Basic Skills in Complex Contexts

FIN Commons

Mount San Antonio College revised inquiry plan for 2009

Posted by Becca Walker on February 27, 2009 in Basic Skills in Context, Pre/Post, Revised Inquiry Plans, Student Confidence, Student Voice, Teaching Problem Solving with No Comments


Summary

Mt. San Antonio College’s Earth Sciences & Astronomy Department is conducting an investigation entitled “Designing Field Trips That Improve Critical Thinking, Writing, Communication, and Quantitative Skills: Incorporating Basic Skills Into Natural Sciences Courses.” Team members will develop a suite of activities and field trip materials to increase active learning, analytical writing, speaking, and quantitative and qualitative problem-solving during field trips.  To prepare students applying concepts learned in the classroom to a field environment, new classroom activities will also be designed and implemented before field trips. Faculty and student mentors will work together in the field to provide small-group instruction. The primary focus is to investigate how applying Math, English, and critical thinking in these real-world environments affects students’ basic skill development.

Team Leader:
Becca Walker / Earth Sciences and Astronomy
909-594-5611 x 6339 Fax: 909-468-4036
rwalker@mtsac.edu

Team Members:
Dr. Terri Smith Long / Earth Sciences and Astronomy; tlong@mtsac.edu
Dr. Mark Boryta / Earth Sciences and Astronomy; mboryta@mtsac.edu
Karen Bridges / Earth Sciences and Astronomy; kbridges@mtsac.edu

Plans for Data Collection and Analysis

A.    Zoom-Lens Inquiry: Focusing on Students

1)    What data will you gather and analyze on individual students? (e.g. student work, self-reflections, interviews, videotaped think-alouds or problem-solving)

Video footage of students in the field, reflective writing (journals, field trip reports), observations from student mentors, student focus groups, (possibly) informal student presentations in the field for geol14, objective and written questions on exams related to field trips.

2)    How do you imagine this data will help you understand the problem/issue you’re investigating? In other words, how does the data connect to and inform the overall focus of your inquiry?

I’ve included the questions that our team originally proposed to address. Without data from our students, we can reflect about our teaching and speculate about why students struggle with transferring classroom knowledge to a field environment, but this reflection is not student-centered. The only way to design a student-centered inquiry is to observe our students, hear from our students, read what our students have to say, and assess how our students transfer what they learned in the classroom to a field site (AND how they transfer what they learned in the field to a classroom environment) in the context of exams.

  • Which teaching and learning strategies in the field most effectively maximize self-directed learning and problem-solving?
  • How can we make field trips more meaningful to students enrolled only in the lecture section of a course (as opposed to students enrolled in both lecture and lab)?
  • How can we incorporate more writing and quantitative reasoning into our field trips?
  • How can we prepare our students to apply scientific principles and critical thinking learned in the classroom to both familiar and unfamiliar fields?
  • How can we change students’ expectations about how they should be learning during field trips? How do we move away from the model in which the professor tells the students what they are seeing and toward the model in which students engage in a self-directed inquiry and ask themselves what they are seeing?

3)    When and how will you collect this data? (e.g. Which classes will you target? Where will you conduct interviews or think-alouds?)

Data will be collected from the following courses: geol1 (physical geology); geol8 (Earth science); geol9 (environmental geology); geol14/24 (field studies of Central California). We will collect data from “traditional” field trips during spring 2009 and from “restructured” field trips during fall 2009. Data collection will occur April-May and October-November 2009.

4)    When will you analyze this data? (e.g. mid-semester team retreat, after lesson-study session, at the end of the semester; )

Data analysis will begin in April 2009. We envision the analysis process as being continuous, with focused analysis during group meetings. We think that it would be interesting to have the instructor of the course in question analyze the data separately from the other collaborators and then compare their observations.

5)     What questions/concerns do you have about this element of your Inquiry? How can your Inquiry Coach support you in this phase of your Inquiry?

We have a lot of ideas about data collection during field trips, but we haven’t solidified the types of classroom data that we want to collect. For example, we anticipate including questions on exams to obtain some quantitative classroom data. We are feeling slightly overwhelmed about the volume of video footage that we have the potential to collect in the field. (Our field trips are 2-4 days long!)

