We are still doing research on 30 kind of ephemeral and perennialgramineous, bosk and wooded in our country. Nation`s enterprise in industries importing essential oils from abroad and they are using in product of medicine, food and beauty. Whole world`s most of them still researching and using widely Mentha L (Horsemint) plant in crop production and if we naturalize this Mentha L it will show result good result in plant raw material of nature and important to our economy as well.Key words: Mentha longifolia; Menth arvensis, Biological characterIntroductionEach year resource availability of raw material is proved to be not enough and it shows in research of resource in medical plant range and also what plant shows low resourceof raw material has to provide before the plant germinate or during fl owering stage in every year. Nowadays this plant is destroying and possibility of grow again is decreasing, because of the people who has interest in profi t they are taking away a lot of rhizome roots. The result of 100 scrip in Mongolian medicine shows that we supplied 43.75% of raw material in plants are from our fl ora and 56.25% is from other country. So it shows bad affect to our economy that still using other country`s resource and getting import from them. Then we have naturalize the plants in our weather conditions and try to detect innovative biological active ingredients and do research that has explained by modern science. Mongolian medicine need phytogenic of rareplants from other foreign country, so that`s why we are still doing research on how to naturalize plants in our country.Goal: How to plant Metha L. (Horsemint) in fi eld area that in order to determine the nature this plant and next try to know purpose under the following main objectives. There are:1. To recognize the naturalizing plant division2. To identify the qualifi cation of naturalizing plant division and do research ratio with anatomical result3. Get recognition of the importance in Metha L. (Horsemint)Materials and methodsThings that involved in research (blossom) take middle leaf and in order to prepare slice for anatomy research, cut the middle of leaf, get in foam plastic sponge and cut it, blue, paint it with sapphire, put it on the glass shelf make jelly and in order to prepare slice done with 8-10 frequency. According to traditional method with the help of “Enaval” microscope research leaf’s inside anatomy and textural fi nished (Гзырян,1981; Эзау 1980; В.К.Василевская,А.А.Бутник, 1981; Гамалей, 1984). The plants leaf that involved in research anatomy picturedwith the help of “PA-4”that camera.

Abstract Nowadays on par with the development of Western medicine, such issues as preserving veg- etation and ecological balance, supporting the expansion of the National Pharmaceutical Industry and “National Policy for the Development of Mongolian Traditional Medicine” are being actively discussed in Mongolia. Also, worldwide, the trend of using herbal medicine is growing².
Due to the continuous drought for many years, the desertification process in most parts of Mongolia was very intense, and as a result rare endangered plants are on the verge of extinction ^{3, 4, 6}. Therefore, there is the need to determine the amount of reserve, rationalize the use of medicinal plant, acclimate rare herbal plants, and create medicine from raw materials.
To resolve this matter, we prepared a methodological recommendation for the cultivation of Rheum undulatum L. With this method, it is possible to plant this kind of seed in the steppes of Mongolia and to use the medicinal raw materials from the roots of a 3-year-old plant.

Introduction: In recent years, some species of plants that are used in traditional medicine and have high practical value have been successfully introduced in our country. It is necessary to carry out phytochemical studies of local medicinal and useful plants to produce food and biologically active food supplements. The tall coin flower (Inula Helenium L.) has been successfully cultivated in Mongolia, and the lower layer of the plant such as roots and stems are used. However, most of the times the top layer of the plant is not used and thrown away, that is why the plant must be fully utilized. Therefore, the aim of this study is to analyze the top layer of the plant and present the results of anatomical studies. Methods: Remove the top layer of the plant and soak it in glycerin for 24 hours. When making an incision, select a green, undamaged part of the plant and place it in the VCM-202III freezer microtome. Chloral hydrate liquid should be used for micro-preparation. In addition to implementing chloral hydrate solution, use the solutions of various concentrations of sodium alkali (NaOH) (5- 15%). Place the slice in alcian blue stain (using the cell wall staining method) for 3 minutes and wash it with distilled water. Then stain it in a drop of safranin staining (0.5–1.0% aqueous solution) for 1 minute. Rinse it twice with distilled water, add a mixture of glycerin and distilled water, cover it with a glass slide and prepare a temporary slide. Examine the prepared temporary slide with a NOVEL light microscope. Cell images of the plant’s anatomical structures are captured on a computer screen with the help of a digital camera. Conclusion The anatomy of the leaves, stems and flowers of the tall coin flower (Inula Helenium L.), a plant cultivated in Mongolia, has been analyzed.

