Hubbry Logo
CivetCivetMain
Open search
Civet
Community hub
Civet
logo
8 pages, 0 posts
0 subscribers
Be the first to start a discussion here.
Be the first to start a discussion here.
Civet
Civet
Civet
View on Wikipedia
from Wikipedia

Civets
African civet (Civettictis civetta)
African civet (Civettictis civetta)
Scientific classificationEdit this classification
Kingdom: Animalia
Phylum: Chordata
Class: Mammalia
Order: Carnivora
Suborder: Feliformia
Groups included
Cladistically included but traditionally excluded taxa

A civet (/ˈsɪvɪt/) is a small, lean, mostly nocturnal mammal native to tropical Asia and Africa, especially the tropical forests. The term civet applies to over a dozen different species, mostly from the family Viverridae. Most of the species's diversity is found in southeast Asia. Civets do not form a monophyletic group, as they consist only of certain members of the Viverridae and Eupleridae.

The African civet, Civettictis civetta,[1] has historically been the main species from which a musky scent used in perfumery, also referred to as "civet", was obtained.

Naming

[edit]

The common name is used for a variety of carnivoran mammal species, mostly of the family Viverridae. It is also used to refer to the African palm civet and the Malagasy civet.

The African palm civet (Nandinia binotata) is genetically distinct and belongs in its own monotypic family, Nandiniidae.

The Malagasy civet (Fossa fossana) belongs to a separate family Eupleridae, with other carnivorans of Madagascar. The Malagasy civet was to be placed in the subfamily Hemigalinae with the banded palm civets and then in its own subfamily, Fossinae, because of similarities with others in the group pointed out by Gregory, but it is now classified as a member of the subfamily Euplerinae, after Pocock pointed out more similarities with that one.[2]

Civets are also called toddy cats in English, marapaṭṭi (മരപട്ടി) in Malayalam, musang in Malay, Filipino, and Indonesian, and urulǣvā (උරුලෑවා) in Sinhalese.[citation needed] There can be confusion among speakers of Malay because the indigenous word musang has been mistakenly applied to foxes by printed media instead of rubah, which is the correct but lesser-known term.[citation needed]

A minority of writers use civet to refer only to Civettictis, Viverra and Viverricula civets.[3] However, in more common usage in English, the name also covers the civets of the viverrid genera Chrotogale, Cynogale, Diplogale, Hemigalus, Arctogalidia, Macrogalidia, Paguma and Paradoxurus.[citation needed]

South Asia

[edit]

In Sri Lanka, the Asian palm civet, Small indian civet and Golden palm civet species is known as "uguduwa" by the Sinhala-speaking community. The terms uguduwa and kalawedda are used interchangeably by the Sri Lankan community to refer to the same animal. However, the term kalawedda is mostly used to refer to another species in the civet family, the Golden palm civet.[citation needed]

Sri Lanka also has an endemic civet species called golden palm civet. Recently this species was split into three separate endemic species as Paradoxurus montanus, P. aureus, and P. stenocephalus. In Bangladesh and Bengali-speaking areas of India, civets are known as "khatash" (Bengali: খাটাশ) for the smaller species and "bagdash" (Bengali: বাগডাশ) for the larger ones and is now extremely rare in Bangladesh (in the Khulna area of the country, the animal is also known as "shairel"). In Assamese this animal is known as "zohamola" (Assamese: জহামলা) which literally means "to have zoha aromatic feces". In Maharashtra Marathi-speaking areas of India, civets are known as "Udmanjar" (Marathi: उदमांजर).[citation needed]

In Kerala, the Malayalam speaking areas of India, the small Indian civet (Viverricula indica) is called "veruk" (വെരുക്‌).[citation needed] In adjoining coastal regions of Karnataka it is called 'beru'/ಬೆರು in kannada as also Tulu. 'Veruku' (வெருகு) in Tamil meant 'cat', particularly during the Sangam period (c. 100 BCE to 400 CE).

Physical characteristics

[edit]

Civets have a broadly cat-like general appearance, though the muzzle is extended and often pointed, rather like that of an otter, mongoose or even possibly a ferret. They range in length (excluding the tail) from around 43 to 71 cm (17 to 28 in) and in weight from around 1.4 to 4.5 kg (3 to 10 lb).

The civet produces a musk (named civet after the animal) which is highly valued as a fragrance and stabilizing agent for perfume. Both male and female civets produce the strong-smelling secretion, which is produced by the civet's perineal glands. It is harvested by either killing the animal and removing the glands, or by scraping the secretions from the glands of a live animal. The latter is the preferred method today.

Animal rights groups, such as World Animal Protection, express concern that harvesting musk is cruel to animals. Between these ethical concerns and the availability of synthetic substitutes, the practice of raising civets for musk is dying out. Chanel, maker of the popular perfume Chanel No. 5, claims that natural civet has been replaced with a synthetic substitute since 1998.[4]

Habitat

[edit]
A captured civet in India

Viverrids are native to sub-Saharan Africa, Madagascar, the Iberian Peninsula, southern China, South and Southeast Asia. Favoured habitats include woodland, savanna, and mountain biome. In consequence, many are faced with severe loss of habitat; several species are considered vulnerable and the otter civet is classified as endangered. Some species of civet are very rare and elusive and hardly anything is known about them, e.g., the Hose's civet, endemic to the montane forests of northern Borneo, is one of the world's least known carnivores.[5]

Diet

[edit]

Civets are unusual among feliforms, and carnivora in general, in that they are omnivores or even herbivores. Many species primarily eat fruit. Some also use flower nectar as a major source of energy. As human habitats have increased and expanded, civets have preyed on livestock and smaller domesticated animals, such as fowls, ducks, rabbits, and cats.

Coffee

[edit]
Main article: Kopi luwak
A caged civet

Kopi luwak, (called cà phê cứt chồn in Vietnam and Tagalog: kape alamid in the Philippines) is coffee that is prepared using coffee cherries that have been eaten and partly digested by the Asian palm civet and then harvested from its fecal matter.[6][7]

The civets digest the flesh of the coffee cherries but pass the beans inside, where stomach enzymes affect the beans. This adds to the coffee's prized aroma and flavor.[6] About 0.5 kg (1 lb) can cost up to $600 in some parts of the world and about $100 a cup in others.[8]

This demand has led to civet farms on which the civets are fed a diet composed almost exclusively of such cherries, causing them to become severely malnourished. Farm conditions are also routinely described as deplorable. Filipino and Vietnamese oversight of these farms is nonexistent.[9]

Relationship with humans

[edit]

The Malayan civet is found in many habitats, including forests, secondary habitats, cultivated land, and the outskirts of villages; the species is highly adaptable to human disturbances, including "selective logging" (partial forest removal).[10]

African civets (Civettictis civetta) are listed as Least Concern. However, in certain regions of Africa, the population is declining; this is due to hunting, direct and indirect poisoning, and an increase in large-scale farm fences that limit population flow. They are also seen as comparatively abundant options in the bushmeat trade.[11]

Masked palm civets sold for meat in local markets of Yunnan China, carried the SARS virus from horseshoe bats to humans;[12] this resulted in the 2002–2004 SARS outbreak.

