InSight
SEIS Seismometer |
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SEED Channel
Configuration for SEIS Data - Network XB |
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Owner |
C. Pardo - Mars SEIS Data Service |
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Issue: |
2 |
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Revision: |
10 |
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Last Modification: |
May 18, 2020 |
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Band |
Code |
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Location ID |
SP |
E |
S |
M |
L |
V |
U |
R |
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Short Period Seismometer |
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Instrument code |
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Freq. Part |
VBB |
H |
B |
M |
L |
V |
U |
R |
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Very Broadband Seismometer |
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High Gain Seismometer |
H |
Frequency |
0 |
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100 |
50 |
5 |
1 |
0,5 |
0,05 |
0,005 |
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The LOC Id increment
is added to the Channel LOC Id , offering 5 different sampling rate for each
band |
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Low Gain Seismometer |
L |
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1 |
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25 |
4 |
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0,25 |
0,025 |
0,001 |
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Mass Position Seismometer |
M |
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2 |
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20 |
2 |
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0,20 |
0,02 |
1/1800 |
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Pressure |
D |
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3 |
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10 |
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0,1 |
0,01 |
1/3600 |
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Magnetometer |
F |
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4 |
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Temperature |
K |
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default for raw
acquisition and events |
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Wind |
W |
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default continuous data |
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Synthetized beam data |
Z |
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Non-specific instruments |
Y |
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LocID |
Science |
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Engin. |
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Electronic Test Point (S/C
Voltages) |
E |
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High G. |
Low G. |
High.G |
Low G. |
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As the instrument noise depends on configuration, different location
codes (LocID) are used. |
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SEIS/VBB related data |
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VBB |
00 |
05 |
10 |
15 |
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Replaced SP |
20 |
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Synthesized SP (from VBB1, VBB2,
VBB3) |
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spare |
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30 |
35 |
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spare Ids for possible VBB open loop mode |
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VBB RMS |
40 |
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High pass RMS over one second |
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MAX VBB RMS |
45 |
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Maximum RMS over N seconds |
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Location ID is the sum of : |
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spare |
50 |
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(a) the channel part |
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SEIS/Hybrid |
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VBB+SP |
55 |
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Hybrid channels |
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(b) the frequency part |
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spare |
60 |
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SEIS/SP related data |
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SP |
65 |
70 |
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Channel part is Loc ID mod(5) |
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Rotated SP |
75 |
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On board rotated SP (from SP1, SP2, SP3) |
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Frequency
part is the rest of Loc Id mod(5) |
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Replaced VBB |
80 |
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Synthesized VBB (from SP1, SP2, SP3) |
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SP RMS |
85 |
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High pass RMS over one second |
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MAX SP RMS |
90 |
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Maximum RMS over N seconds |
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spare |
95 |
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APSS related data |
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TWINS proc 1 |
00 |
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Magnetometer, Pressure, temperature (raw data) |
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TWINS Proc 2 |
10 |
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On Earth Processed Data: wind amplitude and direction, atmospheric
temperature |
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Rotated MAG |
20 |
