Graduate Degree Program Summary
Graduate programs offered
Earn a Graduate Degree
- PhD in Mechanical Engineering and Applied Mechanics
- MS in Mechanical Engineering and Applied Mechanics with optional specialization:
- Biomedical Engineering
- Computational Methods
- Dynamics and Vibration
- Fluid Mechanics
- Materials Engineering
- Solid Mechanics
- Systems, Design and Controls
- Thermal Sciences
Areas of Study
These informal areas of focus may help to shape your course of study but they will not appear on transcripts.
- Biomedical Engineering
- Computational Methods
- Dynamics and Vibrations
- Experimental and Computational Materials
- Fluid Mechanics
- Materials and Metallurgical Engineering
- Mechatronics and Robotics
- Nondestructive Evaluations
- Solid Mechanics
- Systems, Design, and Controls
- Thermal Sciences
Online and Distance OpportunitiesSome online coursework may be available for your program; contact dept. for details.
Contacts for Mechanical Engineering and Applied Mechanics
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Application checklist and deadlines
1. Required by Graduate Studies
Submit these items as part of the standard steps to admission.
2. Required by Mechanical Engineering and Applied Mechanics
After you apply, allow one business day for us to set up your access so you can complete these requirements via MyRED.
- Entrance exam(s):
- Domestic Applicants: None, unless previous program is not ABET accredited then a GRE score is required
- International Applicants: GRE
- Minimum English proficiency: Paper TOEFL 550, Internet TOEFL 79, IELTS 6.5
- Statement of Purpose including research interests and objectives
- Resume or CV
- Three letters of recommendation
When sending GRE or TOEFL scores, UNL's institution code is 6877 and a department code is not needed.See department's application details for more specific information on these requirements.
Application Deadlines for Mechanical Engineering and Applied Mechanics
- January 15 for Fall. September 15 for Spring. November 15 for Summer.
Application/admission is for entry in a specific term and year. UNL's academic year is divided into 3 terms: Fall (August-December), Spring (January-May), and Summer (multiple sessions May-August). Some UNL programs accept new students only in certain terms and/or years; if your desired entry term isn't mentioned here, you may want to consult the department for clarification.
The Mechanical Engineering and Applied Mechanics (MEAM) program provides a comprehensive graduate education at both the M.S. and Ph.D. levels supported by over 30 faculty and 140 graduate students working to solve a broad range of problems. The program boasts expertise in fundamental areas such as solids, fluids, heat transfer, dynamics, vibrations, materials, manufacturing, and design with applications from medical robotics to rehabilitation, magnetic levitation to energy applications, 3D printing to nano-machining, tissue engineering to advanced fibers for composites, materials characterization to nondestructive evaluation, and computational analysis and simulation to computational materials optimization.
The faculty and students in the program work on a range of problems focusing frequently on a mix of experimental understanding and characterization, theoretical modeling and simulation, numerical analysis, and modeling and simulation. These activities are supported through a broad range of experimental facilities including laboratories for computational fluid and solid mechanics and thermodynamics; micro-mechanics, fabrication and combustion; robotics and mechatronics; rapid solidification; thin films; x-ray diffraction and electron microscopy; atomic force microscopy; biomaterial and mechanotranduction; tissue and arterial mechanics; nontraditional manufacturing; dynamics and vibrations; nondestructive evaluation and ultrasonics; organic and nano-electronics; polymer composites and advanced fibers; polymer mechanics and 3D printing; power systems; surface mechanics and tribology; trauma mechanics.
Students entering the program with a B.S. degree can either enter an M.S. program or directly start a Ph.D. program, with the option of obtaining an M.S. on the way to completing their Ph.D. Students in the program at the M.S. level can also select from a broad range of specializations.
Cost of attendanceCost differs from one student to another. For details see Tuition, Fees, and Funding or try our Cost Estimator.
Courses and MoreAdmitted students will choose courses from the Course Catalog, typically in:Steps to Degree Completion.
Faculty and research
Where available, faculty names link to bios or homepages and conversation icons () link to directory listings with address, phone, and email.
