J. High School Res. XXXX, vol. X, issue X 1 Introduction to Writing in Science. Scientific writing, though formulaic, can be dynamic and enjoyable. Many scientists develop an individual voice that differentiates them from the basic constructs taught in high school and undergraduate laboratory classes. If we focus on less lofty goals, the best way to create a good research paper is to focus on telling a good story. Good is, of course, subjective and here we are not referring to quality of research (though that does help). Telling a good story refers to the act of conveying your research. Focus on providing an account with a gripping beginning, insightful middle, and solid tractable ending. It is important to remember that scientists primarily read because of the science’s inherent interest or importance to their own research and edification. Below you’ll find a template to aid you in writing an acceptable scientific paper, but remember that your vocabulary, tone, pacing, and sentence structure can drastically affect a scientist’s experience reading about your work. (A small note of caution: some divergence from standard conventions is accepted, but if your paper is difficult to read because of style, you will be doing a disservice to your hard work.) Do not alter the fonts and sizes of the specific sections, but rather type over the relevant instructions to incorporate your own material. Other References: Day, R. A. How to Write and Publish a Scientific Paper, 5th ed.; Greenwood Publishing Group, Inc.: 1998. Coghill, A. M.; Garson, L. R. The ACS Style Guide: Effective Communication of Scientific Information, 3rd ed.; American Chemical Society: 2006, pp. 291-319. Boice, R. Advice for New Faculty Members; Allyn & Bacon: Needham Heights, 2000; pp. 103-202. Template version 20090630 © 2009 FWF and KAS, UTA J. High School Res. XXXX, vol. X, issue X 2 Title: “Influential Titles: Short, Specific, and Jargon Free Descriptions of Research Inside” Authors, Arthur B;† Listed, Cordelia D.; Here, Edward F. (who did what? The writing author is usually first and the Primary Investigator (responsible for main oversight of work at the University and corresponding author (*)) last. Sometimes the PI is listed first and the author is listed second, however, names after the author should be listed by contribution or alphabetically.) Location (Where was the work performed? Department of . . . , School, physical address including country. High school affiliations for high school students and instructors should be listed in the footnote. These authors should be indicated with the appropriate mark above in the author list (e.g. “†”) date submitted, accepted, published. (added by the journal, do not alter this text) Abstract: The abstract is a short summary of your paper’s story, with key details. If told well, it should hook the reader, who will want to learn more about your work. Your first sentence should address the motivation of your work (Introduce your topic. State the problem or “gap” in your field and why it is important). Next, state the methods used to investigate the problem (What did you do to get potentially useful data?). Now, tell the reader what you found (Hard facts are best). Lastly, describe the implications of your investigation (How the data bridged the gap, or starts to address the problem stated in your first sentence). It has been suggested that abstracts are less than 250 words. This paragraph is 125 words, which is more than enough. Provide high school affiliation(s) here for the high school student (and teacher) that participated in the research. Provide name and contact information (mailing address and email) for corresponding author (typically, the Primary Investigator who oversaw the research) † Template version 20090630 © 2009 FWF and KAS, UTA J. High School Res. XXXX, vol. X, issue X Introduction: The Introduction is often thought of as the first section of a research paper. In fact, you should start writing this section as soon as possible. The purpose of the introduction is to give the reader all necessary information to understand the importance of your work. Therefore, the act of writing this section will help identify holes in your understanding of the research area. Here’s a good Introduction: layout for the Address the motivation of your paper. Clearly describe the area and reasons for performing the research discussed. Define any underlying reasons that may be connected to the main thrust of the project, but not obvious to an informed reader. Tell your audience what is already known about the research. Include helpful references and state other’s work as succinctly as possible. Including relevant work by others is good scholarship and helpful to those getting assimilated to your topic. Describe the methods employed to complete your research. If there are particular benefits to your methods, state them. Remember to include references for any work that greatly benefited your methods or describes them in detail. Finally, state the aim of your study in succinct terms, as well as the results from your study and their global impact. Describe any obvious conclusions or extrapolations from your work. Many people neglect to state their findings in the final paragraph of the introduction. 