Meet the EPIC Program Team

Created from within NOAA’s community of scientists, communicators, project managers, and system engineers, the Earth Prediction Innovation Center (EPIC) team strives to achieve the highest quality results by creating an agile and principled work environment based on fairness, integrity, transparency, accountability, viability, collaboration, attribution, and effectiveness.

Fairness and integrity means setting clear rules to follow using transparent and objective evidence-based decisions. 

Transparency means sharing everything. This includes open meetings, detailed minutes posted within ten days, open elections, and dynamic documentation.

Accountability means responsibility to funders and beneficiaries.

Viability means creating long-term value.

Collaboration means balancing the tensions between competing and cooperating.

Attribution means giving credit for organizational and individual efforts.

Effectiveness is the best, prioritized use of human, technological, financial, and environmental resources, which will be evaluated annually.

EPIC Program Team Members

Maoyi Huang

Pronunciation: MAO-yee H-wAng

Maoyi Huang, Ph.D., joined the NOAA Weather Program Office (WPO) in August 2021 as the EPIC Program Manager. Prior to WPO, she was the COASTAL Act Program Manager and the lead of land, water, coastal, and cross-cutting infrastructure program areas with the National Weather Service Office of Science and Technology Integration’s Modeling Programs Division. Her scientific expertise lies in understanding the complex multiscale interactions of terrestrial hydrological and ecological processes using an Earth system modeling approach through model development, applications, analysis, and model-data integration. She has published over 100 papers in peer-reviewed journals.     

Prior to joining NOAA, Maoyi was a senior research scientist at Pacific Northwest National Laboratory from 2010-2020, where she was responsible for proposal development, scientific and software developments, project management, reporting, and review for projects funded by Department of Energy, the National Aeronautics and Space Administration (NASA), and the United States Geological Survey. She was a research assistant professor in the Department of Civil, Structural, and Environmental Engineering at the State University of New York at Buffalo from 2008-2009 and a Postdoctoral Research Associate in the Department of Global Ecology at Carnegie Institution for Science from 2005-2008. She earned her master’s and doctorate in civil and environmental engineering in 2001 and 2005 from the University of California at Berkeley.

José-Henrique Alves

Pronunciation: Joe-ZAY En-REE-que AL-ves

José-Henrique Alves, Ph.D., is a physical oceanographer supporting the development of EPIC at the Weather Program Office, NOAA Research division (WPO/OAR). José-Henrique is the federal Project Manager for the EPIC contract.

Before joining the EPIC Team, José-Henrique worked for nearly 20 years leading the wave model development efforts at the Environmental Modeling Center (EMC), National Centers for Environmental Prediction (NCEP). He pioneered a model development approach uniting forecasters’ requirements with the latest scientific knowledge, leveraging partnerships built from within the community-driven WAVEWATCH III model framework. In collaboration with the U.S. Navy, José-Henrique established the first multi-center wave ensemble system globally, which significantly improved the skill of wave guidance products available to the National Weather Service and the public.

Working with American and international scientists following a community modeling approach, he implemented the first operational wave modeling system at NCEP using unstructured meshes serving the North American Great Lakes. More recently, José-Henrique led the EMC wave group to build the wave model components in the GFSv16 and GEFSv12 global forecast systems. These are the first two operational implementations of the UFS.

José-Henrique has a doctorate in physical oceanography from the University of New South Wales (Australia), a master’s in environmental engineering from the Federal University of Santa Catarina (Brazil), and a Bachelor of Science in Oceanography from the Rio de Janeiro State University (Brazil).

Jennifer Vogt

Pronunciation: JE-ni-fur Voht

Jennifer Vogt is the Deputy Program Manager for the EPIC program.

With over seven years as a National Weather Service (NWS) Meteorologist, she brings extensive forecasting experience in winter weather and hydrology. Jennifer excels in diverse roles, from coordinating software engineering projects and tracking milestones to serving as the EPIC Program Community and Stakeholder Engagement Lead.

Her responsibilities extend to responding to inquiries from the Department of Commerce, the Office of Oceanic and Atmospheric Research (OAR), and Congress, advocating for EPIC and the modeling community. Jennifer plays a pivotal role in event planning, having led the development of the Unifying Innovations in Forecasting Capabilities Workshop (UIFCW) for the past three years. Notably, she received a Letters of Commendation for her contributions to both the 2022 and 2023 UIFCW workshops and was named OAR Employee of the Year in 2024.

Jennifer’s strategic engagement extends to governance bodies like the Unified Forecast System (UFS) Steering Committee (SC) and Community Modeling Board (CMB). Her leadership is evident in shaping new governance for the UFS, strengthening collaboration with NOAA, CMB, and EPIC.
Jennifer earned her M.S. degree in Atmospheric Science from the University of Wyoming (2010) and her B.S. degree in Meteorology from Millersville University of Pennsylvania (2007). Jennifer enjoys running and has completed two full marathons.

Jan Ising

Pronunciation: Jaan

Jan Ising is the Data Assimilation Consortium Manager supporting the Data Assimilation Consortium project in WPO’s Earth System Research and Modeling division. Prior to joining the WPO, Jan worked in the private sector as a Lead Numerical Modeling Scientist. His expertise lies in numerical weather prediction, data assimilation, model verification, fire weather, and GIS.

Jan holds a B.S in Meteorology and a minor in Mathematics from the University of North Carolina at Charlotte, a M.S in Physics with a focus on Atmospheric Science from North Carolina Agricultural and Technical State University, and a graduate certificate in Geographic Information Systems from North Carolina State University. For his Masters thesis, Jan investigated the Effects of Density Current, Diurnal Heating, and Local Terrain on the Mesoscale Environment Conducive to the Yarnell Hill Fire out of which came 2 publications in peer reviewed journals. In his previous role, Jan worked with a GPU-accelerated numerical weather prediction model. Jan led, developed and investigated workflows and customer projects for fire weather, data assimilation, and model verification. In his free time, Jan enjoys snowboarding, amateur weather photography, and spending time with family.

Eric Aligo

Eric Aligo

Eric Aligo is a contractor supporting the EPIC program as the Program Coordinator/Chief Scientist. Before joining the Weather Program Office (WPO), Eric worked at the Environmental Modeling Center (EMC), where he contributed to the development of the Rapid Refresh Forecast System (RRFS) version 1, focusing on physics and diagnostics. He led Convection-Allowing Model (CAM) physics meetings and also served as a Primary Task Leader (PTL) for SAIC. Prior to that, Eric worked with the mesoscale branch team at EMC to develop the physics in the Nonhydrostatic Multiscale Model on the B-grid (NMMB), and was a co-developer of the Ferrier-Aligo microphysics scheme implemented into operations. When Eric began his work at EMC, he served as the link between the hurricane and regional groups.

Eric obtained his MS and PhD degrees from Iowa State University. His MS work used the workstation Eta model to evaluate precipitation and dynamical processes of mesoscale convective systems (MCSs). Eric’s PhD research transitioned to using the Advanced Research WRF (ARW) model to evaluate the impact of soil moisture and soil texture on the development and evolution of MCSs, and also to assess the impact of different vertical grid configurations. The bulk of his PhD work focused on using results from a bin microphysics scheme to modify processes in bulk microphysics schemes in order to improve the structure and evolution of MCSs.