Energy and Sustainability Engineering

Academics

Student Ngaatendwe Manyika presents her work designing, building, and testing a wind turbine.

Academics

The MESE curriculum was designed in consultation with industry leaders to achieve three core outcomes:

  1. Effectively prepare students for high-impact energy and sustainability careers, actively leveraging the program’s deep ties to industry and alumni to expose students to cutting-edge trends and real-world problems and open doors to mentorship, internships, and full-time roles.
  2. Through a unique combination of structured guidance and curricular freedom, guide students in shaping their own academic path across four concentration areas, designing a Penn experience uniquely tailored to their interests and professional goals.
  3. Offer ample experiential learning opportunities for students to apply their technical skills to solve pressing sustainability challenges, building a portfolio of work that makes them immediately valuable to employers and prepares them to contribute meaningfully to solving the climate crisis from day one.

In addition to coursework taught by expert Penn faculty, students have access to the full spectrum of Penn resources, from free access to an array of tools and equipment at the Engineering Studios to energy and climate policy speaker series and events at the Perry World House and Kleinman Center for Energy Policy.

Career planning workshops and advising opportunities exclusively for MESE help students to strategically plan their coursework, extracurricular activities, and summer internships or co-ops for optimal professional development. Guest lectures and seminars connect students with industry leaders for mentorship and career opportunities.

Curriculum Overview

To earn the MESE degree, students must complete ten credit units of graduate-level coursework. Of these, six must be engineering courses.

All students take ENGR 5215 – Energy and Sustainability: Science, Engineering, and Technology during the first semester of the program. This is an overview course designed to teach foundational skills and knowledge in energy and sustainability, and to help students hone their interests for the rest of the program. In addition to technical skills, it emphasizes real-world applications, communication and teamwork skills, and professional development for energy and sustainability leadership.

All students must complete one credit unit of experiential work. For most students, this will take the form of ENGR 5020 – Engineering Sustainability at Penn, a project-based capstone course involving authentic campus and community sustainability projects completed in the last semester of the program. However, students may instead complete one credit of graduate-level independent study in a research lab at Penn if the project is related to energy and sustainability. Finally, students may participate in an internship or other outside experience in hands-on energy and sustainability work that does not carry course credit. In that case, students must take an additional elective course.

There are four available concentrations:

  • Environment and Climate Solutions
  • Clean Energy Technology
  • Society and Policy
  • Economics and Innovation

Each student selects one concentration, taking three courses in that category and one course in each of the other categories. Finally, students take two free elective courses, subject to advisor approval.

There are multiple relevant graduate certificate programs available for MESE students to pursue. With careful course selection, some are achievable without going beyond the required 10 credit unit minimum.

Course Lists

  • Introduction: CBE/ENGR 5215 [F/S]: Energy and Sustainability: Science, Engineering, and Technology (Grundy)
  • Experiential Capstone: ENGR 5020 [S]: Engineering Sustainability at Penn (Grundy) – option to replace with independent research or other experiential component

At least one in each category. Choose one concentration by taking three courses in a category.

Environment and Climate Solutions

  • CBE 5020 [S] Sustainability of Materials (Winey)
  • CBE 5050 [S] Carbon Capture (Wilcox)
  • MEAM 5620 / CBE 5600 [F] Water Treatment Engineering (McBride)
  • MSE 5450 [F] Materials for Energy and Environmental Sustainability (Murray)
  • EESC 6320 [F] Atmospheric Chemistry (Francisco)
  • EESC 6336 [F] Ocean-Atm. Dyn. and Implications for Future Climate Change (Marinov)
  • EESC 6376 [S] Climate & Big Data (Marinov)
  • EESC 6600 [S] Earth Surface Processes (Jerolmack)

Clean Energy Technology

  • ENGR 5XXX [F] Renewable Energy Technologies Lab (Grundy) – new for fall 2026
  • CBE 5300 [S] Electrochemistry Fundamentals, Practices, and Analysis (Kim)
  • CBE 5450 [F] Electrochemical Energy Conversion & Storage (Vohs)
  • CBE 5440 [F] Computational Science of Energy & Chemical Transformations (Vojvodic)
  • ESE 5210 [S] Physics of Solid State Energy Devices (Jariwala)
  • ESE 5800 [S] Power Electronics (Gu)
  • ESE 6710 [F] High Frequency Power Electronics (Gu)
  • MEAM 5020 [F] Energy Engr. in Power Plants and Transportation Syst. (Lukes)
  • MEAM 5030 [F, alt] Direct Energy Conversion: From Macro to Nano (Bargatin)
  • MEAM 5480 [F] Wind Physics and Applications (Wei)
  • MSE 5550 [F] Electrochemical Engineering of Materials (Detsi)

