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PERIOD 2 - Summer 2018 review
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β’ Agriculture is growing of crops and keeping of animals. β’ People who practice agriculture are called farmers. β’ Agriculture is very important to the family. Benefits to the family β’ It provides food. β’ It provides money. β’ Agriculture gives us medicine. β’ It provides jobs. β’ Agriculture gives us transport and power. β’ It helps most families become self sufficient. β’ Farm tools are instruments used on farms to make work easier. β’ They are usually handheld and are used frequently when practicing agricultural activities. β’ Farm tools are light in weight, easy to handle and are suited to the strength of the farmer Name of tool Picture Use Watering can For fine watering of seed beds bucket Carrying manure, fertilizer,seed and ripe crops Name of tool Picture Use Sickle Cutting grass and harvesting of cereals like rice and wheat Slasher Cutting down tall grass and weeds USES OF FARM TOOLS Name of tool Picture Use Garden trowel Transplanting seedlings and making planting holes Hand fork Shallow cultivation of soil Aerating the soil USES OF FARM TOOLS Name of tool Picture Use Shovel Loading and offloading soil or manure into a wheelbarrow, scotch cart or truck Spade Digging and turning over of moist soil USES OF FARM TOOLS Name of tool Picture Use Garden fork Loosening and turn soil Garden line Marking straight ridges and garden beds USES OF FARM TOOLS Name of tool Picture Use wheelbarrow Moving items around the farm Items such as soil, mulch, animal feed. Etc Knapsack sprayer Spraying pesticides and herbicides Spraying fertilizers on crops. β’ An inventory is a record of the things that you have. β’ This is a list of tools issued out and tools received back and from whom Inventory of farm tools Inventory record sheets Created by Date Name of tool Sheet Tool numbenumber Description r Location Quantity Spade 1/15 Black,wooden handle Store room 2 SAFETY IN AGRICULTURE β’ Agricultural activities can be dangerous. β’ Hazards involved results in injury, disability and death of people and animals. β’ The hazards are usually caused by physical injury and chemical poisoning. Common hazards in Agriculture 1. physical injury These include: β’ Injury caused by accidents during use of farm tools, equipment and machinery. β’ Misuse and improper storage of farm tools and equipment. β’ Being kicked by animals. β’ Drowning in farm pond, pool or dam. Common hazards in Agriculture 2 . Chemical poisoning These include: β’ Spraying without protective clothing. β’ Eating or smoking when spraying chemicals. β’ Dumping toxic chemical left overs on land and in water. β’ Eating agriculture produces without prior permission from adults. β’ Pesticides, herbicides and fertilizers pollute water sources and kill animals. Chemical poisoning Ways of preventing common agricultural hazards 1. Wear protective clothing such as gloves, gumboots, respirator, hat and overalls. 2. Do not eat, drink or smoke when spraying. 3. Dispose off all chemical remains safely. 4. Bury or burn empty chemical containers and chemical left overs. 5. Wash thoroughly with running water and soap after using chemicals. 6. Do not spray during windy days. 7. Handle tools the right way. 8. Fence farm ponds and dams. Ways of preventing common agricultural hazards Climate and Landuse Seasons of Zimbabwe Seasons of Zimbabwe Definition of terms β’ A season is a time of the year with almost the same weather patterns. β’ Weather is the state of the atmosphere at a particular time at a particular place. β’ it is the daily condition of air around us. β’ Seasons are determined by rainfall and temperature. Seasons of Zimbabwe β’ There are four seasons in Zimbabwe , which are: 1.The rain season 2.Post rain season 3.Cool dry season 4.Hot dry season Seasons of Zimbabwe 1.The rain season ( summer) β’ It is also called the hot- wet season. β’ The season begins in mid November to mid March. β’ The period is rainy and hot. β’ Dams and rivers fill up. Seasons of Zimbabwe 2 . The post rain season ( autumn ) β’ It starts mid March β May β’ The days are bright and sunny. β’ The leaves change from green to red, orange, yellow or brown before falling. β’ In addition, there is less sunlight because the