李缉熙的射频讲座录音和课件

soulfly619

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目录如下Part 1   Design Technologies and  Schemes[52RD.com]


lecture 1    Different Methodology between RF and Digital[52RD.com]
                     Circuit Design     1 hour[52RD.com]
        (0.17 days)[52RD.com]
1.1    Controversy[52RD.com]
1.1.1    Impedance Matching[52RD.com]
1.1.2    Key Parameter[52RD.com]
1.1.3    Circuit Testing and Main Test Equipments[52RD.com]
1.2    Differences of Digital and RF Blocks in a Communication System[52RD.com]
1.2.1    Impedance[52RD.com]
1.2.2    Current drain[52RD.com]
1.2.3    Location[52RD.com]
1.3    Conclusion[52RD.com]
1.4    Notes for  High Speed Digital Circuit Design[52RD.com]
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Lectue 2    Voltage and Power Transportation     2 hours[52RD.com]
    (0.33 days)[52RD.com]
2.1    Voltage Delivered from a Source to a Load[52RD.com]
2.1.1    General Expression of Voltage Delivered from a Source to a Load[52RD.com]
2.1.2    Additional Jitter or Distortion in a Digital Circuit Block[52RD.com]
2.2    Power Delivered from a Source to a Load[52RD.com]
2.2.1    General Expression of Power Delivered from a Source to a Load[52RD.com]
2.2.2    Power Instability[52RD.com]
2.2.3    Additional Power Loss[52RD.com]
2.2.4    Additional Distortion[52RD.com]
2.2.5    Additional Interference[52RD.com]
2.3    Impedance Conjugate Matching   [52RD.com]
2.3.1    Maximization of Power Transportation[52RD.com]
2.3.2    Power Transportation without Phase Shift   [52RD.com]
2.3.3    Impedance Matching Network[52RD.com]
2.3.4    Necessity of Impedance Matching[52RD.com]
2.4    Additional Effects of Impedance Matching[52RD.com]
2.4.1    Voltage Pumped Up by Means of Impedance Matching[52RD.com]
2.4.2    Power Measurement   [52RD.com]
Appendixes   [52RD.com]
2A.1    VSWR and Other  Reflection and Transmission Coefficients   [52RD.com]
2A.2    Relationships between Power (dBm), Voltage (V), and Power (Watt)   [52RD.com]
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Lecture 3    Impedance Matching in Narrow Band Case    4 hours[52RD.com]
    (0.67 days)   [52RD.com]
3.1    Introduction[52RD.com]
3.2    Impedance Matching by Means of Return Loss Adjustment[52RD.com]
3.2.1    Return Loss Circles on Smith Chart[52RD.com]
3.2.2    Relationship between Return Loss and Impedance Matching[52RD.com]
3.2.3    Implementation of an Impedance Matching Network[52RD.com]
3.3    Impedance Matching Network Built by One Part[52RD.com]
3.3.2    One Part Inserted into Impedance Matching Network in Series[52RD.com]
3.3.3    One Part Inserted into Impedance Matching Network in Parallel   [52RD.com]
3.4    Impedance Matching Network Built by Two Parts[52RD.com]
3.4.1    Regions in the Smith Chart[52RD.com]
3.4.2    Value of Parts[52RD.com]
3.4.3    Selection of Topology[52RD.com]
3.5    Impedance Matching Network Built by Three Parts[52RD.com]
3.5.1    “Π” and “T” Types[52RD.com]
3.5.2    Recommended Topologies[52RD.com]
3.6    Impedance Matching when ZS or ZL is not 50 Ω[52RD.com]
3.7    Parts in an Impedance Matching Network[52RD.com]
Appendixes[52RD.com]
3A.1    Fundamentals of the Smith Chart[52RD.com]
3A.2    Formula for a Two Parts Impedance Matching Network[52RD.com]
3A.3    Topology Restrictions of the Two Parts Impedance Matching Network[52RD.com]
3A.4    Topology Restrictions of the Three Parts Impedance Matching Network[52RD.com]
3A.5    Conversion between  “Π” and “T” type Matching Networks[52RD.com]
3A.6    Possible “Π” and “T” Impedance Matching Networks[52RD.com]
[52RD.com]
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Lecture 4   Impedance Matching in Wide Band Case    3 hours[52RD.com]
    (0.5 days)   [52RD.com]
4.1    Appearance of Narrow and Wide Band Return Loss on Smith Chart [52RD.com]
4.2    Impedance Variation due to Insertion of One Part per Arm[52RD.com]
         or per Branch[52RD.com]
4.2.1    An Inductor Inserted into Impedance Matching Network in Series[52RD.com]
