e-mail: zilumeng@uw.edu; Github; Google Scholar; ResearchGate; LinkedIn; Zhihu; X (twitter);
Hi, I am Zilu Meng, a Ph.D. student at the University of Washington, working under the guidance of Prof. Gregory J. Hakim and Prof. Eric J. Steig. Prior to this, I earned my B.S. in Atmospheric Sciences from Nanjing University of Information Science and Technology (Nanjing Institute of Meteorology), where I conducted research on tropical dynamics with Prof. Tim Li. My research interests include paleoclimate, machine learning, climate dynamics, and data assimilation. Currently, I am focusing on paleoclimate data assimilation and exploring climate dynamics during the last millennium. In my free time, I enjoy playing video games, reading, and hiking.
Paleo data assimilation is a powerful tool to reconstruct past climate fields. Before the instrumental era, the climate system was not well observed. And the instrumental data is not long enough and strongly forced by human activities. This makes it difficult to study the earth climate variability. However, there are many paleoclimate proxies that can represent the past climate variability, like tree rings, ice cores, and corals. By combining these proxies with climate models, we can reconstruct the past climate fields, like temperature, precipitation, and wind fields and study the past climate variability like ENSO, PDO and AMO.
I am currently working on developing the first seasonal reanalysis dataset for the last millennium using "cycling" data assimilation. The reanalysis dataset will provide a gridded climate field for the last millennium, which can be used to study the past climate variability and the climate change. For example, the right figure shows the Nino3.4 Index (a measure of El Niño and Southern Oscillation) from the our reanalysis comparing with the HadISST dataset. The reanalysis dataset can provide a accurate ENSO variability for the last millennium. In this case, we can study the ENSO variability in the past and compare it with the present. Additionally, the reanalysis dataset can also be used to study the climate change in the past and compare it with the present.
The paper for this work has been submitted to Journal of Climate. The code of this work will be released on Github after the paper is published. The poster for this work can be found here.
Ph.D. Student in Climate and Atmospheric Sciences, University of Washington, 2023 - Now
Advisor: Gregory J. Hakim &
Eric J. Steig
Research interests: Paleoclimate, Machine learning, Climate dynamics, Data assimilation
GPA: 3.99/4.0
B.S. in Atmospheric Science with Honors, Nanjing University of Information Science and Technology, 2019 - 2023
Advisor: Tim Li
Core Courses: Atmospheric (Fluids) dynamics, Atmospheric Physics, Synoptic Meteorology
GPA: 95/100 (Ranked 1st/50 in the class with honors)
Thesis: Why is the Pacific meridional mode most pronounced in boreal spring? [Paper in English, Thesis in Chinese]
AGU Fall Meeting, Washington, D.C., USA, 2024 Dec. Oral Presentation. Title: "Reconstructing the Tropical Pacific Upper Ocean using Online Data Assimilation with a Deep Learning model". Paper.
Graduate Climate Conference, Seattle, WA, USA, 2024 Oct. Title: "Last Millennium Seasonal Reanalysis". Poster
Nanjing Data Assimilation Workshop, Nanjing, China, 2024 June. Title: "Deep Learning for tropical pacific reconstruction". Github. Poster
GCC Meeting 2024, Seattle, WA, USA, 2024 May. Title: "Deep Learning for Data Assimilation".
AGU Fall Meeting, San Francisco, CA, USA, 2023 Dec. Title: "Sacpy: Python Package for Statistical Analysis of Climate". Github. Poster
Earth System Science Data (2)
Plos One (3)
Climate Dynamics (1)
JGR Machine Learning and Computation (1)
Atmosphere (1)
Radio Science (1)
Frontiers in Earth Science (1)