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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.
| Model | Hashrate |
Profitability
Profit
|
|---|---|---|
|
Bitmain Antminer L11 Hyd 2U
35GH/s
|
35 GH/s |
$16.57/day
|
|
Bitmain Antminer L11 Hyd 6U
33GH/s
|
33 GH/s |
$15.18/day
|
|
Bitmain Antminer L9 Hyd 2U
27GH/s
|
27 GH/s |
$10.45/day
|
|
Bitmain Antminer L11 Pro
21GH/s
|
21 GH/s |
$9.66/day
|
|
VolcMiner D1 Hydro
30.4GH/s
|
30.4 GH/s |
$9.43/day
|
|
VolcMiner D3
20GH/s
|
20 GH/s |
$8.93/day
|
|
Bitmain Antminer L11
20GH/s
|
20 GH/s |
$8.74/day
|
|
ElphaPex DG2+
20.5GH/s
|
20.5 GH/s |
$8.71/day
|
|
VolcMiner D1 Hydro
33GH/s
|
33 GH/s |
$8.22/day
|
|
VolcMiner D1 Pro
18GH/s
|
18 GH/s |
$7.51/day
|
|
VolcMiner D1
18.5GH/s
|
18.5 GH/s |
$7.13/day
|
|
Bitmain Antminer L9
17GH/s
|
17 GH/s |
$6.98/day
|
|
Bitmain Antminer L9
16GH/s
|
16 GH/s |
$6.19/day
|
|
ElphaPex DG2
16GH/s
|
16 GH/s |
$5.89/day
|
|
VolcMiner D1
16GH/s
|
16 GH/s |
$5.49/day
|
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 Scrypt algorithm?
Why Should You Rely on Our Profit Calculator for Accurate Mining Insights?
Scrypt rests on a sequential memory-hard design that drives large working sets through ROMix and BlockMix using Salsa20/8, so memory bandwidth rather than raw arithmetic becomes the throttle of performance; its parameters N, r, and p raise memory cost, block size, and parallel lanes, and each can be tuned to fit hardware or threat models; this approach could blunt the edge of custom silicon because provisioning vast low-latency memory at scale is costly and awkward; early networks leaned on that premise to widen participation beyond SHA-256 mining, and Litecoin’s 2.5-minute blocks plus Dogecoin’s 1-minute cadence illustrate a bias toward faster confirmation; Dogecoin later embraced auxiliary proof-of-work with Litecoin, which lifted security and steadied incentives through merged rewards; Scrypt-N pushed the idea further by stepping N upward over time to keep ASICs chasing a moving target, though modern Scrypt ASICs now ship with substantial on-chip or tightly coupled memory and claw back much of the advantage; even so, the memory-bound profile curbs perfect parallel scaling and leaves room for GPUs and, on smaller networks, CPUs; beyond mining, Scrypt anchors password-based key derivation as standardized in RFC 7914, where large per-guess memory and salts raise the price of brute-force attempts; deployments select memory in tens to hundreds of megabytes and tune runtime to meet latency budgets, while p adds concurrency without shrinking per-guess memory; practical mining outcomes hinge on power efficiency in joules per megahash, cooling and uptime, pool fees and stale share rates, network difficulty trends and block reward schedules, and potential merged-mined revenue; a profitability calculator that ingests these variables alongside hashrate and local electricity rates would replace hunches with scenario testing and sensitivity analysis; the net effect is a system inviting broader participation, yet it warns miners that specialization never sleeps; parameters must evolve to keep decentralization alive.
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 Scrypt algorithm
See how our profit calculator delivers accurate, real-time mining insights, helping miners make informed decisions.
Scrypt is a memory-hard cryptographic algorithm that forces computations to traverse a dense jungle of RAM, making brute-force attacks and specialized hardware advantages more arduous, and it was introduced by Colin Percival in 2009 for the Tarsnap backup service before being standardized in RFC 7914; at its core, scrypt wraps PBKDF2-HMAC-SHA256 around a ROMix construction that repeatedly scrambles data with Salsa20/8, and its tunable parameters-N (cost, a power of two), r (block size), and p (parallelization)-let designers dial up memory and bandwidth pressure, with memory usage roughly 128 · r · N bytes (for example, the Litecoin setting N=1024, r=1, p=1 uses about 128 KiB per instance), and increasing these values raises both the time and RAM needed so that attackers face steep time–memory trade-offs if they try to cut corners; this architecture initially blunted ASIC dominance and widened participation to GPUs and CPUs, and its adoption by Litecoin in 2011, followed by Dogecoin, helped decentralize mining while also enabling faster block times than Bitcoin-about 2.5 minutes for Litecoin and 1 minute for Dogecoin-which improves transaction confirmation latency and, through merged mining introduced in 2014, lets Dogecoin benefit from Litecoin’s larger security budget; although specialized scrypt ASICs eventually emerged by integrating large on-chip or high-bandwidth external memory, they remain more complex, costlier to design, and power- and bandwidth-constrained compared to SHA-256 ASICs, preserving a measure of accessibility for commodity hardware and mitigating extreme centralization, with GPU miners still viable due to scrypt’s heavy, sequential memory access patterns; beyond mining, scrypt is widely used as a password-based key derivation function because its memory intensity inflates the cost of guessing attacks, and good practice includes using a unique salt of at least 128 bits, choosing parameters that target a perceptible delay (for example, on the order of hundreds of milliseconds) with substantial memory per hash (tens to hundreds of megabytes for high-value accounts), and adjusting N, r, and p as hardware evolves, while implementers should consider that excessive server-side parameters can enable denial-of-service if many hashes are computed concurrently; scrypt is supported in common libraries such as libsodium and OpenSSL, remains battle-tested, and although modern guidance often favors Argon2id for new systems, scrypt still provides strong, tunable defenses where compatibility and maturity matter; in mining contexts, fairness improves when more participants can contribute with standard GPUs, and profitability can be estimated by considering hashrate, power efficiency, network difficulty, block rewards, and fees, while performance tuning typically revolves around memory bandwidth, latency, and stable thermals; ultimately, by binding computation to memory like roots to rich soil, scrypt advances decentralization in proof-of-work networks and hardens password storage, a versatile design whose resilience endures even as the hardware landscape shifts around it.
