April 28, 2026 | The Professional storage brand TerraMaster today officially introduces the all-new rugged portable SSD enclosure — D1 SSD. Designed for users who demand both data security and high-speed performance, the D1 SSD features an aircraft-grade all-metal chassis, IP67 water and dust resistance, and 1.2-ton crush resistance. Combined with high-speed data transfer, silent cooling, and broad platform compatibility, it becomes an ideal storage companion for photographers, outdoor professionals, and mobile workers.
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Buy from Your Local Amazon:
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| Specification | TerraMaster D1 SSD |
| Drive Bays | 1 |
| Supported SSD Type | PCIe 3.0/4.0/5.0 M.2 2280 NVMe SSD |
| Maximum Capacity | 8TB |
| Interface | USB 10Gbps |
| Max Read Speed | 1020MB/s |
| Max Write Speed | 1010MB/s |
| File Systems | NTFS, APFS, Mac OS, FAT32, EXT4, exFAT |
| Supported OS | Windows, macOS, Linux |
| Ingress Protection | IP67 |
| Cooling | Fanless passive cooling |
| Noise Level | Noiseless |
| Power Consumption | 3.2W read/write, 0.2W hibernation |
| Dimensions | 113.6 x 45.0 x 21.0mm |
| Net Weight | 146g |
| Warranty | 2 years |
Three Layers of Protection Build an Unbreakable Data Shield：
The D1 SSD adopts a unibody aircraft-grade aluminum alloy construction. The full-metal enclosure offers excellent scratch resistance and corrosion protection, making it well-suited for long-term, heavy-duty usage. Whether facing extreme temperature differences outdoors or constant wear from mobile work, the enclosure ensures stable operation, extended lifespan, and reliable storage performance for professional users.
Equipped with precision silicone sealing rings, the D1 SSD meets IP67 certification standards. It can withstand submersion in up to 1 meter of water for 30 minutes and is fully protected against dust and splashes. From rainy outdoor shoots and desert environments to construction sites, the enclosure safeguards both the SSD and your data. Protection performance is verified by internationally recognized testing organizations such as SGS.
The aircraft-grade aluminum unibody structure enables the enclosure to withstand up to 1.2 tons of vehicle-level pressure. Its dedicated shock-resistant internal design absorbs impacts from drops and collisions during daily use. Even under extreme external force, internal drives and data remain fully protected—eliminating the fragility issues of ordinary enclosures.
High-Speed Performance with Silent Operation and Broad Compatibility
The D1 SSD features a USB 3.2 Gen2 interface, supports UASP protocol and TRIM optimization, and delivers real-world sequential read/write speeds of up to 1020 MB/s. Transferring a 1GB file takes just seconds, making it ideal for 4K video editing and large photo backups. The all-metal housing provides 2.5× larger heat dissipation area, while the fanless passive cooling design ensures completely silent operation.
The enclosure supports up to 8TB single-drive capacity and is compatible with M.2 2280 NVMe SSDs based on PCIe 3.0 / 4.0 / 5.0 standards. It can store up to 2.79 million high-resolution photos or 5,400 HD movies. Compatible with Windows, macOS, and Linux, it also connects to computers, TVs, and OTG-enabled smartphones for true plug-and-play use.
Additionally, the D1 SSD supports one-touch photo backup via the TerraMaster TDAS mobile app. Once connected, photos are automatically synchronized from your smartphone, with data stored locally to prevent privacy leakage and enable efficient cross-device file management.
Designed for Multiple Usage Scenarios:
Rugged protection handles complex environments, enabling fast backups and eliminating data loss risks. Ideal for field exploration, construction sites, and harsh outdoor conditions.
Ultra-lightweight at only 146g, pocket-sized design, and instant file transfer create a portable “light office” anywhere.
Perfect as an external expansion drive or boot drive—quiet, stable, and plug-and-play.
Availability & Service
The TerraMaster D1 SSD is now officially available through the TerraMaster website (https://www.terra-master.com/) and authorized global channels. Customers who purchase within the first two weeks of launch can enjoy a 15% discount. The product is backed by a two-year global warranty and lifetime technical support for a worry-free user experience.
Interested in the D1 SSD, or want to know more about the rest of the D1 SSD Range, below are the specs and prices for the D1 SSD (10Gb/s), D1 SSD PLUS (40Gb/s) and D1 SSD Pro (80Gb/s):
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| Specification | TerraMaster D1 SSD | TerraMaster D1 SSD Plus | TerraMaster D1 SSD Pro |
| Interface | USB 10Gbps | USB4 40Gbps | USB 80Gbps / Thunderbolt 5 class |
| Claimed Max Read | 1020MB/s | 3641MB/s specification, 3853MB/s listed in testing | 7061MB/s |
| Claimed Max Write | 1010MB/s | 3498MB/s specification, 3707MB/s listed in testing | 6816MB/s |
| SSD Support | PCIe 3.0/4.0/5.0 M.2 2280 NVMe | PCIe 3.0/4.0/5.0 M.2 2280 NVMe | PCIe 3.0/4.0/5.0 M.2 2280 NVMe |
| Max Capacity | 8TB | 8TB | 8TB |
| Cooling | Fanless aluminum passive cooling | Fanless aluminum passive cooling | Fanless aluminum body with finned passive cooling |
| Protection / Build | IP67, dustproof, waterproof, crush-resistant up to 1.2 tons | All-metal unibody chassis, short circuit, surge, and ESD protection | All-aluminum dual-fin design, smart status indicator, short circuit, surge, and ESD protection |
| Price Listed | $33.99 (15% OFF $39.99) | $76.99 (30% OFF $109.99) | $199.99 (20% OFF $199.99) |
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Plenty of people who start with Synology, QNAP or other turnkey NAS boxes will quietly admit that they keep hearing the siren call of DIY platforms like TrueNAS, Unraid, Proxmox, OpenMediaVault and ZimaOS. They see the videos, the benchmarks and the insane builds that squeeze every last drop out of consumer and ex-enterprise hardware. No one is pretending that turnkey systems are not convenient or polished, but more and more users are realising that the raw control, scalability and flexibility you get from rolling your own NAS can be worth the extra effort. In 2025 it is easier than ever to grab a used server, a pile of drives and a USB stick and end up with something that outperforms many branded appliances, both in speed and long term value. So, below are 100 reasons why users decide to jump ship from the safe, curated and sometimes expensive world of turnkey NAS, and instead join the more open, powerful and endlessly customisable world of DIY storage. Some points are very homelab focused, others are about cost and longevity, and some are specific to individual platforms such as TrueNAS ZFS, Unraid parity arrays or Proxmox clustering.
