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Ahmet Bindal - Electronics for Embedded Systems

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Ahmet Bindal Electronics for Embedded Systems
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Springer International Publishing Switzerland 2017
Ahmet Bindal Electronics for Embedded Systems 10.1007/978-3-319-39439-8_1
1. Fundamentals of Passive Circuit Analysis
Ahmet Bindal 1
(1)
Computer Engineering Department, San Jose State University, San Jose, California, USA
Ahmet Bindal
Email:
1.1 Laplace Transform
Laplace transform transforms a function, f(t), in time-domain to a function, F(s), in frequency domain . We will use Laplace transform to determine the impedance of a passive element in this section.
It is defined as:
11 12 Definitions of Passive Elements Current-voltage relationship - photo 1
(1.1)
1.2 Definitions of Passive Elements
Current-voltage relationship across a resistor , R, is defined as shown in Fig..
Electronics for Embedded Systems - image 2
Fig. 1.1
Current-voltage relationship across a resistor, R
This relationship is called Ohms law and mathematically expressed as follows:
Electronics for Embedded Systems - image 3
(1.2)
Taking Laplace transform of both sides of Eq. yields:
Electronics for Embedded Systems - image 4
Thus, the impedance of the resistor becomes:
Electronics for Embedded Systems - image 5
(1.3)
Current-voltage relationship across a capacitor , C, is defined as shown in Fig..
Electronics for Embedded Systems - image 6
Fig. 1.2
Current-voltage relationship across a capacitor , C
This relationship originates from the Coulombs law and mathematically expressed as follows:
Electronics for Embedded Systems - image 7
(1.4)
Taking Laplace transform of both sides of Eq. yields:
Electronics for Embedded Systems - image 8
where VC(0) is assumed 0 V.
Thus, the impedance of the capacitor becomes:
Electronics for Embedded Systems - image 9
(1.5)
Current-voltage relationship across an inductor , L, is defined as shown in Fig..
Electronics for Embedded Systems - image 10
Fig. 1.3
Current-voltage relationship across an inductor , L
This relationship is mathematically expressed as follows:
Electronics for Embedded Systems - image 11
(1.6)
Taking Laplace transform of both sides of Eq. yields:
Electronics for Embedded Systems - image 12
where IL(0) is assumed 0 A.
Thus, the impedance of the capacitor becomes:
Electronics for Embedded Systems - image 13
(1.7)
1.3 Time-Domain Analysis of First Order Passive Circuits
1.3.1 RC Circuits
In this section, we will examine the circuit behavior of simple RC circuits. A circuit composed of a series combination of a resistor and a capacitor is shown in Fig.. The switch is assumed to close at t = 0.
Electronics for Embedded Systems - image 14
Fig. 1.4
A simple RC circuit where the switch closes at t = 0
Applying Kirchoffs voltage law to the circuit yields:
Electronics for Embedded Systems - image 15
(1.8)
But,
Electronics for Embedded Systems - image 16
(1.9)
In order to use Eq..
Electronics for Embedded Systems - image 17
(1.10)
Substituting Eq. yields:
Electronics for Embedded Systems - image 18
(1.11)
Electronics for Embedded Systems - image 19
(1.12)
In Eq. , the right side is equal to zero because V is a constant voltage and its derivative becomes zero.
We know I(t) is composed of a general and a particular solution for this first-order constant coefficient differential equation . Thus,
Electronics for Embedded Systems - image 20
But, IPART(t) = 0 since the right hand side of the differential equation in Eq. is zero .
IGEN(t), on the other hand, is expressed as follows:
Electronics for Embedded Systems - image 21
(1.13)
Thus,
114 To find s we need to take the Laplace transform of both sides of the - photo 22
(1.14)
To find s, we need to take the Laplace transform of both sides of the differential equation in Eq..
Thus,
Electronics for Embedded Systems - image 23
(1.15)
Since I(s) 0, then Eq. reveals Electronics for Embedded Systems - image 24 (characteristic equation).
Therefore, Electronics for Embedded Systems - image 25 , and I(t) becomes:
Electronics for Embedded Systems - image 26
(1.16)
To find A, we need to use the initial voltage across the capacitor . In this case, we assume VOUT(0) = 0.
But, at t = 0, we have:
Electronics for Embedded Systems - image 27
(1.17)
Thus,
Electronics for Embedded Systems - image 28
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