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| Preface | |
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| The calorimeter as an object with a heat source | |
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| The Fourier law and the Fourier-Kirchhoff equation | |
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| Heat transfer. Conduction, convection and radiation | |
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| General integral of the Fourier equation. Cooling and heating processes | |
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| Heat balance equation of a simple body. The Newton law of cooling | |
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| The heat balance equations for a rod and sphere | |
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| General heat balance equation of a calorimetric system | |
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| Calorimeters as dynamic objects | |
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| Types of dynamic objects | |
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| Laplace transformation | |
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| Dynamic time-resolved characteristics | |
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| Pulse response | |
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| Frequential characteristics | |
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| Calculations of spectrum transmittance | |
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| Methods of determination of dynamic parameters | |
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| Determination of time constant | |
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| Least squares method | |
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| Modulating functions method | |
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| Rational function method of transmittance approximation | |
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| Determination of parameters of spectrum transmittance | |
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| Classification of calorimeters. Methods of determination of heat effects | |
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| Classification of calorimeters | |
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| Methods of determination of heat effects | |
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| General description of methods of determination of heat effects | |
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| Comparative method of measurements | |
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| Adiabatic method and its application in adiabatic and scanning adiabatic calorimetry | |
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| Multidomains method | |
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| Finite elements method | |
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| Dynamic method | |
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| Flux method | |
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| Modulating method | |
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| Steady-state method | |
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| Method of corrected temperature rise | |
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| Numerical and analog methods of determination of thermokinetics | |
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| Harmonic analysis method | |
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| Method of dynamic optimization | |
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| Thermal curve interpretation method | |
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| Method of state variables | |
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| Method of transmittance decomposition | |
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| Inverse filter method | |
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| Evaluation of methods of determination of total heat effects and thermokinetics | |
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| Linearity and principle of superposition | |
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| Dynamic properties of calorimeters | |
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| Equations of dynamics | |
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| Dynamic properties of two and three-domain calorimeters with cascading structure | |
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| Equations of dynamics. System of two domains in series | |
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| Equations of dynamics. Three domains in series | |
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| Applications of equations of dynamics of cascading systems | |
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| Dynamic properties of calorimeters with concentric configuration | |
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| Dependence of dynamic properties of two-domain calorimeter with concentric configuration on location of heat sources and temperature sensors | |
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| Dependence between temperature and heat effect as a function of location of heat source and temperature sensor | |
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| Apparent heat capacity | |
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| Energy equivalent of calorimetric system | |
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| Final remarks | |
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| References | |