Microsporum
Arthrodermataceae
Trichophyton
Tinea Capitis
Tinea
Onychomycosis
Ganoderma
Spores
Antifungal Agents
Phylogenetic classification and species identification of dermatophyte strains based on DNA sequences of nuclear ribosomal internal transcribed spacer 1 regions. (1/119)
The mutual phylogenetic relationships of dermatophytes of the genera Trichophyton, Microsporum, and Epidermophyton were demonstrated by using internal transcribed spacer 1 (ITS1) region ribosomal DNA sequences. Trichophyton spp. and Microsporum spp. form a cluster in the phylogenetic tree with Epidermophyton floccosum as an outgroup, and within this cluster, all Trichophyton spp. except Trichophyton terrestre form a nested cluster (100% bootstrap support). Members of dermatophytes in the cluster of Trichophyton spp. were classified into three groups with ITS1 homologies, with each of them being a monophyletic cluster (100% bootstrap support). The Arthroderma vanbreuseghemii-Arthroderma simii group consists of A. vanbreuseghemii, A. simii, Trichophyton mentagrophytes isolates from humans, T. mentagrophytes var. quinckeanum, Trichophyton tonsurans, and Trichophyton schoenleinii. Arthroderma benhamiae, T. mentagrophytes var. erinacei, and Trichophyton verrucosum are members of the Arthroderma benhamiae group. Trichophyton rubrum and Trichophyton violaceum form the T. rubrum group. This suggests that these "species" of dermatophytes have been overclassified. The ITS1 sequences of 11 clinical isolates were also determined to identify the species, and all strains were successfully identified by comparison of their base sequences with those in the ITS1 DNA sequence database. (+info)Antifungal susceptibility testing of dermatophytes: establishing a medium for inducing conidial growth and evaluation of susceptibility of clinical isolates. (2/119)
A standardized reference method for dermatophyte in vitro susceptibility testing is lacking. In a previous study, Norris et al. (H. A. Norris, B. E. Elewski, and M. A. Ghannoum, J. Am. Acad. Dermatol. 40(6, part 2):S9-S13) established the optimal medium and other growth variables. However, the earlier study did not address two issues: (i) selection of an optimal medium for conidial formation by dermatophytes and (ii) validation of the method with a large number of dermatophytes. The present study addresses these two points. To select which agar medium best supported conidial growth, representative isolates of dermatophytes were grown on different agars. Preliminary experiments showed that only oatmeal cereal agar supported the production of conidia by Trichophyton rubrum. We tested the abilities of 251 T. rubrum isolates to form conidia using three different cereal agars and potato dextrose agar. Overall, oatmeal cereal and rice agar media were comparable in their abilities to support T. rubrum conidial growth. Next, we used the oatmeal cereal agar for conidial formation along with the optimal conditions for dermatophyte susceptibility testing proposed by Norris et al. and determined the antifungal susceptibilities of 217 dermatophytes to fluconazole, griseofulvin, itraconazole, and terbinafine. Relative to the other agents tested, terbinafine possessed the highest antifungal activity against all of the dermatophytes. The mean +/- standard error of the mean MICs of fluconazole, itraconazole, terbinafine, and griseofulvin were 2.07 +/- 0.29, 0.13 +/- 0.01, 0.002 +/- 0.0003, and 0.71 +/- 0.05 microgram/ml, respectively. This study is the first step in the identification of optimal conditions that could be used for the standardization of the antifungal susceptibility testing method for dermatophytes. Inter- and intralaboratory agreement as well as clinical correlations need to be established. (+info)Purification and characterization of cAMP dependent protein kinase from Microsporum gypseum. (3/119)
