MIX · mixer concept
-Bitcoin started as proof of work: scarce money and ownership that does not depend on who already holds the coins.
-Proof of stake replaced work with capital. That is a different system.
-Kaspa kept Bitcoin’s proof of work and upgraded it: 10 blocks per second on average, now programmable.
-Bitcoin started as proof of work: scarce money and ownership that does not depend on who already holds the coins.
-Proof of stake replaced work with capital. That is a different system.
-Kaspa kept Bitcoin’s proof of work and upgraded it: 10 blocks per second on average, now programmable.
mixer concept · Parker inspects. STP doors. PegLab depegs. Live DAG. No price talk.
Four doors · STP
Who is reading.
Four lessons, beginner to expert. Each door keeps the same principles, then shows Parker’s Kaspa models so you can break a rule instead of reading a brochure.
BeginnerDigital cash. Proof of work. Parallel blocks stay. Inclusion is not acceptance. Door 2
IntermediateStill PoW. A DAG is not a double-spend pass. Live versus later. Door 3
AdvancedSkip the pitch. Toccata live. Tooling young. A live rule is not an app. Door 4
ExpertPrice is not a protocol. Speed is not a new security story.
I am… each chip opens the matching door.
Parker · learn
Understand what happens to your payment.
Kaspa is a proof-of-work network for sending KAS. Miners can create blocks in parallel. Follow how those blocks become an ordered history, and what makes a payment valid.
Explanations you can inspect. Sources you can check.
Miner 2 found C before hearing about B. Both blocks build on A.
Arrows reference earlier blocks.Select A, B, C, or D in the scene to see its references.
Found B at 100 ms.
Found C without knowing B.
Inspect the timing
Adjust the delay and inspect a block
An illustrative two-miner model. Discoveries stay fixed at 100 and 400 ms. The same delay applies both ways. Packet positions show elapsed delivery, not physical distance.
Model assumptions and event times
Delivery occurs before discovery at an exact tie. Real mining is random. D is a possible later block, not a timed discovery. This example calculates neither GHOSTDAG nor confirmation confidence.
| Time | Event |
|---|---|
| 0 ms | Both miners know A. |
| 100 ms | Miner 1 finds B, referencing A. |
| 400 ms | Miner 2 finds C, referencing A. |
| 600 ms | Miner 2 receives B. |
| 900 ms | Miner 1 receives C. |
Try a spending rule.
Local illustration · no wallet or network funds
3 coins for one digital tool
The buyer has the coins. The seller has the digital tool.
Spend up to 2 crops. Receive at least 1 resource.
The owner keeps the assets; the helper gets a limited spending allowance.
Whole numbers 1–15. Product 42; sum 13.
The 0.13 tKAS reward stays locked until the settings pass the check.
A route through the essentials
Start at the beginning or open the topic you need. Each explanation includes something to inspect or try.
- 01Understand the network
See why blocks can arrive in parallel while a payment can spend an output only once.
- 02Follow a payment
Trace the payment, change and fee, then inspect what acceptance establishes.
- 03Test a spending rule
Try a forbidden withdrawal and discover what a signature cannot authorize.
- 04Evaluate the tradeoffs
Connect speed, mining, validation and application claims to their assumptions.
Kaspa Graph Inspector
A modest live view of the blockDAG. Open it in its own tab if the frame is quiet.
Open kgi.kaspad.netPlayground
Bring your tKAS.
See the rules.
Log in with Kasware on Testnet 10, make a local test wallet, or paste a kaspatest: address you already mine to. The models do not spend your coins unless you send.
Open the playgroundSprout Harbor · Testnet-10
Play a small KAS economy.
Build a greenhouse, pay Pip, sell the harvest, deliver the food. Parker’s town, on free test coins. Production and physical delivery are game rules.
Enter the town