CHEM 392 - Special Topics in Chemistry (1 to 3 units)Laboratory or lecture course in area not covered in other courses. Credit allowed toward chemistry major or minor with departmental permission only.
Maximum units a student may earn: 6
Grading Basis: Graded
Offered: Every Fall, Spring, and Summer
Student Learning Outcomes
Upon completion of this course, students will be able to:
1. explain fundamental concepts of a specialized topic in an area of chemistry.
2. formulate and solve problems in a specialized topic in an area of chemistry.
3. communicate verbally or in writing about aspects of a specialized topic in chemistry.
4. discuss the relationship of a specialized topic in chemistry to society.
Click here for course scheduling information. Check course textbook information
Next up: recent advances in biomass and wastes thermochemical processing. Earlier in the year the ACS journal Energy & Fuels highlighted developments presented by participants at a virtual symposium organized by the Washington State University Pacific Northwest National Laboratory Bioproducts Institute. The world is gradually transitioning from an era fueled by fossil power to one characterized by sustainability and renewable resources. Recent progresses the understanding of biomass thermochemical reactions are allowing research communities to visualize these in practical solutions to mitigate environmental issues. Contents within the issue fall into four areas: (1) fundamentals of biomass thermochemical reactions, (2) liquefaction technologies, (3) catalytic upgrading/refining, and (4) techno-economic analysis/material.2
Or how about drug discovery and diagnosis in tuberculosis? Before the emergence of SARS-CoV-2, tuberculosis was the leading cause of death from an infectious disease, with drug resistance limiting the effectiveness of current treatments. But recent advances in drug discovery and diagnostics promise new efforts to combat this global health threat, which may come back to the forefront as COVID recedes.4
Into the top five now, and our pick is process safety. Many industrial chemical incidents happen around the world every year, resulting in deaths, property damage, and disrupted supply chains. Systematically studying process performance and learning from the past is an effective way to prevent such incidents, with new research contributing to strategies for improving chemical safety across natural, social, management, and engineering sciences.6
Coming in at number two, neglected tropical diseases, which affect more than a billion people worldwide in tropical areas and impoverished communities. This category of diseases includes schistosomiasis, which can damage the bladder, kidneys and liver, and other tropical parasites. ACS journals collaborated in a special virtual issue to showcase recent advances in the diagnosis and treatment of these illnesses.9
All these topics have been covered in recent special and virtual issues of ACS journals. Visit the website to explore more, and connect with us on social media to tell us about your own favourite hot topics in the world of chemistry.
The following tables outline the core ideas in chemistry that should be addressed in any comprehensive high school curriculum. Each core idea is further broken into chemical principles, and suggested concepts to teach within those ideas are listed. These tables have been generated with the guidance of the Next Generation Science Standards (NGSS) performance expectations (PEs) and disciplinary core ideas (DCIs). The task force identified the concepts that fall into each DCI within the core ideas.
The content does not need to be learned or shared in the order presented, and this is not an all-inclusive list. For example, there are PEs and DCIs within the Earth & Space Sciences (ESS) as well as the Engineering, Technology & Applications of Science (ETS) standards that could be learned by students within a physical science or chemistry course. (For example, Global Climate Change is a DCI within ESS and could easily be addressed in a physical science or chemistry curriculum.) These tables emphasize only concepts found within the Physical Science PEs in NGSS. Teachers may have additional standards (such as the Common Core State Standards in English Language Arts & Mathematics) that they need to incorporate into their teaching practice. Teachers also may need to consult state and local standards to ensure all of the essential elements and assessment boundaries of their curriculum are included.
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CHEM 552 - Selected Topics in Analytical Chemistry(3 units)
Prerequisite: CHEM 451 or consent of instructor.
Including electrochemical measurements, chromatographic techniques, spectroscopic techniques, radiochemical analysis and basic electronic components of instrumentation. Emphasizing the chemical principles involved, utility and limitations of each method. Includes trace analysis of water and air.
Letter grade only (A-F). (Lecture 3 hrs.) May be repeated to a maximum of 6 units with different topics. Topics announced in the Schedule of Classes.
Concepts about electrochemistry frequently surface on the AP Chemistry Exam in questions about chemical reactions. Students need to be able to identify what is being oxidized and what is being reduced, as well identify and understand what is happening at the cathode and anode.
Thermodynamics plays a vital role in understanding the role of energy in chemical reactions. For the AP Exam, students need to understand how to calculate the energies of bonds broken and formed, as well as analyze calorimetry data to determine reaction enthalpy.
We often see students struggle with these concepts, and in particular, with determining the number of bonds broken and made when calculating the enthalpy of a reaction. We recommend trying out these experiments to help build confidence in understanding enthalpy:
In kinetics, students investigate the rates at which chemical changes occur and what factors might influence those rates. For the AP Exam, students need to navigate between experimental data, rate laws, and a proposed mechanism.
One of the big concepts that students struggle with in this area is understanding graphs of reactant concentration versus time and drawing conclusions about rate constants. Here are some excellent experiments to get students more comfortable with analyzing graphs, tables, and determining the order of reaction:
Chem Soc Rev (Chemical Society Reviews) is the Royal Society of Chemistry's leading reviews journal. We publish high-impact, authoritative and reader-friendly review articles covering important topics at the forefront of the chemical sciences.
We welcome and encourage proposals for reviews from members of the research community. If you are interested in writing a review, you can download a proposal form via the links below. If you are interested in submitting a Viewpoint, please contact chemsoc...@rsc.org and we will be able to provide further guidance.
Chem Soc Rev publishes review articles covering important topics at the forefront of the chemical sciences. Reviews should be of the very highest quality and international impact. We particularly encourage international and multidisciplinary collaborations among our authors.
Reviews and Tutorial Reviews should focus on key developments in a field, with the author providing their own analysis and insight throughout on developments, trends and future directions. Articles which simply summarise research in the topic with minimal or no analysis or insight from the author are not suitable for publication in Chem Soc Rev. To achieve this goal we respectfully ask authors of Reviews and Tutorial Reviews to use new graphics where possible (by redrawing schemes for example) and to aim for no more than 20% of graphics in their article to be reused from previously published work. We understand that in some cases it is necessary to include more previously published graphics (for example, where graphs or microscope images are shown). In these cases we ask authors to provide a very brief justification on submission.
Authors may supply videos, PowerPoint slides, soundbites, pictures and other additional material as electronic supplementary information (ESI) to complement and enhance their articles. Please contact the editorial office for more details.
Tutorial Reviews are concise, accessible and authoritative overviews of important contemporary topics in the chemical sciences. They should appeal to advanced undergraduates, the general research chemist who is new to the field, as well as the expert. They provide a solid introduction to the development of a subject, the latest breakthrough results and their implications for the wider scientific community. Tutorial Reviews should not contain unpublished research.
Provide an essential introduction to the field which will lay the foundation of knowledge in the area, followed by the most important recent advances. Authors should include throughout the article their own insights into the development of the field and its future potential.
Tutorial reviews should include a 'key learning points' box, containing up to five key learning points that a reader should expect to gain from reading the review. These should be provided on submission, either at the beginning of the review or as a separate document.
Reviews provide an authoritative and in-depth understanding of important topics in the chemical sciences. They give a very high-quality state-of-the-art account of the subject matter and a balanced assessment of the current primary literature. The implications of recent developments for the wider scientific community are emphasised and authors should aim to stimulate progress in the field. Chem Soc Rev Reviews should not contain original, unpublished research.