With new devices being connected every day and emerging technologies like the Internet of Things (IoT), the metaverse and Web 3 gaining popularity, the demand for Internet capacity is booming. Already, these developments are shifting the Internet’s “center of gravity” from its core to the edges in order to keep up with the growing demand. In an increasingly interconnected world, centralized cloud architectures are proving to be bottlenecks hindering future growth.

Here are some interesting numbers to emphasize the explosive growth of connected devices and the impending data explosion:

• Back in 2018, 90% of global data creation took place within the two previous years.
• In 2022, 4.95 billion people are using the Internet and about 2.5 quintillion bytes of data are created on a daily basis.
• About 2 billion computers, 15 billion mobile devices and more than 22 billion IoT devices are active worldwide on a daily basis.
• By 2025, more than 1 billion people and 75 billion IoT devices are expected to join the Internet.

And yet, the expansion of Internet capacity still largely occurs in the same centralized and inefficient way. The client-server model of hyperscale data centers is unable to meet this rapidly growing demand due to high building and operational costs to fulfill bandwidth, performance and cybersecurity requirements. As data centers are primarily built in the US, China and Europe, emerging countries have to be connected via sea cables which makes the model’s limitations particularly severe for these countries. And even in countries where many data centers are located, they are built in regions where land and electricity are as cheap as possible. Consequently, the bulk of data centers is still far away from where the majority of users and connected devices reside, and where huge amounts of data are generated that require processing – resulting in a weak distribution of Internet capacity.

About 175 Zettabytes of data will be created by 2025, as our economy becomes increasingly digital and data driven. And this amount of data needs to be captured, stored and activated in a secure, efficient and high-performing way. So, the aforementioned technological use cases will not only accelerate the demand for Internet capacity but also require edge capabilities, such as low latencies, in order to run and scale successfully. In fact, the centralized data center model poses one of the biggest obstacles to the success and spread of the Internet of Things and related applications. This will have to change. Actually, industry experts expect 75% of data to be processed outside of the traditional data center or cloud model by 2025.

The rise of edge computing

Computing needs to be pushed from centralized data centers to the edge to support the massive data consumption coupled to the rise of connected devices and emerging technologies. For instance, as more and more home appliances and devices are getting interconnected through the IoT economy, the amount of real-time data generated within our homes on a daily basis is rapidly expanding. Edge computing tackles the shortcomings of the centralized model in terms of bandwidth, latency and autonomy. It enables applications and solutions to be hosted closer to where their data is being produced and consumed, thereby allowing for low latencies, rapid data processing and real-time decisions. 

The industry analyst company IDC estimates the global spending on edge computing to increase by 14.8% compared to 2021 – amounting to roughly $176 billion in 2022. By 2025, this number is predicted to reach about $274 billion.

The idea of edge computing’s ability to process data on-site is simple enough. Nevertheless, edge computing fails to deliver on its promise as it still remains somewhat centralized today. Granted, so-called edge data centers are closer to where the data is being consumed than hyperscale data centers. But while they do provide an improvement from traditional data centers, they are not able to provide far-edge capabilities, i.e. moving as close to the user and point of data creation as possible. They are simply smaller types of data centers that are still operated in a centralized manner, require the same infrastructure elements as centralized data centers, and usually rely on bigger, central data centers. Quite edgy isn’t it?

As the need for Internet capacity – specifically at the edge – is rapidly intensifying, a new approach to Internet infrastructure is clearly needed. The Web 3 movement created a spur of interest across industries due to its promise to decentralize the Internet and cloud as we know it. Future data will be generated at the edge of the network and Internet which certainly requires an architectural shift away from the current model.

Realizing an interconnected future

Ironically, decades after the spark of the open-source peer-to-peer Internet movement was steamrolled by large tech companies and governments eager to centralize the global Internet, we seem to enter an era of decentralization again. There’s no doubt that large tech companies did bring a lot of innovation to our global Internet and cloud stack. Technically though, peer-to-peer systems have always been the most scalable option. Moreover, open-source architectures have built a strong reputation for providing high levels of security and flexibility. 

