This NRC report presents a thorough review of the literature concerning learning strategies that encourage and are barriers to student learning. Their major findings include the following: 1) student misconceptions are a barrier to their learning and these misconceptions must be challenged if they are to be changed, 2) to build meaningful understanding of a discipline need both factual knowledge and a strong conceptual framework into which to put those facts, 3) strong metacognitive skills are necessary for learners.
Mental Models
This article is the basis for my intent to incorporate general models into my physiology course. Model presents his concept of general models as a way to help students better understand physiology. General Models represent first principles that can be applied across physiological systems. General Models help student build robust mental models of physiological systems that allow them to predict consequences of changes to those system. General models help students transfer their mechanistic understanding to systems they have not yet studied.
This book lays out the basic premise of how learners use and develop mental models to develop deep understanding. They indicate that the ways student build, test and refine their mental models is dependent on the nature of the domain studied, the nature of the theoretical approach, and the nature of the methodology.
Available online at http://geoexplorer.tamu.edu/dfgnsf/WG1.html.
Earth and environmental systems study a complex and dynamic set of variables that cover a wide range of scales ( time, size, disciplines) and thereby pose a large challenge to students attempting to build their mental models. His project seeks to develop and assess IT-based learning environments that fosters student development of rich mental models of environmental systems through metacognitive scaffolding, manipulation of multiple representations, use of authentic, complex and ill-constrained problems. This project provides a thorough set of guidelines for developing and assessing educational material to guide effective student development of robust mental models.
http://tlt.its.psu.edu/suggestions/r...le_Learn.shtml
Entwistle, N.J. (2001) A summary of the ‘Teaching for Understanding’ project
he is PI of the ETL center at the University of Edinburgh. They have a great publlication list and videos to watch. He developed the RASI- revised approaches to study inventory.
http://www.etl.tla.ed.ac.uk/publicat....html#teampubl
Assessing student metacognition will be one of the challenges of my project. These authors examine learners’ ability to differentiate between what they know and do not know. Their findings indicate learners of all levels of ability and developmental stages are affected by their ability to monitor their learning. They have focused on the correlation between knowledge monitoring and student’s academic performance.
These authors studied how student’s metacognitive skills impacted self-regulated learning (SRL) skills in undergraduates. They found that high achieving students were: more accurate at predicting their test results; more realistic in their goals; more likely to adjust their confidence in-line with their test results; and more effective in choosing test questions to which they knew the answers.
"Using a comparative descriptive design, self-regulated learning strategies were used to enhance metacognitive critical thinking abilities. The data suggested that nursing education and practice consider using self-regulated learning prompts with new graduates to promote thinking strategies." ERIC 39-S.Imel
A 52-item inventory was constructed to measure the metacognitive awareness of adults. Items were classified into eight subcomponents under categories of knowledge and regulation of cognition. Implications for assessment were identified.
web site from Schraw's class with metacognition survey.
Undergraduate at a community college were asked to predict their grade on an exam prior to taking the exam. Predicted grades were compared to actual grades on the exam. They found that students with higher actual grades demonstrated an understanding that helped them to more accurately evaluate their own performances.
This is the classic study that proposed six cognitive domains: knowledge, comprehension, application, analysis, synthesis and evaluation. Each domain is explained and relevant examples across disciplines are provided. This work provides a simple and straight forward means of helping faculty monitor and align their teaching and testing as well as provide a framework for students to both monitor and structure their studying.
http://www.learningandteaching.info/learning/solo.htm
BIGGS J (1993) "What do inventories of students' learning process really measure? A theoretical review and clarification" Brit. J. Ed. Psych. vol 83 pp 3-19
BIGGS J (1999) Teaching for Quality Learning at University Buckingham: SRHE and Open University Press-
***Chris highly recommends this book.- used in his teaching certificate program in Australia.
Can Undergraduate Biology Students Learn to Ask Higher Level Questions?( 2000) Gili Marbach-Ad,G and P. G. Sokolove. J. R. S.T. 37(8):854± 870
Meyer and Land 2003
Meyer and Land 2005
http://www.higp.hawaii.edu/kaams/res...reflection.htm
This web site defines reflective thinking, indicates RTs connection to building critical thinking in learners and offers practical class room activities to promote RT.
These authors designed a set of learning materials and activities who purpose is to guide students towards independent learning by encouraging them to reflect more on ‘what' and ‘how' they learn. Results of the 2003 and 2004 trials showed that the self-assessment schedule had a positive impact on student learning and was at least partially effective in improving students' critical thinking skills.
| File | Size | Date | Attached by | |||
|---|---|---|---|---|---|---|
| Duff2004RASI.pdf Revised Approaches to Studying Inventory | 161.97 kB | 15:49, 17 Jul 2008 | mwenderoth | Actions | ||
| entwistle2000.pdf No description | 216.14 kB | 19:53, 23 Jul 2008 | mwenderoth | Actions | ||
| Everson1998_Meta.pdf Everson | 98.72 kB | 15:21, 17 Jul 2008 | mwenderoth | Actions | ||
| General Models.pdf 1st principles in physiology | 106.85 kB | 15:23, 17 Jul 2008 | mwenderoth | Actions | ||
| Herbert2003-Mental models.pdf herbert article | 550.13 kB | 15:18, 17 Jul 2008 | mwenderoth | Actions | ||
| Isaacson2007Meta.pdf No description | 381.5 kB | 15:23, 17 Jul 2008 | mwenderoth | Actions | ||
| Kuiper2002.pdf No description | 1083.26 kB | 08:52, 18 Jul 2008 | mwenderoth | Actions | ||
| Marbach-Ad & Sokolove 2000 copy.pdf higher order questions | 130.2 kB | 14:03, 18 Jul 2008 | mwenderoth | Actions | ||
| mayer & Land2003.pdf No description | 119.11 kB | 19:34, 23 Jul 2008 | mwenderoth | Actions | ||
| Meyer-Land2005.pdf threshold concepts | 196.17 kB | 11:52, 18 Jul 2008 | mwenderoth | Actions | ||
| NPOGThreshold.doc threshold concept defined | 49.5 kB | 11:40, 18 Jul 2008 | mwenderoth | Actions | ||
| Schraw1994.pdf No description | 844.49 kB | 08:37, 18 Jul 2008 | mwenderoth | Actions | ||
| Schraw1998-Meta.pdf Schraw 1998 | 59.41 kB | 15:21, 17 Jul 2008 | mwenderoth | Actions | ||
| Tobias 1995metacognition.pdf Tobias 1995 | 670.96 kB | 15:21, 17 Jul 2008 | mwenderoth | Actions | ||