IMPORTANT DISCLAIMER – Different tools suit different tasks! I use both DIY and Turnkey Solutions in my own personal/work data storage environments (as well as a little bit of DAS and even some off site cloud!),. This article is not designed to ‘attack’ or ‘slag off’ one side of the home server market over another! It is to help understand why users might choose one over the other. Not disimilar in some ways to how some people prefer PC gaming vs Console gaming (or even exclusively mobile, though even struggle to wrap my head around that one!).
With TrueNAS, Unraid, ZimaOS, Proxmox or OMV you choose everything yourself, from CPU and RAM to motherboard, HBA, NIC, case and power supply. You are not restricted to a small list of approved chassis and expansion units, so you can build around quiet small form factor systems, big tower rigs, or used rack servers depending on your needs and budget.
DIY NAS platforms let you use almost any SATA or SAS drive you like, including shucked external drives and mixed brands. There are no vendor media lists, no compatibility warnings that nag you for using third party disks, and no artificial limits that push you toward expensive branded drives.
TrueNAS and some other DIY platforms give you direct access to ZFS features such as copy on write integrity, end to end checksums, compression, snapshots, clones and send or receive replication. You can design datasets and snapshot schedules exactly as you want rather than relying on simplified abstractions.
Unraid and ZFS based DIY stacks allow non traditional layouts, with mixed disk sizes, parity only arrays, mirror vdevs, striped vdevs and multiple pools. You can start small and grow over time without following the fixed bay patterns or limited RAID options of many turnkey systems.
DIY NAS operating systems usually expose more dials for memory usage, cache behaviour, record sizes, sync policy, queue depths and network stack tuning. Power users can squeeze more throughput or lower latency from the same hardware by testing and adjusting these settings, something appliance firmware often hides.
A DIY NAS can be more than just storage. With Proxmox, Unraid, ZimaOS or OMV plus a hypervisor you can run VMs, containers, network services and lab workloads on the same system. This suits homelab users who want their storage server to double as a general purpose compute node.
If you invest in many core CPUs, large amounts of RAM, enterprise NVMe or special purpose HBAs, DIY platforms can take full advantage of them. You are not limited by a turnkey vendor firmware that assumes mid range hardware and sometimes underuses powerful components.
Once you move beyond a handful of bays, appliance NAS pricing climbs quickly. Building a DIY NAS with commodity parts or refurbished enterprise gear often gives you a much lower cost per bay and a cheaper upgrade path over five to ten years, especially for media servers and backup targets.
Many people already have a spare gaming PC, workstation or decommissioned server. DIY NAS software lets you repurpose that hardware rather than buying a completely new appliance. You can then gradually replace parts over time without throwing the whole system away.
With TrueNAS, Unraid, Proxmox or OMV you are not tied to one company product line or release schedule. If a vendor drops a feature, changes licensing, or stops making a class of device, your DIY stack keeps going and you can add or swap components as you see fit.
Many DIY NAS platforms are open source or based on open distributions. You can inspect the code, follow public issue trackers, and see exactly how data path and management components behave. For organisations with strong security requirements this transparency can be more attractive than opaque appliance firmware.
TrueNAS, Unraid, Proxmox and OMV all have active communities that publish templates, stacks and guides for a huge range of self hosted services. New applications usually appear first as containers or community charts, so you can experiment with cutting edge projects long before they arrive in any vendor app store.
If you already use tools such as Ansible, Terraform, Salt, Proxmox clusters, or Kubernetes, a DIY NAS fits into that world more naturally. It behaves like another Linux or BSD server, so you can reuse automation, monitoring, and configuration patterns that you already trust.
DIY platforms generally do not charge extra for adding more cameras, shares, users or applications. If your hardware can handle twenty containers or twenty camera streams, you can run them without buying more licences. That is very different from some turnkey systems where extra features are tightly controlled.
TrueNAS, Unraid, ZimaOS, Proxmox and OMV can all run fully local with no requirement to create cloud accounts or sign in to a vendor portal. You choose if you want remote access and which VPN or reverse proxy you trust, so it is easier to keep storage isolated from external services.
Because DIY NAS software sits on standard Linux or BSD layers, you can use cron, systemd timers, full shell scripting and language runtimes such as Python or Go. Backup pipelines, integrity checks, archiving rules and housekeeping tasks can be scripted exactly as you need them.
If you want twenty four, thirty six or more bays, DIY approaches scale more smoothly. You can use dedicated JBOD shelves, fibre or SAS expanders, and multiple HBAs, with TrueNAS or Proxmox managing pools across them. Many consumer appliances run out of official options long before that point.
DIY platforms are ideal for lab work with new storage ideas, for example experimental ZFS features, new compression algorithms, alternative filesystems or clustered storage layers such as Ceph and Gluster. You can try these on real hardware without waiting for a turnkey vendor to embrace them.
A DIY NAS stack can sit inside a virtual machine on top of Proxmox, VMware or another hypervisor. That makes it easier to move the entire storage system between hosts, snapshot the system disk, test upgrades in clones, or run multiple separate NAS instances on the same physical hardware.
Some companies and institutions prefer or require that core infrastructure runs on software with open licensing and source availability. DIY NAS stacks based on standard Linux or BSD distributions make it easier to satisfy those policies than closed vendor operating systems.
The secondary market is full of cheap rack servers, HBAs and SAS shelves that are no longer wanted in data centres but are perfect for home or small business storage. TrueNAS, Proxmox and OMV can run happily on this hardware and give you enterprise level resilience for a fraction of the original cost.
A DIY NAS can also act as router, firewall, VPN concentrator or reverse proxy if you want to consolidate equipment. Proxmox or Unraid can host a firewall VM, DNS resolver and other network tools right next to your storage, which is not how most turnkey NAS devices are designed to be used.
DIY platforms usually let you decide exactly how encryption is applied, how keys are stored, how passphrases are entered and how this interacts with snapshots and replication. You can integrate with external key managers or strict manual processes rather than using a one size fits all wizard.
