Pulse Modulation Techniques
With Signal Diagrams and Waveforms
Presented by [Your Name]
Introduction
• - Pulse modulation converts analog signals
into pulse signals.
• - Common in digital communication systems.
• - Divided into analog and digital types.
PAM - Pulse Amplitude Modulation
• - Amplitude of pulses represents signal.
• - Simple but noise sensitive.
• - Used in Ethernet.
PWM - Pulse Width Modulation
• - Pulse width varies with signal amplitude.
• - Good noise immunity.
• - Used in motor control.
PPM - Pulse Position Modulation
• - Pulse position changes with signal.
• - Power efficient.
• - Used in optical systems.
PCM - Pulse Code Modulation
• - Converts analog to binary code.
• - High fidelity.
• - Used in CDs, VoIP.
DM - Delta Modulation
• - Tracks signal changes step-by-step.
• - Simplified PCM.
• - Used in low-bandwidth systems.
Analog Modulation Summary
• - PAM: Varies amplitude.
• - PWM: Varies width.
• - PPM: Varies position.
• All transmit signal via pulse shape changes.
Digital Modulation Summary
• - PCM: Encodes as binary.
• - DM: Encodes signal change.
• Used in digital transmission systems.
Applications of Pulse Modulation
• - Broadcasting
• - Industrial Control
• - Medical Equipment
• - Satellite Communication
• - Digital Telephony
Pros and Cons
• Advantages:
• - Noise Resistant
• - Reliable for digital data
• Disadvantages:
• - Complex
• - Requires synchronization
Comparison Table
• PAM: Amplitude based
• PWM: Width based
• PPM: Position based
• PCM: Digital binary code
• DM: Digital step-based
Conclusion
• - Pulse modulation bridges analog and digital
systems.
• - Vital in modern communication.
• - Adaptable for future tech.

Pulse_Modulation_Techniques_Best_Presentation.pptx

  • 1.
    Pulse Modulation Techniques WithSignal Diagrams and Waveforms Presented by [Your Name]
  • 2.
    Introduction • - Pulsemodulation converts analog signals into pulse signals. • - Common in digital communication systems. • - Divided into analog and digital types.
  • 3.
    PAM - PulseAmplitude Modulation • - Amplitude of pulses represents signal. • - Simple but noise sensitive. • - Used in Ethernet.
  • 4.
    PWM - PulseWidth Modulation • - Pulse width varies with signal amplitude. • - Good noise immunity. • - Used in motor control.
  • 5.
    PPM - PulsePosition Modulation • - Pulse position changes with signal. • - Power efficient. • - Used in optical systems.
  • 6.
    PCM - PulseCode Modulation • - Converts analog to binary code. • - High fidelity. • - Used in CDs, VoIP.
  • 7.
    DM - DeltaModulation • - Tracks signal changes step-by-step. • - Simplified PCM. • - Used in low-bandwidth systems.
  • 8.
    Analog Modulation Summary •- PAM: Varies amplitude. • - PWM: Varies width. • - PPM: Varies position. • All transmit signal via pulse shape changes.
  • 9.
    Digital Modulation Summary •- PCM: Encodes as binary. • - DM: Encodes signal change. • Used in digital transmission systems.
  • 10.
    Applications of PulseModulation • - Broadcasting • - Industrial Control • - Medical Equipment • - Satellite Communication • - Digital Telephony
  • 11.
    Pros and Cons •Advantages: • - Noise Resistant • - Reliable for digital data • Disadvantages: • - Complex • - Requires synchronization
  • 12.
    Comparison Table • PAM:Amplitude based • PWM: Width based • PPM: Position based • PCM: Digital binary code • DM: Digital step-based
  • 13.
    Conclusion • - Pulsemodulation bridges analog and digital systems. • - Vital in modern communication. • - Adaptable for future tech.