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Chemical Engineering Theses and Dissertations

Theses/dissertations from 2023 2023.

Development and the Use of a New Kinetically Limited Linear Driving Force Model for Diffusion-Based Adsorptive Separations , Sulaimon Adedayo Adegunju

Revisiting the Volumetric Swing Frequency Response Method for the Determination of Limiting Mass Transfer Mechanisms of N 2 and O 2 in Carbon Molecular Sieve 3K172 , Adam Marshall Burke

Design of a TVSA Cycle for CO 2 Removal From Spacecraft Cabins Using a Structured Adsorbent , Pravin Bosco Charles Antony Amalraj

Structure Property Performance of Ti3c2 Mxene/polyelectrolyte Hybrids For Electronic And Electromagnetic Applications , Farivash Gholamirad

Catalytic Hydrogenation of Dimethyl Oxalate to Ethylene Glycol Using Silver Based Catalysts on SBA-15 , Nicolas Edouard Gleason-Boure

The Impact of Using Tanks for the Equalization Step on the Performance of a PSA Process , Behnam Fakhari Kisomi

Understanding the Corrosion and Discharge Behaviour of Zinc Anodes in Primary Alkaline Batteries , Brian James Lenhart

Polybenzimidazole Membranes for Electrochemical Applications With Harsh Operating Conditions , Kris Likit-anurak

Mathematical Analysis of Electrochemical Systems , Shiv Krishna Reddy Madi Reddy

Blue Phase Liquid Crystals Within Curved Confinements , Sepideh Norouzi

Insights Into Supported Metal Catalyst Sintering and Their Application for Bio-Oil and Crude Oil Upgradation , Md Fakhruddin Patwary

New Perspectives and Insights Into Direct Epoxidation of C 3 H 6 Using O 2 and Ag Based Catalysts and Measurement of Active Ag Site Concentration of Promoted Ag Catalyst for C 2 H 4 Epoxidation by H 2 Pulse Titration Over Oxygen Pre-covered Surface , Md Masudur Rahman

Engineering Hybrid Colloidal Systems Formed by Charge-Driven Assembly Between Spherical Soft Nanoparticles and Discotic Nanoplatelets , Gelareh Rezvan

Heterogeneous Catalyst Design For Biomass Conversion , Dia Sahsah

First Principles Doping Analysis of Perovskite- And Ruddlesden-Popper-Based Solid Oxide Fuel Cells , Nicholas Alexander Szaro

Theses/Dissertations from 2022 2022

Synthesis, Characterization and Evaluation of Dilute Limit Alloy Bimetallic Catalysts for Bio-Oil Upgrading , Leandro Tagum De Castro

Supported Metal Bifunctional and Bimetallic Catalysts With Precisely Controlled Structures and Properties , Anhua Dong

Highly Active and Stable Low-Pgm and Pgm-Free Catalysts for Anion Exchange Membrane Fuel Cells , Horie Adabi Firouzjaie

Catalytic Cracking of Oxygenated Polymer Waste Via Zeolite Catalysts , Andrew Jaeschke

Fundamentals of Adsorption and Large Scale Pressure Swing Adsorption (PSA) Process Design , Huan Jiang

Molecular Theoretical Model for Lipid Bilayers: Adsorption of Lipidated Proteins on Lipid Bilayers as a Function of Bilayer Composition and Curvature , Shauna Celeste Kennard

Liquid Phase Modeling in Metal Catalysis and in Zeolites , Subrata Kumar Kundu

Observing and Modeling Water Electrolysis Performance Limitations Attributed to Gas Generation and Porous Media Properties , Joseph S. Lopata

Rational Synthesis of Ultra-small and Durable Platinum-based Catalysts for Renewable Energy Applications , Fahim Bin Abdur Rahman

Durability Enhancement of Anion Exchange Membrane Based Fuel Cells (AEMFCS) And Water Electrolyzers (AEMELs) By Understanding Degradation Mechanisms , Noor UI Hassan

First-Principles Based Heterogeneous Catalyst Design for Energy Conversion and Plastics Upcycling Processes , Kyung-Eun You

Theses/Dissertations from 2021 2021

Recent Advances in Catalytic Ethylene Epoxidation: Synthesis, Characterization, and Evaluation , Benjamin Thomas Egelske

Mitigating Corrosion and Enhancing Energy Density of Zinc-Based Anodes in Primary and Secondary Aqueous Batteries , Ehsan Faegh

From the Surface to the Reactor: Identifying the Active Sites for Propane Dehydrogenation on Platinum-Based Catalysts Through Density Functional Theory, Experimental Data, and Uncertainty Quantification , Charles Henry Fricke

Polymer Microparticles for Encapsulation and Presentation Of Anti-inflammatory Agents for Inflammatory Diseases , Christopher Isely

Fine Points for Broad Bumps: The Extension of Rietveld Refinement for Benchtop Powder XRD Analysis of Ultra-Small Supported Nanoparticles , Jeremiah W. Lipp

Hydrodeoxygenation of Biomass Derived Sugar Alcohols To Platform Chemicals Using Heterogeneous Catalysts , Blake MacQueen

Discovery and Investigation of Ammonia Decomposition Catalysts , Katherine McCullough

An Investigation of Strong Electrostatic Adsorption Using Formed Commercial Supports , Connor Brendan McDonough

Degradative Processes of Commercial and Next-Generation Lithium-Ion Battery Materials , Benjamin Ng

Structure and Stability of AG-IR Bimetallic Catalysts Prepared By Electroless Deposition and Synthesis and Performance of High Selectivity Movnbsbteox Mixed Oxides for Oxidative Dehydrogenation of Ethane , Mozhdeh Parizad

Development of a Multi-Scale Mechano-Electrochemical Battery Model , Drew J. Pereira

Catalytic and Non-catalytic Methods for Hydrocarbon Upgrading, Valorization, and Pollutant Control , Michael Morgan Royko

Mathematical Model for SEI Growth Under Open-Circuit Conditions , Wei Shang

Shape-Selective Silver Catalysts for Ethylene Epoxidation , Kaveh Shariati

Heterogeneous Extended Langmuir Model with a Truncated Multi-Normal Energy Distribution for Fitting Unary Data and Predicting Mixed-Gas Adsorption Equilibria , Sofia Tosso

Preparation, Characterization and Evaluation of Rationally Designed Catalysts by Electroless Deposition , Wen Xiong

Solvent Effect Modeling in Heterogenous Catalysis , Mehdi Zare

Quantifying and Elucidating the Effect of CO 2 on AEMFCs , Yiwei Zheng

Theses/Dissertations from 2020 2020

Influence of Coordination Environment on Catalyst Structure and Function for CO2 Hydrogenation and Ethane Partial Oxidation , Juan D. Jimenez

Mathematical Modeling of Lithium-Sulfur Batteries , Niloofar Kamyab

Fundamental Studies of Oxygen Electrocatalysis in Alkaline Electrochemical Cells , Victoria F. Mattick

The Development of Polymer Constructs for Adipose Tissue Engineering Applications , Kendall Murphy

Investigation of Oxidized Carbon Supported AU Catalysts Synthesized via Strong Electrostatic Adsorption of AU(en) 2 Cl 3 for the Hydrochlorination of Acetylene to Vinyl Chloride Monomer , Sean Reginald Noble

Solid Materials Discovery for Thin Films, Oxide Catalysts, and Polymer Sealants , Benjamin Ruiz-Yi

Multi-Scale Modeling for Transport Study Inside Porous Layers of Polymer Electrolyte Membrane Fuel Cell Using Direct Numerical Simulation , Pongsarun Satjaritanun

Volume Frequency Response Method for Determining Mass Transfer Mechanisms of O2 in Carbon Molecular Sieve 3K172 , Olivia Smithson

Theoretical Investigation of the Biomass Conversion on Transition Metal Surfaces Based on Density Functional Theory Calculations and Machine Learning , Wenqiang Yang

Hydrogenation of Dimethyl Oxalate to Ethylene Glycol Over Silica Supported Copper Catalysts , Xinbin Yu

Theses/Dissertations from 2019 2019

Heterogeneous Catalysis for the Upgrading of Biomass Derived Chemicals via Hydrodeoxygenation , Elizabeth Barrow

Flame Spray Pyrolysis of Ce-Mn Solid Solutions for Catalytic Applications , Nicole Cordonnier

Molecular Modeling of Tethered Polyelectrolytes for Novel Biomedical Applications , Merina Jahan

Electrode Development and Electrocatalysts Design for Polymer Electrolyte Membrane Fuel Cells , Xiong Peng

Liquid Phase Modeling in Heterogeneous Catalysis , Mohammad Shamsus Saleheen

The Use of Multi-Targeting Natural Products for the Treatment of Cancer , Wesley Taylor

Discovery of Materials Through Applied Machine Learning , Travis Williams

Enabling High Energy Density Aluminum Anodes for Alkaline Batteries , Xinyi Zhao

Theses/Dissertations from 2018 2018

Selective Deposition of Platinum by Strong Electrostatic Adsorption onto Cobalt- and Iron-based Catalysts for Fischer-Tropsch Synthesis , Fahad A. Almalki

Nox Formation In Syngas/Air Combustion , Nazli Asgari

Dynamic Simulation of a Solar Powered Hybrid sulfur Process for Hydrogen Production , Satwick Boddu

Role Of Bed Design Characteristics On The Effective Thermal Conductivity Of A Structured Adsorbent , Pravin Bosco Charles Antony Amalraj

Hydrodeoxygenation of Acetic Acid Using Monometallic and Bimetallic Catalysts Supported on Carbon , José Luis Contreras Mora

Design, Synthesis, And Characterization Of Monometallic And Bimetallic Catalysts , Sonia Eskandari

Fundamental Aspects Of A Novel Technology For Abatement Of Indoor Allergens , Odell Lendor Glenn Jr.

Development Of Bimetallic Catalysts For Dry Reforming Of Methane And Hydrogenation Of Succinic Acid , Jayson Michael Keels

Combinatorial Study of Oxidation Catalysts: Uncovering Synthesis-Structure-Activity Relationships , Kathleen B. Mingle

Stabilization Of Silicon And Germanium Based High Capacity Anodes For Lithium Ion Batteries , Kuber Mishra

The Rational Synthesis of Bimetallic Catalysts on Oxide Supports , Andrew Phillip Wong

Three-Way Catalysts In Passive Selective Catalytic Reduction Systems , Calvin Thomas

Three-Way Catalysts in Passive Selective Catalytic Reduction Systems , Calvin Thomas

Understanding Early Amyloid-ß Aggregation to Engineer Polyacid-Functionalized Nanoparticles as an Inhibitor Design Platform , Nicholas Vander Munnik

Theses/Dissertations from 2017 2017

Supercritical Carbon Dioxide Treatment Of Natural Biomaterials For Tissue Engineering Applications , Dominic M. Casali

Pollutant Formation In Oxy-Coal Combustion , Nujhat Choudhury

Structural, Interfacial, and Electrochemical Properties of Pr2NiO4+δ – Based Electrodes for Solid Oxide Fuel Cells , Emir Dogdibegovic

Modeling Battery Performance Due To Volume Change In Porous Electrodes Due To Intercalation , Taylor R. Garrick

Rational Synthesis Of Catalysts For Biomass Conversion , Qiuli Liu

Theoretical Investigation of the Catalytic Hydrodeoxygenation of Levulinic Acid Over Ru (0001) Catalyst Surface , Osman Mamun

CO2 Capture From Flue Gas By A PSA Process Using A Novel Structured Adsorbent , Nima Mohammadi

Statistical Mechanics of Lipid-Liquid Crystal Systems: From Fundamentals to Sensing Applications , Donya Ohadi Kabir Maghsudlu

Determination and Validation of High-Pressure Equilibrium Adsorption Isotherms via a Volumetric System , Hind Jihad Kadhim Shabbani

Development of Novel Catalysts for Air Pollution Control , Chao Wang

Stilbenes: Therapeutic Interventions Targeting Amyloid β Protein Aggregation In Alzheimer’s Disease , Yiying Wang

Ultrathin Graphene Oxide Membranes for Water Purification: Fundamentals & Potential Applications , Weiwei Xu

Theses/Dissertations from 2016 2016

The Oxidation And Decoration Chemistry Of Platinum And Palladium Nanoparticles On Carbon Supports , Ritubarna Banerjee

Biodegradable Hybrid Tissue Engineering Scaffolds For Reconstruction Of Large Bone Defects , Danial Barati

Development of Novel High-Throughput Methodologies to Evaluate the Thermal Stability of High-Temperature Thin-Film Crystals for Energy Applications , Jonathan Kenneth Bunn

Rational Synthesis to Optimize Ruthenium-Based Biomass Conversion Catalysts , Shuo Cao

Two-Stage Psa System For CO2 Removal And Concentration During Closed-Loop Human Space Exploration Missions , Hanife Erden

Methane Separation And Purification Via Pressure Swing Adsorption , Lutfi Erden

Adsorption Reversibility of SO2, NO2, and NO on 13X and 5A Zeolites , Peter Fairchild

Investigation Of Heterogeneous Chemistry Of Pollutants In Flue Gas For Air And Oxy-Combustion , Benjamin D. Galloway

Development Of Highly Active And Stable Compressive Pt Cathode Catalysts For Polymer Electrolyte Membrane Fuel Cells , Taekeun Kim

Synthesis of Well Dispersed Supported Metal Catalysts by Strong Electrostatic Adsorption and Electroless Deposition , John Meynard Macasero Tengco

Characterization, Synthesis And Stabilization Of AU Based Bimetallic Catalysis For The Hydrochlorination Of Acetylene , Kerry Charles O'Connell

Polyphenols As Natural, Dual-Action Therapeutics For Alzheimer's Disease , Kayla M. Pate

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Home > Engineering > Chemical Engineering > Theses and Dissertations

Chemical Engineering Theses and Dissertations

Theses/dissertations from 2024 2024.

