Assessment and Evaluation Techniques:
- Students will create lab reports that will be evaluated by the instructor.
The reports will be scored using a rubric with which they are familiar.
- Students will produce graphical representations of the motion of the pendulum using a STELLA model.
These will be scored using a scoring rubric for STELLA models.
Assessment Rubric for Pendulum Lab Report
The scoring rubric has four parts:
Planning, Data collection, Data analysis, and the Conclusion.
Each part is scored on a scale from 0 to 3 as follows:
| Planning |
3 |
Defines problem, formulates hypotheses with appropriate variables, designs experimental method |
|
2 |
Problem definition is unclear, stated hypothesis or variables not complete, poor experimental method |
|
1 |
Any one of the three components is not included |
|
0 |
Not Attempted |
| Data Collection |
3 |
Data collected and recorded, raw data is organized and presented |
|
2 |
Data collected and recorded, raw data is poorly organized and presented |
|
1 |
Either of the two components is missing |
|
0 |
Not Attempted |
| Data analysis |
3 |
Processes raw data correctly, presents processed data appropriately |
|
2 |
Processes raw data correctly, data not presented appropriately |
|
1 |
Any one of the three components is not included |
|
0 |
Not Attempted |
| Conclusion |
3 |
Processes raw data correctly, presents processed data appropriately |
|
2 |
Processes raw data correctly, data not presented appropriately |
|
1 |
Any one of the three components is not included |
|
0 |
Not Attempted |
SAMPLE STUDENT LAB with RUBRIC
The following rubric is designed to measure these objectives:
6. Use STELLA modeling software to model simple problems.
7. Build and explain a STELLA model of the period of a pendulum.
| OUTSTANDING |
4 |
The participant, using analysis, has developed a deep understanding of the system being modeled. |
| The system diagram and information flows accurately represent the key parameters in the system. |
| The equations specifying the relationships between the parts of the system demonstrate a comprehensive integration of the available data and known theory regarding the system. |
| The model has been thoroughly tested against a variety of conditions. |
| GOOD |
3 |
The participant, using analysis, has developed a good understanding of the system being modeled. |
| The system diagram and information flows accurately represent many of the key parameters in the system. |
| The equations specifying the relationships between the parts of the system demonstrate a mostly complete integration of the available data and known theory regarding the system. |
| The model has been tested against a variety of conditions. |
| FAIR |
2 |
The participant has developed a basic understanding of the system being modeled. |
| The system diagram and information flows accurately represent only part of the key parameters in the system. |
| The equations specifying the relationships between the parts of the system demonstrate an incomplete integration of the available data and known theory regarding the system. |
| The model has been tested against a few conditions. |
| POOR |
1 |
The participant has exhibited a lack of understanding of the system being modeled. |
| The system diagram and information flows are inaccurate representations of the key parameters in the system. |
| The equations specifying the relationships between the parts of the system demonstrate a lack of understanding of the available data and known theory regarding the system. |
| The model has not been tested. |
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