An Undergraduate Thesis Proposal

Proponents: ______________________________
Degree Program: __________________________
Department: ______________________________
College/University: _______________________
Adviser: __________________________________
Date: ____________________________________

ABSTRACT

Agarwood (Aquilaria spp.) is a high-value forest product whose successful cultivation depends on maintaining healthy trees under appropriate environmental, nutritional, and plantation-management conditions. As Aquilaria trees mature, nutritional requirements and soil-management considerations become increasingly important for sustaining growth and tree vigor.

This study proposes the development and preliminary evaluation of BioGrow™ PRIME, an organic-mineral mature-tree nutrition and soil-conditioning formulation intended for established Aquilaria trees. The proposed formulation combines organic nutrient sources, mineral nutrients, humic substances, secondary nutrients, micronutrients, and carbon-based soil-conditioning materials.

The study will be conducted in two major phases. Phase I will involve formulation development, physicochemical characterization, nutrient analysis, and quality-control evaluation of laboratory-scale BioGrow™ PRIME batches. Phase II will evaluate the effect of selected application rates on established Aquilaria trees using a randomized complete block design (RCBD).

Four treatments will be evaluated: untreated control, 0.5 kg/tree/application, 1.0 kg/tree/application, and 2.0 kg/tree/application. Growth, stem diameter, height, canopy condition, leaf characteristics, soil properties, and selected plant nutrient parameters will be monitored. Data will be analyzed using analysis of variance (ANOVA), followed by an appropriate post-hoc test when significant differences are detected.

The study aims to identify a practical formulation and application rate that can support mature-tree nutrition while maintaining acceptable soil and plant health. The results may provide a scientific basis for further development of BioGrow™ PRIME as a plantation nutrition product for Aquilaria cultivation.

Keywords: BioGrow PRIME, Aquilaria, agarwood, organic-mineral fertilizer, mature-tree nutrition, soil conditioner, plantation management

CHAPTER I

INTRODUCTION

1.1 Background of the Study

Agarwood is a valuable aromatic plant material produced by several species of the genus Aquilaria. Its economic importance is associated with resinous wood and aromatic products used in incense, traditional applications, perfumery, and luxury fragrance markets.

The cultivation of Aquilaria provides an opportunity to develop managed sources of agarwood while reducing dependence on wild resources. However, plantation productivity depends on appropriate site conditions, tree establishment, soil fertility, water availability, pest and disease management, and appropriate silvicultural practices.

Nutrient management is particularly important as trees progress from establishment and rapid vegetative development toward mature plantation stages. Mature trees require sufficient nutrients to maintain foliage, root activity, stem development, and physiological resilience. Nutrient management should therefore be based on tree condition and soil characteristics rather than relying exclusively on generalized fertilizer application.

BioGrow™ PRIME is proposed as the mature-tree component of a broader BioGrow™ plantation nutrition system:

BioGrow™ ROOT → BioGrow™ VEGA → BioGrow™ PRIME → BioGrow™ RECOVER

BioGrow™ PRIME is specifically designed for established trees and combines organic and mineral nutrient sources with soil-conditioning materials.

The proposed formulation is approximately 3-3-5 NPK, supplemented with calcium, magnesium, sulfur, organic matter, humic substances, and selected micronutrients.

In the Philippines, fertilizer products are subject to regulatory requirements. The Fertilizer and Pesticide Authority (FPA) identifies fertilizer product categories including inorganic fertilizer, fortified organic fertilizer, biostimulants, soil conditioners/soil amendments, and raw materials.

Current FPA information also indicates that product registration requires appropriate technical documentation and analytical support, while new fertilizer products requiring bioefficacy evaluation may require efficacy data.

Therefore, scientific development and preliminary efficacy testing are necessary before BioGrow™ PRIME can be considered for commercial deployment.

1.2 Statement of the Problem

The study seeks to develop and preliminarily evaluate BioGrow™ PRIME as an organic-mineral mature-tree nutrition formulation for Aquilaria plantations.

