American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
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AALAS

AALAS Position Statement on Humane Care and Use of Laboratory Animals
The American Association for Laboratory Animal Science (AALAS) endorses the United States Government Principles for the Utilization and Care of Vertebrate Animals Used in Testing, Research, and Training, and requires that all papers published in the Journal of the Association for Laboratory Animal Science report research conducted in conformance with these principles. Research for papers submitted from outside the United States must be in conformance with the guidelines of that country's government. The editor reserves the right to reject papers reporting results of research not adhering to these principles.

Principles for the Utilization and Care of Vertebrate Animals Used in Testing, Research, and Training
The development of knowledge necessary for the improvement of the health and well-being of humans as well as other animals requires in vivo experimentation with a wide variety of animal species. Whenever U.S. Government agencies develop requirements for testing, research, or training procedures involving the use of vertebrate animals, the following principles shall be considered; and whenever these agencies actually perform or sponsor such procedures, the responsible institutional official shall ensure that these principles are adhered to:

  1. The transportation, care, and use of animals should be in accordance with the Animal Welfare Act (7 U.S.C. 2131 et seq.) and other applicable federal laws, guidelines and policies.
  2. Procedures involving animals should be designed and performed with due consideration of their relevance to human or animal health, the advancement of knowledge, or the good of society.
  3. The animals selected for a procedure should be of an appropriate species and quality and the minimum number required to obtain valid results. Methods such as mathematical models, computer simulation, and in vitro biological systems should be considered.
  4. Proper use of animals, including the avoidance or minimization of discomfort, distress, and pain when consistent with sound scientific practices, is imperative. Unless the contrary is established, investigators should consider that procedures that cause pain or distress in human beings may cause pain or distress in other animals.
  5. Procedures with animals that may cause more than momentary or slight pain or distress should be performed with appropriate sedation, analgesia, or anesthesia. Surgical or other painful procedures should not be performed on un-anesthetized animals paralyzed by chemical agents.
  6. Animals that would otherwise suffer severe or chronic pain or distress that cannot be relieved should be painlessly killed at the end of the procedure or, if appropriate, during the procedure.
  7. The living conditions of animals should be appropriate for their species and contribute to their health and comfort. Normally, the housing, feeding, and care of all animals used for biomedical purposes must be directed by a veterinarian or other scientist trained and experienced in the proper care, handling, and use of the species being maintained or studied. In any case, veterinary care shall be provided as indicated.
  8. Investigators and other personnel shall be appropriately qualified and experienced for conducting procedures on living animals. Adequate arrangements shall be made for their in-service training, including the proper and humane care and use of laboratory animals.
  9. Where exceptions are required in relation to the provisions of these principles, the decisions should not rest with the investigators directly concerned but should be made, with due regard to principle II, by an appropriate review group such as an institutional animal research committee. Such exceptions should not be made solely for the purposes of teaching or demonstration.

For guidance throughout these principles please refer to the Guide for the Care and Use of Laboratory Animals prepared by the Institute of Laboratory Animal Resources, National Research Council.


International Standards for Assessing the Quality of Laboratory Rodents
Background
Laboratory animals are essential for biomedical research as exemplified by the fact that approximately half of the extramural grants awarded annually by the US National Institutes of Health involve animal experimentation. The significant majority of the animals used for biomedical research are mice and rats. Therefore, the quality and reliability of laboratory rodents have a major influence on research and its benefits for human health. Health care and genetic standards for laboratory rodents have improved greatly during the last quarter century, but face new challenges due to the accelerating development and diversity of genetically engineered animals. Current estimates suggest that use of genetically novel rodents has significantly increased among major US research centers; a trend that is likely to continue as decoding of the human and mouse genomes proceeds. Furthermore, the exchange of rodents and rodent products is expanding as national and global collaborations related to animal experimentation increase. In light of these developments, AALAS encourages and supports the establishment of common standards for the quality of rodents and rodent products, to strengthen and protect the crucial investment in animal-based research.