B.    Mid-Range Shots: Focusing on the Classroom

1)    Please name ONE specific lesson in a particular course that will give you a good vantage point for observing student learning relevant to your Inquiry.

Weathering is the process by which rocks are broken down physically (i.e., size and shape changes) and chemically (i.e., change in chemical composition by the addition and/or removal of minerals). Weathering has implications for landscape development and natural hazards and is a topic addressed in all four of the courses (physical geology, Earth science, environmental geology, and field studies of Central California) on which our inquiry will focus.

2)    How do you imagine the Lesson Study will help you understand the problem/issue you’re investigating about students and their learning? In other words, how does it connect to and inform the overall focus of your inquiry?

All rocks at the Earth’s surface experience weathering. Weathering is a concept that we teach in the classroom and is observable at every field trip site that we visit. Despite our coverage of weathering in the classroom, students have a difficult time recognizing weathering features in the field. We are scratching our heads about this because when we discuss weathering processes in the classroom, we often show photographs of rocks that have been weathered by the process in question. For example, why is it that students know what “oxidation” means and have seen photographs of oxidized rocks in the classroom but can’t consistently identify oxidized rocks on the field trip?

3)    When and how will your team conduct this Lesson Study? Please detail the time frames and participants for the three parts of the Lesson Study process (collaboratively planning the lesson, teaching/observing the lesson, and debriefing/analyzing videotapes & student work from the lesson).

Lesson study will be designed during the spring 2009 semester by all FIG participants. Lesson studies will differ slightly for all four courses depending on the specific weathering features that will be observed in the field for each course. Boryta will teach the lesson study for physical geology; Bridges will teach the lesson study for environmental geology; Walker will teach the lesson study for Earth science; and Long/Walker will co-teach the lesson study for field studies of Central California. One observer will be present for each lesson study. Debriefing and analysis will occur collaboratively.

4) What questions/concerns do you have about this element of your Inquiry? How can your Inquiry Coach support you in this phase of your Inquiry?

We need to identify the learning objectives related to weathering for each course and develop a rubric for the observers. Video may be utilized.

C.    Wide-Angle Lens: Focusing on Larger Trends in Institutional Data

What data from your Institutional Research Office will you integrate into your Inquiry?

We’re not sure yet! Myra and I talked about how to relate the results of our inquiry to course-level SLOs…..We imagine that how our project and the institutional data fit together will become clearer as we collect and analyze our data.

D.    Video Footage
We are asking each team to collect at least 10 hours of video footage in the Spring semester.

1)    How will this footage inform the central questions of your Inquiry?

The video footage is going to be a huge part of our inquiry because we are often too busy on a field trip to recognize where our students are struggling most. Looking at footage from all of our students will allow us to identify patterns and determine which concepts In addition, we hope that the video footage will give us ideas about which specific skills (i.e., quantitative skills, large-scale observations, small-scale observations, rock descriptions, geologic interpretations, writing, oral communication) are most problematic for our students. Ideally, these data will guide us in changing our classroom instruction and implementation of new field trip activities and teaching strategies.

2)    What questions/concerns do you have about this element of your Inquiry? Is there  any support you’d like from the FIN Leadership Team in this area?

None of us are video experts, and we don’t have time to teach AND film simultaneously in the field. Student mentors and/or volunteers will assume a central role in videotaping in the field. We are concerned about whether or not our students will feel comfortable being videotaped in the field and whether the presence of a camera will change the dynamic on the field trip. We will need to figure out how to make the video process as unobtrusive as possible. Tech support from the FIN leadership team will probably be necessary.

E.    Inclusion of Student Voices

Please describe how you plan to include student voices in your Inquiry (e.g. hiring students to capture video footage, interview other students, review data from your inquiry and tell you what they see).

Student mentors, alumni of the courses in question with strong content knowledge, communication skills, and work ethic, will be involved in the inquiry process. Mentors’ primary role will be working with faculty on field trips to provide small group instruction.  In addition, mentors will assist with the development of video footage designed to model how to think like a geologist in the field. Video footage will show the mentors engaging in self-directed learning at specific field trip sites. Mentors will answer a systematic series of questions while observing the outcrop. This will allow students in the class to understand the metacognitive processes that should occur when they attempt to interpret a geologic outcrop during their upcoming field trip. Because we believe that student mentors will provide valuable observations of student learning in the field, we are still discussing how to best involve student mentors in the analysis phase of our project.

