The major premise of One Health is engagement of multiple disciplines to address shared problems spanning human, animal, and ecosystem health. The current model of academic specialization encourages development of isolated disciplines within the university setting, thereby creating barriers to resource sharing and academic collaboration. The aim of this project was to develop a systematic approach to mapping university assets that could be harnessed to advance One Health education. Asset in this context was defined as a course, program, or faculty expertise relevant to a particular One Health problem. The approach adopted comprised the following steps: (1) identify a current problem that would benefit from an integrated, interdisciplinary perspective (e.g., EIDs [emerging infectious diseases]); (2) identify individual disciplinary teaching areas pertinent to the problem (e.g., health communication, wildlife ecology); (3) identify competencies expected to be attained by graduates who will address the problem (e.g., respond to outbreaks); (4) survey faculty members on their teaching areas and curricular offerings that address these competencies; and (5) compile responses in a database that is searchable by teaching area and competency. We discuss our recent experiences mapping the assets at Tufts University that are relevant to the problem of EIDs with emphasis on zoonotic-disease surveillance, outbreak investigation, and outbreak response. Using 13 teaching areas and 16 competencies relevant to applied epidemiology, we identified and characterized previously untapped resources across the university. Asset mapping is thus a useful tool for identifying university resources and opportunities that can be leveraged to support interdisciplinary education for One Health.

Pastoralists in sub-Saharan Africa have limited access to public services due to their mobile lifestyle, economic and political marginalization, and the limited health infrastructure that is common to arid and semi-arid lands (ASALs) where they primarily reside. This often results in poor health outcomes, including increased rates of maternal, neonatal, and under-5 mortality. One Health approaches that integrate human and animal health service delivery can help to improve pastoralists' health through increased vaccine coverage and improved access to services. Kenya has institutionalized One Health at the national level; however, progress at the subnational level has been limited due to sustainability concerns, competing priorities, and insufficient coordination platforms. To address this gap, this paper presents a One Health framework (OHF) to aid in the implementation of integrated human and animal health policies in Turkana County, which can act as a model for other ASALs. Utilizing a grounded theory design, we conducted semi-structured interviews and focus group discussions with human health, animal health, and pastoralist stakeholders. Inadequate engagement with the public sector was identified as a major limitation by community members. Factors that contributed to this include distance to health facilities and restricted department capacities such as availability of vehicles, personnel, and cold chain maintenance. Our proposed OHF harnesses the existing structure of service delivery in Turkana and establishes an official coordination mechanism to implement One Health activities, through the form of mobile "One Health Huduma Centres", offering a range of public services. This innovative framework is supported by stakeholders in Turkana and can improve service delivery constraints thereby improving the health of Turkana pastoralists.

OBJECTIVE To determine the pharmacokinetics of terbinafine in little brown myotis (Myotis lucifugus) infected with Pseudogymnoascus destructans. ANIMALS 123 bats from a P destructans-infected hibernation site in Virginia. PROCEDURES 3 bats were euthanized and necropsied to confirm the presence of P destructans within the population. The remaining 120 bats were systematically assigned to 6 groups (20 bats/group). Bats in each of 3 groups received 6, 20, or 60 mg of terbinafine/kg, SC, once daily for 10 days. Bats in another group received 200 mg of terbinafine/kg, SC, once daily for 5 days. Bats in 1 group received the terbinafine vehicle solution (0.1 mL/kg, SC, once daily for 10 days). Bats in the remaining group did not receive any treatment. Following the treatment period (days 1 through 10), bats were housed in a hibernation chamber and monitored daily until euthanasia on day 42, 75, or 109. Tissue specimens were collected from all bats as soon as possible after death or euthanasia to determine terbinafine concentration. Within each group and tissue type, terbinafine concentration data were pooled, and pharmacokinetic parameters were calculated by noncompartmental methods. RESULTS Adverse neurologic effects and a high mortality rate before day 10 were observed in bats that received the highest terbinafine dose (200 mg/kg) but not those that received lower doses. Presumed therapeutic terbinafine concentrations (≥ 2 μg/g) were maintained in skin and wing for at least 30 and 6 days in bats that received the 60 and 20 mg/kg doses, respectively, but were not achieved in most bats that received the 6 mg/kg dose. Tissue terminal half-life ranged from 14 to 22 days. Terbinafine concentration in hair was positively correlated with that in skin and wing. CONCLUSIONS AND CLINICAL RELEVANCE Results indicated terbinafine doses > 6 but < 200 mg/kg should be further evaluated for the treatment of P destructans-infected bats. Collection of serial hair specimens may represent a noninvasive method for monitoring terbinafine concentration in treated bats.

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