Beyond Dissection: Innovative Tools for Biology Education. Ethical
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Mammalian Anatomy: a Fetal Pig Dissection
Mammalian Anatomy: A Fetal Pig Dissection Background: Introduce the natural history of this animal, using its scientific name, and the reason for its dissection. Include a brief review of all of the levels of classification for this animal and a few features typical at each level, be sure to include chordate and vertebrate features as well as the characteristics specific to mammals. Purpose: Dissect a fetal pig to observe characteristics of placental mammalian anatomy and physiology and contrast them to that of humans. Materials: List appropriately Procedure: 1. Survey characteristics of vertebrate body systems in comparison to invertebrate systems. 2. Review dissection tools, procedures, safety precautions. 3. Follow the dissection as given in class (cite the handout). Results: A clear photo from each section neatly and properly identified and labeled should be included. Try to use the fewest number of pictures as possible, not a photo for each organ…brilliant and concise! Analysis: Use the purpose statement as the basis for the analysis and conclusion. There are three areas of interest and there should be a well developed discussion of each with examples from the dissection and references to the results. Conclusion: Give clear and concise statement of the actual results that addresses the purposes of the lab. Limit to a few sentences. Mammalian Anatomy: A Fetal Pig Dissection Introduction: Eutherian, or placental, mammals share many physical traits such as body hair, mammary glands and nipples, a four chambered hear, specialized teeth, a diaphragm and specialized digestive, respiratory, circulatory, excretory and reproductive systems. As we study this fetal pig’s anatomy we will learn more about these common traits and therefore more about our human body systems. -
Uncorrected Proof
Applied Animal Behaviour Science xxx (2017) xxx-xxx Contents lists available at ScienceDirect Applied Animal Behaviour Science journal homepage: www.elsevier.com Development and application of CatFACS: Are human cat adopters influenced by cat facial expressions? C.C. Caeiro a, b, ⁎, A.M Burrows c, d, B.M. Waller e a School of Psychology, University of Lincoln, Brayford Pool, Lincoln LN6 7TS, UK b School of Life Sciences, University of Lincoln, Brayford Pool, Lincoln LN6 7TS, UK c Department of Physical Therapy, Duquesne University, Pittsburgh, PA, United States d Department of Anthropology, University of Pittsburgh, Pittsburgh, PA, United States e Center for Comparative and Evolutionary Psychology, Department of Psychology, University of Portsmouth, King Henry Building, King Henry 1st Street, Portsmouth, Hampshire PO1 2DY, UK PROOF ARTICLE INFO ABSTRACT Article history: The domestic cat (Felis silvestris catus) is quickly becoming the most popular animal companion in the world. The evo- Received 13 June 2016 lutionary processes that occur during domestication are known to have wide effects on the morphology, behaviour, cog- Received in revised form 4 January nition and communicative abilities of a species. Since facial expression is central to human communication, it is possible 2017 that cat facial expression has been subject to selection during domestication. Standardised measurement techniques to Accepted 8 January 2017 study cat facial expression are, however, currently lacking. Here, as a first step to enable cat facial expression to be stud- Available online xxx ied in an anatomically based and objective way, CatFACS (Cat Facial Action Coding System) was developed. Fifteen individual facial movements (Action Units), six miscellaneous movements (Action Descriptors) and seven Ear Action Keywords: Descriptors were identified in the domestic cat. -
Exposing the Supply and Use of Dogs and Cats in Higher Education
Exposing the supply and use of dogs and cats in higher education www.dyingtolearn.org Exposing the supply and use of dogs and cats in higher education PREFACE ............................................................................................................................................................ SECTION I: Introduction................................................................................................................................... 1 A. Background ............................................................................................................................................. 1 B. Collection of Information ........................................................................................................................2 C. Findings and Recommendations ............................................................................................................2 1. Schools are engaging in harmful use of dogs and cats for teaching purposes. ................................2 2. Schools are acquiring dogs and cats from inhumane sources. ..........................................................3 SECTION II: Animal Use for Educational Purposes and the Adoption of Alternatives .................................. 4 A. Current Use of Dogs and Cats in Higher Education .............................................................................. 4 B. History of Vivisection and Dissection .....................................................................................................5 C. Students -
Development and Application of Catfacs: Are Human Cat Adopters Influenced by Cat Facial Expressions?
