| House mouse |
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Conservation status
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Least Concern (IUCN 3.1)[1]
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| Scientific classification |
| Kingdom: |
Animalia |
| Phylum: |
Chordata |
| Class: |
Mammalia |
| Order: |
Rodentia |
| Family: |
Muridae |
| Subfamily: |
Murinae |
| Genus: |
Mus |
| Subgenus: |
Mus |
| Species: |
M. musculus |
| Binomial name |
Mus musculus
Linnaeus, 1758 |
| Subspecies |
- Mus musculus bactrianus
- Mus musculus castaneus
- Mus musculus domesticus
- Mus musculus gentilulus
- Mus musculus musculus
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| House mouse range |
The house mouse (Mus musculus) is a small mammal of the order Rodentia, characteristically having a pointed snout, small rounded ears, and a long naked or almost hairless tail. It is one of the most numerous species of the genus Mus. Although a wild animal, the house mouse mainly lives in association with humans.
The house mouse has been domesticated as the pet or fancy mouse, and as the laboratory mouse, which is one of the most important model organisms in biology and medicine. The complete mouse reference genome was sequenced in 2002.[2][3] It is by far the most commonly genetically altered mammal in scientific research.[4]
Contents
- 1 Characteristics
- 2 Taxonomy and subspecies
- 3 Behaviour
- 4 Social behaviour
- 5 Senses and communication
- 5.1 Vision
- 5.2 Olfaction
- 5.3 Touch
- 6 Life cycle and reproduction
- 7 Life expectancy
- 8 Mice and humans
- 8.1 Mice and diseases
- 8.2 Invasive species
- 8.3 In folk culture
- 9 References
- 10 Further reading
- 11 External links
- 11.1 Taxonomy
- 11.2 Genetics
- 11.3 Media
- 11.4 Further reading
Characteristics
House mice have an adult body length (nose to base of tail) of 7.5–10 cm (3.0–3.9 in) and a tail length of 5–10 cm (2.0–3.9 in). The weight is typically 10–25 g (0.4–0.9 oz). In the wild they vary in color from light to dark agouti (light to dark brown), but domesticated fancy mice and laboratory mice are produced in many colors ranging from white to champagne to black.[5] They have short hair and some, but not all, sub-species have a light belly.[5] The ears and tail have little hair. The hind feet are short compared to Apodemus mice, only 15–19 mm (0.59–0.75 in) long; the normal gait is a run with a stride of about 4.5 cm (1.8 in), though they can jump vertically up to 45 cm (18 in).[6] The voice is a high-pitched squeak.[7][8] House mice thrive under a variety of conditions; they are found in and around homes and commercial structures, as well as in open fields and agricultural lands.
Newborn males and females can be distinguished on close examination as the anogenital distance in males is about double that of the female.[9] From the age of about 10 days, females have five pairs of mammary glands and nipples; males have no nipples.[10] When sexually mature, the most striking and obvious difference is the presence of testicles on the males. These are large compared to the rest of the body and can be retracted into the body.
The tail, which is used for balance,[11][12][13] has only a thin covering of hair as it is the main peripheral organ of heat loss in thermoregulation[12] along with — to a lesser extent — the hairless parts of the paws and ears. Blood flow to the tail can be precisely controlled in response to changes in ambient temperature using a system of arteriovenous anastomoses to increase the temperature of the skin on the tail by as much as 10 °C to lose body heat.[14] Tail length varies according to the environmental temperature of the mouse during postnatal development, so mice living in colder regions tend to have shorter tails.[5] The tail is also used for balance when the mouse is climbing or running, or as a base when the animal stands on its hind legs (a behaviour known as tripoding), and to convey information about the dominance status of an individual in encounters with other mice.[15]
In addition to the regular pea-sized thymus organ in the chest, house mice have a second functional pinhead-sized thymus organ in the neck next to the trachea.[16]
Taxonomy and subspecies
| Euarchontoglires |
| Glires |
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Rodentia (rodents)
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Lagomorpha (rabbits, hares, pikas)
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| Euarchonta |
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Scandentia (treeshrews)
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| Primatomorpha |
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Dermoptera (flying lemurs)
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Primates (†Plesiadapiformes, Strepsirrhini, Haplorrhini)
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Mice are mammals of the Glires clade, which means they are amongst the closest relatives of humans other than lagomorphs, treeshrews, flying lemurs and other primates.
