Interface Fluidics
Interface Fluidics transforms how the energy industry gathers and uses fluid information for more accurate, cost-effective and environmentally-conscious decision making in the field. Our testing technology shows you how fluids behave at the pore scale and provides critical phase behaviour information for building computer reservoir models. Interface solutions have helped the energy industry cut chemical costs, increase ROI, and take the guesswork out of operations. Smaller samples also mean less energy use and lower emissions.
Case Study in Microfluidic Scale and Wax Mitgation in Waterflooding - EAGE IOR+ Re-Broadcast
Interface Fluidics Portal Image Preview
Interface Fluidics Portal Chemical Inventory
Interface Fluidics Portal Project Page
A New Approach to Optimizing Completion and Stimulation Fluids
The Latest Technological Advancements in our Field
Solving Lithium Brine Challenges
The Interface Fluidics Process
Fracturing Fluids Optimization
How to Make a Great Microfluidic System
Highlights of Interface Fluidics' recent success stories
PVT Reports Demystified - A Conversation Between a Modeler and Experimentalist Corrected
Formation Damage Mechanisms in Unconventionals – Fluid Variables
Produced Water Explained - Getting it Right
New Microfluidic Methods for Advanced CCE
SapphireLab: Next-Generation Fluid Analysis for Your Laboratory
SapphireLab Tech Tips: O-Ring Selection
5 Crucial Gaps in Traditional Fluid Testing and How HPHT Fluid Analysis Improves Decision Making
How to Reduce OPEX Costs Using Your Reservoir Fluids
New Methods for EOR Optimization Using Microfluidics
The Component Focus Mistake - Turnkey Systems are the future of Microfluidics for Energy
I Can't Believe It's Not Rock! - January 2023 Webinar
Produced Water Reuse and Disposal Webinar - November 2022
Wax Mitigation and Remediation: A Microfluidic Approach
Hydrogen Transportation and Storage: A Green Energy Transition
Minimum Miscibility Pressure Testing Capabilities
Optimizing Injection Strategy for Enhanced Oil Recovery
Enabling Progress in CCS: Filling the Gaps with Microfluidics