woodygb wrote:NOTE:- The Rhino scooter controller.... unlike wheelchair controllers/joysticks ....doesn't need the DWIZ-ADAPT as it has one built in to it.
I'll probably ask you to test two options on the wheelchair version.
terry2 wrote:The cable with the dwiz is working on my Puma 40
Nice one woody.
I see my speed is set too 90%! will I have more SPEED if I crank it to 100%
Burgerman wrote:Why bother with 90?
terry2 wrote:Burgerman wrote:Why bother with 90?
That was my thinking. I don't think 10% will make much difference. My batteries will be install tomoz.
So I will see after charging.
I also noticed there are 5 profiles to play with. My chair only shows 4?
rover220 wrote:terry2 wrote:Burgerman wrote:Why bother with 90?
That was my thinking. I don't think 10% will make much difference. My batteries will be install tomoz.
So I will see after charging.
I also noticed there are 5 profiles to play with. My chair only shows 4?
Look in the joystick options and you'll see the max number of drive profiles. Change that to 5 and you'll have 5 available.
rover220 wrote:Do you have the hasp key/dongle?
rover220 wrote:Do you have the hasp key/dongle?
anubis801 wrote:Finished!
I got 10 PCB's left over, if anyone is interested in a bare PCB send me a PM.
...Meaning the data pin of the controller.The voltage output at the signal pin is 9.8v according to my meter ... this is a Serial level voltage not TTL.
woodygb wrote:The voltage output at the signal pin is 9.8v according to my meter ... this is a Serial level voltage not TTL.
void setup() {
Serial.begin(9600);
delay(300);
}
void loop() {
{
Serial.write(248);
Serial.write(134);
delay(11);
Serial.write(254);
Serial.write(248);
Serial.write(230);
Serial.write(128);
Serial.write(152);
Serial.write(128);
}
delay(229);
}
The SBL wire is pulled up to 5V with a 270 ohm resistor, through a diode. This is the recessive state and it represents a 1. In the
dominant state, the SBL wire is pulled down to 0V, and this represents a 0. Note that the transmitting circuit will not achieve 0V;
1V is more likely.
Of course, the recessive and dominant states are simultaneous on both wires.
To summarise:
The recessive state is typically represented by SBH = 0V, SBL = 5V. The recessive noise margin is 5V, and impedance
(oversimplified) is 135 ohms.
The dominant state is typically represented by SBH = 4V, SBL = 1V. The dominant noise margin is 3V, and impedance
(oversimplified) is 15 ohms.
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