AI & ML interests

Our organization, Convergent Intelligence, is dedicated to advancing the application of artificial intelligence and novel mathematical frameworks to address complex financial threats. We bridge the gap between theoretical research and practical, high-impact security controls, with a specific focus on the fintech sector. Our primary interests and research pillars include: * Discrepancy Calculus & Anomaly Detection: A significant portion of our work revolves around a proprietary mathematical framework called Discrepancy Calculus. This involves using Gap-Metric Risk (\Delta_g) to quantify the deviation between observed and expected signal distributions and forecasting anomaly energy (\Delta\epsilon_f) to indicate the magnitude of potential risk events. We are interested in models that can identify subtle, multi-step abuse chains that traditional tools often miss. * Adversarial Behavior & Path Modeling: We focus on modeling adversary behavior rather than just code flaws. Our research in Resonance Path Modeling (\psi) aims to identify the "lowest-energy routes" or most likely attack paths through a combination of human and digital systems. This informs our interest in AI that can understand and predict complex, multi-stage attack scenarios. * Adaptive Systems & Probing: We develop and apply Phase-Locked Probes (T), which are precisely-timed tests used to validate or falsify security assumptions without introducing production risk. This leads to an interest in adaptive systems and models, such as Burst-Aware Thresholds, which dynamically adjust alerting sensitivity based on real-time risk trajectories. * Secure & Ethical AI Implementation: We are deeply committed to the responsible application of AI. Our data use policies strictly prohibit the use of client data for training general-purpose or non-client models without explicit written consent. Any authorized model fine-tuning is performed in a logically and access-wise segregated environment to ensure data privacy and security. Our work also explores defenses against AI/automation risks like prompt/agent abuse and data leakage. The models, tools, and research we may share here will reflect these interests, translating our findings into reference implementations, research notes, and open-source tooling where appropriate.

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Organization Card

Convergent Intelligence LLC

AI Governance · Algorithmic Bias Detection · Intelligence Analysis

Where classical analysis fails to see, we begin.


Who We Are

Convergent Intelligence is a research-driven consultancy specializing in AI governance, algorithmic bias detection, and applied intelligence analysis. We build mathematical frameworks that work where standard methods break — and we publish the models, papers, and code to prove it.

Founded September 11, 2025. DUNS: 144950019. SAM.gov registered (UEI: HC76F13L4KS8). Federal contract-ready.

Principal: Roy S. Colca Jr. — B.S. Pure Mathematics (CCNY), M.S. Applied Intelligence (Mercyhurst University, 3.89 GPA). Background spanning pure mathematics, intelligence analysis, penetration testing, and field operations.


Three Divisions

Research Division

The mathematical and empirical engine. We develop Discrepancy Calculus (DISC) — a measure-theoretic framework that treats singularities as primary structure rather than pathology — and deploy it across model architectures, training methodologies, and intelligence analysis pipelines.

Published Papers:

Companion Monograph: "On the Formal Analysis of Discrepancy Calculus" — 203 pages, 41 chapters, four parts (Analytical Foundations, Structures/Geometry/Time, Quantum Discrepancies, Theory of Other). The complete proof apparatus.

Consulting Division

Algorithmic risk assessment, bias auditing, and AI governance for regulated industries. We don't just detect bias — we mathematically characterize why standard detection methods fail, using the Meta-Discrepancy Theorem to identify regimes where classical statistical testing is provably insufficient.

Development Division

Infrastructure, tooling, and operational systems. JARVIS intelligence analysis platform, FRACTURE real-time threat assessment pipeline, OSINT fusion capabilities, and the cix-gateway edge computing stack on Cloudflare.


The Portfolio

50 models · 22,500+ downloads · 8 collections · 3 published papers

Architecture Families

Family Models Downloads Key Innovation
DistilQwen 14 8,892 Topology-aware knowledge distillation via BV decomposition
MoA / DiscoverLM 7 3,171 Metric-native attention with triangle inequality enforcement
Qemma 5 2,204 Cross-architecture fusion via Gap Envelope Integral
SAGI / Swarm 3 1,347 Swarm intelligence with discrepancy mechanics routing
Symbiotic 3 1,304 Hybrid symbolic-transformer with persistent memory
DNA-AI 2 984 Depth-native architectures
DualMind 6 862 Dual cognition — explore, examine, respond on shared weights

Collections

  • DistilQwen — BF16 proof-weighted distillation from Qwen3-30B-A3B → 1.7B/0.6B. Three teacher variants, nine models.
  • DualMind — Single architecture, dual cognition. Five models including the Opus 4.6 reasoning variant.

Flagship Models

Model Downloads What It Proves
Qwen3-1.7B-Thinking-Distil 1,188 TKD preserves reasoning structure standard KD destroys
TopologicalQwen 1,134 Full BV decomposition in the distillation pipeline
DiStil-Qwen3-1.7B-uncensored 1,030 Alignment removal preserves capability
LFM2.5-1.2B-Distilled-SFT 1,024 Cross-architecture TKD (LFM → Qwen)
DiscoverLM-70M 784 Metric attention with proper geometry beats dot-product at 1/1000th the parameters

The Mathematics: Discrepancy Calculus (DISC)

Every model in this portfolio is built on Discrepancy Calculus — a measure-theoretic framework that quantifies the mismatch between integration and differentiation via the discrepancy operator:

Df(x)=limε01εxx+εf(t)f(x)txdtDf(x) = \lim_{\varepsilon \downarrow 0} \frac{1}{\varepsilon} \int_x^{x+\varepsilon} \frac{|f(t) - f(x)|}{|t - x|}\,dt

For smooth $f$: $Df(x) = |f'(x)|$ (classical recovery). For rough $f$: $D$ localizes irregularity to null sets while preserving integral structure.

The Mesh Fundamental Identity — the DISC replacement for the Fundamental Theorem of Calculus:

f(b)f(a)=abf(x)dxsmooth+xJfΔf(x)jumps+Dcf(I)Cantor driftf(b) - f(a) = \underbrace{\int_a^b f'(x)\,dx}_{\text{smooth}} + \underbrace{\sum_{x \in J_f} \Delta f(x)}_{\text{jumps}} + \underbrace{D^c f(I)}_{\text{Cantor drift}}

Standard methods see only the first term. DISC preserves all three.

The Meta-Discrepancy Theorem (Theorem 11.15) proves: when gap measure and discrepancy energy are both positive, the classical derivative/FTC/MVT package is impossible on positive measure. This is why standard knowledge distillation, standard bias detection, and standard statistical testing fail at structural boundaries — and why DISC-informed methods work where they don't.

Full theory: Discrepancy Calculus: Foundations and Core Theory (DOI: 10.57967/hf/8194)


Core Thesis

Structure beats scale. A 69M parameter model with proper geometry outperforms architectures 100x its size on structural reasoning tasks. A $24 training budget on CPU at FP32 produces models with organic community adoption. The transformer's dot-product attention is a hardware-constrained design choice, not a mathematical optimality — and we have 50 models proving the alternative works.

The research is the product is the marketing is the credibility. Every model card documents the mathematics. Every paper links to the models. Every download validates the methodology. The portfolio compounds.


Links


Convergent Intelligence LLC · Founded September 11, 2025 · Brooklyn, NY / Atlantic Highlands, NJ DUNS: 144950019 · UEI: HC76F13L4KS8 · EIN: 39-4292406

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