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Linear continued

It is said in this case that the functional J has the derivative at the point u. Let V be the space dual of V, i.e. the space of all linear continuous functionals on V. If the operator J V —> V is defined such that for each u gV the derivative can be found at the point u, then the functional J is called differentiable. [Pg.22]

Conversely, there exists a linear continuous operator n =o —> ... [Pg.51]

Theorem 1.25. Let the boundary dflc belong to the class and a function u belong to the space Then there exists a linear continuous... [Pg.54]

For smooth functions u defined in fl, formula (1.141) arises. Conversely, there exists a linear continuous operator [i7 / (r)] —> such that for... [Pg.57]

Chapter 4 discusses the selection and optimization of mobile phases for successful separations in PLC. Chapter 5 details procedures for sample application and development of layers, and Chapter 6 complements Chapter 5 by dealing specifically with the use of horizontal chambers for the development of preparative layers, including linear, continuous, two-dimensional, gradient, circular, and anticircular modes. [Pg.8]

A number of variations of this test exist. An oven temperature is increased linearly. Continuous monitoring of the temperature and pressure outputs from a sample tube in the oven provides qualitative information about the thermal characteristics of the sample. In many cases, the pressure data can also yield valuable information. Any discontinuity in a plot of In P against 1/T indicates noncondensable gas generation. (The plot is often an essentially straight line if the pressure increase is due solely to the vapor pressure.)... [Pg.98]

DEN 438 has a statistical functionality of 3.6 epoxides/molecule ( ). Thus, incorporation of 1 molecule of DEN 438 into 1 molecule of advanced resin gives statistically 1.6 branches in that molecule of resin (3.6 epoxides are present. Two are consumed to form the linear continuation of the resin. The difference, 1.6 epoxides, is the number of branches generated.). [Pg.190]

The algebraic equations for the end-point gas temperatures are then substituted into the linearized continuity equations, which are then solved for the velocities. The linearized reaction rate expressions and the linearized expressions for the velocities and for the concentrations and temperatures at the axial boundary points are substituted into the ordinary differential equations. [Pg.172]

In light of uncertainty about mechanisms and human dose-response, the assumption of low-dose linearity continues to be a reasonable one. The large and growing burden of cancer in the United States (now at 500,000 deaths per year) vividly demonstrates the need for prevention. Prevention means not only addressing those cancer risks already established as "major" contributors to the disease burden (such as smoking). . . but also reducing current involuntary exposures to identified industrial carcinogens. [Pg.79]

EU = assuming early U uptake LU assuming linear (continuous) U uptake RU assuming recent U uptake b Calculated using U uptake parameter, p = 10. c Calculated using U uptake parameter, p = 20... [Pg.9]

Fig. 11.9 Types of linear continuous-flow reactors (LCFRs). (a) Continuous plug flow reactor (CPFR) resembling a batch reactor (BR) with the axial distance z being equivalent to time spent in a BR. (b) A tabular flow reactor (TFR) with (tq) miscible thin disk of reactive component deformed and distributed (somewhat) by the shear field over the volume, and (b2) immiscible thin disk is deformed and stretched and broken up into droplets in a region of sufficiently high shear stresses, (c) SSE reactor with (cj) showing laminar distributive mixing of a miscible reactive component initially placed at z = 0 as a thin slab, stretched into a flat coiled strip at z L, and (c2) showing dispersive mixing of an immiscible reactive component initially placed at z — 0 as a thin slab, stretched and broken up into droplets at z — L. Fig. 11.9 Types of linear continuous-flow reactors (LCFRs). (a) Continuous plug flow reactor (CPFR) resembling a batch reactor (BR) with the axial distance z being equivalent to time spent in a BR. (b) A tabular flow reactor (TFR) with (tq) miscible thin disk of reactive component deformed and distributed (somewhat) by the shear field over the volume, and (b2) immiscible thin disk is deformed and stretched and broken up into droplets in a region of sufficiently high shear stresses, (c) SSE reactor with (cj) showing laminar distributive mixing of a miscible reactive component initially placed at z = 0 as a thin slab, stretched into a flat coiled strip at z L, and (c2) showing dispersive mixing of an immiscible reactive component initially placed at z — 0 as a thin slab, stretched and broken up into droplets at z — L.
In the linear limit we can also integrate the linearized continuity equation... [Pg.131]

Huber C., Filella M., and Town R. M. (2002) Computer modelling of trace metal ion speciation practical implementation of a linear continuous function for complexation by natural organic matter. Comput. Geosci. 28, 587-596. [Pg.2324]

Let us assume that L is a positively determined (PD) linear continuous operator acting in a real Hilbert space M. According to the definition of the PD linear operator (Appendix D), the following inequality is valid for all r eM ... [Pg.94]

Theorem 19 Let L be an absolutely positively determined (APD) linear continuous operator, acting in a complex Hilbert space M. Then the solution of the linear operator equation (4-6) exists and is unique in M, and the minimal residual method, based on the recursive formulae (4-V and (4-13), converges to this solution for any initial approximation mo... [Pg.98]

Theorem 22. Let A be an arbitrary linear continuous operator, acting from a complex Hilbert space M to a complex Hilbert space D, and W be a positively determined linear continuous operator in M. Then the Tikhonov parametric functional... [Pg.116]


See other pages where Linear continued is mentioned: [Pg.31]    [Pg.50]    [Pg.54]    [Pg.55]    [Pg.58]    [Pg.392]    [Pg.247]    [Pg.755]    [Pg.6]    [Pg.616]    [Pg.616]    [Pg.926]    [Pg.365]    [Pg.79]    [Pg.125]    [Pg.720]    [Pg.45]    [Pg.93]    [Pg.97]    [Pg.97]    [Pg.114]    [Pg.144]    [Pg.145]    [Pg.533]    [Pg.766]   


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