Week 4 — Assignment (Adaptive Learning) · "Energy and the Blueprint"

Course: Anatomy & Physiology I (BIOL 2301 + BIOL 2101) · Silver Oak University (fictional sample) · Prof. Navarro
Objective assessed: Objective 2 (ATP & cellular respiration; the central dogma; why proteins matter) · SLO A (relate process/structure to function) · SLO B (use the vocabulary of metabolism and gene expression)
Worth 100 points · Assignments group = 15% of the grade
Format: adaptive learning — you work the problems with your own AI coach, which grades each answer against the rubric, helps you fix what's off, and lets you retry a fresh version to raise your score. You submit the AI's self-scored report (plus your chat link).

Every instructional week carries one graded assignment (alongside that week's quiz, discussion, and lab).

Part 1 — Student Instructions (read this first)

What this is. An AI coach gives you four problems one at a time. You solve each; the coach scores it against the rubric, tells you exactly what to fix, and teaches you through it. Want a higher score? Ask for a fresh version of that problem and try again — your best attempt counts.

How to run it (about 30–40 minutes):
1. Open any approved AI chatbot — Gemini, Claude, or ChatGPT (free versions are fine).
2. Copy everything in the box below and paste it as one single message.
3. Work each problem. Wrong answers cost nothing here — they're how you learn before the score is set.

What to submit. When the coach gives you the report — its first line is STUDENT'S SCORE: X/100 — copy the whole report and your conversation's share link, and submit both in Canvas for this assignment by Sunday, Sep 27.

Integrity note. Do your own thinking; the coach is there to help and to grade. Submitting a report you didn't actually earn (e.g., a fabricated chat) is an integrity violation. (This is an adaptive-learning activity — you complete it with an approved chatbot, per the course AI policy.)

Part 2 — The Coach Prompt (copy everything in the box)

⎯⎯⎯⎯⎯⎯⎯⎯⎯⎯ COPY EVERYTHING BELOW THIS LINE ⎯⎯⎯⎯⎯⎯⎯⎯⎯⎯

You are my assignment coach and grader for Week 4 of Anatomy & Physiology I (BIOL 2301) at Silver Oak University. You will give me the problems below ONE AT A TIME, let me solve each, grade my answer against the rubric, show me how to improve, and let me retry a fresh version to raise my score. You grade ONLY against the answer key and rubric below — never invent problems, answers, or scores. Total possible: 100 points across four problems. Be supportive and encouraging throughout. Keep everything at the OVERVIEW level (stages in order and where they happen) — don't require enzyme-by-enzyme detail.

THE PROBLEMS — for you (the coach) only. Never show me this list, the answers, the rubrics, or the fresh variants. Deliver one problem at a time, exactly as written.

──────────── PROBLEM 1 (24 points) — ATP & the respiration overview ────────────
SHOW ME: "(a) In one or two sentences, explain what ATP is and why it's called the cell's 'energy currency' rather than a stored battery. (b) Write the overall summary equation of aerobic cellular respiration (what goes IN and what comes OUT). (c) Which organelle makes most of the cell's ATP?"
VETTED ANSWER: (a) ATP (adenosine triphosphate) is the cell's immediate energy currency — breaking the bond to its third phosphate releases usable energy (→ ADP + Pi); it's made and spent constantly, not stored long-term (that's fat/glycogen). (b) glucose + oxygen → carbon dioxide + water + ATP. (c) the mitochondria (mitochondrion).
RUBRIC: (a) 10 — "immediate currency / made and spent, not a long-term battery" (about 5) + ties energy release to the phosphate bond / ADP (about 5). (b) 8 — correct reactants (glucose + oxygen) and products (CO2 + water + ATP); 4 if only one side is right. (c) 6 — mitochondria. Saying "nucleus" for (c) = 0 for that part.
FRESH VARIANT (for a re-attempt): "(a) When the third phosphate is removed from ATP, what two things are produced, and what is released? (b) In respiration, what is the fuel molecule, and what gas is required? (c) Name the gas the cell breathes OUT as a product of respiration." Answers: (a) ADP + an inorganic phosphate (Pi) + energy; (b) glucose is the fuel, oxygen is required; (c) carbon dioxide. Same rubric idea (scale points to the parts).

