wizard groups adapters by source switch and access VLAN and shows which VMs use each combination. Map them to an eEVOS network or virtual switch and, where applicable, an existing network profile.

  • Multiple NICs and mapped MAC addresses are retained.
  • Adapters can be deliberately omitted for an isolated first start.
  • Destination VLAN policy remains explicit and reviewable.
Storage and conversion

Convert directly to the selected eEVOS storage model.

There is no separate full VHDX staging copy on the destination. Disk data is read through encrypted, read-only SMB and converted to the selected target.

FILE-BACKED

qcow2 destination

Supported VHD and VHDX content is converted into VM disk files on the selected mounted drive.

CEPH

Native RBD destination

The conversion service writes directly to native Ceph RBD images for distributed eEVOS deployments.

CHECKPOINTS

Current state flattened

Differencing chains are flattened on the Hyper-V host. The current disk state is imported; checkpoint history is not recreated.

Controlled transition

Review the complete plan before conversion starts.

Every source-to-target name, storage destination and network mapping is visible before the import. A running source is shut down gracefully only with explicit administrator approval. No forced power-off is used.

The source VM, its configuration and original disks remain available. The imported VM is registered but remains powered off until the administrator completes validation.

Review placement, network mappings and the downtime action before starting.
Security and TPM

Make the identity change explicit for protected workloads.

An ordinary Generation 2 VM with virtual TPM can be imported with a new persistent TPM 2.0 on the destination. Protected source TPM state is not transferred.

Management and transfer protection

WinRM provides discovery and administration. Disk data is read through encrypted, read-only SMB. Saved passwords are encrypted at rest, and the workflow does not require a guest migration agent.

TPM-aware workflow

The administrator must acknowledge that the destination receives a new TPM identity. Shielded VMs remain unsupported.

Prepare recovery first. TPM-bound encryption such as BitLocker may require verified recovery material or prior decryption. The importer does not transfer source TPM keys.

TPM-enabled workloads require a deliberate, per-VM acknowledgement.
Plan with the real boundary

What the workflow does—and what remains a migration decision.

Area Current workflow Administrator responsibility
Availability during import Offline conversion; optional graceful shutdown of a running source. Define the maintenance window, application shutdown and cutover.
Source scope Connects to an individual Hyper-V host. Use the host that owns and can access the VM and its disks; no automatic SCVMM or cluster-owner discovery.
Virtual hardware Carries across CPU, startup memory, supported disks, firmware mode and mapped adapters. Review dynamic memory policy, unsupported devices, Secure Boot and application requirements.
Security Creates a new destination TPM when explicitly acknowledged. Prepare encryption recovery; shielded VMs and protected TPM-state transfer are not supported.
Completion Creates a powered-off destination and retains the source. Validate boot, drivers, networks, data and applications, then create a new destination backup.

Plan a controlled Hyper-V migration.

Review the source hosts, VM generations, storage placement, network mappings, recovery requirements and cutover sequence with euroNAS.

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