
Academic Journal
Q1Nature Electronics
About Nature Electronics
Nature Electronics is one of the most selective and most cited journals in the world for research on electronic materials, devices, circuits and systems. Launched by Nature Portfolio (Springer Nature) in 2018, it is a monthly, peer-reviewed journal that covers the full arc of electronics research — from novel physical phenomena and new devices through circuit design, computing hardware, sensing and the wider societal impact of electronic technologies. Its official 2025 Journal Impact Factor is 42.3, placing it among the very highest-impact journals in engineering and applied physics. This researched profile (NATEL-DEPTH-115-OCT2026) gathers the journal’s official metrics, editorial leadership, publication policies and most-cited papers from primary sources.
Journal at a glance
| Field | Detail |
|---|---|
| Title | Nature Electronics |
| Abbreviation (ISO 4) | Nat. Electron. |
| Publisher | Nature Portfolio (Springer Nature), United Kingdom |
| Launched | 2018 |
| Frequency | Monthly (12 issues per year) |
| Language | English |
| ISSN (print and online) | 2520-1131 |
| LCCN | 2018229712 |
| Publishing model | Hybrid — subscription with a gold open-access option for primary research articles (available since January 2021) |
| Open-access APC | £9,390 / $12,850 / €10,850 (official; subject to VAT/local taxes) |
| Chief Editor | Owain Vaughan, PhD |
| Official website | nature.com/natelectron |
| 2025 Journal Impact Factor | 42.3 |
| 2025 5-year Journal Impact Factor | 46.4 |
| 2025 SNIP | 6.591 |
| 2025 SJR (SCImago) | 12.430 — Q1, ranked #3 of 822 journals in Electrical and Electronic Engineering |
| SCImago h-index | 159 |
| Median first editorial decision | 10 days |
| Median submission to acceptance | 268 days |
| 2025 downloads | 2,605,659 |
| Indexed in | Science Citation Index Expanded (SCIE), Scopus, and others |
History and background
Nature Electronics was launched in 2018 as the electronics-focused member of the Nature Portfolio research journals — the same family that includes Nature Materials, Nature Nanotechnology and Nature Photonics. Its first issues appeared in early 2018, with editorials that month framing the journal’s mission around the relationship between deep technical innovation and the technologies reshaping society. In 2023 the journal marked its fifth anniversary with a dedicated series of short articles revisiting the key topics it had published over its first five years.
The journal was created to occupy a distinctive niche: it is neither a device-physics specialty journal nor a circuits-only engineering journal, but a venue that deliberately bridges novel phenomena, materials, devices, circuits, computing systems and the commercial and societal context of electronics. This positioning has proven durable. Within its first decade it became one of the most highly cited journals in electrical and electronic engineering worldwide, ranked third among 822 journals in that SCImago category in 2025 with an SJR of 12.430.
From the outset the journal has invested heavily in editorial content that looks beyond individual papers: annual “technology of the year” selections (brain–computer interfaces for 2023; three-dimensional electronics for 2024), themed collections, research highlights, news and commentary. These features explain part of its visibility — the journal functions not just as an archive of papers but as a running commentary on where electronics is heading.
Editorial leadership
Like other Nature Portfolio research journals, Nature Electronics has no external editorial board. All editorial decisions are made by a dedicated team of full-time professional editors with research backgrounds, who handle manuscripts, run peer review and make final publication decisions. The journal’s own editorial page describes this as a fair and rigorous process with high standards of copy-editing and production, swift publication and editorial independence.
The Chief Editor is Owain Vaughan, PhD. He joined Nature Research in 2008 as an editor for Nature Nanotechnology, where he handled topics across nanoscience and nanotechnology, and in 2016 moved into a strategy role developing the editorial and publishing strategy of the Nature journals in the applied physical sciences and engineering — with particular attention to electronics, robotics and artificial intelligence. He became Chief Editor of Nature Electronics in 2017, ahead of the journal’s 2018 launch. He holds a PhD in surface chemistry from the University of Cambridge and was previously a Junior Research Fellow at King’s College, Cambridge. He is based in London. The editorial team also includes associate editors such as Matthew Parker, PhD, who joined the journal in 2019 with a background in physics and photonic-crystal devices for quantum information applications.
Aims and scope: what the journal publishes
According to the journal’s official aims and scope, Nature Electronics publishes both fundamental and applied research across all areas of electronics — from the study of novel phenomena and devices to the design, construction and wider application of electronic circuits. It also covers commercial and industrial aspects of electronics research, with an explicit focus on how technological developments may affect society. The journal brings together scientists, engineers and industry, and provides comment, review and analysis of the key issues shaping the field and the key technologies reshaping society.
