Archives: Questions

IOP Publishing (IOP) has a transformative agreement with one institution in Saudi Arabia in the to enable a transition to open access publishing.

“As pioneers in open access publishing, KAUST Library have signed a number of transformative agreements and continues to excel in this field. With the new unlimited IOPP 3-year deal, we’ve reached a new milestone on our open access publishing journey which provides wider recognition and greater impact of KAUST research.”
Nora Alshibani, KAUST Library Director

Who can benefit?
All corresponding authors that are current staff members, researchers (permanent, temporary and visiting), or students at one of the institutions below at the point of submission, can publish open access at no cost to themselves. The corresponding author is the person listed as Corresponding Author at the time of submission, and is the person responsible for communicating with the journal during the peer review and publication process.

What’s included?

• Articles accepted will be eligible for transformative agreement funding to enable authors to publish open access with no cost to themselves
• Research paper, special issue, letter and review article types
• Included journals are those in lists A, B, C and D. Click here for a full title list of eligible journals.

Please note
You may find our author guide for submitting under a transformative agreement helpful located in our Transformative Agreement hub. For more information, please contact your relevant library contact at your university.

Eligible institutions
King Abdullah University of Science and Technology (KAUST)

IOP Publishing (IOP) has a transformative agreement with a number of institutions in Taiwan to enable a transition to open access publishing.

Who can benefit?
All corresponding authors that are current staff members, researchers (permanent, temporary and visiting), or students at one of the institutions below at the point of submission, can publish open access at no cost to themselves. The corresponding author is the person listed as Corresponding Author at the time of submission, and is the person responsible for communicating with the journal during the peer review and publication process.

What’s included?

• Articles accepted will be eligible for transformative agreement funding to enable authors to publish open access with no cost to themselves
• Research paper, special issue, letter and review article types
• Included journals are dependent on your eligible institution, please see the below list for details. Click here for a full title list of eligible journals.

Please note

You may find our author guide for submitting under a transformative agreement helpful located in our Transformative Agreement hub.

For more information, please contact your relevant library contact at your university, or stma@mx.nthu.edu.tw. You can also visit the Physics Research Promotion Center.

Eligible Journals List A, B, C and D

National Chin-Yi University of Technology

Physics Research Promotion Center:
• Academia Sinica
• Chung Yuan Christian University
• National Central University
• National Changhua University of Education
• National Cheng Kung University
• National Chengchi University
• National Chung Cheng University
• National Chung Hsing University
• National Dong Hwa University
• National Sun Yat-sen University
• National Synchrotron Radiation Research Center
• National Taiwan Normal University
• National Taiwan Ocean University
• National Taiwan University
• National Taiwan University of Science & Technology
• National Tsing Hua University
• National Yang Ming Chiao Tung University
• Soochow University
• Tamkang University
• Tunghai University

Taipei Medical University

Is your institution not listed here? Recommend open access funding to your library.

IOP Publishing (IOP) has a transformative agreement with three institutions in Japan to enable a transition to open access publishing.

Who can benefit?
All corresponding authors that are current staff members, researchers (permanent, temporary and visiting), or students at one of the institutions below at the point of submission, can publish open access at no cost to themselves. The corresponding author is the person listed as Corresponding Author at the time of submission, and is the person responsible for communicating with the journal during the peer review and publication process.

What’s included?

• Articles accepted will be eligible for transformative agreement funding to enable authors to publish open access with no cost to themselves
• Research paper, special issue, letter and review article types
• Included journals are those in lists A, B, C and D. Click here for a full title list of eligible journals.

Please note
Funding is subject to librarian funding approval at acceptance stage. If for any reason funding is declined, the author(s) will have the opportunity to revert to subscription publication type at zero cost to themselves or the member institution.

Eligible instiutions
Okinawa Institute of Science and Technology* 
Toyota Central Research & Development Laboratories*

You may find our author guide for submitting under a transformative agreement helpful located in our Transformative Agreement hub. For more information, please contact your relevant library contact at your university.

*there is a limited number of articles per calendar year

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Along with two other researchers, Christopher Marsh validated the cutting-edge global-extent “forest and buildings removed Copernicus digital elevation model” (FABDEM) for accuracy. Their research provides confidence in space-based topography mapping, especially in canopy filled mountain terrain. Read Christopher Marsh’s article in Environmental Research Communications: Validation of FABDEM, a global bare-earth elevation model, against UAV-lidar derived elevation in a complex forested mountain catchment

Congratulations on your latest paper. Can you please briefly explain the research that was published?

