Archive for March, 2006

711. A TEACHING MANIFESTO

Friday, March 31st, 2006

Folks:

The posting below offers some interesting approaches to teaching undergraduates. It is by Jaldum Ozaktas of Bilkent University in Ankara, Turkey. While not everyone will agree with all these suggestions they do offer much food for thought. Also, please remember that your comments are welcome at http://amps-tools.mit.edu/tomprofblog/ [(C) Copyright Haldun M. Ozaktas, January 1994. Reprinted with permission].

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Professors Preach Ten Commandments of Team Teaching

Tomorrow’s Teaching and Learning

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A TEACHING MANIFESTO
(A personal view on undergraduate university education)

1. Let students decide what is best for them.
a. Give students maximum freedom in determining how they learn the course material. –> 1b 1c

b. Do not put constraints on the way they study by giving homework. Instead, suggest or provide useful problems or study material and provide solutions. –> 1a 4c

c. Do not force or blackmail them into coming to class through devices such as sign-up registers, pop-quizzes, unavailability of class material in print, etc. Design the course such that students who prefer so can follow the course without attending any lectures. –> 1a
2e 5c 5e

2. Acknowledge your subjectivity
a. Do not let subjective criteria, especially personal opinion, influence students’ grades. Avoid as much as possible forms of evaluation where the degree of subjectivity is high. –> 2b 2f

b. To eliminate bias, grade examinations without reference to the name or person of the students. (For instance, let them identify themselves by their student numbers rather than their names.) –> 2a 2f 3b

c. Allow objections to grading of examinations (in writing, again without reference to the name and person of the student). Give them due consideration, but maintain consistency with how other students’ answers have been graded. –> 3b

d. To the extent that this is possible, recommendation letters must be based on objective criteria. Even if the student has personal characteristics which make it difficult to work with her or him, do not mention them so long as they are independent from her or his technical competence and sense of responsibility.

e. Acknowledge the possibility that you are a poor lecturer and that students do not benefit from coming to class. Do not do anything to force them to. –> 1c 2f 3b

f. To make it possible for students to criticize you openly without fear of harassment, completely separate the grading process from the name and person of the student. –> 2a 2b 2e 3b

g. Be democratic in giving decisions regarding the course, such as setting the time of lectures, examinations, subject to the condition that the teaching and evaluative objectives of the course are fulfilled and chaos is avoided. –> 5a

3. Treat students as you treat other people
a. Treat the students as you would treat the same persons if you met them outside the university. –> 3b

b. To enable them to also treat you so, eliminate potential sources of pressure. Completely separate the grading process from the name and person of the students. –> 2b 2c 2e 2f 3a

4. Encourage sense of community
a. Encourage communal studying. –> 4b 4c 4d

b. Do not make the students feel as if they are competing with each other. Rather, design the grading scheme such that they measure against a predefined standard (which may be slowly adjusted over the
years). –> 4a 4c

c. Do not give take-home examinations or employ other grading methods when it is the case that independent work cannot be enforced and students are torn between honesty towards the instructor and loyalty
towards their friends etc. –> 1b 4a 4b 4d 4e

d. Do not ignore the social and cultural setting in which education takes place. –> 4a 4c

e. Avoid unreasonable precautions to avoid cheating. –> 4c

5. Be precise, predictable, and reliable
a. State the content, requirements, and procedures of the course on the first day, and do not change them unless an overwhelming majority of students agree so. –> 2g 5d

b. State material included in exams clearly. If a book or set of notes is used, clearly indicate which sections are included or excluded from the course. –> 5c

c. All material that students are responsible for in the examinations must be provided in fixed form (on paper or other suitable media). –> 1c 5b

d. Do not change the time or date of examinations or other appointments with short notice. –> 5a 5e

e. Do not administer any form of examination (e.g. quizzes, orals) with short (or no) notice. –> 1c 5d

f. Predefine the grading scheme of examinations with rigor and care. –> 5g

g. Grade the question as stated on the question sheet, not as you intended it. –> 5f

h. Keep the distribution of grades consistent with that of other courses offered in the same department or school.
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(C) Copyright Haldun M. Ozaktas – January 1994
Bilkent University School of Engineering; TR-06533 Bilkent, Ankara; Turkey.
Fax: (90-312) 266-4126. Email: haldun@ee.bilkent.edu.tr

710. FINDING GRANTS – WHERE TO START

Tuesday, March 28th, 2006

Folks:

The posting below offers some excellent advice for new professors on writing and obtaining research grants. It is by Karen M. Markin director of research development at the University of Rhode Island’s research office. The posting first appeared in Chronicle of Higher Education career advice column, CATALYST on March 10. 2006. [http://chronicle.com/jobs/news/2006/03/2006031001c/careers.html]. Copyright © 2006 by The Chronicle of Higher Education. Reprinted with permission.

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: A Teaching Manifesto

Tomorrow’s Research

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FINDING GRANTS – WHERE TO START

By KAREN M. MARKIN

It’s officially behind you — that first frenzied semester of being an assistant professor. You have conquered the electronic grade-submission system and know where to get a decent cup of coffee. Now it’s time to think about career development. In the academic world, that usually means finding grants.

Where to begin? It’s surprising how many new assistant professors just don’t know. Many feel under pressure to “know everything” and are afraid to ask what they fear will seem like obvious questions about the grant process. As an experienced grant writer, my goal here is to offer some basic advice about seeking a grant and spare you the embarrassment of having to ask.

First find out what services and resources are available at your institution. During the whirlwind of welcoming sessions for new faculty members, you may have been told about campus offices that assist with external grants. Your mind may have been focused then on setting up an e-mail account or getting that all-important parking sticker. Now is a good time to follow up on grant services.

There’s No Place Like Home

Just about every college or university has an office, or at least a person, who oversees the institution’s requests for external grants. The name of that office varies, and is often cryptic, but you should be able to track it down through your institution’s Web site.

At major research universities, the Web site’s home page usually has a link titled “research.” Follow it. If you are then faced with a list of offices, start with one that says something like “sponsored-projects administration” or “sponsored programs.” Some of the information you need may also be nested in a link to the office of the vice provost for research.

If you’re at a medium-sized institution that doesn’t post a “research” link on its homepage, try going to an alphabetical list of offices, and look there for sponsored projects, sponsored programs, or research administration. And if you’re at a small college, start with the people on your campus who raise money from private sources. The office may be called advancement, development, corporate and foundation relations, or some variation of those.

Once you’ve found the correct office, tap into its services. Most have one or more databases of grant sources. At large research universities, such databases are probably available to you from your office computer. Some of their trade names are Community of Science; the Illinois Research Information Service known as IRIS; and the Sponsored Programs Information Service, or SPIN. You access those resources the same way that you would library databases for journal articles, selecting values for a fixed set of criteria. If you used online reference databases well enough to get through graduate school, you can use a grant database.

