[Paper Review] Enhancing HEP research in predominantly undergraduate institutions and community colleges

M. Bellis, Bhubanjyoti Bhattacharya+5 more|arXiv (Cornell University)|Mar 21, 2022

Higher Education Research Studies4 citations

TL;DR

This paper proposes a sustainable national program to expand high-energy physics (HEP) research participation at predominantly undergraduate institutions (PUIs) and community colleges (CCs) by addressing systemic barriers such as limited funding, high teaching loads, and lack of infrastructure. It advocates for enhanced funding, institutional partnerships, and structured mentoring to integrate PUIs and CCs into HEP collaborations, enabling broader diversity and long-term inclusion in the field.

ABSTRACT

The long-term success of HEP lies in expanding inclusiveness beyond national labs and academic research institutions to a vast community of predominantly undergraduate institutions (PUI) and community colleges (CC). Institutions such as PUIs and CCs offer an early starting point in the pipeline that can mitigate issues of lack of diversity and underrepresented participation of different groups in HEP. However, there are many underlying systemic, structural, and cultural challenges that need to be addressed collectively. Experimental collaborations are largely populated by national labs and research-focused academic institutions (non-PUIs). The faculty at PUIs and CCs have a high teaching load that is detrimental to their research participation. In addition, there is a lack of guidance, access, and tough competition for securing research funding. The students also suffer from a lack of research infrastructure and technical equipment that can only be found at national labs and larger universities. There are existing successful efforts to enhance the HEP research experience of students and faculty members. This paper discusses ways to leverage these to provide more research opportunities and establish a sustainable national program targeting specifically the issues faced by communities at PUIs and CCs. The need for research mentoring and skill building for faculty members is also laid out. The changes discussed in this paper would make a direct impact on the current spectrum of challenges.

Motivation & Objective

• Address systemic challenges—such as high teaching loads, limited research funding, and lack of infrastructure—that hinder HEP participation at PUIs and CCs.
• Mitigate underrepresentation and lack of diversity in HEP by engaging a broader demographic of students and faculty from non-research-intensive institutions.
• Create a sustainable national program to support PUI and CC faculty and students in contributing meaningfully to HEP experiments and theory.
• Strengthen collaboration between PUIs/CCs and major HEP collaborations (e.g., CMS) through formalized affiliations and access to data and facilities.
• Promote long-term career development in HEP by providing research training, mentoring, and authorship opportunities for undergraduate students and junior faculty.

Proposed method

• Leverage existing successful models, such as NSF RUI grants and CMS Cooperating Institute status, to scale participation of PUIs and CCs in HEP experiments.
• Establish formal institutional affiliations (e.g., Cooperating Institute status) to grant PUI and CC students and faculty access to CERN and national lab facilities.
• Integrate HEP research into undergraduate curricula through research-based courses (e.g., programming, particle physics) and outreach activities.
• Support faculty through research mentoring, skill-building workshops, and access to computational tools and simulation software.
• Utilize open data initiatives (e.g., CMS open data) to enable remote research and analysis at institutions without access to large-scale facilities.
• Foster collaboration through virtual and in-person research exchanges, conference participation, and joint publications with national labs and research universities.

Experimental results

Research questions

• RQ1 How can PUIs and CCs overcome structural barriers such as high teaching loads and limited research funding to participate meaningfully in HEP research?
• RQ2 What institutional and funding mechanisms can ensure sustained, equitable inclusion of PUIs and CCs in large HEP collaborations like CMS?
• RQ3 In what ways can research experiences at PUIs and CCs enhance student preparedness for diverse STEM careers beyond traditional academic physics paths?
• RQ4 How can mentoring and skill-building programs for PUI and CC faculty improve their capacity to lead and sustain HEP research programs?
• RQ5 What role can open data and virtual collaboration play in reducing infrastructure disparities between research-intensive institutions and PUIs/CCs?

Key findings

• PUI and CC students who engage in HEP research through programs like CMS Cooperating Institute and NSF RUI grants have successfully contributed to high-impact research, including authorship on papers on vector-like quark searches.
• Students from PUIs and CCs have pursued advanced degrees in physics, math, data science, and engineering, demonstrating that HEP research serves as strong training for diverse career paths.
• Institutional affiliations such as CMS Cooperating Institute status enable PUI and CC students to register as CERN users and be formally listed as authors on publications, enhancing academic credibility.
• Research experiences at PUIs and CCs have been successfully integrated into undergraduate curricula, including introductory programming, nuclear and particle physics, and general education courses.
• Faculty at PUIs and CCs have sustained HEP research programs through NSF RUI grants, enabling long-term student involvement and collaboration with national labs and research universities.
• The model of combining research, mentoring, and curriculum integration has led to measurable outcomes, including student conference presentations, publication credits, and successful transitions to graduate programs.