If you want a storage stack that never connects to any remote service unless you deliberately configure it, DIY software is easier to keep quiet. You can review services, outgoing connections and packages yourself, instead of relying on a vendor to document what their appliance firmware does.
Because you control the hierarchy of datasets, shares and pools, you can implement very detailed retention rules and archiving flows. Cold data can move to slower and cheaper disks, hot data can live on SSD pools, and you can enforce lifecycles with your own scripts instead of fixed vendor policies.
When your storage servers and application servers all run similar bases, for example Debian or FreeBSD, the same administration knowledge applies everywhere. Teams do not need to learn a unique vendor interface for one box and a completely different approach for the rest of the estate.
DIY NAS ecosystems often adopt new projects quickly, whether that is a young media server, a fresh photo tool, or an unusual database. Community templates for Unraid or Proxmox arrive much faster than official packages on proprietary platforms, so you can explore niche services early.
If your storage needs change, a DIY NAS box can become a general server, a lab hypervisor or a test bench machine simply by reinstalling or repurposing the disks. You are not stuck with a chassis that only really makes sense as a proprietary NAS.
DIY stacks can be installed in a minimal way with only the services you actually need. There is no requirement to run vendor photo portals, cloud connectors or bundled office tools if you do not want them, which keeps resource use low and reduces the attack surface.
DIY NAS platforms usually let you decide exactly when to update the core system, plugins and containers. You can hold a known good version for months, run a newer kernel only on a test VM, or pin specific containers while the rest of the stack moves forward, instead of accepting a single vendor update cadence across everything.
With Proxmox or similar hypervisors you can run TrueNAS in one VM, Unraid in another and maybe a plain Linux storage stack beside them, all on the same hardware. This lets you compare platforms, migrate gradually or dedicate different virtual NAS instances to different clients without buying multiple appliances.
DIY systems expose full system logs, kernel messages, packet captures and low level profiling tools. When you hit a strange performance issue or network glitch you can drill right down into iostat, tcpdump or perf, rather than relying only on a high level vendor dashboard that may not reveal the root cause.
Because most DIY NAS configurations live in text or structured files, you can store them in Git, review changes, roll back to older commits and clone the same setup onto another node. This aligns your storage servers with modern configuration management practices instead of keeping all changes on a single vendor GUI.
If a plugin, driver or feature you rely on is dropped by its original maintainer, an open DIY stack at least gives you the option to fork and maintain it or hire someone to do so. With a closed appliance firmware, once the vendor removes or changes a feature you generally have no way to bring it back.
Service providers that build solutions for clients can install TrueNAS, Proxmox or OMV on standard hardware and theme the interfaces, hostnames and portals to match their own brand. There is no prominent third party logo on the front of the GUI, which is often preferable when you are selling a complete solution.
DIY NAS servers can run native agents for Prometheus, Zabbix, Checkmk, commercial monitoring suites and whatever log pipeline you already use. You do not have to rely on a vendor specific cloud portal or proprietary alert format, so storage monitoring fits seamlessly into the rest of your infrastructure.
Because you can install DIY NAS software on almost anything that runs a suitable kernel, it is easier to use very compact systems, blade servers, dense JBOD trays or custom builds that no turnkey NAS vendor offers. This flexibility is valuable when you have physical constraints or leftover hardware that does not match appliance shapes.
On a DIY stack you decide which package repositories are trusted, whether you mirror them locally and which versions are allowed. This is useful in secure environments that need all software to come from internal mirrors and want to block any unapproved external package feeds.
New SMB or NFS versions, fresh filesystems, driver updates and network features typically land on general purpose Linux or BSD first. DIY platforms that stay close to upstream can adopt these improvements long before a NAS vendor ships them in a future firmware for a specific appliance.
Running TrueNAS, Unraid, Proxmox or OMV teaches real storage, networking and operating system concepts. Many homelab users treat their DIY NAS as a training ground, and the knowledge they gain with ZFS, KVM, Docker and Linux often translates directly into professional roles in IT and DevOps.
DIY NAS systems can use almost any supported GPU or accelerator card for tasks such as Plex transcoding, AI workloads, video processing or scientific computing. You can pass devices through to VMs or containers and tune them as you like, instead of being restricted to a short list of vendor approved cards.
With Proxmox or other hypervisors you can run several separate NAS VMs for different customers or departments on one physical box, each with its own web UI, users and policies. This multi tenant approach is attractive for managed service providers and is harder to implement cleanly on a single turnkey NAS.
DIY NAS environments can tie directly into whatever identity stack you prefer, from simple LDAP through to complex single sign on with custom multifactor rules. You can adopt advanced access controls or experiment with new identity providers without waiting for a NAS vendor to support them.
Organisations that already use SELinux, AppArmor, central audit frameworks or host based intrusion detection can apply the same policies to DIY storage nodes. A TrueNAS or Proxmox box that runs on a standard distribution can join existing security baselines, which is much harder with proprietary NAS firmware.
DIY NAS stacks can use specialist network cards such as Infiniband, RoCE capable adapters or unusual fibre interfaces as long as the drivers exist. This allows you to experiment with very high throughput or low latency technologies that are rarely supported on commodity appliance NAS hardware.
With tools like ZFS send and receive, rclone, Restic or Borg you can build very specific backup and replication flows. You can script encryption, throttling, snapshot selection and multiple targets in a way that fits your environment instead of being limited to the fixed policies of one vendor backup tool.
DIY NAS builds can follow data center norms such as using standard rack servers, redundant power supplies, remote management controllers and IPv6 heavy networks. Colocation providers expect this type of hardware, and DIY software lets your storage blend into a standard server fleet rather than being an odd office appliance.
On a DIY NAS you can use normal user, group and sudo rules with SSH keys to control who can run which commands. One person can manage pools, another can manage virtual machines, another can handle monitoring agents, all with precise restrictions that go beyond the coarse admin or user split of many appliances.
Because DIY NAS software can talk to external APIs and home automation systems, you can schedule heavy tasks such as scrubs, backups or transcoding to run when solar output is high or electricity tariffs are low. This kind of energy aware behaviour is difficult to achieve with fixed vendor power schedules.
