The impact of AVMA COE's accreditation on veterinary medical education.

Point 1: the American Veterinary Medical Association Council on Education's (AVMA COE's) accreditation pro-cess is aimed at minimum training for entry-level veterinarians. This has a two-fold consequence: 1. The opportunity to discover the absolute minimum number of necessary resources is opened.

'One Medicine - One Health' at the School of Veterinary Medicine of the University of Pennsylvania - the first 125 years.

The University of Pennsylvania's School of Veterinary Medicine (Penn Vet), in partnership with other veterinary schools and health professions, is positioned well to advance an international 'One Medicine - One Health' initiative. Founded in 1884 by the University's Medical Faculty, the School has been a leader in moulding the education and practice of veterinary medicine in the nation and the world. Successfully integrating biomedical research into all aspects of veterinary medical education, the School has made significant contributions to basic and clinical research by exemplifying 'One Medicine'.

Exploring human/animal intersections: converging lines of evidence in comparative models of aging.

At a symposium convened on March 8, 2007 by the Institute on Aging at the University of Pennsylvania, researchers from the University's Schools of Medicine and Veterinary Medicine explored the convergence of aging research emerging from the two schools. Studies in human patients, animal models, and companion animals have revealed different but complementary aspects of the aging process, ranging from fundamental biologic aspects of aging to the treatment of age-related diseases, both experimentally and in clinical practice. Participants concluded that neither animal nor human research alone will provide answers to most questions about the aging process.

Interaction between sleep and the immune response in Drosophila: a role for the NFkappaB relish.

Study Objectives: The regulation of sleep is poorly understood. While some molecules, including those involved in inflammatory/immune responses, have been implicated in the control of sleep, their role in this process remains unclear. The Drosophila model for sleep provides a powerful system to identify and test the role of sleep-relevant molecules.

A Drosophila model for age-associated changes in sleep:wake cycles.

One of the most consistent behavioral changes that occurs with age in humans is the loss of sleep consolidation. This can be quite disruptive and yet little is known about its underlying basis. To better understand the effects of aging on sleep:wake cycles, we sought to study this problem in Drosophila melanogaster, a powerful system for research on aging and behavior.

Why a fly? Using Drosophila to understand the genetics of circadian rhythms and sleep.

Among simple model systems, Drosophila has specific advantages for neurobehavioral investigations. It has been particularly useful for understanding the molecular basis of circadian rhythms. In addition, the genetics of fruit-fly sleep are beginning to develop.

Modafinil maintains waking in the fruit fly drosophila melanogaster.

Fruit flies exhibit a sleep-like rest state that shares behavioral characteristics with mammalian sleep, including a homeostatic increase in rest after deprivation by mechanical methods. We tested the effect of modafinil, a novel wake-promoting agent, to discover whether its effect is conserved. Flies fed various concentrations of modafinil were compared to groups of control flies fed diluent only.

Invited review: Sleeping flies don't lie: the use of Drosophila melanogaster to study sleep and circadian rhythms.

During the past century, flies thoroughly proved their value as an animal model for the study of the genetics of development and basic cell processes. During the past three decades, they have also been extensively used to study the genetics of behavior. For both circadian rhythms and for sleep, flies are helping us to understand the genetic mechanisms that underlie these complex behaviors.

Gender dimorphism in the role of cycle (BMAL1) in rest, rest regulation, and longevity in Drosophila melanogaster.

The central clock is generally thought to provide timing information for rest/activity but not to otherwise participate in regulation of these states. To test the hypothesis that genes that are components of the molecular clock also regulate rest, the authors quantified the duration and intensity of consolidated rest and activity for the four viable Drosophila mutations of the central clock that lead to arrhythmic locomotor behavior and for the pdf mutant that lacks pigment-dispersing factor, an output neuropeptide. Only the cycle (cyc01) and Clock (Clk(Jrk)) mutants had abnormalities that mapped to the mutant locus, namely, decreased consolidated rest and grossly extended periods of activity.