Search PubMed⌕ Search

SEARCH · Search PubMed

Results for “Turkmenistan”

Search indexed PubMed citations on genomics, clinical trials, systematic reviews and public health. Explore titles, authors and supplied subject terms, then open the PubMed record.

Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.

At least 19 recordsLinked to original sources

[Current malaria situation in Turkmenistan].

Malaria is one of the main health problems facing most developing countries having a hot climate. It is a problem in Turkmenistan. The country is situated in Central Asia, north of the Kopetdag mountains, between the Caspian Sea to the west and the Amu-Darya river to the east. Turkmenistan stretches for a distance of 1,100 km from west to east and 650 km from north to south. It borders Kazakhstan in the north, Uzbekistan in the east and north-east, Iran in the south, and Afghanistan in the south-east. Seven malaria vector species are found in Turkmenistan, the main ones being Anopheles superpictus, An. pulcherrimus, and An. martinius. The potentially endemic area consists of the floodplains of the Tejen and Murgab rivers, with a long chain of reservoirs built along them. In 1980 most cases of imported malaria were recorded in military personnel who had returned from service in Afghanistan. In the past years, only tertian (Plasmodium vivax) malaria has been recorded and there have been no death from malaria over that period. In the Serkhetabad (Gushgi) district there are currently 5 active foci of malaria infection, with a population of 22,000 people. In 1999, forty nine cases of P. vivax malaria were recorded in Turkmenistan. Of them, 36 cases, including 4 children under 14 years were diagnosed for the first time while 13 were relapses. There were 88 fewer cases than those in the previous year (by a factor of 2.8). There were 17 more cases of imported malaria than those in 1998 (by a factor of 1.7), most of which occurred in the foci of malaria infection (Serkhetabad, Tagtabazar, and Kerki districts), in the city of Ashkhabat and in Lebap, Dashkhovuz and Akhal Regions. The emergence of indigenous malaria in the border areas was due to the importation of the disease at intervals by infected mosquitoes flying in from neighbouring countries (e.g. Afghanistan), the lack of drugs to treat the first cases and the lack of alternative insecticides. Most patients suffer from tertian malaria, which is the most dangerous from the epidemiological point of view since the main vectors in Turkmenistan, are highly susceptible to P. vivax infection. The particular dangerous phenomenon is the higher incidence of imported tertian malaria in rural areas where sick people and those who carry the parasite come into close contact with highly susceptible vectors. Thus, the risk that new malaria outbreaks will occur and the disease will become reestablished in the country is very high. It is also influenced by major changes in water use in the country, which have aggravated the mosquito situation. In the area around the Karakum canal and river basins, 17 large reservoirs have been constructed, with very extensive filtration ponds around them, which have become breeding ground's for malaria mosquitoes. There are 1219 water areas without any economic significance in the country, covering a total area of 1054 ha, which require regular treatment with insecticides. With assistance from the WHO European Regional Office, Dr. Guido Sabatinelli in particular, Turkmenistan has developed a plan for preventive malaria control measures for 1999-2001, which has been approved in a decree issued by the Ministry of Health and Medical Industry. The material support received has made it possible to provide large-scale prophylaxis for people who suffered from malaria in 1997-1999, seasonal treatment for people living near the active foci of the disease and interseasonal prophylaxis for people visiting these areas. Seasonal treatment with Dellaguil was made in 4,590 people living in the active foci of malaria infection, and 2,281 fixed-term military personnel belonging to the units stationed in the active foci of malaria infection. In all foci of infection, every person with malaria or carrying the parasite underwent epidemiological investigation and all cases were entered in health clinic records. In 1999, four seminars were held to train 75 specialists from all administrative areas in ways of improving senior staff's skills in the laboratory diagnosis of malaria. The laboratory equipment which the country has received makes it possible to train high-level specialists and to equip its main malaria diagnosis centers with microscopes and reagents. The received insecticides and sprayers enable mosquitoes to be eliminated in an area of 960,000 sq. km (240 foci of infection): for this, our sincere thanks and gratitude are due to Dr. Guido Sabatinelli. Specialists teams have been created in each region by a decree of the Ministry of Health and Medical Industry to conduct mosquito elimination activities, with personal responsibility for their progress. Three-day vector control seminars have been held for disinfectors in all regions. We should stress that 5 extra posts have been created in the parasitology department of the Central Laboratory of Hygiene and Epidemiology, State Epidemiological Surveillance Service in order to strengthen preventive malaria control activities in Turkmenistan (organizational and methodological support for health facilities, staff training, etc.). To prevent the emergence of new breeding grounds for malaria vectors, the state system of health surveillance over the hygiene and technical status of water facilities and the rules governing their work have been reinforced. Local executive authorities do every effort to eliminate small, economically unprofitable water areas by draining, filling in or cleaning them. All existing and potential mosquito breeding grounds within a three-kilometer radius of any community were identified. These water areas were certified and their previous certifications analyzed, taking into account any changes and additional information which has become available about the area. Seasonal variations in the number of larvae and imagoes were monitored in the specimen areas of water and daytime resting sites. The existing vector species were identified and a list of the main species in all areas was prepared. Water areas were treated in accordance with epidemiological instructions. These activities yielded positive results: only 10 cases of locally transmitted malaria were recorded throughout the country in 1999. To interrupt the endemic process of malaria in Turkmenistan, the following plan for 1999-2001 has been adopted. To improve the equipment and material base of a sanitary and epidemiological surveillance service and malaria diagnosis laboratories (vehicles, sprayers, microscopes, chemical reagents, etc.). To continue effort to recruit staff to fill vacancies for parasitologists, entomologists, and parasitology laboratory physicians in the sanitary and epidemiological surveillance service at regional, subregional, and district level. In April 2000, two six-day seminars were held for epidemiologists, parasitologists, and entomologists, organized jointly with WHO representatives at the Central Laboratory for Hygiene and Epidemiology. Two seminars on the laboratory diagnosis of malaria for laboratory physicians were also intended to be held in April 2000. To continue to treat malaria patients and parasite carriers throughout the year to prevent relapses. To continue activities to eliminate mosquitoes, to monitor seasonal variations in the number of vector larvae and imagoes in the specimen areas of water and daytime resting sites mosquito habitats, to identify the existing vector species, and to prepare a list of main species in all areas. To strengthen preventive health monitoring. To provide effective support of health care service by the state border guard service of Turkmenistan by supplying drugs for curative and preventive treatment of its staff. To provide the quantities of insecticides required for mosquito elimination and support staff training. To improve malaria control activities by reporting all cases of malaria promptly, conducting a high-quality epidemiological investigation of every case and a prompt laboratory diagnosis, and providing the parasitology departments of sanitary and epidemiological surveillance service at all levels with all-terrain vehicles, microscopes, and effective communication systems which they require. We are very happy to be cooperating with WHO and grateful for the help it has provided.

