Ethernity CLOUD
$ECLDA decentralized confidential computing ecosystem running applications inside hardware-secured Intel SGX enclaves with on-chain proof of correct execution.
Last verified 5 days ago (11 Aug 2026)
The provided documentation outlines the architecture, SDK, and node setup process, but does not specify the exact minimum hardware specifications, the minimum staking amount required to run a node, or the specific reward rates.
Participation at a glance
- Entry cost
- Node operators must provide Intel SGX-capable hardware and stake tokens, but the exact minimum hardware cost or staking requirements are not specified in the text.
- Not available · 11 Aug 2026
- Reward model
- Compute Provided
- Not available · 11 Aug 2026
- Launched
- Not recorded
- Availability
- Not established
How this score was reached
Workable, but check the gaps yourself. This measures how well the network can be assessed and participated in: documentation, verification, cost of entry, maturity and operator risk. It is not a prediction of returns, and it reads nothing from token price.
- Documentation depth25/25
4 of 4 core areas documented (rewards, hardware, node, participation)
- Verification strength0/20
entry cost unavailable, rewards unavailable
- Accessibility6/20
entry cost not published, so treated as unknown rather than free
- Operational maturity15/15
mainnet
- Operator risk7/12
moderate risk, advanced difficulty
- Verification freshness8/8
verified within the last month
What it does
Ethernity CLOUD is a decentralized confidential computing ecosystem designed to run applications where even the node operators cannot see the data or code. By leveraging hardware-secured Intel SGX enclaves, the network ensures private data processing, verifiable computation, and trustless serverless execution. Every task runs through a triple-enclave pipeline (TrustedZone Gatekeeper, SecureLock Executor, and Validator) and produces an on-chain Proof of eXecution (PoX) to guarantee integrity.
How it works
Ethernity CLOUD uses a triple-enclave pipeline. First, the TrustedZone Gatekeeper validates code and data checksums. Next, the SecureLock Executor runs the code inside an isolated Intel SGX enclave where memory cannot be read by the operator. Finally, the Validator independently verifies the on-chain Proof of eXecution (PoX) and unlocks payment to the operator.
How to participate
To participate as a node operator, you must set up Intel SGX-capable hardware, install and configure the Ethernity Node software, set up firewall rules, and stake ETNY or ECLD tokens via the Staking dApp.
Requirements
- Hardware
- Intel SGX-capable hardware is required to run a node.
- Node
- Intel SGX-capable hardware, Ethernity Node software, and staked ETNY or ECLD tokens.
Pros and cons
Strengths
- Hardware-secured privacy using Intel SGX enclaves
- On-chain Proof of eXecution (PoX) provides verifiable execution
- Supports multiple blockchains including Polygon, Bloxberg, and IoTeX
Drawbacks
- Requires specialized Intel SGX-capable hardware
- Requires staking tokens which can be slashed if the node is unreliable or submits forged proofs
Risks
Operators must stake tokens to guarantee reliability; unreliable nodes or those submitting forged proofs can have their stake slashed.
Official links
Sources
- Welcome to Ethernity CLOUD | Ethernity Docs · retrieved 11 Aug 2026
- Ethernity Cloud — Decentralized Confidential Computing Ecosystem · retrieved 11 Aug 2026
This page is research, not financial advice. Figures carry the confidence label and verification date shown beside them, and reward rates can change without notice. Confirm everything against the project's official documentation before buying hardware or committing funds.