Specifically, it aims to answer the following questions:

What formulation of BioGrow™ PRIME can provide an appropriate combination of organic matter, macro-nutrients, secondary nutrients, and micronutrients for established Aquilaria trees?
What are the physicochemical characteristics of the developed formulation in terms of:
- moisture;
- pH;
- organic matter;
- particle size;
- bulk density;
- total nitrogen;
- available phosphorus;
- potassium;
- calcium;
- magnesium; and
- sulfur?
What application rate of BioGrow™ PRIME produces the most favorable growth response in established Aquilariatrees?
Does BioGrow™ PRIME significantly affect:
- stem diameter;
- tree height;
- canopy development;
- leaf condition;
- survival;
- soil pH;
- soil organic matter; and
- selected soil nutrient parameters?
Is BioGrow™ PRIME sufficiently stable and consistent to justify further development and larger-scale field testing?

1.3 General Objective

To develop and preliminarily evaluate BioGrow™ PRIME, an organic-mineral mature-tree nutrition formulation for established Aquilaria trees.

1.4 Specific Objectives

The study aims to:

Develop a laboratory-scale BioGrow™ PRIME formulation.
Characterize the physicochemical properties of the formulation.
Determine the nutrient composition of the developed product.
Evaluate the physical stability and quality of the formulation.
Determine the effect of different BioGrow™ PRIME application rates on established Aquilaria trees.
Evaluate changes in selected soil properties following application.
Identify the most promising application rate for subsequent field validation.
Develop a preliminary technical specification for BioGrow™ PRIME.

1.5 Hypotheses

Null Hypothesis (H₀)

There is no significant difference among BioGrow™ PRIME application rates and the untreated control in the growth, physiological condition, and selected soil properties of established Aquilaria trees.

Alternative Hypothesis (H₁)

At least one BioGrow™ PRIME application rate produces a significant difference in the growth, physiological condition, or selected soil properties of established Aquilaria trees compared with the untreated control.

1.6 Significance of the Study

Agarwood Growers

The study may provide growers with an evidence-based mature-tree nutrition option for plantation management.

Researchers

The research can provide baseline data for future studies involving Aquilaria nutrition, soil management, and plantation productivity.

Agricultural Students

The study provides an applied example of fertilizer formulation, experimental design, plant nutrition, and product development.

Plantation Developers

The findings may support the development of standardized nutrition protocols for managed agarwood plantations.

Product Developers

The study can establish preliminary formulation, quality-control, and efficacy data for future BioGrow™ PRIME development.

Sustainable Agarwood Industry

Improved plantation nutrition may contribute to the development of healthy cultivated Aquilaria systems and more predictable plantation management.

1.7 Scope and Delimitations

The study will focus on:

established Aquilaria trees;
development of a granular organic-mineral formulation;
laboratory formulation and quality evaluation;
four experimental treatment levels;
tree growth measurements;
selected soil measurements;
preliminary statistical evaluation.

The study will not attempt to:

induce agarwood formation;
determine resin yield;
determine oud oil quality;
evaluate fungal induction;
establish commercial agarwood production economics;
establish final regulatory registration specifications.

Any future claim that BioGrow™ PRIME increases agarwood formation must be supported by a separate controlled study.

1.8 Operational Definition of Terms

BioGrow™ PRIME – the experimental organic-mineral mature-tree nutrition formulation developed in this study.

Aquilaria – the tree genus containing species capable of producing agarwood.

Mature tree – an established Aquilaria tree selected according to the age and size criteria established for the experiment.

Application rate – the quantity of BioGrow™ PRIME applied per tree during each treatment application.

Organic-mineral fertilizer – a formulation containing both organic nutrient/soil-conditioning materials and mineral nutrient sources.

Bioefficacy – measurable biological performance of the product under defined experimental conditions.

Root-zone – the soil volume containing the majority of actively functioning roots.

Control – experimental trees receiving no BioGrow™ PRIME.

CHAPTER II

REVIEW OF RELATED LITERATURE

2.1 Agarwood and Aquilaria

Agarwood is associated with resinous wood formation in certain Aquilaria and related taxa. The development of cultivated Aquilaria plantations requires consideration of species selection, planting material, environmental conditions, nutrition, and appropriate management.

The biological formation of agarwood is distinct from ordinary vegetative growth. Consequently, a product designed for nutrition should not automatically be presented as an agarwood-induction product.