If your institution is small and does not subscribe to databases listing sources of grant money, ask for help from the campus fund-raising office. It may have a database of foundation grants that it can search for you.
You can search for federal financing opportunities through Grants.gov. That service bills itself as “the single access point for over 1,000 grant programs offered by all federal grant-making agencies.”

Remember when you’re searching it that — unlike the subscription databases, which are tailored to the academic community — Grants.gov covers the breadth of federal funding. So, in addition to grants for scientific research, you will come across grants to states for emergency-preparedness training and similar programs that are not likely to interest you.

The Web site for your institution’s sponsored-programs office may provide the answers to a lot of your questions about grant-writing fundamentals. Most will list the names of key contacts and their areas of responsibility. Some include a checklist of the steps to take in preparing a proposal at your institution.
If your institution is small and doesn’t offer extensive online help, don’t hesitate to utilize the online resources of large research universities. Start with the flagship public university in your state. It can link you to online proposal-writing help, some of which is provided by the grant agencies themselves. That type of advice is typically categorized under “proposal development.” The Web sites of major universities also have bibliographies of publications about proposal writing.

Financial Aid

The next step is to track down the “starter grants” for new faculty members at your institution. Universities usually have seed money to help newcomers get their research under way. You might, for example, get money from your institution to collect pilot data in the summer so you can submit a grant proposal to a federal agency in the fall. Try asking the provost’s office or your sponsored-programs office for information about the availability of starter grants.

You may also be able to scrape together money for a trip to Washington to meet with a program officer to discuss a proposal idea. Your dean’s office, sponsored-programs office, or department head may have travel money for such trips.

Don’t be afraid to ask, and don’t be apologetic, even if an office doesn’t have a formal program for making such grants. Many people are able to obtain money simply by asking. Some go so far as to act entitled to such resources, but there’s a fine line between assertiveness and arrogance. The latter will not encourage people to go out of their way to help you.

Many foundations and agencies offer grants specifically for beginning professors. If you’re searching a grant database, the criteria under “applicant type” probably include “new faculty member” as an option.
At the federal level, new faculty members have a few grant possibilities:

* The National Institutes of Health has a series of career-development awards called “K Awards,” including the Career Transition Award (code-named the K 22). The NIH also recently announced a program offering Pathway to Independence awards to help postdocs make the transition to independent research careers. The NIH Web site has a Career Award Wizard to help investigators choose among the agency’s career-development awards.

* The National Science Foundation also has a program for new investigators, the Faculty Early Career Development program, known as Career.

* Some private foundations also have programs for new scientists. Examples include the Camille and Henry Dreyfus Foundation, which offers grants to new faculty members in the chemical sciences, and the Alfred P. Sloan Foundation, which supports new professors in a variety of scientific disciplines.

Breaking Away

It’s time to start separating from your dissertation adviser and developing supportive relationships with people where you work.

An experienced chemistry professor I spoke with warned that new faculty members who get a degree from a top graduate program and take a job at a smaller institution will need to learn how things operate at their new college. That is something your adviser at Big Bucks U., with her retinue of research assistants and reliable clerical support, cannot help you with.

Chat with faculty members in your department to figure out how to get things done. Don’t hibernate in your office or your lab, dividing your time between class preparation and manuscript writing, thinking that dutiful diligence will lead to tenure. Having conversations with other professors to learn the ropes is just as important to your survival as teaching and research. Through those chats, you may also find people on campus with similar interests with whom you might collaborate on future projects.

It helps to have a mentor, whether you actually use that term or not, to help you decide which grants to seek and how to navigate the bureaucratic shoals that lurk in every administrative office. A successful senior colleague can tell you what the expectations are at your new institution and how to meet them.

For example, it’s unrealistic to think you will generate a major program of research in your first year. Find out what is considered realistic, and allow others to help you achieve it.

Be aware that many federal agencies are dealing with flat budgets, so it really is more competitive today to get a grant than it was when your major professor and the full professors in your new department were starting out.

A good mentor also can steer you away from projects that aren’t likely to be a good use of your time. For example, when you’re an assistant professor, it’s not wise to apply for a major equipment grant, unless it specifically focuses on new faculty members. Agencies finance requests for major equipment that will be used by many students and professors, possibly even those from other institutions. As a newcomer, you will have few contacts, making it difficult to convincingly argue that you have a critical mass of users.

Also, if you are untenured, grant agencies will be leery of paying for equipment whose champion may not be around in several years. If you need equipment, consider serving as a co-investigator on a multiuser instrumentation grant, leaving the leadership role to someone more experienced.

Similarly, new faculty members should steer away from serving as a principal investigator on major multi-investigator collaborations. Those projects thrive on long-standing relationships among researchers, and you haven’t been in the business long enough to develop them. They also benefit from the authority and respect that an accomplished senior investigator can command. Establish a track record before taking on a multi-investigator project.

Don’t be afraid to seek advice from your departmental colleagues. Remember, everyone wants you to succeed, from the secretary who schedules search-committee appointments to the faculty member who drove you to and from the airport. By helping you, they can spare themselves the work of hiring another assistant professor.

Karen M. Markin is director of research development at the University of Rhode Island’s research office.

Copyright © 2006 by The Chronicle of Higher Education

709. BLUE ABOUT THE CRIMSON PLAN FOR GENERAL EDUCATION

Friday, March 24th, 2006

Folks:

The posting below looks at Harvard University’s current efforts to revise its undergraduate general education program. It is by Thomas Ehrlich is a senior scholar the Carnegie Foundation for the Advancement of Teaching and former president of Indiana University. It is #23 in the monthly series called Carnegie Foundation Perspectives. These short commentaries exploring various educational issues are produced by the CFAT. The Foundation invites your response at: CarnegiePresident@carnegiefoundation.org. Reprinted with permission.

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Finding Grants – Where to Start

Tomorrow’s Academia

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BLUE ABOUT THE CRIMSON PLAN FOR GENERAL EDUCATION

February, 2006

The Harvard Faculty of Arts and Sciences is poised to approve an embarrassing retreat in general education. The committee charged with reforming the current Core Curriculum has instead abandoned the whole idea. In its place, the committee recommends only a minimum distribution requirement for undergraduates-three courses in each of three fields. Since undergraduates will major in one of these fields, this means a distribution requirement of six courses chosen from hundreds offered by faculty in their various disciplines.

The Core Curriculum was adopted by Harvard in the 1970s with a view to ensuring that undergraduates be broadly educated in seven approaches to knowledge: Foreign Cultures, Historical Study, Literature and Arts, Moral Reasoning, Quantitative Reasoning, Science, and Social Analysis. Guidelines and faculty review committees were established to make certain that courses in these areas met the aims of the Core Curriculum. The goal was to ensure that students gained a general education.

Over time, the numbers of courses that qualified kept expanding and the guidelines were increasingly ignored. When Lawrence Summers became president in 2001, he made reform of the undergraduate curriculum a top priority. The committee was appointed the next year and struggled during the course of the next three years before it finally produced the proposed pitiful product. Unfortunately, it appears that the president no longer has the authority to call for more.

