Sunday, January 14, 2018

Processing And Cultivation Of Watermelon Without Seeds

Jiangsu Agri-animal Husbandry Vocational College
   (新罗马字体二号)

Landscape and horticulture department


Horticultural Products Storage Processing
(新罗马字体一号加粗)

     paper title(论 文 题) : Processing And Cultivation Of  Watermelon Without Seeds
     Name(姓名) : CITRA HELDA ANGGIA
     Class(班级)  : 17 exchange student
     Student ID(学号)          :  -
     Teacher(任课教师)        : JIANG
                 




ABSTRACT

The cultivation of watermelon without seeds i.e. 4n penyilangan between results with 2n crossed be triploid, that produces triploid watermelon fruits without seeds, The cultivation of watermelon has a technology that must be followed from the processing of basic fertilizer, the granting of land, nursery, pemulsaan, planting, pruning, roping, gift of fertilizer following, control pests and disease as well as harvesting, prices from Watermelon without seeds more expensive 5-fold so that the benefits of processing higher and more easily from a watermelon with seeds product produced Ale, chewy gum, jelly, carbonated juice, watermelon mosse, spickle, watermelon rind, watermelon punch, kids water melon sandwich cookies, body scrub, watermelon yougurt, extract from watermelon for treatment of mouth ulcer.
 Keyword, watermelon without seed, product, price













INTRODUCTION

Background
Watermelon contains plants horticulture and commodities from the family Cucurbitaceae (gourd-labuan). Watermelon is one of the popular fruit and has a fairly high economic value. Watermelon is favored by people of indonesia because it tastes sweet, crispy and its water content, can made cake and juice.
Watermelon (Citrullus vulgaris plants. Scard) is a plant originating from the African continent in desert Scorpion today. Its spread to India, China and the United States conducted by the sailors of the merchant. Watermelon fruit has the attraction of the fruit is fresh and sweet. The water content reaches 92%, carbohydrates 7% and the rest is a vitamin. The dry season crops include watermelons, but lately with technology growing, watermelon can be planted anytime. In order to grow well and quickly, watermelon plants requires a dry, hot climate and enough water (Mulyanto, 2012)
According to Hai, wet climates will cause stunted growth, susceptible to the disease, as well as production and fruit quality will decrease. The development of cultivation technology of watermelon in the area Sub-more advanced than tropical regions (tropics). New types of good, the diploid hybrids (watermelon seed-bearing) and triploid (not watermelon seed-bearing), has been widely developed by the quality of the fruit and the results are much better than the tropical watermelon
There are dozens of varieties of watermelon cultivated, but only some of the interest of the petaniataukonsumen. In Indonesia the matching cultivated varieties are divided into two groups, the Local Watermelon (Watermelon black from Pasuruan, Watermelon and watermelon Sengkaling Stone Bojonegoro) and watermelon Hybrid Import (from cruciferous undue hybridisation results) that have its own advantages. The watermelons are classified according to the pure seed of his home country (Samadi, b. 1996)
Watermelon cultivation in Indonesia is still limited to meet the domestic market. Whereas open vast opportunities that the watermelon can be exported to a foreign country, because natural conditions Indonesia indeed more beneficial than the natural condition of the State's other producers in international markets. World market demand will reach 1,506,000 tons of watermelons. Until recently Indonesia got the watermelon export opportunities is quite large i.e. 1,144 tonnes per year (Rukmana, r. 1994).

Purpose
knowing the watermelon cultivation in indonesia
knowing the processing of watermelon in indonesia














A REVIEW OF THE LITERATURE

2.1 Watermelon Without Seeds
Watermelon without seeds or seedless watermelon is commonly called is F-1 hybrid watermelon too. But the elder or parent respectively derived from the tetraploid watermelon by female elders elder male diploid watermelon. Therefore it is also called watermelon watermelon tetraploid hybrids.
Seeding technique of seedless watermelon was discovered by Prof. Dr. Hitoshi Kihara. To obtain a tetraploid elders had to go through the multiple of the number of chromosomes in the scientific term is often referred to as mutation duplication. From the intersection of tetraploid watermelon with diploid triploid watermelon obtained this would be (seedless watermelon) who has the power of low vitality. If the air temperature is low (less than 290 C), then the power kecambahnya would be slow. Therefore, the triploid watermelon seed germination requires temperatures high enough so that the perkecambahannya can be assured.
The growth of young plants initially weak, even sometimes is not normal, but further plants will grow stronger. Power sprouts average triploid watermelon seeds is between 27.5 – 85% cotyledon shape smaller than the diploid watermelon. Triploid watermelon plant actually have males and females flowers are complete, but would the seeds and stringy her Sari was barren, then the seed will not be formed. Nevertheless, the seeds of which are white or brown sometimes still encountered. The formation of the empty Brown seeds are usually caused due to excess nutrient fertilization dose phospor (P205).

2.2.1. The classification of Watermelon
Plant a watermelon (Citrullus vulgaris) is a plant that originated in Africa. This plant started about 4000 years cultivated BC so it is not surprising that the watermelon fruit consumption has spread to all parts of the world. Watermelon fruit labulabuan family (Cucurbitaceae) and has about 750 types (syukur, 2009).
This plant is a climbing annuals whose life and have a anekaragam kind of like watermelon red, yellow watermelon, watermelon seeds and watermelon non seed.


Image 2.1. watermelon without seeds

According to Rukmana (1994), the scientific classification of watermelon is as follows:
Kingdom : Plantae
Division  : Magnoliophyta
Class     : Plant Taxonomy
Order     : Plant Taxonomy
Family    : Cucurbitaceae
Genus     : Citrullus
Species    : Citrullus vulgaris
Watermelon is a year, is spread, the stem is small and its length can reach 5 m. The stem is covered with delicate feathers long sharp and white. The stem has a forked tendrils 2 – 3 pieces, so the climb. Watermelon plants have flowers, Flowers hermaphrodite and female standing apart, yet still in a tree. The number of male flowers are usually a lot more than other flowers. The fruit is round to oval (oval). The skin of the fruit is green or yellow, white or green blurik. The flesh of the fruit is tender, juicy and sweet. The colors red or yellow fruit flesh (Syukur, 2009).

2.2.2. Stadia or phase of plant growth
According to Endang Dwi Purbajanti (2013), the growth is the increase in plant material, a process that changes the total raw materials chemically and add them in the plants. Plant growth occurs at the microscopic level when cells enlarges and divides so the development of plant parts that can be seen. From an understanding of plant growth on top, it can be concluded that the understanding of plant growth is a process of adding size, increased the number of cells and increased the number of leaves that will not return again in its original form. The growth of the plant consists of two phases, namely the phases of vegetative and generative phase.
In the vegetative growth phase requires a temperature around 25 degrees Celsius. On the temperature of the plant watermelons would grow fast and strong so it will be obtained plants that berbatang strong and large leaf size. Plants with strong physical condition and backed up with good maintenance will produce a high quality fruit.
After that on a generative phase, especially on cooking the fruit, watermelon plants requires daily temperatures around 30 degrees Celsius for the formation of sugar on the flesh of the fruit. If during this period the temperature condition is too low, the sugar levels in the meat of the fruit would also be low and harvesting age longer. Watermelon fruit produced in hot and dry conditions have sugar levels around 11%. Cold conditions otherwise on the sugar levels reaching only 8% (BAPPENAS, 2005).

2.3 Watermelon Cultivation
In the watermelon fruit, the plant has had a growth of terms i.e. having a climate with high rainfall 40-50 mm/ideal months because precipitation is too high may result in ill will toward plant growth, i.e., susceptible to pests disease, designate the fruit fall and long vegetative growth. The whole area of pertanaman watermelon need sunlight since rising to sink. Lack of sunlight causes the onset of decline of harvest time. Watermelon plants will be able to grow and bear fruit with optimal temperature 25OC (during the day). The ideal temperature is bagipertumbuhan plant watermelon is the average daily temperatures ranging 20 – 30 mm. Humidity tends to be low when sunlight illuminates the area of cultivation, mean the poor dry air moist air. These conditions are suitable for the growth of the plant a watermelon, because watermelon plant origins living in a desert environment with dry. On the contrary, too high humidity will encourage the growth of fungi plant destroyer (Doring, et al. 2006)
Soil conditions are suitable to plant watermelon is a pretty loose soil, rich in organic matter, not acidic soils and soils/fields that have been dried. Soil acidity (pH) required between 6-6.7. If the pH is 5.5 < (acidic soil) then held liming with doses adapted to the level of acidity of the soil. Land suitable for crops watermelon is porous soil (the nest) so easy to dispose of excess water, but the land is too easy to throw away less water is good for growing watermelons. Sedangkanuntuk the height of an ideal place for watermelon cultivation acreage is: 100-300 m above sea level. In fact the watermelon can be planted in the area near the coast has an altitude below 100 m above sea level and above the hills with heights of over 300 m above sea level (Sarpian, 2003).
2.4 Postharvest Handling and Packaging:
  Sugar content does not change after harvest, but flavor may be improved due to loss in acidity of slightly immature melons. Fruit can get over-ripe fairly quickly if not cooled. However, watermelon color will continue to improve for up to 7 days after harvesting if kept at temperatures of 18°-22 °C , but it will actually fade (get lighter) if kept at temperatures of below 12 °C for long periods of time. It is important to note that once harvested the sugar content or sweetness will not improve. Chilling injury will occur after several days below 5°C. The resulting pits in the rind will be invaded by decay-causing organisms. Moisture content and pH of the injured watermelon were higher than those of normal watermelon. However, color tone (Lab), hardness, soluble solid, and total amino acid and sugar contents of the injured fruit were lower than those of normal fruit.
Watermelons exposed to various concentrations of ethylene (C2H4) for 3 or 7 days of storage at 18oC deteriorated rapidly.  Exposure to C2H4 reduced the rind thickness and firmness of melons.  Almost all of the melons exposed to 30 or 60 µl/liter ethylene for 7 days were unacceptable for consumption.
Less than 50 % of the melons exposed to any concentration of ethylene were acceptable for consumption.
Watermelons, particularly early in the season, are sometimes shipped in mixed loads with other produce or they may be stored in central warehouses near products that may emit C2H4.Watermelons are usually harvested at their peak maturity and flavor, generally will not improve with storage. An increase in C2H4 production is associated with the respiratory peak and with the end of senescence after harvest.
Watermelons are detrimentally affected by ethylene and should not be held with cantaloupes, honeydews or other mixed melons. The whole fruit may become spongy and the internal pulp may become mealy and breakdown if exposed to low concentrations (>0.5 ppm) of ethylene.
  Principal Postharvest Diseases: Postharvest diseases are important sources of postharvest loss in watermelon production. This loss depends on cultural practices adopted during production and also the local climatic conditions at harvest. Disease pressure is greater in areas with high rainfall and humidity during production and harvest. A number of pathogens may cause postharvest decay of watermelon.
The primary defense against the occurrence of decay is the exclusion of diseased fruit from the marketing chain through careful selection at harvest and appropriate fruit grading before shipment. Holding fruits at 10°C will slow down the rate of disease development, compared to ambient temperature storage. There are no postharvest fungicide treatments for watermelon. Common fungal diseases that cause rind decay after harvest include black rot (Didymella sp.), anthracnose (,Colletotrichum sp.), Phytophthora (Phytophthora sp.) fruit rot, Fusarium, and stem-end rot (Lasiodiplodia theobromae). The most common postharvest bacterial disease is soft rot.
















