Thomas M. Czechowski
Columbus, Ohio 614-***-**** **********.*@***.***
Holds degree in Chemical Engineering (BS) from The Ohio State University, with work experience in
three different manufacturing companies utilizing Lean Manufacturing principles. Areas of proficiency
include process development, process design, unit operations, and process dynamics and control, with
an emphasis on process safety, sustainable engineering, and air pollution. Also skilled in the
application of thermodynamics, heat transfer properties, and engineering process calculations.
Computer proficient in typical software applications, including Microsoft Office, MathCAD, MATLAB
7.0.1, ChemCAD, and AutoCAD Inventor. Exhibits strong team orientation, demonstrated leadership
skills, and utilizes efficient presentation and report writing skills.
PROFESSIONAL EXPERIENCE
CABOT SUPERIOR MICROPOWDERS, Albuquerque, NM May 2011-October 2012
Research and Process Development Chemical Technician, Energy Materials Group (Solar
and Printed Electronics)
Formulated silver inks and pastes utilized in conductive applications through contact
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and non-contact printing
Developed novel, non-contact silver inks to be applied to solar wafers as top-grid electrodes
through inkjet printing
Enhanced the formulation of silver seed-layer pastes that were screen-printed onto solar
wafers, achieving line width improvements of 20% (reduced wafer shadowing and improved
efficiency) while maintaining line uniformity
Formulated a high-solids conductive ink that was developed as a circuit board
interconnection for cellular phones
Responsible for the characterization of silver nano-particles and finished silver inks and
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pastes
Attained the composition and particle size distribution for powders made by in-house Flame
Spray Pyrolysis unit
Ensured that formulated inks meet characterization specifications, including rheology,
density, and resistivity
Operated screen-printer to quantitatively evaluate solar pastes, optimizing parameters to
achieve max. efficiency
Optimized and employed scaled-up filtration processes to remove undesired large
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particles from finished solar inks
Improved product yield by 25% while concurrently reducing the process run time and
filtration equipment costs
Performed in-house analysis of commercial printer systems to determine and recommend a
threshold for process idle times to eliminate system failure caused by particle
sedimentation and agglomeration
Teamed with fellow engineers/chemists to develop new procedures for measuring the
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concentration of various process streams
Utilized UV-Vis Spectroscopy to analyze the concentration (with respect to time) of a
permeate stream exiting a newly constructed ultrafiltration/diafiltration unit used to remove
undesired byproducts from silver nano-particles
Employed a surface tension measurement procedure to determine the concentration of a
commercial solar wafer pretreatment bath and made recommendations to customers as
how to maintain a desired concentration
Developed a superior procedure for making in-house dispersions of silver particles on
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shear mixing equipment that ensures the breakdown of large agglomerated particles
Controlled shear mixing behavior by optimizing product solids loadings, process run times,
process temperatures and impeller rotational velocity
Standardized new characterization methods for measuring large and agglomerated
particles in dispersions
Conducted sintering experimentation on dispersions containing unique silver particle
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morphologies to determine the effect that curing time and temperature have on particle
conductivity
Effectively conveyed procedures and results of experimentation through scientific
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reports and presentations
Awarded as runner-up for best poster presentation in the 2011 annual Cabot Technology
Day in Albuquerque
Regularly wrote and updated equipment and process SOP’s and Risk Assessment Tools
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to proficiently communicate the most up to date safety protocols
Attained 5S ownership of Solar Formulation Lab, ensuring that the lab was adequately
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stocked, organized and cleaned for maximum efficiency
Conducted market analysis research to determine the economical advantages of
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introducing Cabot carbon additives into lead-acid batteries for motive and telecommunication
applications
Thomas M. Czechowski Page Two
LUXOTTICA OPTICAL MANUFACTURING, Lockbourne, OH December 2009-June 2010
Coatings Quality Analyst, Anti-Reflective Coatings Department
Worked closely within the research and development team to complete qualification for
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innovative anti-reflective coating recipes which were employed for marketable application
Improved light transmittance properties of eyeglass lenses to approximately 99% while
maintaining durability
Teamed with engineering department to eliminate production problems causing low
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yield and poor quality, ultimately leading to a more lean manufacturing process
Employed process-line improvements that ensured desired optical/adhesive properties of
coatings applied to a newly implemented Ray-Ban line
Participated in Kaizen event to increase productivity on the production floor for lens
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manufacturing
Executed a series of destructive testing on eyeglass lenses to ensure quality of anti-
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reflective coatings
AKZO NOBEL COATINGS, Columbus, OH June 2008-May 2009
Product Formulation Laboratory Technician (Commercial Products Development Group)
Partnered with team members to improve the current materials and processes used in
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the production of various paints and coatings
Ensured that products met customer/company specifications for color, robustness, and
environmental resistance
Improved the durability of cured products through the addition of various solvents,
dispersants, and additives to coating formulas
Interpreted feedback from quality control to ensure products were within customer
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specifications, making adjustments to coating formulas as needed
EDUCATION
The Ohio State University, Columbus, OH, Bachelor of Science in Chemical Engineering, August
2009
Engineering Projects
Calcium Looping Process Research, Autumn 2008 and Spring 2009
Studied how the implementation of a newly developed calcium looping process could be
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utilized to effectively sequester carbon dioxide produced when creating hydrogen from coal or
natural gas
Optimized fluidized-bed parameters in order to attain maximum particle surface area for
carbon dioxide capture
Acquired calcination conditions that allowed for maximum raw material recycle while
reducing energy costs
Determined that the Calcium Looping Process is efficient in sequestering carbon dioxide
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from the desired hydrogen and that the process is economically feasible
Ethanol Production Analysis, Winter 2009
Researched the feasibility of using Hawaiian sugarcane to produce enough ethanol to
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completely power the islands
Optimized the ethanol production processes through the utilization of ChemCAD
simulations, allowing for the determination of heat efficiencies involved
Determined that using available land on the 4 major Hawaiian Islands for sugarcane
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production yields adequate amounts of ethanol required to meet all electricity needs