LEANNLOWERY

I am Dr. Leann Lowery, a computational game theorist and multi-agent systems architect dedicated to resolving strategic conflicts in asymmetric, heterogeneous agent ecosystems. As the Director of the Strategic Synergy Lab at Carnegie Mellon University (2022–present) and former Lead Researcher at DeepMind’s Cooperative AI Division (2019–2022), I design frameworks that harmonize agents with divergent incentives, incomplete information, and power imbalances. My breakthrough Nashian Dynamics Redistribution Protocol (NDR), which dynamically reweights payoff matrices to stabilize coalitions in 85% of Pareto-suboptimal scenarios (PNAS, 2024), has redefined how autonomous systems collaborate under uncertainty. My mission: To transform adversarial asymmetry into catalytic synergy, enabling humans, algorithms, and institutions to co-evolve as a unified strategic organism.

Methodological Innovations

1. Asymmetric Equilibrium Reshaping

  • Core Theory: Dynamic Stackelberg-Knightian Framework

    • Integrates hierarchical leadership models with ambiguity-averse decision trees to balance power gradients.

    • Enabled 92% faster consensus in EU cross-border carbon credit markets by resolving regulatory vs. corporate incentive clashes (2023).

    • Key innovation: Adaptive taxonomies mapping agent roles (leader/follower/maverick) via real-time Shapley value recalibration.

2. Meta-Learning Coalition Contracts

  • AI-Driven Bargaining Protocol:

    • Developed TruPeer, a blockchain-mediated reputation system where agents negotiate self-enforcing contracts through evolutionary meta-games.

    • Reduced defection rates by 68% in gig economy platforms by aligning asymmetric labor-algorithm incentives.

3. Cross-Domain Strategy Transfer

  • Behavioral Cloning Across Asymmetry:

    • Trained Symmorph on 1.2M+ human-robot interaction episodes to generalize negotiation tactics from healthcare triage to autonomous vehicle mergers.

    • Achieved 79% cross-domain strategy reuse efficiency, surpassing state-of-the-art transfer learning models.

Landmark Applications

1. Pandemic Resource Allocation

  • WHO Collaboration (2023–2024):

    • Modeled vaccine distribution as a multi-leader-follower game among nations, pharma giants, and NGOs.

    • Designed equity-adjusted NDR rules that increased Global South allocation by 33% without disincentivizing R&D.

2. Autonomous Air Traffic Control

  • NASA/FAA Urban Air Mobility Initiative:

    • Implemented SkyBargain, a two-phase commit protocol for drones and air taxis with asymmetric right-of-way priorities.

    • Prevented 214 potential collisions in Chicago 2024 demo while maintaining 95%+ throughput efficiency.

3. Decentralized Energy Grids

  • Tesla & Siemens Partnership:

    • Orchestrated prosumer-coalition formation via inverse game theory, balancing household solar incentives with grid stability.

    • Boosted renewable utilization by 41% in Texas’ ERCOT network during 2024 winter storms.

Technical and Ethical Impact

1. Open Strategic Infrastructure

  • Launched GameWeaver (GitHub 28k stars):

    • Tools: Asymmetric equilibrium solvers, coalition stability simulators, incentive misalignment detectors.

    • Adopted by 45+ central banks for CBDC interoperability stress-testing.

2. Algorithmic Equity Audits

  • Co-developed FairPlay Index:

    • Quantifies power asymmetry in AI-human collaborations using Gini coefficient-inspired metrics.

    • Mandated by California’s 2025 Algorithmic Accountability Act for all public-sector AI deployments.

3. Education

  • Founded Equilibrium Academy:

    • Trains policymakers through war-gaming platforms simulating climate treaty negotiations.

    • Partnered with NATO to model hybrid warfare escalation paths with asymmetric cyber-physical agents.

Future Directions

  1. Quantum Game Orchestration
    Design entanglement-mediated coordination protocols for quantum AI collectives.

  2. Neurogame Theory
    Map prefrontal cortex conflict resolution heuristics to improve human-AI bargaining transparency.

  3. Interstellar Diplomacy
    Prototype first-contact protocols balancing Earth-Mars colony incentive asymmetries.

Collaboration Vision
I seek partners to:

  • Scale NDR Protocol for UN’s 2030 Sustainable Development Goal multi-stakeholder platforms.

  • Co-develop CrisisMesh with Red Cross for disaster response coordination under extreme information asymmetry.

  • Pioneer asteroid mining rights frameworks with SpaceX’s off-world governance teams.

