Solo Mining Clore.ai: Blake3 Algorithm GPU Setup Guide

Clore.ai runs on Blake3, one of the newer GPU mining algorithms that caught my attention mostly because the specs looked interesting on paper. What makes Clore worth examining from a solo perspective is actually the network hashrate combined with the algorithm’s efficiency — Blake3 is substantially lighter on power consumption compared to Ethash or KawPow.

I’ve been tracking Clore’s network statistics for about four months now. The coin powers a decentralized GPU rental platform where people rent computing power for AI tasks, rendering, and similar workloads. That use case naturally depends on whether the platform actually gets adoption, but from a pure mining perspective, Blake3 presents an interesting efficiency profile.

This guide approaches Clore strictly as a solo mining target. We’ll run the probability math, examine which GPUs deliver the best Blake3 performance, and look at dual-mining configurations that make sense when you’re essentially playing the lottery anyway.

Blake3 Algorithm Technology and GPU Performance

Blake3 is substantially different from most GPU mining algorithms. The algorithm is optimized for modern hardware architectures and requires less memory bandwidth than KawPow or Ethash. That translates to lower power draw and better efficiency numbers across most GPU models.

From a technical perspective, Blake3 uses a tree structure for hashing that allows for parallelization. Your GPU cores can process multiple branches simultaneously, which is why modern GPUs with more CUDA cores or Stream Processors generally scale well.

Power consumption typically sits 20-30% below what the same GPU pulls mining Ravencoin or Neoxa. My RTX 3070 draws about 125W on Blake3 versus 175W on KawPow, for example. That matters considerably when you’re solo mining and might run for weeks or months between blocks.

Memory requirements are modest — Blake3 doesn’t use a DAG file, so older GPUs with 4GB VRAM remain viable. That opens up some budget hardware options that got priced out of Ethereum mining years ago.

Network Statistics and Solo Mining Probability for Clore

Let me break this down with current network data. Clore sits at approximately 15-20 TH/s network hashrate at the time I’m checking. Block time targets 60 seconds, with a block reward of 156 CLORE per block.

Quick math: If you’re running a single RTX 4070 getting about 1.8 GH/s on Blake3, you control roughly 0.009% of the network hashrate at 20 TH/s total. That translates to finding a block approximately every 77 days statistically.

The data shows variance will be substantial. You might hit a block in 10 days or go 200 days without one. The probability curve follows standard distribution, but that 77-day average is your baseline expectation.

For comparison, if you’re running three RTX 3060 Ti cards at around 1.2 GH/s each (3.6 GH/s total), your expected time drops to about 38 days per block. Still a lottery ticket, but with better odds than many solo mining targets.

Network difficulty adjusts every block on Clore, which helps stabilize block times but also means any sudden hashrate influx immediately impacts your probability. I track this daily — the network has been reasonably stable in the 15-25 TH/s range for several months.

GPU Hardware Recommendations for Blake3 Solo Mining

Blake3 performance scales primarily with GPU core count and core clock speed. Memory speed matters less than on memory-hard algorithms.

NVIDIA cards generally deliver better performance per watt on Blake3. The architecture handles the algorithm’s parallelization efficiently. AMD cards work fine but typically need more power tuning to match efficiency numbers.

Budget Option: RTX 3060 Ti

The 3060 Ti punches above its weight on Blake3. You’re getting roughly 10.9 MH/s per watt with optimized settings, which is actually better than some higher-tier cards.

Performance Sweet Spot: RTX 4070

The 4070 represents probably the best balance between initial cost, hashrate, and power draw for serious solo mining. It’s not cheap, but the efficiency means lower ongoing electricity costs.

High Hashrate: RTX 4090

Only makes sense if you’re planning a larger operation or already have one for other purposes. The cost-per-hashrate isn’t better than running multiple 4070s, but there’s something to be said for fewer cards to manage.

AMD Option: RX 7900 XT

The 7900 XT works well if you prefer AMD or find a good deal on used hardware. You’ll spend more time optimizing power settings to match NVIDIA efficiency numbers.

