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Curseroad by Andi Q. '25

MIT class roadmaps that shouldn’t exist but theoretically could

Choosing classes at MIT is like filling up a skill tree in a video game. Each class taken unlocks branches of other exciting classes, and there are always tons of great options to choose from. But sometimes, there are too many great options; with over 300 classes in Course 601 Electrical Engineering and Computer Science alone, it can be a bit overwhelming trying to construct a roadmap of interesting and highly-rated classes while still hitting all the requirements.

That’s why we have CourseRoad – a website for planning what classes to take at MIT! CourseRoad is an invaluable tool for MIT students – it has information about the requirements for each major, when classes are offered, and even the average number of hours for each class (based on course evaluations).

It’s also a really fun video game! … kind of. While it’s not explicitly designed as such, I like to use CourseRoad as a quasi-MIT simulator where I test the limits of how one can graduate from MIT. Perfect for answering questions like:

  • Is it possible to graduate without ever writing a final exam? (Yes)
  • Is it possible to have a 48-unit schedule02 The average course load at MIT that averages over 100 hours per week? (Yes – by taking 2.00903 The Product Engineering Process , 4.15304 Architecture Design Studio Core III , and 6.222005 Power Electronics Laboratory together)
  • Will I graduate? (Yes… hopefully)

Most of the resulting roadmaps are rather… questionable, to say the least. Many of them probably wouldn’t work in real life. But nevertheless, it’s amazing to see all the different ways you could theoretically graduate from MIT.

Theoretically.06 Please don't attempt these roadmaps at home. Except for the last one maybe – that one is fine.

The rules of the game

CourseRoad doesn’t really impose any restrictions on your planned roadmap. Want to schedule 200 classes in your sophomore fall so you can graduate in three semesters with every major? Sure thing – CourseRoad has no objections to that.

So, to keep it somewhat realistic (and more challenging), here are some rules I try to impose on myself when creating cursed roadmaps:

  • Only include advanced standing exams (ASEs) when absolutely necessary. ASEs are basically a way to test out of some classes like general institute requirements (GIRs). Most people don’t learn college-level differential equations or quantum mechanics in high school, so I try not to include any ASEs if possible. (But when I do include them, I include all of them.)
  • Cap the number of units per semester at 54. Most classes at MIT are 12 units, so this cap corresponds to four and a half classes per semester, which is (usually) a reasonable workload.
  • Satisfy all prerequisites for each taken class. To keep the progression of classes more realistic.

Other than these few restrictions, everything else is fair game. I count majors as “complete” when CourseRoad marks them as such; although this is an oversimplification (because of rules around double counting classes and such), it’s good enough for my purposes.

Without further ado, here are five cursed roadmaps I’ve created this year.

Course 6n’t

For better or worse, my own MIT degree audit is the inspiration behind this first roadmap. The old07 Before the 2022 curriculum transition 6-2 (Electrical Engineering and Computer Science) major is known for being super flexible because of the breadth of disciplines that EECS encompasses. For example, you could major in 6-2 and graduate without taking any circuits-related classes.

But just how flexible is it? What’s the minimum number of Course 608 Electrical Engineering and Computer Science classes you’d need to take to major in 6-2 and get an MEng?

According to CourseRoad, six09 Four if you don’t count the two MEng thesis subjects as real classes (out of 35 total classes)!

Semester Classes Total Units Hours Per Week
Freshman Fall 18.0110 Single-variable Calculus , 3.09111 Intro to Solid-state Chemistry , 8.0112 Classical Mechanics , 14.7313 The Challenge of World Poverty , 6.100A14 Intro to Python 54 49.3
Freshman Spring 18.0215 Multivariable Calculus , 7.01316 Introductory Biology , 8.0217 Electricity and Magnetism , 21L.01918 Intro to European and Latin-American Fiction 48 37.0
Sophomore Fall 18.0319 Differential Equations , 18.0620 Linear Algebra , 18.06221 Mathematics for Computer Science , 21M.05122 Fundamentals of Music 48 37.0
Sophomore Spring 3.15523 Micro/Nano Processing Technology , 2.S00724 Design and Manufacturing I , 6.121025 Intro to Algorithms , 21M.30126 Harmony and Counterpoint I 48 47.6
Junior Fall 18.60027 Probability and Random Variables , 6.200028 Circuits and Electronics , 6.380029 Intro to Inference , 21M.38530 Interactive Music Systems 48 41.9
Junior Spring 18.40031 Computability and Complexity Theory , 18.41032 Design and Analysis of Algorithms , 20.37033 Cellular Neurophysiology and Computing , 14.1534 Networks 48 42.5
Senior Fall 20.30535 Principles of Synthetic Biology , 3.09636 Architectural Ironwork , 15.09337 Optimization Methods , 18.43538 Quantum Computation 45 37.9
Senior Spring 20.12939 Biological Circuit Engineering , 3.09540 Intro to Metalsmithing , 6.THM41 MEng Thesis 21 24.9
Fifth Year Fall 16.3742 Data-Communication Networks , 3.4343 Integrated Microelectronic Devices , 6.THM44 MEng Thesis 24 26.5

