Question

design your mutant’s offspring with the help of meiosis and mitosis (dna mutations) to show the “designer baby” problem, issues in a biology, interview, or debate to present a project idea.

1. super strength

• trait: increased muscle density for immense power
• dna mutation type: substitution
• before dna: aat cgg tac caa
• after dna: aat cga tac caa

1. night vision

• trait: ability to see in low light
• dna mutation type: deletion
• before dna: cga tac gct aac
• after dna: cga tag cta ac

1. healing factor

• trait: cells regenerate faster for quick recovery
• dna mutation type: insertion
• before dna: tac cgg atc gga
• after dna: tac cgg cat cgg a

other traits (partially visible) omitted

step 1: choose your mutants traits
choose three mutations from the options above that you want for your mutant.
(handwritten: super strength, night vision, healing factor)

step 2: write your mutant dna strand
using the three chosen mutations, create a mutant dna strand by combining each change into a single dna sequence.

1. start with the original dna strand for each trait.
2. apply each mutation, making sure it’s clear where substitutions, insertions, or deletions have occurred.
3. write out the final mutant dna strand and note which mutation created each trait.

original strand (handwritten: aat cgg tac caa tac gct aac tac cgg atc gga)
mutant strand (handwritten: aat cga tac caa tac tag cta ac tac cgg cat cgg a)

step 3: explain your choices
for each mutation, explain:

• why you chose this mutation and how it would benefit your mutant

Explanation:

The problem involves DNA mutations and creating a mutant DNA strand, which falls under the subfield of Biology (Natural Science). For Step 2, to create the mutant DNA strand:

1. Super Strength (Substitution): Original DNA (before mutation) for Super Strength is ATT CGC TAC CAA, after mutation (substitution) it's ATT CGA TAC CAA. So we take the mutated part CGA instead of CGC.
2. Night Vision (Deletion): Original DNA (before mutation) for Night Vision is CGA TAC GCT AAC, after mutation (deletion) it's CGA TAC GTA AC (deleting a base, here likely a base in GCT to make GTA and adjusting the last part). So we take the mutated part TAC GTA AC instead of TAC GCT AAC.
3. Healing Factor (Insertion): Original DNA (before mutation) for Healing Factor is TAC CGG ATC GGA, after mutation (insertion) it's TAC CGG CAT GGA (inserting a base to change ATC to CAT). So we take the mutated part CGG CAT GGA instead of CGG ATC GGA.

Combining these mutated segments (assuming we concatenate them in the order of the chosen traits: Super Strength, Night Vision, Healing Factor), the mutant DNA strand would be constructed by putting together the mutated parts of each trait's DNA sequence.

For Step 3, explaining the choices:

• Super Strength: Chosen because increased muscle strength helps in physical tasks, defense, or survival. The substitution mutation alters the DNA to code for a protein that enhances muscle function.
• Night Vision: Chosen to allow the mutant to see in low - light conditions, useful for navigation, hunting, or avoiding danger at night. The deletion mutation changes the DNA to code for a protein involved in vision that is more sensitive to low light.
• Healing Factor: Chosen to enable faster recovery from injuries, which is crucial for survival in dangerous situations or during battles. The insertion mutation modifies the DNA to code for a protein that speeds up cell regeneration.

Answer:

Step 1: Chosen Mutations

Super Strength, Night Vision, Healing Factor

Step 2: Mutant DNA Strand

(Constructed by combining the mutated parts of each trait's DNA sequence)

• Super Strength mutated part: ATT CGA TAC CAA
• Night Vision mutated part: CGA TAC GTA AC
• Healing Factor mutated part: TAC CGG CAT GGA

Combined Mutant DNA Strand (example concatenation): ATT CGA TAC CAA CGA TAC GTA AC TAC CGG CAT GGA

(Note: The exact concatenation order and alignment may need to follow the original DNA strand's structure more precisely, but this is a general construction based on the mutated parts of each trait.)

Step 3: Explanation of Choices

• Super Strength: The substitution mutation in its DNA sequence is chosen as enhanced muscle strength provides an advantage in physical activities, defense, and survival. It benefits the mutant by allowing it to perform tasks that require more force and to protect itself better.
• Night Vision: The deletion mutation in its DNA sequence is chosen to give the mutant the ability to see in low - light environments. This is beneficial for activities like navigating in the dark, finding food sources at night, or detecting threats that are not visible in normal light conditions.
• Healing Factor: The insertion mutation in its DNA sequence is chosen to enable rapid cell regeneration. This helps the mutant recover quickly from injuries, which is essential for its survival in hostile environments or when facing combat - like situations.