Table of Contents:
Nimiq's Browser-Based Mining Architecture and the Argon2d Algorithm
Nimiq occupies a genuinely unique position in the cryptocurrency landscape: it is the only blockchain designed to run entirely within a web browser, without installing any local software. This architectural decision shapes everything about how mining works on the network. The Nimiq client runs via WebAssembly and JavaScript, communicating directly with the peer-to-peer network through WebRTC and WebSocket connections. When you open the Nimiq web client, your browser becomes a full node — it validates blocks, maintains a copy of the blockchain, and can participate in mining immediately.
This design philosophy has a concrete tradeoff. Browser-based execution introduces overhead compared to native binaries. WebAssembly performance typically reaches 60–80% of equivalent native code, which means a dedicated GPU or CPU miner running native software will always outperform the browser client for raw hashrate. For serious mining operations, the browser client is an entry point, not the endgame — and understanding this distinction matters when planning your setup.
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Argon2d: Why This Algorithm Was Chosen
Nimiq uses Argon2d, the memory-hard variant of the Argon2 password hashing algorithm that won the Password Hashing Competition in 2015. The "d" variant specifically accesses memory in a data-dependent pattern, which makes it particularly resistant to GPU-based cracking attacks — but also harder to optimize for ASICs. The algorithm requires configurable amounts of memory per hash computation, and Nimiq's implementation uses 512 KB of memory per hash with specific iteration and parallelism parameters tuned for the network.
Memory-hardness is the critical design choice here. ASIC manufacturers find it economically unviable to produce specialized chips when each hash operation requires storing and accessing large memory arrays — silicon area for fast on-chip memory is expensive. This keeps Nimiq mining accessible to consumer hardware: a CPU with sufficient cache bandwidth can compete meaningfully. The algorithm's latency-bound nature means raw clock speed matters less than memory subsystem performance, which is why miners who want to maximize their hashrate with graphics cards need to pay close attention to VRAM bandwidth rather than just shader count.
Practical Implications for Mining Hardware Selection
Argon2d's memory requirements create specific hardware dynamics that diverge from SHA-256 or Ethash mining:
- CPU mining remains viable — processors with large L3 caches (AMD Ryzen and EPYC series particularly) show strong performance because Argon2d's 512 KB working set fits within L3 on multi-core configurations
- GPU memory bandwidth dominates — a GPU with high-bandwidth memory (GDDR6X or HBM variants) will outperform a higher-CUDA-count card with slower memory
- ASIC resistance holds in practice — as of the current network state, no commercial ASICs exist for Argon2d, making the playing field substantially more level than Bitcoin mining
- Parallelism scales predictably — more CPU cores or GPU compute units translate linearly to hashrate, unlike some algorithms with bottlenecks at synchronization points
The choice of mining software amplifies or limits these hardware advantages significantly. Native implementations written in C++ or Rust with AVX-512 optimizations for CPU mining, or OpenCL/CUDA kernels for GPU mining, can achieve 3–5× the hashrate of the browser-based miner on identical hardware. Evaluating which mining software delivers the best performance for your specific hardware configuration is the logical next step once you understand the algorithmic fundamentals driving those performance differences.
GPU vs. CPU Performance Benchmarks for Nimiq Mining
Nimiq uses the Albatross consensus mechanism combined with the Proof-of-Work component via Argon2d, a memory-hard hashing algorithm deliberately designed to resist ASIC dominance and favor commodity hardware. This design choice creates a genuinely interesting performance landscape where the gap between CPUs and GPUs is narrower than in Bitcoin mining, but GPUs still hold a decisive edge when configured correctly.
CPU Benchmarks: Baseline Performance
Modern high-core-count CPUs deliver respectable hashrates on Argon2d. An AMD Ryzen 9 7950X (16 cores, 32 threads) achieves approximately 1,800–2,200 H/s under optimized conditions with full memory bandwidth utilization. Intel's Core i9-13900K lands in a similar range at around 1,600–2,000 H/s. Older workhorses like the Ryzen 7 3700X typically produce 700–900 H/s. The critical bottleneck here is always memory bandwidth — Argon2d's memory-hard design means that CPU cache size and DDR5 vs. DDR4 latency directly impact your throughput in ways that raw clock speed simply cannot compensate for.
