J. E. Gordon

Definition

J. E. Gordon was a prominent scientist known for his contributions to the field of materials science, particularly regarding the behavior of ferroelectric materials. His work emphasized understanding the electrical and mechanical properties of these materials, which exhibit spontaneous electric polarization and have various applications in technology. Gordon's insights helped bridge theoretical knowledge and practical applications in ferroelectric research.

5 Must Know Facts For Your Next Test

1. Gordon's research significantly advanced the understanding of ferroelectric domains and how they interact under various conditions.
2. He highlighted the importance of temperature in determining the ferroelectric properties and phase transitions of materials.
3. Gordon contributed to developing models that explain how external factors, such as electric fields, influence the behavior of ferroelectric materials.
4. His work paved the way for practical applications of ferroelectric materials in capacitors, sensors, and actuators.
5. Gordon's insights into the mechanical properties of ferroelectric materials have influenced ongoing research in solid-state physics and materials engineering.

Review Questions

• How did J. E. Gordon's research contribute to the understanding of ferroelectric domains?
  • J. E. Gordon's research provided crucial insights into the behavior of ferroelectric domains, particularly their interaction with external factors like electric fields and temperature changes. He explored how these domains can switch and rearrange under varying conditions, which is key for applications in devices such as capacitors and sensors. This understanding has laid the foundation for further advancements in the field of materials science.
• Evaluate the impact of J. E. Gordon's work on practical applications of ferroelectric materials.
  • J. E. Gordon's work significantly impacted how ferroelectric materials are utilized in technology today. By elucidating the underlying principles governing their behavior, he opened doors for their application in devices like piezoelectric sensors and actuators. His findings on how temperature and electric fields affect these materials have also contributed to optimizing their performance in real-world applications.
• Synthesize J. E. Gordon's contributions to ferroelectric research with contemporary developments in solid-state physics.
  • J. E. Gordon's foundational contributions to understanding ferroelectric materials are closely intertwined with current developments in solid-state physics, particularly in nanotechnology and advanced material engineering. His exploration of domain behaviors and phase transitions has informed contemporary research on novel ferroelectric compounds and heterostructures that exhibit enhanced properties. As new materials are developed, Gordon's principles continue to guide researchers in optimizing performance for applications ranging from memory devices to energy harvesting technologies.

Related terms

Ferroelectricity: The phenomenon exhibited by certain materials that possess a spontaneous electric polarization that can be reversed by an external electric field.

Piezoelectric Effect: The ability of certain materials to generate an electric charge in response to applied mechanical stress.

Phase Transition: A change in the physical state or phase of a material, often associated with changes in temperature or pressure, which can affect its ferroelectric properties.