scholarly journals A Framework for Implementing Course-Based Undergraduate Research Experiences (CUREs) in Freshman Biology Labs

2016 ◽  
Vol 78 (6) ◽  
pp. 448-455 ◽  
Author(s):  
Arundhati Bakshi ◽  
Lorelei E. Patrick ◽  
E. William Wischusen

There have been many calls to make research experiences available to more undergraduate students. One way to do this is to provide course-based undergraduate research experiences (CUREs), but providing these on a scale large enough to accommodate many students can be a daunting undertaking. Indeed, other researchers have identified time to develop materials and course size as significant barriers to widespread implementation of CUREs. Based on our own experiences implementing CUREs at a large research university, we present a flexible framework that we have adapted to multiple research projects, share class materials and rubrics we have developed, and suggest logistical strategies to lower these implementation barriers.

Author(s):  
Andrea Bresee ◽  
Joyce Kinkead

Abstract This article focuses on the progress of an undergraduate English major on the scholarship continuum outlined by Laurie Grobman (2009). The student engaged in authentic research in a research methods course for English majors, a class that also meets a university requirement of “quantitative intensive,” and she completed two research projects of note. Her journey has implications and significance for faculty in designing undergraduate research experiences.


Author(s):  
Holly E. Bates ◽  
Shanna Lowes ◽  
Sarah L. West

Undergraduate research experiences are important for the development of scientific identity, appreciation of authentic research, and to improve persistence towards science careers. We identified a gap in experiential research opportunities for undergraduate Biology students who were seeking a formal yet small-scale research experience that was unique to their own interests and career aspirations. These opportunities may be especially worthwhile for STEM students aspiring to non-research scientific careers (i.e., medicine, dentistry, forensics, communication) and underrepresented STEM students. Here, we reflect on the use of small-scale, individualized undergraduate research experiences that are based on established methods (MURE). These experiences have helped to fill this gap and create problem-centred learning opportunities for undergraduate students that are as unique as the students themselves.


Author(s):  
Olga Pierrakos

Undergraduate research experiences, which are highly promoted and supported by NSF and other agencies, present a great opportunity for our students to learn essential problem solving skills. The National Science Foundation’s Research Experiences for Undergraduates (REU) program is one of the largest initiatives supporting active research participation by undergraduate students in all of the areas of research funded by NSF. The REU program, with more than 600 sites around the world, presently funds over 1000 active awards, totaling over $327 million. From these active REU awards, 384 (38% of the total active awards) are related to engineering (determined by having ‘engineering’ as a keyword in the title and abstract) and account for about $170 million, about half of the total amount of awards to date. In spite of such widespread support and belief in the value of undergraduate research, limited well-grounded research and evaluation studies exist [1]. Most of the existing literature reveals the predominance of program descriptions, explanation of models, and evaluation efforts, rather than studies grounded on research. Only recently have research and evaluation studies focused on assessing the benefits of undergraduate research [1–8]. Some of these benefits are (a) retention for underrepresented groups, (b) increased interest in the discipline, (c) gaining critical thinking skills, (d) increased self-confidence, and (e) clarification of career goals. Moreover, most of these studies on undergraduate research have focused on the sciences, whereas undergraduate research experiences in engineering have been understudied.


2019 ◽  
Vol 6 (2) ◽  
pp. 113-118
Author(s):  
Kara Zografos ◽  
Emanuel Alcala ◽  
John Capitman ◽  
Leepao Khang

Undergraduate research is defined as an inquiry or investigation conducted by an undergraduate student in collaboration with a faculty member that makes an intellectual or creative contribution to the discipline. This study assessed the impact of integrating undergraduate research experiences into public health curricula on students’ knowledge of neighborhood inequalities, perception of research, and motivation to talk about health issues. The sample consisted of 132 undergraduate students from two groups (intervention and comparison). The intervention group ( n = 71) conducted a structured social observation in various zip codes to characterize assets and liabilities of the local built environment. Self-reported questionnaires assessing the key study variables were administered to the students at baseline and at postintervention. Compared with those in the comparison group, improvements were noted in knowledge among those in the intervention group from pretest to posttest. Participants in the intervention group were also more motivated to talk about health issues compared with those in the comparison group. Perception of research among those in the intervention group also improved over time when participants were divided into two research confidence level groups (confident and nonconfident). The evaluation of this intervention demonstrates the positive impact integrating undergraduate research experiences can have on a sample of students.