Humans↗

Cataract blindness in Turkmenistan: results of a national survey.

AIM: To present results of a rapid assessment of cataract in Turkmenistan. METHODS: 6120 eligible people of 50 years and older were selected by systematic random sampling from the whole of Turkmenistan. A total of 6011 people were examined (coverage 98.2%). RESULTS: Cataract is the major cause of bilateral blindness (54%), followed by glaucoma (25%). The age and sex adjusted prevalence of bilateral cataract blindness (VA <3/60) in people of 50 years and older was 0.6% (95% CI: 0.4 to 0.9), with a cataract surgical coverage of 75% (people). For VA <6/60 the prevalence was 2.6% (95% CI: 2.1 to 3.2) in people aged 50 and above, approximately 0.26% of the total population. In this last group the surgical coverage was 44% (people) and 32% (eyes). Of the patients operated with IOL implantation 8.2% could not see 6/60, 44.8% of those operated without IOL could not see 6/60. The main barrier to cataract surgery was indifference ("old age, no need for surgery"), followed by "waiting for maturity." CONCLUSION: To increase the cataract surgical coverage in Turkmenistan the intake criteria should be lowered to VA <6/60 or less. At the same time the visual outcome of surgery can be improved by expanding the number of IOL surgeries and routine monitoring of cataract outcome. Additional investments will be required to provide all eye surgeons with appropriate equipment and skills for IOL surgery.