Issues

  • Genetic engineering is creating large numbers of unique rodents worldwide.
  • The international exchange of rodents and rodent products is increasing.
  • Scrupulous assessment and reporting of the genetic and health status of novel rodents is critical to avoid tainted research results.
  • The quality assessment of rodents and rodent products currently use differing definitions, standards and reporting methods.
  • The financial and scientific resources to achieve proper quality assessment are inadequate.

Positions

  • International definitions and standards for the quality assessment of rodents should be developed and implemented through an international task force.
  • The definitions and standards should encompass intrinsic (genetic) and extrinsic (microbiological and environmental) factors that influence rodent quality including, but not limited to:
    • Testing methods and reagents
    • Reporting
    • Training
    • Protection of genetic, microbiological and environmental integrity

Improving the Scientific Basis for Regulation of Animal Care and Use
Background
The care and use of laboratory animals in biomedical research and testing is highly regulated. Regulation, together with effective voluntary programs such as AAALAC accreditation, improves the health and welfare of laboratory animals and reassures the public that animal care and use is humane and efficient. Animal-directed regulation evolved from four primary sources. The Guide for the Care and Use of Laboratory Animals, first published by the National Academy of Sciences in 1963 and revised most recently in 1996, provides benchmark recommendations for care and use. It evolved from concepts first proposed during the 1950s by the Animal Care Panel which eventually became AALAS. Thus, AALAS has been instrumental in fostering humane standards for animal experimentation. The Animal Welfare Act, first enacted in 1966, and revised most recently in 1985 and the Public Health Service Policy on Humane Care and Use of Laboratory Animals, derived from the Health Research Extension Act of 1985and revised in 1996, provide policies, laws and standards complementary to the Guide. Federal Principles for the Care and Use of Animals Used in Testing, Research and Training enunciated in 1983 help to govern animal use performed or sponsored by the US Government.

Because the regulation of animal care and use has a profound influence on biomedical research, it should be based on sound scientific and ethical criteria. In this context, AALAS encourages the development of principles for assessing the quality and impact of animal-based regulation to ensure that it meets these criteria.

Issues

  • Regulatory and scientific priorities can be difficult to balance.
  • Regulation concerning animal care practices and well-being is based in part on empirical judgments which lack scientific confirmation.
  • Empirically-based regulation can lead to variable interpretation or misinterpretation and detrimental conflict between regulators and scientists.
  • Empirically-based regulation can impede biomedical research and make it more costly.

Positions

  • Regulation should be consistent with the universal goal of society and biomedical science to improve and protect health.
  • Regulation should be scientifically, ethically and fiscally sound, and conducive to species specific health and well-being. The application of established knowledge about animal biology and medicine should guide the formulation and revision of laws, policies, guidelines and standards.
  • Additional research, including outcomes research, is needed to improve knowledge about species specific biology, welfare, well-being, and disease pertinent to regulation.
  • Regulation should not be duplicative, should be implemented uniformly and should encourage verifiable voluntary alternatives such as AAALAC accreditation.
  • Laws, policies, guidelines and standards should be based on sound professional judgment whenever possible.
  • Principles should be established to assess the scientific and ethical quality of current and proposed regulation.

Infrastructural Support for Animal-Based Research
Background
The infrastructural needs of animal-based research in the new millennium will differ significantly from those of prior decades. Laboratory animal science/medicine benefited from new diagnostic tests and great improvements in the microbiological quality of laboratory animals. The last decade has challenged biomedical science to produce, house and care for high quality animals, the populations of which are increasing by at least 20 percent per year through the advances and promise of animal-related biotechnology. This task will continue to be compounded by the enhanced intrinsic value of genetically altered rodents, the research subjects currently experiencing the most rapidly growing use. AALAS believes that the evolving and sophisticated use of novel animals must be complemented by new strategies and support in the design, development and delivery of animal-related infrastructure to meet the needs of biomedical research.

