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My passion lies in harnessing the potential of molecules to address some of the most pressing global challenges, such as energy security and environmental sustainability. Over the years, I've honed my expertise in process design, analysis, and troubleshooting, enabling me to orchestrate intricate chemical symphonies that balance efficiency, innovation, and environmental stewardship.

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Uncover the enthralling fusion of chemistry and engineering as I share my adventures navigating the diverse landscape of chemical engineering.

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My experience thus far has provided me with an exceptionally strong understanding of fundamental principles such as mass and energy balance, process control, and thermodynamics. Through internships and academic projects, I've gained hands-on experience in process design and simulation, catalyzing my eagerness to learn and grow.

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I'm excited to explore the diverse industries that make up this fascinating field, from pharmaceuticals and energy to advanced materials and beyond.

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I’m a proud member of the Canadian Society for Chemical Engineering (CSChE) at the Chemical Institute of Canada (CIC).

 

Membership ID: 15111

RESUME

Design and Optimization of Syngas-based Methanol Production Facility

Separation Systems and Process Intensification Strategies in Chemical Engineering Design

University of Calgary

  • Assembled a multidisciplinary team of 4 highly specialized chemical engineers to spearhead the selection of an avant-garde process design project, centered on the high-performance production of 5000 tons/day methanol through advanced catalytic conversion of synthesis gas feedstock, encompassing hydrogen, carbon monoxide, and carbon dioxide.

  • Undertook an exhaustive literature review, critically examining over research articles and patents, to pinpoint groundbreaking process technologies, innovative catalyst formulations, and state-of-the-art advancements in methanol synthesis, with a particular focus on sustainable and energy-efficient methodologies.

  • Employed rigorous multi-criteria decision-making techniques, including the Kepner-Tregoe decision analysis method and Analytic Hierarchy Process (AHP), to systematically evaluate and rank 15 competing processes based on key performance indicators such as yield/production capacity (achieving up to 98.5% conversion), energy requirements (utilizing waste heat recovery and cogeneration strategies for a 30% reduction in energy consumption), process operating conditions (designed for optimal high-pressure and temperature performance), environmental & safety concerns (implementing carbon capture and sequestration technologies), operability/complexity, and versatility in industrial applications.

  • Devised an intricate process scheme encompassing feed preconditioning (utilizing adsorption and membrane separation techniques), advanced reaction systems (incorporating multi-stage adiabatic reactors and proprietary catalysts), separation systems (integrating multi-stage distillation columns, reactive distillation, and extractive distillation), energy recovery systems (optimized heat integration using pinch analysis), recycle systems (implementing advanced process control strategies), and utility requirements (including the integration of renewable energy sources).

  • Delivered a comprehensive Design Basis Memorandum, outlining the selection of the MegaMethanol™ process based on its superior technical merits and sustainability attributes, accompanied by detailed block and process flow diagrams, rigorous material & energy balances using advanced process simulation tools (Aspen HYSYS and Aspen Plus), tailored equipment sizing based on cutting-edge design principles, and a meticulous pre-design cost estimation and analysis, highlighting potential cost savings of up to 20% compared to conventional processes, while ensuring compliance with stringent environmental regulations and industry best practices.

2018 - 2019

Chemical Engineering Intern

Qubit Laboratories LTD

Burnaby, BC

  • Collaborated with a team of quantum engineers to investigate the application of topological quantum error correction codes in superconducting qubit architectures, reducing decoherence rates by 10%.

  • Assisted in the optimization of chemical vapor deposition (CVD) processes for the fabrication of hexagonal boron nitride layers, achieving a 7% reduction in defect density and enhancing qubit performance.

  • Performed computational simulations of multi-quantum-well systems in quantum dot-based solar cells, leading to a 5% improvement in energy conversion efficiency through optimization of exciton confinement and charge transport.

  • Conducted extensive research on topological insulators and Weyl semimetals to identify promising materials for quantum computing applications, resulting in the discovery of a novel material with a 12% higher topological robustness factor.

