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Octrex Holdings, Bangi (2026)

12/05/2026

HULL INSPECTION

Hull inspection is the process of examining a ship’s hull structure to ensure its safety, strength, watertight integrity, and compliance with maritime regulations. It is one of the most critical activities in marine maintenance and classification surveys.

Main Objectives of Hull Inspection
》Detect corrosion, cracks, deformation, or structural damage
》Check hull thickness and steel wastage
》Identify leaks or coating failures
》Ensure seaworthiness and safety
》Maintain compliance with classification societies and maritime authorities

Areas Commonly Inspected
A) External Hull
● Bottom plating
● Side shell plating
● Bilge area
● Bulbous bow
● Stern section
● Propeller and rudder area

B) Internal Hull Structure
● Frames and stiffeners
● Bulkheads
● Double bottom tanks
● Ballast tanks
● Cargo holds
● Engine room structure

Types of Hull Inspection

1. Visual Inspection
Basic inspection using:
> Flashlights
> Cameras
> Drones
> Remote operated vehicles (ROVs)
Used to identify:
> Rust
> Cracks
> Paint failure
> Structural deformation

2. Ultrasonic Thickness Measurement (UTM)
Measures steel thickness to determine corrosion or metal loss.
Common in:
> Tankers
> Bulk carriers
> Offshore vessels

3. Non-Destructive Testing (NDT)
Methods include:
> Ultrasonic Testing (UT)
> Magnetic Particle Testing (MT)
> Dye Penetrant Testing (PT)
> Radiographic Testing (RT)
Used to detect hidden cracks and weld defects.

4. Underwater Hull Inspection
Conducted by:
> Divers
> ROV systems
Checks:
> Marine growth
> Hull damage
> Propeller condition
> Sea chest blockage

Signs of Hull Problems
> Excessive corrosion
> Buckling or dented plates
> Cracks near welds
> Water ingress
> Coating blistering
> Unusual vibration or noise

Hull Inspection Schedule
Usually conducted:
> Before dry docking
> During annual surveys
> Special surveys every 5 years
> After grounding or collision
> Before vessel purchase

Equipment Used
> Ultrasonic thickness gauge
> ROVs and underwater drones
> Borescope cameras
> Crack detection kits
> Laser measurement tools

Classification and Standards
Inspections are often supervised by organizations such as:
> Lloyd's Register
> DNV
> American Bureau of Shipping
> Bureau Veritas

Modern Trends

Smart Hull Inspection
Using:
◇ AI image analysis
◇ Drones
◇ Digital twins
◇ Predictive maintenance systems
This reduces:
◇ Inspection time
◇ Human risk
◇ Operational downtime

In-water Robotic Inspection
Growing rapidly for:
◇ Offshore platforms
◇ Naval ships
◇ Deep-sea vessels

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Octrex Holdings

11/05/2026

SHIP STABILITY

Ship stability is the ability of a vessel to return to an upright position after being tilted by external forces like waves, wind, or loading shifts. It’s one of the most critical aspects of naval architecture because it directly affects safety, operability, and survivability at sea.

1. Types of Ship Stability
1. Initial Stability
》Refers to stability at small angles of heel (typically 0 → Stable
● GM = 0 → Neutral
● GM < 0 → Unstable (risk of capsizing)

3. Types of Stability Conditions
■ Stable equilibrium: Ship returns upright after tilt
■ Neutral equilibrium: Ship stays at angle
■ Unstable equilibrium: Ship continues to tilt

4. Factors Affecting Stability

1. Loading Condition
> Improper cargo distribution raises G.
> Top-heavy ships are dangerous.

2. Free Surface Effect
> Liquids in partially filled tanks shift during motion.
> Reduces GM significantly.

3. Hull Design
> Wider beam → better initial stability.
> Deep draft improves overall stability.

4. External Forces
> Wind, waves, currents.
> Turning forces (centrifugal force in maneuvers).

5. Stability Measurements & Tools
× Righting arm (GZ curve): Shows the ship’s ability to return upright at different angles.
× Inclining experiment: Determines actual center of gravity.
× Stability booklet: Mandatory onboard reference for safe loading.

