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- [x] # STARS 2021
This pad will be a shared document so that we can quickly share and update materials.
----
## Important links
- Pre-survey: https://www.surveymonkey.com/r/stars-pre
- Class Google drive (for sharing files and presentations during the class): https://drive.google.com/drive/folders/1usrO_j2J-XavmGM6qq7MVKs3IlwK2OZE?usp=sharing
- Alumni Google Classroom (after you have finished the course!): https://classroom.google.com/c/MjA0MzM1NjcxODY4?cjc=2u6s4nj
- Bacterial transformation animation [link](https://content.dnalc.org/content/c15/15918/transformation2-canvas.html)
- Poster presentation folder: [link](https://drive.google.com/drive/folders/1eSVMTxuLAprJHN1rQpMwWgcSAHrPn6YK?usp=sharing)
- Notebooks: https://github.com/JasonJWilliamsNY/biocoding-2021-notebooks
- Zoom link: [link](https://cshl-dnalc.zoom.us/j/5163675186)
- JupyterHub: [http://128.196.142.21:8000](http://128.196.142.21:8000)
- (Password = lastname.123)
- Setup page for Jupyter: [link](https://jasonjwilliamsny.github.io/biocoding-2021-dnalc/setup.html)
- Presentation folder: [link](https://drive.google.com/drive/folders/1DNbnkokibhWMuKdNVWBxNKXj074qPW6K?usp=sharing)
- Shared photos: [link](https://drive.google.com/drive/folders/1-6kWXZ8rS8Y1eXLk9NzL0-Pla3HHhO4d?usp=sharing)
---
## Wrap up
**Pizza Order**
- cheese
-
- Pepperoni-Osa
- Pepperoni- Gentiva
- Plain - Madison
- Sausage- Nile
- canned fish- Camile
- Banana Pepper, Jayden
- Pepperoni - Kenly
- regular cheese :) - chrysnell
- I really like mozerella sticks but ill do pepperoni if you guys want it - Carlos
- EXTRA CHEESE
- cheese- Julia
- pepperoni- lucas
- raisin bread
-cheese, i looked up the pepperoni on the place it looked suspicious- Jordan
SCHOOLS
Your name, your full school name, your prefered email address (non-school if possible)
Jayden Hoff Isabell, Huntington High School, yeboijayden@icloud.com
Evan Spagnoletti, Huntington High School, vanspaghetti@gmail.com
Kenly Moran, Freeport High School, monseken13@gmail.com
Madison Krug, Farmingdale High School, madykrug23@gmail.com
Gentiva Abrahams, Freeport High School, gentivaabrahams03@gmail.com
Julia Rodriguez, Farmingdale High School, jrods5@icloud.com
Osaretinmwen Peter Oriakhi, Central Islip High School, osaretinmwenoriakhi@gmail.com
Kelly Gaussaint, Central Islip High School, kelz.gaussaint@yahoo.com
Chrysnell Destina, Central Islip High School, chrysnelld@gmail.com
Lucas Spagnoletti, Huntington High School, lucasspagnoletti2@gmail.com
Camille Crumpton, West Hempstead High School, cammi35@icloud.com
Jordan Blake, Bard Highschool Early College, jordan.a.b.blake@gmail.com
Joshua Paz, Kewforest Highschool, joshmpaz2024@gmail.com
Nile Jean, Staples High School, nilenj@icloud.com
Carlos Javier Diaz Sanchez, Wyandanch Memorial High School, carlosdiazjavier69@gmail.com
---
Command for configuring notebook
git clone https://github.com/JasonJWilliamsNY/biocoding-2021-notebooks
----
## Assignment/homework sign ups
**Reading a scientific paper (Due:8/11)**:
Choose a paper from the [google drive folder](https://drive.google.com/drive/folders/1V-ZoP3CjXSTDbdJo5KjkKkXfJwbMrP5m?usp=sharing). At a minimum read the abstract (first bolded paragrah), more will be assigned as needed. Put your name and the paper you choose below.
