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Ganixx-Bio Liquid Calcium – 32% Calcium

Organic liquid calcium fertiliser
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Ganixx-Bio Liquid Calcium – 32% Calcium
Formerly known as “Bio Liquid Calcium”


Organic liquid calcium fertiliser for strong growth, soil balance, and fruit quality improvement.

Ganixx-Bio Liquid Calcium is a premium, biologically active organic calcium fertiliser designed to correct calcium deficiencies and strengthen plant structure. Manufactured in Queensland, Australia, it provides a highly bio-available calcium source through a unique biological digestion process that enhances plant uptake and soil health.

Produced using 1–2 µm micronised calcium carbonate, the formula also contains magnesium, silica, sulphur, vitamin B1, and sea minerals for balanced crop nutrition. The product’s non-hydrolysed formulation ensures there are no acid or alkali residues, while its organic suspension agent guarantees that the product will not settle, ensuring even distribution through foliar or fertigation systems.

Uses – For Fruit, Vine, Crop, Turf, and Pasture Nutrition

Ganixx-Bio Liquid Calcium is suitable for fruit trees, vines, vegetable crops, turf, broadacre, and pasture systems. It promotes root and foliage growth, improves fruit firmness, and enhances seed germination and post-harvest quality. This product also helps restore soil calcium balance after heavy rainfall and contributes to improved water and nutrient movement within plant tissues.




Technical Specifications
 
Nutrient Typical Analysis (W/V)
Calcium (water soluble) 32.00%
Nitrogen (as organic liquid) 1.00%
Phosphorous (water soluble) 0.25%
Potassium (organic) 0.064%
Magnesium 0.35%
Sulphur (organic) 0.05%
Iron 0.17%
Manganese 0.02%
Zinc 0.002%
Boron 0.0012%
Iodine 0.001%
Silica 0.45%
Rare Earth Minerals 0.005%
Fulvates (organic) 0.10%
Humates 0.01%
Alginates 0.05%
Vitamin B1 0.05%
Sugars (micro-feed) 0.20%
Kelp Extracts 0.40%
Filtration Final filtered to 50 microns

Organica Product Packaging & Weight Specifications

Container Type Dimensions (cm / m) Weight Range Notes
20 Litre Drum 23 × 30 × 40 cm 23–27 kg (varies by product) Standard size for smaller quantities of Organica liquid formulations.
20 Litre Bucket 30 × 30 × 40 cm 23–27 kg (varies by product) Used for Organica paste, suspension, or heavy nutrient blends requiring a wider base.
200 Litre Drum 1.2 × 1.2 × 1.2 m 240–300 kg Commonly used for bulk product supply to farms and distributors.
1000 Litre IBC 1.2 × 1.2 × 1.2 m 1.2–1.6 tonnes Ideal for large-scale agricultural applications and long-term storage of Organica liquid nutrients.

*All weights are approximate and may vary depending on the Organica product composition and density.

Compatibility

Ganixx-Bio Liquid Calcium is compatible with most fertilisers and biological inputs, except acidic, phosphate, or sulphate-based products. It can be applied through boom spray, fertigation, or foliar systems. Store in a cool, shaded location to preserve microbial activity.

Why Choose This Product

Ganixx-Bio Liquid Calcium provides growers with a natural, efficient way to supply calcium while maintaining soil and crop balance. Its biological formulation promotes nutrient uptake, strengthens cell structure, and enhances resilience against stress. With added trace elements and microbial support compounds, it is a trusted choice for both conventional and organic operations seeking sustainable crop performance.

Frequently Asked Questions


 
Key Features

• 32% immediately available calcium for rapid uptake
• Made from 1–2 µm micronised calcium carbonate (lime)
• Patented digestion process increases calcium bioavailability
• Unique suspension agent – guaranteed not to settle
• Enriched with fish, seaweed, kelp, and sea minerals
• Contains chelated trace elements, soluble silica, and natural plant hormones
• Not hydrolysed – no acid or alkali used in manufacture
• Includes beneficial micro-organisms for improved soil biology
• Promotes root development, seed germination, and crop resilience
• Certified organic – BFA/Australian Organic Farm Input No. 442
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File Title File Description Type Section
MSDS-Ganixx-Bio-Liquid-CAL.pdf Bio Calcium by Organica Australia Safety Data Sheet Specifications Document

