SEARCH Articles Figures Tables A Carbohydrate to Cyclopentanol Conversion A Conversion of Units A Optimum Conversion and Maximum A Salty Conversation A Uracil to 1,2,3-Triazole Conversion A representative active transport and energy conversions A-4 Conversion Factors A-Phenylethylamine, N-chlorination conversion to phenacylamine hydrochloride A-l Alphabetical Conversion Factors A/D conversion Aerobic Oxidation Step within a Three-Stage Conversion of Oleic Acid or Methyl Oleate Avogadro’s number as conversion factor Cadmium chloride as catalyst in conversion of dipotassium 1,8-naphthalenedicarboxylate to 2,6-naphthalenedicarboxylic acid Chemical equations as conversion factors Chemical formulas as conversion factors Concentration as a function of conversion Control of Conversion in a Continuously Operated EMR Conversion Factors from a Chemical Equation Conversion as a Function of Rate Laws and Feed Composition Conversion as a function of temperature Conversion in a reversible reaction Conversion of a First-Order Reaction in Ideal Reactors with Completely Segregated Flow Conversion of a reactant Conversion of an Enol to a Ketone Conversion of the measured intensity into a scattering cross-section Density as conversion factor Energy Conversion A Basic Difference between Chemical and Electrochemical Reactions Equation coefficients as conversion factors Fractional Conversion of a Reactant Mass percent composition as a conversion factor Molar Mass as a Conversion Factor Molar mass as conversion factor Optimum Conversion and Maximum Profit for a First-Order Reaction Percent Composition as a Conversion Factor Silyl enol ethers conversion to a-hydroxyketones by oxidation Simplification of Packed-Bed Electrode with a Low Conversion Stapled Peptide Solution a-Helix Conversion Measurement Table A—4. Conversion Factors The chemical conversion of a massive solid Using Density as a Conversion Factor Volume as a function of conversion