Arash Aghaei
Account Manager at Thermo Fisher Scientific
Image-Based Characterization Enabler
Thermo Fisher Scientific
https://www.linkedin.com/company/thermo-fisher-scientific
Houston, Texas, United States
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Account Manager
Thermo Fisher Scientific
https://www.linkedin.com/company/thermo-fisher-scientific
•	Build a vision and go-to-market strategy for Oil and Gas applications
•	Deliver on-time and high-quality releases by working with R&D, QA and Marketing teams in a matrix organization
•	Perform revenue forecasting, financial P&L analysis, and strategic planning
•	Manage product roadmap and releases
•	Identify competitive landscape
•	Partner with thought leaders and early adopters
•	Apply Scrum methodology for software development
•	Increase MQL’s by building a marketing plan to increase awareness around the product
•	Increase revenue by working with worldwide sales team
Houston, Texas Area
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Product Manager
Thermo Fisher Scientific
https://www.linkedin.com/company/thermo-fisher-scientific
Houston, Texas Area
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Product Marketing Engineer
FEI Company
https://www.linkedin.com/company/feicompany
•	Chief technical contact for the largest software deals in the company history
•	Supported sales of software to Oil and Gas industry in Americas and beyond
•	Provided new product introduction (NPI) and beta-phase support
•	Engaged with clients at all levels: technical (engineers and geologists), IT, and executive (including C-level)
•	Identified customer requirements and communicated to R&D
•	Represented the company at conferences and trade shows
•	Applied Miller Heiman strategic selling
•	Received outstanding achiever award
•	Traveled to over 15 different states and countries to visit clients (Texas, Oklahoma, California, Oregon, West Virginia, Kansas, Pennsylvania, New Jersey, Canada, Mexico, France, Germany, Norway, Czech Republic, China)
Houston, Texas
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Product Marketing Engineer
University of Illinois at Urbana-Champaign
https://www.linkedin.com/company/university-of-illinois-urbana-champaign
•	Team lead for pore-scale evaluation of two-phase flow in Mt. Simon Sandstone formation at the CO2 injection site in Decatur, IL.
•	Part of Energy Frontier Research Center at Illinois State Geological Survey.
Urbana, Illinois
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Postdoctoral Research Associate
University of Wyoming
https://www.linkedin.com/company/university-of-wyoming
Supervised analysis of two-phase core-flooding experiments performed in fractured rock samples.
Laramie, WY
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Postdoctoral Research Associate
University of Wyoming
https://www.linkedin.com/company/university-of-wyoming
Developed a two-phase dynamic pore-network model that runs on computer clusters and predicts relative permeabilities, residual saturations, and capillary pressure curves for various flow regimes in core-sized rock samples.

Designed two-phase core-flooding experiments and helped conduct them in a state-of-the-art core-flooding apparatus integrated with a micro-CT imaging system. Results then used for validation of the dynamic pore-network model.

Co-supervised a PhD student and collaboratively developed a pore-network model for fractured rock samples.

Designed and performed two-phase core-flooding experiments in fractured rock samples in collaboration with two other researchers.