Mining Software Configuration for Solo Mining Clore

Several miners support Blake3. I’ve tested four options — SRBMiner, BzMiner, lolMiner, and WildRig Multi. Each has slightly different performance characteristics.

SRBMiner-MULTI Setup

SRBMiner delivers solid Blake3 performance on both AMD and NVIDIA cards. The developer fee is 0.85% for Blake3.

Configuration looks like this:

SRBMiner-MULTI.exe --algorithm blake3_alephium --pool your.node.ip:port --wallet YOUR_CLORE_ADDRESS

For actual solo mining, you’ll point this at your local Clore node. The software reports hashrate accurately and handles reconnections well when your node restarts.

BzMiner Alternative

BzMiner tends to squeeze out slightly higher hashrates on NVIDIA 30-series and 40-series cards. Developer fee is 1% on Blake3.

bzminer -a blake3 -w YOUR_CLORE_ADDRESS -p stratum+tcp://your.node.ip:port

I noticed about 2-3% better performance on my 3070 with BzMiner compared to SRBMiner. That naturally depends on your specific GPU model and drivers.

lolMiner for AMD Cards

If you’re running AMD hardware, lolMiner sometimes delivers better results than the others. Fee is 0.7% for Blake3.

lolMiner --algo BLAKE3 --pool your.node.ip:port --user YOUR_CLORE_ADDRESS

Setting Up a Clore Full Node for Solo Mining

To solo mine Clore properly, you need to run your own full node. The blockchain isn’t massive — currently around 8GB — so storage requirements are modest.

Download the Clore Core wallet from the official GitHub. Install it and let it sync completely. This typically takes 4-6 hours on a decent internet connection.

Once synced, you need to enable the mining interface. Edit your clore.conf file:

server=1
rpcuser=yourusername
rpcpassword=yourpassword
rpcallowip=127.0.0.1
rpcallowip=192.168.1.0/24
rpcport=4048

The rpcallowip line should match your local network if you’re mining from other machines. Restart the wallet after editing the config.

Your mining software then connects to 127.0.0.1:4048 (or your node’s IP if mining from another machine). The wallet automatically validates and submits blocks when your miner finds one.

Keep the wallet running 24/7. If your node goes offline, your miners can’t submit work. I run mine on a small Linux box that just stays on — less hassle than keeping a Windows machine stable for months.

Dual-Mining Configurations: Maximizing GPU Utilization

Here’s where things get interesting for solo mining. Since you’re playing the lottery anyway, dual-mining lets you actually earn something while waiting for your Clore block.

Blake3 is relatively light on GPU load compared to algorithms like KawPow or Ethash. Most cards have spare compute capacity that can mine a secondary coin simultaneously without significantly impacting Blake3 hashrate.

Dual-Mining Clore + Kaspa

Kaspa uses kHeavyHash, another efficient algorithm that combines well with Blake3. I’ve tested this on several cards — you typically maintain 95-97% of your Blake3 hashrate while adding 80-85% of normal Kaspa performance.

BzMiner handles this configuration:

bzminer -a blake3 -w YOUR_CLORE_ADDRESS -p stratum+tcp://your.node.ip:port --a2 kaspa --w2 YOUR_KASPA_ADDRESS --p2 stratum+tcp://pool.woolypooly.com:3112

On my RTX 3070, I get about 1.15 GH/s Blake3 (down from 1.2 GH/s solo) plus 475 MH/s Kaspa (versus 550 MH/s mining Kaspa alone). Power consumption increases by maybe 15W.

The math makes sense: You’re barely impacting your Clore solo chances while earning $0.30-0.50 per day in Kaspa (depending on current prices and difficulty). Over a 77-day average wait for a Clore block, that’s $23-38 in Kaspa earnings you wouldn’t have otherwise.

Dual-Mining Clore + Alephium

Alephium also runs Blake3, but on a modified version. Some miners support dual Blake3 mining across both chains simultaneously.