In the Earth Sciences, satellite imagery is used extensively to map and study terrain. A persistent problem in space-based observation and topography models is that tree canopies and urban canopies lead to overestimation of elevation. Last year, researchers released a global-coverage digital elevation dataset called FABDEM that uses machine learning to remove the artifacts of vegetation and buildings from mapped terrain. This dataset thus offers maps of the bare earth, denuded of canopies and with improved precision.

Our work is an independent evaluation of the accuracy of the FABDEM dataset. We compared the global FABDEM dataset to elevation measured using a LIDAR sensor mounted on an unmanned aerial vehicle (UAV). LIDAR is short for Light Detection and Ranging. It is a method used to image the surface of the earth remotely. UAV-LIDAR provides the highest resolution and accuracy possible for elevation mapping beneath forest canopies and represents the best estimate of the “true” elevation. We evaluated the dataset in one of the trickiest locations—steep, forested mountain terrain. We found that the FABDEM global-coverage dataset was comparable to the UAV-LIDAR dataset and was best-in-class when compared to other existing and commonly used vegetation-removed datasets.

Do you have any personal motivation for studying this topic?

As hydrological modelers and field researchers, we depend heavily on good digital representations of the topography across basins and regions. As mentioned previously, removing vegetation and urban canopies is crucial to improving the accuracy of space-based elevation measurements. FABDEM is the latest database of elevation data. But it needs to be tested and validated. Being able to validate next-generation datasets with our own highly detailed LIDAR observations gives us confidence in these datasets. This is what motivated this study.

What do you imagine are the potential real-life applications of your research, or how will it affect people’s lives in the long term?

The FABDEM dataset is considered one of the best global-coverage datasets. However, because it includes the biases of forest canopies, it is considered less useful for certain types of hydrological modeling and ecological studies, especially in rugged mountain topography. Thus, the machine-learning dataset can potentially be used if it is proven to be accurate in such locations. Also, the steep, forested mountain areas are typically poorly represented in many datasets. So, having an independent evaluation in this location can give other researchers further confidence in using the FABDEM dataset.

Can you describe the process of publishing through a transformative agreement with IOPP?

It was very effortless and automatic. Our institution was clearly listed as having signed the transformative agreement with IOPP. Therefore, it all worked out seamlessly throughout the submission, review, and publication process.

What do you think are the advantages of publishing through a transformative agreement?

Publishing open access is critical for maximizing research impact and ensuring widespread dissemination of research findings. Being able to do so at no cost is important for us researchers, and it removes any hesitation to publish open access. Normally, publishing open access incurs a significant cost—so consideration is limited to if/when funds are available and specific papers. The transformative agreement gives researchers the financial freedom to share more of their valuable work with the world.

What is your advice for other authors looking to publish open access through transformative agreements?

It was not an agreement we were previously aware of; therefore, I would encourage other authors to check if their institution is a partner proactively!

To make your figures accessible to as many readers as possible, try to avoid conveying information using only colour differences. In graphs and plots use symbols, labels, line styles or fill patterns to indicate different data, in addition to different colours.

Figure 1. Demonstration of using labels or line styles so that information is clear when figures are converted to greyscale. Left panels show lines in different colours which are very similar when converted to greyscale (right panels). The lines are easy to distinguish by using either labels (top panels) or line styles (bottom panels). The same principle can be applied to other types of chart.

It is not always possible to have good colour contrast or to use labels or symbols, for example with photographic images or colour gradient maps.

For all figures it is important to use the figure caption to provide a description of the information that the figure conveys so that all readers, including those using screen-reader technology, can understand why the image is present. Figure captions must be understandable without needing to refer to the main text of the article.

Figures 2-5 are examples taken from published articles to demonstrate use of the figure caption to describe the information that the image conveys.

 

Figure 2. FMR response curves of PMA–SAF as a function of the phase factor θ of microwave fields. Here H₀ = 2 kOe, h₀ = 30 Oe and θ varies from 0° to 180°. The resonance signal amplitude of the LH mode increases while that of RH mode decreases with θ increasing. [Example figure taken from Chen X et al 2021 New J. Phys. 23 113029 https://iopscience.iop.org/article/10.1088/1367-2630/ac3556]

 