DIY storage nodes can publish events into MQTT, Node Red or Home Assistant whenever backups finish, disks fail or space runs low, and can also respond to automation signals from the rest of the house. This lets your NAS participate in a wider automation fabric rather than living as an isolated appliance.
DIY NAS servers can fetch encryption keys, passwords and API tokens from systems such as HashiCorp Vault or other corporate secret stores. That allows central management and rotation of sensitive data instead of keeping secrets inside a proprietary NAS configuration database.
You can build a standard disk image or network boot environment for your DIY NAS with all tooling and configuration baked in. If the system disk fails or you want to spin up a second node, you simply redeploy the image and reattach the existing storage pools, which is a very different model from appliance firmware.
When configuration lives in files managed in Git, you can run linting and simulation jobs in a CI pipeline before applying changes to your DIY NAS servers. This allows you to catch syntax errors or bad parameters automatically, which is impossible when all edits happen only through a click driven vendor interface.
DIY stacks expose command line tools and often REST APIs that allow you to build your own lightweight dashboards for particular users or teams. You can present a simplified view for media editors, a different one for backup operators, and keep the full complexity of the base system hidden in the background.
If the default language or terminology of the platform does not suit your users, you can adjust translation files or web templates on a DIY system. Community contributions in minority languages are also easier to ship and maintain than on a closed vendor NAS where only official translations exist.
You can design a strict process for testing new disks, for example running multi day read and write passes, specific SMART tests and temperature checks before a drive ever joins a pool. Scripts and reports can enforce this burn in policy across all your DIY NAS nodes, something turnkey platforms rarely expose in detail.
In vehicles, ships, remote cabins or unstable power conditions you may need unusual behaviours such as aggressive throttling at certain temperatures, logging to serial consoles or special shutdown routines. DIY software gives you the hooks to script and tune these reactions in ways that appliance firmware does not anticipate.
Organisations with strict change control can insist that all NAS configuration changes arrive through reviewed pull requests and automated deployment tools. A DIY NAS whose configuration is driven by code fits smoothly into this world, whereas an appliance managed only through a browser is harder to audit and control.
If you want to explore scale out storage such as Ceph, Gluster or other distributed systems, DIY hardware and open platforms are the most practical route. You can repurpose existing nodes into a cluster, test resilience and performance characteristics, and later reuse those machines for other lab work if requirements change.
With DIY platforms such as TrueNAS, Unraid, ZimaOS, Proxmox and OMV, the on disk formats and pool layouts are widely documented and used in many contexts. If a motherboard dies in several years, you can move the disks to new hardware, reinstall the same software and import the pools, instead of hunting for an identical appliance or vendor recovery tool.
DIY NAS software lets you expose storage over SMB, NFS, iSCSI, rsync modules, sometimes NVMe over TCP and more, with detailed control of versions, encryption, timeouts and caching. You can tune each protocol for a specific workload instead of accepting whatever subset and presets a turnkey vendor offers.
Because you control the base system, you can attach your own scripts when files are written, moved or deleted in particular locations. That allows automatic virus scanning, metadata extraction, indexing, transcoding or business workflows that trigger whenever content changes, rather than relying only on built in features.
DIY NAS platforms are happy on machines that have only serial console or out of band management with no HDMI or local keyboard. This matches how many server rooms and colocation racks actually work and lets you manage storage over low bandwidth links without any graphical tools if needed.
ZFS based DIY systems allow you to choose different compression algorithms and record sizes per dataset and to enable or disable deduplication only where it makes sense. You can optimise for databases, media archives or virtual machines individually rather than living with a single vendor setting for an entire volume.
On a DIY NAS you can keep the storage node lean and run most of the management logic on other servers through SSH, APIs or orchestration tools. The storage device can behave as a focused data plane while the control plane lives elsewhere, which is attractive in environments that want very thin appliances.
The forums and communities around TrueNAS, Unraid, Proxmox and OMV are full of people who enjoy deep technical dives, benchmarks and off label use cases. For homelab users and engineers that culture can feel more welcoming than vendor moderated communities that discourage unsupported combinations.
Once you settle on a particular DIY stack and layout, you can repeat the same design at home, at work and in test environments with only minor changes. Automation scripts, monitoring templates and backup strategies can be shared almost unchanged between all these machines.
A DIY NAS can act as a neutral storage target for many different backup products and appliances from other vendors. You can point various commercial systems at the same TrueNAS or Proxmox storage, then compare how they behave for restore, versioning and verification, something that is harder when your main storage is itself a fixed vendor appliance.
DIY platforms rarely impose artificial limits on the number of datasets, snapshots, exports or shares you can create. As long as the underlying system can handle it, you can build very granular layouts for different teams, applications and projects without hitting a model based cap.
In academic or scientific work, it is often important that another team can rebuild the same stack years later. A DIY NAS with configuration stored in code and based on standard distributions can be recreated on any suitable hardware, which supports reproducible experiments and shared lab setups.
In some labs and studios the same physical machines are used both for heavy compute work and for fast local storage. DIY NAS software can happily coexist with HPC toolchains and schedulers on the same hardware, allowing you to run compute workloads close to the data without separate appliances.
DIY platforms give full access to NTP, Precision Time Protocol and kernel timing controls. For environments where consistent timing is critical, such as finance, measurement systems or some industrial setups, the storage node can participate in the same strict time hierarchy as the rest of the infrastructure.
If you need to attach tape libraries, optical jukeboxes or rare archival devices, a DIY NAS running a general purpose operating system is more likely to support them. You can install the required drivers and tools for these devices rather than waiting for a turnkey vendor to recognise them.
Some administrators want their storage nodes to be invisible to end users and to present only block or file protocols to other systems. DIY NAS installations can be trimmed down to offer only SMB, NFS, iSCSI or object storage with no media portals or user apps, which suits this backend only role very well.
Because you can run whatever tools and containers you like, a DIY NAS can also host data transformation jobs. For example, you can receive raw data, clean it, compress it, encrypt it and then push it to cloud storage or another site, all driven by your own scripts and schedules.
With DIY platforms you are not waiting for one company to decide which media codecs, hardware accelerators or remote access features are allowed. If a particular vendor chooses a direction you dislike, you can still adopt the tools and configurations that suit you within your own stack.
