The Northwestern Argonne Institute of Science and Engineering (NAISE) brings together researchers at Northwestern University and Argonne National Laboratory to create powerful collaborations in fields such as energy, biological and environmental systems, data science and computation, materials, and national security. NAISE provides students and post-doctoral scholars with unique educational and training opportunities. The institute also provides scientist exchanges, joint research projects, and streamlined access to facilities for NAISE fellows at both institutions.
The objectives of NAISE for 2017 are:
To increase membership opportunities with the aim of adding members who will contribute to the organization’s collaborative spirit
To provide synergetic networking opportunities for Argonne National Laboratory and Northwestern University researchers in the form of at least one workshop or seminar per quarter
To develop and expand research initiatives by targeting twenty proposal submissions per year.
The Institute brings together the strengths of Northwestern University and Argonne National Laboratory.
Argonne facilities include the Advanced Photon Source, that houses the brightest storage ring X-ray beam in the Western Hemisphere, the Leadership Computing Facility, that has one of the world’s fastest computers for open science, and the Center for Nanoscale Materials, that has facilities for interdisciplinary nanoscience and nanotechnology research.
At Northwestern the facilities range from the Life Sciences Collaborative Access Team and the DuPont-Northwestern-Dow Collaborative Access Team beam lines at the APS to the Northwestern University Atomic and Nanoscale Characterization. More information can be found at Northwestern’s Core Facilites website.
Who We Work With
The Northwestern Center for Water Research was formed to link the University’s water research efforts in basic sciences, technology development, law and policy, and systems analysis and simulation. The Water Center will enable the Northwestern community to achieve:
- Fundamental advances in water science, enabling new water technologies and improved prediction of water systems.
- High-performance discovery, design, and commercialization of materials for water monitoring and processing technologies.
- Efficient, robust, and durable solutions for water reuse, low-purity water sources, and resource recovery from wastewaters.
- Integration of theory, data, and models to predict large-scale, long-term outcomes in complex water/energy/food/ecosystems, and enable safe, efficient, and sustainable managment of water.