Comsol Case Studies Metamaterials Make Physics Seem Like Magic

	Metamaterials Make Physics Seem Like Magic Comsol

Metamaterials Make Physics Seem Like Magic

Comsol

Technology Category	Analytics & Modeling - Digital Twin / Simulation Analytics & Modeling - Predictive Analytics Application Infrastructure & Middleware - Data Visualization
Applicable Industries	Healthcare & Hospitals National Security & Defense Semiconductors
Applicable Functions	Product Research & Development Quality Assurance
Use Cases	Computer Vision Digital Twin Predictive Maintenance Remote Asset Management
Services	Software Design & Engineering Services System Integration Testing & Certification
Challenge	Metamaterials, which are artificially structured materials, have the potential to revolutionize various fields by manipulating electromagnetic waves. However, the challenge lies in the high level of control required over their structure and the high ohmic loss due to the metal components. These materials derive their unique properties from their structure rather than their chemical composition, making the design and fabrication of complex structures a significant challenge. Additionally, precise knowledge of the response at each frequency of interest is needed, making accurate frequency-domain simulations a requirement. The high ohmic loss causes electromagnetic waves to be strongly attenuated, posing another challenge in the practical application of metamaterials. Read More
About Customer	The Center for Metamaterials and Integrated Plasmonics (CMIP) at Duke University, led by David R. Smith, is a leading research organization in the field of metamaterials. CMIP is known for its work on electromagnetic cloaking and is also involved in developing magnetic metamaterials for wireless power transfer for electric vehicles in collaboration with Toyota Corporation. Another key player is the Naval Postgraduate School (NPS) in Monterey, California, where researchers like Fabio Alves are developing metafilms for less expensive terahertz (THz) imaging devices. These organizations are at the forefront of metamaterials research, pushing the boundaries of what is possible with these advanced materials. Read More
Solution	To address the challenges in designing and fabricating metamaterials, researchers are leveraging advanced modeling and simulation tools like COMSOL Multiphysics. These tools allow for precise frequency-domain simulations, which are crucial for understanding the electromagnetic response of complex structures. The flexibility and versatility of these tools enable researchers to modify boundary conditions and even change the equations themselves, providing a high level of control over the design process. For instance, the Naval Postgraduate School is using these tools to develop metafilms that exhibit near 100 percent absorption in the desired frequency, significantly improving the efficiency of THz imaging systems. Similarly, the Center for Metamaterials and Integrated Plasmonics at Duke University is using these tools to develop metamaterial-based lenses for wireless power transfer, making the distance between the power source and the device being charged appear to disappear. Read More Log in to view content
Contents

Technology Category

Analytics & Modeling - Digital Twin / Simulation

Analytics & Modeling - Predictive Analytics

Application Infrastructure & Middleware - Data Visualization

Applicable Industries

Healthcare & Hospitals

National Security & Defense

Semiconductors

Applicable Functions

Product Research & Development

Quality Assurance

Use Cases

Computer Vision

Digital Twin

Predictive Maintenance

Remote Asset Management

Services

Software Design & Engineering Services

System Integration

Testing & Certification

Challenge

Metamaterials, which are artificially structured materials, have the potential to revolutionize various fields by manipulating electromagnetic waves. However, the challenge lies in the high level of control required over their structure and the high ohmic loss due to the metal components. These materials derive their unique properties from their structure rather than their chemical composition, making the design and fabrication of complex structures a significant challenge. Additionally, precise knowledge of the response at each frequency of interest is needed, making accurate frequency-domain simulations a requirement. The high ohmic loss causes electromagnetic waves to be strongly attenuated, posing another challenge in the practical application of metamaterials.

About Customer

The Center for Metamaterials and Integrated Plasmonics (CMIP) at Duke University, led by David R. Smith, is a leading research organization in the field of metamaterials. CMIP is known for its work on electromagnetic cloaking and is also involved in developing magnetic metamaterials for wireless power transfer for electric vehicles in collaboration with Toyota Corporation. Another key player is the Naval Postgraduate School (NPS) in Monterey, California, where researchers like Fabio Alves are developing metafilms for less expensive terahertz (THz) imaging devices. These organizations are at the forefront of metamaterials research, pushing the boundaries of what is possible with these advanced materials.

Solution

To address the challenges in designing and fabricating metamaterials, researchers are leveraging advanced modeling and simulation tools like COMSOL Multiphysics. These tools allow for precise frequency-domain simulations, which are crucial for understanding the electromagnetic response of complex structures. The flexibility and versatility of these tools enable researchers to modify boundary conditions and even change the equations themselves, providing a high level of control over the design process. For instance, the Naval Postgraduate School is using these tools to develop metafilms that exhibit near 100 percent absorption in the desired frequency, significantly improving the efficiency of THz imaging systems. Similarly, the Center for Metamaterials and Integrated Plasmonics at Duke University is using these tools to develop metamaterial-based lenses for wireless power transfer, making the distance between the power source and the device being charged appear to disappear.

Impact #1	Advanced modeling and simulation tools like COMSOL Multiphysics have enabled researchers to open up new avenues of discovery in the field of metamaterials.
Impact #2	These tools have been exceptionally helpful in the design and analysis of metafilms, allowing for precise control over their electromagnetic properties.
Impact #3	The ability to perform sensitivity analysis semi-analytically has enabled quick gradient-based optimization with a large number of design parameters.

Impact #1

Advanced modeling and simulation tools like COMSOL Multiphysics have enabled researchers to open up new avenues of discovery in the field of metamaterials.

Impact #2

These tools have been exceptionally helpful in the design and analysis of metafilms, allowing for precise control over their electromagnetic properties.

Impact #3

The ability to perform sensitivity analysis semi-analytically has enabled quick gradient-based optimization with a large number of design parameters.

Benefit #1	The use of metamaterials in antenna technology has led to significant advancements in this field.
Benefit #2	Metamaterial-based lenses have the potential to provide much higher resolution than lenses made from natural materials.
Benefit #3	The development of metafilms has enabled less expensive THz imaging devices.

Benefit #1

The use of metamaterials in antenna technology has led to significant advancements in this field.

Benefit #2

Metamaterial-based lenses have the potential to provide much higher resolution than lenses made from natural materials.

Benefit #3

The development of metafilms has enabled less expensive THz imaging devices.

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Overview

Metamaterials Make Physics Seem Like Magic

Operational Impact

Quantitative Benefit