ChemEOR integrates the latest research and development in oilfield chemistry, materials science, fluid dynamics, surface science, and reservoir engineering to help you make timelier and actionable business decisions, optimize your field operation, and generate greater profitability. Our approach to R&D combines advanced laboratory methods in chemical formulation, monomer design, organic synthesis, and colloid and surface chemistry; with sophisticated computational molecular modeling techniques. This yields a practical product for our clients in a remarkably short lead time. Our commitment to sophisticated yet practical R&D has yielded many established, proven products; as well as the ability to develop variations that address specific customer needs.
UNIQUE R&D APPROACH
Conventional• Chemist Intuition
• Start with experimental trials
• Empirical approach
• Single experiment
Our R&D• Computer modeling assisted
• Start from molecular design
• High throughput experiments
This novel approach shortens the development cycle and enables customization to meet customers’ specific requirements.
• Material Science
• Chemical Engineering
• Petroleum Engineering
• Mechanical Engineering
Merits• Early IP Protection for
• Speed up and reduce costs of
lead identification and
• Sustainable technology
Conventional chemical product development has been based on the guidance from chemical intuition and conventional wisdom, which often results in lengthy laboratory testing based on laborious trial-and-error procedures. In the field, the performance of chemicals in specific applications may vary significantly over time and due to different geological and reservoir environments. Optimizing performance of the chemicals under different reservoir conditions usually requires substantial molecular structural modifications, with respect to which a better fundamental chemistry understanding via theoretical insights can have an important beneficial impact.ChemEOR’s unique approach to product development utilizing molecular design combines the experts’ knowledge, novel laboratory evaluation procedures, and advanced computational simulation techniques to obtain quantitative correlations of the molecular structure of chemicals and the performances in different applications. In particular, a series of modern molecular modeling methods, including Quantum Mechanics (QM), Density Functional Theory (DFT), Molecular Dynamics (MD), as well as Quantitative Structure-Activity Relationships (QSAR) and Quantitative Structure-Property Relationships (QSPR) approaches, have been applied routinely to guide our experimental efforts for faster and better product development.
Surface ChemistrySurfactants (Surface Active Agents) are usually organic chemicals that have both oil and water soluble components in their structures. A solution containing a surfactant and/or a mixture of surfactants can therefore reduce the oil-water interfacial tension (IFT), or alter the wetting tendency of the reservoir rock surfaces.
Oil & Rock• Spontaneous imbibition
• Surface wettability
Improved Oil Recovery | CRS®
A novel suite of surfactant formulations designed to increase oil recovery at low concentrations (0.05%-0.2%), especially in fractured carbonate and unconventional (especially shale) reservoirs.• Penetrates into matrix porosity to displace and mobilize the oil for improved production.
• Improves flowback.
• Enhances non-emulsification.
• Customized for different oil fields and basins, such as Lost Hills, Bakken and Eagle Ford.
Bio & Nano Technology
Bio and nano materials are also used for surfactant formulations, rendering the unique properties such as micro-emulsion, bio-degradability and higher hydrocarbon recovery ability.
Water & Rock• Wettability change
• Reduces capillary force
Flow-Back | FB™
Field proven, high performance surfactant formulations added in stimulation fluids to increase the drainage speed (dewatering) of the injected fluid.• Greatly accelerates the flow back process and recovers a large volume of injected fracturing fluid.
• Reduces water blockage to stimulate more oil production.
Oil & Water• Interfacial tension reduction
Non-Emulsifier | NE™
Field proven, proprietary surfactants added into stimulation fluids to increase the separation of produced oil and water post stimulation.• Discourages tight oil-water emulsions.
• Improves flowback.
• Reduces emulsion blockage and formation damage.
Fluid RheologyHigh molecular weight water soluble polymers are produced in dry and inverse emulsion forms. When added in the aqueous-based fluids, such polymers can improve their flow and rheological properties. A unique dry polymer process allows fast, complete, fisheye free hydration. In addition, no degradation of molecular weight is seen with this process. Inverse emulsions and dispersions are available when dry polymers are not desired. These polymers can be tailored for specific brine and temperature applications.
Flow Improvement• Decreases the energy loss
(pressure drop) in turbulent
Friction Reducers | PUMPex®
Emulsion PAM FR
Reliable, proven liquid-based emulsion friction reducers (ePAM).
• Cover a spectrum of field conditions from low to high salinities.
• Easy implementation.
Fast-hydrating, high-performance dry friction reducer functioning at low dosage (0.1 – 0.2%) for stimulation fluids in low to medium salinity brines.
• Logistic advantages (easy transporting and stable storage).
• Environmentally benign (No organic or harsh solvents).
• Add on the fly (hydrates and achieves maximum performance in less than a minute).
Viscosity Control• Increases fluid viscosity and
Gelling Agents | LINKmer™
High-performance gelling agents offering great carrying capacity for proppant transport.
• Superior proppant carrying capacity.
• Broad pH range crosslinking.
• Good thermal stability.
Special polymers with controllable gelling functions.
• Excellent proppant carrying capacity.
• Clean and less damage.
• Multiple functions.
Molecular DesignComputational simulation techniques and in-depth chemistry fundamentals are combined to predict chemical functionality at molecular-level, significantly shortening the path to high-performance chemical formulations.
Lab EvaluationStandard industrial testing procedures as well as specifically designed procedures are applied for validation and tuning of our theory, and also for QA/QC of our products.
Performance MaterialsRenewable, cost-effective and environmentally-friendly materials are utilized and the applications of advanced bioengineering and nanotechnology methods are also involved.
CustomizationThe most demanding needs of customers are fulfilled by applying the latest technology to product design and improvement.
