Digital Electronic Theory

Digital Electronic Theory

Who are these courses for?

This program is excellent both for the training of electricians and technicians in instrumentation and electronics as well as for the multi-craft training needs of process and manufacturing facilities.

Binary Logic Circuits

Prerequisites:

This lesson is a fundamental component of our digital electronics training, designed for participants familiar with AC/DC theoryelectrical safety, and electrical print reading. A basic understanding of logic gates is also required.

Description:

This lesson introduces the binary number system and explores logic gates, the fundamental building blocks of integrated digital circuits. The lesson also describes Boolean expressions, truth tables, and Karnaugh mapping in relation to the logic of complex circuits. These topics are directly applied to troubleshooting digital circuits.

Objectives:
  • Identify voltages of digital components
  • Identify leading and trailing edges of a digital signal
  • interpret pin connection diagrams and wiring diagrams
  • state the function of a pin on an IC chip when provided with a pin connection diagram or a wiring diagram
  • properly use a logic probe, logic clip, logic monitor, and logic pulser to test the operation of an IC chip
  • test the operation of a circuit and determine if it is functioning properly
  • interpret and develop related Boolean expressions and truth tables
  • simplify a two-variable Boolean expression using Karnaugh mapping

Binary Logic Circuits

Prerequisites:

This lesson is a fundamental component of our digital electronics training, designed for participants familiar with AC/DC theoryelectrical safety, and electrical print reading. A basic understanding of logic gates is also required.

Description:

This lesson introduces the binary number system and explores logic gates, the fundamental building blocks of integrated digital circuits. The lesson also describes Boolean expressions, truth tables, and Karnaugh mapping in relation to the logic of complex circuits. These topics are directly applied to troubleshooting digital circuits.

Objectives:
  • Identify voltages of digital components
  • Identify leading and trailing edges of a digital signal
  • interpret pin connection diagrams and wiring diagrams
  • state the function of a pin on an IC chip when provided with a pin connection diagram or a wiring diagram
  • properly use a logic probe, logic clip, logic monitor, and logic pulser to test the operation of an IC chip
  • test the operation of a circuit and determine if it is functioning properly
  • interpret and develop related Boolean expressions and truth tables
  • simplify a two-variable Boolean expression using Karnaugh mapping

Codes, Encoders, Decoders, and Flip-Flops

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, logic gates, and binary numbering systems. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson covers combinational and sequential logic circuits, focusing on codes, encoders,
decoders
, and flip-flops. In addition, the lesson addresses the operation and troubleshooting of flip-flops. Emphasis is placed on understanding inputs and outputs in digital systems and the role of
integrated circuits in modern circuit boards.

Objectives:
  • Convert between BCD and decimal numbers
  • Identify and describe the function of active low inputs and outputs
  • Explain the functions of pins on an encoder and the operation of a seven segment LED display
  • Determine whether encoder and decoder circuits are functioning properly
  • State the difference between combinational and sequential logic circuits
  • Describe the operation of R-S flip-flopsD flip-flops, and J-K flip-flops
  • Describe the operation of an IC latch
  • Interpret flip-flop truth tables
  • Determine whether flip-flop circuits are functioning properly

Codes, Encoders, Decoders, and Flip-Flops

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, logic gates, and binary numbering systems. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson covers combinational and sequential logic circuits, focusing on codes, encoders,
decoders
, and flip-flops. In addition, the lesson addresses the operation and troubleshooting of flip-flops. Emphasis is placed on understanding inputs and outputs in digital systems and the role of
integrated circuits in modern circuit boards.

Objectives:
  • Convert between BCD and decimal numbers
  • Identify and describe the function of active low inputs and outputs
  • Explain the functions of pins on an encoder and the operation of a seven segment LED display
  • Determine whether encoder and decoder circuits are functioning properly
  • State the difference between combinational and sequential logic circuits
  • Describe the operation of R-S flip-flopsD flip-flops, and J-K flip-flops
  • Describe the operation of an IC latch
  • Interpret flip-flop truth tables
  • Determine whether flip-flop circuits are functioning properly

Counters and Shift Registers

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, logic gates, and flip-flops. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson discusses the principles of counters and their various applications. The lesson also explains the principles and features of shift registers, emphasizing serial load shift registers, parallel load shift registers, and universal shift registers. Troubleshooting counters and shift registers is also addressed.

