Wallace Carothers

The joy of seeing a new material come to life in the laboratory is unparalleled.

The scientific method, when applied rigorously, can lead to profound insights.

The pursuit of excellence in science requires both creativity and meticulous attention to detail.

The beauty of chemistry is that it allows us to understand the world at a fundamental level.

The development of synthetic fibers has opened up entirely new possibilities for textiles and other applications.

The greatest scientific achievements are often the result of many small, incremental steps.

The ability to control the structure of molecules is the key to unlocking new material properties.

The scientific journey is one of constant learning and adaptation.

The impact of polymer chemistry on modern life is truly immense.

The future belongs to those who are willing to explore the unknown.

It is the object of this paper to discuss some of the theoretical aspects of the formation of polymers by polyfunctional reactions.

The term polymer was introduced by Berzelius in 1833 to designate compounds having the same empirical formula but different molecular weights.

In recent years the study of polymerization has been extended to include the formation of linear polymers from bifunctional molecules.

The conception of macromolecules as chain-like structures opens new avenues in synthetic chemistry.

Condensation reactions leading to polyesters demonstrate the versatility of organic synthesis.

The properties of superpolymers are determined by their linear architecture.

Synthetic polyamides offer promise for durable fibers in industry.

The future of chemistry lies in mastering the assembly of giant molecules.

Organic reactions must be viewed through the lens of functionality to predict polymer formation.

Nylon's strength derives from its amide linkages forming hydrogen bonds.