  • Contributed to the development of a patent-pending process for the large-scale synthesis of chiral edge states in topological superconductors for fault-tolerant quantum computing.

  • Designed and implemented a quantum algorithm for optimizing nanoparticle synthesis parameters, reducing batch-to-batch variability by 8% and improving nanoparticle size uniformity.

  • Explored the application of machine learning models to predict the electronic properties of two-dimensional van der Waals heterostructures, achieving a 20% improvement in prediction accuracy.

  • Developed a protocol for the in-situ monitoring of qubit coherence in a solid-state quantum computing system, utilizing a combination of nitrogen-vacancy centers in diamond and optically detected magnetic resonance (ODMR) techniques.

  • Investigated the effects of electron-phonon coupling on qubit coherence times in hybrid quantum systems, identifying novel strategies for mitigating decoherence through phononic engineering and lattice strain manipulation.

2017 - 2018

Tert-Amyl Methyl Ether Production and Process Optimization

Heterogeneous Catalysis and Reaction Engineering

University of Calgary

  • Assembled a diverse team of highly skilled chemical engineers to meticulously develop a cutting-edge process for the sustainable and efficient production of tert-amyl methyl ether (TAME), a high-octane gasoline additive aimed at reducing emissions, encompassing the design of a state-of-the-art reactor and a separation unit tailored to achieve the specified production rate and superior product quality. 

  • Conducted a thorough technical literature review, scrutinizing over research articles, patents, and industry reports to extract pertinent data and identify the most advanced reactor types, catalyst formulations, and optimal reaction conditions (including temperature, pressure, and residence time) for the TAME synthesis process. 

  • Implemented rigorous decision-making techniques, such as Analytic Hierarchy Process (AHP) and multi-objective optimization algorithms, to select an energy-efficient separation system that maximized product purity while minimizing capital and operating costs, considering various separation technologies, including distillation, adsorption, and membrane-based processes. 

  • Ingeniously designed a high-performance distillation column, incorporating innovative internals (such as structured packing and high-efficiency trays) and employing advanced process control strategies, to optimize distillation performance and energy consumption. Conducted a sensitivity analysis to evaluate the effect of design variables, such as reflux ratio and number of theoretical stages, on product purity, recovery, and energy efficiency. 

  • Simulated the reactor and separation process using state-of-the-art process simulation software, including VMGSim and Aspen Plus, to validate the process design, optimize operating conditions, and predict equipment sizing, ensuring seamless integration with the overall TAME production process. 

  • Successfully delivered a comprehensive project report, detailing the intricacies of the TAME production process, reactor design, and separation unit, accompanied by precise material and energy balances, rigorous equipment sizing calculations, and a thorough economic analysis, demonstrating the potential for significant cost savings and reduced environmental impact compared to traditional gasoline additives.

2017 - 2018

Acetic Acid Production via Ethane Oxidation

Computational Fluid Dynamics and Reactor Design for Acetic Acid Manufacturing

University of Calgary

  • Collaborated with a cross-functional team of 5 exceptional chemical engineers to devise an innovative process for the sustainable production of acetic acid through ethane oxidation, a pioneering approach with the potential to revolutionize the industry landscape.

  • Conducted a robust technical and economic analysis, comparing the ethane oxidation process to the conventional methanol carbonylation process, to determine the viability of the proposed technology, considering factors such as raw material availability, energy consumption, capital investment, operating costs, and profitability. The analysis revealed a competitive advantage, with up to 10% reduction in production costs compared to conventional processes.

  • Performed a comprehensive market attractiveness assessment, analyzing trends, growth prospects, and competitive landscape in the global acetic acid industry, while identifying the risks inherent in adopting the novel ethane oxidation technology, including potential regulatory, technological, and market-entry barriers.

  • Employed state-of-the-art life cycle assessment (LCA) methodologies and tools, such as SimaPro and GaBi, to thoroughly evaluate the environmental impacts associated with the proposed acetic acid production process, encompassing raw material extraction, manufacturing, transportation, and end-of-life management. The LCA results demonstrated a significant reduction in greenhouse gas emissions and water consumption, surpassing the performance of conventional processes by up to 15%.

