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Huang-Jen Chiu Dept. of Electronic
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� Power Electronic Systems Outlin
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Power Electronic Systems
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Switch-Mode Switch Mode Power Suppl
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Application in Adjustable Speed Dri
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Scope and Applications
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Power Processor as a Combination of
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AC Motor Drive • Converter 1 rect
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Interdisciplinary Nature of Power E
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Diodes • On and off states contro
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Thyristors • Semi-controlled devi
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Generic Switch Symbol • Idealized
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Bipolar Junction Transistors (BJT)
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MOSFETs • Easy to control by the
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GTO Turn-Off Turn Off • Need a tu
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MOS-Controlled MOS Controlled Thyri
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Summary of Device Capabilities
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Chapter 3 Review of Basic Electrica
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Three-Phase Three Phase Circuit
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Fourier Analysis ∞ 1 f(t) = F0 +
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Phasor Representation
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Inductor Voltage and Current in Ste
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Ampere’s Ampere s Law ∫ H dl =
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B-H H Relationship; Saturation •
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Concept of Magnetic Reluctance •
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Analogy between Equations in Electr
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Inductance L • Inductance relates
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Transformer Equivalent Circuit
- Page 57 and 58: Chapter 4 Computer Simulation
- Page 59 and 60: Large-Signal Large Signal System Si
- Page 61 and 62: Closed-Loop Closed Loop Operation:
- Page 63 and 64: Modeling of a Simple Converter ⎡
- Page 65 and 66: PSpice-based PSpice based Simulatio
- Page 67 and 68: Chapter 5 Diode Rectifiers
- Page 69 and 70: A Simple Circuit • Resistive load
- Page 71 and 72: A Simple Circuit (Load has a dc bac
- Page 73 and 74: Diode-Rectifier Diode Rectifier Bri
- Page 75 and 76: Current Commutation • Assuming in
- Page 77 and 78: Current Commutation in Full-Bridge
- Page 79 and 80: Rectifier with a dc-side dc side vo
- Page 81 and 82: Diode Rectifier Bridge • Equivale
- Page 83 and 84: Input Line-Current Line Current Dis
- Page 85 and 86: Line-Voltage Line Voltage Distortio
- Page 87 and 88: A Three-Phase, Three Phase, Four-Wi
- Page 89 and 90: Three-Phase, Three Phase, Full-Brid
- Page 91 and 92: Rectifier with a Large Filter Capac
- Page 93 and 94: Chapter 6 Thyristor Converters •
- Page 95 and 96: Primitive circuits with thyristors
- Page 97 and 98: Full-Bridge Full Bridge Thyristor C
- Page 99 and 100: Average DC Output Voltage is s1 s3
- Page 101 and 102: 1-Phase Phase Thyristor Converter
- Page 103 and 104: DC Voltage versus Load Current •
- Page 105 and 106: Thyristor Converters: Inverter Mode
- Page 107: Thyristor Converters: Inverter Mode
- Page 112 and 113: Block Diagram of DC-DC DC DC Conver
- Page 114 and 115: Pulse-Width Pulse Width Modulation
- Page 116 and 117: Waveforms at the boundary of Cont./
- Page 118 and 119: Limits of Cont./ Discont. Discont.
- Page 120 and 121: d Step-Up Step Up DC-DC DC DC Conve
- Page 122 and 123: D = 4 27 V V o d V ( V Discont. Dis
- Page 124 and 125: Output Ripple ΔV o = I o t C on =
- Page 126 and 127: Limits of Cont./ Discont. Discont.
- Page 128 and 129: V o V d Limits of Cont./ Discont. D
- Page 130 and 131: • The output voltage can be highe
- Page 132 and 133: Converter Waveforms
- Page 134 and 135: Switch Utilization in DC-DC DC DC C
- Page 136 and 137: Chapter 8 Switch-Mode Switch Mode D
- Page 138 and 139: Switch-Mode Switch Mode DC-AC DC AC
- Page 140 and 141: Details of a Switching Time Period
- Page 142 and 143: Harmonics due to Over-modulation Ov
- Page 144 and 145: Half-Bridge Half Bridge Inverter
- Page 146 and 147: PWM to Synthesize Sinusoidal Output
- Page 148 and 149: DC-Side DC Side Current
- Page 150 and 151: DC-Side DC Side Current in a Single
- Page 152 and 153: Square-Wave Square Wave and PWM Ope
- Page 154 and 155: Three-Phase Three Phase Inverter
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Square-Wave Square Wave and PWM Ope
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Effect of Blanking Time • Results
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Effect of Blanking Time • Effect
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Tolerance-Band Tolerance Band Curre
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Chapter 9 Zero-Voltage Zero Voltage
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Turn-on Turn on and Turn-off Turn o
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Undamped Undamped Series Series-Res
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Impedance of a Series-Resonant Seri
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Impedance of a Parallel-Resonant Pa
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SLR Converter Waveforms 1/2ωo
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Lossless Snubbers in SLR Converters
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SLR Converter Control • The opera
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No PLR Converter Waveforms turn - o
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PLR Converter Characteristics • O
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Parallel-Resonant Parallel Resonant
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Single-switch ZCS Turn-on Class-E C
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Resonant Switch Converters
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ZCS Turn-on ZCS Resonant-Switch Res
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MOSFET Internal Capacitances ZVS is
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ZVS-CV ZVS CV DC-DC DC DC Converter
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Three-Phase Three Phase ZVS-CV ZVS
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ZVS-CV ZVS CV with Voltage Cancella
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Three-Phase Three Phase Resonant DC
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High-Frequency High Frequency-Link
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Chapter 10 Switching DC Power Suppl
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Switching DC Power Supply • High
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Transformer Analysis • Needed to
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Flyback Converter • Derived from
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Flyback Converter • Switching wav
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Forward Converter • Derived from
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Forward Converter: Other Possible T
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Half-Bridge Half Bridge Converter
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Current-Source Current Source Conve
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Core Utilization in Various Convert
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⎪⎩ ⎪ ⎨ ⎧ − + = + = •
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• Linearization of the Power Stag
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R >> r + ) ⇒ ( C rL v o = R( x 1
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Forward Converter: Transfer Functio
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Linearizing the PWM Block ~ d( s) 1
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A General Amplifier for Error Compe
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Feedback-Loop Feedback Loop Stabili
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Feedback-Loop Feedback Loop Stabili
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Compensator Design Example G m = G
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Voltage Feed-Forward Feed Forward