Civets are also raised in captivity by humans for two reasons. In Asia, they are raised to process coffee beans. In Ethiopia, they are raised in captivity to collect their perineal secretions, also called civet, to be used in making perfume.[13][14]

Urban environments

[edit]

Palm civets often venture into cities and suburbs, with people often complaining about civet faeces and the noise of the animals' climbing on roofs. Some studies have been undertaken to examine and mitigate such human–animal conflict.[15]

Literature

[edit]

In William Shakespeare's As You Like It, act II, scene 2, the civet cat is mentioned as the "uncleanly" source of courtiers' perfumes.

References

[edit]
[edit]
Revisions and contributorsEdit on WikipediaRead on Wikipedia

Civet

View on Grokipedia
from Grokipedia
Civets comprise various species of small to medium-sized carnivorans within the family Viverridae, primarily distributed across sub-Saharan Africa and tropical Asia, where they occupy diverse habitats including forests, savannas, and urban fringes up to elevations of 3,400 meters. These nocturnal mammals exhibit slender builds, long bodies, short legs, and partially retractile claws, with both males and females possessing perianal scent glands that produce a musky secretion employed as a fixative and base note in perfumery due to its warm, animalic qualities that enhance fragrance longevity and depth. Prominent species include the African civet (Civettictis civetta), a widespread omnivore in African woodlands known for its bold black-and-white facial markings, and the Asian palm civet (Paradoxurus hermaphroditus), which consumes fruits and small prey while contributing to seed dispersal. Civets play ecological roles in controlling rodent populations and dispersing seeds, but human exploitation for musk extraction—often involving captive farming with reported welfare issues—and for kopi luwak coffee, produced from beans altered during digestion in the civet's gut, has sparked controversies over animal cruelty and sustainability, with studies highlighting enriched bean profiles from wild-sourced processes contrasted against unethical caged production.

Taxonomy and Classification

Etymology and Definition

The term "civet" denotes a group of small to medium-sized carnivorous mammals primarily belonging to the subfamily Viverrinae within the family Viverridae, a lineage of Feliformia carnivorans native to Africa, Asia, and parts of Europe. These animals are distinguished by their slender, elongated bodies, short legs, semi-retractable claws, and prominent perineal glands that produce a strong-smelling musk used historically in perfumery and as a fixative. While the name is most commonly applied to species like the African civet (Civettictis civetta) and various Asian civets, it sometimes extends informally to related viverrids such as palm civets in the subfamily Paradoxurinae, though these are taxonomically distinct. Civets exhibit nocturnal habits and omnivorous diets, including small vertebrates, invertebrates, and fruits, with approximately 15-20 species recognized under the common name. The word "civet" entered English in the early 16th century from Old French civette, borrowed from Italian zibetto, which derives from Medieval Latin zibethum or directly from Arabic zabād (زَبَد), originally referring to the foamy perfume extracted from the animal's glandular secretions rather than the animal itself. This etymological root highlights the historical economic value of civet musk, documented in trade records from North Africa and the Middle East as early as the 12th century, where it was prized for its odoriferous properties in incense and fragrances. The term's evolution reflects the animal's association with its most notable biological feature, the musky perineal paste, which solidifies upon exposure to air and retains scent for years.

Phylogenetic Relationships

Civets comprise the Viverrinae within the Viverridae, which belongs to the suborder Feliformia in the order Carnivora. Molecular phylogenies based on mitochondrial and nuclear DNA sequences position Viverridae as part of a derived feliform , with the African palm civet (Nandinia binotata, family Nandiniidae) diverging first as the to all other feliforms approximately 40–50 million years ago during the Eocene. The Asian linsangs (family Prionodontidae) form the subsequent basal lineage, followed by the Malagasy carnivorans (family ); Viverridae then emerges as to the monophyletic group uniting hyenas (Hyaenidae) and cats (Felidae), supported by analyses of whole mitochondrial genomes and multi-locus datasets. Within Viverridae, which excludes formerly included taxa like Nandinia and Malagasy forms based on molecular evidence, Viverrinae clusters closely with Genettinae (genets and genet-like taxa), forming a clade that is sister to the combined Asian palm civet subfamilies Hemigalinae and Paradoxurinae; this topology arises from concatenated sequences of cytochrome b, 12S rRNA, and other markers, indicating a single origin for palm civets and divergence patterns tied to Afro-Asian biogeography around 20–30 million years ago in the Oligocene-Miocene. Intraspecific relationships within Viverrinae, reconstructed from approximately 3 kb of aligned DNA including ADRA2B, vWF, and mitochondrial genes, reveal Civettictis civetta (African civet) as the basal genus, branching off around 10–15 million years ago, followed by Viverricula indica (small-toothed or Oriental civet) as sister to the Viverra genus; within Viverra, species like V. zibetha and V. civettina show recent divergences (less than 5 million years ago), reflecting adaptive radiations in Southeast Asian forests rather than ancient splits. This phylogeny challenges earlier morphology-based classifications that grouped civets more diffusely and underscores the role of vicariance events in shaping viverrine diversity.

Diversity of Species

The subfamily Viverrinae comprises six extant species classified into three genera: Civettictis, Viverra, and Viverricula. These true civets exhibit morphological and ecological diversity adapted to terrestrial lifestyles in African and Asian habitats. The genus Civettictis is monotypic, represented solely by the African civet (C. civetta), a robust species with a body length of 70–90 cm and distinctive black-and-white facial markings, ranging from Senegal to Ethiopia and south to South Africa. This species inhabits diverse environments including savannas, forests, and farmlands, demonstrating broad ecological tolerance. The genus Viverra includes four species: the large Indian civet (V. zibetha), Malay civet (V. tangalunga), large-spotted civet (V. megaspila), and Malabar civet (V. civettina). The large Indian civet, with a distribution from India to Southeast Asia, features a yellowish-gray coat with black spots and stripes, measuring up to 95 cm in body length. The Malay civet occupies similar ranges in Southeast Asia, while the large-spotted civet is restricted to Indonesia's Sumatra and Borneo; the Malabar civet, endemic to India's Western Ghats, is critically endangered with populations estimated below 250 mature individuals as of 2019 assessments. Viverricula indica, the small Indian civet or rasse, is the only species in its genus, characterized by a smaller size (body length 40–60 cm) and a more uniform grayish coat with longitudinal stripes, widespread from Pakistan through India to Southeast Asia and southern China. This species thrives in agricultural areas and scrublands, reflecting adaptability to human-modified landscapes. Overall, Viverrinae species vary in size from 3–10 kg, with diets primarily comprising small vertebrates, invertebrates, and fruits, underscoring their omnivorous flexibility. Conservation statuses range from least concern for widespread taxa like V. indica to critically endangered for localized ones like V. civettina, driven by habitat loss and incidental trapping.

