Students make two different formulations of imitation Silly Putty with varying degrees of cross-linking. They witness how changes in the degree of cross-linking influence the putty properties.

The job of a synthetic chemist is akin to that of an architect. While the architect could actually see the building he is constructing, a molecular architect called chemist is handicapped by the fact that the molecule he is synthesizing is too small to be seen. With such a limitation, how does he ‘see’ the developing structure? For this purpose, a chemist makes use of spectroscopic tools. How does he cut, tailor and glue the components on a molecule that he cannot see? For this purpose chemists have developed molecular level tools called Reagents and Reactions. How does he clean the debris and produce pure molecules? This feat is achieved by crystallization, distillation and extensive use of Chromatography techniques. A mastery over several such techniques enables the molecular architect (popularly known as organic chemist) to achieve the challenging task of synthesizing the myriade of molecular structures encountered in Natural Products Chemistry, Drug Chemistry and modern Molecular Materials. In this task, organic chemists are further guided by several ‘thumb rules’ that chemists have evolved over the past two centuries.

This activity is a series of game-like lessons that assist the student in developing the logic skills needed to read mass spectrometer output and formulate the identity of an unknown molecule. As students endeavor to identify the unknown they must apply fundamental chemistry knowledge including formula mass, isotopes, periodic table, relative abundance, interpreting graphs, organic chemistry, ionization, bonding rules, and structural formulas. Based on an activity presented by Olaf Runquist, Professor, Hamline University.

Organic chemistry is a two-semester course (Organic Chemistry I, SCC 251 and Organic Chemistry II, SCC 252) required for majors in Biology. The SCC 251 course has been designated for the Integrative Learning Core Competency as well the Digital Communication Ability. This course emphasizes the synthesis, structure, reactivity, and mechanisms of reaction of organic compounds. Laboratory stresses various organic synthetic and analytic techniques (distillation, extraction, chromatography and spectroscopy).
This lab provided an opportunity for students to go deeper with the chemistry content by correlating to the concepts they learned in General Chemistry courses such as Valence shell electron pair repulsion theory (VSEPR), resonance, polarity, dipole moment, acid-base reactions, mole concept, thermochemistry and chemical kinetics. In addition, for the experimental part, applying the techniques such as qualitative analysis of ions, filtration, melting point, optical spectroscopy, and molecular modelling. This lab was performed at the end of the semester when students are familiar with basic organic techniques such as distillation, crystallization, thin layer chromatography (TLC) and column chromatography--techniques they learned previously in this lab. Overall, this lab was designed to develop critical thinking and integrative learning skills while introducing students to the porphyrin and green chemistry concepts. This experiment illustrates the several principles of green chemistry and is easily extendable to introduce topics in other chemistry courses such as NMR spectroscopy (1H, 13C and 19F NMR), material chemistry, click chemistry, coordination chemistry and environmental chemistry.
Learning outcomes that can be assessed using this lab include an understanding of laboratory procedures (methods and techniques), safety hazards, and instrumentation, understanding of concepts and theories gained by performing the experiment, collecting data through observation and/or experimentation (TLC and column chromatography), interpretation of the data (percent yield, UV-vis spectra), drawing conclusions and perspective of the experiment. The knowledge students gain during this process will be useful to connect with future chemistry courses and can also be utilized to do research.
LaGuardia‰Ûªs Core Competencies and Communication Abilities
Main Course Learning Objectives: Based on the principles and methods of green chemistry concept, students will be able to develop the ability to analyze and evaluate organic chemical reactions and processes. Gather, analyze, and interpret experimental data and graph the UV visible spectra using Microsoft excel. The ChemDraw program is used to increase classroom experiences in the preparation of high quality chemical drawings. This software is used to draw and submit chemical compound. ChemDraw Professional can also be used to predict properties, generate spectra, construct correct IUPAC names, and calculate reaction stoichiometry.

How molecular variation in cells helps organisms adapt in different environments and stages of development.

Students work as engineers to learn about the properties of molecules and how they move in 3D space through the use of LEGO MINDSTORMS(TM) NXT robotics. They design and build molecular models and use different robotic sensors to control the movement of the molecular simulations. Students learn about the size of atoms, Newman projections, and the relationship of energy and strain on atoms. This unique modular modeling activity is especially helpful in providing students with a spatial and tactile understanding of how molecules behave.

Nitrogen & Agriculture is a interactive that guides the player through exploring how different levels of nitrogen affects feed, fertilizer, and pollutants in agriculture.

Seeing how a noncompetitive inhibitor can bind whether or not the substrate is bound, and vice versa.

Nutritious Nitrogen is an beautifully drawn educational interactive that explores the relationship of nitrogen integration to cattle and plant health and productivity.