Collaborated with the Math Department to validate a continuum-scale model using core-flooding experimental results.
Laramie, WY
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Research Assistant
University of Wyoming
https://www.linkedin.com/company/university-of-wyoming
Assisted the professor in teaching Reservoir Mechanics course.
Laramie, WY
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Teaching Assistant
Doctor of Philosophy (Ph.D.)
Dissertation titled "Direct pore-to-core up-scaling of displacement processes: Experimentation and dynamic pore network modeling"
Petroleum Engineering
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University of Wyoming
https://www.linkedin.com/school/university-of-wyoming/
Bachelor's Degree
Project titled "Modeling the phase behavior and properties of a reservoir fluid"
Petroleum Engineering
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Sharif University of Technology
https://www.linkedin.com/school/sharif-university-of-technology/
AAPG
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InterPore
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SPE
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Society of Core Analysts
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We present the results of a systematic pore‐scale experimental investigation of two‐phase oil/brine flow through a miniature water‐wet, fractured sandstone core sample. X‐ray microtomography is employed to generate three‐dimensional fluid occupancy maps within a rough‐walled fracture and its neighboring rock matrix during drainage and imbibition flow experiments. Several different imbibition flow conditions were created by changing brine flow rate, fracture aperture field, and interfacial tension between the fluids. These maps along with steady‐state pressure drop data are then used to shed light on the dominant flow mechanisms and preferential flow paths through the matrix and fracture domains as well as fluid transfer between them during the imbibition processes. Depending on the fracture aperture properties and the magnitude of the local capillary pressures that are established under varying flow conditions, transport of the wetting phase across the hybrid matrix‐fracture medium is governed by flow through wetting layers of brine on fracture walls (fracture layer flow), center of the fracture (fracture bulk flow), and brine‐filled pores within the matrix. The hydraulic conductivity through these conduits is regulated by the medium as it identifies a combined flow path with minimum pressure drop from the inlet to the outlet of the system. The resulting balance determines the magnitude of fluid transfer experienced by the neighboring matrix and ultimate oil recovery as a result.
Pore‐Scale Experimental Investigation of Two‐Phase Flow Through Fractured Porous Media
Water Resources Research
https://doi.org/10.1029/2018WR022540
In this study, we utilize a fully dynamic pore-scale network model to upscale two-phase
flow from pore to core in fractured porous media. The key features of the model used
include incorporation of viscous, capillary, and gravity pressure drops, accounting for
wetting-phase corner flow in elements with angular cross sections, the ability to adjust
the corner interfaces between wetting and non-wetting phases based on changes in local
capillary pressures, and heavy parallelization. We utilize a miniature fractured Berea
sandstone core with the fracture extending from the inlet to the middle of the core. The
core is scanned using X-ray microtomography (micro-CT) imaging techniques at porescale
resolutions. Two networks are generated from the processed micro-CT images; one
for the matrix and another for the fracture. The two networks are then merged statistically
based on actual matrix-fracture connections in the sample core, acquired after segmenting
the matrix pores and fracture opening in the CT images. Oil-displacing-brine (drainage)
and brine-displacing-oil (imbibition) processes are simulated through the fractured core.
Primary results of the model, including fluid saturation and configuration at different
locations within the fracture and the matrix, are then discussed. The model results are
then used to draw a better understanding of multi-phase flow through matrix pores and
fracture aperture.
Micro-Scale Modeling of Matrix-Fracture Interactions in Fractured Porous Media
Society of Core Analysts
https://www.researchgate.net/profile/Maziar_Arshadi/publication/316809014_Micro-Scale_Modeling_of_Matrix-Fracture_Interactions_in_Fractured_Porous_Media/links/5912443ea6fdcc963e7cddf4/Micro-Scale-Modeling-of-Matrix-Fracture-Interactions-in-Fractured-Porou
We present a new dynamic pore network model that is capable of up-scaling two-phase flow processes from pore to core. This dynamic model provides a platform to study various flow processes in porous media at the core scale using the pore-scale physics. The most critical features of this platform include (1) the incorporation of viscous, capillary, and gravity pressure drops in pore-scale displacement thresholds, (2) wetting-phase corner flow in capillary elements with angular cross-sections, (3) adjustments of corner interfaces between wetting and non-wetting phases based on changes in local capillary pressure, (4) simultaneous injection of wetting and non-wetting phases from the inlet of the medium at constant flow rates that makes the study of steady-state processes possible, (5) heavy parallelization using a three-dimensional domain decomposition scheme that enables the study of two-phase flow at the core scale, and (6) constant pressure boundary condition at the outlet. For the validation of the dynamic model, three two-phase miniature core-flooding experiments were performed in a state-of-the-art micro core-flooding system integrated with a high-resolution X-ray micro-CT scanner. The dynamic model was rigorously validated by comparing the predicted local saturation profiles, fractional flow curves, relative permeabilities, and residual oil saturations against their experimental counterparts. The validated dynamic model was then used to study low-IFT and high-viscosity two-phase flow processes and investigate the effect of high capillary number on relative permeabilities and residual oil saturation.