Introduction: Rhodiola rosea L. (R.rosea) is a popular plant in traditional medicine of the Nordic countries, Eastern Europe, and Asia. R.rosea plants are successfully cultivated in Mongolia. The Botanical Garden of Medicinal Plants under the “Monos” Group started to cultivate R. rosea since May 2015. Objective: The aim of this research was to study the salidroside contents of R.rosea collected from Zavkhan and Khuvsgul province, Mongolia, and cultivated in the Botanical Garden of Medicinal Plants, Drug research Institute, Monos group. Material and Methods: The underground parts of wild roseroot plants were collected from April to May 2020 from Jargalant soum, Khuvsgul province, and Nomrog soum, Zavkhan province, 3-years and 4-years-old cultivated R.rosea gathered from the Botanical Garden of Medicinal Plants in April 2020. For comparison, 4-year-old Rhodiola grenulata (R. grenulata) was ordered from Shanxi Zhendong Genuine Medicinal Materials Development Co., Ltd, China, and used for the study. The quantity of the salidroside constituents of the underground parts were compared and the sourcing of roseroot raw material was evaluated. Chemical analysis of roots and rhizome of R. Rosea namely the appearance, identification, moisture, organic impurities, mineral impurities, residue on ignition, water-soluble extractives, fresh weight of roots, and salidroside content were determined according to the National Pharmacopoeia of Mongolia (NPhM) 2011. Microbiological analysis was performed in accordance with the requirements of grade 3b specified in Annex 1 of the Order No. A / 219 of the Minister of Health dated May 30, 2017 to determine the degree of microbiological purity in medicinal products of roots and rhizome raw materials. Result: The content of salidroside, the main biologically active substance of R.rosea plant, was 1.57% in samples collected from Zavkhan province, 1.45% in samples collected from Khuvsgul province, 1.7% in samples grown in China and 0.25% for 3-years-old samples and 1.89% for 4-years-old samples grown in the Botanical Garden of Medicinal Plants, Monos group, Mongolia. In addition, these raw materials meet the general requirements for plant raw materials and microbiological parameters. Conclusion Samples of underground parts of R.rosea cultivated for 4 years in the Botanical Garden of Medicinal Plants have the highest content (1.89%) of the salidrosde. Therefore, it is suggested that the roots and rhizomes of R.rosea planted in the future can be standardized and used as a raw materials for medicines.

Background: The most common clinical manifestation of HCV infection, which includes both hepatic and extrahepatic manifestations, is mixed cryoglobulinemia, which is characterized by the precipitation of certain proteins in the blood at temperatures below 37°C (in vitro), aggregation, and deposition in the walls of small and medium-sized vessels, causing vasculitis, which is clinically manifested by a triad of joint pain, fatigue, and rash on the soles of the feet. Cryoglobulin emia is commonly diagnosed in people with HCV infection, with a prevalence ranging from 10% to 70%. Vasculitis that occurs when cryoglobulinemia is detected mainly affects the small vessels of the skin, kidneys, and peripheral nerves, causing complications in other organ systems. Aim : To determine the prevalence of cryoglobulinemia in people with HCV infection, study it in relation to the stage of liver fibrosis, and determine its clinical relevance. Materials and Methods : 200 chronic HCV infected individuals were included in the study according to the inclusion and exclusion criteria. After obtaining informed consent from each participant, a questionnaire was used to collect infor mation, perform physical measurements, and collect peripheral blood samples. Complete blood count and biochemical tests (liver and kidney function) were performed. The degree of liver fibrosis was assessed non-invasively (APRI, FIB 4). The glomerular filtration rate was calculated electronically using the MDRD GFR Equation. Skin examination was performed to assess the presence of rash, ulcers, and scarring on the shins and ankles of cryoglobulinemia. To determine cryoglobulinemia, 8 ml of blood was collected in a tube without anticoagulant, and the sample was kept motionless for 1 hour at room temperature until clotting was complete. After centrifugation, the samples were separated and stored in a refrigerator at +4°C for 7 days, and then at room temperature for 30 minutes, the precipitate was detected. Results : A total of 200 people participated in the study, of which 71 were men (35.5%), the average age was 53.39±13.0. Cryoglobulinemia protein precipitates were determined in a total of 148 people, of which 50 were men (33.8%), the average age was 52.95±13.0. Cryoglobulinemia protein precipitates were detected in 89 people, or 60.1% of the study participants. Of the total study participants, 176 (88.0%) had chronic hepatitis C (CHC). Of these, 57 people had CHC with cryoglobulinemia. Comparing laboratory parameters, the mean GGT level in the cryoglobulinemia group was sta tistically significantly higher than in the non-cryoglobulinemia group (p=0.039). However, when laboratory parameters were grouped by increasing or decreasing, AST and ALT levels were significantly higher in the cryoglobulinemia group, indicating more hepatocellular damage (p<0.000). Increased creatinine levels may be associated with the risk of renal dysfunction. The FIB-4 index and APRI index showed a more severe degree of fibrosis in the cryoglobulinemia group (p<0.005; p<0.000). Univariate logistic regression analysis showed that age was associated with the occurrence of cryo globulinemia (OR=2.48; 95% CI:1.31–4.70; p=0.005). Platelet count had a statistically significant positive effect in mul tivariate analysis (OR=14.38; 95% CI:1.26–163.89; p=0.032). Conclusion The prevalence of cryoglobulinemia among HCV-infected patients was 60.1%, and older age and decreased platelet count among infected individuals were associated with the occurrence of cryoglobulinemia.