2.2 Importance of Plant Nutrition

Plant nutrients are required for processes including photosynthesis, protein synthesis, membrane development, energy metabolism, and structural development.

The primary macronutrients are nitrogen, phosphorus, and potassium.

Nitrogen

Nitrogen contributes to chlorophyll, amino acids, proteins, nucleic acids, and vegetative growth.

Phosphorus

Phosphorus participates in energy transfer, nucleic acid metabolism, and root development.

Potassium

Potassium contributes to osmotic regulation, enzyme activation, water relations, and physiological stress response.

2.3 Secondary Nutrients

BioGrow™ PRIME incorporates calcium, magnesium, and sulfur.

Calcium contributes to cell-wall structure and cellular signaling.

Magnesium is a central component of chlorophyll and contributes to enzyme activity.

Sulfur is required for sulfur-containing amino acids and several metabolic processes.

2.4 Micronutrients

Although required in smaller quantities, micronutrients such as iron, manganese, zinc, boron, copper, and molybdenum are important to plant metabolism.

Their inclusion in BioGrow™ PRIME should be based on laboratory analysis and actual nutrient requirements rather than indiscriminate supplementation.

2.5 Organic Matter and Humic Substances

Organic matter contributes to soil structure, moisture retention, nutrient retention, and microbial habitat.

Humic substances are included in the proposed BioGrow™ PRIME formulation as soil-conditioning components. Their effectiveness depends on source, concentration, soil conditions, and application rate.

2.6 Biochar as a Soil-Conditioning Component

Biochar is a carbon-rich material that may contribute to soil physical and chemical properties. Its effects vary considerably according to feedstock, production temperature, particle size, application rate, and soil characteristics.

For this reason, the biochar source used in BioGrow™ PRIME should be standardized.

2.7 Fertilizer Development and Product Quality

A fertilizer product should demonstrate consistency between formulation, laboratory composition, physical characteristics, and biological performance.

In the Philippines, FPA requirements provide a regulatory framework for fertilizer product registration and include analytical and efficacy requirements for applicable product classes.

The FPA’s current registered-products database demonstrates that Philippine fertilizer products are categorized according to product type and guaranteed analysis.

Therefore, the present research will generate development-stage specifications, rather than claiming that the proposed specifications are already regulatory guarantees.

2.8 Conceptual Framework

The study follows an Input–Process–Output (IPO) framework.

INPUT

Raw Materials

Mature compost/vermicompost
Plant-based organic nutrient source
Humic substances
Rock phosphate
Sulfate of potash
Gypsum
Dolomite
Biochar
Seaweed/kelp material
Micronutrient premix
Binder/carrier

Experimental Trees

Established Aquilaria trees
Uniform age/size
Similar site conditions

↓

PROCESS

Phase I — Formulation Development

Raw-material screening
↓
Blending
↓
Granulation/pelletization
↓
Drying/conditioning
↓
Quality testing

↓

Phase II — Plant Experiment

Treatment allocation
↓
BioGrow™ PRIME application
↓
Tree monitoring
↓
Soil monitoring
↓
Data collection
↓
Statistical analysis

↓

OUTPUT

Optimized Development-Stage BioGrow™ PRIME

Nutrient profile
Physical specifications
Recommended experimental application rate
Preliminary efficacy data
Quality-control specifications
Recommendations for further field validation

CHAPTER III

METHODOLOGY

3.1 Research Design

The study will use an experimental research design consisting of:

Phase I

Formulation development and laboratory characterization.

Phase II

Plant-growth efficacy evaluation using a Randomized Complete Block Design (RCBD).

RCBD is recommended because plantation trees may experience variation in soil, sunlight, slope, drainage, and microclimate.

3.2 Study Site

The field experiment will be conducted in an established Aquilaria plantation or research farm located in the Philippines.

The site should have:

relatively uniform soil;
adequate drainage;
accessible irrigation or reliable rainfall;
established Aquilaria trees;
similar tree age;
similar planting density;
minimal recent fertilizer application.

The exact location will be specified after site selection.

3.3 Experimental Plants

The study will use established Aquilaria trees of approximately 4–10 years old, depending on availability.

