SPHOENIXLET’S CONNECT

REFRAME → BUILD → TEST → REFINE

Cinematic portrait of Sphoenix
DEPLOYMENT STRATEGIST.AI ENGINEER.FOUNDER.
01 / SPHOENIX
01 / OBSERVE02 / CONNECT03 / ACT

TURNCOMPLEXITYINTO STRATEGY.

I turn ambiguous problems into usable systems.
Reframe. Build. Test against reality.

HUMAN CURIOSITY × MACHINE INTELLIGENCE
01 — EDITORIAL & LEADERSHIPBOTNEWS.AI

FOR THE PEOPLE BUILDING WHAT’S NEXT

DEEP TECH.
RARE
INSIGHT.

BotNews is where I publish the research you’ll explore here. As founder and editor-in-chief, I shape the stories, lead engineer-writers, and make highly technical ideas useful to the people building what’s next.

Explore BotNews
BotNews logobotnews.ai
THE READING ROOM
WORLD MODELSSPHOENIX

How to catch a world model lying to you.

Article illustration: How to catch a world model lying to you.

A field guide to questioning generated futures. Work backward from the footage to the action—and find the frame where trust ends.

Read the full article
01 / 04

A READERSHIP ACROSS ROBOTICS, AI & SECURITY

Boston DynamicsMidjourneyDOWOpenAICrowdStrikeCerebrasWorld Labs

Reader affiliations · not institutional endorsements

Concept lunar landscape with a distant habitat
02 — SPATIAL INTELLIGENCEAN EVOLVING EXPLORATION

FROM UNDERSTANDING A WORLD TO ACTING IN IT

MOON
TOLOGY.

Rooted in DIU, U.S. Space Force, and NASA research, Moontology explores a practical problem in autonomy: how do we know a robot did what the system claims—and keep its actions within the authority it was given?

I’m developing a bridge between simulation and the physical world. dimOS connects a quadruped robot as the embodied layer; an articulated URDF model represents it in the 3D environment. Astra reasons through robotic scenarios, while the ontology connects observations, permissions, and outcomes so decisions can be checked against evidence.

Explore the original prototype
EXPLORE THE MAPS
THE HACKATHON / SHIPPED IN HOURS

Moontology.

Generated world

A World Labs Gaussian-splat landscape.

Layered systems

Robots and task logic placed into the scene.

Built in hours

The original hackathon prototype.

MAP EXCERPT / VIRTUAL DEMOExplore Moontology
MISSION LOG / NEXT CHAPTER IN DEVELOPMENT

Current focus: revocable task authority and independent verification of what a robot actually did.

Concept environment artwork
03 / PROGRAM INTELLIGENCEAI TECHNICAL PROGRAM MANAGEMENT
TPLLM DASHBOARD SHIPPED

The work moves.
The context
should too.

I built TPLLM to carry the program context that teams keep reconstructing in meetings. It connects what was said, what changed in code, who owns the next step, and what the evidence actually supports.

Ontology and relational intelligence connect the evidence. Two intelligence lanes turn that context into bounded judgments and structured reasoning, with TPLLM policy governing what happens next.

Explore ontology & architecture Hosted dashboard · Vercel sign-in may be required
EXPLORE LAYER BY LAYER

A PROGRAM, OPENED UP

One program.
A connected world.

A conversation upstairs. A change in the code. A decision waiting for context. Scroll to open the model and follow what connects them.

A cutaway miniature building showing connected program layers
OPENING THE PROGRAM MODELSCROLL TO OPEN

THE QUESTION BEHIND THE SYSTEM

What if the next meeting
was already a brief?

Watch repeated status questions accumulate meeting time. Then explore the intended alternative: reusable context, with people brought in for the decision.

ILLUSTRATIVE SCENARIO

Adjustable assumptions. These clocks are an animation, not measured TPLLM savings or processing speed.

REBUILD THE CONTEXTREPEAT 01
“Where are we on the launch?”
00:00MEETING MINUTES

The same information is reconstructed in each status meeting.

MAINTAIN THE CONTEXTTPLLM
Read the existing AI notesSources attached → brief → human decision
00:00ASSUMED HUMAN REVIEW MINUTES

Context travels forward. The scenario reserves one focused review.

Change the scenario assumptions +

Calculation: meetings × minutes per meeting − one focused review. This compares meeting duration, excludes preparation and operating costs, and assumes the repeated status meetings can be replaced. It is not a causal estimate or a measured outcome.

THE STRUCTURE BEHIND THE SCENARIO

Context is connected.
Intelligence should be too.

Ontology and relational intelligence give both lanes their context. Follow a source through the shared model, the question, the response, and the controls that govern what can happen next.

ONTOLOGY + RELATIONAL INTELLIGENCE

Facts become context
through their connections.

The ontology defines what things are and how they relate. Relational intelligence follows those supported relationships to understand who owns the work, what it affects, and which evidence belongs in the next question.

ILLUSTRATIVE PROGRAM · SELECT AN ENTITY
PROJECT
Visual-search launch

The project brings the commitment, engineering change and KPI context together. Relational intelligence follows these links to frame a useful question.

