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Nov 21, 2024
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BIO 112 - General Biology I Credits: 4 Lecture Hours: 3 Lab Hours: 2 Practicum Hours: 0 Work Experience: 0 Course Type: Core First semester of Biology for majors. Topics covered include chemistry of life, cells, bioenergetics, genetics, evolution, and viruses Prerequisite: H.S. Biology & H.S. Chemistry or equivalent Competencies
- Apply competent and safe laboratory skills
- Locate and be able to use safety equipment in the laboratory
- Model safe behavioral practices when in the laboratory
- Use laboratory equipment correctly
- Demonstrate competence in the use of microscopes
- Evaluate different methods of scientific investigation, including The Scientific Method
- Distinguish between hypotheses and theories
- Read primary scientific literature
- Engage in scientific writing
- Synthesize data or figures into communicable products
- Assess the chemistry of life
- Define atoms, molecules, chemical bonds, and chemical reactions
- Explain the unique physical and chemical characteristics of water that support life
- Identify structural characteristics of carbohydrates, lipids, proteins, and nucleic acids and explain their modes of synthesis and degradation
- Examine features of biological macromolecules in the laboratory
- Break down key structural and functional properties of living cells
- Identify the structural and functional similarities and differences that exist between prokaryotic and eukaryotic cells
- Match the structure of each eukaryotic cell component to its biological function
- Compare and contrast biological membrane structure and function
- Identify the compositional and organizational aspects of membrane structure that underlie cellular functions
- Outline passive and active modes of membrane transport in terms of energetic requirements and existing gradients of concentration or
electrical potential
- Examine metabolism
- Distinguish between endergonic and exergonic reactions and anabolism and catabolism
- Describe the structure of ATP and how it powers the work of cells
- Relate energy of activation to enzyme activity
- Recall enzyme structure/function and its regulation by negative feedback mechanisms
- Demonstrate enzyme activity in the lab
- Dissect cellular respiration
- Define oxidation and reduction
- Summarize chemical reactions of aerobic and anaerobic respiration of glucose
- Explain the importance of electron carriers in cellular respiration
- List the cellular sites of the stages of cellular respiration
- Contrast the types of phosphorylation
- Track and explain ATP production through each stage of cellular respiration
- Explain the role of oxygen in cellular respiration
- Investigate respiration in the laboratory
- Outline photosynthesis
- Define autotrophic and heterotrophic nutrition
- Match chloroplast structures to their functions
- Summarize chemical reactions of photosynthesis
- Describe features of light
- Sequence the steps of electron flow through photosystems I and II
- Identify the roles of ATP and NADPH in the Calvin cycle
- Describe adaptations for minimizing water loss
- Investigate photosynthesis in the laboratory
- Analyze cellular reproduction
- Distinguish between sexual and asexual cellular reproduction
- Order the steps and state the control mechanisms of the cell cycle
- Differentiate between mitosis and meiosis
- Order the steps of meiosis
- Summarize how meiosis generates an alteration in chromosome number and genetically unique gametes
- Identify stages of the cell cycle in the laboratory
- Interpret genetics
- Summarize Mendel’s laws of segregation and independent assortment
- Construct Punnett squares and laws of probability to predict genotype and phenotype ratios
- Differentiate between Mendelian and non-Mendelian inheritance patterns
- Explain how linkage may affect genotype and phenotype ratios
- Use pedigrees to determine patterns of inheritance
- Explore inheritance in the lab
- Evaluate molecular genetics
- Describe the historical process of DNA discovery
- Identify the structure and function of DNA
- Outline the steps of DNA replication
- Explain the one gene-one polypeptide hypothesis
- Show how RNA structure and function differ from DNA
- Compare transcription and translation mechanisms in prokaryotes and eukaryotes
- Demonstrate how the universal genetic code is used during transcription and translation
- Explain eukaryotic mRNA processing
- Differentiate between types of mutations and their effects
- Apply the principles of molecular genetics in the laboratory
- Characterize viruses
- Identify virus structure and function
- Detail viral reproduction and transmission
- Investigate genome organization and expression in prokaryotes and eukaryotes
- Compare genomic organization in eukaryotes and prokaryotes
- Describe genetic and epigenetic mechanisms that regulate gene expression
- Compare the role of patterned gene expression in regulating development across taxa
- Explain how operons function in metabolic control
- Diagram positive and negative feedback regulation in gene expression
- Appraise the processes, applications, and ethics of biotechnology
- Describe functions and uses of restriction enzymes
- Describe various research tools and processes used in biotechnology
- Cite specific advances that have been achieved through biotechnology in agriculture and medicine and their implications to society
- Assess safety and ethical aspects of recombinant DNA research
- Investigate biotechnology in the laboratory
- Analyze the origins and evolution of life
- Identify the concept of evolution as a central theme of biology
- Trace the historical development of the theory of natural selection, including the contributions of Charles Darwin and other scientists
- Describe the evidence supporting the evolution of life
- Use the geologic timescale to sequence major evolutionary events (extinctions, adaptive radiations)
- Recognize the role of the population as the unit of evolution
- Distinguish between artificial and natural selection
- Contrast macroevolution and microevolution
- Explain other modes of evolution, such as genetic drift and gene flow
- Illustrate evolutionary mechanisms in the laboratory
- Categorize life
- Utilize the phylogenetic approach to classification
- Contrast the biological species concept with other definitions of species
- Identify prezygotic and postzygotic reproductive isolation mechanisms that underlie allopatric and sympatric speciation
- Distinguish between homologous and analogous structures through examples
- Infer monophyletic, paraphyletic, and polyphyletic groupings through cladistics
- Explain how molecular clocks are used during phylogenetic tree construction
Competencies Revised Date: 2024
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