Running Nimiq mining on a CPU remains viable for experimentation or if you're leveraging idle server hardware with high RAM bandwidth. However, electricity costs per hash quickly become unfavorable beyond a certain threshold. A Ryzen 9 7950X drawing 170W at full load to produce ~2,000 H/s translates to roughly 0.085 W per H/s — an efficiency baseline that GPUs routinely demolish.
GPU Benchmarks: Where Real Profitability Begins
GPUs excel at Argon2d specifically because of their massive parallelism and high memory bandwidth. The NVIDIA RTX 4090 with its 1,008 GB/s of GDDR6X bandwidth pushes approximately 18,000–22,000 H/s, achieving efficiency around 0.016 W per H/s — roughly five times more efficient than the best CPUs. The more accessible RTX 3070 delivers 9,000–11,000 H/s at around 120W TDP, making it arguably the best performance-per-watt option in the current generation. AMD's RX 6800 XT competes directly with the RTX 3070 at approximately 10,000–12,000 H/s, with some miners reporting a slight edge when using OpenCL-optimized kernels.
Mid-range cards like the RTX 3060 (~6,500 H/s) and RX 6600 XT (~5,800 H/s) represent the sweet spot for miners building multi-GPU rigs on a budget. Stacking six RTX 3060 cards produces roughly 39,000 H/s at a combined ~720W draw — a configuration that becomes meaningful once you plug those numbers into a profitability calculation that accounts for your actual electricity rate and current NIM price.
Before committing to any hardware configuration, the software layer matters enormously. The mining client you use determines how efficiently it maps Argon2d's memory access patterns to your GPU's memory subsystem. If you're assembling your first GPU rig, the practical walkthrough on getting your GPU up and running for Nimiq covers driver configuration and initial setup in detail. For optimizing beyond defaults, reviewing which mining software currently delivers the best hashrate on your specific hardware is essential — kernel implementations vary significantly between clients.
- RTX 4090: ~20,000 H/s — top absolute performance, high upfront cost
- RTX 3070 / RX 6800 XT: ~10,000 H/s — best efficiency per watt for mid-range
- RTX 3060 / RX 6600 XT: ~6,000 H/s — budget multi-GPU rigs
- Ryzen 9 7950X (CPU): ~2,000 H/s — viable only with near-zero electricity costs
Calculating Real Profitability: Hashrate, Block Rewards, and Electricity Costs
Profitability in Nimiq mining isn't a static number — it's a moving target shaped by three interdependent variables: your effective hashrate, the current block reward schedule, and your local electricity cost per kilowatt-hour. Most miners underestimate how dramatically these interact. A rig delivering 1.2 MH/s running on $0.04/kWh electricity in Eastern Europe will generate fundamentally different margins than the same hardware running at $0.18/kWh in Western Europe, even before accounting for network difficulty.
Nimiq uses the Albatross consensus protocol, which replaced the old Proof-of-Work chain. Under this architecture, block rewards are distributed through validators and staking, but GPU miners still participate through the legacy PoW chain where applicable. The key figure to track is the current NIM emission rate — historically around 4,000 NIM per block on the PoW chain — combined with your proportional share of the total network hashrate. If the global network sits at 50 GH/s and your rig produces 500 MH/s, your theoretical share is 1%, translating to roughly 40 NIM per block before pool fees.
Breaking Down the Electricity Cost Formula
The fundamental profitability equation is straightforward: Daily Revenue (USD) − Daily Electricity Cost (USD) = Daily Profit. Where miners consistently go wrong is using manufacturer TDP figures instead of real-world power draw. An RX 580 mining NIM with optimized settings typically pulls 85–95W at the wall, not the rated 185W — but only after proper undervolting. Measure actual consumption with a kill-a-watt meter before running any projections.
For a concrete example: a six-GPU RX 580 rig at 90W per card draws 540W total, or roughly 13 kWh per day. At $0.10/kWh, that's $1.30 in electricity costs daily. If that rig generates 3 MH/s and NIM trades at $0.003, producing approximately 240 NIM daily, gross revenue sits at $0.72 — meaning you're operating at a loss until either NIM price rises or difficulty drops. This is exactly the kind of scenario where using a dedicated mining calculator with real-time difficulty adjustments prevents costly assumptions from turning into months of negative ROI.
Network Difficulty: The Hidden Profit Killer
Nimiq difficulty adjusts every block, meaning profitability can shift within hours during periods of miner influx or exodus. When a major pool changes its payout structure or a competing coin becomes less profitable, hashrate floods into the Nimiq network and your per-unit revenue compresses accordingly. Monitoring difficulty trends over 7-day and 30-day windows gives you a cleaner picture than spot checks.