Physical Characteristics

Morphology and Adaptations

Civets in the family Viverridae display slender, elongated bodies with relatively short legs, long tails often exceeding half the body length, and plantigrade feet equipped with nonretractable claws that aid in climbing and gripping surfaces. Their heads are small with pointed muzzles, medium-sized eyes, and short, erect ears, features that support keen sensory perception in low-light environments. Body sizes vary across species, with smaller forms like the common palm civet (Paradoxurus hermaphroditus) weighing 2-5 kg and larger ones such as the African civet (Civettictis civetta) reaching head-body lengths of 61-91 cm and tail lengths of 43-61 cm. Fur in civets is typically coarse and provides camouflage through patterns like spots, stripes, or bands; for instance, the African civet has short, dense greyish fur marked by black spots in rows along the flanks and a black dorsal crest of longer erectile hairs. These pelage characteristics enhance concealment in dappled forest understories or grasslands, aligning with their primarily nocturnal habits. Perianal scent glands are a defining morphological feature, secreting a musky substance for territorial marking, particularly prominent and productive in species like the African civet. Dental adaptations reflect their omnivorous diets, with carnassial teeth for shearing meat and broader, flatter molars in some species, such as Civettictis civetta, enabling grinding of vegetable matter and harder prey items like insects or small bones. Limbs terminate in five toes on fore- and hindfeet, with partially syndactylous digits in certain genera facilitating arboreal navigation for semi-arboreal species. These structural traits collectively support versatile locomotion, foraging, and survival in diverse habitats from forests to savannas.

Sensory and Glandular Features

Civets possess a highly developed sense of olfaction, which plays a central role in detecting prey, foraging for fruits, and chemical communication through scent marking. This sensory acuity is facilitated by enlarged olfactory bulbs relative to brain size, typical of nocturnal carnivorans in the Viverridae family, enabling discrimination of conspecific odors and environmental cues over distances. Auditory senses are also acute, aiding in prey localization and predator avoidance, with civets relying on both olfaction and hearing to capture small vertebrates and invertebrates at night. Visual adaptations suit their primarily nocturnal habits, including large eyes that enhance light capture in dim conditions; many viverrids, including the African civet (Civettictis civetta), exhibit a tapetum lucidum, a reflective layer behind the retina that improves low-light vision by reflecting photons back through the photoreceptors. Tactile sensitivity is provided by prominent vibrissae (whiskers) around the muzzle, which assist in navigating dense vegetation and close-range prey manipulation. Glandular features are dominated by paired perineal scent glands located between the anus and genitalia, present in both sexes but larger and more active in males of species like C. civetta. These holocrine glands secrete a viscous, yellowish musk containing civetone (a macrocyclic ketone) and fatty acids such as oleic acid, which imparts a musky odor used for territorial demarcation and intraspecific signaling. Secretion is released via a specialized duct during behaviors like backing against substrates or defecation, producing enduring marks that convey individual identity and reproductive status. Historically harvested for perfumery due to its fixative properties, the musk's production peaks in adults, with quantities up to several grams per marking event in C. civetta.

Ecology and Behavior

Habitats and Distribution

Civets of the family Viverridae exhibit a distribution primarily confined to Africa and Asia, with species adapted to a range of ecosystems from dense forests to open woodlands. The African civet (Civettictis civetta), the largest species, ranges across sub-Saharan Africa from Senegal and Mauritania in the west to southern Sudan, Ethiopia, Djibouti, and Somalia in the east, extending southward through central and southern regions, though absent from extreme deserts and the northernmost and southernmost tips of the continent. This species favors savannas, dense woodlands, and forests with ample cover and access to water sources, avoiding arid zones. Asian civet species, such as the common palm civet (Paradoxurus hermaphroditus), occupy a broad expanse from Kashmir and India eastward through Southeast Asia to the Philippines, southern China, and Indonesian islands including Sumatra, Java, and Borneo. These civets inhabit tropical primary and secondary forests, mangroves, peat swamps, shrublands, agricultural plantations like oil palm and teak, and even urban areas, showcasing notable tolerance for human-modified landscapes. Other Asian species, including the masked palm civet (Paguma larvata) and Malay civet (Viverra tangalunga), similarly distribute across lowland and montane forests up to 2,500 meters in Southeast Asia, utilizing shrublands and forest edges. Overall, civet habitats emphasize vegetative cover for concealment and foraging, with distributions shaped by historical biogeography linking African and Eurasian viverrid lineages, though no native populations persist in Europe despite occasional historical mentions.

Diet and Foraging Strategies

Civets within the Viverridae family maintain omnivorous diets comprising fruits, invertebrates, small vertebrates, eggs, and carrion, with composition varying by species, season, and habitat availability. Foraging occurs primarily at night in a solitary manner, relying on acute olfaction and low-light vision to detect and pursue prey or scavenge resources across terrestrial and arboreal environments. Opportunistic strategies predominate, allowing dietary shifts toward abundant items, such as increased animal matter during fruit scarcity. The African civet (Civettictis civetta) exemplifies a generalist omnivore, with scat analyses from southwestern Ethiopian coffee forests identifying over 55 food items and a plant-to-animal biomass ratio of 1:1.36. Small mammals constitute the core dietary specialization (up to 40% frequency), supplemented by insects (25%), birds and eggs (15%), fruits (10%), and occasional carrion or reptiles. Hunting involves stalking and shaking prey to immobilize it, while foraging extends to anthropogenic sites like henhouses, where poultry theft occurs. Seasonal emphasis on single abundant items, such as insects during outbreaks, optimizes energy efficiency over broad searching. Asian palm civets (Paradoxurus spp.), including the common palm civet (P. hermaphroditus), lean frugivorous, with fruits and seeds from 8–53 plant species dominating intake (often 80–97% volume). Preference targets soluble sugar-rich fruits within patches, yielding intact seed dispersal, while invertebrates, small birds, and mammals fill gaps in fruiting seasons (up to 20% in winter scats). Arboreal scanning and descent for ground prey characterize their nocturnal circuits, which extend into urban edges for supplemental foraging. In overlapping ranges, such as Himalayan foothills, palm and small Indian civets (Viverricula indica) exhibit dietary overlap exceeding 50% but mitigate competition through temporal (nocturnal peak shifts) and spatial (canopy vs. understory) partitioning. Such flexibility underscores civets' adaptive resilience to resource pulses, though overreliance on seasonal fruits can constrain populations in deforested areas.

Social and Daily Patterns

Civets maintain largely solitary lifestyles, with adults defending individual territories through scent marking via perianal glands that secrete a pungent musk to signal occupancy and deter intruders. Interactions between conspecifics are infrequent outside of breeding periods, when males traverse multiple female territories in search of mates, or during maternal care, where females rear litters of 1–4 young in isolated dens for several months post-birth. Occasional aggregations of up to 15 individuals have been reported in resource-rich areas, such as during seasonal fruit abundance, though these are transient and lack stable social hierarchies. Daily activity rhythms are predominantly nocturnal, with civets resting in dense cover, burrows, or thickets during daylight hours to avoid predation and heat. Foraging and movement peak 1–2 hours before sunset, continuing through the night until dawn, aligning with heightened prey availability and reduced competition from diurnal species; activity tapers with short rests interspersed for grooming or digestion. Diurnal excursions occur sporadically on overcast days or in shaded habitats, but constitute less than 10% of observed activity in wild populations. This crepuscular-nocturnal pattern varies slightly by species and habitat, with arboreal palm civets showing intermittent daytime arboreal rest amid nocturnal ground foraging.