A cyclic AMP dependent protein kinase (PKA), its regulatory (R) and catalytic (C) subunits were purified to homogeneity from soluble extract of Microsporum gypseum. Purified enzyme showed a final specific activity of 277.9 nmol phosphate transferred min(-1) mg protein(-1) with kemptide as substrate. The enzyme preparation showed two bands with molecular masses of 76 kDa and 45 kDa on sodium dodecyl polyacrylamide gel electrophoresis. The 76 kDa subunit was found to be the regulatory (R) subunit of PKA holoenzyme as determined by its immunoreactivity and the isoelectric point of this subunit was 3.98. The 45 kDa subunit was found to be the catalytic (C) subunit by its immunoreactivity and phosphotransferase activity. Gel filtration using Sepharose CL-6B revealed the molecular mass of PKA holoenzyme to be 240 kDa, compatible with its tetrameric structure, consisting of two regulatory subunits (76 kDa) and two catalytic subunits (45 kDa). The specificity of enzyme towards protein acceptors in decreasing order of phosphorylation was found to be kemptide, casein, syntide and histone IIs. Purified enzyme had apparent K(m) values of 71 microM and 25 microM for ATP and kemptide, respectively. Phosphorylation was strongly inhibited by mammalian PKA inhibitor (PKI) but not by inhibitors of other protein kinases. The PKA showed maximum activity at pH 7.0 and enzyme activity was inhibited in the presence of N-ethylmaleimide (NEM) which shows the involvement of sulfhydryl groups for the activity of PKA. PKA phosphorylated a number of endogenous proteins suggesting the multifunctional role of cAMP dependent protein kinase in M. gypseum. Further work is under progress to identify the natural substrates of this enzyme through which it may regulate the enzymes involved in phospholipid metabolism. (+info)New azasteroidal antifungal antibiotics from Geotrichum flavo-brunneum. III. Biological activity. (4/119)
The A25822 antibiotic complex consists of seven biologically active factors. A comparative study of these factors determined that factor B possessed the greatest antifungal activity. The minimal inhibitory concentration of A25822B against isolates of Candida albicans was less than 0.3 similar to 5.0 mug/ml, Trichophyton mentagrophytes was inhibited at less than 0.0312 mug/ml. Other pathogenic fungi such as Cryptococcus neoformans, Histoplasma capsulatum, Blastomyces dermatitidis, Sporotrichum schenckii, and Microsporium gypseum were very susceptible to A25822B. Only limited antibacterial activity of A25822B was found. Parenteral or oral administration of 50 mg/kg of A25822B significantly extended the average survival time of mice infected with C. albicans. Doses of 20 mg/kg of A25822B caused a greater than ten-fold reduction in the number of Candida cells recovered from kidneys of infected mice. A solution of 0.5% or 0.25% A25822B applied topically was effective against an experimental dermatophyte infection on guinea pigs. A peak blood level of 3 mug/ml was achieved in mice following a 100 mg/kg dose of A25822B. Combination of A25822B with a polyene antibiotic in vitro showed antagonism. (+info)Isolation of dermatophytes, Candida species and systemic fungi from dermatologic specimens in Montreal, 1963 to 1973. (5/119)
Of 10 057 specimens of scrapings from skin, nails and scalp examined for dermatophytes, yeasts, pityriasis versicolor and systemic mycoses between 1963 and 1973, 30.4 percent were positive for fungi. Skin produced the highest proportion (68.6 percent) of positive scrapings, scalp the lowest (4.2 percent). Trichophyton rubrum was the predominant species (23.6 percent); of lesser prevalence were Microsporum canis (9.3 percent), T. mentagrophytes (8.4 percent) and Epidermophyton floccosum (4.8 percent). Double infections were encountered on 102 occasions; T. rubrum and Candida parapsilosis were the most frequent cohabiting species. The introduction in 1966 of periodic acid-Schiff staining for routine examination of scrapings resulted in better diagnostic results, particularly in the case of culturally nonproductive specimens and cases of pityriasis versicolor. Blastomyces dermatitidis and Cryptococcus neoformans were isolated from two patients in the course of routine investigation for dermatophytes. (+info)Rapamycin (AY-22,989), a new antifungal antibiotic. I. Taxonomy of the producing streptomycete and isolation of the active principle. (6/119)