3 Though you will have time again to state the results in detail and make a strong case for your conclusions, it is very important not to keep people in the dark until the end. There is a lot of literature to read. Stating your results early is one convention in scientific writing that should not be overlooked. Experimental Methods: The Experimental Methods section describes the work you performed, not the results (see the following section). It should be written in the past tense and avoid the first person. Give the full details of what was done. Someone with basic knowledge of your field, but not necessarily your exact research, should be able to repeat the details of any experiment you describe. While writing this section, you may notice that you forgot to record specific conditions in your notebook, or discover the absence of necessary data to support your claims. Try hard not to leave any helpful info out, even if you have to perform an experiment one more time to get the information. You should begin to see a common theme - writing early helps direct your research and avoids leaving gaps in your knowledge or work. Begin this section by describing any general methods for brevity and clarity. State what materials were used, where you obtained them, and any special handling techniques that were employed (recrystallization, distillation, degassing, etc.) before use. Detail the special instrumentation (NMR, MS, IR, electrochemical cell, etc.) used to carry out specific experiments beyond normal conditions. While your reader does not need to know what type of thermometer you used, they will wonder what light source you used for a critical photolysis. Template version 20090630 © 2009 FWF and KAS, UTA J. High School Res. XXXX, vol. X, issue X The Experimental Methods Section should be written in chronological order, if possible. By chronological order, it is meant that you follow the flow of your paper’s figures, schemes, results, and discussion. Chronological description of when experiments were run is not necessary, as it will confuse the reader by disrupting the story and flow of your paper. Let us expand on “full details” from the first paragraph. You should provide the most cohesive description that will be useful to others trying to repeat your work. Not only is this useful for people trying to use your science, but a full description will give the reader no reason to doubt your work or methods. People are often careless with this section, thinking that it will not be read or repeated, but when other scientists are being critics of your work, they will turn to this section to see if you know what you are talking about. A flawless and coherent experimental description leaves little room for doubt, especially for an expert working close to your field. Results and Discussion Section: In this section you will be describing the results of your experiments. To do this you should utilize tables and graphs as needed. You must describe the data, but do not restate details that are better described in your tables/graphs. After an impassive description of the facts, it is your job to discuss the results and their implications. This section should show a logical progression of your story. If multiple experiments were performed and data shown, be sure to lay this out in a logical order. An experiment’s results may suggest the 4 importance or need of a second experiment, therefore order is crucial. The inclusion of tables and figures should be indicated at the end of a paragraph by inserting the words, “<Insert Table x here>” or “ <Insert Figure y here>”. Be sure to refer to and explain your Figures and Tables in the text of the manuscript. All figures (.tif format) and tables (.doc format or equivalent) should each be provided as a separate attachment with your submission. The filenames should be consistent with their placement in the text (e.g., “Figure1.tif” or “Table2.doc”). All figure captions should be provided sequentially in a separate document. Captions for tables (and any footnotes) can be included with the corresponding table in the attached document. Conclusion: The conclusion section may seem redundant after the lengthy discussion section. However, it is very important to summarize your discussion in terms of the gap you were attempting to fill. Rationally evaluate the findings of your work. Oftentimes, papers will describe future work, or work that is in progress, as a final statement. This gives the reader an idea of what is next and helps to couch the importance of the current work. Acknowledgements: This section is very important because people will look upon it in a vastly different manner. If you are thanking someone for their scientific input, it is important to not lay blame for any experiments or results. You should humbly thank these people. Other’s have suggested that you gain permission before thanking anyone from the individual themselves. (In peerTemplate version 20090630 © 2009 FWF and KAS, UTA J. High School Res. XXXX, vol. X, issue X 5 reviewed journals, a major mistake for this section is listing too many people/groups that are not clearly playing a role in the work of your paper.) However, it is common for high school summer program participants to thank parents and comment on their experiences with each other and their laboratories. In my own opinion, this makes the Reports entertaining and will aid your memory of the things you did here. So, go ahead and add whatever you like, as long as it is clean, concise, and nice! 4. Matloubian, M.; Lo, C. G.; Cinamon, G.; Lesneski, M. J.; Xu, Y.; Brinkmann, V.; Allende, M. L.; Proia, R. L.; Cyster, J. G. Nature 2004, 427, 355–360. 