Reproduction and Life History

Mating and Breeding Systems

Civets, members of the family Viverridae, typically exhibit polygynous or promiscuous mating systems, where males mate with multiple females during brief encounters, reflecting their predominantly solitary lifestyles. Males employ scent marking from perineal glands to delineate territories and signal availability, attracting females in estrus who respond with vocalizations or additional scent cues. These interactions are often aggressive, with preliminary behaviors escalating to copulation, and no evidence of pair bonding or paternal care post-mating. In the ( civetta), breeding is seasonal, occurring from to in —aligned with peak —and to in East African populations like and . Females are polyestrous, capable of producing up to two litters annually, with males reaching at 9–12 months and females at around . The is polygynous, with solitary adults converging only for , after which females to dens. Asian palm civets (Paradoxurus hermaphroditus) display a more flexible, often aseasonal breeding pattern in tropical ranges, with up to two litters per year and continuous mating possible in shared resting trees for periods of 1–15 days. Solitary except during these encounters, individuals show promiscuous behavior without territorial exclusivity during reproduction. Small Indian civets (Viverricula indica) mate annually in a solitary context, with limited social interaction beyond estrus detection via scents, emphasizing the asocial nature of viverrid reproduction across species. Masked palm civets (Paguma larvata) exhibit polygynandry, where both sexes have multiple partners per breeding season, occurring twice yearly in spring and autumn.

Gestation, Birth, and Development

Gestation periods in civet species typically range from 60 to 90 days, varying by taxon; for instance, the African civet (Civettictis civetta) experiences 60 to 81 days. Females of many species produce multiple litters annually, with peaks aligned to seasonal resources in some cases, such as May and October for the African palm civet (Nandinia binotata). Litter sizes generally comprise 1 to 5 offspring, averaging 2 to 3 in the African civet and up to 4 in palm civets like Paradoxurus hermaphroditus. Birth occurs in concealed sites for protection, including ground burrows, dense vegetation nests, or arboreal hollows depending on the species' habitat; African civet young are delivered in grass-lined dens, while Asian palm civet kittens emerge in tree crevices or boulders. Neonates are furred at birth with faint markings, such as a present but subdued neck stripe in African civets, and are initially blind, opening eyes after 7 to 11 days. Maternal care involves nursing in seclusion, with females aggressively defending the litter; offspring remain dependent, suckling for approximately 3 months in species like the African palm civet. Development proceeds rapidly post-weaning, with juveniles beginning to accompany mothers on foraging trips and exhibit independent hunting by 3 to 4 months; sexual maturity is reached at around 1 year in females of the African civet. Growth to adult size occurs within the first year, though full behavioral independence may extend beyond, influenced by resource availability and predation pressures. Survival rates are low in wild populations due to high juvenile mortality from predators and environmental factors, though captive data indicate litters can thrive under protected conditions.

Conservation Status

The Viverridae family, encompassing civets, genets, and linsangs, includes 33 species with diverse IUCN Red List statuses ranging from Least Concern to Critically Endangered, reflecting varying levels of threat across their primarily African and Asian ranges. Among assessed viverrid species, approximately 51% exhibit decreasing population trends, driven primarily by habitat fragmentation, deforestation, and exploitation for bushmeat, traditional medicine, and the pet trade, while trends for many remain unknown due to limited monitoring data. Widespread species such as the African civet (Civettictis civetta) are classified as Least Concern, with stable populations in diverse habitats across sub-Saharan Africa, supported by camera-trap surveys indicating healthy densities in regions like South Africa's Limpopo province as of 2022. Similarly, the Malay civet (Viverra tangalunga) holds Least Concern status owing to its broad distribution and frequent records in Southeast Asian forests and agricultural areas. Threatened civet species face steeper declines; for instance, Owston's civet (Chrotogale owstoni) is Endangered with ongoing population reductions attributed to snaring and habitat loss in Vietnam and Laos, where recent surveys suggest impending extinction risks exacerbated by climate change. The binturong (Arctictis binturong), assessed as Vulnerable, has experienced at least a 30% population drop over three generations ending around 2016, linked to logging and hunting pressures in Southeast Asia. In urbanizing areas, species like the masked palm civet (Paguma larvata) show localized declines from habitat overlap with human expansion, though density estimates from 2024 DNA-based studies in Taiwan indicate resilient pockets at 0.5–1 individual per km² in fragmented landscapes. Overall, while resilient generalists maintain viable populations, the family's conservation hinges on addressing data gaps; IUCN assessments underscore that only about half of viverrid species have sufficient trend data, with Southeast Asian taxa particularly vulnerable to anthropogenic pressures.

Primary Threats

Habitat loss and degradation constitute the most pervasive threat to civet populations across the Viverridae family, driven primarily by deforestation for agriculture, logging, and urbanization in tropical forests and peat swamps of Africa and Asia. For instance, species like the otter civet (Cynogale bennettii) face severe declines due to the destruction of peat swamp forests, which have been reduced by over 50% in parts of Southeast Asia since the 1990s. Similarly, the banded civet (Hemigalus derbyanus) has experienced rapid primary forest loss, with Borneo losing approximately 30% of its forest cover between 2000 and 2015, exacerbating fragmentation and reducing available prey and shelter. Hunting and poaching rank as a critical direct threat, particularly for species targeted in the illegal wildlife trade for bushmeat, traditional medicine, and perineal gland secretions used in perfumes and kopi luwak coffee production. In Vietnam and China, masked palm civets (Paguma larvata) are heavily hunted for the wild meat trade, with thousands captured annually via snares, contributing to population declines documented in IUCN assessments. Owston's civet (Chrotogale owstoni), classified as Endangered, suffers from indiscriminate snaring, with estimates of hundreds of thousands of traps set yearly in Indochina forests, leading to bycatch mortality rates exceeding 80% for non-target species in some areas. Additional pressures include human-wildlife conflict and secondary exploitation, such as for the pet trade or as agricultural pests, which amplify mortality in fragmented landscapes. Southeast Asian civets, including common palm civets (Paradoxurus hermaphroditus), encounter increased poaching amid habitat encroachment, with trade volumes in wildlife markets reaching tens of thousands of individuals per year in regions like Indonesia and India. These threats interact synergistically; for example, habitat loss forces civets into human-dominated areas, heightening exposure to snares and retaliation killings, as observed in Malagasy civet (Fossa fossana) populations where fragmentation has correlated with a 20-30% range contraction since 2000.