Direct pore-to-core up-scaling of displacement processes: Experimentation and dynamic pore network modeling
Journal of Hydrology
http://dx.doi.org/10.1016/j.jhydrol.2015.01.004
We present a new dynamic pore network model that is capable of up-scaling two-phase flow processes from pore to core. This dynamic model provides a platform to study various flow processes in porous media at the core scale using the pore-scale physics. The most critical features of this platform can be listed as (1) the inclusion of viscous, capillary, and gravity pressure drops in pore-scale displacement thresholds, (2) wetting-phase corner flow in capillary elements with angular cross-sections, (3) adjustments of corner interfaces between wetting and non-wetting phases based on changes in local capillary pressure, (4) simultaneous injection of wetting and non-wetting phases from the inlet of the medium at constant flow rates that makes the study of steady-state processes possible, (5) heavy parallelization using a three-dimensional domain decomposition scheme that has enabled us to study two-phase flow at the core scale, and (6) constant pressure boundary condition at the outlet. For the validation of the dynamic model, three two-phase miniature core-flooding experiments were performed in Berea and Bentheimer sandstone core samples. The experiments were performed in a state-of-the-art core-flooding system integrated with a high-resolution X-ray micro-CT scanner. In-situ contact angles that are measured from high-resolution micro-CT images of the pore space during the experiments are used to design contact angle distributions in the digital pore space. Simulations are performed in the pore networks constructed from high-resolution micro-CT images of the core samples used in the experiments. In order to replicate the fluid systems of the experiments, fluid properties are measured in laboratory at the experimental conditions and fed to the dynamic model as inputs. The validated dynamic model is then used to study low-IFT and high viscosity processes and investigate the effect of high capillary number on relative permeabilities and residual oil saturation.
Direct Pore-to-core Up-scaling of Displacement Processes: Experimentation and Dynamic Pore Network Modeling
University of Wyoming
http://www.worldcat.org/title/direct-pore-to-core-up-scaling-of-displacement-processes-experimentation-and-dynamic-pore-network-modeling/oclc/903534378
Sandler Training
Foundations
Miller Heiman Group
Strategic and conceptual selling
Scrum Alliance
806125
Certified Scrum Product Owner® (CSPO®)
https://uk.linkedin.com/in/michael-cotgrove-721b4517
Chafford Hundred
Michael Cotgrove
Bill of Material Supervisor | Part-Time MSc Student
https://www.linkedin.com/in/shruthi-augustine-09125b9b
Canton, MI
Shruthi Augustine
Portfolio Integration Manager - Solution Train Engineering
https://mx.linkedin.com/in/josefa-gordillo-estrada-202691119
Cuautitlán Izcalli, MEX
Josefa Gordillo Estrada
VE&C Core Engineer en Ford Motor Company
https://www.linkedin.com/in/valentina-strelchik-033850162
Portland, Oregon Metropolitan Area
Valentina Strelchik
Field Service Engineer at Daifuku America
https://www.linkedin.com/in/prerana-patel-53029659
Troy, MI
Prerana Patel
Enterprise Connectivity - Senior Product Manager at Ford Motor Company
https://www.linkedin.com/in/jagannathan-chengavalli-15480ba2
Dearborn, MI
Jagannathan Chengavalli
Software Developer @ Ford Motor Company. In permanent beta.
https://www.linkedin.com/in/ahmed-salah-morsy-phd-99415539
Sugar Land, TX
Ahmed Salah Morsy, PhD
Power Electronics, Motor Control & Design.
https://br.linkedin.com/in/kaio-ar%C3%A3o-5256ba1ab
Simões Filho, BA
Kaio Arão
Product Development Intern at Ford Motor Company | Fuel Systems - Powertrain Installations
https://www.linkedin.com/in/jorgejemison
Greater Chicago Area
Jorge D. Jemison
Operations Leader at Amazon
https://www.linkedin.com/in/swati-goyal-8658006
Greater Houston
Swati Goyal
Supply Chain Manager, Amazon Fresh Grocery Stores
https://www.linkedin.com/in/susan-udofia-92b4786b
Atlanta Metropolitan Area
Susan Udofia
Health System Specialist at Thermo Fisher Scientific
https://www.linkedin.com/in/claudia-apik-3a8040125
Los Angeles Metropolitan Area
Claudia Apik
HLA Technical Sales Consultant at One Lambda Inc | Thermo Fisher Scientific
https://ca.linkedin.com/in/hbehmanesh
Calgary, AB
Hamid Behmanesh
Reservoir Engineer
https://www.linkedin.com/in/dangostovic
Houston, TX
Dan Gostovic, Ph.D.
Enabling the Observability Transformation
https://www.linkedin.com/in/barbara-mack-26829082
Springtown, TX
Barbara Mack
Account Manager at Byrd Oilfield Services
https://www.linkedin.com/in/jimbo-herrin-9177b956
New Orleans, LA
Jimbo Herrin
GHX Industrial, LLC - Your Complete Hose, Gasket, and Fastener Source.
https://www.linkedin.com/in/kyleandersonkyle
Houston, TX
Kyle Anderson
Business Development Manager at Legacy Directional Drilling, LLC.
https://www.linkedin.com/in/christophersanderson
Houston, TX
Christopher Sanderson, SMIEEE, SMASQ, CSSBB, CLSSBB
Lead Service Sales Engineer at Eaton
Lauren Cassel, M.E.
      
