This two-year Electrician trade course is offered under the Craftsman Training Scheme (CTS) by the National Council for Vocational Training (NCVT). It trains students in electrical installation, maintenance, and repair, preparing them for roles such as electrician, wireman, or electrical technician.
The course includes:
The ITI "Electroplater" trade is a two-year vocational training program under the Craftsman Training Scheme (CTS), governed by the National Council for Vocational Training (NCVT). This course equips trainees with skills in electroplating techniques, surface preparation, and the application of protective and decorative coatings on metal surfaces.
The Electrician (Power Distribution) ITI trade is a 2-year NSQF Level 4/5 course focused on installing, operating, maintaining, and repairing electrical power distribution systems. It covers transformers, overhead lines, underground cables, switchgear, and safety procedures, preparing technicians for roles in electricity boards, utilities, and industries.
Key Details
This two-year Electrician trade course is offered under the Craftsman Training Scheme (CTS) by the National Council for Vocational Training (NCVT). It trains students in electrical installation, maintenance, and repair, preparing them for roles such as electrician, wireman, or electrical technician.
The course includes:
This section provides theoretical knowledge of electrical systems, equipment, and safety measures.
This section focuses on skill development through practical work.
Note: This course is based on NCVT Electrician trade structure. Minor changes may occur depending on state or ITI. For the latest version, refer to DGT or your local ITI
When an electric current passes through certain liquids, it causes chemical changes. This phenomenon is known as the Chemical Effect of Electric Current. These liquids are generally known as electrolytes. This process is widely used in industries for electroplating, purification of metals, and chemical manufacturing. ⚡🧪
A Phase Sequence Meter is an electrical instrument used to detect the phase sequence or phase rotation in a three-phase system. It is essential to identify the order in which the phases are connected to ensure the proper functioning of three-phase motors and equipment. 🚀
In a three-phase electrical system, understanding the relationship between line and phase voltage, current, and power is crucial for designing, analyzing, and troubleshooting electrical circuits. This content covers both balanced and unbalanced loads in three-phase circuits. Let’s explore how the voltage, current, and power behave in each case. 💡
In a three-phase system, electrical equipment can be connected in two main configurations: Star (Y) connection and Delta (Δ) connection. Both of these configurations offer different advantages and applications. Let’s dive deeper into these connections and their significance. ⚡
In electrical power systems, single-phase and three-phase systems are the two most common methods used for distributing electrical power. Each has its own applications and advantages depending on the load and type of power required. Let’s dive into the differences and working principles of both systems. 🔋
When studying alternating current (AC) systems, understanding key concepts like sine wave, phase, phase difference, and active and reactive power is essential. These concepts help us analyze and optimize AC circuits, which are widely used in electrical power distribution and various applications. Let’s explore these concepts in more detail. 🔍
When working with electrical circuits, especially AC (Alternating Current)Average Value, Peak Factor, Form Factor, Power Factor, and Impedance play a crucial role in analyzing electrical power, efficiency, and the overall behavior of circuits. Let’s explore these concepts in detail. 🔍
In electrical circuits, especially in AC (Alternating Current)Frequency, Instantaneous Value, and R.M.S (Root Mean Square). These terms play a crucial role in analyzing and calculating the properties of alternating waveforms. Let's take a closer look at each one. 🔍
In the world of electrical power transmission, there are two primary forms of electrical current: Direct Current (DC) and Alternating Current (AC). Both systems are essential for various applications, but they have distinct characteristics, advantages, and limitations. In this section, we will compare both DC and AC systems, highlighting their differences and the advantages of each system. 🌍
Understanding the concepts of inductive and capacitive reactance is essential for anyone working with alternating current (AC) circuits. These reactances affect how AC voltage and current behave in different circuit components. In this section, we will explore the nature of inductive and capacitive reactance, their effects on AC circuits, and how vector concepts apply to them. 🔍
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