2014 ◽  
Vol 42 (1) ◽  
pp. 129-147 ◽  
Author(s):  
Jeffrey A. Knapp ◽  
Nicholas J. Rowland ◽  
Eric P. Charles

Purpose – The purpose of this paper is to identify an important area for librarians to positively impact student retention. Design/methodology/approach – This programmatic and conceptual piece describes how embedding librarians into the growing enterprise of undergraduate research experiences (UREs) lays a framework for a context in which libraries and librarians directly contribute to the retention of undergraduate students. Findings – Librarians are capable of directly contributing to the retention of students. While their efforts, it is contended, contribute routinely and to the actual retention of students, it is difficult for their efforts to register in the assessment of retention used by administrators. This discrepancy can be solved if librarians play a more explicit (and quantifiable) role in retaining students. Research limitations/implications – UREs are a growing, but generally untapped trend for librarians; however, because UREs generally correlate with academic success and student retention, they offer librarians a useful entry point to contribute to the academic mission of colleges and universities, and in a measurable way. Practical implications – Embedded librarianship poses a number of hurdles for its practitioners; however, it also has the potential for libraries and librarians to become more explicitly connected to overall institutional goals and strengthen their positions in the academy more broadly. Social implications – Improving the scientific literacy of undergraduate students and aiding them on their path toward graduation is meaningfully enhanced through the embedding of librarians into the college curriculum. Originality/value – Systematically embedding librarians into UREs is not strongly represented in the literature.


2020 ◽  
Vol 26 (5) ◽  
pp. 2555-2599
Author(s):  
Lauren E. Abbott ◽  
Amy Andes ◽  
Aneri C. Pattani ◽  
Patricia Ann Mabrouk

2021 ◽  
Vol 8 (1) ◽  
Author(s):  
Katelyn M. Cooper ◽  
Jacqueline M. Cala ◽  
Sara E. Brownell

Abstract Background Undergraduate research experiences are becoming essential for pursuing future opportunities in science, but little has been done to identify what factors predict which students get to participate in research and which students do not. In this manuscript, we propose “scientific research capital” and specifically “scientific research cultural capital” as constructs to explain what students may need to know and do in order to successfully engage in an undergraduate research experience. We begin to articulate what comprises one component of scientific research cultural capital, embodied cultural capital, by identifying the knowledge that students may need to have in order to obtain an undergraduate research experience at a large, research-intensive institution where there are many more undergraduates vying for research positions than opportunities available. We interviewed 43 researchers, defined as undergraduates who had participated in research, and 42 non-researchers, defined as undergraduates who were interested in participating in research but had not yet successfully obtained a position, in a biology department at an R1 institution. We analyzed the data using inductive coding. Results We identified 10 “rules of research” or aspects of scientific research cultural capital that undergraduates reported about finding and securing undergraduate research. We used logistic regression to test whether undergraduate researchers were more likely than non-researchers to know particular rules. Researchers were more likely than non-researchers to know rules about securing research opportunities. Conclusions Since researchers were more likely than non-researchers to know rules related to securing research, educating students about how to secure research experiences and encouraging faculty to re-examine the criteria they use to admit students into their labs may be a key step in leveling the playing field for students who are vying for research positions. We propose that the construct of scientific research cultural capital can help publicize the hidden curriculum of undergraduate research so that students can more equitably gain access to undergraduate research.


2016 ◽  
Vol 15 (4) ◽  
pp. ar55 ◽  
Author(s):  
Jennifer R. Kowalski ◽  
Geoffrey C. Hoops ◽  
R. Jeremy Johnson

Classroom undergraduate research experiences (CUREs) provide students access to the measurable benefits of undergraduate research experiences (UREs). Herein, we describe the implementation and assessment of a novel model for cohesive CUREs focused on central research themes involving faculty research collaboration across departments. Specifically, we implemented three collaborative CUREs spanning chemical biology, biochemistry, and neurobiology that incorporated faculty members’ research interests and revolved around the central theme of visualizing biological processes like Mycobacterium tuberculosis enzyme activity and neural signaling using fluorescent molecules. Each CURE laboratory involved multiple experimental phases and culminated in novel, open-ended, and reiterative student-driven research projects. Course assessments showed CURE participation increased students’ experimental design skills, attitudes and confidence about research, perceived understanding of the scientific process, and interest in science, technology, engineering, and mathematics disciplines. More than 75% of CURE students also engaged in independent scientific research projects, and faculty CURE contributors saw substantial increases in research productivity, including increased undergraduate student involvement and academic outputs. Our collaborative CUREs demonstrate the advantages of multicourse CUREs for achieving increased faculty research productivity and traditional CURE-associated student learning and attitude gains. Our collaborative CURE design represents a novel CURE model for ongoing laboratory reform that benefits both faculty and students.


2019 ◽  
Vol 366 (13) ◽  
Author(s):  
Caitlin Light ◽  
Megan Fegley ◽  
Nancy Stamp

ABSTRACT Science education studies have shown that a sequence of course-based research experiences has many positive effects for undergraduates. To maximize those benefits, we created a training program for the instructors (aka Research Educators). The program guides them in how to move students early in their college years through the process of science such that students then can successfully apply their learning to conduct real research projects. The key to instructors’ training is creating a supportive community of practice in which everyone participates, including by taking leading roles.


Sign in / Sign up

Export Citation Format

Share Document