Professionelle Entwicklung: Elektronische Bauelemente

Mastering Electronic Components: Design, Analysis, and Optimization

This course provides a comprehensive understanding of fundamental electronic components, equipping you with the knowledge to design optimal circuits. We'll focus on the underlying principles and calculations, utilizing PTC Mathcad 15 (though other tools can be applied) to ensure a deep understanding of the design process.

What You Will Achieve:

• Enhanced Circuit Analysis Skills: Deepen your knowledge in circuit analysis techniques.
• Robust Circuit Design: Learn a methodology for developing resilient circuit designs, crucial for accelerating development cycles.
• Tolerance Calculation Expertise: Gain a stronger understanding of tolerance calculations, including Worst Case Circuit Analysis.
• Cost Reduction Strategies: Minimize expenses by proactively addressing potential design issues.
• Improved Product Quality: Enhance product reliability and reduce overall development costs.
• Functional Safety (ISO 26262) Awareness: Develop an understanding of functional safety principles within circuit development.

Course Content Breakdown:

1. Capacitors:

   • Introduction: A foundational overview of capacitors and their role in circuits.
   • Equivalent Circuit Models: Understanding the simplified circuit representation of MLCCs.
   • DC Bias & Voltage Derating: Managing voltage variations and ensuring circuit stability.
   • Temperature Derating: Understanding the impact of temperature on capacitor performance.
   • Temperature Classes: Choosing the appropriate capacitor for specific temperature ranges.
   • Aging: Understanding capacitor degradation over time.
   • Isolation Resistance: Analyzing the isolation properties of capacitors.
   • Impedance: Understanding the impedance characteristics of capacitors at different frequencies.
   • Loss Power / Loss Factor: Analyzing power dissipation in capacitors.
   • Mechanical Considerations: Important mechanical aspects for capacitor selection.
   • Total Tolerance Calculation: Calculating the overall tolerance of a capacitor.
   • Reliability Analysis & Quality: Assessing capacitor reliability and quality.

2. Resistors:

   • Introduction: An overview of resistor types and their applications.
   • Thick Film Resistors: Understanding the characteristics of thick film resistors.
   • Thin Film Resistors: Understanding the characteristics of thin film resistors.
   • MELF Resistors: Exploring the features and applications of MELF resistors.
   • Comparison of Resistor Types: A comparative analysis of different resistor technologies.
   • NTC Thermistors: Understanding the properties and applications of NTC thermistors.
   • PTC Thermistors: Understanding the properties and applications of PTC thermistors.
   • Voltage Rating: Understanding the maximum voltage a resistor can withstand.
   • Power Dissipation: Calculating the power a resistor can dissipate.
   • Impulse Load Capacity: Understanding the ability of a resistor to handle surge currents.
   • Total Tolerance of a Resistor: Calculating the overall tolerance of a resistor.

3. MOSFETs:

   • Introduction: A foundational overview of MOSFETs and their applications.
   • Package Types: Understanding different MOSFET package styles.
   • Limiting Values: Understanding and respecting the maximum operating limits.
   • Electrical Characteristics: Analyzing the electrical properties of MOSFETs.
   • Thermal Characteristics: Understanding the thermal behavior of MOSFETs.
   • Rdson (Drain-Source "ON" Status): Analyzing the drain-source resistance when the MOSFET is on.
   • Drain Current Limiting: Understanding and managing drain current limits.
   • SOA (Safe Operating Area): Understanding the safe operating area for MOSFETs.
   • Turn-On Behavior: Analyzing the behavior of the MOSFET during turn-on.
   • Vgsth (Gate-Source Threshold Voltage): Understanding the threshold voltage of the MOSFET.
   • Loss Power: Analyzing power dissipation in MOSFETs.
   • Optimal Operation: Understanding the conditions for optimal MOSFET performance.

4. Diodes:

   • Introduction: A foundational overview of diodes and their applications.
   • Package Types: Understanding different diode package styles.
   • Limiting Values: Understanding and respecting the maximum operating limits.
   • Electrical Characteristics: Analyzing the electrical properties of diodes.
   • Thermal Characteristics: Understanding the thermal behavior of diodes.
   • Forward Voltage Drop: Understanding the voltage drop across the diode when conducting.

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