May 20, 2013 - Abstract. Pet birds are a not-so-well known veterinarian's clientship fraction. Bought individually or in couples, as families often do (which is a lucrative business for pet shops or local breeders) or traded (sometimes illegally) for
May 20, 2013 - American Veterinary Medicine Association (AVMA) re- ..... in elementary schools related to owl pellet dissection . ...... colony of birds.
which spread through various organs forming encysted ninphae which at the surface of the liver form small ... Sporotrichoid lymphocutaneous. Granuloma ...
Silver nitrate sticks and styptic powder are readily available and easy to use. Styptic powder can be placed into a tuberculin syringe with the tip cut off to create ...
Sep 16, 2002 - Jennifer K. Meece, PhD, Center for Tropical Disease Research and Training, University of Notre Dame, Notre Dame, Indiana and Clinical ...
Journal of Avian Medicine and Surgery 31(3):262â282, 2017 .... diagnostic information was available for only 30, ... Trends in human psittacosis should therefore be .... and handling of infected birds' plumage and tissues. .... submitted to special
Feb 11, 2014 - 2014 Japanese Society of Tropical Medicine. Abstract: This review presents a comprehensive picture of the zoonotic parasitic diseases in Egypt, with partic- ular reference to their relative prevalence among humans, animal reservoirs of
Parakeets fre- quently need the upper beak trimmed, filed or ground back until it overlaps the lower beak only slightly. This often applies to large parrot types.
Control of Communicable Diseases Manual. American ...... Regarding pet animals, cases of Q fever have occurred among people playing poker in the room where a ...... Meat grinders and molecular epidemiology: two supermarket outbreaks.
1866. Nucifraga caryocatactes macrorhynchos Brehm, Verz. Samml., p. 4. 1886. Xucifraga caryocatactes leptorhynchusB,. Blasius. Oruis, ii, p. 543: estr. p. 107;.
Oct 24, 2015 - scabies are also discussed as they are increasingly reported in recent years. Keywords | Parasites ...... OIE Manual on echinococcosis in humans and animals: a ..... Saraswati K, Pandit PV, Deodhar LP, Bichile LS (1998).
affected with erysipelas resulting in significant economic losses (Wang et al., 2010). Odontocete cetaceans are highly susceptible to E. rhusiopathiae, and infections have been reported since the 1950s (Seibold and Neal, 1956;. Simpson et al., 1958;
Oct 6, 2016 - 2014; 32: 32â47. doi: 10.1111/gcb.12709. 30. Baltazard M. Pesquisas sobre a Peste no BrasilâTerceiro RelatÃ³rio. Washington; 1967. 31.
Capnocytophaga canimorsus infection in cats: ABCD guidelines on prevention ... Overview: Capnocytophaga canimorsus and Capnocytophaga cynodegmi are ...
Jan 4, 2017 - Results. Of the 1,254 titles produced by the bibliographic search, 62 were included in this review. Whereas 28 of these articles (45.2%) described individual cases or outbreaks, the remain- ing 34 (54.8%) reported serological results. T
James V. Conlana,*, Banchob Sripab, Stephen Attwoodc,d, Paul N. Newtone,f a School of Veterinary and Biomedical Sciences, Murdoch University, South Street, Murdoch, WA, Australia b Tropical Disease Research Laboratory, Department of Pathology, Facult
Dec 4, 2006 - any Kaiser Permanente entity name, logo, trade name, trademark, or service mark for marketing or publicity purposes, including on any website ...
Summary. This paper discusses food-borne zoonotic diseases by considering contemporary influences on food safety and examining pathogens at the human/animal interface. The authors also discuss the epidemiological surveillance of food-borne illnesses
Oct 21, 1996 - (http://www.med.monash.edu.au/microbiology/staff/adler/LeptoGuidelines2003.pdf). WHO/FAO ...... Sistema Unico de Vigilancia ...... PDF). Scheutz, F. (2003) The significance of non-O157 VTEC infections. In 5th International. Symposium o
More commonly isolated from young patients. â¢ Most cases recover within a week. â¢ Rare serious disease such as arthritis or. Guillain-Barre syndrome (a patients ...
Downloaded from orbit.dtu.dk on: Nov 19, 2018 ... The Danish laboratory based surveillance on foodborne bacteria . . 22. 5. ..... colors in the graph refer to the main sources, namely domestic .... Eight travel-related outbreaks were identified (see
birds including the immune response or tolerance to different antigens (4, 5). .... Mammals have Î±- and Î²-defensins (17). ... common; in chickens, four types of beta-defensins named gallinacins were discovered already at early stage of ...
Î²+ decay is followed by annihilation radiation. Passing through the tissue positron slows down and meets its antiparticle (free electron) wich leads to annihilation ...
Mar 16, 2014 - a âwarrantyâ period of three years. ..... 90% distal LCx stenosis, 95% OM1 stenosis, 95% ramus intermedius stenosis, 50â60% middistal RCA.
Escherichia coli O157:H7 strains transmitted from wild passerines (European
starlings mostly) to cattle and then introduced into the food chain has been reported
in several studies [92-94]. Lack of hygiene and the absence of quarantine (especially
concerning imported birds), and dirty food and water sources seem to be the most
probable origin of infection with these zoonotic pathogens. Besides, the potential
transmission from wild birds to open-air aviaries hosted petbirds (via faecal drops)
should be considered (Boseret, pers. obs.). However, reports of transmission of these
bacteria from pet birds to humans still lack in the literature.
Viral diseases 3.2.1
Highly pathogenic avian influenza A H5N1 has been in the world health focus since
the years 2000’s outbreaks. Perkins et collaborators , demonstrated in 2003 that
the avian influenza A virus H5N1 after intranasal administration was able to induce
clinical symptoms leading to death in petbirds species like zebra finches and common 18
budgerigars, which are very common hosts of domestic ornamental aviaries, as well
as in wild species like house sparrows and european starlings, usually living close to
human habitations . Several studies demonstrated the important role of
migrating birds as pathogens vehicles all over the world [21, 96, 97], being putatively
able to infect wild indigenous birds (house sparrows, european starlings), these latter
possibly contaminating petbirds living in open air aviaries . This virus could also
spread from endemic countries [12, 16] to other locations through international trade
of exotic birds [15, 16, 22]. In relation with this fact, markets where live birds are sold
appear to represent a great risk for zoonotic transmission as demonstrated by several
authors [12, 13]. This is indeed noticeable that Asian owners seemed to be, even at
the peak of the H5N1 outbreak, unaware of the zoonotic risks this kind of business
could cause [12, 13] and this was also the case in Western countries as hybrids
between canaries and different wild passerines were and are still sold on public
markets (Boseret, pers. inform.). Illegal bird importation can also induce a risk as
suggested by Van Borm and collaborators .