SRBMiner configuration:

SRBMiner-MULTI.exe --algorithm blake3_alephium --pool your.clore.node.ip:port --wallet YOUR_CLORE_ADDRESS --algorithm blake3_alephium --pool alph.mining.com:20032 --wallet YOUR_ALPH_ADDRESS

Performance splits roughly 60/40 between the two chains. You’re reducing your Clore hashrate to 60% but adding meaningful Alephium earnings while you wait.

Triple-Mining: Blake3 + Kaspa + Dynex

For the truly ambitious, you can run Blake3 on GPU while simultaneously mining Dynex (which uses a different algorithm that doesn’t interfere). This is honestly more complex than it’s worth in most cases.

Dynex solo mining has its own probability challenges, and the additional power draw (30-40W typically) eats into your efficiency gains from Blake3.

Overclocking and Power Tuning for Maximum Efficiency

Blake3 responds well to core overclocking and benefits less from memory overclocking. That’s opposite from memory-hard algorithms.

NVIDIA Settings (RTX 3070 example)

I run these settings on my 3070 in MSI Afterburner:
Power Limit: 65%
Core Clock: +150 MHz
Memory Clock: 0 (stock)
Fan Speed: 65%

This delivers 1.2 GH/s at 125W. Temperature stays around 58°C in a room-temperature environment.

The power limit is key — Blake3 doesn’t need maximum power to maintain good hashrate. You’re primarily limited by core clock speed, not power throughput.

AMD Settings (RX 6800 XT example)

AMD cards need more aggressive tuning:
Core Clock: 2400 MHz
Core Voltage: 1050 mV
Memory Clock: Stock
Power Limit: -20%

Testing takes longer on AMD. Each card seems to have its own sweet spot for voltage and clock combinations. Expect to spend an afternoon finding stable settings.

Electricity Cost Reality Check for Long-Term Solo Mining

Let’s run honest numbers. Using an RTX 4070 at 140W mining Clore 24/7:

Daily power consumption: 140W × 24h = 3.36 kWh
Monthly power: 3.36 × 30 = 100.8 kWh
At $0.12/kWh: $12.10 per month
At $0.20/kWh: $20.16 per month

Your expected block time is about 77 days (with 1.8 GH/s at 20 TH/s network). That’s 2.5 months of electricity at $30-50 depending on your rate.

Current Clore price is around $0.08-0.10 per coin. A block pays 156 CLORE, so $12.48-15.60 per block at current prices.

You’re paying $30-50 in electricity to potentially win $12-15. That’s not profitable even if you hit average luck.

The math only makes sense if you believe Clore price will increase substantially, or if you’re dual-mining to offset electricity costs with the secondary coin. This is important to understand upfront — pure Clore solo mining at current prices is a losing proposition unless the price roughly triples.

If electricity is your primary concern, check out our guide on recapturing mining heat to offset costs during winter months.

Pool Solo Mining vs Full Node: Which Approach for Clore?

You have two options for solo mining Clore: running your own full node or using a pool’s solo mining service.

Several pools offer solo mining where they operate the node infrastructure but credit blocks entirely to you (minus a small fee). Public-Pool.io supports Clore solo mining with a 0.5% fee on found blocks.

The advantage is simplicity — you just point your miner at their solo port and start hashing. No node maintenance, no blockchain sync, no configuration files.

The disadvantage is trust. You’re depending on their infrastructure staying online and properly crediting your blocks. There’s also the philosophical aspect — true solo mining means complete independence from pools.

I prefer running my own node when the blockchain size is reasonable. Clore’s 8GB blockchain is manageable, and having complete control over the process feels right for the solo mining approach.

But honestly, if you’re just testing Blake3 performance or don’t want to deal with node setup, pool solo mining works fine. You’re playing the same lottery, just with slightly different infrastructure.

Realistic ROI Scenarios and Risk Assessment

Let me lay out three scenarios based on different hashrate levels and luck.

