#dusk Everyone who has worked on Ethereum (#ETH ) or L2s like Arbitrum and Optimism should have a pretty clear sense of this. Writing Solidity contracts is certainly convenient, but the moment you get into complex computation or zero-knowledge proofs (ZKPs), the performance of the EVM (Ethereum Virtual Machine) slows down like an old-fashioned car—and the gas fees are also ridiculously expensive. However, if you try to chase performance by building a brand-new low-level language, developers and users simply aren’t willing to “move houses” to adopt it, and the ecosystem ends up freezing over.
Today I looked over the design of @Dusk ($DUSK ) and found the approach it takes to solving this problem quite interesting—it basically turns itself into “LEGO-like modular blocks.”
In simple terms, it splits the underlying layer into three parts:
The bottom “big ledger and settlement layer” (DuskDS): dedicated to running SA consensus and performing data settlement. Think of it as the bank’s main server—it only handles the most fundamental asset finality and security, with no distractions, ensuring extremely high data availability and settlement determinism.
The native “high-speed execution engine” (DuskVM / Piecrust): a native virtual machine powered by Rust and WASM, specifically for handling zero-knowledge proofs and high-complexity private computation. It’s like giving the system a professional graphics card—the ZK privacy transactions get computed at lightning speed.
The “Ethereum-compatible general-purpose facade” (DuskEVM): a compatibility layer prepared for Ethereum ecosystem developers. Developers don’t need to learn a new language—they can use the usual toolchain (Hardhat, Metamask) and directly port Ethereum-based applications over as a drop-in replacement, paying the gas cost via $DUSK .
This design that separates the settlement layer and the execution layer feels like it “painlessly plugs” Ethereum’s massive ecosystem into a super low-level foundation that comes with a built-in ZKP privacy accelerator.
That said, layered architectures are great in theory, but the most challenging part is security across multiple layers. When assets are transferred across layers between DuskEVM and the native privacy layer, the logic complexity doubles—will there be vulnerabilities in the contracts? Can users tolerate the latency of cross-layer settlement? These are the tough trials the mainnet ecosystem must go through before it can truly thrive. Share your thoughts and discuss in the comments!
Today I looked over the design of @Dusk ($DUSK ) and found the approach it takes to solving this problem quite interesting—it basically turns itself into “LEGO-like modular blocks.”
In simple terms, it splits the underlying layer into three parts:
The bottom “big ledger and settlement layer” (DuskDS): dedicated to running SA consensus and performing data settlement. Think of it as the bank’s main server—it only handles the most fundamental asset finality and security, with no distractions, ensuring extremely high data availability and settlement determinism.
The native “high-speed execution engine” (DuskVM / Piecrust): a native virtual machine powered by Rust and WASM, specifically for handling zero-knowledge proofs and high-complexity private computation. It’s like giving the system a professional graphics card—the ZK privacy transactions get computed at lightning speed.
The “Ethereum-compatible general-purpose facade” (DuskEVM): a compatibility layer prepared for Ethereum ecosystem developers. Developers don’t need to learn a new language—they can use the usual toolchain (Hardhat, Metamask) and directly port Ethereum-based applications over as a drop-in replacement, paying the gas cost via $DUSK .
This design that separates the settlement layer and the execution layer feels like it “painlessly plugs” Ethereum’s massive ecosystem into a super low-level foundation that comes with a built-in ZKP privacy accelerator.
That said, layered architectures are great in theory, but the most challenging part is security across multiple layers. When assets are transferred across layers between DuskEVM and the native privacy layer, the logic complexity doubles—will there be vulnerabilities in the contracts? Can users tolerate the latency of cross-layer settlement? These are the tough trials the mainnet ecosystem must go through before it can truly thrive. Share your thoughts and discuss in the comments!
