RadiLock Acrylic Fiber Presentation November 2014 Company Profile - - PowerPoint PPT Presentation

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RadiLock Acrylic Fiber Presentation November 2014 Company Profile - - PowerPoint PPT Presentation

RadiLock Acrylic Fiber Presentation November 2014 Company Profile Founded in CELEBRATING 1989 25 YEARS !!! Founded by Edward and Gayla Boss in 1989, Bossco Industries, headquartered in Houston, TX, has grown into a leading


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November 2014

RadiLock Acrylic Fiber Presentation

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Company Profile

 CELEBRATING

25 YEARS !!!

Founded by Edward and Gayla Boss in 1989, Bossco Industries, headquartered in Houston, TX, has grown into a leading regional specialty chemical distributor for the Southeastern and Southwestern United States.

Founded in

1989

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Industry Certifications

 Certifications

As a member of the National Association of Chemical Distributors (NACD), we are committed to product stewardship and responsible distribution in every phase of chemical storage, handling and transportation. Bossco Industries is accredited to the ISO 9001:2008 standard. The ISO 9001:2008 standard is a set of quality practices that ensures the use of effective processes that are consistently monitored and continually improved.

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RadiLock Fibers

  • Next generation fiber technology based on

Polyacrylonitrile (PAN) acrylic obtained from the reaction of acrylonitrile monomers.

  • Precursor to Carbon fiber.
  • Proven to significantly increase the mechanical

properties through physiochemical bonding within the cement and to effectively seal formation fractures improving fluid loss and loss of circulation.

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PAN Technology

  • Polyacrylonitrile (PAN)
  • Synthetic resin prepared by the polymerization of acrylonitrile.
  • Hard, rigid thermoplastic material that is resistant to most solvents

and chemicals, slow to burn, and of low permeability to gases.

  • Acrylonitrile (CH2=CHCN) is obtained by reacting propylene

with ammonia and oxygen in the presence of catalysts.

  • Strong chemical bonds between the nitrile (CN) groups, the

polymer molecules resist most organic solvents and do not melt without decomposing.

  • Precursors for the production of carbon and graphite fibers,

as replacements for asbestos in cement, and in industrial filters and battery separators.

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Fiber Characteristics

  • Material - PAN Acrylic Fiber
  • Fiber Length - 1.8mm, 3mm and 6 mm
  • Milled (0.5-1.5mm) also available in higher denier.
  • Acid & Alkali Resistance – Excellent
  • Specific Gravity - 1.17 g/m3
  • Decomposition Temperature – 330oC/626oF
  • Diameter <11 microns (1.0 denier)
  • Very Large Surface Area to Volume Ratio
  • Tenacity >600 MPa
  • Fiber Color - Natural
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RadiLock Fiber Count

Product Cut Length mm Den Dtex Fiber Count Kg. Fiber Count lb. Specific Gravity Diameter µ

RadiLock 1.8mm 1.8 1.00 1.11 4,500,000,000 2,041,186,610 1.17 11.00 RadiLock 3mm 3.0 1.00 1.11 3,000,000,000 1,360,791,073 1.17 11.00

RadiLock 6mm 6.0 1.00 1.11 1,500,000,000 680,395,537 1.17 11.00 RadiLift 6mm 6.0 1.50 1.67 1,000,000,000 453,597,024 1.17 13.47

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Benefits of RadiLock Fibers

  • Mechanical stabilization to control all forms of

shrinkage.

  • Improvements to bond logs
  • Elimination of the micro-crack formation which

cause permanent weakening

  • Decrease in the cements permeability
  • Improvements in the life of the well for greater

zonal isolation, protection from corrosion, contaminates and drilling shock.

  • Long

term improvements to horizontal applications, stresses, etc.

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Benefits of RadiLock Fibers

  • Improved return to surface
  • Potential for less excess cement/additives
  • Cement stabilization upon placement /

suspension of slurry

  • Prevent pressure loss on the back side
  • These features work synergistically to stabilize

the cementing process to produce a more durable, better bonding cement sheath, maximizing casing support and helping to eliminate secondary cementing.

