Mathematical & Physical Foundation
Two original research programs.
One protected foundation for BivectorAI.
BivectorAI is not built around a statistical language model as the
authority for correctness. Its architecture grows from two original
foundational research programs developed by Dam Van Vi through
independent work spanning mathematical physics, relational geometry,
formal computation, structured reasoning and machine-checkable
verification.
Public materials describe the research scope, public record and evidence
boundaries. Protected mathematical constructions, derivations,
implementation primitives and trade-secret mechanisms remain private.
View Full Research Record (ORCID) →
Two Research Programs
One relational bivector foundation.
Two complementary research directions.
These foundational programs are active research programs supported by
public preprints, formal audit records and protected invention work.
Public descriptions remain intentionally high level.
Protected Physics Program
Relational Information Quantum Gravity
An original mathematical-physics program underlying BivectorAI's
physical and information-theoretic research. Its public scope includes
spacetime, gravitation, quantum information, particle physics,
cosmology and testable physical questions.
Protected constructions and implementation methods are not disclosed
on the public website.
Mathematical physics
Quantum information
Gauge structure
Cosmology
Information structure
View public research record →
Protected Mathematical Program
Relational Bivector Foundation
An original mathematical research program supporting structured
reasoning, formal verification, evidence completeness and
machine-checkable audit.
The research record includes work addressing major open mathematical
problems through formal branch-ledger, witness and audit disciplines.
Public pages do not disclose protected primitives or derivations.
Formal reasoning
Verification
Audit protocols
Witness structures
Structured evidence
View public research record →
From Research to Architecture
BivectorAI extends the research toward verifier-first intelligence.
The architectural principle is simple: probabilistic systems may propose
candidates, explanations or intermediate work, but correctness and
customer-facing authority are bounded by deterministic verification,
evidence contracts and explicit decision gates.
Foundational research
Mathematical and physical research supporting structured evidence,
relational reasoning and bounded computation.
→
BivectorAI architecture
Protected verification mechanisms operating behind customer-safe
inputs, outputs and evidence boundaries.
Formal audit discipline
Claim boundaries, evidence completeness, branch auditing, witness
records and reviewable acceptance conditions.
→
Customer evidence system
Structured verdicts, reports, rankings, bounded evidence objects and
controlled review workflows.
Technology & Products
Protected technology behind four clear buyer paths.
BivectorAI does not sell access to its internal mathematical core.
Customers buy a bounded workflow: defined inputs, defined outputs,
evidence, deployment boundaries and commercial terms.
Civilian Commercial Products
Industrial, scientific, software, security, compliance, materials,
chemistry, biomedical, infrastructure and physical-system assessment
workflows.
Products expose customer-safe assessments, rankings, reports,
evidence packages or review states — not protected algorithms.
View Civilian Products →
Integrated AI Agent
One integrated Agent product combining instruction screening,
policy controls, PII handling, content-safety checks and
software/workspace assurance context.
The Agent is a commercial interface around controlled verification
and evidence workflows; it does not expose the protected core.
View Agent →
Defense & National Technology
Private, local and air-gapped technology acquisition for mission
resilience, sensing, communications, data continuity, autonomy,
sustainment, trusted hardware, critical infrastructure and space
systems.
No public Defense API and no automated Defense checkout.
Controlled technical information is handled under transaction-specific
diligence and NDA boundaries.
View Defense Technology →
Discovery Licensing
Bounded licensing and evaluation path for computational drug and
material candidate portfolios included in Application E.
Public materials describe portfolio inventory, evidence boundaries
and commercial structure while candidate-generation and internal
screening methods remain protected.
View Discovery Licensing →
Public technology boundary.
Product pages describe what the customer provides, what BivectorAI
returns, what the result means, what it does not mean, and how the
commercial engagement works. Source code, mathematical mechanisms,
protected hardware architecture, internal candidate-generation logic and
trade-secret implementation are not public deliverables.
Public Research Record
The work is public and traceable where disclosure is appropriate.
ORCID
Public researcher identity and research-work index.
Zenodo
Public preprints and research records where released by the author.
Patent Pending
Six public U.S. provisional application identities:
the Part 1 foundation filing and Applications A–E.
Public research visibility does not imply disclosure of the private
mathematical core or implementation. Research publication, patent
disclosure and commercial product exposure are separate boundaries.
Protected Invention Portfolio
Six public U.S. provisional application identities.
BivectorAI's public filing architecture is organized around one foundation
filing and five additional subject-matter-specific provisional
applications. Historical technical disclosure labels are not separate
filed applications.
Foundation Filing · Part 1
64/129,790
Patent Pending
Official filing date: April 9, 2026.
High-level coverage includes foundational computation,
quantum-information systems, communications, processor/repeater
architectures and related physical-computation embodiments.
Application A
64/150,249
Patent Pending
Official filing date: September 8, 2026.
High-level coverage spans foundational computing, AI verification,
software/compiler systems, distributed computation, industrial
computation, robotics and related technical architectures.
Application B
64/150,330
Patent Pending
Official filing date: September 8, 2026.
High-level coverage spans quantum and photonic technologies,
biomedical systems, physical sciences, materials, robotics,
infrastructure and related assurance technologies.
Application C
64/150,369
Patent Pending
Official filing date: September 8, 2026.
High-level coverage spans scientific and engineering computation,
telecommunications, sensing, PNT/spectrum integrity, autonomy,
industrial systems, aerospace, space and governed defensive AI.
Application D
64/150,411
Patent Pending
Official filing date: September 8, 2026.
High-level coverage spans mission-support resilience, edge systems,
microelectronics, orbital systems, regulated AI assurance,
biomedical/life-science computation and additional scientific
domains.
Application E · Discovery
64/150,473
Patent Pending
Official filing date: September 8, 2026.
Composition-of-matter application covering bounded drug-candidate
and material-candidate composition portfolios and associated
preparation and characterization subject matter.
View Discovery Licensing →
Filing identity boundary.
Part 1 is the foundation filing associated with U.S. Provisional
Application No. 64/129,790. Applications A–E are separate U.S.
provisional applications. Historical internal Part or technical
disclosure labels identify technical lineage only and must not be read
as separate filed applications.
Disclosure Boundary
Public evidence. Protected implementation.
Public
- Research identity and released research record
- Application numbers and public filing dates
- High-level subject-matter scope
- Customer-visible inputs and outputs
- Commercial boundaries and pricing where published
- Validation and evidence boundaries
Protected / NDA
- Private mathematical constructions
- Internal algorithms and implementation mechanisms
- Source code and private runtime architecture
- Protected hardware implementation
- Candidate-generation and internal screening methodology
- Transaction-specific technical schedules and diligence material
The Researcher
Dam Van Vi · Independent researcher.
Dam Van Vi develops the foundational mathematical and physical research
programs and the BivectorAI technology program. His work investigates
relationships between mathematics, physics, information processing,
formal verification and artificial-intelligence architecture.
Background: Physics, VNU University of Science, Hanoi
(2001–2005, Materials Science).
ORCID →
Zenodo →
LinkedIn →
Research Scope
The long-term objective.
“The long-term objective is to develop a unified
mathematical–physical–computational framework in which mathematics,
physics, software, hardware, governance, and information processing are
treated as different manifestations of a deeper relational bivector
order.”
— Dam Van Vi, ORCID biography
Research and strategic discussion may include verified AI, formal
verification, mathematical and physical computation, quantum-information
architecture, specialized computation, sovereign infrastructure and
safety-governed intelligent systems.