From technical uncertainty to engineering evidence
Each project starts with a specific technical question: a performance limitation, an equipment failure, a process bottleneck, a new operating requirement, or an investment decision. We select the engineering methods required to understand the problem, compare alternatives, and develop a practical solution.
Severe-service valve engineering
Engineering analysis and advanced simulation applied to understand demanding flow conditions and support the development of more reliable equipment for severe service.
Engineering focus
Flow behavior under demanding operating conditions.
Identification of critical regions and potential failure mechanisms.
Comparison of design alternatives.
Technical validation to reduce uncertainty before implementation.
Value: engineering evidence to support equipment design and reliability decisions before committing resources to implementation.
Hydrocyclone development and validation
Engineering and controlled testing applied to evaluate hydrocyclone performance and support the development of equipment for specific separation requirements.
Engineering focus
Fluid and particle behavior inside the equipment.
Operating conditions and performance targets.
Geometry and configuration assessment.
Pilot testing using measurable acceptance criteria and KPIs.
Technical basis for industrial scale-up.
Value: reduce uncertainty between equipment concept, expected separation performance, and industrial implementation.
Process optimization through CFD
Computational Fluid Dynamics provides visibility into flow phenomena that are difficult or expensive to measure directly in industrial equipment and processes.
Typical applications
Pressure drop and flow distribution.
Mixing and residence-time behavior.
Heat transfer and thermal performance.
Multiphase flow and separation.
Combustion and reacting-flow systems.
Evaluation of equipment modifications before implementation.
Value: compare alternatives and identify improvement opportunities using quantitative engineering evidence rather than trial and error.
Custom process equipment
Some industrial problems cannot be solved effectively by selecting standard equipment from a catalog. In these cases, Prodisys combines process requirements, engineering analysis, simulation, and equipment design to develop application-specific solutions.
Examples of equipment
Hydrocyclones.
Air-cooled heat exchangers.
Eductors and jet devices.
Flow and mixing equipment.
Other specialized equipment involving fluid flow, heat transfer, multiphase phenomena, or reacting systems.
Value: equipment engineered around the actual process conditions and performance requirements of the application.
A common engineering approach
01
Define
Operating conditions, technical problem, constraints, and measurable performance objectives.
02
Understand
Identify the physical mechanisms controlling performance, reliability, or failure.
03
Evaluate
Use engineering calculations, CFD/FEA, or testing as appropriate to compare alternatives.
04
Implement
Translate engineering evidence into a decision, process improvement, or equipment solution.
More than 150 engineering and equipment projects
For more than two decades, Prodisys has worked on industrial challenges involving fluid mechanics, heat transfer, mechanical integrity, process performance, and specialized equipment.
Confidentiality matters
Industrial engineering projects frequently involve sensitive operating information, equipment designs, and proprietary know-how. We can work under confidentiality agreements and define information boundaries from the beginning of an engagement.
Have a similar engineering challenge?
Tell us about the operating problem, performance objective, or equipment requirement. We can evaluate whether engineering analysis, simulation, validation, or a custom equipment solution is the appropriate next step.