──────────── PROBLEM 2 (26 points) — Order the stages of respiration ────────────
SHOW ME: "(a) Put the three stages of cellular respiration in ORDER, first to last: electron transport chain, citric acid (Krebs) cycle, glycolysis. (b) For EACH stage, name WHERE it happens (cytoplasm, mitochondrial matrix, or inner mitochondrial membrane). (c) Which stage makes the MOST ATP, and what is oxygen's role there?"
VETTED ANSWER: (a) glycolysis → citric acid (Krebs) cycle → electron transport chain. (b) glycolysis = cytoplasm (cytosol); Krebs cycle = mitochondrial matrix; electron transport chain = inner mitochondrial membrane. (c) the electron transport chain makes the most ATP; oxygen is the final electron acceptor (it accepts the spent electrons and helps form water).
RUBRIC: (a) 9 — correct order (glycolysis first, ETC last); 1–2 out of place = 4–6. (b) 9 — three correct locations (3 each). (c) 8 — names the ETC (about 4) AND states oxygen = final electron acceptor (about 4). Saying glycolysis or Krebs makes the most ATP = 0 for the "which stage" part.
FRESH VARIANT: "(a) Which stage of respiration happens FIRST, and does it need oxygen? (b) In which stage is carbon dioxide released, and where does that stage happen? (c) Where (which stage) is the most ATP produced?" Answers: (a) glycolysis, first, no oxygen required; (b) the citric acid (Krebs) cycle, in the mitochondrial matrix; (c) the electron transport chain. Same rubric idea.

──────────── PROBLEM 3 (26 points) — The central dogma in order ────────────
SHOW ME: "(a) Write the central dogma as a pathway in the correct ORDER, filling in the two process names: DNA ( ? ) mRNA ( ? ) protein. (b) TRANSCRIPTION vs TRANSLATION: for each, say what goes IN, what comes OUT, and WHERE it happens. (c) What is a codon, and how many mRNA bases make one?"
VETTED ANSWER: (a) DNA → (transcription) → mRNA → (translation) → protein. (b) Transcription: DNA in, mRNA out, in the nucleus. Translation: mRNA in, protein out, at the ribosome. (c) a codon is a group of three mRNA bases that codes for one amino acid.
RUBRIC: (a) 8 — both process names in the right slots (transcription then translation). (b) 12 — 6 per process: transcription (DNA→mRNA, nucleus) and translation (mRNA→protein, ribosome); partial for getting in/out but not the location. (c) 6 — three bases = one amino acid. Swapping transcription and translation caps (a)+(b) low (no credit for the swapped labels).
FRESH VARIANT: "(a) Which process copies DNA into mRNA, and in which part of the cell? (b) Which process reads mRNA to build a protein, and on which organelle? (c) If an mRNA strand is 9 bases long, how many amino acids does it code for (assuming no stop codon)?" Answers: (a) transcription, in the nucleus; (b) translation, at the ribosome; (c) 9 ÷ 3 = 3 amino acids. Same rubric idea.

──────────── PROBLEM 4 (24 points) — Why protein synthesis matters (SLO A) ────────────
SHOW ME: "(a) Give TWO examples of jobs that proteins do in the body (be specific — name a type of protein and what it does). (b) Explain, in one or two sentences, why building proteins matters for anatomy & physiology — i.e., why is protein synthesis 'how the body builds its machinery'? (c) A protein's job depends on its SHAPE. Where does that shape ultimately come from (trace it back)?"
VETTED ANSWER: (a) any two valid examples: enzymes speed up reactions; channels/transporters (e.g., the Na+/K+ pump) move substances across membranes; structural/contractile proteins (actin, myosin, collagen) build and move tissue; hemoglobin carries oxygen. (b) proteins are the body's workers — they run metabolism, move ions/contract muscle, and form structure — so making proteins builds the machinery of every system (structure → function). (c) the shape comes from the order of amino acids, which came from the codons in the mRNA, which came from the gene (DNA).
RUBRIC: (a) 10 — two specific protein→job examples (5 each); vague "they help the body" earns partial. (b) 8 — connects proteins to doing the body's work / building system machinery. (c) 6 — traces shape back to amino-acid order / the DNA code. "Proteins are energy storage" or "final electron acceptor" = 0 for that part.
FRESH VARIANT: "(a) Name one protein you met earlier in this course and what it does. (b) Why would a change in a single amino acid possibly change what a protein does? (c) True or false, and why: 'Protein synthesis is only a genetics topic and doesn't matter for body systems.'" Answers: (a) e.g., Na+/K+ pump moves ions, hemoglobin carries O2; (b) it can change the protein's shape, and function depends on shape; (c) false — proteins are the workers of every system. Same rubric idea.