4.2.2    A Capacitor Inserted into Impedance Matching Network in Series[52RD.com]
4.2.3    An Inductor Inserted into Impedance Matching Network in Parallel[52RD.com]
4.2.4    A Capacitor Inserted into Impedance Matching Network in Parallel[52RD.com]
4.3    Impedance Variation due to Insertion of Two Parts per Arm[52RD.com]
               or per Branch[52RD.com]
4.3.1    Two Parts Connected in Series to Form One Arm[52RD.com]
4.3.2    Two Parts Connected in Parallel to Form One Branch[52RD.com]
4.4    Impedance Matching in IQ Modulator Design for UWB System[52RD.com]
    in UWB System[52RD.com]
4.4.1    Gilbert Cell in IQ Modulator[52RD.com]
4.4.2    Impedances of  Gilbert Cell[52RD.com]
4.4.3    Impedance Matching for LO, RF and IF Ports Ignoring Bandwidth[52RD.com]
4.4.4    Wide Bandwidth Required in UWB(Ultra Wide Band) System[52RD.com]
4.4.5    Basic Idea to Expand the Bandwidth[52RD.com]
4.4.6    Example#1: Impedance Matching in  IQ Modulator Design    [52RD.com]
    for Group#1 in UWB System[52RD.com]
4.4.7    Example#2: Impedance Matching in  IQ Modulator Design[52RD.com]
    for Group#3+Group#6 in UWB System[52RD.com]
4.5    Discussion of Wide-band Impedance Matching Network[52RD.com]
4.5.1    Impedance Matching for Gate of MOSFET device[52RD.com]
4.5.2    Impedance Matching for Drain of MOSFET device[52RD.com]
[52RD.com]
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Lecture 5     Impedance and Gain of a Raw Device    2 hours[52RD.com]
    (0.33 days)   [52RD.com]
5.1    Introduction[52RD.com]
5.2    Miller Effect[52RD.com]
5.3    Small Signal Model of Bipolar Transistor[52RD.com]
5.4    Bipolar Transistor with CE (Common Emitter) Configuration[52RD.com]
5.4.1    Open-circuited Voltage Gain Av,CE of a CE Device[52RD.com]
5.4.2    Short-circuited Current Gain βCE and Frequency Response of a CE Device[52RD.com]
5.4.3    Primary Input and Output Impedances of a CE Device[52RD.com]
5.4.4    Miller Effect on a CE device[52RD.com]
5.4.5    Emitter Degeneration[52RD.com]
5.5    Bipolar Transistor with CB (Common Base) Configuration[52RD.com]
5.5.1.    Open-circuited Voltage Gain Av,CB  of a CB Device[52RD.com]
5.5.2.    Short-circuited Current Gain βCB  and Frequency Response of a CB Device[52RD.com]
5.5.3.    Input and Output Impedances of a CB Device[52RD.com]
5.6    Bipolar Transistor with CC (Common Collector) Configuration[52RD.com]
5.6.1    Open-circuited Voltage Gain Av,CC  of a CC Device[52RD.com]
5.6.2    Short-circuited Current Gain βCC  and Frequency Response of a CC Device[52RD.com]
5.6.3    Input and Output Impedances of a CC Device[52RD.com]
5.7    Small Signal Model of MOSFET Transistor[52RD.com]
5.8    Similarity between Bipolar and MOSFET Transistor[52RD.com]
5.8.1    Simplified Model of CS device[52RD.com]
5.8.2    Simplified Model of CG device[52RD.com]
5.8.3    Simplified Model of CD device[52RD.com]
5.9    MOSFET Transistor with CS (Common Source) Configuration[52RD.com]
5.9.1    Open-circuited Voltage Gain Av,CS  of a CS Device[52RD.com]
5.9.2    Short-circuited Current Gain βCS  and Frequency Response of a CS Device[52RD.com]
5.9.3    Input and Output Impedances of a CS Device[52RD.com]
5.9.4    Source Degeneration[52RD.com]
5.10    MOSFET Transistor with CG (Common Gate) Configuration[52RD.com]
5.10.1    Open-circuited Voltage Gain Av,CG of a CG Device[52RD.com]
5.10.2    Short-circuited Current Gain βCG  and Frequency Response of a CG Device [52RD.com]
5.10.3    Input and Output Impedances of a CG Device[52RD.com]
[52RD.com]
5.11    MOSFET Transistor with CD (Common Drain) Configuration[52RD.com]
5.11.1    Open-circuited Voltage Gain Av,CD  of a CD Device[52RD.com]
5.11.2    Short-circuited Current Gain βCD  and Frequency Response of a CD Device[52RD.com]
5.11.3    Input and Output Impedances of a CD Device[52RD.com]
[52RD.com]
5.12    Comparison of Bipolar and MOSFET Transistor in Various[52RD.com]
    Configurations[52RD.com]
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Lecture 6    Impedance Measurement    1 hours[52RD.com]
