Biotechnology Summery

Introduction

The executive summary is a document used in government and business and summarizes extended reports.  Top-level executives and leaders use these documents to inform their decisions.   Learning how to concisely distill large quantities of information to leadership's pragmatic needs is helpful and often a job requirement.  Many organizations have specified formats that fit their organizational needs, but the guidelines you will be using apply. 

The rubric provided below uses the following criteria:

Statement of Purpose: Audience and Significance

Purpose of Communication: Who, What, Why, When, Where, and How? 

Summary of the Results: What this means.

1. Conclusions: Why this matters. 
2. Call to action: What needs to happen now that this information is known?
3. Format: Use APA forma.   
4. Objective:
5. Summarize the recent advances in DNA structure, the genes, chromosome structure, transcription, translation, regulation of gene expression, mutation, epigenome, and immune response mechanisms.  [Aligns with C1, C2]
6. Analyze the rationale for the application of standard laboratory methods in biotechnology applications. [Aligns with C6]

Outline for Module 3 Executive Summary: The topic for this module is genes and genomes.

1. Statement of purpose: Summarize the biotechnology techniques discussed in Module 3  to answer the questions: Who are the experts in these fields? Is this your audience?
2. Purpose of communication: Who, What, Why, When, Where, and How?
3. Discuss the biotechnology techniques in Module 3.

Explain their significance, advantages, and limitations.

What scientific disciplines intersect with biotechnology, and how have they historically contributed to its development?

1. Summary of Results: What does this mean?
2. How do genes within DNA dictate an organism's physical and behavioral traits, and what are the implications of genetic variations and mutations on these traits?

How do DNA structures and replication processes differ between prokaryotic and eukaryotic cells, and how do these differences impact genetic functions and biotechnological applications?

1. Can you describe the processes of transcription and translation, and discuss the significance of gene expression regulation and noncoding RNAs in the context of modern biotechnological advancements such as CRISPR-Cas9 and epigenomic research?
2. Other examples from the material listed in Module 3 that you would like to highlight.
3. Conclusions: Why does this matter?
4. Use the data you have to support your findings. Cite your work.

Call to action: actions and who should take them.

1. This is your opportunity to demonstrate your subject matter expertise (SME). Be clear and deliberate with your thoughts. Have confidence in your knowledge.
2. Select a specific industry where the discussed techniques can be applied.
3. Justify your choice with a citation or a reference to current trends or needs in the industry.
4. Outline the potential benefits and challenges of implementing these techniques in the chosen industry.
5. Topic: Genes and Genome

As you develop your executive summary, you must consider several things. 

1. Who is your audience? Consider the area of knowledge and who the experts are, and then write to inform them. 
2. Defining the purpose. This is why, what, when, how, and who.  Why is this worthwhile?  What is the problem? When is this relevant? How can it be applied? Who benefits from it? Who is harmed?

Consider the structure of your executive summary. Each section should be clear and appropriately headed, with the organization of the section transitioning into the next section. 

1. Write clearly and concisely. Edit your paper.  There should be no grammatical or spelling errors.  With only one or two pages, every word matters. Additionally, do not assume that readers know your abbreviations; if you have an abbreviation, include the long version first.  In technical documents, vocabulary or keyword lists are included with all the abbreviations used in the document.
2. Use clear and quantifiable examples and data to highlight the benefits. Write concisely.  For example, 200 apples double the income earned over 100 apples.  Compared to: more apples means more money.  While the second example is true, it has less weight for a decision-maker.  While this is a silly example, use quantifiable data when possible because it will be noticed.  More importantly, having appropriate data in your summary demonstrates your subject matter expertise.
3. The conclusion should include a call to action.  If you need funds for your project, if you need manpower, if you need their engagement, state that clearly; don’t be shy.  Finally, always include a deadline when you write a summary of when you expect a response. For this assignment, the date for practice should be the date that the summary is due.
4. The rubric provided below uses the following criteria:
5. Statement of Purpose: Audience and Significance

Purpose of Communication: Who, What, Why, When, Where, and How? 