Trees should be selected based on:

similar age;
similar initial diameter;
similar height;
similar canopy condition;
absence of severe disease;
absence of severe mechanical damage.

Trees with severe pest infestation, disease, major trunk damage, or abnormal growth should be excluded.

3.4 Treatment Groups

Four treatments are proposed.

Treatment	BioGrow™ PRIME
T0	0 kg/tree/application
T1	0.5 kg/tree/application
T2	1.0 kg/tree/application
T3	2.0 kg/tree/application

The rates are development-stage experimental rates and should not automatically become commercial label rates.

3.5 Experimental Replication

A practical undergraduate design is:

4 treatments × 5 blocks = 20 experimental units

If one tree represents one experimental unit:

20 trees minimum

A stronger design would use:

4 treatments × 8 blocks = 32 trees

or more where land and resources permit.

3.6 Experimental Layout

Example RCBD:

Block	T0	T1	T2	T3
I	Tree 1	Tree 2	Tree 3	Tree 4
II	Tree 5	Tree 6	Tree 7	Tree 8
III	Tree 9	Tree 10	Tree 11	Tree 12
IV	Tree 13	Tree 14	Tree 15	Tree 16
V	Tree 17	Tree 18	Tree 19	Tree 20

Treatment positions should be randomized independently within each block.

3.7 BioGrow™ PRIME Development Formulation

The initial prototype will use the following development-stage formulation:

Component	Target %
Mature compost/vermicompost	25
Plant-based organic nutrient meal	15
Humic substance concentrate	8
Rock phosphate	8
Sulfate of potash	7
Gypsum	8
Dolomite	7
Biochar	8
Kelp/seaweed meal	3
Micronutrient premix	2
Carrier fraction	5
Binder/processing fraction	1
Total	97%

Important formulation-development note: the above raw-material table totals 97%, not 100%. The remaining 3% should not be arbitrarily filled. During Phase I, the research team should determine the appropriate carrier/binder/moisture-adjustment fraction and rebalance the formulation to exactly 100% before laboratory production.

This correction should be incorporated into the experimental formulation sheet.

3.8 Formulation Procedure

Step 1 — Raw-Material Inspection

Each raw material will be inspected for:

physical condition;
odor;
moisture;
visible contamination;
particle size;
supplier specification.

Step 2 — Pre-processing

Materials requiring size reduction will be dried and milled to a suitable particle size.

Step 3 — Screening

Materials will be passed through an appropriate sieve to improve blending uniformity.

Step 4 — Dry Blending

Major dry ingredients will be weighed according to the formulation and mixed until homogeneous.

Step 5 — Addition of Mineral Components

Rock phosphate, SOP, gypsum, dolomite, and micronutrient materials will be incorporated gradually.

Step 6 — Addition of Organic Components

Compost, plant-based nutrient material, humic material, biochar, and seaweed material will be incorporated.

Step 7 — Granulation

The mixture will be pelletized or granulated using a suitable laboratory-scale granulator.

Step 8 — Drying

Granules will be dried under controlled conditions to achieve acceptable moisture content.

Step 9 — Screening

Oversized and undersized particles will be separated.

Step 10 — Packaging

The final product will be placed in moisture-resistant containers and assigned a batch number.

3.9 Important Microbial Formulation Consideration

The initial BioGrow™ PRIME prototype should preferably be developed without live microbial inoculants.

This allows the study to isolate the nutritional and soil-conditioning effects of PRIME.

A separate microbial product such as BioGrow™ BIO or a separately packaged microbial component may subsequently be evaluated.

This is also technically preferable because mineral salts, moisture, processing temperature, and storage conditions can affect microbial viability.

If live microorganisms are eventually claimed, their identity, viable counts, contamination status, and shelf stability must be separately validated. Philippine regulatory guidance provides specific requirements for microbial inoculant products.

3.10 Laboratory Quality Analysis

The formulated product will be evaluated for:

Physical Properties

Color
Odor
Moisture
Particle size
Bulk density
Granule integrity
Caking
Foreign matter

Chemical Properties

pH
Organic matter
Total nitrogen
Available phosphorus
Potassium
Calcium
Magnesium
Sulfur
Selected micronutrients

Safety Parameters

Where facilities permit:

heavy metals;
microbial contamination;
pathogenic organisms;
pesticide residues.