METHODOLOGI

Stages Of The Cultivation Of Watermelon Without Seeds
3.3.1 Nursery
According to Wihardjo s. (1993) in doing the cultivation of watermelon fruit tamanam surely should know the stages in cultivation are employed comprised, among others, seeding. A good watermelon seed is not form wrinkles, not float if soaked. Before the seeds are sown, the watermelon is cut (for semangkan Seedless) in advance using nail clippers, to ease the process of growth. The next seed soaked in warm water temperatures of 20-25 ° C plus fungicide and bactericide concentration by 2 ml/l. after 10-30 minutes, was soaked and drained until the water no longer flows. Then the seeds are ready germination.
Watermelon seeds, sown before diperam in advance. How is seed that has been dikeringanginkan placed on the cloth, and then folded. Enter the parcel into cans or jars covered with sand and wet newspaper. To provide a warm atmosphere, the cans were given a 15 watt incandescent lighting, at a distance of 5-10 cm at the top of the bundle. Curing is done during 24-48 hours. Each 4-6 hours need to control humidity. If dry conditions, immediately spray the water using a hand sprayer. The seed that has been diperam, inserted into the little polybags (size 12 x 12 cm) that already contains a media plant that is a mixture of soil and manure (1:1). The depth of the planting hole 1.5 cm. When it is planted, the hole covered with finely ground mixed grey husk (2:1). Then the polybags polybags gunny sack closed during the 2-3 day (Samadi, 1996).
Polybags-polybags given hood (canopies) similar transparent plastic mini greenhouse and one side open. Farmers are also equipped with shade paranet. The young seedlings were given a ray of morning sun only, maximum until 09.00. Three days before planting, farmers must be opened, so that the seedlings get full sun. Watering is done regularly to maintain the humidity. Fertilizing is done using fertilizer leaves, to spur the development of seeds, mixed with fungicides, performed a routine 3 days. After seedlings aged 12-14 days and 2-3 strands, leafy has been moved to the acreage plantings that have been processed.

3.3.2 Tillage
Watermelon plants require water so that the dike wall contained in the soil flows out through the drainage channels are created. Cultivation technique of wide dike wall hanging was used. For planting system turus (marker), the width of the dike wall is 100-110 m; system without turus with 1 row crop wide dike wall, 200 cm; system without turus (marker) with 2 rows of plants, width 400 cm Long dike wall dike wall 12-15 m, maximum height 30-50 dike wall cm, width cm. 30-50 trench Then the granting of basic fertilizer for watermelon without seeds, fertiliser needs per plant are 85 g ZA, 50 g of urea, 30 g SP-36, 85 g and 2 g KCl Borate. As for watermelon seed-bearing fertilizer needs, per plant is 80 g 40 g urea, ZA, 30 g SP-36, 70 g and 2 g KCl Borate (Prajnanta, 1996).
Dike wall needs to be been weeded, watered and covered with dry straw as thick as 2-3 cm plastic mulch or plastic 110-150 cm in width in order to inhibit the evaporation of water and grow wild. Plastic usage is more profitable because it is more durable, to 812 month on open area (2-3 times the period of planting). Silver colored plastic will reflect sunlight thereby reducing pests that hide under the leaves of plants.

3.3.3 Planting
Turus system for planting, planting distance used is 80 x 70 cm with a population of 8,000 plants/ha. For planting system without turus, with 1 row and 2 rows of crops, the distance in the 70 cm with a population of 3.5004.000 plants/ha. Then the preparation pelubangan of land plants is performed 1 week before the nursery moved. The distance between the holes is adapted to trunks. If land use plastic mulch, then needed a tool from the paint cans were given 1 kg size holes adapted to the soil conditions dike wall given aperture.
The cans were given a charcoal which is then burned. After the charcoal into the embers, the tool is ready for use. Then do pelubangan on land with soil depth 8-10 cm. Seeds watermelon seed was made after 14 days and have grown leaf 2-3 sheets and before seeds are planted, done soaking in water that contains NPK fertilizer solution 2 g/l, as Starter Solution. Laluuntuk planting sequence is as follows, the plastic bag removed carefully so that the root is not damaged; the seeds are inserted into the hole which has been prepared; hole covered with soil that has been prepared; the last hole is smothered in water agar medium seed blend with soil (Sarpian, 2003).

3.3.4 Plant Maintenance
According to Rukmana (1994), watermelon plants aged 3-5 days to note. When plants grow too slow or dead plants new seed stitching is done with that has been prepared but the stitching is not to do more than 10 days after planting. On the activities of the stitching is, it should be noted the cause of death of seedlings. When caused by bacteria or fungi, seeds should be dismantled along with their land, so as not to rub off to other healthy seedlings. Selainitu the presence of weeds around the plants may inhibit plant growth, even reduce production in addition of weeds can also be used as a host for pests and disease so that needs to be done routinely weeding.
If the soil contains less borak, along the basic fertilizer given borak 5 Kg per Ha for Fertilizer aftershock ditugalkan. 10 – 15 Cm from the trunk. Administering liquid fertilizer SEPRINT than 10 CC dissolved in 5 l water and spray on 2 – 3 weeks after transplanting and repeated 7 days until 15 days before the harvestOn the cultivation of watermelon can do PHP to produce mulch treatment of watermelon without seeds.
 The benefits of mulching PHP as the name implies, mulch PHP consists of two layers of color, on the top of the silver-coloured danbagian bottom black. installation of mulch should not reverse because if the installation is reversed then the influence of the mulch will be different. The benefits of using PHP is mulch stimulates root development, maintain the structure of the temperature and soil moisture, prevent soil erosion, suppress the growth of weeds, reduces the evaporation of water and fertilizers, improving the process of photosynthesis, and suppress the development of pest and disease.

3.3.5 harvest and post harvest
According to Sarpian (2003), determine the time of harvesting can be via three ways i.e. visual observation of pengamatn sound when the fruit diketuk, and age of the plant. Visually, the watermelon fruit ready harvest is characterized by the bright fruit skin color, the shape of the fruit of the vine, and contains a round behind the fruit stalk has changed color to dark brown. The color of the fruit into the light because of the layer of wax that envelop the skin of the fruit is gone. The voice of the fruit can be used as a sign of the level of the age of the fruit. The sound of this fruit appears after fruit diketuk. When a loud, fruit is still young. Conversely, if a bit heavy and a little flutter, the fruit is ripe or aged.
Varieties of plants and height affect the age of harvesting crops. At an altitude of between 700-900 m above sea level, the watermelon can be harvested at the age of 90-100 days after planting. While the low-lying fruit can be harvested at the age of 85 days. How to harvest watermelon fruit is to cut tangaki fruit. After the cut, the fruit can be removed and placed directly into the basket. Picking the fruit should preferably be made at the time the weather is sunny and not cloudy so the surface of the skin of the fruit in dry conditions, so hold for in the penyimpananan (Sarpian, 2003).
Then enter in the post-harvest phase where fruit crops through some selection process before the fruit at sell kepasaran due to the mixed fruit in the fruit can lower the value of the fruits of this process is called sorting later. Watermelon fruit storage process last on the level of large traders (while waiting for a better price) is done as follows: storage at low temperature of around 4 ° C, and humidity between 80-85%; Controlled atmosphere storage on (a way of setting the levels of O2 and CO2 levels) assuming oxygen or increase the levels of carbon dioxide (CO2), can reduce the process of respiration (Rukmana, 1994).

3.2 Processing Techniques:
Kids Watermelon Sandwich Cookies
Kids will love them!
Ingredients
12 (3-inch) blueberry pancakes, cooled to room temperature
1/2 cup white frosting
6 (2/3-inch thick and 3-inch round) seedless watermelon slices, drained to remove excess moisture
Instructions
Evenly frost the bottoms of each pancake with the white frosting. Arrange six of the pancakes, frosting side up on a serving platter. Place a slice of watermelon on each of the frosted pancakes on the platter. Top each with the remaining pancakes, frosting side down. Serve immediately or cover and refrigerate until ready to serve. Serves 6.

Watermelon Banana Split
A Healthy Twist to an Old Favorite
Ingredients
2 bananas
1 medium watermelon
1 cup fresh blueberries
1 cup diced fresh pineapple
1 cup sliced fresh strawberries
1/4 cup caramel fruit dip
1/4 cup honey roasted almonds
Instructions
Peel bananas and cut in half lengthwise then cut each piece in half. For each serving, lay 2 banana pieces against sides of shallow dish. Using an ice cream scooper, place three watermelon “scoops” in between each banana in each dish. Remove seeds if necessary. Top each watermelon “scoop” with a different fruit topping. Drizzle caramel fruit dip over all. Sprinkle with almonds. Makes 4 servings.
Watermelon Dippers
This Fresh Dip with a Hint of Sweetness Makes a Treat Kids Will Love
Ingredients
8 ounces sour cream
4 tablespoons sugar
1 teaspoon vanilla extract
Watermelon stix or small wedges
Instructions
Blend together the sour cream, sugar and vanilla in a small serving bowl. Use as a dip for the watermelon
RESULT AND PRODUCT
4.1 types of product watermelon
   
Image 2.2. Ale                               Image 2.3. chewy gum

   
Image 2.4. jelly                           image 2.5 carbonated juice

 
           
image 2.6 watermelon mousse              image 2.7 spickle
 
Image 2.8. watermelon rind                Image 2.9. watermelon punch

         
Image 2.9. Kids Watermelon Sandwich Cookies  image 2.10. Body scrub

 
Image 2.11 watermelon yougurt       Image 2.12 Extract from watermelon for treatment of mouth ulcer

4.2 difference in watermelon prices

Watermelon with seed (Rp. 4.500/kg) or 4.5 RMB/jin


Watermelon without seeds (Rp. 22.500/kg) or 22.5 RMB/jin










COVER

Conclution
The cultivation of watermelon has a technology that must be followed from the processing of basic fertilizer, the granting of land, nursery, pemulsaan, planting, pruning, roping, gift of fertilizer following, control pests and disease as well as harvesting should be SOP and the GAP because watermelon is in need of intentensif in cultivation.
The cultivation of watermelon without seeds i.e. 4n cross between results with 2n crossed be triploid, that produces triploid watermelon fruits without seeds
The price of watermelon without seeds more expensive 5-fold so that the benefits of processing higher and more easily from a watermelon with seeds














BIBLIOGRAPHY
Bappenas.2005. Budidaya pertanian semangka (Citrullus vulgaris).Jakarta. Penebar Swadaya.

Budi, Samadi.1996. Semangka Tanpa Biji. Yogyakarta: Kanisius.

Doring T., U. Heimbach, T. Thieme, M. Finckch, H. Saucke. 2006. Aspectof straw mulching inorganic  potatoes-I, effectson microclimate,Phytophtora infestans, and Rhizoctonia solani. Nachrichtenbl. Deut.Pflanzenschutzd. 58 (3):73-78.

Duljapar, K, dan R. N. Setyowati. 2000. Petunjuk Bertanam SemangkaSistem Turus. Jakarta. Penebar Swadaya.

Endang Dwi Purbajanti. 2013. Rumput dan Legum Sebagai Hijauan Makanan Ternak. Yogyakarta. Penerbit Graha Ilmu

Kemal, Prihatman. 2000. Semangka (Citrullus vulgaris). Jakarta: Media Unika
Prajnanta, F. 1999. Kiat sukses bertanam semangka berbiji.Jakarta. PenebarSwadaya.

Prajnanta, F. 1996. Agribisnis SemangkaNon-biji.Jakarta. Penebar Swadaya.        
Purseglove, 1968. Tropical Crops Dicotyledones. London. Longman Green and Co Ltd.

Rukmana, R. 1994. Budidaya Semangka Hibrida. Yogyakarta: Kanisius.

Samadi, B. 1996. Semangka Tanpa Biji. Yogyakarta: Kanisius

Sarpian, T. 2003. Pedoman Berkebun dan Analisis Usaha Tani. Yogyakarta: kanisius

file:///G:/semangka/BUDIDAYA%20SEMANGKA%20TANPA%20BIJI%20_%20foragri.h

Syukur, M., S. Sujiprihati, dan R. Yunianti. 2009. Teknik pemuliaan           tanaman. Bagian Genetika dan Pemuliaan Tanaman. Bogor. Departemen            Agronomi dan Hotikultura IPB. 284 hal.
Umboh, Andry Harits. 1999. Petunjuk Penggunaan Mulsa. Jakarta:             Penebar Swadaya.

