Should you have any trouble or questions with this assignment, feel free to contact me at sristic[at]seas[dot]upenn[dot]edu. Be sure to start the subject line with “BOOTS:” {: .center .large}# Instructions

You must complete all of these steps to receive credit.

1. Download the AT1 template

2. Rename the file <firstname>_<lastname>_AT1.tex, filling in <firstname> and <lastname> with your first and last names, respectively.

3. Fill in the sections marked TODO as directed in the assignment.

4. Ask at least three questions about LaTeX, this assignment, or feedback in general (filling in the sections marked TODO).

5. Submit both your source file, <firstname>_<lastname>_AT1.tex, and the compiled pdf <firstname>_<lastname>_AT1.pdf to this google form by 2019-09-27 end of day.

Help

• To set up $\mathrm{\LaTeX}$, see AT0.
• For more help with $\mathrm{\LaTeX}$, here is the $\mathrm{\LaTeX}$ Resources Page.
• If you’re still having trouble, feel free to contact me at sristic[at]seas[dot]upenn[dot]edu. Be sure to start the subject line with “BOOTS:”

Assignment

Complete all points to the best of your ability. If you get stuck and have tried everything you can think of to get unstuck, explain your thinking, demonstrate effort and time.

See instructions for logistics for completing and submitting the assignment.

1. Recreate the Following Formula in $\mathrm{\LaTeX}$ in a display math environment (\begin{align*} <insert here> \end{align*}):

   $$\renewcommand{\dif}{\mathop{}\!\mathrm{d}} \newcommand{\pd}[3][]{\frac{\partial^{#1} {#2}}{\partial {#3}^{#1}}} \newcommand{\dpd}[3][]{\dfrac{\partial^{#1} {#2}}{\partial {#3}^{#1}}} \newcommand{\od}[3][]{\dfrac{\dif^{#1} {#2}}{\dif {#3}^{#1}}} \newcommand{\dod}[3][]{\dfrac{\dif^{#1} {#2}}{\dif {#3}^{#1}}} \begin{align*} \pi &= \dod{}{x} \int_0^x \left. \left( \lim_{n \rightarrow \infty} \sum_{k = 1}^n \frac{2x^{2k + 1}(2k)!}{4^k(k!)^2(2k+1)} \right) \dif x \right\vert_{\ \; \! x = 1} \\ &= -i \ln (-1) \end{align*}$$

   Useful commands: \pi, \frac{}{}, \mathrm{d}, \int_{}^{}, \sum_{}^{}, \left., \left(, \right), \right|, \lim_{}, \to, \infty, ^{}, _{}, and \ln.

2. Recreate the Following Formula in $\mathrm{\LaTeX}$ in a display math environment (\begin{align*} <insert here> \end{align*}):

   $$\renewcommand{\dif}{\mathop{}\!\mathrm{d}} \newcommand{\pd}[3][]{\frac{\partial^{#1} {#2}}{\partial {#3}^{#1}}} \newcommand{\dpd}[3][]{\dfrac{\partial^{#1} {#2}}{\partial {#3}^{#1}}} \newcommand{\od}[3][]{\dfrac{\dif^{#1} {#2}}{\dif {#3}^{#1}}} \newcommand{\dod}[3][]{\dfrac{\dif^{#1} {#2}}{\dif {#3}^{#1}}} \newcommand{\lnf}[2]{\ln \left( \dfrac{#1}{#2} \right) } \renewcommand{\o}{^\ominus} \begin{align*} \Delta H\o_{\mathrm{FeO}, s\rightarrow l} \left( 1 - \dfrac{T}{T_{\mathrm{FeO}, s\rightarrow l}} \right) &= RT \lnf{\chi_{\mathrm{FeO}_{(s)}}}{\chi_{\mathrm{FeO}_{(l)}}} \\ \therefore \Delta H\o_{\mathrm{FeO}, s\rightarrow l} &= 31 \, 034 \ \mathrm{\tfrac{J}{mol}} \end{align*}$$

   Useful commands: \Delta, \ominus, \mathrm{}, \therefore, \chi, \,, and \tfrac{}{}.