Blindness↗

[High prevalence and diversity of blood parasites of passerine birds in Southern Turkmenistan].

Thirty nine specimens of passerine birds belonging to 19 species and eight families were investigated by blood smear technique in four localities of Southern Turkmenistan in 3-18 August 1991. The overall prevalence of infection was 59%. Protists from the orders Haemosporida (genera Haemoproteus, Plasmodium, Leucocytozoon), Kinetoplastida (Trypanosoma), and Adeleida (Hepatozoon), as well as Microfilaria were found. Haemoproteids (the prevalence of infection is 44%), leucocytozoids (23%), malarial parasites (13%) and trypanosomes (13%) were most frequently recorded. Only low chronic infections (< 1% of infected cells for the great majority of intracellular parasites, and a few trypanosomes and Microfilaria in each blood smear) were seen. Haemoproteus belopolskyi, H. balmorali, H. dolniki, H. magnus, H. minutus, H. fringillae, H. majoris, Leucocytozoon dubreuili, and Trypanosoma avium were recorded for the first time in Turkmenistan. The former five above-mentioned species of haemoproteids are new records for the fauna of Middle Asia. Gametocytes of leucocytozoids in fusiform host cells were found for the first time in passerine birds in the Holarctic. The host is Parus bokharensis. Due to the wide distribution and the opportunity to collect a large parasitological material using harmless for hosts methods, bird haemosporidian parasites can be used as convenient models for ecological and evolutionary biology studies in South Turkmenistan. The heavily infected Orphean Warbler Sylvia hortensis is an especially convenient host for such purposes.

Animals↗

[Evidence for the transmission of the causative agent of visceral leishmaniasis by the sandfly Phlebotomus (Adlerius) turanicus Artemiev, 1974 in Turkmenistan].

Four sandfly [correction of mosquito] species were identified in all foci of visceral leishmaniasis (VL) in Turkmenistan. There is evidence that three of them (Phlebotomus papatasi, P. caucasicus, P. andrejevi) cannot be carriers of VL agent in Turkmenistan. The carrier of Leishmania infantum in Turkmenistan is likely to be the zooanthropophilic sandfly [correction of mosquito] P. turanicus that prevails in the settlements and their vicinities in the desert foothill plains and in the burrows of foxes. The time of the carrier activity is May to September, and its peak size is observed in mid-July. In September, the promastigote infection of P. turanicus is as high as 47.5%. The carrier size may vary with years, the infection of children and dogs ceased with the reduction in the P. turanicus size. There are evidence for the distribution of the carrier in the populated locality, dwelling and natural biotopes.

Animals↗

[The epidemic situation with malaria in Turkmenistan].

As a result of comprehensive research on the causative agents and vectors of malaria and wide use of synthetic antimalarials and highly effective residual insecticides, endemic malaria was eliminated in Turkmenistan by 1960. During the period 1965-1980, 23 local cases of malaria were recorded in Turkmenistan. These local cases were confined to the regions of Mary and Akhal, on the borders of neighbouring countries. In 1998 the epidemiological situation in the country worsened and local transmission of infection resumed. During the year the number of cases recorded was 137:134 being a first diagnosis of the disease and three being relapsed cases. In comparison with 1997, the previous year, incidence was up by 123 cases (a 9.7-fold increase), while the incidence of imported cases of malaria went up by 11 (a 2.2-fold increase), principally in Dashkhovuz and Lebar regions, being brought in from malaria foci in Gushgin district, Turkey, Azerbaijan and Tadjikistan. Local transmission of malaria went up by 111 cases (a 27.7 fold increase); 108 cases were recorded in Gushgin district, Mary region. The first case of malaria in Gushkin district was detected in June 1998. At that time there were five active foci. The approximate number of inhabitants in the active focus area was 10,000. The appearance of local malaria in border districts was caused by the periodic influx of infected mosquitos from neighbouring countries (Afghanistan).

Animals↗

[Clinical features of narrow-angle glaucoma in the native residents of Turkmenistan].

