VPS and Dedicated Hosting for Plex and Jellyfin 2026

A 4K HDR movie that plays instantly on a living-room television may require real-time transcoding when another viewer opens it on a phone that cannot decode 10-bit HEVC video. The server then decodes the 4K source, tone-maps it to standard dynamic range, and re-encodes it for the phone. The right combination of GPU capacity and bandwidth keeps remote playback smooth and monthly costs predictable.

Running Plex or Jellyfin on rented infrastructure, whether a VPS, a dedicated server, or a purpose-built media host, comes down to three questions: whether your devices play files directly or require transcoding, how much video data leaves the server each month, and what the host charges for that data. This guide compares representative hosting options on those criteria and explains where Hostline’s dedicated GPU platform fits.

The short version

Hostline is designed for sustained media transcoding, with dedicated whole-card GPU configurations in Vilnius ranging from a single RTX A4000 to dual and triple RTX A5000 systems. Its zero-egress model keeps bandwidth costs predictable, while separate high-capacity storage servers support large libraries. Other options serve narrower needs: Hetzner combines self-managed dedicated servers with unlimited traffic on gigabit ports; OVHcloud offers unmetered bandwidth in selected ranges; Contabo focuses on storage and included traffic for direct play; Vultr provides hourly cloud GPU instances; and managed hosts such as Ultra.cc and Whatbox package the application with shared infrastructure. For sustained 4K or HDR transcoding, Hostline’s dedicated GPU capacity and predictable bandwidth model are the clearest fit.

How This List Was Built

Pricing, specifications, and bandwidth details were checked against provider documentation in September 2026. Because plans and availability change, current product pages remain the best source for ordering details. The comparison covers four practical dimensions: hardware transcoding capability, bandwidth model, storage, and price. The options are grouped by infrastructure and bandwidth model so readers can match a server to their playback needs.

Direct Play Direct Stream and Transcoding

Plex and Jellyfin serve a video file in one of three ways, and the difference decides how much hardware you need [1]. Direct Play sends the file untouched: the client supports the container, the video codec, and the audio codec, so the server streams the bytes and does almost no work. Direct Stream is one step up and covers two common cases: the container is wrong, say a Matroska file going to a client that only takes MP4, so the server repackages the streams without re-encoding, or the video passes through untouched while only the audio track is converted; both are light [1]. Transcoding is the expensive path, where the server decodes the video and re-encodes it in real time. That happens when the client cannot decode the codec, when the file’s bitrate is higher than the viewer’s connection can carry, when a 4K source has to be shrunk to 1080p for a smaller screen or a slower link, or when an incompatible subtitle has to be burned into the picture.

That last trigger catches people. A perfectly compatible file will still force a full video transcode the moment a viewer selects an image-based subtitle track the client cannot render, because burning the subtitle in means redrawing every frame. Remote viewing is the other common cause: a connection that comfortably direct-plays a 12 megabit 1080p file at home will not carry a 60 megabit 4K remux over a phone network, so the server transcodes down to fit.

The practical consequence runs through this guide. If your players direct-play, and modern streaming devices such as an Apple TV 4K, an NVIDIA Shield, or a recent smart television handle H.264 and HEVC natively, the server mainly needs bandwidth and storage. If it transcodes, especially at 4K or for several streams at once, transcoding hardware becomes the central requirement. The Plex dashboard and Jellyfin playback information show whether each stream is direct-playing or transcoding, so a week of viewing data provides a useful sizing baseline.

Transcoding Hardware with Quick Sync NVENC and PassMark

When the server has to transcode, it can do the work on the CPU in software or offload it to dedicated video hardware. Software transcoding follows a rough rule of thumb popularized by Plex: a single 1080p transcode needs around 2,000 PassMark CPU points, a 720p stream around 1,500, a 4K standard-dynamic-range file downscaled to 1080p around 12,000, and a 4K high-dynamic-range file around 17,000 [7]. Tone mapping adds substantial work to the decode and encode process. Requirements rise quickly with multiple simultaneous streams, which is why hardware acceleration is the practical choice for sustained 4K transcoding.

