کلمات کلیدی مربوط به کتاب دید پویا از تصاویر تا تشخیص چهره: علوم و مهندسی کامپیوتر، هوش مصنوعی، تشخیص الگو
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Издательство Prentice-Hall, 2001, -344 pp.
Face recognition is a task that the
human vision system seems to perform almost effortlessly, yet
the goal of building computer-based systems with comparable
capabilities has proven to be difficult. The task implicitly
requires the ability to locate and track faces in scenes that
are often complex and dynamic. Recognition is difficult because
of variations in factors such as lighting conditions,
viewpoint, body movement and facial expression. Although
evidence from psychophysical and neurobiological experiments
provides intriguing insights into how we might code and
recognise faces, its bearings on computational and engineering
solutions are far from clear. In this book, we describe models
and algorithms that are capable of performing face recognition
in a dynamic setting. The key question is how to design
computer vision and machine learning algorithms that can
operate robustly and quickly under poorly controlled and
changing conditions.
The study of face recognition has had an almost unique impact
on computer vision and machine learning research at large. It
raises many challenging issues and provides a good vehicle for
examining some difficult problems in vision and learning. Many
of the issues raised are relevant to object recognition in
general. In particular, face recognition is not merely a
problem of pattern recognition of static pictures; it
implicitly but crucially invokes many more general
computational tasks concerning the perception of moving objects
in dynamic and noisy scenes. Consideration of face recognition
as a problem in dynamic vision is perhaps both novel and
important. The algorithms described in this book have numerous
potential applications in areas such as visual surveillance,
multimedia and visually mediated interaction.
There have been several books and edited collections about face
recognition written over the years, primarily for studies in
cognitive psychology or related topics [38, 39, 41, 42, 43,
46,
3781. In more recent years, there has been an explosion of
computer vision conferences and special workshops dedicated to
the recognition of human faces and gestures [162, 163, 164,
165, 166, 167, 168,
3651. Surprisingly, however, there has been no book that
provides a coherent and unified treatment of the issue from a
computational and systems perspective. We hope that this book
succeeds in providing such a treatment of the subject useful
for both academic and industrial research communities.
This book has been written with an emphasis on computationally
viable approaches that can be readily adopted for the design
and development of real-time, integrated machine vision systems
for dynamic object recognition. We present what is
fundamentally an algorithmic approach, although this is founded
upon recent theories of visual perception and learning and has
also drawn from psychophysical and neurobiological data.
We address the range of visual tasks needed to perform
recognition in dynamic scenes. In particular, visual attention
is focused using motion and colour cues. Face recognition is
attempted by a set of co-operating processes that perform face
detection, tracking and identification using view-based, 2D
face models with spatio-temporal context. The models are
obtained by learning and are cornputationally efficient for
recognition. We address recognition in realistic and therefore
poorly constrained conditions. Computations are essentially
based on a statistical decision making framework realised by
the implementation of various statistical learning models and
neural networks. The systems described are robust to factors
such as changing illumination, poor resolution and large head
rotations in depth. We also describe how the visual processes
can co-operate in an integrated learning system.
Overall, the book explores tjhe use of visual motion detection
and estimation, adaptable colour models, active and animate
vision principles, statistical learning in high-dimensional
feature spaces, vector space dimensionality reduction, temporal
prediction models (e.g. Kalman filters, hidden Markov models
and the Condensation algorithm), spatio-temporal context, image
filtering, linear modelling techniques (e.g. principal
components analysis (PCA) and linear discriminants), non-linear
models (e.g. mixture models, support vector machines, nonlinear
PCA, hybrid neural networks), spatio-temporal models (e.g.
recurrent neural networks), perceptual integration, Bayesian
inference, on-line learning, view-based representation and
databases for learning.
We anticipate that this book will be of special interest to
researchers and academics interested in computer vision, visual
recognition and machine learning. It should also be of interest
to industrial research scientists and managers keen to exploit
this emerging technology and develop automated face and human
recognition systems for a host of commercial applications
including visual surveillance, verification, access control and
video-conferencing. Finally, this book should be of use to
post-graduate students of computer science, electronic and
systems engineering and perhaps also of cognitive
psychology.
The topics in this book cover a wide range of
multi-disciplinary issues and draw on several fields of study
without requiring too deep an understanding of any one area in
particular. Nevertheless, some basic knowledge of applied
mathematics would be useful for the reader. In particular, it
would be convenient if one were familiar with vectors and
matrices, eigenvectors and eigenvalues, some linear algebra,
multivariate analysis, probability, statistics and elementary
calculus at the level of 1st or 2nd year undergraduate
mathematics. However, the non-mathematically inclined reader
should be able to skip over many of the equations and still
understand much of the content.
Part I
Background
About Face
Perception and Representation
Learning under Uncertainty
Part II Froms Ensory to Meaningful
Perception
Selective Attention: Where to Look
A Face Model: What to Look For
Understanding Pose
Prediction and Adaptation
Part III Models of Identity
Single-View Identification
Multi-View Identification
Identifying Moving Faces
Part IV Perceptio in Context
Perceptual Integration
Beyond Faces
Part v Appendices
A Databases
B Commercial Systems
C Mathematical Details