West Nile Fever is an emergent vector-borne zoonosis in which birds, e.a. house
sparrows, play a key role as main and amplifying reservoir hosts . The virus
responsible for this disease is a flavivirus (Flaviviridae) known under the name of
West Nile Fever Virus (WNV) which was isolated from numerous passeriform
species, including canaries , as well as psittacines . Birds, most of the time
are subclinically affected , but can however develop a clinical form of the disease with
ocular and neurologic symptoms . Usutu virus (USUV) is another mosquito-borne
flavivirus of African origin. This avian virus is transmitted by arthropod vectors
(mainly mosquitoes of the Culex pipiens complex). Since 2001, death of birds 19
especially passerines have been associated with infection by USUV [99, 100] . It is
well known that free-living birds, including migratory species, have the potential to
disperse certain pathogenic microorganisms . Usutu virus has recently been
detected in Europe and is spreading through Austria, Hungary, Italy, Spain and
Switzerland, causing disease in birds and humans . Following the same pattern
than the West Nile Fever virus, USUV is a candidate as emerging pathogen in Europe
and the consequences for human health safety have to be considered [49, 53]. Open
air aviaries are common in our countries and could be an important feeding source
for mosquitoes, which could then inoculate the virus to humans
Proventricular dilation disease (PDD) is a disease in petbirds and, as it could be
frequently lethal, PDD is considered as a major threat to aviculture . This
syndrome is associated with inflammation of the nervous system and
gastrointestinal dysfunction as well as neurologic changes like seizures. Recently,
the cause of this disease has been attributed to a novel bornavirus, the Avian
Borna Virus (ABV) . However, there is no evidence of ABV cross-species
transmission and the zoonotic potential of this family of viruses remains unclear
Newcastle disease, caused by avian paramyxovirus (APMV) was also described in
petbirds [56, 91, 104]. Transmission to humans could also be possible, with
conjunctivitis  but the most important consequence would be spreading of the
infection among poultry breeding by the intermediary of human, wildbirds
(especially pigeons) or maybe insects mechanical vectors like the house fly (Musca
domestica)  20
Parasitic/fungal diseases 3.3.1
Toxoplasmosis is a well-known human disease, responsible for abortion or
congenital malformations in human. Although less documented than through the
cat-cycle transmission, Toxoplasma gondii has also been described as an important
pathogen for canaries, finches and budgerigars [106, 107], inducing blindness
among other symptoms. However, transmission to humans appears to be mostly
unlikely, as the birds don’t excrete T. gondii in faeces (implying no risk of
contamination by lack of hygiene or fecal matter manipulation). Indeed, Toxoplasma
gondii should be found in internal organs and muscles, butas these birds are usually
not bred in an alimentary purpose, this eliminates then the possibility of a
contamination by raw or undercooked flesh eating (Losson, pers. comm).
Pigeons are known to be reservoirs of pathogenic yeasts, like Cryptococcus
neoformans, which is described to cause opportunistic infections in humans .
However less is known on the role that might play petbirds in such zoonotic
transmission. Several studies have demonstrated the presence of C. neoformans in
parrots, little petbirds like canaries, budgerigars or lovebirds and cockatiels [109,
110]. As it has been discussed above, petbirds, moreover housed in outdoor aviaries
and then in contact with wild pigeons’ droppings, could be a potential health hazard
for humans as Cryptococcus neoformans reservoirs.
Despite a relatively poor documentation on petbirds parasitic diseases, giardiosis,
aspergillosis and cryptosporidiosis have been reported in these avian populations,
both in chronic and in acute infections. Favorisating conditions could be high-
density populations, stress, adaptation to new environment or prolonged periods in
confined housings. Transmission to human often results from faeces
manipulation or lack of hygiene [41, 56, 90].
Avian giardiasis is caused by two different Giardia species: G. ardeae and G. psittaci.
G. psittaci has been demonstrated to be responsible for fatal infections in
budgerigars , but is not transmissible to humans. The species responsible for
zoonotic infections is Giardia duodenalis, causing generally a self-limited illness,
sometimes asymptomatic, characterized by diarrhoea, abdominal pain and weight
loss.  G. duodenalis is divided into eight genotypes or “Assemblages”, among
whose Assemblages A and B appear to be responsible for human infections .
Interestingly, these genotypes have been isolated in faeces of different avian species,
without leading to the development of clinical symptoms. Birds seem then more
likely to serve as mechanical vectors of cysts and oocysts.
In birds, Cryptosporidium infection leads to intestinal, respiratory or nephrotic
symptoms and could be caused by three distinct species: C. galli, C. meleagridis and
C. baylei. The two latter have been described as possible zoonotic agents, though in a
low frequency in comparison with other species such as C. hominis or C. parvum
. The main human population at risk are very young children (first exposure,
lack of hygiene) and immunocompromised individues such as HIV-positive patients,
who will develop gastro-intestinal lesions but also infections of other organs such as
pancreas, liver and sometimes respiratory tract . Cryptosporidium parvum has
been isolated in faeces of various avian species, conforting the possibility of zoonotic
parasites shedding and transmission by birds. 
Aspergillosis has been frequently isolated from pet birds  , in both acute
(severe respiratory condition with lethargy and changes in vocalization) and
chronic forms (more often fatal because of its long-term development). However,
human infection would rather come from environmental origin, and therefore be
considered as a minor zoonotic threat, apart eventually from human
immunocompromised patients .
4. Guidelines to prevent transmission from birds to humans
One interesting document to start with is the “Compendium of Measures To Control
Chlamydia psittaci Infection Among Humans (Psittacosis) and Pet Birds (Avian
Chlamydiosis), 1998” edited by the Centre for Diseases Control in 1998 .
The transmission of zoonotic pathogens from animals to humans could be easily
decreased by applying some elementary hygiene principles. A few recommandations
could be delivered to the owner by the bird seller like the following ones:
Clean clothing and shoes after any contact with other birds (bird club meeting, bird fair, live poultry).
Wash hands before and after handling birds (including cages cleaning).