Topic areas officially covered by the journal include:
- Novel device physics and materials: spintronics; 2D and carbon electronics (graphene, carbon nanotubes, transition-metal dichalcogenides); organic electronics; bioelectronics; optoelectronics; NEMS/MEMS; flexible electronics.
- Computing and circuits: neuromorphic systems and in-memory computing; analogue circuits; data converters; digital circuits; VLSI design; memory technologies; signal processing.
- Systems and applications: sensors; displays; RF electronics; wireless systems; power electronics; electronics for metrology and scientific instruments.
In practice, the journal’s highest-impact papers cluster around a handful of themes: memristive and neuromorphic computing, two-dimensional-material transistors, flexible and wearable electronics, spintronics, and the future of communications hardware such as 6G. Authors should note that the journal expects significance beyond an incremental device demonstration — papers are judged on novelty, conceptual advance and likely influence on the field.
Article types
Nature Electronics publishes primary research Articles and Letters, Reviews, Perspectives, News & Views, Comments, Correspondence and editorials. Non-primary research articles (Reviews, Comments, News & Views) may not include original, previously unpublished research findings and are only published via the traditional subscription route — they are not eligible for gold open access.
Publication model and open access
Nature Electronics is a hybrid journal. Authors submitting primary research articles can choose between the traditional subscription publishing model and gold open access. The gold open-access option was introduced for the Nature Portfolio research journals from January 2021. Articles published open access are freely available online under a Creative Commons licence.
The official article processing charge for gold open access in Nature Electronics, published on the journal’s own publishing-options page, is:
- £9,390 (GBP)
- $12,850 (USD)
- €10,850 (EUR)
These figures are subject to VAT or local taxes where applicable, and authors should always confirm the current charge with the publisher at the time of acceptance, since APCs are set by acceptance date. Springer Nature operates waiver and discount programmes, including dedicated support for authors from low-income and lower-middle-income economies publishing in the Nature Portfolio hybrid journals.
Journal metrics and performance
The figures below are taken from the journal’s official Journal Metrics page on nature.com (2025 values, released with the 2026 Journal Citation Reports):
| Metric | Value |
|---|---|
| Journal Impact Factor | 42.3 (2025) |
| 5-year Journal Impact Factor | 46.4 (2025) |
| Immediacy Index | 6.8 (2025) |
| Eigenfactor Score | 0.04234 (2025) |
| Article Influence Score | 12.854 (2025) |
| SNIP (Source Normalized Impact per Paper) | 6.591 (2025) |
| SJR (SCImago Journal Rank) | 12.430 (2025) |
| Median submission to first editorial decision | 10 days |
| Median submission to acceptance | 268 days |
| Full-text downloads | 2,605,659 (2025) |
| Altmetric mentions | 2,563 (2025) |
Springer Nature is a signatory of DORA (the San Francisco Declaration on Research Assessment) and notes on its metrics pages that citation measures should be considered alongside article-level metrics such as downloads, citations and online attention when evaluating journals.
Impact factor history
The journal received its first Journal Impact Factor in 2020. Historical values reported in Journal Citation Reports and third-party trackers:
| JCR year | Impact Factor |
|---|---|
| 2020 | 27.5 |
| 2021 | 33.7 |
| 2022 | 34.3 |
| 2025 | 42.3 (official, nature.com) |
The trajectory is unusual for a young journal: the impact factor has risen in essentially every reporting year, reflecting the field’s rapid citation of its early review articles on memristors, 6G and wearable sensors, followed by sustained citation of primary research on 2D materials, neuromorphic hardware and flexible electronics. Values for the intervening years (2023, 2024) are not independently verified here; the figures to rely on are the official 2025 values above.
SCImago standing
In the 2025 SCImago rankings, Nature Electronics holds an SJR of 12.430 and Q1 status in all of its categories: Electrical and Electronic Engineering, Electronic Optical and Magnetic Materials, and Instrumentation. Within Electrical and Electronic Engineering it is ranked 3rd of 822 journals, behind only IEEE Communications Surveys and Tutorials and Nature Nanotechnology. Its SCImago h-index stands at 159 — meaning 159 of its papers have each been cited at least 159 times — with 212 documents published in 2025 and a 2-year citations-per-document figure of 17.53.
