Applied ecology is a framework for the application of knowledge about ecosystems so that actions can be taken to create a better balance and harmony between people and nature in order to reduce human impact on other beings and their habitats.
About this book
Origin story
I (Erin) began this book project after participating in the Open Pedagogy Incubator hosted by the NC State University Libraries in 2020, with the goal of making my course materials – and information about Applied Ecology – more broadly accessible to students, educators, and the general public. Rather than impose my sole voice, perspective, and biases, I restructured my course assignments to enable student creation of the content you will encounter in this book. The assignments are open-ended and open-world, motivating students to collaborate with each other and to seek knowledge beyond the classroom, and thus embody core characteristics of the discipline of Applied Ecology as well as Open Education and Universal Design for Learning. I hope that by centering student voices and by highlighting diverse scientists, research systems and ecosystems, this work empowers the reader and highlights the relevance of Applied Ecology in our everyday lives.
Intended use
This book is formatted to provide information about key ecological principles, concepts, and processes, explored and applied across various contexts. The text can be used as a foundational or supplementary text for ecology courses, or as a standalone reference for students in formal academic settings or beyond.
The Vocabulary terms at the beginning of each chapter are listed in the order that students will encounter them while reading the blog-style summary for that chapter. The Glossary lists all terms in the entire book in alphabetical order, for quick reference as needed.
We have provided an appendix with skeletal outlines that students can use to guide their notetaking. I also intend to compile a companion volume for educators, containing templates for each assignment used to guide the student works presented here.
Accessibility
We use sans-serif fonts to facilitate readability in digital format and by readers who are neurodivergent. We also support screen readership through alt-text images.
The structure of the human body is usually considered in courses in gross anatomy. These courses typically consist of lectures by the faculty, readings in assigned textbooks and the study of photographs and illustrations in human anatomy atlases. However, as student’s progress through the curriculum and move into the more clinical or practice oriented phases, many discover that the anatomical knowledge they actually need is somewhat different from the kind they possess. What many encounter is difficulty in applying their knowledge to a clinical setting.
Applied Human Anatomy was created to better integrate material that is more often than not treated separately in contemporary health care curricula. It is hoped that through this integration students will develop a deeper and more lasting knowledge and understanding of human anatomy as they are likely to need it in the evaluation and management of patients.
A print version is available for purchase on Amazon.
This 155-page manual is comprised of two types of learning activities: 1) free response fill-in-the blank questions focused of the facts and principles of neuroanatomy and neurophysiology that underpin the neurologic examination and specifically developed exercises that demonstrate how the facts and principles are related to the particular tests and procedures that comprise the neurologic examination. Free response questions form the bulk of the Neuroscience Review section of each chapter and are intended as a review of information previously or concurrently being learned regarding the structure, function and organization of the nervous system. Some questions focus on anatomical or physiological facts and relationships that help explain why certain techniques are performed as they are, such as why non-nociceptive tactile stimuli are required in order to activate nerve impulse transmission in the lemniscal system. Other questions are intended to revisit facts and concepts that are needed to properly interpret the elicited findings. 2) The Application Exercises of each chapter are designed to demonstrate how neuroanatomical and neurophysiological information is used in the design of particular clinical tests of neurologic function. The application exercises are also intended to help users learn how to perform and become comfortable with the various clinical maneuvers and tests that comprise the routine neurologic examination. An important outcome of performing these exercises is that, as a member of a learning group, each individual has the opportunity to experience the neurologic examination from the point of view of the subject (patient)—an experience that arguably provides insight and understanding that can be gained in no other way.
7.003 is an experimental biology course. You will spend most of your time in the teaching laboratory practicing fundamental techniques in molecular biology, genetics, and cell biology, and working with the model organism Saccharomyces cerevisiae (budding yeast). In addition to learning how to accurately and safely perform these techniques, we want to help you understand how and why they work and what scientific questions they can address. The goal is for you to be able to design your own experiments to perform by the end of the semester.
Applied Open Science Talk GSA 2020
In this jigsaw-method activity on subduction zone volcanism, students apply lessons learned from four historic eruptions to the volcanic hazards associated with Mt. Rainier in the Pacific Northwest.
(Note: this resource was added to OER Commons as part of a batch upload of over 2,200 records. If you notice an issue with the quality of the metadata, please let us know by using the 'report' button and we will flag it for consideration.)
A webinar by David Mellor of the Center for Open Science.
A series of 6 Excel-based projects on the mathematics of biodiversity for basic college math classes and developmental math classes. Students learn about the structure of biodiversity, the application of many basic data analysis skills, and the use of Excel for analysis and data presentation.
Using the Hardy-Weinberg equation to calculate allele and genotype frequencies. Created by Sal Khan.
This kit is aimed at teachers and their pupils at the end of primary school education living in areas affected by or under threat from desertification.
Aptenodytes forsteri: Information
Aptenodytes patagonicus: Information
Apteryx australis: Information
Apteryx haastii: Information
Apteryx owenii: Information
Apus melba: Information
In this curricular guide, middle school students learn about an alternative farming technique that addresses water use in agricultural farming, the environmental impacts of fish farms, and urban development and population growth. This guide promotes 21st-century skills by engaging students in the history of aquaponics through various texts; improving their communication skills by explaining how an aquaponics system works; and engineering your own classroom aquaponics unit through an interactive design challenge!
Well Field Practice: aquifer characterization through conducting and interpreting of aquifer pump tests.
(Note: this resource was added to OER Commons as part of a batch upload of over 2,200 records. If you notice an issue with the quality of the metadata, please let us know by using the 'report' button and we will flag it for consideration.)
The goal of this experiment is to measure the specific storage Ss of a balloon, which simulates aquifer elasticity. The experiment is designed to give observational meaning to the variable, increment of fluid content, and the influence of the state of stress on the specific storage. Increment of fluid content is the poroelastic variable defined as the amount of water added to storage per unit bulk volume. It is analogous to quantity of heat added to a unit volume of a material. Specific storage can then be expressed rigorously as the ratio of increment of fluid content divided by the change in head with specified external stress or strain conditions on the REV.
(Note: this resource was added to OER Commons as part of a batch upload of over 2,200 records. If you notice an issue with the quality of the metadata, please let us know by using the 'report' button and we will flag it for consideration.)