Banana plant tissue culture Biotechnology

Let’s plant strawberries 🍓 🥰🥰😘
On going thesis ; my second exposure on lowland strawberry production.. soon to produce heat resistant variety.

Strawberries 🍓 are a delicious and nutritious fruit, packed with vitamins, antioxidants, and flavor! They're perfect for snacking, baking, or adding to your favorite recipes. What's your favorite strawberry treat or recipe? 🍰👀

Strawberries have a rich history that dates back to ancient times. Here's a brief overview:

# # Ancient Origins
1. *Wild strawberries*: Wild strawberries (Fragaria vesca) were consumed by ancient Romans and Europeans.
2. *Roman cultivation*: The Romans cultivated strawberries in their gardens.

# # Modern Strawberry
1. *Fragaria x ananassa*: The modern strawberry (Fragaria x ananassa) is a hybrid of two American species: Fragaria virginiana and Fragaria chiloensis.
2. *18th-century development*: The modern strawberry was developed in the 18th century in Europe.

# # Popularity and Cultivation
1. *Global cultivation*: Strawberries are now grown worldwide, with many countries cultivating them for fresh consumption and processing.
2. *Breeding programs*: Strawberry breeding programs continue to develop new varieties with improved flavor, texture, and disease resistance.

# # Fun Facts
1. *Not a true berry*: Strawberries are an aggregate fruit, meaning they're formed from multiple ovaries of a single flower.
2. *Nutritional value*: Strawberries are rich in vitamin C, antioxidants, and fiber.

I hope you enjoyed this brief history of strawberries!

Crop Science Review. 📚Reference: Sleper, D. A., & Poehlman, J. M. (2006). Breeding Field Crops. #agrikamireview2025 #Review2025 #LEA2025 #Agrikami #CropScience #agrikamireview

UNDERSTANDING THE FERTILIZER NUMBERS:-

Fertilizer numbers, also known as N-P-K numbers, represent the percentage of three essential macronutrients in a fertilizer:

1.Nitrogen (N): Promotes leaf growth, green color, and vegetative development.

2. Phosphorus (P): Encourages root development, flower and fruit formation, and overall plant maturity.

3. Potassium (K): Helps with overall plant health, resistance to disease, and water balance.

Reading Fertilizer Numbers:-

A typical fertilizer label will display three numbers, separated by dashes (e.g., 10-20-10). These numbers represent the percentage of N-P-K in the fertilizer.

- First number (N): Nitrogen percentage

- Second number (P): Phosphorus percentage (usually expressed as P2O5)

- Third number (K): Potassium percentage (usually expressed as K2O)

Examples of Fertilizer Numbers:-

1. 10-20-10: This fertilizer contains 10% nitrogen, 20% phosphorus, and 10% potassium.

2. 20-5-15: This fertilizer contains 20% nitrogen, 5% phosphorus, and 15% potassium.

3. 0-0-60: This fertilizer contains 0% nitrogen, 0% phosphorus, and 60% potassium (often used as a potassium supplement).

Choosing the Right Fertilizer:-

When selecting a fertilizer, consider the specific needs of your plants, soil type, and growth stage. For example:

- Lawns:- Often require a balanced fertilizer with a higher nitrogen content (e.g., 20-5-10).

- Vegetable gardens: May benefit from a fertilizer with a higher phosphorus content (e.g., 10-20-10).

- Fruit trees: May require a fertilizer with a higher potassium content (e.g., 10-10-20).

We should remember to always follow the recommended application rates and guidelines for our specific fertilizer and plants.

