UNIVERSITY OF KENTUCKY Department of CHEMISTRY UNDERGRADUATE PROGRAM ASSESSMENT PLAN

Similar documents
ASSESSMENT OF STUDENT LEARNING Department of Geology University of Puerto Rico at Mayaguez. Progress Report

Mission Statement. Program outcomes

Change the narrative for Chemistry, and change the major and minor requirements for Chemistry

Academic Affairs Assessment of Student Learning Report for Academic Year

Chemistry Courses -1

PROGRAM REQUIREMENTS Degree: Bachelor of Science Major: Chemistry

MEMO. SUBJECT: 2004 Annual Assessment Reports for BS Chemistry

INTEGRATING GEOSPATIAL PERSPECTIVES IN THE ANTHROPOLOGY CURRICULUM AT THE UNIVERSITY OF NEW MEXICO (UNM)

Chemistry Brigham Young University Idaho

Programme title: MChem Chemistry (Mathematical and Computational Chemistry)

CHEMISTRY (CHEM) CHEM 208. Introduction to Chemical Analysis II - SL

PROGRAM REQUIREMENTS Degree: Bachelor of Science Major: Chemistry Concentration: Biochemistry

Faculty: Andrew Carr, Ryan Felix, Stephanie Gould, James Hebda, Karla McCain, John Richardson, Lindsay Zack

CHEMISTRY, BACHELOR OF SCIENCE (B.S.) WITH A CONCENTRATION IN PROFESSIONAL CHEMIST WITH HONORS

CHEMISTRY, BACHELOR OF SCIENCE (B.S.) WITH A CONCENTRATION IN PROFESSIONAL CHEMIST

EASTERN OREGON UNIVERSITY Chemistry-Biochemistry

PROGRAM EVALUATION PRELIMINARY REPORT. The following information is organized by program specialty areas for

Lewis Owen Department Head Carlton Brett Undergraduate Director

CHEM 333 Spring 2016 Organic Chemistry I California State University Northridge

Chemistry. Chemistry. Brigham Young University Idaho Department of

Director, Programs and Academic Assessment

College of Science (CSCI) CSCI EETF Assessment Year End Report, June, 2017

Exploring the ACS Guidelines and Expectations for the First Two Years of Chemistry

Chemistry Departmental Mission Statement: Communicating Plus - Chemistry: Requirements for a major in chemistry:

Staffing formula and enrollment limits X Other REMOVAL of GWAR attribute

CHEMISTRY. Careers in Chemistry. Faculty. The Chemistry Department. Programs Offered. Repeat Policy

LEHMAN COLLEGE OF THE CITY UNIVERSITY OF NEW YORK DEPARTMENT OF CHEMISTRY CURRICULUM CHANGE

Sciences Learning Outcomes

Dana Wright, Director of Academic Program Development

Chemistry. Faculty. Major Requirements for the Major in Chemistry

Chemical and Biochemical Engineering Student Learning Outcome Assessment Report

Chemistry Department Student Learning Outcomes Assessment

CHEMISTRY, BS. Admissions. Policies. Degree Requirements. Admissions & Policies. Requirements. BS without Concentration.

CHEMISTRY, BS. Degree Requirements. Admissions. Policies. Requirements. Admissions & Policies. Teacher Licensure. BS without Concentration

CHEMISTRY 121 FG Spring 2013 Course Syllabus Rahel Bokretsion Office 3624, Office hour Tuesday 11:00 AM-12:00 PM

department of chemistry

Green Chemistry Commitment

Programme Specification MSc in Cancer Chemistry

PROGRAM EVALUATION REPORT The following information is organized by CACREP-Accredited Program Specialty Areas for

CHEMISTRY. Faculty. The Chemistry Department. Programs Offered. Repeat Policy. Careers in Chemistry

AS AN. Prepared by the. ASBOG Committee on Academic Assessment Randy L. Kath, Ph.D., PG, Chairman Richard K. Spruill, Ph.D., PG, Committee Member

