Configuring Network Attached Storage (NAS) for Simultaneous Multi-Animator Access

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A shared NAS can remove one of the most frustrating bottlenecks in a small animation studio: artists passing project files through external drives, chat attachments, duplicated local folders, or inconsistent cloud-sync copies.

But putting every file on a NAS is not enough. When several animators open textures, save scenes, generate previews and pull references at the same time, the storage pool, network and folder design have to work as one system.

This guide focuses on building that system around the way an animation team actually works.

Start With the Workflow, Not the NAS Model

A common mistake is choosing storage based almost entirely on capacity: “We need 40 TB, so we need a 40 TB NAS.” Capacity is only one part of the problem.

For simultaneous access, three questions matter just as much:

  • How many people may actively read or write files at the same time?
  • What type of data are they moving?
  • Do those artists need shared storage for source assets, active project files, caches, renders, or all four?

Opening a collection of small rig files is a different workload from streaming multiple high-resolution image sequences. Copying a finished render is different from thousands of small reads generated while an application resolves dependencies.

The useful sizing question is not “How many animators do we employ?”
It is “How many storage operations can overlap during our busiest part of the day?”

A Practical Studio Network Layout

For an in-office team, the simplest reliable design is usually a dedicated wired path between production workstations and the storage system.

Example shared-storage path
🖥️ Animator A
🖥️ Animator B
🖥️ Animator C
🖥️ Lighting / Comp
Managed Ethernet Switch
One predictable wired path for production traffic
NAS / Shared Storage Storage pool + SMB shares + snapshots + permissions

This layout is deliberately boring. That is a good thing. Shared production storage should be predictable.

Wi-Fi can be convenient for review laptops and lightweight access, but an artist’s active workstation is easier to diagnose when its main production path is wired. Wireless performance can change with distance, interference and competing clients, making a storage issue look like an application issue.

Do Not Size the Network From a Single Speed Test

Ethernet ratings describe raw link capacity. They do not guarantee that a NAS will deliver that throughput. Protocol overhead, disk performance, CPU load, file size and concurrent activity all reduce what an application ultimately sees.

Ethernet link Raw bit rate Raw byte-rate ceiling* Where it starts to make sense
1 GbE 1 Gbit/s 125 MB/s Light shared assets, documents, references and low-concurrency work
2.5 GbE 2.5 Gbit/s 312.5 MB/s Small teams with moderate concurrent media access
5 GbE 5 Gbit/s 625 MB/s Heavier shared workloads where 2.5 GbE becomes restrictive
10 GbE 10 Gbit/s 1,250 MB/s Multiple active artists, large textures, sequences and frequent transfers

*These values are mathematical link-rate ceilings: bit rate divided by eight. They are not promised NAS transfer speeds.

Use This Planner Before Buying Network Hardware

The calculator below is intentionally simple. It creates a planning baseline from three assumptions: how many users are active at once, the throughput you want to budget for each active user, and how much extra capacity you want to leave for bursts.

Studio NAS Traffic Budget

Estimate aggregate demand before choosing the network tier.

Base demand 320 MB/s
With headroom 400 MB/s
Raw line rate required 3.20 Gbit/s

This is a capacity-planning estimate, not a benchmark. Choose a network tier above the calculated raw requirement because the storage array, protocol overhead, application behavior and competing traffic also matter.

The NAS Is Only as Fast as Its Slowest Important Layer

A 10 GbE port does not turn a slow storage pool into a 10 GbE storage system.

Think of the path as a chain:

1
Application Requests project data
2
Workstation NIC and local OS process the request
3
Network Switch and Ethernet carry it
4
Storage NAS must actually read or write it

If any stage cannot keep up, upgrading a different stage may produce little improvement.

That is why a useful pre-deployment test includes both large sequential transfers and the actual project workload. Animation projects often mix large video or image sequences with many smaller scene, texture, proxy and metadata files.

Separate Shared Production Data From Local Scratch Data

Not every file generated by an artist belongs on shared storage.