Two hardware paths dominate. Intel Quick Sync is the integrated video engine built into most Intel desktop and laptop processors. It is extremely power-efficient, it has no driver-imposed limit on the number of simultaneous transcodes beyond what the chip can physically sustain, and it handles many cheap 1080p streams at once; community testing puts an eleventh-generation Quick Sync chip at several simultaneous 1080p transcodes, though those are user reports rather than vendor specifications. Capability tracks the processor generation: full HEVC encoding arrived with sixth-generation Skylake, 10-bit HEVC with seventh-generation Kaby Lake, AV1 decoding with eleventh-generation Tiger Lake, and AV1 encoding only with the Arc graphics generation [6]. The catch is that Quick Sync requires the integrated graphics to be present, and most server-grade Xeon processors, along with any Intel chip carrying an “F” suffix, have no integrated graphics at all, which means no Quick Sync.

NVIDIA’s NVENC is the dedicated encoder on its graphics cards, and it is strong for 4K and high stream counts. The driver imposes a concurrent-session limit on many consumer GeForce systems; NVIDIA’s current support matrix generally lists a maximum of 12 sessions for supported GeForce cards, but the exact limit depends on the GPU and driver and can change. Do not treat every professional card as automatically unrestricted: the current matrix must be checked for the exact model. The RTX A4000 and A5000 are listed as unrestricted and each has one NVENC engine; the L4 has two, while the L40 and L40S have three [4]. Engine count is not a guaranteed stream count because codec, resolution, bitrate, tone mapping, memory, and application behavior all affect throughput. Plex and Jellyfin normally target one GPU device per server process, so multi-GPU systems may require separate server instances or workload partitioning. AV1 encoding requires newer silicon such as Ada-generation cards; Ampere cards including the RTX A4000 and A5000 encode H.264 and HEVC but not AV1 [5].

The distinction to carry forward is this: a consumer GPU may be constrained by a driver session limit, a fractional or vGPU slice is constrained by its assigned resources, and a whole professional card such as an RTX A4000 or A5000 is bounded mainly by the card’s throughput. On rented hardware, whether you receive a slice or the entire card changes the available transcoding capacity. AMD’s hardware path, commonly exposed through VAAPI on Linux, is another option, but codec support and output quality should be checked against the exact GPU and application version.

How Bandwidth Shapes the Monthly Cost

Bandwidth is a major part of the monthly cost for a cloud media server. A 1080p H.264 stream runs between roughly 10 and 20 megabits per second. A well-encoded 4K HEVC stream sits closer to 25 to 40, and an untouched 4K Blu-ray remux runs from 40 to more than 100 [2]. A single two-hour 4K remux at 60 megabits per second moves about 54 gigabytes. A household with several regular viewers can therefore use hundreds of gigabytes or several terabytes in a month.

Now apply published cloud egress rates to that traffic. Amazon Web Services includes the first 100 GB per month and then charges about $0.09 per GB for the next 10 TB, so 2 TB expressed as 2,000 GB costs about $171 in egress [8]. Azure also includes the first 100 GB; at $0.087 per GB for the next tier in North America and Europe, the same 2 TB example is about $165.30 [10]. Google Cloud prices egress by network tier: Standard Tier includes the first 200 GiB per month free and then charges by monthly volume rather than by destination, from $0.085 per GiB, while Premium Tier, which is the default, charges by destination region, from $0.12 per GiB to North America and Europe [9]. Any cloud-egress estimate is therefore only meaningful alongside its region, network tier, unit, and free allowance.

For media hosting, bandwidth falls into three practical models. Metered clouds charge for outbound data, often after a small free allowance. Allowance-based hosts include a fixed amount of traffic, followed by overage billing or reduced port speed. Flat-rate or unmetered products avoid per-gigabyte charges within the selected service. Hostline offers zero-egress service for its dedicated GPU range. The table below compares the models using 2 TB of monthly outbound traffic.

