Production Optimization Through Multiphase Compression
Most cost-effective, fully autonomous multiphase technology available in the industry.
Patented Multiphase Technology
Fluidstream has developed a leading robust, cost-efficient, fully autonomous multiphase compression technology that can be used for various oilfield applications.
Built with sturdy, high-quality components and advanced proprietary programming to optimize operation and functionality.
Designed to maximize project economics
Built to improve value across the project lifecycle through stronger production performance, lower ownership burden, and reduced operating demand.
Return on Investment
Stronger project value through improved production performance and operational efficiency.
Total Cost of Ownership
Lower lifecycle burden through durable systems, efficient control, and less maintenance.
Initial Purchase Cost
A more practical capital profile that supports stronger economics from the beginning.
Operating Costs
Reduced operating demand through dependable autonomous functionality and lower service needs.
Technology Driven Benefits
Low Cost and Quicker Payout
Most cost-competitive multiphase technology available that provides maximum return on investment while reducing total cost of ownership.
Handles up to 100% Liquids
Patented multiphase operation can handle up to 100% liquids or any combination of liquids and gas. No scrubber required. Gas volume fractions (GVF) between 0 and 100%.
Fully Autonomous with Comprehensive Controls
Works autonomously to achieve operator-defined operational targets. Features comprehensive controls to configure for any complex or upset condition.
Low Maintenance
The simple and robust design and comprehensive controls ensure significantly reduced maintenance cycles.
Multiphase Patent
Fluidstream has developed and secured a multiphase patent that provides the only safe, efficient, reliable, and optimal way to handle incompressible liquids in a compression chamber.
Select Your BoosterCommander™ Model
Compare available BoosterCommander™ models by gas rate, liquid rate, pressure differential, and motor size.
Scroll horizontally on smaller screens to view the full table.
| MultiphaseCommander™ Model | ||||||
|---|---|---|---|---|---|---|
| MC1235 | MC1245 | MC1645 | MC2245 | MC2270-124 | ||
|
Max Gas Rate1,2 @ Inlet Pressure (e3m3/day) [mcf/day] |
5 psi [34 kPa] | 3.2 [113] | 3.2 [113] | 5.7 [201] | 10.7 [378] | 10.1 [357] |
| 50 psi [345 kPa] | 10.4 [367] | 10.4 [367] | 18.5 [653] | 35.3 [1,247] | 33.1 [1,169] | |
| 100 psi [690 kPa] | 18.5 [653] | 18.3 [646] | 32.9 [1,162] | 62.5 [2,207] | 58.8 [2,077] | |
| 150 psi [1034 kPa] | 26.5 [936] | 26.3 [929] | 47.2 [1,667] | 89.7 [3,168] | 84.4 [2981] | |
| 200 psi [1379 kPa] | 34.5 [1,218] | 34.3 [1,211] | 61.5 [2,172] | 117 [4,132] | 110.0 [3885] | |
| Max Liquids Rate (m3/d) [bbl/d] | 2,360 [14,800] | 2,340 [14,700] | 4,200 [26,400] | 8,000 [50,300] | 7,500 [47,100] | |
| Max Pressure Differential2 (kPag) [psig] | 1379 [200] | 2413 [350] | 1379 [200] | 689 [100] | 1896 [275] | |
| Motor Size (HP) | 50 | 50 | 100 | 100 | 150 | |
1 Flow conditions calculated at 15°C [59°F] inlet pressure and with various components operating at 100% efficiency. Flow rates may vary based on inlet pressures, gas content, and other factors. Max gas rates will be reduced by amount of liquids in total fluid. Ask Fluidstream for max gas flow rates based on specific liquid rates and other varying conditions.
2 Max gas rates and max pressure differentials can be increased by configuring additional unit(s) in parallel or in series.