The three widely accepted subspecies are increasingly treated as distinct species:[17][18]
- Mus musculus castaneus (southern and southeastern Asia)
- Mus musculus domesticus (western Europe, southwestern Asia, Americas, Africa, and Oceania)
- Mus musculus musculus (eastern Europe and northern Asia)
Two additional subspecies have been recognized more recently:[18]
- Mus musculus bactrianus (central Asia)
- Mus musculus gentilulus (Arabian Peninsula; Madagascar)[19]
Many more names have been given to house mice, but are now regarded as synonyms of other subspecies. Some populations are hybrids of different subspecies, including the Japanese house mouse (M. m. molossinus).[18]
Behaviour
House mice usually run, walk, or stand on all fours, but when eating, fighting, or orienting themselves, they rear up on their hind legs with additional support from the tail - a behaviour known as "tripoding". Mice are good jumpers, climbers, and swimmers, and are generally considered to be thigmotactic, i.e. usually attempts to maintain contact with vertical surfaces.[citation needed]
Mice are mostly crepuscular or nocturnal; they are averse to bright lights. The average sleep time of a captive house mouse is reported to be 12.5 hours per day.[citation needed] They live in a wide variety of hidden places near food sources, and construct nests from various soft materials. Mice are territorial, and one dominant male usually lives together with several females and young. Dominant males respect each other's territories and normally enter another's territory only if it is vacant. If two or more males are housed together in a cage, they often become aggressive unless they have been raised together from birth.[citation needed]
House mice primarily feed on plant matter, but are omnivorous.[citation needed] They eat their own faeces to acquire nutrients produced by bacteria in their intestines.[20] House mice, like most other rodents, do not vomit.[21]
Mice are generally afraid of rats which often kill and eat them, a behavior known as muricide. Despite this, free-living populations of rats and mice do exist together in forest areas in New Zealand, North America, and elsewhere. House mice are generally poor competitors and in most areas cannot survive away from human settlements in areas where other small mammals, such as wood mice, are present.[22] However, in some areas (such as Australia), mice are able to coexist with other small rodent species.[23]
Social behaviour
The social behaviour of the house mouse is not rigidly fixed into species-specific patterns but is instead adaptable to the environmental conditions, such as the availability of food and space.[24][25] This adaptability allows house mice to inhabit diverse areas ranging from sandy dunes to apartment buildings.[24]
House mice have two forms of social behaviour, the expression of which depends on the environmental context. House mice in buildings and other urbanized areas with close proximity to humans are known as commensal.[24] Commensal mice populations often have an excessive food source resulting in high population densities and small home ranges. This causes a switch from territorial behaviour to a hierarchy of individuals.[24][26] When populations have an excess of food, there is less female-female aggression, which usually occurs to gain access to food or to prevent infanticide.[24] Male-male aggression occurs in commensal populations, mainly to defend female mates and protect a small territory.[24][25] The high level of male-male aggression, with a low female-female aggression level is common in polygamous populations.[27] The social unit of commensal house mouse populations generally consists of one male and two or more females, usually related.[27][28] These groups breed cooperatively, with the females communally nursing. This cooperative breeding and rearing by related females helps increase reproductive success. When no related females are present, breeding groups can form from non-related females.[28]
In open areas such as shrubs and fields, the house mouse population is known as noncommensal. These populations are often limited by water or food supply and have large territories.[25] Female-female aggression in the noncommensal house mouse populations is much higher, reaching a level generally attributed to free-ranging species. Male aggression is also higher in noncommensal populations. In commensal populations, males come into contact with other males quite frequently due to high population densities and aggression must be mediated or the risk of injury becomes too great.[24]
Both commensal and noncommensal house mouse males aggressively defend their territory and act to exclude all intruders. Males mark their territory by scent marking with urine. In marked territories, intruders showed significantly lower aggression than the territory residents.[25] House mice show a male-biased dispersal; males generally leave their birth sites and migrate to form new territories whereas females generally stay and are opportunistic breeders rather than seasonal.[29]
Senses and communication
Vision
The visual apparatus of mice is basically similar to that of humans but differs in that they are dichromats and have only two types of cone cells whereas humans are trichromats and have three. This means that mice do not perceive some of the colors in the human visual spectrum.[30] However, the ventral area of the mouse retina has a much greater density of ultraviolet-sensitive cones than other areas of the retina, although the biological significance of this structure is unknown.[31][32][33] In 2007, mice genetically engineered by scientists at the University of California to produce the third type of cone were shown to be able to distinguish a range of colors similar to that perceived by tetrachromats.[30]
Olfaction
House mice also rely on pheromones for social communication, some of which are produced by the preputial glands of both sexes. The tear fluid and urine of male mice also contains pheromones, such as major urinary proteins.[34][35] Mice detect pheromones mainly with the vomeronasal organ (Jacobson's organ), located at the bottom of the nose.