No general education program is perfect, and no doubt the one at Harvard had weathered and aged. But it should be replaced with a strong curriculum that is shaped by a vision of the knowledge, the skills, and the habits of mind that students need to go on learning and to be engaged and responsible leaders. Students deserve the guidance of faculty to that end. That is the philosophy of the Core Curriculum, and if its form no longer serves that function, it is the form that should be changed and not the function.

Across the country, faculty and administrators at other research universities have turned to the task of revitalizing general education. A prime example is Curriculum 2000 at Duke, led by Duke’s former president and the new member of the Harvard Corporation, Nan Keohane. It requires, for example, two courses in Ethical Inquiry, while Harvard will drop its requirement in Moral Reasoning.

Some of the strongest general-education programs provide common academic experiences for undergraduates, so that classroom learning can have maximum impact across the student body as a whole. The Harvard committee looked wistfully at Columbia and Chicago as universities where all undergraduates take powerful common courses in the great books. The committee seems to support its failure to follow those institutions by noting that their programs started many decades ago. That excuse is just not good enough.

Among the troubling failures of the committee’s report is that it ignores the need for students to be exposed to different pedagogies, particularly ones involving active learning, such as community service learning, project-based learning, and undergraduate research. Students learn and remember more and are better able to put their learning to use when they participate fully in their learning. Although the “chalk and talk” classroom has its place and some faculty members are superb lecturers, “stand and deliver” should not be the dominant undergraduate teaching practice.

To give the Harvard committee its due, it does encourage students to take optional courses that cross departmental boundaries and even outlines what some new interdisciplinary courses might look like. But students are likely to follow what faculty do, which too often is to focus narrowly on their disciplines, not on what a committee suggests.

Why did the committee sink to the lowest common denominator? The sad reality is that the new plan looks like it was crafted to serve the faculty and not the students. It will ensure that faculty need teach only what they want to teach, leaving it up to the students to make whatever connections they can among their courses.

The committee thoughtfully includes-along with its barren conclusions-a sparkling set of faculty and student essays that envision the possible in general education. The student essays are particularly intriguing because, in striking contrast to the committee’s conclusions, several urge a common academic experience for undergraduates with a set of core requirements that provide some coherence and cohesion.

As a Harvard undergraduate, I learned from general-education courses that were shaped by another Harvard faculty curriculum committee, which crafted “Education in a Free Society” (The Red Book), and I am still learning from those courses as I prepare to return for my 50th Harvard reunion. Harvard was then a leader in undergraduate education for the country. James Conant, then president of Harvard, established that committee and was concerned when it did not call for a separate faculty to teach general education courses because he feared that no one on the faculty would take responsibility for general education. His fears are realized.

Harvard undergraduates will always do well because Harvard takes only the pick of the litter. What a shame that Harvard could not do more for such able students to further their general education. My face is crimson.
………………….

Thomas Ehrlich is a senior scholar at Carnegie where his work focuses on enhancing moral and civic responsibility among undergraduates. From 1987 to 1994, Ehrlich was president of Indiana University. After retiring from Indiana, he joined San Francisco State University as distinguished university scholar, and held that position until 2000. In addition, he was provost at the University of Pennsylvania from 1981 to 1987 and dean of the Stanford University Law School in the 1970s. He is a graduate of Harvard College and Harvard Law School, and was a law clerk for Judge Learned Hand.

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© 2005 The Carnegie Foundation for the Advancement of Teaching
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708. THE ACADEMIC DEPARTMENTS: HOME BASE FOR DOCTORAL

Tuesday, March 21st, 2006

Folks:

The posting below gives a nice overview of how things really work in most academic departments. It is from Chapter III, Getting the Big Picture of How Things Work in the World of Higher Education, in The Academic Game – Psychological Strategies for Successfully Completing the Doctorate, by Elaine R. Parent (with Leslie R. Lewis). Published by Infinity Publishing.com 1094 New De Haven Street, Suite 100, West Conshohocken, PA 19428-2713. [www.buybooksontheweb.com]. Copyright 2005 by Elaine R. Parent All rights reserved. Reprinted with permission. ISBN 0-7414-2713-3 [www.theacademicgame.com].

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Blue About the Crimson Plan for General Education

Tomorrow’s Academy

THE ACADEMIC DEPARTMENTS: HOME BASE FOR DOCTORAL STUDENTS AND THE CENTER OF THE
GRADUATE MISSION OF THE INSTITUTION.

In universities, there are two types of departmental administrators. One is called a head, the other a chair. According to Sirchik (2003), the choice of words is probably not accidental. A head is appointed with no fixed term. Its occupant authorizes all departmental educational, budget, hiring, promotion, and salary decisions. It is a very powerful position and much like headships at other universities.

The chair position, in contrast, has fixed term. Its resident is obligated to attend to the advice of the elected “executive committee” of a department. Responsibilities include submitting a budget on behalf of the department, requesting funding for new appointments, salary increments, secretarial support, office and laboratory space, supplies and equipment and funds for graduate fellowships and assistantships.

How Departments are Administered

The department chair also has to evaluate each faculty member, regardless of rank, on the basis of their teaching, research and service, and makes recommendation to administration about merit increases, Departments bargain competitively with other departments for the allocation of limited institutional resources.

Useful in understanding the influence on faculty values and behavior is the description of the four primary cultures (Table III-13, page 81) and how they influence faculty role behavior.

Hinchey (2001) suggests that in order to understand a culture, one must understand the choices and the power, or lack of it, that people experience within it. She suggests that the implications for doctoral students are clear. Since administrators, functionaries and faculty all inhabit several cultures with individual values and rewards, students face the dilemma of sorting out those values which are rhetorical, serving only appearances, and which ones are in force, driving behavior and rewards.

The Role and Distribution of Money

Departments are rarely equal in power. Some command larger shares of resources, have an easier time getting their people hired and promoted, have lighter teaching loads or more teaching assistance distributed to them. Different groups dominate in different universities.

Prestigious private universities are more likely than prestigious public universities to have outstanding law and business schools and prestigious public universities are more likely to have outstanding engineering and agricultural schools. These differences reflect the historical flow of resources into institutions. In a similar way, the distribution of power among and within departments results from the way resources come into them and the roles they play. As Darley (1987, p.64) writes, “power distributes along the lines of critical dependencies.”

Departmental power hinges on the funds from grants. Grants serve two purposes: they benefit research and departments thrive on them. The biggest contribution they make is to institution, in the form of overhead rebates. These funds to departments are discretionary, which means that they can be used for activities that don’t have to fit into other budgetary categories, like teaching innovations, seed money for special projects, summer research, equipment, etc.