Development and application of CatFACS: Are human cat adopters influenced by cat facial expressions? Caeiro, C. C.1,2, Burrows, A. M.3,4, Waller, B.M.5 1School of Psychology, University of Lincoln, Brayford Pool, Lincoln, LN6 7TS, UK 2School of Life Sciences, University of Lincoln, Brayford Pool, Lincoln, LN6 7TS, UK 3Department of Physical Therapy, Duquesne University, Pittsburgh, PA 4Department of Anthropology, University of Pittsburgh, Pittsburgh, PA 5Center for Comparative and Evolutionary Psychology, Department of Psychology, University of Portsmouth, King Henry Building, King Henry 1st Street, Portsmouth, Hampshire, PO1 2DY, UK Corresponding author: Catia Caeiro, email: [email protected] Highlights: ‐ The Cat Facial Action Coding System (CatFACS) was developed for the domestic cat ‐ 14 Action Units, 6 Action Descriptors and 7 Ear Action Descriptors were found ‐ Humans selected shelter cats that rubbed more in a first encounter ‐ Facial movements and vocalisations did not affect adoption decision ‐ Non‐behavioural variables such as coat colour or age did not affect adoption decision Abstract: The domestic cat (Felis silvestris catus) is quickly becoming the most popular animal companion in the world. The evolutionary processes that occur during domestication are known to have wide effects on the morphology, behaviour, cognition and communicative abilities of a species. Since facial expression is central to human communication, it is possible that cat facial expression has been subject to selection during domestication. Standardised measurement techniques to study cat facial expression are, however, currently lacking. Here, as a first step to enable cat facial expression to be studied in an anatomically 1 based and objective way, CatFACS (Cat Facial Action Coding System) was developed. -
Laboratory 8 - Urinary and Reproductive Systems
Laboratory 8 - Urinary and Reproductive Systems Urinary System Please read before starting: It is easy to damage the structures of the reproductive system as you expose structures associated with excretion, so exercise caution as you do this. Please also note that we will have drawings available as well to help you find and identify the structures described below. The major blood vessels serving the kidneys are the Renal renal artery and the renal pyramid vein., which are located deep in the parietal peritoneum. The renal artery is a branch of the dorsal aorta that comes off Renal further caudal than the cranial pelvis mesenteric artery. Dissect the left kidney in situ, dividing it into dorsal and ventral portions by making a frontal section along the outer periphery. Observe the renal cortex renal medulla (next layer in) renal pyramids renal pelvis ureter (see above diagram) The kidneys include a variety of structures including an arterial supply, a venous return, extensive capillary networks around each nephron and then, of course, the filtration and reabsorption apparatus. These structures are primarily composed of nephrons (the basic functional unit of the kidney) and the ducts which carry urine away from the nephron (the collecting ducts and larger ducts eventually draining these into the ureters from each kidney. The renal pyramids contain the extensions of the nephrons into the renal medulla (the Loops of Henle) and the collecting ducts. Urine is eventually emptied into the renal pelvis before leaving the kidneys in the ureters. The ureters leaves the kidneys medially at approximately the midpoint of the organs and then run caudal to the urinary bladder. -
Animal Welfare Issues Bibliography
NATIONAL AGRICULTURAL LIBRARY ARCHIVED FILE Archived files are provided for reference purposes only. This file was current when produced, but is no longer maintained and may now be outdated. Content may not appear in full or in its original format. All links external to the document have been deactivated. For additional information, see http://pubs.nal.usda.gov. Information Resources for Institutional Animal Care and Use Committees 1985-1999 Information Resources for Institutional United States Department of Agriculture Animal Care and Use Committees 1985-1999 Agricultural Research Service AWIC Resource Series No. 7 September 1999 National Agricultural Revised September 2000 Library Also see Animal Care and Use Committees, 1992 Published by: Animal Welfare Information United States Department of Center Agriculture Agricultural Research Service National Agricultural Library Animal Welfare Information Center 10301 Baltimore Avenue Animal and Beltsville, Maryland 20705-2351 Plant Health Telephone: (301) 504-6212 Inspection Service Fax: (301) 504-7125 Contact us Website: http://awic.nal.usda.gov Tim Allen, M.S., editor Rigor, my buddy for 16 years. Photo by Tim Allen. Primary References chapter contributed by Michael Kreger, M.S. Contents Acknowledgments Foreword How to Use This Document http://www.nal.usda.gov/awic/pubs/IACUC/iacuc.htm[4/8/2015 1:46:10 PM] Information Resources for Institutional Animal Care and Use Committees 1985-1999 Introduction to Animal Care and Use Committees U.S. Government Principles, Regulations, Policies, and Guidelines U.S. Government Principles for the Utilization and Care of Vertebrate Animals Used in Testing, Research, and Training USDA Animal Welfare Regulations Selected USDA Animal Care Policies Public Health Service Policy on Humane Care and Use of Laboratory Animals Guide for the Care and Use of Laboratory Animals Agency Directives for Federal Fundholders U.S. -
