Skip to content
KAS/USDMARKET CAPHASHRATEBLOCK RATE10 /secBLOCK TIME100 msBLOCK REWARDCIRCULATINGMEMPOOLCONSENSUSGHOSTDAGNODEPREMINENONESUPPLY CAP28.70 B KAS
KAS/USDMARKET CAPHASHRATEBLOCK RATE10 /secBLOCK TIME100 msBLOCK REWARDCIRCULATINGMEMPOOLCONSENSUSGHOSTDAGNODEPREMINENONESUPPLY CAP28.70 B KAS
Chapter 05 — mining

kHeavyHash,
costed honestly

Kaspa is mined with proof-of-work, and since 2023 that has meant ASICs. The calculator below uses the live network hashrate and the live block reward instead of the flattering defaults most profitability tools ship with — which is why the numbers it produces are lower, and why you can act on them.

At a glance
AlgorithmkHeavyHash
Block rate10 / sec
Difficulty retargetContinuous
HardwareASIC (GPU obsolete)
Network hashrate
Block reward
Profitability model

What a rig actually earns today

§ 01 — live inputs, no flattering defaults

Your share of the network hashrate multiplied by total daily issuance, minus the pool cut, minus the electricity. Difficulty is assumed constant, which it will not be — treat the output as a snapshot of current conditions, not a forecast.

Hardware preset
TH/s
W
$/kWh

All-in delivered cost, including transmission and tax.

%
%

Reduces both revenue and the power bill.

$

Optional — enables a payback estimate.

Efficiency
Your share of the network
Reading the network

kHeavyHash, and why it exists

Kaspa’s proof-of-work function is kHeavyHash, built around matrix multiplication rather than repeated cryptographic hashing. Two motivations. The obvious one is efficiency: the design does less work per unit of security than SHA-256, so the same security costs less electricity. The more speculative one is that matrix multiplication is a natural fit for optical computing, which would make the hardware substantially more efficient again if that technology ever becomes practical. Treat the second as a possibility, not a roadmap.

kHeavyHash was ASIC-resistant only in the sense that ASICs did not exist for it yet. During 2023 machines from IceRiver, Bitmain and others arrived and pushed GPUs out entirely. That is the normal trajectory for any proof-of-work function with meaningful value behind it, and it happened faster here than most.

Continuous difficulty retargeting

Bitcoin adjusts difficulty every 2016 blocks — roughly two weeks. If hashrate halves, blocks come at twenty-minute intervals until the next adjustment arrives. Kaspa retargets continuously, so the network absorbs hashrate changes in seconds. This is not a minor convenience: at 100 millisecond blocks, a two-week adjustment window would be structurally unworkable.

The practical consequence for a miner is that there is no window of favourable difficulty to exploit after a hashrate drop. Your share of the network is essentially your hashrate divided by the network’s, continuously.

Solo versus pool

At ten blocks per second there are 864,000 blocks a day, which means small miners hit blocks more often than they would on a slow chain — but variance is still brutal unless you control a meaningful share. Pools smooth it out and take a fee, typically around one percent. Solo mining is realistic here for larger operations in a way it is not on Bitcoin, and it is worth modelling both.

Whatever you choose, point the miner at a payout address in a wallet whose seed phrase you hold. Mining into an exchange deposit address means your income depends on that exchange staying solvent, cooperative and unhacked.

Getting started, in order

  1. Set up a wallet you control and verify you can receive a small test amount. Do this before buying hardware.
  2. Model the economics with your real electricity price. If the break-even electricity price above is below what you pay, no amount of enthusiasm fixes it.
  3. Confirm your power infrastructure. A 3.2 kW machine on a domestic circuit is a genuine electrical question, not a formality.
  4. Plan cooling and noise before delivery. These machines are industrial equipment.
  5. Choose a pool, configure the payout address, and check the first payout actually arrives in your wallet.
  6. Re-run the numbers every month. The subsidy drops 5.61% each Kaspa month whether or not you were watching.
Hardware, published specifications
KS0 Pro
IceRiver
0.2 TH/s
500 W/TH
KS2
IceRiver
2 TH/s
600 W/TH
KS3
IceRiver
8 TH/s
400 W/TH
KS5L
IceRiver
12 TH/s
283 W/TH
Antminer KS3
Bitmain
8.3 TH/s
384 W/TH
Antminer KS5 Pro
Bitmain
21 TH/s
150 W/TH

Manufacturer-published figures, rounded. Real hashrate and draw vary with firmware, tuning and ambient temperature. Verify against the vendor’s current specification before purchasing — this list is a starting point for the calculator, not a buying guide.

