Chemistry and analytical sciences
Chemistry provides the language and the tools for understanding matter, and in a life-sciences journal it serves both discovery and measurement. It explains how a drug molecule behaves, how an unknown compound can be identified, and how the purity of a product can be verified. Because it underlies so much of pharmacy and biology, it is a natural part of an interdisciplinary scope. This page outlines what a chemistry section typically includes and what you should confirm on the journal's official pages.
Organic and medicinal chemistry
Organic chemistry studies carbon-based compounds, including how they are built and how they react. Medicinal chemistry applies those ideas to molecules intended to act on biological systems, seeking better activity, selectivity and safety. Synthesis and structure modification are central tools.

Work here often explains why a particular structure behaves as it does, connecting chemical reasoning to biological effect. That connection is what makes the area relevant beyond pure chemistry.
Analytical chemistry
Analytical chemistry develops and applies methods for identifying substances and measuring how much is present. In the pharmaceutical and life sciences it underpins quality control, stability testing and the study of how a drug is metabolised. Accuracy, precision and validation are its constant concerns.
Separation methods, spectroscopy and related techniques are the everyday instruments of this field. Because the results of a study depend on the trustworthiness of its measurements, analytical rigour is a requirement rather than an option.
Physical and computational chemistry
Physical chemistry studies the principles that govern chemical behaviour, including thermodynamics, kinetics and the properties of solutions. Computational chemistry uses models to predict structures, properties and interactions, often before laboratory work begins. The two areas increasingly support one another.
In the life sciences, these approaches help explain solubility, stability and binding, and they can guide which experiments are worth performing. Their predictions are hypotheses to be tested, not conclusions in themselves.
Inorganic and coordination chemistry
Inorganic chemistry covers the elements and their compounds beyond organic frameworks, including metal complexes and coordination compounds. Some of these have biological roles or pharmaceutical applications, and their behaviour differs markedly from that of organic molecules.
This area also contributes to analysis and materials, providing tools and materials that support other research. Its place in a life-sciences journal depends on relevance to the journal's themes.
Biochemistry and natural product chemistry
Biochemistry studies the chemistry of living systems, and natural product chemistry identifies and characterises compounds produced by organisms. Both sit at the boundary between chemistry and biology, and both often feed into pharmaceutical research. Extraction, purification and structural determination are shared skills.
Sound work in this area is careful about the evidence for any proposed biological effect, separating what has been measured from what is hoped.
The coverage at a glance
The table below summarises the main areas within a chemistry section and the focus of each. The precise scope of a journal's section is stated in its own documentation.
| Area | Main focus | Typical question |
|---|---|---|
| Organic chemistry | Carbon-based compounds | How are these molecules built and transformed? |
| Medicinal chemistry | Molecules acting on biology | How can activity be improved? |
| Analytical chemistry | Identification and measurement | What is present, and how much? |
| Physical chemistry | Principles of chemical behaviour | Why does this happen, and how fast? |
| Natural products | Compounds from organisms | What is present and what does it do? |
Where chemistry meets the other sections
Chemistry is rarely isolated in this context. It supplies the methods that pharmacy and biology rely on and the theoretical basis for many of their explanations. A chemistry study framed around a biological or pharmaceutical question often fits the journal better than one framed purely as synthesis.
- Analytical methods verify the content and purity of medicines.
- Synthesis produces compounds for biological testing.
- Physical chemistry explains solubility, stability and release.
- Computational models guide experimental design.
- Natural product chemistry connects organisms to active substances.
Submitting to a chemistry section
State the chemical question clearly and explain its significance in the context the journal covers. Where the work supports pharmacy or biology, make that connection explicit. Report methods and measurements in enough detail that others can judge and repeat them.
Because section definitions differ between journals and scope wording can change, confirm the current coverage on the journal's official pages. If the fit is uncertain, ask the editorial office before preparing a full submission.
A chemistry section covers organic and medicinal chemistry, analysis, physical and computational work, inorganic chemistry and natural products, with a strong emphasis on measurement and evidence. It connects directly to pharmacy and biology and supplies methods those fields depend on. Section definitions are set by the publisher, so confirm the current coverage on the journal's official pages.
Read next
Pharmacy sciences: what the section covers
From pharmaceutics and pharmacology to pharmacy practice and clinical pharmacy.
Biology and life sciences in the journal
Cell biology, microbiology, genetics, biotechnology and related fields.
Interdisciplinary work across pharmacy, biology and chemistry
Why the boundaries between the three disciplines are often crossed.