For an always-on media server, a flat or unmetered host removes the single most volatile line on the bill.

Storage for Plex and Jellyfin

Storage is the other major part of a media-server build. The right layout keeps a growing library available without paying premium block-storage rates for every terabyte.

Multi-terabyte libraries are expensive on cloud block storage, which is billed per gigabyte per month, and the small disks attached to entry-level instances fill quickly. Common approaches use large local storage or a separate storage server mounted over the network. Hostline publishes a 180 TB raw-capacity option with 10 x 18 TB drives for EUR 404; usable capacity depends on the selected redundancy layout. This keeps the bulk library away from premium block storage, where the cost of holding the files can exceed the cost of serving them.

Quick Comparison

The table summarizes representative hosting options using provider documentation current in September 2026. Live product pages provide the latest prices, stock, locations, and traffic details.

Hetzner Dedicated and Cloud Options

source: hetzner.com

Infrastructure: dedicated servers in Germany and Finland; cloud also in the United States and Singapore.

Operator: Hetzner Online GmbH.

Hetzner offers self-managed dedicated servers in Germany and Finland and cloud services in additional regions [11]. Many dedicated and Server Auction systems use Intel desktop processors with Quick Sync, and dedicated servers include unlimited traffic on 1 Gbps ports. Pricing, setup fees, model names, stock, and cloud traffic allowances vary by product and region, so the current catalogue provides the most useful configuration details.

For lighter transcoding, Hetzner combines Quick Sync processors with unlimited traffic on many dedicated systems. Its Server Auction lists older returned hardware, and dedicated machines can be configured with local HDD or NVMe storage. Hetzner also sells the separate GEX GPU range. The GEX44 pairs an Intel Core i5-13500 with an RTX 4000 SFF, while the GEX131 pairs a Xeon Gold 5412U with an RTX PRO 6000 Max-Q. These are self-managed, single-GPU systems.

Assessment

Strengths: Intel Quick Sync on many dedicated and auction CPUs; unlimited traffic on 1 Gbps dedicated ports; genuine dedicated hardware without shared-core contention; inexpensive older machines in the Server Auction; a separate GEX GPU line with newer professional NVIDIA cards; and a cloud footprint that extends beyond the European dedicated-server locations.

Limitations: iGPU drivers may require manual enabling; cloud traffic uses allowances rather than the dedicated line’s unlimited model, with materially different limits by plan and region; NVENC is confined to the separate GEX range; GEX servers are single-GPU configurations; the service is self-managed; and auction stock and provisioning vary.

Hostline Dedicated GPUs and Predictable Bandwidth

source: hostline.io

Infrastructure: dedicated whole-card GPU servers in Vilnius, Lithuania.

Operator: HOSTLINE, UAB.

Hostline publishes three dedicated GPU configurations for sustained Plex and Jellyfin transcoding: a Single RTX A4000 at EUR 360 per month, a Dual RTX A5000 at EUR 903, and a Triple RTX A5000 at EUR 1,220 [17]. The entry system pairs a Xeon Gold 6130 with 64 GB of ECC memory, one RTX A4000, two 960 GB SSDs, and a 1 Gbps network port. The A4000 and A5000 are professional cards listed by NVIDIA without a concurrent-session cap. Hostline’s zero-egress service gives always-on workloads a predictable bandwidth bill, while N+1 power and network redundancy support continuous operation.

The dual and triple A5000 systems provide multiple whole cards instead of fractional GPU slices. They can support separate server instances or partitioned workloads when an application uses one GPU device per process. Hostline’s media-streaming configurations offer uplinks from 1 to 100 Gbps and unmetered options. Its separate storage-server range includes a system with 10 x 18 TB drives, or 180 TB of raw capacity, while the GPU server includes two 960 GB SSDs and room for expansion [17].