3.11 Proposed Development-Stage Product Specification

The initial target specification is:

Parameter	Target
N	3.0% minimum
P₂O₅	3.0% minimum
K₂O	5.0% minimum
Ca	6.0% minimum
Mg	2.0% minimum
S	3.0% minimum
Organic matter	≥30%
Humic + fulvic substances	≥5%
Moisture	≤12%
pH	6.0–8.0

These are research targets, not final commercial guarantees.

3.12 Baseline Soil Sampling

Before treatment application, soil samples will be collected from the root zone of experimental trees.

Parameters may include:

soil pH;
organic matter;
available phosphorus;
exchangeable potassium;
calcium;
magnesium;
electrical conductivity;
selected micronutrients.

Baseline values will be used to characterize the experimental site.

3.13 BioGrow™ PRIME Application

BioGrow™ PRIME will be applied according to treatment.

Application will be made around the active root zone and beneath the canopy/drip zone.

The product should not be placed directly against the trunk.

After application, adequate soil moisture should be maintained where necessary.

3.14 Experimental Variables

Independent Variable

BioGrow™ PRIME application rate:

0 kg/tree
0.5 kg/tree
1.0 kg/tree
2.0 kg/tree

Dependent Variables

Tree Growth

Stem diameter
Height
Diameter increment
Height increment
Canopy width

Tree Condition

Leaf color/condition
Canopy density
Visible nutrient-deficiency symptoms
Survival

Soil Response

pH
Organic matter
Available P
Exchangeable K
Ca
Mg

Product Quality

Nutrient content
Moisture
pH
particle size
physical stability

3.15 Tree Diameter Measurement

Stem diameter will be measured at a consistent reference height.

Where possible, diameter at breast height (DBH) will be used for trees large enough to permit standard DBH measurement.

For smaller trees, a predetermined stem-height measurement point should be established and maintained throughout the study.

3.16 Height Measurement

Tree height will be measured using:

measuring pole;
clinometer;
laser rangefinder; or
another validated field method.

The same measurement method should be used throughout the experiment.

3.17 Canopy Measurement

Canopy width may be measured along two perpendicular axes:

North–South canopy width

and

East–West canopy width

Average canopy diameter will then be calculated.

3.18 Leaf Assessment

A standardized visual scoring system may be used.

Score	Description
1	Severe chlorosis/poor canopy
2	Poor
3	Moderate
4	Good
5	Excellent/healthy

The same evaluator or standardized photographic reference should be used to minimize observer bias.

3.19 Soil Sampling After Treatment

Post-treatment soil samples will be collected at predetermined intervals, for example:

baseline;
30 days;
60 days;
90 days;
120 days;
180 days.

Sampling depth should remain constant.

3.20 Data Collection Schedule

Parameter	Baseline	30 d	60 d	90 d	120 d	180 d
Tree diameter	✓	✓	✓	✓	✓	✓
Tree height	✓	✓	✓	✓	✓	✓
Canopy	✓	✓	✓	✓	✓	✓
Leaf condition	✓	✓	✓	✓	✓	✓
Soil pH	✓	—	✓	—	✓	✓
Soil nutrients	✓	—	—	✓	—	✓
Soil organic matter	✓	—	—	✓	—	✓

3.21 Growth Calculations

Diameter Increment

Diameter Increment = Final Diameter − Initial Diameter

Height Increment

Height Increment = Final Height − Initial Height

Relative Growth

$Relative Growth (%) = \frac{Final Value – Initial Value}{Initial Value} \times 100$

3.22 Statistical Analysis

Data will be analyzed using appropriate statistical software.

For the RCBD: $Y_{i j} = μ + τ_{i} + β_{j} + ϵ_{i j}$

Where:

Yᵢⱼ = observed response
μ = overall mean
τᵢ = treatment effect
βⱼ = block effect
εᵢⱼ = experimental error

ANOVA will be conducted at:

α = 0.05

If significant treatment differences are observed, a suitable post-hoc multiple-comparison test, such as Tukey’s HSD, may be performed.

For measurements collected repeatedly over time, a repeated-measures approach or mixed-effects model may be more appropriate than treating every observation as independent.