Temporary caches can generate enormous amounts of short-lived I/O. If every workstation writes all application cache data to the NAS, useful production traffic may have to compete with disposable files.

Data type Suggested location Reason
Approved source assets NAS Everyone should reference the same controlled version.
Scenes / project files NAS or studio-managed project workspace Central access and protection are useful, provided the software workflow is safe for shared projects.
Textures and reusable libraries NAS Prevents every workstation from maintaining a different library copy.
Final renders NAS Central location for review, comp and delivery.
Temporary application cache Local SSD when practical Reduces unnecessary shared-storage traffic.
Temporary simulation data Depends on pipeline Large shared simulations may need central access; disposable iterations may be better kept local.

Build a Folder Structure People Can Understand at 2 A.M.

A technically perfect NAS still fails as a production tool if nobody knows which file is authoritative.

For a small studio, a predictable structure is often more useful than dozens of clever folders.

/PRODUCTIONS └── SERIES_OR_PILOT/ ├── 01_ADMIN/ │ └── schedules_notes/ │ ├── 02_ASSETS/ │ ├── characters/ │ ├── environments/ │ ├── props/ │ └── textures/ │ ├── 03_SHOTS/ │ ├── SEQ_010/ │ │ ├── SH_010/ │ │ ├── SH_020/ │ │ └── SH_030/ │ └── SEQ_020/ │ ├── 04_RENDERS/ │ ├── preview/ │ └── final/ │ └── 05_DELIVERY/ ├── client_review/ └── approved/

The exact names are not important. Consistency is.

Do not allow every artist to invent a different location for textures, approved rigs or final scenes. Paths become dependencies in many creative applications, and moving assets casually can break projects long after the original artist has forgotten why the folder existed.

A NAS Does Not Automatically Make a File Multi-User Safe

This is one of the most important rules in the entire setup:
shared access and simultaneous editing are not the same thing.

A NAS can let twenty users see the same file. That does not mean the application supports twenty people editing that file at once.

Some applications implement project locking, databases, collaboration layers or their own asset-management systems. Others expect a project file to have a single active editor.

If the software does not explicitly support concurrent editing, create a studio rule that assigns ownership of an active shot or scene.

For example:

  • AVAILABLE — nobody is actively editing the shot;
  • IN PROGRESS — MAYA — Maya owns the active working scene;
  • REVIEW — the current version is ready for review;
  • APPROVED — changes require a new revision.

This can be managed through production software, a tracker, or even a disciplined naming system in a very small team.

The goal is simple: prevent two people from saving different versions over the same authoritative file.

Use Accounts and Groups Instead of One Shared Password

Every artist should have an identifiable account. Permissions should then be assigned through roles or groups wherever possible.

Group Assets Active shots Final delivery NAS settings
Studio administrators Read / Write Read / Write Read / Write Admin
Animators Read / limited Write Read / Write Read None
Reviewers / producers Read Read Read None
Render service account Read As required Write to designated output None

This is only an example. The correct permissions depend on the pipeline, but the principle remains useful: a render node does not need administrative rights simply because it needs to write frames.

Limiting access also reduces the damage caused by an accidental deletion or compromised workstation.

When SMB Multichannel Is Worth Investigating

SMB is widely used for file sharing between NAS systems and Windows or macOS workstations.

SMB Multichannel can use multiple network connections between a compatible client and server. Microsoft documents it as a feature for increasing throughput and providing network fault tolerance when multiple suitable paths are available.

Microsoft also notes that SMB Multichannel is enabled by default in supported Windows configurations rather than being something that should automatically be forced on every network.

On macOS, Apple states that SMB Multichannel has been enabled with default settings since macOS Big Sur 11.3. Apple also notes an important detail: for macOS to use multiple interfaces simultaneously for higher throughput, those interfaces need matching enabled speeds.

Do not assume two Ethernet cables automatically mean twice the performance.
Client support, server support, NIC capabilities and network configuration all matter. Verify that Multichannel is actually operating rather than judging it from the number of connected cables.