A streptomycete was isolated from an Easter Island soil sample and found to inhibit Candida albicans, Microsporum gypseum and Trichophyton granulosum. The antibiotic-producing microorganism was characterized and identified as Streptomyces hygroscopicus. The antifungal principle was extracted with organic solvent from the mycelium, isolated in crystalline form and named rapamycin. Rapamycin is mainly active against Candida albicans; minimum inhibitory concentration against ten strains ranged from 0.02 to 0.2 mug/ml. Its apparent activity against Microsporum gypseum and Trichophyton granulosum is lower because of its instability in culture media on prolonged incubation required by these fungi. No activity was observed against gram-positive and gram-negative bacteria. Acute toxicity in mice is low. (+info)Characterization of an extracellular keratinase from Microsporum canis. (7/119)
Extracellular keratinase (Ekase) 48-, 34- and 31.5-kDa polypeptides, which were isolated from Microsporum canis and examined by immunoblotting reacted with a monoclonal antibody against Ekase of M. canis. We analyzed the amino acid and determined the first 17 amino acid NH2-terminal sequences of the 48-, 34- and 31.5-kDa polypeptides. These polypeptides had a high aspartic acid, glycine and alanine content, respectively. The first 17 amino acid residues of the 34-kDa polypeptide were homologous to those of thermomycolin. This indicated that the 34-kDa polypeptide of Ekase is homologous to the thermomycolin produced by Malbranchea pulchella. Furthermore, Ekase was very heat-stable in the presence of 50 mM CaCl2 at 55 degrees C, since 50% of the initial activity remained. In contrast, no activity was detected after heating in the absence of CaCl2. These results indicate a close relationship between dermatophytes and M. pulchella. (+info)Ultrastructure of ascosporogenesis in Nannizzia gypsea. (8/119)
Ascosporogenesis in Nannizzia gypsea was studied by electron microscopy. Development of ascospores began with the formation of an ascus vesicle composed of two paired unit membranes. Myelin figures consisting of coiled or concentric membranes were regularly connected with the growing ascus vesicle. Both the ascus vesicle and the myelin figures possessed an electron-dense line between paired membranes, and both were stained by the periodic acid-silver methenamine technique. Invagination of the ascus vesicle about the haploid nuclei resulted in eight uninucleate prospores bounded by two concentric membranes. Spore wall material was deposited between the two membranes of the prospores, and deposition was greatest in areas of the wall overlying stacked elements of endoplasmic reticulum. A single myelin figure surrounded by a polysaccharide halo was observed in the spore. (+info)Microsporum is a genus of fungi belonging to the family Arthrodermataceae. These fungi are known to cause various types of tinea (ringworm) infections in humans and animals. They are characterized by their ability to produce large, thick-walled macroconidia that are typically round to oval in shape.
The most common species of Microsporum that infect humans include M. canis, M. audouinii, and M. gypsum. These fungi are often found in soil and on the skin or fur of animals such as cats, dogs, and cattle. They can cause a variety of skin infections, including tinea capitis (scalp ringworm), tinea corporis (body ringworm), and tinea unguium (nail ringworm).
Microsporum infections are typically treated with topical or oral antifungal medications. Prevention measures include good personal hygiene, avoiding contact with infected animals, and prompt treatment of any fungal infections.
Arthrodermataceae is a family of fungi that includes several medically important dermatophytes, which are fungi that can cause skin and nail infections known as tinea. Some notable genera within this family include:
1. Trichophyton: This genus contains several species that can cause various types of tinea infections, such as athlete's foot (tinea pedis), ringworm (tinea corporis), and jock itch (tinea cruris). Some species can also cause nail infections (tinea unguium or onychomycosis).
2. Microsporum: This genus includes some of the less common causes of tinea infections, such as tinea capitis (scalp ringworm) and tinea corporis.
3. Epidermophyton: This genus contains species that can cause tinea infections of the feet, hands, and nails.
These fungi primarily feed on keratin, a protein found in skin, hair, and nails, and typically invade dead or damaged tissue. Infections caused by Arthrodermataceae are usually treatable with antifungal medications, either topical or oral, depending on the severity and location of the infection.
