Why We Built an Open-Source Mux Alternative in Rust: The True Cost of Per-Minute Billing
Compare Mux and self-hosted video infrastructure, understand the true cost of per-minute billing, and see why OllaNode chose Rust and Apache-2.0.
There is a moment in almost every video product’s growth story when the infrastructure bill stops feeling like a rounding error. Your application is working. Users are uploading videos. People are actually watching them. The product is succeeding — and the video invoice is succeeding right alongside it.
That is the part nobody puts in the architecture diagram.
Managed video platforms such as Mux make video infrastructure dramatically easier to ship. You can send a video through an API, wait for processing, receive a playback ID, and let the provider handle encoding, storage, delivery, and scaling. That convenience is real, and it is valuable.
But convenience and ownership are different things.
When your catalog grows, you are not only paying for the bytes behind your video product. You are paying according to a pricing abstraction chosen by the provider: minutes uploaded or encoded, minutes stored, minutes delivered, resolution tiers, quality tiers, and sometimes additional services. Mux itself explains that its Video pricing is divided into input, storage, and delivery, with video charged by minute.
We built OllaNode because we wanted another option: a video infrastructure platform that developers can run themselves, inspect, modify, and operate without a mandatory per-minute SaaS billing layer.
And we chose Rust because the infrastructure underneath a serious video platform deserves a systems language that is fast, explicit, memory-safe, and comfortable with concurrent workloads.
This is not an article arguing that Mux is bad. It is a practical comparison of two different infrastructure models: renting a managed video platform versus owning the video stack. The right answer depends on your product, team, traffic, and operational priorities.
Quick Answer: Is Mux the Same as a Self-Hosted Video Platform?
No. Mux is a managed video infrastructure service, while a self-hosted video platform vs SaaS Mux alternative gives you control over the software and the infrastructure that runs it.
Mux is designed to remove operational work: you use its APIs and it handles the underlying video infrastructure for you. OllaNode takes the opposite approach. It is designed as self-hosted, API-first video infrastructure that you can run on hardware or cloud infrastructure you control.
The trade-off is straightforward:
- Managed video: less infrastructure work, faster initial implementation, usage-based vendor billing, and less control over the underlying stack.
- Self-hosted video: more operational responsibility, greater infrastructure control, more customization, and a cost model based on the infrastructure you operate rather than a vendor’s per-minute meter. See our Platform Feature Comparison.
Neither model is universally better. The important question is whether your team wants to optimize for convenience or long-term control.
Key Takeaways
- Managed vs. Self-Hosted: Mux is a managed video platform; OllaNode is a self-hosted video infrastructure platform. See OllaNode Platform Overview.
- Pricing Dynamics: Per-minute pricing can be attractive at low or predictable usage, but the bill grows rapidly with encoded, stored, and delivered video usage. Compare details on OllaNode Pricing.
- Infrastructure Ownership: A self-hosted model replaces vendor usage charges with infrastructure costs such as compute, storage, bandwidth, and operations.
- Rust Performance: OllaNode uses Rust and an event-driven architecture to build the video control plane as software you can inspect and modify.
- Predictable Economics: The goal is not to eliminate video infrastructure costs; it is to give teams more control over where those costs come from and how the system works. Review our System Architecture.
The Real Problem With Per-Minute Video Billing
Per-minute pricing is easy to understand on paper. A video has a duration, so a provider can charge for the number of minutes encoded, stored, or streamed. Mux explicitly describes its pricing in these terms: input, storage, and delivery are separate usage dimensions.
The problem starts when your product becomes successful.
Imagine a learning platform with 10,000 hours of recorded courses. Then add a creator dashboard where instructors upload new content every week. Then add students watching those courses every day. Your business has three independent usage curves: the library is growing, new video is being processed, and existing video is being delivered to viewers.
A per-minute model maps all three curves into a recurring vendor bill.
That is not inherently unfair. A managed provider has real infrastructure costs. Encoding consumes compute, storage consumes capacity, and delivery consumes network resources. The provider is charging for real work.
The question is whether the pricing abstraction still fits your business as you scale.
A small product might have a few hundred minutes stored and a few thousand minutes delivered each month. A larger product might have millions of minutes stored and tens of millions of minutes delivered. The same pricing model applies at both stages, even though the economic profile of the business can be completely different.
This is why we call the issue the true cost of per-minute billing. The cost is not simply the published rate. It is the way a usage meter follows your product’s growth.
What Does Mux Charge For?
