FluidFlow

FluidFlow

Global R&D as the name of Global R&E is the sole distributor of FluidFlow software in Thailand. We believe in finding the best solution for our customer to tackle their challenge in day-to-day work. Therefore, we chose to represent the software, FluidFlow, which is a TOTAL SYSTEM DESIGN APPROACH with the most comprehensive and EASY TO USE PIPE FLOW SOFTWARE available.

FluidFlow is easy-to-use and EQUIPS YOU WITH ALL THE TOOLS NEEDED to design or analyze safe, reliable and energy efficient pipe flow systems. A highly intuitive user interface combined with a FREE DATABASE OF OVER 1200 FLUIDS AND OVER 800 EQUIPMENT COMPONENTS has helped engineers get to grips with the program quickly. New fluids (including petroleum fractions), fluid mixtures and components can be quickly and easily added to the database. Accelerate your design process with automatic equipment sizing technology to API & ISO standards.

The results generated by FluidFlow are rigorously tested and verified against published data and real-world operating systems on a continuous basis. An extensive library of ‘Quality Assurance’ test models are also installed with the software

Then WHY STILL USING SPREADSHEETS? Spreadsheet based piping calculations are often error prone. FluidFlow eliminates such errors and helps you design efficient and reliable plant using correctly sized equipment. Comprehensive fluid and equipment databases allow you to accurately design, analyze or troubleshoot any pipe flow system.

 

Experience by yourself, TAKE A 14 DAY TRIAL

 

For more information, please contact

Phacharakamol Phothisantikul   l   phacharakamol.globalrd@gmail.com   l  065 782 3545

 

WANT TO LEARN MORE? FluidFlow is a modular software product meaning YOU CAN CHOOSE THE CALCULATION MODULES WHICH ARE RELEVANT TO YOUR COMPANY AND INDUSTRY. You can therefore model any fluid type or phase state within one single model. This means you don’t have to purchase or learn how to use multiple software programs and spend extra time creating multiple models in separate programs to complete your design analysis.

1. Liquid Calculation Module

  • Auto-size pipes, pumps, control valves, orifice plates and pressure safety relief valves.
  • Conduct heat transfer analysis for pipes installed above or below ground.
  • Analyse heat exchanger performance.
  • Evaluate NPSHa versus NPSHr.
  • Evaluate vendor pump performance, increase reliability

2. Gas Module (Compressible Flow)

  • Automatically size pipes, ducts, fans, compressors, control valves, safety relief devices, orifice plates and nozzles.
  • Study plant performance & determine gas physical properties throughout entire system.
  • Conduct thermal heat transfer analysis for pipes and ducts.
  • Evaluate vendor fan and compressor performance and identify energy saving opportunities.
  • Analyze heat exchanger performance.
  • Identify cause of operational issues with existing plant and evaluate solutions.
  • Automatically detect choked flow conditions.

3. Two-Phase Liquid-Gas Module

  • Automatically size pipes, ducts, fans, compressors, control valves, safety relief devices, orifice plates and nozzles.
  • Study plant performance & determine fluid physical properties throughout an entire system.
  • Conduct thermal heat transfer analysis for pipes and fittings.
  • Evaluate vendor booster performance and identify energy saving opportunities.
  • Monitor steam quality.

4. Slurry Module

  • Automatically size pipes, pumps, control valves, relief devices (ISO & API), orifice plates and nozzles.
  • Predict particle deposition velocities.
  • Prevent likelihood of pipe blockage.
  • Evaluate vendor pump performance identifying energy saving opportunities.
  • Study plant performance & determine slurry physical properties throughout entire system.
  • Identify cause of operational issues with existing plant and evaluate solutions.
  • Develop EGL/HGL graph plots to help evaluate performance

5. Dynamic Analysis Module

  • Study how any flow system behaves at startup/shut down as operating conditions change.
  • Evaluate variable speed pump control.
  • Investigate tank fill/drain times.
  • Develop system control philosophies.
  • Consider plant depressurization.
  • Establish control valve performance for different system control philosophies.
  • Review plant pressure conditions as demand profiles vary.
  • Optimize system operating performance.
  • Analyze system pressure conditions arising from component failure.