chemistriesfor

Chemistriesfor is a term used in some scientific discussions to describe an approach that emphasizes the compatibility and transferability of chemical strategies across different reaction types and contexts. It is not an established formal field, but a framing device researchers use to plan projects with cross-chemistry considerations in mind.

The core idea of chemistriesfor is to identify generalizable chemistries—such as catalysts, solvents, reagents, or reaction conditions—that can be applied to multiple transformations or processes. By mapping these links, researchers aim to reduce duplication, improve sustainability, and accelerate discovery. The concept encourages thinking about how a single component or principle might serve multiple purposes, rather than optimizing a single, isolated step.

Applications of chemistriesfor span catalysis, synthesis planning, materials science, pharmaceutical development, and energy-related chemistry. For example, a solvent system or a ligand framework initially developed for one reaction might be adapted for related transformations, potentially reducing the number of unique processes that must be developed and validated.

Methods associated with chemistriesfor include literature surveys, data-driven scoring of compatibility, and cross-disciplinary collaboration. Practitioners may use reaction informatics, high-throughput screening, and life-cycle analysis to assess trade-offs and synergies across different chemistriesfor contexts.

The term appears mostly in informal settings such as blogs, preprint discussions, or conference talks. It has limited formal recognition and can be viewed as vague by some, but supporters argue that it promotes integrative thinking and sustainability in chemical research. Related topics include green chemistry, synthesis planning, and reaction optimization.