Preface | p. xx |
Creating the Context for Science Education | p. 1 |
The Nature of Science | p. 5 |
What Is Science? | p. 6 |
Nature of Science Cards | p. 11 |
What Science Is Not | p. 13 |
How Science Is Done | p. 16 |
Hidden Shapes | p. 19 |
Patterns That Connect | p. 20 |
Qualities of Scientific Inquiry | p. 23 |
Replicability | p. 23 |
Control of Variables | p. 24 |
Systematicity | p. 24 |
Communication | p. 24 |
Creativity | p. 25 |
Informed Skepticism | p. 26 |
Combining the Qualities of Scientific Inquiry to Address Scientific Questions | p. 27 |
The Hypothesis Box | p. 29 |
Paradigms and Paradigm Shifts in the Nature of Science | p. 31 |
Summary | p. 34 |
Student Study Site | p. 34 |
Reflections on Science | p. 34 |
Internet Connections: Nature of Science Resources | p. 35 |
References | p. 35 |
Science Education in Social Context | p. 37 |
The Historical Role of Science Education in Our Society | p. 38 |
What Would Life Be Like Without Certain Inventions? | p. 48 |
Science Education Within Broader Educational Reforms | p. 49 |
Sputnik and Education | p. 49 |
Education Reform and You | p. 52 |
The Contemporary Role of Science Education in Our Society and the Current Wave of Science Education Reform | p. 52 |
Definitions of Scientific Literacy | p. 56 |
Learning to Speak the Language of Science | p. 58 |
Metaphors in Science | p. 60 |
Ethics in Science and the Concept of Human Progress | p. 61 |
Ethics and the Humane Treatment of Experimental Animals | p. 63 |
Summary | p. 64 |
Student Study Site | p. 64 |
Reflections on Science | p. 65 |
Internet Connections: Science Museums on the Internet | p. 65 |
References | p. 66 |
Toward a Philosophy of Hands-On Inquiry-Based Science Education | p. 69 |
Piagetian Constructivism and Learning Through Rediscovery | p. 70 |
Helping Students Make Meaning of Experience | p. 74 |
Designing Experiments and Learning Through Project-Based Science | p. 75 |
Learning by Design | p. 79 |
Sociocultural Theory and Learning Through Legitimate Peripheral Participation | p. 80 |
Learning Theories Textbook Review | p. 83 |
Summary | p. 84 |
Student Study Site | p. 84 |
Reflections on Science | p. 84 |
Internet Connections: Design-Based Learning | p. 85 |
References | p. 85 |
Diverse Learners in the Science Classroom | p. 87 |
History of Diverse Learners in the Science Classroom | p. 88 |
Draw a Scientist | p. 98 |
Current Science Education Reforms and Their Impact on Diverse Learners | p. 99 |
Science for All Americans: Setting the Agenda | p. 99 |
National Science Education Standards: Reform Into Practice | p. 100 |
Mapping the Increasing Diversity in American Classrooms | p. 102 |
Strategies for Working With Diverse Learners in the Science Classroom | p. 102 |
Strategies for Working With Girls in the Science Classroom | p. 102 |
Two-Column Girls and Scientists Activity | p. 104 |
Strategies for Working With Students From Diverse Racial, Ethnic, and Cultural Backgrounds in the Science Classroom | p. 104 |
Strategies for Working With Children From Low-Socioeconomic Backgrounds in the Science Classroom | p. 107 |
Strategies for Working With Students With Disabilities in the Science Classroom | p. 108 |
Modifying Lab Activities | p. 110 |
Strategies for Working With English Language Learners in the Science Classroom | p. 110 |
Sheltered Second-Language Activity | p. 112 |
Gifted and Talented Students in the Science Classroom | p. 112 |
Debating the "Fairness" of Gifted Education | p. 115 |
Summary | p. 116 |
Student Study Site | p. 116 |
Reflections on Science | p. 117 |
Internet Connections: Science for Diverse Learners | p. 117 |
References | p. 118 |
Observing as a Scientist and as a Science Teacher | p. 121 |
Scientific Observation | p. 122 |
Observation Experiment: Watching a Traffic Pattern | p. 123 |
Observation in the Classroom | p. 124 |
From Observation to Assessment of Science Learning | p. 126 |
