Physical Neuromorphic Computing and its Industrial Applications

  • 7,507

    Total downloads

  • 59k

    Total views and downloads

Download PDFDownload EPUB

Submit your idea

You will be redirected to our submission process.

Submit your manuscript summarySubmit your manuscript

About this Research Topic

Submission closed

Background

AI technologies handling unstructured cognitive data (e.g voices, images, videos, and texts) are becoming a crucial source of competitiveness for all industries in both cloud and edge environments. Artificial neural networks are a powerful concept to handle such data, however, current implementations by software and general-purpose processors with GPU acceleration are power-hungry and computer-intensive so far because of the recent surge in the amount of unstructured data and the growing scale of AI models. The mainstream of current hardware platforms for AI is based on well-matured ASIC technology and CMOS technologies supported by Moore’s law. However, with the downscaling limit of conventional technologies, traditional digital electronic computing will face performance and power efficiency challenges, because of the constraints imposed by the von-Neumann architecture. Thus, developing disruptive AI hardware platforms for these challenges is essential to realize next-generation cloud and edge computing systems.

To address the power and performance constraints, acceleration by neuromorphic devices is a promising approach. In fact, various CMOS-based neuromorphic devices have been reported so far. In recent years, motivated by the potential computational capabilities of various natural physical phenomena, unconventional computing paradigms have been actively investigated in the interdisciplinary region of computer science and natural science. For example, optical/photonics neuromorphic computing based on matured silicon photonics and optical interconnect is attracting much attention as a high-speed AI accelerator. Analog memristive devices are utilized for neuromorphic computing with on-chip learning capability. Physical reservoir computing utilizes a broader range of physics such as photonics, spintronics, material, and quantum for speed and power efficiency. The objectives of this Research Topic are to investigate the possibility of incorporating such diverse natural physical phenomena into neuromorphic computing and to go beyond the limitation of traditional CMOS-based electronics devices, which we call “physical neuromorphic computing”. In this Research Topic, to accelerate the development of physical neuromorphic computing from diverse backgrounds, the Topic Editors welcome papers to present the state-of-the-art technologies relevant to theory, algorithm, implementation, and practical industry applications.

The scope of interest in this Research Topic includes the following, but is not limited to:

1. Algorithms and device implementation of physical neuromorphic computing such as:
- electronic neuromorphic computing
- optical/photonic neuromorphic computing
- physical reservoir computing (optics/photonics, magnetics, materials, mechanics, etc.)

One can use major standard benchmark tasks such as image and voice recognition for validation and comparison purposes. We welcome articles that describe novel datasets for neuromorphic systems including MNIST, EMNIST and N-MNIST datasets.

2. Industrial applications of physical neuromorphic computing, in particular, cloud and edge computing such as:
- acceleration of large-scale AI algorithms at cloud
- Internet-of-Things, sensor data analytics
- surveillance, anomaly detection at edge
- control of autonomous vehicles, robots, and drones
- intelligent networking systems, in-network computing

Since our Research Topic covers wide application areas as above, one can use open-data sources, for example, text corpora, network traffic data, machine-to-machine, and IoT transaction data, etc.

3. Neuroscience-specific applications of physical neuromorphic computing

- Simulations of neural networks
- Analysis of cognitive data including neural imaging data
- Use of data sets for brain models and visualization

Keywords: analog neuromorphic devices, photonic neuromorphic computing, physical reservoir computing, edge computing, cloud computing

Important note: All contributions to this Research Topic must be within the scope of the section and journal to which they are submitted, as defined in their mission statements. Frontiers reserves the right to guide an out-of-scope manuscript to a more suitable section or journal at any stage of peer review.

Topic editors

Frequently asked questions

  • Frontiers' Research Topics are collaborative hubs built around an emerging theme.Defined, managed, and led by renowned researchers, they bring communities together around a shared area of interest to stimulate collaboration and innovation.

    Unlike section journals, which serve established specialty communities, Research Topics are pioneer hubs, responding to the evolving scientific landscape and catering to new communities.

  • The goal of Frontiers' publishing program is to empower research communities to actively steer the course of scientific publishing. Our program was implemented as a three-part unit with fixed field journals, flexible specialty sections, and dynamically emerging Research Topics, connecting communities of different sizes and maturity.