Monday, January 8, 2018

Perawatan dan pemeliharaan alat/mesin/traktor

Perawatan dan Pemeliharaan
Alat/Mesin/Traktor
  A. Perawatan Dan Pemeliharaan

A. Tujuan Umum

Tujuan Umum Pemeliharaan/Perawatan ad :
 Mempertahankan kondisi alat/mesin  sebaik baiknya selama dipergunakan untuk mempertahankan umur pemakaian.
Menjaga agar tidak terjadi kerusakan- 2 besar maka bila kerusakan-kerusakan kecil harus segera ditemukan dan diperbaiki.
B. Tujuan Khusus

Tujuan khusus pemeliharaan & perawatan adalah :
Pemeriksaan dan perawatan rutin berkala
akan membantu dalam mengantisipasi
kerusakan yang lebihjauh lagi (fatal)
Mengurangi down time unit
Efektivitas kerja unit dan target kerja
Perawatan dan pemeliharaan
Perawatan harian
Perawatan rutin berkala ( based on HM )
Perbaikan ringan Overhaul ( based on HM )
     Catatan :  HM  = Hour Machine
1. Perawatan harian

Pemeriksaan dan perawatan harian meliputi :
 Pemeriksaan seluruh level oli sebelum mesin
    dihidupkan
 Pemeriksaan air battery beserta kabel kabelnya
Pemeriksaan air radiator
Pemeriksaan rem
Pemeriksaan kopling ( jarak pedal)
Pemeriksaan sistem listrik dan lampu
Pemeriksaan ketegangan tali kipas
Pemeriksaan tekanan angin ban Pemeriksaan seluruh baut-2 terutama baut roda
Pemeriksaan fungsi sistem hydrolik
Pemeriksaan kebocoran-2 oli
Pada awal menghidupkan mesin, sebaiknya pada RPM rendah.
Pembersihan air cleaner sebaiknya dilakukan setiap hari Pengisian BBM sebaiknya dilakukan pada sore hari untuk menghindari ruang kosong dalam tangki bahan bakar
Pembersihan unit setelah selesai beroperasi sebaiknya dilakukan setiap hari jika memungkinkan .

2.perawatan titin berkala
Perawatan berkala didasarkan pada jam kerja mesin (HM), biasanya mengikuti rekomendasi dari pihak pembuat unit (faprikan)
Pelaksanaan bisa dilakukan sendiri atau dengan pihak lain (vendor)
Kegiatan meliputi :
Pemeriksaan rutin kondisi unit/mesin
Penggantian pelumas
Penggantian suku cadang

3. Servis Kerusakan / Perbaikan Ringan
 Dilakukan bila terjadi kerusakan insidental
 Dilakukan sendiri atau dengan pihak lain
 Penggantian suku cadang :
 Sistem penyediaan barang
 Sistem pengeluaran barang

Penyediaan Suku cadang
Disesuaikan dengan budget
Diatur berdasarkan kebutuhan
Harus ada batas minimal stok
Diatur per satuan waktu
Faktor jarak (antara kebun dengan supplyer)
Proses penyediaan barang.

4. Overhaul
Dilakukan jika telah mencapai jadwal (waktu) pelaksanaan overhaul / faktor umur unit Terjadi kerusakan parah yang
mengakibatkan harus dilakukan

Pelumasan
Fungsi pelumasan :
Memberi pelumas pada bagian bgaian yang bergerak/ bergesek Menjadi bantalan antara dua metal yang  bergerak/ bergesekkan Sebagai pendingin, karena panas diserap oli dan didinginkan di ruang carter Sebagai seal untuk mencegah kebocoran kompresi ke ruang carter

Tanpa pelumasan : gesekan kuat, keausan lebih cepat dan tenaga yang digunakan untuk bergerak  lebih besar
Dengan pelumasan : tidak terjadi gesekan atau kontak langsung antara benda A dan B, keausan dapat dicegah dan tenaga yang dibutuhkan untuk kerja sedikit

Kekentalan oil
SAE (Society Automotive Engineers), mengklasifikasikan oli berdasarkan kekentalannya
Semakin besar nilainya, maka oli semakin kental, contoh :
Oli SAE 10 untuk oli hidrolik
Oli SAE 30 untuk oli mesin
Oli SAE 40 untuk oli mesin yang  agak tua
Oli SAE 90 untuk oli transmisi
Oli SAE 140 untuk oli gardan

Penggunaan pelumasan
Keteledoran dalam pemeriksaan  dan penggantian oli, serta pemakaian oli yang rendah mutunya akan mengakibatkan kerusakan yang fatal
Hal yang harus diperhatikan dalam pelumasan :
Gunakan oli bermutu dan jangan berganti-ganti merek
Pemeriksaan oli sebelum operasi
Penggantian oli yang tepat waktu
Rekomendasi pabrik pembuat mesin

Sistem pendingin
Tujuan untuk mencegah suhu yang sangat tinggi, sehingga dapat merusak bagian bagian mesin.
Beberapa macam sistem pendinginan :
Sistem pendinginan udara.
Sistem pendinginan air.
Sistem hopper (tanki)
Sistem radiator






Saturday, January 6, 2018

Tanaman obat (medichinal plant)


Name   : Citra Helda Anggia
Progam study : Production horticulture

Platycladus

Image 1. Platycladus orientalis

Classification
Kingdom:Plantae
Division:Pinophyta
Class:Pinopsida
Order:Pinales
Family:Cupressaceae
Genus:Platycladus Spach
Species Platycladus orientalis



Description Morphological
It is a small, slow-growing tree, to 15–20 m tall and 0.5 m trunk diameter (exceptionally to 30 m tall and 2 m diameter in very old trees). The foliage forms in flat sprays with scale-like leaves 2–4 mm long. The cones are 15–25 mm long, green ripening brown in about eight months from pollination, and have 6–12 thick scales arranged in opposite pairs. The seeds are 4–6 mm long, with no wing.

Benefit
It is used as an ornamental tree, both in its homeland, where it is associated with long life and vitality, and very widely elsewhere in temperate climates. Several cultivars have been selected, of which 'Aurea nana'[9] and 'Elegantissima'[10] have gained the Royal Horticultural Society's Award of Garden Merit.
The wood is used in Buddhist temples both for (lavairos) construction work, and chipped, for incense burning

Eriobotrya japonica (loquat)

Image 2. Eriobotrya japonica



Classification
Kingdom:Plantae
Clade:Angiosperms
Clade:Eudicots
Clade:Rosids
Order:Rosales
Family:Rosaceae
Genus:Eriobotrya
Species:Eriobotrya japonica

Description Morphological
Eriobotrya japonica is a large evergreen shrub or small tree, with a rounded crown, short trunk and woolly new twigs. The tree can grow to 5–10 metres (16–33 ft) tall, but is often smaller, about 3–4 metres (10–13 ft). The fruit begins to ripen during Spring to Summer depending on the temperature on the area. The leaves are alternate, simple, 10–25 centimetres (4–10 in) long, dark green, tough and leathery in texture, with a serrated margin, and densely velvety-hairy below with thick yellow-brown pubescence; the young leaves are also densely pubescent above, but this soon rubs off.
Loquats are unusual among fruit trees in that the flowers appear in the autumn or early winter, and the fruits are ripe at any time from early spring to early summer. The flowers are 2 cm (1 in) in diameter, white, with five petals, and produced in stiff panicles of three to ten flowers. The flowers have a sweet, heady aroma that can be smelled from a distance.
Loquat fruits, growing in clusters, are oval, rounded or pear-shaped, 3–5 centimetres (1–2 in) long, with a smooth or downy, yellow or orange, sometimes red-blushed skin. The succulent, tangy flesh is white, yellow or orange and sweet to subacid or acid, depending on the cultivar.
Each fruit contains from one to ten ovules, with three to five being most common. A variable number of the ovules mature into large brown seeds (with different numbers of seeds appearing in each fruit on the same tree, usually between one and four). The skin, though thin, can be peeled off manually if the fruit is ripe. In Egypt, varieties with sweeter fruits and fewer seeds are often grafted on inferior quality specimens.
The fruits are the sweetest when soft and orange. The flavour is a mixture of peach, citrus and mild mango.

Benefit
The loquat has a high sugar, acid, and pectin content. It is eaten as a fresh fruit and mixes well with other fruits in fresh fruit salads or fruit cups. The fruits are also commonly used to make jam, jelly, and chutney, and are often served poached in light syrup. Firm, slightly immature fruits are best for making pies or tarts.
The fruit is sometimes canned. The waste ratio, however, is 30 percent or more, due to the seed size. The fruit is also processed into confections.

Isatis tinctoria

Image 3. Isatis tinctoria


Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
(unranked):Rosids
Order:Brassicales
Family:Brassicaceae
Genus:Isatis
Species Isatis tinctoria L.

Description Morphological
Song Lan,or Isatis tinctoria:biennial herb.Root hypertrophy,nearly conical,deep taproot diameter 2-3cm, long 20-30cm, sallow skin or khaki,with short stripes and a few fibrous roots.Stems erect,40 to 90 cm high, smooth is Creme. Leaves alternate;basal leaves large, petiolate,oblong-elliptic leaf; stem leaves oblong to oblong-oblanceolate,in the lower part of the leaf is large,gradually becoming a smaller,3.5 to 11 cm long,0.5 to 3 cm wide,apex obtuse,base arrow, semiamplexicaul,entire or serrulate obvious.Wide racemes:Flowers small, 3 to 4 mm in diameter, no bracts, pedicels slender; calyx 4,green; petals 4, yellow ,obovate; stamens 6,4 strong; pistil 1, oblong.
Short pod nearly oblong,flat, glabrous,margin membranous wings,especially the ends of the wide-winged fruit flap with the veins. Seeds 1,oblong, light brown.Flowering from April to May,fruiting from May to June. The herb Isatis tinctoria very adaptable to climate and soil conditions,resistant to cold,prefer warm,but the fear of water damage, can grow widely at the majority of China's Yangtze River and the northern region. Distributed in provinces incliding Gansu,Shaanxi,Jiangsu,Zhejiang, Anhui, Guizhou and other places,often cultivated.



Benefical medichine
Woad has rather a mixed press for its medicinal virtues. One author says it is so astringent that it is not fit to be used internally - it is only used externally as a plaster applied to the region of the spleen and as an ointment for ulcers, inflammation and to staunch bleeding. However, it is widely used internally in Chinese herbal medicine where high doses are often employed in order to maintain high levels of active ingredients. The leaves are antibacterial, anticancer, antiviral, astringent and febrifuge.
It controls a wide range of pathogenic organisms, including viruses. It is used internally in the treatment of a wide range of disorders, including meningitis, encephalitis, mumps, influenza, erysipelas, heat rash etc. The leaves are harvested in the summer and can be used fresh or dried. They are also macerated and the blue pigment extracted. This is also used medicinally, particularly in the treatment of high fevers and convulsions in children, coughing of blood and as a detoxifier in infections such as mumps. The root is antibacterial and anticancer. It is used in the treatment of fevers, pyogenic inflammation in influenza and meningitis, macula in acute infectious diseases, erysipelas, mumps and epidemic parotitis. Its antibacterial action is effective against Bacillus subtilis, haemolytic streptococcus,, C. diphtheriae, E. coli, Bacillus typhi, B. paratyphi, Shigella dysenteriae, S. flexneri and Salmonella enteritidis. Both the leaves and the roots are used in the treatment of pneumonia. The root and the whole plant have anticancer properties whilst extracts of the plant have shown bactericidal properties.








Artemisia argyi

Image 4. Artemisia argyi

Classification
Kingdom:Plantae
Clade:Angiosperms
Clade:Eudicots
Clade:Asterids
Order:Asterales
Family:Asteraceae
Genus:Artemisia
Species:Artemisia argyi

Description Morphological
Artemisia argyi is an upright, greyish, herbaceous perennial about one metre tall, with short branches and a creeping rhizome. The stalked leaves are ovate, deeply divided and covered in small, oil-producing glands, pubescent above and densely white tomentose below.
 The lower leaves are about six centimetres long, bipinnate with wide lanceolate lobes and short teeth along the margins. The upper leaves are smaller and three-partite, and the bracteal leaves are simple, linear and lanceolate.
 The inflorescence is a narrow leafy panicle. The individual flowers are pale yellow, tubular, and clustered in spherical turned-down heads. The central flowers are bisexual while the marginal flowers are female. The petals are narrow and folded cylindrically and the bracts have a cobwebby pubescence. The whole plant is strongly aromatic.