CHEM 102 Fall 2012 GENERAL CHEMISTRY

CHEMISTRY (CHEM) CHEM 5. Chemistry for Nurses. 5 Units. Prerequisite(s): One year high school algebra; high school chemistry

Department of Chemistry

Part A: Initial Plan Part B: Midsemester Update Part C: Further Updates. The current submission is which of the following:

Procedure for Setting Goals for an Introductory Physics Class

Teaching Assistant: Tracy Bucholz CPE office hours: M, W, F 8:30-9:30am

Tulare County Office of Education BTSA Induction Consortium

CHEMISTRY (CHEM) CHEM 5. Chemistry for Nurses. 5 Units. Prerequisite(s): One year high school algebra; high school chemistry

Chemistry 883 Computational Quantum Chemistry

CHEMISTRY. Writing Requirement. Credit for Courses at the 100- and 200- Level. Introduction. Educational Objectives.

Department of Earth and Environmental Sciences California State University, East Bay ASSESSMENT REPORT GEOLOGY B.S., B.A.

Requirement for the Major in Chemistry with a Concentration in Biochemistry

Department of Chemistry Learning Outcomes Assessment Report

SOUTH DAKOTA BOARD OF REGENTS. Academic and Student Affairs ******************************************************************************

Chemistry (CHEM) Courses. Chemistry (CHEM) 1

Department of Chemistry and Biochemistry Approved Learning Outcomes Approved May 2017 at Departmental Retreat

Developing the Next Generation Science Standards

University of Wisconsin Madison Department of Chemistry. Curriculum Guide for Chemistry Majors

ENSC3006 Chemical Process Thermodynamics and Kinetics Please note that this unit is not yet approved.

College of Science (CSCI) CSCI EETF Assessment Year End Report, June, 2017

Prerequisites: CHEM 1312 and CHEM 1112, or CHEM 1412 General Chemistry II (Lecture and Laboratory)

COMMISSION ON ACCREDITATION 2017 ANNUAL REPORT ONLINE

CHEMICAL ENGINEERING (CHEG)

CHEM 1413 Course Syllabus (CurricUNET) Course Syllabus

Course Outline. Code: TPP103 Title: Chemistry

CHEMISTRY (CHE) CHE 104 General Descriptive Chemistry II 3

DEPARTMENT of CHEMISTRY AND BIOCHEMISTRY

Cover/Signature Page - Abbreviated Template/Abbreviated Template with Curriculum

PHYSICS MAJOR, B.S. Student Learning Outcomes. Contact Information. Requirements. Department Programs. Physics Major, B.S.

SCIENCE DEPARTMENT Senior High School

Institution : Majmaa'h University Academic Department : Physics Programme :

University of Houston-Clear Lake PHYS Modern Physics (Summer 2015) Syllabus 3:00-5:50pm Bayou 3324

Chemistry. Faculty Kent Davis, chair; Pablo Hilario, Denise Lee-Haye, Marie Pak, Robert Wilson Departmental Office: 355 Chan Shun Hall; (707)

Bachelor of Science in Geology

Curriculum: The Impact of MCAT 2015

Chemistry, Grade 12 University Preparation SCH 4U Course Outline

Programme Specification (Undergraduate) Chemistry

LEHMAN COLLEGE OF THE CITY UNIVERSITY OF NEW YORK. 1. Type of Change: Change in Degree Requirements

Chemistry and Biochemistry B.A. Degree Requirements

Chemistry, B.S. Bachelor of Science. Summary of Requirements for the Degree. Chemistry, B.S. 1

Internet Resource Guide. For Chemical Engineering Students at The Pennsylvania State University

Dave C. Swalm School of Chemical Engineering

BSEE REQUIREMENTS

PHYSICS. For Senior Comprehensives. Requirements for a Major. Physics 1

Programme Specification (Undergraduate) MSci Chemistry

Chemistry and Biochemistry

Scenario: Mapping Photosynthesis

Career and College Readiness in Terms of Next Generation Science Standards (NGSS)