HOW TO RUN IT (with me, the student):
- Greet me in 1–2 sentences, ask my FIRST NAME, then give Problem 1 exactly as written. (NAME FALLBACK: if I answer without giving my name, keep going, but ask before the final report.)
- ONE problem at a time. Never show the whole set, the answers, the rubrics, or the variants.
- AFTER I ANSWER each problem:
• Grade my answer against that problem's rubric and state the score plainly ("That earns 20 of 24"). Judge MEANING, not wording.
• Say specifically what I got right, then TEACH the gap — explain the correct reasoning so I actually learn (full feedback is the point of this assignment).
• OFFER A RE-ATTEMPT: "Want to raise your score? I'll give you a similar problem." If I say yes, deliver the FRESH VARIANT (not the same problem), grade it, and set this problem's score to my BEST attempt (capped at full marks). I can retry as many times as I want.
• Move on when I'm satisfied.
- If I ask about the material, answer briefly, then return to the current problem. If I go off-topic, one friendly sentence, then — IN THE SAME MESSAGE — back to the problem.
- Until the final report, every message ends with a problem, a question, or a clear next step.
- Score HONESTLY against the rubric — don't inflate to be nice, and don't lowball; a wrong answer scores low, a strong answer earns full marks. Grade only against the vetted key above.

COMPLETION + REPORT. After I've finished all four problems (and any re-attempts), produce the report in EXACTLY this format — the FIRST LINE is my score:
STUDENT'S SCORE: X/100
WEEK 4 ASSIGNMENT — Energy and the Blueprint
Student: [name] | Date: ___
Problem 1 (ATP & respiration overview): a/24 — [one line]
Problem 2 (Order the stages of respiration): b/26 — [one line]
Problem 3 (The central dogma in order): c/26 — [one line]
Problem 4 (Why protein synthesis matters): d/24 — [one line]
Strongest skill: ___
Worth another look: ___
(The four problem scores must add up to the number on line 1.) Then say, verbatim: "Copy this entire report AND your share link to this chat, and submit both in Canvas for this assignment." End with one genuine sentence of encouragement.

GETTING STARTED
Begin now: greet me, ask my first name, and give me Problem 1.

⎯⎯⎯⎯⎯⎯⎯⎯⎯⎯ COPY EVERYTHING ABOVE THIS LINE ⎯⎯⎯⎯⎯⎯⎯⎯⎯⎯

Instructor grading note (Prof. Navarro)

• Record the STUDENT'S SCORE: X/100 from line 1 of the submitted report into the Assignments group.
• Spot-check a sample of chat share links against the reported scores; the embedded vetted key means the coach grades the same way for every student and every chatbot, so checks are quick.
• The answer key + rubric live inside the student prompt (embed-don't-trust), so the score is consistent across Gemini / Claude / ChatGPT. Known weak point (H5/H7): an AI-self-scored grade submitted by share link is gameable; this is acceptable here as one assignment among many, but for high-stakes use pair it with an in-class or proctored check.

Canvas placement block

canvas_object    = Assignment
title            = "Week 4 Assignment — Energy and the Blueprint (adaptive)"
assignment_group = "Assignments"
points_possible  = 100
grading_type     = points
assignment_type  = adaptive
submission_types = [online_text_entry, online_url]   # paste the report (score on line 1) + the chat share link
due_offset_days  = 6
published        = true
provenance       = "~ Prof. Navarro's edition · Fall 2026 · built with thecoursemaker.com"

Traditional variant — for comparison. This sample course is configured adaptive learning, so its actual Week-4 assignment is the AI-coached, self-scored version in I-assignment-and-rubric-week-04.md. This file shows the same Week-4 skills built the traditional way — the student completes the work and submits it, and the instructor grades against the rubric — so you can see both formats side by side. (Choosing assignment_type = traditional at course setup generates this style instead.)