The urine of house mice, especially that of males, has a characteristic strong odor. At least 10 different compounds, such as alkanes, alcohols, etc., are detectable in the urine. Among them, five compounds are specific to males, namely 3-cyclohexene-1-methanol, aminotriazole (3-amino-s-triazole), 4-ethyl phenol, 3-ethyl-2,7-dimethyl octane and 1-iodoundecane.[36]
Odours from adult males or from pregnant or lactating females can speed up or retard sexual maturation in juvenile females and synchronise reproductive cycles in mature females (i.e. the Whitten effect). Odours of unfamiliar male mice may terminate pregnancies, i.e. the Bruce effect.
Touch
Mice can sense surfaces and air movements with their whiskers which are also used during thigmotaxis. If mice are blind from birth, super-normal growth of the vibrissae occurs presumably as a compensatory response,[37] or if the vibrissae are absent, the use of vision is intensified.[38]
Life cycle and reproduction
A two-week-old mouse, just about to open its eyes
Female house mice have an estrous cycle about four to six days long, with estrus itself lasting less than a day. If several females are held together under crowded conditions, they will often not have an estrus at all. If they are then exposed to male urine, they will come into estrus after 72 hours.
Male house mice court females by emitting characteristic ultrasonic calls in the 30 kHz–110 kHz[citation needed] range. The calls are most frequent during courtship when the male is sniffing and following the female; however, the calls continue after mating has begun, at which time the calls are coincident with mounting behaviour. Males can be induced to emit these calls by female pheromones. The vocalizations appear to differ between individuals and have been compared to bird songs because of their complexity.[39] While females have the capability to produce ultrasonic calls, they typically do not do so during mating behaviour.
Following copulation, female mice will normally develop a copulation plug which prevents further copulation. The plug is not necessary for pregnancy initiation, as this will also occur without the plug. The presence or absence of the plug will not affect litter size either.[40] This plug stays in place for some 24 hours. The gestation period is about 19–21 days, and they give birth to a litter of 3–14 young (average six to eight). One female can have 5 to 10 litters per year, so the mouse population can increase very quickly. Breeding occurs throughout the year. (However, animals living in the wild do not reproduce in the colder months, even though they do not hibernate.)
The pups are born blind and without fur or ears. The ears are fully developed by the fourth day, fur begins to appear at about six days and the eyes open around 13 days after birth; the pups are weaned at around 21 days. Females reach sexual maturity at about six weeks of age and males at about eight weeks, but both can copulate as early as five weeks. If the infants live in high temperatured area from birth, they will become less-haired.[41]
Life expectancy
House mice usually live less than one year in the wild, due to a high level of predation and exposure to harsh environments. In protected environments, however, they often live two to three years. The Methuselah Mouse Prize is a competition to breed or engineer extremely long-lived laboratory mice. As of 2005[update], the record holder was a genetically engineered mouse that lived for 1,819 days (4 years, 358 days).[42] Another record holder that was kept in an enriched environment but did not receive any genetic, pharmacological, or dietary treatment lived for 1,551 days (4 years, 90 days).[43][44]
Mice and humans
See also: Fancy mouse
House mice usually live in proximity to humans, in or around houses or fields. Originally native to Asia (probably northern India),[45] they spread to the Mediterranean Basin about 8000 BC, only spreading into the rest of Europe around 1000 BC.[46] This time lag is thought to be because the mice require agrarian human settlements above a certain size.[46] They have since been spread to all parts of the globe by humans.