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On board rotated MAG (from mag1, mag2, mag3) |
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MAG RMS |
30 |
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High pass RMS over one second |
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MAX MAG RMS |
40 |
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Maximum RMS over N seconds |
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P1 RMS |
50 |
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High pass RMS over one second |
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P2 RMS |
60 |
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MAX P1 RMS |
70 |
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Maximum RMS over N seconds |
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MAX P2 RMS |
80 |
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spare |
90 |
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Location ID are those
below for raw data at output of the SEIS AC A/D or APSS A/D |
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Location ID are
incremeted by value above for decreasing sampling rate |
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Location ID |
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Channel |
Channel part |
Baseline |
Inst. Code |
Orien. Code |
100 Hz |
10-80Hz |
2-5Hz |
1Hz |
0,1-0,5 Hz |
0,01-0,05 |
<0,01 |
first channel flag |
Comments |
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VBB Seismometer Channels |
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VBB 1 Velocity High Gain Science mode |
00 |
Transmitted raw data |
H |
U |
HHU |
BHU |
MHU |
LHU |
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G |
(1) depending on sampling rate after decimation |
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VBB 1 Velocity Low Gain Science mode |
05 |
Transmitted raw data |
L |
U |
HLU |
BLU |
MLU |
LLU |
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G |
U,V, W are chosen because VBB axis are non orthogonal. |
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VBB 1 Velocity High Gain Engin. mode |
10 |
Transmitted raw data |
H |
U |
HHU |
BHU |
MHU |
LHU |
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G |
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VBB 1 Velocity Low Gain Engin. mode |
15 |
Transmitted raw data |
L |
U |
HLU |
BLU |
MLU |
LLU |
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G |
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VBB 1 Position High Gain Science mode |
00 |
Transmitted raw data |
M |
U |
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LMU |
VMU |
UMU |
RMU |
G |
VBB POS can also be sampled at 1 Hz |
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VBB 1 Position Low Gain Science mode |
05 |
Transmitted raw data |
M |
U |
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LMU |
VMU |
UMU |
RMU |
G |
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VBB 1 Position High Gain Engin. mode |
10 |
Transmitted raw data |
M |
U |
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LMU |
VMU |
UMU |
RMU |
G |
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VBB 1 Position Low Gain Engin. mode |
15 |
Transmitted raw data |
M |
U |
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LMU |
VMU |
UMU |
RMU |
G |
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VBB 1 Temperature |
00 |
Transmitted raw data |
K |
U |
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LKU |
VKU |
UKU |
RKU |
H |
Seismometer temperature |
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VBB 2 Velocity High Gain Science mode |
00 |
Transmitted raw data |
H |
V |
HHV |
BHV |
MHV |
LHV |
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G |
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VBB 2 Velocity Low Gain Science mode |
05 |
Transmitted raw data |
L |
V |
HLV |
BLV |
MLV |
LLV |
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G |
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VBB 2 Velocity High Gain Engin. mode |
10 |
Transmitted raw data |
H |
V |
HHV |
BHV |
MHV |
LHV |
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G |
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VBB 2 Velocity Low Gain Engin. mode |
15 |
Transmitted raw data |
L |
V |
HLV |
BLV |
MLV |
LLV |
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G |
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VBB 2 Position High Gain Science mode |
00 |
Transmitted raw data |
M |
V |
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LMV |
VMV |
UMV |
RMV |
G |
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VBB 2 Position Low Gain Science mode |
05 |
Transmitted raw data |
M |
V |
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LMV |
VMV |
UMV |
RMV |
G |
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VBB 2 Position High Gain Engin. mode |
10 |
Transmitted raw data |
M |
V |
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LMV |
VMV |
UMV |
RMV |
G |
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VBB 2 Position Low Gain Engin. mode |
15 |
Transmitted raw data |
M |
V |
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LMV |
VMV |
UMV |
RMV |
G |
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VBB 2 Temperature |
00 |
Transmitted raw data |
K |
V |
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LKV |
VKV |
UKV |
RKV |
H |
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VBB 3 Velocity High Gain Science mode |
00 |
Transmitted raw data |
H |
W |
HHW |
BHW |
MHW |
LHW |
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G |
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VBB 3 Velocity Low Gain Science mode |
05 |
Transmitted raw data |
L |
W |
HLW |
BLW |
MLW |
LLW |
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G |
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VBB 3 Velocity High Gain Engin. mode |
10 |
Transmitted raw data |
H |
W |
HHW |
BHW |
MHW |
LHW |
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G |
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VBB 3 Velocity Low Gain Engin. mode |
15 |
Transmitted raw data |
L |
W |
HLW |
BLW |
MLW |
LLW |
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G |
