Layne Morsch

 Layne Morsch

Layne Morsch

  • Courses4
  • Reviews11

Biography

University of Illinois Springfield Springfield - Chemistry


Resume

  • 2000

    DePaul University

    University of Illinois at Springfield

    Springfield

    Illinois Area

    Associate Professor

    University of Illinois at Springfield

    Springfield

    Illinois Area

    Teach Organic Chemistry Lecture and Labs\nTeach Energy and the Environment course for non-majors\nStarted Excellence in Teaching and Learning Fellows program - 2017

    Associate Professor and Chair

    University of Illinois at Springfield

    DePaul University

  • 1995

    French

    Doctor of Philosophy (PhD)

    Organic Chemistry

    University of Illinois at Chicago

  • 1987

    Bachelor of Science (BS)

    Chemistry

    Minnesota State University

    Mankato

  • Science

    Curriculum Development

    Chemistry

    Teaching

    Research

    Lecturing

    Higher Education

    Student Affairs

    Statistics

    Student Development

    Curriculum Design

    University Teaching

    Distance Learning

    Academic Advising

    College Teaching

    Flipped teaching in organic chemistry

    Beginning in spring 2014

    I have taught organic chemistry using a “flipped” teaching design. All lectures were recorded in advance and posted online for students to watch. The entire class time was then used to answer student questions about the posted material and textbook material

    as well as to work out a large number of sample problems. I will discuss how I incorporate the videos into the course and student viewing habits of the lecture videos. This class was unique in that the first semester of the course was taught in a more traditional lecture style

    while the second semester was taught with the flipped design. A survey was administered to ascertain student attitudes toward flipped vs. traditional format courses in organic chemistry. Exam grades from the second semester were compared to those from the first semester for this class. Grades were also compared to previous years when both were traditional lecture format courses to determine if there are any trends in achievement.

    Flipped teaching in organic chemistry

    We have been using Elements™ in organic chemistry lab to increase engagement and interaction with undergraduate students. Elements™ is a modular and cloud-based scientific collaboration platform. It allows for facile template construction by lab instructors to disseminate laboratory procedures. The sharing of notebooks between students and instructors allows for information exchange

    submission of work and grading all in one package. The web-based platform works across devices and allows for uploading of spectra

    images

    videos

    spreadsheets

    pdfs and integration of text editing and structure drawing. Student attitudes relating to integration of this new technology will be presented.

    Using a scientific collaboration platform

    Elements™

    in teaching organic chemistry

    During my summer course

    I began to integrate ChemDraw for iPad into my undergraduate organic chemistry lecture. There was an obvious increase in classroom participation and engagement with the material as a result. I will show the types of problems students worked on in class and model how Flick-to-Share works to exchange information. Successes and difficulties in integrating ChemDraw for iPad into the course will be discussed as well as how some difficulties have been addressed and future development needs.

    Using ChemDraw for iPad and Flick-to-Share to Increase Engagement in Organic Chemistry

    Dyllan Tiburzi

    Leanne Deak

    Green experiments in the organic teaching lab are a vital part of training a new generation of scientists. Not only do they make the lab experience safer and produce less costly waste

    they allow students the opportunity to examine and consider potentially hazardous chemical methodologies and develop alternatives. A variety of “greener” reactions have replaced costly and dangerous traditional reactions in many undergraduate laboratories. Two reactions that were examined in order to test “greener” alternatives were the Witting reaction and Oxy-Cope rearrangement. The Wittig reactions tested in lab were carried out in aqueous conditions

    at room temperature

    and in less than an hour. The reaction was shown to be broadly applicable to a variety of starting aldehydes. The products were analyzed via 1H Nuclear Magnetic Resonance Spectroscopy (NMR)

    Infrared Spectroscopy

    Thin Layer Chromatography (TLC)

    melting point determination

    and Gas Chromatography Mass Spectrometry (GC-MS). Data showed desired products had been synthesized. This lab has already been implemented in the Organic Chemistry lab curriculum. Research on the Oxy-Cope rearrangement and greener alternatives is currently being examined in the lab. Results and strategies for implementation of this work into the laboratory curriculum will be presented.