Many studies have been done on mouse phylogenies to reconstruct early human movements. For example, one study suggests the possibility of a previously unsuspected early link between Northern Europe and Madeira on the basis of the origin of Madeiran mice.[47] House mice were thought to be the primary reason for the taming of the domestic cat.
An individually ventilated and sealed cage for laboratory mice
The first written reference to mice kept as pets occurs in the Erya, the oldest extant Chinese dictionary, from a mention in an 1100 BC version.[48] Human domestication led to numerous strains of "fancy" or hobby mice with a variety of colours and a docile temperament.[49] Domestic varieties of the house mouse are bred as a food source for some carnivorous pet reptiles, birds, arthropods, and fish.[49]
Mice and diseases
House mice can sometimes transmit diseases, contaminate food, and damage food packaging. Although the US Centers for Disease Control and Prevention gives a list with diseases transmitted by rodents,[50] only few of the diseases are transmitted through the house mouse.
Lymphocytic choriomeningitis (LCMV) can be transmitted by mice, but is not a commonly reported infection in humans, though most infections are mild and are often never diagnosed.[51][52][53] Some concern exists that women should not to be infected with LCMV during pregnancy.[54][55]
House mice are not usually a vector of human plague (bubonic plague) because they have less infestations with fleas than do rats, and because the fleas which house mice normally carry exhibit little tendency to bite humans rather than their natural host.[56]
Rickettsialpox, caused by the bacterium Rickettsia akari and similar to chickenpox, is spread by mice in general, but is very rare and generally mild and resolves within 2–3 weeks if untreated. No known deaths have resulted from the disease. Murine typhus (also called endemic typhus) is caused by the bacterium Rickettsia typhi, and is transmitted by the fleas that infest rats. While rat fleas are the most common vectors, cat fleas and mouse fleas are less common modes of transmission.[57] Endemic typhus is highly treatable with antibiotics. The US CDC currently does not mention rickettsialpox or murine typhus on its website about diseases directly transmitted by rodents (in general)[50]
Leptospirosis is carried by a variety of wild and domestic animals including dogs, rats, swine, cattle, mice in general, and can be transmitted by the urine of an infected animal and is contagious as long as the urine is still moist.[58]
According to recent research on the hygiene hypothesis, children who are exposed at a young age to specific allergens, feces, dander, and bacteria from (among others) cockroaches, mice, and cats are less likely to develop asthma and allergies later in life.[59]
Invasive species
Mice have become an invasive species on islands to where they have spread during the period of European exploration and colonisation.
New Zealand had no land mammals other than the lesser short-tailed bat (Mystacina tuberculata) prior to human occupation, and the house mouse is one of many species that have been introduced. Mice are responsible for a reduction in native bird species since they eat some of the same foods as birds. They are also known to kill lizards and have a large effect on native insects.[60]
Gough Island in the South Atlantic is used by 20 species of seabirds for breeding, including almost all of the world's Tristan albatross (Diomedea dabbenena) and Atlantic petrel (Pterodroma incerta). Until house mice arrived on the island in the 19th century with sailors, the birds did not have any mammalian predators. The mice have since grown unusually large and have learned to attack albatross chicks, which can be nearly 1 m tall, but are largely immobile, by working in groups and gnawing on them until they bleed to death.[61]
In the grain belt of south-eastern Australia, the introduced species Mus domesticus breed so successfully, every three years or so they reach plague proportions, achieving densities of 1000 per hectare and causing massive disruption to communities, and losses to agriculture of A$36 million annually.[62]
In folk culture
Importance of mice as a house and agricultural pest resulted in a development of a variety of mice-related rituals and stories in world's cultures. The ancient Egyptians had a story about "The mouse as vizier".[63]
Many Southern Slavs had a traditional annual "Mouse Day" celebration. In the eastern Balkans (most of Bulgaria, Macedonia, the Torlak districts of Serbia), the "Mouse Day" (Bulgarian: Миши ден, Мишин ден) was celebrated on October 9 of the Julian calendar (corresponds to October 27 of the Gregorian calendar in the 20th and 21st centuries), the next day after the feast of St Demetrius. In the western Balkans (Bosnia, Croatia), the Mouse Day would usually be celebrated in the spring, during the Maslenitsa week or early in the Lent.[64]
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- ^ "Latest Mprize Winners". Andrzej Bartke Mprize for Longevity. Methuselah Foundation. 2003–2013. Retrieved 2013-04-02.