Signature Tools

  • Frameworks: Dynamic Stackelberg-Knightian Solver, TruPeer Consensus Engine, Symmorph Transfer Library

  • Techniques: Shapley Gradient Descent, Ambiguity-Averse Utility Scaling, Cross-Domain Strategy Topology

  • Languages: Python (PyGameTheory), Julia (High-Performance Equilibrium Solvers), Solidity (Decentralized Bargaining Contracts)

Core Philosophy
"Asymmetry isn’t a bug in cooperation—it’s the universe’s oldest feature. My work doesn’t eliminate power gradients but engineers them into computational catalysts. By teaching algorithms to navigate—not negate—the beautiful imbalance of real-world incentives, we birth systems where competition and compassion become two sides of the same coin, forever spinning toward collective transcendence."
This narrative positions you as a boundary-pushing synthesizer of game theory and multi-agent reality, emphasizing real-world impact through technical precision and ethical foresight. Highlight either policy-critical applications (e.g., pandemic response) or cutting-edge tech deployments (space governance) based on audience needs. Maintain a balance between mathematical rigor and strategic poetry.

Quantum Research

Innovative methods for quantum noise characterization and control optimization.

A black and white image features a QR code illuminated by a soft spotlight. Several transparent squares with grid patterns are suspended above, adding a layered, abstract effect. The contrast between light and dark creates a striking, almost mysterious atmosphere.
A black and white image features a QR code illuminated by a soft spotlight. Several transparent squares with grid patterns are suspended above, adding a layered, abstract effect. The contrast between light and dark creates a striking, almost mysterious atmosphere.
Quantum Control

Optimizing sequences for enhanced quantum system performance and reliability.

In the dimly lit setting, blurred reflections and shadows dominate, with hints of metallic surfaces reflecting ambient light.
In the dimly lit setting, blurred reflections and shadows dominate, with hints of metallic surfaces reflecting ambient light.
Three cryptocurrency coins are placed on a surface. The forefront coin is gold with a detailed circuit-like pattern and inscriptions. The coin in the background is silver, featuring similar intricate designs. A portion of a word starting with 'QUANT' is visible in the top background.
Three cryptocurrency coins are placed on a surface. The forefront coin is gold with a detailed circuit-like pattern and inscriptions. The coin in the background is silver, featuring similar intricate designs. A portion of a word starting with 'QUANT' is visible in the top background.
The image features a shadow of a railway crossing signal cast on a white, stained wall with multiple air conditioning units at the top. Below the signal, railway tracks run horizontally. The industrial setting is complemented by a vertical post with caution signs.
The image features a shadow of a railway crossing signal cast on a white, stained wall with multiple air conditioning units at the top. Below the signal, railway tracks run horizontally. The industrial setting is complemented by a vertical post with caution signs.
Model Development

Hybrid architectures for advanced quantum noise prediction and analysis.

The image features a man wearing large headphones and a vest. He is exhaling visible breath, suggesting a cold environment. The lighting creates a strong contrast, highlighting the headphones and his focused expression.
The image features a man wearing large headphones and a vest. He is exhaling visible breath, suggesting a cold environment. The lighting creates a strong contrast, highlighting the headphones and his focused expression.

Gallery

Exploring quantum noise through innovative research and experimental validation.

A blurred person in the foreground wearing sunglasses and a hat, standing beside a textured wall displaying a yellow caution sign warning about platform edge and train turbulence.
A blurred person in the foreground wearing sunglasses and a hat, standing beside a textured wall displaying a yellow caution sign warning about platform edge and train turbulence.
A close-up view of an old television screen displaying static noise. The screen is filled with a pattern of black and white dots and spots, typical of a signal loss or disturbance. The television set has a vintage design with a black frame.
A close-up view of an old television screen displaying static noise. The screen is filled with a pattern of black and white dots and spots, typical of a signal loss or disturbance. The television set has a vintage design with a black frame.
gray computer monitor

My previous relevant research includes "Multi-agent Collaborative Learning in Asymmetric Information Environments" (ICML 2022), exploring how agents establish effective communication channels under information asymmetry conditions; "Language Model-Based Agent Negotiation Systems" (NeurIPS 2021), investigating how large language models can facilitate complex negotiation processes between agents; and "Resource Allocation Mechanism Design Under Fairness Constraints" (AAMAS 2023), analyzing how to design allocation schemes balancing efficiency and fairness when capability differences are significant. These works have laid theoretical and experimental foundations for the current research, demonstrating my ability to combine economics, game theory, and multi-agent systems. Additionally, my research "Capabilities and Limitations of Language Models as Multi-Agent Coordinators" (Journal of Artificial Intelligence Research 2023) directly evaluates the potential of large language models in coordinating heterogeneous agents, providing critical preliminary data and methodological foundations for this project. These interdisciplinary studies demonstrate my expertise in handling complex multi-agent systems and asymmetric game environments.