Mux currently separates Video pricing into input, storage, and delivery. Its official pricing documentation states that customers are charged by minute for video input, storage, and delivery, with rates varying by quality, resolution, and usage tier.
For example, Mux’s current public pricing shows starting rates for storage and delivery and different rates for higher resolutions and quality levels. Its public pricing page currently lists storage starting at $0.0024 per minute and delivery starting at $0.0008 per minute, while higher quality and resolution tiers cost more.
Those numbers are useful for budgeting, but they should not be treated as a universal estimate. Your actual bill depends on how much video you process, store, and deliver, the resolutions you use, the applicable tier, and other features.
The more important point for an architecture decision is that the provider’s meter is attached to video activity. More uploads, more stored content, and more viewing can mean more billable usage.
Mux has also explained why it chooses minutes rather than bytes: its view is that minutes correlate more naturally with video usage and let the provider optimize encoding, storage, and delivery behind the scenes.
That is a reasonable argument for a managed service. But from the customer’s perspective, the abstraction still means that growth creates recurring usage charges.
A self-hosted architecture changes the question from “How many billable minutes will the provider measure?” to “What infrastructure do we need to run this workload efficiently?”
Per-Minute Billing vs. Infrastructure Cost
This is where a fair comparison matters. Saying “self-hosting is cheaper” without doing the math would be misleading.
Self-hosting is not free. You still pay for:
- Compute for API services and video workers
- Object storage (see OllaNode Object Storage Docs)
- Network transfer & CDN edge bandwidth (see Edge CDN Delivery Docs)
- Databases, queues, and orchestration
- Monitoring, logging, and backups
- Infrastructure operations and engineering time
The difference is that these are infrastructure costs you control rather than a single vendor’s usage meter.
Consider a simple conceptual example. A platform stores a large catalog of educational videos. Most of the catalog is older content, while a smaller percentage is watched heavily every month. With a managed service, storage and delivery remain part of the provider’s billing model. With self-hosting, the team can choose storage tiers, caching strategy, CDN architecture, retention rules, and infrastructure topology based on its own access patterns.
The savings, if any, come from optimization and control — not magic.
This distinction is important for engineering decisions. A self-hosted platform can reduce vendor lock-in and change the shape of your costs, but it does not remove the underlying economics of compute, storage, and bandwidth.
The best reason to self-host is therefore not “servers are free.” It is “we want control over the system that creates the bill.”
A Simple Cost Model for Video Infrastructure
A useful way to compare a managed video service with self-hosted infrastructure is to separate the workload into the same underlying resources.
For a managed platform, your conceptual monthly cost looks like:
$$\text{Managed Video Cost} = \text{Input/Encoding} + \text{Storage} + \text{Delivery} + \text{Optional Services}$$
For a self-hosted platform:
$$\text{Self-Hosted Cost} = \text{Compute} + \text{Storage} + \text{Network} + \text{CDN} + \text{Operations} + \text{Engineering}$$
The numbers will vary by workload, but the categories help you compare like with like.
Suppose your product processes 100,000 minutes of video each month. That number alone tells you very little. You also need to know what resolutions are being generated, how often videos are watched, how much content is retained, how much traffic is delivered from cache, what storage class is used, what percentage of processing requires GPU acceleration, how many regions need to serve users, and how much operational redundancy is required.
A 100,000-minute catalog with light viewing can have a very different cost profile from a 100,000-minute catalog that is streamed heavily every day.
This is why we recommend building a workload model before deciding between managed and self-hosted infrastructure. Pricing calculators are useful, but your architecture should be based on actual traffic patterns rather than one headline rate.
Why We Chose Open Source
The second part of the Mux alternative question is not pricing. It is ownership.
If the only difference were a monthly invoice, we could have built another hosted video SaaS and called it a day.
We wanted developers to be able to answer a more fundamental question: What exactly happens to my video after I upload it?
In a closed managed platform, you interact with an API and trust the service behind it. That is a perfectly reasonable model for many teams. But infrastructure teams often need more: inspectability, custom integrations, deployment control, security review, and the ability to change behavior without waiting for a vendor roadmap.
OllaNode is licensed under Apache-2.0. The project follows a permissive-OSS-only dependency approach so the platform can remain adaptable for teams that want to inspect, modify, fork, and commercially deploy their video infrastructure.
Open source also changes the migration conversation. If your application depends on a managed API, switching providers can require rewriting integrations, moving assets, changing playback URLs, rethinking webhooks, and rebuilding operational workflows.