    Greening the Wittig and other reactions for the undergraduate organic teaching laboratory

    Results of a joint PerkinElmer and McGraw Hill pilot at the organic chemistry undergraduate level using ChemDraw and Flick-to-Share. View on SlideShare: http://buff.ly/17H5dQN

    ChemDraw

    iPads

    and collaboration tools in the classroom

    Nic Encina

    Incorporation of a new cloud-based collaboration platform into teaching labs and undergraduate research.

    ElementsTM of Science Education: Joint PerkinElmer and University of Illinois Springfield pilot on collaborative chemistr

    Abstract\nA model for flipped learning in organic chemistry using iPad devices has been developed based on cognitive load theory. All lectures were delivered by video before class using iTunes U

    while the textbook has been replaced with the ChemWiki hyper library. The entire class time was then used for active learning. Methods of encouraging student engagement with the videos and classroom active learning sessions are discussed. Student performance was measured across multiple semesters of lecture style courses compared with flipped courses. Students were also surveyed throughout the courses to determine attitudes related to course style and student learning preferences.

    Flipped Teaching in Organic Chemistry Using iPad Devices

    During my summer and fall organic chemistry courses

    I began to integrate ChemDraw for iPad into my undergraduate organic chemistry lecture. The imbedded Flick-to-Share allowed me to send problems to my class to work out and for them to send their responses to me during class. There was a clear increase in classroom participation and engagement with the material compared to previous classes. I will show the types of problems students worked on in class and model how Flick-to-Share works to exchange information. I will also discuss scaling up to larger classes. Successes and difficulties in integrating ChemDraw for iPad into the course will be discussed as well as how some difficulties have been addressed and future development needs.

    ChemDraw for iPad in organic chemistry courses

    Brittney Meyer

    Dyllan Tiburzi

    Leanne Deak

    Green experiments in the organic teaching lab are a vital part of training a new generation of scientists. Not only do they make the lab experience safer and produce less costly waste

    they allow students an opportunity to examine and consider potentially hazardous chemical methodologies and develop alternatives. The work discussed here focuses on a series of Wittig reactions that are carried out in aqueous conditions

    at room temperature

    and in less than one hour. The reactions have been applied to a variety of starting aldehydes. Results for this work and strategies for implementing a green chemistry case study into the laboratory curriculum are presented.

    Green Aqueous Wittig Reaction: Teaching Green Chemistry in Organic Teaching Laboratories

    Drawing structures

    mechanisms

    and syntheses is a vital part of success in organic chemistry courses. ChemDraw for iPad has been used to increase classroom experiences in the preparation of high quality chemical drawings. The embedded Flick-to-Share allows for simple

    real-time exchange of ChemDraw documents. ChemDraw for iPad also allows documents to be readily shared with students via e-mail directly from the program. ChemDraw for iPad increased engagement and enhanced interactions between students and instructors in organic chemistry classes.

    Engaging Organic Chemistry Students Using ChemDraw for iPad

    I am continuously exploring new methods for increasing engagement in chemistry courses. Some of the tools include: \n\nChemDraw for iPad use during lecture courses \nflipping the organic chemistry classroom \niTunesU course development \nElements cloud based collaboration platform for laboratory communication and replacement of paper lab notebooks

    Nic Encina

    Chris Luker

    iTunes U course for Organic Chemistry I

    This course covers the first 12 chapters of Organic Chemistry from Smith

    published by McGraw-Hill.

    Green Chemistry - Undergraduate Research

    My research lab trains undergraduates in developing aqueous reactions for use in organic chemistry laboratory.

    International Network for Chemistry Language Development

    Preliminary results have been shared at the American Chemical Society National Meeting in San Francisco (April 2017)

    Faculty Summer Institute at the University of Illinois (May 2017) and Society for Teaching and Learning in Higher Education in Halifax

    Nova Scotia (June 2017)

    International Society for the Scholarship of Teaching & Learning in Calgary (October 2017). A first manuscript is completed and has been submitted for review.

    iTunesU course for Organic Chemistry 2

    This is an iTunesU course for the second semester of organic chemistry. \n\nThe outline is based off of Organic Chemistry

    4th ed

    by Janice Gorzynski Smith

    published by McGraw-Hill Higher Education

    Morsch

    Layne

    Morsch

CHE 267

4.1(5)

CHE 269

3.3(2)

CHE 367

3.2(3)