The author analyzes the specific clinical features of narrow-angle glaucoma in the native residents of Turkmenistan and in the residents of a european origin. He has found some specific anatomic and functional features that may be considered as factors predisposing to the development of narrow-angle glaucoma in Turkmenistan natives.

Adult↗

[The isoenzyme identification of Leishmania isolates taken from greater gerbils, sandflies and human patients in foci of zoonotic cutaneous leishmaniasis in Turkmenistan].

In 1991-1992, 230 isolates were obtained in the Tedzhen oasis and its adjacent desert areas: 172 isolates from great gerbils, 39 from P. papatasi, and 19 from human cutaneous leishmaniasis patients. All the isolates were identified by the isoenzyme polyacrylamide gel electrophoresis by 8 enzymes. The characteristics of Leishmania circulation in the hyperendemic foci of Turkmenistan were similar to those previously studied in the mesoendemic areas of Uzbekistan and Kazakhstan. L. turanica which is non-pathogenic for man prevailed among infected great gerbils in winter, spring, and early summer, making the natural foci epidemiologically safe in that period of time. It was only in August-September that the great gerbil infection rate by L. major appeared to increase, occasionally reaching 100%. Epizootics due to L. major are developing in the presence of L. turanica, therefore most isolates are clone mixtures of L. major and L. turanica. P. papatasi is the only vector in the Tedzhen oasis; there has been strong evidence for its transmission of both L. major and L. turanica, which makes the concept inconsistent that P. papatasi is associated only with L. major. The overall analysis of recent findings of the distribution of L. major in the populations of great gerbils makes it possible to limit the former endemic zoonotic cutaneous leishmaniasis areas to 40 degrees N latitude and the southern borders of Turkmenistan and Uzbekistan. Within this area, the distribution of L. major is uneven and associated basically with rivers, valleys, oases, and foothill desert plains.

Animals↗

[Serological and molecular-biological study of T-cell leukemia virus in Turkmenistan].

Seroepidemiological and molecular-biological screening of 1510 donor blood samples, collected from the residents of the town of Ashgabat (Turkmenistan), for lymphotropic virus of human T-cellular leukemia (HTLV) virus revealed one donor with a high level of immune response to a wide spectrum of viral proteins. Three donors were serologically assessed as dubious, for their sera contained antibodies to gag gene protein but no antibodies to env gene protein. Screening of family members of the donor infected with HTLV-1 revealed four more highly reactive carriers of HTLV-1 virus. The presence of proviral sequences of HTLV-1 in the lymphocyte DNA of infected donor and her relatives was confirmed by polymerase chain reaction and subsequent Southern-blot hybridization of specific amplification products. Proviral sequences of gag, pol, and LTR genes were detected in all the cases. Short-term culturing of peripheral blood lymphocytes of all seropositive subjects was associated with expression of HTLV-1 structural proteins. Analysis of the possible routes of transmission of HTLV-1 isolated in Turkmenistan permits us to hypothesize an Iranian origin of the isolated virus strain.

Adolescent↗

Opium use in Turkmenistan: a historical perspective.

This paper presents a picture of how the patterns of opium use have changed in Turkmenistan over more than 100 years and the relationship between these transformations and formal and informal social controls of drug use. From the late 18th century, when opium use began to become a social problem, informal control weakened. Eventually, in the late 19th century, formal control was introduced, aimed at the prohibition of drug trade and use. From that time, the intended and unintended outcomes of implemented policies led to changes in the demographic patterns of users and the social-medical consequences of opiate use. The anti-drug policies, where criminal prohibition coexisted with strategies aimed at raising the population's general living standards and at providing free access to health care, were effective up to the early 1980s. New political and social-economic realities in the 1980-90s have radically changed the drug scene in the country, with heroin trade and use as the main concerns. The government's reaction, while following the old paths, has included new elements, based mainly on ideas of national consolidation.

Drug and Narcotic Control↗

Use of business planning methods to monitor global health budgets in Turkmenistan.