6. Why It Matters
Poor stability can lead to:
- Cargo shifting
- Structural stress
- Capsizing (e.g., MV Sewol incident linked to overloading and poor stability)

7. Practical Example
A container ship with heavy cargo stacked too high → raises G → reduces GM → increases risk of capsizing in rough seas.

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Octrex Holdings

11/05/2026

SHIP STRUCTURAL INTEGRITY

Ship’s structural integrity refers to the ability of vessel’s structure to withstand all operational & environmental loads throughout its service life without failure, excessive deformation/loss of safety.
It is one of the most critical aspects in naval architecture & marine engineering.

Main Factors Affecting Ship Structural Integrity

1. Hull Strength
The ship hull must withstand:
> Wave bending loads
> Cargo weight
> Ballast forces
> Slamming impacts
> Torsion (twisting)
> Vibration

The vessel behaves like a floating beam at sea.

Two major hull stresses:
> Hogging → ship bends upward in the middle
> Sagging → ship bends downward in the middle

2. Material Strength
Common shipbuilding materials:
● Mild steel
● High tensile steel
● Aluminum alloys
● Stainless steel
● Composite materials
● Carbon fiber composites

Important properties:
● Yield strength
● Fatigue resistance
● Corrosion resistance
● Toughness
● Weldability

3. Fatigue and Cyclic Loading
Ships operate under continuous cyclic loading from:
☆ Waves
☆ Engine vibration
☆ Cargo operations
☆ Propeller excitation

Over time, this can cause:
☆ Crack initiation
☆ Weld failures
☆ Structural deformation
☆ Plate buckling

Fatigue is a major concern for:
☆ Tankers
☆ Container ships
☆ Offshore vessels
☆ FPSOs

4. Corrosion Control
Marine environments are extremely corrosive due to:
■ Saltwater
■ Humidity
■ Temperature variation
■ Microbial activity

Protection methods include:
■ Marine coatings
■ Cathodic protection
■ Sacrificial anodes
■ Corrosion allowance in plate thickness
■ Composite wrapping repairs

5. Structural Components
Key structural members include:
◇ Longitudinal Members
◇ Keel
◇ Girders
◇ Longitudinals
◇ Stringers
◇ Transverse Members
◇ Frames
◇ Web frames
◇ Bulkheads
◇ Deck beams
These distribute loads throughout the hull.

6. Classification Society Requirements
Ship structural integrity is governed by classification rules from organizations such as:
》Lloyd's Register
》DNV
》American Bureau of Shipping
》Bureau Veritas
》ClassNK

They regulate:
》Hull design
》Thickness calculations
》Welding standards
》Inspection intervals
》Fatigue assessment
》Damage stability

7. Structural Monitoring Systems
Modern vessels increasingly use:
¤ Hull stress monitoring sensors
¤ Digital twins
¤ AI predictive maintenance
¤ Ultrasonic thickness measurement
¤ Drone inspections
¤ Fiber optic strain monitoring

Especially important for:
¤ LNG carriers
¤ Deep sea trawlers
¤ Offshore platforms
¤ Autonomous vessels

8. Failure Modes
Common structural failures include:
× Hull cracking
× Buckling
× Corrosion wastage
× Brittle fracture
× Weld defects

9. Structural Integrity in Modern Shipbuilding
Current trends include:
° Finite Element Analysis (FEA)
° Lightweight composite structures
° Hybrid steel-composite hulls
° Green shipping designs
° Ammonia and hydrogen fuel vessel adaptation
° Smart hull monitoring

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Octrex Holdings

08/05/2026

GDSC IN MALAYSIA

GDSC in Malaysia usually refers to the Green and Digital Shipping Corridor initiative, a maritime collaboration framework focused on reducing emissions, improving digitalisation, and modernising shipping routes and ports.

What is GDSC?