Issues

  • Physical, personnel and financial resources essential for animal-related infrastructure have not kept pace with scientific needs and trends.
  • The cost of animal-related infrastructure is a major burden for scientists and biomedical research centers.
  • Rapid scientific change and continuing regulatory uncertainty complicate effective channeling of limited infrastructural resources.
  • Changing scientific needs, increasing populations of novel animals, and new housing, husbandry and health care systems have created a deficiency in the availability of highly qualified laboratory animal scientists and technologists.
  • Research scientists must become more knowledgeable about the operational and physical infrastructure required to protect the integrity of their models.
  • Personnel who work with laboratory animals incur health risks from allergens, zoonoses and ergonomic injuries.

Positions

  • Regional collaborations should be developed to improve access to cost-effective facilities and programs in support of animal-related research.
  • Improved federal planning and funding should catalyze the future development of animal-related infrastructure.
  • Institutions should share financial and programmatic responsibility for developing and maintaining animal-related infrastructure.
  • Training in the care and use of laboratory animals should be facilitated among scientists and technologists destined to be providers or users of animal-related infrastructure.
  • Training and monitoring for occupational health and safety should be stressed for providers and users of animal care services.

Health Care for Genetically Altered Animals
Background
The microbiological quality of laboratory mice and other rodents has improved significantly during the past 20 years. This has been due, in large part, to improved surveillance programs and housing. However, as the use of laboratory rodents in biomedical research has increased, largely because of transgenic and gene targeting technology, individual animals have assumed great value. They may also have reduced reproductive efficiency and lowered resistance to disease caused by unanticipated phenotypic expression of a genetic alteration. Thus, such animals may respond atypically to infectious agents compared to “normal” immunocompetent animals. Cutting edge biomedical research demands the use of only the highest quality, microbiologically and genetically defined animals. This is a critical requirement that will continue to grow along with rodent use. (1)

Issues

  • Animal experimentation is essential for biomedical research.
  • Genetically manipulated rodents are being developed and used as animal models at an accelerating rate: laboratory mouse populations are increasing at about 20% per year.
  • Collaborative research has accelerated the pace and scope of animal exchange and transportation.
  • Infectious diseases of laboratory rodents alter research results.
  • Phenotypes of genetically altered rodents can be misinterpreted due to underlying infectious diseases.
  • The demand is growing for quarantine programs that protect vivaria from importation of diseased animals or contaminated animal products.
  • “The age of discovery for rodent infectious diseases is far from over.” (2)
  • Federal funding for programs to help insure the quality of experimental animals has dwindled as the need for such services has increased.

Positions

  • The integrity of animal experimentation must be supported by the highest quality clinical medicine and diagnostic laboratory services.
  • Renewed federal funding to help achieve high quality animal health care and diagnostic support is essential. One mechanism for accomplishing this goal is the development of regional centers of excellence. (3)
  • Renewed federal funding is critically needed for applied research on emerging rodent infectious diseases and improved diagnostics.
  • Commercial laboratory animal breeders have benefited immensely from diagnostic and therapeutic technologies developed at academic institutions. They should be encouraged to invest in the scientific future of such programs.
  • Uniform international standards for defining rodent quality should be adopted for assessing animals to be used in biomedical experimentation.
  • Uniform international standards also should encompass rodent products including tumors, cell lines and blood products.
  • A universal format and language that is clear, accurate and complete should be used to report test results pertaining to rodent quality. Nomenclature (e.g. SPF, VAF) should also be universally understood.

References

  1. Gaertner, D. G., L. K. Riley, and D. G. Martin. 1998. ILAR J 39:306–311.
  2. Barthold, S. W. 1998. ILAR J 39:316–320.
  3. Jacoby, R. O. and J. R. Lindsey. 1997. FASEB J 11:609–614.

