Biological Reviews

Latest Issues

Image:Volume 99, Issue 5
Volume 99, Issue 5
October 2024
VIEW
Image:Volume 99, Issue 4
Volume 99, Issue 4
August 2024
VIEW
Image:Volume 99, Issue 3
Volume 99, Issue 3
June 2024
VIEW
Image:Volume 99, Issue 2
Volume 99, Issue 2
April 2024
VIEW

Wiley online Library

Overview

Biological Reviews covers the entire range of the biological sciences, presenting several review articles per issue. Although scholarly and with extensive bibliographies, the articles are aimed at non-specialist biologists as well as researchers in the field. Authors are specifically instructed to be aware of this fact in their writing, and the resulting reviews serve as extensive introductions to particular fields, defining the state of the art, and drawing attention to gaps in knowledge. Articles are up to 20,000 words long and each contains an abstract, a thorough introduction and statement of conclusions.


What Biological Reviews has to offer:

  • Fast publication times
  • Flexible policy on nature of articles, with scope for extensive tables and illustrations
  • International exposure with global circulation

Aims and Scope

Biological Reviews publishes synthetic reviews, based on the literature, covering important biological questions that are interesting to a broad readership and are timely (e.g. from a fast-moving field, or due to new discoveries or conceptual advances). A 'synthetic review' goes beyond compiling information, rather it should analyse the information and build a new theoretical or conceptual framework that can substantially reshape the area


Definition of review

Our concept of a review is one that comprehensively surveys the literature in order to answer a key biological question, or to identify new biological questions that need to be addressed to advance the field. This includes using data from the literature (for example, in meta-analyses). A review contrasts with primary research, which is the generation of new data. Thus, taxonomic or phylogenetic reviews, which draw conclusions from new data (even if made from “published” specimens or archived sequence data) typically fall out of scope as being primary research. Also out of scope are “opinion pieces” where they are based on an incomplete survey of the literature, where studies are only included that fit a specified hypothesis. Reviews suitable for Biological Reviews synthesise the literature and from this draw novel insights which contribute to the reshaping of an area. To help authors with some concrete guidance, a reviewer described what we are looking for in the following ways:

“Excellent reviews provide new conceptual insight not present in the primary literature. For example, they may bring together literature items (e.g. empirical or theoretical) that were previously disconnected to show where they do in fact overlap; or the review may generate significant new ideas and hypotheses. Such reviews are rare but, if they are readable and clear, they can form the basis for a new research direction. Good reviews explain difficult topics and make use of examples to illustrate how phenomena or theories are connected, or provide synthetic overviews of a large body of literature (empirical or theoretical). They can be the first entry into a new literature and may often allow readers to extract information or insights (e.g., about key experiments to be done) that are difficult to see from reading the primary literature or existing summaries. There are also not-so-useful reviews. These are more like summaries. They summarize recent opinions or results of one or several fields, restate conclusions that are easily gleaned from abstracts of primary research papers, and identify real, but quite obvious, gaps in knowledge. It can be very useful to write such a paper to organize one’s own thoughts, but it is typically of limited use to others.”

Biological Reviews is seeking “excellent reviews” in the description above. This goes beyond “good reviews” in the value they add by creating new insights (rather than presenting the information for readers to generate new insights).

Reviews of books are not published.

Under some circumstances, we will publish responses to previous reviews if they make the case that substantial and relevant literature exists and was missed from a previous review.

We would expect such pieces, therefore, to be “mini”-reviews. We urge authors to get in contact with the editorial team prior to submission to discuss suitability.

Review style and structure

Great flexibility in length, content and presentation is allowed. The core of the review must tackle a fundamental biological problem (including allied disciplines such as ecology or palaeontology). Reviews of topics outside biology (e.g. in medicine or agronomy) will be considered only if their focus is on underlying biological questions. We occasionally publish methodological reviews and use similar criteria: is there a well-articulated biological issue addressed, and is the review synthetic, generating new insights, rather than simply listing different methods?

Whilst articles may have significant value for experts in a particular field of research, they also act as introductions to the area for people engaging with it. Authors are therefore asked to write in a way that is intelligible to the non-expert so that scientists unfamiliar with the topic can learn something from it. Articles can be extensively illustrated. All articles are subject to refereeing.