Scenario 1: Single GPU (RTX 4070, 1.8 GH/s)

Expected time to block: 77 days
Electricity cost (77 days at $0.15/kWh): $38.80
Block reward value (at $0.09/CLORE): $14.04
Net profit: -$24.76

But if Clore price increases to $0.30: Block value $46.80, net profit +$8.00

Scenario 2: Small Farm (4x RTX 3060 Ti, 4.8 GH/s total)

Expected time to block: 29 days
Electricity cost (29 days, 440W at $0.15/kWh): $45.94
Block reward value (at $0.09/CLORE): $14.04
Net profit: -$31.90

With dual-mining Kaspa: Additional $28-35 Kaspa earnings, bringing total to roughly break-even or slight profit.

Scenario 3: Above-Average Luck

You hit a block in 15 days instead of 77 with your single RTX 4070.
Electricity cost: $7.56
Block reward: $14.04
Net profit: +$6.48

Good luck suddenly makes it worthwhile, but that’s the gamble.

The data shows solo mining Clore at current network conditions and prices is fundamentally a speculation on price appreciation or a hobby activity. The math doesn’t support it as profitable mining in most scenarios.

For perspective on probability across different coins, check our probability chart comparing various solo mining targets.

Personal Experience: My Four-Month Clore Solo Experiment

I’ve been solo mining Clore since October 2026 with a small three-GPU setup (two 3070s and one 3060 Ti). Combined hashrate sits around 3.6 GH/s.

Expected blocks in four months: About 3.2 blocks statistically.

Actual blocks found: Two.

So I’m running slightly below expected value, but well within normal variance. The two blocks came 38 days apart — the first at day 52, the second at day 90 of the experiment.

I dual-mine Kaspa simultaneously, which has generated about $110 over the four months. That covers roughly 70% of my electricity cost. The two Clore blocks added another $28 (at sale prices when I found them).

Total electricity cost: $156
Total earnings: $138
Net result: -$18 after four months

That’s pretty close to break-even considering I’m running below statistical expectation. If I had hit that third block I was “due” statistically, I’d be roughly even.

The interesting part is the psychological aspect. Those 52 days before the first block were rough — watching the miners run 24/7 knowing you might go months more without hitting anything. Then the 38-day gap to the second block felt fast by comparison. Your brain adjusts to the timeframe.

I’m continuing the experiment through the end of 2026. If Clore price appreciates, those blocks might end up worth $50+ each retrospectively, which would change the math substantially.

Alternative Coins to Consider Alongside Clore

If you’re setting up Blake3 hardware anyway, several other coins deserve consideration for comparison:

Alephium: Runs Blake3 natively, higher network hashrate but also higher block rewards. Expected time per block is longer but the payout is bigger. I track both simultaneously.

Neoxa: Uses KawPow instead of Blake3, but at similar network hashrate levels to Clore. Worth examining if you want to compare algorithm efficiency. See our Neoxa GPU setup guide.

Firo: FiroPow algorithm, different performance characteristics but similar solo probability mathematics at current network size. Our Firo configuration guide covers the details.

Vertcoin: Verthash is more memory-intensive but the network is small enough for realistic solo attempts. Check our Vertcoin GPU guide for comparison.

The advantage of GPU mining over ASIC mining is flexibility. Your hardware can switch between algorithms if network conditions change or prices shift. That naturally depends on how much you want to tinker with configurations.

Monitoring and Maintenance for Long-Term Blake3 Mining

Running miners for weeks or months between blocks requires decent monitoring infrastructure. You need to catch issues before they waste days of hashing.

Essential Monitoring Elements

Hashrate tracking: I use a simple Python script that pings my miners every 5 minutes and logs the reported hashrate. Any drop below 95% of expected rate triggers an alert.

Temperature monitoring: Blake3 runs cooler than most algorithms, but thermal paste degrades over time. I check temps weekly and repaste cards annually.

Node connectivity: Your mining software should show your node as connected. If it shows “connecting…” or similar, your node likely crashed or lost network connection.