Development of Zr(IV) MOF-Enabled Nerve Agent Electrochemical Hydrolysis Sensors , Tyler James Marlar

Manipulating Colloidal Particles Using Chemical Gradients and Top-Down Control , Mark Nichols McDonald

Mineral Matter Behavior During the Combustion of Biomass and Coal Blends and its Effect on Particulate Matter Emission, Ash Deposition, and Sulfur Dioxide Emission , Rajarshi Roy

The Advancement of Experimental and Computation Tools for the Study of Molten Salt Chemistry to Facilitate the Extraction of Strategic Elements in Nuclear Applications , Michael Stoddard

Understanding the Mechanical and Electrochemical Impacts of Binder Systems on Silicon Anodes in Lithium-Ion Batteries , Fei Sun

Theses/Dissertations from 2023 2023

Development of the TLVMie Force Field and a Standardized Methodology for Improved Pure-Component and Mixture Liquid Viscosity Predictions , Daniel J. Carlson

Investigating Bismuth as a Surrogate for Plutonium Electrorefining , Greg Chipman

Development of Battery-Grade Silicon Through Magnesiothermic Reduction of Halloysite-Derived Silica , Nathan Clarke

Simulations of Electrode Heterogeneity and Design for Lithium-Ion Batteries , Amir Sina Hamedi

Combined Design and Dispatch Optimization for Nuclear-Renewable Hybrid Energy Systems , Daniel Clyde Hill

A Polarizable Molecular Dynamics Potential for Molten Salt Property Prediction , Jared Thurgood

Analysis and Simulation of Nuclear Thermal Energy Storage Systems for Increasing Grid Stability , Jaron Wallace

Cesium Voltilization in LiF-BeF2: Predicting Release in the Event of FHR Fuel Failure , Johnny Hedrick Williams

Morphogenetic Engineering of Synthetic Protocell Systems , Qinyu Zhu

Theses/Dissertations from 2022 2022

Methemoglobin Formation via Nitric Oxide and Comparison of Methemoglobin, Deoxyhemoglobin, and Ferrous Nitrosyl Hemoglobin as Potential MRI Contrast Agents , Roya Ayati

Improving Predictions of Vapor Pressure, Liquid Heat Capacity, and Heat of Vaporization in Associating Fluids , Joseph C. Bloxham

The Effect of Soot Models in Oxy-Coal Combustion Simulations , Kamron Groves Brinkerhoff

Modeling of High-Pressure Entrained-Flow Char Oxidation , Daniel Gundersen

Simulation of Crystal Nucleation in Polymer Melts , Pierre Kawak

Understanding Microstructure Heterogeneity in Li-Ion Battery Electrodes Through Localized Measurement of Ionic Transport , Baichuan Liu

Fundamentally Based Investigation and Mathematical Modeling of the Delay Observed in the Early Stages of E-coat Deposition , Fardin Padash

Hybrid Machine Learning and Physics-Based Modeling Approaches for Process Control and Optimization , Junho Park

Autoignition Temperatures of Pure Compounds: Data Evaluation, Experimental Determination, and Improved Prediction , Mark Edward Redd

In-Situ Chlorine Gas Generation for Chlorination and Purification of Rare Earth and Actinide Metals , Mark H. Schvaneveldt

Computational Tools for Modeling and Simulation of Sooting Turbulent Non-Premixed Flames , Victoria B. Stephens

Development of a 3D-Printed Microfluidic Droplet-On-Demand System for the Deterministic Encapsulation and Processing of Biological Materials , Chandler A. Warr

Theses/Dissertations from 2021 2021

Structural Characteristics and Thermophysical Properties of Molten Salts From Ab Initio Molecular Dynamics Simulations , Austin David Clark

Combined Trajectory, Propulsion and Battery Mass Optimization for Solar-Regenerative High-Altitude Long-Endurance Aircraft , Nathaniel Spencer Gates

Engineering Cell-Free Protein Expression Systems for Biotherapeutics and Biosensing , John Porter Hunt

Investigation of Lithium-Ion Battery Electrode Fabrication Through a Predictive Particle-Scale Model Validated by Experiments , Mojdeh Nikpour

Improving Understanding of Liquid Viscosity Through Experiments and Prediction , Jeremy W. Passey

Assessment and Expansion of Laboratory-Based Testing of Biomass Cookstoves , Cameron M. Quist

Coal Pyrolysis Models for Use in Massively Parallel Oxyfuel-Fired Boiler Simulations , Andrew Perry Richards

Molecular Dynamic Simulation of Protein Devices and the Parameterization of Azides and Alkynes for Use in Unnatural Amino Acid Models , Addison Kyle Smith

Designing Cell-Free Protein Synthesis Systems for Improved Biocatalysis and On-Demand, Cost-Effective Biosensors , Mehran Soltani Najafabadi

Advancing Cell-Free Protein Synthesis Systems for On-Demand Next-Generation Protein Therapeutics and Clinical Diagnostics , Emily Ann Long Zhao

Theses/Dissertations from 2020 2020

Use of Viologens in Mediated Glucose Fuel Cells and in Aqueous Redox Flow Batteries to Improve Performance , Meisam Bahari

Narrow Angle Radiometer for Oxy-Coal Combustion , Nicole Ashley Burchfield

Co-Milling and Cofiring of Woody Biomass with Coal in Utility Boilers: Enabling Technology Through Experiments and Modelling , Seyedhassan Fakourian

The Impact of Calendering on the Electronic Conductivity Heterogenity of Lithium-Ion Electrode Films , Emilee Elizabeth Hunter

Understanding the Relationships between Ion Transport, Electrode Heterogeneity, and Li-Ion Cell Degradation Through Modeling and Experiment , Fezzeh Pouraghajansarhamami

Bacteria in Blood: Optimized Recovery of Bacterial DNA for Rapid Identification , Ryan Wood

Experimental and Modeling of Biomass Char Gasification , Ruochen Wu

Theses/Dissertations from 2019 2019

Improving and Modeling Bacteria Recovery in Hollow Disk System , Clifton Anderson

Replacement Rates of Initially Hydrocarbon-Filled Microscopic Cavities with Water , Hans Christian Larson

Investigation of Electrocoating Mechanisms , Tyler James Marlar

Effect of Support, Preparations Methods, Ag Promotion and NC Size on the Activity, Selectivity and Sintering Deactivation of Supported Co Fischer-Tropsch Catalyst , Mahmood Rahmati

Carbon Capture and Synergistic Energy Storage: Performance and Uncertainty Quantification , Christopher Stephen Russell

Proactive Energy Optimization in Residential Buildings with Weather and Market Forecasts , Cody Ryan Simmons

Correlating Pressure, Fluidization Gas Velocities, andSolids Mass Flowrates in a High-PressureFluidized Bed Coal Feed System , Jacob Talailetalalelei Tuia

Development of a Novel Bioprinting System:Bioprinter, Bioink, Characterizationand Optimization , Chandler Alan Warr

The Development of a Multi-Objective Optimization and Preference Tool to Improve the Design Process of Nuclear Power Plant Systems , Paul Richard Wilding

Theses/Dissertations from 2018 2018

Rapid Separation of Bacteria from Blood for Sepsis Diagnosis , Mahsa Alizadeh

Fundamental Investigation of Magnesium Corrosion Using Experiments and Simulation , Dila Ram Banjade

Large-Scale Non-Linear Dynamic Optimization For Combining Applications of Optimal Scheduling and Control , Logan Daniel Beal

Thermochemical Conversion of Biomass: Detailed Gasification and Near-Burner Co-Firing Measurements , Jacob B. Beutler

Homogeneous Reaction Kinetics of Carbohydrates with Viologen Catalysts for Biofuel Cell Applications , Hilary Bingham

The Impact of Nanostructured Templates and Additives on the Performance of Si Electrodes and Solid Polymer Electrolytes for Advanced Battery Applications , Jui Chin Fan

Simulation and Experiments to Understand the Manufacturing Process, Microstructure and Transport Properties of Porous Electrodes , Mohammad Mehdi Forouzan

Smart Technologies for Oil Production with Rod Pumping , Brigham Wheeler Hansen

Modeling Soot Formation Derived from Solid Fuels , Alexander Jon Josephson

Optimization-Based Spatial Positioning and Energy Management for Unmanned Aerial Vehicles , Ronald Abraham Martin

Repopulation and Stimulation of Porcine Cardiac Extracellular Matrix to Create Engineered Heart Patches , Silvia Juliana Moncada Diaz

Camera View Planning for Structure from Motion: Achieving Targeted Inspection Through More Intelligent View Planning Methods , Trent James Okeson

Nonlinear Model Predictive Control for a Managed Pressure Drilling with High-Fidelity Drilling Simulators , Junho Park

Characterization of Pyrolysis Products from Fast Pyrolysis of Live and Dead Vegetation , Mohammad Saeed Safdari

Suitability of the Kalina Cycle for Power Conversion from Pressurized Water Reactors , Jack Ryan Webster

Engineering Cell-Free Biosystems for On-Site Production and Rapid Design of Next-Generation Therapeutics , Kristen Michelle Wilding

Theses/Dissertations from 2017 2017

A Molecular Simulation Study of Antibody-Antigen Interactions on Surfaces for the Rational Design of Next-Generation Antibody Microarrays , Derek B. Bush

Multi-Fidelity Model Predictive Control of Upstream Energy Production Processes , Ammon Nephi Eaton

Improving Thermodynamic Consistency Among Vapor Pressure, Heat of Vaporization, and Liquid and Ideal Gas Heat Capacities , Joseph Wallace Hogge

A Comprehensive Coal Conversion Model Extended to Oxy-Coal Conditions , Troy Michael Holland

Particle Deposition Behavior from Coal-Derived Syngas in Gas Turbines at Modern Turbine Inlet Temperatures , Robert Laycock

Decellularization and Recellularization Processes for Whole Porcine Kidneys , Nafiseh Poornejad

Engineering Cell-free Protein Synthesis Technology for Codon Reassignment, Biotherapeutics Production using Just-add-Water System, and Biosensing Endocrine Disrupting Compounds , Sayed Mohammad Salehi

Cell-Free Synthesis of Proteins with Unnatural Amino Acids: Exploring Fitness Landscapes, Engineering Membrane Proteins and Expanding the Genetic Code , Song Min Schinn

Metallization of Self-Assembled DNA Templates for Electronic Circuit Fabrication , Bibek Uprety

Theses/Dissertations from 2016 2016

Aminoacyl-tRNA Synthetase Production for Unnatural Amino Acid Incorporation and Preservation of Linear Expression Templates in Cell-Free Protein Synthesis Reactions , Andrew Broadbent

Mitigating Transients and Azeotropes During Natural Gas Processing , Edris Ebrahimzadeh

Dynamic Liquefied Natural Gas (LNG) Processing with Energy Storage Applications , Farhad Fazlollahi

The Influence of Season, Heating Mode and Slope Angle on Wildland Fire Behavior , Jonathan R. Gallacher

Effects of Tethering Placement and Linker Variations on Antibody Stability on Surfaces , Rebecca Ellen Grawe

Thermal and Convective Loading Methods for Releasing Hydrophobic Therapeutics from Contact Lenses , Ryan Ruben Horne

How a Systematic Approach to Uncertainty Quantification Renders Molecular Simulation a Quantitative Tool in Predicting the Critical Constants for Large n -Alkanes , Richard Alma Messerly

Extracellular Matrix from Whole Porcine Heart Decellularization for Cardiac Tissue Engineering , Nima Momtahan

Developing Modeling, Optimization, and Advanced Process Control Frameworks for Improving the Performance of Transient Energy-Intensive Applications , Seyed Mostafa Safdarnejad

Nanoemulsions Within Liposomes for Cytosolic Drug Delivery to Multidrug-Resistant Cancer Cells , Jacob Brian Williams

Nerve Regeneration Using Lysophosphatidylcholine and Nerve Growth Factor , Ryan LaVar Wood

Theses/Dissertations from 2015 2015

Nonlinear Estimation and Control with Application to Upstream Processes , Reza Asgharzadeh Shishavan

Galvanic Corrosion of Magnesium Coupled to Steel at High Cathode-to-Anode Area Ratios , Dila Ram Banjade

An Improved Dynamic Particle Packing Model for Prediction of the Microstructure in Porous Electrodes , Chien-Wei Chao

The Performance of Structured High-Capacity Si Anodes for Lithium-Ion Batteries , Jui Chin Fan

Energy Process Enabled by Cryogenic Carbon Capture , Mark Jensen

The Effect of Microstructure On Transport Properties of Porous Electrodes , Serena Wen Peterson

Stochastic Simulation of Lagrangian Particle Transport in Turbulent Flows , Guangyuan Sun

Theses/Dissertations from 2014 2014

Kinetic Experimental and Modeling Studies on Iron-Based Catalysts Promoted with Lanthana for the High-Temperature Water-Gas Shift Reaction Characterized with Operando UV-Visible Spectroscopy and for the Fischer-Tropsch Synthesis , Basseem Bishara Hallac

Preparation of Active, Stable Supported Iron Catalysts and Deactivation by Carbon of Cobalt Catalysts for Fischer-Tropsch Synthesis , Kamyar Keyvanloo

Gasification of Biomass, Coal, and Petroleum Coke at High Heating Rates and Elevated Pressure , Aaron D. Lewis

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Home > Communities > College of Engineering & Mines > CHE > CHE-GRAD

Chemical Engineering Theses and Dissertations

Theses/dissertations from 2023 2023.

Predicting Ash Deposition In A Cyclone-Fired Coal Boiler Under Variable Load Conditions , Evan Bloom

A WRF-Chem Air Pollution Modeling Study Over The Northern Plains , Carlos Javier Bucaram

Synthesis And Characterization Of Soybean Feedstock-Based Composite Systems For Sustainable Material Application. , Temofeh Nathaniel Esenamunjor

Continuous Decomposition Of Corn Stover-Derived Lignin To Valuable Products And Vanillin , Wyatt Larson

Synthesis And Characterization Of Cellulose Acetate Based Bio-Composites , Enoch Kehinde Sofowora

Enhancement Of The Performance Of Lignin-Derived Hard Carbons For Battery Applications By Chemical Pretreatment , Ruiqing Zhang

The Design And Preparation Of High-Performance Silicon/Carbon Composite Anode For Lithium-Ion Batteries , Xin Zhang

Theses/Dissertations from 2022 2022

Improved Pressure Loss And Multiphase Flow Behavior Predictions For In-Line Gas-Liquid Contactors Using Experimental Measurements And CFD Simulations , Evan Lowry

Effects Of Temperature And Feedstock Composition On Product Distribution Of Mixed Plastic Waste Pyrolysis , Zachary William Meduna

Theses/Dissertations from 2021 2021

The Production Of Bio-Based Chemicals And Materials From Renewable Sources , Ian Foerster

Numerical Investigation Of Aerodynamic Effects On Ash Impaction And Outside Ash Deposition Rates During Second Generation Atmospheric Pressure Oxy-Coal Combustion , Monika Kuznia

Upgrade Of Rare Earth Element Concentrate By Selective Dissolution And Ion Exchange , James Patrick Lepke

Enzymatic Approach To Improve Tensile, Freeness And Brightness , Yao Ntifafa

Theses/Dissertations from 2020 2020

A Computational Assessment Of Flame Characteristics Of Premixed And Non-Premixed Ethylene-Oxygen Combustion With A Reduced Chemical Reaction Mechanism , Sam Cowart

The Conversion Of Carbohydrates From Microalgae And Corn Stover Into Building Block Chemical Acids , Andrew J. Kohler

A Study Of The Feasibility Of Growth, Extraction, And Industrial Scale Up Processing Of Microalgae Lipids. , Jasmine Oleksik