Objectives:
  • Determine binary outputs and the limits for counters
  • Understand how input pulses affect the counter’s output
  • Identify synchronous and asynchronous counters
  • Define ripple counters, up/down counters, self-stopping counters and frequency dividers
  • Use count sequence tables in troubleshooting counters
  • Understand the basic shifting concept
  • State the difference between serial load shift registers and parallel load shift registers
  • Identify universal shift registers
  • Troubleshoot counters and shift registers

Counters and Shift Registers

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, logic gates, and flip-flops. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson discusses the principles of counters and their various applications. The lesson also explains the principles and features of shift registers, emphasizing serial load shift registers, parallel load shift registers, and universal shift registers. Troubleshooting counters and shift registers is also addressed.

Objectives:
  • Determine binary outputs and the limits for counters
  • Understand how input pulses affect the counter’s output
  • Identify synchronous and asynchronous counters
  • Define ripple counters, up/down counters, self-stopping counters and frequency dividers
  • Use count sequence tables in troubleshooting counters
  • Understand the basic shifting concept
  • State the difference between serial load shift registers and parallel load shift registers
  • Identify universal shift registers
  • Troubleshoot counters and shift registers

Data Transmission, Conversion and Storage

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, and parallel and serial data. A basic understanding of logic gates and flip-flop circuits, and the use of pin connection and wiring diagrams is also required.

Description:

This lesson demonstrates the use of data transmission circuits, including multiplexer and demultiplexer circuits. The lesson explains digital-to-analog and analog-to-digital converter circuits and teaches different types of memory. Troubleshooting of data transmission circuits is also performed. Key topics include the interface between analog electronics and digital circuits.

Objectives:
  • State the functions of a multiplexer
  • Trace the logic in simplified and complex multiplexer and demultiplexer circuits
  • Identify the pins used to input, output, and address data for multiplexer and demultiplexer chips
  • Determine if a multiplexer or demultiplexer chip is functioning properly
  • Understand the operation of a digital-to-analog and analog-to-digital converter circuit
  • Understand the operation of a counter type analog-to-digital converter circuit
  • Read and write data to a specific memory address
  • Distinguish between rom and ram, and between prom, eprom and earom

Data Transmission, Conversion and Storage

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, and parallel and serial data. A basic understanding of logic gates and flip-flop circuits, and the use of pin connection and wiring diagrams is also required.

Description:

This lesson demonstrates the use of data transmission circuits, including multiplexer and demultiplexer circuits. The lesson explains digital-to-analog and analog-to-digital converter circuits and teaches different types of memory. Troubleshooting of data transmission circuits is also performed. Key topics include the interface between analog electronics and digital circuits.

Objectives:
  • State the functions of a multiplexer
  • Trace the logic in simplified and complex multiplexer and demultiplexer circuits
  • Identify the pins used to input, output, and address data for multiplexer and demultiplexer chips
  • Determine if a multiplexer or demultiplexer chip is functioning properly
  • Understand the operation of a digital-to-analog and analog-to-digital converter circuit
  • Understand the operation of a counter type analog-to-digital converter circuit
  • Read and write data to a specific memory address
  • Distinguish between rom and ram, and between prom, eprom and earom

more product information

How do maintenance teams master industrial digital electronic theory?

ITC Learning’s digital electronic theory courses deliver structured, practical training for technicians to understand binary logic, shift registers, and data conversion. This training is essential for troubleshooting modern industrial control systems, reducing downtime, and ensuring workforce readiness in automated environments.

Mastering Digital Troubleshooting for Industrial Reliability

In modern manufacturing, digital electronic theory is the backbone of reliable PLC and control system performance. ITC Learning’s curriculum focuses on the practical application of binary logic and data transmission, enabling technicians to identify root causes of digital signal failure faster. By closing knowledge gaps in digital circuit protection and encoders, maintenance teams significantly reduce Mean Time to Repair (MTTR) and improve overall facility reliability. Our SCORM-compliant courses empower multi-craft technicians to navigate complex digital schematics with confidence, ensuring site procedures and compliance standards are met across every shift.

Feature ITC Learning Business ImpactEstimated ROIImplementation Time
Role-Ready Digital SkillsCuts downtime by improving digital troubleshooting speed.8% return with just 11 extra productive mins/day.Immediate; 24/7 mobile access.
Blended Learning PathPairs online theory with supervised on-site tasks.$1.30 to $3.00 return for every $1 invested.Scalable across all plant shifts.
Standardized AssessmentsIdentifies specific skill gaps to avoid redundant training.Reduces ramp-up time to productivity by 6–18 months.30–35 minutes per focused course.
“Traditional” TrainingHigher travel costs and production disruption.Slower ROI due to off-site time and higher overhead.Weeks/Months due to scheduling.

Frequently Asked Questions

  • Do these digital electronic courses include skills assessments?

    Yes. Every ITC Learning course features a 20-question assessment to measure technician comprehension and highlight specific knowledge gaps.

  • How do these courses help technicians troubleshooting PLCs?