With self-hosted software, the source code is part of your deployment asset. You can adapt the platform to your environment rather than treating the platform as an external black box.
Why Rust?
Choosing Rust was not a branding decision. It was an infrastructure decision.
A video platform has several characteristics that make systems-level engineering important:
- Long-running background jobs
- High concurrency HTTP services
- Network-heavy data transfer
- CPU-intensive coordination around transcoding
- Storage and CDN interactions
- APIs that need predictable behavior
- Workers that must remain stable under load
- Multiple services communicating through asynchronous events
Rust gives OllaNode memory safety without requiring a garbage collector, strong compile-time guarantees, efficient concurrency primitives, and a mature ecosystem for building high-performance network services.
OllaNode is structured as a Rust and NATS transcoding pipeline rather than one giant application. The architecture separates domain logic from infrastructure adapters, which makes it easier to reason about the system and replace individual integrations.
The point is not that Rust automatically makes a video platform fast. The underlying media workloads still do the heavy lifting for encoding. The point is that the control plane coordinating those workloads should be predictable, efficient, and maintainable.
We wanted the code that decides what happens to a video — when it enters the system, how processing is queued, when assets become available, what gets delivered, and which permissions apply — to be infrastructure software we could reason about at the systems level.
OllaNode vs. Mux: The Architecture Difference
The simplest way to understand OllaNode as a Mux alternative is to compare the responsibilities of the two models.
| Dimension | Managed Mux Model | Self-Hosted OllaNode Model |
|---|---|---|
| Control Plane | Managed SaaS vendor dashboard & API | Self-hosted Rust control plane on your servers |
| Billing Abstraction | Per-minute encoding, storage & delivery fees | Bare infrastructure (compute, object storage, CDN bandwidth) |
| Code Ownership | Proprietary closed-source SaaS | Apache-2.0 open source |
| Data Residency | Vendor-hosted cloud regions | Your hardware, VPC, or preferred cloud account |
| Operational Work | Minimal infrastructure operations | Your team manages compute, queue, storage & scaling |
| Customization | Standard vendor features & roadmaps | Full source access to inspect, modify, and extend |
That creates a different responsibility boundary. Managed video minimizes infrastructure work. Self-hosted video moves more of that responsibility back to your team in exchange for control. That is the central comparison, and it is more important than any individual feature checkbox.
The Hidden Cost of Vendor Lock-In
The most visible line on a video invoice is rarely the most important long-term cost.
Lock-in is a form of technical debt. It can appear in asset identifiers, playback URLs, API schemas, webhooks, authentication, player integrations, encoding workflows, analytics, storage layouts, and operational tooling.
None of those are necessarily bad. In fact, a good managed provider makes them easy to use. The problem appears when your requirements change.
Maybe you need to move data into a specific region. Maybe your compliance team wants direct control over storage. Maybe your product needs a custom processing stage. Maybe you want to change how thumbnails are generated. Maybe your organization wants to run the entire video stack inside a private cloud.
At that point, the question is no longer “Can the provider do video?” It is “Can the provider do video exactly the way our infrastructure needs it to work?”
Open-source infrastructure gives you another answer: if the platform does not behave the way you need, you can change it.
That does not mean every team should fork its video platform. Most should not. But having the option is valuable.
The OllaNode VOD Pipeline
OllaNode is designed around an asynchronous, event-driven VOD pipeline. The goal is to make video processing a workflow rather than a blocking API request.
Conceptually, the pipeline looks like:
$$\text{Upload} \longrightarrow \text{Validate} \longrightarrow \text{Metadata} \longrightarrow \text{Transcode} \longrightarrow \text{HLS} \longrightarrow \text{Thumbnails} \longrightarrow \text{Transcript} \longrightarrow \text{Storage} \longrightarrow \text{Webhook} \longrightarrow \text{Ready}$$
That design matters for cost as well as reliability. A synchronous request that waits for video processing is difficult to scale. A queue-based workflow lets API services hand long-running jobs to workers and allows the system to process work independently. Learn more in our VOD Pipeline Documentation.
OllaNode’s architecture uses an event bus by default for event-driven job orchestration, with a workflow engine available as an optional alternative. The first open-source video pipeline](/blog/setting-up-first-open-source-video-pipeline-ollanode) can produce adaptive HLS renditions, thumbnails, transcripts, and delivery assets without forcing the API request to remain open.
The important comparison point is that OllaNode is not simply “an encoder in a Docker container.” A standalone encoder is a powerful media processing tool. A video platform needs the systems around it: job orchestration, authentication, storage, playback security, CDN delivery, webhooks, monitoring, and APIs.