days are shorter. β’ It is the harvesting period of most crops. Seasons of Zimbabwe 3. The cold dry season ( winter ) β’ It begins mid May β mid August β’ The mornings, evenings and nights are very cold. β’ Has short days and long nights. Seasons of Zimbabwe 4 . The hot season (spring ) β’ It begins mid August β mid November. β’ The days are very hot with cool nights. β’ A season for trees to develop new shoots. Summer Activities Agricultural activities done during the rain season includes: β’ Ploughing and planting of summer crops for example maize, cotton. β’ Weeding β’ Pest and disease control β’ Applying fertilizers. β’ Weekly dipping of animals because ticks, lice and mites would be many. β’ Harvesting of summer crops β’ Preparing fireguards. A fireguard is a fire break. β’ Beginning of the planting of wheat, barley and oats.β Winter Activities β’ Planting of winter crops such as wheat, barley and oats. β’ Harvesting and selling of summer crops continues. β’ Constructing frost barriers for frost sensitive crops such as tomatoes. β’ Vaccinating animals against blackleg. β’ Supplementary feeding of grazing animals. β’ Dosing of animals to kill internal parasites. Spring Activities β’ Shelling and threshing of grain crops. β’ Dry planting of summer crops. β’ Carrying manure to fields. β’ Ploughing and harrowing. β’ Making planting holes Soil Components β’Soil is made up of 4 components: 1)Mineral matter 2)Organic matter 3)Soil water 4)Soil air LESSON 4. Cellular Respiration β’ Define cellular respiration β’ Identify the stages of clan respiration You have just learned how the energy from the sun is captured, processed, and stored in the form of glucose. Cellular respiration, another important life process, is the means by which cells release the stored energy in glucose to make adenosine triphosphate (ATP). The primary goal of this life process is to convert stored energy into usable form, such as ATP, for the cells to carry out their functions. Cellular respiration involves several chemical reactions. The reactions can be summed up in the following equation: C6 H12 O6 + 602 -----ο 6 COβ +6HβO + ATP Glucose oxygen carbon dioxide water energy Aerobic respiration reactions, or cellular respiration that takes place in the presence of oxygen, can be grouped into three stages glycolysis, Krebs cycle, and electron transport chain (ETC). Stage 1: Glycolysis Glycolysis is the process that breaks down one molecule of 6-C glucose into 3-C pyruvates or pyruvic acids. It also releases four molecules of ATP. This process occurs in the cytoplasm of the cell. The following is the step-by-step process of glycolysis. Take note that several enzymes are involved in this process. 1. The first step of glycolysis requires energy. It can only proceed when the two ATP molecules donate energy to the glucose by transferring a phosphate group with the help of an enzyme, producing glucose 6-phosphate 2. Then, a specific enzyme promotes the rearrangement of the atoms, producing the fructose 6-phosphate. 3. The action of the enzyme in step 2 promotes the transfer of a phosphate group from another ATP molecule, forming fructose 1,6-bisphosphate. 4. The resulting fructose 1,6-bisphosphate molecules, with the help of another enzyme, splits into two molecules, each with three carbon backbones. These two sugars are dihydroxyacetone phosphate and glyceraldehyde 3-phosphate. 5. Another important enzyme then rapidly interconverts the molecules of dihydro-xyacetone phosphate and glyceraldehyde 3-phosphate. This produces two molecules of glyceraldehyde 3-phosphate or 3-phosphoglyceraldehyde (PGAL) 6. The succeeding step involves another enzyme-mediated action. The hydrogen (H) from PGAL is transferred to the oxidizing agent, nicotinamide adenine dinucleotide (NAD), which forms NADH. A phosphate (P) is also added from the cytosol of the cell to oxidize the two molecules of PGAL, forming two 1.3-bisphosphoglycerate. 7. A phosphate (P) from 1,3-biphosphoglycerate is transferred to ADP to form ATP. This happens for each of the two 1,3-bisphosphoglycerate. resulting to a yield of two ATP and two 3-phosphoglycerate molecules. 8. A phosphate is transferred from 3-phosphoglycerate molecules from the third carbon to the second carbon, forming 2-phosphoglycerate molecules A hydrogen atom and a hydroxyl ((OH) group is released, which then combines to form water (H2O). The removal of H2O from 2-phosphoglycerate results in the formation of 2- phosphoglycerate molecules. 