According to Salanchik (1987) overhead rebates can vary from 10-50 percent of the grant total. “The one generality is that power plays a role in every university and derives from the critical resources that shape that institution’s success and ultimately its survival. Private universities, lacking the subsidies of a state appropriation process, operate very differently from public universities…they survive by accumulating endowment.” (p.68)

Differences between the Disciplines

“Each discipline has its own sources of funding, its own markets for faculty and students, its own journals, and its own definitions and its own markets for prestige. Although some intellectual strands link them, and although they compete at some level for funds, students and public attention, disciplines for the most part operate independently. The facts form the basis for the distribution of power in universities and departments.”

Departmental Power and Politics

In general, departmental responsibilities include: determining their curricula subject to school approval; making the initial recommendations for promotion and tenure; admitting and awarding financial aid to graduate students, within the rules and resources made available by administration. At the undergraduate level, departments determine the requirements for their majors, subject to school approval.

In the graduate arena, departments exercise almost virtual autonomy in determining all aspects of the doctoral student experience. Included are the curriculum, the distribution of courses, the breadth and depth of knowledge to be examined in the Ph.D. preliminary orals, as well as the nature and quality of the dissertation.

Faculty Service on Departmental Committees

Faculty serve on a number of departmental committees, both standing and ad hoc, that are responsible for making decisions on a wide variety of departmental issues, These can include courses, decisions related to the procurement of library collections, to lab equipment or audio visual materials, on long range planning, on faculty search committees and graduate admissions.

Social Relationships in the Academy

An institution of higher learning is a peculiar creature, a dynamic organism that cannot be defined as the sum of its parts. According to Colton, (1995), people can get balkanized in departments and isolated, even lonely, in their offices just as they can in large cities.

Colton maintains that as in any polite society, that the academy is held together in part by conventions of decency, honor and mutual obligation. If occasionally they are breached, it is important to repair them quickly. This refers not only to the strategic tact of treating one’s elders with deference, but of treating all one’s colleagues with a responsible measure of respect you also expect and deserve from them (p.339).

Power Relationships in the Academy

According to Salancik (1987), power is situational, not personal. It is important to realize that power organizes around those subgroups (departments, disciplinary groups or individuals) in an organization thought to contribute its most critical resources. The distribution of power among and within departments results from the way resources come into them and the roles they play.

Money is key in understanding power and influence. Most academics prefer not to think about money believing if they have a good idea, it should be funded. However, those who run universities are confronted by many good ideas and must choose among them. To choose they must maximize the quality of the entire institution.

Where the Money Comes From

Funding varies across institutions. Traditionally, private institutions have been supported by large endowments along with the higher tuition paid by the majority of students attending. Public universities and colleges have been funded by the state and are thus vulnerable to the fiscal whims of politicians and policymakers. According to recent government reports, during the 1994-95 school year, $509 billion, or 7.6 percent of the Gross Domestic Product (GDP) was spent on education in the United States. Forty percent, or roughly $203 billion of this went to colleges and universities. When funding is low, students must shoulder a larger proportion of the cost through (out-of-state) tuition and registration fees.

A relatively recent trend is the growing involvement of large business corporations in the universities’ research funding. This is a welcome new resource but it may also have implications for the direction and ownership of academic research. Often, if the company sees the potential benefit of a particular line of research, it will fund the activities of a particular researcher and his/her team. This may raise ethical questions about the practical researchers can often do apply for grant and foundation funding to support their own research activities. The universities receive a large proportion of this (sometimes as much as forty percent) for administrative overhead costs.

Departmental Structure and Culture

Academic departments, even within the same discipline, vary significantly from one university to the next. This is because the history, reputation, orientation, philosophy, politics, faculty make-up, departmental cohesion, and graduate student expectations of each differ. Every department has a particular body of knowledge, technique and approach they use to orient and train their graduate students. This may mean that a single tradition or paradigm guides the curriculum, or it may be a combination of two or more different traditions that combine to form the philosophy of the department. Individual faculty members may or may not completely tow the departmental party line. That is to say, their theoretical ideas and philosophies may differ from the official one.

Regardless of what particular theoretical or methodological paradigm faculty members espouse, they are interested in establishing or maintaining an intellectual tradition. Graduate students are the vehicles for this. Each faculty members hopes to train up-and-coming experts in such a way that they carry on his or her theoretical approach or line of inquiry. Such collaboration and continuations build legacies and invite additional followings among subsequent graduate students and emerging professionals.

Some departments are conservative; others have reputations for being progressive and even radical. Some departments are cohesive: faculty members constitute a harmonious blend of individual philosophies and personalities. Other departments are characterized by a strong rift along theoretical or personality lines. This kind of tension can be problematic for unsuspecting graduate students. When considering doctoral programs, it’s worth taking a couple of days to visit the campus and talk with graduate students from various years. If you can get a hold of them, they can be rich source of information for what you can expect theoretically, methodologically, and relationally from different faculty members. Once you’re admitted at a school and you’re ensconced in your new surroundings the first term, you’ll want to listen and ask questions to try to get a lay of the land.

Some students have found themselves in the midst of bitter conflict and polarization. Without knowing the major issues and people involved, they unwittingly align themselves with one side or the other. This can unfortunately alienate a pool of otherwise helpful and interesting faculty members. As many have learned, there may be relationships of tension or ease between and among faculty, the administrative staff, and graduate students. Recognizing these early on can help you negotiate potential hurdles.

707 WHY “INTELLIGENT DESIGN” (ID) IS NOT SCIENCE

Friday, March 17th, 2006

Folks:

The posting below is a nice, succinct, statement on what science is, why “intelligent design” isn’t science, and therefore why it has no business being taught as such in high school or college science courses. It is by Dr. Pennilun (Penny) Higgins, a research associate in the Department of Earth and Environmental Sciences at the University of Rochester. It is reprinted with permission from the Creation & Intelligent Design Watch hosted by the Committee for the Scientific Investigation of Claims of the Paranormal (CSICOP) http://www.csicop.org/intelligentdesignwatch/index.html

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Getting the Big Picture of How Things Work in the World of Higher Education

Tomorrow’s Research

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WHY “INTELLIGENT DESIGN” (ID) IS NOT SCIENCE
and why, therefore, it should not be taught in a science curriculum
By Penny Higgins

Science is a tool used to describe our world, to understand why the world is the way it is, and to predict what the outcome of a mixture of characteristics may be. Science attempts to do this by studying only phenomena that are “material,” meaning countable, measurable, visible, tangible things, and by making the fewest assumptions possible. By being this way, scientists hope to eliminate faulty thinking and conclusions due to matters of opinion, professional conflict, personal experience, or biased knowledge (among other things).

Scientists approach their work by asking testable questions (hypotheses), running the tests (experiments), and by always providing within the hypothesis some means by which the hypothesis can be unequivocally disproved. Most experiments test the predictive power of the hypothesis: “If I mix chemical A and chemical B, I should get chemical C and a flash of light”, or “People who hate tomatoes also hate ketchup.”

