Cellular Blueprint Slides Cellular Foundations
Biology Unit Review
The Big Four: Macromolecules
1. Carbohydrates
Quick energy (glucose). Monomer: Monosaccharides.
2. Lipids
Long-term energy & membranes (phospholipids).
3. Proteins
Enzymes & transport. Monomer: Amino Acids.
4. Nucleic Acids
Genetic info (DNA/RNA). Monomer: Nucleotides.
Bacteria Anatomy
DNA
Capsule (Outer)
Cell Wall (Inner)
Flagella
Ribosomes
Prokaryotes
Unicellular. No nucleus or membrane-bound organelles.
Capsule Role
Sticky coating for protection & attachment.
Plant vs Animal
Plant Only
Cell Wall
Chloroplasts
Lg. Vacuole
Shared
Nucleus
Mitochondria
ER / Golgi
Animal Only
Centrioles
Lysosomes
Cilia
Human Cells
Animal Nature
Humans = Eukaryotic Animals.
NO Cell Wall
NO Chloroplasts
Nucleus & Mitochondria
Cell Diversity
Neurons:
Long branches to carry signals.
RBCs:
Circular discs for oxygen travel.
Cellular Blueprint Notes Cellular Blueprint
Guided Notes Packet
Student:
Date:
I. Macromolecules
1. Carbohydrates
Function:
Monomer:
2. Lipids
Function:
Structure: Non-polar &
3. Proteins
Function:
Monomer:
4. Nucleic Acids
Function:
Monomer:
II. Classification
All cells share: Membrane, Cytoplasm, Ribosomes, and
Prokaryotes
• No defined
• No membrane
• Example:
Eukaryotes
• DNA inside a
• Complex
• Example:
III. Bacterial Anatomy
1. Flagella:
2. Capsule:
3. Nucleoid:
Sketch Bacteria Cell
(Label: Wall, DNA, Ribosomes)
IV. Cell Compare
Organelle Plant Animal Cell Wall P / A P / A Chloroplast P / A P / A Centrioles P / A P / A
Human Cell Note:
Humans are animals. We lack a but have for power. We are -otic.
Macro Micro Study Guide Macro Micro Guide
Unit 1 Review: Biology Foundations
1 Biological Macromolecules
Monomer Matching:
Amino Acid →
Monosaccharide →
Nucleotide →
Fatty Acid →
Polymer Bank
Lipids: High energy; cell membrane core (phospholipids).
Carbohydrates: Fast energy; plant cell walls (cellulose).
Proteins: Enzymes (catalysts); structural support (muscles).
Nucleic Acids: Information blueprints (DNA/RNA).
2 Classification: Pro vs Eu
Prokaryote
Eukaryote
No Nucleus
Small & Simple
Bacteria
Shared
DNA, Ribosomes,
Membrane,
Cytoplasm
Nucleus
Large & Complex
Plants/Animals
3 Plant, Animal, & Human Cells
Plants
Possess a Cell Wall (cellulose), Chloroplasts , and a Large Vacuole .
Animals
Lack walls. Have Centrioles and more common Lysosomes/Cilia .
Humans
Eukaryotic animal cells. Specialized: Neurons (long signals), RBCs (disc transport).
Bacteria Sketch
Must include:
Capsule, DNA,
Ribosomes, Wall
Sketch & Label
Review Mastered
Can you explain these four domains in detail?
Macromolecules
Pro vs Eukaryote
Bacterial Parts
Specialized Cells
Cellular Mastery Test Cellular Mastery Test
Biology Unit 1 Assessment
Student:
Score:
/ 50
Part I: Multiple Choice (2 pts each)
1. Which macromolecule is responsible for long-term energy storage and insulation?
A) Proteins
B) Carbohydrates
C) Lipids
D) Nucleic Acids
2. An organism has a cell wall, a large central vacuole, and a nucleus. This is a/an:
A) Bacterium
B) Animal Cell
C) Human Cell
D) Plant Cell
3. What is the primary function of the bacterial capsule?
A) Protein Synthesis
B) Protection & Attachment
C) Genetic Storage
D) ATP Production
4. Prokaryotic cells are distinguished from eukaryotic cells because they LACK:
A) Ribosomes
B) Cell Membranes
C) Cytoplasm
D) A Nucleus
5. Which monomer is used to build muscle tissue and enzymes?
A) Fatty Acids
B) Amino Acids
C) Nucleotides
D) Glucose
6. Which macromolecule is non-polar and hydrophobic?
A) DNA
B) Lipids
C) Glycogen
D) Enzymes
7. In a bacterial cell, where is the circular DNA located?
A) Nucleus
B) Mitochondria
C) Nucleoid
D) Ribosome
8. What is the primary component of a plant cell wall?
A) Chitin
B) Cellulose
C) Phospholipids
D) Peptidoglycan
9. Humans are animals; therefore, our cells are:
A) Eukaryotic
B) Prokaryotic
C) Bacterial
D) Photosynthetic
10. Which organelle is the site of cellular respiration (ATP production)?
A) Chloroplast
B) Golgi Body
C) Mitochondria
D) Lysosome
Part II: Structure Match (2 pts each)
11. Enzymes
12. Ribosomes
13. Nucleoid
14. Chloroplast
15. Flagella
A Organelle for photosynthesis.
