Science Task Prescreen

Task Title: Thermal Equilibrium: The Blacksmith’s Quench

Grade: High School

Date: 2024-05-15

SEP: Planning and Carrying Out Investigations

DCI: PS3.B: Conservation of Energy and Energy Transfer

CCC: Systems and System Models

Task Purpose: Provide an inquiry-based investigation where students collect initial and final temperature data for two materials of different specific heats within a simulated closed system to calculate heat exchange and deduce the second law of thermodynamics.

Instructions

Prescreen Questionnaire

Question Yes No
1. Is there a phenomenon or problem driving the task? [x] [ ] 🚩
2. Can the majority of the task be answered without using information provided by the task scenario? [ ] 🚩 [x]
3. Can significant portions of the task be answered successfully by using rote knowledge (e.g., definitions, prescriptive or memorized procedure)? [ ] 🚩 [x]
4. Does the majority of the task require students to use reasoning to successfully complete the task? [x] [ ] 🚩
5. Does the task require students to use some understanding of disciplinary core ideas to successfully complete the task? [x] [ ] 🚩
6. Do students have to use at least one science and engineering practice to successfully complete the task? [x] [ ] 🚩
7. Are the dimensions assessed separately in the majority of the task? [ ] 🚩 [x]
8. Is the task coherent and comprehensible from the student perspective? [x] [ ] 🚩

Recommendation

Based on your assessment needs and the task purpose recorded above, make a recommendation about this task moving forward (choose one):

Summary

Summarize your evidence and reasoning:

This task effectively utilizes a clear phenomenon (the blacksmith quenching a horseshoe) to ground an investigation into thermal equilibrium. Students are required to actively interact with the simulation to generate their own temperature data and apply mathematical sensemaking ($Q=mc\Delta T$) rather than relying solely on given values or rote memorization. The dimensions are integrated naturally: students plan and conduct an investigation (SEP) using a defined closed system model (CCC) to demonstrate that the distribution of thermal energy becomes more uniform, thereby addressing the conservation of energy (DCI).