9. A hydrogen atom and a hydroxyl ((OH) group is released, which then combines to form water (H2O). The removal of H2O from 2-phosphoglycerate results in the formation of two phosphoenolpyruvic acid (PEP) 10. Phosphate (P) from PEP is transferred to ADP (and forms ATP) and the final product, pyruvic acid. This reaction yields two molecules of pyruvic acid and two ATP molecules In summary, a single glucose molecule that undergoes the process of glycolysis produces two molecules of pyruvic acid, four molecules of ATP, two molecules of NADEL and two molecules of H.O. However, only two molecules of ATP are counted as net products since two molecules of ATP are spent throughout the process. Stage II: Krebs Cycle The Krebs cycle, named after its proponent Sir Hans Adolf Krebs, is a cyclical series of enzyme-controlled reactions. This stage of cellular respiration occurs in the matrix of the mitochondria. It is sometimes. called the citric acid cycle (CAC) since it produces citric acid. Citric acid contains three carboxyl (COOH) groups; hence, it is also called the tricarboxylic acid cycle (TCA). This requires the pyruvic acids produced during glycolysis. The main function of this cycle is to produce high-energy-yielding molecules, namely, NADH and flavin adenine dinucleotide (FADH) that will later on be used in the electron transport chain reaction. Figure 6-7. Summary of glycolysis and corresponding products in each reaction presented (See Appendix F on page 285 for an enlarged and complete version of the image.) An initial process is needed for the Krebs cycle to begin. As a pyruvate molecule from glycolysis enters the mitochondrion, it undergoes an important preliminary ate to form acetyl-CoA reaction. Coenzyme-A (COA) combines with pyruvate help of an enzymatic complex. This conversion also produces CO, and NADH. The Krebs cycle is summarized as follows. Take note that several enzymes are involved in this process. 1. The Krebs cycle technically begins when the acetyl-CoA combines with oxaloacetic acid (OAA), a 4-C molecule, to produce citric acid, a 6-C molecule. 2. With the aid of an enzyme, the citric acid now goes through a series of reactions that releases energy. Water molecule is removed from the citric acid and is returned in a different location. The-OH group is repositioned, forming the molecule isocitrate. 3. Isocitrate is then oxidized, forming the a-ketoglutarate, a 5-C molecule. The byproducts of this reaction are NADH and CO, 4 The a-ketoglutarate loses its CO, and a coenzyme-A is added in its place. The decarboxylation occurs with the help of NAD, which then becomes NADH. The resulting molecule is called succinyl-CoA. 5. Succinyl-CoA is converted into succinate. Also in this reaction, a molecule of guanosine triphosphate (GTP) is synthesized. The GTP molecule has similar structure and energy properties to that of ATP and is used by cells the same way. The free phosphate group attacks the succinyl-CoA molecule, which detaches the COA. Then, phosphate is attached to GDP to come up with GTP, similar to the process that occur in ATP synthesis (from ADP to ATP). 6. Two hydrogens are removed from succinate, A molecule of flavin adenine dinucleotide (FAD), a coenzyme similar to NAD, is reduced to FADH, as it takes the hydrogens from the succinate. This reaction produces the fumarate. 7. Fumarate is then converted into malate as the addition of a water molecule is catalyzed. The final reaction is the regeneration of oxaloacetate. The resulting byproduct of this regeneration is NADH Recall that two pyruvate molecules were produced during glycolysis, causing the Krebs cycle to turn twice. Each tuts produces three molecules of NADH, single ATH one FADIH, and the by-product CO, which is exhaled. Stage III: Electron Transport Chain The electron transport chain (ETC) is a series of photon pumps on the inner membrane of the mitochondrion. Electron transport is the last stage of the cellular respiration. In this stage, the energy from NADH and FADH, from the Krebs cycle is transferred to ADP to produce ATP. This process is generally known as oxidative phosphorylation. This energy coupling