Figure 3. Plot of 𝒫₀(Δθ) (equation (3)) from Δθ ∈ [−.5, .5) for various d_c . Note that 𝒫₀ has infinite domain with period 1. Probability of the (d_c -level) control register of an IPEA collapsing to |0⟩ as a function of difference between the eigenphase θ and the applied rotation θ_R , Δθ ≡ θ − θ_R for an eigenstate input. Note that when the applied rotation matches the eigenphase (Δθ = 0), the control collapses to |0⟩ deterministically. Denote the region around Δθ = 0 (from dot to dot) as the central lobe of 𝒫₀(Δθ), and the small lobes with local maxima outside of it as the sidelobes. See that the higher the system’s dimensionality, the narrower the probability curve’s central lobe and the lower local maxima in the sidelobes. Note that d_c = 2 has no sidelobes (the probability is monotonic on either side of the central lobe). Also note 𝒫₀(Δθ) = 0 for Δθ = d_c^-1 and the width of the central lobe is therefore Δθ_FWHM = 2 d_c^-1. [Example figure taken from Moore A J et al 2021 New J. Phys. 23 113027 https://iopscience.iop.org/article/10.1088/1367-2630/ac320d]

Figure 4. Sample assembly arrangement. Three Hall sensors are positioned on the inner core, and two sensors are on the ring. The distance between adjacent sensors is 2.5 mm. A further sensor is placed inside the bore of the ring. [Example figure taken from Zhou D et al 2020 Supercond. Sci. Technol. 33 034001 https://iopscience.iop.org/article/10.1088/1361-6668/ab66e7]

Figure 5. Local XMCD pattern inside the YBCO(250 nm)/Py(50 nm) bilayer at T = 26 K after zero field cooling. The positions of the flux fronts/d-lines are marked by black lines. (Left) Increasing the external magnetic field from −40 to −20 mT (ΔB = +20 mT) leads to supercurrents flowing clockwise inside the sample. Here, the local magnetic field points towards the center of the square enhancing the penetration of magnetic flux (black lines). (Right) In case of ΔB = −20 mT (+40 to +20 mT) supercurrents flow anti-clockwise, reversing the latter effect. [Example figure taken from Simmendinger J et al 2020 Supercond. Sci. Technol. 33 025015 https://iopscience.iop.org/article/10.1088/1361-6668/ab54ab]

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Dr. Peter J. Riggs from the Australian National University, a physicist and philosopher of science, is exploring ways to better teach and communicate basic concepts in physics, both to improve our understanding of physics, and to prevent misconceptions from being perpetuated. His article, Energy and Mass Misconceptions was published open access in Physics Education, under the transformative agreement with the Council of Australian University Librarians.

Congratulations on your latest paper. Why is the theme of your article, people’s understanding of energy and mass, important? 

Much of my research examines the foundations of physics. The nature of energy and mass are essential concepts in this field of science. Energy, for instance, is fundamental to all physical processes but still needs to be better understood. 

Reading your article gives the impression that you are worried about the current state of physics education. Do you have any personal motivation for studying this topic? 

In parallel to my research endeavours, I have a strong desire to communicate basic physics concepts clearly and intelligibly.  This arises, in part, because as a student, I found that the teaching of such concepts was not always accurately done, and there was insufficient attention to student understanding.  

What are some specific real-life applications of your research and how will they affect people’s lives in the long term? 

A better understanding of the nature of energy will likely assist in finding new ways to develop and utilise non-polluting / environmentally friendly sources of energy. Such energy sources will be crucial in the fight against global warming. 

You published this article through a transformative agreement (TA) with IOP Publishing. How was the experience? 

IOP Publishing has made publishing through the TA with the Council of Australian University Librarians (CAUL) an easy process. Publishing open access now takes no more effort than what was required before the CAUL agreement came into effect. 

What do you think are the benefits of publishing through a TA? 

There are some major advantages, especially the degree to which one’s articles may now be read by physicists, physics teachers and anyone who is interested, at no cost to themselves or their institutions. 

What is your advice for authors who want to publish open access through TAs? 

In light of the advantages of publishing open access, I would encourage other researchers and physics education professionals to seek out relevant journals with transformative agreements. 

 

IOP Publishing (IOP) has transformative agreements with a number of institutions in Australia to enable a transition to open access publishing.

Who can benefit?
All corresponding authors that are current staff members, researchers (permanent, temporary and visiting), or students at one of the institutions below at the point of submission, can publish open access at no cost to themselves. The corresponding author is the person listed as Corresponding Author at the time of submission, and is the person responsible for communicating with the journal during the peer review and publication process.

What’s included?

• Accepted articles will be eligible for transformative agreement funding to enable authors to publish open access with no cost to themselves
• Research paper, special issue, letter and review article types
• Included journals are those in lists A, B, C and D. Click here for a full title list of eligible journals.

Please note
You may find our author guide for submitting under a transformative agreement helpful located in our Transformative Agreement hub.
For more information, please contact your relevant library contact at your university.