Wallet balance: Check your wallet periodically to confirm it’s still synced. I had a wallet freeze at 98% sync once — the miner kept hashing but couldn’t submit the block I eventually found.

Automated Restart Scripts

Most mining software crashes occasionally. A simple batch file or bash script to restart the miner after any crash saves you from losing hours or days:

Windows batch file:
:start
bzminer.exe -a blake3 [your parameters]
timeout /t 10
goto start

This loops indefinitely, restarting the miner 10 seconds after any crash.

Security Considerations for Solo Mining Clore

When you’re running a full node and potentially holding block rewards worth hundreds of dollars, security matters.

Wallet encryption: Enable wallet encryption in Clore Core immediately. Use a strong passphrase you won’t forget — you’ll need it to send any found blocks.

Firewall configuration: Only open the mining port (4048 by default) to your local network. The RPC interface should never be exposed to the internet.

Backup your wallet.dat: Store encrypted copies in multiple locations. Losing your wallet.dat means losing any found blocks.

For more comprehensive security practices, see our solo mining security guide.

Is Solo Mining Clore Worth It in 2026?

That naturally depends on your goals and electricity situation.

If you’re paying standard residential electricity rates ($0.12-0.20/kWh) and mining purely for profit, the math says no at current Clore prices. You’ll lose money on average unless price appreciation significantly changes the equation.

If you’re mining because you enjoy the process, believe in the project, or want to support network decentralization, then Clore offers a reasonable solo target compared to most larger networks. The 77-day expected time per block with a single good GPU is long but not impossibly so.

Dual-mining changes the equation substantially. Mining Clore for the solo lottery while earning Kaspa or another coin for daily revenue makes the economics work much better. You’re covering most of your electricity cost with the secondary coin while maintaining your Clore solo chances.

The best candidates for Clore solo mining are probably:
1. Miners with very cheap electricity ($0.05/kWh or less)
2. People already mining who can add Clore as a secondary algo
3. Those who believe Clore price will increase 3-5x from current levels
4. Hardware testers or enthusiasts mining for non-profit reasons

For context on managing the psychological aspects of long waits between blocks, our solo mining psychology guide covers expectations and mindset.

Frequently Asked Questions

What GPU hashrate do I need to realistically solo mine Clore?

Realistically, you want at least 1.5-2 GH/s to keep expected block time under 90 days. That’s a single RTX 4070 or roughly equivalent. Below 1 GH/s and you’re looking at 120+ days between blocks on average, which tests patience significantly. Dual-mining helps make lower hashrates more bearable since you’re earning something continuously.

Can I solo mine Clore and Alephium simultaneously on the same GPU?

Yes, both coins use Blake3 (Alephium uses a modified version). Some miners like SRBMiner support dual Blake3 mining. You’ll typically get about 60% of your normal hashrate on each chain instead of 100% on one. Whether that makes sense depends on the relative block rewards and your expected time per block on each network.

How much electricity does Blake3 mining consume compared to other algorithms?

Blake3 typically uses 20-30% less power than KawPow (used by Ravencoin, Neoxa) and similar reductions compared to Ethash-derivatives. An RTX 3070 drawing 175W on KawPow will pull around 125W on Blake3 at similar GPU utilization. This efficiency advantage is one of Blake3’s main strengths for long-term solo mining operations.

Should I use a mining pool’s solo service or run my own Clore node?

Running your own node gives you complete independence and eliminates any trust requirements, but requires maintaining a synced blockchain and stable node. Pool solo mining is simpler and works fine for testing, but you’re dependent on their infrastructure. Clore’s blockchain is only about 8GB, so running your own node is pretty manageable compared to larger chains.

What happens if I find a Clore block but my wallet wasn’t synced?

Your miner will submit the block to your node, but if your node isn’t fully synced with the network, the block submission will fail. You lose the block reward entirely. This is why monitoring node sync status is critical — check your wallet periodically to confirm it’s showing the current block height. I verify this weekly at minimum.