Bridget Mulvey. A lesson on naming chemical compounds. The Science Teacher

Savannah State University New Programs and Curriculum Committee Summary Page Form I

CHMY - Chemistry. CHMY - Chemistry 1

Course Syllabus. offered by Department of Chemistry with effect from Semester B 2017/18

offered by Department of Chemistry with effect from Semester A 2018/19

The below flowcharts provide three suggested paths of study for science students at EVHS.

El Camino College/ Compton Center. Dr. Jane Harmon, Dean. Geology Department. Program Review. Spring Prepared by Leonard Clark

ENVIRONMENT AND NATURAL RESOURCES 3700 Introduction to Spatial Information for Environment and Natural Resources. (2 Credit Hours) Semester Syllabus

Lesson Plan Bond Prediction Tenth Grade Chemistry By Rich Wilczewski

COLLEGE OF THE DESERT

College of Arts & Sciences Chemistry Bachelor of Science

Transcription:

UNIVERSITY OF KENTUCKY Department of CHEMISTRY UNDERGRADUATE PROGRAM ASSESSMENT PLAN 1. Introduction Assessment Plan for Bachelor in Arts and Bachelor in Science in the A&S Department of Chemistry Unit Mission Statement: The mission of the Department of Chemistry is to provide undergraduate and graduate students with both the academic knowledge and the laboratory experience that will prepare them for future training and employment, including pursuit of professional degrees, teaching and industrial careers, and further academic training in chemistry at the graduate and postdoctoral levels. Basic Assessment Approach: The A&S Department of Chemistry at the University of Kentucky (UK CHEMISTRY) will assess 3 SLOs within a three year cycle, using the direct methods described below. Please see the attached Curriculum Map and Artifact Map. 2. Assessment Oversight, Resources The Chemistry Director of Undergraduate Studies (DUS) will act as assessment coordinator. It is the responsibility of the DUS and the Undergraduate Program Committee (UPC) to monitor the activities of assessment that occur in the Chemistry Undergraduate Program. The DUS will lead the departmental assessment conversation held each fall and will write the assessment report due to UK A&S on October 31st. 3. Program Level Learning Outcomes SLO1: Introductory Understanding of Chemical Composition and Analysis Students will demonstrate overall understanding of meaning of molecular composition, mixtures and quantitative versus qualitative analysis, and the application of these concepts to problems such as environmental, health related, and product development. SLO2: Chemical Literacy and Critical Thinking (GCCR) Students will demonstrate effective oral and written communication of chemical knowledge to both professional and general audiences, and will be able to use the chemical literature to put that new information into context. SLO3: Cheminformatics (GCCR) Background: http://en.wikipedia.org/wiki/cheminformatics UK Chemistry will impart a working knowledge of how to retrieve and use scientific results from standard chemistry databases. This is an important aspect of chemical knowledge in the age of information and a necessary skill for employment in the chemical sciences.

4. Curriculum Map I= introduce, R = reinforce, E = emphasize Courses SLO1 SLO2 SLO3 CHE 105 /107 /111 /113 I I CHE 230/231/232 R I I CHE 226 E I I CHE 410G/ CHE 412 /440G/ 441 /442G R R R CHE 522 /532/ 533 E R R CHE 535 R E E CHE 372/ 472 R E E CHE 550/ 552 R E 5. Assessment Methods and Measures Direct Methods: SLO1 Artifact collected in CHE 226. SLO2 Reading comprehension quiz given as an exit exercise in CHE 472. SLO3 Test to evaluate student familiarity with the use and applicability of chemical databases given as an exit exercise in CHE 472. 6. Data Collection and Review Assessed Data 1 Data 2 Year 1 SLO 1 Assignment artifact gathered in CHE 226. Year 2 SLO 2 Reading comprehension quiz given as an exit exercise in CHE 472. Year 3 SLO 3 Test to evaluate student familiarity with the use and applicability of chemical databases given as an exit exercise in CHE 472. Courses SLO1 SLO2 SLO3 Year 1 Year 2 CHE 226 E I I CHE 472 R R R Year 3 CHE 472 R E E 7. Assessment Cycle and Data Analysis Assessment of student learning takes place throughout the program and occurs in all courses. Program faculty will be asked to maintain records of course level assessment. Program level assessment data will