    These courses provide the foundational knowledge—such as binary logic and ladder logic interpretation—required for technicians to effectively monitor and repair digital control units.

  • Can my team access this training without disrupting production?

    Absolutely. All digital skills courses are self-paced and mobile-friendly, allowing maintenance teams to train anytime without stopping the plant floor.

  • Is this training compatible with our current Learning Management System?

    Yes. Our content is SCORM-compliant and integrates seamlessly into your existing LMS, or you can use ITC’s hosted portal for tracking and reporting.

  • Can technicians "test out" of digital theory modules?

    Yes. If a technician scores 90% or higher on an initial skills assessment, they can place out of the course, keeping your team focused on areas where development is truly needed.

Binary Logic Circuits

Prerequisites:

This lesson is a fundamental component of our digital electronics training, designed for participants familiar with AC/DC theoryelectrical safety, and electrical print reading. A basic understanding of logic gates is also required.

Description:

This lesson introduces the binary number system and explores logic gates, the fundamental building blocks of integrated digital circuits. The lesson also describes Boolean expressions, truth tables, and Karnaugh mapping in relation to the logic of complex circuits. These topics are directly applied to troubleshooting digital circuits.

Objectives:
  • Identify voltages of digital components
  • Identify leading and trailing edges of a digital signal
  • interpret pin connection diagrams and wiring diagrams
  • state the function of a pin on an IC chip when provided with a pin connection diagram or a wiring diagram
  • properly use a logic probe, logic clip, logic monitor, and logic pulser to test the operation of an IC chip
  • test the operation of a circuit and determine if it is functioning properly
  • interpret and develop related Boolean expressions and truth tables
  • simplify a two-variable Boolean expression using Karnaugh mapping

Binary Logic Circuits

Prerequisites:

This lesson is a fundamental component of our digital electronics training, designed for participants familiar with AC/DC theoryelectrical safety, and electrical print reading. A basic understanding of logic gates is also required.

Description:

This lesson introduces the binary number system and explores logic gates, the fundamental building blocks of integrated digital circuits. The lesson also describes Boolean expressions, truth tables, and Karnaugh mapping in relation to the logic of complex circuits. These topics are directly applied to troubleshooting digital circuits.

Objectives:
  • Identify voltages of digital components
  • Identify leading and trailing edges of a digital signal
  • interpret pin connection diagrams and wiring diagrams
  • state the function of a pin on an IC chip when provided with a pin connection diagram or a wiring diagram
  • properly use a logic probe, logic clip, logic monitor, and logic pulser to test the operation of an IC chip
  • test the operation of a circuit and determine if it is functioning properly
  • interpret and develop related Boolean expressions and truth tables
  • simplify a two-variable Boolean expression using Karnaugh mapping

Codes, Encoders, Decoders, and Flip-Flops

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, logic gates, and binary numbering systems. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson covers combinational and sequential logic circuits, focusing on codes, encoders,
decoders
, and flip-flops. In addition, the lesson addresses the operation and troubleshooting of flip-flops. Emphasis is placed on understanding inputs and outputs in digital systems and the role of
integrated circuits in modern circuit boards.

Objectives:
  • Convert between BCD and decimal numbers
  • Identify and describe the function of active low inputs and outputs
  • Explain the functions of pins on an encoder and the operation of a seven segment LED display
  • Determine whether encoder and decoder circuits are functioning properly
  • State the difference between combinational and sequential logic circuits
  • Describe the operation of R-S flip-flopsD flip-flops, and J-K flip-flops
  • Describe the operation of an IC latch
  • Interpret flip-flop truth tables
  • Determine whether flip-flop circuits are functioning properly

Codes, Encoders, Decoders, and Flip-Flops

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, logic gates, and binary numbering systems. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson covers combinational and sequential logic circuits, focusing on codes, encoders,
decoders
, and flip-flops. In addition, the lesson addresses the operation and troubleshooting of flip-flops. Emphasis is placed on understanding inputs and outputs in digital systems and the role of
integrated circuits in modern circuit boards.

Objectives:
  • Convert between BCD and decimal numbers
  • Identify and describe the function of active low inputs and outputs
  • Explain the functions of pins on an encoder and the operation of a seven segment LED display
  • Determine whether encoder and decoder circuits are functioning properly
  • State the difference between combinational and sequential logic circuits
  • Describe the operation of R-S flip-flopsD flip-flops, and J-K flip-flops
  • Describe the operation of an IC latch
  • Interpret flip-flop truth tables
  • Determine whether flip-flop circuits are functioning properly

Counters and Shift Registers

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, logic gates, and flip-flops. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson discusses the principles of counters and their various applications. The lesson also explains the principles and features of shift registers, emphasizing serial load shift registers, parallel load shift registers, and universal shift registers. Troubleshooting counters and shift registers is also addressed.

