A High Temperature, High Pressure Rheometer for Plastics
- 1 June 1945
- journal article
- research article
- Published by AIP Publishing in Journal of Applied Physics
- Vol. 16 (6) , 338-343
- https://doi.org/10.1063/1.1707598
Abstract
A modified Bingham‐type rheometer, designed for operation at temperatures up to 500°F and at pressures up to 2000 p.s.i. is described. Interchangeable orifice plates permit wide variation of shear conditions. With this instrument flow properties may be studied under conditions approximating those encountered in the actual processing of thermoplastics, e.g., by molding or extrusion. Typical results are presented for cellulose acetate, polystyrene, and polyvinyl resin plastics, and correlation with practical experience is pointed out. The instrument is slow, and this limits its usefulness for other than research investigations.This publication has 37 references indexed in Scilit:
- ELASTIC AND VISCOUS PROPERTIES OF SEVERAL POTASH‐SILICA GLASSES IN THE ANNEALING RANGE OF TEMPERATURE*Journal of the American Ceramic Society, 1941
- Flow Properties of AsphaltsIndustrial & Engineering Chemistry, 1938
- Rheological Properties of Asphalts IV Observations Concerning the Anomalous Flow Characteristics of Air-Blown AsphaltsJournal of Applied Physics, 1937
- Penetration-Viscosity Relationship for Asphaltic BitumensJournal of Applied Physics, 1937
- ELASTIC AND VISCOUS PROPERTIES OF SEVERAL SODA‐SILICA GLASSES IN THE ANNEALING RANGE OF TEMPERATURE*Journal of the American Ceramic Society, 1937
- The Colloidal Nature of Asphalt as Shown by its Flow PropertiesThe Journal of Physical Chemistry, 1936
- Bituminous Plastics: Determination of Flow PropertiesIndustrial & Engineering Chemistry Analytical Edition, 1936
- Rheological Properties of Asphalts III. A Viscosity IndexJournal of Applied Physics, 1936
- Rheological Properties of Asphalt II. Discussion of Penetration-Viscosity RelationshipsJournal of Applied Physics, 1935
- Rheological Properties of Asphalts I. Effect of TemperatureJournal of Applied Physics, 1934