Genetics and Evolution
The fundamentals of genetics and evolution; the building blocks of DNA, genes, and chromosomes. are covered in this course.
- This course is likely focused on the study of genetics, specifically the principles of genetics and their relationship to evolution and natural selection.
- It covers the principles of genetics and evolution, from the structure of DNA to the ethical considerations of genetic engineering.
Who is this Course for?
- Students of secondary 4 / Secondary 5 / O level who want to understand, learn, and excel in their Genetics and Evolution studies.
- It’s also suitable for anyone with a keen interest in the subject.
What you will Learn?
- Gain a deep understanding of DNA, genes, and chromosomes.
- Explore the structure and functions of genes.
- Learn about genetic codes and their role in protein synthesis.
- Discover how genes can be transferred between organisms.
- Explore the world of genetic engineering and its ethical implications.
- Understand the role of DNA in inheritance and evolution.
- Grasp the concept of gene structure and its significance.
- Explore real-world examples of genetic engineering.
- Discuss the benefits and ethical concerns surrounding genetic modification.
- Develop critical thinking skills for analyzing genetic information.
Why Learn from doerdo Tuition Course?
Experienced Teachers: Learn from highly skilled ex-MOE educators through live interactive sessions.
Personalized Support: Get one-on-one mentorship and after-class assistance.
AI-Based Learning: Access AI-driven tests and homework for a more engaging learning experience.
Syllabus Alignment: Our content aligns with MOE syllabus standards.
In-Depth Insights: Gain a detailed understanding of your performance and progress.
|Outline of DNA, Genes, Chromosomes: DNA, genes, and chromosomes are fundamental to genetics. DNA contains genes, which are sequences of nucleotides. Chromosomes are structures that hold DNA. For example, humans have 46 chromosomes in their cells.
|DNA Structure: DNA is a double helix made up of two strands of nucleotides. Each nucleotide consists of a sugar, a phosphate group, and one of four bases (adenine, thymine, cytosine, or guanine).
|Complementary Base Pairing: In DNA, bases pair up: A with T and C with G. This pairing is essential for DNA replication and gene expression.
|Gene Structure and Function: Genes are sequences of nucleotides within DNA. Each gene codes for a specific polypeptide and is a unit of inheritance. For instance, the gene responsible for eye color in humans.
|DNA as Genetic Code: DNA carries the genetic code, used to synthesize specific polypeptides. This code is vital for protein production in cells.
|Gene Transfer and Transgenic Organisms: Genes can be transferred between organisms to create transgenic organisms. For example, transferring a gene for pest resistance into crops.
|Genetic Engineering: Genetic engineering involves modifying an organism’s DNA. For instance, inserting a gene for human insulin into bacteria to produce insulin for medical use.
|Benefits and Ethics of Genetic Engineering: Genetic engineering has benefits like medical advancements but raises ethical concerns, such as modifying animals for economic gain.