7.7 KiB
Obsero - Whitepaper
Slogan: Obsero — Observe. Prove. Trust.
Executive Summary
In a world increasingly dependent on digital infrastructures, ensuring the reliability of Web2 and Web3 services has become critical. However, observability solutions today remain largely centralized, opaque, and susceptible to manipulation.
Obsero addresses this critical need by providing a decentralized monitoring solution based on Proof-of-Observability. Each observed state is cryptographically proven, timestamped on the blockchain (Base L2), and enhanced with IPFS storage for independent auditability.
Our goal is to restore transparency and trust in observability, primarily targeting Web3 projects, Web2 SaaS platforms, and institutions concerned with compliance.
Obsero aims to build an open DAO where proof-of-monitoring becomes a free, community-driven standard.
Introduction
Observability has become essential in a world where Web2 and Web3 infrastructures are interconnected, complex, and often opaque. Current solutions, however, rely on centralized models vulnerable to bias, human error, and manipulation.
Obsero proposes a new paradigm: decentralized proof-of-observation. Through a network of independent observers, critical events can be monitored, proven, and verified without inherent trust.
Additionally, Obsero introduces a Proof-of-Status, enabling entities to issue official messages (e.g., maintenance notices, incidents, public information) immutably recorded on the blockchain. This enriches observability with cryptographically proven official communication.
Technical Schematics
Obsero Network Architecture
flowchart TB
A[Observer Probe] -- Proof Hash --> B[Base Blockchain]
A -- Heavy Files --> C[IPFS]
B --> D[Obsero Smart Contract]
D --> E[Public Consultation]
C --> E
Proof of Uptime Flow
flowchart TD
Probe --> PublishObservation[Publishes observation hash - 15 min interval]
PublishObservation --> Base_Blockchain
Probe --> UploadLogs[Uploads logs and evidence]
UploadLogs --> IPFS
Client --> VerifyProof[Verifies uptime proof]
VerifyProof --> Base_Blockchain
Client --> ConsultLogs[Consults logs if needed]
ConsultLogs --> IPFS
Obsero Points Economic Model
flowchart TD
F1[Valid Uptime Proof] --> G1[Points Awarded]
F2[Valid Incident Proof] --> G1
F3[Valid Status Proof] --> G1
G1 --> H1[Scoring System]
H1 --> I1[Future OBSR Token Airdrop]
Problem Statement
Current observability solutions face significant issues due to their centralized and opaque nature. This centralization poses critical risks, including single points of failure, susceptibility to censorship, and manipulation of monitoring data. Web3 services, despite claims of decentralization, often rely on Web2 infrastructures that are equally vulnerable. Without transparent and independently verifiable monitoring solutions, users and organizations lack assurance of service reliability and integrity.
Proposed Solution: Proof-of-Observability (PoO)
Obsero's Proof-of-Observability (PoO) offers a decentralized, verifiable method of monitoring services. Observers run decentralized probes that generate cryptographically signed proofs of uptime, incidents, and statuses. These proofs are stored immutably on the Base blockchain, with detailed logs archived via IPFS. This design ensures complete transparency, independence, and immutability, empowering users and organizations to independently verify and trust the monitoring results.
Detailed Technical Architecture
Obsero consists of three core technical components:
- Decentralized Observer Probes: Autonomous software deployed by independent observers that conduct periodic monitoring, incident detection, and proof signing.
- Smart Contract on Base Blockchain: Manages the reception and storage of cryptographic proof hashes, observer reputations, and the tokenized incentive structure.
- IPFS Storage Integration: Used for storing detailed logs and data-heavy proofs, ensuring verifiable and tamper-resistant access without congesting the blockchain.
This architecture enables resilience, redundancy, and decentralization, addressing centralization risks and ensuring that the monitoring service remains robust and tamper-proof.
Detailed Use Cases
1. Web3: DeFi, Exchanges, DApps
- DeFi Protocols: Continuous monitoring of smart contract availability, RPC, and decentralized frontends.
- Decentralized Exchanges (DEX): Real-time detection of network slowdowns or critical outages.
- NFT Platforms: Public verification ensuring marketplaces are accessible and functional for users.
- Web3 Gaming: Verified monitoring of Web3 game servers to prevent fraud associated with outages and ensure session integrity.
2. Web2: SaaS, e-Commerce
- SaaS Platforms: Certified availability proofs to adhere to contractual SLAs.
- E-commerce Websites: Certified external monitoring to ensure continuous access during peak periods (Black Friday, launches).
- API Data Providers: Integrity and availability proofs for critical APIs.
3. Institutions and Compliance
- Banks and Fintech: Public availability proofs to meet regulatory requirements (MiCA, SEC).
- Legal Audits: Certified availability history for Web2/Web3 services.
- Regulatory Bodies: Direct access to certified observation histories without intermediaries.
Protocol Security and Resilience
1. Identified Risks
- Sybil Attacks: Creation of multiple fake identities to manipulate observations.
- Spamming: Mass submission of irrelevant proofs to overwhelm the network.
- Falsification: Publishing falsified proofs to hide failures.
- Coordinated Downtime: Organized attempts to disrupt observer network availability.
2. Countermeasures
- Mandatory Stake: Requires a small deposit to publish proofs, deterring mass spam.
- Reputation System: Dynamic scoring rewarding observer reliability and penalizing malicious behavior.
- Multi-source Validation: Cross-validation by multiple independent probes to confirm events.
- External Timestamps: Synchronizing proofs with external timestamps to strengthen temporal validity.
- Community Audit: Open monitoring data for external audits via public API.
3. Fault Tolerance
- Geographic Redundancy: Distributed observation points across different regions.
- IPFS Fallback: Storing critical proofs on multiple IPFS gateways to prevent data loss.
- Network Alerts: Internal system automatically detecting and reporting large-scale anomalies.
Network Economy
1. Points System
- Observers collect points for each valid submitted proof.
- Higher quality and accuracy of proofs yield higher point rewards.
- Critical incidents detected first earn bonus points.
2. OBSR Token Airdrop
- Regular snapshots of point scores.
- Accumulated points qualify for proportional future OBSR token airdrops.
3. Premium Services
- Advanced Alerts: SMS, email, Telegram, Discord notifications.
- Custom Dashboards: Client-specific monitoring dashboards.
- Professional APIs: Privileged access to real-time observation streams.
- Enhanced Proof Access: Complete history with attached IPFS files.
Future Governance: Towards an Obsero DAO
- Centralized initial governance for stability.
- Transition to community-driven DAO using OBSR tokens for voting.
- Community treasury funded by premium services.
- Multi-chain governance expansion.
Roadmap
- Proof of Concept
- Public Alpha
- Advanced blockchain monitoring
- Token airdrop
- DAO transition
- Multi-chain deployment
Obsero — Observe. Prove. Trust.