This course provides a deep understanding of engineering systems at a level intended for research on complex engineering systems. It provides a review and extension of what is known about system architecture and complexity from a theoretical point of view while examining the origins of and recent developments in the field. The class considers how and where the theory has been applied, and uses key analytical methods proposed. Students examine the level of observational (qualitative and quantitative) understanding necessary for successful use of the theoretical framework for a specific engineering system. Case studies apply the theory and principles to engineering systems.

AlgaeBase is a database of information on algae that includes terrestrial, marine and freshwater organisms. At present, the data for the marine algae, particularly seaweeds, are the most complete. For convenience, we have included the sea-grasses even though they are flowering plants.

This 13-minute video lesson looks at the science of taxonomy and where humans fit into the tree of life. [Biology playlist: Lesson 62 of 71].

In this course, you will learn the basics of plant biology. The student will begin with plant anatomy, learning the names and functions of all of the parts of a plant, then move on to plant physiology, where you will learn about photosynthesis, growth, and reproduction. Next, the student will study plant evolution according to the fossil record and examine the diversity of plant life in existence today and how that diversity impacts global ecology. Upon successful completion of this course, the student will be able to: identify and describe the functions of the different cells, tissues, and organs that make up a plant; describe the major life processes in plants (photosynthesis, respiration, transpiration, growth and development, and reproduction) at the tissue, organ, cellular, and molecular level; explain the history and evolution of plants on earth; discuss plant diversity and identify the major characteristics of plant phylogenetic divisions; explain how plants fit into the global ecological system and why they are essential for life on earth. (Biology 306)

Students learn taxonomy through presenting a project to the class.

This exercise in community ecology can be carried out in mid-winter and introduces participants to useful taxonomic and statistical procedures.

This exercise should be used to have students form their own classification of ferns by observing a variety of structural modifications in several ferns. The activity will give the students an understanding of some of the problems involved with phylogenetic classifications.

This course will look at the various mechanisms of evolution, how these mechanisms work, and how change is measured. The course will begin by reviewing the evolutionary concepts of selection and speciation. The student will then learn to measure evolutionary change and look at the history of life according to the fossil record and a discussion of the broad range of life forms as they are currently classified. Upon completion of this course, students will be able to: define evolution and describe different types of selection; provide examples of microevolutionary forces and describe how they impact the genetics of populations; describe the Hardy-Weinberg principle and solve problems related to Hardy-Weinberg equilibrium; provide examples of games used in evolutionary game theory; connect biological phenomena to game theory; develop simple phylogenies from molecular or morphological data; identify important evolutionary events that have occurred throughout geologic time; characterize and provide examples of major plant and animal phyla. (Biology 312)

Games to help you learn and practice beginning French numbers, verbs and the names of days and months! Try each game at least once.

This report provides a basic introduction to the construction and uses for dichotomous keys, and will be useful in any course where taxonomic classification is necessary, either in the lab or in the field.

This course describes biological changes that happen on a very large scale, across entire populations of organisms and over the course of millions of years, in the form of evolution and ecology. Upon successful completion of this course, students will be able to: Use their understanding of Mendelian genetics and patterns of inheritance to predict genotypes and phenotypes of offspring or work backwards to identify the genotypes and phenotypes of a parental generation; Distinguish between inheritance patterns that involve autosomal vs. sex-linked traits and identify the respective consequences of each type of inheritance; Identify what distinguishes DarwinŐs theory of evolution from other arguments that attempt to explain diversity across species and/or many generations; Identify which of many types of natural selection is acting on a particular population/species; Identify which of many types of sexual selection is acting on a particular population/species; Identify the factors that alter the frequencies of alleles in populations over time and describe the effects of these factors on populations; Recognize, read, and create phylogenies and cladograms, using them to explain evolutionary relationships; Determine the ecological interactions affecting a particular community and identify the effects of specific relationships (e.g. symbiosis, competition) on species within that community; Distinguish between world biomes in terms of their climate, nutrient cycles, energy flow, and inhabitants; Use their knowledge of nutrient cycles and energy flow to estimate the effect that changes in physical or biological factors would have on a particular ecosystem. (Biology 102; See also: Psychology 204)