100 Scientific Name of Crops:

Cereals and Grains:

1. Wheat: Triticum aestivum
2. Rice: Oryza sativa
3. Corn (Maize): Zea mays
4. Barley: Hordeum vulgare
5. Oat: Avena sativa
6. Sorghum: Sorghum bicolor
7. Millet: Panicum miliaceum
8. Rye: Secale cereale
9. Triticale: × Triticosecale
10. Teff: Eragrostis tef
11. Quinoa: Chenopodium quinoa
12. Amaranth: Amaranthus hypochondriacus
13. Buckwheat: Fagopyrum esculentum
14. Millet (Foxtail): Setaria italica
15. Pearl Millet: Pennisetum glaucum
16. Finger Millet: Eleusine coracana

Legumes:

17. Soybean: Glycine max
18. Peanut: Arachis hypogaea
19. Common Bean: Phaseolus vulgaris
20. Kidney Bean: Phaseolus vulgaris
21. Lima Bean: Phaseolus lunatus
22. Chickpea: Cicer arietinum
23. Lentil: Lens culinaris
24. Pea: Pisum sativum
25. Fava Bean: Vicia faba
26. Lupin: Lupinus angustifolius
27. Cowpea: Vigna unguiculata
28. Mung Bean: Vigna radiata
29. Black-eyed Pea: Vigna unguiculata
30. Adzuki Bean: Vigna angularis

Fruits:

31. Apple: Malus domestica
32. Pear: Pyrus communis
33. Peach: Prunus persica
34. Plum: Prunus domestica
35. Cherry: Prunus avium
36. Apricot: Prunus armeniaca
37. Grape: Vitis vinifera
38. Orange: Citrus sinensis
39. Mandarin Orange: Citrus reticulata
40. Lemon: Citrus limon
41. Lime: Citrus aurantifolia
42. Grapefruit: Citrus paradisi
43. Banana: Musa acuminata
44. Mango: Mangifera indica
45. Pineapple: Ananas comosus
46. Papaya: Carica papaya
47. Avocado: Persea americana
48. Strawberry: Fragaria × ananassa
49. Blueberry: Vaccinium corymbosum
50. Raspberry: Rubus idaeus
51. Blackberry: Rubus fruticosus
52. Cranberry: Vaccinium macrocarpon
53. Pomegranate: Punica granatum
54. Fig: Ficus carica
55. Date: Phoenix dactylifera
56. Olive: Olea europaea

Vegetables:

57. Potato: Solanum tuberosum
58. Sweet Potato: Ipomoea batatas
59. Tomato: Solanum lycopersicum
60. Cucumber: Cucumis sativus
61. Pumpkin: Cucurbita pepo
62. Squash: Cucurbita moschata
63. Watermelon: Citrullus lanatus
64. Cantaloupe: Cucumis melo
65. Onion: Allium cepa
66. Garlic: Allium sativum
67. Carrot: Daucus carota
68. Lettuce: Lactuca sativa
69. Spinach: Spinacia oleracea
70. Cabbage: Brassica oleracea
71. Broccoli: Brassica oleracea
72. Cauliflower: Brassica oleracea
73. Brussels Sprouts: Brassica oleracea
74. Kale: Brassica oleracea
75. Collard Greens: Brassica oleracea
76. Turnip: Brassica rapa
77. Radish: Raphanus sativus
78. Beet: Beta vulgaris
79. Swiss Chard: Beta vulgaris
80. Asparagus: Asparagus officinalis
81. Green Bean: Phaseolus vulgaris
82. Peas: Pisum sativum
83. Celery: Apium graveolens
84. Parsley: Petroselinum crispum
85. Dill: Anethum graveolens
86. Fennel: Foeniculum vulgare
87. Chives: Allium schoenoprasum
88. Green Onion: Allium fistulosum
89. Scallion: Allium cepa
90. Ginger: Zingiber officinale
91. Turmeric: Curcuma longa
92. Cassava: Manihot esculenta
93. Yam: Dioscorea spp.

Other Crops:

94. Cotton: Gossypium hirsutum
95. Sugarcane: Saccharum officinarum
96. Sugar Beet: Beta vulgaris
97. Coffee: Coffea arabica
98. Tea: Camellia sinensis
99. Cocoa: Theobroma cacao
100. Flax: Linum usitatissimum

Comparison between cow, sheep, and poultry manure

1. Cow Manure (🐄)

Advantages:

Improves soil structure:
Enhances soil properties such as aeration and water retention, especially beneficial for sandy soils lacking organic matter.