Solid Mechanics; Electromechanical Effects; Fiber Networks; Biomechanics
Laser Beam Particle Interactions; Acoustics; Electromagnetic Wave Theory; High Temperature Gas Dynamics
Electromechanical Effects; Fiber Networks; Biomechanics
Damage and Fracture with Peridynamics; Modeling of Corrosion Damage and Stress Corrosion Cracking; Failure in Heterogeneous Materials; Dynamics of Granular Materials; Optimization of Material Composition and Optimal Shape Design
Analytical Methods via Internet; Biomedical Devices; Fluid-Flow Sensors; Inverse Problems
Multi-Domain Networks; Structural and Algorithmic Graph Theory; Design and Analysis of Algorithms; Bioinformatics; Data Mining Models
Robotic Highway Safety Markers; Miniature Surgical Robots; Real-Time Measurement of Track Stiffness; Planetary Cliff Descent Using Cooperative Robots
Experimental and Computational Mechanics of Materials
Processing and Flow-Induced Crystallization of Polymers; Biopolymers; Self-Assembly and Micro/Nanostructures in Polymers and Supramolecules; Syncrhotron X-ray Scattering; Optical Birefringence; Polarized Microscopy; Differential Scanning Calorimetry
Transport Phenomena in Vaporizing and Combusting Sprays; Thermal Processes in DNA Multiplication; Laser and Materials Interactions
Interface Mechanics using Measurement-Calibrated Computational Approach, including Fluid-Structure Interaction, Hierarchical Tissue- Medical Implant Interface; Nano/Micro Fiber/Fiber and Fiber/Cell Interface
Innovative Design and Ergonomic Analysis: Development of Laparoscopic Surgical Tools; Methodology Standardization For Operating Room Medical Device Usability; Development of Neutron Detection Sensors
Organic Electronic Materials and Devices; Nanoelectronic Materials and Devices; Organic Magnetic Materials; Organic Spintronics; Energy Conversion and Storage
Regulate Cell Function and Fate via Applying Biomaterial Cues; Integrate Molecular Engineering of Key Signaling Molecules to Reveal the Role of Focal Adhesion, Cytoskeletal Tension, Cell-Cell Interaction, and Immune Response
Ion-Solid Interactions; Irradiation Induced Phase Transformations; Ion Irradiation and Plasma Modification; Ion Beam Analysis, Synthesis and Properties of High Strength Nanolayered Composites, and Surface Mechanical Properties
Micro/Nano Systems Energy Conversion; Storage and Power Generation; Two-Phase Heat Transfer in Micro and Nano Domains; Microscale Combustion; Microfluidics & Functional Nanofluids; Biomems & Bioheat Transfer; Surface & Interface Science
Large Deformation Thermo-Mechanical Response of Materials
Mechanical Systems Design and Analysis; Medical Robotics; Modularity in Mechanical Systems; Graph-Theoretic Techniques in Robotics and Mechanical Systems Design
Laparoscopic and Esophageal Surgery; Esophageal Motility; Robotic SurgeryUniversity of Nebraska Medical Center
Advanced Machining of Materials Used in Aerospace, Automotive and Medical Device Industries
Sensor-Based Monitoring and Diagnosis of Complex Bio-Physical and Manufacturing Processes; Ultraprecision Machining; Semiconductor Planarization, and Neurophysiology
Crashworthiness of Vehicles; Roadside Safety; Nonlinear Finite Element Analysis
Experimental Investigations of Multi-Scale Phenomena of Fluid Flow and Cellular Mechanics and their Applications in Engineering Systems; Breast cancer stem Cell Regulation by ECM mechanics; Biophysical Mechanism of Calcium-Based Cell Motility
Microstructural Development; Nanoscale Materials; Magnetic Materials; Electron Microscopy; X-ray Diffraction
Wire Rope Models; Box Beam End Terminals; Cable Barrier Systems
Dynamics of Machinery; Analysis and Synthesis of Mechanisms; Computer Simulation of Mechanical Systems
Nanofabrication; Monolayers for Virus Detection; Patterned Metallic Alloys; Patterned Metallic Alloys; Polymer Thin Films
Biomedical Research; Medical Therapeutics, Devices, and Surgical Tools; Intuitive, Ambulatory Biosensors; Biomechanical Behavior of Tissues and Organs
Sound and Vibration Studies; Solid and Computational Mechanics; System Dynamics and Controls
Multiscale Characterization; Elastic and Stochastic Wave Propagation; Experimental Ultrasonics; Linear and Nonlinear Vibrations; Structural Acoustics
Interface Engineering: Improve Mechanical Properties and Irradiation Tolerance of Materials by Tailoring Interfaces in Solids
Fluid Dynamics; Role of Fluid-Structure Interactions of Vocal Folds in Voice Production; Multiscale Modeling of Atherogenesis; Interaction of Fluid Stresses on Bacterial Biofilm Growth and Evolution
Abrasive Flow Machining; Nontraditional Finishing Processes; Rapid Prototyping; Tooling
Electromechanical Materials and Devices
Nanorobotics, BioMEMS and Mechanobiology; Micro/Nanosytems for Cellular Engineering to Manipulate Cells Through Delivery of Biomolecules; Cell-Cell Interactions to Understand Mechanotransduction Under Physio/Pathological Conditions
Numerical and Experimental Study of the Laser-Induced Plasma and Its Application to Pulsed Laser Deposition of Thin Films; Numerical Modeling of Diesel Particulate Filters and Other After-Treatment Devices; Blast Wave Mitigation Devices
Everyday Life Applications such as Making Better Earbuds with Nanomaterials, as well as Fundamental Sciences Such as the Lattice Vibration and Electronic Band Structure of Nanomaterials