Lichen in Olive Trees

Lichen is a fascinating organism formed through a symbiotic relationship between a fungus and an alga or cyanobacterium. It’s not a single organism, but a composite that relies on both partners to survive. The fungus provides structure and protection, while the algal or bacterial component performs photosynthesis to produce food. read more....
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Bark Photosynthesis in Olive Trees

While leaves are the primary sites of photosynthesis in plants, bark photosynthesis, also known as corticular photosynthesis, plays a significant role in the carbon economy of woody plants, including olive trees (Olea europaea). This process involves the fixation of carbon dioxide (CO₂) by the green tissues in the bark, contributing to the tree's overall photosynthetic capacity, especially under stress conditions.
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Understanding Fruit and Flower Drop in Fruit Trees: Causes and Remedies

OLIVE GROWING

Understanding Fruit and Flower Drop in Fruit Trees: Causes and Remedies

At the 5th International Conference on Sustainable Agriculture and Biosystems, researchers in Iran presented findings on why fruit and flower drop occurs in fruit trees and what growers can do to reduce losses. Drawing on their work, we explore the phenomenon of fruit and flower drop, the underlying causes, and practical remedies for orchard managers.    

The Role of Fruit Trees in Agriculture

Fruit trees contribute significantly to agricultural economies across the world. Their production supports farm income, provides employment for skilled horticulturists, and underpins industries ranging from fresh produce to processing and food manufacturing. Cultivation involves a complex mix of practices: careful irrigation management, balanced fertilisation, pruning, pest control, and the application of modern technologies. Beyond economics, fruit trees are valued for their nutritional contributions, supplying sugars, oils, proteins, vitamins, and essential minerals through both fresh consumption and processed goods.

The Phenomenon of Fruit and Flower Drop

Fruit and flower drop is a natural occurrence in many tree species. Its extent varies according to cultivar, climate, soil type, and orchard practices. In some cases, drop is beneficial, helping the tree regulate excessive fruit load through “natural thinning.” But when drop is excessive or occurs at the wrong stage, it becomes detrimental, reducing yields and profitability.

Researchers typically divide drop into three categories:

  1. Natural Drop: This type results from competition between a very high number of flowers. Up to 90% of flowers and fruitlets may be shed in some species, but the remaining fruit usually develop adequately. Growers sometimes assist by thinning to ensure the fruit that remain receive sufficient nutrition and reach high quality.
  2. Abnormal Drop: This type is more damaging because it affects flowers and fruits at various stages of development, including larger fruit, often reducing yields significantly.
  3. Extreme Temperature Drop: This occurs during periods of hot, dry weather (often around June in many regions). While widespread, it usually has limited impact on the final crop load.

Causes of Abnormal Drop

Environmental Factors

  • Extreme cold or heat events can damage blossoms or young fruit.
  • Strong winds, particularly dust-laden storms, may strip flowers and fruit from trees.
  • Heavy rainfall or hail can injure delicate blossoms.
  • Excessive direct sunlight can cause sunburn, leading to premature fruit drop.
Mechanical Factors
  • High-pressure pesticide or nutrient spraying can dislodge flowers.
  • Over-application or incorrect doses of sprays may also contribute to flower drop.
Physiological Factors
  • Poor pollination and failed fertilisation result in flowers dropping.
  • Over-competition for nutrients between flowers and developing fruit increases drop.
  • Nutrient deficiencies, especially nitrogen and zinc, play a role.
  • Irregular irrigation - including overwatering that suffocates roots - can trigger drop.
  • Shallow soils limit root systems, reducing nutrient uptake and increasing drop.
  • Weak or diseased leaves caused by pests, fungal infections, or poor tree health reduce a tree’s ability to support fruit.
  • Misuse of plant growth regulators or tank mix errors in spraying can disrupt flowering.
  • Infections of flowers or fruit by fungi or insects often lead to drop.
  • Natural ripening and senescence also account for some degree of fruit shedding.