Recognition and Alleviation of Pain and Distress in Laboratory Animals
Background
The Animal Welfare Act mandates that Institutional Animal Care and Use Committees (IACUCs) oversee the care and use of animals covered by the Act. IACUCs are composed of scientists, veterinarians and at least one public member. They must assess warm-blooded animal research protocols to determine if (1) proposed animal use is essential for achieving relevant scientific goals, (2) the appropriate species have been selected, (3) the number of animals requested is properly justified, (4) the care of animals is appropriate, (5) provision for alleviating pain or distress is appropriate, and (6) alternatives to studies that might cause pain or distress have been sought. (1) The Public Health Service (PHS) Policy on Humane Care and Use of Laboratory Animals (which implements the Health Research Extension Act of 1985 and the U.S. Government Principles for the Utilization and Care of Vertebrate Animals used in Testing, Research, and Training) adopts a similar position that is applicable to all vertebrate animal research protocols. (2)

The Animal Welfare Act is administered by the US Department of Agriculture (USDA), whereas the PHS Policy is administered and coordinated by the Office of Laboratory Animal Welfare (OLAW, formerly the Office for Protection from Research Risks). (3) These agencies, the laws and policies they administer, highly respected voluntary programs, such as the Association for Assessment and Accreditation of Laboratory Animal Care (AAALAC) International, (4) and local IACUCs provide effective, comprehensive assessment and monitoring to assure humane animal care and use.

A significant provision of the Animal Welfare Act requires that institutions provide an annual report indicating the number of covered species used in the following categories: (5)

Category C - animals in which procedures caused no pain or distress;
Category D - animals in which pain and distress during procedures was appropriately relieved by pain- or distress-relieving drugs;
Category E - animals involved in procedures which cause pain or distress that was not relieved by drugs for scientific reasons.

Animal use reported in Category E must be accompanied by an explanation and justification as to why drugs to relieve pain and distress were withheld. This information is readily accessible to the public through the Freedom of Information Act. (6)

The current USDA reporting categories have been in use for many years and would benefit from revision and expansion to improve their utility. Many IACUCs have recognized that the USDA system is outdated and have developed categories pertaining to the extent of pain and distress that are more accurate and informative. The USDA is currently reviewing policy pertaining to the annual report, which is a welcome initiative. However, it appears that potential revisions may not address the major limitation of the current categories: inadequate discrimination regarding the intensity or duration of pain or distress. In fact, they may further reduce the accuracy of reporting by increasing assignment to Category E of animals that experience mild or questionable pain or distress. It will be unfortunate if the policy revision misses the opportunity to improve reporting categories.

Issues

  • The evaluation of potential pain or distress is complex because thresholds and manifestations of pain and distress vary among species and among individuals within a species. (7)
  • The determination of what constitutes pain or distress in animals is further complicated by the fact that there are no universally agreed upon criteria for assessing or determining what is, or is not, painful or distressful to an animal.
  • The alleviation of pain and distress is often a diverse task that may require drugs, adjustments to environmental enrichment, modifications in research protocols and other appropriate and humane strategies. (8)
  • Pain and distress and the methods used to alleviate them, may interfere with research results. (9)
  • The USDA categories for reporting pain and distress and measures to alleviate them are not optimally informative and potential policy changes may make them even less so. (10)

Positions

  • Laboratory animal veterinarians and other animal caregivers have a legal and moral obligation to alleviate pain and distress in laboratory animals. (11)
  • The complex nature of modern animal experimentation implies the need to report animal use accurately. Therefore, current USDA categories should be revised and expanded to facilitate more precise and informative reporting. Furthermore, annual reporting of animal use should be the responsibility of the IACUC in conjunction with assessment and monitoring by a qualified veterinarian.
  • Alternatives to animal use in biomedical research should be sought. However, once a request to use animals has been made and approved, experiments should be performed as humanely as possible and with as few animals as possible.
  • IACUCs must ensure that all personnel involved in the care and use of animals are adequately trained. Training should include concepts and methods to recognize pain and distress in laboratory animals and to alleviate them or seek assistance in doing so. This process will raise staff awareness regarding humane treatment and will improve the quality and documentation of monitoring.
  • Qualified veterinarians should be involved in the design, monitoring and documentation of experiments that have the potential to cause more than momentary pain and distress to laboratory animals. The anticipated pain or distress level should be categorized and assigned during IACUC protocol review and monitored prospectively. The assignment should be reviewed at appropriate intervals and changes may be recommended after additional observation and prior to submission of the USDA Annual Report.
  • Conditioning and monitoring of research animals should be designed prospectively. The corresponding schedules should indicate the frequency of observation and responsibilities of monitoring and laboratory personnel. In addition, correct doses of appropriate anesthetics, analgesics and tranquilizers should be selected preemptively by the principal investigator in consultation with the veterinarian. Possible outcomes (endpoints) should be discussed among the veterinarian, the investigator, and other laboratory personnel listed in a given protocol.
  • Potentially painful or distressful procedures should be closely monitored by the animal health care staff and appropriate treatment instituted. New or novel procedures that may be painful should initially be performed under veterinary surveillance or supervision. Analgesics should be administered preemptively for known potentially painful procedures.
  • Death should be avoided as an endpoint for animal experiments. Alternatives such as behavioral changes, fluctuations in body temperature, body condition, and weight-loss patterns should be sought and implemented. (12)
  • More research is needed on the assessment and alleviation of pain and distress to optimize the humane treatment of laboratory animals. The scientific and moral priorities inherent to animal research emphasize why such research is essential.