Benefical medichine
Wormwood leaves are gathered on a warm dry day in spring and summer when the plant is in flower and dried in the shade. In traditional Chinese medicine, they are considered to have bitter, pungent and warm properties and to be associated with the liver, spleen and kidney meridians. The leaves are used as an antiseptic, expectorant, febrifuge and styptic. The herb is considered to increase the blood supply to the pelvic region and stimulate menstruation, help treat infertility, dysmenorrhea, asthma and coughs.
 Another use is in moxibustion, a form of healing in which the herb is burned in cones or sticks or on the tip of an acupuncture needle. Boiling water can be poured onto the ground up leaves and used in a decoction, alone or with other substances, and the fresh leaf can be crushed and blended and a juice extracted. A volatile oil can be extracted from the leaves and used in the treatment of asthma and bronchitis for which purpose it is sprayed onto the back of the throat and brings rapid relief. The leaves have an antibacterial action and have been shown to be effective against Staphylococcus aureus, Bacillus dysenteriae, Bacillus subtilis, Bacillus typhi, Escherichia coli and Pseudomonas.








Perilla frutescens

Image 5. Perilla frutescens

Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
(unranked):Asterids
Order:Lamiales
Family:Lamiaceae
Genus:Perilla
Species Perilla frutescens

Description Morphological
Perilla is an annual plant growing 60–90 centimetres (24–35 in) tall, with hairy square stalks. The leaves are opposite, 7–12 centimetres (2.8–4.7 in) long and 5–8 centimetres (2.0–3.1 in) wide, with an broad oval shape, pointy ends, serrated(saw-toothed) margins, and long leafstalks. The leaves are green with occasional touches of purple on the underside.
The flowers bloom on racemes at the end of branches and the main stalk in August and September. The calyx, 3–4 millimetres (0.12–0.16 in) long, consist of upper three sepals and the hairy lower two. The corolla is 4–5 millimetres (0.16–0.20 in) long with its lower lip longer than the upper. Two of the four stamens are long.
The fruit is a schizocarp, 2 millimetres (0.079 in) in diameter, and with reticulate pattern on the outside. Perilla seeds can be soft or hard, being white, grey, brown, and dark brown in colour and globular in shape. 1000 seeds weigh about 4 grams (0.14 oz).  Perilla seeds contain about 38-45% lipid.

Benefical medichine
Perilla is used in traditional medicine as an infusion for respiratory and gastrointestinal complaints and was investigated in clinical trials for the treatment of various cancers

Ilex cornuta

Image 6. Ilex cornuta




Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
(unranked):Asterids
Order:Aquifoliales
Family:Aquifoliaceae
Genus:Ilex
Species Ilex cornuta

Description Morphological
Ilex cornuta, commonly known as Chinese holly or horned holly, is a slow-growing, densely foliaged evergreen shrub in the Aquifoliaceae plant family. It is native to eastern China and Korea  and attains a height of about 3 metres (9.8 ft). The leaves are usually 5-spined (sometimes 4), between 3.5 cm and 10 cm long, oblong and entire. The fruits are red berries, which are larger than those of the European Holly (Ilex aquifolium).
Ilex cornuta is valued horticulturally for its attractive and distinctive rectangular foliage and for its large red berries. Several cultivars and hybrids have been introduced by the horticultural trade, including 'Burfordii' (compact and free-fruiting), 'Dazzler' (large fruits), 'Dwarf Burfordii' (particularly compact), and 'Nellie R. Stevens' (a hybrid with I. aquifolium, very free-fruiting).
Ilex cornuta and its cultivars will tolerate a wide variety of soils and will grow in sun or shade.







Folium sennae

Image 7. Senna obtusifolia

Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
(unranked):Rosids
Order:Fabales
Family:Fabaceae
Subfamily:Caesalpinioideae
Tribe:Cassieae
Subtribe:Cassiinae
Genus:Senna
Species:S. obtusifolia


Description Morphological
Senna includes herbs, shrubs, and trees. The leaves are pinnate with opposite paired leaflets. The inflorescences are racemes at the ends of branches or emerging from the leaf axils. The flower has five sepals and five usually yellow petals. There are ten straight stamens. The stamens may be different sizes, and some are staminodes. The fruit is a legume pod containing several seeds

Uses
Herbal medicinal product for short-term use in cases of occasional constipation.

Epimedium brevicornu

Image 8. Epimedium grandiflorum

Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
Order:Ranunculales
Family:Berberidaceae
Genus:Epimedium
Subgenus:Epimedium
Species:E. grandiflorum

Description Morphological
It is a deciduous perennial growing to 30 cm (12 in), with bright red stems with green heart-shaped leaves (copper-tinged when young) which are slightly hairy on the bottom. In spring it produces pink, white, yellow or purple long-spurred flowers

Traditional Chinese medicine
E. grandiflorum may have anti-impotence properties due to the presence of icariin, a relatively weak inhibitor of PDE5 in comparison to substances like sildenafil (viagra). Western peer-reviewed research into the efficacy of E. grandiflorum as an aphrodisiac is lacking; however, the herb has been used for this purpose in traditional Chinese medicine and is a common ingredient of herbal remedies for impotence. It is commonly packed in a capsule with other ingredients or sold as herbal flakes or powder with the name "horny goat weed".

Magnolia sprengei

Image 9. Magnolia sprengei

Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Magnoliids
Order:Magnoliales
Family:Magnoliaceae
Genus:Magnolia
Subgenus:M. subg.
YulaniaSection:M. sect. Yulania subsect. YulaniaSpecies:M. sprengeri

Description Morphological
It is a small deciduous tree, to 20 m in height with pale grayish brown to blackish brown, exfoliating bark. Young twigs are pale yellowish brown. The dark green leaves are obovate, 10-18 cm long and 4.5-10 cm broad, with a 1-3 cm petiole. Fragrant flowers appear before leaves, erect, cup-shaped, 15 cm wide, with 12-14 tepals that are white to rosy-red. The fruit is a cylindric aggregate of follicles 6-18 cm long.

Magnolia denudata

Image 10. Magnolia denudata
Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Magnoliids
Order:Magnoliales
Family:Magnoliaceae
Genus:Magnolia
Subgenus:M.
subg. YulaniaSection:M. sect. Yulania subsect. YulaniaSpecies:M. denudata

Description Morphological
Magnolia denudata is a rather low, rounded, thickly branched, and coarse-textured tree to 30 feet (9.1 m) tall. The leaves are ovate, bright green, 15 cm long and 8 cm wide. The bark is a coarse, dark gray. The 10–16 cm white flowers that emerge from early to late spring, while beautiful and thick with a citrus-lemon fragrance, are prone to browning if subjected to frost.

Uses
Magnolia denudata, known as the Yulan magnolia, is native to central and eastern China. It has been cultivated in Chinese Buddhist temple gardens since 600 AD. Its flowers were regarded as a symbol of purity in the Tang Dynasty and it was planted in the grounds of the Emperor's palace. It is the official city flower of Shanghai.






Flos magnolia

Image 11. Flos magnolia

Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
Order:Magnoliales
Family:Magnoliaceae
Genus:MagnoliaSpecies:Flos magnolia biondii

Description Morphological
Leaf
Magnolia biondii can grow up to 40 feet, or 12 meter. Its bark has a pale gray and smooth appearance. It produces simple leaf type with ovate shape. In general, leaf size varies and can be up to eight inches, or 20 centimeters, long and four inches, or ten centimeters, across. In addition, they are taper-pointed at the tip and wedge-shaped at the base with a short petiole of up to ¾ inches, or 2 centimeters. Furthermore, leaves are arranged in an alternative pattern. Leaves have pinnate venation. Moreover, stamens and carpels are spirally arranged.

Flowers and fruit
Flowers of Magnolia biondii are small and white and have strong fragrance associated to them. They can grow up to 3 ¼ inches, or eight centimeters across. Flowers parts are in sets of threes. In general, flowers have six petals and three sepals. More specifically, the petals are pink at the base and white at the top. Furthermore, flowers have cone-shaped receptacle that bears spirally arranged carpels from which styles emerge. Stamens are cream-white in color. In addition, flowers take several years to appear. Because of the small size and long growth period, Magnolia biondii is seldom used for ornamental purposes. Magnolia biondii produce aggregate fruits that consist of numerous separate carpels of one gynoecium. The fruits form in cylindrical cluster and protrude on a stalk. Each cluster can grow up to 5 ½ inches, or 14 centimeters long. Individual fruitlets are red at first, then turn brown upon maturity.

Medicinal
The dried flower buds of Magnolia biondii are used medicinally in China and Japan. They are used to relieve coughing and nasal obstruction. Pharmacologically, five lignans including pinoresinol dimethyl ether, magnolin, epi-magnolin A, fargesin, and demethoxyaschantin have been attributed to the medicinal effect of Magnolia biondii.








Sophora japonica

Image 12. Sophora japonica

Classification
Kingdom:Plantae
(unranked):Angiosperms
(unranked):Eudicots
(unranked):Rosids
Order:FabalesFamily:Fabaceae
Subfamily:Faboideae
Tribe:Sophoreae
Genus:Styphnolobium
Species:S. japonicum

Description Morphological
Sophora japonica is a species of tree in the subfamily Faboideae of the pea family Fabaceae. It was formerly included within a broader interpretation of the genus Sophora. The species of Styphnolobium differ from Sophora in lacking the ability to form symbioses with rhizobia (nitrogen fixing bacteria) on their roots. It also differs from the related genus Calia (mescalbeans) in having deciduous leaves and flowers in axillary, not terminal, racemes. The leaves are alternate, pinnate, with 9-21 leaflets, and the flowers in pendulous racemes similar to those of the Black locust.

Medicinal
It is considered to have abortifacient, antibacterial, anticholesterolemic, antiinflammatory, antispasmodic, diuretic, emetic, emollient, febrifuge, hypotensive, purgative, styptic, and tonic properties. Some components in the dried fruit showed antifertility action, haemostatic properties, anticancer, antitumor, antiobesity, antioxidation effects and had roles in the treatment of hypertension and haemorrhoids. The fruit should not be taken during pregnancy. The dried flower buds are considered to have different medicinal properties from the dried ripe fruit. Toxic effects may include nausea, dizziness, vomiting, abdominal pain, hepatomegaly with abnormal liver function, haematuria, albuminuria, somnolence, spasms and coma.

Eugenia caryophyllata

Gambar 13. Eugenia caryophyllata



Classification
Kingdom:Plantae
Clade:Angiosperms
Clade:Eudicots
Clade:Rosids
Order:Myrtales
Family:Myrtaceae
Genus:Eugenia Species:Eugenia caryophyllata

Description Morphological
The clove tree is an evergreen that grows up to 8–12 m tall, with large leaves and crimson flowers grouped in terminal clusters. The flower buds initially have a pale hue, gradually turn green, then transition to a bright red when ready for harvest. Cloves are harvested at 1.5–2.0 cm long, and consist of a long calyx that terminates in four spreading sepals, and four unopened petals that form a small central ball.

Potential medicinal uses
The U.S. Food and Drug Administration (FDA) has reclassified eugenol (one of the chemicals contained in clove oil), downgrading its effectiveness rating. The FDA now believes not enough evidence indicates clove oil or eugenol is effective for toothache pain or a variety of other types of pain.
Studies to determine its effectiveness for fever reduction, as a mosquito repellent, and to prevent premature ejaculation have been inconclusive. It remains unproven whether clove may reduce blood sugar levels.
In addition, clove oil is used in preparation of some toothpastes and Clovacaine solution, which is a local anesthetic used in oral ulceration and inflammation. Eugenol (or clove oil generally) is mixed with zinc oxide to form a temporary tooth cavity filling.
Clove oil can be used to anesthetize fish, and prolonged exposure to higher doses the recommended dose is 400 mg/l) is considered a humane means of euthanasia.