In a peer-to-peer model, people and devices are able to exchange directly, without intermediaries or servers in the middle – leading to a more energy-efficient, scalable and flexible paradigm that can expand on-demand. And undoubtedly, open-source will play a key role in edge computing by simplifying and enhancing the building and deployment of software at the edge.

By leveraging open-source and peer-to-peer technologies, ThreeFold has come up with an Internet infrastructure that is capable of far-edge computing. ThreeFold offers a powerful set of compute primitives that provide the agility to create and deploy containers, Virtual Machines (VMs) and Kubernetes environments at the edge. Having integrated all leading industry-standard tools, ThreeFold’s solution allows for a seamless migration of any digital workload, making ThreeFold the ideal infrastructure for edge workloads. And all data produced by these workloads can be stored in a way that is ultra safe, highly reliable and unbreakable. Combined with end-to-end encrypted peer-to-peer networking, applications can be hosted closer to where the data is being consumed – representing the ideal underlying layer for IoT networks, blockchain-based workloads and more to run and scale at the edge seamlessly, efficiently and privately.

The shift towards the edge is inevitable. ThreeFold is the first full-stack, decentralized, peer-to-peer Internet infrastructure in the world that combines compute in the form of highly-optimized containers, storage and network capacity in an all-in-one solution. With  more than 81 Petabytes of capacity distributed across thousands of 3Nodes and 76 countries as well as plans to sponsor the expansion of the Internet to developing regions, ThreeFold is the foundation for a thriving interconnected future that is secure, borderless and at the edge.

• Expand the new Internet by setting up a 3Node at your home or office.
• Help us connect the dots and accelerate our far-edge capabilities.
• Join our global movement today.

After introducing the ThreeFold Grid in part one and diving deep into storage and compute, we’re back with part 4 to look at the networking aspects of the ThreeFold Grid.

Computer networking is a rather complex phenomenon with a thankfully intuitive outcome: you send messages from one place to another. We all understand that our digital devices become a lot less interesting when they are not connected to the Internet. However, networking is not just Internet, and when it comes to building a new Internet, it’s important to understand what that means.

The existing Internet can be defined as a global set of networks and protocols that enable us to do things like load web pages and use apps that rely on external data. It depends on lots of underlying infrastructure, including fiber optic cables running along the ocean floor, our home routers and their connection to an Internet service provider (ISP), lots of cell service towers, and an increasing number of satellites. All of that makes the Internet possible, and it’s still required for a new Internet to function.

ThreeFold uses and builds new protocols to create a network that is interoperable with the existing Internet. These include private overlay networks, the Planetary Network based on Yggdrasil, and various interfaces to the public Internet. Let’s see how they work.

🔗Private overlay networks

Every deployment on the ThreeFold Grid belongs to a network, which is one of the Grid primitives. These networks allow data to be transmitted between workloads in a private and secure manner. They are called overlay networks because they pass traffic over some underlying network. That could be within a single node or between nodes on infrastructure provided by a farmer. The Grid uses software called WireGuard for this purpose, a simple, fast, and secure option among its alternatives.

By means of encryption, the traffic on a private overlay network is unreadable to any other device on that network. Likewise, the workloads within the private network have no visibility of the underlying network. Individuals who deploy workloads can access their networks over a secure tunnel, assuming that one of the nodes in the network is reachable from the public Internet. This is suitable for workload administration and some private applications. For public services and peer-to-peer communication, the ThreeFold Grid provides other solutions.

🔗Planetary Network

The Planetary Network is an implementation of the Yggdrasil Network, which is a next generation approach to network routing. It is a peer-to-peer solution where all traffic is encrypted and takes the shortest path to its destination. These features make it highly compatible with the ethos and goals of the ThreeFold Grid: privacy, security, and efficiency. The design also allows nodes, workloads, and users to communicate freely without relying on centralized intermediaries.

