Author | Friedman, Avner. author |
---|---|
Title | Mathematics in Industrial Problems [electronic resource] : Part 7 / by Avner Friedman |
Imprint | New York, NY : Springer New York, 1995 |
Connect to | http://dx.doi.org/10.1007/978-1-4613-8454-0 |
Descript | XVI, 246 p. online resource |
1 Mass flow sensing with heat waves -- 1.1 Air flow sensor -- 1.2 Steady-state heat transfer -- 1.3 Heat waves -- 1.4 Automotive air flow sensor model -- 1.5 Mathematical results -- 1.6 References -- 2 Mass transport in colloidal dispersions -- 2.1 Physical motivation -- 2.2 Modeling equilibrium -- 2.3 Kinetics: single component -- 2.4 Kinetics: multiple components -- 2.5 References -- 3 Crack propagation modeling -- 3.1 Crack propagation in a conductor -- 3.2 The hypersingular integrals -- 3.3 Open problems -- 3.4 References -- 4 Modeling of electrostatic bell sprayers -- 4.1 The coating process -- 4.2 Mathematical modeling -- 4.3 Numerical results -- 4.4 Future directions -- 4.5 References -- 5 Neural networks as controllers -- 5.1 Neural networks -- 5.2 Control of dynamical systems -- 5.3 Gradient methods for controller training -- 5.4 An example -- 5.5 The idle-speed control problem -- 5.6 Unresolved questions -- 5.7 References -- 6 Head-media interaction in magnetic recording -- 6.1 Head-tape interaction -- 6.2 The mathematical model -- 6.3 Test case -- 6.4 Open problems -- 6.5 References -- 7 Geometric path planning in rapid prototyping -- 7.1 Layered manufacturing -- 7.2 Offset curve representation -- 7.3 Pythagoreanโhodograph (PH) curves -- 7.4 Bรฉzier representation -- 7.5 References -- 8 Feature detection and tracking in three dimensional image analysis -- 8.1 Applications -- 8.2 Edge detection -- 8.3 Topographic classification -- 8.4 Image registration -- 8.5 Future research issues -- 8.6 References -- 9 Robot localization using landmarks -- 9.1 The position estimation problem -- 9.2 Linear position estimation -- 9.3 Open problems -- 9.4 References -- 10 Coordinates for mechanisms configuration spaces -- 10.1 Kinematics of closed-loop mechanisms -- 10.2 Mechanism coordinates; an example -- 10.3 Mechanism complexity -- 10.4 Mathematical modeling -- 10.5 Open problems -- 10.6 References -- 11 Pulse optimization for multi-user data communications -- 11.1 Multiple access -- 11.2 The single user case -- 11.3 The multiple user case -- 11.4 Coupled base stations -- 11.5 Open problems -- 11.6 References -- 12 Propagation of highly scattered radiation in tissue -- 12.1 Maxwellโs equations -- 12.2 Radiation transport theory -- 12.3 Diffusion approximation -- 12.4 Imaging -- 12.5 References -- 13 Doping profiling by inverse device methods -- 13.1 Semiconductor devices -- 13.2 Measuring doping profile by direct measurements -- 13.3 PN junction -- 13.4 The inverse problem -- 13.5 References -- 14 Mathematical modeling in diffractive optics -- 14.1 The direct problem -- 14.2 Solution of the direct problem -- 14.3 Optimal design problem -- 14.4 Inverse problem -- 14.5 Diffractive optics in nonlinear media -- 14.6 Truncated periodic structure -- 14.7 References -- 15 Coping with complex boundaries -- 15.1 Capacity and translational friction -- 15.2 Flow through duct having arbitrary cross-section -- 15.3 Effective properties of inhomogeneous media -- 15.4 References -- 16 A short random walk through polymer material behavior -- 16.1 Strain-stress relations -- 16.2 Molecular modeling -- 16.3 Open problems -- 16.4 References -- 17 Finite set statistics with applications to data fusion -- 17.1 Random sets -- 17.2 Single-sensor, single-target estimation -- 17.3 Multi-sensor, multi-target estimation -- 17.4 An example -- 17.5 References -- 18 Electromigration modeling for smart power applications -- 18.1 Universal Power Output Driver (UPOD) -- 18.2 Previous work -- 18.3 Electromigration -- 18.4 References -- 19 Maxwellโs equations and the analysis of electromagnetic devices -- 19.1 Electromagnetic actuators -- 19.2 The Maxwell equations -- 19.3 The numerical scheme -- 19.4 References -- 20 Engineering modeling of batteries -- 20.1 Description of the battery cell -- 20.2 Mathematical modeling -- 20.3 Numerical results and open problems -- 20.4 References -- 21 Solutions to problems from previous parts -- 21.1 Part 6 -- 21.2 Part 5 -- 21.3 Part 3 -- 21.4 Part 1 -- 21.5 References