101 days of introductory to advanced industrial electricity

Set up a protected power circuit using higher grade wire, color-coded L1 yellow, L2 blue, L3 red, and connect to the input and coronal leakage switch after stripping and numbering.

Demonstrates wiring a complete power circuit with protection by routing three input wires through mcb to rcb and false control, via the conductor head and bimetal to the output.

Explain how to wire the neutral and phase wires in the command circuit, connecting neutral to RCP, RCB, and control modules, while securing cables to prevent sparking and fire.

Explain the assembly of the string circuit in a common circuit used for force control and load control, detailing the start switch, stop switch, fuse connections, and conductor coil.

Explain the assembly of a motor control circuit, wiring from fuse through A1/A2, 13/14 starters, stop and start coils to signal lights, and three‑phase power with neutral.

Demonstrate basic placement and connections, then explain an unprincipled approach to reduce panel size and cost by reconfiguring rails, MCBs, and terminals while noting safety considerations.

Demonstrates how to place and connect a basic power circuit in an electrical panel, wiring three inputs (red, yellow, blue) from RCB to MCB, and secure conductors with proper numbering.

Explains the difference between starting an electric motor in permanent vs momentary mode and how wiring 13 and 14 enables instant or permanent start, with test procedures.

Explain starting and reversing a three-phase motor by swapping L1 and L3 with left-hand and right-hand conductors using load control, and emphasize stopping before changing direction to avoid short circuits.

Learn how to start an electric motor from two points by wiring two starters in parallel and ensuring both inputs activate simultaneously for safe operation.

Demonstrate starting a motor in left and right directions with the starter motor, wiring via MCP and RCP, testing the power and control circuits, and switching from left to right.

Demonstrates starting two electric motors one after another using a bridge in an RCP control circuit with MCP wiring, ensuring K1 activates before K2 via starters.

Demonstrates starting circuits for two motors with interlocking so only one runs at a time, using an MCB, load control, bimetals, and S2 and S3 switches in parallel wiring.

Learn how to start a three-phase electric motor using a star-delta starter, wiring the star and delta circuits, bridging conductors, and sequencing energization from star to delta.

Explain the star-delta command circuit wiring, detailing s0-s1-s2 connections, star and delta conductors, a1 and a2 neutral, and testing the motor in star then delta.

Learn how to start a three-phase motor from single-phase electricity using a 234 inverter, wiring r s t to u v w and testing the circuit.

Set up a permanent electric motor with a common circuit by wiring L1–L3 through the MCB base to the load control, then connect 11–12–13–14 and neutral to start permanently.

Learn how to wire and control a motor from two points using a common circuit, including MCB wiring, normally open load control, and parallel S3/S4 starters.

Learn to start a motor instantly and permanently with a contactor, using a direct circuit and a two-input control, including load control and S1–S3 wiring.

Demonstrate starting a motor instantaneously and permanently with two conductors by wiring the power circuit and linking k1 to k2 across L1, L2, and L3.

Demonstrates a two-handed press machine circuit where S1 and S2 must be activated in series to start the motor, with wiring using MCB, load control, normally open contacts, and K1 coil.

Learn how to configure a press machine for permanent operation by wiring conductors to starters S2 and S3 according to the control circuit map, and test the two-input permanent mode.

Discover how to assemble a three-phase motor on a board, install RCB and MCB with load control, and wire L1, L2, L3 for correct left and right conductor connections.

Learn how to wire and test a control circuit that starts a motor in left and right directions, including load control, start/stop relays, and parallel starter configurations.

Learn to wire a 24-V PLC for a star-delta starter, wiring inputs X0/X1 to stop and start, and outputs Y0-Y2 to star, delta and main contacts with a 24-V supply.

Wire a three-phase motor with PLC control, including 24-volt supply, start/stop inputs, and a contactor, and compare momentary versus permanent operation by paralleling input and output.

Set up electric motor rotation in left or right direction with full PLC protection, ensuring safe start-up by blocking opposite direction and reducing wiring with PLC-driven command circuit.

Learn to program the electric motor startup for fast left or right rotation using a PLC, with x1/x0 inputs and y0/y1 outputs, and swap L1/L3 to change direction.

Explore how to start two electric motors using plc-controlled wiring, activating y0 with x1 and y1 with x3 while deactivating the other, and demonstrate simplified conductor circuits on a panel.

Explore starting two electric motors sequentially with a PLC, using x1 to start and x0 to stop, with interlocks enabling the second motor after the first and timing features.

Start a motor in a star-delta sequence using a timer and PLC, switching from star to delta after three seconds; compare manual timer schemes with PLC-based automatic control.

Learn to wire the motor power circuit for a left-hand right-hand star-delta arrangement using four conductors, RCB/MCB, and U1 V1 W1 to establish delta and star with U2 V2 W2.

Explore wiring a left-right star-delta motor control circuit with a plc, detailing input wiring (x0, x1, x3) from a 24-volt supply and output wiring (y0–y3) in the common circuit.

Explain how a plc program controls left-right rotation in star-delta, using x1 and x3 for conductors, x4 to switch, and a timer to switch after five seconds, with x0 stop.

Learn how to start a motor in left and right automatic star-delta, using star-delta timers or plc timers to switch from star to delta after five seconds, reducing wiring.

Transfer the program to an HMI using a flash, by formatting the flash and copying the HMI file, then flashing with docsoft software.

Export the HMI program as an exe file from a laptop with HMI software, then load it on the target HMI via a flash drive to transfer.

Learn to set a star-delta timer for motor start, including timing intervals from milliseconds to seconds and wiring for the star and delta coils, which switch after a set delay.

This video explains star delta timer wiring, showing star activating first, then delta after a set delay; delays range from milliseconds to seconds and vary by motor.

Explore four methods to determine star delta times: tachometer timing, a power-based formula, amperage timing, and the traditional motor sound method.

Learn to control star delta force with a star delta timer, including timing between star and delta and preventing asymmetrical voltage on motor coils, with LEDs indicating device states.

Explore star delta phase control for motor panels, featuring protection against voltage rise and fall, phase unbalance detection, 2–30 s delays via square drive, and LED status indicators.

Wire a star-delta phase control, connecting star and delta coils to the main conductor and A1/A2 with a pushbutton start, so the star activates first and then delta with LEDs.

Explain wiring, the two five-amp outputs, and led indicators in a three-phase phase control device, including asymmetry limits, voltage thresholds, and timing delays for motor protection.

examine three-phase phase-control wiring with a super digital false control device, detailing connections to r, 15, 18, a1, a2, and the signal light to energize the contactor.

Identify and troubleshoot errors on this phase control device by interpreting LED indicators for unbalance, overvoltage, undervoltage, and relay disconnections, and follow proper setting and wiring procedures.