When a commercial NAS model reaches the vendor end of support, users are often encouraged to buy a new box even if the hardware is still reliable. With DIY storage you can keep updating the operating system on the same machine for as long as the components remain healthy, decoupling software support from hardware marketing cycles.
In remote or bandwidth constrained locations, being able to manage the NAS entirely with text tools and small configuration files is valuable. DIY platforms let you perform upgrades, configuration changes and even troubleshooting over slow links without relying on heavy web interfaces.
On DIY systems you can use native resource controllers to limit bandwidth, CPU time or IOPS per container, process group or user. This makes it possible to enforce complex quality of service rules that prioritise critical workloads while still allowing experimental services to run in the background.
With pools and datasets defined at the software level, you can move storage from one chassis to another or rebalance between servers without changing how applications see their paths. This separation makes it easier to evolve the physical layer over time while keeping logical layout stable.
A DIY NAS environment can act as a standard reference platform when you test routers, backup appliances or other network gear. Because it is not tied to one brand, it is easier to observe how third party devices behave when they read and write to a known stable storage backend.
DIY stacks allow you to combine filesystem permissions, network firewalls, container isolation, mandatory access control frameworks and external identity providers in creative ways. You are not limited to the single security model that a turnkey NAS interface exposes, which allows more nuanced defence in depth.
You can configure exactly what is logged, where logs are stored and how long they are kept, from kernel messages to application events. Logs can be shipped to central collectors in formats that match your existing observability stack, making compliance and forensic analysis simpler.
DIY platforms can be wired into automated disaster simulations, where systems are repeatedly torn down and rebuilt to prove that recovery works. Storage configurations can be recreated from code, pools imported and test data restored on a schedule, instead of relying on manual wizard driven tests.
Over the lifetime of a DIY NAS, you can replace almost every layer: change the init system, switch to a different web interface, adopt a new container engine or even move from one DIY distribution to another while keeping the same pools. This modularity keeps the platform adaptable as tastes and technology change.
Some organisations have policies against storing important data in formats that depend on closed code or single vendor tools. DIY NAS solutions using standard filesystems and open source utilities are easier to justify under these rules than appliances that use proprietary volume managers and configuration stores.
Training providers and universities can deploy DIY NAS stacks inside virtual environments so that students can break, repair and rebuild storage systems without touching production gear. The same images can be reset between classes, giving learners realistic hands on experience at low cost.
In some jurisdictions or industries, unusual requirements appear, such as special retention schedules, local encryption standards or niche logging rules. DIY NAS environments can be scripted to satisfy these specific requirements even when no turnkey NAS vendor has considered them.
If you already run a wide range of self hosted tools in containers or VMs, adding storage duties to that world with DIY software keeps everything consistent. The NAS simply becomes another service in the same orchestration fabric rather than a separate product with its own way of doing things.
When new network filesystem projects appear, such as experimental user space protocols or research systems, they nearly always target Linux and BSD first. A DIY NAS gives you a platform to test these technologies for specific problems, long before any commercial vendor would consider supporting them.
Some organisations prefer to update only once or twice a year after extensive internal testing. DIY NAS stacks allow you to freeze versions and postpone upgrades until you have validated them, instead of accepting automatic firmware updates that may change behaviour on the vendor schedule.
If you already pay for certain commercial tools but want the storage layer to stay licence free, DIY approaches give you that mix. You can run proprietary database or backup software while keeping the underlying storage platform open and under your control.
With Proxmox or similar platforms you can spin up development VMs or containers right next to the storage that holds source code and artefacts. Developers can work close to large repositories and test data without hauling everything over the network, using the NAS as both storage and dev host.
Because DIY NAS boxes export metrics in standard ways or can run your own collectors, it is straightforward to feed storage statistics into company specific dashboards and reports. You can show exactly the charts and summaries that matter for your audience instead of relying on whatever reporting screens a vendor includes.
If your plans change, you can remove disks from a DIY NAS, wipe or repurpose them in other servers without dealing with vendor specific metadata or compatibility warnings. The drives are just drives, not part of an opaque appliance ecosystem that expects to keep them forever.
A DIY NAS can serve as a lab for experimenting with new security scanners, vulnerability assessment tools and hardening recommendations before you roll them out to production servers. You can observe how these changes affect a real storage workload and adjust accordingly.
Because you control every part of the stack, you can simulate failures, intrusions or misconfigurations on a DIY NAS and then practise your incident response procedure. This kind of training is harder with commercial appliances where you cannot fully control or inspect all layers.
In some environments you still need to support older protocols for a while, for example legacy SMB dialects or older NFS versions. DIY NAS systems let you keep these services available during migration while still offering modern protocols to new clients, with careful isolation where needed.
Vendors come and go, change direction or pivot to new markets, but the core technologies behind DIY NAS platforms have existed for decades and are used in many places beyond home storage. Building on that foundation means your data and workflows are less tied to the fashion of any particular hardware brand.
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The TerraMaster F2-425 takes the same underlying hardware platform as the F4-425 and adapts it to a smaller 2 bay format aimed at simpler home and small office environments. With the same Intel Celeron N5095 processor, 4GB of upgradeable DDR4 memory, and single 2.5GbE connection, it delivers comparable compute capability in a more compact enclosure that prioritizes quiet operation and minimal physical footprint. The appeal of the F2-425 is less about expansion and more about practicality, targeting users who want centralized storage, backups, and media services without managing a larger multi drive system. It fits particularly well in scenarios where space, noise, and cost matter more than raw throughput or long term capacity growth. Rather than competing with higher end 2 bay NAS units that include NVMe caching or faster networking, the F2-425 focuses on providing a straightforward Intel based NAS experience that covers common use cases while leaving room for memory upgrades or alternative operating systems if requirements change later.