Many ThreeFold Farmers connect their nodes to a home router which blocks all inbound traffic by default. This is a sensible feature that doesn’t interfere with most Internet usage (enthusiasts who want to host their own website or a gaming server might bypass this, for example). However, nodes on the Grid need to be reachable, especially in order to receive workload definitions from deployers.

The Planetary Network solves this by accepting inbound traffic through an outbound connection to a publicly accessible peer. You can think of this like making a call to an operator and then waiting for another call to be routed to you on that line. Even if your phone is set to block all incoming calls, someone can still reach you if they can reach the operator.

This also provides a way for workloads to communicate with one another and be reachable by users. Anyone can enable the Planetary Network on their own device to access sites and services in a very secure and private way. While the ThreeFold Grid is designed to be fully interoperable with the existing Internet, the Planetary Network provides an alternative which can sit side by side in a seamless way.

🔗Reliable Message Bus

Using the Planetary Network, nodes and Grid users can send messages over the Reliable Message Bus. Notably, it is used for the delivery of workload definitions as mentioned earlier. Zero-OS supports some other RMB messages as well, for doing things like checking available capacity on a node in real time. RMB is a general purpose protocol that can be used by developers in their applications. It queries the ThreeFold Blockchain as a kind of address book for the Planetary Network, enabling nodes and users to find each other in a decentralized way.

🔗Public IPs and Web Gateways

Finally, let’s see how the Grid can offer services over the public Internet using public IP addresses and web gateways. Everytime we type a domain name into our browser, like threefold.io, it is resolved to an IP address. The browser then forms a connection with that address to retrieve the site we’re looking for. Reviving a theme from earlier, that IP must be publicly reachable.

🔗Public IPs

We’re in the midst of a shift from the older IPv4 standard to the newer IPv6 standard. While IPv6 has plenty of addresses for every device on the planet and many more, it hasn’t been universally adopted yet, and IPv4 addresses are in short supply. You likely have one assigned to your router at home, and these days, even getting a second one from your ISP can be a difficult and expensive proposition.

The ThreeFold Grid allows farmers who own blocks of IPv4 addresses to rent them out to deployers. These addresses get attached to individual workloads which are then reachable over the public Internet. A deployer could then assign their own domain name to that IP and host a website there. This is a very flexible way to make Grid deployments publicly available, but it comes at a relatively high cost.

🔗Web Gateways

Web gateways are another way to make workloads on the ThreeFold Grid available over the public Internet. In this case, the farmer may provide a domain name that points to one of their nodes which is publicly reachable. Deployers are then able to reserve a subdomain, like explorer.threefold.io is a subdomain of threefold.io, that routes traffic to their workload. It is also possible for a deployer to point their own domain to the gateway node which then routes traffic to the appropriate workloads.

We glossed over a bit in the earlier description of domain name to IP address resolution. In fact, multiple domains can point to a single IP address and this is common practice among existing web hosts. Adding similar functionality to the Grid helps to ease the demand for IPv4 addresses and is a lower cost solution for deployers than renting a dedicated IP. The web gateway also serves to enhance security and reliability of Grid-hosted services.

The gateway provides a connection from the public Internet to the secure private overlay networks that all workloads use. However, this is not a standard network connection but instead a network socket, which provides security through separation. This is something like passing along the contents of mail pieces without their envelopes. Web gateways also enable redundancy, as multiple gateways can point to the same workload, and multiple workloads can serve the same set of gateways.

When we say the ThreeFold Grid scales limitlessly, this is one of the ways that’s true. Many nodes, many gateways, many applications, and many users can all fit into this model. Deployers can start with a single virtual machine and a single public IP like in the example I’ll use to wrap up this piece below, then ramp up to a globally distributed and highly redundant system as their requirements grow.

🔗Send, receive, complete

Now we’ve seen how the ThreeFold Grid handles networking. From private and secure communication between workloads, to next generation peer-to-peer communication and full compatibility with the existing Internet, these offerings are comprehensive. Not only that, but they can be pretty darn fun to play with too.