          



            
              
        
              
  

    
        I have worked with Arash since 2014, Arash was one of the chief technical contacts that introduced Pergeos to Devon Energy. His knowledge of Digital Rock Properties and his abilities with the Pergeos software are superb, and his demeanor is excellent. Arash was a pleasure to work with, and he was instrumental in convincing Devon to be an early adopter of the software. Suri Bhat
      
          



            
              
        
              
  

    
        Arash worked under my supervision as the product marketing engineer for digital rock software in the Americas.  Arash was instrumental in helping the team win one of the largest software deals during my time and helped exceed our sales target.  It is great to see Arash's career blossom at Thermo Fisher where he has blended his technical skills with solid business acumen.

In addition to being a hard worker, Arash is brilliant and truly an asset to any team.  I wish him the best in his future endeavors as his bright career unfolds.
Liked by Arash Aghaei
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I am happy to share that I have completed the PowerMBA. It started as a recommendation to improve my business knowledge without having to sacrifice…
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Every dog lover will understand this. 👇🏽
Liked by Arash Aghaei
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Remembering femtochemistry founder, Ahmed Zewail, who was born on this day in 1946. In the late 1980s Nobel Prize laureate Zewail developed methods…
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Iran
Arash Aghaei
head of board at JTF
https://ir.linkedin.com/in/arash-aghaei-63325696
Tehran, Iran
arash aghaei
--
https://ir.linkedin.com/in/arash-aghaei-64983a3b
Iran
Arash Aghaei
Hydro informatics researcher (ICTs)
https://ir.linkedin.com/in/arash-aghaei-8b329887
Iran
arash aghaei
Student at Iran University of Medical Sciences
Sandler Sales Training (Official)
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Turkish American Business Connection Association
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Fuel Cell Technology
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Energy Professionals - Oil, Gas, Wind, Solar, LNG, Nuclear, Tidal, Renewables
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3D Additive Manufacturing - (aka  3D Printing & 3D Rapid Prototyping)
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Reservoir Rock Typing
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Medical Additive Manufacturing & 3D Printing
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Materials Research Society
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Oil & Gas Entrepreneurship Cell
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From Ideas to Objects with 3DPrinting
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Energy People
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Brazilian Digital Rock Physics
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The Oil & Gas Exploration Network
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Carbonate Petrophysics Group
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