Published bimonthly by Taylor & Francis, Waves in Random and Complex Media is a leading peer‑reviewed journal that documents the frontiers of wave physics and electromagnetics. It provides a scholarly home for research on both classical and quantum wave phenomena, scattering, plasmonics, metamaterials, and related topics that arise when waves travel through disordered or engineered structures.
Why a Dedicated Journal Matters
Wave phenomena are ubiquitous: from the ripples on a pond to the propagation of radio signals across continents, from electron wavefunctions in quantum devices to acoustic vibrations in the human body. When those waves encounter random (disordered) or complex (engineered) media, their behavior can deviate dramatically from textbook predictions. Understanding these deviations is essential for:
- Communications – designing robust wireless links that survive multipath scattering.
- Sensing and Imaging – exploiting speckle patterns to see through fog, tissue, or geological layers.
- Energy Harvesting – tailoring photonic or phononic structures to trap and convert light or sound.
- Fundamental Physics – probing localization, topological phases, and quantum decoherence.
A specialized venue such as Waves in Random and Complex Media consolidates disparate advances under a common editorial umbrella, fostering cross‑disciplinary dialogue and accelerating the translation of theory into application.
Scope and Core Topics
The journal explicitly covers research in wave physics and electromagnetics, with an emphasis on:
| Category | Typical Research Areas |
|---|---|
| Classical Waves | Acoustic, elastic, and electromagnetic wave propagation; scattering from rough surfaces or heterogeneous materials. |
| Quantum Waves | Electron transport in disordered potentials; matter‑wave interferometry; decoherence in complex environments. |
| Wave Scattering | Multiple scattering theory, coherent backscattering, Anderson localization, radiative transfer. |
| Plasmonics | Surface plasmon polaritons on nanostructured metals, coupling to random gratings, loss mitigation. |
| Metamaterials | Engineered media with negative refractive index, hyperbolic dispersion, or topological edge states. |
By embracing both classical and quantum regimes, the journal encourages contributions that bridge traditional optics, acoustics, condensed‑matter physics, and emerging nanophotonic platforms.
Historical Evolution
1991 – Inception as Waves in Random Media
The journal began its life in 1991 under the title Waves in Random Media. At that time, the scientific community was witnessing a surge of interest in how disorder influences wave transport, spurred by breakthroughs in Anderson localization and the development of early photonic crystals.
Early Publisher: IOP Publishing
During its first decade, the journal was published by IOP Publishing, a well‑established outlet for physics research. The partnership helped cement the journal’s reputation among theoretical and experimental physicists working on disordered systems.
2004 – Rebranding and Acquisition by Taylor & Francis
In 2004, the journal was acquired by Taylor & Francis and renamed to its current title, Waves in Random and Complex Media. The new name reflected an expanded vision that embraced not only random media but also engineered complex media such as metamaterials and plasmonic structures. This transition broadened the journal’s appeal and aligned it with the rapid growth of nanophotonics and acoustic metamaterials.
Editorial Leadership
Founding Editor‑in‑Chief
The journal’s founding editor‑in‑chief was Akira Ishimaru, a distinguished professor at the University of Washington. Ishimaru’s own research on wave propagation in random media set a high scholarly standard and attracted a global community of contributors.
Current Editors‑in‑Chief
The editorial helm now rests with two eminent scientists:
| Editor | Affiliation |
|---|---|
| Francesco Zirilli | Sapienza University of Rome |
| Saba Mudaliar | Air Force Research Laboratory |
Both bring complementary expertise—Zirilli with a strong background in theoretical wave scattering and metamaterials, and Mudaliar with applied research in electromagnetic wave manipulation for defense and communications. Their leadership ensures that the journal remains at the cutting edge of both fundamental and applied studies.
Publication Rhythm and Accessibility
Waves in Random and Complex Media follows a bimonthly schedule, delivering six issues each calendar year. This cadence balances timely dissemination with rigorous peer review, allowing authors to receive feedback and revisions within a reasonable timeframe while maintaining high editorial standards.
The journal is peer‑reviewed, meaning each manuscript undergoes evaluation by independent experts in the relevant subfield. This process safeguards scientific integrity and ensures that published work meets the community’s expectations for novelty, methodological soundness, and relevance.
Taylor & Francis provides both subscription‑based access for institutions and individual article purchase options, as well as open‑access pathways for authors who wish to make their work freely available under a Creative Commons license.
Illustrative Research Themes
Below are representative themes that have appeared in recent issues, illustrating the breadth of the journal’s coverage.