(The Course 6 classes are highlighted in bold.)

Wait, how is this even possible? And what’s with all the biology/math classes? A few things are going on that make this roadmap possible:

  • I exploit the fact that some math classes like 18.0345 Differential Equations , 18.0646 Linear Algebra (both from Course 1847 Mathematics ) count toward majors across multiple departments. After all, most things in engineering are just mathematics under the hood.
  • Also, the way I counted classes is a bit misleading. Most of the remaining classes I’ve included are “joint subjects” between departments, where a single class is offered under two different numbers. So something like Micro/Nano Processing Technology would be both 3.155 in Course 348 Materials Science and Engineering and 6.2600 in Course 649 Electrical Engineering and Computer Science .

To be clear, I don’t think this degree of flexibility is necessarily bad, even if it can lead to questionable roadmaps like this one. If anything, it shows just how applicable EECS is to everything.

I am speed

How long does it take to graduate from MIT? Usually, people take four years; some manage to do it in three. CourseRoad says it’s doable in a year and a half if you major in 8-FLEX (Physics, Flexible Track):

Semester Classes Total Units Hours Per Week
Prior Credit All the ASEs 150 N/A
Freshman Fall 8.0550 Quantum Physics II , 6.101051 Fundamentals of Programming , 6.300052 Signal Processing , 21M.05153 Fundamentals of Music , 21M.42654 MIT Wind Ensemble 54 49.5
Freshman IAP 8.22355 Classical Mechanics II , 21M.15156 Introductory Music Theory 12 22.5
Freshman Spring 8.04457 Statistical Physics I , 8.0658 Quantum Physics III , STS.04259 Physics in the 20th Century , 21M.01160 Intro to Western Music , 21M.42661 MIT Wind Ensemble 54 48.6
Sophomore Fall 8.23162 Physics of Solids , 6.302063 Fundamentals of Music Processing , 14.7364 The Challenge of World Poverty , 21M.30165 Harmony and Counterpoint I , 21M.42666 MIT Wind Ensemble 54 42.2

I had to go to pretty extreme lengths to make this roadmap possible:

  • I included all thirteen available ASEs because the list included three required classes ( 18.0367 Differential Equations , 8.0368 Wave Mechanics , and 8.0469 Quantum Physics I ).
  • I double counted a lot of requirements. 8-FLEX requires a three-subject concentration that I satisfied using music technology classes, which also count toward the general institute requirements (GIRs).
  • Not all classes in this roadmap are offered regularly. For example, STS.04270 Physics in the 20th Century is only offered once every two years.

But despite (or rather, because of) these aggressive optimizations, following this roadmap won’t actually allow you to graduate in a year and a half. Although CourseRoad is pretty thorough, it leaves out a few important details of MIT’s graduation requirements:

  • You need at least 180 units beyond GIRs to graduate, but this roadmap only has 108 units beyond GIRs. (It’s hard to accrue so many units from only three semesters at MIT… although I suppose you could theoretically use humanities/arts/social sciences (HASS) transfer credit to compensate for that.)
  • You can only count three HASS subjects from your primary major toward the GIRs, but this roadmap uses four.

Nevertheless, I was surprised that I could cram so much stuff into just three semesters.

18-wheeler truck

At MIT, most classes count for 12 units of academic credit, with each unit corresponding roughly to one hour of work per week. A few classes count for 18 (or more) units, but those are usually advanced elective subjects that demand well over 18 hours of work per week.

