History of Glue Timeline

Charles Macintosh patented a waterproof fabric made by sandwiching rubber dissolved in naphtha between textile layers. The process was an early large-scale use of rubber as a bonding and coating material and led to the name macintosh for waterproof garments.

Image source: Mackintosh (raincoat)

American inventor Peter Cooper established a large glue-manufacturing operation in New York in 1826. His factory helped demonstrate that animal glue could be produced on an industrial scale rather than only in small craft workshops.

During the 1830s, American glue factories increasingly processed hides and other animal by-products into standardized hide and bone glues. Industrial production supplied furniture makers, bookbinders, paper manufacturers, and other growing industries.

Charles Goodyear's vulcanization process improved the strength and stability of natural rubber. Although vulcanization was not itself a glue technology, it later enabled rubber-based contact adhesives and pressure-sensitive adhesive formulations.

Image source: Vulcanization

Alfred Nobel patented blasting gelatin, a mixture of nitroglycerin and collodion. The cellulose-nitrate component acted as a gel-forming binder, illustrating how chemically modified polymers could create cohesive, moldable materials.

Early pressure-sensitive adhesive products emerged in the late nineteenth century, using tacky rubber or resin coatings that bonded when pressed onto a surface. These products laid the foundation for modern adhesive tapes and labels.

Richard Gurley Drew joined Minnesota Mining and Manufacturing, later 3M, in 1921. His work on coated abrasives and tapes helped establish the company as a major innovator in pressure-sensitive adhesive technology.

Richard Drew developed Scotch masking tape for automotive painting. Its pressure-sensitive adhesive allowed painters to create clean boundaries between paint colors while removing the tape without severely damaging the underlying finish.

Image source: Masking tape

3M introduced transparent cellulose-based tape in 1930. The product, later widely known as Scotch Tape, brought pressure-sensitive adhesive into offices, homes, retail packaging, and repair work.

Image source: Scotch Tape

Water-based polyvinyl acetate emulsions became widely available during the 1940s. Often called white glue or wood glue, they offered convenient, low-cost bonding for paper, crafts, woodworking, and household repairs.

A team led by Harry Coover encountered cyanoacrylates while searching for clear plastics for gun sights. The compounds adhered strongly to surfaces and were initially rejected as impractical before their adhesive potential was recognized.

Epoxy resins and curing agents became important commercial adhesives during the 1950s. Their high strength, chemical resistance, and ability to bond dissimilar materials made them valuable in construction, transportation, electronics, and engineering.

American inventor Vernon Krieble developed anaerobic adhesives that remain liquid in air but cure when confined between metal surfaces without oxygen. Such products became widely used to lock threaded fasteners and seal pipe and flange joints.

Eastman Kodak commercialized methyl cyanoacrylate as Eastman 910 in 1958. The adhesive cured rapidly in the presence of trace moisture and became the basis of modern instant glues and super glues.

Thermoplastic hot-melt adhesives expanded during the 1960s. Applied in a molten state and solidifying as they cool, they enabled fast, solvent-free bonding in packaging, bookbinding, product assembly, and disposable-hygiene manufacturing.

The aerospace industry increasingly used epoxy and other structural adhesives to join aluminum, composites, honeycomb panels, and other lightweight components. Adhesive bonding reduced fasteners and distributed loads across broad surfaces.

Modified cyanoacrylates began to be evaluated and used as tissue adhesives for closing wounds. Medical formulations were designed to reduce toxicity and irritation compared with some early industrial cyanoacrylates.

Advances in acrylic and rubber-based pressure-sensitive adhesives helped self-adhesive labels, stickers, tapes, and packaging become mass-market products. Their convenience transformed retail identification, logistics, mailing, and consumer products.

Research into the microscopic structures on gecko feet inspired synthetic dry adhesives based on van der Waals forces. These materials sought strong, reversible adhesion without liquid glue, with possible uses in robotics, manufacturing, and climbing devices.

Researchers intensified development of bioadhesives modeled on mussel proteins, barnacle attachment, spider silk, and natural polysaccharides. The goal was to create strong adhesives that function in wet environments and have improved biological compatibility.

Studies of mussel adhesion led to widespread research on polydopamine coatings derived from dopamine. These coatings can adhere to many materials in water and provide reactive surfaces for biomedical devices, membranes, sensors, and other technologies.

Researchers and manufacturers developed adhesives that can be released by heat, light, electrical stimulation, chemicals, or mechanical triggers. Debond-on-demand systems support repair, recycling, component recovery, and safer disassembly of complex products.

Concerns about fossil resources, volatile organic compounds, and difficult-to-recycle bonded products drove development of starch-, lignin-, tannin-, soy-, cellulose-, and other bio-based adhesives. Research focused on matching the performance of petroleum-derived formulations while reducing environmental impact.