A note on secondhand hardware

An ASIC is a depreciating asset attached to a declining subsidy. Machines from the 2023 wave are cheap now for a reason: their W/TH figure no longer clears the electricity price in most places. Efficiency, not sticker price, is what determines whether a rig survives the next few reductions.

Chapter 05 — mining

kHeavyHash,
costed honestly

Kaspa is mined with proof-of-work, and since 2023 that has meant ASICs. The calculator below uses the live network hashrate and the live block reward instead of the flattering defaults most profitability tools ship with — which is why the numbers it produces are lower, and why you can act on them.

At a glance
AlgorithmkHeavyHash
Block rate10 / sec
Difficulty retargetContinuous
HardwareASIC (GPU obsolete)
Network hashrate
Block reward
Profitability model

What a rig actually earns today

§ 01 — live inputs, no flattering defaults

Your share of the network hashrate multiplied by total daily issuance, minus the pool cut, minus the electricity. Difficulty is assumed constant, which it will not be — treat the output as a snapshot of current conditions, not a forecast.

Hardware preset
TH/s
W
$/kWh

All-in delivered cost, including transmission and tax.

%
%

Reduces both revenue and the power bill.

$

Optional — enables a payback estimate.

Efficiency
Your share of the network
Reading the network

kHeavyHash, and why it exists

Kaspa’s proof-of-work function is kHeavyHash, built around matrix multiplication rather than repeated cryptographic hashing. Two motivations. The obvious one is efficiency: the design does less work per unit of security than SHA-256, so the same security costs less electricity. The more speculative one is that matrix multiplication is a natural fit for optical computing, which would make the hardware substantially more efficient again if that technology ever becomes practical. Treat the second as a possibility, not a roadmap.

kHeavyHash was ASIC-resistant only in the sense that ASICs did not exist for it yet. During 2023 machines from IceRiver, Bitmain and others arrived and pushed GPUs out entirely. That is the normal trajectory for any proof-of-work function with meaningful value behind it, and it happened faster here than most.

Continuous difficulty retargeting

Bitcoin adjusts difficulty every 2016 blocks — roughly two weeks. If hashrate halves, blocks come at twenty-minute intervals until the next adjustment arrives. Kaspa retargets continuously, so the network absorbs hashrate changes in seconds. This is not a minor convenience: at 100 millisecond blocks, a two-week adjustment window would be structurally unworkable.

The practical consequence for a miner is that there is no window of favourable difficulty to exploit after a hashrate drop. Your share of the network is essentially your hashrate divided by the network’s, continuously.

Solo versus pool

At ten blocks per second there are 864,000 blocks a day, which means small miners hit blocks more often than they would on a slow chain — but variance is still brutal unless you control a meaningful share. Pools smooth it out and take a fee, typically around one percent. Solo mining is realistic here for larger operations in a way it is not on Bitcoin, and it is worth modelling both.

Whatever you choose, point the miner at a payout address in a wallet whose seed phrase you hold. Mining into an exchange deposit address means your income depends on that exchange staying solvent, cooperative and unhacked.

Getting started, in order

  1. Set up a wallet you control and verify you can receive a small test amount. Do this before buying hardware.
  2. Model the economics with your real electricity price. If the break-even electricity price above is below what you pay, no amount of enthusiasm fixes it.
  3. Confirm your power infrastructure. A 3.2 kW machine on a domestic circuit is a genuine electrical question, not a formality.
  4. Plan cooling and noise before delivery. These machines are industrial equipment.
  5. Choose a pool, configure the payout address, and check the first payout actually arrives in your wallet.
  6. Re-run the numbers every month. The subsidy drops 5.61% each Kaspa month whether or not you were watching.
Hardware, published specifications
KS0 Pro
IceRiver
0.2 TH/s
500 W/TH
KS2
IceRiver
2 TH/s
600 W/TH
KS3
IceRiver
8 TH/s
400 W/TH
KS5L
IceRiver
12 TH/s
283 W/TH
Antminer KS3
Bitmain
8.3 TH/s
384 W/TH
Antminer KS5 Pro
Bitmain
21 TH/s
150 W/TH

Manufacturer-published figures, rounded. Real hashrate and draw vary with firmware, tuning and ambient temperature. Verify against the vendor’s current specification before purchasing — this list is a starting point for the calculator, not a buying guide.

A note on secondhand hardware

An ASIC is a depreciating asset attached to a declining subsidy. Machines from the 2023 wave are cheap now for a reason: their W/TH figure no longer clears the electricity price in most places. Efficiency, not sticker price, is what determines whether a rig survives the next few reductions.