Chemistry curriculum too heavily bio focused?

In summary, the chemistry curriculum has shifted towards a heavier focus on biomedical fields in the past 10 years, with a decrease in mathematical and physical content and an increase in biological content. This change can be attributed to the growing popularity and demand for bio-based fields, as well as the desire to increase school rankings through higher citation rates and impact factors. However, this shift may be detrimental to students who are interested in other chemical industry careers. Additionally, the method of teaching physical chemistry as one big book should be reevaluated, and instead taught as four separate classes to better reflect the distinct fields within physical chemistry.
  • #1
chill_factor
903
5
I believe that the current chemistry curriculum has had a major increase in biological content in the past 10 years, and that this biological content has replaced valuable mathematical content.

It used to be that the core classes of chemistry were, along with the basic math core of calculus, multivariable calculus, linear algebra and differential equations: 1 year each of general chemistry, organic chemistry, and physical chemistry. In addition, there would be 2 single term classes on analytical chemistry and inorganic chemistry. Electives would be supporting labs or deeper theoretical classes into each of these 4 areas, or specialized applied classes such as polymer science, surface science, statistics, etc. which are highly used in industry.

The current curriculum is much more heavily focused on biomedical fields. The chemical curriculum at many schools has phased out linear algebra and differential equations in favor of a required biochemistry class and lab. In addition, many applied classes have been canceled in favor of more biological electives, which are based on memorization, instead of mathematics and logic as most chemistry classes are.

I believe that the decline in BS chemistry employment rates and relative wages is connected to the reduction of mathematical and physical content, and the increase of biological content, in the chemical curriculum. In addition, I believe forcing chemistry students to take biology is highly unfair to those who are interested in other chemical industry careers, and have no interest in the life sciences.

I also believe that the method of teaching physical chemistry is antiquated. Indeed, just as we do not expect upper division physics students to take a single class on "Classical Physics" with one book, and instead divide it into mechanics and EM, why do we still force chemistry students to take a yearlong class from "one big book"? This is especially true for physical chemistry which constitutes 4 distinct fields: quantum mechanics, molecular spectroscopy, statistical mechanics and chemical kinetics.

Indeed, I believe that it would greatly improve both employment prospects and graduate school preparation if the following was done:

restore the complete physical sciences math core for chemistry students and restore electives not related to biology.

move memorization based biology electives to the biology department. The only biology based chemistry classes should be physical biochemistry and computational biology.

change physical chemistry from a yearlong class to a 4 term class with different books for each term since the 4 sub-fields are different, just as mechanics and EM are both classical physics, yet are different.
 
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  • #2
Chemistry is a pretty unpopular major I think, whereas biology is too popular. Maybe they are trying to entice students to major in chemistry?
 
  • #3
I got a chem minor (I was physics and math major) in 2002 at a pretty good liberal arts college, and back then a chem major required one year (three trimesters) of calculus, 1 year of gen chem, one analytical chem, one or pchem classes, two orgo classes, instrumental analysis and one or two inorganic classes...and then you could choose to take a stat mech elective or quantum chem elective or biochem or another orgo or materials chem etc. They "strongly suggested" that all majors take diff eq and linear algebra (we had to take it for physics, of course) and I'd say about half of them did, especially if they were thinking about grad school.

However, lots of them wanted to go to med school, so loading up on orgo and biochem made sense, whereas diff eq and computational chem didn't. I'm curious why you (chill factor) think that these changes have occurred. Why would the people (professors and deans) who ostensibly care the most about having an effective and useful curriculum make changes that are so detrimental? Don't you think that bio-based fields are perhaps growing and that demand has led to this change? Also, if people want students with chemical knowledge and a more analytical background, chemical engineering majors seem to fit the bill.

I'll agree though that if a school requires a chem major to take bio 101 and memorize a bunch of stuff, that's probably a waste of time. Is this prevalent? I've never heard of this requirement.
 
  • #4
I believe that this has occurred due to the life sciences field getting big in 2002-2007, and institutional momentum has led to it being carried on in the past 5 years.

