Genatics

Pathway: Education

create a Genatics course for grade 10

#Genatics#mutation

1. Describe the molecular structure and function of DNA, RNA, and chromosomes.

Learning Targets:

1. List and label the components of nucleotides and the structural differences between DNA and RNA.

2. Diagram the double-helix structure of DNA, indicating the pairing mechanism of nucleotides.

3. Identify the role of chromosomes in genetic transmission and cellular function.

Modules

1. Molecular Building Blocks

1. 1. Understanding Nucleotides and Nucleic Acids

Learning Outcomes:

1. List the individual components of nucleotides including sugar, phosphate, and nitrogenous bases.

2. Differentiate between deoxyribonucleic acid (DNA) and ribonucleic acid (RNA) by comparing their components.

3. Describe the chemical properties that underlie the stability and reactivity of nucleic acids.

4. Demonstrate the ability to categorize nucleotides based on their roles in genetic encoding.

1. 2. DNA Structural Analysis

Learning Outcomes:

1. Diagram the double helix structure of DNA with clear indication of the sugar-phosphate backbone and base pairs.

2. Explain the mechanism of complementary base pairing and its significance in replication.

3. Compare the structural differences observed in various models of DNA structure.

4. Interpret experimental data that supports the double helix model.

1. 3. RNA Structure and Roles

Learning Outcomes:

1. Describe the different types of RNA (mRNA, tRNA, rRNA) and their unique functions.

2. Illustrate the secondary structures formed by RNA molecules.

3. Explain how RNA structure affects its function in protein synthesis.

4. Evaluate real-world scenarios where RNA misfunction leads to genetic disorders.

Genatics

Pathway: Education

create a Genatics course for grade 10

#Genatics#mutation

1. Describe the molecular structure and function of DNA, RNA, and chromosomes.

Learning Targets:

1. List and label the components of nucleotides and the structural differences between DNA and RNA.

2. Diagram the double-helix structure of DNA, indicating the pairing mechanism of nucleotides.

3. Identify the role of chromosomes in genetic transmission and cellular function.

Modules

1. Molecular Building Blocks

1. 1. Understanding Nucleotides and Nucleic Acids

Learning Outcomes:

1. List the individual components of nucleotides including sugar, phosphate, and nitrogenous bases.

2. Differentiate between deoxyribonucleic acid (DNA) and ribonucleic acid (RNA) by comparing their components.

3. Describe the chemical properties that underlie the stability and reactivity of nucleic acids.

4. Demonstrate the ability to categorize nucleotides based on their roles in genetic encoding.

1. 2. DNA Structural Analysis

Learning Outcomes:

1. Diagram the double helix structure of DNA with clear indication of the sugar-phosphate backbone and base pairs.

2. Explain the mechanism of complementary base pairing and its significance in replication.

3. Compare the structural differences observed in various models of DNA structure.

4. Interpret experimental data that supports the double helix model.

1. 3. RNA Structure and Roles

Learning Outcomes:

1. Describe the different types of RNA (mRNA, tRNA, rRNA) and their unique functions.

2. Illustrate the secondary structures formed by RNA molecules.

3. Explain how RNA structure affects its function in protein synthesis.

4. Evaluate real-world scenarios where RNA misfunction leads to genetic disorders.

Genatics

Pathway: Education

1. Describe the molecular structure and function of DNA, RNA, and chromosomes.

Learning Targets:

Modules

1. Molecular Building Blocks

1. 1. Understanding Nucleotides and Nucleic Acids

Learning Outcomes:

1. 2. DNA Structural Analysis

Learning Outcomes:

1. 3. RNA Structure and Roles

Learning Outcomes:

Genatics

Pathway: Education

1. Describe the molecular structure and function of DNA, RNA, and chromosomes.

Learning Targets:

Modules

1. Molecular Building Blocks

1. 1. Understanding Nucleotides and Nucleic Acids

Learning Outcomes:

1. 2. DNA Structural Analysis

Learning Outcomes:

1. 3. RNA Structure and Roles

Learning Outcomes:

1. 4. Advanced Sequence Analysis of Nucleic Acids

Learning Outcomes:

2. Chromosomal Architecture and Function

2. 1. Chromosome Structure and Organization

Learning Outcomes:

2. 2. Role of Chromosomes in Genetic Transmission

Learning Outcomes:

3. Epigenetics and Gene Regulation

3. 1. DNA Methylation and Histone Modifications

Learning Outcomes:

3. 2. Non-coding RNAs in Molecular Regulation

Learning Outcomes:

3. 3. Structural Genomics and Chromatin Architecture

Learning Outcomes:

2. Analyze patterns of genetic inheritance and variation in organisms.

Learning Targets:

Modules

1. Inheritance Patterns and Probability

1. 1. Mendelian Inheritance Fundamentals

Learning Outcomes:

1. 2. Dihybrid Crosses and Complex Patterns

Learning Outcomes:

1. 3. Pedigree Analysis and Advanced Inheritance

Learning Outcomes:

1. 4. Gene-Environment Interactions in Inheritance

Learning Outcomes:

2. Non-Mendelian and Multifactorial Inheritance Patterns

2. 1. Non-Mendelian Inheritance Patterns

Learning Outcomes:

2. 2. Mitochondrial Inheritance and Genomic Imprinting

Learning Outcomes:

3. Evaluate molecular mechanisms of gene mutation and DNA repair.

Learning Targets:

Modules

1. Mutation Mechanisms and Their Effects

1. 1. Classification of Genetic Mutations

Learning Outcomes:

1. 2. Impact of Mutations on Protein Synthesis

Learning Outcomes:

1. 3. DNA Repair Mechanisms

Learning Outcomes:

1. 4. Environmental Mutagens and Mutation Induction

Learning Outcomes:

2. Advanced Mutation Analysis and Case Studies

2. 1. Bioinformatics Tools in Mutation Analysis

Learning Outcomes:

2. 2. Case Studies on Mutations in Diseases

Learning Outcomes:

4. Demonstrate proficiency in utilizing laboratory techniques for genetic analysis.

Learning Targets:

Modules

1. Genetics Laboratory Techniques

1. 1. Principles and Practice of PCR

Learning Outcomes:

1. 2. Mastering Gel Electrophoresis

Learning Outcomes: