very nice workmanship :wow:
drag-200stang":3qouvadg said:On the early blocks there is a bolt boss 9'' back from the bell , at the pan rail on both sides , later blocks the passenger side was deleted..They are there for bracing some auto trans..One on each side , a brace went from there to the bottom of the bell. Can not see if you went 360 on your block plate that would help the triangle of strength.
drag-200stang":5t1az33i said:I all ways thought that bolt hole by your stater looked sketchy..So I added one toward the drivers side where the block ear is nice and thick..But I tend to over do things.
Keep up the good work.
67Straightsix":22n1cmsf said:I wasn't planning on posting until the engine was actually running, but I ran into a snafu. I've come to the conclusion that this is probably the most odd-ball engine that the Holley system has ever been used on. I found a local Holley tech guy to help me set up the parameters so I thought this would go somewhat smoothly - and it did, up until we started checking injector firing sequence - there was no signal to the injectors. We traced it to the cam sensor which has no signal. Spent all day trouble-shooting (checked wiring and replaced the sensor) and still no signal. I'm using 2002 mustang 3.8 two pin sensor which doesn't seem to be compatible with the Holley. I think I should have probably went with a three pin. Information on the Ford cam sensor is scarce. I'm suspecting that the voltage requirements for the Ford and Holley are different - does anyone know what voltage the Ford operates on? Other than that, things are coming along - slowly...
pmuller9":13ki6tvf said:The 2 wire cam position sensor is a magnetic reluctor sensor and puts out a pulse as the reluctor swings past the coil.
Polarity is important. The ECU is looking for a zero crossing as the pulse goes from positive to negative.
I use Moates J3 ports to do my turbo engines. I don't saw of the log or anything like what you do, and becasue of the injetor issues and packaging, I don't use traditional port EFI the way you do. I use speed density, and the Aussie 4.1 sensor.xctasy":2yohzere said:Aussies have no problems if its a stock 1993 onwards system, even though the sensor itself is very hard to set up properly. Ford OZ actually totally backed out for two whole years from EECV and EDIS6 because dust, heat, coil pack failure and the inability to tune it so LPG instillations taht didn't go through spark plugs like a Russian Pogom. Its a beeatch if the primary battery voltages drop below 12.9 volts, and if your doing somethng just a little different. Like a big cam, propane or turbo.
But a clever Aussie just cut and shuts the Over Head Cam AU 4 liter system into any old overhead valve X-flow, and it works. But the VR relector has to be set up right. It may work even if you put the sensor the wrong way around, but to set it up proprly is actually quite hard. I remember Ralph Sarich, the Aussie Orbital Engine and fine atomisation EFI injector inventor, made an even cylinder swash plate engine run, even though it was technically impoosiable to do so. He said " If someone had told me that it wouldn't work unless I had an oldd number of cylinders, I probabyl wouldn't have gotten it to go at all...."
Pages 4, 5 and 6. This boy 81foxdwagon is no yella belly backyarder, but he and Wagon on FSP forum's are the only two Aussies who have army proof of any EDI6 converted ohv X-flow ever running. All because the prox sensor is such a nasty thing to set properly.KLR250's advice is bang on.81foxdwagon's respose was to just bang the Aussie Bosch 62 series Duraspark back on, and forget the EDIS6.....
There's more guys with Nissan/Holden in line six RB20, 25, 26 and 30's with Ford EDIS6 than X-flows, and that's a fact.
http://www.xfalcon.com/forums/index.php?/topic/5473-the-yellow-turbo-wagon/page-4
http://www.xfalcon.com/forums/index.php?/topic/5473-the-yellow-turbo-wagon/page-5
http://www.xfalcon.com/forums/index.php?/topic/5473-the-yellow-turbo-wagon/page-6
81foxdwagon had it on the wrong way, with the 1993 EF Falcon part number facing outwards, whereas in stock form, there is a locating sleeve on one of the tabs. He didnt reverse polarity or anything. Its this aspect that is so hard.
From personal experience, Proximity Sensors are just a total Cluster *&%^$. I'm no longer scared of them, but they aren't an easy thing to master. See KLR250's Kiwi forum posts.The composition of the reluctor wheel is critical, and the conditioning circuit is too.
I spent a few hours working through Fords VR speedosesnor, its the same, its not a pure digital system, its a hybrid, so when you hook it into something like my Rallye Route Postion Survey master (which is digiital) it won't increment properly.
http://oldschool.co.nz/2011/forum/index.php?/topic/30571-klr250-the-build/
"This also includes a VR conditioning circuit to condition the signal from the ford EDIS VR sensor. The sensor has to sit around 1mm from the teeth, and the air gap is critical. The circuit conditions the signal and converts it from a sinewave to a 5V square wave so megasquirt can process it, heres the circuit diagram as shown in the MSnSextra manual"
Variable Reluctors created an AC current. Digitial sensors are like tone rings on ABS, and make a square wave form. Some of the data logging aspects get messed up with neagative voltages. I've lost 8 weeks of pay dealing with proxity sensors from 2002 till last month. 13 years of utter crap.
Data loggers and ECM's don't deal well with square wave forms that have negative voltages at the bottom. Fords system is the exception, its a bit of both.
The Sensors that work are SMP (Standard Motor Products) PC51 and PC74. There needs to be shielded wire to cut electrical interference from messing up the signal, so what they call inductance doesn't screw your Varaiable Relector signal over....
But you'll get it sorted.
67Straightsix":2yohzere said:pmuller9":2yohzere said:The 2 wire cam position sensor is a magnetic reluctor sensor and puts out a pulse as the reluctor swings past the coil.
Polarity is important. The ECU is looking for a zero crossing as the pulse goes from positive to negative.
From what I've been reading ,it did not sound like polarity was important. The magnet would get a pulse either way. I did however switch the wires on the cam sensor, no difference. Looking at the data log the crank sensor shows pulses, but the cams graph is a straight line. The ecu and cam sync are not communicating with each other. It seems like it should show something , which is a little worrying. If this can't be sorted out this week I'll switch to a 95 explorer hall effects sensor. From what I read on the Holley forms it looks like that has fewer problems. Thanks for the input.
FEP Senior Member Greywolf from Richmond, ME. He's out to sea servicing our (ooppps, your) coastlines at the moment, but he set me up with some EECV stuff, but its too huge to post
Greywolf":2yohzere said:It's available. I do electrical and electronics (shipboard for a living, Ford for a hobby, household for sanity) so we should probably find a time to have a more detailed discussion.
My focus, like yours, has been EEC-V control of non-EEC-V engines, although (to make the Focus part a pun) I gave up a little and moved over to tweaking of pre-existing EEC-V (for example, the Focus-in-a-Volvo-Amazon project). It means making a lot of new and old tech work harmoniously...a lot of very "different" sensors give similar signals, and a lot of "similar" sensors give very different signals.
I have a lot of literature and test equipment that gets used for tweaking--we should definitely chat. The items you seek may be in a bin somewhere in the piles of boxes stuffed in the "future master bedroom".
Have you checked the cam sensor coil resistance with an Ohm Meter?67Straightsix":yjd8ky2k said:From what I've been reading ,it did not sound like polarity was important. The magnet would get a pulse either way. I did however switch the wires on the cam sensor, no difference. Looking at the data log the crank sensor shows pulses, but the cams graph is a straight line. The ecu and cam sync are not communicating with each other. It seems like it should show something , which is a little worrying. If this can't be sorted out this week I'll switch to a 95 explorer hall effects sensor. From what I read on the Holley forms it looks like that has fewer problems. Thanks for the input.
pmuller9":2kfhgc88 said:Have you checked the cam sensor coil resistance with an Ohm Meter?
I believe it should read several hundred ohms.
I would also check continuity from the cam sensor plug all the back to pins A22 and A14 on the main harness that plugs into the ECU.
xctasy":3mg4gg6i said:What a very strange, but very cool system.. It's just the 8000 plips per mile, early EECIV compatibale 8 pulse per revolution VRS system, with a variable voltage sqaure wave form from 20 mph onwards. It does have some funny features on sub 20 mph voltage polling, technically able to poll back down to 7 mph in some circumstances.
Certain versions of the EEC III, EEC IV and most EEC V's require an 8000 pulse per mile vehicle speed sensor signal from the PSOM (speedo module), which is just like all other EEC-IV equipped vehicles
Other later EEC V applications use a 16000 or 40000 pulse per mile VSS signal.
I'm told that some of the CFI or Speed Density AOD Fox varaints poll down to 7 mph, and allow idle speed conditioning.
Sadly, the periodic zero mph to 19.9 mph null readings won't do what I need it to do, as like some ABS circuits, it has no reliable squarewave below 20 mph to log distance travelled. Its circumstantial, and as such, presents as aa Major Bummmer to me.....
I could probably use a prescaler to create a digital square wave form from an SN95 hub, but I can get another Proximity sensor tommorrow in the post for 95 US.
I jacked up my car, and ran the standard Hertz, A/C Voltage and Ohms resistance checks from zero to 62 mph, with my metric speedo registering in KM/H. Note that there is no voltage going up to 32 km/h or 20 mph, but once invoked, the voltage can be recorded right donw to zero, so there is an interesting voltage speed, Hertz resolution
0 km/h, 0 mph 0 Hz, zero volts AC
12 km/h, 7.4 mph, but 0.016 volts AC on over run
See picture
20 km/h, 12.4 mph 0 Hz, zero volts AC
30 km/h, 18.6 mph 0 Hz, zero volts AC, but 0.033 volts AC on overun
See picture
32 km/h, 19.9 mph 0 Hz, 0.00 volts AC
32.2 km/h, 20.0 mph, 0 Hz, 0.019 volts AC
40 km/h, 24.9 mph 0.056 volts AC
50 km/h, 31.1 mph, 0.083 volts AC
60 km/h, 37.3 mph 102 Hz, 0.109 volts AC
70 km/h, 43.5 mph, 0.149 volts AC
80 km/h, 49.7 mph 0.186 volts AC
88 km/h, 54.7 mph 125 Hz, 0.223 volts AC
See picture
100 km/h 62.1 mph, 0.273 volts AC
See picture
The square wave form kicks in after 19.9 mph on the upward rise, with zero Hertz cycles per second on my Cat IV multimetervoltage and the voltage increasing steadily from 20 mph on upwards.
The on the decilne after 20 mph, it records right down to 7 mph, assumably for the one Speed Density AOD car that needed idle speed control...