The increasing proportions of aged persons have been accompanied in the world. NCDs are often associated with older age groups. High blood glucose levels and unhealthy diet increase the risk of or cause most NCDs. In this study we aimed to determine correlation between the older people (60<) blood glucose level and food consumption. 1563 healthy elder people participated in this research. We measured blood glucose level in all subjects at the Nursing school’s Training and Research Center of health science university of Mongolia. Ulaanbaatar city, Orkhon aimag, Khovd aimag, Khentii aimag, Bulgan aimag, Dornogovi aimag, Tov aimags represented urban areas, while the rest of aimags and soums represented rural areas. The questionnaire was used to collect data on respondent’s social-economic status, fruit and vegetable consumption, physical activity, and their causes. In order to assess the diet pattern of the surveyed population, the respondents were asked about frequency of fruit and vegetable consumption, type of oil used in food, and amount of salt consumed daily. Simple regression analysis was performed to shown that significantly positive correlations between blood glucose and salt intake (р<0.001), The other composition are no significantly changes.

Determine the pituitary thyroid gland axis function abnormalities and relate it with serum lipid level.We enrolled 313 elderly people from UB and Orkhon aimag. Serum total TSH, T3, T4 hormones, low –density lipoprotein, high-density lipoprotein, total cholesterol and triglyceride level were defined by ELISA and fully automatic analyzer. All analyses were conducted with the use of SPSS 19.0, MS Excel 2007 program in which mean variables, One way Anova test and bivariate correlations are included.A total of 313 elder subjects, male 29.4%, female 70.6% and mean age was 71.8±9.8. Pituitary thyroid hormone abnormalities were detected mostly in females (p=0.027), thyroid hormone decrease was noticed in 70-79 age. In all groups serum triglyceride level as in normal range but it was significantly high (p=0.027) in hypothyroid group. Triglyceride level was negatively correlated with total T4 (p<0.01), positively correlated with T3 (p<0.01).Thyroid hormone decrease increases serum lipid especially triglyceride level. Furthermore it increases atherosclerosis risk factor to elderly people thus affects the quality of life.

Atherogenic dyslipidemia comprises a triad of increased blood concentrations of small, dense low density lipoprotein (LDL) particles, decreased high-density lipoprotein (HDL) particles, and increased triglycerides. A typical feature of obesity, the metabolic syndrome, atherogenic dyslipidemia has emerged as an important risk factor for cardiovascular disease. We have determined levels of serum lipid profiles in 1861 older people who lives 5 regions in Mongolia. The concentrations of total cholesterol, triglycerides and high density lipoprotein cholesterol (HDL-C) were measured using a biochemical reagents by biochemical fully automated analyzer. The levels of LDL-C were calculated by the Friedewald equation. Overall prevalence of dyslipidemia was 4.3% in men and 3.0% in women. Logistic regression showed that Odds ratio of the atherogenic dyslipidemia was OR=1.3, p=0.001 (CI 95% 0.93-2.47) for body mass index, OR=1.6, p=0.02 (CI 95% 1.0-2.88) for waist circumference, OR=1.76, p=0.03 (CI 95% 1.12-3.54) for waist hip ratio. Odds ratio of the atherogenic dyslipidemia was OR=0.98, p=0.001 (CI 95% 0.34-1.05) for gender and OR=1.0 p=0.001 (CI 95% 0.65-1.03) for age. Overall, 3.3% of older people had atherogenic dyslipidemia and 4.3% of men and 3.0% of women had atherogenic dyslipidemia. An increase of physical parameters are getting a risk factor of atherogenic dyslipidemia.

Background: Mongolia’s long-term development policy, Vision 2050, aims to ensure that every citizen has full access to primary health care services and to increase the country’s average life expectancy. According to the “Primary Health Care Service Quality and Accessibility Survey,” the diagnostic capacity of family health centers (FHCs) in Mongolia was 42.1%. There is a need to further identify issues related to laboratory human resources, equipment supply, quality assurance, and monitoring. Aim: To assess the current status of laboratory diagnostic services in family health centers in Ulaanbaatar city. Materials and Methods: The study collected data using a questionnaire developed based on resources such as the WHO’s Service Availability and Readiness Assessment (SARA), USAID’s Laboratory Assessment Tools, the Ministry of Health’s 2023 Order No. A/283 on updated guidelines for services provided by family, soum, and bagh health centers, and the national standard “Structure and Operation of Family Health Centers (MNS 5292:2017).” A total of 46 FHCs in Ulaanbaatar were randomly selected for the study. Results: The average population served by the participating FHCs was 10,228±4043, with 73.9% (n=34) serving over 8,000 people. On average, each center employed 5±2 physicians and nurses. A clinical pathologist was employed at 50.0% (n=23) of the centers, of which 26.1% (n=6) were full-time and 73.9% (n=17) were contract-based. Availability of laboratory equipment was as follows: Complete blood count (CBC) analyzers: 60.9% (n=28) Biochemistry analyzers: 50.0% (n=23) Urinalysis equipment: 97.8% (n=45) The availability of laboratory equipment was not significantly associated with the size of the population served (p=0.54; p=0.63; p=0.74). Among FHCs with laboratory equipment: 82.1% (n=23) performed CBC tests 87.0% (n=20) performed biochemistry tests 97.8% (n=44) conducted urinalysis tests. Participation in internal and external quality control programs was significantly higher among centers with specialized laboratory staff compared to those without (p=0.008; p=0.08). The number of tests and biochemistry parameters performed was also significantly higher in centers with specialized laboratory personnel (p=0.001, p=0.001). However, the availability and use of rapid diagnostic tests did not differ based on population size or the presence of specialized laboratory staff (p=0.8; p=0.6). Conclusion 1. In Ulaanbaatar, only half of the family health centers have specialized laboratory personnel. 2. Laboratory equipment availability was between 50.0% and 60.9%. Centers with specialized laboratory staff showed significantly better performance in internal and external quality control and broader diagnostic testing services. 3. Differences in diagnostic services were associated with both the population size served and the availability of specialized laboratory staff, indicating the need to strengthen primary health care accessibility and capacity.