    (0.17 days)   [52RD.com]
6.1    Introduction[52RD.com]
6.2    Scale and Vector Voltage Measurement [52RD.com]
6.2.1    Voltage Measurement by Oscilloscope[52RD.com]
6.2.2    Voltage Measurement by Vector-Voltmeter[52RD.com]
6.3    Direct Impedance Measurement by Network Analyzer[52RD.com]
6.3.1    Direction of Impedance Measurement[52RD.com]
6.3.2    Advantages of Measuring S Parameters[52RD.com]
6.3.3    Theoretical Background of Impedance Measurement by S Parameters[52RD.com]
6.3.4    S Parameter Measurement by Vector-Voltmeter[52RD.com]
6.3.5    Calibration of Network Analyzer[52RD.com]
6.4    Alternative Impedance Measurement by Network Analyzer[52RD.com]
6.4.1    Accuracy of Smith Chart[52RD.com]
6.4.2    Low and High Impedance Measurement[52RD.com]
6.5    Impedance measurement by Assistance of Circulator[52RD.com]
Appendixes[52RD.com]
6A.1    Relationship Between the Impedance in Series and in Parallel[52RD.com]
[52RD.com]
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Lecture 7   Grounding    4 hours[52RD.com]
    (0.67 days)   [52RD.com]
7.1    Implications of Grounding[52RD.com]
7.2    Possible Grounding Problems Hidden in a Schematic [52RD.com]
7.3    Imperfect or Inappropriate Grounding Examples[52RD.com]
7.3.1    Inappropriate Selection of Bypass Capacitor[52RD.com]
7.3.2    Imperfect Grounding[52RD.com]
7.3.3    Improper Connection[52RD.com]
7.4    “Zero” Capacitor[52RD.com]
7.4.1    What is a “Zero” Capacitor?[52RD.com]
7.4.2    Selection of  the “Zero” Capacitor[52RD.com]
7.4.3    Bandwidth of the “Zero” Capacitor[52RD.com]
7.4.4    Combined Effect of Multiple “Zero” Capacitors[52RD.com]
7.4.5    Chip Inductor is a Good Assistant[52RD.com]
7.4.6    “Zero” Capacitor in RFIC Design[52RD.com]
7.5    Quarter Wavelength of Micro Strip Line[52RD.com]
7.5.1    A Runner is a Part in RF Circuitry[52RD.com]
7.5.2    Why the Quarter Wavelength is so Important?[52RD.com]
7.5.3    The Magic of the Open-circuited Quarter-Wavelength Micro Strip Line[52RD.com]
7.5.4    Testing for Width of a Micro Strip Line with a Specific[52RD.com]
    Characteristic Impedance[52RD.com]
7.5.5    Testing for the Quarter Wavelength   [52RD.com]
Appendixes   [52RD.com]
7A.1    Characterizing a Chip Capacitor and Chip Inductor by Means of S21 Testing[52RD.com]
[52RD.com]
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Lecture 8      Equipotentiality and Current Coupling[52RD.com]
    on the Ground Surface    2 hours[52RD.com]
    (0.33 days)   [52RD.com]
8.1    Equipotentiality on the Grounded Surface[52RD.com]
8.1.1    Equipotentiality on the Grounded Surface of a RF cable[52RD.com]
8.1.2    Equipotentiality on the Grounded Surface of a PCB[52RD.com]
8.1.3    Possible Problems of a Large Test PCB[52RD.com]
8.1.4    Coercing Grounding[52RD.com]
8.1.5    Testing for Equipotentiality[52RD.com]
[52RD.com]
8.2    Forward and Return Current Coupling[52RD.com]
8.3.1       “Indifferent Assumption” and the “Great Ignore”[52RD.com]
8.3.2       Reduction of Current Coupling on a PCB[52RD.com]
8.3.3       Reduction of Current Coupling in a IC Die[52RD.com]
8.3.4       Reduction of Current Coupling between Multiple RF Blocks[52RD.com]
8.3.5       A Plausible System Assembly[52RD.com]
[52RD.com]
8.3    PCB and IC Chip with Multi Metallic Layers[52RD.com]
Appendixes       [52RD.com]
8A.1    Primary Considerations of a PCB[52RD.com]
[52RD.com]
[52RD.com]
[52RD.com]
Lecture 9     RFIC (Radio Frequency Integrated Circuit) and[52RD.com]
     SOC (System on Chip)    4 hours[52RD.com]
    (0.67 days)   [52RD.com]
9.1    Interference and Isolation[52RD.com]
9.1.1    Existence of Interference in Circuitry[52RD.com]
9.1.2    Definition and Measurement of Isolation[52RD.com]
9.1.3    Main Path of Interference in a RF Module[52RD.com]
9.1.4    Main Path of Interference in a IC Die[52RD.com]
9.2    Shielding for a RF Module by a Metallic Shielding Box[52RD.com]
9.3    Strong Desirability to Develop RFIC[52RD.com]