In their experiments, scientists seek to validate their hypotheses – that is, to make observations that support their hypothesis and never once observe the evidence that disproves their hypothesis. If ever, even for a microsecond, that one thing that disproves the hypothesis is observed, then the whole hypothesis has been shown to be false. At this point, the scientist starts over with a new or revised hypothesis.

The most important point is that only one tiny little event can falsify a hypothesis: “I got chemical D” or “This person who hates tomatoes absolutely loves ketchup.” However, absolute proof can never be achieved, since there is always the chance that the single falsifying observation may have been missed.

If a hypothesis is subjected to test after test over many years and by many different people and does not fail, it will most likely be elevated to the level of “Theory.” The term “Theory” is science-ese for “we are pretty darn sure this is absolutely true, but since absolute proof is impossible by the nature of science, we’ll just call it something besides ‘absolute truth.’” This is basic scientific honesty; you can’t run every experiment or make every observation.

One of the most harassed theories today is the Theory of Evolution, which posits that all organisms on this planet are related through a common ancestor, and that it is gradual change over extreme spans of time that accounts for the diversity of species today. With this theory, we can predict and understand how and why organisms behave the way they do. If a person wants to understand why dogs, wolves, and coyotes are capable of interbreeding, but they generally don’t, one only has to look to evolution. To understand why birds’ “knees” bend backward – look to evolution. Why do we sometimes, when we’re particularly upset, find ourselves behaving like apes, and what can we do about it – turn to evolution. How can DNA from a virus infect a human cell – we’re talking evolution.

As noted earlier, science restricts itself to material knowledge. And it seeks to develop hypotheses that will assist us in understanding and predicting the nature of our world. Recently, the concept of “Intelligent Design” (ID) as been brought forward as an alternative “theory” explaining the origin of the diversity of life on Earth. The key to ID is the notion that many of the basic parts that all organisms share are too complex to have arisen from gradual change. ID proposes that some external agent or intelligence is responsible for making these critical bits.

But is ID Science? Should it be taught in a science classroom alongside the Theory of Evolution?
Well, can it be tested? Are there falsifying observations? ID could potentially be disproved by observing a more primitive intermediate form of some part that has been touted as ‘too complex’ to be natural. But then, the individual running the ID experiment can alter his hypothesis to say that this new structure is that which was installed by the Intelligent Designer. Because of this, there is no part of ID that can be unequivocally falsified by material science.

The second part of ID calls for an external Designer. This idea is neither fully supported nor fully falsified by material observation. There is no scientific way to test for the presence or absence of the Designer, as the Designer is defined as unobservable, or at least, only observable by a chosen few.

One of the most important characteristics of scientific hypotheses and theories is the predictive power they provide. ID does not offer any new explanation or observation about these complex structures that the Theory of Evolution does not already provide. The observation that some structures in organisms are too complex to have originated from gradual change will not help scientists to develop a better antibiotic, for example. In fact, the idea that “some things are too complex” is anti-scientific, since it seems to suggest that we shouldn’t try to understand the origins of the complex structures. ID discourages us from looking and asking questions. True science, however, moves on. If it is later found to be the case that some structures in organisms do not have more primitive counterparts, science will observe and recognize this fact, and the new knowledge will be incorporated into evolutionary theory.

ID is not a scientific theory and should not be taught alongside the Theory of Evolution. It offers nothing to help students understand how science works. It is merely a statement of how complex life seems to be – not even worth an hour of classroom time.

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Dr. Pennilyn (Penny) Higgins is a Research Associate in the Department of Earth and Environmental Sciences at the University of Rochester. Penny’s research interests include: Stable isotope geochemistry of biogenic apatite and of carbonate minerals; annual-scale studies of ancient climate and dietary sources of fossil vertebrates using stable isotopes of tooth and bone apatite; atmospheric CO2 concentration and effects on plant metabolism through geologic time; uranium geochemistry and its relation to uranium ore deposition and fossil preservation; vertebrate taphonomy; and application of GIS to problems in paleontology.

You can write Dr. Higgins directly at: paleololigo@yahoo.com or phiggins@paleopix.com

706. QUALITY AND PERFORMANCE EXCELLENCE IN HIGHER

Tuesday, March 14th, 2006

Folks:

The posting below looks at the impact of applying the industry based Baldrige National Quality Award program to six institutions of higher learning. It is from Chapter 8 Lessons Learned, in Quality and Performance Excellence in Higher Education, Baldrige on Campus by Charles W. Sorenson, Julie A. Furst-Bowe, and Diane M. Moen, University of Wisconsin-Stout, editors. ISBN 1-882982-80-0 Anker Publishing Company, Inc. Bolton, Massachusetts Copyright © 2005 by Anker Publishing Company, Inc. All rights reserved. Reprinted with permission.

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Why Intelligent Design (ID) Is Not Science

Tomorrow’s Academia

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QUALITY AND PERFORMANCE EXCELLENCE IN HIGHER EDUCATION – LESSONS LEARNED

As with any new quality or management system, the path is not always smooth as an organization
assimilates new processes. Especially in higher education, it seems there is a need to discuss,
debate, and deliberate the merits of any proposed change. And it was not different for the six
institutions highlighted in this book. The Baldrige National Quality Award program criteria
were questioned, the performance of award recipients was analyzed, and the rights of faculty were emphasized. Faculty and staff fell into the traditional groups of early adopters, wait-and-see, and over my dead body. As these six organizations persisted and committed to improved performance through the implementation of the Baldrige National Quality Program, eight lessons emerged.

1) Leadership: Can Passion for Quality Substitute for Leadership Commitment?

The experiences of the organizations in this book indicate leadership commitment is absolutely
essential. Numerous higher educational institutions have established offices of quality and continuous improvement. Organizationally, they are located at different levels within institutions, but their purpose is singular-to improve the performance of the organization utilizing recognized tools and systems of continuous improvement. The success of these offices is checkered and is entirely dependent on the buy-in and support of individual departments and frontline leaders.

The evidence from the six institutions reflects the necessity of stable senior leadership coupled with commitment and active involvement from leaders at every level in the organization, including governance. Successful leadership means shared responsibility and accountability. It also requires reflection on
the organization’s leadership system-does the leadership system align with the quality values
of participation, informed decision-making, and communication? The Baldrige model, applied with
commitment over time, results in a leadership environment that fosters empowerment, innovation,
and a shared vision among faculty, staff, and senior leaders.

2) Systems: Can Organizational Silos Be Eliminated?

The Baldrige National Quality Award program is a powerful management system because it challenges
organizations to identify and recognize existing systems within their organization. Systems encompass every aspect of any organization from student recruitment to delivery of instruction, from planning to human resource management. Once systems are documented, work can begin in continuous improvement on an organization-wide scale.

Organizational silos typically prevent collaboration and communication, isolate inhabitants from the larger organization, and produce competitive tendencies. The six institutions all continue to have traditional
organization structures but have found methods encompass overarching leadership teams or councils, formal team building and professional development programs, rewards and recognition aligned with the Baldrige criteria, and a methodical approach for deploying the Baldrige criteria.

