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The Advanced Energy Consortium:
Funding and Conducting Pre-Competitive Research in Micro- and Nano-
Technology for Improved Reservoir Understanding*

 

Scott W. Tinker1 and Paul Ching1

 

Search and Discovery Article #70062 (2009)

Posted February 9, 2009

 

*Adapted from oral presentation at 2008 AAPG International Conference and Exhibition, Cape Town, South Africa, October 26-29, 2008.

 

1 Bureau of Economic Geology, Jackson School of Geosciences, The University of Texas at Austin ([email protected]) ([email protected])

 

Overarching Questions

  • Why do we leave so much oil in the ground?
  • What is needed to improve extraction efficiency?

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

uOverarching questions

uFigures

uWhat & why AEC

uWhere & Why

uBeyond EOR

uHow

uIlluminate

uMobilize

uWho & when

uAEC

uMission

uMembership

uProgress

uConclusions

uQuestion

uContacts

 

Figure and Table Captions

Figure 1. Where are the new reserves? (From DrillingInfo.com.)

Figure 2. Current technologies (modified from Chevron website).

Figure 3. Reservoir-scale technologies.

Figure 4. Application of focused ion beam (FIB) in nanotechnology.

Figure 5. Nano scale. Semiconductor-based sensors. A micro- machined acceleration Previous HitsensorNext Hit with thousands of structural elements in less than 1 mm2.
Single pentacene chemical Previous HitsensorNext Hit with an active region only ~ 1000 nanometers across.

Figure 6. Medical applications.

Figure 7. Oil field applications.

Figure 8. Pore scale: Frio Sandstone with pores of 0.10mm = (100,000nm) (left); C60 buckyball (1nm) (right).

Figure 9. 2-D slice through reservoir (courtesy WesternGeco).

Table 1. U.S. technically recoverable resource potential (source: DOE, February, 2006).

 

What and Why the AEC?

What is the greatest target for new oil reserves (Figure 1)?

 

Where and Why

Why EOR?– Because oil will be needed for many (many!) decades, and there remains much oil to be produced (Table 1).

Can EOR be improved?– After all of our best efforts, we still leave 30- 70% behind.

Beyond EOR

Reservoir-scale tools are good at measuring matrix properties in the near-well bore environment.

Because we are unable to measure interwell matrix and fracture properties, we rely on approximations.

In most cases, we lack the ability to monitor the inter- well changes in fluid properties that occur as the reservoir is developed and produced.

With greater knowledge of the matrix, fracture, fluid properties and production-related changes, our ability to increase recovery rates should improve.

 

How?
(Figures 2 and 3)

Illuminate

    Nanotechnology (Figures 4 and 5)
Nanotechnology refers to a field of applied science and technology whose theme is the control of matter on the atomic and molecular scale, generally 100 nanometers or smaller, and the fabrication of devices or materials that lie within that size range.

    Applications (Figures 6, 7, and 8)

    Physical Parameters

  • Pressure (min/max, mean, dist)
  • Temperature (min/max, etc.)
  • Permeability (relative)
  • Porosity - Pore size - Pore throat - Pore geometry
  • Stress/strain conditions

    Chemical Parameters

  • Presence of:
  • Hydrocarbons (oil, natural gas)
    Water
    Oil/Water/Gas interface
    Impurities
    • Corrosives (CO2, H2S)
    • Trace Elements
  • Type of hydrocarbon
  • pH (min/max, mean, dist)
  • Viscosity
  • Fluid saturation
  • So, Sw, Sg
    Wettability

    Spatial distribution of fluids (Figure 9)

  • Oil, H20, natural gas
  • Location of bypassed oil, gas

Rock formation boundaries

  • Rock layer morphology
  • Reservoir compartments
  • Natural fracture distribution
  • Fault block geometries
  • Artificial fracture geometry

4-D reservoir pore system?

    Operating Conditions

  • Depths: 5,000 – 15,000 ft
  • Temperatures: 30 – 350°F
  • Pressures: 0 – 8K psi
  • pH: 4-8 (acidic)
  • Presence of: complicated fluids, water and clays
  • Salinity: seawater to very concentrated
  • Size (pore throats in rock formations): ≤5 μm
  • Additional functional needs:
  • Location capability, low power, transmission capability, reasonable cost

    Challenges

Emplacement

  • How to get them into the reservoir
  • How to protect them from this harsh environment
  • How to retrieve them (assuming “passive” sensors)

Telemetry

  • How to transmit a signal
  • 3-D location information from each Previous HitsensorTop?

Communication/Data Acquisition

  • How to retrieve the data
  • How to power

Data Processing

  • How will the data be effectively processed, analyzed, and used to retrieve more oil & gas

Economics

Mobilize Remaining Oil

  • Lower viscosity of petroleum
  • Increase miscibility of petroleum
  • Alter wettability in the reservoir
  • Alter fluid phase behavior
  • Shutoff water production
  • Maintain reservoir pressure
  • Improve recovery in oil-water transition zones
  • Separate water from oil in the reservoir or well bore (in situ)

Wild Mobilization Ideas

  • Smart propants
  • Nano particles as contrast agents
  • Nano receivers
  • Nano explosives
  • Magnetic nano particles for dispersion, retrieval and self-propulsion
  • Nano “Heated” particles
  • Nano surfactants
  • Smart seals
  • Nano fluidics
  • Nano NMR

 :

Who and When?

The Advanced Energy Consortium

  • AEC under development for three years
  • Developed by Bureau of Economic Geology in conjunction with executive level R&D management of the member companies
  • Anti-Trust approval for consortium from Dept of Justice in August, 2007
  • Organizational structure and technology focus defined during collaborative meetings with members, UT and Rice University
  • January 1, 2008, start up

Mission

The AEC will investigate how pre-competitive research in micro- and nanotechnology, with an initial emphasis on sensors and materials, can create a positive disruptive change in the upstream oil and industry.

 :

Membership

  • BP
  • BakerHughes
  • ConocoPhillips
  • Halliburton
  • Marathon
  • Occidental
  • Schlumberger
  • Shell
  • Total

 :

Progress and Next Steps

  • Pre-Competitive Workshop, May ‘08
  • RFP Summer, 2008
    • 62 proposals received
    • Over 30 institutions worldwide
  • RFP Review Fall, 2008
  • First Awards January, 2009
    • $4-6 million in funding for FY 09

 :

Conclusions

  • Nanotechnology can be applied to oilfield applications.
  • We can build on existing experience from Medical Imaging and Nanofluidics research.
  • We can envision self-propelled nanosensors.
  • This is a billion dollar opportunity!

 :

Overarching Question

Why do we leave so much oil in the ground?

We must contact and then impact the molecules. To that end, nanotechnology holds great promise.

 :

AEC Contacts
(www.beg.utexas.edu/aec)

ScottTinker, Director
([email protected])

Jay Kipper, Associate Director
([email protected])

Sean Murphy, Program Manager
([email protected])

Paul Ching, Executive Advisor
([email protected])

Howard Schmidt, Nano Scientist
([email protected])

 

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