That is the infrastructure layer OllaNode is designed to provide.
What About CDN and Delivery Costs?
Delivery is where video economics can become especially interesting.
A managed video provider makes delivery simple because the provider handles CDN relationships, caching, routing, and the underlying network architecture. You pay according to the provider’s delivery model.
Mux currently calculates delivery based on minutes of video delivered, measuring the seconds sent to the video player. Its documentation also notes that buffered video can count as delivered even if the viewer does not ultimately watch those seconds.
A self-hosted architecture gives you a different set of levers. You can decide which CDN to use, how aggressively to cache content, where origin storage lives, how long content stays at the edge, how traffic is routed, which regions need dedicated capacity, how origin protection works, and whether to add custom edge logic.
These decisions do not make bandwidth free. They give you more control over how bandwidth is purchased and delivered.
OllaNode includes CDN pull-zone capabilities with configurable TTLs, CORS rules, edge rules, hotlink token signing, cache purging, and traffic analytics. The purpose is to make delivery part of the same infrastructure model rather than a completely separate vendor dependency.
When a Mux Alternative Actually Makes Sense
A self-hosted Mux alternative is not automatically the right choice for every application. Here are the strongest signals that it may be worth evaluating:
- Your video catalog is becoming a major asset: If your company has accumulated thousands of hours of valuable video, data ownership becomes more important. You may want the ability to control where that content lives and how it is backed up.
- Your viewing volume is predictable and large: When workloads become substantial, infrastructure teams can model compute, storage, and delivery costs directly. That can make a self-hosted architecture easier to optimize.
- You have strict data-residency requirements: Healthcare, finance, education, government, and enterprise workloads may require precise infrastructure boundaries. Running the stack in infrastructure you control can simplify that conversation.
- You need custom infrastructure behavior: If you need a specific storage backend, edge rule, encryption workflow, processing stage, or deployment topology, source-level control can be valuable.
- You want to avoid a single vendor becoming a permanent dependency: Open-source software gives your team an exit path. You can continue operating the software even if your preferred hosting arrangement changes.
- You have infrastructure engineering capability: Self-hosting comes with responsibility. If your team has platform, DevOps, or infrastructure experience, the operational trade-off becomes easier to manage.
When Mux May Still Be the Better Choice
A fair comparison has to include the other side:
- You want to ship video features quickly without touching servers.
- You have a small engineering team with no dedicated platform engineers.
- You do not want to operate encoding workers or manage database clusters.
- You do not want to manage storage bucket lifecycle policies and CDN configurations.
- Your usage is small, unpredictable, or short-lived.
- Your team values managed reliability more than infrastructure control.
- Your product needs managed live streaming today (OllaNode currently focuses on VOD).
Mux has invested heavily in simplifying video infrastructure, and its current product supports both on-demand and live workflows. The point of an open-source Mux alternative is not to pretend managed services have no value. The point is to give developers a choice when the trade-offs change.
A Better Way to Compare Video Infrastructure
Instead of asking “Which video platform is cheapest?”, ask a larger set of questions:
- Cost: What are we paying for input? What are we paying for storage? What are we paying for delivery? What infrastructure would we need to run ourselves? How does the cost behave when usage doubles?
- Control: Where does our video data live? Can we choose storage? Can we choose deployment regions? Can we inspect and modify the software?
- Engineering: How much operational work does the platform remove? How much work does self-hosting add? Does our team have the skills to operate the stack?
- Security: How are playback URLs protected? How are origins protected? Where are encryption keys handled? Can we audit infrastructure behavior? Review API Security & Keys.
- Scalability: Can the processing pipeline scale independently? Can CDN capacity scale separately from API capacity? Can workloads run across multiple regions?
- Exit strategy: How difficult would it be to move our video library? How much of our application is tied to the provider’s API? Can we keep operating the software if our hosting arrangement changes?
These questions produce a much more useful architecture decision than comparing two numbers on a pricing page.
Why We Think the Mux Alternative Category Needs Open Source
The video infrastructure market has done an excellent job making video easier for developers. The next step is making infrastructure ownership easier too.
There is a large middle ground between “I want to build every piece of video infrastructure myself” and “I want a vendor to own every piece of my video infrastructure.”
OllaNode is built for that middle ground.
You get a unified API and a structured video pipeline, but the software remains yours to run. You can deploy it on your infrastructure, inspect the architecture, customize integrations, and build the surrounding operational model around your own requirements.