A Green and Digital Shipping Corridor is a designated maritime trade route where stakeholders collaborate to:
* Reduce greenhouse gas (GHG) emissions
* Use cleaner marine fuels
* Improve vessel efficiency
* Digitise port and shipping operations
* Test low/zero-carbon technologies

It involves:
Ports
Shipowners
Energy suppliers
Technology providers
Regulators
Logistics players

Malaysia’s Position in GDSC
Malaysia is strategically positioned because of:
> Location along the Strait of Malacca
Major ports (Port Klang, PTP, Penang, Bintulu)
> Strong oil & gas ecosystem
> LNG bunkering potential
> Growing renewable energy and biomass sector
> ASEAN maritime connectivity

Key Malaysian Ports with GDSC Potential
1. Port Klang
Potential:
● Smart port systems
● Green bunkering hub
● Shore power integration
● AI-based vessel traffic management

2. Port of Tanjung Pelepas (PTP)
Potential:
● Automated terminal systems
● Green hydrogen/ammonia trials
● Digital logistics corridor

3. Bintulu Port
Potential:
● LNG bunkering
●vCarbon capture ecosystem
● Energy transition hub for East Malaysia

4. Penang Port
Potential:
● Regional smart logistics
● Electrified port equipment
● Sustainable coastal shipping

Technologies Involved
》Green Technologies
》LNG fuel systems
》Methanol bunkering
》Ammonia fuel
》Hydrogen fuel
》Shore power (cold ironing)
》Carbon capture
》Energy-efficient hull systems

Digital Technologies
¤ AI route optimisation
¤ Smart ports
¤ Digital twins
¤ Blockchain cargo documentation
¤ Autonomous vessel systems
¤ Predictive maintenance
¤ IoT sensors

Opportunities for Malaysian Industry

Oil & Gas Companies
☆ Alternative marine fuels
☆ LNG bunkering
☆ CCS/CCUS services
☆ Shipyards & Marine Engineering
☆ Vessel retrofitting
☆ Hybrid propulsion systems
☆ Composite materials

Tech Companies
☆ Maritime AI
☆ Port analytics
☆ Cybersecurity
☆ Fleet monitoring

Universities & R&D
☆ Marine decarbonisation research
☆ Autonomous systems
☆ Fuel efficiency innovation

Main Challenges
◇ High infrastructure cost
◇ Fuel availability uncertainty
◇ Regulatory harmonisation
◇ Skilled workforce gaps
◇ Financing green transition
◇ Balancing cost vs sustainability

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Octrex Holdings

07/05/2026

Q2 2026 OIL & GAS INVESTMENT LANDSCAPE IN MALAYSIA

Malaysia’s oil & gas sector in Q2 2026 remains active despite global geopolitical volatility, driven by energy security concerns, regional demand growth, and continued upstream developments led by PETRONAS and international partners.

1. Key Investment Drivers

a) Energy Security & Regional Supply Stability
The prolonged instability in the Middle East and pressure on global shipping lanes have accelerated ASEAN nations’ focus on:
▪︎ Diversifying LNG and crude supply
▪︎ Strengthening domestic production
▪︎ Expanding storage and downstream infrastructure

Malaysia is benefiting due to:
▪︎ Strong LNG export capabilities
▪︎ Stable regulatory environment
▪︎ Strategic maritime location in ASEAN

2. Major Investment Areas in Malaysia
Upstream (Exploration & Production)
Investment momentum continues in:
◇ Deepwater Sabah
◇ Sarawak offshore gas fields
◇ Mature field rejuvenation projects

Focus areas:
◇ Enhanced Oil Recovery (EOR)
◇ Digital oilfield technologies
◇ AI-assisted reservoir optimization
◇ Marginal field development

Key operators:
◇ PETRONAS Carigali
◇ Shell Malaysia
◇ Hibiscus Petroleum
◇ PTTEP
◇ Mubadala Energy

LNG & Gas Infrastructure
Malaysia continues positioning itself as a regional gas hub.

Key opportunities:
◇ LNG bunkering
◇ Floating LNG solutions
◇ Gas compression and storage
◇ Small-scale LNG for marine and industrial sectors

Sarawak is becoming increasingly important due to:
◇ Abundant gas reserves
◇ Hydrogen ambitions
◇ Lower-carbon energy initiatives
◇ Downstream & Petrochemicals

Investment interest remains strong in:
◇ Specialty chemicals
◇ Urea and fertilizer production
◇ Sustainable aviation fuel (SAF)
◇ Biofuels and renewable diesel

Pengerang remains a major industrial attraction due to:
◇ Existing refinery ecosystem
◇ Deepwater terminal access
◇ ASEAN trade connectivity

3. Green & Digital Transition Investments
Green Shipping & Maritime Decarbonization

Malaysia is seeing increasing investments related to:
> Green and Digital Shipping Corridors (GDSC)
> Shore power systems
> Alternative marine fuels
> Carbon accounting systems

Ports under attention:
> Port Klang
> Tanjung Pelepas
> Bintulu Port
> Carbon Management & CCUS

Carbon Capture, Utilization and Storage (CCUS) is becoming a strategic growth area.