Summary of the Results: What this means.

• Conclusions: Why this matters. 

Call to action: What needs to happen now that this information is known? Gene Regulation An average human cell genome contains approximately 30,000 to 120,000 genes, but only a fraction of them are expressed in any specific cell at one time. This is why despite containing the same set of DNA and genes, each cell type in a human body looks different and performs different functions. It is accomplished through gene regulation, i.e., expression of specific genes at proper time and location.Gene regulation can happen at the level of DNA or RNA. Cells have internal chemical mechanisms that control when a gene is expressed to make RNA and protein, how much of the protein is made, and when to stop making that protein because it is no longer needed. The cells thus turn on the genes only when required, helping them save space and energy. If the cells were to express all genes at once, not only would they require a significant amount of energy but also enormous size because DNA must be unwound from its tightly coiled structure to be transcribed and translated into protein.Prokaryotic and eukaryotic cells regulate gene expression at different levels. In prokaryotic organisms, the primary control of gene expression is mainly at the transcriptional level, which means that the RNA is continuously transcribed until a protein is required, and it stops when the protein is no longer needed.In contrast, in eukaryotic cells, the processes of transcription and translation are physically separated by the nuclear membrane, adding to the complexity. Transcription occurs only within the nucleus, and translation occurs only outside the nucleus in the cytoplasm. Here, the regulation of gene expression can occur at different stages of the process. It can be regulated when the DNA is uncoiled and loosened from nucleosomes to bind transcription factors (epigenetic level), when the RNA is transcribed (transcriptional level), when the RNA is processed and exported to the cytoplasm after it is transcribed (post-transcriptional level), when the RNA is translated into protein (translational level), or after the protein has been made (post-translational level).This text is partially adapted from Openstax, Biology 2e, Section 16.1: Regulation of Gene Expression.Links to an external site.Procedure In eukaryotes, the DNA is organized in the form of chromosomes inside the cell nucleus.Each of these chromosomes contains numerous linearly arranged genes across the DNA length.A gene is the basic unit of heredity that comprises many functional elements.A eukaryotic gene includes the non-coding regions called introns and the coding regions called exons, which are together transcribed into a pre-mRNA.During RNA processing, the introns are removed and the exons form the mature RNA product that is translated into a protein.Besides introns, each gene is surrounded by many other regulatory sequences that do not encode for a protein but help regulate gene expression.The promoter sequence is located upstream of a gene. It is here that the RNA polymerase binds and initiates transcription.The terminator sequence present at the 3' end of the gene acts as a stop signal for RNA polymerase.Enhancers are typically present thousands of base pairs upstream or downstream of a gene. The activator proteins bind to enhancers and upregulate gene transcription.In contrast, silencers are bound by the repressor proteins to downregulate gene expression.In our learning platform, the expander tool below offers required and optional videos to enhance your understanding of the course material. The left-hand menu neatly categorizes available topics for this module, serving as your gateway to a wealth of knowledge. Selecting a topic will give you detailed information and direct links to the corresponding videos.Empower You With the Choice Recognizing that there are often various approaches to explaining a key concept, our goal is to empower you with the choice to engage with content that best suits your personal interests and learning preferences.We adhere to the Universal Design for Learning (UDL) principles, ensuring that our educational resources accommodate diverse learning strategies. While we provide a rich array of videos, please remember that it is not mandatory to watch every single one. We encourage you to explore and select the videos most resonating with your educational path and curiosity.

1. DNA Structure
2. What is a Gene?
3. Chromosome Structure
4. Transcription
5. Translation
6. Regulation of Gene Expression

Mutations

1. Epigenome
2. Immune Response Mechanism in Prokaryotes
3. DNA Structure
   DNA, or deoxyribonucleic acid, is the hereditary material in humans and almost all other organisms. Its structure is a double helix, where two strands of DNA wind around each other like a twisted ladder. Each strand is made up of a sugar-phosphate backbone and nucleotide bases. Required
   
4. M03: The DNA Helix
5. M03: DNA Base Pairing
6. M03: DNA as a Genetic Template. " these are the topics "