5. For a convenient review: Im, D.-S. Trends Pharmacol. Sci. 2003, 24, 2–4. References: Robson, R. In Comprehensive Supramolecular Chemistry; Atwood, J. L., Davies, J. E. D., MacNicol, D.D., Vögtle, F., Lehn, J.-M., Eds.; Pergamon: Oxford, 1997; Vol. 6, pp 733–755. Here we’ve included references from journals, books w/authors, volumes w/editors, and Internet sites. Please follow these formats. References should be incorporated throughout your manuscript and presented in sequential order. At the end of a statement that requires a citation, include the appropriate number as a superscript (e.g. 1 for a single reference, 2,3,8 for two or non-sequential references, or 2-6 for three or more sequential references). You can and should list references more than once if you repeat relevant material (remember, avoid excess repetition in your writing), or include other relevant material from a previously cited document, throughout your text. However, only assign one number to each reference/document (i.e., the reference list should not have any repeats) and use that same number throughout the text. Books: (W/out editor) Lehn, J.-M. Supramolecular Chemistry Concepts and Perspectives; VCH: Weinheim, 1995; pp 139–160. (W/ editor) Websites: University of Waterloo Library Home Page. http://www.lib.uwaterloo.ca/ (accessed April 15, 2003). Journals: 1. Lynch, K. R. Biochim. Biophys. Acta 2002, 1582, 70–71. 2. Hla, T. Pharmacol. Rev. 2003, 47, 401–407. 3. Watterson, K.; Sankala, H.; Milstien, S.; Spiegel, S. Prog. Lipid Res. 2003, 42, 344–357. Template version 20090630 © 2009 FWF and KAS, UTA J. High School Res. XXXX, vol. X, issue X 6 A (potentially useful) Writing Timeline: If you are carrying out research, you’ve probably amassed a small hovel of excellent books and primary sources from other scientists and laboratories. Perhaps one paper has helped your understanding of the field and another has guided your experiments with good precedent. Regardless, it is good to take notes in the margins of the first page and organize your records. You’ll include these papers as references as you begin writing. The moment the problem you are working to solve can be stated, begin writing the Introduction and Abstract. After some initial writing, take a break and think of the logical layout of your work during downtime in the lab. Try writing an outline with a bullet point for each paragraph you will write. As you perform experiments, begin to write your Experimental Methods section. (Some of my colleagues even type all of their experimental details and paste them into notebooks. Others find this hinders observational comments, as this would require keeping a laptop in the lab.) Make sure you have all details necessary for someone to repeat what you have done in the lab. Be sure to collect all necessary data that support your experiments. This will save you from frantic last minute data gathering, which is generally obtained only through repeating experiments. When data starts rolling in, you should start thinking about methods of presentation . . . tables and graphs . . . what trends and conclusions can be seen. This will help direct your next experiment. Ask, “What data should be shown? What information is needed?” Then fill in the holes in a logical order beginning with your next experiment. When you are ready to sit down to finally ‘write’, when your experiments are finished, you should now have a working Abstract, a rough Introduction, all but your most recent Experimental Methods, and (most importantly) no holes in raw, informative tables/graphs/photos/etc. With your data in hand, it is easiest to write first about the results and discussion. Throughout this process you’ll realize that you need to add peripheral information to the already established introduction, to provide the reader with a good background. Trivial information can be distracting to your story. This should be eliminated. When done with the Results and Discussion, give a good look at your Introduction and see if it leads the reader directly to your work in an informed manner. At this time, finish your Conclusion and Abstract. If you spend extra editorial time on any part of your report, be sure to work hardest on the flow of your Abstract, first and last paragraphs of your Introduction, and the main point of your Conclusion. Template version 20090630 © 2009 FWF and KAS, UTA J. High School Res. XXXX, vol. X, issue X 7 Comments on Plagiarism: Plagiarism - passing off other’s work as your own - is a serious offense. Do not do it. One incident of plagiarism can cost you a career. “How so?” you might ask. You can’t ask for a good recommendation from those who know. Your grades are affected drastically. Always present ideas obtained from other’s work in your own words and provide a reference to the resource where you obtained it. Template version 20090630 © 2009 FWF and KAS, UTA