Ignition
timing revision MAP
RB20DE/T
High Octane ignition MAP (adr:7400-74FF)
The
DATA above the 80h on the MAP is used for the knock sensor flag control
which has been attached to the most significant bit. For example in case
of the 93h - when this is converted to binary, because it becomes the 10010011b,
the most significant bit (the 8th bit) becomes the flag. Once the numerical
value that is read reaches the value which removes this flag it becomes
the 00010011b=13h.
When
using the normal data of the RB25DET we configured using the basis of the
RB25DET+ normal turbine ( with the boost set to 0.9) and focused on advanced
angle around specification near the 3600rpm, giving better feeling
Other
Data
TP
lattice and RPM lattice
Fuel
MAP TP lattice (adrc:7af0-7AFF)
Ignition
MAP TP lattice (adr:7b10-7B1F)
You
match the the horizontal shaft (the load axis) when you refer to the MAP.
The numbers increase expanding from both the right side of the normal data
of the RB25DET and the RB20DET. With the fuel being thin (at the time and
like of 5 fast full opening) approximately inside the MAP there are high-speed
limits regardless of inserting the large data. When exhaust gas temperature
rises too much, the eccs cancels when the right hand side of the fuel MAP
TP lattice is reached. In regards to modifying the TP from the car specifications
feel for changes. If there is a map tracer, it is possible to adjust the
TP relactively
Fuel
MAP rpm lattice (adr:7b00-7B0F)
Ignition
MAP rpm lattice (adr:7b20-7B2F)
You
match vertical axis (the axis of rotation) when refering to the MAP. The
numbers increase expanding in the normal data
The
rpm lattice the data (D) becomes actual rpm with the ×50 (which shows
up on the ROM Editor scale)
VQ map
(adr:7a70-7AEF)
RB30E/T
MAP#1
MAP#2
This
VQ map works in revision based on the air flow voltage. The VQ data of
the air flow which you have attached is translated. In the case of me exchanging
to a Z32 air flow, due to the increase, the data of the VQ map of the Z32
ECU was transplanted. As for RB20DET air flow in the R32 being only approximately
270ps it means that it is not possible, to measure, when the estimated
the power which exceeds what comes out - we recommend that you use Z32
air flow meter.
Since
the AFM are the same for RB30E and RB30ET (VL Turbo) the VQ Maps are also
the same
Speed
limiter 1
(adr:7a0a)
Speed
limiter 2
(adr:7a0b)
When
this speed is maintained about 5 seconds, the limiter activates. The FFh
(the FFh -> the 255d×2=510km/h) setting same as limiter 1, it increases.
REV
limiter 1
REV
limiter 2
O2
feedback start water temperature
Water
temperature value translation table
This
is the table for AD conversion in order to handle the water temperature
value from the water temperature sensor as the digital data. It is possible
to cut the increasing in quantity revision with water temperature with
handling this table but that would influence control appearance and the
like of fan operation, and is not recommended.
RB30E/T
Knock
sensor control table
Electrification
duty table
It is
the table which decides the electrification angle to the coil. It is the
case that electrification angle increases with increasing these data but
when it increases too excessively, it meaning kind of that life of the
coil shrinks considerably, it continues to be the normal data. By the way
with the RB20DET and the RB25DET the same data has entered.
2F60:
FF FF FF FF FF FF FF 7C 5A 47 3B 33 2C 27 23 20 RB30E/T
Air
flow limiter table
It is
the alias fuel cut limit table. Increasing boost, when it does the ????
where load increases, with while the data of this table is normal fail-safe
catches and the fuel are times when it is cut. In order to prevent that
it will bury this table with all FFh.
Fuel
recovering rpm conditional table
Fuel
cut rpm conditional table
Adjusting
to the above-mentioned fuel recovering table, this way like below modifying,
it increases.
Idle
ignition timing (other than neutral) table
Every
water temperature (-40 DEGC - 110 DEGC) it is the idle ignition timing
table.
Idle
ignition timing (neutral) table
This
way is the idle ignition timing table every of water temperature at the
time of neutral.
Idle
stabilization control limiter table
Idle
stabilization control table
Target
idle rpm table
7e60:
70 70 70 64 58 58 58 58 53 53 53 53 53 53 53 53 seichan31z
Flood
warm retarding decision water temperature (adr:7f12)
Flood
warm retarding quantity (adr:7f13)
Invalid
injection voltage factor (adr:7f87)
RB20DE/T
Regular ignition MAP (adr:7c00-7CFF)
RB30E/T Regular ignition
MAP (adr: 3C00 - 3CFF) with 16 x 16 map
Normally,
it seems that there is an increase to the feeling when the angle is advanced
from the normal data, but as for the area reaches full boost when the advanced
angle is made moderate, the standard rising of quick boost results in good
exhaust gas temperature.