Look out every day to cages, food and water; to be sure they are clean (including
perches, feeding cups, etc.). 23
When giving fruits or vegetables to birds, discard the rotten remainings.
Change bath pots every day and let them available to birds only one hour/day (to
avoid the bathing waste water to become a reservoir for pathogens).
Wash cages once a week.
Preserve food in clean and sealed containers.
Clean and disinfect every aviary items before use.
Usually, birds breeders are correctly aware of these precautions; the risk is however
higher in the case of family pets bought for the first time in a decorative purpose or
as present for the children, especially when either parents or kids haven’t been
informed about the cited above elementary advices.
Birds’origin traceability :
In the case of birds bred in the country wherein they are sold (e.g. little birds like
canaries, finches, budgerigars), they are usually provided without any certificate or
identification (apart from a legband with the breeding identification number).
Sellers are supposed to keep an accurate traceability of their stocks, but there is as
far as we know no legal obligation of the seller to give any documents to the buyer.
About exotic pet birds issued from importation, laws differ from countries, but in a
general view, a vet certificate, a passport and an importation authorization have to
be delivered with the birds. As said before, smuggled birds represent a high risk of
zoonoses introduction. In Europe, exotic bird importation from non EU countries is
forbidden and animals imported from other EU-members countries should have an
international passport, a correct identification and a veterinary certificate of good
health (Directive 91/496/CE).
However on the owner point of view, there are some recommandations to be aware
of after buying a new pet bird.
If the birds comes from another country, request certification from the seller that
these were legally imported (eventually ask for official documents) and were
healthy prior to shipment (certified by an official veterinarian).
Schedule an appointment with a veterinarian.
Isolate new birds from other birds for a quarantine time determined by the
Restrict access to birds from people owning birds too.
Keep birds away from other birds (e.g. in the gardens).
Awareness of sickness signs
Breeders usually know the sickness signs of a bird, even if they could be somehow
difficult to detect. But for non initiated people, like sellers in animal shops or new
owners, this could be difficult to see whether their birds are healthy or ill.
Prevention tools and information should then be provided by the breeders to people
they are selling/giving their animals. Veterinarians also should better inform
owners for example by providing documentation on warning signs of infectious bird
diseases. If unusual signs of disease or if unexpected deaths occur in a breeding, the
owners should then warn their avian veterinarian.
Biosecurity and hygiene precautions in big facilities
When of sufficient size, a Hazard Analysis and Critical Control Points (HACCP) plan
could be applied in breeding facilities and in selling facilities. To quarantine newly
incoming birds is an absolutely necessary precaution. These animals should be kept
in clean cages for a duration estimated by the sanitary veterinarian, and pathogens
and/or pests absence (including D. gallinae) should be carefully checked. CDC
recommends at least a quarantine of 30-45 days when Chlamydophila psittaci
infection is suspected . For example, one should check these different control
1. Direct birds’ environment : -
Presence/absence of D. gallinae in the quarantine cages after at least one week,
which is the time needed by the parasite to accomplish a complete reproduction
cycle, from egg to egg . For example, the acarids could be easily found on
feedballs, perches or on the removable bottom sandtray. An easy test is to push
strongly with the thumb on dirty spots pasted on the reverse face of this tray and
scratch them from left to right (or vice versa). If a bloody smear does appear, this
would be an efficient sign that blood-fed parasites did begin to colonize cages’
anfractuosities (Boseret, pers. obs.).
Color/consistency/quantity of droppings: for example, a yellow stain should
suggest campylobacteriosis, a liquid consistency should refer to salmonellosis or
other enterobacteriaceae infections .
Transport cages: were they soiled or clean? Presence of dead birds?
2. Birds : general examination
Presence/absence of other pests’ species living most of their time on the host, e.g.
at the calamus of the feathers (like Ornithonyssus sylviarum), at the edge of the
beak or in the leg’s scales (like Knemidokoptes pilae, which is a non zoonotic
mange agent) or in another part of the body (e.g. ticks, lice). Broken feathers or
feather-loss could indicate pruritus and discomfort, other indicators of
ectoparasites infestation . Ectoparasites are considered by many breeders to
be a good indicator of inadequate hygiene and management and their detection
therefore could awake attention of the owner on the health status of their
infested incoming birds.
General state of the birds (good/bad)
Perching/ lying at the bottom of the cage
Normal activity/apathic, rolled in ruffled feathers
In social groups/isolated
Good respiratory state/nasal-ocular discharge, open beak
641 642 643
Plumage aspect: are the birds in molting period? How is the molting: homogenous and bilateral/heterogenous and asymmetric
3. Quarantine facilities hygienic state:
Frequence and efficiency of cages/walls/floor/shells disinfection
Food storage (access to mice, rats?)
Environmental conditions: temperature, humidity, duration of light hours
This list is not exhaustive and a complete list of adequate control points has to be
determined in function of the kind and size of breeding, facilities conformation,
season, frequence of birds movements, etc. The above recommendations should
however constitute a basis of elementary examinations to be performed in every
In case of a high level of risk or when a doubt emerges relatively to the birds’ health
state, the following laboratory analyses could be performed:
654 655 656 657 658
1. Individu level: necropsy of a dead or a sacrificed sick individu, performed along with bacterial analyses of intestinal content or other organs presenting lesions. 2. Group level: Bacterial analyses of cloacal or/and oral swabs of a birds sample bunch (one-to-ten, one-to-fifteen…). 3. Vector level: molecular analyses of vectors found on birds and/or in the cages, to
detect specifically zoonotic agents: Chlamydophila psittaci, west nile fever, etc…
The first two types of analyses could be an interesting investment and couldn’t be
too much expensive (less than 100 euros/birds’ bunch).
However, molecular analyses are on another financial level. One should recommend
them in particular cases, first when birds are about to be handled by owners, like
parrots, parakeets or cockatiels, second when the pathogen targeted is of zoonotic
non negligeable importance. For example, tuberculosis detection has to be carried
out with a critical mind, as false negative do occur. On another hand, as surveillance
of zoonoses is a European legal obligation (Directive 2003/99/EC), testing birds
could be systematically included in national surveillance programs, a fortiori when
human health is estimated to be put at risk, and then could then grant the breeders
with a official budget intervention. 28
Another suggestion to diminish the costs at a local level would be to perform such
tests in multiplex series, allowing breeders to share somehow elevated costs. But all
these possibilities involves a complete change of mind and implies a broader
transparency in these kind of breedings, which still lacks even in our high-controlled
countries (Boseret, pers. inform.).