mechanism in the cell was revealed by the work of Peter stored energy in the form of proton (1) gradient to phosphorylate (add phosphate) ADP and produce ATP. The pumping of hydrogen sons across the inner membrane creates higher concentration ions in the inner membrane than on the outside of the membrane. This chemiosmotic gradient causes the ions to flow back across the membrane where the concentration of ions is lower. ATP synthase lined in the matrix serve as a channel protein, helping the ions to move across the membrane. The chemiosmotic gradient powers the phosphorylation of ADP to ATP, which also occurs in the ATP synthase. After passing through the ETC, the oxygen, being the final hydrogen acceptor, combines with two electrons and two protons, forming a water molecule. Water is a by-product of cellular respiration and is excreted. MINI TEST 6-3 1. Which energy-releasing pathway yields the most ATF in each glucose molecule? 2. Briefly describe the two stages of aerobic respiration that follow glycolysis: (a) Krebs cycle (b) Electron transport chain Anaerobic Respiration Most cells carry out arrobic respiration when oxygen is present. Aerobic respiration is an efficient process that yields a lot of ATP. However, many organisms thrive in mud, marshes, animal gut, canned goods, sewage treatment pond, and deep oceans where oxygen is scarce. Organisms that can live without oxygen are called anaerobes. Cellular respiration that proceeds without the presence of oxygen is called anaerobic respiration. In the event that the oxygen supply becomes low, aerobic cells also perform fermentation and lactic acid fermentation anaerobic pathways. There are two common anaerobic pathways in these cells, alcoholic fermentation and lactic acid fermentation. In alcoholic fermentation, ethyl alcohol and carbon dioxide are produced by some cells using the pyruvate from glycolysis. Each pyruvate molecule is rearranged into acetaldehyde and carbon dioxide, which is eventually released. NADII gives up electrons to acetaldehyde to form ethanol Fermentation is widely used in the industry. Yeast, a fungus used in making bread. can undergo anaerobic respiration. Bakers aux sugar, flour, water, and yeast to form the bread dough. The dough rises due to the carbon dioxide and alcohol released by the yeast cells trapped in air bubbles. Beer and wine manufacturers, we yeast to ferment the sugars in wheat and grape juice, forming alcoholic beverages such as beer and wine. In some cells, glycolysis produces two pyruvates, two NADH molecules, and two ATP molecules. Pyruvate itself becomes the final acceptor of the electrons from the NADH that produces the final product: lactate. Oftentimes, this product is called lactic acid. Human skeletal muscles can carry out fermentation when the blood cannot supply the cells with adequate oxygen during strenuous activities. When lactic acid builds up in the muscles, fatigue, burning sensation, and cramps result. Lactic acid will continue to build up until there is adequate supply of oxygen. Lactic acid is then converted back into pyruvate in the liver. Muscles also restore normal functions. Have you ever wondered why milk or cream turns sour after some time? Bacterial cells that undergo fermentation are responsible in producing lactate that turns the milk sour. These bacteria are used in manufacturing yogurt and sour milk products. Fermentation pathways do not breakdown and utilize the glucose completely. ATP is no longer produced beyond the process of glycolysis. Thus, energy produced is just enough for some single-celled organisms, or the energy can only be used by multicellular organisms for a short period.MATERI PERKULIAHAN Sub-CPMK 1.7 Mampu menghitung performa produksi (IP, FCR) dan melakukan Analisis Usaha Broiler per satu siklus produksi 1. IDENTITAS MATERI Mata Kuliah : Produksi Ternak Potong Unggas Komersil Pokok Bahasan : Evaluasi Performa Produksi dan Analisis Usaha Broiler Sub-CPMK : 1.7 Capaian Pembelajaran : Mahasiswa mampu: Menjelaskan parameter performa produksi broiler. Menghitung Feed Conversion Ratio (FCR). Menghitung Indeks Performa (IP). Menganalisis hasil performa produksi dalam satu siklus pemeliharaan. Menyusun analisis usaha broiler per satu siklus produksi. Menarik kesimpulan kelayakan usaha berdasarkan hasil teknis dan