Society and Policy

  • ENMG 5020 [F] Introduction to Energy Policy (Welton)
  • ENMG 5070 [F] Effective Policy for the Energy Transition (Carley)
  • ENMG 5210 [F] Energy Geopolitics and National Security (Schmitt)
  • ENMG 5300 [S] Energy Justice (Carley)
  • ENMG 5400 [F] Technology Deployment to Achieve Net Zero: Decarbonization (Wilcox)
  • ENMG 5450 [S] Clean Energy Technology Deployment to Achieve Net Zero: GHG Removals (Wilcox)
  • ENVS 5600 [F] Developing Environmental Policy (Lisa)
  • EAS 5110 [S] Societal Grand Challenges at the Interface of Tech. and Policy (Composto)
  • EAS 5050 [F] Climate Policy & Tech. (Huemmler)
  • EAS 5030 [F/S] Energy Syst. & Policy (Huemmler)
  • EAS 5010/5020 [F/S] Energy & Its Impacts (Lior)
  • ESE 5670 [S] Risk Analysis and Environmental Management (Panfil)

Economics and Innovation

  • EAS 5450 [F/S] Engineering Entrepreneurship I: Fund. of high-tech ventures (Babin)
  • EAS 5460* [F/S] Engineering Entrepreneurship II: High-tech business planning (Babin)
  • EAS 5490* [S] Engineering Entrepreneurship Lab (Babin)
  • ESE/ENGR 5400 [F/S] Engineering Economics (Cassel)
  • BEPP/OIDD 7630 [S] Energy Markets and Policy (Van Benthem)
    * Require EAS 5450 as prerequisite

The final two courses are electives. The course plan must include 10 CU at or above the 5000 level, six of which must be engineering courses. The below list of electives are pre-approved; additional courses may be approved by the advisor.

  • Any additional course from the above breadth courses

Engineering courses:

  • BE 5590 [F] Multiscale Modeling of Chem. and Biological Systems (Radhakrishnan)
  • CBE 5150 [S] Chemical Product Design (Seider)
  • CBE 5250 [S] Molecular Modeling and Simulation (Riggleman)
  • CBE 5350 [S] Interfacial Phenomena (Stebe)
  • CBE 5700 [S] Soft Materials Research (Osuji)
  • CBE 6180 [F] Advanced Molecular Thermodynamics (Patel)
  • CBE 6270 [S] Advanced Chemical Kinetics (Vohs)
  • CBE 6400 [F] Transport Processes I (Sinno)
  • CIS 5150 [F/S] Fundamentals of Linear Algebra and Optimization (Gallier)
  • CIS 5190 [F/S] Applied Machine Learning (Jayaraman/Zhao/Bastani)
  • CIS 5200 [F/S] Machine Learning (varies)
  • CIS 5450 [F/S] Big Data Analytics (varies)
  • CIS 5590 [F/S] Programming and Problem Solving (Smith)
  • ESE 5000 [F] Linear Systems Theory (Pappas)
  • ESE 5030 [S] Simulation Modeling and Analysis (Carchidi)
  • ESE 5060 [F] Introduction to Optimization Theory (Carchidi)
  • ESE 5090 [F] Quantum Circuits and Systems (Sigillito)
  • ESE 5100 [F] Electromagnetic and Optics (Engheta)
  • ESE 5130 [F] Principles of Quantum Technology (Bassett)
  • ESE 5230 [S] Quantum Engineering (Bassett)
  • ESE 5250 [F] Nanoscale Science and Engineering (Allen)
  • ESE 5280 [S] Estimation and Detection Theory (Sarkar)
  • ESE 5290 [S] Intro. to Micro- and Nano-electromechanical Technologies (Olsson)
  • ESE 5320 [F] System-on-a-Chip Architecture (Dehon)
  • ESE 5360 [S] Nanofabrication and Nanocharacterization (Kim)
  • ESE 5390 [F] Hardware/Software Co-Design (Li)
  • ESE 5410 [F/S] Machine Learning for Data Science (Preciado)
  • ESE 5420 [F/S] Statistics for Data Science (Hassani)
  • ESE 5430 [F/S] Human Systems Engineering (Won)
  • ESE 5480 [F] Transportation Planning Methods (Ryerson)
  • ESE 5500 [S] Advanced Transportation Seminar (Ryerson)
  • ESE 6650 [S] Datacenter Architecture (Lee)
  • ESE 6680 [S] Mixed Signal Circuit Design and Modeling (Khanna)
  • ESE 6730 [S] Integrated Photonic Systems (MacFarlane)
  • MEAM 5060 [F] Failure Analysis of Engineering Materials (Pope/Licurse)
  • MEAM 5080 [F/S] Materials and Manufacturing for Mech. Design (Turner/Fulco)
  • MEAM 5100 [F/S] Design of Mechatronic Systems (Yim/Weakly)
  • MEAM 5130 [S] Feedback Control Design and Analysis (Kothmann)
  • MEAM 5140 [S] Design for Manufacturability (Albert)
  • MEAM 5190 [F] Elasticity and Micromechanics of Materials (Reina Romo)
  • MEAM 5270 [F/S] Finite Element Analysis (Hu)
  • MEAM 5300 [S] Continuum Mechanics (Ponte-Castaneda)
  • MEAM 5350 [F] Advanced Dynamics (Carchidi)
  • MEAM 5450 [F] Aerodynamics (Mistry)
  • MEAM 5360 [S] Viscous Fluid Flow and Modern Applications (Arratia)
  • MEAM 5380 [S] Turbulence (Park)
  • MEAM 5700 [F] Transport Processes I (Bau)
  • MSE 5050 [S] Mechanical Properties of Macro/Nanoscale Materials (Khantha)
  • MSE 5070 [F] Fundamentals of Materials (Khantha)
  • MSE 5150 [S] Mathematical Models for Engineering Applications (Khantha)
  • MSE 5200 [F/S] Structure of Materials (Li)
  • MSE 5300 [F] Thermodynamics and Phase Equilibria (Chen)
  • MSE 5360 [F] Electronic Properties of Materials (Chen)
  • MSE 5400 [S] Kinetics of Materials (Chen)
  • MSE 5610 [F] Atomic Modeling in Materials Science (Khantha)
  • MSE 5650 [S] Fab. and Char. of Micro and Nanostructured Materials (Yang)
  • MSE 5700 [F] Physics of Materials I (Agarwal)
  • MSE 5760 [S] Machine Learning and Its Applications in Materials Science (Khantha)
  • MSE 5800 [F] Introduction to Polymers (Madl)