When birds are proved to be healthy, then they could be introduced in their
definitive facilities. Outcoming birds should be submitted to similar sanitary
Moreover, the precaution of all-in/all-out replacement system, already applied in
poultry exploitations, should be carried out in petbirds breedings too. For example,
only birds of the same age should be kept in the same location, and when moved, the
facility should be disinfected carefully before welcoming a new flock.
In selling facilities, where birds from different origins could be mixed up, only
replace them when the whole flock has been sold and the cages cleaned with ad hoc
disinfectants. One interesting initiative would be to create a certificate of « good
health » to moving flocks, but as many animals are sold in non-official ways (e.g.
private breedings, markets), this couldn’t be not so easy to put in place.
Control point should be also implemented on bird’s fairs. Sanitary certificates could
be an obligatory document to provide to authorities to allow the breeder to attend
This review aimed to present a non-exhaustive panorama of data relative to
petbirds-human pathogen transmission. Different situations have been illustrated in
this short review: familial households, breeding or selling facilities, bird fairs,
international trade and the wildbirds’problematic of reservoirs. Although this
represents a minor part of the companion animals’ vet clientship, petbirds’ diseases
with zoonotic potential shouldn’t be neglected or underestimated, considering the
major health impact on the population, including children. Referring to Pastoret and
Vallat zoonoses classification, petbird zoonoses own to the most threadful diseases
types: 2 and 2+ (see table 3; ). Vets could then play an important role in
educating pets (including birds) owners.
On an another point of view, pathogens’ shedding by wild passerine birds could be
responsible of maintaining infection in domestic birds pools, such as openair
aviaries or poultry breedings, and could have important economic impacts. The
presence of Salmonella species in starling faeces and in cattle feeding operations
reported e.a. by Carlson and collaborators is a good example of a under-known
reservoir phenomenon. Another example is the role of birds, among which
passerines, as amplifying hosts for some vector-borne zoonotic emerging viruses.
Open air aviaries are not protected from mosquitoes, and ornamental birds have
been showed to be able to act the same way than their wild counterparts. Migrating
birds are also a sanitary concern, as these birds could spread a high variety of
pathogens by solely defecating above outdoor aviaries wherein petbirds are housed.
Thus these birds concentration could become a non negligible reservoir of
pathogens, contributing to maintain and spread infection in human population.
Referring on vectors, D. gallinae following author’s advice is an underestimated
concern – probably too many times misdiagnosed - in petbird medicine as well as in
small avian breedings, as the parasite could be carried and transferred from one
species to another, mostly by inert materials such cages, perches, water or feed
bowls, etc. and eventually by the intermediaire of man. Threatening pathogens like
C. psittaci or Salmonella ssp. were reported to be carried by the mite and transmitted
to petbirds, which could then infect either their owners or their cagemates. In
addition, sanitary state of petbird owning and trade is rather unclear in many
countries. HACCP or other quality control plans (ISO, AFNOR…) are applied by the
Federal Agency for Food Safety Chain (FAFSC) in Belgian poultry breedings, but not
in « backyard poultry flocks » or in local passerine breedings. Legislation does exist
e.g. on international trade but despite this, illegal introduction of birds in our
countries still remains a threat for human health when considering the highly
pathogenic agents that could be brought in our frontiers (e.g. avian influenza A virus
H5N1 or chlamydophilosis).
Therefore, investigate the health status of pet birds, facilities, avian exploitations
and owners should be an interesting starting point to define human health risks
encountered (from family to breeding scale), to propose economic and sanitary
prevention measures (e.g. biosecurity, prophylaxy, hygiene) in an interest of health
protection and economic improvement. This investigation could be a good picture
illustrating the concept of « Animals + Humans = One Health ».
The author(s) declare that they have no competing interests.
GB and CS fixed the design of the study; GB has realized the literature research and
analysis; BL, ET, JM and CS have been involved in revising the manuscript critically
for important intellectual content; CS has given final approval of the version to be
GB is doctor in veterinary medicine and defended a PhD on songbirds’behavior and
health status. She is currently studying zoonoses transmitted by birds, especially
petbirds, in CS research unit.
BL, ET, JGM and CS are professors and heads of respectively parasitology, virology,
bacteriology and epidemiology and risk analysis sections of the department of
infectious and parasitic diseases, (Faculty of Veterinary Medicine, University of
Liège, Belgium) and therefore provided the author with expert advices on diseases
discussed in this manuscript.
We would like to acknowledge the team of the UREAR-ULg unit for their kind
support in this redacting process, Drs Dal Pozzo, Humblet and Martinelle.
