《ANALYSIS AND DESIGN OF ENGINEERING SYSTEMS》

Part Ⅰ.Introductory Remarks1

A.Engineering Systems1

B.Engineering and Pure Science2

C.Specific Examples of Engineering Systems3

D.Systems and Abstractions10

Part Ⅱ.The System Concept:Identity,Structure,and Properties11

A.Description of a System11

B.Reticulation13

Part Ⅲ.Variables and Parameters of Energetic Systems17

A.Introduction and Historical Background17

B.Description of Energy Transactions17

Part Ⅳ.The Continuity of Energy26

A.Introduction and Historical Background26

B.Properties of the Field29

C.Generalized Continuity Equation30

D.Continuity of Energy and the Generalized Poynting Vector31

E.Continuity of Entropy32

Part Ⅴ.Energy Ports and Power Bonds35

A.Introduction35

B.Application of the Divergence Theorem36

C.Reticulation of the Energy Influx36

D.Reticulation of Energy Storage37

E.Reticulation of Energy Dissipation38

F.The Reticulated Equation of Energy Continuity39

G.Power Bonds42

Part Ⅵ.Multiported Systems and Elements49

A.Introduction49

B.Multiports50

C.Ideal Energy Junctions51

Part Ⅶ.Classes and Relations58

A.Relations and Structure58

B.The Concept of a Class59

C.The Concept of a Relation64

Part Ⅷ.Continuum Logic and Hyperpolyhedral Functions77

A.Introduction77

B.Classes77

C.Order81

D.Continuum Logic84

E.Two-Valued or Binary Logic87

F.Multivalued Logic(Post Logics)91

G.Hyperpolyhedral Functions92

Part Ⅸ.The Steady-State of Energetic Systems100

A.Introduction100

B.The Static Case100

C.The Stationary Case101

D.Determination of the Steady-State102

E.System Reticulation for Steady-State Behavior103

F.Nonlinearity105

Part Ⅹ.Functional Transformations and Computing Functionals108

A.Introduction108

B.Computing Functionals108

Part Ⅺ.Diagrams and the Coding of System Structure113

A.Signs113

B.Communication of a Computing Structure114

C.Combinatorial Topology-Incidence Matrix117

D.Coded Representation of Graphs and Digraphs123

E.Coding the Energetic Structure of Multiport Systems125

Part Ⅻ.State-Determined Systems130

A.Introduction130

B.Elements of a State-Determined System132

C.The Mathematical Construct of a State-Determined System133

D.The Variables of State in Generalized Dynamics135

E.The Tetrahedron of State136

F.The Characteristic Static Relations137

G.The Three State-Determined Elements(R,C,I)143

H.The Concept of Circuits and Networks148

Part Ⅷ.Distribution of Energy Over Space,Time,and Frequency153

A.Introduction153

B.Energy Principles for State-Determined Systems154

C.Fields,Potentials,and Transmittances159

D.Field Form Factors178

E.Rectangle Diagrams186

F.The Temporal Response of Physical Systems193

G.System Response in the Time and Frequency Domains198

H.Linear System Response in Terms of Potential Functions211

I.One-Port Elements and the Impedance Concept214

J.The Flow of Power and Energy in Systems219

Part ⅩⅣ.Two-Port Elements and Energy Transport Processes223

A.Generalized Two-Port Elements223

B.Primitive Energy Transport Processes225

C.Linear Two-Port Elements227

D.Some Standard Forms of Two-Port Nets233

E.Description of Linear Two-Ports235

Part ⅩⅤ.Transformers and Transducers240

A.The Concept of Ideal Two-Port Elements240

B.Energy Transformation Elements241

C.Eaergy Trausduction Elements250

Part ⅩⅥ.Energy Transmission Elements256

A.The Two-Port Element:·TM·256

B.The Canonical Transmitter Matrix259

C.Generalized Transmitters and Wavelike Transmitters263

D.Ideal Wavelike Transmitters267

E.Modeling Diffusive Transmission277

F.The Dynamics of Monotone Processes280

Part ⅩⅦ.Energy Modulation and Amplification287

A.General Three-Port Elements287

B.Generalized Power Modulators as Three-Port Elements288

C.Generalized Amplifiers290

D.The Trinode as a Three-Port Element293

E.Cascading and Feedback of Amplifiers299