9.4    Interference Going Along IC Substrate Path[52RD.com]
9.4.1.    Experimentation[52RD.com]
9.4.2.    Trench[52RD.com]
9.4.3.    Guard Ring[52RD.com]
9.5    Solution for Interference Coming from the Sky[52RD.com]
9.6    Common Grounding Rules for RF Module and RFIC Design[52RD.com]
9.6.1.    Grounding of Circuit-branches or Blocks in Parallel[52RD.com]
9.6.2.    DC Power Supply to Circuit-branches or Blocks in Parallel[52RD.com]
9.7    Bottlenecks in RFIC[52RD.com]
9.7.1    Low Q Inductor and Possible Solution[52RD.com]
9.7.2    “Zero” Capacitors[52RD.com]
9.7.3    Bonding Wires[52RD.com]
9.8    Prospect of SOC[52RD.com]
9.9    What is Next?[52RD.com]
Appendixes[52RD.com]
9A.1    Notes about RFIC layout[52RD.com]
9A.2    Calculation of Quarter Wavelength[52RD.com]
[52RD.com]
[52RD.com]
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Lecture 10    Manufacturability of Product Design    2 hours[52RD.com]
    (0.33 days)   [52RD.com]
10.1    Introduction[52RD.com]
10.2    Implication of 6σ Design[52RD.com]
10.2.1     6σ  and Yield Rate[52RD.com]
10.2.2     6σ Design for a Circuit Block[52RD.com]
10.3    Approaching 6σ Design[52RD.com]
10.3.1    By Changing Parts’ 6σ Value[52RD.com]
10.3.2    By Replacing a Single Part with Multiple Parts[52RD.com]
10.4    Monte Carlo Analysis   [52RD.com]
10.4.1    A BPF (Band Pass Filter)[52RD.com]
10.4.2    Simulation with Monte Carlo Analysis[52RD.com]
10.4.3    Sensitivity of Parts on the Parameter of Performance[52RD.com]
Appendixes[52RD.com]
10A.1    Fundamentals of Random Process[52RD.com]
10A.2    Index Cp, Cpk and Other Parameters Applied in 6σ Design[52RD.com]
10A.3    Table of the Normal Distribution[52RD.com]
[52RD.com]
[52RD.com]
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Part 2    RF System Analysis[52RD.com]
[52RD.com]
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Lecture 11     Main Parameters and System Analysis    4 hours[52RD.com]
    (0.67 days)   [52RD.com]
11.1    Introduction[52RD.com]
11.2    Power Gain[52RD.com]
11.2.1    Basic Concept of Reflection Power Gain[52RD.com]
11.2.2    Transducer Gain[52RD.com]
11.2.3    S21 and Various Power Gain in Unilateral Cases[52RD.com]
11.2.4    Power Gain and Impedance Matching[52RD.com]
11.2.5    Power Gain and Voltage Gain[52RD.com]
11.2.6    Cascaded Equations of Gain[52RD.com]
11.3    Noise[52RD.com]
11.3.1    Significance of the Noise Figure[52RD.com]
11.3.2    Noise Figure in a Noisy Two-port Block[52RD.com]
11.3.3    Notes for Noise Figure Testing.[52RD.com]
11.3.4    An Experimental Method to Obtain Noise Parameters[52RD.com]
11.3.5    Cascaded Equations of Noise Figure[52RD.com]
11.3.6    Sensitivity of Receiver[52RD.com]
11.4    Non-linearity[52RD.com]
11.4.1    Non-linearity of Devices[52RD.com]
11.4.2    IP (Intercept point) and IMR (Inter-Modulation Rejection)[52RD.com]
11.4.3    Cascaded Equations of Intercept Point[52RD.com]
11.4.4    Non-linearity and Distortion[52RD.com]
11.5    Other Parameters[52RD.com]
11.5.1    DC Power Supply and Current Drain[52RD.com]
11.5.2    Part Count[52RD.com]
11.6    Examples of RF System Analysis[52RD.com]
Appendixes[52RD.com]
11A.1    Conversion between Watt, Volt, and dBm in a System   
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    with 50 Ω of Input and Output Impedance[52RD.com]
11A.2    VSWR and Other  Reflection and Transmission Coefficients
11A.3    Definition of Powers in a Two-port Block by Signal Flow Graph
11A.4    Main Noise Sources[52RD.com]

决之誉

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damoxinjiang

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windwithgone

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RFplayer

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hidy1978

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艹天道

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jason_vip1

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千古不易

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