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7. Gobinder Saha, Sr. R&D Scientist, Hyperion Technologies Inc.

7. Gobinder Saha, Sr. R&D Scientist, Hyperion Technologies Inc.

7. Gobinder Saha, Sr. R&D Scientist, Hyperion Technologies Inc.

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Nanostructured<br />

composite coatings for oil<br />

sands applications<br />

Dr. Gobinda <strong>Saha</strong>, P.Eng.<br />

Senior R&D <strong>Scientist</strong><br />

<strong>Hyperion</strong> Technology <strong>Inc</strong>.,<br />

Calgary, AB


Developing High Performance Protective Coatings<br />

“With key support from Alberta<br />

Ingenuity, NSERC and collaboration with<br />

the University of Calgary, <strong>Hyperion</strong><br />

<strong>Technologies</strong> <strong>Inc</strong>. is developing new, and<br />

significantly enhancing other, high<br />

performance Protective Coatings, through<br />

the use of Nanostructured Materials and<br />

Plasma‐Deposition Techniques to yield<br />

dramatic improvements in corrosion,<br />

abrasion, erosion, sliding wear and impact<br />

resistance


Nanostructured Cer-Met Coating<br />

Technology Highlights<br />

Plasma-Enhanced DLC Coating


Oil and Gas Sectors<br />

Nano‐HVOF and Nano‐Electrodeposited Abrasion and Impact‐resistant<br />

Coatings ‐ focused on Conventional O&G (Frac/Cement Pumps, Rod<br />

and PCP Pumps, Mud Motor and Drilling Tools, etc.), as well as the<br />

Oil Sands (Wear Plates, Bucket Teeth, Crusher Teeth, etc.)<br />

Plasma‐Enhanced Chemical Vapor Deposition of Diamond‐Like Carbon<br />

(DLC) Corrosion‐Stopping, Wear‐resistant Coatings, as well as<br />

Titanium Carbide, Titanium Nitride and other very high performance<br />

Coatings ‐ already shown very significant improvement over<br />

alternative wear prevention methods for Pump, Valve, Mud Motor,<br />

etc.<br />

Immediately Addressable Market exceeds $25M/year.


Hauler wear plates<br />

Coil Tubing


Potential of sprayed nanostructured<br />

composite coatings<br />

<strong>Inc</strong>rease in surface hardness;<br />

Wear resistance can be doubled;<br />

Thinner coatings can be applied;<br />

Does not add weight to the component;<br />

Can treat a variety of surface shapes;<br />

and contours.


HVOF coating process<br />

Sulzer Metco J2700 spray gun.<br />

Spraying parameters:<br />

•Oxygen/Hydrogen<br />

•Methane/propylene-fuel<br />

•Nitrogen carrier gas


Powder morphology and<br />

structure<br />

(a)<br />

(b)<br />

SEM micrograph showing spray dried: (a) Nanostructured<br />

powder for spraying; (b) Duplex Co<br />

coated powder.


Powder morphology and<br />

microstructure<br />

(a)<br />

SEM micrograph showing: (a) Micro-crystalline WC-17%Co<br />

powder for spraying; (b) Cross-sections of micro-crystalline<br />

powder [6]<br />

(b)<br />

J. M. Guilemany, S. Dosta and J. R. Miguel: Surface and Coatings Technology, (2006), Vol. 201, pp.1180-1190.


HVOF sprayed nanostructured WC-Co<br />

coating


Comparison in surface hardness<br />

1600<br />

1400<br />

1200<br />

Vickers hardness, VHN<br />

1000<br />

800<br />

600<br />

400<br />

200<br />

Nano, WC-17%Co<br />

Micro, WC-Co<br />

C-Mn hardened steel<br />

Carbon steel AISI 1018<br />

0<br />

0 100 200 300 400 500 600<br />

Distance from coating surface, μm


Comparison in wear resistance<br />

90<br />

Wear rate, mm 3 /MPa<br />

80<br />

70<br />

60<br />

50<br />

40<br />

30<br />

20<br />

Nano<br />

Micro<br />

Hardened steel<br />

Carbon steel<br />

10<br />

0<br />

0 100 200 300 400 500 600 700 800 900 1000<br />

Sliding distance, m<br />

Volume loss as a function of sliding distance showing a<br />

comparison between Nanostructured and Conventional WC-<br />

17Co coatings


Comparison of wear tracks<br />

Untreated<br />

Microcrystalline<br />

(WC-17Co)<br />

Nanostructured (WC-17Co)


Electrodeposited<br />

Nanostructured Coating<br />

• Surface roughness<br />

of the coatings:<br />

0.34 – 0.37 µm<br />

• Homogeneous distribution<br />

of Al 2 O 3 particles<br />

• Uniform coat thickness


Electrodeposited<br />

Nanostructured Coating<br />

<br />

Width of the wear track of the coatings decreased with<br />

increasing the amount of the Al 2 O 3 particles in the<br />

plating bath<br />

Optical micrographs of wear tracks:<br />

(A) substrate,<br />

(B) coating with 50 g/l particle, and<br />

(C) coating with 10 g/l particle


Connecting Globally<br />

Partnerships and Joint Ventures<br />

Q Oilfield Protective Coatings is a JV focused on application of Protective Coatings<br />

for Bottom‐Hole Pumps with Quinn Pumps, Red Deer<br />

<strong>Hyperion</strong> and California Nanotechnologies have formed a JV focused on Abrasion,<br />

Impact and Corrosion‐resistant HVOF and PTA Coatings<br />

<strong>Hyperion</strong> & RH Al‐Marri & Sons have formed a JV in Saudi Arabia to exploit our<br />

Tank and Pipe Linings, Diamond‐Like Carbon (DLC) and high‐performance HVOF<br />

Tungsten/Chromium Carbide Coatings for Saudi Arabia and other customers in<br />

the Middle East<br />

<strong>Hyperion</strong> and TechWest (Calgary) are partnering to apply Corrosion and Slurryresistant<br />

Coatings to Pipelines in Cuba as well as other opportunities in Europe<br />

<strong>Hyperion</strong>, Yelo Pump, TARCO International collaborating on large opportunities<br />

for new Pump Technology and Protective Coatings in Mexico and Colombia

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