Lesson 03: Study of Malaria through the Biological Method

Lesson 15/105 | Study Time: 30 Min
Course: Biology IX
Lesson 03: Study of Malaria through the Biological Method

Learning Outcomes:



i. Students will follow the biological method to study malaria.



ii. They will understand each step of the biological method from problem identification to hypothesis formation, and experimentation to conclusion.



iii. Students will apply these steps to understand how malaria is studied and how interventions are developed.



 



Summary of Lesson:



In this lesson, we're going to look at how scientists use a step-by-step method to figure out problems in biology, just like solving a mystery. We'll use malaria, a disease spread by mosquitoes, as an example to see how this method works in real life.



 



Content:



i. Identifying the Problem: Start by identifying malaria as a problem that affects many people. Malaria causes fever, chills, and can be deadly if not treated.



ii. Making Observations: Observe how malaria symptoms appear, where malaria is common, and notice the relationship between mosquito activity and the spread of the disease.



iii. Forming a Hypothesis: Form a hypothesis, or a good guess, such as "Malaria is spread by mosquitoes."



iv. Testing the Hypothesis: Design an experiment to see if avoiding mosquitoes reduces the chance of getting malaria. This could involve using mosquito nets and seeing if fewer people get sick.



v. Analyzing Data and Drawing Conclusions: Collect data from the experiment, like the number of people who got malaria with and without the use of nets. Then decide if the data supports the hypothesis.



vi. Reporting Results: Share the findings with others, which can help in the fight against malaria worldwide.



 



List of Important Questions for Self-Study:





  • i. What is the biological problem that scientists are trying to solve with malaria?




  • ii. What observations might lead scientists to believe that mosquitoes are related to malaria?




  • iii. How could you test the hypothesis that mosquitoes spread malaria?




  • iv. What kind of data would you collect to see if mosquito nets are effective?




  • v. How do you decide if your hypothesis about malaria is correct?




  • vi. Why is it important to share the results after conducting an experiment?




  • vii. What are some other ways scientists might prevent the spread of malaria?




  • viii. How does studying malaria help us understand the importance of the biological method?




  • ix. What could be the next steps if the hypothesis is proven wrong?




  • x. Why is the biological method a reliable way of studying problems in science?





 



Important Terminologies Used in Lesson:



i. Biological Method: A series of steps that scientists use to study living things and answer questions.



ii. Malaria: A life-threatening disease caused by parasites that are transmitted to people through the bites of infected mosquitoes.



iii. Hypothesis: An educated guess based on observations.



iv. Experiment: A test conducted to determine whether a hypothesis is correct.



v. Data: Information collected during an experiment.



vi. Conclusion: A decision about the hypothesis based on the data from the experiment.



vii. Mosquito Net: A type of meshed curtain that is used to keep mosquitoes away from individuals during the night to prevent malaria.



 



 

