1/ Why E3s?

Encrypted Execution Environments (E3s) combine #FHE, #ZKPs, and #MPC to enable secure, privacy-preserving computation.

By integrating programmable cryptography with blockchain affordances, E3s create a novel framework for outcomes that neither can achieve alone.

A protocol for Encrypted Execution Environments

3/ What does blockchain bring to the table?

Blockchains ensure decentralization, transparency, and durability. Combined with E3s, they deliver four essential guarantees:

- Censorship resistance
- Correct execution
- Data availability
- Capture resistance

4/ Why does this matter?

E3s enable novel use cases combining cryptography & blockchain:

🗳️ Secret ballots with privacy & auditability
✉️ Sealed-bid auctions w/o frontrunning
🤝 Collaborative research on encrypted data

5/ How does this differ from other approaches?

Unlike #TEEs (Trusted Execution Environments), which depend on trusted hardware, E3s distribute trust across a network of nodes.

This ensures computational integrity, eliminates single points of failure, and resists capture.

6/ Why now?

As privacy regulations tighten and data breaches escalate, E3s offer a way to meet these challenges head-on — secure, decentralized, and privacy-preserving.

Learn more about E3s here:

6/ Why now?

As privacy regulations tighten and data breaches escalate, E3s offer a way to meet these challenges head-on — secure, decentralized, and privacy-preserving.

Learn more about E3s here: https://blog.enclave.gg/an-introduction-to-encrypted-execution-environments/

2/ What makes E3 cryptography unique?

#FHE: Compute on encrypted data w/o decryption
#ZKPs: Verify correctness without exposing inputs
#MPC/DTC: Secure keygen/management across a network of nodes.

Together, these enable privacy-preserving computation on *multiple* data inputs.