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Browse by Grade: JC 1

Singapore · MOE Syllabus Outcomes

JC 1 Biology

This course explores the fundamental principles governing life from the molecular level to complex ecosystems. Students analyze the intricate relationship between structure and function while investigating how genetic information drives biological diversity and continuity.

7 units·39 topics·Ages 16-17

01Cell Ultrastructure: Comparative Analysis of Prokaryotic and Eukaryotic Cells

5 topics·Semester 1

This unit introduces fundamental biological concepts, the characteristics of living organisms, and the hierarchical organization of life, emphasizing the diversity found in nature.

What is Biology? Exploring Life's Characteristics

Students will explore the defining characteristics of living organisms and differentiate them from non-living things through observation and classification activities.

Inquiry CircleConcept MappingCase Study Analysis
Cell Fractionation and Ultracentrifugation: Isolating and Characterising Organelles

Students will investigate the hierarchical organization of life, from cells to ecosystems, understanding how each level contributes to the overall function of an organism and its environment.

Problem-Based LearningInquiry CircleThink-Pair-Share
The Fluid Mosaic Model: Membrane Architecture and Dynamic Properties

Students will learn the principles of biological classification, focusing on the five kingdoms and binomial nomenclature, to understand the vast diversity of life.

Simulation GameConcept MappingCase Study Analysis
Membrane Proteins: Structural Diversity and Functional Roles

Students will explore the diversity and importance of microorganisms, including bacteria, fungi, and viruses, and their roles in various ecosystems and human health.

Case Study AnalysisJigsawConcept Mapping
Passive Transport: Simple Diffusion, Facilitated Diffusion, and Osmosis

Students will investigate the basic structure and function of plants, focusing on their role as producers and their importance to all other life forms.

Problem-Based LearningExperiential LearningCollaborative Problem-Solving

02Water: Hydrogen Bonding and Biological Significance

10 topics·Semester 1

An investigation into the biochemical building blocks of life and the specialized organelle structures that maintain cellular homeostasis.

The Chemistry of Life: Water and Its Properties

Students will examine the unique properties of water and how its molecular structure makes it essential for all biological processes.

Inquiry CircleConcept MappingFormal Debate
Carbohydrates: Isomerism, Glycosidic Bonds, and Macromolecular Roles

Students will explore the structure and function of carbohydrates, understanding their roles as primary energy sources and structural components in living organisms.

Problem-Based LearningCase Study AnalysisConcept Mapping
Lipids: Fatty Acid Unsaturation, Phospholipid Architecture, and Membrane Function

Students will investigate the diverse group of lipids, focusing on their roles in energy storage, insulation, and the formation of cell membranes.

Concept MappingThink-Pair-ShareProblem-Based Learning
Amino Acids and Protein Primary Structure

Students will learn about the complex structure and vast array of functions of proteins, from enzymes to structural components, emphasizing their importance in all life processes.

Case Study AnalysisProblem-Based LearningSimulation Game
Protein Conformation: Secondary to Quaternary Structure and Denaturation

Students will be introduced to DNA and RNA, understanding their fundamental roles in storing, transmitting, and expressing genetic information.

JigsawConcept MappingCase Study Analysis
Nucleotides and Nucleic Acids: DNA and RNA Structure and Information Storage

Students will explore the foundational principles of the cell theory and identify the basic components common to all cells, both prokaryotic and eukaryotic.

Simulation GameConcept MappingInquiry Circle
Enzymes: Active Site Chemistry and the Induced Fit Hypothesis

Students will investigate the specialized organelles within eukaryotic cells, comparing and contrasting the structures and functions found in plant and animal cells.

Concept MappingProblem-Based LearningSimulation Game
Enzyme Kinetics: Michaelis-Menten Model, Km, and Vmax

Students will analyze the fluid mosaic model of the cell membrane, understanding its composition and how it regulates the cell's interactions with its environment.

Problem-Based LearningCollaborative Problem-SolvingInquiry Circle
Enzyme Inhibition: Competitive, Non-Competitive, and Allosteric Regulation

Students will investigate passive transport mechanisms, including diffusion and osmosis, and their importance in maintaining cellular homeostasis.

Case Study AnalysisProblem-Based LearningDecision Matrix
Factors Affecting Enzyme Activity: Temperature, pH, and Concentration

Students will explore active transport mechanisms, understanding how cells use energy to move substances against their concentration gradients.

Inquiry CircleExperiential LearningProblem-Based Learning

03Active Transport: Ion Pumps, Electrochemical Gradients, and Co-Transport

7 topics·Semester 1

Analyzing the metabolic pathways of respiration and photosynthesis that power biological work.

Enzymes: Biological Catalysts

Students will study the role of enzymes as biological catalysts, investigating factors that affect their activity and their importance in metabolic pathways.

Concept MappingCase Study AnalysisSimulation Game
Bulk Transport: Endocytosis, Exocytosis, and the Endomembrane System

Students will be introduced to the overall process of cellular respiration, understanding how organisms break down glucose to release energy.

Case Study AnalysisJigsawConcept Mapping
Osmosis and Water Potential: Quantitative Analysis and Plant Cell Responses

Students will learn the overall word equation for aerobic respiration and understand that it releases energy from glucose with oxygen.

Problem-Based LearningExperiential LearningCollaborative Problem-Solving
The Cell Cycle: Phases, Checkpoint Regulation, and CDK-Cyclin Complexes

Students will explore anaerobic respiration and fermentation, understanding how cells generate energy in the absence of oxygen and its applications.