- ^ Connor, Steve (31 Oct 2004). "Oldest mouse in captivity wins top science award". The Independent (UK). Retrieved 30 July 2013.
- ^ "Reversal Prize". Methuselah Foundation. Retrieved 2009-03-14.
- ^ Boursot, P.; Din, W.; Anand, R.; Darviche, D.; Dod, B.; von Deimling, F.; Talwar, G. P.; Bonhomme, F. (1996). "Origin and radiation of the house mouse: Mitochondrial DNA phylogeny". Journal of Evolutionary Biology 9 (4): 391–415. doi:10.1046/j.1420-9101.1996.9040391.x.
- ^ a b Cucchi, Thomas; Vigne, Jean-Denis; Auffray, Jean-Christophe (2005). "First occurrence of the house mouse (Mus musculus domesticus Schwarz & Schwarz, 1943) in the Western Mediterranean: A zooarchaeological revision of subfossil occurrences". Biological Journal of the Linnean Society 84 (3): 429–45. doi:10.1111/j.1095-8312.2005.00445.x.
- ^ Gündüz, İ.; Auffray, J.-C.; Britton-Davidian, J.; Catalan, J.; Ganem, G.; Ramalhinho, M. G.; Mathias, M. L.; Searle, J. B. (2001). "Molecular studies on the colonization of the Madeiran archipelago by house mice". Molecular Ecology 10 (8): 2023–9. doi:10.1046/j.0962-1083.2001.01346.x. PMID 11555245.
- ^ "The History Of Fancy Mice". American Fancy Rat and Mouse Association. Retrieved 29 July 2013.
- ^ a b the Rat and Mouse Club of America
- ^ a b "Diseases directly transmitted by rodents". Centers for Disease Control and Prevention (page last updated: June 7, 2011).
- ^ "Lymphocytic Choriomeningitis" (PDF). Iowa State University Center for Food Security and Public Health. March 2010.
- ^ Verhaegh, Els M.L.; Moudrous, Walid; Buiting, Anton G. M.; van der Eijk, Annemiek A.; Tijssen, Cees C. (2014). "Meningitis na muizenbeet" [Meningitis after a mouse bite]. Nederlands tijdschrift voor geneeskunde (in Dutch) 158: A7033. PMID 25017980.
- ^ Centers for Disease Control and Prevention (CDC) (2005). "Interim guidance for minimizing risk for human lymphocytic choriomeningitis virus infection associated with rodents". MMWR. Morbidity and mortality weekly report 54 (30): 747–9. PMID 16079740.
- ^ Jamieson, Denise J.; Kourtis, Athena P.; Bell, Michael; Rasmussen, Sonja A. (2006). "Lymphocytic choriomeningitis virus: An emerging obstetric pathogen?". American Journal of Obstetrics and Gynecology 194 (6): 1532–6. doi:10.1016/j.ajog.2005.11.040. PMID 16731068.
- ^ Bonthius, Daniel J. (2012). "Lymphocytic Choriomeningitis Virus: An Underrecognized Cause of Neurologic Disease in the Fetus, Child, and Adult". Seminars in Pediatric Neurology 19 (3): 89–95. doi:10.1016/j.spen.2012.02.002. PMC 4256959. PMID 22889536.
- ^ Shrewsbury, J. F. D. (1970). A History of Bubonic Plague in the British Isles. Cambridge University Press. p. 15.
- ^ "A previous study [1943] reported house mice naturally infected with R. typhi in the state of Georgia; however, no PCR-positive mice were detected in our study. Eruptions of mouse populations in the absence of rats have been implicated in several outbreaks of murine typhus; however, these observations were not supported by laboratory data." Eremeeva, Marina E.; Warashina, Wesley R.; Sturgeon, Michele M.; Buchholz, Arlene E.; Olmsted, Gregory K.; Park, Sarah Y.; Effler, Paul V.; Karpathy, Sandor E. (2008). "Rickettsia typhi and R. felis in Rat Fleas (Xenopsylla cheopis), Oahu, Hawaii". Emerg Infect Dis. 14 (10): 1613–1615. doi:10.3201/eid1410.080571. PMC 2609893.