Design Of Spouted Fluidized Bed Computational Models For Advanced Energy Applications , Ryder Shallbetter

Modeling of Gas-Solid Flows in Industry with Computational Fluid Dynamics Tools: An Assessment of Modeling Methodologies and Computational Challenges , Kaylee Smith

Time-Dependent Plastic Deformation Of Mg Nanocomposites: Ambient And Elevated Temperature Assessments , Jiselle Thornby

Theses/Dissertations from 2019 2019

The Effect Of Different Dianhydride Precursors On The Synthesis, Characterization And Gas Separation Properties Of PI And PBO Derived From BisAPAF , Maram Abdulhakim Qasem Al-Sayaghi

Extraction And Purification Of Humic Acid From Leonardite As A Graphene Precursor For Lithium Ion Battery Cathodes , Justin James Baker

Supercritical Water Desalination: Model-Predicted NaCl Concentration Comparison , Sebastian David Gardner

Method Development And Optimization For The Recovery Of Carbohydrates From A Microalga Species Of Chlorella Vulgaris By Combined Physical And Chemical Pre-Treatments , William Richard Hammann

Enhancing Liquid And Gas Separation With Activated Carbon Mixed-Matrix Membranes , Jeremy Lewis

Predicting Flame Stability, Ash Deposition And Radiative Heat Transfer Characteristics During Oxy-Fuel Combustion Of Pulverized Coal Using Different Multiphase Modeling Frameworks , Trevor Lee Seidel

Modeling And Improving Oxygen Carrier Performance In Chemical Looping Combustion Systems , Johannes George Van Der Watt

Theses/Dissertations from 2018 2018

Interfacing The CFD Code MFiX With The PETSc Linear Solver Library To Achieve Reduced Computation Times , Lauren Clarke

Synthesis And Characterization Of Novel Bioplastics By Innovative 3d Printing Approaches , Kathryn Marie Hall

Modeling Of Detonations Using Scenarios With Hydrogen As A Fuel , Lucky Mulenga

The Mobility Of Semi-Volatile Trace Elements From Size Segregated Fly Ash Particles Generated During Pulverized Coal Combustion , Prasanna Seshadri

Novel Bio-Kinetic Modeling And 2,3-Butanediol Productivity Optimization Of Clostridium Autoethanogenum , Timothy Taylor

Theses/Dissertations from 2017 2017

Preliminary Design And Economics Of Biorefinery Schemes Based On The Noncatalytic Cracking Of Triglyceride Oils , Shelby Amsley-Benzie

Biodegradation And Biomodification Of Lignocellulose With A Main Focus On Lignin , Ivana Brzonova

Investigating Cloud Condensation Nuclei Activity And Particle Growth Of Aging Diesel Exhaust Particles , Humphrey Chigozie Chukwuto

Production of Mesophase Pitch from Gasified Lignin-Derived Tars , Adedayo O. Idowu

Evaluation Of Rare Earth Element Extraction From North Dakota Coal-Related Feed Stocks , Daniel A. Laudal

An Investigation Of The Thermal Degradation Of Lignin , Sara Pourjafar

Modeling The Interactions Between Turbulence And Radiation In Oxy-Combustion Flames , Md Ashiqur Rahman

Theses/Dissertations from 2016 2016

Biodegradation Of Lignin By Fungi, Bacteria And Laccases , Fnu Asina

Effect Of Silica Supported Platinum Catalyst On The Performance And Durability Of PEM Fuel Cells , Jivan N. Thakare

Effect Of Bridging Group Of Dianhydride Precursor On Resulting Thermally Rearranged Polybenzoxazole For Removal Of Nitrogen From Natural Gas , Tucker Woock

Theses/Dissertations from 2015 2015

Characterization And Catalytic Cracking Of Tar Obtained In Coal / Biomass / Municipal Solid Waste Gasification: The Use Of Basic Mineral Catalysts And Miscibility, Properties, And Corrosivity Of Petroleum-Biofuel Oils And Blends For Application In Oil-Fired Power Stations , Stacy Joan Bjorgaard

Catalytic Conversion Of Crop Oil To Petrochemical Substitutes And Other Bio-Based Chemicals , Swapnil Liladhar Fegade

Theses/Dissertations from 2014 2014

High Fidelity Chemistry And Radiation Modeling For Oxy-Combustion Scenarios , Hassan A. Abdul Sater

Design And Optimization Of Organic Rankine Cycle For Low Temperature Geothermal Power Plant , Kirtipal Barse

Statistical Analysis Of The Effectiveness Of The 'You're Hired!' Program At Changing Students' Attitudes Towards Engineering , Kristin Michelle Brevik

Synthesis, Selection, And Optimization Of Doped Zeolite Catalyst For The Nonbiological Production Of Lactic Acid Derivatives From Biomass Derived Carbohydrates , Clancy Raymond Rick Kadrmas

Effect Of Bronsted And Lewis Acids On Biochemical Conversion Of Various Lignocellulosic Feedstocks Into Biofuels And Chemicals , Srinivas Reddy Kamireddy

Advances In The Electrodeposition Of Aluminum From Ionic Liquid Based Electrolytes , Kirt Leadbetter

Advanced Reactors And Novel Reactions For The Conversion Of Triglyceride Based Oils Into High Quality Renewable Transportation Fuels , Michael James Linnen

A Study Of Bench Scale, Pressurized, Continuous Flow Thermal Cracking Of Crop Oil , Blake Sander

Theses/Dissertations from 2013 2013

Modeling Arsenic, Antimony, And Selenium Partitioning During Coal Combustion , David W. James

Design And Construction Of A Fluidized Bed , Robert Ryan Mota

Application Of Composite Polymeric Membranes For Efficient Regeneration Of Physical Solvents , Alireza Pesaran

Efficient Regeneration Of Chemical Solvents For Carbon Dioxide Capture By Polymeric Membrane Contactors , Xuefei Zhang

Theses/Dissertations from 2012 2012

High Grade Carbon From Crop Oil Tars , Nathan Bosquez

Advances In The Electrodeposition Of Tantalum From Ionic Liquids In A Technical Plating Setup , Sam Cowart

Separation And Use Of Oxygenated Byproducts From Non-Catalytically Cracked Triglycerides And Their Methyl Esters , Benjamin Travis Jones

Separation And Purification Of Aromatics From Cracked Crop Oils Using Sulfolane , Nahid Khatibi

Evaluating The Effectiveness Of Proprietary Additives In Improving Capture And Sequestration Of Oxidized Mercury In Scrubber Systems , Junior Neguieh Domkam Nasah

Development Of A High Strength Laminate Repair System , Andrew Garrett Onken

Evaluation Of A Low Corrosion Method To Increase Mercury Oxidation And Scrubber Capture , Shuchita Sanjay Patwardhan

Pilot-Scale Evaluation Of Advanced Solvents For CO2 Capture From Coal-Fired Utilities , Brandon Michael Pavlish

Development Of Ionic Liquid Swelled Poly-Electrolyte Membranes For Use In Dye-Sensitized Solar Cells , Eric D. Schmid

Impact Of Coal Derived Impurities On The Performance Of Hydrogen Separation Membranes , Joshua Stanislowski

The Study Of Vinyl Ester Copolymers Derived From Bio-Sourced Fatty Acids , Hai Wang

Hyperbranched And Polydimethylsiloxane Based Membranes For CO2 Capture , Willie Wesley Wells

Theses/Dissertations from 2009 2009

Characterization of PEM Electrolyzer and PEM Fuel Cell Stacks Using Electrochemical Impedance Spectroscopy , Nilesh V. Dale

Theses/Dissertations from 2007 2007

Ground Heat Exchangers: Analytical and Numerical Modeling and Experimental Validation , Gopal K. Bandyopadhyay

Theses/Dissertations from 2005 2005

Mercury Oxidation by Chlorine-Containing Species and Scrubbing in a Wet Flue Gas Desulfurization System , Yongxin Zhao

Theses/Dissertations from 2004 2004

Electro-Thermal Model for a Solid Oxide Fuel Cell , Eduardo Hernandez-Pacheco

Theses/Dissertations from 2001 2001

Char Reaction Kinetics in a Transport Gasifier , Jason P. Jacobsen

Kinetic Modeling of a Transport Coal Gasifier , Ryan Zebadiah Knutson

Theses/Dissertations from 2000 2000

Activated Carbon Injection for Mercury Control in Coal-Fired Boilers , Randy Ray Brintnell

Theses/Dissertations from 1996 1996

Mercury Sorption on Metal Oxides , Heidi L. Hitchcock

Theses/Dissertations from 1995 1995

Improving Aspen/SP Computer Model of Great Plains Coal Gasifiers , Md. Moazzem Hossain

Theses/Dissertations from 1994 1994

Void Fraction and Pressure Drop in Annular Two-Phase Flow , Danping Si

Theses/Dissertations from 1993 1993

A Unified Model for Multi-Phase Flow and Heat Transfer in Wellbores , Mohammad Mahbubul Ameen

Optimization of Great Plains Coal Gasification Using Aspen/SP , Bradley C. Carpenter

Coal Water Slurry Combustion in a Simulated Diesel Engine Cylinder , Allan Robert Holmes

Theses/Dissertations from 1991 1991

Vapor-Liquid Equilibrium of Hydro-Treated Anthracene Oil (HAO61) , Michael J. Holmes

Theses/Dissertations from 1990 1990

The Fate of Flame Volatized Sodium During the Combustion of Pulverized Coal in Reaction With Silica and Sulfur (Studied with the Aid of a Synthetic Coal) , Thomas A. Erickson

Theses/Dissertations from 1988 1988

Multiphase Flow in Vertical and Inclined Annuli , Rajeev Patel

Theses/Dissertations from 1987 1987

Study of Char Particle Combustion Using Thermogravimetric Analysis , Mihir Manookumar Patel

Theses/Dissertations from 1986 1986

Gas Convective and Overall Heat Transfer Coefficient for a Vertical Tube Immersed in a Gas - Solid Fluidized Bed , Ajay Gupta

Heat Transfer in Coal Water Slurry Flow , Erwin Ayandra Irdam

Vapor-Liquid Equilibrium of a Simulated Lignite Liquefaction Product Stream , Gregory M. Krause

Vapor-Liquid Equilibrium of AO4 Solvent , John J. Rolando

Theses/Dissertations from 1985 1985

Removal of Sodium from Nerco Subbituminous Coal by Ion Exchange in a Continuous Countercurrent Unit Using an Aqueous Sulfuric Acid Medium , Dennis B. Thorfinnson

Theses/Dissertations from 1984 1984

Lignite Liquefaction Using Carbon Monoxide, Hydrogen and Water in a Hot Charged, Two-Staged, Batch Autoclave System , John James Gagliardi

Thermal and Kinetic Analyses of the Pyrolysis of a Northern Great Plains Lignite , Ross Steven Hefta

Hot Water Drying of Subbituminous Coal , Ajit Thomas Joseph

Rheological Study of a Direct Liquefaction Feed Slurry , Dennis L. Laudal

The Effect of Two Catalysts (Ammonia and Quinoline) on The Liquefaction of North Dakota Lignite , Chia-Shiun Lee

The Effect of Hydrogen Partial Pressure on Lignite Liquefaction in a Two-Stage Hot-Charge Batch Autoclave System , Robert O. Ness Jr.

Void Fraction During Gas Flow through a Stagnant Liqiud Column in Annular Geometry , Rehana Rahman

Rheological Behavior of Coal-Water Slurries , Angara Venkata Ramana Rao

Theses/Dissertations from 1983 1983

Kinetic Analysis of the Ion Exchange of Sodium from Subbituminous Coal , Jason Allen Chesley

Annular Flow in a Low - Pressure Steam - Water System , Arnfinn Borch Lund

Theses/Dissertations from 1982 1982

Microreactor Studies of Lignite Liquefaction , Gary B. Hanson

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Home > College of Engineering > Dept. of Chemical Engineering > Dissertations, Master’s Theses and Master’s Reports

Department of Chemical Engineering

Dept. of Chemical Engineering Dissertations, Master’s Theses and Master’s Reports

Explore our collection of dissertations, master's theses and master's reports from the Department of Chemical Engineering below.

Theses/Dissertations/Reports from 2023 2023

Chemical Decomposition of Flexible Polyurethane Foam to Generate a Media for Microbial Upcycling , Kaushik Baruah

Direct Recycling of Lithium-ion Battery Materials Using Physical Separation Methods. , Tinuade Ololade Folayan

EXPLORING PH GRADIENT PHENOMENA IN NON-LINEAR ELECTROKINETIC MICROFLUIDIC DEVICES , Azade Tahmasebi

HYDRO CYCLONIC SEPARATION OF POLYESTER MICROFIBERS FROM WASHING MACHINE WASTEWATER , Joe Kulkarni

MICROSCOPIC AND LABORATORY SCALE CHARACTERIZATION METHODS TO EVALUATE BIOMASS DECONSTRUCTION , Meenaa Chandrasekar

MICROSCOPIC DYNAMICS OF THE BUBBLE MOTION AND THIN LIQUID FILM DURING BUBBLE IMPACT ON HORIZONTAL AND INCLINED SURFACES , Fatemeh Hamidzadeh

SELECTING OPTIMAL DISTILLATION CONFIGURATIONS THAT MINIMIZE THE OVERALL RATE OF ENTROPY GENERATION , Zachary A. Olson

STUDYING EFFECT OF DROUGHT ON SWITCHGRASS AND IDENTIFYING ASSOCIATED MICROBIAL INHIBITORS , Sarvada Hemant Chipkar

VIRUS INACTIVATION BY NOVEL VIRUCIDAL MATERIALS , Sneha Singh

Theses/Dissertations/Reports from 2022 2022

A Novel Pulsed-Plasma Catalytic Reactor for Dry Reforming of Methane , Benjamin F. Caithamer

MEASURING THE PHYSICOCHEMICAL PROPERTIES OF VIRAL VECTORS TO ENHANCE GENE THERAPY PRODUCTION , Oluwatoyin Areo

REVERSE CATIONIC FLOTATION OF HEMATITE , Natalia Parra Alvarez

TOWARDS A CIRCULAR ECONOMY: LIQUID-FED FAST PYROLYSIS OF WASTE POLYOLEFIN PLASTICS , Daniel G. Kulas

UNDERSTANDING STRENGTH OF DRIED IRON ORE PELLETS , Victor Claremboux

Theses/Dissertations/Reports from 2021 2021

Anaerobic Reductive Bioleaching of Manganese Ores , Neha Sharma

CARBON CAPTURE AND UTILIZATION , Sriram Valluri

EFFECTS OF MICROPOROUS STRUCTURE ON THE ENZYMATIC CONVERSION OF BIOMASS USING A MULTISCALE MODEL , Saketh Merugu

Lithium-ion Battery Recycling Using Mineral Processing Methods , Ruiting Zhan

MECHANICAL PROPERTIES AND CHARACTERIZATION OF EPOXY AND CARBON FIBER/EPOXY COMPOSITES MODIFIED WITH HIGHLY ENTANGLED AS-RECEIVED AND ACID TREATED CARBON NANOTUBES , Aaron Krieg