Dermatomycoses are a group of fungal infections that affect the skin, hair, and nails. These infections are caused by various types of fungi, including dermatophytes, yeasts, and molds. Dermatophyte infections, also known as tinea, are the most common type of dermatomycoses and can affect different areas of the body, such as the scalp (tinea capitis), beard (tinea barbae), body (tinea corporis), feet (tinea pedis or athlete's foot), hands (tinea manuum), and nails (tinea unguium or onychomycosis). Yeast infections, such as those caused by Candida albicans, can lead to conditions like candidal intertrigo, vulvovaginitis, and balanitis. Mold infections are less common but can cause skin disorders like scalded skin syndrome and phaeohyphomycosis. Dermatomycoses are typically treated with topical or oral antifungal medications.
Trichophyton is a genus of fungi that are primarily responsible for causing various superficial and cutaneous infections in humans and animals. These infections, known as dermatophytoses or ringworm, typically involve the skin, hair, and nails. Some common examples of diseases caused by Trichophyton species include athlete's foot (T. rubrum), jock itch (T. mentagrophytes), and scalp ringworm (T. tonsurans).
The fungi in the Trichophyton genus are called keratinophilic, meaning they have a preference for keratin, a protein found in high concentrations in skin, hair, and nails. This characteristic allows them to thrive in these environments and cause infection. The specific species of Trichophyton involved in an infection will determine the clinical presentation and severity of the disease.
In summary, Trichophyton is a medical term referring to a group of fungi that can cause various skin, hair, and nail infections in humans and animals.
Tinea capitis is a dermatophyte infection, primarily affecting the scalp and hair. It is commonly known as "ringworm of the scalp." The term "ringworm" is a misnomer because it has nothing to do with worms; instead, it refers to the ring-like appearance of the rash caused by these fungi.
The infection is more prevalent in children than adults and can spread through direct contact with an infected person or animal (like pets), or via contaminated objects such as combs, brushes, hats, etc. The causative agents are typically mold-like fungi called dermatophytes, which belong to the genera Microsporum or Trichophyton.
Symptoms of tinea capitis include itchiness, scaling, hair loss (in patches), and the presence of black dots on the scalp where broken hairs remain. In some cases, inflammation and pustules may occur. Diagnosis is usually confirmed through microscopic examination of hair or scale samples, and sometimes by culture.
Treatment typically involves oral antifungal medications like griseofulvin, terbinafine, itraconazole, or fluconazole for several weeks to ensure complete eradication of the fungus. Topical antifungals are often used in conjunction with oral therapy. Good hygiene practices and avoiding sharing personal items can help prevent transmission.
'Epidermophyton' is a genus of fungi that can cause skin and nail infections in humans. These types of infections are known as dermatophytoses or ringworm infections. The most common species that infect humans is Epidermophyton floccosum, which tends to cause infections of the feet (athlete's foot), nails, and groin (jock itch).
Epidermophyton fungi thrive on keratin, a protein found in skin, hair, and nails. They invade the dead outer layers of the skin or nails, causing inflammation, itching, scaling, and other symptoms. The infections can be spread through direct contact with an infected person or contaminated objects like towels, shoes, or floors.
To diagnose an Epidermophyton infection, a healthcare professional may collect a sample from the affected area and examine it under a microscope for the presence of fungal elements. The diagnosis can also be confirmed through culture methods, where the sample is grown on specialized media to identify the specific fungal species.
Treatment for Epidermophyton infections typically involves topical or oral antifungal medications, depending on the severity and location of the infection. Preventive measures such as keeping the skin clean and dry, avoiding sharing personal items, and wearing breathable footwear can help reduce the risk of contracting and spreading these types of infections.
Tinea is a common fungal infection of the skin, also known as ringworm. It's called ringworm because of its characteristic red, circular, and often scaly rash with raised edges that can resemble a worm's shape. However, it has nothing to do with any kind of actual worm.