ekonomis. ________________________________________ 2. TUJUAN PEMBELAJARAN Setelah mengikuti perkuliahan ini, mahasiswa diharapkan mampu: Memahami konsep dasar evaluasi performa broiler. Mengidentifikasi data teknis yang dibutuhkan dalam perhitungan performa. Menghitung mortalitas, deplesi, bobot badan rata-rata, FCR, dan IP. Menghitung biaya produksi, penerimaan, keuntungan, dan efisiensi usaha broiler. Menganalisis hubungan antara performa teknis dengan hasil ekonomi usaha. ________________________________________ 3. DESKRIPSI MATERI Dalam usaha broiler modern, keberhasilan produksi tidak hanya diukur dari bobot panen, tetapi juga dari efisiensi penggunaan pakan, tingkat kematian, umur panen, serta keuntungan yang diperoleh per siklus. Oleh karena itu, diperlukan kemampuan untuk menghitung parameter teknis produksi seperti FCR dan IP, serta mengaitkannya dengan analisis usaha agar dapat diketahui apakah usaha berjalan efisien dan menguntungkan. ________________________________________ 4. POKOK-POKOK MATERI A. Konsep Dasar Evaluasi Performa Produksi Broiler 1. Pengertian Performa Produksi Performa produksi broiler adalah gambaran tingkat keberhasilan pemeliharaan ayam broiler selama satu periode/siklus pemeliharaan yang dinilai dari indikator teknis tertentu. 2. Parameter Utama Performa Produksi Parameter yang umum digunakan meliputi: Populasi awal DOC Jumlah ayam hidup saat panen Mortalitas (%) Deplesi (%) Umur panen (hari) Bobot badan rata-rata panen (kg/ekor) Total konsumsi pakan (kg) Feed Conversion Ratio (FCR) Indeks Performa (IP) ________________________________________ B. Parameter Teknis dan Rumus Perhitungan ________________________________________ 1. Mortalitas (%) Pengertian: Persentase ayam yang mati selama masa pemeliharaan. Rumus: "Mortalitas (%)"="Jumlah ayam mati" /"Populasi awal" Γ100 Contoh: Populasi awal = 5.000 ekor Ayam mati = 150 ekor "Mortalitas"=150/5000Γ100=3% ________________________________________ 2. Deplesi (%) Pengertian: Persentase pengurangan populasi akibat kematian dan afkir/culling. Rumus: "Deplesi (%)"="Ayam mati + ayam afkir" /"Populasi awal" Γ100 Jika tidak ada afkir, maka deplesi = mortalitas. ________________________________________ 3. Persentase Ayam Hidup / Livability (%) Rumus: "Livability (%)"="Jumlah ayam panen" /"Populasi awal" Γ100 atau "Livability (%)"=100-"Deplesi (%)" ________________________________________ 4. Bobot Badan Rata-Rata Panen Rumus: "Bobot rata-rata (kg/ekor)"="Total bobot panen (kg)" /"Jumlah ayam panen (ekor)" ________________________________________ 5. Feed Conversion Ratio (FCR) Pengertian: FCR adalah rasio jumlah pakan yang dikonsumsi terhadap pertambahan bobot hidup atau bobot hidup yang dihasilkan. Rumus praktis broiler: "FCR"="Total konsumsi pakan (kg)" /"Total bobot hidup panen (kg)" Interpretasi: Semakin rendah nilai FCR, semakin efisien penggunaan pakan. Contoh: Total pakan = 16.000 kg Total bobot panen = 9.600 kg "FCR"=16.000/9.600=1,67 Interpretasi: Untuk menghasilkan 1 kg bobot hidup, dibutuhkan 1,67 kg pakan. ________________________________________ 6. Indeks Performa (IP) Pengertian: IP adalah indikator gabungan untuk menilai performa pemeliharaan broiler berdasarkan: daya hidup, bobot badan, umur panen, efisiensi pakan. Rumus umum IP: "IP"=("Livability (%)" Γ"Bobot rata-rata (kg)" )/("Umur panen (hari)" Γ"FCR" )Γ100 Contoh: Livability = 97% Bobot rata-rata = 2,0 kg Umur panen = 35 hari FCR = 1,67 "IP"=(97Γ2,0)/(35Γ1,67)Γ100 "IP"=194/58,45Γ100=331,9 Jadi, IP = 331,9 ________________________________________ C. Interpretasi Nilai FCR dan IP 1. Interpretasi FCR < 1,50 = sangat efisien 1,50 β 1,65 = efisien/baik 1,66 β 1,80 = cukup > 1,80 = kurang efisien Catatan: Nilai ini dapat berbeda tergantung strain, umur panen, sistem kandang, musim, dan standar perusahaan. ________________________________________ 2. Interpretasi IP (umum) > 400 = sangat baik / Ω