Conservation Initiatives

Several civet species, particularly those classified as Endangered or Vulnerable by the IUCN, benefit from targeted conservation programs emphasizing , restoration, and measures. For Owston's civet (Chrotogale owstoni), Save Vietnam's (SVW) outlined a national in , establishing an Owston's Civet within the IUCN Commission's Small Specialist Group to coordinate , monitoring, and reintroduction efforts in northern Vietnam's karst forests. This initiative culminated in with the of 10 individuals at Cuc Phuong , marking a key advancement in bolstering wild populations amid ongoing threats from snaring and fragmentation. The Civet Project Foundation, founded in 2019, pledges to reverse population declines for Owston's civet and binturong (Arctictis binturong) through field research collaborations, genetic studies, and partnerships with zoos and NGOs to mitigate exploitation in Southeast Asian wildlife trade and coffee farming. Complementary efforts include alliances with Wild Welfare (announced July 2025) to improve welfare standards and reduce wild capture for kopi luwak production, alongside joint habitat protection in Laos via the Lao Conservation Trust for Wildlife. Awareness campaigns, such as World Civet Day on April 4, organized by World Animal Protection, advocate for ending reliance on wild-sourced civet products and promote sustainable alternatives to curb poaching. In India, Wildlife SOS has rehabilitated and released 61 Asian palm civets (Paradoxurus hermaphroditus) since 2000, addressing urban conflicts and habitat loss through rescue operations and soft-release protocols. For less threatened species like the African civet (Civettictis civetta), initiatives prioritize regulated trade under CITES Appendix III (since 1992 in several range states) to sustain musk harvesting without depleting wild stocks, coupled with education for farmers on humane captive management. Educational programs, such as those for Javan palm civet (Paradoxurus musang javanicus) in Indonesia, target schoolchildren to foster local stewardship and reduce persecution as pests.

Human Uses and Interactions

Historical and Traditional Exploitation

Civet musk, a waxy secretion from the perineal glands of species such as the African civet (Civettictis civetta), has been harvested for its fixative properties since antiquity, with records indicating its use in Ethiopian perfumes, cosmetics, and incense predating widespread European trade. In traditional Ethiopian practices, the musk—known locally as zerbet—was esteemed more highly than ivory, gold, or myrrh, and incorporated into medicinal preparations, including infusions in tea or coffee to treat ailments like headaches and digestive issues. Extraction involved manual scraping from captive or wild animals, a labor-intensive process that sustained local economies in regions like Ethiopia and Somalia, where civets were maintained in pens for periodic gland harvesting as early as the medieval period. By the early , civet expanded via African coastal ports, with merchants exporting from starting in the , often shipping live animals or raw secretions to for perfumery. In 1630, the Dutch States General formalized imports by granting an (a monopoly) for civet cats, stipulating a minimum value of 20 guilders per ounce of to regulate the burgeoning European market. European attempts at civet farming emerged in the 18th century, particularly in London and other urban centers, where merchants housed imported animals in heated enclosures to mimic tropical conditions and stimulate production, though yields were inconsistent compared to African sources. Beyond perfumery, civet was incorporated into medicinal remedies, wig powders, and snuff across and the Middle East, reflecting its multifaceted traditional applications. In Asia, traditional exploitation focused on species like the Asian palm civet (Paradoxurus hermaphroditus), where hunting for meat and glandular oils predated colonial influences; civet flesh featured in Chinese dishes such as "Dragon, Tiger, and Phoenix" soup, valued for purported aphrodisiac and tonic effects in traditional Chinese medicine. Indigenous communities in Indonesia and India trapped civets for bushmeat and folk remedies, with anal gland oils used topically for skin conditions or as insect repellents, practices documented in pre-20th-century ethnobotanical records. These regional traditions often involved opportunistic wild capture rather than intensive farming, contrasting with African musk-centric systems, and contributed to localized population pressures long before industrialized trade amplified demands.

Perfumery and Musk Extraction

Civet musk, a glandular secretion produced by civets of the family Viverridae, particularly the African civet (Civettictis civetta), has been utilized in perfumery for its musky, fixative properties that enhance fragrance longevity and add animalic depth. The primary active compound, civetone—a macrocyclic ketone with a strong musky odor at high concentrations that becomes pleasant when diluted—serves as a key ingredient in fine fragrances. Historically, Arabic perfumers in the 10th century pioneered its incorporation into perfumes, valuing its tenacity and diffusive qualities, though earlier uses trace back to ancient civilizations for medicinal and aromatic purposes. Extraction traditionally involves harvesting the waxy secretion from the perineal glands of captive male civets, typically by manual scraping with wooden or silver tools every few days to weekly, yielding about 100-200 grams annually per animal under optimal conditions. This process, practiced in regions like Ethiopia, requires confining civets in small enclosures where diet influences secretion quality, with higher-quality musk derived from animals fed nutrient-rich foods. However, the method inflicts pain and stress, as the glands are irritated during scraping, leading to documented welfare concerns including poor housing and wild capture for restocking farms. In modern perfumery, natural civet musk has largely been supplanted by synthetic civetone, produced via chemical synthesis from precursors like oleic acid derived from vegetable oils, due to cost efficiency, consistent supply, and avoidance of animal cruelty. Natural production persists on a small scale in Ethiopia, regulated by bodies like the Ethiopian Wildlife Conservation Organization, but faces challenges from smuggling, disease risks in captivity, and declining demand amid ethical scrutiny. While synthetics replicate the olfactory profile effectively, some perfumers argue natural musk imparts irreplaceable nuances, though empirical blending tests show minimal perceptual differences at typical usage levels.

Coffee Production and Kopi Luwak

Kopi luwak, also known as civet coffee, is produced from coffee beans that have been eaten by the Asian palm civet (Paradoxurus hermaphroditus), a small carnivorous mammal native to Indonesia and parts of Southeast Asia. The civet selectively consumes ripe Coffea arabica or Coffea robusta cherries in the wild, where digestive enzymes and gut microbiota partially ferment the beans, breaking down proteins and reducing caffeine content by up to 69% compared to unprocessed beans. After passing through the civet's intestines over 12-24 hours, the beans are excreted intact in feces, collected from forest floors or farm enclosures, washed to remove residue, sun-dried, hulled, and roasted using traditional methods similar to conventional coffee. This process originated during the Dutch colonial era in the 18th and 19th centuries on islands like Java and Sumatra, when indigenous farmers, prohibited from harvesting plantation coffee, gathered and processed beans from wild civet droppings, discovering their smoother flavor profile. Production occurs primarily in Indonesia on Sumatra, Java, Bali, and Sulawesi, with smaller volumes in Vietnam and the Philippines, though authentic output remains limited to a few hundred kilograms annually due to reliance on wild foraging or small-scale farming. In wild collection, foragers scan under coffee trees for scat containing 10-20 beans per deposit, yielding low volumes that contribute to high prices of $600 to $1,300 per pound for certified wild-sourced beans. Captive farming, which dominates supply to meet global demand, involves confining civets in wire cages, often force-feeding them coffee cherries or a diet lacking nutritional variety, leading to documented welfare issues including obesity, stereotypic behaviors, and high mortality rates from stress and poor hygiene. Animal welfare organizations report that over 90% of commercial kopi luwak derives from such farms, where civets—solitary and arboreal by nature—are denied space and social isolation exacerbates suffering, prompting calls for boycotts and certification standards like those from the Specialty Coffee Association that verify ethical wild sourcing. Scientific analyses confirm the gut fermentation imparts unique chemical changes, including elevated levels of 3-furfurylpyrrole and other volatiles that yield earthy, low-acidity notes with chocolate and caramel undertones, scoring 82-85 on Specialty Coffee Association cupping protocols—higher than many standard arabica coffees but not universally superior in blind tests. Recent 2025 studies using metabolomics identified reduced chlorogenic acids and altered amino acid profiles as key to diminished bitterness, validating traditional claims while spurring bioreactor simulations to bypass animal use. However, counterfeit products, often chemically treated beans mimicking the profile, flood markets, comprising up to 80% of labeled kopi luwak and undermining genuine production economics. Despite ethical concerns, demand persists among luxury consumers, with global market estimates for authentic product around $40 million in 2023, though farming expansions threaten civet populations via poaching and habitat pressure.