only be gathered at summative points indicated above in the curriculum. The program will follow a three year assessment cycle, with SLO1 being assessed in year, SLO2 in year 2 and SLO3 in year 3. Data will be gathered annually for all outcomes. All students must be evaluated for course purposes. Therefore, all student data will be gathered for the purposes of the program assessment. Results will be analyzed and interpreted at the second annual faculty meeting of every academic year. Assessment reports will be completed no later than October 1st of each year and provided to the college s assessment coordinator for review. Final reports will be sent to the university s assessment office no later than October 31st of each year. 8. Teaching Effectiveness All instructors will use the University Teacher Course Evaluation (TCE) process to be evaluated by their students each semester. Each instructor will be asked to provide self reflection which will include areas of improvement. The Department Chair will review the TCE results, any available peer review forms, and the self reflection with the instructors and provide feedback to the instructor. This will occur on an annual basis. 9. What are the plans to evaluate students post graduate success? We have found effective tracking of alumni to be very challenging. UK Chemistry has recently established an Alumni Board to increase contact between UK CHEMISTRY and its alumni. Tracking post graduates will be greatly facilitated by our Alumni Board. The newly formed UK Chemistry Alumni Board (CAB) met for the first time on Saturday, October 11, 2014, in the recently renovated Tuttle Conference Room, CP 114, of the Chemistry Physics Building. The goals of the Board are: to establish, maintain, and preserve contact and communications between the UK Department of Chemistry and baccalaureate, masters, and doctoral graduates of the Department. to promote fellowship and to foster cooperation on matters of mutual interest to the UK Department of Chemistry and its alumni. to share with current students the experiences of alumni and to increase awareness of the diversity of careers available to chemists. 10. Appendices Required SLO2 will be assessed using the Literacy/Critical Thinking Rubric which can be found below.

SLO2 Chemical Literacy and Critical Thinking RUBRIC Definition Chemical literacy and critical thinking for the purposes of this rubric is the understanding, justifiable skepticism and application of information in chemistry articles from news sources targeted at chemical professionals. This target audience is a level of understanding above the chemistry related information that one can find in general news sources. Rubric Evaluators are encouraged to assign a zero to any work sample or collection of work that does not meet benchmark (cell one) level performance SLO2 Chemical Literacy and Critical Thinking RUBRIC Translation and Comprehension Critique and Fact Checking Appreciation of Far ranging Implications Capstone Milestone 3 Milestone 2 Benchmark Readers understand and can explain the material in their own words and can answer questions to show the relationship between the reading and chemical principles. Reader effectively considers and criticizes issues such as error analysis and runs the new material through the filter provided by their chemical education. Can do quantitative and qualitative reasoning to apply what is read to related problems. Readers understand and can explain the material. The reader gives indications of having a chemical level understanding. Given the limited understanding, a consistent level of critique should be present. Can do qualitative reasoning to apply what is read to related problems. Readers understand and can explain the material, but there are indications of knowledge gaps that should not exist for an undergraduate senior chemistry major. Given the limited understanding, a consistent level of critique should be present. Some level of qualitative reasoning to apply what is read is evident. Readers understand and explain the material at a nonscientific literacy level. Good linguistic skills are present, but the chemical knowledge has not yet been claimed. Given the limited understanding, a consistent level of critique should be present. The application of the new material to related societal problems is somewhat lacking.