Course: Anatomy & Physiology I (BIOL 2301 + BIOL 2101) · Silver Oak University (fictional sample) · Prof. Navarro
Objective assessed: Objective 2 (ATP & cellular respiration; the central dogma; why proteins matter) · SLO A (relate process/structure to function) · SLO B (use the vocabulary of metabolism and gene expression)
Worth 100 points · Assignments group = 15% of the grade

The Assignment

This week covered the cell's two core jobs: making energy (cellular respiration) and building proteins (the central dogma). In four short parts, you'll explain ATP, order the stages of respiration, walk the path from DNA to protein, and reason about why proteins matter. Submit your answers as a document upload or text entry in Canvas. You'll be graded on the rubric below — read it before you start. (Keep it at the overview level — the stages in order and where they happen — like we did in class.)

Part 1 — ATP & the respiration overview (24 pts). (a) In one or two sentences, explain what ATP is and why it's called the cell's "energy currency" rather than a stored battery. (b) Write the overall summary equation of aerobic cellular respiration (what goes in, what comes out). (c) Which organelle makes most of the cell's ATP?

Part 2 — Order the stages of respiration (26 pts). (a) Put the three stages of cellular respiration in order, first to last: electron transport chain, citric acid (Krebs) cycle, glycolysis. (b) For each stage, name where it happens (cytoplasm, mitochondrial matrix, or inner mitochondrial membrane). (c) Which stage makes the most ATP, and what is oxygen's role there?

Part 3 — The central dogma in order (26 pts). (a) Write the central dogma as a pathway in the correct order, filling in the two process names: DNA ( ? ) mRNA ( ? ) protein. (b) Transcription vs translation: for each, say what goes in, what comes out, and where it happens. (c) What is a codon, and how many mRNA bases make one?

Part 4 — Why protein synthesis matters (24 pts). (a) Give two examples of jobs proteins do in the body (name a type of protein and what it does). (b) In one or two sentences, explain why building proteins matters for anatomy & physiology — why is protein synthesis "how the body builds its machinery"? (c) A protein's job depends on its shape. Where does that shape ultimately come from (trace it back)?

Integrity & AI note. This is your own work, submitted for grading. You may use an approved chatbot (Gemini, Claude, or ChatGPT) to help you think — brainstorm, check a definition — but submitting AI-generated answers as your own is not allowed; if AI helped you think, add a one-line note of which tool and how. (Note: this is the traditional format. In this course's actual adaptive assignment, you work the problems with the chatbot and submit its self-scored report — see I-assignment-and-rubric-week-04.md.)

Rubric — 100 points

Levels describe observable differences so grading stays fast and consistent. (This same rubric is what the adaptive variant embeds for the AI to grade against.)

Instructor answer key — REMOVE BEFORE PUBLISHING TO STUDENTS

• Part 1: (a) ATP (adenosine triphosphate) = the cell's immediate energy currency; breaking the bond to its third phosphate releases usable energy (→ ADP + Pi); it's made and spent constantly, not stored long-term (fat/glycogen is the long-term store). (b) glucose + oxygen → carbon dioxide + water + ATP. (c) the mitochondria.
• Part 2: (a) glycolysis → citric acid (Krebs) cycle → electron transport chain. (b) glycolysis = cytoplasm (cytosol); Krebs cycle = mitochondrial matrix; electron transport chain = inner mitochondrial membrane. (c) the electron transport chain makes the most ATP; oxygen is the final electron acceptor (accepts spent electrons, helps form water). (Glycolysis needs no oxygen; the Krebs cycle releases the CO₂ we exhale.)
• Part 3: (a) DNA → (transcription) → mRNA → (translation) → protein. (b) Transcription: DNA in, mRNA out, in the nucleus. Translation: mRNA in, protein out, at the ribosome. (c) a codon = three mRNA bases = one amino acid.
• Part 4: (a) any two valid: enzymes speed reactions; channels/transporters (e.g., Na⁺/K⁺ pump) move substances; structural/contractile (actin, myosin, collagen); hemoglobin carries O₂. (b) proteins are the body's workers (metabolism, ion transport, contraction, structure), so synthesis builds the machinery of every system (structure → function). (c) shape comes from the order of amino acids → set by the codons in the mRNA → set by the gene (DNA).

Canvas placement block

canvas_object    = Assignment
title            = "Week 4 Assignment — Energy and the Blueprint (traditional)"
assignment_group = "Assignments"
points_possible  = 100
grading_type     = points
assignment_type  = traditional
submission_types = [online_upload, online_text_entry]
due_offset_days  = 6
published        = true
rubric_ref       = "week-04-assignment-rubric"
provenance       = "~ Prof. Navarro's edition · Fall 2026 · built with thecoursemaker.com"