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<report><title>Academic Year 2002-2003 AISL Report</title>
<division name="Embedded General Education">


<course name="MAT 135: Statistics">
   <section val="Fall 2002">
      <faculty> Ulibarri, Debbie</faculty>
      <assessment descr="Math">
	<descrDataCollected>Common Math exam
	</descrDataCollected>
	<data>A general education embedded math assessment was administered.  
		This assessment instrument was a compilation of questions submitted by 
		several math faculty. Scores <a href="geMath.xls">attached.</a>
	</data>
	<conclusions>
		<p>This is the first time this test has been given and the results 
		will give the math department an insight as to any revisions that 
		need to be made before the test is administered again.</p>
	</conclusions>
	<changesMadeOrContinued>
		<p>Questions #1, 5, and 7 in particular should be looked at to see 
		if the extremely low scores are a reflection of the wording of the 
		questions, or can be attributed to poor math skills.</p>
	</changesMadeOrContinued>
	<resultsFromPriorChanges>N/A
	</resultsFromPriorChanges>
      </assessment>
   </section>
</course>

<course name="CHE 111, GEY 111, PHY 111, PHY 211">
   <section val="Fall 2002">
      <faculty>Rowan and Philbin </faculty>
      <assessment descr="Embedded Science">
	<descrDataCollected>A general education embedded science assessment was administered.  
		This instrument was a compilation of four questions submitted by 
		several science faculty. 
	</descrDataCollected>
	<data>
		<a href="geSci.xls">Results</a>
	</data>
	<conclusions>
		<p>This is the first time this test was given.</p>
		<p>The first three questions were designed to test the ability of the student
		to analyze the validity of an argument.  Questions #1 and #3 were multiple choice
		while #2 was a short answer format.  The short-answer format allowed more insight
		into what the student was actually thinking.</p>
		<p>Question #4 first gave the results of an experiment and the experimenter's erroneous
		conclusion; it then asked the student to evaluate the assumptions and errors.
		No student identified the primary assumption, and only about one third seemed to 
		realize the essential problem with the experimenter's conclusion.</p>
	</conclusions>
	<changesMadeOrContinued>
		<p>Regarding the instrument itself, each of the questions will evaluated in light 
		of the responses to purify the intent of the question.</p>
		<p>Two primary issues seem to be indicated: one, that students do not recognize
		the concept of argument as a logical progression, and two, that students do not
		seem to realize what assumptions they are making in their own thinking.</p>
	</changesMadeOrContinued>
	<resultsFromPriorChanges>N/A
	</resultsFromPriorChanges>
      </assessment>
   </section>
</course>