References

  1. Animal Welfare Act (7 U.S.C. __ 2131 et. seq.) http://www.nal.usda.gov/awic/legislat/awa.htm Code of Federal Regulations Title 9, Volume 1, Part 2, _ 2.31 [Revised as of January 1, 2000] http://www.access.gpo.gov/nara/cfr/waisidx_00/9cfrv1_00.html
  2. Health Research Extension Act, P.L 99-158, November 20, 1985 "Animals in Research" http://grants.nih.gov/grants/olaw/references/hrea1985.htm Interagency Research Animal Committee (IRAC). Federal Register; May 20, 1985. http://grants.nih.gov/grants/olaw/references/phspol.htm#principle Public Health Service Policy on Humane Care and Use of Laboratory Animals (Revised September, 1986, Reprinted March, 1996) http://grants.nih.gov/grants/olaw/references/phspol.htm
  3. USDA-APHIS Home page: http://www.aphis.usda.gov OLAW Home page: http://grants.nih.gov/grants/olaw/olaw.htm
  4. AAALAC mission statement: http://www.aaalac.org/index.cfm
  5. Code of Federal Regulations Title 9, Volume 1, Part 2, _ 2.36 [Revised as of January 1, 2000] http://www.access.gpo.gov/nara/cfr/waisidx_00/9cfrv1_00.html US Department of Agriculture, APHIS, Animal Care Division. Policy #11 --- Painful/Distressful Procedures --- April 14, 1997. http://www.aphis.usda.gov/ac/policy/policy11.pdf
  6. Animal and Plant Health Inspection Service Freedom of Information Act (FOIA) Home Page: https://foia.aphis.usda.gov/
  7. Dennis SG and R Melzack. 1983. Perspectives on phylogenetic evolution of pain expression. In Animal Pain: Perception and Alleviation, RL Kitchell and HH Erickson, eds. American Physiological Society. Bethesda, MD, pages 151-160. Hughes HC and CM Lang. 1983. Control of pain in dogs and cats. In Animal Pain: Perception and Alleviation, RL Kitchell and HH Erickson, eds. American Physiological Society. Bethesda, MD, pages 207-216. Morton DB and HM Griffiths. 1985. Guidelines on the recognition of pain, distress and discomfort in experimental animals and a hypothesis for assessment. Vet Record 116(16):431-436. Morton DB. 1986. Assessment of pain (Letter). Vet Record 119(17):435. Spinelli JS and H Markowitz. 1987. Clinical recognition and anticipation of situations likely to induce suffering in animals. JAVMA 191(10):1216-1218. National Research Council. 1992. Recognition and Alleviation of Pain and Distress in Laboratory Animals. Committee on pain and distress in laboratory animals, ILAR. National Academy Press. Washington, D.C., Chapter 4, pages 32-52. FELASA Working Group on Pain and Distress. 1994. Pain and distress in laboratory rodents and lagomorphs. Laboratory Animals 28:97-112. American College of Veterinary Anesthesiologists. 1998. Position paper on the treatment of pain in animals. JAVMA 213(5):55-57.
  8. Wolfle TL. 1987. Control of stress using non-drug approaches. JAVMA 191(10):1219-1221. Flecknell PA. 1996. Laboratory Animal Anesthesia: A Practical Introduction for Research Workers and Technicians. Academic Press; ISBN: 0122603613.
  9. Loew FM. 1987. The challenge of balancing experimental variables: pain, distress, analgesia and anesthesia. JAVMA 191(10):1193-1194. Benson GJ and JC Thurmon. 1987. Species differences as a consideration in alleviation of animal pain and distress. JAVMA 191(10):1227-1230.
  10. The Humane Society of the United States. 2000. U.S. Humane Society challenges scientists to end research animal pain and distress by 2020. Press release 27 April.
  11. Morton DB. 1985. Pain and laboratory animals (Letter). Nature 317:106, 12 Sept. Code of Federal Regulations Title 9, Volume 1, Part 2, _ 2.31 d. [Revised as of January 1, 2000] http://www.access.gpo.gov/nara/cfr/waisidx_00/9cfrv1_00.html National Research Council. Guide for the Care and Use of Laboratory Animals (Guide), ILAR. National Academy Press. Washington, D.C. 1996; Chapter 3, pages 64-65.
  12. Redgate ES; M Deutsch; SS Boggs. 1991. Time of death of CNS tumor-bearing rats can be reliably predicted by body weight-loss patterns. Lab Anim Sci, 41(3):269-273. Wong JP; Saravolac EG; Clement JG; Nagata LP. 1997. Development of a murine hypothermia model for study of respiratory tract influenza virus infection. Lab Anim Sci, 47(2):143-147 April. Ullman-Cullere MH; CJ Foltz. 1999. Body condition scoring: a rapid and accurate method for assessing health status in mice. Lab Anim Sci, 49(3):319-323. Krarup A, P Chattopadhyay, AK Bhattacharjee, JR Burge and GR Ruble. 1999. Evaluation of surrogate markers of impending death in the galactosamine-sensitized murine model of bacterial endotoxemia. Lab Anim Science 49(5):545-550. Vlach KD, JW Boles and BG Stiles. 2000. Telemetric evaluation of body temperature and physical activity as predictors of mortality in a murine model of staphylococcal enterotoxic shock. Comparative Medicine 50(2):160-166.

