Vodcast 4.2

***This is a 3-part Vodcast/Prezi***

You can break down the content as necessary - but there are three different WSQ forms.

Enjoy :)

Textbook Reading:

Biology: Unity & Diversity

  • All parts: Chapter 9

OpenStax Biology:

  • Part 1: Chapter 14- Sections 14.3 - 14.6
  • Part 2: Chapter 15- Sections 15.1 - 15.4
  • Part 3: Chapter 15- Section 15.6

PART I: REPLICATION

Things you should make sure you understand:

(feel free to ask questions about them in class)

  • How to recognize the 5’ and 3’ ends of a DNA strand.
  • The structural differences between free nucleotides (nucleoside tri-phosphates), and nucleotides in a nucleic acid.
  • Why replication is necessary for cells, where it happens, its inputs and its outputs.
  • The specific details of the process of replication.
  • The mechanisms in replication that reduce the error rate.
  • The major differences in replication between prokaryotes and eukaryotes.

PART II: TRANSCRIPTION

Things you should make sure you understand:

(feel free to ask questions about them in class)

  • The relationship between DNA, RNA, Protein, Cells and the Organism.
  • Why transcription is necessary for cells, where it happens, its inputs and its outputs.
  • The major structural differences between RNA and DNA.
  • The specific details of the process of transcription.
  • The major differences in transcription between prokaryotes and eukaryotes.


PART III: TRANSLATION

Things you should make sure you understand:

(feel free to ask questions about them in class)

  • How mRNA sequence dictates protein sequence.
  • Why translation is necessary for cells, where it happens, its inputs and its outputs.
  • How amino acids are associated and disassociated from tRNA molecules.
  • The major differences in translation between prokaryotes and eukaryotes.
  • How and why the meaning of the term “gene” has changed over the past 100 years.

Supplemental Goodness

By: Bozeman Science

027 - DNA and RNA - Part 2

Paul Andersen continues his description of DNA and RNA. He begins with the structure of DNA and RNA and moves into the process of DNA Replication. He also describes the central dogma of biology explaining how DNA is transcribed to mRNA and is finally translated into proteins. He also introduces genetic engineering and explains how transformation is used to create insulin.

By: Bozeman Science

Paul Andersen explains how DNA replication ensures that each cell formed during the cell cycle has an exact copy of the DNA. He describes the Meselson-Stahl experiment and how it showed that DNA copies itself through a semi-conservative process. He then explains how multiple enzymes, like DNA polymerase, helicase, primase, ligase, and single strand binding proteins copy DNA. He also differentiates between the leading and the lagging strand. He explains how DNA is anti-parallel in nature and how eukaryotic cells have multiple origins of replication.

By: Bozeman Science

Paul Andersen explains the central dogma of biology. He explains how genes in the DNA are converted to mRNA through the process of transcription. He then explains how ribosomes use this message to convert the mRNA to a functioning protein. He also shows you how to decode a gene by converting the DNA to complementary mRNA and then to the specific amino acids in a protein.

By: Bozeman Science

Mr. Andersen explains the Central Dogma of biology. He shows how DNA is transcribed to form mRNA and how mRNA is translated into a protein.

By: Bozeman Science

Paul Andersen explains how changes in the genotype of an individual can affect the phenotype. He begins with genotype:phenotype::letters:story analogy. He explains how mutations can be neutral, beneficial or harmful. He also explains how mistakes in the cell cycle can lead to disorder, sterility or new species.

By: Crash Course Biology

Hank introduces us to that wondrous molecule deoxyribonucleic acid - also known as DNA - and explains how it replicates itself in our cells.

By: Crash Course Biology

Hank imagines himself breaking into the Hot Pockets factory to steal their secret recipes and instruction manuals in order to help us understand how the processes known as DNA transcription and translation allow our cells to build proteins.