For developers, that means the conversation changes from “Which vendor has the feature I need?” to “How do I want my video infrastructure to work?”
That is the real reason we built an open-source Mux alternative in Rust.
This is also why OllaNode does not position itself around a promise that every workload will be cheaper. The value proposition is control: control over the software, the deployment, the storage, the delivery architecture, the data, and ultimately the cost model.
A Note on Pricing Comparisons
Cloud compute prices, storage prices, CDN rates, GPU availability, and network costs vary by provider and region. A responsible TCO model should use the actual infrastructure options available to your team rather than assuming one generic cloud price.
Pricing pages are snapshots, not permanent contracts. Mux has changed its pricing over time, including reductions to encoding, storage, and delivery pricing, so any comparison that quotes a rate should be tied to a date and checked against the current official pricing page.
Cost Scenarios: Where the Economics Can Change
The Right Question Is Not “Mux or OllaNode?” There is no single break-even point between the two — the answer depends on workload. A useful way to think about the economics is through scenarios rather than a universal claim:
- Scenario 1 — Small application with low traffic: A managed platform may win because the operational overhead of self-hosting is larger than the infrastructure bill. Paying a provider to absorb complexity can be economically rational when the video workload is small.
- Scenario 2 — Growing catalog with predictable traffic: This is where self-hosting becomes more interesting. If the team can forecast storage, compute, and delivery requirements, it can provision capacity deliberately and optimize the stack around its actual workload rather than paying a vendor for every unit of usage.
- Scenario 3 — Large catalog with a long tail of rarely watched content: Storage strategy becomes important. A self-hosted architecture can use storage tiers, lifecycle rules, backups, and caching policies based on the organization’s own retention requirements.
- Scenario 4 — High viewing volume: Delivery and caching become central. A self-hosted team can select a CDN, tune cache behavior, protect the origin, and distribute traffic according to its own architecture.
- Scenario 5 — Regulated workload: Cost is only one factor. Data residency, auditability, deployment boundaries, encryption, access controls, and operational evidence can become more important than the lowest monthly bill.
What Changes When You Own the Video Stack?
Self-hosting changes more than the invoice. It changes the boundary between your application team and your infrastructure team. With a managed provider, the provider absorbs many operational decisions. With OllaNode, those decisions become visible and configurable.
That visibility can be a benefit. You can see where compute is used, choose how workers scale, tune caching, select storage, decide where logs are retained, and build monitoring around the metrics your team actually cares about. It can also be work. Someone has to patch systems, monitor capacity, rotate credentials, review logs, test backups, and respond to incidents.
For that reason, self-hosting should be treated as an operating model rather than a checkbox. If the organization has no one responsible for infrastructure, simply installing an open-source video platform does not create a reliable production service. The architecture is only half the solution; ownership of the operations is the other half.
A Practical Migration Checklist: Mux to a Self-Hosted Video Stack
Switching video infrastructure is not only an API exercise. A production migration touches assets, playback, storage, processing, authentication, webhooks, observability, and the application code that connects all of them. A good migration plan starts by mapping those dependencies before moving a single production video:
- Inventory the video catalog: Map asset count, average duration, resolutions, source files, captions, thumbnails, metadata, playback policies, and retention requirements. Identify actively watched vs. long-tail content.
- Map application integrations: Look for API calls that create assets, upload files, check processing status, receive webhooks, generate playback URLs, and manage access. Search your codebase for provider-specific IDs and URLs.
- Separate control-plane and data-plane work: Control-plane includes projects, API keys, metadata, policies, and webhooks. Data-plane includes source videos, processed renditions, thumbnails, transcripts, and delivery assets.
- Run a representative pilot: Test with short and long videos, different resolutions, captions, large files, frequently watched assets, and content that exercises your security rules.
What OllaNode Does Not Promise
We would rather be clear about the trade-offs than turn this into a one-sided sales pitch:
- Operational Responsibility: OllaNode is self-hosted software. You are responsible for provisioning compute, storage, network capacity, monitoring, backups, and operational processes appropriate for your workload.
- VOD Focus: OllaNode is currently focused on video-on-demand (VOD) rather than live streaming. There is no RTMP ingest or live-streaming support today.
- HLS Manifest Format: HLS is currently the supported manifest format. The underlying CMAF/fMP4 packaging provides a foundation for future DASH support, but DASH should not be treated as a currently shipped manifest option.