Field Experiences, Peer Teaching, and Other Opportunities to Practice the Craft of Science Teaching | p. 128 |
Observational Forms | p. 129 |
Science Lesson Observation Form | p. 130 |
Observing in a Science Museum or Other Non-School Setting | p. 132 |
Interviewing a Teacher After Observing a Science Lesson | p. 134 |
Beyond Observation: Other Science Process Skills | p. 136 |
Creating a Science Educator's Portfolio | p. 137 |
Portfolio Content and Structure | p. 138 |
Looking at Electronic Portfolios | p. 140 |
Summary | p. 141 |
Student Study Site | p. 141 |
Reflections on Science | p. 141 |
Internet Connections: Scientific Observation | p. 142 |
Teaching and Learning the Science Disciplines | p. 143 |
Understanding and Teaching Earth and Space Sciences | p. 149 |
The Place of Earth and Space Science in Science Education | p. 150 |
Measuring and Estimating in Earth and Space Science | p. 152 |
Estimating Large Numbers of Objects | p. 152 |
Estimating the Number of Books in Your School Library | p. 153 |
Determining Direction Using a Compass | p. 152 |
Orienteering | p. 154 |
Measuring Deep Time: How Old Is the Earth? | p. 155 |
Geologic Time on a Football Field | p. 156 |
The Cosmos: The Sun, Planets, Solar System, Stars, and Beyond | p. 155 |
Scale of the Solar System | p. 155 |
Solar System Model | p. 158 |
The Expanding Universe | p. 155 |
Expanding Universe Model | p. 159 |
Star Power | p. 157 |
Hot Enough to Fry an Egg | p. 162 |
Astronomy: Observing the Heavens From Earth in the Past and Present | p. 161 |
Phases of the Moon | p. 161 |
Modeling Phases of the Moon | p. 163 |
Changes in the Seasons | p. 161 |
The Changing Seasons | p. 165 |
Exploring Shadows | p. 167 |
Changing Lengths of Shadows | p. 168 |
Restless Earth: Earth's Composition, Layers, Movements, and Impacts in Surface Features | p. 167 |
Convection Currents: Heat Within the Earth | p. 167 |
Convection Currents | p. 169 |
Plate Tectonics | p. 170 |
Mountain Building With Towels | p. 170 |
Earthquake Simulation | p. 171 |
Earthquake-Resistant Structures | p. 172 |
Rocks and Minerals: Formation, Identification, and Human Use of Common Rocks and Minerals | p. 173 |
Growing Crystals | p. 173 |
Crystals in Your Kitchen | p. 174 |
Mineral Identification Strategies | p. 175 |
Identifying Minerals | p. 176 |
What's in Soil? | p. 175 |
Determining Soil Type | p. 178 |
Earth Cycles: Many Processes on Earth Operate in Cycles | p. 175 |
Water Cycle | p. 175 |
Building an Aquifer Model | p. 180 |
Rock Cycle | p. 177 |
Edible Rock Cycle | p. 181 |
Atmospheric Cycle | p. 182 |
Cloud in a Bottle | p. 183 |
Weather and Climate: Weather Patterns, Climate Zones, and Climatic Change Over Time | p. 182 |
Tracking Rainfall | p. 184 |
Tracking Rainfall | p. 186 |
Measuring Wind | p. 185 |
Making an Anemometer | p. 187 |
Rainforest Terrarium | p. 185 |
Rainforest Terrarium | p. 190 |
Atmosphere: Atmospheric Movement, Layers, Pressure and Cloud Formation, Smog and Pollution | p. 189 |
Why Are Clouds White? | p. 189 |
Why Are Clouds White? | p. 192 |
Why Is the Sky Blue? | p. 191 |
Why Is the Sky Blue? | p. 193 |
Making Smog | p. 191 |
Smog in a Can | p. 194 |
Water and Oceans: Fresh Water/Salt Water Distribution, Interactions, and Contamination | p. 195 |
How Salty Is the Ocean? | p. 195 |
How Salty Is Too Salty? | p. 197 |
Probing the Ocean Floor | p. 196 |
Mapping the Ocean Floor | p. 198 |
Oil Spill Clean-Up Activity | p. 196 |
Oil Spill Clean-Up | p. 199 |
Student Study Site | p. 201 |
Reflections on Science | p. 201 |
Internet Connections: Earth and Space Science | p. 202 |
Understanding and Teaching Biology | p. 203 |
The Place of Biology in Science Education | p. 204 |
Measurement in Biology | p. 205 |
Measuring Peak Flow Rate of Breathing | p. 205 |
Measuring Peak Flow Rate | p. 206 |
Estimating Lengths of Very Small Objects | p. 205 |
Estimating Lengths of Very Small Objects | p. 207 |
Measuring Population Change | p. 208 |