Pool selection directly impacts your effective earnings beyond the raw hashrate math. Pool fees typically range from 0% to 2%, and payout frequency affects how quickly you can compound or liquidate earnings. Miners comparing their options should evaluate the fee structures and minimum payout thresholds across the most profitable pool configurations available before committing hardware.
Once your profitability model is built and validated, the practical next step is hardware configuration. The difference between theoretical hashrate and what your rig actually delivers comes down to driver versions, memory timings, and cooling — factors covered in detail when you set up your GPU rig for Nimiq specifically. A misconfigured GPU losing 15% of potential hashrate is a permanent daily drag on every profitability calculation you've made.
Solo Mining vs. Pool Mining: When Each Strategy Pays Off
The choice between solo and pool mining is one of the most consequential decisions a Nimiq miner makes — and it's not simply about which option generates more NIM. It's about risk tolerance, hardware capacity, and the mathematics of probability. Getting this wrong means either leaving money on the table or grinding away with zero block rewards for weeks.
The Case for Pool Mining: Consistent Returns at Scale
Pool mining aggregates hashrate from hundreds or thousands of participants, dramatically smoothing out the variance in block discovery. Your rewards are proportional to your contributed hashrate, paid out regularly regardless of whether your individual machine found a block. For miners running between 1 and 50 GPUs, this consistency is almost always the rational choice. When you're contributing, say, 200 KH/s to a pool with a combined 10 MH/s, you capture roughly 2% of every block reward — predictably, every hour.
The practical considerations for pool selection go beyond just fee percentages. Payout thresholds, server latency, and pool uptime all affect your effective earnings. A pool charging 1% with frequent downtime will underperform a 2% pool with 99.9% uptime. Before committing your hashrate, review the pools that consistently deliver the best net returns for Nimiq miners — the differences in fee structures and payout mechanisms are substantial.
Solo Mining: The High-Variance Play for Serious Operations
Solo mining only becomes mathematically sensible when your hashrate represents a meaningful fraction of the network's total difficulty. With Nimiq's current network hashrate, a solo miner generally needs at least 500 KH/s sustained before the expected time-to-block drops below a reasonable threshold — otherwise, you're statistically likely to go weeks or months without a single reward. The block reward itself is fixed, so the question is purely: how long will you wait?
There's a concrete break-even analysis worth running here. If the network mines a block roughly every minute and you control 1% of total hashrate, your expected block interval as a solo miner is approximately 100 minutes. That's viable. At 0.1% of network hashrate, you're looking at a 1,000-minute average wait — nearly 17 hours per block. Use a Nimiq mining calculator to model your specific hashrate against current network difficulty before making this decision, because the numbers shift with every difficulty adjustment.
Solo mining does have legitimate advantages beyond pure probability math:
- No pool fees: You keep 100% of the block reward plus transaction fees
- No dependency risk: Pool downtime or sudden closure doesn't affect your operation
- Privacy: Your mining activity isn't aggregated with others or visible to a pool operator
- Full block reward: When you hit a block, it's a significant lump sum — useful for certain treasury management strategies
The software setup also differs meaningfully between the two approaches. Solo mining requires running a full Nimiq node and configuring your miner to submit work directly to your local node, while pool mining just needs a stratum connection. The mining clients that handle both configurations most reliably matter here — some tools handle solo node integration significantly better than others.
The bottom line: if your operation runs fewer than 10 GPUs dedicated to Nimiq, pool mining is almost certainly the correct choice. For large-scale operations with 20+ high-end GPUs, running the numbers on solo mining becomes genuinely worthwhile — especially during periods of lower network participation when your relative hashrate share increases.
Evaluating and Selecting Nimiq Mining Pools by Fee Structure and Payout Model
Pool selection is one of the most consequential decisions a Nimiq miner makes, yet many operators focus exclusively on hashrate size while ignoring the fee architecture that directly determines take-home yield. A pool advertising "low fees" can still underperform a competitor charging more, depending on how those fees interact with payout frequency, minimum thresholds, and variance smoothing. Understanding the mechanics behind each model lets you make an apples-to-apples comparison instead of chasing marketing copy.
