From Robert Bogdan Staszewski Group’s Paper Phase Noise of Charges-Sharing Locking Timestamps of Oscillator and Reference [\begin{align} t_{ref}[n] &= n T_{ref} + \Delta t_{ref}[n] t_{osc}...
PLL 02
Paper Multirate Timestamp Modeling for Ultralow-Jitter Frequency Synthesis: A Tutorial High-bandwidth PLL (\(\ge 30 \% f_{ref}\)). ADPLL with TDC and digitial loop filter. Injection locki...
Laplace Transforms
Heaviside step function [u(t) = \begin{cases} 1 & \text{ for } \quad t > 0, 0 & \text{ for } \quad t \le 0 \end{cases}] \(H(s)\) \(h(t)\) \(\text{init co...
Measure Theory 04
Caratheodory’s Extension Theorem We already know given a \(\sigma\)-additive \(\mu: \mathscr{S} \to [0,\infty]\), there is an unique extension to an algebra with \(\sigma\)-additive \(\nu: \math...
Measure Theory 03
Set Functions Additive Given \(\mathscr{C} \subseteq \mathscr{P}(\Omega)\) and \(\emptyset \in \mathscr{C}\). The function \(\mu: \mathscr{C} \to \mathbb{R}_+ \cup \{\infty\}\) is additive, if ...
Measure Theory 02
Classes of Subsets Semi-Algebras Definition: \(\mathscr{S} \subseteq \mathscr{P}(\Omega)\) is a semi-algebra, if and only if: (i) \(\Omega \in \mathscr{S}\) (ii) \(A, B \in \mathscr{S} \impli...
Measure Theory 01
Introdution: A Non-Measurable Set Can we define a measure on \(\mathbb{R}\), such that it works on all the subsets of \(\mathbb{R}\)? (i) \(\lambda: \mathfrak{P}(\mathbb{R}) \to \mathbb{R}_+ \c...
Probability: Theory and Examples 01
From book_probability_theory_and_examples Measure Theory Probability Spaces Here and throughout the book, terms being defined are set in boldface. Here and in what follows, countable means fini...
Topics in The Theory of Random Noise 01
From book_topics_in_the_theory_of_random_noise Chapter 1: Random Functions and Their Statistical Characteristics 1. Random Variables A random variable $\xi$ should have definition mean of any fu...
Oscillator Phase Noise: A Tutorial
From Ali Hajimiri’s Paper [h_{\phi}(t,\tau) = \dfrac{\Gamma(\omega_0 \tau)}{q_{max}} u(t-\tau)] [\mathcal{L}(\Delta \omega) = \dfrac{\dfrac{\overline{i_n^2}}{\Delta f} \Gamma_{rms}^2}{2 q_{max}^2...