4. Low Power Design Strategies and Techniques in Advanced Technologies - Low Power Circuit Designs
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4. Low Power Design Strategies and Techniques in Advanced Technologies

4. Low Power Design Strategies and Techniques in Advanced Technologies

The chapter explores advanced strategies and design techniques aimed at minimizing power consumption in modern CMOS and FinFET-based integrated circuits. As device scaling approaches atomic limits, it emphasizes a multi-domain approach that integrates various techniques at the device, circuit, architecture, and system levels. Special attention is given to balancing power reduction with performance, area, and reliability in both digital and analog designs.

15 sections

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  1. 4
    Low Power Design Strategies And Techniques In Advanced Technologies

    This chapter discusses strategies and techniques for minimizing power...

  2. 4.1
    Introduction

    This section introduces advanced strategies for minimizing power consumption...

  3. 4.2
    Problem Statement

    The primary challenge in modern low power design is reducing both dynamic...

  4. 4.3
    Step 1: Core Principles Of Low Power Design

    This section outlines essential principles for designing low power...

  5. 4.3.1
    Minimize Supply Voltage (Vdd)

    This section emphasizes the importance of minimizing supply voltage (Vdd) in...

  6. 4.3.2
    Reduce Switching Activity (Α)

    This section focuses on strategies to minimize switching activity in...

  7. 4.3.3
    Lower Capacitance (C)

    This section discusses how optimizing layout and interconnects can lower...

  8. 4.3.4
    Reduce Frequency (F)

    This section discusses techniques to reduce frequency in integrated circuits...

  9. 4.3.5
    Leakage Management

    Leakage management is a critical component of low power design strategies...

  10. 4.4
    Step 2: Techniques In Cmos-Based Digital Circuits

    This section outlines techniques in CMOS digital circuits to achieve low...

  11. 4.5
    Step 3: Finfet-Specific Power Strategies

    This section highlights the power management strategies specifically...

  12. 4.6
    Step 4: Combined Strategies For Soc-Level Power Management

    This section outlines combined strategies across various domains for...

  13. 4.6.1
    Domain Techniques

    This section covers combined strategies for power management in integrated...

  14. 4.7
    Step 5: Python Simulation – Power Impact Of Dvfs

    This section presents a Python simulation to analyze the power consumption...

  15. 4.8

    The conclusion emphasizes the multi-level strategies necessary for effective...

What we have learnt

  • The key challenge in low-power design is to minimize dynamic and static power consumption without compromising performance.
  • Techniques such as dynamic voltage and frequency scaling (DVFS), clock gating, and power gating play critical roles in reducing power consumption.
  • FinFET technology improves efficiency but requires specific design strategies for optimal performance.

Key Concepts

-- Dynamic Voltage and Frequency Scaling (DVFS)
A method to adjust the voltage and frequency dynamically based on the workload to minimize power consumption.
-- Clock Gating
A technique to disable the clock to idle functional blocks, thereby reducing dynamic power consumption.
-- NearThreshold Computing (NTC)
A strategy where circuits operate at voltages close to the threshold voltage to achieve substantial power savings.
-- Power Gating
A method that involves disconnecting certain blocks using sleep transistors when they are not in use to save leakage power.

Additional Learning Materials

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