761 762 763
Tully Jr TN: Birds. In: manual of exotic pet practice. Edited by Elsevier: Elsevier; 2009: 250298. 32
Dorrestein Gerry M: 8 - Passerines. In: Handbook of Avian Medicine (Second Edition). edn. Edited by Thomas NT, Jr, Bs, Dvm, ABVP MSD, Ecams, Gerry MD, Prof D, Dr h, Alan KJ et al. Edinburgh: W.B. Saunders; 2009: 169-208. Harcourt–Brown Nigel H: Chapter 6 - Psittacine birds. In: Avian Medicine. edn. Edited by Thomas NTJ, ABVP DMD, Martin PCL, FRCVS BVCCCMD, Gerry M. Dorrestein DVMPDVP. Oxford: Butterworth-Heinemann; 2000: 112-143. U.S.: Pet ownership & demographics sourcebook (2007 edition). In: AVMA. 2007. FACCO (chambre syndicale des Fabricants d'Aliments préparés pour Chiens C, Oiseaux et autres animaux familiers): Enquête FACCO/TNS SOFRES 2010 sur le Parc des Animaux Familiers Français. In.; 2010. Carlson JC, Engeman RM, Hyatt DR, Gilliland RL, DeLiberto TJ, Clark L, Bodenchuk MJ, Linz GM: Efficacy of European starling control to reduce Salmonella enterica contamination in a concentrated animal feeding operation in the Texas panhandle. BMC Veterinary Research 2011, 7. Belchior E, Barataud D, Ollivier R, Capek I, Laroucau K, De Barbeyrac B, Hubert B: Psittacosis outbreak after participation in a bird fair, Western France, December 2008. Epidemiology and Infection 2011, 139(10):1637-1641. Vanrompay D, Harkinezhad T, Van De Walle M, Beeckman D, Van Droogenbroeck C, Verminnen K, Leten R, Martel A, Cauwerts K: Chlamydophila psittaci transmission from pet birds to humans. Emerging Infectious Diseases 2007, 13(7):1108-1110. Jaenson TG. Loye J, Carroll S: Birds, bugs and blood: Avian parasitism and conservation. Trends in Ecology and Evolution 1995, 10(6):232-235. Boseret G, Carere C, Ball GF, Balthazart J: Social context affects testosterone-induced singing and the volume of song control nuclei in male canaries (Serinus canaria). Journal of Neurobiology 2006, 66(10):1044-1060. Amonsin A, Choatrakol C, Lapkuntod J, Tantilertcharoen R, Thanawongnuwech R, Suradhat S, Suwannakarn K, Theamboonlers A, Poovorawan Y: Influenza virus (H5N1) in live bird markets and food markets, Thailand. Emerging Infectious Diseases 2008, 14(11):1739-1742. Wang M, Di B, Zhou DH, Zheng BJ, Jing H, Lin YP, Liu YF, Wu XW, Qin PZ, Wang YL et al: Food markets with live birds as source of avian influenza. Emerging Infectious Diseases 2006, 12(11):1773-1775. Berk Y, Klaassen CHW, Mouton JW, Meis JFGM: An outbreak of psittacosis in a bird-fanciers fair in the Netherlands. Een uitbraak van psittacose na een vogelbeurs 2008, 152(34):18891892. Chomel BB, Belotto A, Meslin FX: Wildlife, exotic pets, and emerging zoonoses. Emerging Infectious Diseases 2007, 13(1):6-11. Van Borm S, Thomas I, Hanquet G, Lambrecht B, Boschmans M, Dupont G, Decaestecker M, Snacken R, Van Den Berg T: Highly pathogenic H5N1 influenza virus in smuggled Thai eagles, Belgium. Emerging Infectious Diseases 2005, 11(5):702-705. De Schrijver K: A psittacosis outbreak in customs officers in Antwerp (Belgium). Bulletin of the Institute of Maritime and Tropical Medicine in Gdynia 1998, 49(1-4):97-99. Roy L, Buronfosse T: Using mitochondrial and nuclear sequence data for disentangling population structure in complex pest species: A case study with dermanyssus gallinae. PLoS ONE 2011, 6(7). Karesh WB, Cook RA, Bennett EL, Newcomb J: Wildlife trade and global disease emergence. Emerging Infectious Diseases 2005, 11(7):1000-1002. Karesh WB, Cook RA, Gilbert M, Newcomb J: Implications of wildlife trade on the movement of avian influenza and other infectious diseases. Journal of Wildlife Diseases 2007, 43(3 SUPPL.):S55-S59. Fèvre EM, Bronsvoort BMDC, Hamilton KA, Cleaveland S: Animal movements and the spread of infectious diseases. Trends in Microbiology 2006, 14(3):125-131. 33
Brooks-Moizer F, Roberton SI, Edmunds K, Bell D: Avian influenza H5N1 and the wild bird trade in Hanoi, Vietnam. Ecology and Society 2009, 14(1). Valiente Moro C, Thioulouse J, Chauve C, Normand P, Zenner L: Bacterial taxa associated with the hematophagous mite Dermanyssus gallinae detected by 16S rRNA PCR amplification and TTGE fingerprinting. Research in Microbiology 2009, 160(1):63-70. Valiente Moro C, Chauve C, Zenner L: Vectorial role of some dermanyssoid mites (Acari, Mesostigmata, Dermanyssoidea). Parasite 2005, 12(2):99-109. Valiente Moro C, De Luna CJ, Tod A, Guy JH, Sparagano OAE, Zenner L: The poultry red mite (Dermanyssus gallinae): A potential vector of pathogenic agents. Experimental and Applied Acarology 2009, 48(1-2):93-104. Circella E, Pugliese N, Todisco G, Cafiero MA, Sparagano OAE, Camarda A: Chlamydia psittaci infection in canaries heavily infested by Dermanyssus gallinae. Experimental and Applied Acarology 2011:1-10. Valiente Moro C, Chauve C, Zenner L: Experimental infection of Salmonella Enteritidis by the poultry red mite, Dermanyssus gallinae. Veterinary Parasitology 2007, 146(3-4):329-336. Valiente Moro C, Desloire S, Chauve C, Zenner L: Detection of Salmonella sp. in Dermanyssus gallinae using an FTA® filter-based polymerase chain reaction. Medical and Veterinary Entomology 2007, 21(2):148-152. Valiente Moro C, Desloire S, Vernozy-Rozand C, Chauve C, Zenner L: Comparison of the VIDAS® system, FTA® filter-based PCR and culture on SM ID for detecting Salmonella in Dermanyssus gallinae. Letters in Applied Microbiology 2007, 44(4):431-436. Chirico J, Eriksson H, Fossum O, Jansson D: The poultry red mite, Dermanyssus gallinae, a potential vector of Erysipelothrix rhusiopathiae causing erysipelas in hens. Medical and Veterinary Entomology 2003, 17(2):232-234. Brännström S, Hansson I, Chirico J: Experimental study on possible transmission of the bacterium Erysipelothrix rhusiopathiae to