Snapshots Solve a Different Problem From Backups

In animation production, accidental changes may be more common than complete NAS failure.

An artist may overwrite a scene, remove an asset directory or discover that yesterday’s approved rig was better than today’s revision. Frequent snapshots can make that kind of recovery much faster.

Current TrueNAS documentation, for example, supports exposing eligible ZFS snapshots to SMB users as previous versions. Synology also provides file recovery from snapshots for supported storage configurations.

But a snapshot stored on the same system should not be treated as the studio’s only backup.

Think of the layers separately:
redundancy helps keep storage operating during some hardware failures; snapshots help roll data back; backups give you another recoverable copy.

CISA’s ransomware guidance recommends maintaining offline, encrypted backups of critical data and regularly testing their integrity and restoration process. That is a stronger protection strategy than assuming the production NAS can protect itself from every possible failure or compromise.

A Sensible Production Protection Cycle

1
Live Storage Artists work from the production system
2
Snapshots Short-term rollback for mistakes
3
Backup Copy Separate copy of important production data
4
Restore Test Confirm that recovery actually works

Test the NAS Like a Studio, Not Like a Hardware Reviewer

A giant sequential file copy can tell you something about maximum transfer performance, but it does not reproduce a production morning.

Before relying on the NAS for a deadline, create a short workload test involving several machines at the same time.

Pre-production stress test

  • Open representative project files from two or more workstations.
  • Load a scene containing real textures and linked assets.
  • Save revisions while another workstation reads from the same storage pool.
  • Copy a large render or image sequence during normal project activity.
  • Test the same workflow with the expected maximum number of active artists.
  • Verify that user permissions behave as designed.
  • Delete a test file and confirm that snapshot recovery works.
  • Restore a test file from the separate backup system.

Watch more than the transfer-speed number. Look for pauses when saving, delayed directory listings, dropped mounts, applications waiting on assets, unexpectedly high NAS CPU use and latency spikes when several people become active together.

Do Not Upgrade Everything at Once When Performance Is Poor

If artists complain that the NAS is slow, isolate the bottleneck before purchasing hardware.

Symptom First place to investigate
One workstation is slow; others are fine That workstation’s NIC, cable, route, driver and application
Everyone becomes slow during large transfers Shared uplink, NAS network interface or storage pool
Large files are fast, directories with many small files feel slow Storage latency, metadata workload and application behavior
Speed changes dramatically on Wi-Fi Wireless path before blaming storage
Performance collapses while another service runs NAS CPU, memory, storage tasks, backups, indexing or competing workloads
Multiple network links exist but only one appears active SMB Multichannel support and configuration

What a Good Small-Studio NAS Setup Actually Feels Like

The best shared-storage system is not the one with the most impressive specification sheet. It is the one artists stop thinking about.

A scene opens from the expected location. Textures resolve. A render arrives where compositing expects it. An animator cannot accidentally rewrite the delivery folder. A deleted file can be recovered. A machine failure does not reveal that the only copy of a project lived on someone’s desktop.

That reliability comes from treating the NAS as part of the production pipeline rather than as a large external hard drive with an Ethernet port.

Build for predictable collaboration:
estimate concurrent traffic, keep disposable cache data away from shared production when appropriate, define file ownership, use individual permissions, create snapshots, maintain a separate backup, and test the complete workflow before a deadline tests it for you.

Technical references checked for this guide

The networking, SMB and recovery guidance in this article was reviewed against current official documentation before publication.

  • Microsoft Learn — Manage SMB Multichannel
  • Microsoft Learn — SMB Multichannel Troubleshooting
  • Apple Support — Configure SMB Multichannel Behavior
  • TrueNAS Documentation Hub — Windows Shares (SMB)
  • TrueNAS Documentation Hub — Snapshots
  • Synology Knowledge Center — Recovering Individual Files Using Snapshots
  • CISA — #StopRansomware Guide