The fungi responsible for tinea infections belong to the genus Trichophyton, Microsporum, or Epidermophyton. These fungi thrive in warm, damp environments and can be contracted from infected people, animals, or contaminated soil. Common types of tinea infections include athlete's foot (tinea pedis), jock itch (tinea cruris), and ringworm of the scalp (tinea capitis).
Treatment for tinea typically involves antifungal medications, either topical or oral, depending on the location and severity of the infection. Proper hygiene and avoiding sharing personal items can help prevent the spread of this contagious condition.
Griseofulvin is an antifungal medication used to treat various fungal infections, including those affecting the skin, hair, and nails. It works by inhibiting the growth of fungi, particularly dermatophytes, which cause these infections. Griseofulvin can be obtained through a prescription and is available in oral (by mouth) and topical (on the skin) forms.
The primary mechanism of action for griseofulvin involves binding to tubulin, a protein necessary for fungal cell division. This interaction disrupts the formation of microtubules, which are crucial for the fungal cell's structural integrity and growth. As a result, the fungi cannot grow and multiply, allowing the infected tissue to heal and the infection to resolve.
Common side effects associated with griseofulvin use include gastrointestinal symptoms (e.g., nausea, vomiting, diarrhea), headache, dizziness, and skin rashes. It is essential to follow the prescribing physician's instructions carefully when taking griseofulvin, as improper usage may lead to reduced effectiveness or increased risk of side effects.
It is important to note that griseofulvin has limited use in modern medicine due to the development of newer and more effective antifungal agents. However, it remains a valuable option for specific fungal infections, particularly those resistant to other treatments.
Onychomycosis is a medical term that refers to a fungal infection in the nails (both fingernails and toenails). This condition occurs when fungi, usually dermatophytes, invade the nail bed and cause damage to the nail plate. It can lead to symptoms such as discoloration, thickening, crumbling, and separation of the nail from the nail bed. Onychomycosis can be challenging to treat and may require long-term antifungal therapy, either topical or oral, or even removal of the infected nail in severe cases.
Ganoderma is not a medical term but a genus of fungi that are commonly known as bracket or shelf mushrooms. Some species in this genus, particularly Ganoderma lucidum and Ganoderma tsugae, have been used in traditional medicine for centuries in Asia. These fungi are often referred to as "Lingzhi" in Chinese medicine and "Reishi" in Japanese medicine. They are believed to have various health benefits, such as boosting the immune system, reducing stress, and improving mental clarity. However, it's important to note that while some studies suggest these mushrooms may have medicinal properties, more research is needed before they can be recommended as a treatment for any specific medical condition.
In the context of medicine, spores are typically discussed in relation to certain types of infections and diseases caused by microorganisms such as bacteria or fungi. Spores are a dormant, resistant form of these microorganisms that can survive under harsh environmental conditions, such as extreme temperatures, lack of nutrients, and exposure to chemicals.
Spores can be highly resistant to heat, radiation, and disinfectants, making them difficult to eliminate from contaminated surfaces or medical equipment. When the conditions are favorable, spores can germinate and grow into mature microorganisms that can cause infection.
Some examples of medically relevant spores include those produced by Clostridioides difficile (C. diff), a bacterium that can cause severe diarrhea and colitis in hospitalized patients, and Aspergillus fumigatus, a fungus that can cause invasive pulmonary aspergillosis in immunocompromised individuals.
It's worth noting that spores are not unique to medical contexts and have broader relevance in fields such as botany, mycology, and biology.
Foot dermatoses refer to various skin conditions that affect the feet. These can include inflammatory conditions like eczema and psoriasis, infectious diseases such as athlete's foot (tinea pedis), fungal infections, bacterial infections, viral infections (like plantar warts caused by HPV), and autoimmune blistering disorders. Additionally, contact dermatitis from irritants or allergens can also affect the feet. Proper diagnosis is essential to determine the best course of treatment for each specific condition.
Antifungal agents are a type of medication used to treat and prevent fungal infections. These agents work by targeting and disrupting the growth of fungi, which include yeasts, molds, and other types of fungi that can cause illness in humans.