In my own recent experience, I deployed a virtual machine on the Grid with a public IP and hosted a simple website with a map of nodes on the Grid that I’d been working on. I was able to quickly share it with some colleagues and members of the community. It went from a project I was tinkering with on my own computer to a live site on the Internet in a matter of minutes, thanks especially to the networking features of the ThreeFold Grid.

For the final piece of this series, we’ll see how everything comes together to turn computer code into a meaningful digital experience. Stay tuned!

An example to illustrate this challenge is the fact that up to 60% of Ethereum (the world’s second most-popular blockchain) nodes run on centralized cloud providers and 25% of them run on Amazon Web Services (AWS).

While the topic is being addressed, it isn’t being solved at scale. The good news is that ThreeFold can play a large part in solving it.

Why should blockchains make this move?

The blockchain movement, as mentioned, is very heavily tied to the movement around decentralization. Cryptocurrencies represent the move away from centralized banks as the authorities and gatekeepers around money – just as ThreeFold and similar projects represent the move away from centralized clouds as the authorities and gatekeepers around data. The thing is, if blockchains are to rely on centralized cloud for hosting, they aren’t truly embodying decentralization.

Understandably, many blockchains have chosen centralized cloud providers in the past because there wasn’t much of an alternative. But now, the Decentralized Cloud (DeCloud) movement has changed all of that.

Here is how some specific audiences can benefit:

For Node Operators

Any full node or validator node can run on ThreeFold’s Peer-to-Peer (P2P) Cloud, making that particular Blockchain even more community-owned, and more decentralized from an IT/cloud level. Any node operator can choose to run their nodes from any farmer location on the ThreeFold Grid, totally peer-to-peer between the chosen farmer and the node operator. The deployed workloads are computed in a P2P manner, no middle party involved.

For dApp Developers

Web3/Blockchain developers can use ThreeFold’s P2P Cloud - offering both compute and storage - to build and power their applications in a truly decentralized cloud infrastructure, both blockchain-native and cloud-native. A strong advantage here is that developers have the ability to leverage Kubernetes, Docker, S3, and other cloud-native tools (all compatible / integrated with the ThreeFold) to power and optimize their data processing capabilities, as well as the overall functionality of their dApps. But the sweet spot is that it is deployed on a decentralized IT infrastructure, close to where users would be located.

But why choose ThreeFold over other DeCloud projects?

There may be bigger names in the space, but ThreeFold’s technology and offerings are much more comprehensive than the rest. ThreeFold provides decentralized storage, compute, and network all under one roof (whereas most other projects offer only one of the three) and as mentioned, we have created an environment for developers which is highly-compatible to the developer tools and solutions they use today. Further, ThreeFold is building new infrastructure from the ground up (rather than relying on extra space in data centers) and the technology is truly peer-to-peer.

We already have a number of partners in the space who recognize these advantages.

Any blockchain protocol or dApp, whether operating DeFi, NFTs, DEXs, etc, will at some point need to leverage the power of the decentralized cloud and escape from centralized cloud providers. We’re seeing some of that adoption from a decentralized storage side with IPFS, which has been adopted by many dApps, and others – but as a developer, you will have to think twice, not just about where your/your users’ data is being stored, but also about how (and where) your app is computed and powered.

Participate now in our quest to fully decentralize the Internet by becoming a node on our grid or buying TFT.

🔗What is compute?

While storage and network are fairly intuitive concepts – where data lives and how it gets around – compute is about the more mysterious realm of data processing and ultimately computer programming. Don’t worry though, you don’t need any technical abilities to gain a deeper understanding of what’s happening behind the scenes when we use apps or interact with web sites.

As mentioned in the first part of this series, compute is basically what happens with data once it reaches its destination. Compute gives data relevance, by processing it according to the instructions provided by developers in their source code. When talking about what the ThreeFold Grid offers in terms of compute, it’s mostly about how the code that developers produce gets executed in order to provide the services we enjoy.