- ^ Brown, K.; Prescott, J. (2008). "Leptospirosis in the family dog: A public health perspective". Canadian Medical Association Journal 178 (4): 399–401. doi:10.1503/cmaj.071097. PMC 2228361. PMID 18268265.
- ^ Lynch, Susan V.; Wood, Robert A.; Boushey, Homer; Bacharier, Leonard B.; Bloomberg, Gordon R.; Kattan, Meyer; o’Connor, George T.; Sandel, Megan T.; Calatroni, Agustin; Matsui, Elizabeth; Johnson, Christine C.; Lynn, Henry; Visness, Cynthia M.; Jaffee, Katy F.; Gergen, Peter J.; Gold, Diane R.; Wright, Rosalind J.; Fujimura, Kei; Rauch, Marcus; Busse, William W.; Gern, James E. (2014). "Effects of early-life exposure to allergens and bacteria on recurrent wheeze and atopy in urban children". Journal of Allergy and Clinical Immunology 134 (3): 593–601.e12. doi:10.1016/j.jaci.2014.04.018. PMC 4151305. PMID 24908147.
- ^ King, Caroline, ed. (1995). The Handbook of New Zealand Mammals. Auckland, N.Z.: Oxford University Press. ISBN 978-0-19-558320-5. [page needed]
- ^ Ryan, Peter G.; Hilton, Geoff M.; Cuthbert, Richard J.; Angel, Andrea; Wanless, Ross M. (2007). "Can predation by invasive mice drive seabird extinctions?". Biology Letters 3 (3): 241–4. doi:10.1098/rsbl.2007.0120. PMC 2464706. PMID 17412667.
- ^ "Mice: a case study". Biotechnology Australia. Commonwealth of Australia. Retrieved April 25, 2015.
- ^ The mouse as vizier, sourced to: Emma Brunner-Traut, Tiergeschichten aus dem Pharaonenland, Mainz, Zabern, 2000.
- ^ Plotnikova, Anna Arkadievna (Анна Аркадьевна Плотникова) (2004). "Этнолингвистическая география Южной Славии" [Ethnolinguistic Geography of the South Slav Lands] (in Russian). Moscow: Indrik. pp. 64–68. ISBN 5857592879.
Further reading
- Nyby, John G. (2001). "Auditory Communication among Adults". In Willott, James F. Handbook of Mouse Auditory Research: From Behavior to Molecular Biology. CRC Press. pp. 3–18. ISBN 978-1-4200-3873-6.
External links
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Wikimedia Commons has media related to Mus musculus. |
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Wikispecies has information related to: Mus musculus |
Taxonomy
- House mouse at the Encyclopedia of Life
- findmice.org
Genetics
- House mouse at the National Center for Biotechnology Information
- Ensembl Mus musculus genome browser, from the Ensembl Project
- Vega Mus musculus genome browser, includes NOD mouse sequence and annotation
Media
- Pictures, movies and applets showing the anatomy of Mus musculus, from www.digimorph.org
- Arkive Photographs.Short text.