This lab course supplements ŇIntroduction to Evolutionary Biology and EcologyÓ. Although it does not replicate a true lab experience, it does encourage greater familiarity with scientific thinking and techniques, and will enable exploration of some key principles of evolutionary biology and ecology. This lab supplement focuses on visual understanding, application, and practical use of knowledge. In each unit, the student will work through tutorials related to important scientific concepts and then will be asked to think creatively about how that knowledge can be put to practical or experimental use. Upon successful completion of this lab supplement, the student will be able to: Display an understanding of Mendelian inheritance as applied to organisms in virtual experiments; Describe the process of natural selection and understand how it will alter populations over generations and under a variety of selection pressures; Understand how the process of speciation is affected by isolation and selection pressures; Understand predator-prey dynamics under a variety of ecological conditions; Distinguish between biomes in terms of their structure/climates as well as the types and diversity of organisms that inhabit them. (Biology 102 Laboratory)

Fossils are a glimpse into the distant past and fascinate young and old alike. This unit will introduce you to the explosion of evolution that took place during the Palaeozoic era. You will look at the many different types of creatures that existed at that time and how they managed to evolve to exist on land.

This course will cover a range of diverse areas of microbiology, including virology, bacteriology, and even applied microbiology. This course will focus on the medical aspects of microbiology, as medical research has been the primary motivator in microbiology research. Upon successful completion of this course, the student will be able to: explain how organisms are classified using taxonomy, focusing on the domains Archaea, Bacteria, and Eukarya; describe the chemical building blocks and metabolic processes important to sustain microbial life; identify the major principles of microbiology and describe the relationship between microbes and other living organisms; discuss pathogenic microbes and their epidemiology; differentiate between microorganisms based on their shape, size, arrangement, staining, and culture characteristics; outline antimicrobial methods including antibiotic use; explain how the human body protects itself; list uses for microbiology in food and beverage preparation and industry. (Biology 307)

This exercise introduces students to analysis of evolutionary relationships both by analysis of molecular similarity and by cladistic techniques. The molecular analysis uses both paper-and-pencil and bioinformatics comparison of the amino acid sequence of the hemoglobin beta chain of eight vertebrates. The cladistic exercises introduce students to cladistic principles, and then allow students to solve hypothetical problems both with and without homoplasy. Students then test their cladistic ability by analyzing published data on the flightless birds. Finally, students solve an entertaining problem using "organisms" made out of nuts and bolts.

This workshop demonstrates on-line use of the national electronic bulletin board, complete with electronic mail started in 1987 by the National Association of Biology Teachers. Once on-line, 14 special interest areas are available, such as AP- Biology, magazine and book reviews, ABT Journal, NABT membership services, question and answer forum, software reviews, and swap/sale of used equipment. Also available for downloading onto your computer are extensive files of labs, graphics, and handouts. Discussions of this and other databases will emphasize the power of these new professional communication tools. Note: This workshop is not included in the published proceedings volume because it was not submitted by the author.

This series of exercises is developed for students interested in health and natural sciences with little to no background in science and is meant to develop their reasoning skills.

Many students find it tedious to learn the terminology that is used to describe the vegetative structure of vascular plants. An effective method is to acquire these skills "accidentally", in the process of identifying unfamiliar plants. This exercise uses a vegetative key to woody plants within walking distance of the lab. Before the lab, plants are labeled with alphabetic tags. Students are given a brief introduction, and then they attempt to identify each labeled plant using the key. If their identification is incorrect, the instructor helps them go back over the key to find the place where they made an error.

Focusing on human and primate examples significantly enhances students' interest in studying biology, specifically, evolution and classification. These laboratory activities illustrate key aspects of the distinctive hierarchical nature of biological classification. The first activity uses hemoglobin sequence data while the second uses skulls of apes, humans and fossil hominoids. Together, the two illustrate the concordant nature of separate lines of evidence supporting both the idea of evolution generally and that of human evolution specifically.