The  “NSF PREM for Device Innovation through Inclusive Research and Education” is a partnership between two undergraduate campuses of the University of Puerto Rico (UPR), Humacao, and Cayey, and the University of Pennsylvania  (PENN) Materials Research Science & Engineering Center. The new PREM sustains a very successful collaboration that began in 1998 under the NSF CIRE program and has continued with PREM support since 2004.  

The overall research, education, and diversity goals  of the new PREM are:

  1.  Pursue innovative research and education efforts in the areas of

    • Charge dynamics in transition metal and carbon-based materials, and

    • Surface-functionalized nanomaterials for sensing applications with a diverse team of faculty researchers from UPR and PENN;

  2. Increase the number of  UG students, Hispanics, women and Afro-Latin students from disadvantaged backgrounds (low income, first-generation in college, isolated rural areas)  in extended collaborative materials research activities, and those who complete a BS degree in STEM and continue graduate studies in a  materials-related field; 

  3. Introduce new Materials Science content into the UPR UG curricula and expand the current education and outreach program in Materials Science for PreK-12 students, teachers, and communities by extending activities in the South-Central region of Puerto Rico, and adding a new science communication component; 

  4. Disseminate research, education results and best practices from this successful partnership to the broader community, share facilities, and continue to help develop a Materials Research Community in PR and a national network of PREM programs; and

  5. Increase diversity in PENN programs by fostering collaborations, providing mentoring opportunities to graduate students, and increasing awareness of diversity and inclusion of PENN MRSEC students and faculty through professional development and outreach efforts.

 

University of Pennsylvania
UPENN MRSEC
IRG-1

Charge dynamics in transition metal and carbon-based materials - An experimental and theoretical approach centered on device fabrication with improved performance

IRG-1 synthesizes, characterizes, and manipulates optoelectronic materials to develop a fundamental understanding of charge transport mechanisms leading to device applications.
Senior Investigators
Nicholas Pinto, Idalia Ramos, Natalya Zimbovskaya, Juan A. Santana, Mohammad Islam, Alexander Gray, Steven May, Andrew Rappe, Jorge J. Santiago-Avilés, Eric Stach, Arjun G. Yodh, Alan T. Johnson
IRG-1 - Project 1.1

Graphene and Transition Metal Dichalcogenides

Goals: To investigate two dimensional (2-D) electronic materials such as graphene and transition metal dichalcogenides (TMDC) with the goal of fabricating multifunctional devices with superior performance.
Senior Collaborators
Eric Stach, Alan T. Johnson, Nicholas Pinto, Andrew Rappe
IRG-1 - Project 1.2

Carbon-Based Nanomaterials

Goals: to understand the relation between fabrication processes, structure, and properties of carbon-based materials for the creation of self-standing and flexible composites with tunable properties for strain sensing.
Senior Collaborators
Idalia Ramos, Mohammad Islam, Arjun G. Yodh, Daeyeon Lee, José O Sotero Esteva, Jorge J. Santiago-Avilés
IRG-1 - Project 1.3

Thermoelectric Transport in Mesoscopic and/or Nanoscale Systems

Goals: To explore the effect of coupling between quantum dots and metallic/semicond on heat transport aiming at further improvement of the performance of a double and/or triple quantum dot as a heat rectifier.
Senior Collaborators
Abraham Nitzan, Natalya Zimbovskaya
IRG-1 - Project 1.4

Magnetic Transition Metal-oxide Heterostructures

Goals: To understand the role of cation intermixing at the interface of perovskite oxide heterostructures. To use the theory-guided experimental research for the discovery of new perovskite platforms for spintronic transport.
Senior Collaborators
Juan A. Santana, Andrew Rappe, Steven May, Eric Stach, Alexander Gray
IRG-2

Surface-Functionalized Nanomaterials for Sensing Applications

IRG-2 aims to develop nanomaterials into sensing tools with designed properties and functions for a wide range of applications that include enzyme activity assays, detection of metals and organic pollutants, and monitoring of environmental and biological analyte levels in biological samples.
Senior Investigators
Vibha Bansal, Ezio Fasoli, Rolando Oyola, José O Sotero Esteva, Francisco Bezares, Preston Moore, Ivan Dmochowski, Deep Jariwalla, Daeyeon Lee
IRG-2 - Project 2.1

Physical Vapor Deposition of Ag Nanoparticles for Trace Chemical Detection via Surface-Enhanced Raman Scattering (SERS)

Goals: To study the morphological and optical properties of Ag thin films grown by magnetron sputtering physical vapor deposition (PVD) onto flat and nanostructured surfaces. Combined with the SERS technique, this will allow for the fabrication of application-designed sensors with improved sensitivity as well as selectivity.
Senior Collaborators
Francisco Bezares, Deep Jariwalla, Ezio Fasoli, Rolando Oyola
IRG-2 - Project 2.2

Functionalized Gallium Nanomaterials for Biosensing Applications

Goals: To identify new gallium-based nanomaterials for analyte sensing and drug delivery. These nanomaterials will be based on nanofibers which provide high loading efficiency and surface to volume area, critical aspects for sensing and delivery applications.
Senior Collaborators
Ivan Dmochowski, Rolando Oyola, Idalia Ramos, Ezio Fasoli, Francisco Bezares, Nicholas Pinto, Daeyeon Lee
IRG-2 - Project 2.3

Pillararene-Modified Cellulose Matrix for Detection and Removal of Metals and Organic Molecules

Goals: To functionalize an inexpensive, environment-friendly soft material (cellulose) with spacer arms and couple them to newly discovered macrocyclic PAs for trapping and detecting heavy metal and/or organic molecules.
Senior Collaborators
Ezio Fasoli, Ivan Dmochowski, Vibha Bansal, José O Sotero Esteva, Francisco Bezares, Rolando Oyola
IRG-2 - Project 2.4

Paper and Emulsion Based Biosensing Platforms for Enzyme Activity Assay

Project 2.4: Paper and Emulsion based Biosensing Platforms for Enzyme Activity Assay:
Senior Collaborators
Vibha Bansal, Ezio Fasoli, José O Sotero Esteva, Ivan Dmochowski, Daeyeon Lee

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