Timeline/Calendar

Winter 2009: FIG members wrote narratives reflecting on their field trip philosophies, their perceived strengths and weaknesses as field trip leaders, and students’ strengths and weaknesses as field trip participants. Walker met with the Institutional Research Department at Mt. SAC to discuss linking project to course-level SLOs. Student mentor selection process began.

Spring 2009:

  • FIG will meet regularly to engage in peer-to-peer faculty development. We plan to discuss our individual experiences with field trips,  share observations that we have made about where our students struggle in the field, reflect on the teaching techniques that we use on in the classroom and on field trips, and hypothesize about which techniques are most beneficial to our students and which could be improved.
  • Finish selecting student mentors and prepare them for field responsibilities.
  • Develop field trip SLOs.
  • Design and implement lesson study.
  • FIG and student mentors will observe student learning during field trips and collect student data through interviews in the field, videotaping, debriefing, journaling, and field trip reports.
  • Note: Because this semester’s field trips will serve as the “control group” in the inquiry process, we do not plan on modifying our field trips significantly during the spring semester. The data from this semester will serve as a basis for comparison to next semester’s field trip data.

Spring and summer 2009:

  • Based on analysis of field trip data from spring 2009, FIG will work collaboratively to develop field trip materials, activities, and pedagogical strategies that target critical thinking, writing, quantitative, and communication skills. Classroom curriculum modifications will be planned as well. Student mentors will assist in the design process.

Fall 2009:

  • We will repeat the process of data acquisition in the field, this time using the field trip materials that we designed targeting basic skills. We will focus our efforts on Geol1 (physical geology), Geol8/8L (Earth science), Geol14/24 (field studies of Central California), and Geol9 (environmental geology).
  • We will conduct a comparison of the “traditional” spring 2009 field trips and the restructured fall 2009 field trips. This comparison will involve faculty and mentor interviews and focus groups, including field trip questions on exams to assess student mastery of basic skills and course concepts, and peer-to-peer discussions within the faculty inquiry group.

Although additional data collection and assessment may occur during year 2 of the project, our focus for year 2 will be dissemination of results to the campus community.

Summary College of the Siskiyous

Posted by Renata Funke on February 26, 2009 in Developing Questions, Faculty Inquiry Groups (FIG), Fear, Identity, Learning to Learn, Making Visible, Math, Metacognition, Pre/Post, Proposals, Student Confidence, Student Interviews, Student Teams, Student Voice, Surveys, Teaching Problem Solving, Using Institutional Research, Video Evidence with No Comments


College of the Siskiyous is focusing on what helps students become more intrinsically motivated as they navigate the intersection between student learning and students’ identities as outsiders or insiders in the college environment. The Inquiry team will use video footage to capture student reflections and experiences, as well as classroom discussions and athletic activities. One student group to be included are African-American student athletes adjusting to the isolation they find in the small rural community of Weed, California near the Oregon border. Another group will be students of Math who started at the college with Pre-Algebra and who are currently enrolled in Intermediate Algebra from a course called “Math for the Confused,” who will describe and analyze their experiences and what helped them succeed in their math courses. A group of students from a Leadership Training class will dialog with a group from a Social Psychology class to explore ways students can become intrinsically motivated. By closely examining data on students’ performance and experiences, the Inquiry team aims to identify blind spots in the college’s approach to basic skills and, ultimately, find ways to “light the fire” in students with histories of low educational attainment.

Team Leader:
Renata Funke / Director, Yreka Campus
530-842-1245 Fax: 530-841-5221
funke@siskiyous.edu

Team Members:
Les Courtemanche / Football/Track assistant coach/instructor of a Leadership Training class
Deborah Randolph / Math instructor of a “Math for the Confused” class (pre-pre-algebra level)
Eve Thompson / English
Patrice Thatcher / ECE Program Coordinator
Catey Olivolo / Nursing
Mark Oliver / Videography

Better Thinkers, Better Futures

Posted by Jan Connal on February 25, 2009 in Teaching Problem Solving with No Comments


“Better Thinkers, Better Futures” (2)

The Perry Model: Dualism

Dr Aziza Ellozy, Director, Center for Learning and Teaching

The very first time I walked in class to teach “Scientific Thinking”, I asked my students what they had heard about the course. One of the students responded that he heard that everything we learn in science turns out to be eventually false. His body language indicated that this was certainly not a good thing, and that “Scientific Thinking” may be a waste of time. Two semesters later in another class, after we had we discussed Popper’s falsification theory, (i.e. that a scientific hypothesis has to be falsifiable and that no amount of experimentation can prove a scientific theory to be “true”) another student made the remark that since science is always “changing” and that what we know today will be proven wrong tomorrow, then we have to rely on our religion to find the answers we look for (it was said, if I remember correctly, in the context of a situation where one is faced with conflicting arguments).