There are several different classes of antifungal agents, including:
1. Azoles: These agents work by inhibiting the synthesis of ergosterol, a key component of fungal cell membranes. Examples of azole antifungals include fluconazole, itraconazole, and voriconazole.
2. Echinocandins: These agents target the fungal cell wall, disrupting its synthesis and leading to fungal cell death. Examples of echinocandins include caspofungin, micafungin, and anidulafungin.
3. Polyenes: These agents bind to ergosterol in the fungal cell membrane, creating pores that lead to fungal cell death. Examples of polyene antifungals include amphotericin B and nystatin.
4. Allylamines: These agents inhibit squalene epoxidase, a key enzyme in ergosterol synthesis. Examples of allylamine antifungals include terbinafine and naftifine.
5. Griseofulvin: This agent disrupts fungal cell division by binding to tubulin, a protein involved in fungal cell mitosis.
Antifungal agents can be administered topically, orally, or intravenously, depending on the severity and location of the infection. It is important to use antifungal agents only as directed by a healthcare professional, as misuse or overuse can lead to resistance and make treatment more difficult.
"Cupressus" is a genus of evergreen trees that belong to the family Cupressaceae. This genus includes several species of cypress trees, which are native to different parts of the world. Some common examples of trees in this genus include the Mediterranean cypress (Cupressus sempervirens), the Arizona cypress (Cupressus arizonica), and the Monterey cypress (Cupressus macrocarpa). These trees are known for their tall, slender trunks and their small, scale-like leaves that are arranged in opposite pairs. They are often used as ornamental plants and for timber production.
Microsporum
Microsporum canis
Microsporum nanum
Microsporum gallinae
Microsporum audouinii
Microsporum fulvum
Diorygma microsporum
Ganoderma microsporum
Microsporum gypseum
Ganoderma microsporum immunomodulatory protein
Epicoccum
Arthothelium
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Cephalotrichum
Clavidisculum
Agaricomycetes
Anjali Roy
Chrysosporium keratinophilum
Nannizzia
Nannizzia incurvata
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Glossary of mycology
Viktor Litschauer
ATP deaminase
Ganoderma
Feline zoonosis
Dermatophytosis
Lorraine Friedman
Eurotium
Acarosporina microspora
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Trichophyton8
- Tinea refers to superficial infection with one of three fungal genera- Microsporum , Epidermophyton , and Trichophyton -collectively known as dermatophytes. (bmj.com)
- In vitro efficacy of shampoos containing miconazole, ketoconazole, climbazole or accelerated hydrogen peroxide against Microsporum canis and Trichophyton species. (viroxanimalhealth.com)
- The objective was to evaluate the antifungal efficacy of shampoo formulations of ketoconazole, miconazole or climbazole and accelerated hydrogen peroxide wash/rinse against Microsporum canis and Trichophyton species spores. (viroxanimalhealth.com)
- Trichophyton , Epidermophyton , and Microsporum [ 5 ]. (hindawi.com)
- Griseofulvin Oral Suspension, USP acts systemically to inhibit the growth of Trichophyton, Microsporum, and Epidermophyton genera of fungi. (nih.gov)
- Tinea corporis is usually caused by the fungus Trichophyton or Microsporum . (merckmanuals.com)
- Tinea capitis is caused by fungi of species of genera Trichophyton and Microsporum . (medscape.com)
- Human infections are caused by Epidermophyton , Microsporum , and Trichophyton species. (msdmanuals.com)
Gypseum2
- distortum Microsporum cookei Microsporum distortum Microsporum duboisii Microsporum equinum Microsporum ferrugineum Microsporum fulvum Microsporum gallinae Microsporum gypseum Microsporum langeronii Microsporum nanum Microsporum persicolor Microsporum praecox Microsporum ripariae Microsporum rivalieri "Synonymy: Microsporum Gruby, C. r. hebd. (wikipedia.org)
- Toutefois, la technique de piégeage sur cheveux appelée HBT (hair-baiting) a permis d'isoler Microsporum gypseum, Chrysosporium spp. (who.int)
