This course is ideal for electricians, electronic technicians, and multi-craft personnel in process and manufacturing facilities who seek to deepen their understanding of both analog and digital electronics. It is also ideal for aspiring technicians and engineers aiming to build a solid foundation in electrical systems. The course covers essential topics such as basic electrical theory, Ohm’s Law, series circuits, logic gates, flip-flops, truth tables, the binary number system, and the application of Boolean algebra in digital systems. The program offers a balanced blend of theoretical knowledge and practical skills in managing inputs and outputs, as well as troubleshooting analog and digital signals within complex electrical systems.
This lesson is designed so that no prior knowledge is required.
This lesson introduces basic electrical theory, detailing the operation of simple DC electrical circuits. It examines how voltage, current, and resistance interact in series circuits, parallel circuits, and series-parallel circuits. The lesson emphasizes applying Ohm’s Law to calculate these parameters, facilitating a comprehensive understanding of electrical systems and the flow of electricity from positive to negative terminals.
This lesson is designed so that no prior knowledge is required.
This lesson introduces basic electrical theory, detailing the operation of simple DC electrical circuits. It examines how voltage, current, and resistance interact in series circuits, parallel circuits, and series-parallel circuits. The lesson emphasizes applying Ohm’s Law to calculate these parameters, facilitating a comprehensive understanding of electrical systems and the flow of electricity from positive to negative terminals.
This lesson is designed for participants familiar with Ohm’s Law.
This lesson delves into basic electrical theory by examining the characteristics of AC circuits. It explores the relationship between voltage and current flow, the induction of AC voltage, and the roles of inductance and capacitance. Utilizing sine waves, the lesson demonstrates how to interpret changes in AC voltage over time and determine its frequency. Additionally, it addresses the impact of inductance and capacitance on analog signals within electrical systems.
This lesson is designed for participants familiar with Ohm’s Law.
This lesson delves into basic electrical theory by examining the characteristics of AC circuits. It explores the relationship between voltage and current flow, the induction of AC voltage, and the roles of inductance and capacitance. Utilizing sine waves, the lesson demonstrates how to interpret changes in AC voltage over time and determine its frequency. Additionally, it addresses the impact of inductance and capacitance on analog signals within electrical systems.
his lesson is designed for participants familiar with AC circuits and AC voltage. A basic understanding of how to interpret changes in AC voltage over time is also required.
This lesson explores the generation and characteristics of three-phase AC voltage, a fundamental aspect of electrical systems. It introduces wye and delta connections, illustrating their effects on voltage and current through graphical demonstrations. The lesson also covers transformers, explaining their influence on voltage and current, and discusses the transition from analog signals to digital signals in modern digital systems.
his lesson is designed for participants familiar with AC circuits and AC voltage. A basic understanding of how to interpret changes in AC voltage over time is also required.
This lesson explores the generation and characteristics of three-phase AC voltage, a fundamental aspect of electrical systems. It introduces wye and delta connections, illustrating their effects on voltage and current through graphical demonstrations. The lesson also covers transformers, explaining their influence on voltage and current, and discusses the transition from analog signals to digital signals in modern digital systems.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, and the proper use of electrical test instruments.
This lesson explores semiconductor materials, focusing on their physical and electrical properties and current flow dynamics. It covers diodes, including their codes, symbols, and interpretation within integrated circuits. The lesson delves into analog electronics, discussing operating characteristic curves and the function of zener diodes in analog signals processing.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, and the proper use of electrical test instruments.
This lesson explores semiconductor materials, focusing on their physical and electrical properties and current flow dynamics. It covers diodes, including their codes, symbols, and interpretation within integrated circuits. The lesson delves into analog electronics, discussing operating characteristic curves and the function of zener diodes in analog signals processing.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson examines the principles of analog electronics, focusing on electronic power supplies and various rectifier configurations: half-wave, full-wave, and full-wave bridge rectifiers. It discusses the role of capacitive and inductive input filters in shaping analog signals and guides calculating expected DC output voltages for each rectifier type.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson examines the principles of analog electronics, focusing on electronic power supplies and various rectifier configurations: half-wave, full-wave, and full-wave bridge rectifiers. It discusses the role of capacitive and inductive input filters in shaping analog signals and guides calculating expected DC output voltages for each rectifier type.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson delves into power devices within digital electronic circuits, detailing the operating principles of transistors, SCRs, and triacs. It illustrates current flow through these components and explains their schematic symbols, highlighting their roles in digital electronics and digital systems.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson delves into power devices within digital electronic circuits, detailing the operating principles of transistors, SCRs, and triacs. It illustrates current flow through these components and explains their schematic symbols, highlighting their roles in digital electronics and digital systems.
This lesson is designed for participants familiar with basic electrical theory, electrical safety, electrical connections, electrical print reading, semiconductors, diodes, and the operating characteristics of transistors, resistors, and other basic circuit components. The ability to properly use electrical/electronic test instruments is also required.