Trace into both intelligence lanes
  • Update package belongs to Visual-search launchProject scope
  • PR #42 changes Visual-search launchPR project link
  • Visual-search launch measured by Request-match KPIProgram KPI definition

THE COMPLETE TPLLM ARCHITECTURE

One foundation. Two intelligence lanes.
Explicit control over action.

Select any block to highlight its upstream context and downstream dependencies.

CONTEXT IN FOCUS · Visual-search launch

DECISION QUESTION / JEVWhich supported risk family fits?

REASONING QUESTION / STRUCTURED OUTPUTSWhich causes interact across this launch, and what remains unknown?

INSIDE THE SYSTEM03 / 17

Ontology

The ontology supplies the shared vocabulary: projects, people, tasks, dependencies, observations and decisions. Relational intelligence uses those supported connections to understand how a change travels through the program.

TAKES IN
Entities and explicit, source-backed relationships
PRODUCES
Context about ownership, dependencies and affected work
MAKE IT CONCRETE

Note → commitment → owner. PR → project → KPI. Follow the typed links in the graph above.

FOLLOW THE CONTEXT

Architecture and governance map. In the current Phase 2 implementation, the two lanes produce journaled artifacts for Intelligence Review. The arrows describe relationships and governance order, not automatic execution. Existing Phase 1 insight candidates use validate_insight(); TPLLM policy and separate authority controls govern external action.

BUILT TO KEEP THE EVIDENCE CLOSE

Jev judges. Reasoning synthesizes.
TPLLM governs.

Explore the full project
04 — CREATIVE TECHNOLOGYIDEAS YOU CAN STEP INSIDE

SERIOUS
ABOUT PLAY.

Helped run a six-figure Fortnite UEFN map. Engineered gameplay, shaped map strategy around player retention, and managed brand deals.

Fortnite / UEFN

INTERACTIVE WORLDS · VERSE · PRODUCT
Generated minigame island concept with branching paths, a central arena and elevated platforms
P01
P02
P03
P04
ARENA_01 / SANDBOXDRAG TO ORBIT
GENERATED CONCEPT / SIMULATED PLAYERS
using { /Fortnite.com/Devices }

arena_loop := class(creative_device):
  OnBegin<override>()<suspends>:void =
    Print("Let’s build something worth playing.")

Built and shipped game modes, NPC behaviors, spawn logic, and player interaction loops in Verse. Tuned gameplay under live-user conditions.

CREATIVE GENERATION / ARCHIVE

Imagination,
made visible.

As an early DALL·E artist contributor and creative tester, I explored prompt sensitivity, controllability, and visual storytelling. Created as @sphoenixai for OpenAI social co-posts.

Visit the creative archive
SPHOENIXAI × OPENAI
OpenAI
DALL·E
CREATIVE EXPLORATIONS ON INSTAGRAM

FROM THINKING TO BUILDING

Unreal EngineTypeScriptPythonReactThree.jsOpenAI
STEP INSIDE MY THINKING
05 — STRATEGIC INTELLIGENCEFROM SIGNAL TO SOLUTION

THINK THROUGH IT WITH ME

Ask the right question.

A shelf count is a signal. The real question: which drinks can this store actually fulfill?

Choose 01–04 to build the ontology.SCROLL TO BUILD THE NEXT LAYER

FULFILLMENT ONTOLOGY LIVE DEMONSTRATION
Ingredient

A counted item becomes a dependency: SKU, quantity, expiry, and the recipes that require it.

06 — WORLD MODELS & RELIABILITYQUESTION THE CONVINCING

LOOKS RIGHT.
IS IT?

In my field guide, How to Catch a World Model Lying to You, I explain how SC3-Eval checks whether a simulated robot is still following its commands. Catching that mismatch helps engineers evaluate a robot’s behavior without mistaking convincing video for trustworthy evidence.

Based on SC3-Eval by Wei-Cheng Tseng & collaborators.

TRY IT Slide through this example. When the dashed action inferred from the video separates from the yellow command, the simulated rollout is no longer trustworthy.

ACTION ↔ RECONSTRUCTION ILLUSTRATIVE EXPLAINER
— Commanded action┄ Reconstructed action
✓ ACTIONS AGREE — CONTINUEFRAME 035

HOW TO CATCH A WORLD MODEL LYING TO YOU

“A score that ranks hands them a leaderboard. A witness that names the failure hands them a lead.”
Read my field guide

SAME INSIGHT. DIFFERENT LENS.

Complexity, translated.

Before you invest in the next training run, ask whether the evaluation tells you what actually needs fixing.

RESEARCH / THE RELIABILITY KILL CHAIN

How does a wrong answer
become accepted reality?

I wrote The Reliability Kill Chain to ask how AI-generated compliance could be trusted at the Department of War (DoW). Building on Princeton University’s AI-agent reliability research, I trace how one unsupported security claim can pass review, authorize a system, and spread to others—and propose evidence checks to interrupt it.

Research foundation: Stephan Rabanser, Sayash Kapoor & colleagues · Princeton University

TRY IT Choose a stage, then “Break the chain” to see the proposed safeguard that could stop the error before it becomes a security gap.

STAGE 1 OF 7

The wrong evidence gets in.

A poisoned or outdated source enters the knowledge base.

Choose a stage. Reveal the safeguard that interrupts it.

Read the research Open the full paper