The Science Behind Fruit and Flower Drop

The underlying mechanism of drop is closely linked to plant hormones. As fruits grow, the concentration of auxins (growth-promoting hormones) declines, while ethylene levels rise. This shift lowers the fruit detachment force (FDF), weakening the connection between fruit and tree. The abscission zone (the separation layer) becomes increasingly sensitive to ethylene, causing fruit drop. Environmental conditions such as temperature and humidity interact with these hormonal signals to intensify drop.

Remedies to Reduce Fruit and Flower Drop

Growers can apply several strategies to reduce drop and improve fruit set:

  • Fertilisation: Apply fertilisers well before flowering to build soil fertility. Nitrogen should be supplied before bloom, not after, to avoid negative effects.
  • Micronutrient Sprays: Foliar applications of calcium, zinc, and boron—adjusted for tree age and timing - can enhance pollination and fruit retention.
  • Pruning: Moderate winter pruning balances vegetative growth with fruit production.
  • Girdling: In some fruit tree industries (e.g., apples and pears), carefully removing a ring of bark from branches at flowering can improve fruit set.
  • Irrigation Management: Avoid excessive watering during bloom and fruit set to prevent root suffocation.
  • Growth Regulators: The use of auxin-based products, such as seaweed extracts (rich in auxins, cytokinins, and gibberellins), can delay fruit drop and extend the flowering period.
  • Pest and Disease Management: Prompt control of pests and fungal infections prevents cascading effects on fruit drop.
  • Pollination Support: For self-incompatible varieties, ensure compatible cultivars or introduce pollinators like bees and butterflies.
  • Windbreaks: Plant hedges or wind barriers to reduce wind damage and limit flower and fruit loss.

Practical Advice

While some degree of fruit and flower drop is unavoidable, excessive losses can usually be mitigated through careful orchard management. Attention to fertilisation, irrigation, pest control, and pollination provides the best defence against unnecessary drop.

Further Reading and References

Scientific Reference

Al-Dulaimy, A.F.Z., Alalaf, A.H., Al-Hayali, R.E.Y., & ALTaey, D.K.A. (2023). Flowers and Fruits Drop in Fruit Trees … Causes and Solutions: A review. Practical Advice

Presented at the 5th International Conference for Agricultural and Environment Sciences. IOP Conf. Ser.: Earth Environ. Sci. 1158 042010. Read Full Article

Photo credit: “Landscape view of the flowers of an olive tree (Olea europaea)” by Zsolyomi, available on Shutterstock (Asset ID: 2470400251). Licensed via Shutterstock Royalty-Free License.

Managing Phytophthora Root Rot in Australian Olive Production

Phytophthora root rot is one of the most destructive diseases affecting Australian olive groves. Caused by several Phytophthora species thriving in waterlogged soils, it can lead to root decay, canopy collapse, and even total tree death if unmanaged. This guide explores how to identify symptoms, contributing factors, and the latest integrated management practices.
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The importance of Boron & Calcium in Olive Trees

In the lead up to flowering, you need to ensure your trees have adequate nutrition, particularly of Boron and Calcium. ?A lack of Boron?and Calcium may lead to decreased fruit set, oil quality and oil stability.

The application of Boron?and?Calcium?can never be overstressed. ?It is a requirement for your trees.

In Brief

A study on olive trees has looked at different application rates of Boron and Calcium and the effects on fruit set, fruit oil and oil chemical characteristics.

The rate of 100ppm of Boron?and 2% Calcium?was applied at full bloom and the 2nd application at 15 days later.  Trees were sprayed with nutrient solution till run off.

Fruit Set %

Trees in this study showed a higher fruit set. ?Results also confirm the role of Boron?and?Calcium?nutrients in improving fruit set of olive flowers.

From the overall data, the two studied nutrients effectively increased fertilisation either through controlling pollen germination on the stigma or growth of pollen tube through the style. ?Therefore, the subsequent increase in fruit set % was observed.

Fruit oil %

Furthermore, the effects could also be seen in increased fruit oil content. ?This increase reached a significant level in most cases.

Oil Chemical Characteristics

Peroxide Value

The study of the application of Boron?and?Calcium?at the same rate noted above greatly decreased the peroxide value in the cultivars studied.

If you would like to read the full paper, please?Press to view article

http://youtu.be/fkFD1Osg4Y4