Idle Macs Can Also Make Money? An Overview of Eigen Labs' Decentralized AI Inference Network Darkbloom

marsbitPublished on 2026-06-22Last updated on 2026-06-22

Abstract

AI inference is becoming a crucial layer of internet infrastructure, yet it remains largely dependent on costly, capacity-limited centralized systems with potential security risks. Meanwhile, millions of powerful computers sit idle globally. Eigen Labs' Darkbloom network aims to utilize this idle capacity by enabling distributed AI inference on Mac computers, specifically those with Apple Silicon chips. Darkbloom's architecture consists of three components: users who send inference requests, a coordinator (operated by Eigen Labs) that routes these requests, and providers (Mac owners) whose machines run the models and return outputs without being able to see the request content. The system prioritizes privacy through a hardened provider process, software integrity checks, and hardware-supported attestation based on Apple's security architecture to ensure verifiable privacy. Economically, Darkbloom differs from traditional models. It leverages existing hardware, with marginal costs primarily driven by electricity, allowing it to offer pricing roughly 50% lower than major API aggregators. Providers keep 100% of the inference revenue, and the project does not rely on token subsidies; earnings come solely from real AI inference demand. However, early-stage earnings are modest, with top providers currently earning under $6 per day, influenced by factors like hardware specs, uptime, and network demand. The network currently supports models like Google's Gemma 4 and OpenAI's GPT-OS...

Compiled by: Felix, PANews

AI inference is gradually becoming a critical layer of internet infrastructure. However, most inference currently still relies on a centralized architecture, which is costly, has limited capacity, involves multiple layers of stacking, and carries certain security risks. At the same time, there are millions of powerful computers worldwide that remain idle for most of the day.

Eigen Labs recently launched the AI inference network Darkbloom, which explores performing distributed AI inference on idle Mac computers. By combining verified nodes, hardware-level privacy protection, and superior economic efficiency, it transforms idle Apple Silicon chips into a more efficient, privacy-first computing network.

The project was launched as a research preview around April this year, upgraded to a public alpha version in May, and is now available on the OpenRouter platform. In the alpha version, the available models are Google's Gemma 4 and OpenAI's GPT-OSS.

Core Architecture and Verifiable Privacy

The Darkbloom network consists of three parts: users, coordinators, and providers.

  • Users can send inference requests through a chat interface or a compatible OpenAI API.
  • The coordinator (operated by Eigen Labs) routes these requests to eligible Macs in the network.
  • Providers (users who own these eligible Macs) run the models and return the output, but they cannot see the request content.

Darkbloom is built on a privacy-first distributed inference model. The provider process is hardened to resist common local inspection paths, including debugger attachment and external memory inspection. The integrity of the running binary is also part of the trust model, helping to ensure that the software serving requests conforms to network expectations.

The system also uses hardware-supported attestation based on Apple's security architecture. Secure Enclave keys, attestation signals, and periodic challenge-response checks are used to verify that participating nodes are running with the intended protections and software state, achieving truly verifiable privacy.

Economic Model and Daily Earnings

Darkbloom is fundamentally different in its business model compared to the vast majority of projects. In the traditional tech stack, costs include hardware, facilities, cooling, networking, operational overhead, and layers of profit margins. In Darkbloom's model, the hardware already exists, and the marginal cost is primarily driven by electricity. Darkbloom's benchmark pricing is only about 50% of current mainstream API aggregators. Providers (Mac hosts) can keep 100% of the inference revenue. Furthermore, Darkbloom has not taken the path of issuing tokens to subsidize early participants; node earnings come entirely from real AI inference demand.

It is worth noting that, given the project's early stage of development, earnings are relatively modest. Factors such as memory and hardware configuration, uptime, model demand, node health, and network demand can all influence earnings to some extent.

Current leaderboard data shows that the top provider earns less than $6 per day, and the fifth-ranked provider earns even less than $2. However, as the network opens up to large language models with high memory requirements and real user usage increases, this situation is expected to improve.