Other Roles: Pests, Pets, and Vectors

Civets are frequently perceived as pests in agricultural and rural settings, particularly where they prey on poultry or damage crops. Small Indian civets (Viverricula indica) are routinely targeted by farmers for killing livestock, contributing to their status as a dominant yet unwelcome species in human-modified landscapes. Asian palm civets (Paradoxurus hermaphroditus) similarly inflict harm on orchards and fruit crops in regions such as Japan, where they are classified as invasive and responsible for economic losses in hilly agricultural areas. In parts of Southeast Asia, including Indonesia, civets raid poultry coops, prompting lethal control measures by villagers despite their ecological role in controlling rodents and insects. As exotic pets, civets attract owners in select regions, though their wild traits make them challenging companions. In Indonesia, a survey of owners revealed a demographic predominantly (71%), Indonesian (90%), around 25 years old, and often first-time keepers two civets as their sole pets. These extensive , large enclosures mimicking arboreal habitats, and tolerance for nocturnal habits and scent-marking behaviors, as they remain undomesticated and prone to aggression toward unfamiliar stimuli. Confinement can exacerbate stress, leading to fighting among adults or biting incidents, underscoring their unsuitability for typical household settings without specialized care. Civets act as vectors or intermediate hosts for several zoonotic pathogens, facilitating spillover to humans through close contact in markets or wild interfaces. Masked palm civets (Paguma larvata) played a key role in the 2002–2003 SARS-CoV outbreak, where the virus acquired mutations in civet populations at live-animal markets in southern China, infecting over 8,000 people globally before containment. They harbor microsporidian parasites like Enterocytozoon bieneusi, detected in fecal samples from wild and captive individuals in China, with genotypes exhibiting zoonotic transmission potential via contaminated food or water. Viverrids more broadly transmit agents of cat scratch disease (Bartonella henselae) through direct scratches or bites in urban Japan, and elevated human-civet proximity in agricultural edges heightens risks for unspecified viral and bacterial zoonoses. Such dynamics underscore civets' position in wildlife trade as amplifiers of pathogen emergence, independent of overhyped narratives on origins.

Controversies and Debates

Farming Practices and Welfare

Civet farming primarily occurs for musk extraction in Ethiopia and for kopi luwak coffee production in Indonesia, with African civets (Viverra civetta) utilized in the former and Asian palm civets (Paradoxurus hermaphroditus) in the latter. In Ethiopian musk farming, civets are typically housed in small wooden enclosures measuring 1.0 × 0.5 × 1.0 meters within communal thatched rooms, with farmers maintaining an average of 7 individuals per operation across surveyed sites. These animals, often wild-captured males over one year old, are fed diets including boiled meat, milk, eggs, butter, corn soup, and fruit juice. Musk extraction involves manual restraint to collect approximately 20 grams every 9-15 days, a process linked to injuries such as swelling, bruising, fractures, and eye lesions observed in 14%, 6.5%, and 11.2% of examined civets, respectively. In Indonesian kopi luwak production, civets are confined to small metal-bar cages with wire-mesh floors, often failing to meet the regulatory minimum of 18 cubic meters per animal; none of 29 assessed tourism plantations complied fully. Diets consist mainly of coffee cherries supplemented with papaya, bananas, rice, and milk, which inadequately support the omnivorous requirements of the species. Across 29 Bali facilities, 99 civets were documented, with additional turnover of 400-800 annually through wildlife markets, exceeding legal quotas. Welfare assessments reveal systemic deficiencies in both contexts. Ethiopian civets exhibit poor overall condition, with 15% in suboptimal body states, prevalent ecto- and endoparasites (e.g., Trypanosoma congolense, ticks), and skin lesions in 19.6% of cases, compounded by the absence of specific welfare legislation and enforcement. In kopi luwak farms, no individual satisfied all five freedoms of animal welfare, with mean body condition scores of 6.05 and impairments from inadequate diet, hygiene, mobility, and sanitation leading to sores, obesity, thinness, and caffeine toxicity; 77.14% met only two freedoms. These practices, reliant on wild capture via traps or snares, prioritize yield over health, necessitating improved enclosure design, veterinary care, and regulatory oversight for mitigation.

Zoonotic Disease Risks

Civets, particularly species in the Viverridae family such as masked palm civets (Paguma larvata), pose zoonotic risks primarily through direct contact during wildlife trade, farming, and consumption practices. These risks are amplified in dense market settings or captive environments where interspecies transmission facilitates pathogen spillover. Masked palm civets have been identified as intermediate hosts for severe acute respiratory syndrome coronavirus (SARS-CoV-1), serving as a bridge from natural bat reservoirs to humans during the 2003 outbreak in southern China. In one documented cluster, SARS-CoV transmission occurred from infected palm civets to restaurant workers and patrons, with viral sequences from civet samples matching those in human cases, confirming recent interspecies jump. This event involved consumption and handling of civet meat, highlighting how culinary and trade practices in live-animal markets enabled amplification of the virus in civets before human infection. Beyond SARS-CoV-1, civets harbor other zoonotic pathogens with potential for human transmission, particularly in farmed or traded populations. Rabies virus has been reported in viverrids, including civets, with transmission risks during handling or bites in endemic areas; this neurotropic virus causes fatal encephalitis in humans if untreated. Protozoan parasites like Cryptosporidium spp., Giardia duodenalis, and Enterocytozoon bieneusi show high prevalence in farmed masked palm civets in southern China, with genotypes matching those in humans, indicating zoonotic potential via fecal-oral routes in contaminated environments or through products like kopi luwak coffee derived from civet feces. Bacterial agents such as Bartonella henselae, a cause of cat-scratch disease, have been detected in masked palm civets, positioning them as potential reservoirs for human infection through scratches or vectors like fleas. Intensive farming for musk or coffee production heightens these risks by increasing human-civet proximity and pathogen shedding. Studies note that unnatural population densities in such settings promote pathogen maintenance and spillover, as seen with SARS-CoV-1 adaptation in market civets. While civets are not natural reservoirs for most of these agents—SARS-CoV-1 likely originating in bats—human activities disrupt ecological barriers, facilitating adaptation and transmission. Surveillance and culling, as implemented post-2003 SARS (over 10,000 civets culled in China), temporarily reduced risks but underscore the need for ongoing monitoring in trade hotspots.

