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Science and Mathematics
Module 1
Breathing and Gas Exchange in Humans
1
Path of Inhaled Air to the Alveoli
Trace the path of inhaled air through the human respiratory system to the alveoli.
Trace the path of inhaled air through the human respiratory system to the alveoli.
2
Mechanics of Breathing: Inhalation and Exhalation
Explain inhalation and exhalation using changes in diaphragm position, rib movement, thoracic volume, and air pressure.
Explain inhalation and exhalation using changes in diaphragm position, rib movement, thoracic volume, and air pressure.
3
Alveolar Adaptations for Efficient Gas Exchange
Relate the structural adaptations of alveoli to efficient diffusion of oxygen and carbon dioxide.
Relate the structural adaptations of alveoli to efficient diffusion of oxygen and carbon dioxide.
Module 2
The Human Blood Transport System
4
Tracing Blood Oxygenation Through the Heart, Lungs, and Body
Trace one complete cycle of blood through the heart, lungs, and body, identifying changes in blood oxygenation.
Trace one complete cycle of blood through the heart, lungs, and body, identifying changes in blood oxygenation.
5
Comparing Blood Vessel Structure and Function
Compare arteries, veins, and capillaries by relating their structures to their functions.
Compare arteries, veins, and capillaries by relating their structures to their functions.
6
Heart Structures Enabling One-Way Blood Flow and Effective Pumping
Relate the structures of heart chambers, valves, and the septum to one-way blood flow and effective pumping.
Relate the structures of heart chambers, valves, and the septum to one-way blood flow and effective pumping.
7
Predicting the Effects of Blood Component Deficiencies and Failures
Predict the effects of deficiencies or failures in red blood cells, white blood cells, platelets, and plasma from a given scenario.
Predict the effects of deficiencies or failures in red blood cells, white blood cells, platelets, and plasma from a given scenario.
Module 3
Transport in Plants
8
Xylem and Phloem: Transport, Direction, and Function
Distinguish xylem from phloem by the substances transported, direction of movement, and role in the plant.
Distinguish xylem from phloem by the substances transported, direction of movement, and role in the plant.
9
Water Transport from Soil to Leaves by Transpiration Pull
Explain how water moves from the soil through root hairs and xylem to the leaves by transpiration pull.
Explain how water moves from the soil through root hairs and xylem to the leaves by transpiration pull.
10
Predicting Transpiration from Environmental Factors
Interpret experimental data to predict how light, temperature, humidity, and air movement affect the rate of transpiration.
Interpret experimental data to predict how light, temperature, humidity, and air movement affect the rate of transpiration.
Module 4
Endothermic and Exothermic Reactions
11
Heat Transfer and Temperature Changes in Endothermic and Exothermic Reactions
Explain the direction of heat transfer and the resulting temperature change in endothermic and exothermic reactions.
Explain the direction of heat transfer and the resulting temperature change in endothermic and exothermic reactions.
12
Classifying Endothermic and Exothermic Reactions
Classify reactions as endothermic or exothermic using observations, temperature–time data, and everyday examples.
Classify reactions as endothermic or exothermic using observations, temperature–time data, and everyday examples.
13
Designing Hot and Cold Packs Using Energy Transfer Principles
Apply energy-transfer principles to justify the design or selection of a heating or cooling product, such as a hot pack or cold pack.
Apply energy-transfer principles to justify the design or selection of a heating or cooling product, such as a hot pack or cold pack.