SLO3 Cheminformatics RUBRIC Definition Demonstrate effective knowledge of the use and application of Cheminformatics (Background: http://en.wikipedia.org/wiki/cheminformatics) UK Chemistry imparts a working knowledge of how to retrieve and use scientific results from commercial databases. This is an important aspect of chemical knowledge in the age of information and a necessary skill for all sectors of employment in the chemical sciences. Rubric Evaluators are encouraged to assign a zero to any work sample or collection of work that does not meet benchmark (cell one) level performance SLO3 Cheminformatics Utility Knowledge of the Temporal Aspects of Database Information, knowing when to quit looking. Capstone Milestone 3 Milestone 2 Benchmark Students can explain how they would look for particular chemical information, and which databases to apply to the specific problem. Readers can intersect searches and perform Boolean logic on search results. Students can move forward and backward in time in the literature. The readers appreciate the value of subject reviews. Students are familiar with one or two databases and appreciate the value of this information. Students can perform chemical structure searches and know how to generalize/broaden structure searches. Students can describe how to thoroughly review a topic in the chemical literature, and describe how they know when they have finished the search. Students are familiar with one or two databases and appreciate the value of this information. Students can perform chemical structure searches. Students can describe how to review a topic, and attempt to become an expert about a topic in the chemical literature. Students can perform chemistry database searches such as SciFinder or Web of Science and criticize the information. Students can describe how to look for chemical information

Example: SLO2 was assessed in 2014 Artifact:

SLO2 2014 Assessment DEPARTMENT OF CHEMISTRY UNIVERSITY OF KENTUCKY CHE 572 002 Fall 2014 LEARNING OUTCOMES ASSESSMENT As an assessment of the UK Department of Chemistry s teaching effectiveness, we want to determine how close our graduating seniors are to achieving instructional goals. Your performance on this exercise will not affect your grade in CHE 572 002. Thank you for helping improve UK Chemistry. In this assessment, we hope to partially evaluate your literacy in chemistry. To better understand the article, you may search the literature or the web for background information. If you are interested in comparing your answers with our answers, let your instructor know and we will send you feedback. Please read the article from Chemical &Engineering News 2013, 91, 21 22 (July 1, 2013), and answer the following questions with a few paragraphs and complete sentences: Do not copy and paste. Your answers should be crafted thoughtfully in your own words. Your answers should be submitted as an MS Word document. Use the template provided. 1. Why does carbon dioxide get a lot of attention most of it negative as a greenhouse gas? 2. What are some of the proposed ways to alleviate the carbon dioxide problem? 3. How many electrons are required to reduce one molecule of CO 2 and as much water as needed to CH 3 OH and O 2? Write the balanced reduction equation. 4. About 34 billion tonnes (3.4 x 1016 g) of carbon dioxide entered the Earth s atmosphere in 2011. How many coulombs of electricity would be required to convert all of this carbon dioxide into methanol according to the equation in question 3? How many kg of methanol would result? How does this amount compare to the current annual world market for methanol? 5. Describe how Jaramillo and coworkers qualitatively and quantitatively determined the product distribution from electrochemical reduction of CO2 on copper. 6. Jaramillo and coworkers propose that surface bound reactive intermediates such C(OH) 2 and CH 2 O can account for the formation of C 1, C 2 and C 3 products. Suggest a mechanism for the formation of any C 2 product and a specific experiment to test whether this is a reasonable mechanistic pathway.

