Looming crisis in graduate science education: Where are America's top science students?

1994 ◽  
Vol 3 (1) ◽  
pp. 57-63
Author(s):  
M. J. Bozack ◽  
J. D. Perez
Author(s):  
Christopher Ira Wertz ◽  
Jessyca Wagner ◽  
Trevor Mark Ward ◽  
Wendy Mickelsen

Students in radiographic science education programs must master both the didactic education and psychomotor skills necessary to perform radiographic examinations on patients in a clinical setting. Simulation is the most common method of helping radiographic science students prepare to perform such examinations. Simulation can be performed either in live or virtual environments. Recently there has been a trend to adopt virtual simulation in medical education because of the reduced adverse effects virtual simulation provides as opposed to live simulation and real-world practice. Though there is a paucity of literature available discussing virtual simulation's use in radiographic science education, recent studies in this field and related medical imaging modalities have shown the benefits of using virtual simulation. The purpose of this chapter is to discuss the current use of virtual simulation in radiographic science education and characteristics to consider when implementing a simulation program.


2021 ◽  
Vol 103 (1) ◽  
pp. 49-53
Author(s):  
Tanya LaMar ◽  
Jo Boaler

The COVID-19 global pandemic has required everyone to make sense of data about community spread, levels of risk, and vaccine efficacy. Yet research shows that students are underprepared in data literacy. Tanya LaMar and Jo Boaler argue that data science education provides an opportunity to address this problem while providing much needed updates to the current mathematics curriculum. The integration of data science can provide a more equitable mathematics pipeline than the calculus-focused pathway that has excluded most students from a future in mathematics. Through data science, students can learn to answer questions that are relevant to their lives and communities, to be critical consumers of the data that surround them every day, and to wield the power of data analysis.


2017 ◽  
Vol 95 (7) ◽  
pp. xliii-xlvi ◽  
Author(s):  
Dina Izadi

Combining the arts and standard curricula together can create a richer and more lasting learning experience for students who believe that learning science is boring in classes. It is suggested that study of the arts should be accepted as an essential part of achieving success in work. To this end, the most important action will be coordinating efforts of scholars from various areas to allow arts education for science students to become an evidence-based field. It is our contention that while the sciences seek to find answers to the most fundamental questions about our physical world, we need to find a place for the arts within the curriculum and within the process of scientific investigation. The arts should be applied in science education in a manner that considers the culture of each community. Those who are actively engaged in arts should be able to better manage their scientific projects and be able to better communicate and think. The main goal of arts in science education is to give students the opportunity to express their thoughts and feelings in the context of their different cultures and also to understand science through the lens of their creative activity in arts.


Author(s):  
Lee Ling Heng ◽  
Johari Surif ◽  
Cher Hau Seng ◽  
Nor Hasniza Ibrahim

Purpose – Argumentative practices are central to science education, and have recently been emphasised to promote students’ reasoning skills and to develop student’s understanding of scientific concepts. This study examines the mastery of scientific argumentation, based on the concept of neutralisation, among secondary level science students, when engaged in individual and group argumentations.   Methodology – 356 form four science students were first randomly assigned to an argumentative condition, after their lesson on acids and bases, presented using the developed instructional materials. Each individual or group was then asked to answer an Open-ended Scientific Argumentation Test (OSAT). Discussions during group argumentations were observed and recorded. All the answers provided in the OSAT were then analysed based on their accuracy, the triplet relationship in chemistry and for the presence of argumentation elements. Observations from the group argumentations were transcribed and assessed.   Findings – The results show that in both argumentative conditions, most of the arguments constructed tend to consist of the elements of claim and evidence. The results also show that students who work in groups outperform students who work individually. As individuals, most of the arguments presented tend to be simple with reasoning at a macro-level. As groups, the arguments presented are more complex, where justifications are provided at the sub-micro and symbolic levels, and with fewer misconceptions. That is because group argumentation participants have the opportunity to shareideas, detect and correct each other’s mistakes, seek explanations and explain ideas.   Significance – The study implies that group argumentation enhances students’ argumentation and reasoning skills and improves their mastery of scientific concepts. In addition, this study also investigates students’ performance from the Malaysian perspective.