Because of the intimidating nature of such classes, Course 871 Physics and Course 472 Architecture are rather infamous for not only offering but requiring 18- and 24-unit classes for their majors respectively. Course 8 has 8.13 and 8.1473 Experimental Physics I and II (more colloquially known as JLAb) , while Course 4 has 4.023, 4.024, and 4.02574 Architecture Design Studio I, II, and III , with 4.025 averaging 43.5 hours per week. (Although I must say that these classes sound much scarier than they actually are – all the Course 4s I’ve spoken to seem to enjoy the Architecture Design Studio classes.)

With that, here’s a roadmap of a double major in 8 (Physics, Focused Track) and 4 (Architecture) that takes all five of those classes!

Semester Classes Total Units Hours Per Week
Freshman Fall 18.0175 Single-Variable Calculus , 8.0176 Classical Mechanics , 5.11177 General Chemistry , 4.05378 Visual Communication Fundamentals , 21M.52679 MIT Wind Ensemble 54 50.0
Freshman IAP 4.02A80 Design Studio: How to Design 9 33.3
Freshman Spring 18.0281 Multivariable Calculus , 8.0282 Electricity and Magnetism , 7.01383 Introductory Biology , 4.60584 A Global History of Architecture , 21M.42685 MIT Wind Ensemble 54 50.2
Sophomore Fall 18.0386 Differential Equations , 4.40187 Environmental Technologies in Buildings , 4.50088 Design Computation: Art, Objects, and Space , 8.0389 Wave Mechanics , 21M.42690 MIT Wind Ensemble 54 50.2
Sophomore IAP 8.22391 Classical Mechanics II , 18.09592 Mathematics Lecture Series 12 26.8
Sophomore Spring 4.02293 Design Studio: Intro to Design Techniques and Technologies , 4.30294 Foundations in Art, Design, and Spatial Practices , 8.04495 Statistical Physics I , 24.90096 Intro to Linguistics , 21M.42697 MIT Wind Ensemble 54 51.8
Junior Fall 4.02398 Architecture Design Studio I , 8.03399 Relativity , 4.603100 Understanding Modern Architecture 48 53.3
Junior Spring 4.024101 Architecture Design Studio II , 4.440102 Intro to Structural Design , 8.04103 Quantum Physics I 48 52.9
Senior Fall 4.025104 Architecture Design Studio III , 8.13105 Experimental Physics I , 8.05106 Quantum Physics II 54 77.1(!)
Senior IAP 8.08107 Statistical Physics II 12 9.3
Senior Spring 8.14108 Experimental Physics II , 8.06109 Quantum Physics III , STS.042110 Physics in the 20th Century , 8.THU111 Undergraduate Thesis , 4.501112 Tiny Fab: Advancements in Rapid Design and Fabrication of Small Homes 54 50.0

(The 18+ unit classes are highlighted in bold.)

This roadmap was one of the most challenging to make because of the credit limit I imposed on myself. It’s probably one of the most painful to follow in real life too – just look at the average number of hours per week in senior fall! But unlike the previous roadmap, this one will actually work in real life. Although there are definitely less painful ways to double major in 8 and 4.

(When I was making this roadmap, I also discovered a 42-unit IAP class about supply chain management! I’m still not quite sure how that class even exists though, since the credit limit over IAP is 12 units.)

69420

With numbers being front and center in MIT academics, students joke about wanting their transcripts/degrees to say “69420” somewhere. Although there’s no class numbered 6.9420 (huge missed opportunity on Course 6’s end), it is possible to major in 6-9 (Computation and Cognition) and minor in 4-B (Design) and 20 (Biological Engineering).

Let’s take that idea a step further – this next roadmap is a triple major in those three fields.