With ThreeFold, this actually happens for the most part using the same tools and systems provided by traditional cloud services, meaning that it’s highly compatible with existing cloud applications. What really makes the Grid different is that it’s been designed to provide a level of efficiency and security that simply isn’t possible without starting “from the ground up”. Before we get into specifics of compute offerings built into ThreeFold’s Zero-OS, let’s briefly explore what computing is.

🔗Playing with zeroes and ones

Everything a computer’s central processing unit does is based on a limited set of instructions that includes basic mathematical functions, logical operations, and ways to control the flow of a program. At their core, computers are really just automated adding machines that execute specified operations on whatever input they receive. It may be hard to believe that simple math creates all of the vibrant digital experience we enjoy, but at a certain low level, that’s the truth.

Take a messaging app as an example. Within a computer, all of the text, emojis, and images we see are represented by numbers. When we search for some text within a chat, matches are determined by checking if the numbers corresponding to the words we typed are equal to some numbers corresponding to words that appear in the chat history. This information is then converted into the list of results we see on screen.

In this context, compute is mostly responsible for organizing all of our messages based on the individual or group we were talking with, the time that the message happened, and whether or not we’ve opened it yet. Typically, a messaging app stores data both on our local devices and on a back end in the cloud. Compute is also how the service decides to copy messages you sent on one device to other devices where you have the same app installed.

Here is an important distinction about how the ThreeFold Grid operates. In a traditional cloud environment, it is impossible to know for sure what is happening on the backend, even if you are the one running the service. The administrative access retained by the cloud provider can be used for surveillance and tampering that can be very difficult or impossible to detect.

Zero OS offers a unique assurance that no one can abuse the Grid in this way, because it operates autonomously with no facilities provided for human intervention. In order to utilize compute capacity on the Grid, individuals and organizations deploy their choice of several “primitives,” or basic components, that provide an environment for code to be executed and create the magic we experience as online applications.

🔗ThreeFold Compute Primitives

Since we’re getting a bit into the technical weeds here, we’ll just take a brief look at each primitive and what makes it special.

🔗Zmachine

Zmachine is a lightweight virtual machine (VM) implementation that’s been developed in a uniquely efficient way by ThreeFold. VMs are essentially computers within computers, allowing multiple operating systems to run on a single physical system. A common example is running the Windows operating system on a Mac that’s already running MacOS.

In the cloud world, virtual machines are a classic way to manage complex deployments with flexibility and resilience – by packaging different components into different VMs that can be run side by side and moved between different physical servers with ease. While VMs have been replaced in many cases with the new container paradigm, which we’ll cover next, they are still widely used and provide a simpler solution than containers that’s sufficient for many use cases.

🔗Flist

The Flist is a next generation container format which extends the industry standard Docker container concept in an efficient and secure way. It is supported directly at the operating system level on Zero OS, and in its latest version on ThreeFold Grid 3.0, provides a unique advantage over traditional containers via the use of mini virtual machines.

Containers provide greater efficiency and flexibility than VMs, by sharing parts of the host operating system between containers rather than duplicating the full operating system for each component. This, however, means that containers typically come with less of an assurance that different workloads and their data remain isolated from each other. By employing mini VMs, the Flist concept provides better isolation than traditional container systems while retaining the advantages that containers offer over full VMs.

🔗Kubernetes

Containers usually represent small parts of a full solution, which are created, interconnected, and destroyed on an ongoing basis. Kubernetes is the industry standard container orchestration system, and it’s used to manage many of the largest and most complex cloud deployments. Kubernetes solutions are defined through configuration files that specify the types of containers, how updates are handled, and the network architecture both between containers and with the outside world.

Multiple physical servers or VMs are typically used for a Kubernetes “cluster” which provides redundancy and scalability. The ThreeFold Grid provides a lightweight Kubernetes VM that can be used to create clusters according to specific needs. Kubernetes users can, for the most part, simply bring their existing configuration files and recreate their deployments on a Grid based cluster seamlessly.