Economic vs. Ethical Trade-offs

The production of kopi luwak coffee, derived from beans digested and excreted by civets, generates significant economic value in Indonesia, where it supports rural livelihoods and tourism. The global market for kopi luwak was estimated at approximately USD 100 million in 2024, with projections to double by 2033, driven by premium pricing of USD 100 to 600 per pound and demand from niche consumers. This industry employs farmers and processors, particularly in regions like Bali and Sumatra, where civet coffee tourism attracts visitors and boosts local economies through farm visits and sales. However, these economic gains are offset by profound ethical concerns arising from intensive civet farming practices. Civets, which are solitary, nocturnal, and arboreal species, are often confined in small, wire-mesh cages for years, leading to physical ailments such as infections, obesity from force-fed coffee cherries, and psychological distress evidenced by stereotypic behaviors like pacing. Studies assessing body condition scores link poor welfare outcomes directly to inadequate diets, hygiene deficiencies, and restricted mobility, with conditions failing to comply with Indonesian animal husbandry regulations. Wild-sourced alternatives exist but supply only a fraction of demand, as scaling production without farming exacerbates poaching and habitat disruption. Civet musk extraction for perfumery presents analogous trade-offs, though on a smaller scale. Natural civetone, valued for its fixative properties in fragrances, contributes to a market of about USD 83 million globally in 2023, but ethical extraction involves scraping perineal glands from stressed, restrained animals, yielding minimal humane commercial volumes. Synthetic alternatives, which replicate the musky scent without animal involvement, dominate the broader USD 135 million synthetic musk sector and have rendered natural sourcing economically obsolete for most applications since the late 20th century. Zoonotic disease risks further tilt the balance against ethical justification for farming. Civets served as intermediate hosts in the 2003 SARS outbreak, with dense farming amplifying transmission potential through poor sanitation and human-animal proximity, potentially imposing outsized economic costs via outbreaks that disrupt trade and tourism. While short-term profits incentivize continuation, consumer awareness campaigns and certifications banning caged civets—such as those by the Sustainable Agriculture Network—signal growing pressure for alternatives that prioritize welfare and public health over revenue. Empirical evidence from farm audits indicates that welfare improvements, like enriched enclosures, could mitigate some issues but often raise costs, challenging the viability of current models without subsidies or innovation.