Measuring Population Change | p. 208 |
Classification | p. 209 |
Classifying Using All of Your Senses | p. 209 |
Observation in the Bag | p. 212 |
Classification Systems | p. 209 |
Developing a System of Classification | p. 213 |
The Linnaean System of Classification | p. 209 |
Classifying Different Animals | p. 214 |
Plants | p. 211 |
Seed Germination | p. 215 |
Seed Germination | p. 216 |
Plant Cells | p. 215 |
Making a Plant Cell Model | p. 217 |
Variables in Plant Growth | p. 219 |
The Effect of Acid Rain on Plant Growth | p. 219 |
Animals | p. 221 |
Dissecting Owl Pellets | p. 221 |
Owl Pellet Dissection | p. 222 |
Animal Cells | p. 221 |
Making an Animal Cell Model | p. 223 |
Bird Census and Journal on Animal Behavior | p. 221 |
Conducting a Bird Census | p. 225 |
Neither Plant nor Animal: Protista, Monera, Viruses, Bacteria, Fungi | p. 224 |
Microscope Studies of Pond Water | p. 226 |
Exploring Pond Water | p. 227 |
The Action of Yeast in Dough | p. 226 |
The Power of Yeast | p. 228 |
Looking for Helpful Bacteria in Our Food | p. 226 |
Making Yogurt | p. 229 |
Ladder of Life: The Building Blocks of Organisms | p. 226 |
Cell Packing | p. 226 |
Cell Packing | p. 231 |
Photosynthesis-Transpiration Interactions | p. 232 |
Photosynthesis and Transpiration | p. 233 |
Cells as Natural Forms | p. 232 |
Minimal Surfaces in Natural and Biological Forms | p. 235 |
Code of Life: All Life Is Based on the Same Genetic Code | p. 232 |
Modeling the DNA Double Helix | p. 234 |
Making a Model of the DNA Double Helix | p. 236 |
DNA "Fingerprints" for Solving Mysteries | p. 237 |
Black Marker "Fingerprints" | p. 238 |
Genetic Defects | p. 237 |
Hearing Loss Simulation | p. 240 |
Evolution: Natural Selection and Evidence for Species Evolution | p. 237 |
Bird Beak Models | p. 239 |
Bird Beak Models | p. 241 |
Stereoscopic Vision | p. 242 |
Experimenting With Stereoscopic Vision | p. 244 |
Evolutionary Adaptations to Fill Ecological Niches | p. 242 |
Design-an-Organism | p. 245 |
Biomes and Ecosystems: Interactions Between Plants, Animals, and the Non-Living World | p. 243 |
What Is a Biome? | p. 243 |
Tracing Food Webs | p. 246 |
Tracing Food Webs | p. 247 |
Measuring the Greenhouse Effect | p. 246 |
Greenhouse Effect Model | p. 248 |
Unintended Consequences | p. 246 |
Unintended Consequences | p. 250 |
The Human Body and Human Health | p. 249 |
Tracking Food Choices | p. 249 |
You Are What You Eat | p. 251 |
Creating a Model of the Human Arm | p. 253 |
Modeling the Human Arm | p. 252 |
Spreading Infectious Illnesses | p. 255 |
Spreading Infectious Disease | p. 254 |
Student Study Site | p. 256 |
Reflections on Science | p. 256 |
Internet Connections: Biology | p. 256 |
References | p. 257 |
Understanding and Teaching Chemistry | p. 259 |
The Place of Chemistry in Science Education | p. 260 |
Measurement in Chemistry | p. 262 |
Estimating Volume | p. 262 |
Estimating Volume | p. 263 |
Measuring Temperature Using a Thermometer | p. 264 |
Making a Thermometer | p. 265 |
Counting Particles: Understanding Parts per Thousand | p. 264 |
Serial Dilution of Colored Liquid | p. 267 |
Atoms, Elements, and Molecules | p. 266 |
Building Simple Molecules | p. 268 |
Marshmallow Molecule Models | p. 270 |
Physical Properties of Molecules | p. 268 |
Evaporating Molecules | p. 271 |
Elements You Eat | p. 268 |
Elements You Eat | p. 272 |
Matter | p. 268 |
The States of Matter and the Organization of Matter: Physical and Chemical Changes | p. 268 |
Hot Air Rises | p. 273 |
Hot Air Rises | p. 274 |
Densities of Liquids | p. 273 |
Densities of Liquids | p. 275 |
Making Salt Crystals | p. 276 |
Making Salt Crystals | p. 277 |
Bonding | p. 276 |
Floating a Needle on Water | p. 278 |
Separating Mixtures | p. 276 |
Separating Mixtures | p. 279 |
Making Water "Wetter" With Soap | p. 280 |
Comparing Soaps | p. 281 |
Temperature | p. 280 |
Evaporation: Effects on Temperature | p. 280 |
Evaporation of Alcohol and Water | p. 282 |