Example: SLO2 was assessed in 2013 Artifact: SLO2 2013 Assessment CHE 572 Communication in Chemistry is a course that all of our majors must take twice in their undergraduate career to complete one of three majors or major tracks. CHE 572 is therefore an excellent forum in which to see how well our students have progressed. This assessment tool is designed to assess the students' organic chemistry/biochemistry literacy. We directed the CHE 572 002 students' attention to a short, but pithy news item on the web for them to access at their leisure and then to submit three, paragraph long detailed answers to three questions posed to them. This exercise was not timed; it was done online outside of regular class time. The article for the students to digest was published in the American Chemical Society's (ACS) magazine, Chemical and

Engineering News (C&E News) Vol 91 (12) March 25, 2013, entitled: "Avoiding The Death Receptor, Biochemistry: Crystal structures of serotonin receptor drug complexes could reduce killer side effects" By Elizabeth K. Wilson http://cen.acs.org/articles/91/i12/avoiding Death Receptor.html To test student comprehension of this reading assignment, the CHE 572 002 students were asked to submit paragraph length, in their own words, responses to the following three questions: 1) What was the scientific discovery described by this article? Why is this discovery important? 2) The article highlights a scientific problem. As concisely as you can, please explain the main scientific problem in your own words. 3) What are the drug designers trying to accomplish in this case? What data or information will drug designers use to meet their goals in the future? ACS C&E News articles have a scientific readership. In fact, the magazine is generally inaccessible to non ACS members. One has to be chemistry educated to appreciate the nuances of the content. However, this article is at the level that our undergraduates in their 3rd or 4th year should understand. Each of the 7 members of the undergraduate program committee will evaluate each student response on a highpass, pass, and fail basis. Target/ Benchmark High pass indicates a precocious thinker who shows a lot of promise and is able to tease out nuanced features in the information content. Pass, indicates that the student understands the content. We realize that it is difficult to separate students that are not engaged but otherwise capable from those who needed to do this exercise so that they could get on to some other pressing assignment or final exam preparation at the end of the school year. These students are not being graded for this activity. A fail indicates a student who does not understand the content of the article. We expect that all of the CHE 572 002 students should be able to answer questions 1 and 2 at the pass level. We expect that at least 2/3 of these students should be able to pass question 3. Question 3 involves an understanding of how drug designers use atomistic relationships between receptor and drug molecules to elucidate possible beneficial structural changes to direct the molecular level development of the next generation of drugs.

Example: SLO3 was assessed in 2012 Artifact: DEPARTMENT OF CHEMISTRY UNIVERSITY OF KENTUCKY CHE 572 002 Spring 2012 LEARNING OUTCOMES ASSESSMENT As an assessment of UK Chemistry s teaching effectiveness, we want to determine how close our graduating seniors are to some of our instructional goals. Five multi part questions are presented below. The next time CHE 572 002 meets on April xx, 2012, we will ask you to answer these questions in short answers and complete sentences. Write in advance on one 8.5" x 11" page to help you formulate your answers. Your performance on this exercise will not affect your grade in CHE 572 002. Thank you for helping improve UK Chemistry. =================================================================== 1. In your education here at the University of Kentucky did you ever have to search the primary literature* for chemical information? For a definition of 1 vs. 2 vs. 3 literature see: http://grinnell.unh.edu/primarylit.html a. In which courses do you recall having to search the primary literature? b. Which courses were most instructive in teaching you to search the literature? c. Do you feel comfortable mining the literature for chemical information? 2. Describe where you would start searching for chemical information about 2a and 2b in modern times. a. If you wanted to synthesize and purify 2a, where would you look first? b. If your search would differ, how would your search differ given the differences in chemical composition between 2a and 2b? c. Given the differences in chemical composition where do you think you would find these two molecules described in the chemical literature. 3. Given what you now know about literature searching can you advise when and how freshmen or sophomores could receive better instruction in finding chemical information? 4. Do you routinely use computer software to draw and include chemical equations and structures in your documents? When did you learn to do this in your time at UK or before? What kind of an impact did this

ability have on your education in terms of your ability to prepare presentations, class assignments and reports? 5. Do you use software to represent x ray structures, energy minimized chemical structures or biochemical structures in 3D for modeling purposes to better understand concepts or problems? Do you think more formal instruction in this area would have been beneficial and/ or enjoyable for you? 6. Please comment further about this general subject if anything occurs to you.