🔗Wrapping up

Taken together, the compute primitives offer a comprehensive alternative to existing cloud compute providers. Users of Docker, Kubernetes, and virtual machines can bring their deployments to the Grid with a minimal amount of migration effort. This is distinct from other decentralized cloud projects, which either offer a single solution like Kubernetes or a completely new environment that developers must adapt their code to run within.

Better yet, each compute offering on the ThreeFold Grid benefits from the unique efficiency and security features of Zero OS, as well as the unique aspects of the primitives themselves. Thanks again for joining me on this journey into the wonderful world of ThreeFold technology. In the next episode, we’ll cover the last element of the cloud infrastructure triad: network.

Welcome back for the second part of this introductory series on ThreeFold Grid technology. Last time we took a high level view of all that the Grid offers. This time, we’ll be zooming in on storage, covering the low level components and how they can provide a familiar experience like the cloud “drives” and “boxes” we use today.

The ThreeFold Grid offers several different storage primitives that can be combined in various ways to meet the needs of developers and end users of Grid capacity. Ultimately, all storage services are a way of presenting the underlying hardware to software workloads in various ways, according to the desired features. ThreeFold has created a few unique storage offerings, providing distinct benefits over legacy cloud infrastructure. From the start, every component has been designed for optimal efficiency and they work together to offer an unprecedented level of security.

Our most basic storage primitive is a “volume”, which simply offers some disk space to an application in a generic way. We’ll focus more on the innovative solutions that are built on the Zero Database, or Zdb. These are compatible with existing use cases but also represent a quantum leap forward for privacy and security. They are called Zdbfs, Zstor, and QSFS. Let’s take a look at each component and how they work together to provide a complete set of tools for developers building on the Grid. We’ll also see why this matters to end users of services that are hosted on the Grid.

🔗Zdb

Zdb is a low level offering that implements with a subset of features from the popular Redis protocol. It is a key-value store, which means that information is indexed like a dictionary. Each “word” in the database is associated with a “definition” or piece of data. Zdb is super fast and efficient, along with operating in an “append only” manner. This means that all new data is added to empty space following the end of existing data, never overwritten. It’s like writing in pen on paper without leaving any white space.

Append only has many advantages, including extending the life of certain hardware and offering archiving features out of the box. The disadvantage, of course, is that old data is retained even when no longer needed. However, this can be addressed by periodically “compacting” the data, to remove what’s no longer needed and restructure what remains with the same level of efficiency. We use Zdb as a base layer for more complex storage implementations that benefit from these features.

🔗Zdbfs

While Zdb has all of those neat properties, it requires that applications utilize a specific database interface. To expand its capabilities, we have the Zdb Filesystem. With Zdbfs, the back end Zdb is exposed through the most common interface used for storing and retrieving data: a filesystem. This is the same format we’re all familiar with from the file explorers on our computers. When running Zdbfs, a new “folder” appears on the system, allowing reading and writing to the connected Zdb without any concern for the underlying database. With Zdbfs, nearly all existing tools for working with data can be plugged in to and benefit from the advantages of Zdb.

🔗Zstor

So far, we’ve been discussing solutions that utilize storage space on a single node only. While this offers flexibility for developers with a variety of needs, it is also limited in the sense that the failure of a single node would result in the loss of all data. With that in mind, we offer the Zstor solution for spreading data across multiple nodes in a way that provides both resilience against failures and unprecedented security.

Zstor takes a single file as input, to be stored among a number of nodes as specified in its configuration. The system is flexible and able to cater to different needs for performance, redundancy, and geographical distribution. Understanding what happens behind the scenes requires a little math, but I’ll provide as simple an explanation as I can. Zstor has a very unique property: it does not actually upload any of the user’s data to the back end nodes, but it is able to reconstruct the data later based on the descriptive information that is stored.

🔗The magic of erasure encoding

Sounds like magic? Well, let’s explore briefly how this is possible. Zstor relies on a technology known as erasure encoding, which was originally designed to protect data against errors that sometimes occur in the normal operation of computer hardware. Rather than simply making copies of the data as backups, a clever scheme is used to efficiently offer the same benefit. With basic redundancy, four extra copies would be needed to accommodate four failures without a loss of data. Erasure encoding can accomplish the same failure tolerance using less than half the space needed for the original data.