This lesson introduces digital electronics, focusing on how digital electronic circuits process and transmit digital signals. It explains the operation of basic logic gates and the application of the binary number system in representing information. The lesson also covers digital logic concepts, including Boolean algebra, truth tables, and flip-flops, emphasizing their significance in digital systems and the management of inputs and outputs.
This lesson is designed for participants familiar with basic electrical theory, electrical safety, electrical connections, electrical print reading, semiconductors, diodes, and the operating characteristics of transistors, resistors, and other basic circuit components. The ability to properly use electrical/electronic test instruments is also required.
This lesson introduces digital electronics, focusing on how digital electronic circuits process and transmit digital signals. It explains the operation of basic logic gates and the application of the binary number system in representing information. The lesson also covers digital logic concepts, including Boolean algebra, truth tables, and flip-flops, emphasizing their significance in digital systems and the management of inputs and outputs.
more product information
ITC Learning’s Electrical Skills Series provides structured, practical training designed for technicians and maintenance teams who need to work confidently with industrial electrical systems. By mastering core electrical theory and advanced troubleshooting, your workforce can safely maintain equipment, reduce Mean Time to Repair (MTTR), and support high plant reliability.
While technical skill is vital, performance must align with modern safety and maintenance mandates. Our training reinforces awareness of the National Electrical Code (NEC) and essential safety protocols like Lockout/Tagout (LOTO) and Arc Flash Awareness. Crucially, our content supports the shift toward NFPA 70B enforceable standards, helping your facility transition from reactive repairs to a documented, proactive Electrical Maintenance Program (EMP). This ensures your technicians are not just skilled, but fully compliant with OSHA and insurance requirements.
Industrial electrical systems are the lifeblood of production. Our modular lessons provide maintenance teams with a practical mental model of facility systems—from service entrances to VFDs and control circuits. By focusing on “symptoms to corrective action” pathways, learners gain the diagnostic skills necessary to trace power and find high-resistance faults quickly. This targeted upskilling is proven to cut downtime, improve labor cost certainty, and ensure your team achieves productivity estimates consistently.
| Feature | Business Impact | Estimated ROI | Implementation Time |
|---|---|---|---|
| ITC Learning | Maintenance-first scenarios; SCORM-compliant; blended learning options. | ROI typically seen in 6–18 months through reduced downtime. | Immediate rollout via our LMS or yours. |
| Interplay / ToolingU | General technical libraries; often focused on generic “e-learning” marketplace. | Variable; may lack specific industrial maintenance focus. | Standardized setup. |
| TPC Training | Wide compliance focus. | Moderate; depends on specific site application. | Standardized setup. |
| Traditional Training | In-person only; high travel costs and production disruption. | Slower; often takes years to reach journey-level. | Months (dependent on scheduling). |
Yes. We provide NEC-related awareness focused on industrial maintenance tasks such as safe work practices, labeling, and documentation to keep teams aligned with OSHA and regulatory expectations.
Absolutely. Our training is designed for multi-craft roles who need to gain electrical fundamentals to support broader maintenance capacity and safer on-the-job performance.
While delivered online, our training is built to be “blended.” We provide guidance for pairing online lessons with supervised, on-site hands-on tasks to safely apply concepts to real plant equipment.
Most courses are self-paced and take approximately 30–45 minutes to complete. This allows learners to train before or after shifts without disrupting production schedules.
Yes. Managers have access to detailed dashboards and CSV exports to track course completion, assessment results, and certificates for HR records and compliance audits.
This lesson is designed so that no prior knowledge is required.
This lesson introduces basic electrical theory, detailing the operation of simple DC electrical circuits. It examines how voltage, current, and resistance interact in series circuits, parallel circuits, and series-parallel circuits. The lesson emphasizes applying Ohm’s Law to calculate these parameters, facilitating a comprehensive understanding of electrical systems and the flow of electricity from positive to negative terminals.
This lesson is designed so that no prior knowledge is required.
This lesson introduces basic electrical theory, detailing the operation of simple DC electrical circuits. It examines how voltage, current, and resistance interact in series circuits, parallel circuits, and series-parallel circuits. The lesson emphasizes applying Ohm’s Law to calculate these parameters, facilitating a comprehensive understanding of electrical systems and the flow of electricity from positive to negative terminals.
This lesson is designed for participants familiar with Ohm’s Law.
This lesson delves into basic electrical theory by examining the characteristics of AC circuits. It explores the relationship between voltage and current flow, the induction of AC voltage, and the roles of inductance and capacitance. Utilizing sine waves, the lesson demonstrates how to interpret changes in AC voltage over time and determine its frequency. Additionally, it addresses the impact of inductance and capacitance on analog signals within electrical systems.
This lesson is designed for participants familiar with Ohm’s Law.
