Here my work

week_0/ex_0_advanced/ex_0_advanced_runfile.py

@@ -1 +1,10 @@
-#YOUR CODE FOR EX_0 ADVANCED HERE
+#YOUR CODE FOR EX_0 ADVANCED HERE
+Floup = input("Put your DNA sequence here : \n")
+DNA= Floup.upper()
+LDNA = len(DNA)
+A = DNA.count("A")
+G = DNA.count("G")
+C = DNA.count("C")
+T = DNA.count("T")
+GC = ((G+C)/LDNA)*100
+print("The length of the DNA sequence is %d long.\nThere is %d Adenine, %d Guanine, %d Cytosine and %d Thymine.\nThe GC content is about %.2f" %(LDNA,A,G,C,T,GC))

week_0/ex_0_beginner/ex_0_beginner_submit.txt

@@ -1 +1,28 @@
-Copy and paste output of ex_0_beginner_runfile.py below:
+The Zen of Python, by Tim Peters
+
+Beautiful is better than ugly.
+Explicit is better than implicit.
+Simple is better than complex.
+Complex is better than complicated.
+Flat is better than nested.
+Sparse is better than dense.
+Readability counts.
+Special cases aren't special enough to break the rules.
+Although practicality beats purity.
+Errors should never pass silently.
+Unless explicitly silenced.
+In the face of ambiguity, refuse the temptation to guess.
+There should be one-- and preferably only one --obvious way to do it.
+Although that way may not be obvious at first unless you're Dutch.
+Now is better than never.
+Although never is often better than *right* now.
+If the implementation is hard to explain, it's a bad idea.
+If the implementation is easy to explain, it may be a good idea.
+Namespaces are one honking great idea -- let's do more of those!
+
+Hello Nathaniel, I'm Matéo a first year CARe student. I'm a french student from Bordeaux !!! (really pretty city by the way).
+I don't really have a precise goal for your courses, I just want to improve globally my skills cause I'll like to specialised in Imaging.
+
+Never I think, I'm just young... technology is everywhere nowadays
+
+Process finished with exit code 0

week_0/ex_0_intermediate/ex_0_intermediate_runfile.py

@@ -1 +1,11 @@
-#YOUR CODE FOR EX_0 INTERMEDIATE HERE
+#YOUR CODE FOR EX_0 INTERMEDIATE HERE
+
+import math
+
+
+ICount = float(input("Input the initial count : \n"))
+FCount = float(input("Input the final count : \n"))
+Time = float(input("Input the time : \n"))
+GRate = (math.log(FCount) - math.log(ICount)) / Time
+
+print("The growth rate is : ", GRate)

week_1/ex_1_beginner/ex_1_beginner_submit.txt

@@ -1 +1,30 @@
 Copy and paste output of ex_1_beginner_runfile.py below:
+#YOUR CODE FOR EX_1 BEGINNER HERE
+
+# Define a list of microbial population counts for five consecutive days
+MicrobPop = []
+Up =[]
+NbDays = 6
+for Day in range(1, NbDays):
+    Pop = int(input("Enter the population number for day %d : "%(Day)))
+    MicrobPop.append(Pop)
+    if Pop > 200 :
+        Up.append(Day)
+
+# Calculating the average population
+Average = sum(MicrobPop) / len(MicrobPop)
+print(f"Average population count: {Average}")
+
+# Calculating the maximum population
+MaxPop = max(MicrobPop)
+print(f"Maximum population count: {MaxPop}")
+
+# Calculating the minimum population
+MinPop = min(MicrobPop)
+print(f"Minimum population count: {MinPop}")
+
+# Print the final list
+print("The Microbial population for each day: ",MicrobPop)
+
+# Print the days that exceed a pop of 200
+print("The day that exceed a population of 200 are: ",Up)

week_1/ex_1_intermediate/ex_1_intermediate_submit.txt

@@ -1 +1,29 @@
 Copy and paste output of ex_1_intermediate_runfile.py below:
+
+# I defined the initial dictionary
+species = {"Bacteria": 20, "Archaea": 15, "Fungi": 10}
+
+# Loop to calculate and show the number of total samples
+samples = sum(species.values())
+print(f"Total samples: {samples}")
+
+# Function to add a new item to the dictionary or increase its count if it doesn't exist
+def add(species_dict, name):
+    if name in species_dict:
+        species_dict[name] += 1
+    else:
+        species_dict[name] = 1
+
+while True:
+    new= input("Enter a new species name (or 'stop' to quit):\n")
+    if new.lower() == 'stop':
+        break
+    else:
+        add(species, new)
+
+# To test if each species have a value greater than 15
+species_greater_than_15 = [species for species, count in species.items() if count > 15]
+print(f"Species with sample counts greater than 15: {species_greater_than_15}")
+
+# Show the updated dict
+print("Updated Microbial Species Dictionary:\n",species)