Hello. I’m Bob. I’m new here though I’ve known Dave through another forum for a few years. I’m not here for the money, because it always flows away from me. I’m not here for glory, because my experience has been that after all the long hours and frustrating failures, success has always come by accident…without rhyme or reason. That being said, here’s what I’ve been up to lately:
Below are a few pics of the version of Dave and Matt’s basic circuit that I’ve been playing with. It seemed redundant to me to have a second Primary battery is we use the Boost Module to raise the voltage, so I have been using one Primary and one Charge battery.
I’m using brand new batteries. If the batteries are at a high state of charge, my runs have been gaining or breaking even on a repeatable regularity. LA batteries tend to loose energy on their own, so little by little the batteries run lower and then the tests start loosing a little, then more, spiraling downward. With a high charge in the Primary, the Boost Module can be turned up to charge extremely fast and runs the motor strongly.
I haven’t started running a generator off the motor yet, so I haven’t taken advantage of the extra output from the motor with which we can push things well over into OU territory. But I was startled at the first runs to find that this little circuit does more of what I have spent years trying to experimentally find.
On 06-29-15, I used two new 12V, 12Ah motorcycle batteries, the Boost Module, and a 6-18V DC motor (Johnson P/N 76256-3J2861, about $3.50 at Goldmine Electronics). The batteries were standing at 12.46V and 12.46V at 1055 when I started the test. The batteries were at 12.24V and 13.18V when I stopped the test at 1259. After resting until 1435, they stood at 12.43V and 12.65V. A gain of .19V at the cost of .03V. The batteries are identical.
At 1518, I ran another test at a higher speed (1802 rpm). Starting at 12.44V and 12.64V, stopping at 2019 with the batteries at 12.00V and 14.11V. At 2149 they were standing at rest, 12.19V and 12.70V.
The next day I reversed the batteries and at 1429 with the batteries rested at 12.60V and 12.22V, ran a test at 672 rpm. Stopping at 2300 (8.5 hours later), the batteries were at 12.02V and 13.01V. Rested at 0030, they stood at 12.16V and 12.65V resulting in loosing .43V and gaining .43V.
The following tests (switching batteries back and forth) resulted in the following:
+.08V and -.08V
+.08V and -.07V
+.05V and -.06V
+.18V and -.21V
+.08V and -.12V
By this time the batteries were down to 12.22V and 12.43V. So as you can see, the gains turned into break evens and then losses as the batteries voltage dropped, little by little. I believe that maintaining the batteries at a high level will be necessary.
Fun, eh?
Bob
Below are a few pics of the version of Dave and Matt’s basic circuit that I’ve been playing with. It seemed redundant to me to have a second Primary battery is we use the Boost Module to raise the voltage, so I have been using one Primary and one Charge battery.
I’m using brand new batteries. If the batteries are at a high state of charge, my runs have been gaining or breaking even on a repeatable regularity. LA batteries tend to loose energy on their own, so little by little the batteries run lower and then the tests start loosing a little, then more, spiraling downward. With a high charge in the Primary, the Boost Module can be turned up to charge extremely fast and runs the motor strongly.
I haven’t started running a generator off the motor yet, so I haven’t taken advantage of the extra output from the motor with which we can push things well over into OU territory. But I was startled at the first runs to find that this little circuit does more of what I have spent years trying to experimentally find.
On 06-29-15, I used two new 12V, 12Ah motorcycle batteries, the Boost Module, and a 6-18V DC motor (Johnson P/N 76256-3J2861, about $3.50 at Goldmine Electronics). The batteries were standing at 12.46V and 12.46V at 1055 when I started the test. The batteries were at 12.24V and 13.18V when I stopped the test at 1259. After resting until 1435, they stood at 12.43V and 12.65V. A gain of .19V at the cost of .03V. The batteries are identical.
At 1518, I ran another test at a higher speed (1802 rpm). Starting at 12.44V and 12.64V, stopping at 2019 with the batteries at 12.00V and 14.11V. At 2149 they were standing at rest, 12.19V and 12.70V.
The next day I reversed the batteries and at 1429 with the batteries rested at 12.60V and 12.22V, ran a test at 672 rpm. Stopping at 2300 (8.5 hours later), the batteries were at 12.02V and 13.01V. Rested at 0030, they stood at 12.16V and 12.65V resulting in loosing .43V and gaining .43V.
The following tests (switching batteries back and forth) resulted in the following:
+.08V and -.08V
+.08V and -.07V
+.05V and -.06V
+.18V and -.21V
+.08V and -.12V
By this time the batteries were down to 12.22V and 12.43V. So as you can see, the gains turned into break evens and then losses as the batteries voltage dropped, little by little. I believe that maintaining the batteries at a high level will be necessary.
Fun, eh?
Bob
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