New Horizons for Processing and Utilizing Red Mud , M. Archambo

Specifically Adsorbed Ions in Hematite Flotation , Natalia Parra Alvarez

THE EXTRACTION OF WAXES AND LIPIDS FROM SORGHUM USING GREEN AND RENEWABLE SOLVENTS FOLLOWED BY CONVERSION TO BIOFUELS USING GAMMA-VALEROLACTONE PRETREATMENT , Marissa Gallmeyer

Theses/Dissertations/Reports from 2020 2020

Continuous viral vaccine manufacturing and viral detection strategies , Dylan G. Turpeinen

Detection and thermal stabilization of virus based on surface properties , Xue Mi

INNOVATIVE SUSTAINABLE WOOD PRESERVATIVES FROM PULP AND PAPER INDUSTRY BYPRODUCT , Raisa Carmen Andeme Ela

INVESTIGATION OF THE STABILITY OF LIQUID AND AIR FILMS BY SYNCHRONIZED TRI-WAVELENGTH REFLECTION INTERFEROMETRY MICROSCOPE , Yuesheng Gao

LIPEMIA LEVELS ANALYSIS FROM HUMAN BLOOD SAMPLES , Zainab Ibrahim Alshoug

ROLE OF FLOCCULATION AND DISPERSION IN PELLETIZATION OF IRON ORE , Victor J. Claremboux

SYSTEMS ANALYSIS FOR SUSTAINABILITY ASSESSMENT OF BIOGAS AND BIO-CH4 PRODUCTION FROM FOOD WASTE AND DAIRY MANURE MIXTURES IN THE US , Sharath Kumar Ankathi

TECHNO-ECONOMIC AND LIFE CYCLE ASSESSMENT OF INNOVATIVE ROUTES TO CHEMICAL PRODUCTS , Kaled Bentaher

TOWARDS EFFICIENT WATER TREATMENT: MECHANISM OF COLLOIDAL FOULING OF ULTRAFILTRATION MEMBRANES , Ikenna Henry Ozofor

VIRUS-LIKE PARTICLE VACCINE MANUFACTURING FROM YEAST , Ananya Ananya

Virus Purification Framework And Enhancement In Aqueous Two-Phase System , Pratik Umesh Joshi

Theses/Dissertations/Reports from 2019 2019

DEPHOSPHORIZATION OF GOETHITE ORE , Long Zhang

EXPLORING THE ROLE AND IMPACT OF MICROSCALE PHENOMENA ON ELECTRODE, MICRODEVICE, AND CELLULAR FUNCTION , Sanaz Habibi

TOWARDS SUSTAINABLE PRODUCTION OF CHEMICALS AND FUELS FROM THE FAST PYROLYSIS OF WASTE POLYOLEFIN PLASTICS , Ulises Gracida Alvarez

Theses/Dissertations/Reports from 2018 2018

EFFECTS OF CO-PRODUCT USES ON ENVIRONMENTAL AND ECONOMIC SUSTAINABILITY OF HYDROCARBON BIOFUEL FROM ONE- AND TWO-STEP PYROLYSIS OF POPLAR , Daniel G. Kulas

ENVIRONMENTAL SUSTAINABILITY ASSESSMENT OF LIQUID TRANSPORTATION BIOFUELS DERIVED FROM ALGAE AND OILSEED , Chuying Shi

INVESTIGATION OF MECHANICAL, ELECTRICAL, AND THERMAL PROPERTIES OF PARTICULATE/FIBER/POLYMER COMPOSITES , Julie Tomasi

REGENERATION OF ALKALI LEACHING SOLUTION THROUGH PHOSPHATE PRECIPITATION USING CALCIUM HYDROXIDE , Rick Machiela

REVERSE INSULATOR DIELECTROPHORESIS: UTILIZING DROPLET MICROENVIRONMENTS FOR DISCERNING MOLECULAR EXPRESSIONS ON CELL SURFACES , Jeana Collins

TENSILE, THERMAL AND ELECTRICAL CONDUCTIVITY PROPERTIES OF EPOXY COMPOSITES CONTAINING CARBON BLACK AND GRAPHENE NANOPLATELETS , Aaron Krieg

Theses/Dissertations/Reports from 2017 2017

Advances in Alternative Binders for Iron Ore Pellets , Jacob McDonald

Catalytic Hydrotreatment for the Development of Renewable Transportation Fuels , LiLu Funkenbusch

Controlling Properties of Agglomerates for Chemical Processes , Joseph A. Halt

Electrospinning Novel Aligned Polymer Fiber Structures for Use in Neural Tissue Engineering , Rachel Martin

REDUCTION OF SILICA FROM HEMATITE ORE CONCENTRATE PELLETS BY SUPPLEMENTING BENTONITE CLAY WITH STARCH , Jacob McDonald

Simulation of Two-Stage Anaerobic Digestion Using Extended ADM1 Model , Pranathi Gangavarapu

SURFACE ENABLED LAB-ON-A-CHIP (LOC) DEVICE FOR PROTEIN DETECTION AND SEPARATION , Zhichao Wang

TECHNO-ECONOMIC AND LIFE CYCLE ASSESSMENTS OF BIOFUEL PRODUCTION FROM WOODY BIOMASS THROUGH TORREFACTION-FAST PYROLYSIS AND CATALYTIC UPGRADING , Olumide Winjobi

Theses/Dissertations/Reports from 2016 2016

EFFECTIVE NON-VIRAL GENE DELIVERY TO MESENCHYMAL STEM CELLS USING CALCIUM ALGINATE NANOPARTICLES , Nastaran Alinezhadbalalami

ENGINEERING ANTIPHAGOCYTIC AND TARGETING THERAPEUTIC CARRIERS FOR CANCER TREATMENT , Nasrin Salehi

EXPERIMENTAL AND THEORETICAL INVESTIGATION OF SUSTAINABLE FAST PYROLYSIS BIOFUELS FROM WOODY BIOMASS , Bethany Jean Klemetsrud

LIFE CYCLE ASSESSMENTS OF ADVANCED BIOFUELS PRODUCED FROM RAPESEED GROWN IN ROTATION WITH WINTER WHEAT AND FAST PYROLYSIS OF TORREFIED RICE STRAW , Suchada Ukaew

PURIFICATION AND RECOVERY OF INFECTIOUS VIRUS PARTICLES USING OSMOLYTE FLOCCULATION , Ashish Saksule

RAPID NUTRITIONAL ANALYSIS FROM INFANT TEARS , Maryam Khaksari

Reports/Theses/Dissertations from 2015 2015

ELECTROCHEMICAL PROCESSES IN MICROFLUIDICS SYSTEMS UNDER AC ELECTRIC FIELDS , Ran An

MECHANICAL PROPERTIES OF GRAPHENE NANOPLATELET/EPOXY COMPOSITES , Danielle René Klimek-McDonald

MECHANISTIC MODELS ON ENZYMATIC HYDROLYSIS AND ANAEROBIC DIGESTION , Yang Zhang

THE DISPERSION AND SELECTIVE FLOCCULATION OF HEMATITE ORE , Howard James Haselhuhn III

Reports/Theses/Dissertations from 2014 2014

ALTERNATING CURRENT DIELECTROPHORESIS OF CORE-SHELL NANOPARTICLES: EXPERIMENTS AND COMPARISON WITH THEORY , Chungja Yang

ASTAXANTHIN PRODUCTION FROM HAEMATOCOCCUS PLUVIALIS UNDER VARIOUS LIGHT INTENSITIES AND CARBON DIOXIDE CONCENTRATIONS , Ornella Nkurunziza

CHARACTERIZING AND IMPROVING PRODUCTION OF FERMENTABLE SUGARS AND CO-PRODUCTS FROM A FOREST PRODUCT INDUSTRY WASTEWATER STREAM , Jifei Liu

COMPUTATIONAL MODELING OF MICROBIAL BIOFILM AND GLYCEROL FUEL CELL USING COMSOL , Xiaotong Han

DESIGN AND SYNTHESIS OF MULTIFUNCTIONAL POLYMERIC MICELLES FOR GENE-DIRECTED ENZYME PRODRUG THERAPY , Alicia J. Sawdon

DEVELOPMENT OF A THREE-DIMENSIONAL GRAPHENE ELECTRODE DIELECTROPHORETIC DEVICE , Hongyu Xie

DYNAMICS AND CONTROL OF REACTIVE DISTILLATION PROCESS FOR MONOMER SYNTHESIS OF POLYCARBONATE PLANTS , Mathkar Alawi A Alharthi

ELECTROCATALYTIC PROCESSING OF RENEWABLE BIOMASS-DERIVED COMPOUNDS FOR PRODUCTION OF CHEMICALS, FUELS AND ELECTRICITY , Le Xin

Enzyme Optimization for Lignocellulose Hydrolysis using Mechanistic Modeling , Adam S. Marlowe

FACTORS INFLUENCING MATERIAL LOSS DURING IRON ORE PELLET HANDLING , Joseph A. Halt

FUNCTIONALIZATION OF CARBON NANOTUBES FOR MESENCHYMAL STEM CELL-ASSISTED PHOTOTHERMAL THERAPY , Ethan J. Weydemeyer

INVESTIGATION OF AIR JIGGING AND AIR CLASSIFICATION TO RECOVER METALLIC PARTICLES FROM ANALYTICAL SAMPLES , Hrishikesh Vilas Shinde

LIFE CYCLE ASSESSMENTS (LCAs) OF PYROLYSIS-BASED GASOLINE AND DIESEL FROM DIFFERENT REGIONAL FEEDSTOCKS: CORN STOVER, SWITCHGRASS, SUGAR CANE BAGASSE, WASTE WOOD, GUINEA GRASS, ALGAE, AND ALBIZIA , Matthew J. Mihalek

NEW MICROFLUIDIC SYSTEM TO INCREASE ROBUSTNESS OF ELECTRODE PERFORMANCE AND DEVELOP POINT-OF-CARE HEMATOCRIT DEVICE , Hwi Yong Lee

PURIFICATION AND EFFECTIVENESS OF VACCINES AND ANTIVIRAL COMPOUNDS , Maria F. Gencoglu

Sustainable Iron Making Processes , Urvashi Srivastava

UTILIZING DIELECTROPHORESIS TO DETERMINE THE PHYSIOLOGICAL DIFFERENCES OF EUKARYOTIC CELLS , Tayloria Nicole Gail Adams

Virus purification, detection and removal , Khrupa Saagar Vijayaragavan

Reports/Theses/Dissertations from 2013 2013

A Novel Approach to Carbon Dioxide Capture and Storage , Brett P. Spigarelli

BENEFICIATION OF HIGH-MgO SEDIMENTARY PHOSPHATE ORES , Justin T. Carlson

COMPUTATIONAL PREDICTION OF THE SPORULATION NETWORK IN CLOSTRIDIUM THERMOCELLUM , Changyi Jiang

Electrospun Quaternized Chitosan Fibers for Virus Removal from Drinking Water , Xue Mi

Induction of Microalgal Lipids for Biodiesel Production in Tandem with Sequestration of High Carbon Dioxide Concentration , Wilbel J. Brewer

LIFE CYCLE ASSESSMENT OF BIOFUEL PRODUCED FROM ALGAE , Rui Shi

Production of Recombinant Trichoderma Reesei Endoglucanase Protein CEL7B by Using Kluyveromyces Lactis , Zainab Ibrahim Alshoug

Selective Mercury Sequestration from a Silver/Mercury Cyanide Solution , Kristen L. Gabby

SURFACTANT-OIL INTERACTIONS: FOAMING & TOXICITY , Shubham N. Borole

Sustainable Energy Production in the United States: Life Cycle Assessment of Biofuels and Bioenergy , Jiqing Fan

The Role of Water Chemistry in the Concentration of Hematite Ore , Howard J. Haselhuhn

Reports/Theses/Dissertations from 2012 2012

Advanced Nanostructured Electro-Catalysts for Electricity Generation and Biorenewable Alcohol Conversion , Zhiyong Zhang

ALTERNATING CURRENT DIELECTROPHORETIC MANIPULATION OF ERYTHROCYTES IN MEDICAL MICRODEVICE TECHNOLOGY , Kaela M. Leonard

Approach to carbon dioxide capture and storage at ambient conditions , Brett P. Spigarelli

Biochemical Conversions of Lignocellulosic Biomass for Sustainable Fuel-Ethanol Production in the Upper Midwest , Michael James Brodeur-Campbell

Control of recycle processes using neural networks combined with PID controller , Zhihao Li

EFFECTS OF ION LIMITING CONDITIONS ON THE BEHAVIOR OF MICROFLUIDIC DEVICES , Aytug Gencoglu

Electrospun chitosan nanofibers for virus removal , Bingyu Bai

Investigation into the enhancement of polycarbonate with conductive nanomaterials , Michael D. Via Jr.

Life cycle assessment of biofuels produced by the new integrated hydropyrolysis-hydroconversion (IH 2 ) process , Edwin Maleche

SYNTHESIS, CHARACTERIZATION AND ELECTROCHEMICAL APPLICATIONS OF NANOSTRUCTURED NON-PRECIOUS METAL CATALYSTS , Zhichao Wang

Synthesis of PDMS-metal oxide hybrid nanocomposites using an in situ sol-gel route , Qiaoyu Lu

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Chemical Engineering : Theses and Dissertations

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About Theses and Dissertations

A dissertation or thesis is a document submitted in support of candidature for a degree or professional qualification presenting the author's research and findings.  (International Standard ISO 7144: Documentation — Presentation of theses and similar documents ).

For most universities in the U.S., dissertation is the term for the required submission for the PhD, and thesis refers only to the master's degree requirement.

Carnegie Mellon University

Carnegie Mellon theses are now ONLINE and can be searched through the ProQuest database Dissertations & Theses @ Carnegie Mellon University that enables access to citations and abstracts of all dissertations and theses, as well as the full text in PDF format.  Scroll down and select Dissertations & Theses, then do a regular search. Print versions are also available in the libraries' collection.

PRIMO ,  the Carnegie Mellon Library catalog, uses the term THESIS to denote both masters' theses and dissertations.  However, the number of master's theses is limited.  Within the libraries, theses are located in designated areas and are shelved in alphabetical order by the author's last name.  The catalog treats theses and dissertations like books, and they can be borrowed as such. Theses may be in print, microfiche, or microform.

  • In catalog use the Advanced Search :  search by author, title, or keyword limiting to type THESIS.
  • For a list of theses from a specific department, use Advanced Search to combine a keyword search for the name of the department with location THESES.  E.g., search for "Dept. of Computer Science" with THESES as the location.
  • For a complete list of theses at Carnegie Mellon, use Advanced Search to search Carnegie Mellon University Dissertations in the Subject line.  

