Protect the cryptography.
AES-256 for data encryption, with ML-KEM and ML-DSA for post-quantum key establishment and signatures.
ENTERPRISE DATA SECURITY
Keep stolen data
unreadable.
We are building post-quantum protection for the data your business cannot afford to expose. Independent key custody. Verified access. A clear path from research to deployment.
Initial focus: database exports and backups.
A Robotics programPOST-QUANTUM · DATA PROTECTION · INDEPENDENT CONTROLPilot development
01THE REASON TO ACT
Your data has a longer life than your cryptography.
Confidential information can be collected today and attacked years later. Protecting it means addressing vulnerable key exchange, authentication and key storage before those copies are taken.
Robotics Quantum Assurance connects post-quantum cryptography with control over who can obtain the keys—and under which verified conditions.
Read NIST's explanation01 / TODAY
Data is copied.
A stolen archive can be kept for as long as its contents have value.
02 / OVER TIME
Capabilities change.
Future quantum capabilities threaten widely used public-key cryptography.
03 / OUR FOCUS
Protect before exposure.
Cover the data, its keys and the complete path to authorized access.
02HOW THE PROTECTION IS DESIGNED
One compromise should not unlock everything.
Explore the access rules behind distributed key custody. The first model uses three independent domains and requires two valid shares.
CHOOSE A SCENARIO
Architecture illustration. These scenarios explain access rules; they are not a live security test.
ENCRYPTED BACKUPENCRYPTED
7C4F A921 03BD E618
9E20 B74A 65CD F102
0A93 D812 4E7B C650
9E20 B74A 65CD F102
0A93 D812 4E7B C650
Independent custody domainsQuorum 2 of 3
AHELD
BHELD
CHELD
Contents remain encrypted.
Copying the backup does not authorize key release.
Separate the authority.
Independent custody and operation-specific approvals bind access to the intended data and recipient.
Verify the conditions.
Current path and implementation evidence govern release, migration and recovery.
03FROM EXPOSURE TO CONTROL
Start with the data that matters most.
A practical entry point for enterprises, software companies and managed service providers.
01
Readiness assessment
Map cryptographic dependencies, data lifetimes and key-access paths. Establish which changes come first.
DELIVERABLEAn exposure map and migration priorities.
02
Protected backup pilot
Integrate encrypted exports and backups with distributed custody and independently checked authorization.
DELIVERABLEA scoped integration and an attack-test report.
03
Qualification and migration
Check communication paths and software changes. Govern migration and recovery through explicit controls.
DELIVERABLEVersioned evidence and a controlled change plan.
Enterprise pilot development. Scope, availability and acceptance criteria are agreed before delivery.
04EVIDENCE BUILT INTO THE PROCESS
Make protection inspectable.
A credible security outcome comes with a defined threat model, reproducible tests and a record of what was checked.
- Document the compromises the system must tolerate.
- Test altered requests, replay, downgrade and recovery paths.
- Compare against existing post-quantum configurations.
- Review the protocol and implementation independently.
Research originates in Maurizio Viviani's provisional patent portfolio. Cryptographic standards remain the foundation of the protection.
SERVICE CREDITS
Pay for defined work.
Account-bound credits can measure agreed operations: assessments, path qualification, monitoring and migration. Each operation has a defined scope and a verifiable delivery record.
B2B service terms, with no transfer between customers or promise of investment returns. The operating catalog is defined with each pilot.
05YOUR FIRST STEP
Bring us the data you need to protect.
Describe the first archive or workflow. We start with a clear perimeter and a measurable objective.
info@robotics.itPlease describe the environment without including confidential records, credentials or encryption keys.
CLEAR ANSWERS
Before we begin.
Do we need a quantum computer?
No. Post-quantum cryptography runs on conventional computers. It uses algorithms designed to withstand known classical and quantum attacks.
What is the first product scope?
Encrypted database exports and backups, with controlled key release. Live database queries, payment infrastructure and public blockchains require separate integrations and validation.
What are the important limits?
A compromised authorized device can expose readable data. Two shares of the same key version can defeat a two-of-three custody model. Earlier copies captured under vulnerable protection cannot be recalled. Every pilot documents its assumptions and limits.
How does the pilot demonstrate protection?
Through a documented threat model, authorized attack tests, comparisons and independent review. Providing testers with compromised legacy credentials checks whether the system still relies on them; it does not simulate quantum cryptanalysis.
Can we discuss a partner integration?
Yes. We are developing the project for enterprise deployments and integrations with software, cybersecurity and managed service providers. Use the pilot brief to describe your intended environment.