Concept MappingCase Study AnalysisInquiry Circle
Mitosis: Spindle Assembly, Chromosome Dynamics, and Cytokinesis

Students will be introduced to the overall process of photosynthesis, understanding how plants convert light energy into chemical energy.

Simulation GameConcept MappingStations Rotation
Meiosis I: Synapsis, Crossing Over, and Independent Assortment

Students will learn the overall word equation for photosynthesis and understand that plants use light energy to convert carbon dioxide and water into glucose and oxygen.

Simulation GameCollaborative Problem-SolvingConcept Mapping
Meiosis II, Non-Disjunction, and Comparison with Mitosis

Students will investigate how environmental factors such as light intensity, carbon dioxide concentration, and temperature affect the rate of photosynthesis.

Concept MappingSimulation GameThink-Pair-Share

04DNA Replication: Semi-Conservative Mechanism and Enzymatic Machinery

4 topics·Semester 1

A study of DNA structure, replication, and the mechanisms by which genes are expressed as functional proteins.

DNA: The Molecule of Heredity

Students will explore the structure of DNA, understanding its double helix shape and how it carries genetic information.

Simulation GameConcept MappingProblem-Based Learning
Transcription and Pre-mRNA Processing in Eukaryotes

Students will understand that DNA is the genetic material found in the nucleus of cells and carries instructions for an organism's traits.

Concept MappingJigsawInquiry Circle
Translation: Ribosome Function, Codon Recognition, and Polypeptide Elongation

Students will understand the relationship between genes, chromosomes, and the expression of traits in organisms.

Simulation GameCase Study AnalysisConcept Mapping
Gene Expression Regulation: Transcription Factors, Epigenetics, and Cell Differentiation

Students will explore different types of mutations and their potential effects on gene expression and organismal traits.

Concept MappingCase Study AnalysisJigsaw

05Glycolysis: Substrate-Level Phosphorylation, NAD⁺ Regeneration, and Regulation

4 topics·Semester 2

Exploring how genetic material is replicated and distributed during cell division and the patterns of inheritance.

The Cell Cycle: Growth and Preparation

Students will investigate the stages of the cell cycle, understanding how cells grow and prepare for division.

Concept MappingProblem-Based LearningInquiry Circle
The Link Reaction and Krebs Cycle: Acetyl-CoA Oxidation and Electron Carrier Production

Students will explore the process of mitosis, understanding how somatic cells divide to produce two genetically identical daughter cells for growth and repair.

Concept MappingCollaborative Problem-SolvingSimulation Game
Oxidative Phosphorylation: Electron Transport Chain, Proton-Motive Force, and Chemiosmosis

Students will understand the concept of sexual reproduction and the role of gametes (sex cells) in passing on genetic information.

Concept MappingProblem-Based LearningCase Study Analysis
Anaerobic Respiration: Metabolic Rationale, Fermentation Pathways, and Lactate Clearance

Students will apply Mendel's laws of inheritance to predict phenotypic and genotypic ratios in offspring, using Punnett squares.

Case Study AnalysisConcept MappingThink-Pair-Share

06Chloroplast Ultrastructure and Photosynthetic Pigment Absorption

1 topics·Semester 2

Examining the mechanisms of evolution and the evidence for the common ancestry of all life forms.

Variation and Adaptation

Students will explore the concepts of variation within a species and how organisms are adapted to their environments.

Experiential LearningInquiry CircleProblem-Based Learning

07Biological Systems and the Environment

8 topics·Semester 2

Analyzing the flow of energy and cycling of nutrients within ecosystems and the impact of human activity.

Ecology: Interactions in Ecosystems

Students will be introduced to the principles of ecology, exploring the interactions between organisms and their environment.

Concept MappingGallery WalkThink-Pair-Share
Non-Cyclic Photophosphorylation: Photosystem II, Z-Scheme Electron Flow, and Oxygen Evolution

Students will investigate how energy flows through ecosystems, constructing food chains and food webs to illustrate trophic levels.

Simulation GameConcept MappingInquiry Circle
Cyclic Photophosphorylation and Regulation of the Light-Dependent Reactions

Students will explore ecological pyramids to understand the quantitative relationships between trophic levels in terms of energy, biomass, and numbers.

Concept MappingThink-Pair-ShareCollaborative Problem-Solving
The Calvin Cycle: Carbon Fixation, GP Reduction, and RuBP Regeneration

Students will investigate the biogeochemical cycles of carbon and water, understanding their importance for sustaining life on Earth.

Simulation GameConcept MappingProblem-Based Learning
Limiting Factors in Photosynthesis: Light, CO₂ Concentration, and Temperature

Students will explore the nitrogen and phosphorus cycles, understanding their critical roles in nutrient availability for ecosystems.

Inquiry CircleProblem-Based LearningExperiential Learning
Mutations: Molecular Types, Mutagenic Mechanisms, and DNA Repair

Students will understand the concept of biodiversity, its importance for ecosystem stability, and the major threats it faces.

Case Study AnalysisConcept MappingInquiry Circle
Cancer Biology: Oncogenes, Tumour Suppressors, and Multistep Carcinogenesis

Students will investigate the causes of climate change, focusing on the greenhouse effect and human activities, and its biological impacts.

Case Study AnalysisDecision MatrixInquiry Circle
Recombinant DNA Technology: Restriction Enzymes, Vectors, and Bacterial Transformation

Students will explore various conservation strategies and their effectiveness in mitigating environmental problems and protecting biodiversity.

Simulation GameProblem-Based LearningConcept Mapping