7AF0:
0C 10 14 18 1C 20 24 28 2c 30 38 40 48 50 60 70 seichan31z
7AF0:
0C 10 14 18 1C 20 24 28 30 34 38 40 48 50 58 68 RB20DET
7AF0:
0C 10 14 18 1C 20 24 28 2c 30 34 38 3c 40 48 50 RB25DET
2EC0:
10 14 18 1C 20 28 30 38 40 48 50 58 60 68 70 80 RB30E/T (copy 1)
2F00:
10 18 20 28 30 38 40 48 50 58 5C 60 68 70 78 80 RB30E/T (copy 2)
7b10:
0C 10 14 18 1C 20 24 28 2c 30 38 40 48 50 60 70 seichan31z
7b10:
0C 10 14 18 1C 20 24 28 30 34 38 40 48 50 58 68 RB20DET
7b10:
0C 10 14 18 20 24 28 2c 30 34 38 40 48 4c 50 60 RB25DET
2EE0:
10 14 18 1C 20 24 28 2C 30 38 40 48 50 58 68 78 RB30E/T (copy 1)
2F20:
10 14 18 1C 20 24 28 2C 30 38 40 48 50 58 68 78 RB30E/T (copy 2)
7b00:
08 10 18 20 28 30 38 40 48 50 58 60 68 70 7c 88 seichan31z
7b00:
08 10 18 20 28 30 38 40 48 50 58 60 68 70 78 80 RB20DET
7b00:
08 10 18 20 28 30 38 40 48 50 58 60 68 70 78 80 RB25DET
2ed0:
08 0A 10 18 20 28 30 38 40 48 50 58 60 68 70 78 RB30E/T (copy 1)
2f10:
08 0A 10 18 20 28 30 38 40 48 50 58 60 68 70 78 RB30E/T (copy 2)
7b20:
08 10 18 20 28 30 38 40 48 50 58 60 68 70 7c 88 seichan31z
7b20:
08 10 18 20 28 30 38 40 48 50 58 60 68 70 78 80 RB20DET
7b20:
08 10 18 20 28 30 38 40 48 50 58 60 68 70 78 80 RB25DET2ef0
2ef0:
10 14 18 1C 20 24 28 30 38 40 48 50 58 60 68 70 RB30E/T (copy 1)
2f30:
10 14 18 1C 20 24 28 30 38 40 48 50 58 60 68 70 RB30E/T (copy 2)
7a70:
00 30 00 30 00 30 00 30 00 30 00 30 00 49 00 68
7a80:
00 8f 00 BE 00 F7 01 3f 01 95 01 FD 02 7e 03 10
7a90:
03 B3 04 69 05 13 06 13 07 0C 08 25 09 5d 0A B3
7AA0:
0C 27 0D BA 0F 80 11 7e 13 A3 15 F8 18 81 1b 39
7AB0:
1e 1e 21 39 24 87 28 02 2b B5 2f 9e 33 C1 38 24
7AC0:
3c C4 41 B6 46 DD 4c 36 51 D9 57 BE 5d F2 64 74
7AD0:
6b 50 72 8c 7a 23 82 19 8a 68 93 10 9c 29 A5 A4
7AE0:
AF 7b B9 B8 C4 5c CF 6c DA E8 E6 D3 F3 2f FF FF
2D80:
00 6E 00 93 00 C1 00 F8 01 39 01 86 01 DE 02 43
2D90:
02 B6 03 38 03 C8 04 6A 05 1C 05 E2 06 BA 07 A8
2DA0:
08 AB 09 C4 0A F6 0C 41 0D A6 0F 26 10 C4 12 80
2DB0:
14 5B 16 57 18 75 1A B6 1D 1D 1F AA 22 60 25 3E
2DC0:
28 48 2B 7F 2E E4 32 78 36 3E 3A 38 3E 66 42 CB
2DD0:
47 68 4C 40 51 54 56 A6 5C 37 62 0B 68 22 6E 7E
2DE0:
75 23 7C 11 83 4B 8A D2 92 AA 9A D3 A3 51 AC 25
2DF0:
B5 52 BE DA C8 BF D3 03 DD A9 E8 B4 F4 25 FF FF
2E00:
00 91 00 9F 00 BA 00 E5 01 1F 01 6A 01 C7 02 37
2E10:
02 BB 03 54 04 03 04 C9 05 A7 06 9D 07 AE 08 D9
2E20:
0A 21 0B 85 0D 06 0F A7 10 67 12 47 14 49 16 6E
2E30:
18 B5 1B 21 1D B2 20 69 23 47 26 4C 29 74 2C D1
2E40:
30 53 34 00 37 D9 3B DE 40 12 44 73 49 05 4D C6
2E50:
52 B8 57 DC 5D 32 62 BB 68 79 6E 6B 74 93 7A F1
2E60:
81 87 88 54 8F 59 96 98 9E 11 A5 C5 AD B4 B5 DF
2E70:
BE 47 C6 EC CF D0 D8 F2 E2 55 EB F7 F5 DA FF
RB30E/T
unknown (if exists)
When
it arrives in this speed, the limiter is effective instantaneously. The
1bit has become the 2km/h, the FFh (the FFh -> the 255d×2=510km/h)
setting, it increases.
