SupportOil Tech
White Spirit Production
Plants
Modular kerosene-to-white spirit production systems
with distillation, HDS polishing and simulation-supported engineering.
Engineering the Future of White Spirit Production
Support Oil Tech presents a modular kerosene-to-white spirit production concept developed in accordance with modern refinery engineering principles.
The project includes precision distillation systems, HDS polishing units, hydrogen integration, final cooling systems and simulation-supported process engineering.
The plant is designed as a compact and modular production facility focused on the production of high-quality white spirit with low-odor and low-sulfur solvent characteristics.
The engineering concept has been developed with reference to international refinery design principles based on ASME, API, IEC, ATEX and NFPA approaches.
HIGH-QUALITY WHITE SPIRIT
Produced through precision distillation and HDS polishing technology for lower odor, lower sulfur and improved solvent quality.
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LOW ODOR & LOW SULFUR
Designed to provide cleaner and more refined solvent characteristics compared to untreated kerosene fractions.
WIDE INDUSTRIAL APPLICATIONS
Suitable for paint, thinner, coating, cleaning and industrial solvent applications.
SIMULATION-SUPPORTED ENGINEERING
Developed with modern refinery engineering principles and simulation-supported process evaluation.
ENGINEERED — NOT JUST VISUALIZED
This facility is not designed as a conceptual 3D illustration only.
The entire system has been developed based on engineering calculations, process simulations, thermodynamic evaluations, and industrial operating parameters.
Each module has been designed considering:
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Process flow calculations
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Heat transfer analysis
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Pressure and temperature conditions
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Equipment sizing
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Fluid dynamics
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Structural load considerations
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Operational safety parameters
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Industrial maintenance accessibility
The project geometry, equipment placement, and process configuration are prepared according to real operational requirements and scalable industrial design principles.
SIMULATION-BASED ENGINEERING APPROACH
The design process includes engineering-based evaluation methods such as:
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Thermodynamic analysis
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CFD-oriented flow evaluations
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Process optimization studies
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Mechanical and structural considerations
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Energy balance calculations
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Industrial safety assessments
This approach allows the project to move beyond visual presentation and toward technically validated industrial implementation.
