Products

Oil Displacing Agent Of Tertiary Oil Recovery

    • Product Name: Oil Displacing Agent Of Tertiary Oil Recovery
    • Alias: oil-displacing-agent-of-tertiary-oil-recovery
    • Einecs: EINECS 260-978-4
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    994215

    Appearance Clear or milky liquid
    Main Component Surfactant mixture
    Ionic Type Anionic or nonionic
    Ph Value 6.5-9.5
    Density 1.02-1.10 g/cm³
    Solubility Easily soluble in water
    Viscosity 10-120 mPa·s (at 25°C)
    Thermal Stability Stable up to 80°C
    Interfacial Tension Can reduce oil-water interfacial tension to 10⁻³ mN/m or lower
    Biodegradability Biodegradable under aerobic conditions

    As an accredited Oil Displacing Agent Of Tertiary Oil Recovery factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The chemical "Oil Displacing Agent Of Tertiary Oil Recovery" is packaged in 200-liter blue plastic drums with secure, leak-proof lids.
    Shipping The Oil Displacing Agent for Tertiary Oil Recovery is securely packed in corrosion-resistant drums or IBC totes, ensuring safe transit. Containers are tightly sealed to prevent leaks, with clear labeling for hazard identification. Shipments comply with relevant chemical transport regulations, and are accompanied by Material Safety Data Sheets (MSDS) for safe handling and emergency response.
    Storage The Oil Displacing Agent for Tertiary Oil Recovery should be stored in tightly sealed containers, away from direct sunlight, heat, and sources of ignition. Storage areas must be well-ventilated, cool, and dry to prevent contamination or decomposition. The agent should be kept separate from strong oxidizers and incompatible materials, following all relevant safety regulations and labeling requirements.
    Application of Oil Displacing Agent Of Tertiary Oil Recovery

    Viscosity: Oil Displacing Agent Of Tertiary Oil Recovery with high-viscosity grade is used in low-permeability oil reservoirs, where it improves sweep efficiency and enhances oil displacement. Purity: Oil Displacing Agent Of Tertiary Oil Recovery with 98% purity is used in mature oil fields, where it increases tertiary oil recovery rates and minimizes formation damage. Molecular Weight: Oil Displacing Agent Of Tertiary Oil Recovery with molecular weight 1,200,000 Da is used in sandstone formations, where it achieves deeper penetration and uniform flooding fronts. Thermal Stability: Oil Displacing Agent Of Tertiary Oil Recovery with stability at 120°C is used in high-temperature reservoirs, where it maintains efficacy without degradation. Particle Size: Oil Displacing Agent Of Tertiary Oil Recovery with particle size less than 20 microns is used in heterogenous formations, where it reduces pore-blocking and facilitates improved oil movement. PH Range: Oil Displacing Agent Of Tertiary Oil Recovery with optimal pH 7–8 is used in alkaline reservoirs, where it minimizes chemical reactivity and supports sustained performance. Solubility: Oil Displacing Agent Of Tertiary Oil Recovery with complete water solubility is used in water injection processes, where it ensures homogenous dispersion and consistent oil recovery results. Surfactant Concentration: Oil Displacing Agent Of Tertiary Oil Recovery with surfactant concentration 0.5% is used in residual oil zones, where it lowers interfacial tension and mobilizes trapped hydrocarbons. Salt Tolerance: Oil Displacing Agent Of Tertiary Oil Recovery with salt tolerance up to 100,000 ppm is used in saline reservoirs, where it prevents precipitation and maintains displacement efficiency. Shear Stability: Oil Displacing Agent Of Tertiary Oil Recovery with high shear stability is used in offshore tertiary flood operations, where it maintains molecular integrity and ensures effective oil recovery.

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    For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.

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    Certification & Compliance
    More Introduction

    Oil Displacing Agent for Tertiary Oil Recovery: Experience from the Manufacturing Floor

    Getting to the Root of Oil Recovery Challenges

    After years of seeing how traditional water flooding hits its limits in mature oilfields, finding ways to boost recovery rates becomes more than just a technical goal—it’s the key to stretching oilfield life and meeting production targets without unnecessary environmental strain. For decades, oilfield operators have watched their water cut rise, flow rates drop, and much of the remaining crude slip out of reach. At this point, chemical methods such as the oil displacing agent step in, especially for tertiary (enhanced) oil recovery. As a manufacturer directly involved with these developments, we can say that everything from lab formulation to bulk delivery relies on practicality and experience, as well as science.