Semester Classes Total Units Hours Per Week
Prior Credit All the ASEs 150 N/A
Freshman Fall 9.01113 Intro to Neuroscience , 7.03114 Genetics , 20.110115 Thermodynamics of Biomolecular Systems , 4.500116 Design Computation: Art, Objects, and Space , 6.100B117 Intro to Data Science 54 49.7
Freshman IAP 4.02A118 Design Studio: How to Design 9 33.3
Freshman Spring 4.022119 Design Studio: Intro to Design Techniques and Technologies , 4.301120 Intro to Artistic Experimentation , 6.1010121 Fundamentals of Programming , 6.2000122 Circuits and Electronics 48 47.9
Sophomore Fall 9.07123 Stats for Brain and Cognitive Sciences , 6.3900124 Intro to Machine Learning , 20.309125 Instrumentation and Measurement for Biological Systems , 24.900126 Intro to Linguistics 48 43.3
Sophomore Spring 9.40127 Intro to Neural Computation , 6.3000128 Signal Processing , 20.129129 Biological Circuit Engineering , 4.110130 Design Across Scales and Disciplines 48 45.6
Junior Fall 5.07131 Biochemistry , 21G.063132 Anime , 4.031133 Design Studio: Objects and Interaction , 4.502134 Advanced Visualization: Architecture in Motion Graphics 48 45.4
Junior Spring 9.53135 Emergent Computations Within Distributed Neural Circuits , 20.330136 Fields, Forces, and Flows in Biological Systems , 7.06137 Cell Biology , 4.657138 Design: The History of Making Things 48 33.4
Senior Fall 20.320139 Analysis of Biomolecular and Cellular Systems , 11.THT140 Thesis Preparation , 4.053141 Visual Communication Fundamentals , 6.UAR142 Advanced Undergraduate Research 42 42.2
Senior Spring 20.380143 Biological Engineering Design , 4.THU144 Undergrad Thesis , 4.302145 Foundations in Art, Design, and Spatial Practices , 6.UAR146 Advanced Undergraduate Research 30 28.0

Like the MIT speedrun, I had to include all the ASEs and double count a bunch of biology classes to pull this off. But MIT doesn’t allow triple majoring anymore, so this roadmap wouldn’t work in real life anyway.

Fun fact: It’s also possible to construct a quadruple major roadmap using four biology-related majors, but the proof is left as an exercise to the reader.

Bad chemistry

This last roadmap is arguably the most cursed one of them all – a 5 (Chemistry) major with a 3-C (Archaeology) minor:

Semester Classes Total Units Hours Per Week
Freshman Fall 5.111147 General Chemistry , 18.01148 Single-variable Calculus , 8.01149 Classical Mechanics , 3.096150 Architectural Ironwork 45 41.6
Freshman Spring 5.12151 Organic Chemistry I , 18.02152 Multivariable Calculus , 3.094153 Materials in Human Experience , 18.03154 Differential Equations 45 39.8
Sophomore Fall 5.07155 Biochemistry , 5.13156 Organic Chemistry II , 5.351157 Fundamentals of Spectroscopy , 5.352158 Synthesis of Coordination Compounds and Kinetics , 5.363159 Organic Structure Determination , 3.098160 Ancient Engineering: Ceramic Technologies 49 69.3
Sophomore Spring 5.03161 Inorganic Chemistry I , 5.601162 Themodynamics I , 5.602163 Thermodynamics II and Kinetics , 5.361164 Recombinant DNA Technology , 5.362165 Cancer Drug Efficacy , 5.371166 Continuous Flow Chemistry , 3.095167 Intro to Metalsmithing 46 53.8
Junior Fall 5.611168 Introduction to Spectroscopy , 5.612169 Electronic Structure of Molecules , 5.353170 Macromolecular Prodrugs , 5.372171 Chemistry of Renewable Energy , 5.373172 Dinitrogen Cleavage 48 50.7
Junior Spring 5.381173 Quantum Dots , 5.382174 Time and Frequency Resolved Spectroscopy of Photosynthesis , 5.383175 Fast Flow Peptide and Protein Synthesis , 3.985176 Archaeological Science , 12.384177 Living Dangerously , 3.020178 Thermodynamics of Materials 46 53.5
Senior Fall 5.04179 Inorganic Chemistry II , 21A.00180 Intro to Anthropology , 3.030181 Microstructural Evolution of Materials , 8.02182 Electricity and Magnetism 48 38.4
Senior Spring 5.62183 Physical Chemistry , 3.990184 Seminar in Archaeological Method and Theory , 3.987185 Human Evolution , 7.013186 Introductory Biology 45 35.6

So what exactly is cursed about this roadmap? At first glance, it looks like a pretty regular set of classes to take for a chemistry degree.

Well, remember how I said that most classes at MIT count for 12 units? The more general pattern is that the number of units for a class is a multiple of 3, and this holds true for pretty much every class at MIT. But in true chemistry fashion, almost every exception to that rule lies in Course 5187 Chemistry .

Take a look at the sophomore spring of this roadmap. Seven classes are scheduled for that semester (already somewhat unusual), but they add up to… 46 units? It’s because 5.361188 Recombinant DNA Technology , 5.362189 Cancer Drug Efficacy , and 5.371190 Continuous Flow Chemistry are worth 4, 5, and 4 units respectively. And this weird credit allocation happens 9 more times throughout the rest of the roadmap.