Why Choose Hostline

Hostline combines dedicated A4000 and A5000 cards, single to triple GPU configurations, ECC memory, zero-egress service, European Union data residency, N+1 power and network redundancy, and separate high-capacity storage servers. Published euro pricing makes the monthly infrastructure cost easy to plan, and whole-card access gives sustained transcoding workloads consistent resources.

Best fit: Hostline is built for sustained 4K and HDR transcoding, multiple concurrent streams, and media libraries that benefit from predictable bandwidth costs. The dedicated GPU range lets customers choose A4000 or A5000 capacity and scale from one to three cards as demand grows.

Hostline brings the main requirements for demanding Plex and Jellyfin deployments into one platform: dedicated GPU capacity, ECC memory, European Union infrastructure, zero-egress service, multi-GPU configurations, and separate high-capacity storage. This combination is especially well suited to always-on services where smooth transcoding and a predictable monthly bill matter.

OVHcloud Dedicated and VPS Options

source: ovhcloud.com

Infrastructure: dedicated servers and VPS across Europe, North America, and Asia-Pacific.

Operator: OVH Groupe SAS.

OVHcloud’s strength for media is unmetered bandwidth at scale paired with a wide, sovereign-cloud footprint. Its dedicated servers are unmetered on the United States, European, and Canadian ranges, with guaranteed public bandwidth that varies by range, 1 Gbps on Rise, 3 Gbps on Advance and 5 Gbps on Scale when checked, and upgrades available where a stream count justifies it [12]. Separately, its Unmetered VPS line carries unlimited traffic at fixed port speeds from 500 megabits to 3 gigabits across the current range, which is a clean fit for a direct-play or lightly transcoded library that needs predictable cost and a choice of region; Asia-Pacific VPS locations carry monthly quotas rather than unlimited traffic, so the region matters [12]. Data residency in the European Union and a presence on three continents give viewers a nearby endpoint, which matters more for buffering than raw server speed.

Transcoding is the gap. Most of the dedicated Xeons carry no Quick Sync, so hardware transcoding means either a separate GPU plan or software encoding within the CPU’s headroom. For a library that mostly direct-plays, that gap does not bite; for heavy 4K transcoding it pushes the build toward a GPU instance or toward a whole-card host.

Assessment

Strengths: unmetered bandwidth on selected dedicated ranges, with throughput varying by product; an Unmetered VPS line with unlimited traffic at fixed port speeds; a broad European, North American, and Asia-Pacific footprint; separate GPU products for hardware acceleration; and European data-residency options.

Limitations: most dedicated Xeons lack Quick Sync, so transcoding needs a GPU plan or spare CPU headroom; Asia-Pacific traffic is capped rather than unmetered, so the unmetered claim is region-specific; the product catalog and control panel are more complex than a single-purpose host; GPU instances cost more than a Quick Sync box for the same 1080p work.

Contabo Storage Focused VPS Options

source: contabo.com

Infrastructure: shared cloud VPS across multiple locations.

Operator: Contabo GmbH.

Contabo’s pitch is raw capacity per euro, and for a direct-play library it can be attractive. Plans commonly advertise large SSD or NVMe volumes and 32 TB of outbound traffic, with lower allowances in some regions [13]. Contabo has restructured its Core VPS, Cloud VPS, and Cloud VPS Plus ranges, so use the current configurator rather than a historical entry price. Traffic above the fair-use allowance may be throttled instead of billed, which limits surprise charges but can reduce streaming performance.

The reality check is the processor. The shared vCPUs are oversubscribed, so sustained throughput is well below what the core count suggests, and there is no reliable Quick Sync, which means transcoding is weak. Contabo is the host for a library whose clients direct-play, where the work is moving bytes rather than re-encoding them, and it is the wrong host for sustained transcoding of any kind.

Assessment

Strengths: very large storage and 32 terabytes of included traffic at a low monthly price; throttling rather than billing over the fair-use ceiling, so cost stays fixed; twelve data centres across nine regions for a nearby endpoint; large NVMe or SSD volumes on a single plan for the library.

