یادداشتهای مربوط به کتابنامه ، واژه نامه و نمایه های داخل اثر
متن يادداشت
Includes bibliographical references.
یادداشتهای مربوط به مندرجات
متن يادداشت
Intro; Preface; Contents; 1 Introduction; 2 Least Squares Orthogonal Distance Fitting; 2.1 Definition of Error Function; 2.2 Character of Solution; 2.3 Optimization of F(a, u); References; 3 General Properties of Splines; References; 4 ODF Using a Cubic Bézier; 4.1 Fitting a Function with a Double Inflection Point; 4.2 Initializing a Cubic Bézier; 4.3 Optimizing the Fit; 4.4 Continuity of the rms Error; 4.5 Character of Coalescing Solutions; References; 5 Topology of Merges/Crossovers; 5.1 Center of Mass Fit; 5.2 Example of Two Types of Merge/Crossover; 5.3 Response to Change in g(t)
متن يادداشت
5.4 Distinguishing Between Type 1 and Type 2 EventsReferences; 6 ODF Using a 5-Point B-Spline; 6.1 Initializing a 5-Point B-Spline; 6.2 Basis Functions of a 5-Point B-Spline; 6.3 Decomposition into Two Bézier Segments; 6.4 ODF Results for a 5-Point B-Spline; 7 ODF Using a 6-Point B-Spline; 7.1 Initializing a 6-Point B-Spline; 7.2 Basis Functions of a 6-Point B-Spline; 7.3 Decomposition into Three Bézier Segments; 7.4 ODF Results for a 6-Point B-Spline; 8 ODF Using a Quartic Bézier; 8.1 Initializing a Quartic Bézier; 8.2 ODF Results for a Quartic Bézier; 8.3 Enumeration of Solutions
بدون عنوان
0
بدون عنوان
8
یادداشتهای مربوط به خلاصه یا چکیده
متن يادداشت
This Brief investigates the intersections that occur between three different areas of study that normally would not touch each other: ODF, spline theory, and topology. The Least Squares Orthogonal Distance Fitting (ODF) method has become the standard technique used to develop mathematical models of the physical shapes of objects, due to the fact that it produces a fitted result that is invariant with respect to the size and orientation of the object. It is normally used to produce a single optimum fit to a specific object; this work focuses instead on the issue of whether the fit responds continuously as the shape of the object changes. The theory of splines develops user-friendly ways of manipulating six different splines to fit the shape of a simple family of epiTrochoid curves: two types of Bézier curve, two uniform B-splines, and two Beta-splines. This work will focus on issues that arise when mathematically optimizing the fit. There are typically multiple solutions to the ODF method, and the number of solutions can often change as the object changes shape, so two topological questions immediately arise: are there rules that can be applied concerning the relative number of local minima and saddle points, and are there different mechanisms available by which solutions can either merge and disappear, or cross over each other and interchange roles. The author proposes some simple rules which can be used to determine if a given set of solutions is internally consistent in the sense that it has the appropriate number of each type of solution.
یادداشتهای مربوط به سفارشات
منبع سفارش / آدرس اشتراک
Springer Nature
شماره انبار
com.springer.onix.9783030125516
ویراست دیگر از اثر در قالب دیگر رسانه
عنوان
Fitting splines to a parametric function.
شماره استاندارد بين المللي کتاب و موسيقي
9783030125509
موضوع (اسم عام یاعبارت اسمی عام)
موضوع مستند نشده
Spline theory.
موضوع مستند نشده
Computer Graphics.
موضوع مستند نشده
Image Processing and Computer Vision.
موضوع مستند نشده
Spline theory.
مقوله موضوعی
موضوع مستند نشده
COM012000
موضوع مستند نشده
UML
موضوع مستند نشده
UML
رده بندی ديویی
شماره
511/
.
4223
ويراست
23
رده بندی کنگره
شماره رده
QA224
نام شخص به منزله سر شناسه - (مسئولیت معنوی درجه اول )