After undergoing many changes, the financing of health care in countries of the former Soviet Union is now showing signs of maturing. Soon after the political transition in these countries, the development of insurance systems and fee-for-service payment systems dominated the discussions on health reform. At present there is increasing emphasis on case mix adjusted payments in larger hospitals and on global budgets in smaller district hospitals. The problem is that such systems are often mistrusted for not providing sufficient financial control. At the same time, unless further planned restructuring is introduced, payment systems cannot on their own induce the fundamental change required in the health care system. As described in this article, in Tejen etrap (district), Turkmenistan, prospective business plans, which link planned objectives and activities with financial allocations, provide a framework for setting and monitoring budget expenditure. Plans can be linked to the overall objectives of the restructuring system and can be used to ensure sound financial management. The process of business planning, which calls for a major change in the way health facilities examine their activities, can be used as a vehicle to increase awareness of management issues. It also provides a way of satisfying the requirement for a rigorous, bottom-up planning of financial resources.

Budgets↗

[Epidemiologic features of cryptosporidiosis in Turkmenistan].

AIM: To study epidemiological characteristics of cryptosporidosis (CS) in conditions of arid climate which contributes to suppression of the immune status of the organism. MATERIAL AND METHODS: 1935 patients were treated for acute intestinal infection with watery diarrhea in Ashkhabad hospital in 1994-1999. Monocryptosporidiosis was diagnosed in 511 of them. Also, 46 mothers of CS children and 32 foci of the infection were examined. Cryptosporidial oocysts in the feces were detected by the Fulleborn's method. The preparations were stained by Ziehl-Neelsen. RESULTS: CS incidence in Turkmenistan was high, especially in children aged 2 to 7 years and adults aged 31-35 and 46-50 years. CS occurs throughout the year, but the morbidity is higher in summer and winter. The leading route of transmission is alimentary, it prevails over contact, watery and perinatal.

Adult↗

[Differences in virulence genes in Vibrio cholerae eltor strains isolated from different sources in Turkmenistan territory].

Polymerase chain reaction (PCR) detected the presence of various genes associated with virulence in genome of strains V. cholerae eltor isolated in Turkmenistan territory during epidemic and epidemic-free perios. It was found that a complete set of virulence genes (ctxA+, tcpA+ and toxR+) contained strains isolated from patients, carriers and environment only in cholera epidemics. Strains isolated from the environment in the period free of epidemics did not contain ctxA and tcpA in 78.2% of cases, but 5.2% of the strains carried a complete set of virulence genes. There were also nontoxigenic strains containing genes tcpA and toxR. Such strains were isolated from the environment (16.6%) and vibrion carriers (42.9%). Isolated were also strains V.cholerae eltor carrying bacteriophage CTX phi with incomplete set of virulence genes and having genotype ctxA-, ace+ and zot+. Almost all the strains ctxA-, tcpA+ carry attRS1-site in genome. This shows that such strains may transform into toxigenic as a result of infection with bacteriophage CTX phi.

Bacterial Proteins↗

[The detection of the causative agent of cryptosporidiosis in man and animals in Turkmenistan].

The oocystic infestation of Cryptosporidia in patients with acute intestinal infections was first registered in Turkmenistan. It was 15.8%, highly affecting children of the first two years of life. The monoinfection is characterized by common severe and critical forms (in 60%) with marked symptoms of diarrhea. Cases of hemocolitis were detected. A large source of Cryptosporidium infection was found among 8 animal species under study (chickens, ducks, pigeons, canary birds, sheep, cattle, pigs, dogs).

Adolescent↗

[Clinical and laboratory characteristics of cryptosporidiosis in Turkmenistan].

AIM: The study of clinical symptoms of gastrointestinal lesions in subjects invaded with cryptosporidia. MATERIALS AND METHODS: From 1994 to 1997 383 patients with monocryptosporidiasis were observed. 75.7% of them were children. Cryptosporidia oocysts were identified in fecalia using Fulleborn technique. The specimens were stained according to Cill-Nilsson. RESULTS: Clinically, the invasion was characterized by acute onset, severe course in children, involvement of the whole gastrointestinal and respiratory tracts. CONCLUSION: Monocryptosporidiasis runs in Turkmenistan a more severe course compared to countries with moderately hot climate.

Adult↗