3.23 Statistical Decision Rule

Reject H₀ when:

p < 0.05

Fail to reject H₀ when:

p ≥ 0.05

Effect sizes and confidence intervals should also be reported where possible rather than relying exclusively on p-values.

3.24 Expected Results

The study is expected to produce:

A reproducible laboratory-scale BioGrow™ PRIME formulation.
A defined preliminary nutrient profile.
Physical and chemical quality specifications.
Evidence regarding the effect of different application rates on mature Aquilaria trees.
Preliminary information regarding soil response.
Identification of a promising application rate.
A development-stage technical datasheet.
A recommended protocol for a larger field trial.

3.25 Expected Optimal Treatment

The researchers should not assume in advance that the highest treatment will be best.

The optimum treatment will be selected based on a combination of:

growth response;
tree health;
soil response;
nutrient balance;
absence of adverse effects;
formulation practicality;
application cost.

A treatment producing excessive vegetative response or undesirable soil changes should not automatically be considered optimal.

3.26 Quality-Control Plan

Each experimental production batch will receive a unique batch number.

Batch QC

Raw materials

↓

Identity verification

↓

Moisture testing

↓

Blending

↓

Granulation

↓

Final product

↓

Nutrient analysis

↓

Physical analysis

↓

Safety analysis

↓

Certificate of Analysis

3.27 Product Stability Study

A preliminary stability study should evaluate BioGrow™ PRIME under:

Ambient Storage

Approximately normal Philippine storage conditions.

Accelerated Storage

Higher temperature/humidity conditions may be used if laboratory facilities and validated protocols are available.

Measurements:

moisture;
odor;
caking;
particle integrity;
pH;
nutrient concentration;
visible contamination.

The study may initially use:

0, 30, 60, 90, and 180 days

for development-stage assessment.

3.28 Biosafety and Research Ethics

The study does not involve human or animal subjects.

Researchers shall:

use appropriate personal protective equipment;
avoid inhalation of fertilizer dust;
follow laboratory chemical-handling procedures;
maintain clean formulation equipment;
properly dispose of laboratory waste;
avoid contamination of waterways;
follow institutional biosafety procedures.

If microbial materials are later incorporated, the appropriate institutional biosafety and regulatory requirements must be followed.

3.29 Regulatory Considerations

BioGrow™ PRIME should remain designated as an experimental research product during thesis development.

Commercial manufacture, distribution, sale, or agricultural-use claims should not be made solely on the basis of this undergraduate study.

The FPA states that fertilizer products must undergo applicable registration requirements, and its current system provides product registration and experimental-use processes.

The appropriate final product classification—such as fortified organic fertilizer, inorganic fertilizer, soil conditioner/soil amendment, or another applicable category—should be determined with the relevant Philippine regulatory authority based on the final formulation and claims.

CHAPTER IV

PROPOSED DATA PRESENTATION

Table 1. Raw-Material Characteristics

Material	Source	Moisture	pH	Organic Matter	Notes
Compost
Organic nutrient meal
Humic material
Biochar
Rock phosphate

Table 2. BioGrow™ PRIME Nutrient Analysis

Parameter	Target	Laboratory Result
N	3.0%
P₂O₅	3.0%
K₂O	5.0%
Ca	6.0%
Mg	2.0%
S	3.0%
Organic matter	≥30%
Humic + fulvic	≥5%

Table 3. Initial Tree Characteristics

Treatment	Initial Diameter	Initial Height	Canopy Width
T0
T1
T2
T3

Table 4. Tree Growth Response

Treatment	Initial Diameter	Final Diameter	Diameter Increment
T0
T1
T2
T3

Table 5. Soil Response

Treatment	Initial pH	Final pH	Initial OM	Final OM
T0
T1
T2
T3

CHAPTER V

PROPOSED CONCLUSION AND RECOMMENDATIONS

Because this is a proposal, final conclusions will only be made after the experiment.

The study is expected to determine whether BioGrow™ PRIME can be developed into a technically consistent mature-tree nutrition formulation and whether one of the evaluated application rates produces a measurable improvement in Aquilaria tree performance.