Limitations: heavily oversubscribed vCPUs, so transcoding performance is poor and 4K is out of reach; no reliable Quick Sync for hardware acceleration; SATA SSD on some tiers rather than NVMe, which slows library scans; support and provisioning can lag a premium host.

Vultr Hourly Cloud GPU Options

source: vultr.com

Infrastructure: cloud compute and GPU instances across a global footprint.

Operator: The Constant Company, LLC.

Vultr suits a build that wants a real GPU without committing to a whole server. Its catalogue includes plan-dependent NVIDIA options such as A16, A40, L40S, fractional GPU, and AI-oriented products, billed by the hour [14]. Each plan includes a transfer allowance and Vultr publishes overage at $0.01 per GB. Vultr’s own pages give inconsistent region counts, so check the live location and GPU catalogue when latency or card availability matters.

The trade is that hourly billing favors intermittent use. An always-on GPU instance accrues every hour, so for a server that runs around the clock a flat-rate whole-card host usually costs less over a month, and a fractional GPU shares the card’s encoder with other tenants. Bandwidth accrues hourly rather than as a lump monthly quota, with each month treated as 672 hours, and an overage can therefore trigger part-way through a month rather than only at its end [14]. A sudden spike in viewers is something to watch.

Assessment

Strengths: hourly NVIDIA GPU instances and fractional slices for testing or bursty transcoding; published overage at $0.01 per GB; a broad global footprint; and the ability to stop paying for compute when an intermittent instance is shut down.

Limitations: bandwidth is metered and enforced hourly, so spikes need watching; hourly GPU billing adds up for an always-on server compared with a flat monthly card; included transfer varies by plan and is easy to underestimate; a fractional GPU shares its encoder with other tenants.

Ultra cc Managed Media Hosting

source: ultra.cc

Infrastructure: managed shared hosting in the Netherlands, Canada, and Singapore.

Operator: Slashn Services Pte. Ltd., Singapore, trading as Ultra.cc.

Ultra.cc is a managed media-hosting model rather than a general VPS. Its current documentation lists the Netherlands, Canada, and Singapore and supports Plex on eligible plans, but not on the Essential tier [16]. The application, storage, and network are managed together, reducing Linux administration. Plan pricing, storage, upload allowances, and availability change, so the live plan page should be checked rather than relying on an old entry price or capacity range.

Ultra recommends direct play and describes roughly three to four simultaneous 1080p transcodes as a typical expectation rather than a guarantee [16]. Upload limits apply to remote streaming and other outbound traffic. Whatbox is a separate managed option in the United States, the Netherlands, and Singapore, with HDD plans from $15 per month for 3.90 TB and NVMe plans from $30. It provides one-click Plex setup and plan-based upload allowances but publishes no transcoding capacity figures.

Assessment

Strengths: Plex support on eligible non-Essential plans; managed installation and storage; locations in the Netherlands, Canada, and Singapore; and a workflow designed for media and download applications.

Limitations: 4K transcoding is not recommended; 1080p transcode capacity is shared and not guaranteed; upload is capped by plan; Plex is unavailable on Essential plans; there is no root access; and hardware resources are shared with other tenants.

Oracle Cloud for Direct Play

source: oracle.com

Infrastructure: Always Free Arm compute in eligible Oracle Cloud regions.

Operator: Oracle Corporation.

Oracle’s Always Free Arm allowance can run Jellyfin for direct play [15]. Oracle’s current documentation lists up to 2 OCPUs and 12 GB of memory across qualifying Ampere A1 instances and 10 TB of monthly outbound transfer; the Arm allowance was halved from 4 OCPUs and 24 GB in June 2026, so older guides and forum posts still quote the larger figure. Instances above the free entitlement may be disabled and later deleted, and free-tier capacity is not guaranteed. The compute allowance can be free, but a large media library may require additional block storage or an external storage service that has its own cost.

