XMRig stores its settings in one file, config.json, which defines how much CPU power it uses, which mining pool it connects to, and where your earnings are sent. You’ll adjust three things: limit CPU use, set your Monero wallet address, and switch to an independent pool.

1. What You’ll Need

Before starting:
– XMRig downloaded and running at least once (so it generates config.json).
– A Monero wallet address (from a trusted source such as CakeWallet).
– A text editor or AI assistant (ChatGPT, Grok, or a local model with Ollama/Open WebUI) to modify the configuration.

2. Let AI Do the Update for You

Rather than searching through the file yourself, you can paste your entire config.json into any capable AI chat and have it modify only the needed sections.

Paste this prompt into ChatGPT, Grok, or your local Ollama/Open WebUI instance:

Paste your full config.json below this message, then say:

“Please update my XMRig config.json so that:
1. It only uses about 2–5% of my CPU (so my computer stays fast).
2. It sends mined Monero to my wallet address: [paste your wallet address here].
3. It connects to the mining pool pool.supportxmr.com:5555 instead of the donation pool.
Return the entire updated config file in a copy box so I can paste it back into my XMRig folder and save it as config.json.”

This prompt tells the AI to regenerate your entire configuration with minimal resource use and your own wallet address already inserted. Copy the result, replace your existing config.json file with it, and restart XMRig.

3. Example of a Correctly Updated Section

When the AI finishes, your updated configuration should include entries similar to these:

"cpu": {
  "enabled": true,
  "huge-pages": false,
  "priority": 5,
  "yield": true,
  "max-threads-hint": 1,
  "throttle": 95,
  "rx": [0],
  "rx/wow": [0]
},

"pools": [
  {
    "url": "pool.supportxmr.com:5555",
    "user": "YOUR_MONERO_WALLET_ADDRESS",
    "pass": "x",
    "keepalive": true,
    "tls": false
  }
]

That configuration tells XMRig to use one lightweight thread, throttle CPU usage to 95%, and connect to SupportXMR’s primary pool under your own wallet address.

4. Manual Update Option

If you prefer editing manually:
1. Open config.json in your text editor.
2. Replace the "cpu" block with the one above.
3. Change the pool from "donate.v2.xmrig.com:3333" to "pool.supportxmr.com:5555".
4. Replace "user": "YOUR_WALLET_ADDRESS" with your real Monero wallet address.
5. Save and close the file, then restart XMRig.

5. Confirming It Works

When XMRig launches, verify that:
– It shows your wallet address.
– The line “Using pool.supportxmr.com:5555” appears.
– CPU usage stays low (Task Manager should show 2–5%).

If all three checks pass, your miner is configured for minimal impact.

6. Viewing Your Stats

To monitor your mining contribution, visit supportxmr.com and paste your wallet address into the search box. Your worker should appear within a few minutes, showing your hashrate and shares.

7. Realistic Expectations

At this very low CPU level, your rewards will be minimal—often just fractions of a cent per day. But even small contributions help secure Monero’s privacy network. Think of it less as a profit generator and more as a way to support digital freedom through voluntary, mindful participation.

8. Example Prompt for Quick Use

Here’s a short version to copy directly into an AI chat:

“Here is my full XMRig config.json. Please update it to:
1. Use only 2–5% CPU.
2. Send mined Monero to [your wallet address].
3. Connect to pool.supportxmr.com:5555.
Return the entire config.json ready to paste and save.”

This one-step method works equally well in ChatGPT, Grok, or a local Ollama model. It ensures the AI outputs the entire corrected file, ready to drop in.

9. Final Thoughts and Disclaimer

Once you restart XMRig, it should quietly mine in the background without affecting performance. You’ll know it’s working if your pool dashboard detects activity. Even though the payouts are negligible, your contribution strengthens Monero’s decentralized and censorship-resistant ecosystem.

Disclaimer: Adjusting mining settings is at your own risk. Low CPU usage generally keeps power draw and heat minimal, but always monitor system temperature. Only download XMRig from its official GitHub, and never run software from unverified sources.

Arweave: A Foundation for Decentralized Storage

Arweave stands out as a blockchain protocol designed for permanent and decentralized data storage. Unlike traditional blockchains, which focus primarily on transactions, Arweave prioritizes the long-term availability of information. Its “permaweb” allows users to store data in a format that can be accessed indefinitely, making it an ideal platform for decentralized wikis.

The practical application of Arweave is evident in how it handles file storage. For instance, an HTML file can be uploaded to Arweave and accessed through a gateway link, such as https://chi.4everland.store/poem.txt. This ability to link directly to stored content via a gateway ensures that the data remains available without requiring a traditional server setup. For decentralized wikis, this capability provides the foundation to store content securely and make it universally accessible.

Simplifying Access with Gateways Like 4everland

Gateways play a crucial role in bridging blockchain technology with conventional web usage. Platforms like 4everland serve as intermediaries, allowing users to access Arweave-stored data with minimal technical expertise. By acting as a conduit between blockchain-stored data and the web, these gateways make it easier for developers and end-users to interact with decentralized wikis.

In practice, a gateway can render stored HTML files, MediaWiki markdown, or other content formats directly in a browser. This eliminates the need for specialized software or complex integrations, lowering the barrier to entry for using blockchain-backed wikis. Gateways like 4everland ensure that data stored on Arweave remains accessible to a global audience, aligning with the ethos of decentralized knowledge sharing.

Utilizing Markdown for Wiki Content

One of the key formats that decentralized wikis can leverage is markdown, particularly MediaWiki markdown. Markdown provides a lightweight and human-readable syntax for structuring content, making it a popular choice for wikis. By storing markdown files on Arweave, developers can create wikis that retain the flexibility of traditional platforms like MediaWiki while benefiting from the permanence and resilience of blockchain technology.

A decentralized wiki built on this model would allow contributors to edit and upload markdown files to Arweave, with gateway services rendering the content for viewers. This approach maintains the collaborative and dynamic nature of wikis while ensuring the underlying data is immutable and censorship-resistant. The ability to store and retrieve markdown files seamlessly aligns with the goal of creating wikis that prioritize both accessibility and data integrity.

Advantages and Future Potential

The intersection of blockchain and wikis opens up a range of possibilities for knowledge sharing. Decentralized wikis eliminate the reliance on centralized servers, reducing vulnerabilities to downtime, censorship, and control by single entities. Moreover, the permanence of blockchain storage ensures that content remains available for future generations, addressing the limitations of traditional platforms where data may be lost or altered over time.

As the technology evolves, decentralized wikis could also integrate other blockchain features, such as token-based incentives for contributors or decentralized governance models. These innovations would further enhance the utility and sustainability of decentralized knowledge ecosystems, fostering collaboration on a global scale.

Conclusion

Blockchain technology, particularly through platforms like Arweave and gateways like 4everland, has laid the groundwork for decentralized wikis. By combining immutable storage with accessible web gateways, these tools enable the creation of wikis that are resilient, open, and future-proof. As more developers and communities embrace these technologies, decentralized wikis have the potential to transform how knowledge is shared and preserved in the digital age.