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Thermal expansion, or dilation, is closely related to the specific heat, andprovides useful information regarding material properties. The accuratemeasurement of dilation in confined spaces coupled with other limitingexperimental environments such as low temperatures and rapidly changing highmagnetic fields requires a new sensitive millimeter size dilatometer that haslittle or no temperature and field dependence. We have designed an ultracompact dilatometer using an atomic force microscope (AFM) piezoresistivecantilever as the sensing element and demonstrated its versatility by studyingthe charge density waves (CDWs) in alpha uranium to high magnetic fields (up to31 T). The performance of this piezoresistive dilatometer was comparable tothat of a titanium capacitive dilatometer.

High resolution miniature dilatometer based on AFM piezocantilever