Non-engineering courses:

  • CHEM 5210 [F] Statistical Mechanics I (Baumgart)
  • CHEM 5230 [F] Quantum Chemistry I (Rappe)
  • CHEM 5260 [S] Chemical Dynamics (Nitzan)
  • CHEM 5412/5213 [F] Physical Organic Chemistry 1/2 (Zahrt/Kozlowski)
  • CHEM 5431/5432 [F] Advanced Organic Chemistry 1/2 (Trauner/Mccallum)
  • CHEM 5621/5622 [F/S] Inorganic Chemistry II-A/II-B (Tomson)
  • CHEM 5640 [F] Organometallics (Goldberg)
  • CHEM 7080 [S] Modern Topics in Photochemistry (Chenoweth)
  • CHEM 7210 [F] Mathematics for Chemistry (Fakhraai)
  • CHEM 7640 [S] Materials Chemistry (Murray)
  • CHEM 7650 [S] Chemistry of the f-Block Elements (Schelter)
  • EESC 6200 [S] Advanced Geochemistry (Giere)
  • EESC 6630 [F] Advanced Hydrology (Ulloa)
  • PHYS 5500 [F] Mathematical Models of Physics (Claassen)
  • PHYS 5516 [S] Electromagnetic Phenomena (Nelson)
  • PHYS 5518 [S] Introduction to Condensed Matter Physics (Zhen)
  • PHYS 5522 [S] Introduction to Elementary Particle Physics (Thomson)
  • PHYS 5528 [S] Introduction to Liquid Crystals (Kamien)
  • PHYS 5531 [F] Quantum Mechanics I (Khoury)
  • PHYS 6611 [F] Statistical Mechanics (Kamien)

Sample Degree Paths

Because of the customizability of the MESE curriculum, there are countless ways to satisfy the degree requirements. The following are example degree paths intended to illustrate several possible trajectories for students with a variety of background and interests.

Courses fulfilling the core requirements are indicated in bold, while those counted towards the concentration are in italics. Courses outside the program being used as electives are shown in grey; some students choose to take more than the required number of courses within the breadth categories and therefore have fewer than two electives.

Prospective student A has a physics undergraduate degree, works part time for PECO, and is interested in electricity sources and systems. She selects a Concentration in Clean Energy Technology.

Prospective student B has a chemical engineering undergraduate degree and is interested in battery technology. He selects a Concentration in Clean Energy Technology.

Prospective student C has a chemistry undergraduate degree and is interested in energy policy. At Penn, he pursues a dual major master’s degree between CBE and MESE with a Concentration in Society and Policy.

Prospective student D is a Penn CBE undergraduate and completes her undergraduate and accelerated MESE degrees in eight semesters. She selects a Concentration in Clean Energy Technology. Courses counted only towards the undergraduate degree are not shown.

Prospective student E is a Penn electrical engineering undergraduate student interested in data center sustainability. She completes her undergraduate degree and accelerated MESE degree in nine semesters, with a Concentration in Clean Energy Technology. Courses counted only towards the undergraduate degree are not shown.