Introduction to the structural and functional characteristics of life. Surveys the evolutionary, ecological, cellular, and genetic biology of living organisms. This class will include students from multiple sections. (NS)
Includes process of science, overview of central ideas of biology (unity, diversity, interdependence, evolution), basic chemistry concepts, biomolecules, cell structure, cell physiology (including enzyme function, energetics, synthesis of DNA, RNA and protein), cell reproduction, introduction to genetics. (NS)
First course in the three-quarter sequence of introductory biology for science students. An introduction to evolutionary and ecological processes involved in the generation of our planet’s biodiversity, including a review of patterns and processes that influence the origin, evolution, distribution, and abundance of living things. (NS)
Second course in the three-quarter sequence of introductory biology for science students. Introduction to structure and function of biomolecules, cells, and membranes; photosynthesis and respiration; molecular origin of life; phylogenetic and metabolic diversity of prokaryotes; and molecular genetics and genomics. (NS)
Third course in the three-quarter sequence of introductory biology for science students. Introduction to the study of the structure and function of plants and animals and how they cope with varying environmental conditions. (NS)
Structure and function of the human body. Homeostasis; tissues; integumentary, skeletal, nervous, and muscular systems. This class will include students from multiple sections. (NS)
Cardiovascular system; lymphatic system; immunology; respiratory system; digestive system; metabolism; urinary system; endocrine system; reproductive system; and genetics. This class will include students from multiple sections. (E)
Introduction to bacteria, viruses, and other microorganisms. Includes microbial structure, metabolism, genetics, ecology, technological applications, microbial diseases of humans, immunology, public health, and medical control strategies. (NS)
Hands-on approach utilizing facilities at local marine laboratory, field trips, and group projects to learn biological concepts relevant to marine biology. Emphasis on local organisms and ecology. This class will include students from multiple sections. (NS)
First course in the two-quarter sequence of introductory biology for forestry students. Topics include cell structure and function, cellular energy metabolism, photosynthesis, genetics, and various facets of zoology, including anatomy and physiology, physiological ecology, and development. Current research will be used to illustrate the scientific and social importance of these topics. (NS)
Second course in the two-quarter sequence of introductory biology for forestry students. Topics include plant growth and survival, photosynthesis, and plant/ environmental interactions, evolution and diversity of living plants and animals, fundamentals of ecology, and conservation biology. Current research will be used to illustrate the scientific and social importance of these topics. (NS)
This course fulfills the missing credit from transferring semester credits to quarter credits for prerequisite coursework for the Nursing DTA only.
Introduction to the study of organismal-environmental relationships in marine, freshwater, and terrestrial habitats. Includes aspects of physiology, behavior, genetics, biochemistry, geology, atmospheric science, and hydrology. (E)
Introduction to the study of organismal-environmental relationships in tropical terrestrial habitats through a group research project and individual research projects. Soil structure and nutrients, microbial communities, forest analysis, and leaf-litter arthropod and amphibian surveys are conducted. Each student will prepare and deliver several natural history presentations and a written or verbal final report of findings. (NS)
Learn how to propagate native plants for local restoration projects. Through hands on training, students will propagate native plants from seed and live cuttings. Plants produced for this class will be used for various revegetation projects in the Olympic National Park and other Olympic Peninsula restoration projects. The fall session will focus on seed ecology, seed collection, seed cleaning and methods for breaking seed dormancies. (E)
(Formerly BIOL 291E) Learn how to propagate native plants for local restoration projects. Through hands on training, students will propagate native plants from seed and live cuttings. Plants produced for this class will be used for various revegetation projects in the Olympic National Park and other Olympic Peninsula restoration projects. The winter session will focus on softwood cutting propagation, live-staking, seed germination and establishment in a greenhouse and propagation planning for restoration projects. (E)
(Formerly BIOL 291C) Learn how to propagate native plants for local restoration projects. Through hands on training, students will propagate native plants from seed and live cuttings. Plants produced for this class will be used for various revegetation projects in the Olympic National Park and other Olympic Peninsula restoration projects. (E)
(Formerly BIOL 291D) Elwha Ecosystem Restoration, the second largest restoration project ever undertaken by the National Park Service, presents unique opportunities to learn about forest development and restoration assessment techniques in the Pacific Northwest. Olympic National Park implemented an unprecedented revegetation program in conjunction with dam removal, planting over 300,000 trees and shrubs to accelerate forest development in the former reservoirs. Understanding how planting efforts influence forest succession is critical to future dam removal and other salmon restoration projects. Learn how to conduct scientific surveys of restoration sites, identify native and non-native trees and shrubs in the winter, organize and manage data and identify factors driving forest development. (E)
Students serve as active members on research teams working to advance knowledge in biological science. Dependent upon the project, students will participate in hypothesis formation, experimental design, data collection, analysis, and determination of conclusions. (E)