Author(s):  
Reece Mills ◽  
Louisa Tomas Engel ◽  
Brian Lewthwaite

It is well known that students arrive in science classrooms with pre-instructional ideas about science phenomena, and that often students’ ideas are not scientifically accurate representations of these phenomena. This research project will engage Year 9 Science students in the creation of a slowmation to represent an Earth Science concept that has been misrepresented in popular culture, in an effort to support their conceptual change towards an accepted scientific understanding. A slowmation representation is a form of stop-motion animation. During the process of creating a slowmation representation, students will manipulate and photograph a range of materials to represent an Earth Science concept, and display the photographs in quick succession to create an animation. Students will then add their own narration that explains the concept. This research aims to determine: (1) Does the process of creating a slowmation representation have a significant effect on students’ conceptual development in Earth Science? (2) How does the process of creating a slowmation representation influence students’ conceptual development? and (3) To what extent does students’ interest generated by the project influence their conceptual development? The project responds to calls for more in-depth research into the value of student-generated animation in science education (Hoban, Loughran, & Nielsen, 2011; Hoban & Nielsen, 2012), and contributes to the few studies that investigate the relationship between interest and conceptual change (Sinatra & Mason, 2013; Treagust & Duit, 2008).


2002 ◽  
Vol 24 (4) ◽  
pp. 36-37
Author(s):  
Elizabeth Dallimore

There is growing concern among the scientific community regarding the decline in the numbers of young people entering science-related degrees and careers. A recent review carried out by Sir Gareth Roberts for Her Majesty's Treasury made a number of recommendations for improving science education in schools and universities. One of the concerns that arose from the review was school pupils' negative image of careers that result from the study of science and engineering, and the inadequate information about these. Furthermore, university students perceived that there is an insufficient number of attractive career opportunities in research for highly qualified research scientists and engineers. Besides the negative image of a career in science, students also found that starting salaries and salary progression were increasingly uncompetitive compared with the salaries of their counterparts in other sectors.


2003 ◽  
Vol 24 (4) ◽  
pp. 20
Author(s):  
Gary Lee ◽  
Peter Knight ◽  
Sharyn Errington ◽  
Peter Traynor

The business of science education; Training science students in communication; Presentation skills


2015 ◽  
Vol 14 (3) ◽  
pp. ar29 ◽  
Author(s):  
Kathryn I. Danielson ◽  
Kimberly D. Tanner

Scientific research exploring ocean acidification has grown significantly in past decades. However, little science education research has investigated the extent to which undergraduate science students understand this topic. Of all undergraduate students, one might predict science students to be best able to understand ocean acidification. What conceptions and misconceptions of ocean acidification do these students hold? How does their awareness and knowledge compare across disciplines? Undergraduate biology, chemistry/biochemistry, and environmental studies students, and science faculty for comparison, were assessed on their awareness and understanding. Results revealed low awareness and understanding of ocean acidification among students compared with faculty. Compared with biology or chemistry/biochemistry students, more environmental studies students demonstrated awareness of ocean acidification and identified the key role of carbon dioxide. Novel misconceptions were also identified. These findings raise the question of whether undergraduate science students are prepared to navigate socioenvironmental issues such as ocean acidification.


2019 ◽  
Vol 1 (4) ◽  
pp. 381-392 ◽  
Author(s):  
Bei Yu ◽  
Xiao Hu

Reproducibility is a cornerstone of scientific research. Data science is not an exception. In recent years scientists were concerned about a large number of irreproducible studies. Such reproducibility crisis in science could severely undermine public trust in science and science-based public policy. Recent efforts to promote reproducible research mainly focused on matured scientists and much less on student training. In this study, we conducted action research on students in data science to evaluate to what extent students are ready for communicating reproducible data analysis. The results show that although two-thirds of the students claimed they were able to reproduce results in peer reports, only one-third of reports provided all necessary information for replication. The actual replication results also include conflicting claims; some lacked comparisons of original and replication results, indicating that some students did not share a consistent understanding of what reproducibility means and how to report replication results. The findings suggest that more training is needed to help data science students communicating reproducible data analysis.


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