Lorna J. Gibson

Professor Lorna Gibson graduated in Civil Engineering from the University of Toronto and obtained her Ph.D. from the University of Cambridge. She was an Assistant Professor in Civil Engineering at the University of British Columbia for two years before moving to MIT where she is currently the Matoula S. Salapatas Professor of Materials Science and Engineering. Her research interests focus on the mechanics of materials with a cellular structure such as engineering honeycombs and foams, natural materials such as wood, palm and bamboo and medical materials such as trabecular bone and tissue engineering scaffolds. She is the co-author of Cellular Solids: Structure and Properties (with MF Ashby) and of Cellular Materials in Nature and Medicine (with MF Ashby and BA Harley). Recent projects include aerogels for thermal insulation; nanofibrillar cellulose foams; and the mechanics of plant materials. At MIT, she has served as Chair of the Faculty and Associate Provost.
More info: http://dmse.mit.edu/faculty/profile/gibson

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Mechanical Behavior of Materials, Part 1: Linear Elastic Behavior (edX) EdX
MIT,MITx

Mechanical Behavior of Materials, Part 1: Linear Elastic Behavior (edX)

Dive into the world of materials science with an introductory course that explores the mechanical properties of materials at various levels, from atomic structures to continuum mechanics. This course, part one of a three-part series by MIT's Department of Materials Science and Engineering, will equip you with essential skills in understanding and applying material behavior principles to engineering problems.

No sessions available
Self-Paced
Mechanical Behavior of Materials, Part 2: Stress Transformations, Beams, Columns, and Cellular Solids (edX) EdX
MIT,MITx

Mechanical Behavior of Materials, Part 2: Stress Transformations, Beams, Columns, and Cellular Solids (edX)

Expand your knowledge in material science with Part 2 of the Mechanical Behavior of Materials series on edX. This course delves into complex topics like stress transformations, the mechanics of beams and columns, and the unique properties of cellular solids. Perfect for engineers and material scientists looking to deepen their expertise.

No sessions available
4 Weeks
Mechanical Behavior of Materials, Part 3: Time Dependent Behavior and Failure (edX) EdX
MIT,MITx

Mechanical Behavior of Materials, Part 3: Time Dependent Behavior and Failure (edX)

Dive into the fascinating world of materials science with 'Mechanical Behavior of Materials, Part 3: Time Dependent Behavior and Failure'. This course, offered by edX, takes you on an in-depth journey from the atomic structure to the macroscopic continuum level. Learn how engineers design materials with specific properties for their intended use, and apply your newfound knowledge to mechanics and engineering challenges.

No sessions available
5-12 Weeks
Cellular Solids 1: Structures, Properties and Engineering Applications (edX) EdX
MIT,MITx

Cellular Solids 1: Structures, Properties and Engineering Applications (edX)

Dive into the fascinating world of Cellular Solids 1: Structures, Properties and Engineering Applications. This course will equip you with the knowledge needed to model and understand the mechanical properties of materials like honeycombs and foams, enabling you to make informed decisions for engineering applications.

No sessions available
5-12 Weeks
Cellular Solids Part 2: Applications in Medicine (edX) EdX
MIT,MITx

Cellular Solids Part 2: Applications in Medicine (edX)

Dive into the fascinating world of cellular solids and their critical role in medical applications. This course will guide you through understanding trabecular bone mechanics, managing osteoporosis, designing advanced orthopedic implants, and creating effective tissue engineering scaffolds that mimic natural extracellular matrices.

No sessions available
4 Weeks
Cellular Solids Part 3: Applications in Nature (edX) EdX
MIT,MITx

Cellular Solids Part 3: Applications in Nature (edX)

Dive deep into the realm of cellular solids and uncover the intricate ways these structures manifest in nature. This course will equip you with models to understand and analyze various natural materials such as wood, cork, monocotyledon leaves, skulls, palm trees, and bamboo. Gain insights into how principles of cellular solids can be applied to natural phenomena.

No sessions available
3 Weeks
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