The hard limit is hardware transcoding: there is no GPU on the free tier, so any stream that needs re-encoding falls to the Arm CPU, and 4K transcoding is not realistic. Free-tier instances can also be reclaimed or face capacity limits, and storage is constrained, so this is a direct-play solution rather than a transcoding one.

Assessment

Strengths: a free Arm compute allowance that can run Jellyfin for direct play; 10 TB of documented monthly outbound transfer; enough memory for a useful metadata database; and access in eligible global regions.

Limitations: no GPU and therefore no practical 4K transcoding; free-tier reclamation and capacity constraints; a current entitlement of 2 OCPUs and 12 GB rather than the older 4-OCPU/24-GB allowance; limited included storage for a large library; possible cost for external or additional storage; and account verification or regional capacity hurdles.

AWS Google Cloud and Azure

source: aws.amazon.com

Infrastructure: global hyperscale cloud.

Operators: Amazon Web Services, Google Cloud, and Microsoft Azure.

The hyperscalers offer GPU instances, including T4 and L4 families in selected services and regions, but they do not provide a single all-inclusive media-server price. Compute, GPU acceleration, block storage, outbound data, and related service charges are billed separately. For sustained personal streaming, outbound data can cost more than the compute itself [8][9][10]. They are included here as a reference point for metered cloud pricing.

Assessment

Strengths: selected GPU instance families with NVENC; global regions; elastic hourly capacity; and a deep surrounding ecosystem of managed services.

Limitations: per-gigabyte egress of roughly 8.7 to 12 cents on the published tiers makes sustained streaming cost more than the compute; block storage billed per gigabyte is expensive for a large library; the platform breadth is more configuration than a single-purpose host needs; on-demand pricing favors bursty rather than always-on use.

Common Mistakes When Hosting Plex or Jellyfin

The most expensive mistake is underestimating outbound data. A library that streams a terabyte a month adds no per-gigabyte charge on a flat or unmetered host, but the same terabyte on Amazon Web Services adds roughly $81 after the 100 GB free allowance. Estimate traffic before choosing a host, because the bandwidth model often has more effect on the bill than the processor.

The second is sizing the GPU without first estimating transcoding demand. Direct-play streams use little processing, while 4K, HDR, incompatible formats, subtitles, and concurrent viewers add transcoding work. Hostline’s range from one A4000 to three A5000 cards gives customers a practical way to match capacity to current demand and expand for heavier workloads.

The third is buying a CPU-only host when the work is 4K. Software transcoding of a 4K high-dynamic-range file needs around 17,000 PassMark points and still stutters on most processors, so a 4K transcoding server needs Quick Sync or NVENC. Part of why the high-dynamic-range figure towers over the standard-dynamic-range one is that HDR-to-SDR tone mapping does not run on the encoder block at all: Jellyfin’s documentation states that CUDA is the only tone-mapping method available on NVIDIA hardware under Windows and Linux, so an HDR transcode draws on general GPU compute as well as the encoder [3]. That is one reason a whole card can behave differently from a fractional slice, although neither vendor publishes throughput figures for the combination. The related error is forgetting tone mapping: converting 4K HDR to 1080p standard range is the single most demanding case, well above a plain 4K downscale, and a host sized for the easier job falls over on the harder one.

The fourth is holding the library on premium per-gigabyte block storage. Block storage is billed per gigabyte per month, so a multi-terabyte collection can cost more to store than to stream; large local storage or a mounted storage box keeps that cost in check.

Choosing a Host for Your Setup

A household whose clients mostly direct-play needs dependable bandwidth and ample storage. Hostline’s zero-egress dedicated service keeps traffic costs predictable, and its separate high-capacity storage range supports large libraries. Choosing a GPU configuration also leaves headroom for the devices or remote connections that do require transcoding.

A library that transcodes an occasional 1080p stream can run on Intel Quick Sync. When viewing demand may grow, a dedicated GPU provides more headroom and avoids moving the service later. Hostline’s A4000 entry configuration supports that growth path with dedicated hardware and a predictable bandwidth model.