Name, Paper chosen
- Kenly, prions
- Madison, the making of an mRNA
- Julia, dissecting the mechanism of rnai
- Camille, The tumor suppressor p53
- Gentiva, the making of an mRNA
- Kelly, The prion amyloid paper
- Chrysnell, The Tumor Suppressor p53
- Nile, The rnai paper
- Carlos, The prion amyloid paper
- Evan, The Tumor Suppressor pg53
- Lucas, the Discovery of Telemorase
- Jordan, The dissecting Mechanism of RNAi
- Osaretinmwen, Dissecting the Mechanism of RNAi
- Joshua, The making of an mRNA
-Jayden, Prions
**Lunch Talk Interviews**
Choose a speaker, and the review the link to that persons laboratory/biography in the [agenda](https://jasonjwilliamsny.github.io/stars-2021/agenda/). Prepare one question about their work, and one question you'd like to know about their personal background. 3-4 persons can be assigned for a speaker
See also the Students Talk Science Project: [link](https://dnalc.cshl.edu/resources/students-talk-science/)
Speaker sign ups:
- Dr. Trotman [Lab page](https://www.cshl.edu/research/faculty-staff/lloyd-trotman/) **(Due:8/11)**
- Initial Student questioners:
- Madison
- Carlos
- Kelly
- name
- Dr. Jackson [Lab page](http://jacksonlab.labsites.cshl.edu/)
- Initial Student questioners:
- Lucas
- evan
- Jayden[](https://)
- Nile
- Dr. Cheadle [Lab page](https://www.cheadlelab.com/)
- Initial Student questioners:
- Chrysnell
- Osaretinmwen
- Julia
- Jordan Blake
- Madison
- Joshua
- Dr. Dos Santos [Lab page](http://dossantoslab.labsites.cshl.edu/)
- Initial Student questioners:
- Kelly
- Camille
- Gentiva
- Madison
- Chrysnell
Bring in a plant sample (Due:8/11)
- A leaf from a plant you wish to identify.
- try to identify using [the seek app](https://www.inaturalist.org/pages/seek_app)
**Final Presentation Topic Areas**
Please pick ONE area to contribute to a final presentation on. The presentation will be 10 or fewer slides on this topic. We will discuss how to create engaging presentations - but remember they should tell a story, make use of compelling visuals, and (when about science) clearly present data. Lab presentations should give enough context that a non-expert (perhaps your family) will be able to understand the work and its importance. Most groups will have two, but up to three are permissible.
*Restriction Enzyme Lab*
- Lucas
- Evan
- Jayden
*Bacterial Transformation Lab*
- Camille
- Julia
*Human mitochondrial sequencing Lab*
- Madison
- Carlos
*DNA Barcoding Lab*
- Gentiva
- Kenly
*Computer coding work*
- Nile
- Osaretinmwen
*Guest speakers*
- Kelly
- Chrysnell
*College day*
- Joshua
-Jordan
----
**Poster Assignment**
See also:[link](https://jasonjwilliamsny.github.io/stars-2021/science_topics/writing_labs/)
Topic: Bacterial Transformation
Background and introduction
Hypothesis
Summary abstract
Data and results: What did you find
Discussion
Reference citation
# BioCoding Work
**Variables names exercise**
- avg_weight,grp_nm
- avg_mass_mice_grp
- avg_wght_mice_grp
- num_mice
- avg_mass, grp_num
- avg_gram
- mass_avg
- avg_mass, mice_num
- avg_mass, mice_pg
- avg_weight_mice_grp
- avg_height
- M_avg_mass, M_gp_num
- AvgW,NumMice
- mice_num
- no._mice
- alpha_avg_wght, Mou_Pool_alpha
**Reverse printing exercise**
print(alpha_id[7]),print(alpha_id[6]),print(alpha_id[5]),print(alpha_id[4]),print(alpha_id[3]),print(alpha_id[2]),print(alpha_id[1]),print(alpha_id[0])
print(alpha_id[7])
print(alpha_id[6])
print(alpha_id[5])
print(alpha_id[4])
print(alpha_id[3])
print(alpha_id[2])
print(alpha_id[1])
print (alpha_id[7])
print (alpha_id[6])
print (alpha_id[5])
print (alpha_id[4])
print (alpha_id[3])
print (alpha_id[2])
print (alpha_id[1])
print (alpha_id[0])
**Group ID challenge**
```
alpha_id = 'CGJ28371'
beta_id = 'SJW99399'
gamma_id = 'PWS29382'
```
```
alpha_initials= print(my_string[2:7:4])
beta_initials= print(my_string[18:8:-9])
gamma_initials= print(my_string[15:23:7])
```
```
alpha_initials = (alpha_id[0:3])
beta_initials = (beta_id[0:3])
gamma_initials = (gamma_id[0:3])
print(alpha_initials)
print(beta_initials)
print(gamma_initials)
```
```
alpha_id = 'CGJ28371'
beta_id = 'SJW99399'
gamma_id = 'PWS29382'
alpha_initial=alpha_id[0:3:1]
