Principles of Biology
The Principles of Biology sequence (BI 211, 212 and 213) introduces biology as a scientific discipline for students planning to major in biology and other science disciplines.
Description from LibreTexts.
- Subjects
- Biology, Introductory and General Biology
- Licence
- CC BY, as LibreTexts states it
- Who can read
- Tweens profiles and older, judged from its title and subjects
Contents
LibreTexts writes equations in TeX, and here they show as TeX; the PDF has them typeset.
- Front Matter
- TitlePage
- InfoPage
- Table of Contents
- Class Descriptions
- Licensing
- BIOLOGY 211: Cell Biology
- 1: The Process of Science
- 1.1: The Nature of Science
- 1.2: The Scientific Process
- 1.3: Presenting Data - Graphs and Tables
- 1.4: Writing for Science
- 1.5: Using Credible Sources
- 2: Chemistry for Biology
- 2.1: Atoms
- 2.2: Chemical Bonds
- 2.3: Water
- 2.4: Buffers, pH, Acids, and Bases
- 2.5: Absolutely Necessary Chemistry Summary
- 3: Biological Molecules
- 3.1: Carbohydrates
- 3.2: Lipids
- 3.3: Proteins
- 3.4: Nucleic Acids
- 3.5: Biological Macromolecule Practice Questions
- 4: What is Life?
- 4.1: What makes something living?
- 4.2: Levels of Organization
- 4.3: The Diversity of Life
- 5: Cell Structure and Function
- 5.1: How Cells Are Studied
- 5.2: Comparing Prokaryotic and Eukaryotic Cells
- 5.3: The Plasma Membrane and The Cytoplasm
- 5.4: Ribosomes
- 5.5: The Cytoskeleton
- 5.6: Flagella and Cilia
- 5.7: The Endomembrane System
- 5.8: The Nucleus
- 5.9: The Endoplasmic Reticulum
- 5.10: The Golgi Apparatus
- 5.11: Vesicles and Vacuoles, Lysosomes, and Peroxisomes
- 5.12: Mitochondria and Chloroplasts
- 5.13: The Cell Wall
- 5.14: Extracellular matrix and intercellular junctions
- 5.15: The Production of a Protein
- 5.16: Summary Table of Prokaryotic and Eukaryotic Cells and Functions
- 6: The Cell Membrane and Transport
- 6.1: The Plasma Membrane
- 6.2: Transport Across Membranes
- 6.3: Passive Transport - Diffusion
- 6.4: Passive Transport - Facilitated Transport
- 6.5: Passive Transport - Osmosis
- 6.6: Active Transport
- 7: Cell Communication
- 7.1: A Summary of Cell Communication
- 7.2: Types of Receptors
- 7.3: Types of signaling molecules
- 7.4: Propagation of the signal
- 7.5: Response to the signal
- 8: Enzyme-catalyzed reactions
- 8.1: Energy
- 8.2: Metabolic Pathways
- 8.3: Thermodynamics
- 8.4: Potential and Kinetic Energy
- 8.5: Free and Activation Energy
- 8.6: Enzymes
- 8.7: Feedback Inhibition in Metabolic Pathways
- 9: How cells obtain energy
- 9.1: Energy in Living Systems
- 9.2: From Mouth to Molecule - Digestion
- 9.3: Metabolism
- 9.4: An overview of Cellular Respiration
- 9.5: Aerobic Respiration, Part 1 - Glycolysis
- 9.6: Aerobic Respiration, Part 2 - Oxidation of Pyruvate and The Citric Acid Cycle
- 9.7: Aerobic Respiration, Part 3 - Oxidative Phosphorylation
- 9.8: Metabolism without Oxygen - Fermentation
- 9.9: Metabolism of molecules other than glucose
- 9.10: Anaerobic Cellular Respiration in Prokaryotes
- 10: Photosynthesis
- 10.1: Putting photosynthesis into context
- 10.2: The structure of the chloroplast
- 10.3: Light and Pigments
- 10.4: The Light-Dependent Reactions
- 10.5: The Light Independent Reactions (aka the Calvin Cycle)
- 10.6: Photosynthesis in Prokaryotes
- 11: Cell Division - Binary Fission and Mitosis
- 11.1: How DNA is arranged in a cell
- 11.2: An Overview of DNA Replication
- 11.3: Prokaryotic Cell Division
- 11.4: The Eukaryotic Cell Cycle
- 11.5: Control of the Cell Cycle
- 11.6: Cancer and the cell cycle
- BIOLOGY 212: Genetics
- 12: DNA and Chromosome Structure
- 12.1: DNA Structure
- 12.2: DNA organization inside a cell
- 12.3: Homologous Chromosomes and Sexual Reproduction
- 13: DNA Replication
- 13.1: DNA Replication in Prokaryotes
- 13.2: DNA Replication in Eukaryotes
- 13.3: DNA Repair
- 14: Mutations
- 14.1: How do genes direct the production of proteins?
