Anchorage Native Primary Care 4320 Diplomacy Dr, Anchorage, AK 99508 (907)7293300 (phone), (907)7295772 (fax)
Education:
Medical School University of Chicago Pritzker School of Medicine Graduated: 2011
Languages:
English
Description:
Dr. Weston graduated from the University of Chicago Pritzker School of Medicine in 2011. She works in Anchorage, AK and specializes in Obstetrics & Gynecology. Dr. Weston is affiliated with Alaska Native Medical Center.
Robert P. Freese - Pittsboro NC, US Christopher M. Jones - Houston TX, US Michael T. Pelletier - Houston TX, US Rory D. Daussin - Spring TX, US Valerie J. Yeager - Marlow OK, US Melissa C. Weston - Duncan OK, US Lucas K. Fontenelle - Norman OK, US David M. Loveless - Duncan OK, US Johanna Haggstrom - Duncan OK, US Cory D. Hillis - Duncan OK, US
International Classification:
G05B 21/00 G01N 21/55 C02F 1/00 G01N 21/59
US Classification:
210739, 356436, 356445
Abstract:
In or near real-time monitoring of fluids can take place using an opticoanalytical device that is configured for monitoring the fluid. The opticoanalytical devices can be used for monitoring various processes in which fluids are used. The methods can comprise providing a fluid in a fluid stream and monitoring a characteristic of the fluid using a first opticoarialytical device that is in optical communication with the fluid in the fluid stream.
Method For Delayedly Crosslinking Environmentally Friendly Fluids
Melissa Weston - Duncan OK, US Jeremy Holtsclaw - Lawton OK, US David Loveless - Duncan OK, US
Assignee:
Halliburton Energy Services, Inc. - Houston TX
International Classification:
E21B 43/27
US Classification:
166300
Abstract:
The present invention relates to environmentally friendly delayed crosslinking complexes that are useful in subterranean treatment fluids. One embodiment of the present invention provides a method of providing a treatment fluid having a first viscosity and includes: an aqueous base fluid, a viscosifying agent, a delayed crosslinking complex having: a metal and a ligand, the ligand having at least one hydroxyl group and at least one carboxylic acid group; and placing the treatment fluid in a subterranean formation. In some embodiments, the delayed crosslinking complex is compliant and/or the viscosifying agent is compliant.
Melissa Weston - Duncan OK, US Kurt Hoeman - Duncan OK, US Robert P. Freese - Pittsboro NC, US Johanna Haggstrom - Duncan OK, US
Assignee:
Halliburton Energy Services, Inc. - Houston TX
International Classification:
E21B 43/00 E21B 47/00
US Classification:
166248, 16625001
Abstract:
Spectroscopic analyses of complex mixtures within a fluid phase can oftentimes be complicated by spectral overlap, making it difficult to analyze for each constituent therein. Methods for analyzing a treatment fluid can comprise: providing a treatment fluid comprising a fluid phase and one or more constituents therein; exposing the treatment fluid to electromagnetic radiation in a spectral region where the fluid phase optically interacts with the electromagnetic radiation, so as to acquire a spectrum of the fluid phase; analyzing the spectrum of the fluid phase to determine at least one property of the treatment fluid, the at least one property of the treatment fluid being selected from the group consisting of a concentration of at least one constituent in the treatment fluid, at least one characteristic of the treatment fluid, and any combination thereof; and introducing the treatment fluid into a subterranean formation.
Spectral Analysis Techniques Based Upon Spectral Monitoring Of A Matrix
Melissa Weston - Duncan OK, US Kurt Hoeman - Duncan OK, US Robert P. Freese - Pittsboro NC, US Johanna Haggstrom - Duncan OK, US
Assignee:
Halliburton Energy Services, Inc. - Houston TX
International Classification:
G01J 3/28
US Classification:
356 51, 356402
Abstract:
Spectroscopic analyses of complex mixtures within the matrix of a sample can oftentimes be complicated by spectral overlap of the constituents and/or the matrix, making it difficult to quantitatively assay each constituent therein. Methods for analyzing a sample can comprise: providing a sample comprising a matrix and one or more constituents therein; exposing the sample to electromagnetic radiation in a spectral region where the matrix optically interacts with the electromagnetic radiation, so as to acquire a spectrum of the matrix; and analyzing the spectrum of the matrix within a wavelength range where the matrix has a molar extinction coefficient of at least about 0.01 Mmmto determine at least one property of the sample, the at least one property of the sample being selected from the group consisting of a concentration of at least one constituent in the sample, at least one characteristic of the sample, and any combination thereof.
