Rex Rotary Driver Download

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I could be completely wrong but my idea is unhook the x axis motor and use another motor for the rotary that would plug into the x axis. Ive seen a couple home made setups that use a 3 jaw clamp system and maybe use a belt off that to spin it. Hoping someone can give some advise here.

I would think that with a PRO table, that unless you wanted to pull the water table off every time you use this, that it would be easier to make a second torch mount on the back of the Z axis with a counter weight to keep it balanced, then run the rotary off the back of the table so the top of the pipe would be .250 above the slats.

Im out of town at the moment and dont have a picture of the setup, but yes i got this to work. I will get a photo soon. I used some skateboard bearings as a craddle so the tube will spin with a nema 23 motor and a belt to spin the tube. I used my bend tech software to create the cut wrappers then transfered those to fusion and made the gcode. I then unplug the x axis and use that plug for the rotary motor and it works great.

The Firecontrol system is set up to convert 1 rotation of the stepper motor to 1/2" of travel. Whatever you do for your rotary system must also result in 1 rotation of the stepper being 1/2" of movement on the tube surface.

Was just thinking some more this morning. That stepper motor i mentioned has 1.8degree turn per pulse (from my understanding) so that would be 200 pulses for one full rotation. The driver inside the Langmuir system has a setting of 200pulses/rev. If set to 200 i could use a 5:1 pulley ratio to achieve the 1000 steps needed to make it a 1:1 spin or 1inch of cad drawing equals 1 inch of spin on the belt pulley. So confused lol. Got in contact with one of the guys that made a youtube video of his tube notcher (Dac Garage) and he doesnt have any of his old equipment or remembers much about what he used for parts. Did send me a cad drawing of his project though.

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But if you have the original rotary module connected, you can check it by booting log (on the console panel of Snapmaker Luban, input M1999, and press Enter).

There will be a section in the log file as below, with the original settings it should look like this:

It is impossible to control the speed of stepper motor with a simple stepper driver. The stepper motor is fairly complex machine, not to be worth doing speed controller. It far more complex than induction motor, PMSM, BLDC so you would need a special electronics with a powerful DSP processor to make it working. As an example you have a company Trinamic that sells their drivers with dedicated motor, so custom made. No arbitrary motor can be hooked on electronics that is matched for dedicated motor.

The rotary encoder you refer to is usually connected to some rotating shaft, as a means of measuring the shaft's angular position. This implies a closed loop, negative feedback system, to implement some kind of servo behaviour.

Using discrete analogue and digital parts, one solution might require a module to translate the quadrature output of the encoder into a fixed analogue voltage. This would employ up/down counters and a digital to analogue converter, to produce a potential proportional to the encoder's position. This analogue signal would then control the frequency (rate of pulses) of an oscillator module, whose output is applied to the driver's step input (PUL). Such a module is called a "voltage controlled oscillator", VCO. This is clearly not a job for beginner without the time and the will to learn, and fail a few times.

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For me, the primary enticement to move to the Elite series was the addition of the rotary capability. I see one YouTube video on using a rotary with the MASSO controller, but it is just music. Is there a recommended rotary for this new Onefinity/MASSO controller?

Do you know yet whether your electronics enclosure will be produced to include a driver, or will you leave that up to the user depending on the 3rd party rotary they decide to use and its application?

Looking at LO recommendation and knowing the power capacity of the K40 I doubt you can drive the LSR-K40ROT-BL rotary directly from a stock K40 controller due to both the driver capacity and the power supply capacity. Below is some reasoning.

Conclusion: direct connection to the LO rotary is marginal at best and may damage the M2 stepper driver.

Light object stepper current: 1.8A

M2Nano drive: 1.6A [1.5A reccomended]

The attached document also has information on the stepper driver signals and may be useful in designing the connection to an external stepper driver from the nano.