The following figure is an example of a Chemical Abstracts Citation.

The brief descriptions of terms are as follows :

1. CAS Accession number (corresponds to volume and abstract number in the print version of Chemical Abstracts)
   : 124:25135
   
   
2. Article Title
   : Adhesion to model surfaces in a flow through system.
   
   
3. Authors
   : Habeger, C. F.; Linhart, R. V.; Adair, J. H.
   
   
4. Institution
   : (University of Florida, Gainesville, FL 32611, USA).
   
   
5. Source Publication (abbreviated title)
   : Ceram. Trans., Volume Date 1995, 54, 111-20
   
   
6. Language
   : (English)
   
   
7. Publication Year
   : 1995.
   
   
8. CODEN & International Standards Serial Number
   : CODEN: CETREW. ISSN: 1042-1122.
   
   
9. Document Type
   :DOCUMENT TYPE: Journal
   
   
10. Article Abstract
    : A hydrodynamic method for measuring the adhesion of particles to a surface has been designed. By using hydrodynamic flow to remove particles from a model surface, the adhesive strength of particles to the surface can be measured using a flow-through cell. The hydrodynamic force required to displace a particle is calcd. by using the cell dimensions and the flow rate in Poiseuille's equation. The findings are important in the study of kidney disease, and the adhesion of calcium oxalate monohydrate particles to a model fused silica surface is used as an example.
    
    
11. Keywords
    : calcium oxalate adhesion silica detn hydrodynamics kidney disease particle adhesion surface detn
    
    
12. Indexing Fields
    : Index Entries
    Adhesion
    Kidney, disease
    Particles
         adhesion to model surfaces detn. in flow-through system in relation to      kidney disease
    Flow
         Poiseuille, adhesion to model surfaces detn. in flow-through system      in relation to kidney disease
    Force
         hydrodynamic, adhesion to model surfaces detn. in flow-through      system in relation to kidney disease
         563­72­4
         7631­86­9, processes
         adhesion to model surfaces detn. in flow-through system in relation to      kidney disease