Decoding the Major Payout Models
The two dominant structures in Nimiq mining are Pay-Per-Share (PPS) and Proportional (PROP), with several hybrid variants in between. PPS pools guarantee a fixed NIM payout for every valid share submitted, regardless of whether the pool finds a block that round. This eliminates variance for the miner but shifts all luck risk to the operator, who compensates by charging higher fees — typically 2–4% on Nimiq pools. PROP pools distribute block rewards proportionally among contributors to the winning round, meaning a string of unlucky rounds produces no income at all, while a fortunate streak can significantly overpay. For miners running sub-10 MH/s hardware, PROP variance can produce week-long dry spells that feel catastrophic even when the math is neutral over 30 days.
PPLNS (Pay Per Last N Shares) sits between these extremes. It calculates payouts based on shares submitted within a rolling window rather than a single round, which smooths variance considerably while keeping fees in the 1–2% range. Most serious Nimiq pool operators have migrated toward PPLNS because it aligns miner incentives — pool-hopping becomes statistically unprofitable since new joiners contribute shares without immediately harvesting the accumulated window. If you're running dedicated ASICs or GPU rigs that stay online consistently, PPLNS at a 1% fee will nearly always beat PPS at 3% over a 90-day horizon.
Minimum Payout Thresholds and Their Hidden Cost
A frequently overlooked factor is the minimum payout threshold. Pools commonly set floors anywhere from 500 NIM to 5,000 NIM before triggering an automatic transfer. For a miner earning 200 NIM per day, a 5,000 NIM threshold means your capital sits idle for 25 days, generating zero compounding potential. When you compare the leading pool options side by side, always convert the threshold into days-at-your-hashrate to understand the true float cost. Some pools offer configurable thresholds or daily forced payouts for a small surcharge — often worth paying if NIM liquidity matters to your operation.
Transaction fees on the Nimiq blockchain are negligible compared to Ethereum or Bitcoin, so pools using frequent small payouts impose minimal on-chain overhead. This makes low-threshold pools genuinely attractive rather than a marketing gimmick. Before committing to any pool, verify their fee transparency: the operator should publish a real-time statistics dashboard showing round duration, current hashrate, shares accepted per miner, and historical block luck. Opaque pools that only show "coming soon" dashboards are a red flag regardless of advertised fee rates.
Running a proper profit simulation with realistic pool fee inputs will reveal that the difference between a 1% PPLNS pool and a 3% PPS pool at 50 MH/s amounts to roughly 730 NIM monthly at current network difficulty — meaningful money that compounds further if you're reinvesting. Factor in payout delays caused by high thresholds, and some nominally cheaper pools end up costing more in opportunity cost than their expensive-looking competitors.
Optimizing Mining Software Configuration for Maximum Hashrate Output
Raw hardware performance means nothing if your mining software is misconfigured. Most miners leave 10–25% of their potential hashrate on the table simply by running default settings. Nimiq's browser-based origins don't mean the underlying mining logic is forgiving — the CryptoNote-derived Argon2d algorithm is memory-hard and highly sensitive to thread count, memory allocation, and CPU affinity settings. Getting these parameters right is the difference between 800 H/s and 1,100 H/s on the same machine.
Thread Count and CPU Affinity Tuning
The single most impactful variable in Nimiq mining is thread count. Unlike GPU workloads that scale linearly, Argon2d on CPUs hits a sweet spot typically at physical core count minus one. Running threads equal to your logical core count (hyperthreads included) almost always degrades performance because Argon2d's memory access patterns create cache contention between sibling threads. On a 16-core Ryzen 9 5950X, testing consistently shows peak hashrate at 15 threads, not 32. Always benchmark in 5-minute intervals and log results before locking in your configuration.
CPU affinity pinning prevents the OS scheduler from migrating mining threads to efficiency cores or thermal-throttled cores on hybrid architectures like Intel's Alder Lake. In most serious mining software, you'll find a cpu_affinity mask or an explicit core list parameter. Binding threads to your P-cores exclusively on a Core i9-12900K can recover 8–12% hashrate that the scheduler would otherwise waste on E-cores. If you're still deciding which tool handles these controls best, the breakdown of the most capable Nimiq miners currently available covers per-application configuration depth in detail.
Memory and Intensity Settings
Argon2d requires 512 KB of memory per thread for Nimiq's current parameters. This means a 12-thread miner needs a minimum of 6 MB of L3 cache accessible without heavy contention — systems where L3 exceeds 32 MB show noticeably better sustained hashrates. If your miner exposes an intensity or scratchpad multiplier setting, start at 1x and only increase if your memory bandwidth benchmarks (run via tools like AIDA64) show headroom above 40 GB/s on the target cores.
