Top DePIN Projects 2024: DePIN Crypto to Watch!

The most apparent narrative that marks the crypto theme in 2024 and the current market cycle is the integration of Web3 with the physical world. The explosive growth of Tokenized Real-World Assets (RWAs) and the burgeoning innovation of Decentralized Physical Infrastructure Networks (DePIN) exemplify this trend.

At its core, blockchain technology pioneered decentralized networks and Web3. Now, DePIN takes this innovation a step further by decentralizing and tokenizing various infrastructural layers—from servers and querying protocols to data collection, analytics, and storage networks. This holistic decentralization offers a new paradigm for how infrastructure projects can operate as a globally distributed and self-governing network.

I have curated a list of the Top DePIN Projects in 2024. It is important to clarify that this article is not intended to provide financial advice. Instead, it aims to introduce you to the DePIN ecosystem and encourage you to explore, think critically, and conduct thorough research on what could potentially reshape the future of both the digital and physical worlds.

Understanding DePIN

Decentralized Physical Infrastructure Networks (DePINs) represent a pivotal shift towards leveraging blockchain technology to democratize, increase efficiency, and reduce centralized control of Physical Infrastructure Networks. 

Physical Infrastructure Networks culminate all the servers, computers, and wireless networks that govern online data storage, usage, and access control. Corporations like Google Cloud Computing, Microsoft Azure, and Amazon Web Services provision these networks and exert a data monopoly.

Shift to Decentralization

Several factors have driven the move toward decentralized infrastructure:

• Public Pressure: Growing demands for transparency and accountability in infrastructure management have driven the adoption of systems that allow for more public participation and oversight.
• Growth of Web3: Blockchain technology successfully established a sustainable and globally distributed computing and networking layer, an ideal blueprint for infrastructure networks.
• Cost Efficiency: Web3 has the potential to achieve greater cost efficiency and democratized value flow using distributed networks.

Role of Blockchain in Enabling DePIN Solutions

Blockchain accelerated DePIN adoption by providing several fundamental qualities of DePIN systems:

• Transparency and Security: Distributed ledgers enable real-time sharing of immutable data, reducing trust and increasing accountability. Pooled security offers greater economic guarantees than any individual security layer.
• Operational Efficiency: Smart contracts can automate data operations, eliminating the need for a dedicated compute layer.
• Decentralized Governance: Tokenized governance enables more granular stakeholder participation in decision-making. Consensus mechanisms ensure voting is swift, transparent, and follows strict communication standards.

To summarize, blockchains are the most successful distributed network design. They are key enablers of DePIN solutions because the same decentralized framework is sufficient for implementing DePIN solutions with minute hardware optimizations and smart contract programming. Conversely, DePIN enables full-stack Web3 decentralization and makes it self-sufficient. 

The DePIN Ecosystem

Let’s quote Messari’s DePIN sector map to understand the various categories in this ecosystem. 

The DePIN Sector Map

Messari divides the DePIN sector into two broad categories:

Physical Resource Networks 

Physical Resource Networks in the DePIN ecosystem utilize decentralized methods to manage and optimize physical infrastructure. This category harnesses blockchain technology to enhance the efficiency, reliability, and accessibility of essential services across various sectors, including wireless communication, spatial data, transportation, and energy. There are some sub-types:

• Wireless networks:  Wireless networks are decentralized networks that provide connectivity services over a distributed array of devices. Helium exemplifies this by using a peer-to-peer network of hotspots that provide network coverage and reward operators with cryptocurrency.
• Geospatial Networks:  Geospatial Networks involve the decentralized collection, verification, and utilization of spatial data. Hivemapper, for example, crowdsources map data through users equipped with dashcams to build and update maps dynamically, demonstrating a new collaborative geospatial data gathering model.
• Mobility Networks: Mobility Networks use decentralized solutions to improve transportation and logistics systems. DIMO stands out in this category by offering a platform where data from vehicles is collected and analyzed decentralized, enabling smarter mobility solutions.
• Energy Networks: Energy Networks incorporate decentralized technologies to streamline and enhance energy distribution and consumption. Plural Energy utilizes blockchain to create a decentralized energy marketplace where users can trade energy efficiently and transparently.