Objectives:
  • Determine binary outputs and the limits for counters
  • Understand how input pulses affect the counter’s output
  • Identify synchronous and asynchronous counters
  • Define ripple counters, up/down counters, self-stopping counters and frequency dividers
  • Use count sequence tables in troubleshooting counters
  • Understand the basic shifting concept
  • State the difference between serial load shift registers and parallel load shift registers
  • Identify universal shift registers
  • Troubleshoot counters and shift registers

Counters and Shift Registers

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, logic gates, and flip-flops. A knowledge of pin connection diagrams and wiring diagrams is also required.

Description:

This lesson discusses the principles of counters and their various applications. The lesson also explains the principles and features of shift registers, emphasizing serial load shift registers, parallel load shift registers, and universal shift registers. Troubleshooting counters and shift registers is also addressed.

Objectives:
  • Determine binary outputs and the limits for counters
  • Understand how input pulses affect the counter’s output
  • Identify synchronous and asynchronous counters
  • Define ripple counters, up/down counters, self-stopping counters and frequency dividers
  • Use count sequence tables in troubleshooting counters
  • Understand the basic shifting concept
  • State the difference between serial load shift registers and parallel load shift registers
  • Identify universal shift registers
  • Troubleshoot counters and shift registers

Data Transmission, Conversion and Storage

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, and parallel and serial data. A basic understanding of logic gates and flip-flop circuits, and the use of pin connection and wiring diagrams is also required.

Description:

This lesson demonstrates the use of data transmission circuits, including multiplexer and demultiplexer circuits. The lesson explains digital-to-analog and analog-to-digital converter circuits and teaches different types of memory. Troubleshooting of data transmission circuits is also performed. Key topics include the interface between analog electronics and digital circuits.

Objectives:
  • State the functions of a multiplexer
  • Trace the logic in simplified and complex multiplexer and demultiplexer circuits
  • Identify the pins used to input, output, and address data for multiplexer and demultiplexer chips
  • Determine if a multiplexer or demultiplexer chip is functioning properly
  • Understand the operation of a digital-to-analog and analog-to-digital converter circuit
  • Understand the operation of a counter type analog-to-digital converter circuit
  • Read and write data to a specific memory address
  • Distinguish between rom and ram, and between prom, eprom and earom

Data Transmission, Conversion and Storage

Prerequisites:

This lesson is designed for participants familiar with AC/DC theory, binary numbering systems, and parallel and serial data. A basic understanding of logic gates and flip-flop circuits, and the use of pin connection and wiring diagrams is also required.

Description:

This lesson demonstrates the use of data transmission circuits, including multiplexer and demultiplexer circuits. The lesson explains digital-to-analog and analog-to-digital converter circuits and teaches different types of memory. Troubleshooting of data transmission circuits is also performed. Key topics include the interface between analog electronics and digital circuits.

Objectives:
  • State the functions of a multiplexer
  • Trace the logic in simplified and complex multiplexer and demultiplexer circuits
  • Identify the pins used to input, output, and address data for multiplexer and demultiplexer chips
  • Determine if a multiplexer or demultiplexer chip is functioning properly
  • Understand the operation of a digital-to-analog and analog-to-digital converter circuit
  • Understand the operation of a counter type analog-to-digital converter circuit
  • Read and write data to a specific memory address
  • Distinguish between rom and ram, and between prom, eprom and earom
Course Overview

Digital electronics training equips participants with the knowledge and skills to understand and troubleshoot various types of digital circuits. This comprehensive, award-winning interactive multimedia training program consists of four individual lessons that train participants to understand and troubleshoot various types of digital circuits. The Digital Electronics Training Library offers in-depth instruction on digital electronics, covering essential topics such as the binary number system, Boolean algebra, logic gates, and the design of logic circuits. Participants will gain hands-on experience with integrated circuits and circuit boards, learning to interpret inputs and outputs and explore the role of digital signals within digital systems. This program is ideal for those seeking a solid foundation in digital circuits and digital electronics, with practical applications for real-world troubleshooting and design.

Benefits: Engaging in digital electronics training offers numerous benefits, including:

Enhanced Technical Skills: Develop a deep understanding of digital circuits, logic gates, and integrated systems.
Career Advancement: Open doors to opportunities in electronics design, troubleshooting, and maintenance.
Practical Application: Gain hands-on experience with real-world digital systems, preparing you for immediate application in the field.

Who This Course is For?

This program is excellent both for the training of electricians and technicians in instrumentation and electronics as well as for the multi-craft training needs of process and manufacturing facilities.

Platforms:  
Number of Courses: 4