SOFTWARE - 8/10
HARDWARE - 6/10PERFORMANCE - 6/10PRICE - 10/10VALUE - 9/10
7.8
PROS
Accessible Entry Into Intel NAS for Smaller Setups in the F2-425Simplified Capacity Planning for Home Users on the F2-425Quiet, Consistent Performance in a Compact Chassis of the F2-425Straightforward Management for Individual and Family Use with the F2-425Long Term Flexibility Beyond the Default Software of the F2-425
CONS
Network Bandwidth Ceiling Reached Quickly in the F2-425No SSD Cache or High Speed Tier Options on the F2-425Limited Headroom for Future Software Demands of the F2-425Hardware Feature That Adds Little Day to Day Value in the F2-425Narrow Upgrade Path Compared to Nearby Alternatives of the F2-425
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| Amazon in Your Region | Terramaster F2-425 PLUS | B&H NAS Shop |
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The F2-425 stands out by bringing an Intel x86 platform into the more compact and cost sensitive 2 bay NAS category. Many 2 bay systems at this size and price rely on ARM processors, which can limit software compatibility and long term flexibility. By contrast, the F2-425 provides an Intel based environment that supports a broader range of applications, containers, and services, while remaining relatively affordable for home and small office users. Its value is less about raw performance and more about flexibility, giving users access to an x86 ecosystem without stepping up to more expensive 2 bay models that add NVMe caching or higher speed networking. For buyers who want a simple, compact NAS that can comfortably handle file sharing, backups, and media services, but who also want the option to expand functionality through third party applications or alternative operating systems, the F2-425 offers a balanced and practical entry point.
On the F2-425, TRAID plays a slightly different role and aligns more closely with simplicity than scale. In a 2 bay NAS, users are often limited to RAID 1 or single disk configurations, which can make capacity upgrades feel restrictive. TRAID allows the F2-425 to handle mismatched drive sizes more gracefully, reducing the penalty of upgrading one drive at a time. This is particularly useful for home users who may start with smaller disks and later replace them individually rather than investing in a matched pair upfront.
The system abstracts much of the complexity away from the user, making storage expansion more approachable for those who do not want to manually manage RAID levels or rebuild arrays. While the absolute capacity ceiling is lower than on the 4 bay model, the F2-425 benefits from a storage system that prioritizes ease of use and gradual growth rather than strict optimization.
The F2-425 emphasizes steady and predictable performance rather than raw throughput, which aligns well with its smaller enclosure and typical use cases. With fewer drive bays and a lower likelihood of simultaneous high demand from multiple users, the Intel Celeron N5095 is generally sufficient for file serving, media playback, and routine background tasks. Hardware assisted video decoding allows the system to handle 4K media streaming with reduced CPU load, helping maintain responsiveness even during playback. The smaller chassis and lower overall thermal output also contribute to consistent behavior under everyday workloads, without aggressive fan ramping in most scenarios. For users placing the NAS in a living space or home office, this balance between performance and noise control can be more relevant than peak throughput figures.
On the F2-425, the same TOS 6 platform is presented in a context that favors simplicity and accessibility. The interface is largely self contained and can be managed through a browser or the TNAS mobile application, which is useful for users who want basic control without learning advanced system administration. Features such as automated photo backups, shared folders, and user account isolation are easy to configure and align well with typical home usage.
In a smaller NAS, the emphasis is less on complex workflows and more on reliability and ease of access, and TOS 6 supports this by consolidating most tasks into a single interface. For users moving from external drives or cloud storage, the software environment on the F2-425 provides a relatively gentle transition into centralized network storage.
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The F2-425 also benefits from its openness as an x86 based system, which can be especially relevant in a smaller NAS that may change roles over time. While many users will initially deploy it as a simple file server or media box using TOS 6, the ability to switch to a different operating system later allows the hardware to be repurposed rather than replaced. This could include running a lightweight home server, experimenting with container workloads, or using it as a learning platform for NAS and Linux based systems. In a compact 2 bay device, this flexibility helps offset the more limited expansion options by giving the hardware multiple potential use cases across its lifespan. For users who want a small NAS that is not locked into a single software path, the F2-425 offers a degree of freedom that is less common in this size and price range.
On the F2-425, the same single 2.5GbE port presents a different but still relevant constraint. Although a 2 bay NAS is less likely to push extreme throughput compared to a 4 bay system, even a pair of modern hard drives in RAID 0 or during parallel access can approach the limits of a 2.5GbE connection. This reduces the benefit of faster drives and makes performance gains from certain configurations less noticeable in real world use.
For users who plan to use SSDs or who already have a multi gigabit home network, the absence of faster native networking may feel restrictive. As with the F4-425, expansion via USB adapters is possible, but it adds another dependency rather than providing a clean, integrated solution. For a device positioned as an Intel based NAS, the networking capabilities may feel conservative relative to current expectations.
On the F2-425, the lack of NVMe support affects usability in a more subtle but still meaningful way. A 2 bay NAS often benefits from SSD caching to compensate for limited drive count, improving responsiveness during file browsing, small file access, and application use. Without NVMe slots, users are restricted to SATA based storage, and dedicating a drive bay to an SSD for caching or fast storage comes at the cost of usable capacity or redundancy. This reduces flexibility, especially for users who want to mix performance and safety in a compact system. While the F2-425 can still perform well for basic file serving and media playback, it does not offer a clear upgrade path for users who later want faster storage tiers without replacing the system entirely. In this size class, the absence of NVMe support reinforces its role as a straightforward storage appliance rather than a performance tunable platform.
In the F2-425, the same N5095 processor is generally adequate for its intended use cases, but it still represents a compromise when viewed against newer entry level Intel CPUs. For a compact NAS, the processor is sufficient for file sharing, backups, and media playback, but it offers less margin for expanding into additional services or more demanding applications. As operating systems and third party tools evolve, performance expectations tend to rise, and the older architecture may reach its limits sooner than more recent alternatives. This does not prevent the F2-425 from performing its current role effectively, but it does mean that users planning to grow their usage beyond basic tasks may encounter constraints earlier in the system’s lifespan. The CPU choice reinforces the device’s position as an entry level Intel NAS rather than a long term performance platform.
On the F2-425, the HDMI port has even less practical relevance for most users. Given the device’s smaller size and typical placement in home environments, it is unlikely to be connected directly to a display for regular interaction. As with the larger model, the HDMI output does not provide access to a graphical interface or media center functionality under the default operating system. This limits its usefulness to diagnostics or alternative OS installation scenarios.
For users expecting local playback or direct control via a monitor and keyboard, the presence of HDMI may create expectations that are not met in practice. In everyday use, the port remains largely unused, making it more of a technical inclusion than a functional feature for the target audience.