Digital Resource Networks 

Digital Resource Networks utilize decentralized platforms to manage digital resources such as storage, computing power, and bandwidth. This category ensures secure, efficient, and scalable digital services by leveraging blockchain technology to distribute the operational load across multiple nodes. There are some sub-types:

• Storage Networks: Filecoin and Arweave Storage Networks are decentralized platforms designed to offer secure and scalable data storage solutions. Such platforms allow users to rent out their excess storage space on a blockchain network, ensuring data is stored safely across multiple locations.
• Compute Networks: - These networks provide decentralized computing resources for various applications. Users can access distributed GPU or other computing resources to run intensive applications by utilizing networks like Akash and Render, reducing reliance on centralized cloud providers.
• Bandwidth Networks: Bandwidth Networks like Theta focus on the decentralized distribution and management of internet bandwidth. Theta Network exemplifies this sub-category by allowing users to share their spare bandwidth on a peer-to-peer basis, optimizing online video delivery and reducing bandwidth costs.

With a clear picture of the DePIN ecosystem, it is time to analyze some notable projects in this sector.

The Graph Protocol

The Graph is a decentralized indexing protocol. Indexing is the practice of organizing online data into structured formats and mapping them so that users or web applications can retrieve it swiftly. It is the backbone of the internet and a major reason behind the blazing-fast internet we cherish today.

Businesses like Amazon Web Services provide indexing services to much of Web2, providing cloud services to millions of customers around the globe. Many decentralized applications we use regularly rely on such centralized services for several aspects of their architecture. For instance, the user interface for many Dapps may rely on centralized services for web hosting, data storage, and indexing. 

The Graph Protocol creates an open market for indexed blockchain data. It tokenizes on-chain data, where participants curate and index data and sell it in an on-chain market based on GRT, the native token of the Graph ecosystem. The indexed data in the Graph are called subgraphs. Users, who may be physical users or decentralized applications, can buy the subgraphs that are useful to them.

The Graph tokenizes data and eliminates the need for centralized services like AWS and fall in a DePIN category called compute networks. Another project operating in this niche is Covalent. Learn more about the project in the Graph Review.

Theta Network

Content Delivery Network (CDN) services are crucial for the modern internet infrastructure. A CDN network fetches and delivers content such as images, videos, web pages, and cloud files to users with speed and security. 

The Theta Network is a decentralized CDN service provider that falls into the bandwidth networks DePIN category. It enhances video streaming by tokenizing CDN services so that users with spare bandwidth and computing resources can share it with the network and eliminate the need for centralized CDN networks.

Here’s a high-level rundown of how Theta works:

• Sharing Bandwidth and Resources: Users can watch videos and use some of their spare bandwidth to serve some of that video to others, reducing load and buffer times.
• Rewards: Bandwidth providers earn TFUEL, the operational token of the Theta ecosystem. TFUEL is the transaction currency used to pay nodes for operations like video streaming and computation.
• Decentralized Network: The Theta blockchain records on-chain transactions and hosts the nodes that provide CDN services and validation services. The blockchain settles in the THETA token, which is used for consensus, staking, and ecosystem governance.

What’s New in Theta

Theta commenced operations in 2019 with a sole focus on video streaming. It has since expanded to leverage the existing infrastructure for catering to new demands of the industry:

• Theta launched the Metachain in April 2022, a horizontal scaling solution that allows running multiple chains parallelly, with faster processing times. The subchains will connect to the Theta main chain.
• The project plans to launch the Theta EdgeCloud in 2024. It is a decentralized cloud computing platform for AI computation, 3D and video rendering, and performing gaming computations.