Background: Asthma is a chronic inflammatory disease characterized by bronchoconstriction and breathing difficulties, which can be triggered by both allergic and non-allergic mechanisms. In allergic asthma, a hyperreactivity reaction occurs, leading to an increase in fractional exhaled nitric oxide (FeNO) levels. Therefore, FeNO is used to differentiate allergic and non-allergic types of asthma. In recent years, studies have been conducted to assess FeNO as an indicator of treatment effectiveness and symptom control. Our goal is to introduce FeNO measurement in Mongolia for the first time and utilize it for asthma diagnosis and treatment outcome evaluation. Aim: Study of FeNO levels in Asthma Diagnosis in Relation to Laboratory Findings and Lung Function Materials and Methods: This study included a total of 70 adult patients (18 years and older) with asthma who visited the Outpatient Clinic of Mongolia-Japan Hospital and Shargaljuut Spa Clinic from May to December 2024. Based on their allergic history, total IgE levels, and peripheral blood eosinophil count, participants were classified into allergic (>5%) and non-allergic (<5%) asthma. The study aimed to determine the diagnostic specificity and sensitivity of FeNO levels. Asthma control levels were assessed using the Asthma Control Test (ACT), lung function was evaluated using spirometry, and exercise capacity was measured with the 6-minute walk test. Results: In a single measurement, there were no differences between the allergic and non-allergic groups in parameters other than total IgE, peripheral blood eosinophil count, and FeNO levels. For diagnosing the allergic form of asthma, at a FeNO level of 25 ppb, sensitivity (Se) was 0.68, specificity (Sp) was 0.30 (p=0.008); at 40 ppb, Se was 0.77, Sp was 0.31 (p=0.001); and at 50 ppb, Se was 0.74, Sp was 0.33 (p=0.001). Lung function and exercise capacity were similar in both asthma groups. Conclusion The sensitivity of FeNO in distinguishing between allergic and non-allergic forms of asthma is 67-81%, and its sensitivity tends to increase as the FeNO level rises. By distinguishing the allergic type in which inhaled corticosteroids are more effective, the outcome of asthma treatment can be predicted in advance based on the FeNO level.

Background: Asthma management should be individualized, evidence-based, aimed at controlling clinical symptoms, preventing severe exacerbations, and improving quality of life. Studies have shown that inhalation therapy with iodine- bromide saltwater improves lung function in chronic obstructive pulmonary disease (COPD), while radon-containing mineral water inhalation reduces inflammation and oxidative stress in asthma. Several studies have analyzed the composition of the Shargaljuut hot spring, with Oyuntsesteg et al. identifying high levels of Na+-HCO3 - and Na+-SO4. Other studies on mineral water therapies have reported benefits such as thinning bronchial secretions, improving sputum clearance, reducing inflammation and acidity, mitigating oxidative stress, and enhancing quality of life. Aim: To study the effectiveness of combined asthma treatment with inhaled corticosteroids and hot spring inhalation. Materials and Methods: The study included 67 participants diagnosed with asthma who consented to participate and underwent 10 days of combined inhaled corticosteroid therapy and mineral water inhalation at Shargaljuut sanatorium. A total of 57 participants completed the pre- and post-treatment assessments. Treatment result was assessed using Asthma control questionnaire 7, asthma symptom control with Asthma Control Test (ACT), and exercise tolerance by a 6-minute walk test. Chest X-rays were taken for all participants to rule out pneumonia, cancer, or pulmonary fibrosis. Treatment outcomes were evaluated using ACT scores, peripheral blood eosinophil count, total IgE levels in serum, spirometry indices (FEV1, FVC, FEV1/FVC), and the 6-minute walk distance. Results: The average age of participants was 52±12 years, with a predominance of females. The mean asthma control score was 14.2±4.80, indicating poor asthma control. After 10 days of inhaling corticosteroids combined with hot spring inhalation post-treatment quality of life increased by 0.5 points, FEV1 improved by 7.5%, FVC by 4.2%, peripheral blood eosinophil count decreased by 0.3%, and total Ig E levels dropped from 73.3 (22.5; 216) to 73.2 (21.3; 223) u/ml (p=0.000). Conclusion In cases of uncontrolled asthma remission, combining of inhaled corticosteroid therapy with hot spring inhalation at Shargaljuut improved asthma symptoms, quality of life, enhanced lung function, and reduced inflammatory markers (p<0.001).