Nature Synthesis

Nature Synthesis (nature-synthesis)

Journal positioning

Nature Synthesis is a Springer Nature journal dedicated to research on the making of molecules and materials — the methodology of chemical and materials synthesis itself. Its defining character is that the synthetic advance is the contribution: the journal rewards new ways to construct things, new reactivity, new control over selectivity or structure, and new strategies that expand what can be made or how efficiently it can be made. This spans organic, inorganic, organometallic, and materials chemistry, as well as electrochemistry and other enabling synthetic approaches. A paper belongs here when the central message is a synthetic method or strategy of broad interest and significance, not merely an application that happens to use synthesis. Readership is the cross-disciplinary synthetic community. This skill is a fit / venue-selection / re-framing tool. It does not replace the journal's current official submission guidelines. Before submitting, re-check the live author instructions on the Nature Synthesis site.

When to trigger

• The author names Nature Synthesis as the target venue for a primary-research paper whose central advance is a synthetic method, strategy, or capability.
• A manuscript reports new reactivity, new selectivity control, or a new route to molecules or materials that were previously hard or impossible to make, and the author is choosing between Nature Synthesis, Nature Chemistry, JACS, and Nature Catalysis.
• A synthesis-driven result is broadly significant across subfields but is framed too much as an application; it needs re-centering on the methodological advance.
• The author needs Nature Synthesis' scope, evidence bar, and desk-reject criteria before submission.

Scope & topic fit

• Organic synthesis methodology: new reactions, catalytic transformations, selectivity (chemo-, regio-, stereo-, enantioselectivity) control, and strategies that streamline access to complex molecules.
• Inorganic and organometallic synthesis: new routes to clusters, complexes, framework materials, and main-group or transition-metal architectures with controlled structure.
• Materials synthesis: design and construction of nanomaterials, porous materials, polymers, and solid-state materials where the synthetic strategy is the advance.
• Electrochemical and other enabling synthesis: electrosynthesis, photochemical, mechanochemical, or flow approaches that expand synthetic capability.
• Synthetic strategy and logic: retrosynthetic innovation, total synthesis when it demonstrates a generalizable strategy, and automation or predictive approaches to synthesis.
• Mechanistic studies when they directly explain and generalize a synthetic method's scope and selectivity.

Method & evidence bar

• The synthetic advance must be statable in one or two sentences and must be the paper's center of gravity; an application without a methodological advance is misfit.
• Scope and generality must be demonstrated: substrate scope, functional-group tolerance, and limitations stated honestly; a method shown on a single substrate is rarely sufficient.
• Full characterization is mandatory — spectroscopic and analytical data (NMR, MS, IR, X-ray where relevant) establishing structure, purity, and identity, with copies of spectra in supporting information.
• Yields, selectivities, and reproducibility must be reported rigorously; for materials, structural and compositional characterization (diffraction, microscopy, surface analysis) must support the claims.
• Mechanistic or control experiments should support claims about how and why the method works, and demarcate its scope and constraints.
• Comparison to existing methods must establish the advance — what becomes possible, more selective, more efficient, or more sustainable than before.