LabVIEW
Data input constraints (using shift registers)
Solved!
Also:
- What's the purpose of the "standard deviation and variance" on top of the loop.
- The clear button seems to have the wrong mechanical action.
- Where do you measure the array size?
- You could do a "start=true AND "size<5" for the first case, for example.
- You have twice as much code as needed because the top and bottom half always do exactly the same thing. Once is enough!
- You need more logic to first fill array 1 with five points, then fill v2 with five, then stop accepting data.
- Your loop cannot be stopped.
- Use left-to-right wires, i.e. don't place indicators on the left.
- You can use "use default if unwired" output tunnels to clear the array.
- ...
See if this can give you some ideas...
(Note that your teacher reads this forum too, so make sure you understand every single subtlety and put your own spin on it. It is a good learning experience to look at relatively clean and efficient code that avoids a lot of pointless duplications. For example why do you think you need two empty array constants to initialize the shift registers? One is enough!)
Note that the "clear" case can probably be inside the outer FALSE case for simplicity. Personally, I would probably use an event structure, but I don't know it it was already introduced in your course.
@hurang wrote:
For example, if the first data of data v1 is 0.43, I would like to be able to receive the next random number only if it is a random number within 0.33 and 0.53 (+-0.1) (adjust the value with the control). (Even if you press the add button, it does not enter the array)
Of course, for data v2, I want to input the next data based on the first data, like the method above.
Well, exactly defining the problem is 80% of the work. 😄
Should the very first point be the reference to decide if the new point is within range or should each new point be within range of the previous. For example if the first point is 0.43 and the second 0.50, what should be the allowed range be for the third (0.33-0.45 or 0.40-0.60), etc. In any case, all you need is keep the reference value in a scalar shift register and update as needed.
Sorry, I am currently not near any computer. All the cases are the same as before and all additions are visible and easy to reproduce. Just a handful of simple primitives and a few wires. Try it.