    Unique Aspects Behind Our Oil Displacing Agent

    We manufacture Oil Displacing Agent designed for tertiary recovery, also described as EOR (Enhanced Oil Recovery). The materials come from years spent studying fluid dynamics in porous rock and identifying which chemical structures offer the best combination of cost, oil displacement, and tolerance to field conditions. Our most popular product lines focus on sodium petroleum sulfonate and tailored polymer systems—each designed to target distinct underground conditions.

    Take Model JD-70 and its related grades for example. JD-70’s molecular weight stays within a range that balances injectivity and effective sweep area. Without bogging down injection pumps or bypassing oil pockets, this formulation changes interfacial tension to a fraction of original water-oil interaction. Field operators confirm reduced residual oil saturations after additives like JD-70 interact with reservoir crude through test wells and core-flood experiments. There’s nothing theoretical about saving barrels that would otherwise remain locked in rock.

    Specifications Speak from Real Wells

    It’s easy to recite “15%-25% improvement” from a brochure, but on site, a workable product takes on meaning with details. Our oil displacing agent lands at a typical concentration of 0.1%-0.5% in injection water, though lab guys will tweak higher depending on reservoir permeability and salinity. Viscosity stays manageable for surface pumps even down to 5°C, and the product tolerates produced water recycled through separators. We’ve run side-by-side tests with oil displacing cocktails from international suppliers under high calcium brine; our product stands up without precipitating or losing surfactant activity. That reliability keeps field logistics under control, especially during long injection campaigns. Daily plant QC checks go beyond routine—field teams call for quick reporting if any batch lands off spec, since a failed injection test can eat up a week’s worth of oil production.

    Differentiation Matters in the Field

    Many “oil displacing agents” come off the assembly line with a similar scientific description, but not every agent works the same underground. In our factory, research staff stay in tight contact with production geologists and field engineers. Our staff often heads out to the well pad for sampling and on-site mixing, rather than relying on third-party logistics. That hands-on cycle feeds the next batch design.

    Unlike basic surfactant blends, our agents use co-solvents and stabilizers chosen for their resilience to high salinity fields, which have become more common as produced water gets recycled. The advantage is clear when wells run through cycles using untreated injection water—some agents lose half their power against interfacial tension, but our product maintains action even when field conditions aren’t perfect. Oilfields with routine high temperatures up to 120°C need an agent that won’t break down. We tune our formulas for thermal and shear stability, based on feedback from projects in Western China and Central Asia, where downhole extremes are routine.

    Compared with traditional alkali-surfactant-polymer (ASP) blends, we’ve seen lower scaling and equipment wear with our agent, and both pipe residue samples and pump maintenance logs back that up. Field supervisors want results that show up in tank measurements, not a pitch deck. Any manufacturing plant can synthesize a surfactant. Building a system that works under the unpredictable swings of sandface temperature and water chemistry takes longer, but it’s also where feedback from veteran oilfield crews shapes the final formula.

    Oil Recovery Isn’t Just Chemistry—It’s Oilfield Reality

    A decade of customer site visits has taught us to respect what happens outside the lab. Real reservoirs throw curveballs like high clay content, presence of H2S, and fast-changing pressure. That’s where the difference shows: we test each batch with actual crude and reservoir water, not just standard brine. One client in the Daqing Oilfield area pointed out early on that off-the-shelf surfactant, even with a big name, dropped its cloud point 15°C below spec the moment native minerals mixed in. Years ago, we upgraded our line to address those compatibility quirks: our oil displacing agents include chelating agents and mineral stabilizers, minimizing the unpredictable precipitation that often plagues polymer floods.

    Operators fighting high water cuts want observable change. They look for rises in oil cut, not just displacement in a core-flood tube. Our customer feedback loops always point to the need for post-flood assessment, so we build tracers into our packages. These tracers help operators monitor agent flow deep in the reservoir, which speeds up troubleshooting and pinpoints plug formation early—saving days in hot oil washouts and production slowdowns.