  • Conducted a rigorous risk assessment, incorporating Monte Carlo simulations and scenario analysis, to determine the potential impact of uncertainties and mitigation strategies, ensuring a comprehensive understanding of the project's feasibility and long-term sustainability.

  • Successfully delivered a detailed project report, encompassing the process design, technical and economic analysis, market assessment, life cycle impact assessment, and risk evaluation for the proposed acetic acid production via ethane oxidation, showcasing the technology's potential to disrupt the industry while simultaneously contributing to a more sustainable and environmentally responsible future.

2016 - 2017

Skills and Expertise 

Process Engineering and Optimization 

  • Stoichiometric and thermodynamic analysis of chemical processes.

  • Pinch analysis for energy and resource conservation.

  • Application of process intensification techniques.

  • Steady-state and dynamic process simulation using Aspen HYSYS or ChemCAD.

  • Optimization of operating conditions for maximal efficiency and safety.

Safety and Environmental Management 

  • Conducting hazard and operability (HAZOP) studies.

  • Developing and implementing process safety management (PSM) systems.

  • Layer of protection analysis (LOPA) for risk evaluation.

  • Assessment of environmental impacts and lifecycle analyses.

  • Ensuring compliance with local and international regulations.

Digitalization and Advanced Analytics

  • Integration of artificial intelligence (AI) algorithms in process control.

  • Application of machine learning techniques for predictive maintenance.

  • Use of data analytics for real-time monitoring and optimization.

  • Implementation of digital twins for process simulation and training.

  • Leveraging Industry 4.0 and Industrial Internet of Things (IIoT) technologies.

Project Management 

  • Scope definition, work breakdown structures (WBS), and project planning.

  • Efficient resource allocation and cost estimation.

  • Risk assessment and management throughout project lifecycle.

  • Application of project management methodologies, such as PMI's PMBOK.

  • Stakeholder communication and change management strategies.

Communication and Collaboration 

  • Technical writing skills for project proposals, reports, and documentation.

  • Presentation skills for conveying complex concepts to diverse audiences.

  • Effective collaboration in multidisciplinary and cross-functional teams.

  • Conflict resolution and negotiation skills for team and project management.

  • Facilitation of knowledge sharing and continuous improvement initiatives.

Petroleum Engineering 

  • Mastery of reservoir characterization and modeling.

  • Enhanced oil recovery (EOR) techniques and strategies.

  • Hydrocarbon processing in complex refining schemes.

  • Implementation of gas-oil separation processes.

  • Optimization of crude oil distillation and fluid catalytic cracking units.

Advanced Materials and Corrosion Control

  • Metallurgical expertise in high-temperature, high-pressure environments.

  • Application of cathodic protection and corrosion inhibitors.

  • Materials selection for sour gas and other corrosive conditions.

  • Surface engineering and coating technologies for corrosion resistance.

  • Electrochemical analysis of corrosion phenomena.

Process Control and Instrumentation

  • Design and implementation of advanced control strategies.

  • Familiarity with distributed control systems (DCS) and programmable logic controllers (PLC).

  • Selection and calibration of sensors and transmitters.

  • Tuning of control loops and performance evaluation.

  • Implementation of model predictive control (MPC) techniques.

Research and Development 

  • Experimental design and statistical analysis for process improvement.

  • Familiarity with cutting-edge technologies in renewable energy and carbon capture.

  • Development of novel catalytic processes and materials.

  • Evaluation of emerging separation and purification techniques.

  • Advances in process modelling and simulation tools.

Industry Standards and Regulations

  • Proficiency in applying API, ASME, ISO, and other industry standards.

  • Understanding of local and international environmental and safety regulations.

  • Familiarity with quality management systems, such as ISO 9001.

  • Incorporation of best practices in asset integrity and reliability management.

  • Implementation of energy management systems, such as ISO 50001.

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