The F2-425 faces a similar issue within TerraMaster’s broader range, particularly when compared to other compact Intel based NAS models that include NVMe slots or more efficient processors. While the initial cost is lower, the lack of internal expansion options means users are largely locked into the performance profile they purchase on day 1. For buyers who later decide they want faster storage tiers, improved networking, or more responsive application performance, there is limited scope to evolve the system without replacing it entirely. In this context, the F2-425 works best for clearly defined and stable use cases, but it is less forgiving if requirements change. The presence of more flexible alternatives nearby in the lineup makes this limitation more noticeable when evaluating long term ownership.
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The TerraMaster F2-425 offers a compact and accessible route into Intel based NAS ownership, focusing on everyday storage, backups, and media services rather than advanced performance tuning. Its smaller form factor, quieter operation, and simpler capacity planning align well with home and small office environments where space and ease of use matter more than throughput. The inclusion of TOS 6 and support for alternative operating systems provides flexibility at the software level, helping extend the usefulness of the hardware across different roles over time. However, like its 4 bay counterpart, the F2-425 has clearly defined limits. The lack of NVMe support and faster native networking means there is little room to grow into more demanding workloads, and the aging processor reinforces its position as an entry level Intel NAS. For users with modest, stable requirements, it can serve reliably as a central data hub. For those who anticipate expanding performance needs or experimenting with higher speed storage and networking, nearby alternatives may offer better long term value, even if they come at a higher initial cost.
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| Amazon in Your Region | Terramaster F2-425 PLUS | B&H NAS Shop |
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This description contains links to Amazon. These links will take you to some of the products mentioned in today's content. As an Amazon Associate, I earn from qualifying purchases. Visit the NASCompares Deal Finder to find the best place to buy this device in your region, based on Service, Support and Reputation - Just Search for your NAS Drive in the Box Below
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Where possible (and where appropriate) please provide as much information about your requirements, as then I can arrange the best answer and solution to your needs. Do not worry about your e-mail address being required, it will NOT be used in a mailing list and will NOT be used in any way other than to respond to your enquiry.
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The TerraMaster F4-425 is positioned as a lower cost entry point into the company’s Intel based NAS lineup for the 2025 to 2026 generation, sitting below the Plus, Pro, and Max series models. It combines a 4 bay desktop chassis with the Intel Celeron N5095, 4GB of DDR4 memory with upgrade support up to 16GB, and a single 2.5GbE network interface. This places it squarely in the middle ground between basic ARM powered NAS systems and more fully featured x86 solutions with higher network bandwidth and NVMe expansion. The appeal of the F4-425 lies in its balance rather than specialization, offering enough CPU performance for multi user file access, media streaming, and general application use, while keeping cost, noise, and power consumption relatively controlled. It is clearly designed for users who want an Intel based NAS for everyday storage and media tasks, but who do not necessarily need the higher throughput, expansion options, or future scalability found in TerraMaster’s more expensive models.
SOFTWARE - 8/10
HARDWARE - 7/10PERFORMANCE - 6/10PRICE - 9/10VALUE - 8/10
7.6
PROS
Competitive Intel-Based Value in a 4 Bay Format with the F4-425 vs other Intel Entry SystemsFlexible Storage Management With TRAID and TRAID Plus in the F4-425Balanced Performance for Media and Multi-User Access of the F4-425 systemPractical Software Feature Set With TOS 6 of the F4-425Flexible Platform for Turnkey or DIY NAS Use with the F4-425
CONS
Single 2.5GbE Network Port Limits Throughput of the F4-4251.7 Lack of NVMe Expansion Limits Internal Performance in the F4-425Aging CPU Platform for a New Generation NAS of the F4-425HDMI Output With No Practical Software Use on the F4-425Overlap With Better Equipped Models in the Same Lineup of the F4-425
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| Amazon in Your Region | Terramaster F4-425 on AliExpress | B&H NAS Shop |
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One of the key advantages of the F4-425 is how it positions itself within the x86 turnkey NAS market, particularly in the 4 bay segment. Systems that combine an Intel processor, upgradeable memory, and faster than gigabit networking are typically aimed at prosumer or small business buyers and often carry a noticeably higher price. The F4-425 offers a complete, ready to use solution that includes TerraMaster’s TOS 6 operating system, allowing users to deploy storage, backups, and shared services without needing to install or license additional software.
This lowers the overall barrier to entry for buyers who want an Intel based NAS primarily for general purpose storage, media streaming, or light application hosting. While it does not compete directly with higher end 4 bay systems that include multi LAN configurations or NVMe expansion, it delivers a core x86 experience at a price level that is more approachable, especially for users who do not plan to saturate network bandwidth or push heavy virtualization workloads.
A notable strength of the F4-425 is its support for TerraMaster’s TRAID and TRAID Plus storage systems, which are particularly relevant in a 4 bay enclosure. Traditional RAID configurations often require matched drive sizes to avoid wasted capacity, and expanding an array later can involve rebuilding or replacing multiple disks at once. TRAID reduces this rigidity by allowing mixed capacity drives to be used more efficiently over time, automatically organizing available space while maintaining redundancy.
In a 4 bay system, this becomes more practical, as users are more likely to add drives gradually or replace older disks with higher capacity models as prices fall. The result is a storage setup that is easier to grow incrementally without complex planning. For users managing a family media library, backups from multiple devices, or shared data across several users, this flexibility can simplify long term storage expansion while reducing the need for disruptive migrations.
The F4-425 offers a level of performance that is generally well suited to shared home or small office environments, particularly where multiple users are accessing data simultaneously. The Intel Celeron N5095 provides enough processing headroom to handle file transfers, background services, and media applications without the system feeling unresponsive under light to moderate load. In a 4 bay configuration, this performance profile pairs well with mixed workloads, such as ongoing backups, media indexing, and concurrent playback through applications like Plex, Emby, or Jellyfin using hardware assisted 4K decoding. While it is not intended for heavy virtualization or sustained high throughput tasks, the F4-425 can comfortably support several users accessing files or streaming content at the same time. This makes it suitable for households or teams where shared access and consistency are more important than peak benchmark performance.
The F4-425 benefits from TerraMaster’s TOS 6 operating system, which provides a broad and functional software environment without requiring additional licenses or complex setup. The platform includes native tools for file sharing, snapshots, cloud synchronization, and multi device backups, allowing the NAS to act as a central data hub for several users. In a 4 bay system, these features become more relevant as storage is often shared across multiple PCs, mobile devices, and services.