Landmark papers
The journal’s most-cited papers — verified via Crossref, with citation counts from the Crossref record — reveal the themes that built its reputation. All DOIs below resolve on doi.org.
| Paper | Authors (year) | Why it matters |
|---|---|---|
| In-memory computing with resistive switching devices doi:10.1038/s41928-018-0092-2 | D. Ielmini and H.-S. P. Wong (2018) | The journal’s single most-cited paper, with over 2,200 Crossref citations. This review laid out how resistive switching devices (memristors) could collapse the memory–processor divide, becoming the canonical reference for in-memory and neuromorphic computing research. |
| The future of electronics based on memristive systems doi:10.1038/s41928-017-0006-8 | M. A. Zidan, J. P. Strachan and W. D. Lu (2018) | An early, agenda-setting review from the journal’s launch year arguing that memristive systems could underpin a new computing paradigm. One of the most cited papers in the journal’s history. |
| What should 6G be? doi:10.1038/s41928-019-0355-6 | S. Dang, O. Amin, B. Shihada and M.-S. Alouini (2020) | A perspective that helped define the research conversation around sixth-generation wireless — terahertz communications, intelligent surfaces and the convergence of sensing and communication. Enormously cited across the wireless community. |
| Wearable sweat sensors doi:10.1038/s41928-018-0043-y | M. Bariya, H. Y. Y. Nyein and A. Javey (2018) | A landmark review of non-invasive biochemical sensing from sweat, connecting flexible electronics, electrochemistry and personalised health — a template for the journal’s bioelectronics coverage. |
| Analogue signal and image processing with large memristor crossbars doi:10.1038/s41928-017-0002-z | C. Li et al. (2018) | Demonstrated analogue computing on large-scale memristor arrays, showing that crossbar hardware could perform signal and image processing with high energy efficiency. |
| Fully memristive neural networks for pattern classification with unsupervised learning doi:10.1038/s41928-018-0023-2 | Z. Wang et al. (2018) | Reported a hardware neural network built entirely from memristive devices capable of unsupervised pattern classification — a milestone for on-chip learning. |
| Near-sensor and in-sensor computing doi:10.1038/s41928-020-00501-9 | F. Zhou and Y. Chai (2020) | Surveyed the shift of computation into the sensor itself, a design philosophy now central to edge AI and vision sensors. |
| Transistors based on two-dimensional materials for future integrated circuits doi:10.1038/s41928-021-00670-1 | S. Das et al. (2021) | A comprehensive assessment of whether 2D semiconductors can realistically extend silicon CMOS scaling — one of the journal’s most cited device-focused reviews. |
| Untethered soft robotics doi:10.1038/s41928-018-0024-1 | S. I. Rich, R. J. Wood and C. Majidi (2018) | Reviewed the electronics challenges of soft robots that operate without tethers — power, sensing and control in deformable machines. |
| Organic electronics for neuromorphic computing doi:10.1038/s41928-018-0103-3 | Y. van de Burgt et al. (2018) | Made the case for organic electrochemical devices as brain-inspired computing elements, bridging organic electronics and neuromorphic engineering. |
Technology of the year and editorial collections
A distinctive feature of the journal is its annual “technology of the year” selection, chosen by the editors: brain–computer interfaces for 2023 and three-dimensional electronics for 2024. The journal also publishes curated collections — for example on the Nobel Prizes in physics and chemistry — and ran a “Five years of Nature Electronics” series in 2023 revisiting key topics from its first half-decade. These editorial projects make the journal’s website a useful entry point for researchers trying to map fast-moving subfields.
Publishing in Nature Electronics: what authors should know
Nature Electronics is highly selective. While the publisher does not officially publish an acceptance rate — and no reliable figure is available — the combination of a 42.3 impact factor and Nature-family editorial standards means competition is intense and desk rejection of out-of-scope or incremental work is common. Practical points for prospective authors:
- Scope fit first: the journal wants conceptual advances with broad significance for electronics, not routine device reports. Manuscripts that would fit comfortably in a specialty journal are typically redirected.
- Novelty and societal context: the aims explicitly include the commercial, industrial and societal dimensions of electronics research; framing the work’s wider relevance helps.
- Timeline: expect a median of 10 days to the first editorial decision (desk reject or peer review), but a median of 268 days from submission to acceptance — peer review and revision at this tier take time.
- Open access choice: decide at submission whether to use the subscription route or gold open access; only primary research articles are eligible for the OA route.
- Submission: manuscripts are submitted through the journal’s online system on nature.com/natelectron, and author guidelines cover formatting, data availability and reporting standards.