Use of Animals in Precollege Education
Overview
This position statement presents guidelines and resources for the humane care and responsible use of animals in precollege education. This document also offers recommendations on classroom dissection and on the use of animals in science fair projects.

Introduction
The American Association for Laboratory Animal Science (AALAS) recognizes that the appropriate and humane use of animals in the elementary and secondary classrooms can provide significant educational benefits to the students, and that a positive interaction between students and animals in the classroom enhances not only scientific learning but also provides an additional avenue promoting the development and growth of the students’ sense of responsibility and respect for all living things.

As part of its broader educational mission to ensure that all animal use is performed responsibly and humanely, AALAS has developed a series of species-specific informational pamphlets about species commonly found in classrooms settings such as mice, rats, hamsters, guinea pigs, rabbits, reptiles, and amphibians. These pamphlets can be found on the AALAS web site. Additionally, AALAS recognizes that other organizations have developed similar guidelines and recommends that teachers and educators familiarize themselves with these documents. These guidelines are:

Although developed by different organizations, the five documents above have a lot in common and are in harmony with each other. The ILAR principles are listed below with additional comments that suggest practical approaches to educators who want to ensure the ethical and humane treatment of animals in their classrooms.

Principles and Guidelines for the Use of Animals in Precollege Education

  • ILAR Principle 1. Observational and natural history studies that are not intrusive (that is, do not interfere with an animal’s health or well-being or cause it discomfort) are encouraged for all classes of organisms. When an intrusive study of a living organism is deemed appropriate, consideration should be give first to using plants (including lower plants such as yeast and fungi) and invertebrates with no nervous systems or with primitive ones (including protozoa, planaria, and insects). Intrusive studies of invertebrates with advanced nervous systems (such as octopi) and vertebrates should be used only when lower invertebrates are not suitable and only under the conditions stated in Principle 10.
  • ILAR Principle 2. Supervision shall be provided by individuals who are knowledgeable about and experienced with the health, husbandry, care and handling of the animal species used and who understand applicable laws, regulations, and policies. AALAS recommends that educators seek the advice of a veterinarian with demonstrable expertise in laboratory animal medicine before introducing animals in the classroom. The advisor should have formal training in laboratory animal medicine and preferably be a Diplomate of the American College of Laboratory Animal Medicine (ACLAM, http://www.aclam.org/) or a member of the American Society of Laboratory Animal Practitioners (ASLAP, http:// www.aslap.org). These professionals are often associated with biomedical institutions. They can provide sound advice on animal husbandry, veterinary care, and regulatory guidelines pertaining to animals in an academic environment.
  • ILAR Principle 3. Appropriate care for animals must be provided daily, including weekends, holidays, and other times when school is not in session. This care must include: nutritious food and clean, fresh water; clean housing with space and enrichment suitable for normal species behaviors; and temperature and lighting appropriate for the species.
  • ILAR Principle 4. Animals should be healthy and free of diseases that can be transmitted to humans or to other animals. Veterinary care must be provided as needed. Specific information about commonly used species such as amphibians, reptiles, mice, rats, hamsters, guinea pigs, and rabbits can be found on the AALAS web site. This information includes physiological data, housing, feeding, handling requirements, and diseases of the species. Links to other web sites that may be useful to the teacher or student are also available. Regardless of the animal species used in the classroom, animal records should be maintained by the students and overseen by the teacher. These records should include the animal’s identification, the person(s) responsible for the animals and a log that describes the date and time of feeding, water changes, and cage cleaning. A brief description of the animal’s general health should also be included. Initials of the person who records this information should accompany each entry. AALAS distributes a guideline for a school to oversee the care and use of animals. This Critter Care Guideline is available from the AALAS web site.
