ABSTRACT

Greek Alphabet ........................................................................................................................... II-3

International System of Units (SI) ........................................................................................... II-3

Definitions of SI Base Units

Names and Symbols for the SI Base Units

SI Derived Units with Special Names and Symbols

Units in Use Together with the SI

Conversion Constants and Multipliers ................................................................................... II-6

Recommended Decimal Multiples and Submultiples

Conversion Factors-Metric

to English

Conversion Factors-English to Metric

Conversion Factors-General

Temperature Factors

Conversion of Temperatures

Physical Constants ....................................................................................................................... II-8

General

p Constants

Constants Involving e

Numerical Constants

Symbols and Terminology for Physical and Chemical Quantities ...................................... II-9

Classical Mechanics

Electricity and Magnetism

Electromagnetic Radiation

Solid State

Credits ........................................................................................................................................ II-13

Probability for Electrical and Computer Engineers Charles W. Therrien ..................... II-14

The Algebra of Events

Probability

An Example

Conditional Probability

and Bayes’ Rule

Communication Example

THE GREATACHIEVEMENTS in engineering deeply affect the lives of all of us and also serve to remind us of

the importance of mathematics. Interest in mathematics has grown steadily with these engineering

achievements and with concomitant advances in pure physical science. Whereas scholars in nonscientific

fields, and even in such fields as botany, medicine, geology, etc., can communicate most of the problems and

results in nonmathematical language, this is virtually impossible in present-day engineering and physics. Yet it

is interesting to note that until the beginning of the twentieth century, engineers regarded calculus as

something of a mystery. Modern students of engineering now study calculus, as well as differential equations,

complex variables, vector analysis, orthogonal functions, and a variety of other topics in applied analysis. The

study of systems has ushered in matrix algebra and, indeed, most engineering students now take linear algebra

as a core topic early in their mathematical education.