Methods For Monitoring A Water Source Using Opticoanalytical Devices
Robert P. Freese - Pittsboro NC, US David M. Loveless - Duncan OK, US Rory D. Daussin - Spring TX, US Christopher M. Jones - Houston TX, US Melissa C. Weston - Duncan OK, US Lucas K. Fontenelle - Norman OK, US Johanna Haggstrom - Duncan OK, US
Assignee:
Halliburton Energy Services, Inc. - Houston TX
International Classification:
E21B 47/10
US Classification:
7315218
Abstract:
In or near real-time monitoring of fluids can take place using an opticoanalytical device that is configured for monitoring the fluid. Fluids can be monitored prior to or during their introduction into a subterranean formation using the opticoanalytical devices. Produced fluids from a subterranean formation can be monitored in a like manner. The methods can comprise providing water from a water source; monitoring a characteristic of the water using a first opticoanalytical device that is in optical communication with a flow pathway for transporting the water; and introducing the water into a subterranean formation.
Removal Of Gels Formed From Liquid Friction-Reducing Fluids
- Houston TX, US Paul Joseph JONES - Houston TX, US Robert Douglas HILLARD - Houston TX, US Melissa Christine WESTON - Houston TX, US
International Classification:
B08B 9/027 E21B 41/00
Abstract:
Methods and systems for removing a gel from wellbore equipment. An example method includes introducing a cleaning fluid into the wellbore equipment comprising the gel disposed therein or thereon. The cleaning fluid includes a brine having a total dissolved solids concentration of between about 30K ppm to about 300K ppm. The method further includes contacting the gel with the cleaning fluid in the wellbore equipment, and removing the gel and the cleaning fluid from the wellbore equipment.
Exothermic Reactants For Use In Subterranean Formation Treatment Fluids
- Houston TX, US Chad A. FISHER - Cache OK, US Melissa Christine WESTON - Thornton CO, US
International Classification:
C09K 8/06 C09K 8/68 C09K 8/86 E21B 43/24
Abstract:
Methods including providing a fluid flow path allowing the passage of a treatment fluid comprising an aqueous base fluid therethrough. Introducing an exothermic reactant into the fluid flow path to react with the aqueous base fluid and heat the treatment fluid. Introducing a gelling polymer into the fluid flow path and hydrating the gelling polymer. Introducing the treatment fluid into a subterranean formation.
Magnetohydrodynamic Microfluidic Systems Including Modified Electrodes And Methods Of Using The Same
- Little Rock AR, US Christena Nash - Roswell GA, US Sai Kumar - Johns Creek GA, US Timothy Muldoon - Fayetteville AR, US Kartik Balachandran - Fayetteville AR, US Adair Claycomb - Arlington TX, US Matthew D. Gerner - Fayetteville AR, US Joshua Hutcheson - Fayetteville AR, US Foysal Z. Khan - Fayetteville AR, US Amy Powless - Rogers AR, US Sandra Prieto - Siloam Springs AR, US Preston G. Scrape - Jonesboro AR, US Melissa C. Weston - Duncan OK, US David Parette - Fayetteville AR, US
Assignee:
BOARD OF TRUSTEES OF THE UNIVERSITY OF ARKANSAS - Little Rock AR
International Classification:
G01N 27/447 B01L 3/00
Abstract:
A magnetohydrodynamic microfluidic system and a method of pumping a fluid using a magnetohydrodynamic system are disclosed. The method includes applying at least one of an electric current and an electric voltage to a first modified electrode and a second electrode to generate an ionic current between the first modified electrode and the second electrode and to cause a current carrying species to move to or from the modified electrode, applying a magnetic field perpendicular to an ionic current vector, the magnetic field and the ionic current combining to induce flow of the fluid in a direction perpendicular to the magnetic field and the ionic current vector, and maintaining fluid flow by recharging the modified electrode.
Halliburton Sep 2018 - Mar 2020
Technical Services Manager
Education:
University of Arkansas 2006 - 2010
Doctorates, Doctor of Philosophy, Philosophy, Chemistry
Colorado State University 2002 - 2006
Bachelors, Bachelor of Science, Chemistry
Skills:
Oil and Gas Petroleum Oilfield Chemistry Characterization Gas Analytical Chemistry Fluids Upstream Energy Hplc Spectroscopy Petroleum Engineering Drilling Onshore Chemical Engineering Geology
Feb 2015 to 2000 CookRiver Ranch Resort Noel, MO Apr 2007 to Sep 2007 CashierFASCO Industries Cassville, MO Apr 2006 to Dec 2006 ManufacturingConcordia Health Care Bella Vista, AR Jun 2005 to Apr 2006 CNA
Education:
Northwest Arkansas Community College Bentonville, AR 2010 to 2014 Associates of Applied Science in Environmental ManagementNorthwest Arkansas Community College Bentonville, AR 2010 to 2014 Associates of Science in General StudiesNorthwest Arkansas Community College Bentonville, AR 2010 to 2014 Technical Certificate in Environmental Regulatory ScienceNorthwest Arkansas Community College Bentonville, AR 2010 to 2014 Certificate of Proficiency in Safety and Health
Southridge Elementary School Highland IN 1977-1984, Highland Middle School Highland IN 1984-1985, Calumet Baptist High School Griffith IN 1985-1987, Christian Liberty Academy Arlington Heights IL 1987-1989
Community:
Connie Pender, Paul Mcgraw, George Brown, Jack Mccoy