Learn more about the project in the Theta Review.

Akash Network

Akash Network is a compute services DePIN project. It is a decentralized solution to centralized businesses like Microsoft Azure and Google Cloud Platform. For instance, Azure is a cloud computing provider comprising global servers providing computational resources to run programs on the cloud, such as websites, analytics, and networking.

Unlike Azure, Akash is a decentralized cloud computing program. Instead of centralized servers, users with personal servers, data centers, or spare computational resources participate in an on-chain compute marketplace. These providers place on-chain bids, and Tentants, who need the resources, accept the optimal offers. 

Key Features of Akash Network:

• Akash Blockchain: It is a Cosmos SDK blockchain that hosts the Akash Marketplace and renders the compute services to the tenants using smart contracts. It also facilitates rudimentary processes like governance, PoS consensus, and staking.
• AKT Token: It is used for renting compute resources, staking in the network and governance.
• Economical: Akash’s decentralized compute services are significantly cheaper than traditional counterparts like Azure.
• Akash Supercloud: An upgrade addressing inefficiencies in GPU access by providing permissionless access to compute resources.

The AKT 2.0 update underscores significant architectural improvements such as an incentive distribution pool comprising AKT and some whitelisted tokens, subsidizing compute providers, and creating a public goods fund for the welfare of the ecosystem. Learn more about Akash Network in our dedicated Akash review.

Arweave

Arweave is a decentralized data storage network that provides permanent and immutable data storage solutions. It believes in a pattern of decreasing the cost of permanent storage. It defines a sustainable endowment framework that extrapolates the decreasing cost of storage over the last 50 years to predict the finite cost of indefinite storage.

Arweave Permaweb

Arweave Permaweb is a decentralized web iteration powered by the Arweave Protocol. Permaweb comprises two components:

• Arweave blockchain: It is secured by a decentralized network of miners that provide permanent storage of rewards in AR tokens based on sustainable endowment.
• Gateways: They enable data accessibility for web browsers.

Permaweb apps are applications built on Arweave. These apps can access the full Arweave stack:

• Arweave blockchain
• Gateways
• GraphQL, a querying system
• SmartWeave, a smart contracting system

The AR token is central to the Arweave ecosystem, compensating for enabling permanent immutable storage. Learn more about Arweave from Guy on YouTube:

Filecoin

Filecoin is one of the earliest DePIN projects. Competing centralized services like Amazon S3, Filecoin is a decentralized data storage solution like Arweave. It creates an open market for storage where anyone can rent out their hardware storage on a decentralized blockchain.

Filecoin was a pioneer of Decentralized Storage Networks (DSN). Filecoin’s native digital currency, FIL incentivizes storage provision in the ecosystem. Here are some key features of Filecoin:

Decentralized Storage Network: Filecoin transforms the cloud storage market into an open market by allowing anyone worldwide to participate as a storage provider (also known as a storage miner).

Proof of Storage: Filecoin’s novel proof mechanisms, Proof of Replication (PoRep) and Proof of Spacetime (PoSt), ensure that data is stored securely and reliably over time. These mechanisms make cheating computationally expensive, thus securing the network and the data stored within it.

Incentive Structure: Miners earn Filecoin by storing client data and correctly proving they are doing so over time. The more storage they add to the network and the longer they store it, the more Filecoin they earn.

Retrieval Market: Miners can earn Filecoin by retrieving data quickly, in addition to earning money for storing data. This creates a competitive market for miners to develop ever-faster and more efficient retrieval technologies.

Interoperability with IPFS: Filecoin is designed to work interchangeably with IPFS, which allows Filecoin to function as a financial layer rewarding persistence commitments in IPFS, a protocol designed for peer-to-peer storage of files.