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Class Sessions

1- Lesson 01: Foundations of Biology 2- Lesson 02: Exploring Biological Branches 3- Lesson 03: Biology and Other Sciences 4- Lesson 07: Bioelements - The Fundamentals of Life 5- Lesson 08: Biomolecules - The Chemical Basis of Life 6- Lesson 10: Cooperation in Life - Division of Labor 7- Lesson 09: The Hierarchy of Life 8- Lesson 04: Biology in Professional Practice 9- Lesson 01: The Biological Method - Recognition and Hypothesis Formation 10- Lesson 05: Classifying Life 11- Lesson 06: Biology and Islam 12- Lesson 04: Ratio and Proportion in Biological Problem-Solving 13- Lesson 05: Data Analysis in Biology 14- Lesson 02: Experimentation and Inference in Biology 15- Lesson 03: Study of Malaria through the Biological Method 16- Lesson 07: Biological Terminologies and Concepts Review 17- Lesson 06: Mathematics in Biological Sciences 18- Lesson 01: Biodiversity 19- Lesson 02: Aims and Principles of Classification in Biology 20- Lesson 03: History of Classification - Tracing the Evolution from Two to Five Kingdoms 21- Lesson 04: The Five Kingdom System of Classification 22- Lesson 05: Binomial Nomenclature - Naming the Diversity of Life 23- Lesson 06: Biodiversity and Its Conservation 24- Lesson 07: Human Impact on Biodiversity 25- Lesson 08: Pollution, Deforestation, and Their Effects on Biodiversity 26- Lesson 01: Microscopy and the Emergence of Cell Theory 27- Lesson 02: Unveiling the Microscopic World: Light and Electron Microscopy 28- Lesson 03: The Pillars of Cell Theory: Contributions of Hooke, Brown, and Pasteur 29- Lesson 04: Organelles of the Animal Cell - Nucleus and Cell Membrane 30- Lesson 05: The Cytoplasmic Matrix: Ribosomes and the Endoplasmic Reticulum 31- Lesson 06: The Cell's Processing Plants: Golgi Apparatus, Lysosomes, and Mitochondria 32- Lesson 07: The Support and Division Framework: Centrioles and Cytoskeleton 33- Lesson 08: Cilia and Flagella: The Cell's Movers and Shakers 34- Lesson 09: The Plant Cell: Cell Wall and Vacuoles 35- Lesson 10: The Plant Cell and Its Plastids 36- Lesson 01: The Rhythm of Life: The Cell Cycle 37- Lesson 02: Interphase: The Foundation of the Cell Cycle 38- Lesson 03: S-Phase: The Synthesis Core of Interphase 39- Lesson 04: The Stages of Mitosis - Cell Division Unveiled 40- Lesson 05: Mitosis: The Pathway to Genetic Fidelity and Organismal Growth 41- Lesson 07: Meiosis: The Process of Reduction Division 42- Lesson 06: Comparing Cell Division: Mitosis in Plant vs. Animal Cells 43- Lesson 08: Unraveling Meiosis I: The Prelude to Genetic Diversity 44- Lesson 09: Finalizing Division: The Stages of Meiosis II 45- Lesson 10: The Essence of Meiosis: Ensuring Diversity and Continuity 46- Lesson 01: The Dynamics of Life: Understanding Metabolism and Enzymes 47- Lesson 02: Enzymes: Accelerators of Biochemical Reactions 48- Lesson 03: The Influencers of Enzyme Activity: pH, Temperature, and Substrate Concentration 49- Lesson 05: The Specificity of Enzymes: A Study of Shape and Function 50- Lesson 04: Deciphering Enzyme Mechanisms: Lock and Key vs. Induced Fit 51- Lesson 01: Bioenergetics: The Energy Flow in Biological Systems 52- Lesson 02: Oxidation-Reduction Reactions: The Currency of Energy in Biology 53- Lesson 03: Energizing Life: Oxidation-Reduction Reactions and the ATP-ADP Cycle 54- Lesson 04: Photosynthesis: The Synthesis of Life 55- Lesson 05: Photosynthesis: The Foundation of Life's Energy Pyramid 56- Lesson 06: The Sustenance of Plants: Intake of Carbon Dioxide and Water 57- Lesson 07: Limiting Factors in Photosynthesis: Understanding Plant Productivity 58- Lesson 08: The Power Without Oxygen: Anaerobic Respiration 59- Lesson 09: Aerobic Respiration: Harnessing Energy from Oxygen 60- Lesson 10: Navigating Nutritional Challenges: PEM, MDD, and OIN 61- Lesson 01: Mineral Nutrition in Plants: From Soil to Cell 62- Lesson 02: The Essentials of Plant Nutrition: Nitrogen and Magnesium 63- Lesson 03: Fertilizers in Agriculture: Boon and Bane 64- Lesson 04: The Building Blocks of Nutrition: Carbohydrates, Proteins, and Fats 65- Lesson 05: Essential Vitamins: A, C, and D – Sources and Functions 66- Lesson 06: Nutritional Essentials: Calcium, Iron, and Vitamins A, C, D 67- Lesson 07: The Fundamentals of Hydration and Fiber 68- Lesson 08: Crafting Your Plate: A Guide to a Balanced Diet 69- Lesson 09: Understanding Nutritional Problems: The Protein-Energy Puzzle 70- Lesson 01: Plant Transport Systems: Roots and Nutrient Uptake 71- Lesson 02: Transpiration: The Vital Water Movement in Plants 72- Lesson 03: Transpiration: Plant Life's Balancing Act 73- Lesson 04: The Dynamics of Transpiration: Environmental Influences 74- Lesson 05: Life's Pathways: The Journey of Water and Food in Plants 75- Lesson 06: The Life-Sustaining Fluid: Blood and Its Components 76- Lesson 07: Blood Typing: Understanding ABO and Rh Systems 77- Lesson 08: The Matching Game: Blood Group Donors and Recipients 78- Lesson 09: Blood Disorders: Understanding Leukemia and Thalassemia 79- Lesson 11: Foundations of Biology - Summary of Terminologies 80- Lesson 11: The Cellular Tapestry of a Leaf 81- Lesson 12: Form Meets Function: Specialized Cells and Open Systems 82- Lesson 13: The World of Cells: Prokaryotic vs Eukaryotic 83- Lesson 14: The Geometry of Survival: Cell Size, Shape, and Surface Area to Volume Ratio 84- Lesson 15: The Balancing Act: Surface Area to Volume Ratio and Cell Size 85- Lesson 16: The Movement of Substances: Cellular Transport Mechanisms 86- Lesson 17: Crossing Borders: Passive vs. Active Transport in Cells 87- Lesson 18: Turgor Pressure: The Plant Cell's Balancing Act 88- Lesson 19: Plasmolysis: When Cells Shrink from Osmotic Pressure 89- Lesson 20: The Cell Membrane: Guardian of Cellular Equilibrium 90- Lesson 21: The Dynamic Cell: Endocytosis and Exocytosis 91- Lesson 22: Tissues: The Teamwork of Cells 92- Lesson 23: The Fabric of Life: Major Animal Tissue Types 93- Lesson 10: Comparing Aerobic and Anaerobic Respiration: The Energy Yield 94- Lesson 24: The Architectural Wonders of Plant Tissues 95- Lesson 11: The Cycle of Life: Photosynthesis vs. Respiration 96- Lesson 11: Divergent Paths: Contrasting Mitosis and Meiosis 97- Lesson Title 11: The Impact of Malnutrition: From Starvation to Obesity 98- Lesson 12: Unraveling Famine: Causes and Consequences 99- Lesson 13: Nutrient's Voyage: The Digestive Process 100- Lesson 14: Mapping the Alimentary Canal: A Tour Through the Digestive Highway 101- Lesson 15: The Digestive Trail: From Ingestion to Egestion 102- Lesson 12: Life and Death of Cells: Necrosis vs. Apoptosis 103- Lesson 16: The Dynamics of Digestion: Swallowing, Peristalsis, and Enzymatic Action 104- Lesson 17: The Liver: The Body's Metabolic Powerhouse 105- Lesson 18: Gut Reactions: Understanding Digestive Disorders