Lonicera japonica

Image 14. Lonicera japonica

Classification
Kingdom:Plantae
Clade:Angiosperms
Clade:Eudicots
Clade:Asterids
Order:Dipsacales
Family:Caprifoliaceae
Genus:LoniceraSpecies:L. japonica
Description Morphological
Lonicera japonica, known as golden-and-silver honeysuckle or Japanese honeysuckle in English, suikazura (スイカズラ/吸い葛 or 忍冬) in Japanese, jinyinhua (金银花) or rendongteng (忍冬藤) in Chinese, indongdeonggul (인동덩굴) in Korean, and kim ngân hoa in Vietnamese, is a species of honeysuckle native to eastern Asia including China, Japan and Korea. It is a twining vine[4] able to climb up to 10 m (33 ft) high or more in trees, with opposite, simple oval leaves 3–8 cm (1.2–3.1 in) long and 2–3 cm (0.79–1.18 in) broad. The flowers are double-tongued, opening white and fading to yellow, and sweetly vanilla scented. The fruit is a black spherical berry 3–4 mm (0.12–0.16 in) diameter containing a few seeds

Traditional Chinese medicine
In traditional Chinese medicine, Lonicera japonica is called rěn dōng téng (Chinese: 忍冬藤; literally "winter enduring vine"[ or jīn yín huā[16] (Chinese: 金銀花; literally "gold silver flower"). Alternative Chinese names include er hua and shuang hua. In Korean, it is called geumeunhwa. The dried leaves and flowers (Flos Lonicerae Japonicae) are employed in traditional Chinese medicine, being used to treat fever, headache, cough, thirst and sore throat.

















THE TECHNIQUE OF CREATING A FRUITFUL MANGO TREE OFF SEASON AND HIGH PRODUCTION IN THE CITY OF SUMENEP

Temperature in the city of Sumenep
Sumenep Regency is included in the tropics. Like other areas in Indonesia, the wet season in Sumenep begins October through March, and the dry season from April to September. The average rainfall in Sumenep is 1,479 mm. Based on data for the year 2011 the Air Temperature in Sumenep the highest occurred in September-November (31.7 ° C). 
Temperatures are relatively consistent throughout the year, with average temperatures of 30 degrees Celsius. The largest amount of rainfall occurs in December. On average the sun shines longest in August and lowest in February. While the wind speed in the month of July is the highest and the lowest in March

Horticultural commodity production highest in the city of Sumenep
Mangoes with a total production of 652,401 Kw is the highest fruit commodities both in terms of the amount of production that is amounting to Rp 127,218,195,000.

kinds of kinds of mango in the town of sumenep
Mango arumanis
Mango honey
Mango golek
Mango avocado
Mango manalagi

FERTILIZATION TECHNIQUE OF MANGO OFF SEASON
1 .trimming branchestrimming is done after the harvest by cutting branches that are not used
2. fertilizing after harvest
3. the application of substances growing Manager
4. The application kno3






My self (tentang Karir Dan keluarga)


Name   : Citra Helda Anggia
Progam study : Production horticulture

TABLE OF CONTENTS
Table Of Contents
Chapter 1 self-awareness
1. basic personal information
2. career interests
3. professional competence and ability to adapt
4. personal qualities - for what
5. professional values ​​- what is most important
6. Competence - What are the advantages and disadvantages
7. Self-analysis Summary

Chapter II Conditions of career
1. Environmental Analysis families
2. The school environment
3. The social environment
4. Analysis of work

Chapter III of article career goal orientation and grouping binding
1. Define the purpose of career
2. decomposition and combination career goals

Chapter IV-specific implementation plans
1. Define the type of business that will be executed
2. Make a business concept

Chapter V Assessment Adjustment
1. Assessment of content
2. The estimated time
3. Estimated adjusted principles

Chapter VI. Conclusion
CHAPTER 1. SELF-AWARENESS

1. Basic Personal Information
My name is image helda anggia born in sumenep 15 May 1998 of a pair of husband and wife moh. wahdi and maltufah, I live in the Middle moncek, sumenep lenteng with both my parents along with my adek named septian CyberNet wahyudi. I started the school was 5 years old in elementary school moncek Middle 1, afterwards continuing in the country's first high school and continued at bluto high school sumenep and now continue in jember State Polytechnic Department of crop production horticulture.

2. Career Interests
I am from the age of 8 years are mind want to be Minister of agriculture because as the Minister may know the food needs of the country and can give the policy towards agriculture to meet the needs of the community in the village as well as urban poor people especially needs must provide assistance with would be sure the form of money or food staple and provide training for farmers to higher production more than ever.

3. Adaptability
Adaptation is the most important to me because with the adaptation we could meneriama all the new circumstances as I originally come from indonesia, which has only two season and has 4 seasons in china it can be solved with clothes so also with adapt to native Chinese seems to me very quickly because I am the person is easy to smile and say hello because I'm used to sosialitation with following some organization.





4. Personal Qualities
My personal qualities is honest, responsible and skilled in speaking these things that may be able to compete in the work or school without personal qualities not being able to do my private quality achieved and want to be very important for me, all the job must have discipline, responsibility and diligence.

5. Professional Values
professional values is in the success because with all the professionals will be achieved by not never give up never desperate, to be honest, persevering and resilient thus everyone will believe and professional values higher. Professional values should be shared by everyone, because this value that will make a person has a high sales value.
7. Summary of self-analysis
I want to be Minister of agriculture because as the Minister may know the food needs of the country and can give the policy towards agriculture to meet the needs of the community in the village as well as urban poor people especially needs must provide assistance and i have characters discipline, responsibility and diligence.


CHAPTER II CONDITIONS OF CAREER

Analysis of Family Environment
My name is image helda anggia born in sumenep, May 15, 1998, I lived with 3 people, my father died at the moment of my departure kechina him ill to TUBERCULOSIS and hepatitis before he did not work during my junior high still and eventually my mother into bone the back of the family as an employee in one of the well known companies in indonesia, I have younger men are now still in school he likes playing football. Since the death of my father I want to be a career woman wrong satumya i.e. became Minister of agriculture since the majority of my home as farmers and want to improve the quality of crops in applying agricultural technology such as in products Horticulture mainly.

2. Analysis of Educational Environment
I am majoring in production of agricultural and horticultural crop production I prodi there I learned about fruits, vegetables, ornamental plants, medicinal plants and so on. My campus apply especially practice because based vacational every student has the right to plant rice in each lab course that has been set and the campus I am so beautiful lots of trees around the campus and many places of learning so it becomes comfortable for learning.
the name of my State Polytechnic Campus jember in indonesia there are 34 Polytechnic Campus and I am one of the best campuses in indonesia namely rank 5 most State Polytechnic graduates working in jember company and there is also an entrepreneurship and have companies that sanagat good about 50% of my campus graduates have perusaahaan due to students trained to entrepreneurship and character formed by teaching and creating a quality merchandise from practical results




3. Social Environment
In my town the majority of farmers and fishermen because I live on the island surrounded by the sea so sanagat wide and vast land because its inhabitants are not too crowded yet so farmers and fishermen were not too well at home because it is still using the traditional agricultural system so I want to introduce a more advanced agricultural technology to obtain high crop quality and my famous village rich in entrepreneurship so that I wanted to be self-employment farm Minister to know at once a staple food for masayarakat village, perkotaaan as well as the State.

4. Analysis of work
Much agricultural land in indonesia have not been termanfaatkan because these young men would rather go kekota to change your fate and don't want to be a farmer because farming in Indonesia was no guarantee of wealth due to panennya not produksin results qualified and certified not this that caused me to want to become Minister of agriculture to change the mindset of Indonesian youth become farmers great and not ashamed anymore to farming by giving learning a good agricultural technology sehinngga Indonesian food would be sure and do not need to import.

CHAPTER 3: ORIENTATION OF CAREER GOALS AND ITS DECOMPOSITION AND COMBINATION

1. Determination of Career Objectives
My target is to learn about agriculture in Indonesia was more enterprising and outside countries such as china, Japan and thailand and follow some of the Organization's leadership to lead the people of indonesia I already follow some organizations especially in my Department, campus, and outside campus.

2. Decomposition and Combination of Career Objectives
In 2019-2020 School of the University of jember in strata 1 and becomes Chairman of a few organizations that I belong to from the campus and outside campus seta made papers on agricultural technology
In 2020-2022 go ahead with strata 2 in Japan especially on modern agricultural
In 2022-2024 run and prepare to become Minister of agriculture
In the year 2024-2029 became Minister of agriculture

CHAPTER IV SPECIFIC IMPLEMENTATION PLAN

1. Determine the type of business
I want to make factory farming and animal husbandry in my village so to export so that requires natural resources and human resources professionals and didesa I will apply modern village formed there is a modern agricultural use Advanced agricultural technology and tools so much pariwisatawan from overseas to my village and village education environment

Adjustment
The contents of the factory that is the original product from my village, namely sweet corn made of candy, ice cream, grits and so forth and from perikannya that is ready to export the crabs and seaweed due to me from the island that is surrounded by the sea and make a wrap the good as well as the quality and flavor typical of my village.















CHAPTER V ASSESSMENT ADJUSTMENT

1. Assessment of content
          A risk: a. Many companies are already updating the ekkspor products
b. a lot of labor who has not expert in agriculture
c. requires very high capital and tenacity
d. require cooperation with foreign companies
   
Risk II:
    Response options: evaluation done every month in order to menajemen the financial and quality of products remain secure

Risk III:
Response options:
3. The principles of planning and adjustment
a. support of families is very important
b. to train to become self-sufficient and lead
c. can train your honesty and patience in doing business


CHAPTER VI. CONCLUSION
CLOSING

All wishes will be achieved when there is a will and hard work by way of practice and learning by actively so that all dreams will be fulfilled and makes us become successful




Sunday, December 31, 2017

Mechine harvesting corn and mechine combine corn
















Name   : Citra Helda Anggia
Progam study : Production horticulture
Machine Harvesting Corn

The corn crop is one of the basic foodstuffs have important positions after the rice for the community of Indonesia. Besides corn is also the raw material for the industrial sector, including the food industry.
Corn yields are not all corn mature physiologically, it depends of the goals and needs of the consumer. Corn traits that are ready for harvest is aged 86-96 days after planting, when kelobot began to dry up and the black layer on the copper part of the seeds, the seeds are dried texture of the setar, hard, shiny, and when pressed no imprint. Picking corn at a less precise or less Cook will also cause quality loss, grain corn will become wrinkled, even broken after drying.
Corn can be harvested to be taken in the form of seed corn and tongkolnya as well as the entire biomass contained in permukaaan soil. Corn harvested in the form of seeds and tongkolnya biasanaya utilized the seeds to be consumed by humans, while the corn is harvested along with biomassanya are commonly used as animal feed.
The production of maize that became one of the priorities of Indonesia society this will surely bring impact to the development of technology in agriculture, the number of request from various sectors will certainly affect the performance of the farmers of corn, in order to improve the effectiveness of work in their agricultural activities, particularly the effectiveness of the work at the time of harvest.
Corn harvesting can be done by manual and mechanical. Manually can be done by way of picking corn cobs. How to harvest corn mature physiologically is by way of turning the cob here kelobotnya, or can be done by breaking the fruit stalks of corn. In the spacious grounds and the median would be very appropriate if using the tool/machine to do the harvesting or harvesting.
Corn (corn/maize) can be harvested to be taken/used in the form of:
(1) maize seeds (2) the entire corn plant biomass that is above the soil surface. Corn harvested in the form of seeds and tongkolnya usually utilized the seeds for consumption by humans, while the corn is harvested in the form of corn biomass is generally used for forage (silage, or ensilage), especially for young corn plants using corn then harvest machine corn cobs can be separated from other biomass such as stems and leaves.
Corn harvesting can be carried out by means of manual and mechanized manually can be done by way of picking corn cobs, whereas biomass other than corncob believed to be fodder. Mechanically performed with using the machine harvesting corn (corn/maize harvester).
Corn harvest machinery can be distinguished based on the end result of harvesting. When the final result in the form of corncob is separated from the stems and leaves are called biomass corn harvester or corn combine harvester, whereas when final results in the form of small pieces (Tatu) the entire biomass corn called ensilage Harvester.
Corn harvest harvesting machine whole corn plant biomass that is above ground level with the corn harvesting process as follows:
(a) direct the rods in a row corn into corn stalk cutter parts
(b) Cutting maize rods
(c) transport the corn stems pieces
(d) separate the cob and other biomass such as stems and leaves
(e) Counting biomass stems and leaves
(f) Hold the cob or put it in the back of the engine above the ground
(g) Drain parts biomass corn stems and leaves into tools/transport vehicles on the side/behind the machine.