Truly an abomination against nature.


Anyway, I should probably get back to studying for finals and stuff instead of procrastinating on CourseRoad. So see you all next semester!

A really disgusting looking schedule

This is definitely my schedule next semester for real. I’d even have lunch breaks on Monday and Wednesday!

  1. Electrical Engineering and Computer Science back to text
  2. The average course load at MIT back to text
  3. The Product Engineering Process back to text
  4. Architecture Design Studio Core III back to text
  5. Power Electronics Laboratory back to text
  6. Please don't attempt these roadmaps at home. Except for the last one maybe – that one is fine. back to text
  7. Before the 2022 curriculum transition back to text
  8. Electrical Engineering and Computer Science back to text
  9. Four if you don’t count the two MEng thesis subjects as real classes back to text
  10. Single-variable Calculus back to text
  11. Intro to Solid-state Chemistry back to text
  12. Classical Mechanics back to text
  13. The Challenge of World Poverty back to text
  14. Intro to Python back to text
  15. Multivariable Calculus back to text
  16. Introductory Biology back to text
  17. Electricity and Magnetism back to text
  18. Intro to European and Latin-American Fiction back to text
  19. Differential Equations back to text
  20. Linear Algebra back to text
  21. Mathematics for Computer Science back to text
  22. Fundamentals of Music back to text
  23. Micro/Nano Processing Technology back to text
  24. Design and Manufacturing I back to text
  25. Intro to Algorithms back to text
  26. Harmony and Counterpoint I back to text
  27. Probability and Random Variables back to text
  28. Circuits and Electronics back to text
  29. Intro to Inference back to text
  30. Interactive Music Systems back to text
  31. Computability and Complexity Theory back to text
  32. Design and Analysis of Algorithms back to text
  33. Cellular Neurophysiology and Computing back to text
  34. Networks back to text
  35. Principles of Synthetic Biology back to text
  36. Architectural Ironwork back to text
  37. Optimization Methods back to text
  38. Quantum Computation back to text
  39. Biological Circuit Engineering back to text
  40. Intro to Metalsmithing back to text
  41. MEng Thesis back to text
  42. Data-Communication Networks back to text
  43. Integrated Microelectronic Devices back to text
  44. MEng Thesis back to text
  45. Differential Equations back to text
  46. Linear Algebra back to text
  47. Mathematics back to text
  48. Materials Science and Engineering back to text
  49. Electrical Engineering and Computer Science back to text
  50. Quantum Physics II back to text
  51. Fundamentals of Programming back to text
  52. Signal Processing back to text
  53. Fundamentals of Music back to text
  54. MIT Wind Ensemble back to text
  55. Classical Mechanics II back to text
  56. Introductory Music Theory back to text
  57. Statistical Physics I back to text
  58. Quantum Physics III back to text
  59. Physics in the 20th Century back to text
  60. Intro to Western Music back to text
  61. MIT Wind Ensemble back to text
  62. Physics of Solids back to text
  63. Fundamentals of Music Processing back to text
  64. The Challenge of World Poverty back to text
  65. Harmony and Counterpoint I back to text
  66. MIT Wind Ensemble back to text
  67. Differential Equations back to text
  68. Wave Mechanics back to text
  69. Quantum Physics I back to text
  70. Physics in the 20th Century back to text
  71. Physics back to text
  72. Architecture back to text
  73. Experimental Physics I and II (more colloquially known as JLAb) back to text
  74. Architecture Design Studio I, II, and III back to text
  75. Single-Variable Calculus back to text
  76. Classical Mechanics back to text
  77. General Chemistry back to text
  78. Visual Communication Fundamentals back to text
  79. MIT Wind Ensemble back to text
  80. Design Studio: How to Design back to text
  81. Multivariable Calculus back to text
  82. Electricity and Magnetism back to text
  83. Introductory Biology back to text
  84. A Global History of Architecture back to text
  85. MIT Wind Ensemble back to text
  86. Differential Equations back to text
  87. Environmental Technologies in Buildings back to text
  88. Design Computation: Art, Objects, and Space back to text
  89. Wave Mechanics back to text
  90. MIT Wind Ensemble back to text
  91. Classical Mechanics II back to text
  92. Mathematics Lecture Series back to text
  93. Design Studio: Intro to Design Techniques and Technologies back to text
