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Asic Miner Profitability
Our mining profitability calculator helps users quickly pinpoint the most lucrative mining options by delivering real-time data in multiple fiat and cryptocurrency currencies, including USD, EUR, GBP, AED, CAD, AUD, THB, ETH, and BTC. It allows precise electricity cost inputs up to three decimal places for highly accurate profit estimations. Users can access a clear overview of top-performing miners, algorithm-specific performance tables, and visually organized listings of mineable coins with recognizable cryptocurrency icons, simplifying decisions for maximum returns.
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Profitability
Profit
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Our cutting-edge mining calculator offers comprehensive insights across all major cryptocurrency algorithms, helping users easily identify the most profitable options for their specific hardware. The algorithm data is continuously refreshed to keep pace with the dynamic crypto mining industry, providing accurate evaluations based on real-time profitability statistics and overall market activity. This empowers users to make well-informed choices that reflect the latest mining conditions and algorithm performance.
Bitcoin Mining Difficulty
Monitor the latest Bitcoin network difficulty metrics in real time, including block times & estimated time until the next difficulty adjustment.
Progress
Current progress:
61.51 %
Remaining Block
Blocks Left:
776
Remaining Time
Time Left:
~ 5 days 1 hours
Next Change
Upcoming change:
6.9 %
Block Time
Current Block Time:
9.4 minutes
What is Blake256r8 algorithm?
Why Should You Rely on Our Profit Calculator for Accurate Mining Insights?
Blake256r8 belongs to the Blake family that reached the finalist stage in the NIST SHA‑3 process. It produces 256‑bit digests using 32‑bit words and the HAIFA framework with a counter and optional salt. The r8 label signals eight rounds instead of the fourteen used in Blake256r14. Fewer rounds decrease latency and raise throughput, which improves mining efficiency under strict power envelopes. The design incorporates a ChaCha‑inspired mixing function that strengthens diffusion and allows clean parallel scheduling. State transitions follow a regular pattern, so power draw traces behave like a quiet metronome that enables predictive thermal control. The workload is compute bound with a small memory footprint, so DRAM and PCIe bandwidth seldom limit performance. This profile scales cleanly across SIMD lanes, GPU warps, and FPGA pipelines. On FPGAs, implementers often unroll the eight rounds, balance pipeline depth, and lock routing to close timing and reduce stalls. They also tune clock domains and apply clock gating to idle logic to cut switching losses. On GPUs, careful undervolting with steady core clocks can lift hashes per watt without destabilizing kernels. Hash stability is tracked through rejected shares, stale shares, and error counters during long sessions. Occupancy tuning through register budgeting, block sizing, and launch configuration removes pipeline bubbles. Thermal reliability improves when heatsink pressure, airflow direction, and dust control are maintained with discipline. ASIC designs can exploit the algorithm’s regular round structure with deep pipelines and minimal on‑chip memory. Public analysis of reduced‑round Blake variants has not produced practical attacks for typical mining use, though the security margin is lower than r14. The output distribution remains sufficiently uniform for nonce search and pool verification. Data‑driven planning uses profitability calculators that incorporate network difficulty, personal hashrate, pool fees, uptime, energy draw, and market volatility, and rolling averages help smooth these inputs to guide stable operating points.
Latest ASIC Miners
Check out the latest ASIC miners added to our site. These are the newest listings, featuring the most recent models.
V3
Nerdminer
AE3
IceRiver
Antminer L11 Hyd 2U
Bitmain
Why ASIC Mining?
The Advantages of ASIC Mining Compared to Other Mining Types
ASIC (Application-Specific Integrated Circuit) mining involves specialized hardware designed exclusively for mining cryptocurrencies like Bitcoin, offering unmatched efficiency and performance. Unlike general-purpose GPUs, ASICs are optimized for specific algorithms, delivering significantly higher hashrates while consuming less power per hash. This makes them far superior for mining tasks, as they maximize profitability by reducing electricity costs and increasing mining output. ASIC miners are purpose-built, providing stability and reliability in high-demand mining environments, unlike GPUs which are prone to overheating and wear during prolonged use. Their compact design also allows for easier scalability in large mining operations. By focusing solely on mining, ASICs eliminate the overhead of multi-purpose computing, resulting in faster block-solving times. This efficiency translates to higher rewards, making ASICs the preferred choice for serious miners aiming to stay competitive in the cryptocurrency market. In contrast, GPU mining, while versatile, cannot match the raw power and cost-effectiveness of ASICs for dedicated mining tasks.
Optimized for Mining
Energy Efficient
Reliable & Stable
Scalable
More about the Blake256r8 algorithm
See how our profit calculator delivers accurate, real-time mining insights, helping miners make informed decisions.
Seasoned cryptographers observe that Blake256r8, a 256-bit member of the BLAKE family and a finalist in the NIST SHA-3 competition, leverages round-reduced permutations and the HAIFA construction to compress data efficiently under constrained conditions while mitigating classic Merkle–Damgård weaknesses such as length extension; its r8 parameter signals eight rounds rather than fourteen in Blake256r14, trading some theoretical security margin for notably higher throughput that suits mining’s relentless cadence, much as a field commander adjusts tempo without abandoning discipline. Drawing on extensive academic scrutiny of full-round BLAKE, the design integrates a variant of Daniel Bernstein’s ChaCha quarter-round (the G function), which drives strong diffusion, supports parallelizable transformations, and benefits from SIMD-friendly implementations on modern CPUs and GPUs; practical optimizations include endianness-aware loads, loop unrolling, rotate-and-xor intrinsics, and careful register allocation to minimize latency. HAIFA’s explicit counter and optional salt strengthen domain separation and thwart trivial length manipulations, while the 256-bit output preserves a broad preimage and collision security target; although reduced-round variants attract cryptanalytic attention, no practical attacks undermine its use in proof-of-work, where unpredictability, avalanche behavior, and verification speed dominate. In the mining trenches, operators refine memory timings, power limits, undervolt/overclock curves, and thermal profiles to hold optimal hashrates without eroding component longevity, guarding VRM thermals and avoiding throttling; network-side, low-latency share submission and tuned stratum connections reduce stales and stabilize revenue cadence. Firmware and kernels increasingly exploit specialized instruction sets-SSE/AVX2/AVX-512 on x86, NEON on ARM-and employ pipelined, branchless code paths to shrink per-hash cycles, while constant-time operations provide stable performance characteristics and predictable power draw. On dedicated silicon, next-generation designs explore aggressive clock and power gating, retiming, and floorplanning to cut dynamic and leakage power, alongside compact on-die scratchpads and wide datapaths that raise energy-per-hash efficiency; these architectures emphasize high parallel occupancy, deterministic pipelines, and minimal memory traffic, reflecting a sober calculus in which every joule must justify itself. The result is a hash function and ecosystem that balance speed with resilient design principles: fast verification for nodes, low memory footprint for high-throughput devices, and a security posture informed by peer-reviewed cryptanalysis-an operational doctrine that, like any prudent strategy, seeks advantage without hubris in a landscape where entropy is the only undefeated adversary.