3) Clarity: Who Are Our Stakeholders? What Do They Want?

For decades, higher education organizations have been generally nonchalant about addressing the needs of students and stakeholders. Many were unsure what the word contextually meant; others were sure they already knew what was best for their students. Since the 1950s, there has been tremendous growth in college enrollments, faculty, staff, and facilities. Generous funding from public and private sources has allowed for the development of new academic programs while maintaining low tuition levels. The population
growth resulting from the baby boomers and most recently from the echo-boomers continues the belief within the academy that higher education must continue to be a priority for funding. With increasing enrollments and little accountability, there have been few compelling reasons for most colleges and universities to systematically determine and satisfy the needs of their students and stakeholders.

However, for many institutions, both public and private, there is an increased awareness and trepidation regarding the cost of higher education, the permanent decline in tax-dollar support, and expectations from all
sectors for accountability. The six institutions studied utilize the Baldrige criteria to determine requirements, expectations, and preferences of students, stakeholders, and markets. The institutions understand the importance of developing successful relationships with students and stakeholders and continued satisfaction with programs and services in all sectors of the organization that leads to improved retention and graduation. Each of the institutions utilizes market and student data with segmentation to design and improve programs and services. These organizations are able to align programs and services with the organizational vision and mission, demonstrating the ability to avoid waste of resources.

4) Change: Just Do It, But How?

Institutions utilizing the Baldrige criteria are characterized as agile, meeting the emerging needs of stakeholders and students. While this is challenging in higher education, change is possible, and utilizing the Baldrige criteria allows change to occur rapidly. This can happen in two very different ways. First, institutions that apply to a quality award program, either at the state or national level, commit to an
elevated rate of change. The feedback reports provided through these programs present opportunities for improvement, thus encouraging notable progress in each application cycle.

Second, and more important, deploying the Baldrige criteria requires a planning system that aligns actions with the organization’s values, vision, and mission, ensuring responsiveness to stakeholder needs. Using the criteria requires ongoing attention to outcomes through the identification of performance indicators. And, as the six institutions demonstrated, adopting the Baldrige values of organizational learning, focusing on the future, managing for innovation, and valuing faculty, staff, and partners creates an environment of trust and openness to change.

5) Data: Why Accept the Challenge to Look Outside of Your Organization?

All institutions have data and use data-fact books, financial reports, various surveys, and
other reports are common. What makes the institutions using the Baldrige criteria distinctive is their quest to utilize data trends and segments, benchmark against competitors and peers, identify best-in-class organizations, and, importantly, benchmark outside of higher education. Further, these institutions utilize
this data in continuous improvement initiatives, as well as to guide planning and resource allocation decisions. ‘

Similar to business and industry, challenges in expanding data usage exist. Common data definitions, access to data, and appropriate use of data continue to be problematic. The six institutions suggest several benchmarking methods.
* Use of national data sets and reports such as Measuring Up
* Participation in commercial benchmarking studies that provide data beyond average and median
* Partnerships with noneducation sector organizations to share best-in-class systems for leadership, complaint management, and safety
* Utilization of increasingly sophisticated and available web data

This type of data use requires an institutional commitment to research and analysis, but the payoff is significant. Benchmarking is one of the most effective antidotes to complacency-a stigma that higher education currently carries. Business and industry clearly understands the need for reinvention and revitalization. Higher education continues to dismiss the for-profit education companies as a fad, although their growth and profit rates are spiking. Benchmarking provides every institution a tool to remain competitive.

6) Assessment: Will We Ever Be Ready to Apply for a Quality Award?

Perfectionists need not apply! The most common remark heard from organizations that have visited the University of Wisconsin-Stout is that they are reluctant to apply to an award program because too much improvement needs to take place first. In fact, the exact opposite is true. Each of the institutions in this book submitted its self-assessment application for review and scoring through a state quality award program or to the Malcolm Baldrige National Quality Award program. As a result, they received high-quality feedback from experience examiners and were able to use the information to move their institution to an even higher level.

The feedback reports are typically in the format of identifying areas of strengths and opportunities for improvement in each of the criteria categories. The identification of strengths validates institutional efforts and motivates organization employees to accelerate implementation efforts. The opportunities for
improvement also provide motivation-to deal with a problem that has existed for years or to develop expertise in an area where a void was identified. Although each institution received some form of recognition for its efforts, the prospect of an award does not drive these institutions; instead, it is the desire for
continuous improvement.

7) Strengths: Do We Need to Start From Scratch?

These stories from six institutions demonstrate six different approaches to utilizing the Baldrige criteria. The criteria are nonprescriptive and easily applied to all types of higher education institutions: public,
private, for-profit, two-year, four-year, highly-selective, and open access. The Baldrige criteria indicate that the same seven-part framework can be used for the education category as is used in the business and health care categories. There is great flexibility and adaptability between types of organizations. This is good news because each institution can determine the extent and depth to initially infuse the Baldrige criteria and can build on the existing inventory of institutional strengths. Participants in the award programs clearly
understand that the journey is not over once an award is received. Rather the award initiates the challenge that the institution has the ability to achieve even greater outcomes.
8) Organizational Learning: What Is in It for Me?

The six institutions convey that implementation of the Baldrige criteria or any comprehensive
quality program is hard work-it requires commitment and resources. It also provides an unequaled opportunity for organizational and personal learning. Senior leaders are able to model an effective management and continuous improvement system to other employees within their organization, one that is easily emulated
at all levels and applies to almost any operation. The Baldrige approach transfers from sector to sector-education to business-making partnerships and communication more effective and rewarding. Faculty can choose to integrate Baldrige criteria into classroom settings, providing graduates with one more skill set to add to their repertoire. Individuals can participate at the state or national level as examiners, providing easy access to best practices nationwide.

Looking Into the Future

“Business as usual” really means challenge and change. Whether your educational challenges are the diverse needs of your students, the Internet and alternative educational services, accreditation, school transitions, facility management, rapid innovation, performance to budget, or maintaining your competitive advantage within the education community, the Baldrige Education Criteria can help you address them.

This statement from the Baldrige National Quality Program application demonstrates the inclusiveness and effectiveness of the model. The criteria easily accommodate other quality tools already in place at an institution or provide the foundation when an institution makes a commitment to performance excellence. Indeed, a major strength of the Baldrige criteria is its comprehensive approach-something lacking in most quality system. Fully deployed, the criteria cover aspect of an institution.

As indicated by the six institutions, this comprehensive approach is a new direction for higher education and demonstrates that quality management system tools are effective in any size or type of organization. The
institutions demonstrate breakthrough change-significant and steady progress toward performance goals. Further, it is believed that the Baldrige approach will penetrate higher education quickly due to its adoption by higher education boards composed in part of successful business leaders. As accreditation agencies
migrate toward a forward-looking accreditation process that provides the public with credible quality assurance, the Baldrige model will become increasingly important for institutions seeking or maintaining accreditation.

