
45MHz to 650MHz, Integrated IF VCOs with Differential Output General Description Features
... Note 4: Application range of the part is achieved using external inductance as specified in Figures 1-5 and shown in Figure 6. The internal varactors support center frequencies of 45MHz to 650MHz. The center frequency is defined by the value of the external inductor element, LF. The application freq ...
... Note 4: Application range of the part is achieved using external inductance as specified in Figures 1-5 and shown in Figure 6. The internal varactors support center frequencies of 45MHz to 650MHz. The center frequency is defined by the value of the external inductor element, LF. The application freq ...
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... If we fix i-9. we may write m = hp\l with h > 1 and (h, pt) = 1. The question will then be settled if we show that there are no carries when adding p?* to m - p ?7: = (h - l)pioti in base p. Since the only nonzero digit in the representation of^p?* to base p ^ i s the 1 that multiplies p ? s we need ...
... If we fix i-9. we may write m = hp\l with h > 1 and (h, pt) = 1. The question will then be settled if we show that there are no carries when adding p?* to m - p ?7: = (h - l)pioti in base p. Since the only nonzero digit in the representation of^p?* to base p ^ i s the 1 that multiplies p ? s we need ...
Optimal Signal Recovery for Pulsed Balanced Detection Yannick Alan de Icaza Astiz
... noise by means of a pattern function. We thus present the theoretical model for the pattern-function filtering, starting with a theoretical model of a balanced detector. Next, we indicate how to recover the signal from the output of the balanced detector and a noise model is proposed for the sources ...
... noise by means of a pattern function. We thus present the theoretical model for the pattern-function filtering, starting with a theoretical model of a balanced detector. Next, we indicate how to recover the signal from the output of the balanced detector and a noise model is proposed for the sources ...
Mathematics of radio engineering

The mathematics of radio engineering is the mathematical description by complex analysis of the electromagnetic theory applied to radio. Waves have been studied since ancient times and many different techniques have developed of which the most useful idea is the superposition principle which apply to radio waves. The Huygen's principle, which says that each wavefront creates an infinite number of new wavefronts that can be added, is the base for this analysis.