Ryan Swenson
English 250
“Biochemistry Communicational Summary”
Biochemistry is the study of chemical reactions and processes in living organisms. When concerned with bettering one’s communicational skills through writing in biochemistry, it is important to master a few key practices that will further your understanding of the scientific method (For those of you who may not know what the scientific method is you can check out this website quick: http://dictionary.reference.com/browse/scientific+method ). There are three major categories of writing/communication in the field of biochemistry. The categories consist of procedural design, reports on data and evidence, and lastly the communicational skills that are necessary to extend one’s knowledge in specific fields of study. For this division of science it is of high importance to become familiar and comfortable with all three types in order to become a more capable and well-rounded biochemist.
Before a biochemist should begin experimenting, it is necessary to put together a proper step-by-step plan so that when it is time to gather information it will yield reliable, legitimate data. When reliable, legitimate information is brought up it refers to an individual’s results from an experiment of which were not open to a lot of bias or other types of error that would end up being no significant use to any person(s). Aside from that, if a biochemist is attempting to create a lab procedure there are specific components that will be applicable to the writing process that an individual can use to follow and create a successful end product. From lab to lab there will always be a general outline for creating procedures that has been noted.
The very first item that each and every scientist should include would be identifying and stating your problem. To begin experimenting in a lab, it is necessary to do this so that an individual does not waste time searching for results when an actual problem isn’t even identified. That would waste valuable lab time and in some instances money. This is not the only important reason for stating the problem. In addition to being a waste of time and money, establishing and clearly specifying the problem you are looking to solve helps any other scientist or person of interest clearly see what an individual is attempting to do. The sharing and scientist-to-scientist communication that would be involved will be discussed as we progress further in this paper.
Another component of the statement of the problem is including background information that is relevant to the topic that one would be studying. Even in beginning introductory biochemistry labs, the professors will include precise information for the topic of experimentation (“BBMB 102: Introduction to Biochemistry Lab Manual”). When deciding what to include for background information there are a few helpful questions that, if answered, can be useful when a biochemist is crafting a lab procedure. The first question to think about would be that if one was to read your work, would this individual be able to fully understand what is going on? Another question which is just a twist of the first would be to put yourself in the reader’s shoes. If you were reading this with no previous knowledge would the problem be clearly understood? Chances are that if you personally wouldn’t be able to then it would be appropriate to add more information on the subject. There is however a finite limit of background information that should be included. Often if a scientist were unsure if there was too much or not enough information, a fellow scientist/advisor/teacher could offer useful advice because they have been around the scientific method for a much longer period of time and from here it is now acceptable to move onto developing a more complex way to state the problem.
While your problem you chose is imperative when devising a procedure, making an educated guess or proposal based on prior evidence is one of the most pivotal pieces to this process. It is key that this is a complete statement can be testable so that there is a point to creating a lab (“Lab Report Template”). Also known as the hypothesis, it is going to be the main element that will be tested directly for the experiment. The information gathered and conclusions mentioned later all are based off of the hypothesis. To formulate a hypothesis, there is a basic and general formula that applies to just about every hypothesis tested. This format is called an “If-then” statement. An example would be if a scientist wanted to test if water and light will make a plant grow. The hypothesis would be “If water and light are given to a plant, then the plant will grow.” This can be tested by giving the plant water and light and then giving a plant neither water nor light, and then compared by growth. If one becomes readily able to make a hypothesis then comes a great skill that will be useful in every biochemistry class or experiment to come.
A biochemist uses many types of equipment for various labs and tests. When creating a lab procedure be sure to record what devices and other useful tools that were involved with the lab. Although it was not mentioned earlier, another requirement to have a successful lab is that it is easily replicated. Listing the materials then is important so another scientist could read the entire lab and be able to recreate it. In some instances, if the equipment is very complex to use, it would be very necessary to explain how to set-up and use the device. It provides more clarity for lab duplication. After the materials are listed comes writing out the plan to test for the hypothesis determined earlier.