For GPU miners, the configuration approach shifts entirely. Worksize (also called local work size or thread grouping) should be tested in powers of two — 32, 64, 128 — because GPU wavefront/warp sizes dictate which value eliminates idle execution units. On an RX 6700 XT, a worksize of 128 typically outperforms 64 by 6–9%. The practical setup process for GPU-specific parameters is covered thoroughly in the guide on getting your GPU configured and running for Nimiq.
Beyond hardware-level tuning, your pool connection settings indirectly affect effective hashrate. High-latency pool connections mean stale shares, which consume real computational work without yielding rewards. Set your miner's share timeout to match your measured ping to the pool server — most miners default to 30 seconds, but 10–15 seconds is appropriate if you're sub-20ms to your pool. Choosing a geographically close, low-variance pool matters here; the analysis in finding the right pool for your mining setup includes latency considerations alongside fee structures. Benchmark your configuration changes over at least 2 hours of continuous runtime — short windows obscure Argon2d's variance and produce misleading averages.
- Thread count: Start at physical cores minus one, benchmark against full physical core count
- CPU affinity: Pin to P-cores on hybrid architectures; avoid E-cores entirely
- GPU worksize: Test 32/64/128 — optimal value is hardware-specific
- Share timeout: Reduce to 10–15 seconds on low-latency pool connections
- Memory allocation: Verify 512 KB per thread is covered by accessible L3 cache
Risk Factors in Nimiq Mining: Network Difficulty, Market Volatility, and Hardware Depreciation
Mining Nimiq is not a passive income machine you can set up and forget. Anyone who has operated GPU rigs for more than a few months knows that the real challenge isn't getting started — it's managing the compounding risks that erode margins over time. Three forces consistently determine whether a mining operation stays profitable or bleeds money: network difficulty adjustments, NIM price swings, and the relentless depreciation of hardware.
Network Difficulty and the Hashrate Arms Race
Nimiq's proof-of-work algorithm, Albatross combined with the CPU/GPU-friendly mining design, means the network difficulty adjusts dynamically based on total hashrate. When NIM price rises, more miners join, difficulty climbs, and your share of block rewards shrinks proportionally. In practical terms, a rig that generated 0.85 NIM per hour during a low-difficulty period might yield only 0.52 NIM per hour after a significant hashrate influx — a 39% revenue drop with zero changes on your end. Before committing capital, use a dedicated mining calculator to model different difficulty scenarios and stress-test your assumptions across a realistic range, not just current conditions.
Pool selection also interacts with difficulty risk. Smaller pools experience higher variance in block discovery, meaning your earnings can be highly irregular even if your expected value is correct on paper. Larger, well-established operations smooth this variance significantly. Reviewing which mining pools currently offer the best combination of fee structure and payout consistency is a practical step that directly mitigates income volatility caused by difficulty spikes.
Market Volatility and Hardware Depreciation
NIM price volatility is arguably the most unpredictable variable. Altcoins with smaller market caps like Nimiq can move 40–70% in either direction within weeks. A mining setup that generates a 20% monthly ROI at $0.004 per NIM becomes cash-flow negative below roughly $0.0024 per NIM, assuming a typical electricity cost of $0.08/kWh. Holding mined NIM in anticipation of price recovery is a legitimate strategy, but it transforms mining into a leveraged bet on price — requiring adequate liquidity reserves to cover ongoing electricity bills.
Hardware depreciation follows a brutal curve in GPU mining. A mid-range GPU purchased for $350 today may retain only 40–50% of its resale value after 18 months, especially if a new GPU generation launches. This depreciation must be factored into your cost-per-NIM calculation as an amortized daily expense. Miners who ignore this consistently overestimate profitability. For those just entering the space, the practical hardware selection process should prioritize GPUs with strong resale markets — Nvidia's mainstream lineup historically holds value better than budget alternatives.
Key risk mitigation practices experienced miners use:
- Break-even price mapping: Calculate the minimum NIM price at which your operation covers electricity plus amortized hardware costs monthly
- Difficulty buffer: Plan for at least 25–35% difficulty increase over a 6-month horizon when projecting returns
- Partial liquidation strategy: Sell a fixed percentage of mined NIM weekly to cover fiat-denominated costs, holding the remainder
- Hardware exit planning: Define in advance the GPU resale trigger point — typically when monthly revenue drops below 60% of peak earnings
The miners who survive multiple market cycles share one trait: they treat mining as an operational business with defined thresholds, not a speculative hobby. Building explicit risk parameters before deployment separates sustainable operations from those that quietly shut down when the first difficulty spike hits.