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Various Types of Current Mode Contr
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A Typical PWM Control IC
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Implementing Electrical Isolation i
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Input Filter • Needed to comply w
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Chapter 11 Power Conditioners and U
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Typical Voltage Tolerance Envelope
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Electronic Tap Changers • Control
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UPS: Possible Rectifier Arrangement
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UPS: Another Possible Input Arrange
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UPS: Various Inverter Arrangements
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UPS Supplying Several Loads • Wit
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UPS: Using the Line Voltage as Back
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Inductive Ballast of Fluorescent La
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Electronic Ballast for Fluorescent
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Industrial Induction Heating • Ne
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Switch-Mode Switch Mode Welders •
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HVDC Transmission • There are man
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HVDC Transmission: AC-Side AC Side
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Thyristor-Controlled Thyristor Cont
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Instantaneous VAR Controller (SATCO
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Photovoltaic Interface • This sch
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Active Filters for Harmonic Elimina
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Various Loads Supplied by the Utili
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Typical Harmonics in the Input Curr
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Harmonic Guidelines: IEEE 519 • L
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Power-Factor Power Factor-Correctio
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Power-Factor Power Factor-Correctio
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Switch-Mode Switch Mode Converter C
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EMI: Conducted Interefence • Comm
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Conducted EMI • Various Standards
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V d - + i D F D f Turn-off Turn off
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Aspects of EMC (EMI、EMS) (EMI EMS
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Three Ways to Prevent Interference
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Other Aspects of EMC
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Frequency Range of EMC Requirements
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Federal Communications Commission (
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FCC Emission for Class A
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Open Area Test Site
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Radiated EMI Test Setup
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Conducted EMI Test Setup
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Conducted Emissions Test Layout
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CISPR Bandwidth Requirements
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Design Constraints for Products �
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Effects of Component Leads
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1000Ω, Carbon Resistor having 1/4
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470 pF Ceramic Capacitor with Short
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0.15 μF Tantalum Capacitor with Sh
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Inductors
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Common-Mode Common Mode Choke
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Frequency Response of the Relative
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Multi-Turn Multi Turn Ferrite Beads
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The Periodic, Trapezoidal Pulse Tra
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Spectrum Analyzer
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The Effects of Differential-Mode Cu
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Radiated Emission due to the Differ
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Common-Mode Current Emission | E C
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Susceptibility Models
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Measurement of Conducted Emissions
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Differential-Mode and Common-Mode C
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Definition of the Insertion Loss of
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Insertion Loss Tests
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Common-Mode Common Mode Choke
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The Equivalent Circuit of the Filte
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A Device to Separate the CM and DM
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Measured Conducted Emissions with 3
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Measured Conducted Emissions with a
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Nonideal Effects in Diodes
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The Effect of Primary-to Primary to
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Crosstalk � The unintended EM cou
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Wire-type Wire type Line illustrati
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The Equivalent Circuit of TEM Wave
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Frequency Response of the Crosstalk
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Common-impedance Common impedance C
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Time-Domain Time Domain Crosstalk f
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The Lumped Equivalent Circuit for V
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The Lumped Equivalent Circuit ^ V I
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Twisted Wires
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Terminating a Twisted Pair
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Explanation of the Effect of an Unb
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A Coupling Model for the Balanced T
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Purposes of a Shield � To prevent
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Termination of a Cable Shield � T
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R dB ≅ Reflection Loss 20 log 10
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Shielding Effectiveness
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Shielding Effectiveness of Metals
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The Frequency Dependence of Various
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The Bands to Reduced the Magnetic F
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ESD Events � Typical rise times a
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Three Techniques for Preventing Pro
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Hardware Immunity � Secondary arc
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Single-point Single point Ground
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The Methods of Preventing ESD-induc
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Reduction of Loop Areas to Reduce t
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Packaging Consideration � A criti
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The Effect of Conductor Inductance
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Ground Problems between Analog and
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Methods for Decoupling Subsystems
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Use of Interspersed Grounds to Redu
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Decoupling Subsystems � Common-mo
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Component Placement
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A Good Layout for a Typical Digital
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Unintentional Coupling of Signals b
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Decoupling Capacitor Placement