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Mechanical Application and Benefits

Mechanical Properties

Dosing Level: 0.25-.75 pounds per sack of cement Most testing run at 0.5#/sk. Benefits:

  • Physicochemical Bond creates a fiber matrix within cement
  • Tensile strength improved by >50%
  • Decrease in compressive strengths
  • TS:CS ratio increased by >70%
  • Young’s Modulus improved by 10-20%
  • Flexural modulus improvements
  • Improvement in Poisson’s Ratio
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Mechanical Data

Slurry Design CS (crush) CS TS Flexural Modulus Anelastic Strain TS:CS Poisson's Ratio Young's Modulus

NEAT - 16.4 ppg Class H Lehigh + 0.05 gps Defoamer 7011-L

6256 5787 338 1777 7.69E-06 0.07 0.206 2100000

FIBERS - Base slurry + 0.5 lb/sk Radilock 1.8 mm fibers

7264 5070 612 1806 8.11E-06 0.12 0.225 1980000

FIBERS - Base slurry + 0.5 lb/sk Radilock 3 mm fibers

5345 4920 607 1854 5.16E-06 0.12 0.212 2070000

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Mechanical Properties, psi

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Mechanical Properties, psi

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Poisson’s Ratio & TS/CS

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Young’s Modulus

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Anelastic Strain

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Fiber Blending

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LCM Application and Benefits

Lost Circulation Additive Properties

Recommended Dosing Level: 0.25 pounds per sack of cement Benefits:

  • Proven to be very viable for returning circulation in porous formations, by

bridging gaps as well as aiding in support/suspension of the slurry design

  • Has shown good improvements to bond logs
  • Aids in preventing shrinkage of the cement.
  • Fluid Loss Control Properties
  • Improved filter cake stability and consistent slurry fluidity.
  • Improved return to surface
  • Potential for less excess cement/additives
  • Filter cake stability
  • Prevent pressure loss on the back side
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Lost Circulation Properties

  • Field tested to be effective for returning

circulation in porous formations.

  • Effectively bridges gaps and aids in support &

suspension of the slurry design

  • Material is easily dry-blended or hand dosed
  • Significantly outperforming Cellulose, PVA,

Nylon, and/or Polyoleofin Based LCM Fibers.

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Pressurized LCM Testing

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Pressurized LCM Evaluation

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Fluid Loss Improvements

Slurry Fluid Loss Results @ 500psi Blow Out 15.8 ppg Low Fluid Loss Slurry 24 mls/30mins

  • RadiLock 1.8mm (0.5#/sk) in Low Fluid Loss Slurry

16 mls/30mins

  • RadiLock 3.0mm (0.5#/sk) in Low Fluid Loss Slurry

16 mls/30mins

  • 15.8 ppg Neat Slurry

API Cal – 712 mls/30mins 1 min RadiLock 1.8mm (0.5#/sk) in Neat Slurry API Cal – 387 mls/30mins 2 mins RadiLock 3.0mm (0.5#/sk) in Neat Slurry API Cal – 388 mls/30mins 2 mins

Using a 325 mesh screen in the fluid loss cell, we tested a low fluid loss cement slurry without the fibers, which showed a fluid loss of 24 mls/30 mins. Using the RadiLock fibers in the cement slurry, there was a significant decrease in the fluid loss to 16 mls/30 mins. RadiLock fibers help to form a mesh that prevents fluid loss. We also tested a neat cement slurry without fibers using a 325 mesh screen resulted in a Fluid Loss result of 712 mls/30mins. Using the RadiLock fibers, we were able to decrease the filtrate to 387 mls/30 mins, almost by 50%. There is definitely a clear indication of bridging being caused by the fibers.

Fluid Loss Testing Results

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Screen Test – 20 Mesh

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Filter Cake Stability

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Fiber Volume Difference

35 Grams of Polypropylene Fiber in 2000 mL of Fluid Approximately 3 Million Fibers (12 mm fiber) 35 Grams of RadiTeck Lift Fibers in 2000 mL of Fluid Approximately 61Million Fibers (6 mm fibers)

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Distributed Exclusively by

14550 Torrey Chase, Suite 460 Houston, TX 77014 Phone: (281) 893-6006 Fax: (281) 893-1552 www.bosscoindustries.com