Slow nutrient release:
Decomposes slowly, providing a steady supply of nutrients to plants over time, reducing the need for frequent fertilization.

Suitable for organic farming:
Low salt and chemical content make it ideal for organic agriculture.

Milder odor:
Compared to poultry manure, it has a less pungent and more tolerable smell.

Disadvantages:

Lower nutrient content:
Contains relatively low levels of nitrogen 👎, phosphorus (P), and potassium (K), making it less effective for immediate fertilization.

High moisture content:
Moisture levels can reach up to 85%, increasing weight and delaying decomposition.

Slow decomposition:
May not suit crops requiring quick nutrient availability.

Usage:
Best suited for long-term crops like trees and plantations requiring soil structure improvement.

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2. Sheep Manure (🐑)

Advantages:

Nutrient balance:
Contains moderate levels of nitrogen, phosphorus, and potassium, making it suitable for most crops.

Faster decomposition:
Breaks down more quickly than cow manure, supplying nutrients at a faster rate.

Improves soil:
Increases organic matter without significantly affecting soil acidity.

Milder odor:
Less intense than poultry manure, making it suitable for fields near residential areas.

Disadvantages:

Limited quantity:
Sheep produce less manure than cows or poultry, making it harder to obtain in large amounts.

W**d seeds:
If not well-processed, it may contain w**d seeds that can germinate in the soil.

Usage:
Ideal for seasonal crops such as vegetables and grains, offering balanced nutrient release.

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3. Poultry Manure (🐓)

Advantages:

Rich in nutrients:
Contains the highest levels of nitrogen 👎, phosphorus (P), and potassium (K), making it excellent for quick fertilization.
Promotes rapid crop growth.

Quick decomposition:
Releases nutrients rapidly, ideal for crops needing immediate nutrition.

Economic efficiency:
Due to its high concentration, small amounts yield great results.

Disadvantages:

Risk of plant burn:
High nitrogen content can harm plants if overused or unprocessed.

Strong odor:
Has an intense smell that can be unpleasant near populated areas.

Increased acidity:
Overuse may increase soil acidity, negatively affecting some crops.

Needs processing:
May contain harmful bacteria such as Salmonella and E. coli, requiring proper treatment before use.

Usage:
Primarily used for fast-growing crops like leafy vegetables and fruits.

General Tips:

Composting manure reduces odor and enhances effectiveness.

Mixing different types can provide varied benefits, balancing slow and quick decomposition.

Soil testing before application ensures the correct manure type meets crop needs.

Credit to the rightful owner
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How to make a rotating irrigation system using plastic bottles – 10 cents is enough
1. Gather Materials
Two large plastic bottles (1.5 to 2 liters each)
Bamboo skewer or metal rod
Thin tubing or straws
String or thin wire
Scissors or craft knife
Awl or nail
Hot glue or waterproof adhesive
2. Prepare Bottles
Clean both bottles.
Cut the top off one bottle (water reservoir).
Cut the bottom off the second bottle, then cut it in half lengthwise (water wheels).
3. Create Water Wheels
Glue straws or tubing inside the curved pieces.
Ensure connections are sealed and secure.
4. Assemble the Rotating System
Insert skewer or rod through the center of the water reservoir.
Attach water wheels to the skewer/rod, balancing them. Secure with string or wire.
5. Make Water Inlet Holes
Punch small holes near the bottom of the water reservoir with an awl or nail.
6. Set Up the System
Position the system in your garden.
Elevate the water reservoir slightly.
7. Add Water
Fill the reservoir. Water will flow through the holes, rotate the wheels, and spray water.
8. Maintenance Tips
Ensure water wheels are balanced.
Adjust hole size and number to control water flow.
Regularly check for and clear clogs in straws/tubing.
By following these steps, you can create an effective and low-cost rotating irrigation system using plastic bottles.