Editorial Board

Editor-in-Chief

Dr John Welch
Department of Genetics,
University of Cambridge
Downing Street
Cambridge   CB2 3EH  UK

Editors

Professor Shinichi Nakagawa, FRSN
Evolution & Ecology Research Centre, EERC
School of Biological, Earth and Environmental Sciences, BEES
The University of New South Wales
Australia

Christopher Howe
Department of Biochemistry
University of Cambridge
Tennis Court Road
Cambridge CB2 1QW UK

Assisted by

Alison Cooper

Editorial Committee

Paul Barrett, UK, Vertebrate Paleobiology

Steven Chown, Australia, Macroecology

David Coombes, UK, Forest Ecology & Conservation

Douglas Erwin, USA, Invertebrate Palaeobiology

Trent Garner, UK, Animal Ecology

Russell Gray, New Zealand, Animal Cognition

Christopher Huang, UK, Membrane Physiology

Michael Jennions, Australia, Behavioural Ecology

Andrew Knight, UK, Conservation Science

Tim Lewens, UK, Philosophy of Biology

Helen Mott, UK, Biochemistry & Structural Biology

Ana Rodrigues, France, Macroecology & Conservation

David Stern, USA, Developmental Biology

Henggui Zhang, UK, Systems Biology

Contact Details

Editorial Contact Information

Sara Lees

Email: sll26@cam.ac.uk

Production Contact Details

Joanna Glyza Bongolan

Production Editor

Email: brv@wiley.com

Publications

Discover our Journals & Books

From Darwin’s paper on evolution to the development of stem cell research, publications from the Society continue to shape the scientific landscape.

Membership

Join the Cambridge Philosophical Society

Become a Fellow of the Society and enjoy the benefits that membership brings. Membership costs £20 per year.

Join today

Upcoming Events

Show All

12

03

Towards a Net Zero World: Developing and applying new tools to understand how materials for Li and “beyond-Li” battery technologies function

Professor Dame Clare P. Grey

  • 18:00 - 19:00 Bristol-Myers Squibb Lecture Theatre Lent Term Honorary Fellows Lecture

More powerful, longer-lasting, faster-charging batteries – made from increasingly more sustainable resources and manufacturing processes – are required for low-carbon transport and stable electricity supplies in a “net zero” world. Rechargeable batteries are the most efficient way of storing renewable electricity; they are required for electrifying transport as well as for storing electricity on both micro and larger electricity grids when intermittent renewables cannot meet electricity demands. The first rechargeable lithium-ion batteries were developed for, and were integral to, the portable electronics revolution. The development of the much bigger batteries needed for transport and grid storage comes, however, with a very different set of challenges, which include cost, safety and sustainability. New technologies are being investigated, such as those involving reactions between Li and oxygen/sulfur, using sodium and magnesium ions instead of lithium, or involving the flow of materials in an out of the electrochemical cell (in redox flow batteries). Importantly, fundamental science is key to producing non-incremental advances and to develop new strategies for energy storage and conversion.  

This talk will start by describing existing battery technologies, what some of the current and more long-term challenges are, and touch on strategies to address some of the issues.  I will then focus on my own work – together with my research group and collaborators – to develop new characterisation (NMR, MRI, and X-ray diffraction and optical) methods that allow batteries to be studied while they are operating (i.e., operando). These techniques allow transformations of the various cell components to be followed under realistic conditions without having to disassemble and take apart the cell. We can detect key side reactions involving the various battery materials, in order to determine the processes that are responsible ultimately for battery failure.  We can watch ions diffusing in, and moving in and out of, the active “electrode” materials that store the (lithium) ions and the electrons, to understand how the batteries function.  Finally, I will discuss the challenges in designing batteries that can be rapidly charged and discharged.  
 

View Details

17

03

Acoustics of musical instruments - why is a saxophone like a violin?

Professor Jim Woodhouse

  • 18:00 - 19:00 Bristol-Myers Squibb Lecture Theatre Lent Term

Musical instruments like the clarinet and saxophone do not obviously have anything in common with a bowed violin string. This talk will explore the physics behind how these instruments work, and it will reveal some unexpectedly strong parallels between them. This is all the more surprising because all of them rely on strongly nonlinear phenomena, and nonlinear systems are notoriously tricky: significant commonalities between disparate systems are rare. For all the instruments, computer simulations will be used to give some insight into questions a musician may ask: What variables must a player control, and how? Why are some instruments “easier to play” than others?

View Details