Verma, Arjun
Building Machine Learning Challenges for Anomaly Detection in Science
Campolongo, Elizabeth G., Chou, Yuan-Tang, Govorkova, Ekaterina, Bhimji, Wahid, Chao, Wei-Lun, Harris, Chris, Hsu, Shih-Chieh, Lapp, Hilmar, Neubauer, Mark S., Namayanja, Josephine, Subramanian, Aneesh, Harris, Philip, Anand, Advaith, Carlyn, David E., Ghosh, Subhankar, Lawrence, Christopher, Moreno, Eric, Raikman, Ryan, Wu, Jiaman, Zhang, Ziheng, Adhi, Bayu, Gharehtoragh, Mohammad Ahmadi, Monsalve, Saúl Alonso, Babicz, Marta, Baig, Furqan, Banerji, Namrata, Bardon, William, Barna, Tyler, Berger-Wolf, Tanya, Dieng, Adji Bousso, Brachman, Micah, Buat, Quentin, Hui, David C. Y., Cao, Phuong, Cerino, Franco, Chang, Yi-Chun, Chaulagain, Shivaji, Chen, An-Kai, Chen, Deming, Chen, Eric, Chou, Chia-Jui, Ciou, Zih-Chen, Cochran-Branson, Miles, Choi, Artur Cordeiro Oudot, Coughlin, Michael, Cremonesi, Matteo, Dadarlat, Maria, Darch, Peter, Desai, Malina, Diaz, Daniel, Dillmann, Steven, Duarte, Javier, Duporge, Isla, Ekka, Urbas, Heravi, Saba Entezari, Fang, Hao, Flynn, Rian, Fox, Geoffrey, Freed, Emily, Gao, Hang, Gao, Jing, Gonski, Julia, Graham, Matthew, Hashemi, Abolfazl, Hauck, Scott, Hazelden, James, Peterson, Joshua Henry, Hoang, Duc, Hu, Wei, Huennefeld, Mirco, Hyde, David, Janeja, Vandana, Jaroenchai, Nattapon, Jia, Haoyi, Kang, Yunfan, Kholiavchenko, Maksim, Khoda, Elham E., Kim, Sangin, Kumar, Aditya, Lai, Bo-Cheng, Le, Trung, Lee, Chi-Wei, Lee, JangHyeon, Lee, Shaocheng, van der Lee, Suzan, Lewis, Charles, Li, Haitong, Li, Haoyang, Liao, Henry, Liu, Mia, Liu, Xiaolin, Liu, Xiulong, Loncar, Vladimir, Lyu, Fangzheng, Makarov, Ilya, Mao, Abhishikth Mallampalli Chen-Yu, Michels, Alexander, Migala, Alexander, Mokhtar, Farouk, Morlighem, Mathieu, Namgung, Min, Novak, Andrzej, Novick, Andrew, Orsborn, Amy, Padmanabhan, Anand, Pan, Jia-Cheng, Pandya, Sneh, Pei, Zhiyuan, Peixoto, Ana, Percivall, George, Leung, Alex Po, Purushotham, Sanjay, Que, Zhiqiang, Quinnan, Melissa, Ranjan, Arghya, Rankin, Dylan, Reissel, Christina, Riedel, Benedikt, Rubenstein, Dan, Sasli, Argyro, Shlizerman, Eli, Singh, Arushi, Singh, Kim, Sokol, Eric R., Sorensen, Arturo, Su, Yu, Taheri, Mitra, Thakkar, Vaibhav, Thomas, Ann Mariam, Toberer, Eric, Tsai, Chenghan, Vandewalle, Rebecca, Verma, Arjun, Venterea, Ricco C., Wang, He, Wang, Jianwu, Wang, Sam, Wang, Shaowen, Watts, Gordon, Weitz, Jason, Wildridge, Andrew, Williams, Rebecca, Wolf, Scott, Xu, Yue, Yan, Jianqi, Yu, Jai, Zhang, Yulei, Zhao, Haoran, Zhao, Ying, Zhong, Yibo
Scientific discoveries are often made by finding a pattern or object that was not predicted by the known rules of science. Oftentimes, these anomalous events or objects that do not conform to the norms are an indication that the rules of science governing the data are incomplete, and something new needs to be present to explain these unexpected outliers. The challenge of finding anomalies can be confounding since it requires codifying a complete knowledge of the known scientific behaviors and then projecting these known behaviors on the data to look for deviations. When utilizing machine learning, this presents a particular challenge since we require that the model not only understands scientific data perfectly but also recognizes when the data is inconsistent and out of the scope of its trained behavior. In this paper, we present three datasets aimed at developing machine learning-based anomaly detection for disparate scientific domains covering astrophysics, genomics, and polar science. We present the different datasets along with a scheme to make machine learning challenges around the three datasets findable, accessible, interoperable, and reusable (FAIR). Furthermore, we present an approach that generalizes to future machine learning challenges, enabling the possibility of large, more compute-intensive challenges that can ultimately lead to scientific discovery.
Modeling Prejudice and Its Effect on Societal Prosperity
Mohan, Deep Inder, Verma, Arjun, Rao, Shrisha
Existing studies on prejudice, which is important in multi-group dynamics in societies, focus on the social-psychological knowledge behind the processes involving prejudice and its propagation. We instead create a multi-agent framework that simulates the propagation of prejudice and measures its tangible impact on the prosperity of individuals as well as of larger social structures, including groups and factions within. Groups in society help us define prejudice, and factions represent smaller tight-knit circles of individuals with similar opinions. We model social interactions using the Continuous Prisoner's Dilemma (CPD) and a type of agent called a prejudiced agent, whose cooperation is affected by a prejudice attribute, updated over time based both on the agent's own experiences and those of others in its faction. Our simulations show that modeling prejudice as an exclusively out-group phenomenon generates implicit in-group promotion, which eventually leads to higher relative prosperity of the prejudiced population. This skew in prosperity is shown to be correlated to factors such as size difference between groups and the number of prejudiced agents in a group. Although prejudiced agents achieve higher prosperity within prejudiced societies, their presence degrades the overall prosperity levels of their societies. Our proposed system model can serve as a basis for promoting a deeper understanding of origins, propagation, and ramifications of prejudice through rigorous simulative studies grounded in apt theoretical backgrounds. This can help conduct impactful research on prominent social issues such as racism, religious discrimination, and unfair immigrant treatment. This model can also serve as a foundation to study other socio-psychological phenomena in tandem with prejudice such as the distribution of wealth, social status, and ethnocentrism in a society.