References

  1. https://www.thecivetproject.com/civets
  2. https://theconversation.com/civet-musk-a-precious-perfume-ingredient-is-under-threat-steps-to-support-ethiopian-producers-and-protect-the-animals-193469
  3. https://www.bmvfragrances.com/guide/civet-perfumery-base
  4. https://blog.nature.org/2025/05/18/meet-the-civet-the-mammal-behind-the-coffee/
  5. https://pmc.ncbi.nlm.nih.gov/articles/PMC8228563/
  6. https://www.nature.com/articles/d41586-025-03467-w
  7. https://www.tandfonline.com/doi/full/10.1080/10888705.2023.2270414
  8. https://www.merriam-webster.com/dictionary/civet
  9. https://www.worldanimalprotection.org/our-campaigns/sentience/animal-awareness-days/world-civet-day/
  10. https://www.etymonline.com/word/civet
  11. https://www.oed.com/dictionary/civet_n1
  12. https://www.researchgate.net/publication/269334076_Phylogeny_of_the_Viverridae_and_%27viverrid-like%27_feliforms
  13. https://pmc.ncbi.nlm.nih.gov/articles/PMC7886153/
  14. https://www.sciencedirect.com/science/article/pii/S1055790308001358
  15. https://www.cambridge.org/core/books/carnivoran-evolution/phylogeny-of-the-viverridae-and-viverridlike-feliforms/0EBF747E848A8F7478EAC4A8FD82DFF0
  16. https://www.sciencedirect.com/science/article/abs/pii/S1055790306001965
  17. https://zslpublications.onlinelibrary.wiley.com/doi/abs/10.1111/j.1469-7998.2012.00939.x
  18. https://www.sciencedirect.com/topics/agricultural-and-biological-sciences/viverridae
  19. https://animaldiversity.org/accounts/Civettictis_civetta/
  20. https://pmc.ncbi.nlm.nih.gov/articles/PMC7165938/
  21. https://animaldiversity.org/accounts/Viverra_zibetha/
  22. https://animaldiversity.org/accounts/Viverricula_indica/
  23. https://animaldiversity.org/accounts/Viverridae/
  24. https://smujo.id/biodiv/article/download/4984/3720/18311
  25. https://www.science.smith.edu/departments/biology/VHAYSSEN/msi/pdf/i0076-3519-488-01-0001.pdf
  26. https://www.cabidigitallibrary.org/doi/10.1079/cabicompendium.88663
  27. https://owlcation.com/stem/interesting-african-civet-facts-that-you-may-not-know
  28. https://www.animalspot.net/african-civet.html
  29. http://www.journalcra.com/article/composition-perineal-gland-secretion-musk-african-civet-civeticttis-civetta-schreber-1776
  30. https://www.jstor.org/stable/1380106
  31. https://www.researchgate.net/figure/Maximum-quantity-of-perineal-gland-secretion-of-African-Civets-Civettictis-civetta_fig2_265194851
  32. https://ewt.org/wp-content/uploads/2022/11/10.-African-Civet-Civettictis-civetta_LC.pdf
  33. https://africageographic.com/stories/african-civet/
  34. https://animaldiversity.org/accounts/Paradoxurus_hermaphroditus/
  35. https://www.ourbreathingplanet.com/asian-palm-civet/
  36. https://animalia.bio/asian-palm-civet
  37. https://www.theanimalfiles.com/mammals/carnivores/civet_asian_palm.html
  38. https://www.britannica.com/animal/civet-mammal-Viverridae-family
  39. https://hal.science/hal-03530362/document
  40. https://encyclopedia.pub/entry/55608
  41. https://pmc.ncbi.nlm.nih.gov/articles/PMC7542873/
  42. https://onlinelibrary.wiley.com/doi/abs/10.1111/aje.12390
  43. https://www.researchgate.net/publication/317616928_Diets_of_the_African_Civet_Civettictis_civetta_Schreber_1778_in_selected_coffee_forest_habitat_south-western_Ethiopia_Journal_African_Journal_of_Ecology
  44. https://www.academia.edu/102626365/Ecological_Studies_of_the_African_Civet_Civettictis_civetta_
  45. https://www.researchgate.net/publication/379577618_Food_Habits_of_the_Common_Palm_Civet_Paradoxurus_hermaphroditus_in_Pangandaran_Nature_Reserve_West_Java_Indonesia_a_Preliminary_Report
  46. https://journals.sagepub.com/doi/10.1177/194008291000300304
  47. https://academic.oup.com/jmammal/article/97/3/798/2459596
  48. https://www.threatenedtaxa.org/index.php/JoTT/article/view/4165
  49. https://scienggj.org/2020/PSL%25202020-vol13-no01-p28-33-de%2520Guia%2520et%2520al.pdf
  50. https://pmc.ncbi.nlm.nih.gov/articles/PMC9951805/
  51. https://www.krugerpark.co.za/africa_civet.html
  52. https://www.originalwisdom.com/wp-content/uploads/bsk-pdf-manager/2019/04/Ewer-and-Wemmer_1974_The-Behaviour-in-Captivity-of-the-African-Civet.pdf
  53. https://personalcollectionbyta.wordpress.com/2018/08/10/african-civet/
  54. https://the-kingdom-of-animals.fandom.com/wiki/African_Civet
  55. https://tdksafaris.com/p77/species-list/african-civet--hunting-in-south-africa.html
  56. https://academic.oup.com/jmammal/article/95/3/534/877262
  57. https://animalia.bio/african-civet
  58. https://factsanddetails.com/asian/cat68/Small_Medium_Size_Mammals/entry-9245.html
  59. http://www.rehabbersden.org/index.php/36-pages/pricing-table/simple/234-hand-rearing-the-common-palm-civet-paradoxurus-hermaphroditus
  60. https://animalia.bio/masked-palm-civet?environment=211
  61. https://animaldiversity.org/accounts/Nandiniidae/
  62. https://www.gbif.org/species/2434634
  63. https://animalia.bio/african-palm-civet
  64. https://genomics.senescence.info/species/entry.php?species=Civettictis_civetta
  65. https://www.iucnredlist.org/resources/summary-statistics
  66. https://www.thecivetproject.com/iucn-civet-working-group
  67. https://www.researchgate.net/publication/340931066_Civettictis_civetta_The_IUCN_Red_List_of_Threatened_Species_2019
  68. https://hoscap-borneo.org/wp-content/uploads/2016/08/viverratangalunga_2016iucnassessment.pdf
  69. https://news.mongabay.com/2016/10/its-a-bear-its-a-cat-no-its-a-binturong-and-its-threatened/
  70. https://wildlife.onlinelibrary.wiley.com/doi/10.1002/jwmg.22467
  71. https://www.mdpi.com/1424-2818/16/7/421
  72. https://www.iucnredlist.org/
  73. https://onlinelibrary.wiley.com/doi/10.1002/9781118943274.ch19
  74. https://animalia.bio/otter-civet
  75. https://hoscap-borneo.org/wp-content/uploads/2016/03/bandedcivet_2015iucnassessment.pdf
  76. https://svw.vn/masked-palm-civet/
  77. https://zslpublications.onlinelibrary.wiley.com/doi/10.1111/izy.12271
  78. https://www.conservationlaos.com/towards-saving-owstons-civet-and-otters-conservation-planning-and-discussions-at-international-meetings-in-april-2019/
  79. https://besjournals.onlinelibrary.wiley.com/doi/10.1111/1365-2656.13663
  80. https://encyclopedia.pub/entry/56307
  81. https://svw.vn/wp-content/uploads/2021/12/English-Owston-Civet-Strategy-English.pdf
  82. https://svw.vn/2024/06/10-rare-owstons-civets-bred-in-captivity-a-conservation-triumph/
  83. https://www.thecivetproject.com/reversethered
  84. https://wildwelfare.org/civet-alliance-announced/
  85. https://www.facebook.com/lctwildlife/posts/-happy-world-civet-day-were-thrilled-to-have-recently-partnered-with-the-civet-p/1071725251664424/
  86. https://www.wti.org.in/news/45-day-old-asian-palm-civet-kitten-undergoes-care-and-treatment-at-cwrc/
  87. https://naturalnicheperfume.com/animal-scents/sustainable-utilisation-of-the-african-civet/
  88. https://www.nocturama.org/wp-content/uploads/2020/09/CivetsChangingMindsEnglishVersion.pdf
  89. https://ayalasmellyblog.blogspot.com/2018/10/decoding-obscure-notes-civet.html
  90. https://portals.iucn.org/library/sites/library/files/documents/1990-028-En.pdf
  91. https://www.researchgate.net/publication/385072704_Civettictis_civetta
  92. https://encyclopedia.odeuropa.eu/items/show/39
  93. https://recipes.hypotheses.org/15008
  94. https://slate.com/news-and-politics/2004/01/what-does-civet-cat-taste-like.html
  95. https://news.wildlifesos.org/an-anthology-of-human-civet-conflict/
  96. https://www.oneplanetconservationawareness.com/single-post/2018/11/30/coffee-perfume-and-fur-coats-the-life-of-the-civet
  97. https://www.sciencedirect.com/topics/chemistry/civetone
  98. https://perfumesociety.org/ingredients-post/civet/
  99. https://img.perfumerflavorist.com/files/base/allured/all/document/2016/02/pf.9703.pdf
  100. https://www.scentspiracy.com/fragrance-ingredients/p/civetone
  101. https://naturalnicheperfume.com/animal-scents/sustainable-utilisation-of-the-african-civet-civettictis-civetta-in-ethiopia/
  102. https://www.newscientist.com/article/2501310-civet-coffee-the-real-chemistry-behind-this-bizarre-luxury-drink/
  103. https://pmc.ncbi.nlm.nih.gov/articles/PMC9960232/
  104. https://theexoticbean.com/blog/coffee-types/history-kopi-luwak-coffee-from-civets/
  105. https://www.nationalgeographic.com/animals/article/160429-kopi-luwak-captive-civet-coffee-Indonesia
  106. https://www.sciencenews.org/article/coffee-beans-civet-poop-tastier
  107. https://wildwelfare.org/civet-coffee-crisis/
  108. https://www.theguardian.com/food/2025/oct/23/kopi-luwak-coffee-unique-taste-civets-study/
  109. https://www.sciencedirect.com/science/article/pii/S0924224424004485
  110. https://dataintelo.com/report/global-kopi-luwak-market
  111. https://inohoi.jp/blogs/knowledge/post-1337
  112. https://radar.brookes.ac.uk/radar/items/323a2657-b804-4174-909f-e530b48a78b4/1/
  113. https://www.oocities.org/efexotics/palmcivet.html
  114. https://wildwelfare.org/wp-content/uploads/Asian-Palm-Civet-CFU-Guide-English.pdf
  115. https://news.emory.edu/features/2020/06/ehd-zoonotic-diseases/
  116. https://academic.oup.com/bioscience/article/73/10/711/7279054
  117. https://parasitesandvectors.biomedcentral.com/articles/10.1186/s13071-020-04274-0
  118. https://www.tandfonline.com/doi/full/10.1080/10888705.2022.2028627
  119. https://www.cambridge.org/core/journals/animal-welfare/article/husbandry-welfare-and-health-of-captive-african-civets-vivera-civetica-in-western-ethiopa/31A0EA57091C57618842EDEB0878D095
  120. https://wwwnc.cdc.gov/eid/article/11/12/04-1293_article
  121. https://www.pnas.org/doi/10.1073/pnas.0409608102
  122. https://pubmed.ncbi.nlm.nih.gov/23433322/
  123. https://pmc.ncbi.nlm.nih.gov/articles/PMC3323399/
  124. https://www.linkedin.com/pulse/kopi-luwak-coffee-beans-market-comprehensive-analysis-df0ie/
  125. https://www.peta.org/features/civets-suffering-cruel-coffee/
  126. https://dataintelo.com/report/global-civet-extract-market
  127. https://npacertification.com/2025/07/16/exploiting-the-civet-for-musk/
  128. https://www.alliedmarketresearch.com/synthetic-musk-market-A06174
  129. https://www.thecivetproject.com/civet-one-health
  130. https://www.worldanimalprotection.org/latest/news/sustainable-agriculture-network-bans-caged-civets-their-indonesian-farms/
  131. https://link.springer.com/article/10.1007/s43621-025-01523-z
Add your contribution
Related Hubs
User Avatar
No comments yet.