  • ILAR Principle 5. Students and teachers should report immediately to the school health authority all scratches, bites and other injuries, allergies, or illnesses.
    AALAS recommends that educators consult with their administration and health care consultants prior to the use of animals in the classroom. Caution is of particular importance because of possible allergies of students and staff to animals and diseases that can be transmitted from animals to humans and humans to animals. Recommended references are from the Institute of Laboratory Animal Research, National Research Council entitled “Laboratory Animal Allergy”, Volume 42, number 1, 2001 available at http://dels.nationalacademies.org/ilar/jour_online.asp?id=jour_online and from “Animals in the Classroom: Allergy and Asthma Considerations” (available on the AALAS web site).
  • ILAR Principle 6. Prior to obtaining animals for education purposes, it is imperative that the school develop a plan for their procurement and ultimate disposition of the animals. Animals must not be captured from or released into the wild without approval of the responsible wildlife and public health officials. When euthanasia is necessary, it should be performed in accordance with the most recent recommendations of the American Veterinary Medical Association (AVMA) 2000 Report by its Panel on Euthanasia. It should be performed only by someone trained in the appropriate technique.
    The web link to the AVMA Panel on Euthanasia report is: http://www.avma.org/resources/euthanasia.pdf. AALAS strongly recommends that euthanasia be performed with the counsel and advice of a veterinarian.
  • ILAR Principle 7. Students shall not conduct experimental procedures on animals that: are likely to cause pain or discomfort or interfere with an animal’s health or well-being; induce nutritional deficiencies or toxicities; or expose animals to microorganisms, ionizing radiation, cancer-producing agents, or any other harmful drugs or chemicals capable of causing disease, injury, or birth defects in humans or animals. In general, procedures that cause pain in humans are considered to cause pain in other vertebrates. AALAS strongly encourages the use of animals in educational experimentation that does not cause pain and distress or that does not expose animals or students to harmful infectious, physical, or chemical agents. Suggested sources for information on detecting signs of pain and distress in laboratory animals are “Signs of Pain and Distress in Animals" (available from the AALAS web site) and the advice and guidance of a veterinarian.
  • ILAR Principle 8. Experiments on avian embryos that might result in abnormal chicks or in chicks that might experience pain or discomfort shall be terminated 72 hours prior to the expected date of hatching. The eggs shall be destroyed to prevent inadvertent hatching.
  • ILAR Principle 9. Behavioral conditioning studies shall not involve aversive stimuli. In studies using positive reinforcement, animals should not be deprived of water; food deprivation intervals should be appropriate for the species but should not continue longer than 24 hours.
  • ILAR Principle 10. A plan for conducting an experiment with living animals must be prepared in writing and approved prior to initiating the experiment or to obtaining the animals. Proper experimental design of projects and concern for animal welfare are important learning experiences and contribute to respect for and appropriate care of animals. The plan shall be reviewed by a committee composed of individuals who have the knowledge to understand and evaluate it and who have the authority to approve or disapprove it. The written plan should include the following: a statement of the specific hypotheses or principles to be tested, illustrated, or taught; a summary of what is known about the subject under study, including references; a justification for the use of the species selected and consideration of why a lower vertebrate or invertebrate cannot be used; and a detailed description of the methods and procedures to be used, including experimental design; data analysis; and all aspects of animal procurement, care housing, use and disposal.