- No Built-in SaaS Metering: There is no built-in metered billing engine in the self-hosted platform. OllaNode is infrastructure software, not a per-minute SaaS meter.
Who Should Consider OllaNode?
- Platform and infrastructure teams building products where video is a core capability.
- Course platforms, creator tools, media libraries, and SaaS products with growing video catalogs.
- Organizations with data-residency or infrastructure-control requirements.
- Startups that want to understand and control the long-term economics of video delivery.
- Teams building AI-native products that need governed programmatic access to video infrastructure (see AI-Agent Governance).
- Developers who want to inspect and modify the software running their video stack.
Explore the platform at OllaNode Homepage or inspect our Open-Source Documentation.
Frequently Asked Questions
What is a Mux alternative?
A Mux alternative is another platform or architecture for building video workflows such as ingestion, encoding, storage, playback, and delivery. Alternatives can be managed SaaS products or self-hosted platforms. OllaNode is a self-hosted, open-source option.
Is OllaNode a free Mux alternative?
OllaNode is Apache-2.0 self-hosted software, so the software itself can be run and modified under the license. You still pay for the compute, storage, bandwidth, and other infrastructure required to operate it.
Is self-hosted video cheaper than Mux?
It can be, depending on workload, infrastructure efficiency, traffic, storage strategy, and operational costs. Self-hosting does not eliminate video costs; it changes the cost model from vendor usage billing to infrastructure ownership and operations. Compare details on our Pricing Page.
How does Mux pricing work?
Mux currently separates Video pricing into input, storage, and delivery, and charges by minute with rates that vary by quality, resolution, and volume tier. Check Mux’s current official pricing before making a purchasing decision because rates and product options can change.
Why does Mux charge by minute?
Mux explains that minutes are intended to be a useful abstraction for video infrastructure because the value and workload of video are closely connected to duration. Its pricing model measures input, storage, and delivery in minutes.
Why did OllaNode choose Rust?
OllaNode uses Rust for its control-plane and infrastructure services because the platform needs predictable performance, memory safety, concurrency, and maintainable systems-level code.
Is OllaNode really open source?
OllaNode is licensed under Apache-2.0. The project also follows a permissive-OSS-only dependency approach so the stack can remain adaptable for teams that need to inspect, modify, fork, and commercially deploy it.
Can I run OllaNode on my own cloud account?
Yes. OllaNode is designed to run on infrastructure you control, including cloud environments (AWS, GCP, Azure, Bare-metal). The exact deployment architecture should be sized according to your video processing, storage, and delivery workload.
Does OllaNode support live streaming?
Not currently. OllaNode is focused on video-on-demand and does not currently provide RTMP ingest or live streaming.
Is OllaNode a drop-in replacement for the Mux API?
No. OllaNode is an alternative architecture and platform, not a claim of API compatibility with Mux. Migrating an application requires evaluating API integration, playback, webhooks, asset workflows, and operational requirements.
What is the biggest advantage of a self-hosted Mux alternative?
Control. You can decide where the software runs, where data is stored, how infrastructure is configured, and how the system is customized. The trade-off is that your team also owns the operational responsibility.
What is the biggest disadvantage of self-hosting?
Operational responsibility. Your team must manage compute, storage, networking, monitoring, backups, upgrades, security, and capacity planning. Self-hosting is most attractive when the benefits of control justify that work.
Final Takeaway
The true cost of a managed video platform is not simply the number printed on a pricing page. It is the relationship between your product’s growth, the provider’s billing model, the infrastructure you control, and the amount of operational work your team is willing to own.
Mux is a strong managed video platform, and per-minute pricing can be a sensible abstraction for many teams. The question is what happens when your catalog, audience, compliance requirements, or infrastructure needs grow beyond the assumptions that made the managed model attractive in the first place.
We built OllaNode for the teams that want another path.
It is a self-hosted, API-first video platform built in Rust and released under Apache-2.0. It brings together VOD processing, HLS delivery, CDN, storage, DNS, edge functions, webhooks, security, and AI-agent governance under a control plane you can run yourself.
The goal is not to claim that self-hosting is always cheaper. The goal is to make the cost, architecture, and ownership decisions yours.
If the first question you ask about your next video platform is “How much will we pay per minute?”, it may be worth asking a second question: What would our video infrastructure look like if we owned it?
That is the question OllaNode was built to answer.
Pricing Source Note: Current Mux pricing references in this article are based on Mux’s official pricing documentation and public product pages accessed in August 2026. Pricing can change; verify current rates directly with Mux before using figures for procurement or financial planning.