- 14.2: How Gene Mutations Occur
- 14.3: Introduction to Genetic Disorders
- 14.4: Do all mutations affect health and development?
- 14.5: Types of Mutations
- 14.6: Multifactorial Disorders and Genetic Predispositions
- 14.7: Changes in Numbers of Genes or Chromosomes
- 15: Protein Synthesis
- 15.1: The Genetic Code
- 15.2: Prokaryotic Transcription
- 15.3: Eukaryotic Transcription
- 15.4: Eukaryotic RNA Processing
- 15.5: Translation
- 15.6: Optional Section - Micropigs
- 16: Gene Regulation
- 16.1: Prokaryotic versus Eukaryotic Gene Expression
- 16.2: Eukaryotic epigenetic regulation
- 16.3: Eukaryotic Transcriptional Regulation
- 16.4: Eukaryotic Post-transcriptional Regulation
- 16.5: Eukaryotic Translational and Post-Translational Regulation
- 16.6: Cancer and Gene Regulation
- 17: Meiosis - Sexual Reproduction
- 17.1: Overview of Meiosis
- 17.2: Meiosis I
- 17.3: Meiosis II
- 17.4: Comparing Meiosis and Mitosis
- 17.5: Errors in Meiosis
- 18: Patterns of Inheritance
- 18.1: Mendelian Genetics
- 18.2: Garden Pea Characteristics Revealed the Basics of Heredity
- 18.3: Phenotypes and Genotypes
- 18.4: Monohybrid Cross and the Punnett Square
- 18.5: Laws of Inheritance
- 18.6: Extensions of the Laws of Inheritance
- 18.7: Multiple Alleles
- 18.8: Sex-Linked Traits
- 18.9: Linked Genes Violate the Law of Independent Assortment
- 18.10: Epistasis
- 19: Genetics - Dog Coat Color
- 19.1: Introduction to Genetics
- 19.2: Pedigrees and Punnett Squares
- 19.3: Black fur color - a dominant trait
- 19.4: Yellow fur color - a recessive trait
- 19.5: Epistasis - the relationship between black, brown, and yellow fur
- 19.6: Brindle color - partial dominance and epistasis
- 19.7: Incomplete dominance - when traits blend
- 19.8: White spotting - when there's more than two alleles
- 19.9: Hemophilia - a sex-linked disorder
- 19.10: Overall phenotypes - putting it all together
- 19.11: KIT - embryonic lethality
- 19.12: It's not all in the genes - the effect of environment
- 19.13: Pleiotropy - one gene affects more than one trait
- 20: Biotechnology
- 20.1: DNA Isolation, Gel Electrophoresis, and PCR
- 20.2: Cloning
- 20.3: Genetic Engineering
- 20.4: Mapping Genomes
- 20.5: Applying Genomics
- 20.6: Proteomics
- 20.7: Whole Genome Sequencing
- BIOLOGY 213: Ecology and Evolution
- 21: Introduction to Evolution
- 21.1: Evidence of Evolution
- 21.2: Formation of New Species
- 21.3: Speciation
- 22: Evolution in Action
- 22.1: Population Evolution
- 22.2: Population Genetics
- 22.3: Adaptive Evolution
- 23: Evolutionary Relationships
- 23.1: Organizing Life on Earth
- 23.2: Determining Evolutionary Relationships
- 23.3: Perspectives on the Phylogenetic Tree
- 24: Ecology and the Biosphere
- 24.1: The Scope of Ecology
- 24.2: Biogeography
- 24.3: Terrestrial Biomes
- 24.4: Aquatic Biomes
- 24.5: Climate and the Effects of Global Climate Change
- 25: Population and Community Ecology
- 25.1: Population Demography
- 25.2: Population Dynamics and Regulation
- 25.3: Life Histories and Natural Selection
- 25.4: Environmental Limits to Population Growth
- 25.5: Human Population Growth
- 25.6: Community Ecology
- 25.7: Behavioral Biology - Proximate and Ultimate Causes of Behavior
- 26: Ecosystems
- 26.1: Ecology of Ecosystems
- 26.2: Energy Flow through Ecosystems
- 26.3: Biogeochemical Cycles
- 27: Conservation Biology and Biodiversity
- 27.1: The Biodiversity Crisis
- 27.2: The Importance of Biodiversity to Human Life
- 27.3: Threats to Biodiversity
- 27.4: Preserving Biodiversity
- Back Matter
- Index
- Glossary
- Detailed Licensing