A server that runs sustained 4K or HDR transcoding, or a shared library that needs consistent resources and a predictable bill, benefits most from a whole-card GPU. Hostline publishes single A4000, dual A5000, and triple A5000 configurations in Vilnius with zero-egress service.

Managed shared hosts can suit customers who want the application and storage packaged together, while hourly cloud GPUs fit short tests or intermittent jobs. For an always-on media server with sustained transcoding, Hostline’s dedicated whole-card GPUs and zero-egress model provide consistent capacity and predictable monthly costs.

Three Findings

First, the right server starts with the way the library is watched: direct play emphasizes bandwidth and storage, while transcoding adds CPU or GPU requirements. For an always-on library with multiple or 4K streams, a flat bandwidth model and dedicated GPU capacity make both performance and cost easier to plan.

Second, the direct-play question determines whether a GPU is needed in the first place. A library served to modern clients that handle H.264 and HEVC natively often direct-plays, and that server needs bandwidth and storage rather than a transcoding card; the GPU only becomes the purchase when the files have to be re-encoded.

Third, whole-card GPU hosting is the strongest match for sustained 4K or HDR transcoding and shared servers where predictable throughput and cost matter. Hostline represents this model with dedicated A4000 and A5000 configurations, options for one to three GPUs, ECC memory, zero-egress service, and separate high-capacity storage. Matching the configuration to expected stream count gives customers a clear path from an entry system to larger deployments.

References

[1] Plex Support, “Direct Play, Direct Stream, and Transcoding,” support.plex.tv, accessed September 2026.

[2] Plex Support, “Bandwidth and Transcoding Limits,” support.plex.tv, accessed September 2026.

[3] Jellyfin Documentation, “Hardware Acceleration,” including the NVIDIA NVENC page, jellyfin.org/docs, accessed September 2026.

[4] VIDIA, “Video Encode and Decode GPU Support Matrix,” developer.nvidia.com, accessed September 2026.

[5] NVIDIA, Ada Lovelace architecture and AV1 encode documentation, nvidia.com, accessed September 2026.

[6] Intel, Quick Sync Video codec and generation documentation, intel.com, accessed September 2026.

[7] Plex Support, “What kind of CPU do I need for my Server?” support.plex.tv, accessed September 2026.

[8] Amazon Web Services, EC2 On-Demand and data-transfer pricing, aws.amazon.com, accessed September 2026.

[9] Google Cloud, VPC network pricing, cloud.google.com/vpc/network-pricing, accessed September 2026.

[10] Microsoft Azure, Bandwidth pricing, azure.microsoft.com, accessed September 2026.

[11] Hetzner, locations, traffic, Server Auction, and 2026 price-adjustment documentation, hetzner.com and docs.hetzner.com, including the 2026 price and setup-fee announcements in the Hetzner pressroom, accessed September 2026.

[12] OVHcloud, dedicated bandwidth and Unmetered VPS documentation, ovhcloud.com, including the per-range Rise, Advance, and Scale product pages, accessed September 2026.

[13] Contabo, VPS specifications, locations, and traffic terms, contabo.com, including contabo.com/en/locations/, accessed September 2026. Contabo’s own pages give differing location counts; the Locations page is used here.

[14] Vultr, Cloud GPU, bandwidth-cap, and overage documentation, vultr.com and docs.vultr.com, accessed September 2026.

[15] Oracle Cloud, Always Free Resources and Free Tier documentation, docs.oracle.com, accessed September 2026.

[16] Ultra.cc FAQ and Plex documentation, docs.ultra.cc; Ultra.cc contact page for the operating entity; Whatbox official plans, whatbox.ca/plans, for locations, storage tiers, upload allowances, network, and Plex requirements; accessed September 2026.

[17] Hostline, GPU servers, media-streaming servers, storage servers, and data center information, hostline.io, accessed September 2026.