Quantifying London Traffic Dynamics for Air Pollution Estimation
Open-source library to automate collection of live traffic video data and extraction of descriptive traffic statistics.
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Open-source library to automate collection of live traffic video data and extraction of descriptive traffic statistics.
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Published in Harvard Data Science Review, 2020
We investigate the COMPAS model—a black-box recidivism prediction model used widely in America’s justice system. Read more
Recommended citation: Cynthia Rudin, Caroline Wang, and Beau Coker (2020). "The age of secrecy and unfairness in recidivism prediction." HDSR. 2(1).
Published in Harvard Data Science Review, 2020
A rejoinder to, “The age of secrecy and unfairness in criminal recidivism prediction”. Read more
Recommended citation: Cynthia Rudin, Caroline Wang, Beau Coker (2020). "Broader issues surrounding model transparency in criminal justice risk scoring." HDSR. 2(1).
Published in Journal of Quantitative Criminology, 2022
We design various interpretable machine learning models to predict criminal recidivism. Read more
Recommended citation: Caroline Wang*, Bin Han*, Bhrij Patel, Feroze Mohideen, Cynthia Rudin (2022). "In pursuit of interpretable, fair and accurate machine learning for criminal recidivism prediction." Journal of Quantitative Criminology.
Published in AAAI, 2023
We propose DM$^2$, an algoritm that allows a team of agents to perform cooperative tasks by independently imitating corresponding experts agents from a team of experts. Read more
Recommended citation: Caroline Wang*, Ishan Durugkar*, Elad Liebman*, Peter Stone. "DM$^2$: Distributed Multi-Agent Reinforcement Learning via Distribution Matching." AAAI 2023.
Published in AAMAS, 2023
TLDR: We propose D-Shape, an RL+IL algorithm that allows learning from suboptimal demonstrations while retaining the ability to find the optimal policy with respect to the task reward. Read more
Recommended citation: Caroline Wang, Garrett Warnell, Peter Stone (2023). "D-Shape: Demonstration Shaped Reinforcement Learning." AAMAS 2023.
Published in AAAI, 2024
We introduce Causal Bisimulation Learning (CBM), a method that learns the causal relationships in the dynamics and reward functions for each task to derive a minimal, task-specific abstraction. Read more
Recommended citation: Zizhao Wang*, Caroline Wang*, Xuesu Xiao, Yuke Zhu, Peter Stone (2024). "Building Minimal and Reusable Causal State Abstractions for Reinforcement Learning." AAAI 2024.
Published in NeurIPS, 2024
Existing paradigms for multi-agent coordination are limited by assuming that either all agents are controlled (e.g. the typical cooperative MARL algorithm), or that only a single agent is controlled (ad hoc teamwork / zero shot coordination). We pose the N-Agent Ad Hoc Teamwork (NAHT) problem to the community, to lift these restrictions and pave the path towards more open multi-agent learning paradigms. Read more
Recommended citation: Caroline Wang, Arrasy Rahman, Ishan Durugkar, Elad Liebman, Peter Stone. "N-Agent Ad Hoc Teamwork." NeurIPS 2024.
Published:
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Published:
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Undergraduate course, University 1, Department, 2014
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Workshop, University 1, Department, 2015
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