chickens by the poultry red mite, Dermanyssus gallinae. Experimental and Applied Acarology 2010, 50(4):299-307. Akdemir C, Gülcan E, Tanritanir P: Case report: Dermanyssus gallinae in a patient with pruritus and skin lesions. Türkiye parazitolojii dergisi / Türkiye Parazitoloji Derneǧi = Acta parasitologica Turcica / Turkish Society for Parasitology 2009, 33(3):242-244. Cafiero MA, Camarda A, Circella E, Galante D, Lomuto M: An urban outbreak of red mite dermatitis in Italy. International Journal of Dermatology 2009, 48(10):1119-1121. Cafiero MA, Galante D, Camarda A, Giangaspero A, Sparagano O: Why dermanyssosis should be listed as an occupational hazard. Occupational and Environmental Medicine 2011, 68(8):628. Bellanger AP, Bories C, Foulet F, Bretagne S, Botterel F: Nosocomial dermatitis caused by Dermanyssus gallinae. Infection Control and Hospital Epidemiology 2008, 29(3):282-283. Cafiero MA, Camarda A, Circella E, Santagada G, Schino G, Lomuto M: Pseudoscabies caused by Dermanyssus gallinae in Italian city dwellers: A new setting for an old dermatitis. Journal of the European Academy of Dermatology and Venereology 2008, 22(11):1382-1383. Dogramaci AC, Culha G, Özçelik S: Dermanyssus gallinae infestation: An unusual cause of scalp pruritus treated with permethrin shampoo. Journal of Dermatological Treatment 2010, 21(5):319-321. Haag-Wackernagel D, Bircher AJ: Ectoparasites from feral pigeons affecting humans. Dermatology 2010, 220(1):82-92. Roy L, Dowling APG, Chauve CM, Lesna I, Sabelis MW, Buronfosse T: Molecular phylogenetic assessment of host range in five Dermanyssus species. Experimental and Applied Acarology 2009, 48(1-2):115-142. Roy L: Ecologie évolutive d'un genre d'acarien hématophage: approche phylogénétique des délimitations interspécifiques et caractérisation comparative des populations de cinq espèces du genre Dermanyssus (Acari: Mesostigmata). articles. Lyon, France: Ecole nationale Vétérinaire de Lyon; 2009. 34
Dorrestein GM: Bacterial and Parasitic Diseases of Passerines. Veterinary Clinics of North America - Exotic Animal Practice 2009, 12(3):433-451. Clayton DH, Tompkins DM: Ectoparasite virulence is linked to mode of transmission. Proceedings of the Royal Society B: Biological Sciences 1994, 256(1347):211-217. Valera F, Casas-Crivillé A, Hoi H: Interspecific parasite exchange in a mixed colony of birds. Journal of Parasitology 2003, 89(2):245-250. Haag-Wackernagel D, Geigenfeind I: Protecting buildings against feral pigeons. European Journal of Wildlife Research 2008, 54(4):715-721. Roy L, Chauve CM, Buronfosse T: Contrasted ecological repartition of the northern fowl mite ornithonyssus sylviarum (mesostigmata: Macronyssidae) and the chicken red mite dermanyssus gallinae (mesostigmata: Dermanyssidae). Acarologia 2010, 50(2):207-219. Orton DI, Warren LJ, Wilkinson JD: Avian mite dermatitis. Clinical and Experimental Dermatology 2000, 25(2):129-131. Blitvich BJ: Transmission dynamics and changing epidemiology of West Nile virus. Animal health research reviews / Conference of Research Workers in Animal Diseases 2008, 9(1):7186. Nemeth N, Young G, Ndaluka C, Bielefeldt-Ohmann H, Komar N, Bowen R: Persistent West Nile virus infection in the house sparrow (Passer domesticus). Arch Virol 2009, 154(5):783789. Vázquez A, Jiménez-Clavero MA, Franco L, Donoso-Mantke O, Sambri V, Niedrig M, Zeller H, Tenorio A: Usutu virus - Potential risk of human disease in Europe. Eurosurveillance 2011, 16(31). Turell MJ, O'Guinn M, Oliver J: Potential for New York mosquitoes to transmit West Nile virus. American Journal of Tropical Medicine and Hygiene 2000, 62(3):413-414. Sardelis MR, Turell MJ, O'Guinn ML, Andre RG, Roberts DR: Vector competence of three North American strains of Aedes albopictus for West Nile virus. Journal of the American Mosquito Control Association 2002, 18(4):284-289. Komar N, Langevin S, Hinten S, Nemeth N, Edwards E, Hettler D, Davis B, Bowen R, Bunning M: Experimental infection of North American birds with the New York 1999 strain of West Nile virus. Emerging Infectious Diseases 2003, 9(3):311-322. Pfeffer M, Dobler G: Emergence of zoonotic arboviruses by animal trade and migration. Parasites and Vectors 2010, 3(1). Comstedt P, Bergström S, Olsen B, Garpmo U, Marjavaara L, Mejlon H, Barbour AG, Bunikis J: Migratory passerine birds as reservoirs of Lyme borreliosis in Europe. Emerging Infectious Diseases 2006, 12(7):1087-1095. Mathers A, Smith RP, Cahill B, Lubelczyk C, Elias SP, Lacombe E, Morris SR, Vary CP, Parent CE, Rand PW: Strain diversity of Borrelia burgdorferi in ticks dispersed in North America by migratory birds. Journal of Vector Ecology 2011, 36(1):24-29. Evans EE: Zoonotic Diseases of Common Pet Birds: Psittacine, Passerine, and Columbiform Species. Veterinary Clinics of North America - Exotic Animal Practice 2011, 14(3):457-476. Van Droogenbroeck C, Beeckman DSA, Verminnen K, Marien M, Nauwynck H, Boesinghe LdTd, Vanrompay D: Simultaneous zoonotic transmission of Chlamydophila psittaci genotypes D, F and E/B to a veterinary scientist. Veterinary Microbiology 2009, 135(1–2):7881. Henrion E, Trippaerts M, Lepage P: Psittacose sévère multiviscérale chez un garçon de dix ans. Archives de Pédiatrie 2002, 9(8):810-813. (CDC) CfDCap: Compendium of Measures To Control Chlamydia psittaci Infection Among Humans (Psittacosis) and Pet Birds (Avian Chlamydiosis), 1998. MMWR 1998, 47(No.RR10):1-15. Hoelzer K, Switt AIM, Wiedmann M: Animal contact as a source of human non-typhoidal salmonellosis. Veterinary Research 2011, 42(1). 35