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ΨͺΨ§Ψ² 351 β 400 = baik 301 β 350 = cukup baik 251 β 300 = sedang < 250 = kurang Dalam praktik kemitraan, IP sering menjadi dasar evaluasi bonus performa. ________________________________________ 5. HUBUNGAN PARAMETER TEKNIS DENGAN KINERJA USAHA Performa teknis sangat menentukan keuntungan usaha broiler: FCR naik β biaya pakan meningkat β laba turun Mortalitas naik β ayam panen berkurang β penerimaan turun Bobot panen rendah β total kg jual turun β omzet turun Umur panen terlalu lama β biaya operasional naik β efisiensi turun IP tinggi β menunjukkan usaha lebih efisien dan berpotensi lebih menguntungkan ________________________________________ 6. ANALISIS USAHA BROILER PER SATU SIKLUS PRODUKSI A. Pengertian Analisis Usaha Analisis usaha broiler adalah perhitungan ekonomi untuk mengetahui: total biaya produksi, total penerimaan, pendapatan/keuntungan, efisiensi usaha, kelayakan usaha per satu siklus pemeliharaan. ________________________________________ B. Komponen Biaya Produksi 1. Biaya Tetap (Fixed Cost) Biaya yang relatif tidak berubah dalam satu siklus, misalnya: Penyusutan kandang Penyusutan peralatan Pajak/sewa lahan (jika dihitung) Bunga modal tetap (opsional) 2. Biaya Variabel (Variable Cost) Biaya yang berubah sesuai jumlah populasi, misalnya: DOC Pakan Obat, vitamin, vaksin (OVK) Sekam/litter Gas/LPG/bahan bakar brooder Listrik dan air Tenaga kerja Desinfektan dan sanitasi Biaya panen/angkut Biaya lain-lain operasional Catatan penting: Pada usaha broiler, pakan biasanya menyumbang 60β70% dari total biaya produksi. ________________________________________ 7. RUMUS ANALISIS USAHA 1. Total Biaya Produksi (TC) "TC"="Biaya Tetap"+"Biaya Variabel" ________________________________________ 2. Total Penerimaan (TR) Jika dijual berdasarkan bobot hidup: "TR"="Total bobot panen (kg)"Γ"Harga jual per kg" Jika ada penerimaan tambahan: "TR total"="Penjualan ayam"+"Penjualan kotoran"+"Penjualan karung pakan/bekas" ________________________________________ 3. Keuntungan / Pendapatan (Ο) Ο="TR"-"TC" ________________________________________ 4. R/C Ratio R/C="TR" /"TC" Kriteria: R/C > 1 β usaha menguntungkan R/C = 1 β impas R/C < 1 β usaha merugi ________________________________________ 5. B/C Ratio (opsional) B/C=("TR" -"TC" )/"TC" ________________________________________ 6. Harga Pokok Produksi (HPP) "HPP per kg"="Total biaya produksi" /"Total bobot panen (kg)" Interpretasi: Jika harga jual > HPP β usaha berpotensi untung. FAKTOR-FAKTOR YANG MEMPENGARUHI FCR, IP, DAN KEUNTUNGAN A. Faktor Teknis Kualitas DOC Mutu pakan Program brooding Kepadatan kandang Ventilasi dan suhu kandang Kualitas air minum Program vaksinasi dan biosekuriti Manajemen litter Ketepatan waktu panen B. Faktor Ekonomi Harga DOC Harga pakan Harga jual ayam hidup Biaya tenaga kerja Biaya energi (gas/listrik) Sistem usaha (mandiri vs kemitraan) STRATEGI MENINGKATKAN PERFORMA DAN KEUNTUNGAN Gunakan DOC berkualitas dan seragam Laksanakan brooding secara optimal (0β14 hari sangat krusial) Pastikan feed intake dan water intake normal Terapkan biosekuriti ketat Kurangi feed wastage Pantau bobot badan mingguan Lakukan culling selektif Tentukan umur panen berdasarkan kombinasi FCR, bobot, dan harga pasar Evaluasi performa tiap siklus dengan pencatatan lengkap Gunakan data historis untuk perbaikan keputusan produksi RANGKUMAN MATERI FCR menunjukkan efisiensi penggunaan pakan. Semakin kecil FCR, semakin baik. IP adalah indikator gabungan performa broiler yang mempertimbangkan: daya hidup, bobot panen, umur panen, efisiensi pakan. Analisis usaha broiler harus mengintegrasikan: aspek teknis (FCR, IP, mortalitas, bobot panen) aspek ekonomi (biaya, penerimaan, laba, R/C, HPP) Usaha broiler dinilai baik apabila: FCR efisien, mortalitas rendah, IP tinggi, HPP lebih rendah dari harga jual, R/C ratio > 1. PENUTUP Kemampuan menghitung FCR, IP, dan melakukan analisis usaha broiler per satu siklus produksi merupakan kompetensi penting dalam manajemen produksi broiler modern. Mahasiswa tidak hanya dituntut memahami teori, tetapi juga harus mampu membaca data produksi, melakukan perhitungan secara akurat, dan mengambil keputusan manajerial berbasis hasil analisis teknis-ekonomis. REFERENSI SINGKAT (untuk bahan ajar/RPS) North, M.O., & Bell, D.D. Commercial Chicken Production Manual. Leeson, S., & Summers, J.D. Commercial Poultry Nutrition. Bell, D.D., & Weaver, W.D. Commercial Chicken Meat and Egg Production. Saputra, dkk. Literatur manajemen broiler modern dan analisis usaha ternak unggas. Standar teknis perusahaan integrator/kemitraan broiler (CP, Japfa, Malindo, dll.) untuk benchmarking FCR dan IP. Period 2Period 2 _ Lesson 18Period 2 _ Lesson 18Period 2 Natural ResourcesPeriod 2 Allusions Review