- High-Resolution Brain Maps and Brain Atlases of Mus musculus
Further reading
- Nature Mouse Special 2002
- Biology of Laboratory Rodents by David G. Besselsen
- House Mouse Fact Sheet from the National Pest Management Association with information on habits, habitat and health threats
- Comprehensive house mouse information, including pictures, by the University of Michigan Museum of Zoology
- 'Fancy Mice', includes much behavioral and physiological information
- Some information on muricide
- Vocalizations during copulation
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Major model organisms in genetics
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- Lambda phage
- E. coli
- Chlamydomonas
- Tetrahymena
- Budding yeast
- Fission yeast
- Neurospora
- Maize
- Arabidopsis
- Medicago truncatula
- C. elegans
- Drosophila
- Xenopus
- Zebrafish
- Rat
- Mouse
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Extant species of subfamily Murinae (Melasmothrix–Mus)
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- Kingdom: Animalia
- Phylum: Chordate
- Class: Mammalia
- Superorder: Euarchontoglires
- Order: Rodentia
- Family: Muridae
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Melasmothrix
Division |
| Melasmothrix |
- Sulawesian shrew rat (M. naso)
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Tateomys
(Greater Sulawesian
shrew rats) |
- Long-tailed shrew tat (T. macrocercus)
- Tate's shrew rat (T. rhinogradoides)
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Micromys
Division |
Chiropodomys
(Pencil-tailed
tree mice) |
- Palawan pencil-tailed tree mouse (C. calamianensis)
- Indomalayan pencil-tailed tree mouse (C. gliroides)
- Koopman's pencil-tailed tree mouse (C. karlkoopmani)
- Large pencil-tailed tree mouse (C. major)
- Gray-bellied pencil-tailed tree mouse (C. muroides)
- Small pencil-tailed tree mouse (C. pusillus)
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Haeromys
(Pygmy tree mice) |
- Ranee mouse (H. margarettae)
- Minahassa Ranee mouse (H. minahassae)
- Lesser Ranee mouse (H. pusillus)
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Hapalomys
(Marmoset rats) |
- Delacour's marmoset rat (H. delacouri)
- Marmoset rat (H. longicaudatus)
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| Micromys |
- Micromys erythrotis
- Eurasian harvest mouse (M. minutus)
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Vandeleuria
(Long-tailed
climbing mice) |
- Nilgiri long-tailed tree mouse (V. nilagirica)
- Nolthenius's long-tailed climbing mouse (V. nolthenii)
- Asiatic long-tailed climbing mouse (V. oleracea)
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| Vernaya |
- Red climbing mouse (V. fulva)
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Millardia
Division |
| Cremnomys |
- Cutch rat (C. cutchicus)
- Elvira rat (C. elvira)
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| Diomys |
- Crump's mouse (D. crumpi)
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| Madromys |
- Blanford's rat (M. blanfordi)
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Millardia
(Asian
soft-furred rats) |
- Sand-colored soft-furred rat (M. gleadowi)
- Miss Ryley's soft-furred rat (M. kathleenae)
- Kondana soft-furred rat (M. kondana)
- Soft-furred rat (M. meltada)
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| Mus Division |
| Muriculus |
- Ethiopian striped mouse (M. imberbis)
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Mus
(Typical mice) |
- Subgenus Coelomys: Sumatran shrewlike mouse (M. crociduroides)
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- Mayor's mouse (M. mayori)
- Gairdner's shrewmouse (M. pahari)
- Volcano mouse (M. vulcani)
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- M. lepidoides group: M. lepidoides
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- Subgenus Mus: Little Indian field mouse (M. booduga)
- Ryukyu mouse (M. caroli)
- Fawn-colored mouse (M. cervicolor)
- Cook's mouse (M. cookii)
- Cypriot mouse (M. cypriacus)
- Servant mouse (M. famulus)
- Sheath-tailed mouse (M. fragilicauda)
- Macedonian mouse (M. macedonicus)
- House mouse (M. musculus)
- Mus nitidulus
- Steppe mouse (M. spicilegus)
- Algerian mouse (M. spretus)
- Earth-colored mouse (M. terricolor)
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- Subgenus Nannomys: Baoule's mouse (M. baoulei)
- Toad mouse (M. bufo)
- Callewaert's mouse (M. callewaerti)
- Gounda mouse (M. goundae)
- Hausa mouse (M. haussa)
- Desert pygmy mouse (M. indutus)
- Mahomet mouse (M. mahomet)
- Matthey's mouse (M. mattheyi)
- African pygmy mouse (M. minutoides)
- Temminck's mouse (M. musculoides)
- Neave's mouse (M. neavei)
- Free State pygmy mouse (M. orangiae)
- Oubangui mouse (M. oubanguii)
- Peters's mouse (M. setulosus)
- Setzer's pygmy mouse (M. setzeri)
- Thomas's pygmy mouse (M. sorella)
- Delicate mouse (M. tenellus)
- Gray-bellied pygmy mouse (M. triton)
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- Subgenus Pyromys: Ceylon spiny mouse (M. fernandoni)
- Phillips's mouse (M. phillipsi)
- Flat-haired mouse (M. platythrix)
- Rock-loving mouse (M. saxicola)
- Shortridge's mouse (M. shortridgei)
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- See also
- Aethomys–Chrotomys
- Colomys–Golunda
- Hadromys–Maxomys
- Oenomys–Pithecheir
- Pogonomys–Pseudomys
- Rattus
- Stenocephalomys–Xeromys
- Otomys
- Others
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