Chatillon Grips for Force Measurement Page 2

Stainless steel Jacobs chuck grips hold small cylindrical samples up to 5/32" (4 mm). Has 10-32 thread mounting. Capacity: 20 lb; Weight: 4 oz.

Applications: Ideal for holding small cylindrical samples during tension or compression testing.

1/4" Drill Chuck Pin Vise (GF-52)

Stainless steel Jacobs chuck grips hold small cylindrical samples up to 1/4" (6 mm). Has 10-32 thread mounting. Capacity: 20 lb; Weight: 4 oz

Applications: Ideal for holding small cylindrical samples during tension or compression testing.

Ideal for specimens as small as 2mm (3/32 in) in diameter, this miniature wedge grip features hardened steel, serrated jaw faces. Throat depth is 12mm (0.5 in). A spring force lever permits quick release of the jaw face for simple loading or removing of the specimen.

Grip is provided with a #10-32 female thread for direct attachment to the Chatillon light duty gauges up to 100 lb. Capacity: 100 lb; Upper grip weight: 1 oz; Combined grip length: 2-1/8"

Applications: Used for general purpose tensile testing.

This self-tightening wedge grip is ideal for specimens 25mm (1.0 in) wide and 6mm (0.25 in) in diameter. The throat depth is 35mm (1.5 in). This grip features a spring force lever, to quickly realease the jaws, and serrated, hardened steel faces.

Applications: Used for general purpose tensile testing

This general purpose sliding wedge grip is self tightening. It is supplied with standard 25 x 50mm (1.0 x 2.0 in) straight cut jaw faces. Optional jaw faces are available. The TG15 is not supplied when ordering optional jaw faces.

Packaging: includes upper and lower grips with standard straight cut face.

Applications: Used for tensile testing of flat and round rigid materials including plastic and light metals

Lightweight, spring loaded, rubber raced clamp grips for very light loads. Ideal for paper, thin plastic film, foils, etc. 1.12 lb

Used for tensile testing of paper, thin plastic film and foils, etc by stretching the sample to fracture and recording the relationship between force and extension.