Scaling a Nimiq Mining Operation: Multi-GPU Rigs, Power Management, and Cost Efficiency
Moving from a single-GPU setup to a multi-GPU mining rig fundamentally changes how you approach hardware management, power distribution, and profitability calculations. Once you've got the basics down from setting up your first GPU for Nimiq, the logical next step is stacking multiple cards to maximize your hashrate per square foot of rack space. A well-built 6-GPU rig running RX 6600 cards, for example, can deliver around 60–70 MH/s combined while consuming roughly 600–700W at the wall — a significantly better efficiency ratio than running six separate machines.
Scaling isn't just about adding more GPUs. The bottleneck often shifts to your motherboard's PCIe lanes, your PSU headroom, and your airflow setup. Use a mining motherboard with at least 6–8 PCIe slots and pair it with a CPU that supports the required lanes without throttling. For PSU sizing, apply the 80% rule: if your total GPU TDP adds up to 800W, you need a 1000W Gold or Platinum-rated PSU. Running a PSU above 80% load for extended periods degrades components faster and raises your electricity cost per hash.
Power Management: Where Real Margins Are Made
Power optimization is the single highest-leverage action you can take in a scaled operation. Undervolting your GPUs through tools like MSI Afterburner or OverdriveNTool can cut power draw by 20–30% while maintaining 95%+ of peak hashrate. An RX 6700 XT that stock pulls 180W can often be tuned to 120–130W with minimal hashrate loss on Nimiq's RandomX-based algorithm — that's 50W saved per card, or 300W across a 6-card rig. At €0.30/kWh, that's over €65 saved monthly per rig.
Monitor your actual wall power with a smart power meter like the Shelly EM or a Kill-A-Watt device. Software readings from GPU utilities frequently underreport real consumption by 5–10% because they exclude motherboard, CPU, RAM, and storage draw. Accurate wall readings feed directly into the profitability models you build with a proper mining calculator to optimize your revenue projections.
Infrastructure and Operational Scaling
Beyond hardware, scaling demands systematic infrastructure decisions. Key considerations for operating 3+ rigs reliably include:
- Dedicated circuit breakers: Run each high-wattage rig on its own 16A or 20A circuit to avoid tripping shared breakers
- Remote monitoring: Deploy tools like HiveOS or RaveOS to track hashrate, temperatures, and uptime across all machines from a single dashboard
- Thermal management: Aim for GPU core temps below 70°C and memory temps below 90°C — sustained high memory temps on GDDR6 cards accelerate degradation faster than core heat
- Redundant internet: A 4G LTE backup connection eliminates pool disconnect losses during ISP outages, which matter more as your operation grows
Software choices also compound at scale. Running optimized miners that squeeze every hash from your hardware matters more when you have ten cards than when you have one. Revisiting your software stack and ensuring you're running the most efficient clients for Nimiq's algorithm — as covered in the guide to choosing the right mining software for performance gains — directly multiplies across your entire fleet. A 3% efficiency improvement that seems marginal on one GPU translates to meaningful monthly revenue differences across a 10-card operation running 24/7.
FAQ about Nimiq Mining
What is Nimiq Mining?
Nimiq mining refers to the process of validating transactions and creating new NIM tokens on the Nimiq blockchain using the Argon2d algorithm, which allows mining directly through a web browser.
What hardware is recommended for Nimiq Mining?
For effective Nimiq mining, CPUs with large L3 caches, such as AMD Ryzen or EPYC processors, are recommended. GPUs with high memory bandwidth like the NVIDIA RTX series also perform well.
How does browser-based mining work?
Browser-based mining in Nimiq operates through WebAssembly and JavaScript, allowing users to mine using their web browser without the need for any local software installation.
What is the impact of difficulty adjustments in Nimiq mining?
Nimiq's network difficulty adjusts every block, affecting the profitability of mining. As more miners join, the difficulty increases, which can reduce the revenue per miner.
Should I choose solo or pool mining for Nimiq?
For most miners, pool mining is recommended for consistent returns. Solo mining can be viable, but it generally requires a significant hashrate to be effective.
