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L-systems with Multiplication Operator and c-Entropy

Sergey Belyi, Konstantin Makarov, Eduard Tsekanovskii

TL;DR

The paper develops a systematic framework for L-systems built from a scalar multiplication operator, focusing on c-entropy and the dissipation coefficient. It provides explicit transfer and impedance formulas, classifies impedance functions within bounded Donoghue classes, and analyzes the stability of these classes under coupling. A detailed treatment of both standard and skew-adjoint L-systems reveals additive properties of c-entropy and a hierarchical rule for dissipation under coupling. The results are complemented by concrete examples and a skew-adjoint coupling interpretation via LC-circuit analogies, offering a principled approach to impedance realization within Donoghue classes and their multiplicative couplings.

Abstract

In this note, we utilize the concepts of c-entropy and the dissipation coefficient in connection with canonical L-systems based on the multiplication (by a scalar) operator. Additionally, we examine the coupling of such L-systems and derive explicit formulas for the associated c-entropy and dissipation coefficient. In this context, we also introduce the concept of a skew-adjoint L-system and analyze its coupling with the original L-system.

L-systems with Multiplication Operator and c-Entropy

TL;DR

The paper develops a systematic framework for L-systems built from a scalar multiplication operator, focusing on c-entropy and the dissipation coefficient. It provides explicit transfer and impedance formulas, classifies impedance functions within bounded Donoghue classes, and analyzes the stability of these classes under coupling. A detailed treatment of both standard and skew-adjoint L-systems reveals additive properties of c-entropy and a hierarchical rule for dissipation under coupling. The results are complemented by concrete examples and a skew-adjoint coupling interpretation via LC-circuit analogies, offering a principled approach to impedance realization within Donoghue classes and their multiplicative couplings.

Abstract

In this note, we utilize the concepts of c-entropy and the dissipation coefficient in connection with canonical L-systems based on the multiplication (by a scalar) operator. Additionally, we examine the coupling of such L-systems and derive explicit formulas for the associated c-entropy and dissipation coefficient. In this context, we also introduce the concept of a skew-adjoint L-system and analyze its coupling with the original L-system.

Paper Structure

This paper contains 8 sections, 9 theorems, 129 equations, 2 figures, 2 tables.

Key Result

Theorem 2

Let $\Theta$ be an L-system e-4-34 with the main operator $T$ of the form e-d-4-30. Then the impedance function $V_{\Theta}(z)$ belongs to the class:

Figures (2)

  • Figure 1: Three-stage Series Electrical Circuit
  • Figure 2: Maximal c-Entropy

Theorems & Definitions (24)

  • Remark 1
  • Theorem 2
  • proof
  • Definition 3
  • Theorem 4: cf. Bro
  • proof
  • Theorem 5: cf. BMkT-2, MT10
  • proof
  • Remark 6
  • Definition 7
  • ...and 14 more