Fisher Science Education 2021 Product Catalog Featured Suppliers
Life Sciences Fisher Science Education 2021 Product Catalog Featured Suppliers Visit fisheredu.com/featuredsuppliers to learn more about these suppliers and their products. Helpful Icons Guarantee New product If you’re not 100% satisfied with your purchase, contact our customer service team within 30 days of your invoice date and we’ll either exchange, repair, or replace the product, or Must be shipped by truck for regulatory give you a credit for the full purchase price. Call us toll-free reasons for a return authorization number. Special order items, furniture, and closeouts cannot be exchanged or credited. Meets Americans with Disabilities Act Phone: 1-800-955-1177 • 7 a.m. to 5:30 p.m. requirements Central Time, Monday through Friday Fax: 1-800-955-0740 • 24 hours a day, 7 days a week Protects against splashes from Email: [email protected] hazardous chemicals or potentially infectious materials Website: fisheredu.com Address: Fisher Science Education 4500 Turnberry Drive Applicable for remote learning Hanover Park, IL 60133 For international orders, see page 110. All prices are subject to change. Connect with Us on Social Media fisheredu.com/facebook twitter.com/fishersciedu pinterest.com/fishersciedu Life Sciences Preparing today’s students to be the innovators of tomorrow isn’t always easy, but finding the right teaching tools can be. From basic lab supplies to state-of- the-art classroom technology, the Fisher Science Education team has everything you need to create a 21st century STEM learning environment. Visit fisheredu.com to get started. Want to customize aspects of your curriculum? Explore custom kits to meet the unique demands of your classroom. -
The Behaviour of the Domestic Cat, Second Edition
12 Physiological and Pathological Causes of Behavioural Change Introduction Overt behaviour is the consequence of a cat perceiving some change in its environment, evaluating this change, deciding on an appropriate response and the response being generated through the motor systems of the brain to the elements of the skeletal system that control activity. Hence, although behaviour occurs as a consequence of changes in the external environment, the responses generated also depend on internal variations in the processing of information. These processes are susceptible to alteration due not only to normal physiological variations but also to pathological changes. Interpretation of behaviour, therefore, requires an understanding of how the generation of behaviour is modulated by factors influencing the internal state, as well as how responses are generated to events in the external environment. Pathological changes can be the sole cause of behavioural change – indeed, behavioural signs such as lameness are common first indicators of disease in veterinary medicine. In some cases complex behavioural signs, such as aggressive behaviour towards an owner, can occur entirely as a consequence of pathological events, such as focal seizures. Although such events are rare, their characteristics need to be distinguished from behaviours generated in response to external stimuli when investigating the cause of undesired behaviours. However, physiological or pathological changes more commonly modify cats’ behaviour rather than solely cause it. This is through alterations in one or more of the following: (i) perception of external events; (ii) the motivation to show a response; (iii) the threshold at which a response is shown; and (iv) the manner in which a response is generated. -
Cat Anatomy and Dissection Guide
Comparative Anatomy of the Domestic Cat and Selected Organs of the Sheep, Cow, & Pig With Reference to the Human Karen McMahon Biological Science The University of Tulsa HAPS Institute - Using Cadavers to Teach A&P November 30, 2008 Integumentary System Cat Skin Stratum Corneum Epidermis Hair Root Dermis Human Skin, Heavily Pigmented Stratum Corneum Epidermis Stratum Dermis Basale Skeletal System The premaxilla is a separate bone in the cat skull. Nasal Premaxilla Maxilla The premaxilla is not present in the human skull. Nasal Maxilla Cats have a carnivorous dentition pattern. Teeth in each half of the u. jaw/l. jaw: Incisors 3/3 Canines 1/1 Premolars 3/2 Molars 1/1. The total # of teeth is 30. Incisors Canine Premolar Molar Humans have an omnivorous dentition pattern. Teeth in each half of the upper jaw/lower jaw: Incisors 2/2 Premolar Canines 1/1 Premolars 2/2 Molars 3/3. The total # of teeth is 32. Canine Incisors Molar There are 7 lumbar vertebrae in the cat; 5 in the human. The sacrum is composed of 3 fused bones in the cat; 5 in the human. The cat has 21-25 separate caudal vertebrae. The coccyx in the human consists of 3 -5 fused caudal vertebrae. Caudal Vertebrae Human Coccyx There are 13 pairs of ribs in the cat - pairs 1-9 true, 10-13 false, & pair 13 is also floating. The human has 12 pairs of ribs - pairs 1-7 true, 8-12 false, & pairs 11-12 are also floating. True (1-7) False (8-12) Floating The cat’s sternum consists of a manubrium, a body of 6 sternebrae, & a xiphisternum with a xiphoid process. -