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TOS 6 also supports container based applications and virtualization features that, while limited by the underlying hardware, can still be useful for light workloads such as small services or test environments. The software is not as polished as some higher profile NAS platforms, but it offers a level of depth that covers most common use cases and reduces the need to rely on third party tools for everyday management.
An often overlooked advantage of the F4-425 is how accommodating it is for users who may want to move beyond the included operating system in the future. While it is sold and marketed as a complete turnkey NAS with TOS 6, the underlying x86 architecture allows relatively straightforward installation of alternative NAS operating systems such as TrueNAS, Unraid, or other Linux based platforms. TerraMaster does not restrict this process at the firmware level, and using third party software does not invalidate the hardware warranty. In a 4 bay system, this flexibility can extend the useful lifespan of the device, particularly for users whose storage needs or technical confidence evolve over time. The presence of HDMI output and KVM support simplifies local setup when experimenting with other operating systems, even if that HDMI port is not fully utilized by TOS itself. This dual role as both a turnkey appliance and a potential DIY platform adds practical long term value for more technically inclined users.
A clear limitation of the F4-425 is its networking configuration, which consists of a single 2.5GbE port with no additional LAN interfaces or internal upgrade options. In a 4 bay NAS, this can quickly become a bottleneck once multiple drives are active, particularly in RAID configurations that are capable of delivering higher aggregate read and write performance than the network interface can carry. Even with mechanical hard drives, it is possible to saturate a 2.5GbE connection under sequential workloads, and this leaves little headroom for multiple users or concurrent tasks.
The lack of link aggregation, 5GbE, or 10GbE options also limits the system’s suitability for users with faster network infrastructure or plans to upgrade in the future. While USB based network adapters can be added, this introduces extra cost and complexity, and it does not fully compensate for the absence of native multi port or higher speed networking in a 4 bay chassis.
The absence of any M.2 NVMe slots on the F4-425 places a clear ceiling on its internal performance and storage flexibility. In a 4 bay Intel based NAS released into the 2025 to 2026 market, NVMe support is commonly expected, either for SSD caching or for high speed storage pools that can absorb bursts of activity and improve responsiveness under mixed workloads. Without NVMe, all storage activity is constrained to SATA drives, which limits the benefits of the x86 platform when running applications, containers, or multiple background services. This is particularly relevant in scenarios where the system is handling indexing, backups, and media access at the same time. While TerraMaster offers other models in its lineup with extensive NVMe support, the omission here means the F4-425 cannot be easily optimized for latency sensitive tasks, regardless of how much memory is added or how the drives are configured.
The F4-425 relies on the Intel Celeron N5095, a processor that has been widely used across multiple NAS generations and is now showing its age in the context of newer Intel platforms. While it remains capable of handling file services, media transcoding, and light application workloads, it lacks the efficiency and performance improvements found in more recent Intel N series processors. In a 4 bay system, this matters because the hardware is more likely to be tasked with simultaneous operations such as multi user access, background maintenance, and application services. The N5095 can manage these workloads, but it does so with less headroom than newer alternatives, which can impact long term relevance. As software platforms continue to add features and increase baseline requirements, the CPU choice places a practical limit on how far the system can scale over time.
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The inclusion of an HDMI port on the F4-425 may appear useful on paper, but in practice it offers limited functionality within TerraMaster’s software environment. The HDMI output is primarily used for basic system information and troubleshooting during boot, rather than providing a usable local interface or media output experience. There is no native desktop mode, multimedia interface, or direct playback environment available through TOS that would allow the NAS to function as a locally controlled media device. In a 4 bay system with an Intel CPU capable of hardware video decoding, this unused output can feel like missed potential, especially when other NAS vendors and newer platforms have begun to implement functional HDMI driven interfaces. While the port can be helpful when installing third party operating systems, its role within the default configuration remains minimal.
A practical concern with the F4-425 is how closely it sits to other TerraMaster models that offer substantially more capability for a relatively modest increase in cost. Within the same product family, there are options that add faster networking, NVMe expansion, additional LAN ports, or more modern Intel processors, sometimes at a price difference that may be difficult to justify ignoring. For buyers who already anticipate growing storage needs, higher throughput, or heavier application use, the F4-425 can feel constrained when compared directly against these alternatives. This internal competition weakens its long term value proposition, as users may find that spending slightly more upfront would avoid the limitations around bandwidth and expansion that cannot be addressed later through upgrades.
The TerraMaster F4-425 is best understood as a deliberately constrained Intel based NAS that prioritizes affordability and simplicity over expandability and peak performance. It delivers competent multi user storage, media streaming, and general NAS functionality in a 4 bay format, supported by a software platform that covers most common requirements without forcing reliance on third party tools. Its strengths lie in predictable behavior, flexible RAID options, and openness to alternative operating systems, rather than cutting edge hardware features. For users with clearly defined needs who value an x86 platform but do not expect to push high bandwidth workflows or advanced storage tiers, the F4-425 can meet expectations without unnecessary complexity. At the same time, its limitations are structural rather than temporary. The single 2.5GbE port, absence of NVMe expansion, and older CPU architecture set firm boundaries on future growth. These constraints become more apparent when viewed alongside other models in TerraMaster’s own lineup that address these gaps at a higher but not disproportionate cost. As a result, the F4-425 makes the most sense for buyers who want a straightforward Intel NAS for shared storage and media use today, and who are comfortable accepting that it is not designed to scale significantly beyond that role.
| Amazon in Your Region | Terramaster F4-425 PLUS | B&H NAS Shop |
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This description contains links to Amazon. These links will take you to some of the products mentioned in today's content. As an Amazon Associate, I earn from qualifying purchases. Visit the NASCompares Deal Finder to find the best place to buy this device in your region, based on Service, Support and Reputation - Just Search for your NAS Drive in the Box Below
Need Help?
Where possible (and where appropriate) please provide as much information about your requirements, as then I can arrange the best answer and solution to your needs. Do not worry about your e-mail address being required, it will NOT be used in a mailing list and will NOT be used in any way other than to respond to your enquiry.
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Ko-fi or old school Paypal. Thanks!To find out more about how to support this advice service check HEREIf you need to fix or configure a NAS, check Fiver
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