
LabVIEW2023 Link :- https://www.ni.com/en-in/support/downloads/software-products/download.labview.html#477380
LabVIEW 2018 Link :- https://drive.google.com/file/d/1ybIATxNeR_c_i9hJ1GkWWIoHNn9QeuWD/view?usp=share_link
Activator Link :- https://drive.google.com/file/d/1ybIATxNeR_c_i9hJ1GkWWIoHNn9QeuWD/view?usp=share_link
Explore the LabVIEW numeric palette to build and visualize simple operations from adding to dividing, using controls, indicators, compound functions, and data manipulation with left-to-right data flow.
Explore data programming in LabVIEW by building a block diagram on the front panel, illustrating left-to-right data flow, highlight execution, and multiplication by the same value.
Explore computing the equation x1 plus 24 in LabVIEW by using expression nodes and the formula tool, validating inputs with a green symbol and wiring inputs to outputs.
Explore how to compute permutation and combination using for loops in LabVIEW, adjusting controls and representations, and display results in the data window through nested loops and function connections.
Learn cone formulas, including volume pi r^2 h divided by three, slant height sqrt(r^2 + h^2), surface area pi r (r + sqrt(r^2 + h^2)), and lateral surface pi r l, in LabVIEW.
Generate numbers from one to ten in LabVIEW using a while loop, incrementing a counter and stopping when the condition is true, with a brief delay.
Learn to sum the first n natural numbers in LabVIEW with a while loop, using a control input, an indicator, and a feedback loop to stop at the limit.
Use LabVIEW to compute weight on different planets with gravity multipliers and the mass times gravity formula, demonstrating live weight calculations for Earth, Moon, and other celestial bodies.
Explore creating 1D, 2D, and 3D arrays in LabVIEW using for loops, showing how size is controlled and how nested loops build multi-dimensional data structures.
Explore the flat sequence structure in LabVIEW by performing operations on inputs A and B: addition, x minus y, multiply, and divide, with a half-second delay per frame and indicators.
Use the expression node to plot sine x and sine x square, merge signals, and view results on waveform graphs and charts with a build array function.
Compare simple interest and compound interest for a given principal, rate, and time using the math script window, deriving simple interest as p*r*t/100 and compound interest via P*(1+r/100)^t.
Demonstrate algebra verification in labview with a formula node, showing (a+b)^2 = a^2 + b^2 + 2ab and (a−b)^2 = a^2 + b^2 − 2ab using A and B inputs.
Explore the LabVIEW comparison palette to evaluate conditions, use max/min, in range, and empty checks, and compare waveforms with select functions.
Learn to build a seven segment display in LabVIEW by arranging front panel segments and wiring a case structure to show digits zero through nine, extend to multi digit displays.
Explore the boolean expression one plus A plus B plus C equals one for three variables, implement with or gate, verify output remains high when any input is high.
Explore array and matrix operations in LabVIEW, converting between one- and two-dimensional data, building and reversing arrays, using for loops with random numbers, and computing transpose, inverse, and determinant.
Learn to multiply two 3x3 matrices in LabVIEW using the matrix function from the linear algebra toolkit, including creating matrices A and B, wiring them, and obtaining the product.
Discover how to compute the determinant of matrices in LabVIEW using the matrix function, exploring various orders, inputs, and linear-algebra operations with controls and indicators.
Explore linear algebra operations in LabVIEW, including computing a matrix's rank, inverse, eigenvalues and eigenvectors, and performing transpose and other matrix calculations with the math functions.
Explore how the in place element structure optimizes LabVIEW operations by using border nodes to perform array and data operations in place, improving memory use and speed.
Learn how to use in place element structure in LabVIEW to split arrays, apply operations (square root, square, increment, decrement) in place, and reduce memory usage for efficient compilation.
Explore numeric operations on a cluster by adding, subtracting, dividing, and multiplying a value across each element, producing an output cluster with floating type results.
Explore building a LabVIEW cluster of numeric controls and IDs to manage student marks across six subjects, using index edit, bundle by name, and array indexing to update scores.
Build a coke vending machine program in labview, featuring a front panel and coke dispenser, with a ₹60 price and money handling from ₹1, ₹5, and ₹20.
Explore property nodes for a boolean control in LabVIEW, switching visibility and enable/disable states, and using them to control front-panel indicators and security features.
Learn to generate a hundred random numbers in a LabVIEW loop, and display them on a waveform graph and a chart, with a 300 ms delay and data logging.
Explore how a mixed signal graph displays both a sine wave and its absolute value, then derive a digital waveform via comparison and waveform processing.
Learn in LabVIEW to draw a circle with a while loop, sine-based points, and axis scaling, using XY bundle controls to visualize the circle on a plot.
Create lissajous patterns in labview by adjusting the phase difference and frequency of two sine waves on an x y graph, using express via for real-time visualization.
This course is a comprehensive and hands-on guide designed to take you from an absolute beginner to an intermediate LabVIEW programmer, step by step. Whether you're a student, engineer, or hobbyist, this course provides a complete foundation in LabVIEW—the industry-standard graphical programming language used in test, measurement, automation, and industrial control applications.
Starting with the basics, you will become familiar with the LabVIEW environment, its tools, and its visual programming structure. From there, the course gradually introduces core programming concepts such as data types, Boolean logic, arithmetic operations, loops (for and while), case structures, and arrays. You’ll learn how to manipulate arrays using LabVIEW’s powerful built-in functions and how to read/write data to and from text files—critical for data logging and report generation.
The course then progresses to intermediate and LabVIEW-specific concepts such as the creation and use of SubVIs, property nodes, and event-driven programming. You'll also explore data acquisition (DAQ) using simulated and real signals, preparing you to interface with external hardware like sensors, actuators, and measurement devices.
You will gain insight into professional practices such as why sequence structures should be avoided in industrial applications, and how state machines are used to ensure modularity, maintainability, and safety in complex systems. These are the same design principles used in high-reliability industrial and medical systems.
Throughout the course, learning is reinforced through interactive quizzes, coding exercises, and three real-world projects that consolidate multiple skills into practical applications. These projects mimic real industry tasks and are designed to build your confidence and problem-solving abilities.
This course serves as a cost-effective and flexible alternative to National Instruments’ LabVIEW Core I and II training, offering the same depth and rigor at a fraction of the cost. It is taught by an industry-experienced instructor with over a decade of experience in automation, instrumentation, and engineering education.
By the end of this course, you'll be equipped not only with theoretical knowledge but also with practical skills needed to automate systems, process data, control instruments, and confidently work on industrial LabVIEW projects or pursue NI certification.