Short Description:
Organic chemistry is the chemistry of carbon and carbon-containing compounds. Since the core structural, catalytic, information storage, and retrieval systems of organisms are carbon-based macromolecules, organic chemistry is of direct relevance to the life sciences. Just as importantly, the properties of carbon make possible an amazing range of molecules with unique properties, from small molecules to complex plastics and even more complex biomolecules.

Long Description:
The essence of organic chemistry is how carbon atoms interact with other atoms and groups of atoms to produce an astounding array of complex and interesting molecules. The basics of bonding and intermolecular interactions are introduced in the general chemistry version of CLUE (Chemistry, Life, the Universe & Everything), along with how the structure of a molecule affects its properties, how the energy changes associated with chemical and physical changes can be predicted and explained, and how chemical systems can be stabilized or perturbed by changing conditions. These four core ideas (structure-property relationships, bonding and interactions, energy, and stability, and change) are continued on into OCLUE and are deepened and expanded as we discover and explain ever more complex chemical systems.

Word Count: 52755

ISBN: 978-1-62610-102-9

(Note: This resource's metadata has been created automatically by reformatting and/or combining the information that the author initially provided as part of a bulk import process.)

Open Chemistry (OpenChem) provides a full curriculum of recorded lectures covering undergraduate chemistry plus selected graduate topics. Through lecture videos and ancillary materials, anyone in the world can effectively sit alongside UCI Irvine students and view complete undergraduate core and elective course lectures delivered by top faculty members. UCI's goal is to provide resources not only for learners, but for instructors, as well. Any of our OpenChem materials are immediately available for use by institutions or individual professors teaching their own courses.

Organic Chemistry research involves the synthesis of organic molecules and the study of their reaction paths, interactions, and applications. Advanced interests include diverse topics such as the development of new synthetic methods for the assembly of complex organic molecules and polymeric materials, organometallic catalysis, organocatalysis, the synthesis of natural and non-natural products with unique biological and physical properties, structure and mechanistic analysis, natural product biosynthesis, theoretical chemistry and molecular modeling, diversity-oriented synthesis, and carbohydrate synthesis.

This open textbook is suitable for the college-level first semester of Organic Chemistry. This book covers basic concepts of organic molecules' structures and reactivities with plenty of solved examples. Besides the fundamental concepts, topics of organic acids-bases, kinetics, thermodynamics of reaction, and stereochemistry, this book covers the preparation and reactions of alkyl halides, alkenes, alkynes, and alcohols. Understanding organic chemistry requires active studying. Studying Organic chemistry is akin to playing a new video game or learning to play an instrument. It just doesn’t come easy naturally. One cannot watch other people play piano/video games/teach Organic chemistry and become an expert on it. One must actively play/draw structures using a pencil and paper to draw and redraw structures, write reactions, and explore stereochemistry. Like a painting class!

John McMurry's Organic Chemistry is renowned as the most clearly written book available for organic chemistry. In John McMurry's words, "I wrote this book because I love writing. I get great pleasure and satisfaction from taking a complicated subject, turning it around until I see it clearly from a new angle, and then explaining it in simple words." In Organic Chemistry: A Tenth Edition from OpenStax, McMurry continues this tradition while updating scientific discoveries, highlighting new applications, scrutinizing every piece of art, and providing example problems to assist students. Organic Chemistry: A Tenth Edition continues to meet the scope and sequence of a two-semester organic chemistry course that follows a functional group approach. A highlighted list of changes along with a detailed table of contents and ancillary descriptions can be found on the Instructor and Student resources sections of this page. John McMurry decided to publish Organic Chemistry: A Tenth Edition under an open license as a tribute to his son, Peter McMurry, who passed away from cystic fibrosis in December 2019.

This 12-minute video lesson discusses acetic acid to acetyl chloride mechanism. They can be generalized to forming any acid halide from a carboxylic acid. [Organic Chemistry playlist: Lesson 69 of 73].

This 13-minute video lesson considers the addition of Water (Acid-Catalyzed) Mechanism. [Organic Chemistry playlist: Lesson 29 of 73].

This 9-minute video lesson looks at the properties of alcohol. [Organic Chemistry playlist: Lesson 46 of 73].

This 7-minute video lesson looks at naming alcohols. [Organic Chemistry playlist: Lesson 45 of 73].

This 8-minute video lesson provides an introduction to aldehyde. [Organic Chemistry playlist: Lesson 61 of 73].

This 12-minute video lesson looks at Aldol Reaction. It is the final video in the Organic Chemistry playlist. [Organic Chemistry playlist: Lesson 73 of 73].