Panigrahy B, Clark FD, Hall CF: Mycobacteriosis in psittacine birds. Avian Diseases 1983, 27(4):1166-1168. Ward MP, Ramer JC, Proudfoot J, Garner MM, Juan-Sallés C, Wu CC: Outbreak of salmonellosis in a zoologic collection of lorikeets and lories (Trichoglossus, Lorius, and Eos spp.). Avian Diseases 2003, 47(2):493-498. Madewell BR, McChesney AE: Salmonellosis in a human infant, a cat, and two parakeets in the same household. Journal of the American Veterinary Medical Association 1975, 167(12):1089-1090. Joseph V: Infectious and parasitic diseases of captive passerines. Seminars in Avian and Exotic Pet Medicine 2003, 12(1):21-28. Harris JM: Zoonotic diseases of birds. Veterinary Clinics of North America - Small Animal Practice 1991, 21(6):1289-1298. Grimes JE: Zoonoses acquired from pet birds. Veterinary Clinics of North America - Small Animal Practice 1987, 17(1):209-218. Smith KE, Anderson F, Medus C, Leano F, Adams J: Outbreaks of Salmonellosis at elementary schools associated with dissection of owl pellets. Vector-Borne and Zoonotic Diseases 2005, 5(2):133-136. Morishita TY, Aye PP, Ley EC, Harr BS: Survey of pathogens and blood parasites in free-living passerines. Avian Diseases 1999, 43(3):549-552. Refsum T, Vikøren T, Handeland K, Kapperud G, Holstad G: Epidemiologic and pathologic aspects of Salmonella Typhimurium infection in passerine birds in Norway. Journal of Wildlife Diseases 2003, 39(1):64-72. Wells SJ, Fedorka-Cray PJ, Dargatz DA, Ferris K, Green A: Fecal shedding of Salmonella spp. by dairy cows on farm and at cull cow markets. Journal of Food Protection 2001, 64(1):3-11. Lahuerta A, Westrell T, Takkinen J, Boelaert F, Rizzi V, Helwigh B, Borck B, Korsgaard H, Ammon A, Mäkelä P: Zoonoses in the european union: Origin, distribution and dynamics the EFSA-ECDC summary report 2009. Eurosurveillance 2011, 16(13). Hoop RK, Ehrsam H, Ossent P, Salfinger M: Mycobacteriosis of ornamental birds--frequency, pathologo-anatomic, histologic and microbiologic data. Die Mykobakteriose des Ziervogels-Häufigkeit, pathologisch-anatomische, histologische und mikrobiologische Befunde 1994, 107(8):275-281. Washko RM, Hoefer H, Kiehn TE, Armstrong D, Dorsinville G, Frieden TR: Mycobacterium tuberculosis infection in a green-winged macaw (Ara chloroptera): Report with public health implications. Journal of Clinical Microbiology 1998, 36(4):1101-1102. Steinmetz HW, Rutz C, Hoop RK, Grest P, Bley CR, Hatt JM: Possible human-avian transmission of Mycobacterium tuberculosis in a green-winged macaw (Ara chloroptera). Avian Diseases 2006, 50(4):641-645. Hoop RK: Mycobacterium tuberculosis infection in a canary (Serinus canaria L.) and a bluefronted Amazon parrot (Amazona amazona aestiva). Avian Diseases 2002, 46(2):502-504. Ledwón A, Szeleszczuk P, Zwolska Z, Augustynowicz-Kopeć E, Sapierzyński R, Kozak M: Experimental infection of budgerigars (Melopsittacus undulatus) with five Mycobacterium species. Avian Pathology 2008, 37(1):59-64. Grange JM: Mycobacterium bovis infection in human beings. Tuberculosis 2001, 81(1-2):7177. O'Reilly LM, Daborn CJ: The epidemiology of Mycobacterium bovis infections in animals and man: A review. Tubercle and Lung Disease 1995, 76(SUPPL. 1):1-46. Shitaye EJ, Grymova V, Grym M, Halouzka R, Horvathova A, Moravkova M, Beran V, Svobodova J, Dvorska-Bartosova L, Pavlik I: Mycobacterium avium subsp. hominissuis infection in a pet parrot. Emerging Infectious Diseases 2009, 15(4):617-619. Shitaye JE, Halouzka R, Svobodova J, Grymova V, Grym M, Skoric M, Fictum P, Beran V, Slany M, Pavlik I: First isolation of mycobacterium genavense in a blue headed parrot (Pionus 36
menstruus) imported from surinam (South America) to the Czech Republic: A case report. Veterinarni Medicina 2010, 55(7):339-347. Skoric M, Fictum P, Frgelecova L, Kriz P, Slana I, Kaevska M, Pavlik I: Avian tuberculosis in a captured ruppell's griffon vulture (Gyps ruppellii): A case report. Veterinarni Medicina 2010, 55(7):348-352. Dahlhausen B, Tovar DS, Saggese MD: Diagnosis of mycobacterial infections in the exotic pet patient with emphasis on birds. Veterinary Clinics of North America - Exotic Animal Practice 2012, 15(1):71-83. Yogasundram K, Shane SM, Harrington KS: Prevalence of Campylobacter jejuni in selected domestic and wild birds in Louisiana. Avian Diseases 1989, 33(4):664-667. Wedderkopp A, Madsen AM, Jørgensen PH: Incidence of Campylobacter species in hobby birds. Veterinary Record 2003, 152(6):179-180. Sensale M, Cuomo A, Dipineto L, Santaniello A, Calabria M, Menna LF, Fioretti A: Survey of Campylobacter jejuni and Campylobacter coli in different taxa and ecological guilds of migratory birds. Italian Journal of Animal Science 2006, 5(3):291-294. Adhikari B, Connolly JH, Madie P, Davies PR: Prevalence and clonal diversity of Campylobacter jejuni from dairy farms and urban sources. New Zealand Veterinary Journal 2004, 52(6):378-383. Colles FM, Dingle KE, Cody AJ, Maiden MCJ: Comparison of Campylobacter populations in wild geese with those in starlings and free-range poultry on the same farm. Applied and Environmental Microbiology 2008, 74(11):3583-3590. Waldenström J, Axelsson-Olsson D, Olsen B, Hasselquist D, Griekspoor P, Jansson L, Teneberg S, Svensson L, Ellström P: Campylobacter jejuni colonization in wild birds: Results from an infection experiment. PLoS ONE 2010, 5(2). Olsen B, Gylfe A, Bergström S: Canary finches (Serinus canaria) as an avian infection model for Lyme borreliosis. Microbial Pathogenesis 1996, 20(6):319-324. Rosskopf Jr WJ: Common conditions and syndromes of canaries, finches, lories and lorikeets, lovebirds, and macaws. Seminars in Avian and Exotic Pet Medicine 2003, 12(3):131-143. Jorn KS, Thompson KM, Larson JM, Blair JE: Polly can make you sick: Pet bird-associated diseases. Cleveland Clinic Journal of Medicine 2009, 76(4):235-243. Kauffman MD, LeJeune J: European