    Packaging and Storage Fit for Harsh Oilfield Operations

    Chemical agents don’t get special treatment at the average central processing facility—they’re unloaded near drill muds, subject to weather, and often sit for weeks before use. From the manufacturing line, drums and totes for our oil displacing agents use UV-stable materials, thick-walled enough to resist accidental puncture and splashing during routine forklift handling. Warehouse teams have been known to call us reporting cracked drums from cheaper sources, leading to unnecessary cleanup. Our drum seal design cuts down on exposure incidents both in shipping containers and on dusty, windblown laydown yards.

    Because operators often blend chemicals on-site using field water, we design our packaging for fast open-and-dump operations—no fiddly pouring or special fittings required. We add anti-foaming agents at the drumhead too, since foaming during mixing creates guesswork in actual dose rates. Data from our storage facility in Gansu shows that over twelve-month storage, active compound concentration drops by less than 2%, even after repeated freeze-thaw cycles. These are the sort of details that only matter to people who store, transport, and handle product under tough conditions.

    Supporting Enhanced Oil Recovery Programs—Beyond Just a Sale

    Manufacturing oil displacing agents gives us a window into broader shifts in enhanced oil recovery. EOR projects succeed or stall on the little details: matching chemical to fluid, adjusting to unpredictable water qualities, and supporting operators when conditions go haywire. Operators want more than just a formula; they want insight into how well an agent flows through kilometers of fractured rock.

    Field troubleshooting isn’t always glamorous. Our staff has spent plenty of time sampling return fluids with production engineers, tracking tracer levels, and watching for signs of breakthrough or channeling ahead of schedule. Sometimes a successful agent still faces resistance due to past chemical failures at that field—our response is usually hands-on, swapping batch samples, running site-specific tweaks, and waiting for data before committing to another run. Field-proven performance, not lab claims, drives our future product lineup. It’s a cycle where every successful batch starts with a conversation at the wellhead or control room, not only with the technical team back at the plant.

    Regulatory and Environmental Considerations Matter

    Being a chemical manufacturer in oil recovery means living in a world where regulations shift and environmental pressure rises each quarter. We know from experience that big oilfields can’t afford water contamination or land spills—they want products that leave minimal legacy risk. So all major components in our oil displacing agents go through full aquatic toxicity assays, and we maintain certification paperwork at each shipping lot. In China, North America, and the Middle East, we meet discharge licensing by carrying out real-world river and soil exposure tests, not just relying on synthetic test systems.

    Our production line has cut sodium levels by 15% over the last three years, based on repeated feedback from clients with limits on total dissolved solids. Improved rinsing methods reduced overall plant waste water, so we no longer send brine waste for offsite disposal. These small process improvements add up, both from an environmental risk angle and in the cost numbers our customers face in the field. Real changes get spurred by engineers speaking plainly—suggesting direct product swaps, catching safety errors, and reporting field leaks before they become incidents.

    Issues with Supply Chain and Local Sourcing

    Operators running tertiary recovery projects care about source security. Global supply chain shocks, from port backlogs to raw material price jumps, have made reliable domestic and regional supply more critical than ever. Our own plant learned this lesson during major shipping disruptions, when overseas suppliers of key feedstocks for surfactants abruptly raised prices or pushed lead times to months. This forced us to qualify multiple local sources, adding redundancies for key chemicals like linear alkylbenzene and ethylene oxide. Now, shipments for large field operations draw from both regional and long-haul sources, reducing field downtime due to supply chain surprises.

    Over the last five years, customer demand for “local content” has grown. Some countries run field tests that penalize agents sourced more than 500 kilometers away. Through direct involvement with local refineries and chemical parks, we managed to source over sixty percent of raw materials within the same province for several product lines. Field pilots now run with more predictable inventory flow, so operators don’t wait weeks for tanker arrivals. Our internal teams keep a practical eye on cross-border logistics too—by mapping routes and truck loading limits, we help operators sidestep customs or unloading hang-ups that have held up other suppliers.