Hot and Cold Water Interactions | p. 283 |
Hot and Cold Water Mixtures | p. 284 |
Making Ice Cream | p. 283 |
Making Ice Cream | p. 285 |
Pressure | p. 283 |
Burning Candles: A Temperature/Pressure Relationship | p. 286 |
Burning Candles | p. 286 |
Creating a Vacuum | p. 286 |
Creating a Simple Vacuum | p. 288 |
How Air Pressure Changes With Depth | p. 289 |
Cartesian Diver | p. 290 |
Fuels | p. 289 |
Measuring the Energy in Batteries | p. 289 |
Building a Voltaic Pile | p. 292 |
Harnessing Solar Energy | p. 291 |
Making a Solar Water Heater | p. 293 |
Energy in Fossil Fuels | p. 294 |
Peanut Power | p. 295 |
Student Study Site | p. 296 |
Reflections on Science | p. 296 |
Internet Connections: Chemistry | p. 296 |
References | p. 297 |
Understanding and Teaching Physics | p. 299 |
The Place of Physics in Science Education | p. 300 |
Measurement in Physics | p. 304 |
Standards for Measuring Length | p. 305 |
Using a Balance to Measure Mass | p. 308 |
Using a Stopwatch to Measure Time | p. 308 |
Using Standard and Nonstandard Units of Length | p. 307 |
Determining Relative and Absolute Weights Using a Pan Balance | p. 309 |
Using a Stopwatch to Measure Time | p. 311 |
Force: Gravity, Velocity, Acceleration, Newton's Laws | p. 310 |
Inertia | p. 312 |
Flipping a Card off Your Finger While Leaving a Quarter in Place | p. 312 |
Centrifugal Force | p. 313 |
Swinging a Bucket of Water in a Circle Without Getting Wet | p. 314 |
Air Flow: Creating Lift | p. 313 |
Demonstrating "Lift" with a Ping-Pong Ball and Straw | p. 316 |
Forms of Energy | p. 315 |
Trading Potential and Kinetic Energy With Superballs | p. 317 |
Bouncing Superballs | p. 318 |
Modeling Nuclear Decay and Half-Life | p. 317 |
Modeling Nuclear Half-Life | p. 319 |
Static Electricity | p. 317 |
Creating an Electroscope to Detect Static Electricity | p. 320 |
Simple Machines | p. 321 |
Pulleys | p. 321 |
Experimenting With Pulleys | p. 322 |
Ramps | p. 321 |
Experimenting With Ramps | p. 323 |
Levers | p. 324 |
Experimenting With Levers | p. 325 |
Sound | p. 324 |
Sound Conduction | p. 326 |
Demonstrating the Conduction of Sound | p. 327 |
Harmonics | p. 326 |
Experimenting With Harmonic Sound | p. 328 |
Resonance | p. 326 |
Experimenting With Resonance | p. 329 |
Light and Color | p. 326 |
Persistence of Vision | p. 330 |
Making a Thaumatrope | p. 331 |
Color Blending | p. 330 |
Color Blendmg | p. 332 |
Bending Light | p. 330 |
Bending Light | p. 333 |
Electricity and Magnetism | p. 330 |
Magnetic Fields | p. 334 |
Observing Magnetic Fields | p. 335 |
Electrical Circuits | p. 334 |
Making a Simple Circuit | p. 336 |
Electromagnets | p. 334 |
Making an Electromagnet | p. 337 |
Student Study Site | p. 339 |
Reflections on Science | p. 339 |
Design Your Own Experiment | p. 338 |
Internet Connections: Physics | p. 339 |
References | p. 340 |
Making the Transition From Preservice Teacher to Inservice Teacher | p. 341 |
Teacher Professional Development: Growing as a Teacher of Science | p. 341 |
History of Teacher Professional Development | p. 343 |
The Current State of Teacher Professional Development | p. 345 |
Recertification Requirements Across States | p. 347 |
Action Research: From Research "On" to Research "With" | p. 347 |
Japanese Lesson Study | p. 349 |
The TIMMS Video Project | p. 351 |
Video Study Groups | p. 351 |
Parental Involvement and Parental Engagement | p. 352 |
Parent Interview | p. 354 |
Professional Organizations: NSTA | p. 355 |
Advanced Study | p. 357 |
National Board Certification | p. 357 |
Interviewing an NBCT in Your School District | p. 358 |
Applying for Grants | p. 359 |
If I Had $500... | p. 361 |
Student Study Site | p. 362 |
Reflections on Science | p. 362 |
References | p. 362 |
The National Science Education Standards for Science Content | p. 363 |
Glossary | p. 365 |
Index | p. 373 |
About the Authors | p. 395 |
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