Machine harvesting corn (corn/maize harvester) can be seen in Figure 1 and Figure 2, while corn combine harvester can be seen in Figure 3 and Figure 4. in Figure 5 and Figure 6 ensilage of corn harvest machinery exhibited harvester.


Figure 1. machine harvesting corn


Figure 2. mechine harvesting corn


Figure 3. Corn Combine Harvester


Figure 4.  operation of the corn combine harvester



Figure 5. ensilage harvester

Figure 6. operation of the back-carried type ensilage harvester
Corn Combine Harvesting Machinery Specifications Harvester Machine Harvesters Of Corn (Combine Harvester) THE COMBINE HARVESTER

SPECIFICATIONS:
ENGINE
Type of Engine: Ashok Leyland/ALU C2/3 400
No. Of Cyliders: 6 (six)
BHP Maximum: 110 HP 2000rpm
Cooling System: Water Cooled

CUTTER BAR
Width: 3650mm
Height Adjustment: Hydraulically
Cutting Height: Min 100 mm
Cutting Height Max: 1000mm

THRESHER-DRUMS
He of the Drum: 600 mm
Length of Drum: 1260mm
Speed of Drum: 535 to 1210rpm
Adjustment: Mechanically
No. Of Rasp Bars: 8 (Eight)
No of Spikes: 152

CONCAVE
Clerance Between: 16 to 39 mm
Drums at Intel at Cutlet Adjustment: Mechanically

STRAW WALKERS
No. Of Straw walkers Area: 5 (Five) (3860x230) mm sq

CLEANING
Adjustment area: 2100x12200 mm Mechanically sq.

GROUN SPEED
Ist Gear Km/h: 1.5 to 3.5
2nd Gear Km/h: 3.5 to 9.0
3rd Gear Km/h: 8.5 to 21.9
Reverse Gear Km/h: 1.5 to 3.5

STEERING
Steering System: Hydraulic

CAPACITY
Fuel Tank: 325 Lts.
Grain Tank: 2.10 Meter Cube
HyD. Oil Tank: 35 Lts.

TYRE
Front, Rear Trolley: 18.4/15/30, 9.00 to 16

DIMENSIONS
Length: 1500mm
Width: 4520mm
Min. Ground: 460mm
Clerance: 9000kgs.

Weight
WORKING CAPACITY
Wheat: 18,000 m²/hour
Paddy: 16,000 m²/hour
Maize: 10,000 m²/hour
Machines used for harvesting corn have gradually become more complex and more expensive. These devices have revolutionized farming, allowing farmers to harvest vast tracks of land quickly with only a few employees. This speed has led to bigger and bigger farms, with many smaller farmers having to sell land, giving way to the march of technology.

Corn Combine
Combines, large machines that are used primarily to harvest corn on the stalk, are ideal for threshing and gathering corn stalks over a wide field. Some models are capable of separating usable parts from those that must be discarded. According to the website for the Environmental Protection Agency, many of these devices are self-propelled, meaning the machine has its own engine requiring a driver. Other types of combines must be towed or pushed by a tractor or other engine-baring piece of farm equipment. Combines are also among the most expensive pieces of farm equipment, with list prices generally over $300,000.

Maize Sheller
A maize sheller is another type of self-propelled corn harvesting machine. According to the website for the Food and Agricultural Organization of the United Nations, these devices are built of rows of three to six conveyors that harvest corn still on the stalk, strip the corn of its unusable components and spit them out through a cleaning sieve. The difference between this system and the combine is the maize sheller is specifically designed for corn and cannot be used with other smaller grain or row-style plants. Dry harvesting of corn generally occurs from October 7 through November 3, according to the EPA's website.

Forage Harvester
Forage harvesters are tractor-driven implements that chop and gather crops like corn without doing any of the separating like the other machines. These devices are quite powerful, with some using as much as 600 horsepower. Crops are usually harvested wet through September 1 and October 15 of each year when using this machine so as to promote the process known as ensiling, which is a form of crop preservation through anaerobic fermentation.

The Purpose of a Corn Combine A field of corn contains hundreds of rows of corn plants, and the plants hold the ears of grain until they are harvested. Before harvesting combine machines were invented, corn was harvested by hand. Hand harvesting meant that each ear had to be pulled from the corn stalk, and hauled to a barn or storage bin.The husks ha to be removed. The dried corn kernels had to be shelled, or removed from the cob, before they could be ground for livestock feed. Modern corn combine harvesters perform all of these tasks and more as they are driven through the fields. Field corn that is harvested with a combine machine is dry on the stalk, and not watery and soft like sweet corn.

The Header and Reel The header is the front of the corn combine, and is divided into pointed projection arms that are set to match the spacing of the corn rows. Each row of corn will be fed into the combine between the arms. Combines may have row capability of 12, 16, 24 or more rows. Immediately behind the header arms is a wheel called a reel, which pulls the corn stalks into the machine.

The Cutter Bar and Conveyors The cutter bar is just behind the header, and it extends the entire width of the header. As the corn feeds into the machine, the cutter bar moves back and forth and cuts off the stalk. The cut stalks are moved into the machine by augers, or rotating bars with large threads similar to huge screws. A conveyor moves the corn stalks further into the main part of the combine.


Threshing Drums The corn then meets the threshing drum, a large spinning cylinder that breaks apart the corn plant and beats the kernels of corn off the cobs. The threshing area vibrates to shake the kernels away from the chaff (stalks and cobs).

Sieve and Straw Walker The corn kernels fall through holes in a huge sieve and into the collection chamber. The straw walker is another conveyor that moves the stalks and cobs towards the back of the combine. The straw walker continues to vibrate and shake more cornkernels into the collection bin.

Unloader When the collection bin is full, a tractor pulling a trailer pulls up alongside the combine. Corn is moved up a long pipe called an unloader. The corn falls from the unloader chute into the trailer. The combine continues the harvest, and the tractor takes the trailer of corn to be loaded into a nearby truck.

Spreader Another conveyor moves the chaff out the back of the combine. A spinning spreader throws the chaff out behind the machine, dispersing it over the field.

Wednesday, November 29, 2017

Ayub s. Pranata

 AGRICULTURE FIGURES IN INDONESIA
(AYUB S. PRANATA)
Biography
WHO AYUB S. PRANATA ?
Ayub s. Pranata born in Bandung, 4 December 1932 graduated from high school in 1952.

career
The year 1947, He started farming the Orchid until now
The year 1956, He is with the Orchid farmers Group initiated the establishment of the Orchid Society, based in bandung
in 1967-1976, He planted a 400 hectare area 
of patchouli and patchouli oil producing for export In 1960-1976 ,He conducted research of organic fertilizer. the products of this research are liquid organic fertilizer that has been used by China, Hong Kong, vietnam, the Philippines, malaysia, mongolia, and the United States.

Discovery
In 1959-1966, He made the first Indonesian corn hybrids
the year 1983, he made a cooperation group of experts from France and Germany to name the species of orchids found in indonesia and make a cross in the first trigenerik in indonesia
The year 1983, He has made 10,210 crosses the Orchid and 78 of them have registered dilembga cross in london
The year 2003. He discovered the bacteria organic compost

Award
The year 1966, He received a visit from the Minister of agriculture since making the first hybrid corn in indonesia
He received an award from the Department of agriculture because it successfully led and participated at the International Orchid Exhibition
The year 1966, He received an award from the West Java animal husbandry Office and district as the first champion of subang cow maintenance IB results








Pertanian organik

Apakah pertanian organik?
Ada banyak penjelasan dan definisi untuk pertanian organik tetapi semua berkumpul untuk menyatakan bahwa ini adalah sebuah sistem yang bergantung pada pengelolaan ekosistem daripada eksternal input pertanian. Itu adalah sistem yang mulai mempertimbangkan dampak lingkungan dan sosial yang potensial dengan menghilangkan penggunaan sintetis masukan, seperti sintetis pupuk dan pestisida, obat-obatan kedokteran hewan, modified benih dan bibit, pengawet, aditif dan iradiasi. Ini diganti dengan praktek-praktek spesifik lokasi manajemen yang menjaga dan meningkatkan jangka panjang kesuburan tanah dan mencegah hama dan penyakit.
"Pertanian organik adalah sistem manajemen produksi holistik yang mempromosikan dan meningkatkan kesehatan agroekosistem, termasuk keanekaragaman hayati, siklus biologis dan aktivitas biologis tanah. Itu menekankan penggunaan praktek manajemen dalam preferensi untuk penggunaan off-farm ' masukan, mempertimbangkan bahwa kondisi daerah memerlukan sistem lokal disesuaikan. Hal ini dicapai dengan menggunakan, mana mungkin, metode agronomi, biologis dan mekanis, dibandingkan dengan menggunakan bahan-bahan sintetis, untuk memenuhi setiap fungsi tertentu dalam sistem." (FAO / WHO Codex Alimentarius Commission, 1999).
Sistem pertanian organik dan produk tidak selalu bersertifikat dan dirujuk sebagai "bebas-bersertifikat pertanian organik atau Produk". Ini termasuk sistem pertanian yang tidak menggunakan sintetis input secara default (misalnya sistem yang tidak memiliki tanah praktek-praktek pembangunan dan menurunkan tanah). Tiga kekuatan pendorong yang berbeda dapat diidentifikasi untuk pertanian organik:
Konsumen atau didorong pasar pertanian organik. Produk secara jelas diidentifikasi melalui Sertifikasi dan label. Konsumen mengambil keputusan sadar tentang bagaimana makanan mereka diproduksi, diproses, ditangani dan dipasarkan. Konsumen karena itu memiliki pengaruh yang kuat atas produksi organik.
Layanan yang berbasis pertanian organik. Di negara seperti di Uni Eropa (UE), subsidi untuk pertanian organik tersedia untuk menghasilkan lingkungan barang dan jasa, seperti mengurangi polusi air tanah atau menciptakan sebuah lanskap lebih hayatinya.
Digerakkan oleh petani-pertanian organik. Beberapa petani percaya bahwa pertanian konvensional berkelanjutan dan memiliki mode-mode alternatif yang maju produksi untuk meningkatkan kesehatan keluarga mereka, ekonomi pertanian dan/atau kemandirian. Di banyak negara berkembang, pertanian organik diadopsi sebagai metode untuk meningkatkan ketahanan pangan rumah tangga atau untuk mencapai pengurangan biaya input. Produk ini tentu tidak dijual di pasar atau dijual tanpa perbedaan harga seperti itu tidak bersertifikat. Di negara maju, petani kecil semakin berkembang langsung saluran untuk memberikan bebas-bersertifikat produk organik kepada konsumen. Di Amerika Serikat (AS), pemasaran produk organik dalam jumlah kecil petani secara resmi dibebaskan dari sertifikasi.

Dimana saya bisa mendapatkan informasi tentang konsumsi dan harga-harga komoditas organik?
Meskipun pertanian organik masih hanya industri kecil (2% dari penjualan pangan global), itu adalah semakin penting di seluruh dunia. Sulit untuk mengumpulkan informasi karena kurangnya Statistik resmi dan tingkat kerahasiaan organisasi berurusan dengan produk organik. Namun, bunga tumbuh untuk informasi tentang sifat dinamika pasar organik. Ini akan membantu dalam jangka panjang perencanaan apa menghasilkan suplai dalam apa kuantitas dan kualitas.

Dunia pertanian organik - Statistik dan muncul tren 2011 berisi informasi tentang situasi global pertanian organik. Untuk negara atau informasi berbasis komoditas Lihat halaman Data negara dan pemasaran dan perdagangan bagian halaman "Links" di website ini. Uni Eropa juga memiliki informasi statistik tentang pertanian organik antara negara anggotanya.