<course name="ENG 121, 122">
   <section val="Spring 2003">
      <faculty>Huhn, Stimson, Whiting</faculty>
      <assessment descr="portfolio evaluation">
        <descrDataCollected>
        	The communications division keeps portfolios of essays and papers from both composition 
        	classes and other classes requiring similar papers.  We ask that composition teachers 
        	submit the first paper in each class and the paper requiring research (toward the end
        	of each semester).  The cohort used was the list of May 2003 graduates.  Initially, 
        	we selected all graduates for whom we had portfolios; certificate graduates seldom 
        	had portfolios.  Some of the portfolios had only one paper, so we eliminated those 
        	portfolios.  Two English teachers evaluated each portfolio on six traits: ideas, 
        	organization, word choice, sentence fluency, voice, and conventions, each trait 
        	evaluated on a 1 to 5 scale. In no sense is this a scientific survey. It merely shows 
        	trends. The results of this evaluation are displayed on the attached
        	<a href="comm03s.xls">table</a>.
        </descrDataCollected>
        <data>
                <p>An informal overview of the data reveals that most students made progress 
                in most areas.  The average shows the greatest progress being made in sentence 
                fluency and conventions.  </p>
        </data>
        <conclusions>
                <p>Most teachers of composition devote much attention to revision and editing, 
                encouraging students to rewrite papers by incorporating correction noted in peer 
                and teacher conferences and in consultation at the writing center.  This accounts 
                for the  improvement in most areas.</p>
                <p>The negative average for voice has a reasonable explanation.  Most first essays 
                were personal essay where voice is exceptionally strong; the second essay, being a 
                research essay demands a greater attention to one's personal voice.  </p>
        </conclusions>
        <changesMadeOrContinued> 
                <p>The data suggest that special attention needs to be paid to developing voice 
                in academic research papers.  This can be accomplished by close attention to voice 
                in text essays and essays and articles from other sources.  In research essay, 
                students tend to rely too much on using quotations rather than paraphrases. They 
                often are reluctant to interpret the research.  Emphasis needs to be placed on 
                selection of unbiased resources and using summary and paraphrase.  This can be done 
                by spending more time on these skills, calling attention to it in model essays, and 
                attempting to paraphrase sample paragraphs.</p>
                <p> Teachers, for the most part continue to use workshop methods in their classes, 
                which accounts for improvement in most areas.</p>
                <p> We also want to encourage submission of essays from other disciplines.</p>
        </changesMadeOrContinued>
        <resultsFromPriorChanges>
                <p>We have continued various methods of delivery, including workshop, Picture-tel, and 
                computers.  Teachers observe that students with the greatest development are those 
                with regular attendance.  Although we attempt to emphasize attendance, we need backup from 
                the administration.  Having the students on campus with dorm scholarships demands 
                this accountability.</p>
        </resultsFromPriorChanges>
      </assessment>
   </section>
 </course>
 

<course name="MAT 110, 121, 125, 135, 202 EGEA-M">
   <section val="Spring 2003">
      <faculty>Carter, MacLaren, Philbin, Ulibarri</faculty>
      <assessment descr="Math">
	<descrDataCollected>Embedded Math Assessment
	</descrDataCollected>
	<data>A general education embedded math assessment was administered.
		This assessment instrument was a compilation of questions submitted by 
		several math faculty. Scores <a href="geMath.xls">attached.</a>
	</data>
	<conclusions>
		<p>The data from 73 students had an average(stdev) of 47%(24%) overall.
		Separating it into the categories: 
		12 had taken up to Problem Solving, MAT 110, and scored 21%(8%);
		14 had taken up to College Algebra, MAT 121, and scored 48%(30%);
		21 had taken up to Statistics, MAT 135, and scored 47%(15%); 
		17 had taken up to Survey of Calculus, MAT 125, and scored 51%(23%); and
		10 had taken Calculus, MAT 201 (and 202) and scored 72%(14%).
		</p>
		<p>The trend does show that students do better with more mathematics 
		training.</p>
		<p>Comments from MAT135 instructor: "I am surprised again at the low 
		percent of students who answered the first problem correctly.  I 
		believe that most students assume they know the answer and answer 
		without thinking about what the problem actually asks.  I am pleased 
		that the majority of statistic students answered the probability problem 
		correctly, but don't understand why so many more answered the first part 
		right and missed the second part of the question.  I am surprised that 
		so many students missed problem 4a and 4b.  This reflects the students' 
		inability to realize when an answer makes sense, and when it does not."</p>
	</conclusions>
	<changesMadeOrContinued>
		<p>Mathematics faculty feel that students seem to simply memorize techniques
		often without really understanding what it is they are doing.  Several courses
		already contain mathematics project requirements, but these will be modified
		in ways that better promote critical thinking in students.  One simple change
		that the calculus instructor is considering is to simple give the project
		assignments earlier and require drafts so that students do not wait until the
		last possible moment.</p>
		<p>More emphasis needs to be placed on number sense - in particular, 
		realizing when an answer makes sense and when it doesn't.  Also, find 
		some critical thinking exercises or examples to stimulate the thinking 
		process.</p>
	</changesMadeOrContinued>
	<resultsFromPriorChanges>
		<p>The instrument was purified after the fall pilot to improve the wording
		on several problems, the "min/max problem" was eliminated, and a new problem
		was introduced which attempts to measure the students true understanding of
		the connection between English and an associated graph plus the difference
		between linear and exponential growth.</p>
		<p>To get at students' effort, a trio of checkboxes was added for each question.
		These are "I've seen problems like this before," "I've never seen problems like 
		this before but I tried to reason it out," and "I've never seen problems like 
		this, so I guessed."
		</p>
	</resultsFromPriorChanges>
      </assessment>
   </section>
</course>

