Vector Theory Approach Monographs In Electrical And Electronic Engineering |verified| — Electrical Machines And Drives A Space
The second half of the book bridges the gap between the machine model and the power electronics that drive it.
by Peter Vas is widely considered a foundational text in the Oxford University Press Monographs in Electrical and Electronic Engineering series. It is highly regarded for bridging the gap between physical machine principles and advanced mathematical control.
From the precise positioning of robotic arms on high-speed assembly lines to the rapid, smooth acceleration of modern electric vehicles, the demands placed on electric propulsion systems have shifted dramatically over the past few decades. Industry no longer relies solely on simple, fixed-speed alternating current (AC) motors running directly off the grid. Modern automation demands absolute control over torque, speed, and position under highly dynamic transient conditions. The second half of the book bridges the
Maximizes battery range through highly efficient FOC algorithms during driving and regenerative braking.
Understanding "Electrical Machines and Drives: A Space Vector Theory Approach" From the precise positioning of robotic arms on
The EPE Journal provided a particularly notable review in September 1996, stating that the book introduces "the various space-vector quantities... by a detailed physical and mathematical analysis" and praising the inclusion of "approximately 200 figures and with a large number of useful references". This recognition from a respected European power electronics journal underscores the book's contribution to the field.
series. It is widely recognized for bridging the gap between classical machine theory and modern variable-speed drive control. Oxford University Press The Power of the Space-Vector Approach directly increasing power output. Industrial Applications
If you are currently designing or troubleshooting a control system, let me know:
A more recent and advanced method, DTC uses hysteresis comparators on the flux and torque errors to select optimal voltage vectors from a two-level inverter. Without a deep understanding of how voltage vectors affect the stator flux vector (as taught in this book), DTC appears as black magic. With the monograph’s approach, it becomes a logical extension of basic principles.
Classical machine theory predated modern inverters. This book was written with the variable-frequency drive in mind. It directly addresses:
SVPWM is the standard method for translating digital control signals into actual physical voltages via a three-phase inverter. By treating the inverter outputs as eight discrete switching states (six active vectors and two zero vectors), SVPWM synthesizes a smoothly rotating voltage vector. This approach utilizes up to 15% more of the available DC bus voltage compared to standard sinusoidal PWM, directly increasing power output. Industrial Applications