Field ApplicationOptimization and improvements for our products never stop based on the feedback from oilfield application.
• DOE-SBIR 1047290 Phase I Environmentally-Friendly Self-Thickening Chemicals for Improved Conformance Control (01/2011-12/2011)
• DOE RPSEA 07123-2 Performed Particle Gel for Conformance Control (07/2008-03/2011)
• DE-FC26-06NT15525 Bio-Engineering High Performance Microbial Strains for MEOR by Directed Protein Evolution Technology (10/2004-09/2007)
• DE-FC26-04NT15521 Cost Effective Surfactant Formulations for Improved Oil Recovery in Carbonate Reservoirs (10/2004-03/2007)
• DE-FC26-01BC15362 Lower Cost Methods for Improved Oil Recovery (IOR) via Surfactant Flooding (09/2001-09/2004)
• SPE 179525 Possibility of Flooding Polymer or Water Reuse via Innovative Selective or Total Flocculation of Enhanced Oil Recovery Produced Water (2016)
• SPE 178992 Results from Response Surface Methodology in the Study of Novel Temporary and Permanent Clay Stabilizers (2016)
• SPE 173753 Computational Modeling of Temporary Clay Stabilizers Supported by Performance Testing (2015)
• OTC-25869-MS Effects of BETX on the Abnormal Geopressures (2015)
• SPE 171025 Friction Reducers Fresh Rheological Insights Married to Performance (2014)
• SPE 168180 Optimizing Surfactant Additives for Enhanced Well Stimulation in Bakken Formation. (2014)
• CSUG/SPE 147531 Chemical Process for Improved Oil Recovery From Bakken Shale (2011)
• SPE 143514 Research on a New Profile Control Agent: Dispersed Particle Gel (2011)
• SPE 132564 Heavy Oil Production Enhancement by Viscosity Reduction (2010)
• SPE 124257 A New Method for Fast Screening of Long Term Thermal Stability of Water-Soluble Polymer for Reservoir Conformance Control (2009)
• SPE 99612 An Experimental Study of Wetting Behavior and Surfactant EOR in Carbonates with Model Compounds (2008)
• SPE 106048 Engineering Rhamnolipid Biosurfactants as Agents for Microbial Enhanced Oil Recovery (2007).
• SPE 95404 A Study of Branched Alcohol Propoxylate Sulfate Surfactants for Improved Oil Recovery (2005).
• SPE 89472 Alkyl Polyglycoside Surfactants for Improved Oil Recovery (2004).
• SPE 80243 Improved Transportation of Waxy Crude Oils and Emulsions in Bekasap Area, Indonesia. (2003)
• Evaluation of Functionalized Polymeric Surfactants for EOR Applications in the Illinois Basin, Journal of Petroleum Science and Engineering. 2015 (in press)
• Chemical and Thermal Stability of N-heterocyclic Ionic Liquids in Catalytic C-H Activation Reactions, Magnetic Resonance in Chemistry, 2014, 52, 673-679
• Dilute iota- and kappa-Carrageenan solutions with high viscosities in high salinity brines. Journal of Petroleum Science and Engineering. 2011, 75, 304-311
• Alkyl polyglycoside surfactant-alcohol cosolvent formulations for improved oil recovery. Tenside Surfactants Detergents. 2010, 47, 48-59
• New surfactant classes for enhanced oil recovery and their tertiary oil recovery potential. Journal of Petroleum Science and Engineering. 2010, 71, 23-29
• Analysis of the Influence of Alkyl Polyglycoside Surfactant and Cosolvent Structure on Interfacial Tension in Aqueous Formulations versus n-Octane. Tenside Surfactants Detergents. 2010, 47, 87-97
• Alkyl Polyglycoside Surfactant-Alcohol Cosolvent Formulations for Improved Oil Recovery. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 2009, 339, 48-59
• Engineering bacteria for production of rhamnolipid as an agent for enhanced oil recovery. Biotechnology and bioengineering. 2007, 98, 842-853
• Molecular Dynamics Study of a Surfactant-Mediated Decane-Water Interface: Effect of Molecular Architecture of Alkyl Benzene Sulfonate. The Journal of Physical Chemistry, B. 2004, 108, 12130-12140
• Evaluation of Effects of Selected Wax Inhibitors on Wax Appearance and Disappearance Temperatures. Petroleum Science and Technology. 2003, 21, 359-368
• Evaluation of Effects of Selected Wax Inhibitors on Paraffin Deposition. Petroleum Science and Technology, 2003, 21, 369-379.
• Measurement of wax deposition in paraffin solutions. AiChE Journal. 2002, 48, 2107-2110
• The MSXX Force Field for the Barium Sulfate-Water Interface. The Journal of Physical Chemistry, B. 2002, 106, 9951-9966
• Scanning Force Microscopy Study of Etch Pits Formed during Dissolution of a Barite (001) Surface in CDTA and EDTA Solutions. Langmuir, 2000, 16, 649-655.
• Dissolution of the barite (001) surface by the chelating agent DTPA as studied with non-contact atomic force microscopy. Colloids and Surfaces A: Physicochemical and Engineering Aspects. 1999, 160, 217-227
• Study of the Dissolution of the Barium Sulfate (001) Surface with Hydrochloric Acid by Atomic Force Microscopy. Journal of Colloid and Interface Science. 1999, 219, 212–215
• Atomistic Simulations of Oleic Imidazolines Bound to Ferric Clusters. The Journal of Physical Chemistry, A, 1997, 101, 83-89
• Self-Assembled Monolayer Mechanism for Corrosion Inhibition of Iron by Imidazolines. Langmuir, 1996, 12, 6419-6428