Many paths forward.
Network participants can process and include sites in parallel, instead of making every transaction wait for one sequential path.
Meet the Grape network
Built to grow.
Together.
A new approach to distributed infrastructure. Parallel by nature. Connected by design.
VINE / CONNECTED INFRASTRUCTUREExplore the layers
A conceptual view of Grape’s architecture.
Capacity through participation
More nodes.
More potential.
Grape is designed for up to 2,700 TPS of network capacity per user node. Move the slider to explore the relationship between participation and potential.
A scalable foundation for high-volume applications, from digital economies to intelligent connected services.
Participation × possibilityIllustrative model
TPS
Modeled capacity at up to 2,700 TPS per user node
1 node20,000 nodes
A simple node × capacity illustration, not a benchmark or live network measurement. Real-world scaling includes coordination and network constraints.
The VINE architecture
An entirely different
way to connect.
Transactions form a graph of connected sites. Alongside it, commits coordinate account balances and smart-contract state.
A shared view.
Commit transactions synchronize local ledger views and provide coordinated state for accounts and contracts.
Room to grow.
The architecture connects growing demand with contributed network resources, subject to real-world hardware and coordination limits.
EVM meets DAG
Build on what
you already know.
Grape brings EVM compatibility to DAG-based infrastructure, connecting the Ethereum development model with a network built for parallel activity.
FAMILIAR DEVELOPMENT MODELEVM × VINE
The people behind the network
Different roles.
A common foundation.
Light clients
Create and sign transactions. Connect to the ledger without taking on the full work of storing and verifying the graph.
Full nodes
Verify transactions, assemble sites, select vertices and share updates with peers. Maintain a local view of ledger integrity.
Coordination roles
Support the commit and state-coordination mechanisms described in VINE. Operational participation rules belong to the network specification.
Roles are summarized from the VINE technical paper. Current hardware requirements, validator enrollment and operator instructions require the published network configuration.
Beyond transactions
A network
of resources.
Grape’s architecture also explores distributed computing and storage: connecting contributed resources with applications, digital assets and intelligence.
01
Distributed storage
DART’s design segments and encrypts data across user nodes.
02
Contributed compute
PoAI describes a model linking contributed resources with AI participation.
These are architecture concepts from the Grape presentation; deployment availability is separate from the design.
Interactive demoGrove is ready to exploreGROVE / APP
YOUR BRIEF01 / IDEA
Build a calm project planner for my team. Give us tasks, priority filters and a weekly overview.
BUILD PLAN02 / PLAN
Three pieces. One useful workspace.
Task board01
Priority filters02
Weekly overview03
const tasks = [
{ title: "Plan the next release",
priority: "high", done: false }
];
function addTask(title) {
return { title, done: false };
}
const completed = tasks.filter(
task => task.done
);CHECK THE EXPERIENCE04 / TEST
Make the useful details work.
Add and complete a taskCHECK
Filter by priority and completionCHECK
Open the weekly overviewCHECK
Grove.
A little structure. More room to grow.
All tasks3
Completed1
Progress33%
YOUR WORKSPACE
Made for the next small step.GROVE