Apakah ada bantuan ekonomi untuk konversi ke pertanian organik apapun?
Banyak negara-negara Utara (misalnya anggota Uni Eropa dan Amerika Serikat) menyediakan bantuan keuangan untuk konversi untuk pertanian organik, seperti beberapa negara-negara berkembang (misalnya Tunisia). Ini dapat menjadi sangat penting bagi ekonomi pertanian karena periode konversi sering mengarah pada hasil yang jatuh karena butuh waktu untuk aktivitas penuh biologis agro-ekosistem akan dipulihkan. Intervensi mungkin datang dalam berbagai bentuk, termasuk kompensasi untuk kerugian (seperti selama konversi produk tidak dijual sebagai organik), integrasi dengan biaya tambahan (misalnya sertifikasi) atau dukungan untuk perkembangan infrastruktur (misalnya untuk pembelian mesin atau untuk restrukturisasi bangunan pedesaan). Bantuan ini mungkin tersedia selama konversi periode, tetapi juga, dalam beberapa kasus, selama periode setelah, atau di bawah kedok skema yang berbeda. Pembayaran ini sering dibuat sebagai jumlah tertentu per hektar, tetapi mungkin juga termasuk pengurangan pajak atau preferensial kondisi kredit. Bantuan langsung dapat dilengkapi dengan bantuan keuangan langsung. Ini datang dalam bentuk investasi dalam ekstensi pedesaan, penelitian dan pelatihan untuk petani, dan pengembangan pasar organik (misalnya kampanye kesadaran). Harga premium yang dibayar oleh konsumen untuk produk organik juga membentuk insentif ekonomi bagi individu petani. Bantuan yang tersedia untuk petani adalah, namun, sangat negara tertentu.

Untuk keterangan lebih lanjut, Anda harus menghubungi departemen negara Anda sendiri yang berhubungan dengan pertanian organik. Ini mungkin termasuk Kementerian Lingkungan, pertanian atau perdagangan (atau setara), pemerintah daerah dan/atau lokal atau mungkin badan khusus. Informasi tentang inisiatif dukungan dan kebijakan negara di Eropa dapat ditemukan dalam laporan negara pertanian organik di situs web. Untuk Amerika Serikat, Cari Halaman program organik nasional.

Dimana saya bisa mendapatkan informasi mengenai sistem manajemen dan metode pertanian organik?
Sistem pengelolaan pertanian organik adalah kunci keberhasilan. Namun, ada banyak kesenjangan informasi dan pengetahuan tentang detail teknis sering langka, terutama di negara-negara berkembang. Informasi teknis harus sangat lokasi - dan produk spesifik. Kemajuan tanggal telah sebagian besar karena investasi swasta, termasuk kesediaan konsumen untuk membayar produk organik dan petani kreativitas dan keinginan untuk melakukan eksperimen on-pertanian. Lembaga penelitian mulai memperhatikan praktek-praktek pertanian organik dan pendekatan dan meningkatkan pemahaman tentang proses sumber daya alam dan interaksi dalam sistem organik yang diselidiki.

Dapatkah petani organik menghasilkan makanan yang cukup untuk semua orang?
Ketahanan pangan. Ketahanan pangan ini tidak hanya masalah kemampuan untuk menghasilkan makanan, tetapi juga kemampuan untuk mengakses makanan. Produksi makanan global lebih dari cukup untuk memberi makan populasi dunia, masalahnya adalah mendapatkan itu kepada orang-orang yang membutuhkannya. Di daerah pasar-terpinggirkan, petani organik dapat meningkatkan produksi pangan dengan mengelola sumber daya lokal tanpa harus bergantung pada input eksternal atau sistem distribusi pangan di mana mereka memiliki sedikit kontrol dan/atau akses. Hal ini untuk dicatat bahwa meskipun eksternal input pertanian dapat digantikan oleh organik pengelolaan sumber daya alam, kepemilikan tanah tetap kendala utama untuk investasi tenaga kerja yang diperlukan untuk pertanian organik. Pertanian organik tumbuh berbagai tanaman dan ternak untuk mengoptimalkan kompetisi untuk nutrisi dan ruang antara spesies: hal ini mengakibatkan kurang kesempatan dari kegagalan produksi atau hasil yang rendah dalam semua ini secara bersamaan. Ini dapat memiliki dampak penting pada keamanan pangan lokal dan ketahanan. Dalam sistem tadah hujan, pertanian organik telah menunjukkan untuk mengungguli sistem pertanian konvensional kondisi lingkungan stres. Di bawah situasi yang tepat, kembali pasar dari pertanian organik dapat berpotensi memberikan kontribusi terhadap ketahanan pangan lokal dengan meningkatkan pendapatan keluarga.

Pertanian organik dan hasil. Kinerja pertanian organik pada produksi tergantung pada sistem pengelolaan pertanian sebelumnya. Over-penyederhanaan dampak konversi ke pertanian organik pada hasil menunjukkan bahwa:
Di negara-negara industri, sistem organik mengurangi hasil panen; kisaran tergantung pada intensitas menggunakan input eksternal sebelum konversi;
Tempat disebut Revolusi Hijau (lahan irigasi), konversi ke pertanian organik biasanya mengarah ke hasil yang hampir identik;
Dalam tradisional hujan-makan pertanian (dengan rendah-masukan eksternal input), pertanian organik memiliki potensi untuk meningkatkan hasil panen.
Pada kenyataannya, banyak sistem tanam beberapa, seperti yang dikembangkan oleh pemegang kecil dan petani subsisten, menunjukkan hasil yang lebih tinggi dalam hal panen total per satuan luas. Ini menghasilkan keuntungan telah dikaitkan dengan lebih efisien penggunaan nutrisi, air dan cahaya dan kombinasi faktor-faktor lain seperti pengenalan unsur-unsur regeneratif baru ke pertanian (misalnya kacang-kacangan) dan sedikit kerugian terhadap hama dan penyakit. Dapat disimpulkan bahwa peningkatan hasil pada pertanian organik lebih mungkin untuk dicapai jika titik keberangkatan adalah sistem tradisional, bahkan jika itu rusak. Hasil akan bervariasi tergantung pada keterampilan manajemen dan pengetahuan ekologi, tetapi ini dapat diharapkan untuk meningkatkan sebagai peningkatan aset modal manusia. Namun, sangat penting untuk memiliki sistem kepemilikan tanah yang baik karena seseorang tidak mungkin untuk berinvestasi dalam meningkatkan tanah jika / masa depan ada tidak aman.

Organik pertanian dan ketahanan pangan. Bertahan kelaparan dunia telah menunjukkan bahwa pertanian saja (baik konvensional atau tidak) sendirian tidak dapat memecahkan kerawanan pangan. Namun, pertanyaan-pertanyaan yang banyak ditanya berkaitan dengan kemampuan pertanian organik untuk menyediakan makanan - dan banyak spekulasi dibuat, tanpa sebarang dasar data komprehensif. FAO mengadakan konferensi internasional pada pertanian organik dan ketahanan pangan pada bulan Mei 2007 untuk memeriksa keamanan pangan dalam hal ketersediaan pangan, akses terhadap pangan, stabilitas sistem pasokan pangan dan pemanfaatan pangan; bahan dan pengalaman empiris yang dibahas menunjukkan bahwa pertanian organik memiliki potensi untuk memberi makan dunia, di bawah situasi yang tepat. Ulasan pada pertanian organik dan ketahanan pangan meliputi: mengurangi kemiskinan makanan dengan pertanian berkelanjutan: Ringkasan bukti baru (oleh cantik dan Hine, 2001); Revolusi hijau yang nyata: sebuah laporan baru pada pertanian organik dan Agro-ekologi dalam membangun dunia (Greenpeace, 2002); Pertanian organik dan ketahanan pangan (IFOAM, 2002); Solusi untuk kelaparan di Afrika adalah organik pertanian tidak GMO; Pertanian organik dan pengurangan kemiskinan di Asia (dana internasional untuk pengembangan pertanian, 2005); Pertanian organik dan keamanan pangan: perspektif Global dan Regional (DARCOF, 2007); dan pertanian organik dapat Feed the World? (Michigan State University, 2007)

Apakah manfaat lingkungan pertanian organik?
Keberlanjutan jangka panjang. Banyak perubahan yang diamati dalam lingkungan yang jangka panjang, terjadi perlahan-lahan dari waktu ke waktu. Pertanian organik menganggap jangka menengah dan jangka panjang efek dari intervensi pertanian di agro-ekosistem. Ini bertujuan untuk memproduksi makanan sambil membentuk keseimbangan ekologi untuk mencegah masalah kesuburan atau hama tanah. Pertanian organik mengambil pendekatan proaktif bukan mengobati masalah setelah mereka muncul.
Tanah. Tanah membangun praktik-praktik seperti rotasi tanaman, Asosiasi simbiosis antar tanam, tanaman penutup, pupuk organik dan tanah yg dikerjakan minimal adalah pusat untuk praktek-praktek organik. Ini mendorong tanah fauna dan flora, meningkatkan pembentukan tanah dan struktur dan menciptakan sistem yang lebih stabil. Pada gilirannya, nutrisi dan energi Bersepeda meningkat dan kemampuan dpt menyimpan tanah untuk nutrisi dan air yang ditingkatkan, kompensasi untuk bebas-penggunaan pupuk mineral. Teknik manajemen seperti juga memainkan peran penting dalam pengendalian erosi tanah. Lamanya waktu yang tanah terkena pasukan erosi berkurang, keanekaragaman hayati tanah meningkat, dan gizi kerugian berkurang, membantu untuk mempertahankan dan meningkatkan produktivitas tanah. Tanaman ekspor nutrisi biasanya dikompensasi oleh sumber daya terbarukan yang berasal dari peternakan tetapi kadang-kadang perlu untuk melengkapi organik tanah dengan kalium, fosfat, kalsium, magnesium dan trace elemen dari sumber eksternal.
Air. Di banyak wilayah pertanian, pencemaran air tanah kursus dengan sintetis pupuk dan pestisida adalah masalah utama. Seperti penggunaan ini dilarang di pertanian organik, mereka digantikan oleh pupuk organik (misalnya kompos, pupuk kandang binatang, pupuk hijau) dan melalui penggunaan keanekaragaman hayati yang lebih besar (spesies yang dibudidayakan dan permanen vegetasi), meningkatkan tanah infiltrasi struktur dan air. Dikelola dengan baik sistem organik dengan kemampuan dpt menyimpan nutrisi yang lebih baik, sangat mengurangi risiko polusi air tanah. Di beberapa daerah mana polusi adalah masalah nyata, konversi ke pertanian organik ini sangat dianjurkan sebagai tindakan restoratif (misalnya oleh pemerintah Perancis dan Jerman).
Udara dan perubahan iklim. Pertanian organik mengurangi penggunaan energi terbarukan dengan mengurangi kebutuhan agrochemical (ini memerlukan jumlah yang tinggi dari bahan bakar fosil yang dihasilkan). Pertanian organik memberikan kontribusi untuk mengurangi efek rumah kaca dan pemanasan global melalui kemampuannya untuk mengasingkan karbon di dalam tanah. Banyak praktek-praktek manajemen yang digunakan oleh pertanian organik (misalnya minimum tanah yg dikerjakan, kembali sisa tanaman ke tanah, tanaman penutup dan rotasi, dan integrasi yang lebih besar untuk memperbaiki nitrogen kacang-kacangan), meningkatkan laba karbon ke dalam tanah, meningkatkan produktivitas dan mendukung penyimpanan karbon. Sejumlah penelitian mengungkapkan bahwa isi karbon organik tanah di pertanian organik jauh lebih tinggi. Karbon lebih organik masih dipertahankan dalam tanah, lebih mitigasi potensi pertanian terhadap perubahan iklim lebih tinggi.  Namun, ada banyak penelitian yang diperlukan dalam bidang ini, namun. Ada kurangnya data pada karbon organik tanah untuk negara-negara berkembang, dengan tidak ada data perbandingan sistem pertanian dari Afrika dan Amerika Latin, dan data terbatas hanya pada saham-saham karbon organik tanah, yang sangat penting untuk menentukan harga penyerapan karbon untuk pertanian praktek-praktek.
Keanekaragaman hayati. Petani organik adalah penjaga dan pengguna keanekaragaman hayati di semua tingkat. Di tingkat gen, tradisional dan disesuaikan benih dan bibit lebih disukai untuk mereka lebih tahan terhadap penyakit dan mereka ketahanan iklim stres. Di tingkat spesies, kombinasi yang beragam tanaman dan hewan mengoptimalkan nutrisi dan energi Bersepeda untuk produksi pertanian. Di tingkat ekosistem, pemeliharaan daerah alam dalam dan di sekitar bidang organik dan tidak adanya masukan kimia membuat cocok habitat satwa liar. Penggunaan sering kurang dimanfaatkan spesies (sering sebagai rotasi tanaman untuk membangun kesuburan tanah) mengurangi erosi-keanekaragaman hayati agro, menciptakan sebuah kolam gen yang sehat - dasar untuk masa depan adaptasi. Penyediaan struktur yang menyediakan makanan dan tempat tinggal, dan kurangnya penggunaan pestisida, menarik spesies baru atau kembali menjajah ke organik daerah (permanen dan bermigrasi), termasuk liar flora dan fauna (misalnya burung) dan organisme menguntungkan organik sistem seperti penyerbuk dan hama predator. Jumlah studi tentang pertanian organik dan keanekaragaman hayati yang meningkat secara signifikan dalam tahun terakhir. Sebuah studi terbaru pelaporan pada suatu meta-analisis dari 766 ilmiah makalah menyimpulkan bahwa pertanian organik menghasilkan keanekaragaman hayati yang lebih daripada sistem pertanian lainnya.
Organisme yang dimodifikasi secara genetik. Penggunaan GMO dalam sistem organik tidak diperbolehkan selama setiap tahap produksi makanan organik, pengolahan atau penanganan. Seperti dampak potensial GMO lingkungan dan kesehatan tidak sepenuhnya dipahami, pertanian organik adalah mengambil pendekatan pencegahan dan memilih untuk mendorong alam hayati. Label organik karena itu memberikan jaminan bahwa transgenik belum digunakan sengaja dalam produksi dan pengolahan produk-produk organik. Ini adalah sesuatu yang tidak dijamin dalam produk-produk konvensional seperti pelabelan keberadaan GMO dalam produk makanan belum datang mulai berlaku di sebagian besar negara. Namun, dengan meningkatnya penggunaan GMO di pertanian konvensional dan karena metode transmisi transgenik di lingkungan (misalnya melalui serbuk sari), pertanian organik tidak akan dapat memastikan bahwa produk-produk organik adalah benar-benar GMO gratis di masa depan. Diskusi rinci tentang GMO dapat ditemukan dalam publikasi FAO "Genetically Modified organisme, konsumen, keamanan makanan dan lingkungan".
Jasa ekologis kawasan. Dampak dari pertanian organik pada sumber daya alam nikmat interaksi dalam agro-ekosistem yang penting untuk produksi pertanian dan konservasi alam. Ekologis berasal meliputi pembentukan tanah dan Ruangan Bebas Rokok, tanah stabilisasi, limbah daur ulang, penyerapan karbon, nutrisi Bersepeda, predasi, penyerbukan dan habitat. Dengan memilih untuk produk-produk organik, konsumen melalui daya beli mereka mempromosikan kurang mencemari sistem pertanian. Biaya tersembunyi pertanian lingkungan dalam hal kerusakan sumberdaya alam berkurang.