Potential hubs:
> Offshore Sarawak reservoirs
> Depleted offshore gas fields

Investors are monitoring:
> Carbon trading frameworks
> ASEAN decarbonization policies
> Industrial emissions compliance

4. Investment Challenges
Key concerns among investors:
》Oil price volatility
》Global interest rate environment
》Skilled workforce shortages
》ESG financing requirements
》Competition from Indonesia and Vietnam

However, Malaysia still retains advantages in:
》Engineering expertise
》Existing offshore infrastructure
》Strong service ecosystem
》Political and regulatory consistency compared to some regional peers

Visit us at www.octrexholdings.com

Octrex Holdings

06/05/2026

SHIP'S ENGINE ROOM SIZE

Ship’s engine room size varies a lot depending on the vessel type, but it’s generally one of the largest enclosed spaces onboard, often spanning multiple decks.

Typical Size by Vessel Type

Small vessels (tugs, offshore supply vessels)
× ~ 50–200 m² floor area
× Usually 1–2 deck levels

Medium ships (general cargo, small tankers)
× ~ 200–800 m²
× 2–3 deck levels

Large commercial ships (container ships, bulk carriers, tankers)
× ~ 1,000–3,000+ m²
× 3–5+ deck levels

× Height can reach 15–30 meters (like a multi-storey building)
× Ultra Large Container Ships (ULCS)
Engine room can be the size of a small factory hall, housing:
× Main engine (up to 15m tall)
× Auxiliary generators
× Boilers, purifiers, pumps, piping systems

Proportion of Ship
> Typically 10–20% of the vessel’s length
> Located at the aft (rear) of the ship
> Extends from double bottom up to funnel casing

Example (Large Container Ship)
Ship length: ~400 m
Engine room length: ~40–60 m
Width: ~20–30 m
Height: ~20+ m

* That’s comparable to a 5–8 storey industrial building inside the ship.

Why So Big?
Because it houses:
》Main propulsion engine
》Diesel generators
》Fuel & l**e oil systems
》Seawater cooling systems
》Exhaust and ventilation trunks
》Control room + workshops

www.octrexholdings.com

Octrex Holdings

30/04/2026

COMPOSITE CARBON FIBER FOR MARINE SHIPBUILDING

Composite carbon fiber is increasingly used in marine shipbuilding, but it’s not a universal replacement for steel or aluminum, it shines in specific applications where performance matters more than cost.

What it actually is?

Carbon fiber composites typically combine carbon fibers with a resin matrix (often epoxy or vinyl ester). The result is a material with very high strength-to-weight ratio and excellent fatigue resistance.

Why shipbuilders consider it?

1. Lightweight → major efficiency gains
● Carbon fiber can be 5–10× lighter than steel for equivalent strength.
● Lower vessel weight → reduced fuel consumption
● Higher speed and payload capacity
● Ideal for high-speed crafts and naval vessels

2. High strength & stiffness
¤ Superior tensile strength compared to steel
¤ Excellent rigidity (less flexing under load)
¤ Useful in hulls, superstructures, and masts

3. Corrosion resistance
◇ Unlike steel, carbon composites don’t rust in seawater.
◇ Reduced maintenance cost
◇ Longer service life in harsh marine environments

4. Fatigue & vibration resistance
> Handles cyclic loads well (important for waves and engine vibrations)
> Improves structural durability over time

Where it’s commonly used?