Starlings (Sturnus vulgaris) challenged with Escherichia coli O157 can carry and transmit the human pathogen to cattle. Letters in Applied Microbiology 2011, 53(6):596-601. Williams ML, Pearl DL, LeJeune JT: Multiple-locus variable-nucleotide tandem repeat subtype analysis implicates European starlings as biological vectors for Escherichia coli O157:H7 in Ohio, USA. Journal of Applied Microbiology 2011, 111(4):982-988. Gaukler SM, Linz GM, Sherwood JS, Dyer NW, Bleier WJ, Wannemuehler YM, Nolan LK, Logue CM: Escherichia coli, salmonella, and mycobacterium avium subsp. paratuberculosis in Wild European starlings at a Kansas cattle feedlot. Avian Diseases 2009, 53(4):544-551. Perkins LEL, Swayne DE: Varied pathogenicity of a Hong Kong-origin H5N1 avian influenza virus in four passerine species and budgerigars. Veterinary Pathology 2003, 40(1):14-24. Fereidouni SR, Ziegler U, Linke S, Niedrig M, Modirrousta H, Hoffmann B, Groschup MH: West Nile Virus Monitoring in Migrating and Resident Water Birds in Iran: Are Common Coots the Main Reservoirs of the Virus in Wetlands? Vector-Borne and Zoonotic Diseases 2011, 11(10):1377-1381. Rutz C, Dalessi S, Baumer A, Kestenholz M, Engels M, Hoop R: Avian influenza: Wildbird monitoring in Switzerland between 2003-2006. Aviäre influenza: Wildvogelmonitoring in der Schweiz zwischen 2003-2006 2007, 149(11):501-509. Carboni DA, Nevarez JG, Tully Jr TN, Evans DE: West Nile virus infection in a sun conure (Aratinga solstitialis). Journal of Avian Medicine and Surgery 2008, 22(3):240-245. 37
Chvala S, Bakonyi T, Bukovsky C, Meister T, Brugger K, Rubel F, Nowotny N, Weissenböck H: Monitoring of Usutu virus activity and spread by using dead bird surveillance in Austria, 2003-2005. Veterinary Microbiology 2007, 122(3-4):237-245. Chvala S, Kolodziejek J, Nowotny N, Weissenböck H: Pathology and viral distribution in fatal Usutu virus infections of birds from the 2001 and 2002 outbreaks in Austria. Journal of Comparative Pathology 2004, 131(2-3):176-185. Doneley RJT, Miller RI, Fanning TE: Proventricular dilatation disease: An emerging exotic disease of parrots in Australia: Case report. Australian Veterinary Journal 2007, 85(3):119123. Honkavuori KS, Shivaprasad HL, Williams BL, Quan PL, Hornig M, Street C, Palacios G, Hutchison SK, Franca M, Egholm M et al: Novel Borna virus in psittacine birds with proventricular dilatation disease. Emerging Infectious Diseases 2008, 14(12):1883-1886. Staeheli P, Sauder C, Hausmann J, Ehrensperger F, Schwemmle M: Epidemiology of Borna disease virus. Journal of General Virology 2000, 81(9):2123-2135. Pearson GL, McCann MK: The role of indigenous wild, semidomestic, and exotic birds in the epizootiology of velogenic viscerotropic Newcastle disease in Southern California, 19721973. Journal of the American Veterinary Medical Association 1975, 167(7):610-614. Barin A, Arabkhazaeli F, Rahbari S, Madani SA: The housefly, Musca domestica, as a possible mechanical vector of Newcastle disease virus in the laboratory and field. Medical and Veterinary Entomology 2010, 24(1):88-90. Dubey JP: A review of toxoplasmosis in wild birds. Veterinary Parasitology 2002, 106(2):121153. Dubey JP, Hamir AN: Experimental toxoplasmosis in budgerigars (Melopsittacus undulatus). Journal of Parasitology 2002, 88(3):514-519. Wu Y, Du PC, Li WG, Lu JX: Identification and Molecular Analysis of Pathogenic Yeasts in Droppings of Domestic Pigeons in Beijing, China. Mycopathologia 2012, 174(3):203-214. Brilhante RSN, Castelo-Branco DSCM, Soares GDP, Astete-Medrano DJ, Monteiro AJ, Cordeiro RA, Sidrim JJC, Rocha MFG: Characterization of the gastrointestinal yeast microbiota of cockatiels (Nymphicus hollandicus): A potential hazard to human health. Journal of Medical Microbiology 2010, 59(6):718-723. Lugarini C, Goebel CS, Condas LAZ, Muro MD, De Farias MR, Ferreira FM, Vainstein MH: Cryptococcus neoformans isolated from Passerine and Psittacine bird excreta in the state of Paraná, Brazil. Mycopathologia 2008, 166(2):61-69. Papini R, Girivetto M, Marangi M, Mancianti F, Giangaspero A: Endoparasite infections in pet and zoo birds in Italy. The Scientific World Journal 2012, 2012. Filippich LJ, McDonnell PA, Munoz E, Upcroft JA: Giardia infection in budgerigars. Australian Veterinary Journal 1998, 76(4):246-249. Yaoyu F, Xiao L: Zoonotic potential and molecular epidemiology of Giardia species and giardiasis. Clinical Microbiology Reviews 2011, 24(1):110-140. Joachim A: Human cryptosporidiosis: An update with special emphasis on the situation in Europe. Journal of Veterinary Medicine Series B: Infectious Diseases and Veterinary Public Health 2004, 51(6):251-259. Farthing MJ: Clinical aspects of human cryptosporidiosis. Contributions to microbiology 2000, 6:50-74. Quah JX, Ambu S, Lim YAL, Mahdy MAK, Mak JW: Molecular identification of Cryptosporidium parvum from avian hosts. Parasitology 2011:1-5. Cray C: Infectious and Zoonotic Disease Testing in Pet Birds. Clinics in Laboratory Medicine 2011, 31(1):71-85. Bernard PP-PaV: A global veterinary education to cope with societal needs. In: Proceedings of the OIE Global Conference on Evolving Veterinary Education for a Safer World OIE, 12-14 October 2009, Paris (France): 2009; 2009: 15-22. 38
1072 1073 TABLES 1074 Table 1: main pet bird species following International Ornithologic Congress (IOC) 1075 classification 3.1 (2012) Order
Canari/serin des canaries
Pinson des arbres
Diamant à longue queue
Diamant de Gould
Bengali/moineau du japon
African or Timneh grey parrot
Gris du Gabon
Table 2: main transmission routes of diseases
Non contagious diseases
Example in petbirds
West Nile Fever
1079 1080 1081 1082 1083
Table 3: classification of emerging zoonoses