Multi-Resonant Metamaterial Absorber for Electromagnetic Absorption in S-, C-, X-, and Ku- Bands

Iftikhar Ud Din, Daud Khan, Sarosh Ahmad, Tayeb A. Denidni · MDPI AG · 2026

This study presents a multi-resonant metamaterial absorber achieving over 97% electromagnetic absorption across several microwave frequency bands.

High AI ConfidenceStrong SourceWorking PrototypeDevelopment Stage

Plain English summary

The research introduces a compact metamaterial absorber designed for efficient electromagnetic absorption across multiple frequency bands, including S-, C-, X-, and Ku-bands. It features a hybrid resonator arrangement that allows for strong electromagnetic interactions and multiple resonant modes within a single unit cell, resulting in six distinct absorption peaks at various frequencies.

Why this matters

This work addresses the need for effective electromagnetic absorption, which is crucial for applications like radar and wireless communications. The high absorption performance and stable characteristics of the proposed absorber could significantly enhance the efficiency of electronic devices and systems in various industries.

Key findings

  • Achieves over 97% absorption across multiple microwave frequency bands.
  • Demonstrates six distinct absorption peaks at specified GHz frequencies.
  • Maintains stable performance for different polarization angles and wave incidences.
  • Prototype fabrication shows close agreement with simulated results.
  • Compact geometry and low fabrication cost enhance scalability.

What's new

The introduction of a compact multi-resonant absorber that operates efficiently across several microwave frequency bands is a significant advancement.

Limitations

The abstract does not provide details on long-term stability or environmental effects on performance.

Commercial context

The low fabrication cost and scalability suggest potential for commercial applications, though further validation may be needed.

Publication

Publisher
MDPI AG
Publication date
May 14, 2026
Research type
Paper
License
https://creativecommons.org/licenses/by/4.0/

Tags

More on Electromagnetic Metamaterials

See all →
Electromagnetic Metamaterialspaper· Jul 10, 2026

Dorsiventrally Bicolored Leaf‐Inspired Metamaterial Absorbers for Tailorable Electromagnetic Absorption

This research proposes a bioinspired metamaterial that achieves high-performance, tailorable electromagnetic absorption across a broad frequency range.

Xiaohan Liu, Wenjun Cai +10 · WileyLaboratory Research
Electromagnetic Metamaterialspaper· May 24, 2026

Tailored Multi‐Scale and Flexible Metamaterial for Broadband Electromagnetic Wave Absorption and Infrared Stealth

This research presents a flexible metamaterial absorber that achieves radar-IR compatible stealth with enhanced electromagnetic wave absorption.

Jun Li, Jinru Liu +5 · WileyLaboratory Research
Electromagnetic Metamaterialspaper· Feb 25, 2026

Low-Frequency Broadband Bandgap of a Tunable Metamaterial Beam with Electromagnetic Resonators: Numerical and Experimental Study

This study explores a tunable metamaterial beam that achieves low-frequency broadband bandgap broadening through electromagnetic resonators.

Xinlei Fan, Xiaochen Mao +4 · World Scientific Pub Co Pte LtdLaboratory Research
Electromagnetic Metamaterialspaper· Jan 19, 2026

Integrated Electromagnetic Wave Absorption‐Transmission via 3D‐Printed Bilayered Metamaterial

A bilayered 3D-printed metamaterial achieves integrated electromagnetic wave absorption and transmission, enhancing performance for communication systems.

Hanxu Sun, Tianyi Wang +7 · WileyLaboratory Research
Electromagnetic Metamaterialspaper· Dec 29, 2025

Magnetoresponsive Fiber-Reinforced Periodic Impedance-Gradient Absorber: Design and Microwave Absorption Performance

A novel multilayer metamaterial absorber achieves efficient electromagnetic absorption across multiple bands with enhanced mechanical properties.

Yuan Liang, Wei Chen +3 · MDPI AGLaboratory Research
Electromagnetic Metamaterialspaper· Dec 1, 2025

A truncated-pyramid ultra-wideband electromagnetic absorbing metamaterial based on superparamagnetic composite materials

This study presents a novel superparamagnetic composite metamaterial with over 90% electromagnetic wave absorption across C-band and X-band.

Guijiang Liu, Xingbao Lyu +4 · IOP PublishingLaboratory Research
Method note: Summaries and ratings on this page are generated by AI from the abstract only. Read the original paper for full context. · Model: gpt-4o-mini-2024-07-18