Fungi2
- Microsporum is a genus of fungi that causes tinea capitis, tinea corporis, ringworm, and other dermatophytoses (fungal infections of the skin). (wikipedia.org)
- Ringworm fungi of the genus Microsporum (the most common genus in small animal ringworm cases) demonstrate a chemical reaction when they bind to hair shafts. (vin.com)
Audouini4
- Introduction The curative effect of griseofulvin in tinea capitis caused by Microsporum audouini has been established by the few reports which have been published. (jamanetwork.com)
- Blank and Roth 2 also included one patient with scalp infection caused by Microsporum audouini who was successfully treated with griseofulvin. (jamanetwork.com)
- HARRELL ER , BOCOBO FC , KINGERY F , MIEDLER L. Effect of Griseofulvin on Tinea Capitis Caused by Microsporum Audouini. (jamanetwork.com)
- Fusarium e. (1901) Microsporum audouini var. (nih.gov)
Fungal3
- Fungal culture was positive to Microsporum canisand skin biopsy revealed multifocal extensive fungal granuloma throughout necrotic fibrosis. (chula.ac.th)
- Microsporum canis is a skin fungal pathogen that causes dermatophytosis (ringworm) most commonly in cats and dogs. (warf.org)
- The World Association for Veterinary Dermatology has recently released their guidelines for the treatment of feline ringworm, most commonly caused by the infection of the outermost layer of skin with the fungal organism arthroderma otae (previously known as microsporum canis). (tica.org)
Infection4
- Kerion celsi is rarely associated with Microsporum audouinii infection. (unl.pt)
- [ 30 ] Procedures include direct microscopy, culture, and a Wood lamp examination showing fluorescence when Microsporum canis infection causes tinea barbae. (medscape.com)
- The Wisconsin Alumni Research Foundation (WARF) is seeking commercial partners interested in UW-8, a strongly fluorescent strain of Microsporum canis used for experimental infection studies in mammals. (warf.org)
- Development of an Experimental Model of Microsporum Canis Infection in Cats. (warf.org)
Species1
- The species Microsporum canis produces TINEA CAPITIS and tinea corporis, which usually are acquired from domestic cats and dogs. (bvsalud.org)
Fungus4
- The keratinolytic properties that Microsporum cookei possesses suggests that the fungus can alternatively be used for recycling the large amount of industrial keratinic waste. (wikipedia.org)
- 16. Physcion from marine-derived fungus Microsporum sp. (nih.gov)
- Another scalp fungus that is relatively common is microsporum canis, which can be transmitted by dogs and cats, but also by guinea pigs. (cosmedica.com)
- Tinea capitis and microsporum canis are examples of this type of fungus. (cosmedica.com)
Infections2
- There is controversy regarding what percentage of Microsporum infections will fluoresce. (vin.com)
- A commonly published statistic is that approximately 50 percent will fluoresce, but other information suggests that 100 percent of Microsporum infections will fluoresce at least at some point in their course. (vin.com)
Audouinii1
- Microsporum amazonicum Microsporum audouinii Microsporum boullardii Microsporum canis Microsporum canis var. (wikipedia.org)
Sabouraudites1
- Vanbreuseghem, R & Borgers, G 1951, ' A propos d'une souche de Sabouraudites (Microsporum) gypseus isolée au Congo belge ', Annales de la Société Belge de Médecine Tropicale , vol. 31, pp. 377-382. (itg.be)
Dermatophytosis1
- All cats were diagnosed with microsporum canis dermatophytosis and received at least 21 consecutive days of oral itraconazole and twice weekly lime sulfur rinses. (vin.com)
Hair1
- Culture from the lesional hair grew Microsporum canis. (medscape.com)
Forms1
- Microsporum forms both macroconidia (large asexual reproductive structures) and microconidia (smaller asexual reproductive structures) on short conidiophores. (wikipedia.org)
Disease1
- Approximately 1 month after surgery, the cat was vaccinated with inactivated vaccine against mycotic disease caused by Microsporum canistwo-week apart for two treatments. (chula.ac.th)