Fuji PLC Programming from scratch (PLC-SCADA-6)

Explore the functions and features of Fuji PLCs, detailing digital inputs and outputs, transistor-type outputs, expansion modules for increased I/O, and the accompanying labeling and communication board configurations.

Explore the WinProladder software interface, including the function toolbar with categorized, frequently used commands, a component tray, and a project window with a status area showing connection status.

Learn how Fuji plc assigns dedicated memory locations to inputs and outputs, enabling the processor to recognize signals by address, including timers, counters, and data registers.

Explore the IEC 1131 standard for PLC programming and its diverse languages, including graphical and text-based options, to standardize programmable controllers and enable cross-brand compatibility.

Learn basic bit logics with normally open (NO) contacts in PLC programming, understanding how inputs, networks, and output coils determine when outputs energize.

Explore bit logics using nc type and output coil, linking physical switches to inputs and outputs, and understand normally closed and normally open states driving coil activation.

Master basic rules for ladder diagrams, including how to connect the load at the end of a run and how on and off states behave in PLC software.

Apply the second programming rule by wiring nodes in parallel, not in series, and use two separate lines in the BSG programming software when a single line is invalid.

Explore metaprogramming rules for PLC logic, showing how input context connects in parallel and in series, and applying aggregate logic to manage input switches.

Learn basic programming rule 5 in BASIC plc programming: assign a unique output for each load and do not reuse the same output for two different loads.

Explore season four basic program by storing delays in memory and cycling inputs and outputs. Reassess how internal memory connects to input and output to manage delays.

Create your first WinProladder PLC project by configuring inputs and outputs and setting memory addresses. Learn to build, simulate, and online-check the program with the WinProladder interface and keyboard shortcuts.

Analyze and solve basic plc programming problems using logic rules, X inputs, and S-5 switches to drive outputs L1–L5 and manage power supply paths.

Solve a logic-based PLC problem by replacing one switch with an anti switch, mapping inputs X1, X2, X3 to outputs 1, 2, and 3, and validating with ladder logic simulation.

Solve problem 3 by programming a plc logic using s1 and s2 as on conditions and x inputs for series and parallel paths to control the output.

Explore ladder logic programming to implement boolean expressions using inputs a and b, applying and, or, and not operations to generate the required outputs in a simple way.

Explore NAND and NOR gates with two inputs A and B producing output Q, including gate expressions and wiring in series or parallel configurations.

Discover xor and xnor gates in software, study their truth tables, and simulate input conditions with online models to verify outputs.

Explains transition up and transition down inputs in Fuji PLC programming, showing how 0 to 1 or 1 to 0 changes generate a single output pulse per scan cycle.

Learn how to implement differential up (DIFU) and differential down (DIFD) outputs in fuji plc programming, including transition behavior and pulse generation with on/off states.

Explore latching and unlatching concepts in PLCs, showing how a push button can set or reset an output to maintain state, with momentary and continuous press behavior.

Learn latching and unlatching in PLC software, and how start and stop pushbuttons control outputs and indicators via input–output logic and contact types.

Explore latching and unlatching in PLC using a lamp and push button, showing how the lamp turns on with a push and remains on until reset.

Introduction to the set and reset instruction in PLC programming, using let and let go latching to control a load, push button, and maintain output states.

Master interlocking concepts in PLC programming by examining a forward and reverse motor control with sensors and an indicator, ensuring mutual exclusivity to prevent simultaneous motion.

Explore the interlocking concept in software for PLC programming, using proximity sensors and forward and reverse motor control to prevent conflicting motions and safe process operation.

Explore how timers create precise time delays in PLC programs, covering on-delay timers, presets, and accumulators with a lamp demonstration.

Explore the different timer types in WinProladder, including a one-second base timer and a 0.01-second timer, and learn to set presets and enable conditions for PLC timing.

Explore how a 1000 ms timer works as a one-shot timer in Fuji PLC programming, including preset values, on/off conditions, and practical timer simulation.

Learn how to implement a variable time delay in Fuji PLCs by using presets, data registers, and the move instruction to adjust timing based on on/off conditions.

Solve a timer-based PLC problem using boolean logic with S1, S2, S3 and X, Y inputs; learn sequencing, five-second delays, and output control for safe, reliable operation.

Learn how a Fuji PLC counter operates by counting input pulses, using a preset, and resetting to track direction, with normal and high-speed counter types.

Explore the two types of counters in WinProladder, 16-bit and 32-bit, covering their preset value ranges, how to use them, and their reset behavior when conditions change.

Explore up-down counter concepts in Fuji PLC programming, configuring either 16-bit or 32-bit counters, setting preset, upper and lower limits, and understanding PV, CV, and reset behavior in simulation.

Explore data transfer instructions in parallel software, including mov, dmov, pmov, and dpmov, and learn how to set source and destination to move 16-bit or 32-bit data.

Learn how to use compare instructions (cmp, dcmp, pcmp, dpcmp) to compare source A and source B across 16- and 32-bit data, with plain and pulse variants and output logic.