  94. Foundations in Art, Design, and Spatial Practices back to text
  95. Statistical Physics I back to text
  96. Intro to Linguistics back to text
  97. MIT Wind Ensemble back to text
  98. Architecture Design Studio I back to text
  99. Relativity back to text
  100. Understanding Modern Architecture back to text
  101. Architecture Design Studio II back to text
  102. Intro to Structural Design back to text
  103. Quantum Physics I back to text
  104. Architecture Design Studio III back to text
  105. Experimental Physics I back to text
  106. Quantum Physics II back to text
  107. Statistical Physics II back to text
  108. Experimental Physics II back to text
  109. Quantum Physics III back to text
  110. Physics in the 20th Century back to text
  111. Undergraduate Thesis back to text
  112. Tiny Fab: Advancements in Rapid Design and Fabrication of Small Homes back to text
  113. Intro to Neuroscience back to text
  114. Genetics back to text
  115. Thermodynamics of Biomolecular Systems back to text
  116. Design Computation: Art, Objects, and Space back to text
  117. Intro to Data Science back to text
  118. Design Studio: How to Design back to text
  119. Design Studio: Intro to Design Techniques and Technologies back to text
  120. Intro to Artistic Experimentation back to text
  121. Fundamentals of Programming back to text
  122. Circuits and Electronics back to text
  123. Stats for Brain and Cognitive Sciences back to text
  124. Intro to Machine Learning back to text
  125. Instrumentation and Measurement for Biological Systems back to text
  126. Intro to Linguistics back to text
  127. Intro to Neural Computation back to text
  128. Signal Processing back to text
  129. Biological Circuit Engineering back to text
  130. Design Across Scales and Disciplines back to text
  131. Biochemistry back to text
  132. Anime back to text
  133. Design Studio: Objects and Interaction back to text
  134. Advanced Visualization: Architecture in Motion Graphics back to text
  135. Emergent Computations Within Distributed Neural Circuits back to text
  136. Fields, Forces, and Flows in Biological Systems back to text
  137. Cell Biology back to text
  138. Design: The History of Making Things back to text
  139. Analysis of Biomolecular and Cellular Systems back to text
  140. Thesis Preparation back to text
  141. Visual Communication Fundamentals back to text
  142. Advanced Undergraduate Research back to text
  143. Biological Engineering Design back to text
  144. Undergrad Thesis back to text
  145. Foundations in Art, Design, and Spatial Practices back to text
  146. Advanced Undergraduate Research back to text
  147. General Chemistry back to text
  148. Single-variable Calculus back to text
  149. Classical Mechanics back to text
  150. Architectural Ironwork back to text
  151. Organic Chemistry I back to text
  152. Multivariable Calculus back to text
  153. Materials in Human Experience back to text
  154. Differential Equations back to text
  155. Biochemistry back to text
  156. Organic Chemistry II back to text
  157. Fundamentals of Spectroscopy back to text
  158. Synthesis of Coordination Compounds and Kinetics back to text
  159. Organic Structure Determination back to text
  160. Ancient Engineering: Ceramic Technologies back to text
  161. Inorganic Chemistry I back to text
  162. Themodynamics I back to text
  163. Thermodynamics II and Kinetics back to text
  164. Recombinant DNA Technology back to text
  165. Cancer Drug Efficacy back to text
  166. Continuous Flow Chemistry back to text
  167. Intro to Metalsmithing back to text
  168. Introduction to Spectroscopy back to text
  169. Electronic Structure of Molecules back to text
  170. Macromolecular Prodrugs back to text
  171. Chemistry of Renewable Energy back to text
  172. Dinitrogen Cleavage back to text
  173. Quantum Dots back to text
  174. Time and Frequency Resolved Spectroscopy of Photosynthesis back to text
  175. Fast Flow Peptide and Protein Synthesis back to text
  176. Archaeological Science back to text
  177. Living Dangerously back to text
  178. Thermodynamics of Materials back to text
  179. Inorganic Chemistry II back to text
  180. Intro to Anthropology back to text
  181. Microstructural Evolution of Materials back to text
  182. Electricity and Magnetism back to text
  183. Physical Chemistry back to text
  184. Seminar in Archaeological Method and Theory back to text
  185. Human Evolution back to text
  186. Introductory Biology back to text
  187. Chemistry back to text
  188. Recombinant DNA Technology back to text
  189. Cancer Drug Efficacy back to text
  190. Continuous Flow Chemistry back to text