The Malcolm Baldrige National Quality Award criteria provide simple but effective solution to address the unprecedented challenges faced by all higher education institutions. Are you ready?

705. SCIENTIFIC FRAUD – NOT NEW, NOT RARE, BUT ALSO NOT COMMON

Friday, March 10th, 2006

Folks:

The posting below looks at issues regarding scientific fraud. It is by Amy Adams on a speech given by Donald Kennedy, editor-in-chief of Science and president emeritus of Stanford University. It appeared in the January 25, 2006 issue of the Stanford Report. http://news-service.stanford.edu/news/medical/index.html Copyright © Stanford University. All Rights Reserved.

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Quality and Performance Excellence in Higher Education

Tomorrow’s Research

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SCIENTIFIC FRAUD – NOT NEW, NOT RARE, BUT ALSO NOT COMMON

BY AMY ADAMS

Donald Kennedy, editor-in-chief of Science, explains in a Jan. 20 lecture why research fraud is so hard to detect. The journal recently learned that it had published faked stem cell findings.

No journal has an infallible mechanism for detecting scientific fraud, according to Science editor-in-chief and Stanford University president, emeritus, Donald Kennedy, PhD. “Scientific fraud is not new and is not rare,” he said during his talk at a stem cell symposium held Jan. 20. “Luckily it’s not common either.”

The remarks were prompted by Science’s recent decision to retract two papers it had published from South Korean researcher Hwang Woo Suk after the data in them was found to be fabricated. In the first, which appeared in the magazine in 2004, the scientist and coauthors claimed to have cloned a human embryo and extracted stem cells. In the second, which ran last year, Hwang and his colleagues reported that they had honed the technique so that it would require fewer human eggs to produce a line of stem cells. These advances, if true, would have laid the groundwork for making genetically matched stem cells for human therapies.

The symposium, “Beyond the Embryo,” was hosted by the Stanford Center for Biomedical Ethics’ Program on Stem Cells and Society with the intention of reviewing some of the ethical and societal issues raised by both embryonic and adult stem cell research.

On Jan. 10, Science released a statement from Kennedy explaining that the journal would evaluate how the papers were reviewed and seek new ways to improve its procedures.

In the symposium’s opening address, Kennedy elaborated on his initial statement by discussing the questions he’s been asked over the past few weeks. The most prevalent one from journalists and the public was whether Science editors had any forewarning of the misconduct.

“We couldn’t find anything,” Kennedy said. None of the scientists who reviewed the papers raised questions and no journalist working for Science spoke with sources who suggested fraud. He said he expects in the future many people will come forward saying that they knew it all along, but none of those people spoke up in advance of the scandal.

If the journal didn’t see the fraud coming, Kennedy said he is often asked whether this means the review process is flawed. He remains confident that it is not. “I don’t think any reviewer could detect fraud if it was carried out by a capable scientist who knows how to walk the walk,” he said.

Particularly in a journal such as Science, which sets a high bar for publishing only major scientific advancements, reviewers often have no way of assessing experiments that have never before been carried out. Instead, they must rely on authors to provide accurate data to support their conclusions. Kennedy said that most researchers do provide accurate data and those who don’t are eventually discovered when colleagues aren’t able to replicate the work.

Another question Kennedy said he is frequently asked is one that is not of interest to Science-that’s the question of which of the many authors were involved in perpetrating the fraud. He added that some journals are considering requiring all authors on a paper to report what role they played in the research. He said that might eliminate some authors who are on the paper for political reasons but who didn’t contribute to the research.

In the wake of the revelations about the stem cell findings, people have questioned, in particular, the role of one senior author on the 2005 retracted paper, Gerald Schatten, PhD, of the University of Pittsburgh, as he was not based in South Korea where the experiments were allegedly being conducted. In response to a comment from the audience, Kennedy said he thought this author did, in fact, deserve to be on the paper. However, he thought that requiring a written notice of participation might increase an author’s accountability and therefore decrease the chance of fraud.

Moving forward, Kennedy said he didn’t think the scandal would have fallout for researchers trying to treat disease using stem cells. “I think people will work as hard as ever to achieve their goals,” he said. He does have concerns that some politicians may turn the scandal into ammunition against the entire field. If they do, it could result in less funding or tighter restrictions on future stem cell work.

“I hope devoutly that does not happen,” he said.

Although the South Korean episode is the most prominent case of scientific fraud in recent years, Kennedy said that he doesn’t think the field is any more prone to such incidents than any other areas of research. He said journals, including Science, should do what they can to look out for and prevent fraud in all areas of science to maintain the public trust.

Kennedy’s lecture led off an afternoon of talks by scholars from Stanford and elsewhere. Topics included the ethics of egg donation, the realities of cord blood banking, the creation of chimeric animals and differences in stem cell policy between the United States and other countries.

704. ACTIVITY BREAKS – A PUSH FOR PARTICIPATION

Tuesday, March 7th, 2006

Folks:

The posting below looks at ways to use “activity breaks” to modify the lecture approach. It is By Phillip Wankat and Frank Oreovicz in the January, 2006 issue of ASEE Prism, Volume 15, Number 5. . Copyright © 2005 ASEE, all rights reserved. Reprinted with permission.

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: Scientific Fraud, Not New, Not Rare, But Also Not Common

Tomorrow’s Teaching and Learning

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ACTIVITY BREAKS – A PUSH FOR PARTICIPATION

By Phillip Wankat and Frank Oreovicz

Active learning makes lectures a more powerful classroom technique.

You’ve surely heard about active learning, cooperative groups, personalized systems of instruction and problem-based learning. But you were probably taught through lectures. What is best? Is a well-presented lecture or one of these other techniques the best learning tool?

It depends on your goals. If all you want to do is transmit information and assess the results with a multiple- choice test, then lectures do the job. The only teaching methods that statistically show that students learn better are the closely related techniques of mastery learning and the personalized system of instruction. But how many practicing engineers do you know who are paid to take multiple-choice tests? As soon as higher-order skills (designing, problem solving, communicating, working with people) are included in the assessment, teaching methods involving active learning and cooperative groups show a significant increase in student learning.

Still, lecturing does have advantages. Quite simply, it doesn’t rock the boat. The professor stays in control and only has to be 50 minutes ahead of the students. And since lectures are face-to-face, developing rapport can be easier, although this advantage is lost in large classes. If the lecture format enabled students to learn higher-order skills, it would be quite a good technique.

We don’t have to completely abandon lectures to gain many of the advantages that active learning and cooperative groups offer. If lecture classes are interactive so that students are not passive for long periods of time, they can be good learning experiences.