The tokenomics and utility of the Filecoin (FIL) token include:

• Incentives: Earned by miners for storing and proving the storage of data.
• Payments: Used by clients to pay miners for storage and retrieval services.
• Economic Security: Staked by miners as collateral to ensure honest service delivery.
• Governance: Allows holders to participate in decisions affecting the network's future.
• Network Participation: Required to engage in storage and retrieval markets, promoting active participation and growth of the network.
• Scarcity: Limited supply influencing demand and value.

Checkout the Filecoin review on the Coin Bureau or Guy’s analysis on YouTube:

Render Network

Render network, as the name suggests, is a compute network protocol that allocates providers' idle GPU power for 3D rendering AI computation tasks. The network creates a market for GPU power valued in the RNDR token. 
Users with spare GPU power can rent it out to earn rewards in RNDR, where the network renders the GPU power on-chain. Render was initially on the Polygon network with the RNDR token developed in the ERC-20 token standards. The Render network migrated to the Solana blockchain in November 2023 to leverage its low gas and high throughput environment.

Render is one the highest valued DePIN projects in 2024, according to the DePIN projects listed curated on Coingeckoa. Learn more about Render network on the Coin Bureau.

Helium 

Helium is a globally distributed hotspot network that creates a public decentralized wireless network for IoT and cellular devices. Helium runs on the Solana blockchain, which provides fast execution and economic security. Helium runs on a three-token model:

• HNT Token: Native token of the network and creates an incentive mechanism for Helium network participants.
• IOT Token: A specialized token that empowers low-power, wide-area connectivity for Internet of Things (IoT) devices.
• MOBILE Token: A designated token for cellular data users with high-speed network data transmission.

The Helium network incentivizes Hotspot owners to maintain compatible wireless devices to provide network coverage to IoT devices and mobiles. A new consensus mechanism called Proof-of-Coverage rewards participants for verifying wireless network coverage.

Hivemapper

Hivemapper is a decentralized geospatial network. It is a decentralized mapping protocol that tokenizes spatial data to create an open market for maps and mapping APIs. 

Hivemapper argues that creating high-quality maps is expensive. The development involves mapping millions of miles of geographical data and street-level imagery. The high maintenance and development costs have gatekept mapmaking services with several entities.

With Hivemapper, users get access to high-quality geospatial analytics, maps, data collection services, and APIs. General users can earn the HONEY token by providing street-level imagery and contributing to improving maps by engaging with AI trainers. They can later redeem HONEY tokens to access Hivemapper services. Three key characteristics of Hivemapper are:

• Decentralization: It facilitates an open market for geospatial data run by community members. Hivemapper code is also open-source.
• Permissionless: As long as participants follow certain basic rules, anyone can contribute to Hivemapper development or access its services.
• Rewards-based: The protocol facilitates an incentive-based ecosystem, allowing value accrual for anyone participating in map development.

DIMO

Our vehicles have become increasingly digital every year. We are not just adopting electricity as a fuel source but packing our rides with more and more sensors, computers, and cameras that constantly collect data on a vehicle’s performance, usage, and other relevant statistics.

DIMO argues that users who generate this data by driving around have a claim over it. Still, manufacturers like Tesla, Ford, and GM have historically gatekept this data to train their AI models and vehicle software. DIMO is partnering with NATIX to democratize vehicle data collection and capitalization. With DIMO hardware that users install in their vehicles and synergies established with automotive services, users can sell their data in NATIX tokens, creating some value for driving their cars around, which they were doing anyway.

Closing Thoughts – Do DePINs contribute to a more efficient infrastructure?

DePINs undoubtedly herald a new era of efficiency in infrastructure management, leveraging decentralized models that typically incur lower operational costs compared to their centralized counterparts. By distributing system management across multiple points rather than a single central location, DePINs offer innovative solutions that are not only cost-effective but also robust and scalable.

However, while the potential for increased efficiency is clear, their long-term sustainability and effectiveness remain to be fully tested in real-world scenarios. As these technologies evolve and mature, ongoing assessment and adaptation will be crucial in ensuring they can reliably meet future demands and challenges in infrastructure management.