While erasure encoding can be implemented by storing the data itself along with some extra data known as “parity”, it can also be implemented without storing the original data at all. As a simplified example, let’s say that we want to store the number 13. First, we take each digit individually, 1 and 3. Next, we calculate 1 + 3 = 4 and 3 - 1 = 2. By storing 4 and 2, along with the instructions to reverse these calculations, we have everything needed to get back to 13. If we add one more equation, say 1 - 3 = -2, we can restore the original data using any two of the numbers we’ve computed.

Each of our values would be stored on separate nodes, while the instructions to recombine them would be stored in yet another location. If an attacker were to compromise one of these nodes, they would only have a number that’s meaningless without the other elements. If a single node fails, the original data can be restored using the remaining nodes, and we can add a new node to bring us back to our desired state. By tuning these values, additional security or redundancy can be achieved. We might decide that we want 9 of 10 values to be present for reconstruction, representing a high level of security. Alternatively, a 2 of 10 arrangement would provide high redundancy, tolerating the failure of 8 nodes.

🔗Quantum Safe Filesystem

With all of these components working together, we have ThreeFold’s flagship storage solution, the Quantum Safe Filesystem or QSFS. It uses Zstor to backup data written to a Zdbfs. This provides the convenient and highly compatible filesystem interface along with the exceptional security and redundancy benefits of Zstor. We call it quantum safe, because even an attacker with a quantum computer would not be able to decode users’ data, if they managed to hack into one of the back end nodes—already an extraordinary feat given the exceptional security of Zero OS.

🔗Bringing it home

So, we’ve toured a good bit of technology which might be feeling a bit abstract at this point. Bringing this home, our front end experience with these technologies can feel no different than any of the “drives” and “boxes” we use to store our files in the cloud. In fact, ThreeFold has already developed a prototype file browser based on QSFS which has many cool features like editing documents and viewing media directly in the web interface. It’s one piece of a full suite of solutions we’re excited to showcase and invite the community to test soon.

I hope you found this piece informative and approachable. Thanks for joining me to learn and explore the wonderful world of ThreeFold technology. We’ll cover more aspects of what makes it all tick in future parts of this series. Do you have questions or feel like chatting about what’s possible with ThreeFold’s technology? We’d love to hear from you on our forum or in our Telegram group.

🔗An Intro to the ThreeFold Grid

If you are a farmer or member of the ThreeFold community, you may be wondering about the capacity provided by the ThreeFold Grid and how it’s relevant to individuals and businesses who currently rely on centralized corporate clouds. This can be hard to imagine, because the back end infrastructure that makes all of our apps and services tick is generally invisible to us.

This piece will be the first in a series where I’ll be working to understand what the technical components are and how ThreeFold provides an alternative with distinct benefits for individuals, businesses, and for the planet as a whole. But don’t worry, we’ll start from the ground level and build up understanding in a way that’s accessible to everyone.

🔗Infrastructure for a New Internet

So, what is the internet? In short, it is a network of interconnected devices that facilitates communication and commerce. These devices include our mobile phones and personal computers, but also the servers that store and process data to provide the end experiences we enjoy. Currently the vast majority of these servers live in massive data centers controlled by a handful of corporations. ThreeFold is changing this, by allowing anyone to connect computational and storage capacity to an open network that is available for all to use, known as the ThreeFold Grid. Our farmers do include some data centers operating on a smaller scale than major cloud providers, and also many individuals connecting nodes at their home or office all over the world.

On the ThreeFold Grid, servers are known as 3Nodes. A 3Node can be pretty much any modern computer system, offering capacity by running the Zero OS operating system. This is a major distinguishing factor, both from the traditional cloud computing world and also from other projects working to create decentralized networks in this space.