The procedure itself is the last piece of the puzzle that contributes to the completeness of the lab procedure. The detailed order in which you perform the lab is the procedure. It contains information on how the hypothesis was tested and gives valuable insight to the reasons for the way the testing will be carried out (“Scientific Reports”). Bringing back an earlier discussion of background information where you ask yourself certain questions, it should be noted that for determining how in-depth to go with a specific step in the procedure it should be followed on the basis of if any person with no knowledge of the subject picked up the procedure they could perform it. That often requires a certain amount of lengthiness to make certain a flawless lab could be performed. For the younger biochemists, there is always some help from teachers or teaching assistants that provide excellent advice on how to design these ever so precisely. Also, there is always a lot of information online that can be utilized effectively. When all of this is done it concludes the lab procedure for said experiment.
Assuming the lab had a viable hypothesis and a well thought out procedure it is time to transition to another type of writing that biochemists encounter. After collecting the data from the experiment it is time to draw conclusions and communicate them effectively.
As a biochemist, composing the results is crucial to being a fitting scientist which comes when acquiring the ability to draw educated conclusions based on data is done with ease. The first aspect that should be identified before creating it is to target your audience so that when one is writing, the author can include helpful terms or definitions depending on who it is. This is also so the paper can be best communicated to the audience and then allows one to begin structuring the writing (“The Scientific Method: A model for conducting scientific research”). Drafting this concerns creating a report in accordance with the data obtained. Building this summary may not come naturally at first, but it is important to reiterate that great ability comes from immense practice. Practice comes with experience so as a biochemist it is a good ability to be optimistic whenever facing a challenge. For these summaries, it is a good idea to identify trends in the data that can be found by creating visual pieces such as data tables and graphs. If these visuals are created ever, always include them into a lab report for the emphasis of clarity. An immense amount of emphasis should also be placed on including whether or not the hypothesis was correct. As the whole point of the experiment is to test it, it should be easily understood as to why this may be important. For a good report just remember to include what you expected, what you found, and how to improve the lab for the next time if something wasn’t what should be expected. Having these three parts along with the other information described earlier will be detrimental to the successfulness of creating a good lab report. Lastly comes the last analysis of how biochemists communicate, through a more informal way.
Collaboration is comparing and sharing information. This is a very intriguing way of communication, and the cooperation between scientists has led to some of the great discoveries that science boasts to this day. A very famous example would be how Watson and Crick were able to create the ball-and-stick display of DNA to show its double helix structure. They however collaborated and shared the data that Rosalind Franklin discovered which indicated the type of shape that it may occur in using x-ray diffraction. The discovery of the shape of DNA would result in the Nobel Prize being handed out to Watson and Crick (Brooker, Graham, and Stiling 222-224). From these findings to so many more in the science world, it is amazing how this type of communication serves to be such an important type of communication. From the time that a potential biochemist enter college, it is already time to stress the importance of this skill. Information however should not be copied or plagiarized from another source. In no areas of discipline is cheating ever tolerable so be wise when demonstrating collaboration. Always furthering your communication skills is going to strengthen and better a person to be as well-rounded a scientist as possible.
Whether setting up experiments or analyzing data, following along with this paper can provide valuable techniques and hints to become a triumphant communicator in the biochemistry field of study. If these become well thought out and mastered than all three major types of communication can be utilized to the scientist’s advantage for the rest of the scientific path laid out before an individual.
Works Cited:
"Lab Report Template." Lab Report Template. N.p., n.d. Web. 11 Mar. 2014
"Design Research: The Scientific Method." Design Research: The Scientific Method. 12 Mar. 2014 <http://depts.washington.edu/rural/RURAL/design/scimethod.html#communicating>.
“Biology: for Bio 211 and 212”. Iowa State University. Brooker, Robert; Graham, Linda; Stiling, Peter; Widmaier. Copyright 2011 The McGraw-Hill Companies.
"College of Arts and Sciences." The Writing Center Scientific Reports Comments. 11 Mar. 2014 <https://writingcenter.unc.edu/handouts/scientific-reports/>.
“BBMB 102: Introduction to Biochemistry”. Spring 2014. N.p., n.d
-The audience for this paper is biochemists of all type and more specifically incoming potential biochemists
(Also, the blog won't let me indent so i just hit the space bar to make it look nice, sorry).