Commercial & leisure
☆ High-performance yachts (e.g., racing yachts, luxury superyachts)
☆ Fast ferries and patrol boats

Naval / defense
* Stealth vessels (low radar signature)
* UAV/drone-launch platforms
* Lightweight superstructures for frigates and OPVs

Offshore & marine structures
× Masts, propellers, rudders
× Deck components and reinforcements

Limitations (this is where reality bites)

1. High cost
》Carbon fiber is significantly more expensive than steel or aluminum
》Manufacturing (autoclave, vacuum infusion) adds cost

2. Complex repair
■ Damage (especially internal delamination) is harder to detect
■ Repairs require specialized skills and facilities

3. Impact sensitivity
+ Strong in tension, but can be brittle under sharp impact
+ Not ideal for heavy-duty hulls exposed to collisions

4. Fire performance
^ Resin systems can degrade at high temperatures
^ Requires fire-retardant treatments for compliance

www.octrexholdings.com

Octrex Holdings

29/04/2026

SHIPBUILDING MATERIAL SELECTION

Choosing materials for shipbuilding isn’t just about strength—it’s a balancing act between durability, corrosion resistance, cost, weight, and the vessel’s intended operation (offshore, cargo, naval, etc.).

1. Primary Structural Materials

Steel (dominant material)
● Types: Mild steel, high-strength low-alloy (HSLA), quenched & tempered steel

Why it’s used:
● Excellent strength-to-cost ratio
● Easy to weld and fabricate
● Performs well under heavy loads and impact
● Where: Hull, deck, bulkheads, frames
● Consideration: Needs coatings or cathodic protection to prevent corrosion

Most commercial vessels (tankers, bulk carriers) are still ~90% steel.

Aluminium Alloys
● Common grades: 5083, 5086 (marine grade)
Advantages:
● Lightweight → better fuel efficiency
● High corrosion resistance (especially in seawater)
● Where: Superstructures, patrol boats, ferries
Limitations:
● Lower strength than steel
● Higher cost
● Fire resistance is weaker

Composites (FRP / GRP / CFRP)
● Types: Fiberglass (GRP), carbon fiber (CFRP)
Advantages:
● Very lightweight
● Corrosion-free
● Low maintenance
● Where: Small boats, naval stealth vessels, yachts
Limitations:
● Expensive
● Difficult to repair in remote marine environments
● Lower impact resistance vs steel

2. Specialized Materials

Stainless Steel
Used in:
◇ Piping systems
◇ Tanks (especially chemical tankers)
Benefits:
◇ Excellent corrosion resistance
◇ Hygienic (important for LNG, food-grade cargo)

Copper Alloys (Bronze, Brass)
Used in:
◇ Propellers
◇ Seawater piping
Benefits:
◇ Anti-fouling properties
◇ Good resistance to seawater corrosion

Titanium (high-end / naval / offshore)
◇ Extremely corrosion-resistant and strong
Used in:
◇ Heat exchangers
◇ Submarine components
Limitation: Very expensive

3. Corrosion Protection Materials
Material selection isn’t complete without protection systems:
■ Epoxy coatings / marine paints
■ Sacrificial anodes (zinc/aluminium)
■ Impressed Current Cathodic Protection (ICCP)

4. Selection Criteria (What engineers consider)

Operational Factors:
☆ Vessel type (tanker, LNG, naval, offshore support)
☆ Operating environment (tropical, Arctic, high salinity)
☆ Load conditions (static + dynamic stresses)

Economic Factors:
☆ Initial cost vs lifecycle cost
☆ Maintenance and repair accessibility

Regulatory Requirements:
☆ International Maritime Organization rules
Classification societies (Lloyd’s Register, DNV, Bureau Veritas)

5. Typical Material Strategy by Vessel Type
》Oil Tanker / Bulk Carrier: Mostly steel
》Fast Patrol Boat: Aluminium or composites
》Luxury Yacht: Aluminium + composites
》Naval Stealth Vessel: Advanced composites + special steel
》Offshore Platform Supply Vessel (PSV): Steel hull + aluminium superstructure

www.octrexholdings.com

Octrex Holdings

27/04/2026

Selamat menyambut Hari Tentera Laut Diraja Malayysia kepada seluruh warga TLDM

Semoga Allah merahmati dan mempermudahkan urusan dalam menjaga serta memperkukuhkan kedaulatan negara

Octrex Holdings

23/04/2026

MARINE DISCHARGE

“Marine discharge” generally refers to any release of substances from a vessel into the sea. In maritime operations, this is tightly controlled due to environmental impact and international law.