AALAS recommends three reference documents that provide information about the composition and function of an animal care and use committee and that can be used as a basis for review and approval of animals in the classroom. These are:

  1. The Guide for the Care and Use of Laboratory Animals, National Academy Press, Institute for Laboratory Animal Research at http://dels.nas.edu/ilar/careanduse.asp?id=careanduse
  2. The Institutional Animal Care and Use Committee Handbook, Office of Laboratory Animal Welfare, NIH which can be found at http://grants1.nih.gov/grants/olaw/GuideBook.pdf
  3. “Establishing a Critter Care Committee (CCC)”and the complementary “Classroom Animal Care Proposal” created by NJABR and the AALAS Foundation and Animals, available on the AALAS web site.

Recommendation on Classroom Dissection
Classroom dissection of nonhuman vertebrate animals is a useful adjunct to the biology curriculum if done with well-defined educational objectives and an appropriateness for the grade level and maturity of the students.

The animal used should represent the lowest phylogenic species that will satisfy educational objectives.

The dissection activity must be well supervised to ensure that:

  • students maximize the value of the animals being used.
  • the animal specimen is treated respectfully.
  • the procedure is done safely.

Alternatives to animal dissection should be used whenever they would adequately serve as substitutes. Students’ views on dissection should be openly discussed and respected with non-dissection alternatives made available when feasible and the student allowed to opt out of the dissection if no alternative is possible.

Recommendation on the Use of Animals in Science Fair Projects
The use of nonhuman vertebrate animals in science fairs is a privilege and should adhere to the same high standards that are used in the scientific community to ensure the welfare of both the animals and the student.

The animal used should represent the lowest phylogenic species that will satisfy educational objectives.

All animals used must be treated humanely and cared for properly at all times:

  • Students using vertebrate animals must follow applicable regulations.
  • Animal housing must be comfortable, clean, and free of hazards.
  • Animals must have free access to clean water and a food supply.
  • Animals must be observed daily, including weekends, holidays, and during vacation periods.
  • Provisions must be made to ensure that a safe temperature and humidity level are maintained in the animals’ environment.
  • Veterinary care must be readily available.

Teachers and students who will handle or care for the animals should be trained in proper methods and techniques so as not to cause harm or stress to the animals, themselves, or others.

Except for observational studies, all research involving vertebrate animals should be directly supervised by the teacher or other professional.

In addition, AALAS recommends that individuals involved in science fairs familiarize themselves with the International Rules for Precollege Science Research: Guidelines for Science and Engineering Fairs published by Science Service, Washington, DC (http://www.sciserv.org/isef/document/Rule2005.pdf). These rules govern all science fair projects at the Intel International Science and Engineering Fair (ISEF) and all affiliated fairs and are a detailed extension of the ILAR Guidelines. Strict adherence to the rules and guidelines governing the use of non-human vertebrate animals in this document is recommended.




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American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science
American Association for Laboratory Animal Science