Indexing, archiving and access
Nature Electronics is indexed in the Science Citation Index Expanded (SCIE) — the index from which Journal Impact Factors are computed — and in Scopus. Coverage history runs from its 2018 launch to the present. Full-text access is by institutional or personal subscription unless an article is published gold open access; the journal’s 2025 usage figures show over 2.6 million full-text downloads in a single year, indicating very broad readership for a selective journal.
A journal that reads the field as well as publishing it
What distinguishes Nature Electronics from equally cited competitors is the weight it places on interpretation. Alongside primary research, the journal commissions News & Views pieces in which independent experts place new results in context, publishes interviews with technology leaders, and uses its editorials to take positions on issues such as research reproducibility in device science, the environmental footprint of semiconductor manufacturing and the responsible development of AI hardware. The 2023 “five years of Nature Electronics” series is a good example: rather than simply celebrating an anniversary, the editors used it to trace how topics like memristive computing and flexible bioelectronics had matured since the journal’s launch. For readers, this means the journal works as a map of the electronics research landscape, not only as a repository of results; for authors, it means a paper here is likely to be read, contextualised and cited by people well outside its immediate subfield.
Not to be confused with
The electronics journal landscape includes several similarly named titles. Nature Electronics (ISSN 2520-1131, Nature Portfolio) is distinct from Electronics (MDPI, ISSN 2079-9292), npj Flexible Electronics and npj Self-Powered Electronics (also Nature Portfolio, different APCs and scopes), and the many IEEE Transactions in circuits and devices. Always verify the ISSN 2520-1131 and the nature.com/natelectron domain when citing or submitting.
Frequently asked questions
What is the impact factor of Nature Electronics?
The official 2025 Journal Impact Factor, published on the journal’s nature.com metrics page, is 42.3 (5-year: 46.4).
What is the ISSN of Nature Electronics?
2520-1131 — the same number serves for both print and online editions.
Who is the editor of Nature Electronics?
The Chief Editor is Owain Vaughan, PhD, who has led the journal since 2017. The journal uses professional in-house editors rather than an external editorial board.
Is Nature Electronics open access?
It is a hybrid journal: most articles are subscription-access, but authors of primary research articles can pay an APC (£9,390 / $12,850 / €10,850) for gold open access.
How long does peer review take?
The official medians are 10 days to first editorial decision and 268 days from submission to acceptance.
What is the acceptance rate of Nature Electronics?
Not officially published. No acceptance-rate figure is released by the publisher, and any third-party number should be treated with caution.
How often is Nature Electronics published?
Monthly — twelve issues per year, in English.
Profile researched from official sources in October 2026 (marker NATEL-DEPTH-115-OCT2026). Metrics should be re-checked against the journal’s nature.com metrics page before formal use, as citation indicators are updated annually.
Nature Electronics is a leading scientific journal that publishes cutting-edge research in the field of electronics. It covers a broad spectrum of topics, including semiconductor technologies, nanotechnology, artificial intelligence, and quantum computing. The journal provides a platform for researchers, engineers, and industry experts to showcase innovative discoveries that shape the future of electronic devices and systems.
The Scope of Nature Electronics
Nature Electronics focuses on a wide range of topics related to electronic engineering, offering valuable insights into:- Semiconductor Technology: The latest advancements in transistor designs, flexible electronics, and integrated circuits.
- Artificial Intelligence and Machine Learning: The role of AI in optimizing electronic systems and enhancing automation.
- Quantum Computing: Innovations in quantum processors and their potential applications in data security and high-performance computing.
- Sustainable and Green Electronics: The development of energy-efficient electronic devices to reduce carbon footprints.
- Wearable and IoT Devices: Emerging trends in smart technology for healthcare, communication, and everyday applications.
Why Nature Electronics is Important
Nature Electronics is instrumental in driving the future of electronics by publishing peer-reviewed research that impacts both academia and industry. The journal features studies that lead to technological breakthroughs, fostering collaboration among scientists, engineers, and tech companies worldwide.- Bridging the Gap Between Research and Application
- It provides real-world applications of fundamental research, ensuring that scientific discoveries translate into practical solutions.
- Promoting Sustainable Electronic Solutions
- With the increasing demand for eco-friendly technology, Nature Electronics highlights innovations in renewable energy integration and biodegradable electronics.
- Encouraging Interdisciplinary Research
- The journal covers topics that intersect with physics, material science, and engineering, fostering a multidisciplinary approach to solving complex electronic challenges.