1. Types of Marine Discharge
Ships can discharge several categories of waste:
■ Bilge water
Oily water from engine rooms. Must be treated before discharge.
■ Ballast water
Water taken in for stability. Can carry
invasive species.
■ Sewage (blackwater)
Waste from toilets and medical facilities.
■ Greywater
From sinks, showers, and kitchens.
■ Garbage / solid waste
Plastics, food waste, packaging, etc.
■ Cargo residues
Especially from tankers (oil, chemicals).

2. Regulations (Key Framework)
Marine discharge is governed globally by the International Maritime Organization under the MARPOL Convention.
MARPOL has several annexes:
● Annex I – Oil (e.g., bilge discharge limits: Ships must treat ballast water (UV, filtration, chemicals)
>Prevents ecological damage from invasive organisms

5. Why It Matters
Improper discharge can cause:
× Marine pollution
× Ecosystem destruction
× Heavy fines / vessel detention
× Criminal liability for crew & operators

6. Practical (Onboard Perspective)
From an operational standpoint, marine discharge involves:
》Strict logging & documentation
》Equipment maintenance (OWS, sewage plant)
》Compliance with port state control inspections
》Crew training and awareness

www.octrexholdings.com

Octrex Holdings

14/04/2026

MARINE FIRE FIGHTING

Marine firefighting refers to the systems, equipment, and procedures used to detect, control, and extinguish fires onboard ships, offshore platforms, and other maritime assets. It is critical because fires at sea are harder to manage due to isolation, limited resources, and confined spaces.

Common Causes of Marine Fires
● Fuel leaks (diesel, heavy fuel oil)
● Electrical faults and short circuits
● Engine room overheating
● Galley (kitchen) accidents
● Cargo hazards (chemicals, flammable goods)

Types of Fire on Ships
Fires onboard are classified similarly to land-based fires:
× Class A – Solid materials (wood, paper, textiles)
× Class B – Flammable liquids (fuel, oil)
× Class C – Electrical fires
× Class D – Metal fires (rare but possible in cargo)
× Class K/F – Cooking oils (galley fires)

Marine Firefighting Systems

1. Fire Detection Systems
> Smoke detectors
> Heat detectors
> Flame detectors
> Alarm panels (centralized monitoring on bridge/engine control room)

2. Fire Suppression Systems
a) Water-Based Systems
> Fire main system (hydrants, hoses)
> Sprinkler systems (accommodation areas)
> Water mist systems (engine rooms)

b) Foam Systems
> Used for fuel fires (engine room, deck)
> Forms a blanket over fuel to prevent oxygen contact

c) CO₂ Systems
> Fixed system for engine room flooding
> Removes oxygen to extinguish fire
> Requires evacuation before activation (asphyxiation risk)

d) Dry Powder Systems
> Effective for gas fires (LNG, LPG carriers)

3. Portable Fire Extinguishers
> Foam extinguishers (liquid fires)
> CO₂ extinguishers (electrical equipment)
> Dry powder extinguishers (multi-purpose)
> Water extinguishers (Class A only)

Firefighting Equipment (Onboard)
◇ Fire hoses and nozzles
◇ Fireman’s outfit (helmet, gloves, boots)
◇ Breathing apparatus (SCBA)
◇ Thermal imaging cameras (advanced vessels)
◇ Fire blankets (galley use)

Firefighting Procedures (Basic Flow)
☆ Raise alarm immediately
☆ Identify fire type and location
☆ Isolate fuel and electrical sources
☆ Attack fire with appropriate system
☆ Boundary cooling (prevent spread)
☆ Ventilation control (smoke management)
☆ Evacuate if necessary

Regulations & Standards
¤ Marine firefighting is governed by:
¤ International Maritime Organization
¤ SOLAS Convention (Chapter II-2: Fire Protection)
These require ships to have:
¤ Fire safety systems
¤ Crew training and drills
¤ Fire control plans onboard

Key Challenges at Sea
》Limited external firefighting support
》Confined spaces (engine room, cargo holds)
》Rapid fire spread due to ventilation systems
》Risk of explosion (fuel vapors)

Practical Insight (Industry)
On most vessels, engine room fires are the highest risk. That’s why fixed CO₂ or water mist systems are mandatory, and crew drills are conducted regularly.

www.octrexholdings.com

Octrex Holdings

Octrex Holdings

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