beta_initial=beta_id[0:3:1]
gamma_initial=gamma_id[0:3:1]
print(alpha_initial)
print(beta_initial)
print(gamma_initial)
alpha_id = 'CGJ28371'
beta_id = 'SJW99399'
gamma_id = 'PWS29382'
```
```
print(alpha_id[:3:])
print(beta_id[:3:])
print(gamma_id[:3:])
```
```
alpha_initials = alpha_id[0:3]
print(alpha_initials)
```
```
alpha_initials = (alpha_id[0:3])
beta_initials = (beta_id[0:3])
gamma_initials = (gamma_id[0:3])
alpha_id = 'CGJ28371'
beta_id = 'SJW99399'
gamma_id = 'PWS29382'
print(alpha_id[0:3:1])
print(beta_id[0:3:1])
print(gamma_id[0:3:1])
print(alpha_id[4::1])
print(beta_id[4::1])
print(gamma_id[4::1])
print(alpha_initials)
print(beta_initials)
print(gamma_initials)
```
```
alpha_initials = (alpha_id[0:3])
beta_initials = (beta_id[0:3])
gamma_initials = (gamma_id[0:3])
```
```
print(alpha_initials)
print(beta_initials)
print(gamma_initials)
```
```
print(alpha_id[3:9])
print(beta_id[3:9])
print(gamma_id[3:9])
```
----
**Fasta Printer**
```
sequence_name= "sequence 001"
my_sequence= "ACTATCATTTATCTCTCTATATCGTF"
print(">" + sequence_name + "\n" + my_sequence)
```
```
carlinase = 'my_sequence'
sequence01 = "actgagcctagctttagctaacgctctagatagctgatcgctctatata"
print( '>'+'carlinase' + "\n"+ sequence01 )
```
sequence_name = ">myseq"
my_sequence = "actggtacgctcgagatctcgctcaactcaagctcga"
print(sequence_name + "\n" + my_sequence)
```
sequence_1
sequence_1= "atcgatcgatcgatcgactcgactcgactcgactcgcatcgacataacacaaacgtctctctctgcgtacggctacgagctcgacggctagctcgctag"
print (">" + "sequence_1" + "\n" + sequence_1)
```
```
my_sequence = "ATTCGAGGATCGATTTCGATCGATGCTTAGCTTTAGCTTTTTTAGATCTCCCA"
my_sequencename = "n_sequence"
print("n_sequence" + my_sequence)
```
```
sequence001='>sequence001\n'
sequence = "ACTGGAAGATGAAT"
print(sequence001+sequence)
```
my_sequence = 'atcgagtcag'
my_sequence2 = ">1245676543456"
print(my_sequence + "\n" + my_sequence2)
```
```
**Lower case printing**
```
my_uppercase_string = 'ABCDEFG'
print (my_uppercase_string.lower())
```
```
print("hi".upper())
```
```
print("ABCDEFG".lower())
print(hiv_genome.count)
```
```
my_uppercase_string = 'ABCDEFG'
print(my_uppercase_string.lower())
```
```
my_uppercase_string = 'ABCDEFG'
print(my_uppercase_string.lower())
```
```
my_uppercase_string= 'ABCDEFG'
print (my_uppercase_string.lower())
```
----
**HIV Genome First Look**
*Determine and print the length of the HIV genome*
len(hiv_genome)
print(hiv_genome)
print(len(hiv_genome))
len(hiv_genome)
*Create variables for and print the sequences for the following HIV genes*
*gag*
print(hiv_genome[790:2292:1])
gag = 'hiv_genome[790:2292]'
```
gag_sequence= (hiv_genome[790:2293])
print(gag_sequence)
```
...
gag = hiv_genome[790:2292] print(gag+'\n')
...
```
gag = (hiv_genome[790:2292])
print(gag)
```
gag = (hiv_genome[790:2291])
gag = hiv_genome[790:2292]
print(gag)
gag=hiv_genome[790:2292]
```
gag= hiv_genome[790:2292]
print(gag)
```
'''
gag = hiv_genome[791:2293]
pol = hiv_genome[2086:5097]
vif = hiv_genome[5042:5620]
vpr = hiv_genome[5560:5971]
env = hiv_genome[6226:8796]
print(gag +'\n')
print(pol + '\n')
print(vif + '\n')
print(vif + '\n')
print(env + '\n')
'''
**Printing List Elements**
print(hiv_gene_names[1])
print(hiv_gene_names[3])
print(hiv_gene_names[2])
print(hiv_gene_names[4])
print(hiv_gene_names[0])
print(hiv_gene_names[5])
print(hiv_gene_names[6])
print(hiv_gene_names[1])
print(hiv_gene_names[3])
print(hiv_gene_names[2])
print(hiv_gene_names[4])
print(hiv_gene_names[5])
print(hiv_gene_names[0])
print(hiv_gene_names[6])
print(hiv_gene_names[1])
print(hiv_gene_names[3])
print(hiv_gene_names[2])
print(hiv_gene_names[4])
print(hiv_gene_names[5])
print(hiv_gene_names[0])
print(hiv_gene_names[6])
```
print(hiv_gene_names[1]),print(hiv_gene_names[3]),print(hiv_gene_names[2]),print(hiv_gene_names[4]),print(hiv_gene_names[5]),print(hiv_gene_names[0]),print(hiv_gene_names[6])
```
**Simulate coin flip**
```
chaos = random.ranf()
if chaos>=0.5:
print('Heads')
else:
print('Tails')
```
```
my_random_float = random.ranf()
if my_random_float >= 0.5:
print('Heads')
else:
print("Tails")
```
```
random_float= random.ranf()
if random_float >= 0.5:
print("heads")
else:
print("tails")
```