    Research Topics originate from the scientific community. Many of our Research Topics are suggested by existing editorial board members who have identified critical challenges or areas of interest in their field.

  • As an editor, Research Topics will help you build your journal, as well as your community, around emerging, cutting-edge research. As research trailblazers, Research Topics attract high-quality submissions from leading experts all over the world.

    A thriving Research Topic can potentially evolve into a new specialty section if there is sustained interest and a growing community around it.

  • Each Research Topic must be approved by the specialty chief editor, and it falls under the editorial oversight of our editorial boards, supported by our in-house research integrity team. The same standards and rigorous peer review processes apply to articles published as part of a Research Topic as for any other article we publish.

    In 2023, 80% of the Research Topics we published were edited or co-edited by our editorial board members, who are already familiar with their journal's scope, ethos, and publishing model. All other topics are guest edited by leaders in their field, each vetted and formally approved by the specialty chief editor.

  • Publishing your article within a Research Topic with other related articles increases its discoverability and visibility, which can lead to more views, downloads, and citations. Research Topics grow dynamically as more published articles are added, causing frequent revisiting, and further visibility.

    As Research Topics are multidisciplinary, they are cross-listed in several fields and section journals – increasing your reach even more and giving you the chance to expand your network and collaborate with researchers in different fields, all focusing on expanding knowledge around the same important topic.

    Our larger Research Topics are also converted into ebooks and receive social media promotion from our digital marketing team.

     

  • Frontiers offers multiple article types, but it will depend on the field and section journals in which the Research Topic will be featured. The available article types for a Research Topic will appear in the drop-down menu during the submission process.

    Check available article types here 

  • Yes, we would love to hear your ideas for a topic. Most of our Research Topics are community-led and suggested by researchers in the field. Our in-house editorial team will contact you to talk about your idea and whether you’d like to edit the topic. If you’re an early-stage researcher, we will offer you the opportunity to coordinate your topic, with the support of a senior researcher as the topic editor. 

    Suggest your topic here 

  • A team of guest editors (called topic editors) lead their Research Topic. This editorial team oversees the entire process, from the initial topic proposal to calls for participation, the peer review, and final publications.

    The team may also include topic coordinators, who help the topic editors send calls for participation, liaise with topic editors on abstracts, and support contributing authors. In some cases, they can also be assigned as reviewers.

  • As a topic editor (TE), you will take the lead on all editorial decisions for the Research Topic, starting with defining its scope. This allows you to curate research around a topic that interests you, bring together different perspectives from leading researchers across different fields and shape the future of your field. 

     

    You will choose your team of co-editors, curate a list of potential authors, send calls for participation and oversee the peer review process, accepting or recommending rejection for each manuscript submitted.

  • As a topic editor, you're supported at every stage by our in-house team. You will be assigned a single point of contact to help you on both editorial and technical matters. Your topic is managed through our user-friendly online platform, and the peer review process is supported by our industry-first AI review assistant (AIRA).

  • If you’re an early-stage researcher, we will offer you the opportunity to coordinate your topic, with the support of a senior researcher as the topic editor. This provides you with valuable editorial experience, improving your ability to critically evaluate research articles and enhancing your understanding of the quality standards and requirements for scientific publishing, as well as the opportunity to discover new research in your field, and expand your professional network.

  • Yes, certificates can be issued on request. We are happy to provide a certificate for your contribution to editing a successful Research Topic.

  • Research Topics thrive on collaboration and their multi-disciplinary approach around emerging, cutting-edge themes, attract leading researchers from all over the world.

  • As a topic editor, you can set the timeline for your Research Topic, and we will work with you at your pace. Typically, Research Topics are online and open for submissions within a few weeks and remain open for participation for 6 – 12 months. Individual articles within a Research Topic are published as soon as they are ready.

    Find out more about our Research Topics

  • Our fee support program ensures that all articles that pass peer review, including those published in Research Topics, can benefit from open access – regardless of the author's field or funding situation.

    Authors and institutions with insufficient funding can apply for a discount on their publishing fees. A fee support application form is available on our website.

  • In line with our mission to promote healthy lives on a healthy planet, we do not provide printed materials. All our articles and ebooks are available under a CC-BY license, so you can share and print copies.

     

Impact

  • 59kTopic views
  • 51kArticle views
  • 7,507Article downloads
View impact