Other Universities

T he best source to find theses is ProQuest Dissertations & Thesis Global .  Policies regarding theses and dissertation collections largely vary between universities.  So check the library website of the university of interest.

Other Countries

Center for Research Libraries:  Foreign Doctoral Dissertations CRL has more than 800,000 cataloged foreign doctoral dissertations from more than 90 countries and over 1200 institutions.

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Honors Thesis Guidelines

This document is intended for honors students in chemical engineering, their honors advisers, and their thesis advisers. It presents guidelines and suggestions for finding a thesis adviser, selecting a project, pursuing research, and writing the thesis. This document is intended to supplement the more general policies and information available from the Schreyer Honors College.

  • Information from Schreyer Honors College

The Schreyer Honors College (SHC) website describes the honors thesis and offers advice about how to choose a topic, find an adviser, and plan a timeline from project idea to finished thesis. There you can find:

  • Advice about planning the thesis project
  • Thesis deadline dates
  • Honors thesis format
  • Thesis submission procedures
  • Archived honors theses

An SHC undergraduate has an “honors adviser” and a “thesis adviser.” The honors adviser is a faculty member in the student's major department, who has been approved as an honors adviser by the department and SHC. The honors adviser is responsible for advising the student generally, and monitoring student progress on the thesis.  The thesis adviser is a tenure-stream, full-time faculty member who mentors the student in research. The thesis adviser is primarily responsible for ensuring that the student progresses in research, and for the quality of the thesis. Typically, the thesis adviser is a faculty member in chemical engineering. If the honors adviser and the thesis adviser are the same person, the student and adviser must find an additional faculty member to serve as “second reader” (see SHC website for details).

It is possible (but less common) for a student to do research and write an honors thesis in a department other than his or her major department. In such a case, the diploma reads “B.S. in chemical engineering, with honors in <honors department>.” It is also possible for a student to graduate with honors in chemical engineering, with a thesis adviser from a related department (e.g., chemistry, physics, materials science). In such a case, the student must also have a thesis co-adviser in chemical engineering, typically a collaborator or colleague of the thesis adviser. Students interested in either of these options should consult their ChE honors adviser for further guidance.

  • Finding a Thesis Adviser

The first task for an honors student beginning research is to find an appropriate thesis adviser. Our department has many research-active faculty who regularly mentor honors undergraduates, covering a wide range of research areas. Students should also bear in mind that faculty may differ considerably in their approach to undergraduate honors research. To identify which faculty members might be a good match, students should:

  • Discuss their interests with their honors adviser or with faculty they know from the classroom who can suggest various colleagues whose research may interest them.
  • Read the research webpages of potential thesis advisers to learn about their research. Read some recent publications from the research group. Bear in mind that research papers were not written with an undergraduate reader in mind! Aim to grasp the motivation, main ideas, and conclusions of the work.
  • Meet with potential thesis advisers to discuss possible projects. A good adviser should be able to clearly explain the proposed project, why it is interesting and important, and how it fits into the group’s research.
  • Meet with graduate students and other undergraduates in the research group of a potential thesis adviser to get a sense of the group interests and atmosphere. One indication of a dynamic group is energetic and talented students who can explain their work and how it fits into the overall group research.
  • Research Project

At the same time as a student is identifying a thesis adviser, the student and potential adviser are discussing and selecting a research project. For undergraduate research, formulating an appropriate research project is predominately the responsibility of the thesis adviser. For a research project to be most successful, it should be:

  • Well-defined enough to have a good chance of success. Undergraduate research projects should be at least as well defined as graduate student “warm-up projects”—you know what to try, and how to try it, to answer the question.
  • Within the capabilities of a talented and energetic undergraduate. Our best undergraduates are amazing and can learn many things “on the fly” outside the classroom, but allowances must be made for the time required to “come up to speed.”
  • Related to overall research goals of the group. Research undergraduates thrive if their work connects to that of fellow undergraduates and graduate students, from whom they can learn.
  • Interesting and important enough to be published. While it is not required that work from an honors thesis be published, this is an appropriate standard for the scope of a good honors thesis.
  • Actively mentored by the adviser. Thesis advisers should be actively involved in mentoring research undergraduates, with regular meetings, interim reports, and written expectations each semester. This can be done through CHE 494H (see below).
  • Co-mentored by a graduate student or postdoc. A group member can provide more detailed direct help, is sometimes more “approachable,” and benefits from the mentoring experience.
  • Research Courses

Students exploring research with an adviser but not yet fully engaged in a research project may register for 1-2 hours of CHE 294H (which can count as professional elective). This course is typically taken only by first-year students or sophomores.

Students pursuing honors research in chemical engineering should take CHE 494H (honors thesis research). SHC students can take six hours of CHE 494H for credit in the major (three hours can count as CH E elective, three as professional elective). CHE 494H serves several functions. The chemical engineering major is very demanding; during the semester, a student’s commitment to research is often in conflict with the urgency of homework, projects, and exams. Registering for CHE 494H is a commitment to spend time on research equivalent to a technical course of comparable credit hours.

Grading of CHE 494H provides a mechanism to evaluate student progress in research and towards the thesis. Honors students should sign up for at least one semester of CHE 494H so that thesis work can be graded. A grade of B or better in CHE 494H courses is required by SHC for graduation with honors.

Grades in CHE 494H should be based on a written statement of expectations, agreed upon by the student and thesis adviser at the beginning of the semester. The statement of expectations may contain:

  • Overall goals for the semester. Possible goals include experiments, calculations, simulations, modeling, or data analysis to be performed; techniques to be learned; literature search to be carried out; or draft of chapters or paper to be written.
  • Schedule of meeting times. Regular meetings of students, thesis advisers, and co-mentors help to keep everyone apprised of progress, and allow for frequent feedback.
  • Interim “milestones.” Brief written progress reports at regular intervals with figures indicating new results are a good way to document student progress, and to provide material on which an overall grade can be assigned.
  • Required resources. Research students may need access to experimental resources (hoods, bench space, lab instruments, time on central facilities) or computing resources (workstations, cluster queues).

SHC describes the thesis as “a scholarly piece of writing in which the writer is expected to show a command of the relevant scholarship in his (or her) field and contribute to the scholarship. It should confront a question that is unresolved and push towards a resolution.”

In chemical engineering, this means: the thesis describes the student’s original work in experiment, design, theory, simulation, or modeling, applied to a research problem of current interest in chemical engineering. The thesis includes a discussion of the motivation for the work and the state of knowledge of the research community.

At a minimum, the scope of thesis research should be equivalent to a significant contribution to one or more published papers. This implies a standard of originality: in engineering and science departments, a thesis cannot simply be a literature review—the thesis must include original work.

For students applying to graduate school, publishable research is a mark of distinction above and beyond completing an honors thesis. Ideally, a first-author paper should be published from the completed thesis. In such cases, a paper can first be prepared for submission, and then modified to conform to the thesis style and content. Thesis chapters may then correspond to the Introduction, Background, Methods, Results, and Discussion sections of a typical journal article.

Honors theses vary considerably in length. As a rough guideline, theses may be as short as 25 pages of text and figures, or may extend to as many as 100 pages, depending on the substance and scope of results obtained. In short, the thesis needs to be long enough to describe the background, methods, and results at the level of detail of a published paper.

Theses should be written in a scholarly manner, with end notes to cite published work to which the thesis refers. Writing should be consistent with the style of journal articles. Penn State theses must conform to a prescribed format; details are provided online at Thesis Formatting Guide . For students working in LaTeX, style files are available online at this site.

Penn State honors theses are archived and can be searched electronically and downloaded. To find relevant examples of honors theses, navigate to Electronic Theses for SHC and search on “chemical engineering.” A particularly substantial recent example is that of Michael Howard (student marshal for Chemical Engineering in 2013), from which three first-author papers were published.

Doing the research for a good honors thesis takes a long time. Entering students with considerable AP or other credits may be advanced in their coursework so that they can begin research in their freshman year. Entering students less far along often start research as sophomores. Starting research as a junior is relatively late, but can be successful if the project is well defined and manageable.

A good time to begin undergraduate research is the summer. In the summer, students can focus on getting going with research without the competition of coursework and extracurricular activities. By the end of a summer, a student can be well acquainted with the project and methods, and possibly have useful preliminary results, so that work can continue during subsequent semesters. There are a number of mechanisms to provide summer support for undergraduate researchers. Students interested in summer research should discuss funding options with their research adviser.

Progress reports accumulate materials for the thesis. Regular progress reports—in which results of experiments, calculations, simulations, or literature searchers are summarized along with relevant figures and tables—provide the raw materials from which the thesis can be written.

Writing a good honors thesis also takes a long time after research results are obtained. The submission deadline for honors theses for graduating seniors is mid-April. A good goal is to complete the final draft several weeks before the deadline. Inevitably, as writing commences, new issues arise that suggest additional measurements, calculations, or literature searches. For least panic and best results, the student should be focused on writing—not getting new results—starting in the fall of the senior year.

  • Proposal, Submission, and Approval

By the end of the junior year (assuming a four-year path to graduation), students must file a Thesis Proposal with SHC via the online Student Records System.

SHC procedures for submission of the completed thesis are given online at Thesis Submission Guide .

Within the chemical engineering department, the honors thesis must be approved by both the honors adviser and the thesis adviser, who sign the completed thesis prior to submission.

Both advisers should ensure that the thesis meets the standard for an acceptable honors thesis, described above (see “Thesis”). The thesis adviser is primarily responsible for ensuring the quality of the thesis. Reading the thesis is not the time to discover that it is marginal or unacceptable—regular meetings, progress reports, and grades for CHE 494H allow ample opportunities for assessing student progress.

The department encourages thesis advisers to arrange for an honors thesis defense, in which the graduating student presents a talk based on his work to the research group and other interested members of the department. Thesis defenses highlight the accomplishments of our SHC undergraduates and the significance of their research.

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Written Thesis Proposal

Introduction

The goal of this article is to help you to streamline your writing process and help convey your ideas in a concise, coherent, and clear way. The purpose of your proposal is to introduce, motivate, and justify the need for your research contributions. You want to communicate to your audience what your research will do ( vision ), why it is needed ( motivation ), how you will do it ( feasibility ).

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Before you start writing your proposal

A thesis proposal is different than most documents you have written. In a journal article, your narrative can be post-constructed based on your final data, whereas in a thesis proposal, you are envisioning a scientific story and anticipating your impact and results. Because of this, it requires a different approach to unravel your narration. Before you begin your actual writing process, it is a good idea to have (a) a perspective of the background and significance of your research, (b) a set of aims that you want to explore, and (c) a plan to approach your aims. However, the formation of your thesis proposal is often a nonlinear process. Going back and forth to revise your ideas and plans is not uncommon. In fact, this is a segue to approaching your very own thesis proposal, although a lot of time it feels quite the opposite.

Refer to “Where do I begin” article when in doubt. If you have a vague or little idea of the purpose and motivation of your work, one way is to remind yourself the aspects of the project that got you excited initially. You could refer to the “Where do I begin?” article to explore other ways of identifying the significance of your project.

Begin with an outline. It might be daunting to think about finishing a complete and coherent thesis proposal. Alternatively, if you choose to start with an outline first, you are going to have a stronger strategic perspective of the structure and content of your thesis proposal. An outline can serve as the skeleton of your proposal, where you can express the vision of your work, goals that you set for yourself to accomplish your thesis, your current status, and your future plan to explore the rest. If you don’t like the idea of an outline, you could remind yourself what strategy worked best for you in the past and adapt it to fit your needs.

Structure Diagram

Structure Diagram

Structure your thesis proposal

While some variation is acceptable, don’t stray too far from the following structure (supported by the Graduate Student Handbook). See also the Structure Diagram above.

  • Cover Page. The cover page contains any relevant contact information for the committee and your project title. Try to make it look clean and professional.
  • Specific Aims . The specific aims are the overview of the problem(s) that you plan to solve. Consider this as your one-minute elevator pitch on your vision for your research. It should succinctly (< 1 page) state your vision (the What), emphasize the purpose of your work (the Why), and provide a high-level summary of your research plans (the How).
  • You don’t need to review everything! The point of the background is not to educate your audience, but rather to provide them with the tools needed to understand your proposal. A common pitfall is to explain all the research that you did to understand your topic and to demonstrate that you really know your information. Instead, provide enough evidence to show that you have done your reading. Cut out extraneous information. Be succinct.
  • Start by motivating your project. Your background begins by addressing the motivation for your project. If you are having a hard time brainstorming the beginning of your background, try to organize your thoughts by writing down a list of bullet points about your research visions and the gap between current literature and your vision. They do not need to be in any order as they only serve to your needs. If you are unsure of how to motivate your audience, you can refer to the introductions of the key literatures where your proposal is based on, and see how your proposal fits in or extends their envisioned pictures. Another exercise to consider is to imagine: “What might happen if your work is successful?”  This will motivate your audience to understand your intent. Specifically, detailed contributions to help advance your field more manageable to undertake than vague high-level outcomes. For example, “Development of the proposed model will enable high-fidelity simulation of shear-induced crystallization” is a more specific and convincing motivation, compared to, “The field of crystallization modeling must be revolutionized in order to move forward.”

Hourglass Model

  • Break down aims into tractable goals. The goal of your research plan is to explain your plans to approach the problem that you have identified. Here, you are extending your specific aims into a set of actionable plans. You can break down your aims into smaller, more tractable goals whose union can answer the lager scientific question you proposed. These smaller aims, or sub-aims, can appear in the form of individual sub-sections under each of your research aims.
  • Reiterate your motivations. While you have already explained the purpose of your work in previous sections, it is still a good practice to reiterate them in the context of each sub-aim that you are proposing. This will inform your audience the motivation of each sub-aim and help them stay engaged.
  • Describe a timely, actionable plan. Sometimes you might be tempted to write down every area that needs improvement. It is great to identify them; at the same time, you also need to decide on what set of tasks can you complete timely to make a measurable impact during your PhD. A timely plan now can save a lot of work a few years down the road.  Plan some specific reflection points when you’ll revisit the scope of your project and evaluate if changes are needed.  Some pre-determined “off-ramps” and “retooling” ideas will be very helpful as well, e.g., “Development of the model will rely on the experimental data of Reynold’s, however, modifications of existing correlations based on the validated data of von Karman can be useful as well.”
  • Point your data to your plans. The preliminary data you have, data that others in your lab have collected, or even literature data can serve as initial steps you have taken. Your committee should not judge you based on how much or how perfect your data is. More important is to relate how your data have informed you to decide on your plans. Decide upon what data to include and point them towards your future plans.
  • Name your backup plans. Make sure to consider back-up plans if everything doesn’t go as planned, because often it won’t. Try to consider which part of your plans are likely to fail and its consequence on the project trajectory. In addition, think about what alternative plans you can consider to “retune” your project. It is unlikely to predict exactly what hurdles you will encounter; however, thinking about alternatives early on will help you feel much better when you do.
  • Safety. Provide a description of any relevant safety concerns with your project and how you will address them. This can include general and project-specific lab safety, PPE, and even workspace ergonomics and staying physical healthy if you are spending long days sitting at a desk or bending your back for a long time at your experimental workbench.
  • Create the details of your timeline. The timeline can be broken down in the units of semester. Think about your plans to distribute your time in each sub-aims, and balance your research with classes, TA, and practice school. A common way to construct a timeline is called the Gantt Chart. There are templates that are available online where you can tailor them to fit your needs.
  • References. This is a standard section listing references in the appropriate format, such as ACS format. The reference tool management software (e.g., Zotero, Endnote, Mendeley) that you are using should have prebuilt templates to convert any document you are citing to styles like ACS. If you do not already have a software tool, now is a good time to start.