Eligible institutions

Council of Australian University Librarians (CAUL):

Australian National University
Australian Nuclear Science and Technology Organisation (includes Australian Synchrotron)
Commonwealth Scientific and Industrial Research Organisation
Curtin University
Deakin University
Flinders University
Griffith University
La Trobe University
Macquarie University
Monash University
Murdoch University
Queensland University of Technology
Royal Melbourne Institute of Technology
Swinburne Technology University
University of Adelaide
University of Melbourne
University of New South Wales
University of Newcastle
University of Queensland
University of South Australia
University of Southern Queensland
University of Sydney
University of Tasmania
University of Technology Sydney
University of Western Australia
University of Wollongong
Western Sydney University

Is your institution not listed here? Recommend open access funding to your library.

IOP Publishing (IOP) has transformative agreements with a number of institutions in New Zealand to enable a transition to open access publishing.

Who can benefit?
All corresponding authors that are current staff members, researchers (permanent, temporary and visiting), or students at one of the institutions below at the point of submission, can publish open access at no cost to themselves. The corresponding author is the person listed as Corresponding Author at the time of submission, and is the person responsible for communicating with the journal during the peer review and publication process.

What’s included?

• Articles accepted will be eligible for transformative agreement funding to enable authors to publish open access with no cost to themselves
• Research paper, special issue, letter and review article types
• Included journals are those in lists A, B, C and D. Click here for a full title list of eligible journals.

Please note
You may find our author guide for submitting under a transformative agreement helpful located in our Transformative Agreement hub.
For more information, please contact your relevant library contact at your university.

Eligible institutions

Council of Australian University Librarians (CAUL):

• Auckland University of Technology
• University of Auckland
• University of Canterbury
• Victoria University of Wellington
• University of Waikato

GNS Science

Is your institution not listed here? Recommend open access funding to your library.

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Professor Josh Lipton-Duffin and Professor Jennifer MacLeod (pictured) from Queensland University of Technology are studying molecular reactions on solid surfaces in an effort to synthesize new and useful materials. Read their article: Innovations in nanosynthesis: emerging techniques for precision, scalability, and spatial control in reactions of organic molecules on solid surfaces

This was published open access in Journal of Physics: Condensed Matter, under the transformative agreement with the Council of Australian University Libraries.

Congratulations on your latest paper! Could you tell us about your surface science-based approach to synthesizing new organic materials and why it is so different?

Jennifer: Our approach focuses on understanding how molecules and atoms behave on surfaces and whether we can control this behavior to produce useful new materials. We treat molecules like building blocks that can be used to create one- and two-dimensional structures with interesting chemical, electronic or structural properties.

Josh: A lot of industrial-scale processes, say, for example, the fabrication of various materials, are arrived at through exhaustive trial and error, but the fundamental process (or what happens at the atomic scale) remains a bit of a mystery. This is because studying real-world processes is quite complicated; physicists must deal with multiple atoms and molecules in multiple configurations to do so, and that’s very challenging. But that’s what we’re doing. We study these processes atom by atom and molecule by molecule.

What motivated you to look at molecular reactions on solid surfaces, and materials synthesis in particular?

Josh: I am a bit of a gearhead, and I love taking things apart and putting them back together. So, my motivation was both bottom-up and top-down. On the one hand, putting together new materials from molecular building blocks is a very small version of my childhood obsession with Lego blocks. On the other hand, we get to use, tinker with, and build some pretty awesome instrumentation, which not only looks impressive but also keeps us on the cutting edge of a lot of technologies.

Jennifer: I’ve got quite a few reasons. The first is that I’ve always found images of atoms to be amazing and beautiful, and getting to “see” atoms on a daily basis never fails to be a thrill. The second is that we get to create and understand tiny little things that have never existed before, which is also awesome. The third is that the work is so varied and continually challenging, it never gets boring! One day can be spent with a wrench in hand, taking apart a vacuum chamber or building instruments, and the next can be spent doing calculations to understand the thermodynamic properties of candidate structures.

How do you suppose your research will improve people’s lives in the long run?

Josh: In terms of ‘practical’ things, we are low on the technology readiness scale. But I very much hope that our work can support future development of technologies by bright minds who are good at that sort of thing.

Jennifer: Yes. Right now, this work is fundamental. But in the larger picture, the materials we synthesize might have certain properties required for their use in next-generation technologies and might make a difference to future-focused challenges around energy, information, and sustainability. These materials can exhibit exciting quantum properties that unlock a whole lot of interesting applications. And that holds immense potential.