How to Access Nature Electronics
Nature Electronics is available through the Nature Publishing Group, offering both open-access and subscription-based content. Researchers, students, and professionals can access groundbreaking studies, review articles, and expert opinions that contribute to the evolution of electronics.Verified field sources
- Journal Impact Factor: 42.3 — Official source; checked 2026-10-03. 2025 Journal Impact Factor reported by Nature Portfolio; not a five-year impact factor.
- Impact Factor year: 2025 — Official source; checked 2026-10-03. 2025 Journal Impact Factor reported by Nature Portfolio; not a five-year impact factor.
Source-backed journal facts
Topics in published research
Advanced Memory and Neural Computing; Advanced Sensor and Energy Harvesting Materials; Ferroelectric and Negative Capacitance Devices; 2D Materials and Applications; Graphene research and applications; Semiconductor materials and devices.
OpenAlex classifies topics from published works. These topics are not the publisher’s official aims and scope.
Reported open-access list prices
12,690.00 USD; 10,690.00 EUR; 9,190.00 GBP
APC list prices reported by OpenAlex, which obtains this information from DOAJ. Confirm current charges, taxes, waivers and eligibility with the publisher; this is not a fee quotation.
Source: OpenAlex source record. Retrieved 2026-10-03. Source record updated 2026-10-02. OpenAlex metrics are different from SCImago metrics and the Clarivate Journal Impact Factor.
Journal Metrics
Quartile, SJR and the listed SCImago H-index use the 2025 imported SCImago dataset. A quartile may vary by subject category. Values without a source or reporting year are unverified historical entries. Verify the current Journal Impact Factor with Clarivate or the publisher before using it.
Aims & Scope
Electronics is a rapidly evolving field that plays a crucial role in modern technology. From consumer gadgets to industrial automation, electronics influence almost every aspect of our lives. Understanding the scope and nature of electronics helps in appreciating its applications and potential for future advancements.
Nature of Electronics
Electronics is a branch of physics and engineering that deals with the study, design, and application of electrical circuits that involve active components such as transistors, diodes, and integrated circuits. Unlike electrical engineering, which primarily focuses on power generation and transmission, electronics is more concerned with low-power applications, signal processing, and automation.Key characteristics of electronics include:- Signal Processing: Electronics focuses on manipulating electrical signals for communication, computation, and control.
- Miniaturization: Modern electronics strive for compact, energy-efficient devices.
- Automation and Control: Electronics play a vital role in automation, robotics, and artificial intelligence.
- Integration with Digital Systems: The integration of electronics with computing technologies enables advancements in artificial intelligence, IoT (Internet of Things), and smart devices.
Scope of Electronics
The scope of electronics is vast, covering multiple industries and applications:1. Consumer Electronics
Electronics are an essential part of our daily lives, powering devices such as smartphones, laptops, televisions, and home automation systems. With technological advancements, wearable devices and smart home solutions are becoming increasingly popular.2. Communication Systems
Telecommunication, satellite systems, and networking technologies rely heavily on electronic circuits and signal processing. Innovations in 5G, fiber-optic communications, and wireless networking demonstrate the growing influence of electronics in communication.3. Industrial Automation
Factories and production lines use electronic control systems, including programmable logic controllers (PLCs), sensors, and robotics, to improve efficiency and precision in manufacturing processes.4. Healthcare and Medical Devices
Medical technology has greatly benefited from electronics, with advancements in diagnostic equipment, wearable health monitors, and implantable devices like pacemakers.5. Automotive and Transportation
The automobile industry incorporates electronics for engine control, safety features like ABS, GPS navigation, and electric vehicles (EVs). Autonomous driving technology also relies on sophisticated electronic systems.6. Aerospace and Defense
Electronics play a critical role in navigation, avionics, radar systems, and advanced defense mechanisms. Drones, satellites, and space exploration missions depend on cutting-edge electronic technologies.7. Renewable Energy and Power Electronics
With the growing focus on sustainable energy, electronics contribute to power conversion, battery management, and energy-efficient solutions in solar panels, wind turbines, and smart grids.Future of Electronics
The future of electronics is driven by emerging trends such as Artificial Intelligence (AI), Quantum Computing, Flexible Electronics, and Nanotechnology. Innovations in semiconductor technology and IoT will continue to transform industries, making electronics more intelligent, efficient, and sustainable.Recent Research Articles
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October 11, 2026 at 7:32 pm
March 21, 2025