Fetal Pig Dissection Lab with Detailed Images
Fetal Pig Dissection Lab with Detailed Images Beth Cantwell and Laurel Rodgers Shenandoah University, 1460 University Drive, Winchester, VA 22601 [email protected], [email protected] Abstract This lab provides students with detailed dissection instructions of the fetal pig, including the digestive, respiratory, cardiac, urinary, and reproductive systems. Color pictures are provided for each step to help students ensure that they are removing the correct tissues and making the correct incisions. Information is provided throughout the lab about the function of each organ students observe. This lab was written for a non-majors, general education course. However, we have provided additional materials in the appendix in order for instructors to expand the lab for a Biology majors course. Keywords: Anatomy, organ systems, fetal pig dissection Introduction The fetal pig is frequently used during anatomy units in both majors and non-majors courses because the pig has a similar anatomy to humans, is reasonably priced, and is readably available from multiple sources. In our non-majors Biology course, Biology in Society, we use the fetal pig to introduce our students to basic anatomy and the function of some major biological systems in the human. We wrote this lab because we have struggled to find a fetal pig dissection that contained both sufficient instructions and information for our course. Detailed instructions allow students to make the appropriate incisions and observe organs with minimal assistance from the instructor. From a classroom management perspective, this is important because it allows the lab instructor to circulate quickly within a group of up to twenty students. -
Fetal Pig Dissection
FETAL PIG DISSECTION In this lab exercise you will open the abdominal-pelvic and thoracic cavities of a fetal pig and identify its major organs. Remember you are dissecting not butchering. The goal is for you to identify all of the structures described herein via a careful and thorough dissection. Do not remove any organs. Once an organ or structure has been identified be sure to compare it to the corresponding one in the human torso. Most structures will appear to be similar but there are a several important exceptions. DIRECTIONAL TERMS Ventral Toward the belly Lateral Away from midline Dorsal Toward the back or spine Anterior Relative to forward movement Superficial At the surface Posterior Opposite of anterior Deep Toward the interior Proximal Toward center or attachment point Medial Toward midline or midsagittal plane Distal Away from center or attachment DETERMINING THE SEX OF YOUR SPECIMEN Males are identified by the presence of a urogenital opening or preputial orifice just posterior to the umbilical cord as shown in the left panel below. Depending on the age of the pig it may be possible to see or feel the penis as it passes towards this opening. Males also possess a pair of scrotal swellings at the posterior end that can help in identification. In contrast to males, the urogenital opening in females is immediately ventral to or below the tail and anus. This opening is also marked by a fleshy tubercle called the genital papilla as shown in the right panel below. The presence (or absence) of a genital papilla is probably the most straight-forward way for you to determine the sex of your specimen. -
Spinal Programs for Locomotion
H.-J. Freund, U. Biittner, B. Cohen and J. Noth Progress in Brain Research, Vol. 64. 0 1986 Elsevier Science Publishers B.V. (Biomedical Division) Spinal programs for locomotion Gerald E. Loeb Laboratory of Neural Control, IRP, National Institute of Neurological and Communicative Disorders and Stroke, National Institutes of Health, 9000 Rockville Pike, Bethesda, MD 20205, U.S.A. Introduction is attached to an initially stationary but movable object, then the object moves when the muscle con- In comparing the current level of knowledge re- tracts, providing a class of phenomena for mea- garding the function and control of the oculomotor surement by the muscle physiologist. However, the system with that for the skeletomotor system, one primary process within the muscle that is modulat- is immediately struck by a disparity. Oculomotor ed by changes in the neurally controlled state of research is characterized by accurate quantitative activation is not length or even tendon strain. Rath- methods, well-defined performance criteria, math- er, it is a complex, statistically distributed set of ematical models of control and feedback regula- forces in the cross-bridges, which are highly depen- tion, and a highly evolved theoretical basis in engi- dent on the direction and magnitude of cross-bridge neering control systems. Skeletomotor research has motion. been and continues to be plagued by phenomenol- It is only in circumstances such as the eyeball and ogical description, intractable, unstable and inap- ear pinna that muscles find themselves controlling propriate models, and an allied field of robotic engi- the unopposed motion of virtually massless, inelas- neering whose greatest contribution continues to be tic objects in a frictionless, low-viscosity medium.