Since the attention span of almost all students is between 10 and 20 minutes, you can expect to lose most of your students if you lecture for 50 minutes straight. Even professionals fall victim to the “my eyes glaze over” syndrome. Not only do students tune out once that “dead” period is reached, the energy level of the class also flags. The solution might be to structure a 50-minute class something like this: a mini-lecture including an introduction, an activity break, a second mini-lecture, an activity break and finally a third mini-lecture, including a wrap-up. The mini-lectures contain an introduction, a body and a closing, similar to a straight lecture except they are shorter.

Activity breaks should incorporate active learning and the formation of cooperative groups. Both techniques practically force students to become involved. They can be very simple, like turning to a peer and comparing lecture notes. Alternatively, ask the student groups to solve a short problem. If the problem is part of the homework assignment, they will be more motivated to do it. Or use technology to involve your students, such as student response systems like “clickers” to obtain immediate responses to multiple choice questions. Clickers, which allow students to respond anonymously to a multiple-choice question and allow the professor to display the responses in real time, involve the students and give the professor immediate feedback on student learning. After answering the questions, you might allow students to compare their answers with one another and change them if necessary.

Ensuring that all of the courses in the curriculum are lecture/active learning classes is not sufficient-students still need laboratory, design and computer simulation courses. However, it will go a long way toward satisfying the conditions necessary to becoming an engineer.

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Phillip Wankat is director of undergraduate degree programs in the department of engineering education and the Clifton L. Lovell Distinguished Professor of chemical engineering at Purdue University. Frank Oreovicz is an education communications specialist at Purdue’s chemical engineering school. They can be reached by e-mail at purdue@asee.org.

703. UNDERGRADUATE RESEARCH AS THE NEXT GREAT FACULTY DIVIDE

Friday, March 3rd, 2006

Folks:

The posting below by Mitchell Malachowski, professor of chemistry, University of San Diego, looks at at the role of students in research at primarily undergraduate institutions.It is from Peer Review, Vol. 8, No. 1, Winter 2006 [http://www.aacu.org/peerreview/]. Peer Review is a publication of the Association of American Colleges and Universities [www.aacu.org/peerreview] Copyright © 2006, all rights reserved. Reprinted with permission.

Regards,

Rick Reis
reis@stanford.edu
UP NEXT: A Push for Participation

Tomorrow’s Research

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UNDERGRADUATE RESEARCH AS THE NEXT GREAT FACULTY DIVIDE

One of the most dramatic transformations at liberal arts colleges and comprehensive universities during the past twenty-five years has been the increased expectation for faculty to generate original scholarship with publishable results. We have reached the point where many of us have difficulty remembering a time when faculty did not embrace the “teacher-scholar” model. But of course this was not always the case. University priorities clearly have evolved since John Henry Newman wrote in 1852 that a University . . . is a place of teaching universal knowledge. This implies that its object is . . . the diffusion and extension of knowledge rather than the advancement. If its object were scientific and philosophical discovery, I do not see why a University should have students. (Newman 1996)

The trend among faculty to expand their involvement in research is accelerating as faculty at four-year and even two-year colleges have increasingly embraced this approach. To support these efforts, there has been a substantial shift in how faculty spend their time, in the allocation of resources, in facilities, and in teaching loads. In addition, the increased involvement in faculty research has resulted in the formation of grants and sponsored programs, offices of graduate and undergraduate research, and technology transfer agreements.

There was a time not so long ago when the great faculty divide was between faculty who performed research and faculty who did not. Now, however, with most faculty engaged in research, the new line of demarcation is instead between faculty who engage students in their research and those who do not. Faculty scholarship tends to fall into one of two approaches: a results-oriented approach or a collaborative, process-oriented approach, with both methods including an expectation of publishable results. The results-oriented approach is taken in many disciplines where a more individual approach to scholarship is the norm. Although there may be some loose collaborations under this approach, faculty typically work singularly and publish single author papers. Students are rarely part of these efforts. A second and very different model is one in which faculty collaborate with others and the work is performed as a joint effort. This type of collaborative research frequently involves students, and when the work is published, students are coauthors of the papers. As the focus on research continues to increase among faculty, I think it is time for us to step back and ask fundamental questions about the type of research being conducted on our campuses and the impact this new priority is having on undergraduate students and student learning.

My basic premise is that there is a cultural divide springing up around how groups of faculty spend their time. Based upon the goals of their research activities, the fundamental purpose of research is quite different between these two models. In the natural sciences and the experimentally-oriented social sciences, one of the main goals of faculty research is to enhance student learning and student outcomes. For example, many private and federal funding agencies (such as the National Science Foundation) consider the impact on student learning as one of the criteria for funding. Let me be clear that I believe that all research should be of such quality that it can be, and should be, publishable, and that publication should be one of the goals of faculty scholarship, but what distinguishes this scholarship is the involvement of students.

While faculty at PhD-granting institutions have long realized the importance of faculty research on graduate students, for many faculty at predominately undergraduate institutions (PUIs), enhancing student outcomes is not one of the explicit goals of their research work. Some would argue that faculty research is beneficial for students even when that is not the stated goal, since the results of faculty research can be shared with students. This is true. Yet, it is my belief that student learning is negatively affected by faculty who take a research-oriented approach to their professional lives rather than a student-oriented one. This belief is supported by Alexander Astin (1993), who has shown that the faculty’s orientation toward research and toward students reflect not only how they spend their time, but also their personal goals and values, and their interest in and accessibility to students. Astin and others have shown that the extent to which faculty are student-oriented has tremendous impact on student satisfaction, learning outcomes, and affective development. In contrast, when faculty are primarily research-oriented, student outcomes are negatively affected. For example, the divide between teaching and research at PhD-granting institutions has led the faculty to substantially distance themselves from undergraduates and undergraduate education, and this has been detrimental to student learning. Could those of us at PUIs be moving too far and too fast in this direction, and could our institutions become the functional equivalents of research universities without graduate students?

I have written elsewhere of the importance of student-centered approaches to scholarship (Malachowski 2003). Is this approach time-consuming? You bet. Is it frequently frustrating? Yes. Does it slow down results? Possibly. Is it worth doing? Without a doubt. By its very nature, undergraduate research involves both teaching and research and it plays nicely into the needs of our students for contact with faculty and the interests of the faculty to engage in scholarship.

So it is time to ask ourselves, “Do we really believe that faculty can dedicate more and more time and effort to research work that does not include students and does not explicitly seek to improve student learning and yet somehow avoid the negative outcomes enumerated by Astin and others?” I believe it is time to own up to the risks involved in our teacher-scholar models and conduct an open discussion of this issue. My call, then, is for us to reflect not only on the impact our research is having on our disciplines, departments, institutions, and careers, but also to consider the impact our research is having on our students and on student learning. We owe this to them.

References

Astin, A. 1993. What matters in college? Four critical years revisited. San Francisco: Jossey-Bass.
Malachowski, M. 2003. A research-across-curriculum movement. In Valuing and supporting undergraduate research, ed. J. Kinkead. San Francisco: Jossey-Bass, 55-68.
Newman, J. H. 1996. The idea of a university. New Haven: Yale University Press.