This lesson delves into basic electrical theory by examining the characteristics of AC circuits. It explores the relationship between voltage and current flow, the induction of AC voltage, and the roles of inductance and capacitance. Utilizing sine waves, the lesson demonstrates how to interpret changes in AC voltage over time and determine its frequency. Additionally, it addresses the impact of inductance and capacitance on analog signals within electrical systems.
his lesson is designed for participants familiar with AC circuits and AC voltage. A basic understanding of how to interpret changes in AC voltage over time is also required.
This lesson explores the generation and characteristics of three-phase AC voltage, a fundamental aspect of electrical systems. It introduces wye and delta connections, illustrating their effects on voltage and current through graphical demonstrations. The lesson also covers transformers, explaining their influence on voltage and current, and discusses the transition from analog signals to digital signals in modern digital systems.
his lesson is designed for participants familiar with AC circuits and AC voltage. A basic understanding of how to interpret changes in AC voltage over time is also required.
This lesson explores the generation and characteristics of three-phase AC voltage, a fundamental aspect of electrical systems. It introduces wye and delta connections, illustrating their effects on voltage and current through graphical demonstrations. The lesson also covers transformers, explaining their influence on voltage and current, and discusses the transition from analog signals to digital signals in modern digital systems.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, and the proper use of electrical test instruments.
This lesson explores semiconductor materials, focusing on their physical and electrical properties and current flow dynamics. It covers diodes, including their codes, symbols, and interpretation within integrated circuits. The lesson delves into analog electronics, discussing operating characteristic curves and the function of zener diodes in analog signals processing.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, and the proper use of electrical test instruments.
This lesson explores semiconductor materials, focusing on their physical and electrical properties and current flow dynamics. It covers diodes, including their codes, symbols, and interpretation within integrated circuits. The lesson delves into analog electronics, discussing operating characteristic curves and the function of zener diodes in analog signals processing.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson examines the principles of analog electronics, focusing on electronic power supplies and various rectifier configurations: half-wave, full-wave, and full-wave bridge rectifiers. It discusses the role of capacitive and inductive input filters in shaping analog signals and guides calculating expected DC output voltages for each rectifier type.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson examines the principles of analog electronics, focusing on electronic power supplies and various rectifier configurations: half-wave, full-wave, and full-wave bridge rectifiers. It discusses the role of capacitive and inductive input filters in shaping analog signals and guides calculating expected DC output voltages for each rectifier type.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson delves into power devices within digital electronic circuits, detailing the operating principles of transistors, SCRs, and triacs. It illustrates current flow through these components and explains their schematic symbols, highlighting their roles in digital electronics and digital systems.
This lesson is designed for participants familiar with AC/DC theory, electrical safety, electrical print reading, electrical connections, semiconductors and diodes. The ability to use electrical test instruments is also required.
This lesson delves into power devices within digital electronic circuits, detailing the operating principles of transistors, SCRs, and triacs. It illustrates current flow through these components and explains their schematic symbols, highlighting their roles in digital electronics and digital systems.
This lesson is designed for participants familiar with basic electrical theory, electrical safety, electrical connections, electrical print reading, semiconductors, diodes, and the operating characteristics of transistors, resistors, and other basic circuit components. The ability to properly use electrical/electronic test instruments is also required.
This lesson introduces digital electronics, focusing on how digital electronic circuits process and transmit digital signals. It explains the operation of basic logic gates and the application of the binary number system in representing information. The lesson also covers digital logic concepts, including Boolean algebra, truth tables, and flip-flops, emphasizing their significance in digital systems and the management of inputs and outputs.
This lesson is designed for participants familiar with basic electrical theory, electrical safety, electrical connections, electrical print reading, semiconductors, diodes, and the operating characteristics of transistors, resistors, and other basic circuit components. The ability to properly use electrical/electronic test instruments is also required.
This lesson introduces digital electronics, focusing on how digital electronic circuits process and transmit digital signals. It explains the operation of basic logic gates and the application of the binary number system in representing information. The lesson also covers digital logic concepts, including Boolean algebra, truth tables, and flip-flops, emphasizing their significance in digital systems and the management of inputs and outputs.
This comprehensive interactive multimedia training program consists of seven individual lessons that train participants in the principles of AC/DC and solid-state theories. Digital electronic theory is also introduced.
This course is ideal for electricians, electronic technicians, and multi-craft personnel in process and manufacturing facilities who seek to deepen their understanding of both analog and digital electronics. It is also ideal for aspiring technicians and engineers aiming to build a solid foundation in electrical systems. The course covers essential topics such as basic electrical theory, Ohm’s Law, series circuits, logic gates, flip-flops, truth tables, the binary number system, and the application of Boolean algebra in digital systems. The program offers a balanced blend of theoretical knowledge and practical skills in managing inputs and outputs, as well as troubleshooting analog and digital signals within complex electrical systems.