Authentic, annotated, examples (AAEs)

These thesis proposals enabled the authors to successfully pass the qualifying exam during the 2017-2018 academic year.

Resources and Annotated Examples

Thesis proposal example 1, thesis proposal example 2.

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A standardized approach to electrochemical system design and optimization, microporous polymer–metal organic framework (mof) hybrid materials for separations, brownian dynamics simulation of soft matter with hydrodynamics: methods for constrained systems and shear processing of 2d materials, discovering non-equilibrium mechanisms that regulate structure and function of biomolecular condensates using phase-field modeling, layer-by-layer nanoparticles for cytokine delivery, molecular, genetic, and process approaches for improving secreted pharmaceutical protein quality in komagataella phaffii, automatic generation of chemical kinetic models for biofuel oxidation and pyrolysis, degradation mechanisms and applications in ion intercalation materials, automatic generation of chemical kinetic models including macromolecules in multiphase systems, carbon nanotube based biosensors using corona phase molecular recognition (cophmore): development and applications.

Thesis Proposal Exam

The Thesis Proposal Examination consists of the preparation of a written research proposal (15 pages maximum) and an oral presentation and defense of the same before a faculty committee. The purpose of the examination is to judge the student’s apparent ability to plan and conduct high-quality, PhD-level research in chemical engineering. The topic, magnitude and significance of the proposed research should be suitable for the ensuing doctoral program.

There are no restrictions on candidate/advisor consultations, but the extent of these interactions must be disclosed to the examining committee and the graduate office.

The examination will be taken no later than May 31 in the year after passing the Doctoral Candidacy Exam (DCE). For most students, this thesis proposal exam will be taken during their second year in the graduate program. Failure to take the thesis proposal exam in a timely fashion, absent approval of a petition to the faculty for special consideration, constitutes a lack of satisfactory progress toward the PhD degree and constitutes grounds for removal from the PhD program.

The examination date must be chosen in consultation with the candidate’s advisor and the other committee members at least three (3) weeks in advance of the proposed examination date. After scheduling the exam, the candidate informs the graduate program office by completing and submitting the  Request for Thesis Proposal Examination Form (PDF).

A one-page  Project Summary  (PDF)for the written research proposal must be submitted with the Written Proposal. The Written Proposal and Project Summary must be distributed to the Graduate Program Office and the committee members at least one week in advance of the scheduled examination date.

A reminder of the various due dates will be sent to the student and committee after the examination is scheduled.

Examining Committee

The Thesis Proposal Examination Committee consists of at least three faculty members from chemical engineering (including the proposed Dissertation Committee Chair(s)) and at least one cognate faculty member from outside the Chemical Engineering Department. Most students use the Thesis Proposal Exam Committee members as their Dissertation Committee members as well.

The examination consists of the preparation of a written research proposal and an oral presentation and defense of the same before the Thesis Proposal Examination Committee. At the oral examination, the candidate will present a 20-30 minute summary of the research proposal and subsequently be asked questions on the proposal and related matters. The total time for the examination is typically 60–90 minutes. The committee may be expected to pose any question relating to the substance and background of the proposed research and the applicant’s preparation for conducting the research.

Immediately before the oral examination, the advisor shall inform the other committee members of the extent of the collaboration with the candidate and also give an impression of the candidate’s performance in research already conducted.

In evaluating the thesis proposal examination, the primary criterion will be the applicant’s apparent ability to plan and conduct high-quality, PhD-level research in chemical engineering, as measured by the scholarly and technical breadth and depth displayed in the examination.

The examining committee will rate the written proposal and oral presentation as Excellent, Very Good, Good, Fair or Poor and provide a few comments to explain the basis for the rating. A rating of Good signifies a proposal and presentation that just meets minimum standards and is the lowest possible passing score. These ratings and comments will be shared with the student and given to the graduate office.

Success on the examination fulfills one of the requirements for the PhD degree. A student who does not pass the thesis proposal exam in their first attempt may take it a second time but no later than October 15. Failing twice to pass the thesis proposal examination is considered sufficient reason to terminate the applicant’s enrollment in the Department’s Doctoral Program.

Thesis Proposal Exam Results Report

Guidelines for Preparing for the Thesis Proposal Examination

  • The applicant should read the  Proposal Writer’s Guide  (Office of Research and Sponsored Projects of The University of Michigan). The discussion of the Introduction, Background and Description of Proposed Research sections will likely be the most useful.
  • The  written proposal (WP)  may be organized in any form that the applicant feels is most appropriate but should include the items listed below. Some suggestions for suitable preparation for the  oral examination (OE)  are also indicated.

Introduction  (including a statement of the problem, purpose and significance of the research).

Background  (including a literature survey and a description of research already performed by the applicant).

WP:  The literature review should be selective and critical.

OE:  The applicant is expected to be intimately familiar with the relevant literature, the opinions of previous workers in the subject, and to be critical of shortcomings in earlier work.

Description of Proposed Research  (including method or approach and expected difficulties). This must constitute about 50% of the text of the written proposal. The Project Description should provide a clear statement of the work to be undertaken and must include: objectives for the period of the proposed work and expected significance; relation to the present state of knowledge in the field and to work in progress at Michigan and elsewhere. The Project Description should outline the general plan of work, including the broad design of activities to be undertaken and, where appropriate, provide a clear description of experimental methods and procedures.

WP:  A specific research program should be put forth (e.g., identify variables to be studied and their levels); the expected research program sequence; decision points expected during the course of the research; the methods of data reduction, evaluation, interpretation and presentation, etc.

OE:  The applicant is expected to display a thorough grasp of the physics, biology, chemistry, mathematics, etc., relevant to the conduct of the theoretical or experimental research program. The methods used by others or proposed to be used should be thoroughly understood.

A  timetable  for conducting and reporting the research: The timetable should be clearly based upon the scope of the work described in the description of the proposed research.

List of references . Each reference must include the names of all authors (in the same sequence in which they appear in the publication), the article and journal title, book title, volume number, page numbers and year of publication.

Curriculum Vitae .

The written research proposal must not be longer than 15 pages of text (including figures, excluding title page, list of references, and CV), of which about 50% must be the description of the proposed research.

Use one of the following typefaces: Arial, Times, Times New Roman, Palatino (if using a Mac), Courier New, Palatino Linotype, Computer Modern family of fonts at a font size of 11 points or larger. A font size of less than 11 points may be used for mathematical formulas or equations, figure, table or diagram captions and when using a Symbol font to insert Greek letters or special characters.

No more than six lines of text within a vertical space of one inch.

Margins, in all directions, must be at least an inch.

While line spacing (single-spaced, double-spaced, etc.) is at the discretion of the proposer, established page limits must be followed.

The  project summary  (pdf) is not more than one page, and it should be a self-contained description of the activity proposed. The summary should include a statement of objectives and methods to be employed. It must clearly address the intellectual merit of the proposed activity. It should be informative to other persons working in the same or related fields and, insofar as possible, understandable to a scientifically or technically literate lay reader. Potential hazards and safety precautions should be identified. The members of the proposed dissertation committee should be included on the Project Summary.

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Chemical Engineering Dissertation Topics

Published by Grace Graffin at January 5th, 2023 , Revised On June 10, 2024

We all know that writing a Chemical Engineering dissertation is a challenging, burdensome, and hefty task because this branch of engineering encompasses a vast array of knowledge from different science subjects such as biology, chemistry, and physics.

Choosing an appropriate and suitable topic for your chemical engineering dissertation can turn out to be tricky since this subject involves several subtopics spanning from the application of thermodynamics to product purification techniques used in various industries such as the pharmaceutical industry and food industry.

As a result, it becomes challenging to put forward a chemical engineering dissertation that meets the required quality standard and scores the desired marks.

To help you get started with brainstorming for chemical engineering topic ideas, we have developed a list of the latest topics that can be used for writing your chemical engineering dissertation.

These topics have been developed by PhD-qualified writers of our team , so you can trust to use these topics for drafting your own dissertation.

You may also want to start your dissertation by requesting  a brief research proposal  from our writers on any of these topics, which includes an  introduction  to the topic,  research question , aim and objectives,  literature review , along with the proposed  methodology  of research to be conducted.  Let us know  if you need any help in getting started.

Check our  dissertation examples to get an idea of  how to structure your dissertation .

Popular Topics For Research On Chemical Engineering

  • What are some ways to improve the productivity of biomass conversion processes in manufacturing biofuels?
  • What are the developments and possible uses of new membrane technologies in desalination and water treatment?
  • How can applying process integration techniques improve the energy efficiency of chemical processes?
  • How can the characterisation and modification of polymer properties be optimised to tailor materials for specific applications?
  • How can we tell if turning renewable energy sources into power from biomass is a good idea?
  • How can we improve the energy-efficient method for separating mixtures of two substances using distillation columns?
  • How to manage ferrofluids’ agglomeration and stability through surface modification and surfactant engineering.
  • What are some effective ways to apply process engineering concepts to biopharmaceutical manufacturing to improve regulatory compliance, product quality, and production efficiency?
  • What are the best ways to improve advanced catalytic processes for the production of renewable fuels?
  • How can the development of novel catalysts be directed towards achieving sustainability in chemical reactions, and what are the key considerations in their design and optimisation?

Chemical Engineering Dissertation Topics To Get You Started

Topic 1: significance of carbon-based nanomaterials in drug delivery and how has the incorporation of carbon-based nanomaterials transformed the uk pharmaceutical sector.

Research Aim: The study aims to focus on the importance of carbon-based nanomaterials in drug delivery and the transformation of the UK pharmaceutical sector with the incorporation of carbon-based nanomaterials

Objectives:

  • To shed light on the concept of carbon-based nanomaterials and their importance in drug delivery
  • To understand the transformation of the UK pharmaceutical sector with the use of carbon-based nanomaterials
  • To recommend solutions in order to mitigate challenges related to the use of carbon-based nanomaterials

Topic 2: An investigation into the different applications and challenges of using a lithium iron phosphate battery in EV, a case study of Tesla

Research Aim: The aim of this research study is to investigate the different applications and challenges of using lithium iron phosphate batteries in EVs. The case study of Tesla is considered.

  • To understand the concept of lithium iron phosphate battery
  • To explore the significance of lithium iron phosphate batteries in electric vehicles
  • To examine the different benefits of using lithium iron phosphate batteries in Tesla
  • To analyse the different challenges of using a lithium iron phosphate battery in Tesla

Topic 3: How is the UK manufacturing industry getting smart with the integration of nanomaterials?

Research Aim: The research aim focuses on integrating nanomaterials in the UK manufacturing sector and thus making it smart.

  • To analyse the concept of nanomaterials
  • To explore the importance of nanomaterials in consumer products
  • To shed light on how the UK manufacturing sector is becoming smart with the use of nanomaterials

Topic 4: An examination of different technologies adopted in the UK chemical sector to treat industrial waste water.

Research Aim: The research aims to explain different technologies adopted in the UK chemical sector to treat industrial waste water.

  • To understand different sources of industrial waste that lead to water pollution
  • To analyse the current scenario of water pollution by the UK chemical sector and the laws formed to regulate this pollution
  • To examine different technologies used by the UK chemical sector to minimise water pollution and treat industrial waste water

Topic 5: Exploring the benefits and challenges of incorporating thermophotovoltaics in UK residential areas.

Research Aim: The aim of the study is to evaluate the benefits and challenges of incorporating thermophotovoltaics in UK residential areas.

  • To understand the current state of electricity consumption in UK residential areas
  • To discuss the concept of thermophotovoltaics and explore the benefits of using this device in UK residential areas
  • To determine the challenges of using this device in UK residential areas

Trending C hemical Engineering Research Topics

Topic 1: improving supercapacitors: designing conformal nanoporous polyaniline..

Research Aim: This research aims to engineer conformal nanoporous polyaniline through the process of oxidative chemical vapour deposition and to note its potential use in the improvement of supercapacitors. The study will look into the various advantages of the oxidative chemical vapour process in the formation and integration of conducting polymers over the conventional solution-based methods. It will also address and look into the potential use of the nanoporous polyaniline in increasing a supercapacitor’s energy storage ability and power density.

Topic 2: Complete Engineering of Metal-Free Carbon-Based Electrocatalysts.

Research Aim: The focus of this research is to both electronically and structurally engineer a Carbon-based and metal-free electrocatalyst that can be employed in the splitting of water. Such electrocatalysts will be able to substitute the conventional catalyst used, Platinum, for this process. We will observe if it proves to be a cheaper material that offers clean and sustainable energy conversion reactions. In this attempt, the study will also electronically and structurally construct a Carbon-based electrocatalyst to improve its catalytic performance in any reaction it is used in.

Topic 3: Heterostructure Engineering of BiOBrxI1-x/BiOBr for efficient Molecular Oxygen Activation and Organic Pollutant Degradation.

Research Aim: This research will look into the formation of a heterojunction structure of BiOBrxI1-x/BiOBr into a photocatalyst. This photocatalyst will have the ability to degrade some organic pollutants and oilfield wastes in an ideal and efficient manner to reduce pollution and release air pollutants. This will further provoke the idea of enhanced molecular oxygen activation capacity of bismuth oxyhalide photocatalysts for the same reason.

Topic 4: The Control of Key Bio functions by The Chemical Synthesis of Glycosaminoglycan-mimetic Polymer.

Research Aim: The research will look at the different advantages of chemically synthesising glycosaminoglycan-mimetic polymer over naturally occurring glycosaminoglycan. The study will also highlight the critical importance of this synthetic polymer over its naturally occurring counterpart in the controlling of essential bio functions in an organism.

Topic 5: The Catalytic Applications of Chemically Designed Palladium-Based Nanoarchitectures.

