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Meredith B Gustafsson

from Valencia, PA
Age ~45

Meredith Gustafsson Phones & Addresses

  • Valencia, PA
  • Pittsburgh, PA
  • Roanoke, TX
  • Mars, PA
  • 3565 Prescott Dr, Beaumont, TX 77706 (409) 225-5872
  • Burke, VA
  • Vienna, VA
  • Fairfax, VA

Work

Company: Xto energy Feb 2017 Position: Operations engineer

Education

Degree: Master of Business Administration, Masters School / High School: Penn State Erie, the Behrend College 2017 to 2019

Skills

Engineering • Energy • Process Engineering • Project Management • Process Optimization • Water • Chemical Engineering • Petroleum • Wastewater Treatment • Strategic Planning • Oil and Gas • Program Management • Microsoft Office • Cross Functional Team Leadership • Environmental Compliance • Refinery • Continuous Improvement • R&D • Process Improvement • Data Analysis • Petroleum Refining • Well Control • Shale Gas • Emissions Control

Languages

Swedish • German

Industries

Oil & Energy

Resumes

Resumes

Meredith Gustafsson Photo 1

Operations Engineer

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Location:
1018 Sophia Ln, Mars, PA 16046
Industry:
Oil & Energy
Work:
Xto Energy
Operations Engineer

Xto Energy Aug 2014 - Jan 2017
Compliance Coordinator

Exxonmobil May 2014 - Jul 2014
Engineering Associate

Exxonmobil May 2010 - Feb 2013
Water and Wastewater Treating Group Head

Exxonmobil Dec 2008 - Apr 2010
Senior Environmental Engineer
Education:
Penn State Erie, the Behrend College 2017 - 2019
Master of Business Administration, Masters
Carnegie Mellon University 1998 - 2001
Bachelors, Bachelor of Science, Chemical Engineering
Rwth Aachen University 1999 - 2000
United States Military Academy at West Point 1997 - 1998
Skills:
Engineering
Energy
Process Engineering
Project Management
Process Optimization
Water
Chemical Engineering
Petroleum
Wastewater Treatment
Strategic Planning
Oil and Gas
Program Management
Microsoft Office
Cross Functional Team Leadership
Environmental Compliance
Refinery
Continuous Improvement
R&D
Process Improvement
Data Analysis
Petroleum Refining
Well Control
Shale Gas
Emissions Control
Languages:
Swedish
German

Publications

Us Patents

Watewater Mercury Removal Process

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US Patent:
20080283470, Nov 20, 2008
Filed:
May 16, 2007
Appl. No.:
11/798694
Inventors:
Meredith B. Gustafsson - Beaumont TX, US
Bal K. Kaul - Fairfax VA, US
Brian S. Fox - Mullica Hill NJ, US
David A. Masciola - Alexandria VA, US
Bowornsak Wanichkul - Bangkok, TH
Assignee:
ExxonMobil Research and Engineering Company - Annandale NJ
International Classification:
C02F 1/42
B01J 49/00
US Classification:
210674
Abstract:
A method for removing ionic, organic and elemental mercury from aqueous streams such as wastewater streams from hydrocarbon processing. The method comprises four primary removal steps. First, a mercury precipitant is added to the stream to convert dissolved ionic species of mercury water-insoluble form. The majority of these precipitated solids, as well as other forms of particulate mercury, are subsequently removed by means of gas flotation. Following the flotation step, additional particulate and precipitated ionic mercury removal is accomplished with media filtration and finally, activated carbon acts to remove the remaining dissolved ionic mercury species as well as elemental and organic forms of mercury.

Removal Of Metals From Wastewater

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US Patent:
20160159669, Jun 9, 2016
Filed:
Nov 30, 2015
Appl. No.:
14/953655
Inventors:
Elise Noelle BARBOT - Metaire LA, US
Meredith Beck GUSTAFSSON - Mars PA, US
Cynthia Marie HAVRAN - Burke VA, US
Assignee:
ExxonMobil Research and Engineering Company - Annandale NJ
International Classification:
C02F 1/52
C02F 3/00
C02F 1/72
Abstract:
A method for effecting a comprehensive removal of heavy metals from wastewater in a two stage process in which the wastewater is contacted in a first stage with a source of ferric ions under mildly acidic conditions (pH 5 to pH 8), preferably followed by the removal of the precipitated solids using a solid-liquid separation; a second stage follows in which the wastewater from the first step is contacted with a source of ferric ions under alkaline conditions (pH 8+) followed by the removal of the precipitated solids using a second solid-liquid separation. Used in conjunction with an initial oxidation step, the present method makes possible the removal of a whole suite of heavy metals present in both the anionic and cationic form in refinery wastewater. The treatment also removes metal compounds in the particulate phase. Metals concentrations can be significantly decreased from the mid to high ppb (parts per billion) range down to the low ppb range to meet the quality criteria for discharge.
Meredith B Gustafsson from Valencia, PA, age ~45 Get Report