🔗The OS for a Next Generation Cloud

By starting from the operating system level, ThreeFold is able to provide a network with much stronger security and greater efficiency than anything that came before. Zero OS includes a collection of components, known as “primitives”, which provide developers with everything they need. These primitives can be used to migrate existing applications from the legacy cloud and also to create new solutions that leverage the Grid’s capacity in unique ways.

We’re all familiar with operating systems like Windows and MacOS that provide an interface to applications on our personal computers. The OS interacts with the underlying hardware to expose its capabilities in a way that’s useful for both the software it hosts and also the humans who utilize it. For example, when you launch an app on your phone, it is the OS that’s responsible for connecting it to data networks and providing access to peripherals like cameras or microphones. Things are a little different in the world of servers, where rather than through direct interactions, users benefit through the services provided to the applications we use.

To extend the example, when you open a messaging app it will connect to a server somewhere to check for new messages and relay any messages you are sending to the recipient. Here we can see a central issue that has inspired the design of ThreeFold’s technology: when our messages pass through servers controlled by others, it creates an open door for surveillance of all kinds.

ThreeFold farmers, on the other hand, have no administrative access to their nodes. Furthermore, each component offered by the ThreeFold Grid is built with the intention of allowing for secure and private storage, processing, and transmission of information. Of course, sharing is absolutely possible, but only when the creator of data or content chooses for it to happen.

🔗Three Essential Resources

In the world of cloud computing, we speak of three basic resources provided by servers: compute, storage, and network. The ThreeFold Grid provides various primitives in each of these categories, to fulfill all the same needs served by centralized cloud providers. While our offerings have the special properties discussed above, they are also highly compatible with the most popular tools and protocols currently used in the industry. This makes it relatively simple to migrate the back end applications, also known as “workloads”, that provide a kind of connective tissue for all of the digital experiences we enjoy on a daily basis.

Workloads are pieces of software that provide services. If you upload a file to some cloud storage service, there could be a number of individual workloads orchestrated together in order to ensure the data you want to save is successfully transmitted to and stored in the back end system. We can understand the need for each kind of capacity by looking at the journey that your file might take in such a scenario. Starting on your device, a network connection, some processing, and finally storage capacity are all involved in providing the conditions that allow you to retrieve that file later.

🔗Network

Networking takes place over cellular connections, wifi, and wired internet lines to move data from one place to another. For our purposes here, those details aren’t so important—we’ll focus on what happens once communication is completed by whatever means.

When you connect to the cloud storage service, there are network workloads that transmit your data to the appropriate services that process and store it. This might consist of some routing and also authentication that ensures that you and only you access the files that are associated with your account. On the Grid, we provide primitives for secure peer to peer communication and also for allowing public access to back end services.

🔗Compute

Compute is what happens with data once it reaches its destination. Computers are mostly just fancy adding machines that take numbers and turn them into other numbers according to a set of specifications, which we call software. In our example, the compute step might involve compressing the information so it takes up less space and also deriving some useful statistics like the file’s original size.

Of course, there are many details we’re glossing over here, and the compute resources are ultimately responsible for providing much of our end user experience and the interactivity of the apps we utilize. 3Nodes offer a compute environment that natively runs the vast majority of workloads in use today.

🔗Storage

Storage, of course, is the disk space where data resides. It can be a little strange to think about, actually, that all of the information you’ve stored online actually has at least one physical location where it exists as many small electrical charges. On the Grid, application developers can access the disks of nodes directly, in a way that’s optimized for energy efficiency.

We also have more advanced storage solutions that offer unparalleled security and low overhead redundancy, giving users the best possible guarantee that only they have access to their data and that it will actually be there when they go to retrieve it.

🔗Looking Forward

Taken together, network, storage, and compute are the raw elements that give life to the internet we know and love. On the ThreeFold Grid, these elements are expressed in a way that’s both familiar for developers but also pushes the limits of what is possible in terms of technical evolution.

Thanks so much for joining me on this introductory overview of what the Grid provides. Please join me next time for a deeper dive on some of what we’ve covered and more specifics about how ThreeFold technology represents a quantum leap for cloud computing.