B Region of DNA in prokaryotes.
C Biological catalysts (Proteins).
D Site of protein synthesis.
E Tail-like structure for movement.
Part III: Free Response (5 pts each)
Cellular Mastery Test Key Answer Key
Teacher Resource: Cellular Mastery Test (v2)
Total Points
50
Part I: Multiple Choice
1. C (Lipids)
2. D (Plant Cell)
3. B (Protection)
4. D (A Nucleus)
5. B (Amino Acids)
6. B (Lipids)
7. C (Nucleoid)
8. B (Cellulose)
9. A (Eukaryotic)
10. C (Mitochondria)
Part II: Matching
11. C (Catalysts)
12. D (Protein Synthesis)
13. B (DNA Region)
14. A (Photosynthesis)
15. E (Movement)
Part III: Free Response
16. Pro vs Eu:
Sims: Ribosomes, DNA, Cytoplasm. Diff: Nucleus vs None; Membrane-bound organelles vs None.
17. Protein Shape/Function:
Folding determines the 3D shape (e.g., enzyme active site). If shape changes, it can't bind or perform its job.
Part V: Specialization
19. Neuron Logic: Neurons need to carry electrical signals across long distances (e.g., from spine to toe). Their long, branch-like structure (axons/dendrites) allows for rapid communication through the body that a round cell couldn't achieve.
Part IV: Visual Synthesis (Sketch Criteria)
Circular DNA / Nucleoid
Capsule / Cell Wall
Flagella / Pili
Ribosomes (Dots)
Cytoplasm / Membrane
Grading Scale
45-50: A 40-44: B 35-39: C <35: Needs Review
Life Logic Answer Sheet Life Logic Answer Sheet
Cellular Mastery Unit 1 Assessment
Student:
Score:
/ 50
Part I: Choice (1-10)
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
A
B
C
D
Part II: Match (11-15)
Part III: Free Response
16. Prokaryote vs Eukaryote Compare:
17. Protein Folding Logic:
Part V: Specialization
19. Neuron Structure/Function:
Part IV: Visual Synthesis
18. Bacteria Sketch Checklist:
[ ] Capsule / Cell Wall
[ ] Circular DNA
[ ] Ribosomes
[ ] Flagella / Pili
[ ] Cytoplasm
Sketch Area
Ref: LIFE_LOGIC_AS_V2 | Total Q: 19 | Weight: 50pts
Cellular Logic Worksheet Cellular Logic Worksheet
Review Practice: Life's Building Blocks
NAME: __________________________
DATE: ___________________________
Activity 1: The Detective's Lab
Identify which macromolecule (Carbohydrate, Lipid, Protein, or Nucleic Acid) is being described in each lab scenario.
Scenario A: The Energy Rush
A sample contains a ring-shaped monomer called glucose. It provides immediate fuel for cellular respiration.
Scenario B: The Long Haul
A molecule is found that is completely non-polar. It stores twice as much energy as sugar and forms the core of a cell's border.
Scenario C: The Workhorse
A complex chain of amino acids is found. It is currently acting as a catalyst, speeding up a chemical reaction in the cytoplasm.
Scenario D: The Blueprint
A long double-helix molecule is extracted from the nucleus. It contains nucleotides and holds the code for building the entire organism.
Activity 2: Organelle Elimination
Determine if the following structures would be found in the cell type listed. Write "YES" or "NO".
Structure Bacterium Plant Cell Human Cell Nucleus Cell Wall Ribosomes Chloroplast Mitochondria
Activity 3: The Evolutionary Gap
Explain why a bacterium can survive without a nucleus, but a human heart cell cannot.
Cellular Logic Key Answer Key
Teacher Resource: Cellular Logic Worksheet
Ref Code
LOGIC_WS_K
Activity 1: The Detective's Lab
Scenario A:
Carbohydrate
Scenario B:
Lipid
Scenario C:
Protein
Scenario D:
Nucleic Acid
Activity 2: Organelle Elimination
Structure Bacterium Plant Human Nucleus NO YES YES Cell Wall YES YES NO Ribosomes YES YES YES Chloroplast NO YES NO Mitochondria NO YES YES
Activity 3: Sample Response
Bacteria are unicellular prokaryotes. They survive without a nucleus because their life functions are simple and don't require internal compartments. Their single circular chromosome sits in the nucleoid. Human cells are eukaryotic and specialized; they need a nucleus to protect their complex genetic instructions and to coordinate high-energy functions within a multicellular body. Without a nucleus, the heart cell could not maintain its protein levels or regulate its complex metabolism.