1. Anderson Localization of Light in Disordered Photonic Structures
Researchers have reported experimental observations of light becoming trapped in three‑dimensional random dielectric networks, confirming theoretical predictions of Anderson localization for photons. These studies combine high‑resolution microscopy with statistical analysis of transmission spectra.
2. Hyperbolic Metamaterials for Sub‑Diffraction Imaging
Articles have explored hyperbolic dispersion in multilayer metal–dielectric stacks, enabling the propagation of high‑k waves that carry sub‑wavelength information. The work demonstrates how engineered complex media can overcome the diffraction limit, with implications for biomedical imaging.
3. Surface Plasmon Polaritons on Random Nanogrids
Investigations into plasmonic waveguides patterned with stochastic nanogrids reveal enhanced field localization and broadband absorption, offering pathways for efficient solar‑energy harvesting and sensing.
4. Quantum Transport in Disordered Graphene
The journal has featured theoretical studies on how random strain fields and impurity distributions affect Dirac fermion propagation in graphene, shedding light on the interplay between disorder and relativistic quantum dynamics.
5. Acoustic Metasurfaces for Wavefront Shaping
Experimental papers have demonstrated thin acoustic metasurfaces that manipulate sound wavefronts via spatially varying sub‑wavelength resonators, enabling applications ranging from acoustic cloaking to directional speakers.
These examples illustrate the journal’s commitment to publishing both fundamental insights and practical innovations that arise when waves encounter non‑trivial media.
Impact on Science and Technology
Enabling Robust Communication Systems
By elucidating how electromagnetic waves scatter in complex environments—urban canyons, indoor spaces, or ionospheric turbulence—research published in the journal informs the design of next‑generation wireless standards (e.g., 6G) that must operate reliably despite multipath interference.
Advancing Non‑Destructive Evaluation (NDE)
Acoustic and elastic wave studies in random composites have led to improved NDE techniques for detecting cracks, voids, or inclusions in aerospace components, where traditional inspection methods struggle.
Fueling Photonic and Phononic Device Innovation
Insights into plasmonic scattering and metamaterial dispersion underpin the development of compact photonic circuits, thermal management solutions, and phononic filters that control heat flow at the nanoscale.
Contributing to Fundamental Physics
The journal’s quantum‑wave articles probe decoherence, topological protection, and wavefunction statistics, providing experimental platforms that test the limits of quantum mechanics in noisy environments.
Connection to the Apiary Mission (Optional)
The Apiary platform focuses on bee conservation and the governance of AI agents. While Waves in Random and Complex Media does not directly address pollinator health, the journal’s emphasis on wave‑based sensing can indirectly support ecological monitoring. For instance, acoustic wave scattering techniques described in the journal could be adapted to non‑invasive acoustic imaging of hive interiors, allowing AI‑driven agents to assess colony health without disturbance. If such interdisciplinary collaborations emerge, they would exemplify the kind of cross‑domain innovation that Apiary encourages.
Future Directions for the Journal
Looking ahead, Waves in Random and Complex Media is poised to expand in several strategic areas:
- Data‑Driven Wave Physics – Incorporating machine‑learning frameworks for predicting scattering in highly complex structures.
- Topological Wave Phenomena – Publishing work on topologically protected edge states in disordered photonic and acoustic lattices.
- Quantum‑Classical Hybrids – Exploring systems where quantum and classical wave behaviors coexist, such as hybrid optomechanical resonators.
- Sustainable Materials – Highlighting research on environmentally benign metamaterials that reduce reliance on rare metals.
- Open‑Science Initiatives – Encouraging the submission of open data sets and reproducible code to accelerate community verification.
These trajectories will ensure that the journal remains a vital conduit for breakthroughs that shape both our scientific understanding and technological capabilities.
FAQ
When was the journal first established, and under what name? The journal was established in 1991 under the name Waves in Random Media.
Which publishers have been responsible for the journal, and when did the current publisher take over? It was originally published by IOP Publishing. In 2004, after its acquisition by Taylor & Francis, the journal adopted its current title, Waves in Random and Complex Media.
Who were the founding and current editors‑in‑chief? The founding editor‑in‑chief is Akira Ishimaru of the University of Washington. The current editors‑in‑chief are Francesco Zirilli (Sapienza University of Rome) and Saba Mudaliar (Air Force Research Laboratory).
How frequently is the journal published? The journal is bimonthly, releasing six issues each year.
What main research areas does the journal cover? It publishes work on wave physics and electromagnetics, including the propagation of classical and quantum waves, wave scattering, plasmonics, and metamaterials.