Regarding how to set up an idle Mac, the steps are as follows:

  • Acquire a Mac with an Apple Silicon chip
  • Ensure it runs macOS 14 or higher
  • Install the Darkbloom provider
  • Keep the Mac online with a stable internet connection
  • Let the network route supported AI tasks

Related reading: A Roundup of Recent Stocks and Crypto Assets Worth Watching: AI, RWA, and Space Stocks...

Trending Cryptos

Related Questions

QWhat is the core concept of Eigen Labs' Darkbloom network, as described in the article?

ADarkbloom is a decentralized AI inference network that aims to utilize the idle computing power of Mac computers equipped with Apple Silicon chips. It distributes AI inference tasks across these devices, offering a more cost-effective and privacy-focused alternative to centralized infrastructure.

QHow does Darkbloom's architecture ensure privacy for user requests?

ADarkbloom ensures privacy through a hardware-supported verification model. It uses Apple's Secure Enclave keys, attestation signals, and periodic challenge-response checks to verify that provider nodes are running with the expected protections. Provider processes are hardened against local inspection, and providers cannot see the content of user requests.

QWhat is the current economic model for providers (Mac owners) participating in the Darkbloom network?

AProviders keep 100% of the inference revenue they generate. The model is based on real AI inference demand, not token subsidies. Currently, however, earnings are low; the top provider earns less than $6 per day, and the fifth earns under $2, with factors like hardware, uptime, and network demand influencing income.

QWhich AI models are available in Darkbloom's current alpha version, and where is it accessible?

AIn its current public alpha version, Darkbloom offers Google's Gemma 4 and OpenAI's GPT-OSS models for inference. The network is accessible on the OpenRouter platform.

QWhat are the basic requirements for a Mac to become a provider on the Darkbloom network?

ATo become a provider, a user needs a Mac with an Apple Silicon chip, running macOS 14 or a higher version. They must install the Darkbloom provider software and keep the Mac online with a stable internet connection to allow the network to route AI tasks to it.

Related Reads

Commerce Ministry's Latest Export Controls Target 10 US Companies: Three Market-Moving Threads Explained

China's Ministry of Commerce placed 10 U.S. entities, including MP Materials, USA Rare Earth, Red Cat Holdings, and Teal Drones, on an export control list, banning the export of dual-use items. This move is seen as part of an ongoing countermeasure in the rare earth sector. The analysis suggests the primary impact is on U.S. companies within the **military, drone, and rare earth** sectors, aiming to restrict their access to critical Chinese materials and technology. For the Chinese market, the event is interpreted as reinforcing the **strategic value and pricing power** of domestic rare earth suppliers. However, the potential stock market reactions are nuanced: 1. **Chinese Rare Earth Upstream:** Companies like Northern Rare Earth are near yearly highs, indicating this event's "beneficiary" logic is largely priced in. It may confirm the trend but is unlikely to be a new major catalyst. 2. **Chinese Rare Earth Mid/Downstream & Drones:** Sectors like magnetic materials (e.g., Da Di Bear, Zhenghai Magnetic) and military drones (e.g., China Aerospace) are relatively undervalued. While the drone listing highlights sectoral competition, it doesn't directly translate to new orders for Chinese firms. 3. **Impact on Listed U.S. Companies:** The effect on stocks like MP Materials is ambiguous. While Chinese restrictions pose a challenge, these companies are also core to U.S. supply chain security efforts and may receive increased government support, potentially offsetting negative impacts. Their pre-announcement stock prices did not indicate panic selling. In summary, the export controls strengthen China's position in the global rare earth supply chain but have uneven effects across related stock market segments, with upstream Chinese gains likely priced in and downstream/drone sectors receiving more indirect, sentiment-driven attention. The outcome for the targeted U.S. stocks depends on the balance between restriction impacts and potential compensatory U.S. policy support.

