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Paradox Intelllectual Properties
Chief Executive Officer and President
Chem-Mech Engineering Laboratories 1990 - 2000
Research and Developement Engineer and President
Education:
Nait (Northern Alberta Institute of Technology)
Skills:
Downstream Oil and Gas Research Public Speaking Teaching Project Management Microsoft Office Product Development Business Strategy Data Analysis Entrepreneurship Science Alibre Design Marketing Project Planning Process Engineering Manufacturing Engineering R&D Energy Project Engineering Chemical Engineering Gas Petroleum Oil and Gas
Certifications:
Mechanical Engineering Technician
Name / Title
Company / Classification
Phones & Addresses
Dwight E. Brooker President
Paradox Intellectual Properties, Inc Nonresidential Building Operator
The largest detonation flame arrester ever built at the time and most likely still is, weighing 10 tons, for 36 inch pipe. Pictured with Dwight Brooker ...
A combination of a flame arrestor with a reflection suppressor is provided which not only arrests an advancing flame front, but also suppresses or mitigates a reflection wave that is generated by a pressure wave that passes through the combination and continues on to a pipe restriction what generates a reflection wave that proceeds back to the combination. At the combination, the reflection suppressor suppresses and/or mitigates the reflection wave, thereby avoiding a heightened pressure in the combination that could cause a re-ignition and a new flame front and pressure front. The reflection suppressor has a tapered profile that permits a pressure wave to pass along and past the reflection suppressor as it leaves the combination but that impedes and mitigates a returning reflection wave produced by the pressure wave striking a pipe restriction and causing such a returning reflection wave.
A combination of a flame arrestor with a reflection suppressor is provided which not only arrests an advancing flame front, but also suppresses or mitigates a reflection wave that is generated by a pressure wave that passes through the combination and continues on to a pipe restriction what generates a reflection wave that proceeds back to the combination. At the combination, the reflection suppressor suppresses and/or mitigates the reflection wave, thereby avoiding a heightened pressure in the combination that could cause a re-ignition and a new flame front and pressure front. The reflection suppressor has a tapered profile that permits a pressure wave to pass along and past the reflection suppressor as it leaves the combination but that impedes and mitigates a returning reflection wave produced by the pressure wave striking a pipe restriction and causing such a returning reflection wave.
A combination of a flame arrestor with a reflection suppressor is provided which not only arrests an advancing flame front, but also suppresses or mitigates a reflection wave that is generated by a pressure wave that passes through the combination and continues on to a pipe restriction what generates a reflection wave that proceeds back to the combination. At the combination, the reflection suppressor suppresses and/or mitigates the reflection wave, thereby avoiding a heightened pressure in the combination that could cause a re-ignition and a new flame front and pressure front. The reflection suppressor has a tapered profile that permits a pressure wave to pass along and past the reflection suppressor as it leaves the combination but that impedes and mitigates a returning reflection wave produced by the pressure wave striking a pipe restriction and causing such a returning reflection wave.
Detonation Flame Arrestor Including A Spiral Wound Wedge Wire Screen For Gases Having A Low
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A detonation flame arrestor including an outer cylinder, an inner cylinder, and fill media. The outer cylinder and inner cylinder are secured to a canister flange on one end and include a domed face (cap) on the other end. On assembly, the inner cylinder secured to the canister flange is positioned inside the outer cylinder secured to the canister flange, altogether forming a canister. The fill media is inserted in the canister between the inner cylinder and the outer cylinder. Both the outer cylinder and the inner cylinder include a tapered spiral wound wire screen which forms their respective cylindrical circumferences. Contaminates are constrained between adjacent windings of the tapered wire screen. The canister is positioned in an outer housing in the flow path of a gas pipeline in such a manner that a flame front traveling through the pipeline enters the outer housing, impinges upon the domed face of the outer cylinder, makes an abrupt turn to enter the canister, passes through the fill media where the flame is extinguished, and the gas flow makes a second abrupt turn to exit the canister and continue in the flow path of the pipeline. The fill media includes irregular shaped spheres which provide a large surface area which acts as a heat sink to extinguish the flame.
Detonation Flame Arrestor Including A Transition Point/Attenuation Matrix And Torturous Path Media
A detonation flame arrestor including an outer cylinder, an inner cylinder, transition point/attenuation matrix and tortuous path media. The inner cylinder is secured to a canister flange and positioned inside the outer cylinder secured to the canister flange, altogether forming a canister. The torturous path media is positioned in the canister between the inner cylinder and the outer cylinder to to provide turbulence and a large surface area which acts as a heat sink to extinguish a flame. Both the outer cylinder and the inner cylinder include a transition point/attenuation matrix which forms their respective cylindrical circumferences. Helical or parallel wire or rings create the transition point/attenuation matrix which attenuates and creates turbulence as the first stage of quenching a flame front.
Flame Arrester/Burner Assembly With A Multifarious Element For Preventing Deflagrations And Extended Endurance Burning Time
A flame arrester/burner assembly with a multifarious arrester element for preventing deflagrations and extended endurance burning time (FABA-XT). The multifarious element flame arrester includes a pipe body having a first end and a second end, a first arrester element positioned within the pipe body adjacent the top end; a third arrester element adjacent the bottom end; and, a second arrester element positioned in the pipe body between the first arrester element and the second arrester element. The first, second, and/or third arrester elements may be of the same design or disparate designs. The FABA-XT of the present disclosure is an end-of-line burner element for use in VOC-Vapor Destruction Systems.