Your paper, which is open access, was published through a transformative agreement that the Council of Australian University Librarians (CAUL) has with IOP Publishing. How would you describe the publication process?

Josh: Pretty seamless! I think it should be the norm across the industry. Honestly, it is far simpler than processes from other publishing houses.

Jennifer: I would use the word “painless”. It was quick and easy.

Do you believe there are advantages to publishing open access, or through a transformative agreement, like this one?

Jennifer: Yes! The biggest one being that it makes our work accessible to everyone interested in reading it, with almost no effort from our side. It also makes meeting the obligations of our funding agreements and institutional policies around open access easy.

Josh: I strongly believe in accessibility—removing barriers for potential readers of science. We get better outcomes when more people can access what we do. Open access should be the default for publicly funded work.

Do you have any words of advice for other authors interested in publishing open access?

Jennifer: They should definitely look into it. It’s been great from my perspective and could be the right fit for others as well.

Josh: I’d agree. Go for it! This is a great way to have individual authors’ work reach more eyes without having to worry about post-hoc costs after all of the research and writing have finished.

 

Your research interests are important if you would like to be selected to review for IOP Publishing. They are even more important if you have not reviewed for IOP Publishing previously.

You can access your ScholarOne account and add your research interests to your profile.

Please keep your research interests up-to-date on ScholarOne, so that we only send you manuscripts that are in the right research area. After checking your field of study and experience, our editorial team will aim to match you with a suitable manuscript to review as soon as possible.

 

How to write useful research interests

We recommend making sure that your research interests are detailed and up-to-date. Remember it is important to use both general terms, e.g. ‘quantum physics’, and specific terms, e.g. ‘many body cooling’, so that we can understand your particular area of research. Once you have written your research interests, read them back and consider if an editor would be able to select you for an appropriate manuscript using this information.

 

Use these tips to maximise your chances of being selected:

• Avoid abbreviations, especially less commonly used abbreviations.
• Use as many keywords as possible: try to use as broad a range of terms as possible, including any synonyms or closely related fields.
• Separate each term with a comma, with no unnecessary commentary.
• Include techniques that you regularly use in your work, e.g. ‘LCMS, Liquid chromatography-mass spectroscopy, Liquid chromatography mass spectroscopy’.
• If you only want to review theoretical work, include this in your research interests.

 

Here is are examples of good lists of research interests in a range of fields:

Magnetic Nanoparticles:

magnetic nanoparticle characterization, magnetic particle imaging, magnetic nanothermometer, measuring instruments, weak signal detecting, iron oxide nanoparticles, magnetic nanoparticle thermometer, magnetic nanoparticles, biofunctionalization, dc magnetic field, magnetic fluid, magnetic particle susceptibility imaging, magnetic susceptibility imaging, magnetonanothermometry, phase delay, real-time and quantitative abilities, signal bandwidth, spatial resolution

Computational Chemistry:

computational materials science, density functional theory, hybrid functionals, many-body perturbation theory, ab initio molecular dynamics, transparent conductive oxides, solar cell materials, semiconductors, metals, magnetic molecules, spinels, perovskites, chalcogenides, kesterites, nitrides, ferrites, amorphous materials, structural properties, electronic properties, band structure, effective mass, magnetic properties, magnetostriction, optical properties, dielectric function, absorption coefficient, spin-triplet superconductivity

Environmental Research:

Environmental Geography; Remote sensing; Geographic Information System; GIS; Geoinformatics; land management; environmental management; natural resources management; ecosystem services; urban environment; urban heat island; coastal likelihood and sustainability; urban planning; Landsat; Sentinel; land surface temperature; urban green spaces; land use land cover changes; urbanization; mapping

Quantum Theory:

quantum optics; quantum state tomography; photonics; entanglement; quantum dynamics; open quantum systems; non-Markovian evolution; time-bin encoding; phase retrieval; quantum Hamiltonian tomography; quantum measurement; decoherence; quantum information; quantum processes; quantum cryptography and communication security; quantum state engineering and measurements; foundations of quantum mechanics; measurement theory

Biomedical:

biomedical engineering, bioengineering, biomedical data analysis, biomedical signal processing, heart rate variability, fetal heart rate variability, electronic fetal monitoring, fetus, magnetic resonance imaging, nanomedicine, microfluidics, drug delivery systems, biomaterials, polymer nanoparticles, biopolymers, lean six sigma, health technology assessment, discrete event systems, discrete event simulation

 

If you need any help filling in your research interests, please email IOP Publishing’s Peer Review Engagement team at peerreview@ioppublishing.org.