Bombardier Sugar 0-0-4
Overview
Bombardier Sugar is an advanced biostimulant built on the Bombardier 8-0-0 amino acid and fulvic acid platform, enhanced with a concentrated oligosaccharide fraction. It is designed to support plant metabolism, photosynthesis, carbohydrate production, and crop quality at a higher intensity than standard Bombardier.
What Makes Bombardier Sugar Different
Bombardier Sugar contains the same foundational components as Bombardier—free L-amino acids, fulvic acids, polysaccharides, and organic matter—but adds a targeted oligosaccharide fraction that enhances carbohydrate-related plant processes.
While Bombardier supports plant metabolism broadly, Bombardier Sugar leans harder into:
- Photosynthetic efficiency and chlorophyll density
- Carbohydrate production and transport
- Root-zone biology and carbon availability
- Source–sink dynamics (movement of sugars into fruit and flowers)
- Crop quality traits such as brix, color, and uniformity
How It Works (Integrated Mode of Action)
Amino Acids (Bombardier Core)
Free L-amino acids act both as building blocks and metabolic signals. They support protein synthesis, enzyme activity, hormone production (including auxins), and chlorophyll formation. This drives vegetative growth, reproductive development, and overall plant efficiency.
Fulvic Acids & Organic Matter
Fulvic acids act as natural chelators, improving micronutrient availability and mobility. They enhance root-zone chemistry, support microbial activity, and improve nutrient uptake efficiency.
Polysaccharides & Oligosaccharides (Sugar Component)
The added oligosaccharide fraction in Bombardier Sugar strengthens carbon-related processes. These compounds can act as signaling molecules and microbial substrates, helping:
- Stimulate rhizosphere activity
- Improve sugar metabolism and movement
- Enhance plant energy balance under stress
What Growers Typically See
| Area | Observed Effects |
|---|---|
| Photosynthesis | Higher chlorophyll density, stronger light capture, improved carbon fixation |
| Growth | Faster, more balanced vegetative development |
| Roots | Increased root mass and fine root density |
| Reproductive Development | Improved flowering, fruit set, and reduced drop (crop dependent) |
| Quality | Higher brix, better color, improved firmness and uniformity |
| Stress Response | Better tolerance to heat, light stress, salinity, and dry-back cycles |
Guaranteed Analysis
| Component | Analysis |
|---|---|
| Total Nitrogen (N) | 4.00% |
| Water Soluble Nitrogen | 2.00% |
| Ammoniacal Nitrogen | 2.00% |
| Oligosaccharides | 29.00% |
| L-Amino Acids | 9.02% |
| Fulvic Acid | 15.00% |
| Organic Matter | 39.00% |
| NPK | 4-0-0 |
Application Rates & Label Directions
Bombardier Sugar is typically used as a low-rate, repeated biostimulant input rather than as a primary nitrogen fertilizer. While it shares the same general functional platform as Bombardier, Bombardier Sugar is typically used at a higher rate in practice due to its added oligosaccharide fraction and its stronger emphasis on fruit quality, sugar movement, and ripening support.
| Application Method | Label Rate | Notes |
|---|---|---|
| Foliar | 24–48 oz per 100 gallons of water | Use a minimum of 2–3 applications depending on crop. |
| Irrigation / Fertigation | 7–14 pints per acre | Generally the most efficient use due to the organic matter and fulvic acid content. |
Crop Timing Recommendations
| Crop | Timing |
|---|---|
| Vegetables (tomato, pepper, eggplant) | Apply in the fruit formation stage, every 7–10 days. |
| Cucurbits (melon, watermelon) | First application 15 days after fruit set, then every 7–10 days until harvest. |
| Fruit Trees (citrus, mango, banana, etc.) | Apply at 45, 30, and 20 days before harvest. |
| Vineyard | Apply 6–8 weeks before harvest. |
Mixing & Compatibility
| Topic | Guidance |
|---|---|
| Mixing | Bombardier Sugar disperses in water with little agitation. Any residue is water-soluble. Shake well before using. |
| Tank Mixing | Can be tank mixed with fertilizers. Do not mix with pesticides or other chemicals without a compatibility test. |
| Avoid | Do not mix with products with high alkaline reaction, mineral oils, hydrogen peroxide, or chlorides. Do not mix with sulphur and copper except in olive under technical supervision. |
| Sprayer Cleanup | Flush pump, hoses, and nozzles thoroughly with clean water before and after use. |
Fertigation
- Ideal for greenhouse, hydroponic, and substrate systems
- Apply at consistent, low concentrations through the feed program
- Can be used continuously through vegetative and early reproductive stages
- Minimal impact on EC compared to salt-based fertilizers
Foliar Applications
- Use clean, pH-balanced water
- Apply fine droplets for full leaf coverage
- Best applied early morning or late afternoon
- Avoid high heat or intense midday light
Tank Mixing
- Generally compatible with most fertilizers and biostimulants
- Avoid strong oxidizers and extreme pH conditions
- Jar test when mixing with new products
Where Bombardier Sugar Fits Best
Bombardier Sugar performs particularly well in:
- Greenhouse and controlled environment agriculture
- High-value crops where quality matters
- Fruiting and flowering crops
- Hydroponic and fertigation systems
- Situations where plants are under moderate stress
It is especially useful when the goal is not just growth, but efficiency—getting more output (yield, quality, uniformity) from the same or similar inputs.
Growth Stage Benefits
| Stage | Key Benefits |
|---|---|
| Early Growth | Stronger establishment, faster root initiation, early chlorophyll development |
| Vegetative | Increased photosynthesis, faster canopy growth, improved nutrient uptake |
| Flowering / Fruiting | Better sugar movement, improved fruit set, enhanced quality traits |
| All Stages | Improved metabolic efficiency, stress tolerance, and rhizosphere activity |
Final Take
Bombardier Sugar builds directly on the proven Bombardier platform but adds a stronger emphasis on carbon metabolism, sugar movement, and plant energy. It is best used as part of a complete program where the goal is to improve efficiency, push quality, and maintain strong plant performance under real-world conditions.