Mengapa makanan organik lebih mahal daripada makanan konvensional?
Makanan organik bersertifikat. Produk-produk organik bersertifikat umumnya lebih mahal dibandingkan konvensional rekan-rekan mereka (yang harga telah menurun) untuk sejumlah alasan:
Pasokan makanan organik terbatas dibandingkan dengan permintaan;
Biaya produksi untuk makanan organik biasanya lebih tinggi karena input tenaga kerja yang lebih besar per unit output dan karena keragaman yang lebih besar dari perusahaan-perusahaan berarti skala ekonomi tidak tercapai;
Penanganan pasca panen relatif kecil jumlah makanan organik hasil dalam biaya yang lebih tinggi karena pemisahan wajib organik dan konvensional menghasilkan, terutama untuk pengolahan dan transportasi;
Pemasaran dan rantai distribusi untuk produk-produk organik adalah relatif tidak efisien dan biaya lebih tinggi karena volume relatif kecil.
Sebagai permintaan untuk makanan organik dan produk meningkat, inovasi teknologi dan skala ekonomis harus mengurangi biaya produksi, pengolahan, distribusi dan pemasaran untuk produk organik.

Harga makanan organik termasuk tidak hanya biaya produksi makanan itu sendiri, tetapi juga berbagai faktor lain yang tidak ditangkap di harga makanan konvensional, seperti:
Peningkatan lingkungan dan perlindungan (dan menghindari biaya masa depan untuk mengurangi polusi). Sebagai contoh, harga yang lebih tinggi dari tanaman organik mengkompensasi rendah pengembalian keuangan periode rotasi yang diperlukan untuk membangun kesuburan tanah;
Standar yang lebih tinggi untuk kesejahteraan hewan;
Penghindaran risiko kesehatan kepada petani karena tidak tepat penanganan pestisida (dan menghindari masa depan biaya medis);
Pembangunan pedesaan oleh menghasilkan pekerjaan tambahan pertanian dan menjamin pendapatan yang cukup dan memadai untuk produsen.
Bersertifikat bebas makanan organik. Di banyak negara berkembang, ada sistem pertanian yang sepenuhnya memenuhi persyaratan dari pertanian organik, tetapi yang tidak bersertifikat. Pertanian organik bersertifikat bebas mengacu pada praktek-praktek pertanian organik oleh maksud dan tidak secara default; ini termasuk sistem non-berkelanjutan yang tidak menggunakan input sintetis tetapi yang menurunkan tanah karena kurangnya praktek-praktek pembangunan tanah. Sulit untuk mengukur tingkat sistem pertanian ini seperti yang ada di luar sertifikasi dan sistem pasar formal. Hasil dari sistem ini biasanya dikonsumsi oleh rumah tangga atau dijual secara lokal (misalnya perkotaan dan pasar-pasar desa) dengan harga yang sama seperti rekan-rekan mereka konvensional. Meskipun hasil bersertifikat tidak menguntungkan dari premi harga, beberapa kasus telah didokumentasikan mana pertanian organik bersertifikat bebas meningkatkan produktivitas pertanian total agro-ekosistem, dan menghemat pembelian eksternal input. Di negara maju, bebas-bersertifikat organik makanan sering dijual langsung ke konsumen melalui program dukungan masyarakat setempat seperti kotak skema, pasar petani dan pada gerbang pertanian. Ini memungkinkan produsen untuk tahu persis apa konsumen ingin, sementara konsumen tahu mana menghasilkan berasal dari dan dalam kasus kotak skema, menghemat biaya transportasi melalui pengiriman produk ke rumah mereka. Di negara maju, produk organik bersertifikat bebas biasanya membawa harga yang lebih tinggi daripada rekan konvensional, sesuai dengan keinginan konsumen tertentu untuk membayar.

Apa yang ada di balik label organik?
Label. Label organik menunjukkan bahwa suatu produk telah disertifikasi terhadap standar organik tertentu. Label membawa nama lembaga sertifikasi dan standar yang hal itu sesuai, (misalnya EU 2092/91). Untuk konsumen informasi, label ini dapat berfungsi sebagai panduan. Lembaga Sertifikasi mengevaluasi operasi sesuai dengan standar organik yang berbeda dan dapat secara resmi diakui oleh lebih dari satu badan otoritatif. Label yang diberikan sertifikasi tubuh, oleh karena itu, menginformasikan konsumen pada jenis standar dipenuhi selama produksi dan pengolahan serta pada jenis pengakuan diberikan untuk badan sertifikasi. Banyak lembaga sertifikasi beroperasi di seluruh dunia, sebagian besar yang pribadi dan berasal dari negara-negara maju.

Standar sukarela internasional. Di international tingkat FAO / yang Codex Alimentarius Commission (badan antar-pemerintah yang menetapkan standar untuk semua makanan) telah menghasilkan panduan internasional untuk produksi, pengolahan, Labelling, dan pemasaran dari organik diproduksi makanan untuk Panduan produsen dan untuk melindungi konsumen terhadap penipuan dan penipuan. Pedoman ini seharusnya disepakati oleh semua negara-negara anggota Komisi Codex Alimentarius. Sektor swasta setara panduan Codex Alimentarius adalah standar internasional dasar untuk produksi organik dan pengolahan, dibuat oleh International Federation of organik pertanian gerakan - IFOAM. Codex Alimentarius dan IFOAM pedoman mencakup prinsip-prinsip manajemen yang diterima untuk produksi tanaman, ternak, lebah dan produk mereka (IFOAM membuat ketentuan juga untuk serat, budidaya dan produk non-kayu hutan); untuk penanganan, Penyimpanan, pengolahan, pengemasan dan transportasi produk, dan daftar bahan-bahan yang diperbolehkan dalam produksi dan pengolahan makanan organik. Pedoman ini dikaji secara berkala, terutama kriteria untuk diizinkan zat dan proses inspeksi yang dilakukan dan sertifikasi diadakan.

Standar wajib nasional. Codex Alimentarius dan IFOAM pedoman adalah standar minimum untuk pertanian organik, yang dimaksudkan untuk memandu pemerintah dan lembaga sertifikasi pribadi dalam pengaturan standar. Dengan demikian, mereka dapat dianggap sebagai standar untuk standar. Pemerintah dapat menggunakan teks-teks ini untuk mengembangkan program nasional pertanian organik yang sering lebih rinci ketika mereka menanggapi kebutuhan negara tertentu. Kebanyakan Standar Nasional (misalnya negara Uni Eropa, Jepang, Argentina, India, Tunisia, USA), ditentukan dalam peraturan yang mengikat secara hukum.

Standar sukarela lokal. Di beberapa negara (misalnya Jerman), lembaga sertifikasi individu dapat menghasilkan standar mereka sendiri yang dapat lebih ketat daripada peraturan yang berlaku, biasanya dalam menanggapi tuntutan konsumen tertentu. Meskipun ini tidak secara hukum dilaksanakan, sertifikasi pribadi mungkin lebih ketat daripada yang diwajibkan oleh hukum.

Akreditasi. Akreditasi adalah prosedur dimana badan otoritatif mengevaluasi dan memberikan pengakuan formal yang program sertifikasi yang sesuai dengan standar badan otoritatif. Untuk pertanian organik, lembaga sertifikasi dapat menerapkan standar internasional sukarela dan/atau standar wajib nasional dan diakreditasi oleh terkait "kekuasaan". Di tingkat internasional, International organik Accreditation Service. (IOAS) memberikan akreditasi kepada lembaga sertifikasi sesuai dengan program IFOAM Accreditation kriteria dengan memberikan "Terakreditasi IFOAM" logo (klik di sini untuk membaca lebih lanjut tentang IFOAM Accreditation Program). IOAS adalah sebuah LSM independen yang menjamin global kesetaraan program sertifikasi dan mencoba untuk menyelaraskan sisi standar, sementara mengambil ke pertimbangan perbedaan lokal. Harus dicatat bahwa keanggotaan IFOAM oleh sertifikasi tubuh tidak merupakan IOAS akreditasi. Pada tingkat nasional, pemerintah atau Badan Akreditasi Nasional akreditasi lembaga sertifikasi yang beroperasi di negara mereka, jika negara mereka memiliki undang-undang pertanian organik. Lembaga swasta dan publik mengikuti organisasi internasional untuk Standardisasi dasar standar akreditasi dari sertifikasi (ISO 65) Selain kebutuhan spesifik mereka.
Untuk rincian lebih lanjut pada lembaga sertifikasi nasional, berkonsultasi dengan pemerintah Anda sendiri. IFOAM website menyediakan informasi menjadi sebuah badan sertifikasi, bersama dengan standar dasar IFOAM Accreditation kriteria.7

Apa yang dimaksud bersertifikat produk organik?
Produk-produk organik bersertifikat adalah mereka yang telah dihasilkan, disimpan, diproses, ditangani dan dipasarkan sesuai dengan spesifikasi teknis yang tepat (standar) dan disertifikasi sebagai "organik" oleh badan sertifikasi. Setelah kesesuaian dengan standar organik telah diverifikasi oleh badan sertifikasi, produk diberikan label. Label ini akan berbeda tergantung pada lembaga sertifikasi tetapi dapat diambil sebagai jaminan bahwa unsur-unsur penting yang merupakan produk "organik" telah dipenuhi dari pertanian ke pasar. Hal ini penting untuk dicatat bahwa label organik berlaku untuk proses produksi, memastikan bahwa produk telah diproduksi dan diproses secara ekologis. Label organik adalah klaim proses produksi dibandingkan dengan produk kualitas klaim.