Craig Morley

Dr. Craig Morley

Toi Ohomai Institute of Technology, Department of Environmental Science, Rotorua 3046, New Zealand
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orcid

Research Focus & Metrics

Academic Career Length

25Years (2002-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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15 May 2009 in Conservation Biology
Verified
Journal Article
Open access
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WSW. J. Sutherland
W. J. Sutherland
WAW. M. Adams
W. M. Adams
RAR. B. Aronson
R. B. Aronson
RAR. Aveling
R. Aveling
TBT. M. Blackburn
T. M. Blackburn
AWA. R. Watkinson
A. R. Watkinson
Abstract:  We identified 100 scientific questions that, if answered, would have the greatest impact on conservation practice and policy. Representatives from 21 international organizations, regional sections and working groups of the Society for Conservation Biology, and 12 academics, from all continents except Antarctica, compiled 2291 questions of relevance to conservation of biological diversity worldwide. The questions were gathered from 761 individuals through workshops, email requests, and discussions. Voting by email to short‐list questions, followed by a 2‐day workshop, was used to derive the final list of 100 questions. Most of the final questions were derived through a process of modification and combination as the workshop progressed. The questions are divided into 12 sections: ecosystem functions and services, climate change, technological change, protected areas, ecosystem management and restoration, terrestrial ecosystems, marine ecosystems, freshwater ecosystems, species management, organizational systems and processes, societal context and change, and impacts of conservation interventions. We anticipate that these questions will help identify new directions for researchers and assist funders in directing funds.

13 July 2009 in Conservation Biology
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Journal Article
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RKRichard T. Kingsford
Richard T. Kingsford
JWJames Watson
James Watson
CLC. J. Lundquist
C. J. Lundquist
OVO. Venter
O. Venter
LHL. Hughes
L. Hughes
KWK. A. Wilson
K. A. Wilson

1 October 2009 in Molecular Phylogenetics and Evolution
Verified
Journal Article
Closed access
MPMarie-Lilith Patou
Marie-Lilith Patou
PMPatricia A. Mclenachan
Patricia A. Mclenachan
CMCraig Morley
Craig Morley
ACArnaud Couloux
Arnaud Couloux
AJAndrew P. Jennings
Andrew P. Jennings
GVGéraldine Veron
Géraldine Veron

23 September 2010 in Australian Journal of Zoology
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Edward Jitik NarayanEdward Jitik Narayan
Edward Jitik Narayan
FMFrank Molinia
Frank Molinia
KCKetan Christi
Ketan Christi
CMCraig Morley
Craig Morley
John CockremJohn Cockrem
John Cockrem
This study was based on the development of a non-invasive glucocorticoid enzyme-immunoassay for the assessment of stress in wild and captive endangered Fijian ground frogs (Platymantis vitiana). Enzyme-immunoassays were developed and validated for the first time to non-invasively measure both cortisol and corticosterone metabolites in frog urine. Frog urine showed parallel displacement with corticosterone but not cortisol standards, therefore corticosterone enzyme immunoassays were used to examine stress in wild and captive frogs. Urinary corticosterone metabolite concentrations increased in frog urine (n = 4) at 6 h, 1 day and 2 days after injection with adrenocorticotropic hormone (0.44 µg g–1 bodyweight), indicating that the corticosterone enzyme-immunoassay could detect changes in circulating corticosterone in frogs. Urinary concentrations of corticosterone were measured in wild frogs (n = 18) after capture in the field. The first measurement beyond the initial sample was at 2–3 h. Mean urinary corticosterone concentrations rose after the initial sample and were significantly elevated in samples collected 3–4 h after capture. This is the first demonstration of a urinary corticosterone response to capture in amphibians. Urinary corticosterone metabolite concentrations for all months combined were lower in captive males than in wild males, and differed between vitellogenic, non-vitellogenic and captive females. Concentrations did not differ between captive and wild females. In conclusion, urinary corticosterone enzyme immunoassays can be used in frogs for assessing stress responses to capture and natural stress profiles of both captive and wild populations.

1 March 2010 in General and Comparative Endocrinology
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Journal Article
Closed access
Edward Jitik NarayanEdward Jitik Narayan
Edward Jitik Narayan
FMFrank C. Molinia
Frank C. Molinia
KCKetan S. Christi
Ketan S. Christi
CMCraig Morley
Craig Morley
John CockremJohn Cockrem
John Cockrem

28 November 2021 in Sustainability
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Journal Article
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KBKedar Baral
Kedar Baral
HSHari Prasad Sharma
Hari Prasad Sharma
RKRipu Kunwar
Ripu Kunwar
CMCraig Morley
Craig Morley
AAAchyut Aryal
Achyut Aryal
WJWeihong Ji
Weihong Ji
Human wildlife conflict (HWC) impacts the livelihood of many rural communities worldwide. This study investigated the impact of HWC on people living near community forests (CF) in Nepal. Using databases provided by the Division of Forest Offices and data obtained from surveys between October 2019–March 2020, we quantified the financial loss of HWC to the local people. Between 2015 and 2019, 3315, or 27%, of the livestock owned by the survey respondents were killed by wild predators in the Kaski and Tanahun Districts. Chicken (Gallus spp.) was the most common prey taken (80%), followed by sheep (Ovis spp.) and goats (Capra spp.) (15%), cows (Bos spp.) (2%), pigs (Sus spp.) (2%), and buffalo (Bubalus spp.) (1%). Leopards (Panthera pardus) were the primary predators, followed by golden jackals (Canis aureus), jungle cats (Felis chaus), yellow-throated martens (Martes flavigula), and Himalayan black bears (Ursus thibetanus). The financial loss of livestock during this period was USD $115,656.00, equivalent to USD $142.61 per household. Crops were also damaged and eaten by wildlife, and 2165 crop-raiding events were recorded between 2015 and 2019. Rice (Oryza sativa), followed by maize (Zea mays), millet (Panicum miliaceum), and potatoes (Solanum tuberosum) were the main crops lost. Rhesus monkeys (Macaca mulatta) were the most common crop raiders, causing 74% of the damage, followed by Indian field mice (Mus booduga) (12%). From 2015 to 2019, crop losses equated to USD $83,424.00. Forest regeneration on abandoned agricultural land expanded wildlife habitats, enabling wild animals to come within reach of human settlements, which increased the likelihood of HWC events. Although the success of the community forest restoration program resulted in increased forest-cover, marginally increasing biodiversity, the reduced distance between human settlements and wildlife habitat, compounded by a lack of natural prey, may have unwittingly exacerbated HWC in this region. We recommend surveying predator and prey populations in the forest habitat, and implementing a habitat management program to improve prey populations within the community forests. Meantime, we propose establishing a financial relief and insurance program for crop and livestock losses at the local community level to alleviate any financial difficulties to the local communities caused by HWC.