A surgical glove and method for making same is disclosed comprised of a polymeric matrix with at least one compact layer of very small particulate characterized by a very high hardness disposed therein. The disclosed glove and method is cost effective, easily adapted to present manufacturing methods, and provides a surgical glove which demonstrates a high resistance to cuts and punctures while maintaining a high level of elasticity and touch. The proposed particulate is one of a series of powders such as silicon carbide, carborundum, or diamond dust having a mean particle size of between 1-85 microns and a preferred particle size of between 5-8 microns, which can be applied to a curing elastic glove via spray or pre-mixing the particulate in the molten polymeric matrix prior to forming. The estimated thickness of the finished glove is approximately 2-7 millimeters, although greater thicknesses can be achieved by repeated processing at a cost of superior tactility but without loss of elasticity. More protection can be achieved by generating multiple layers of particulate sandwiched between layers of the polymer matrix.
There really is such a thing as “liquid gloves.” They are heavy ointments that remain on the hands for a long time and can protect against corrosive chemicals.