How to grow garlic indoors and care .....
,
1. Select Bulbs: Choose firm, healthy garlic bulbs suited for indoor growing.
2. Prepare Containers: Use deep pots with drainage holes and fill with well-draining soil or compost.
3. Plant Cloves: Break bulbs into cloves, plant pointed end up, 1-2 inches deep, 4-6 inches apart.
4. Provide Sunlight: Place in a sunny spot with 6-8 hours of sunlight daily, maintaining consistent temperature.
5. Water and Fertilize: Keep soil moist, fertilize every 2-3 weeks with balanced fertilizer.
6. Mulch and W**d: Apply organic mulch to retain moisture, remove w**ds regularly.
7. Monitor Growth: Watch for green shoots, pests, and diseases, addressing issues promptly.
8. Harvest: Harvest when foliage yellows, cure bulbs for 2-3 weeks, then store in a cool, dry place.
By following these steps, you can easily grow garlic indoors and enjoy fresh, flavorful bulbs year-round.

Grow Your Own Endless Supply of Ginger at Home: Easy Guide to Get Started!

1. Selecting the Right Ginger:
Choose a firm, plump ginger rhizome with well-developed eyes.
Avoid shriveled or moldy rhizomes.

2. Preparing the Rhizome:
Soak the rhizome in lukewarm water overnight to hydrate it.
Cut into sections with one or two eyes each.

3. Choosing a Container:
Use a wide, shallow container with drainage holes.
Fill with well-draining potting mix rich in organic matter.

4. Planting and Watering:
Bury rhizome sections just below the soil surface with eyes facing up.
Water thoroughly after planting and keep soil moist but not waterlogged.

5. Providing Ideal Conditions:
Maintain a temperature of 75-85°F (24-29°C) and high humidity.
Consider using a humidity tray to increase moisture levels.

6. Watering and Fertilizing:
Keep soil consistently moist, watering regularly.
Fertilize every 2-4 weeks with balanced liquid fertilizer during the growing season.

7. Encouraging Blooms:
Provide ample sunlight, warmth, and humidity.
Avoid unnecessary disturbances to the plant.

8. Harvesting and Enjoying:
Harvest rhizomes as needed after 8-10 months.
Store excess ginger in a cool, dry place for future use.

Conclusion:
Growing ginger at home is simple and rewarding, offering a continuous supply of fresh rhizomes and the possibility of beautiful blooms.

Follow these steps to enjoy the satisfaction of homegrown goodness for years to come.

Step-by-Step Guide to Making Liquid Fertilizer

1. Collect Organic Material
organic material

Gather organic waste, focusing on plant-based materials. Kitchen scraps (excluding meat and dairy products), yard waste like grass clippings and leaves, and even w**ds can serve as the base for your fertilizer.

2. Prepare the Container
Place the organic material in the container, filling it up to about halfway. The size of the container will depend on the quantity of fertilizer you wish to make, but a standard 5-gallon bucket is a good start.

3. Add Water
Fill the container with water, covering the organic matter. Rainwater is ideal due to its purity, but tap water will work if left to sit for a day to allow chlorine to evaporate.

4. Fermentation Process
fermate organic waste
Seal the container with its lid, leaving it slightly ajar to allow gases to escape. Stir the mixture every few days to oxygenate it and facilitate the breakdown of materials. The fermentation process can take anywhere from two weeks to two months, depending on temperature and the materials used. You’ll know it’s ready when the mixture smells earthy and the solids have largely broken down.

5. Strain the Liquid
Once fermentation is complete, strain the liquid into another container, removing the solid waste. The resulting liquid is your concentrated liquid fertilizer.

6. Dilution and Application
Before applying the fertilizer to your plants, dilute it with water to prevent nutrient burn. A general ratio is 1 part fertilizer to 10 parts water, but this can vary based on the concentration of your mixture. Apply the diluted solution directly to the soil around your plants.

Benefits and Considerations
fertilizer on a tomato plant
Eco-friendly: This method recycles waste into a valuable resource, reducing landfill use and chemical runoff.
Cost-effective: It utilizes readily available materials, saving money on commercial fertilizers.
Nutrient-rich: The final product is full of essential nutrients