<course name="BIO 112, BIO 202, BIO 257, CHE 111, GEY 121, PHY 111, PHY 211">
   <section val="Spring 2003">
      <faculty>Philbin, Rankin, Rowan</faculty>
      <assessment descr="Embedded Science">
	<descrDataCollected>
		<p>A general education embedded science assessment was administered.  
		This instrument was a compilation of seven questions written in collaboration
		with all science faculty.</p>
		<p>This was the second time this test was given; it consists of four multiple-choice
		questions which attempt to measure logical reasoning, a question that measures the
		student's ability to read an unfamiliar argument with scientific terms, a question
		which relates to the interpretation of experimental results, and a question which gives
		the student a chance to synthesize an experimental solution.</p>
	</descrDataCollected>
	<data>
		<a href="geSci2.xls">Results</a>
		<p>The data shows wide spans of scores, probably due somewhat to presentation of the
		instrument itself (required exam, extra credit, etc.).  Unsurprisingly, the science
		reading question gave the best results, logic a distant second, followed by experimental
		design and identifying assumptions.
		</p>
	</data>
	<conclusions>
		<p></p>
	</conclusions>
	<changesMadeOrContinued>
		<p>Questions still need to be fine-tuned, for example, a term is used in the design
		question that causes trouble which has nothing to do with the intent of the question.</p>
		<p>Two primary issues seem to be indicated: one, that students do not recognize
		the concept of argument as a logical progression, and two, that students do not
		seem to realize what assumptions they are making in their own thinking.</p>
	</changesMadeOrContinued>
	<resultsFromPriorChanges>
		<p>The instrument was modified after the fall pilot to improve the wording
		on several problems.  The response to the reading question was changed so that
		the student could write a short answer.  The last question was added to provede a
		measure of scientific numeracy skills; it needs fine-tuning.</p>
	</resultsFromPriorChanges>
      </assessment>
   </section>
</course>

<course name="ART 110, ART 111, HUM 121">
   <section val="Spring 2003">
      <faculty>Holdread</faculty>
      <assessment descr="Embedded Humanites">
	<descrDataCollected>A general education embedded humanities assessment was administered.  
		This instrument was a compilation of two questions submitted by one 
		humanities faculty and finalized in cooperation with the assessment committee. 
		The questions were designed to apply to any arts or humanities course including
		theater, literature, and music.
	</descrDataCollected>
	<data>
		<p>Students in ART 111 were general able to apply what they had learned in 
		answering the essay questions. Students in HUM 121 were the least able to do so. 
		Students in the origination location of Pictel delivered courses performed better 
		than students at the romote locations.</p>
		<p>Overall students averaged 3.0 on a 4.0 scale. Individual courses were as follows:		
		ART110- 2.8, ART111- 3.6, HUM121- 2.6</p>
		<a href="EGEA-HUM.xls">Spreadsheet summary</a>
	</data>
	<conclusions>
		<p>This is the first time this test was given.</p>
		<p>There is a need for more visits to remote sites as well as more practice in 
		writting essay questions.</p>
	</conclusions>
	<changesMadeOrContinued>
		<p>I intend to build comparison/contrast type writting assignments into these 
		courses on a regular basis. I also will work on developing facilators at remote 
		sites and making more personal visits to those sites. Another consistant comment 
		on student evaluations, especially from Art Appreciation students (ART 110), 
		was that they would like more hands-on opportunities. I intend to build more 
		activities into the course. This is difficult with the remote sites but by 
		adding a supplies list to the course syllabus I should be able to build in 
		activities.</p>
	</changesMadeOrContinued>
	<resultsFromPriorChanges>N/A
	</resultsFromPriorChanges>
      </assessment>
   </section>
</course>

</division>

</report>
