Search Results

You may use the options below to change your display:
Alter display preferences

The following options can help you tailor your search display:

results per page
Restricted to Specific Topic: Curriculum Development
Close your folders

Refine your search


Narrow your results

By Subject:

By Specific Subject:

By Resource Type:

By Software Type:

By Lab Level:

By Lab Category:

By Context:
  • (1)
  • (1)
  • (6)
  • (17)
  • (45)
  • (9)
  • (1)

By Collection:


|  Next >>   
Results #1-#10 of 51
sort by: relevance | subject | date | title | author
Physical Review Physics Education Research
  
Match Score:
100
Post a comment
B. Wilcox and H. Lewandowski, Phys. Rev. Phys. Educ. Res., 12 (2), 020132 (2016).
Improving students’ understanding of the nature of experimental physics is often an explicit or implicit goal of undergraduate laboratory physics courses. However, lab activities in…
Physical Review Physics Education Research
  
Match Score:
100
Post a comment
B. Wilcox and H. Lewandowski, Phys. Rev. Phys. Educ. Res., 13 (2), 020110 (2017).
The physics community explores and explains the physical world through a blend of theoretical and experimental studies. The future of physics as a discipline depends on training of…
  
Match Score:
100
Byline:
J. Stanley, D. Dounas-Frazer, L. Kiepura, and H. Lewandowski
Post a comment | Relations
J. Stanley, D. Dounas-Frazer, L. Kiepura, and H. Lewandowski, PERC 2016 Proceedings, 336-339.
The development of students' sense of ownership of their work is recognized by many lab instructors to be an important outcome of lab courses. However, the way ownership manifests,…
Physical Review Physics Education Research
  
Match Score:
100
Post a comment
B. Wilcox and H. Lewandowski; Publisher: American Physical Society, Phys. Rev. Phys. Educ. Res., 13 (1), 010108 (2017).
Physics laboratory courses have been generally acknowledged as an important component of the undergraduate curriculum, particularly with respect to developing students’ interest in,…
  
Match Score:
100
Byline:
G. Roland, J. Conrad, and S. Robinson; Publisher: Massachusetts Institute of Technology
Post a comment
This website contains the syllabus, lab safety information and regulations, lab notebooks, experiments (lab guides), and reports and presentations used to teach Experimental Physics…
  
Match Score:
100
Byline:
A. Carter
Post a comment | Relations
A. Carter, 2018 Conference on Laboratory Instruction Beyond the First Year of College (2018).
Overhauling a laboratory experiment, course, or curriculum is a daunting process. Here, I describe a fourstep process our department used to overhaul our laboratory curriculum and…
  
Match Score:
100
Byline:
M. Eblen-Zayas and R. Terrien
Post a comment | Relations
M. Eblen-Zayas and R. Terrien, 2018 Conference on Laboratory Instruction Beyond the First Year of College (2018).
At Carleton College, a self-directed group project is the capstone of the "Contemporary Experimental Physics" course. Instructors in this course do not prescribe topics or…
  
Match Score:
100
Byline:
J. Fung and L. Wardell
Post a comment | Relations
J. Fung and L. Wardell, 2018 Conference on Laboratory Instruction Beyond the First Year of College (2018).
The sophomore-level laboratory at Wellesley College emphasizes the development of data analysis and visualization skills. We use the Jupyter notebook computational environment, which…
Fourier Transform Spectroscopy in the Visible Range  [ Conference Proceedings ]
  
Match Score:
100
Byline:
J. Magnes and T. Hatch
Post a comment | Relations
J. Magnes and T. Hatch, 2018 Conference on Laboratory Instruction Beyond the First Year of College (2018).
We present an undergraduate laboratory that utilizes Fourier spectroscopy with two lasers in the visible range to demonstrate the measurement technique. In addition to teaching an…
  
Match Score:
100
Byline:
N. Powers, D. Durfee, and D. Allred
Post a comment | Relations
N. Powers, D. Durfee, and D. Allred, 2018 Conference on Laboratory Instruction Beyond the First Year of College (2018).
There is a natural tendency for students to act first (e.g. - build and conduct experiments) and think later (e.g. - outline goals, identify challenges, predict outcomes, etc.). This…
|  Next >>   
Results #1-#10 of 51