Research Aim: This research will look into the future development of chemically designed Palladium based catalysts. The study will also be looking into their various applications. This research will also discuss the use of the different types of palladium-based nano architectures, which include alloys, intermetallic compounds, etc., against the limitations of pure palladium in the reactions it is used in.

Topic 6: To Achieve an Efficiency of That Over 15% in Organic Photovoltaic Cells.

Research Aim: This research will focus on achieving an efficiency of 15% or more in an organic photovoltaic cell using a copolymer design. This is because ternary blending and copolymerisation strategies have been noted to boost photovoltaic performance in photovoltaic organic solar cells by a certain degree. It will also discuss the applications of this enhanced photovoltaic cell in practical production and use soon.

Topic 7: To Achieve Efficient Hydrogen Production Through Chemically Activated Molybdenum Disulphide (MoS2).

Research Aim: This research will look into the application of Molybdenum disulfide as a promising catalyst for the process called the Hydrogen Evolution Reaction (HER). We will discuss the two-dimensional layered structure of MoS2 and why it is a suitable replacement for the already used catalyst Platinum (Pt). The research will also explain the formation of this catalyst (MoS2) and how it becomes chemically activated. The paper will also compare and contrast the catalytical abilities of both Pt and the chemically activated Molybdenum disulfide. Related: How you can write a Quality Dissertation

Undergraduate Chemical Dissertation Topics

Topic 1: organic redox and electrolyte development for semi-organic dry cell and flow battery production development..

Research Aim: Electrochemical technology advancement could optimise renewable energy for value-added chemical processing. This research will use organic redox species-rich electrical chemistry to generate new dry cell and flow batteries.

Topic 2: Chemical Engineering and Petroleum Engineering.

Research Aim: This research aims to identify the relationship between Chemical Engineering and Petroleum Engineering.

Topic 3: Influence of Chemicals on Environment

Research Aim: This research aims to measure the influence of Chemicals on Environmental Management

Topic 4: How is industrial chemistry revolutionising?

Research Aim: This research aims to identify how industrial chemistry is revolutionising

Topic 5: Method of Preparing Hydrogen by Using Solar Energy

Research Aim: This research aims to focus on the method of preparing hydrogen by using solar energy

How Can ResearchProspect Help?

ResearchProspect writers can send several custom topic ideas to your email address. Once you have chosen a topic that suits your needs and interests, you can order for our dissertation outline service , which will include a brief introduction to the topic, research questions , literature review , methodology , expected results , and conclusion . The dissertation outline will enable you to review the quality of our work before placing the order for our full dissertation writing service !

Material Production Dissertation Topics

Topic 8: engineering enterprise systems impact on the project design of oxygen scavenging nanoparticles.

Research Aim: The research will analyse how the implementation of an engineering enterprise system influences the design cycle of material production. The study will use material production projects related to oxygen scavenging nanoparticles as the case with which research will be conducted. The study aims to understand how enterprise systems can be implemented in material production to reduce costs and ensure the project is completed on time. The quality of the material is not compromised.

Topic 9: The Efficient Detoxification of Toxic Metals and Dyes Under visible Light Illumination.

Research Aim: This research will discuss the heterojunction of Fe2O3 on BOC (Bismuth carbonate) to increase the efficiency of detoxifying toxic metals and dyes by visible light illumination. It will also explain the effect of Fe2O3 heterojunction on the photocatalytic impact, solar harvesting ability, and enhanced charge carrier ability of BOC.

Topic 10: The Deformation of Geopolymers Based From Metakaolin Through Chemical Procedures.

Research Aim: This research will look into the chemical deformation process individually and the effect of these deformations on the volume stability in binder materials. It will focus on the impact of deformation in metakaolin based geopolymers as they experience three stages of deformation due to chemical procedures.

Topic 11: Improving The Mechanical Properties Of Oil-impregnated Casting Nylon Monomers Through Chemically Functionalised SiO2.

Research Aim: The research will discuss the effect of chemically functionalising SiO2 in an attempt to observe any changes in oil-impregnated monomers of casting nylon. It will explain the changes observed in the casting nylons tensile strength, elastic modulus, notched impact strength, flexural strength, and flexural modulus.

Topic 12: Increasing The Electrocatalytic Effect of 2H-WS2 By Defect Engineering For The Process Of Hydrogen Evolution.

Research Aim: The research will attempt to increase the electrocatalytic effect of 2H-WS2 to increase the active sites found on the compound to achieve an efficient method to evolve hydrogen gas from evolution reactions. The electrocatalyst is evaluated both theoretically and experimentally for better results.

Chemical Engineering Techniques and Processes Dissertation Topics

Topic 13: the control of water kinematics in a water solution of low deuterium concentration..

Research Aim: The research will study the effects of the change in deuterium concentration in water. The study will compare the kinematics of deuterium depleted water, the average concentration of deuterium, and that of hard water (D2O).

Topic 14: To Assess the Temporal Control Photo-Mediated Controlled Radical Polymerisation Reactions.

Research Aim: The research will examine the effect of light control over some photo-mediated polymerisation reactions. It will also observe the changes in the polymer when the light is on and when it is off.

Topic 15: The Influence of Life Cycle Assessment and Eco-design for Green Chemical Engineering.

Research Aim: The research will analyse how the implementation of life cycle assessment (LCA) and eco-design concepts in a chemical engineering company solves design issues from a technical, social, economic, and environmental viewpoint. The research will use empirical data to conduct the study, performing a survey of chemical engineers from various companies throughout the UK.

Topic 16: Using Techniques of Structural Engineering To Design Flexible Lithium-Ion Batteries.

Research Aim: In this research, various techniques of structural engineering are implemented to obtain a flexible lithium-ion battery, which can be used in such electronic devices which can function even in extreme deformations such as flexible displays, flexible tools, and any wearable devices. It will analyse the battery based on the structural design at both component and device levels.

Topic 17: Applying Chemical Looping Technology On Cerium-Iron Mixed Oxides for Production of Hydrogen and Syngas.

Research Aim: This research will prepare impure hydrogen gas by the looping method to generate syngas. At the same time, a mix of cerium and iron oxides is prepared to form oxygen carriers. It will apply different techniques to obtain more efficient methods for the formation of hydrogen gas and CeO2.Fe2O3 to for syngas.

Topic 18: Designing Fracture Resistant Lithium Metal Anodes with Bulk Nanostructured Materials.

Research Aim: The research will attempt to use bulk nanostructured materials on lithium metal anodes to form such anodes with the stress exerted by a passing electrical flow that is equally distributed to avoid fracturing. This method will allow creating fracture-resistant lithium metal anodes in high rate electric cycles with a larger capacity.

Topic 19: To Obtain Efficient Photo-Chemical Splitting of Water by Surface Engineering Of Nanomaterials.

Research Aim: The research discusses the effects of various surface engineering techniques in the process of water splitting. Surface engineering alters the surface layer of the electrolyte in an attempt to add a significant change in the production of hydrogen gas during water splitting. It will also discuss the challenges faced by surface engineering and potential opportunities in applying this method in future uses.

More Dissertation Topics on Chemical Engineering

Topic 20: assessing the competencies of personal skills in chemical engineers..

Research Aim: The research will analyse the impact of chemical engineers’ transferable skills or personal skills using PLS-SEM. The study will examine the variables of communications, teamwork, IT skills, self-learning, numeracy, and problem-solving to understand chemical engineers’ competencies better.

Topic 21: The Impact of Communication Skills on Team-Individual Conflict of Chemical Engineers.

Research Aim: The research will examine, using qualitative methodologies, the impact of technical workshops that focus on speaking and writing on team-individual conflicts of chemical engineers in various UK industries. The research aims to understand how specific communications skills focusing on technical ability affect conflict situations in industrial environments.

Topic 22: Using Social Network Analysis to Assess Management in Chemical Enterprises.

Research Aim: The research uses social network analysis (SNA) to analyse the management systems of chemical enterprises. The data will be collected through a psychometric questionnaire to assess variables of communication, governance, work environment, and other management components. The research aims to comprehend how these variables interact to ensure the appropriate management of chemical enterprises.

Topic 23: The Impact of Process Systems Engineering on Sustainable Chemical Engineering.

Research Aim: The research will analyse the impact of process system engineering (PSE) on achieving sustainable chemical engineering. The study will focus on metrics, product design, process design, and process dynamics to better understand if it aids industries to become more sustainable. The research methodology will be mixed methods based on collecting data from questionnaires and interviews.

Topic 24: To Observe the Effect of Water-Splitting in Acidic Environment By Using Transition-Metal-Doped Rulr Biofunctional Nanocrystals.

Research Aim: This research will use the Ruler alloy as an electrocatalyst due to its bio-functionality and efficiency in oxygen-evolving and hydrogen evolving reactions. These observations will be taken in an acidic environment due to the necessity of developing the proton exchange membrane for producing clean hydrogen fuel.

Topic 25: Using The Mono-Doping and Co-Doping Processes to Obtain Efficient Metal-Free Electrocatalysts From N-Doped Carbon Nanomaterial

Research Aim: This research discusses the recent advancements in producing N-doped carbon electrocatalysts prepared by mono-, co-, and N-doping processes with other heteroatoms. It will also discuss the possibilities of developing a more sustainable electrocatalyst.

Topic 26: Synthesising Ultra-High Surface Area Porous Carbon by The Use Of Fungi- A Literature Review

Research Aim: The research will attempt to use a systematic literature review methodology to organise and discuss the characteristic degradation of fungi to isolate suitable and tailored microstructures which benefit a subsequent amount of carbonisation and chemical activation.

Topic 27: Using Various Biogas and Manure Types To Synthesise A Biogas Supply Network.

Research Aim: This research will attempt to form a supply of biogas to generate electricity over a monthly time period. We will develop a generic mixture of manure and vegetative materials to build a biogas mixture for this purpose. It will then note the amounts of material used for the mix and note the changes to the number of electricity formations if we change the ratio of the original mix.

Topic 28: The Role of Surface Hydroxyls On the Activity And Stability Of Electrochemical Reduction Of Carbon Dioxide.

The research will observe the effect of surface hydroxyls on the electrochemical reduction of carbon dioxide. It will explain why the reduction of carbon dioxide is susceptible to react with the proper amount of surface hydroxyls through hydrogen bonding, which causes self-reduction. Not Sure Which Dissertation Topic to Choose?   Use Our Topic Planning Service  GET A FREE QUOTE NOW Related:   Civil Engineering Dissertation

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Important Notes:

As a chemical engineering student looking to get good grades, it is essential to develop new ideas and experiment with existing chemical engineering theories and processes – i.e., to add value and interest to your research topic.

The field of chemical engineering is vast and interrelated to so many other academic disciplines like  civil engineering ,  construction , engineering , mechanical engineering , and more. That is why it is imperative to create a chemical engineering dissertation topic that is particular, sound, and actually solves a practical problem that may be rampant in the field.

We can’t stress how important it is to develop a logical research topic; it is the basis of your entire research. There are several significant downfalls to getting your topic wrong: your supervisor may not be interested in working on it, the topic has no academic creditability, the research may not make logical sense, and there is a possibility that the study is not viable.

This impacts your time and efforts in  writing your dissertation , as you may end up in a cycle of rejection at the very initial stage of the dissertation. That is why we recommend reviewing existing research to develop a topic, taking advice from your supervisor, and even asking for help in this particular stage of your dissertation.

While developing a research topic, keeping our advice in mind will allow you to pick one of the best chemical engineering dissertation topics that fulfil your requirement of writing a research paper and add to the body of knowledge.

Therefore, it is recommended that when finalising your dissertation topic, you read recently published literature to identify gaps in the research that you may help fill.

Remember- dissertation topics need to be unique, solve an identified problem, be logical, and be practically implemented. Take a look at some of our sample chemical engineering dissertation topics to get an idea for your own dissertation.

How to Structure Your Chemical Engineering Dissertation

A well-structured   dissertation can help students   to achieve a high overall academic grade.

  • A Title Page
  • Acknowledgements
  • Declaration
  • Abstract: A summary of the research completed
  • Table of Contents
  • Introduction : This chapter includes the project rationale, research background, key research aims and objectives, and the research problems. An outline of the structure of a dissertation can also be added to this chapter.
  • Literature Review :  This chapter presents relevant theories and frameworks by analysing published and unpublished literature available on the chosen research topic in light of the research questions to be addressed. The purpose is to highlight and discuss the relative weaknesses and strengths of the selected research area whilst identifying any research gaps. Break down of the topic, and key terms can positively impact your dissertation and your tutor.
  • Methodology: The  data collection  and  analysis methods and techniques employed by the researcher are presented in the Methodology chapter, which usually includes  research design, research philosophy, research limitations, code of conduct, ethical consideration, data collection methods, and  data analysis strategy .
  • Findings and Analysis: Findings of the research are analysed in detail under the Findings and Analysis chapter. All key findings/results are outlined in this chapter without interpreting the data or drawing any conclusions. It can be useful to include  graphs ,  charts, and  tables in this chapter to identify meaningful trends and relationships.
  • Discussion and  Conclusion: The researcher presents his interpretation of the results in this chapter and states whether the research hypothesis has been verified or not. An essential aspect of this section of the paper is to link the results and evidence from the literature. Recommendations with regard to the implications of the findings and directions for the future may also be provided. Finally, a summary of the overall research, along with final judgments, opinions, and comments, must be included in the form of suggestions for improvement.
  • References:  This should be completed in accordance with your University’s requirements
  • Bibliography
  • Appendices: Any additional information, diagrams, and graphs used to complete the  dissertation  but not part of the dissertation should be included in the Appendices chapter. Essentially, the purpose is to expand the information/data.

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Bachelor's-Accelerated Master's Degree Program(s)

The Bachelor’s–Accelerated Master’s (BAM) degree program options offer currently enrolled CU Boulder undergraduate students the opportunity to receive a bachelor’s and master’s degree in a shorter period of time. Students receive the bachelor’s degree first, but begin taking graduate coursework as undergraduates (typically in their senior year). Because some courses are allowed to double count for both the bachelor’s and the master’s degrees, students receive a master’s degree in less time and at a lower cost than if they were to enroll in a stand-alone master’s degree program after completion of their baccalaureate degree. In addition, staying at CU Boulder to pursue a bachelor’s–accelerated master’s program enables students to continue working with their established faculty mentors.

BS in Chemical Engineering or Chemical and Biological Engineering, MS in Chemical Engineering

Admissions requirements.