Also the average citation rate in biochemistry is higher than that for other fields of chemistry, and there are more papers and journals with higher impact factors in this field, so loading up on biological faculty and students (and since these will be in demand, preparing more chemical biology majors) is a way to increase school rankings.

In addition, the thing that in my opinion should have changed, the teaching of pchem from one big book, has not changed. Just as physics majors do not learn from 1 big book on "Classical Physics" since electromagnetism and classical mechanics are very different and instead there's 3-4 classes devoted to "classical physics", I believe that it is equally wrong to teach physical chemistry from 1 big book.

Instead, it should be taught as 4 separate classes, since these 4 classes are very different from each other, perhaps not QM and molecular spectroscopy, but this is basically the equivalent of QM I and QM II in physics. After all, you don't have a class called "Microscopic Physics" and put QM and Stat Mech in 1 book right? That's silly. Why is it not equally silly to put QM, molecular spectroscopy, stat mech and chemical kinetics in 1 book?

It doesn't add pressure to the student either. Chemistry majors have a relatively "easy" senior year free of required classes. Adding 1 required class per semester their senior year won't destroy their free time.
 
  • #5


I agree that the current chemistry curriculum has shifted heavily towards biological content, and that this has come at the expense of valuable mathematical content. While it is important to incorporate biological applications into chemistry education, it should not come at the cost of neglecting fundamental mathematical and physical principles.

Chemistry is a diverse and interdisciplinary field, and it is important to have a well-rounded education that includes both biological and mathematical concepts. By neglecting mathematical and physical content, we are limiting the potential of chemistry students and hindering their ability to pursue a wide range of careers in industry and academia.

Furthermore, the current method of teaching physical chemistry is outdated and does not effectively address the different sub-fields within the subject. By breaking it down into separate courses with different textbooks, we can provide a more comprehensive and tailored education to students.

I also agree that forcing chemistry students to take biology classes is unfair to those who are not interested in pursuing careers in the life sciences. It is important to have a variety of electives available that cater to the diverse interests of students, whether it be in biology, physics, or other related fields.

In conclusion, I believe that it is crucial to strike a balance between biological and mathematical content in the chemistry curriculum. By restoring the complete physical sciences math core and offering a variety of electives, we can provide students with a well-rounded education and better prepare them for future careers in chemistry.
 

FAQ: Chemistry curriculum too heavily bio focused?

How does a bio-focused chemistry curriculum differ from a traditional chemistry curriculum?

A bio-focused chemistry curriculum places a greater emphasis on the application of chemistry concepts to biological systems, such as how chemicals interact with living organisms and how chemistry plays a role in biological processes. This differs from a traditional chemistry curriculum which focuses more on the fundamental principles and laws of chemistry.

What are the potential drawbacks of a bio-focused chemistry curriculum?

One potential drawback of a bio-focused chemistry curriculum is that it may not adequately cover other important areas of chemistry, such as physical chemistry or analytical chemistry. This could limit students' understanding of the broader scope of the subject and their ability to apply their knowledge to different fields.

How can a bio-focused chemistry curriculum be beneficial for students?

A bio-focused chemistry curriculum can be beneficial for students who are interested in pursuing careers in fields related to biology and healthcare, as it provides a strong foundation in the chemical processes that occur in living organisms. It also allows students to see the real-world applications of chemistry and how it can be used to solve problems in the biological sciences.

Are there any ways to balance a bio-focused chemistry curriculum with other important areas of chemistry?

Yes, there are several ways to balance a bio-focused chemistry curriculum with other areas of chemistry. One approach is to incorporate interdisciplinary projects or assignments that require students to apply their knowledge of chemistry to solve problems in other fields. Another approach is to offer elective courses in specific areas of chemistry, allowing students to delve deeper into topics outside of the bio-focused curriculum.

How can teachers ensure that a bio-focused chemistry curriculum is still rigorous and comprehensive?

Teachers can ensure that a bio-focused chemistry curriculum is still rigorous and comprehensive by regularly assessing student understanding and adjusting the curriculum accordingly. This could involve incorporating challenging assignments or lab experiments that require students to apply their knowledge in new and complex ways. Additionally, teachers can collaborate with other chemistry educators to share resources and ideas for incorporating a variety of topics and applications into the curriculum.

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