These are representative of the kind of thinking that Perry has classified as the “dualistic” stage. Dualistic thinking is characterized by the certainty that there are right or wrong answers/solutions to every problem and that these answers/solutions are known to “authorities”. The “good” instructor is seen as one of these authorities who helps them find, or provides them with, the “right” answers, even to open ended problems that do not have absolutely correct answers. He/she is the source of knowledge and is therefore expected to convey the facts.

In addition, W. Pierce (1998) recognizes in all of us hidden psychological barriers to clear thinking such as ego defenses and/or “enculturation” (i.e. “the process of acquiring the basic beliefs and values of one’s culture”). We should therefore not be surprised when students entering college feel uncomfortable when confronted with ideas or perspectives that challenge their cherished beliefs and/or their sense of identity. The student whose religious upbringing prepares him/her to think that science and religion are incompatible may be uncomfortable with the notion that “absolute” truth does not have a place in science. When push comes to shove, he/she will retreat to the security of belief be it cultural, religious, or political. When prodded to search for different perspectives, the realization that several “authorities” are in conflict adds to the uneasiness.

‡For a background to this newsletter please refer to A. Ellozy’s “Better Thinkers, Better Futures” (1). What Research Tells Us. New Chalk Talk, Vol.7, Issue 1

So how do we help students move away from dualistic thinking to Perry’s “multiplicity” stage?

Kloss (1994), who has found Perry’s scheme very helpful, has devised pedagogical strategies to help university students become critical thinkers. For students who think in dualistic ways his recommendations include the following:

  • Provide examples that deal with conflicting points of view
  • Create an environment that encourages different viewpoints and that accepts them as legitimate
  • Reinforce the unlikelihood of one potential solution, approach, or viewpoint to complex problems
  • Support the legitimacy of students’ point of view
  • Ask for reasonable and substantive justification for assumptions and value judgments
  • Challenge overgeneralizations and appeal to authority
  • All the while, provide for a safe environment where students feel they can take risks.

It is useful to point out that sometimes when confronted with more complex ways of thinking, students sometimes retreat or escape to the comfort and security of authority. The transition is difficult and does not happen in a moment of illumination. In Kloss’ words, “a nudge is better than a shove in these matters”.

Sources:

  • Keeley, S. M., Shemberg, K. M., and Zinnbauer, B. (1995). Coping with student resistance to critical thinking: what the psychotherapy literature tells us. College Teaching, 43, 140-145.
  • King , P.M., & Fischer, K.S. (1994). Developing reflective judgment. .San Fransisco: Jossey-Bass.
  • Kloss, R. (1994 ). “A Nudge is Best: Helping Students through the Perry Scheme of Intellectual Development.” College Teaching, Vol 42, No. 4 pp. 151-158
  • Marcia B. Baxter Magolda (1992). Knowing and Reasoning in College: Gender-Related Patterns in Students’ Intellectual Development. San Francisco: Jossey Bass Publishers.
  • Perry, W.G. (1970). Forms of intellectual and ethical development in the college years: A scheme. Austin, TX: Holt, Rhinehart and Winston.

Share with us your experiences by contributing to the New Chalk Talk series, or by simply sending comments / suggestions to aellozy@aucegypt.edu , pandeli@aucegypt.edu

About FIN

The Faculty Inquiry Network’s (FIN) purpose is to support professional development which includes: conducting faculty inquiry; revisiting basic skills assumptions; interpreting and integrating data; accessing student voices; developing students as co-inquirers; making visible; using technology for teaching and learning; creating and supporting new initiatives, curriculum and program development; constructing educational tools using digital media; and hosting dialogue around student and faculty learning.

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