In order to gain admission to our BAM program, a student must meet the following criteria:

  • Minimum overall GPA of 3.00 is required
  • Have no MAPS deficiencies
  • Have at least junior class standing
  • Completion of the following five CHEN core courses with a minimum grade of B- in each course: CHEN 2120, CHEN 3200, CHEN 3210, CHEN 3320, CHEN 3010

Program Requirements

Master’s degree requirements: A total of 30 course credit hours is required to receive a non-thesis Master’s degree. This includes nine CORE Chemical Engineering course credit hours and the remaining 21 course credits must be department approved technical electives.  ChBE will allow BAM students to include 12 hours of coursework (as an undergraduate and at undergraduate tuition rates) which can later be applied to the accelerated Master’s degree (a maximum of six credit hours of 3000/4000 level electives may count toward the Master’s degree).  Pass/fail courses do not count towards our graduate degrees. Only those courses for which the student receives a grade of ‘B-‘ or better will count toward the MS degree. The student must maintain a 3.00 GPA at all times.

The following CORE course and seminar are required for any Master’s degree plan in Chemical Engineering.

  • CHEN 5210: Transport Phenomena
  • CHEN 5370: Intermediate Chemical Engineering Thermodynamics
  • CHEN 5390: Chemical Reaction Engineering

Applying to the BAM Program

BAM Policies and procedures are found on the Registrar’s website . The following application material must be included in the BAM intent application .

  • The GRE is not required.
  • Provide a resume.
  • Provide an unofficial transcript.
  • Provide a one-page Statement of Purpose. The statement should describes briefly your past work in the field, including non-course educational experiences, teaching, or other relevant employment, publication, theses, research in progress, other scholarly activities, and your plans for graduate study and a professional career.

Applications will not be accepted that do not meet the minimum requirements for admission.

The application deadline for fall admission is February 1. The deadline for spring admission is October 1

Once admitted to the program, the student must maintain an overall GPA of 3.0 and a GPA of 3.0 in all CHEN undergraduate and graduate courses to remain in good academic standing. Students must be enrolled full-time.

Undergraduate students should contact their undergraduate academic advisor to learn more about the BAM program. Students are also welcome to contact ChBE Graduate Program Coordinator ( [email protected] ) to learn more about the master’s program and to determine their eligibility for admission to the BAM program.

More information about BAM programs, policies, and forms may be found on the Registrar's Office web site as well as the Graduate School's web site.

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thesis chemical engineering

Winter receives AIChE 2024 Nanoscale Science and Engineering Forum Award

Jessica Winter and students share a moment in the lab

The American Institute of Chemical Engineers (AIChE) has selected Distinguished Professor of Engineering Jessica Winter  as the winner of the 2024 Nanoscale Science and Engineering Forum Award .

The honor recognizes outstanding contributions to the advancement of nanoscale science and engineering in the field of Chemical Engineering through scholarship, education or service, and will be presented to her at the annual AIChE Annual Meeting. The citation for the award will read “For development and commercialization of magnetic quantum dot reagents for cancer detection and service to the nanotechnology field.”

Winter is a leader in nanobiotechnology with applications to cancer. Her primary research interest is the use of nanoparticles for diagnostics or therapy. She developed the MagDot imaging innovation, a high caliber magnetic fluorescent nanoparticle surpassing previous attempts, which isolates specific cells and shines in different colors to tag molecules in biomedical tests such as cancer detection. The refined particle could help researchers to significantly reduce costs, increase the efficiency of their research, better identify and understand disease progression, and improve patient outcomes. With this technology she founded a start-up company, Core Quantum Technologies, LLC, which markets the substantially-improved quantum dot and magnetic dot products to the research biotechnology market. She holds two patents, with another pending.

A member of the American Institute of Chemical Engineers (AIChE) Board of Directors, she has received the American Physical Society (APS) Five Sigma Award, American Chemical Society (ACS) Rising Star and Engineering DesignNews Golden Mouse Trap Rising Star awards, and is a fellow of the AIChE, the Biomedical Engineering Society (BMES), American Association for the Advancement of Science (AAAS), American Institute for Medical and Biological Engineering (AIMBE), the Royal Society of Chemistry (RSC), and a senior member of the Institute of Electrical and Electronics Engineers (IEEE). 

She was recently recognized as a Royal Society of Chemistry (RSC) Outstanding Reviewer for the  Journal of Materials Chemistry B . The Royal Society of Chemistry is the world's leading chemistry community and an influential champion for the chemical sciences.

Previously, she was also named to Columbus Business First's Top 25 STEM professors in Ohio, 20 People to Know in Technology, and 40 under 40 lists, as well as a TechColumbus Innovator of the Year.

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Joel Paulson

Chemical Society Reviews

Fibres—threads of intelligence—enable a new generation of wearable systems †.

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* Corresponding authors

a State Key Laboratory for Modification of Chemical Fibers and Polymer Materials, College of Materials Science and Engineering, Donghua University, Shanghai 201620, China E-mail: [email protected] , [email protected]

b School of Electrical and Electronic Engineering, Nanyang Technological University, Singapore E-mail: [email protected]

c Nottingham School of Art and Design, Nottingham Trent University, Dryden Street, Nottingham, NG1 4GG, UK E-mail: [email protected]

Fabrics represent a unique platform for seamlessly integrating electronics into everyday experiences. The advancements in functionalizing fabrics at both the single fibre level and within constructed fabrics have fundamentally altered their utility. The revolution in materials, structures, and functionality at the fibre level enables intimate and imperceptible integration, rapidly transforming fibres and fabrics into next-generation wearable devices and systems. In this review, we explore recent scientific and technological breakthroughs in smart fibre-enabled fabrics. We examine common challenges and bottlenecks in fibre materials, physics, chemistry, fabrication strategies, and applications that shape the future of wearable electronics. We propose a closed-loop smart fibre-enabled fabric ecosystem encompassing proactive sensing, interactive communication, data storage and processing, real-time feedback, and energy storage and harvesting, intended to tackle significant challenges in wearable technology. Finally, we envision computing fabrics as sophisticated wearable platforms with system-level attributes for data management, machine learning, artificial intelligence, and closed-loop intelligent networks.

Graphical abstract: Fibres—threads of intelligence—enable a new generation of wearable systems

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thesis chemical engineering

Fibres—threads of intelligence—enable a new generation of wearable systems

C. Dang, Z. Wang, T. Hughes-Riley, T. Dias, S. Qian, Z. Wang, X. Wang, M. Liu, S. Yu, R. Liu, D. Xu, L. Wei, W. Yan and M. Zhu, Chem. Soc. Rev. , 2024, Advance Article , DOI: 10.1039/D4CS00286E

To request permission to reproduce material from this article, please go to the Copyright Clearance Center request page .

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INFORMATION FOR --> 2021 Florida Agricultural and Mechanical University -->
    Florida A&M University
   
  Aug 07, 2024  
2023-2024 General Catalog    
2023-2024 General Catalog

The Graduate Committee of the Department of Chemical and Biomedical Engineering has instituted an accelerated transition program for prospective graduate students who are non-Chemical or Biomedical Engineering Majors. These students should follow the summer preparatory curriculum shown below in order to formally enter the FAMU-FSU Chemical and Biomedical Engineering graduate program. More details are available online at the departmental web site.

Target Applicants and Eligibility

  • Applicants with non-ChE or non-BME BS degrees in engineering.
  • Applicants with Physics BS degrees.
  • Applicants with Chemistry, Biochemistry, or Biology BS degrees having strong math skills (through Ordinary Differential Equations).

Transition Program Requirements

The transition program requires that students take one online course and one accelerated transition course during the preparatory summer prior to taking the graduate core courses offered in the Fall semester, as follows:

  • ACS online course or equivalent - Beakers to Barrels: Chemical Engineering for Chemists Online Short Course. This course will be replaced in subsequent years by a departmental online course;
  • Graduate preparatory course - combined summer course of Mass and Energy Balances, Transport I and II, and Thermodynamics for accelerated preparation of entering students. Two three credit hour six-week courses (Summer terms B and C) will be taken during the Summer before core ECH/BME coursework; and
  • Required completion of the graduate section of ECH 4504 Kinetics And Reactor Design (3)   .

Requirements 1 and 2 must be completed successfully prior to matriculation in the Fall Semester core graduate courses. Students who do not successfully complete all three requirements before their third semester in the graduate program will not be allowed to continue.

  • Students needing to take any mathematics course(s) through differential equations would need to complete these prior to entrance. Students needing a course in ordinary differential equations should take ECH 3301   : Process Analysis.
  • Other graduate electives or thesis hours can be taken during the first two years if prerequisites are met.
  • Courses prior to the first Fall semester will be at the student’s expense or supported by the department based on available funds.
  • The PhD Qualifying Examination (see below) follows the first Spring semester.

Academic Regulations and Procedures for Graduate Students

Selection of course plan.

Selection of courses for the first semester should be done in consultation with the departmental Graduate Coordinator. All students must also register for the departmental seminar ECH/BME 5935r, Chemical/Biomedical Engineering Seminar, every semester. After the first semester in the graduate program, the supervising major professor will develop a course plan for MS-thesis and PhD candidates. For course-based MS students, the departmental Graduate Coordinator will assist in developing the course plan, acting as the de facto supervisor.

Selection of Major Professor

All full-time graduate students following the MS thesis or PhD options are required to select a research topic and major professor by the end of the first term in which they enter the Department. A form for this purpose is available online at the departmental web site. The completed form should be submitted to the departmental Graduate Coordinator.

The major professor is responsible for directing the student’s research and progress toward a degree. Once a major professor has been approved, a supervisory committee should be established and a program of study prepared in consultation with the major professor before the end of the second semester of enrollment in the graduate program.

Supervisory Committee

The supervisory committee for a master’s degree candidate must consist of a minimum of three faculty members with graduate faculty status. The major professor is the chair of the supervisory committee and must be a faculty member from the Department of Chemical and Biomedical Engineering. At least one other member of the committee must be from the Department of Chemical and Biomedical Engineering; the third member of the committee should be from outside the department. Additional members may be appointed to the committee if deemed desirable by the major professor.

The supervisory committee for a doctoral candidate must have at least four members (including major professor) with graduate faculty status. The major professor is the chair of the supervisory committee and must be a faculty member from the Department of Chemical and Biomedical Engineering. Two of the remaining members of the committee must be from the Department of Chemical and Biomedical Engineering, and the fourth member must be from outside the Department. Additional members may be appointed if deemed desirable. Members of the supervisory committee must be approved by the Department Chair.

Program of Study

A program of study should be prepared by the student in conjunction with the major professor and submitted to the supervisory and graduate committees. For graduate students working toward a thesis-based MS or PhD, the program of study should be defined based on the student’s background and research objectives, in consultation with the major professor and supervisory committee. For graduate students working toward a course-based MS, the program of study should be defined in consultation with the Graduate Committee. The program of study is a complete plan of courses to be taken and research objectives to be achieved. On approval of the program of study, this form will also be placed in the student’s permanent file. If changes to the initially approved program of study become necessary, a new program of study form must be submitted for approval.

PhD Qualifying Examination and Prospectus

All students admitted to the PhD program will be required to take the PhD qualifying examination after completion of the core course ECH 5052   , Research Methods in Chemical Engineering. A research topic will be assigned by the graduate qualifying examination committee. The student must write a research proposal and defend it orally in front of the graduate qualifying-examination committee by the end of the first Summer Semester, unless otherwise approved by the Graduate Committee. This examination must be passed within two consecutive attempts, or the individual will not be allowed to continue as a doctoral student. For additional details, see PhD Qualifying Examination Requirements on the departmental Web site.

Upon successful completion of the qualifying examination, the student may continue work toward the PhD degree. Within five semesters of admission to the graduate program (within the three semesters following the PhD qualifying examination), students are expected to present a prospectus detailing their program of study for PhD dissertation work. If this timeframe cannot be met, the student must petition the graduate program chair for special dispensation, stating specific reasons the delay. The PhD prospectus will consist of a written plan of research that must be orally defended in a formal presentation before the student’s major professor and supervisory committee. After the successful completion of the PhD prospectus, the student will be admitted formally to the PhD candidacy and their research program.

The doctoral committee should provide continual feedback to the PhD candidate throughout the progression of the student’s research. As such, it is important to maintain regular and at least annual meetings of the student and doctoral committee so that updates on research can be presented and feedback can be received by the student. For additional details, see Academic Regulations and Procedures for Graduate Students and the College of Engineering’s website.

Maintenance of Good Standing

In order to maintain good standing in the department, the student must maintain an overall GPA of at least 3.0, with no more than two grades in the “C” range. No more than one course in the “C” range will be counted toward fulfilling the degree requirements. No grades below “C” will be counted toward degree requirements. Students without an undergraduate degree in chemical or biomedical engineering should obtain a grade of “B” or better in all required undergraduate courses.

Master’s and doctoral degree students must submit a brief written annual report on research progress, goals, and completed courses during the Spring Semester for evaluation by the graduate and supervisory committees. A form for this purpose is available on the departmental web site. An assessment of the progress of the student in research and courses by the student’s supervisory committee will be placed in the student’s permanent file. Continuance of assistantships and/or tuition waivers is contingent upon satisfactory evaluations.

Time to Degree Completion

Students with undergraduate degrees in chemical or biomedical engineering normally complete the thesis-type master’s program in four to five semesters, including one Summer Semester. Although the availability of departmental support ultimately is subject to budgetary constraints, the Graduate Committee will not normally recommend continuation of assistantships and tuition waivers beyond a period of two years subsequent to the student’s admission to the master’s program. Students without an undergraduate degree in chemical or biomedical engineering will be given one additional year for completion. However, these students are normally not supported financially during their first year, when they are primarily taking preparatory undergraduate chemical/biomedical engineering courses.

Students with undergraduate degrees in chemical or biomedical engineering normally complete the doctoral program within five years of their admission to graduate school, with reduced time expected if the student enters the program with a master’s degree. Although the availability of departmental support ultimately is subject to budgetary constraints, departmental/college commitments and research grant availability, doctoral candidates will be recommended for departmental support only for a period of three years subsequent to being admitted to candidacy for the doctoral program following the successful completion of the PhD Qualifying Examination. PhD students should submit and defend a prospectus on the dissertation topic to the supervisory committee within five semesters from admission to the graduate program.

Assistantship Duties

Graduate student support is generally in the form of research or teaching assistantships (RAs or TAs), although University fellowships are also available. Research assistantships derived from contracts and grants focus mainly on the performance of research leading to their degree but may be required to perform service to the department in the form of minimal teaching duties. However, research assistants who receive departmental support for tuition waivers will be required to grade, TA, or run recitation sections for lecture courses in addition to research responsibilities. Doctoral candidates will also have to satisfy the teaching requirements of the degree (TA for one laboratory course). Typical TA duties include grading homework and/or exams, conducting problem-solving recitation sections, and having office hours for answering student questions. Specific duties are assigned by the course instructor.

University Doctoral Residency Requirements

The residency requirement for the Department of Chemical and Biomedical Engineering states that after having finished thirty (30) semester hours of graduate work or being awarded the Master’s degree, the student must be enrolled continuously on either the FSU or FAMU Tallahassee campus for a minimum of twenty-four (24) graduate semester hours credit in any period of 12 consecutive months.

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