If the formulation demonstrates acceptable quality and positive biological response, a subsequent larger-scale field experiment should be conducted.

The following future research is recommended:

Multi-location field testing.
Longer-duration tree-growth evaluation.
Soil nutrient dynamics.
Leaf tissue nutrient analysis.
Root development assessment.
Economic analysis.
Long-term plantation productivity.
Compatibility with standard Aquilaria silvicultural practices.
Separate studies investigating interactions with agarwood-induction systems.
Regulatory efficacy trials where required.

WORK PLAN

Proposed 12-Month Schedule

Activity	M1	M2	M3	M4	M5	M6	M7	M8	M9	M10	M11	M12
Literature review	✓	✓
Protocol development	✓	✓
Raw-material procurement		✓	✓
Formulation development		✓	✓
Laboratory QC			✓	✓
Site preparation			✓	✓
Baseline measurements				✓
Field experiment				✓	✓	✓	✓	✓	✓
Laboratory soil analysis				✓	✓	✓	✓	✓
Data analysis									✓	✓
Thesis writing									✓	✓	✓
Final defense												✓

ESTIMATED RESEARCH BUDGET

Item	Estimated Cost (PHP)
Raw materials	8,000
Formulation equipment/access	5,000
Packaging	2,000
Soil analysis	12,000
Fertilizer/product analysis	15,000
Field materials	5,000
Measuring equipment/access	5,000
Transportation	8,000
Printing/documentation	3,000
Contingency	5,000
Estimated Total	₱68,000

Actual costs will depend on laboratory fees, equipment availability, sample numbers, and institutional support.

PROPOSED THESIS OUTPUTS

At completion, the project should produce:

1. BioGrow™ PRIME Prototype

A reproducible laboratory-scale formulation.

2. Technical Product Specification

Including:

formulation;
nutrient profile;
physical characteristics;
QC parameters;
packaging concept.

3. Application Protocol

Recommended experimental rate and application method.

4. Scientific Dataset

Growth and soil-response data from treated Aquilaria trees.

5. Preliminary Efficacy Evidence

Statistical comparison of BioGrow™ PRIME treatments.

6. Commercial Development Roadmap

Laboratory prototype

↓

Undergraduate field trial

↓

Optimization

↓

Multi-location field trial

↓

Regulatory efficacy testing

↓

Product registration

↓

Commercial production

The FPA maintains current registered-product records and fertilizer application forms, including forms for local fertilizer registration and experimental-use permits.

PROPOSED THESIS TITLE ALTERNATIVES

Option 1 — Recommended

Development and Evaluation of BioGrow™ PRIME: An Organic-Mineral Mature-Tree Nutrition Formulation for Agarwood (Aquilaria spp.) Plantations

Option 2 — More Scientific

Formulation and Preliminary Efficacy Evaluation of an Organic-Mineral Fertilizer for Established Aquilaria Trees

Option 3 — Product Development Focus

Development, Physicochemical Characterization, and Preliminary Field Evaluation of BioGrow™ PRIME for Mature Aquilaria Trees

Option 4 — Agriculture Focus

Development of a Mature-Tree Nutritional Management Formulation for Aquilaria Plantation Production

CORE RESEARCH MODEL

BIOGROW™ PRIME DEVELOPMENT PIPELINE

RAW MATERIALS

Organic nutrient sources
+
Mineral nutrients
+
Humic substances
+
Ca–Mg–S
+
Micronutrients
+
Carbon/soil conditioners

↓

FORMULATION

Blending
→ Granulation
→ Drying
→ Screening

↓

QUALITY CONTROL

NPK
Ca–Mg–S
Micronutrients
Organic matter
Moisture
pH
Physical stability
Safety

↓

FIELD EVALUATION

0
0.5 kg
1.0 kg
2.0 kg/tree

↓

TREE RESPONSE

Diameter
Height
Canopy
Leaf condition
Survival

↓

SOIL RESPONSE

pH
Organic matter
P
K
Ca
Mg

↓

STATISTICAL ANALYSIS

ANOVA
+
Post-hoc comparison

↓

OPTIMIZED BIOGROW™ PRIME PROTOTYPE

A scientifically evaluated mature-tree nutrition platform for sustainable Aquilaria plantation management.