marsbit4m ago

Commerce Ministry's Latest Export Controls Target 10 US Companies: Three Market-Moving Threads Explained

marsbit4m ago

Uniswap v4 Hook Analysis: Architecture Design, Common Vulnerabilities, and Protection Practices

Uniswap v4's Hook mechanism is a major innovation, enabling custom logic injection into liquidity pool lifecycle events like swaps and liquidity provisioning. This transforms the AMM into programmable infrastructure, shifting the security model from protocol-level to pool-level, as each pool's safety now depends on its bound Hook contract. The core architecture revolves around the singleton PoolManager contract, which manages all pools via a flash accounting system. State changes are tracked in transient storage and must be settled by the end of a transaction. Hook contracts are permanently bound to pools via a PoolKey, with their permissions encoded directly into their address via specific low-order bits. This design introduces unique security considerations and challenges for future upgrades. Key vulnerabilities and best practices identified include: - **Access Control Gaps:** Early versions of the BaseHook abstract contract only protect `unlockCallback()`, leaving other lifecycle functions (`beforeSwap`, `afterSwap`, etc.) exposed unless explicitly secured by developers. - **Unrestricted Pool Binding:** The `initialize()` function does not validate if a Hook "consents" to a new pool. Hooks must implement their own whitelisting in `beforeInitialize` to prevent unauthorized pool creation. - **Async/Custom Curve Hooks:** These high-risk Hooks can completely replace Uniswap's swap logic. Their security depends entirely on their own implementation, as they operate outside the native protocol's pricing safeguards. - **Delta Accounting Risks:** The system ensures final balance (NonzeroDeltaCount == 0) but cannot guarantee the *correctness* of intermediate delta states, which attackers could manipulate. - **Token Confusion:** Protocols must implement semantic validation for tokens in user-created markets, not just interface checks, to prevent cross-market confusion attacks. The article emphasizes that Hook auditing requires a "sub-protocol" approach due to extended interaction chains, highlighting a significant shift in security methodology for the v4 ecosystem.

marsbit56m ago

Uniswap v4 Hook Analysis: Architecture Design, Common Vulnerabilities, and Protection Practices

marsbit56m ago

Chips, Open-Source Models, and $50 Trillion: Joe Tsai Reassesses Alibaba Once Again

Alibaba Executive Chairman Joe Tsai recently outlined the company's comprehensive AI strategy in a public discussion. He believes AI represents a massive opportunity, estimating its potential economic impact at up to $50 trillion, stemming from the automation of human intelligence and productivity. Tsai detailed Alibaba's four-layer investment approach across the AI stack: starting from the chip level, moving to cloud infrastructure (Alibaba Cloud), then the model layer with its open-source Qwen model, and finally applications within its vast digital ecosystem (e-commerce, logistics, etc.). The company avoids the energy layer due to China's efficient infrastructure. This broad strategy is designed to ensure Alibaba captures value regardless of where it ultimately concentrates in the AI value chain. He dismissed concerns about an AI investment bubble, pointing to the enormous $50 trillion opportunity. While acknowledging U.S. cloud giants' higher capital expenditure, he argued Chinese firms, including Alibaba (funded by its cash-generative e-commerce core), need to invest more in AI infrastructure. A key theme was technological sovereignty. Tsai positioned open-source models like Qwen as a solution for companies, especially in Europe, seeking independence from proprietary U.S. models and greater data privacy control. He contrasted this with the trend of U.S. giants keeping their models closed-source. Tsai highlighted Alibaba's collaborations with European manufacturers like Bosch and Siemens, using AI for design and quality control. He concluded with an optimistic vision of AI agents enhancing productivity, ultimately freeing up human time for leisure, family, and experiences like live entertainment.

marsbit1h ago

Chips, Open-Source Models, and $50 Trillion: Joe Tsai Reassesses Alibaba Once Again

marsbit1h ago

Trading

Spot
Futures

Hot Articles

Discussions

Welcome to the HTX Community. Here, you can stay informed about the latest platform developments and gain access to professional market insights. Users' opinions on the price of AI (AI) are presented below.

活动图片