RB30E/T
unknown (if exists)
(adrc:7fb4)
RB30E/T
doesn't exist?
When
it arrives in this rpm, the limiter which is effective instantaneously.
The 1bit has become 50 revolutions, the A0h (the A0h -> the 160d×50=8000rpm)
setting, it increases.
(adrc:7f8b)
RB30E/T
doesn't exist?
When
this rpm is maintained about 5 seconds, you think the limiter is effective
but this one is not certain. The A0h (the A0h -> the 160d×50=8000rpm)
setting same as limiter 1, it increases.
(adr:7f91)
RB30E/T
unknown
It
is the address which sets the start water temperature of O2 sensor feedback.
The data (D) - it sees is of the factor 50d which becomes the start water
temperature. It seems that one could study the start water temperature
205 DEGC (the FFh -> 255d-50d=205d) to become with designating this data
as the FFh and cut this function with respect to substance. Presently setting
is being advanced as a FFh.
(adr:7b30-7B4F)
RB30E/T
: 2F40 - 2F5F
In
case of my car, but it will place in the RB25DET the water temperature
being tend to rise a little with changing, there is a possibility the fuel
being increased in quantity somewhat modifying the data of this table
2F40:
FF C8 B6 A7 9A 90 88 82 7C 77 72 6E 6A 66 62 5E
2F50:
5B 57 53 50 4C 48 44 40 3C 38 33 2E 28 20 14 00
(adr:79e3-79EB)
RB30E/T:
unknown where used for VL turbo
With
this address when everything is designated as the 00h, it seems it can
cut out knock sensor control, but when the engine is thought about it is
better to utilise this
(adr:7b60-7B7F)
7b60:
0F 0F 16 20 2A 34 3c 46 50 5A 64 6e 75 7f 8a 94 seichan31z
7b70:
9e A8 B2 BC C6 D0 DA E4 E9 E9 E9 E9 E9 E9 E9 E9
7b60:
0F 0F 16 20 2A 34 3c 46 50 5A 64 6e 75 7f 8a 94 RB20DET
7b70:
9e A8 B2 BC C6 D0 DA E4 E9 E9 E9 E9 E9 E9 E9 E9
(adr:7960-796f)
RB30E/T:
unknown
(adr:7e40-7E4F)
RB30E/T:
3e40?
This
is the table which decides the revolution of fuel recovering every of water
temperature. The left edge -40 DEGC with later 10 DEGC right hand edge
110 DEGC with appears to be the top. Beginning to feel like its stalling
giving a signal such as parking, from normal it modified the rpm which
recovers a little when raising the value
This
way the 1bit is 50 revolutions same as the REV limiter and the like.
7e40:
78 78 78 50 40 40 40 40 40 40 40 40 40 40 40 40 seichan31z
7e40:
78 78 78 50 40 3A 37 34 31 2E 2b 28 28 28 2c 30 RB20DET
3E40:
5E 6E 6E 6E 6E 6A 66 62 5E 5A 56 50 50 50 50 50 RB30E/T?
(adr:7e30-7E3F)
RB30E/T:
3e30?
7e30:
84 84 84 5c 4c 4c 4c 4c 4c 4c 4c 4c 4c 4c 4c 4c seichan31z
7e30:
84 84 84 5c 4c 46 43 40 3d 3A 37 34 34 34 38 3c RB20DET
3e30:
66 76 76 76 76 72 6 E6 A6 66 25 5E 58 58 58 58 58 RB30E/T?
(adr:7e10-7E1F)
7e10:
00 05 0A 0F 0F 0F 0F 0F 14 14 14 14 14 14 14 14 seichan31z
7e10:
00 05 0A 0F 0F 0F 0F 0F 14 14 14 14 14 14 14 14 RB20DET
(adrc:7ea0-7EAF)
7EA0:
00 05 0A 0F 0F 0F 0F 0F 14 14 14 14 14 14 14 14 seichan31z
7EA0:
00 05 0A 0F 0F 0F 0F 0F 14 14 14 14 14 14 14 14 RB20DET
(adr:7940-794f/7950-795f)
You
do not understand completely whether the data of this table has done what
but with the tuning data it seems that it is many to designate here as
all 00h.
I it
continues to be the normal data.
(adr:7980-798f/7990-799f)
On
and similarly with the tuning data it seems that it is many to designate
here as all 00h.
This
way continues to be the normal data.
(adr:7e60-7E6F)
RB30E/T:
3e60
Every
water temperature (-40 DEGC - 110 DEGC) the 1bit seems like the 12.5rpm
with the table which decides idle rpm.
7e60:
70 70 70 64 58 58 58 58 53 49 42 38 34 34 38 40 RB20DET
3e60:
53 70 70 64 58 58 58 58 53 49 42 38 38 38 3C 40 RB30E
3e60:
53 70 70 64 58 58 58 58 53 49 42 38 38 38 3C 40 RB30ET