    Supporting Knowledge Transfer through Site Support

    Blending and injecting oil displacing agents is not a set-and-forget job. Operators benefit most where local field staff understand mixing ratios, safety, and early warning signs of dispersion issues. Our manufacturing chemists support training days at remote gathering stations, using actual field water and live crude samples, rather than relying solely on lab-simulated environments. Feedback loops formed during on-site blending sessions point to spots where formulation tweaks led to quicker oil cut increases or fewer injector problems.

    Training has practical benefits. Gathering station supervisors now know exactly how to recognize the signature changes in return fluid turbidity that suggest optimal agent breakthrough versus premature channeling. These sessions also offer time to share best practices for filter maintenance and system flushing, helping to cut downtime from clogged lines or fouled pumps. Where language and documentation had been gaps, we collaborated with local translators and technical writers to ensure that operator guides matched on-site dialects and field instructions.

    New Developments in Formulation and Their Field Impact

    Tertiary oil recovery keeps shifting as oil grades become heavier, and fields age. Over the last three years, our team has invested in more robust bio-based surfactants. These newer formulations, which replace part of the synthetic surfactant load with biodegradable fatty alcohol derivatives, show lower aquatic impact without sacrificing the core oil-wetting reversal function. Early commercial runs in shallow, sensitive wetland blocks report similar or slightly better recovery factors when compared to older, fully synthetic runs.

    Continuous pilot testing under field supervision catches problems like foaming, separation, or surfactant leaching before they reach full-scale injection. The field data cycle is relentless—every new batch release ties back to dozens of water analysis checks, pressure falloff logs, and post-injection soil samples. Improved agent stability for salinity swings caught the attention of customers scaling up water recycling at mature fields. By eliminating precipitation during low- and high-salinity cycles, our product supports expanded injection without new formation damage or unpredictable blockages downhole.

    Comparison with Common Market Offerings

    Many suppliers promote off-the-shelf blends which perform acceptably in lab tests but falter once confronting high brine, unusual temperatures, or “problem” formations in the field. From the manufacturer’s side, we see the edge coming from products keyed directly to matching field water and produced crude conditions, even at the cost of customizing grade or shipping at shorter lead times. Our plants keep smaller batch lots on hand to accommodate last-minute tweaks requested by operators dialing in injection protocols around shifting field conditions.

    A major difference between our oil displacing agent and generic alternatives comes from the role field water plays. We maintain an ongoing project to track brine samples across top customer fields. Updated fieldwater analysis influences batch formulation and guides customer support. Large-volume buyers in the Middle East reported greater injection consistency and lower equipment wear using our tailored agent, traced back to reduced water-borne particulates and minimized scaling. Our design approach factors in high sulfur or heavy oil content, meaning less trial-and-error for operators tweaking runtimes or switching reservoirs mid-project.

    Talking with engineers downhole and on the injection pad works better than any third-party testing protocol. Ultimately, delivering a product that holds up, shipment after shipment, under the challenge of dozens of wells means having site staff active in the field—not sending out generic one-size-fits-all blends. We’ve never claimed to be the largest in the market, but customer loyalty often turns on how we handle the tough field runs, not just the easy successes.

    Feedback and Next Steps from the Field

    For any oil displacing agent manufacturer working in tertiary recovery, success depends on measured, honest feedback from the men and women who operate pumps, manage tank farms, and watch budget numbers. Our own lessons have mostly come from failed runs—where a slight miscalculation in surfactant mix led to rapid plugging, or a downhole tool picked up signs of emulsion that held up crude output for days. By embedding technical support and sharing field learnings, mistakes grow into the backbone for future refinements.

    We stay closely connected to each field deployment, tracking chemical spends, watching recovery bumps, and supporting rapid response in case of injection anomalies. Direct support for troubleshooting helps operators avoid long production dips. Realtime tracer data from field sites guides tweaks in mixing routines and batch adjustments. We rely on these closed feedback loops far more than any branding or ad campaign when planning our next generation of products.

    Looking ahead, oilfield operators will still face the challenge of sparing every last recoverable barrel in mature assets. New wells cost more and face more environmental risk. A chemical solution, rooted in direct cooperation between field ops and manufacturing teams, stands a better chance of delivering value than formulas detached from the reality of tough, changing production environments. For every field, each successful run reflects a blend of proven chemistry, tight logistics, and honest partnership on the ground.

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