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VBB 3 Position High Gain Science mode |
00 |
Transmitted raw data |
M |
W |
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LMW |
VMW |
UMW |
RMW |
G |
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VBB 3 Position Low Gain Science mode |
05 |
Transmitted raw data |
M |
W |
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LMW |
VMW |
UMW |
RMW |
G |
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VBB 3 Position High Gain Engin. mode |
10 |
Transmitted raw data |
M |
W |
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LMW |
VMW |
UMW |
RMW |
G |
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VBB 3 Position Low Gain Engin. mode |
15 |
Transmitted raw data |
M |
W |
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LMW |
VMW |
UMW |
RMW |
G |
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VBB 3 Temperature |
00 |
Transmitted raw data |
K |
W |
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LKW |
VKW |
UKW |
RKW |
H |
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Scientific Temperature A |
00 |
Transmitted raw data |
K |
I |
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LKI |
VKI |
UKI |
RKI |
H |
Inside Thermal blanket
temperature is State of Health channel. |
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Scientific Temperature B |
05 |
Transmitted raw data |
K |
I |
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LKI |
VKI |
UKI |
RKI |
H |
Inside Thermal blanket
temperature is State of Health channel. |
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APSS Channels |
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Baseline |
Inst. Code |
Orien. Code |
100 Hz |
10-80Hz |
2-5Hz |
1Hz |
0,1-0,5 Hz |
0,01-0,05 |
<0,01 |
first channel flag |
Comments |
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Wind Horizontal Speed - sensor 1 |
10 |
Computed on Earth (CAB) |
W |
S |
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LWS |
VWS |
UWS |
RWS |
W |
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Wind Vertical Speed - sensor 1 |
15 |
Computed on Earth (CAB) |
W |
S |
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LWS |
VWS |
UWS |
RWS |
W |
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Wind Direction - sensor 1 |
10 |
Computed on Earth (CAB) |
W |
D |
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LWD |
VWD |
UWD |
RWD |
W |
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Atmosphere Temperature - sensor 1 |
10 |
Computed on Earth (CAB) |
K |
O |
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LKO |
VKO |
UKO |
RKO |
W |
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Wind Horizontal Speed - sensor 2 |
20 |
Computed on Earth (CAB) |
W |
S |
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LWS |
VWS |
UWS |
RWS |
W |
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Wind Vertical Speed - sensor 2 |
25 |
Computed on Earth (CAB) |
W |
S |
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LWS |
VWS |
UWS |
RWS |
W |
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Wind Direction - sensor 2 |
20 |
Computed on Earth (CAB) |
W |
D |
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LWD |
VWD |
UWD |
RWD |
W |
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Atmosphere Temperature - sensor 2 |
20 |
Computed on Earth (CAB) |
K |
O |
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LKO |
VKO |
UKO |
RKO |
W |
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Wind Horizontal Speed - Composite |
30 |
Computed on Earth (CAB) |
W |
S |
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LWS |
VWS |
UWS |
RWS |
W |
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Wind Vertical Speed - Composite |
35 |
Computed on Earth (CAB) |
W |
S |
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LWS |
VWS |
UWS |
RWS |
W |
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Wind Direction - Composite |
30 |
Computed on Earth (CAB) |
W |
D |
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LWD |
VWD |
UWD |
RWD |
W |
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Atmosphere Temperature - Composite |
30 |
Computed on Earth (CAB) |
K |
O |
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LKO |
VKO |
UKO |
RKO |
W |
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Pressure (Outside) |
10 |
Computed on Earth (CAB) |
D |
O |
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BDO |
MDO |
LDO |
VDO |
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W |
A comment blockette will be added to explain how this data is generated |
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Pressure Sensor Temperature (Inside) |
20 |
Computed on Earth (CAB) |
K |
I |
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BKI |
MKI |
LKI |
VKI |
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H |
is linearly interpolated from raw
Temperature acquisition rate to the raw pressure acquisition rate |
Pressure (Outside) |
00 |
Transmitted raw data |
D |
O |
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BDO |
MDO |
LDO |
VDO |
UDO |
RDO |
W |
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Pressure Sensor Temperature (Inside) |
10 |
Transmitted raw data |
K |
I |
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BKI |
MKI |
LKI |
VKI |
UKI |
RKI |
H |
Only one channel |
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Magnetomer1 |
00 |
Transmitted raw data |
F |
1 |
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BF1 |
MF1 |
LF1 |
VF1 |
UF1 |
RF1 |
G |
Magnetometer is a three axis
orthogonal instrument and will be not ZNE oriented |
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Magnetomer2 |
00 |
Transmitted raw data |
F |
2 |
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BF2 |
MF2 |
LF2 |
VF2 |
UF2 |
RF2 |
G |
Magnetometer is a three axis
orthogonal instrument and will be not ZNE oriented |
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Magnetomer3 |
00 |
Transmitted raw data |
F |
3 |
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BF3 |
MF3 |
LF3 |
VF3 |
UF3 |
RF3 |
G |
Magnetometer is a three axis
orthogonal instrument and will be not ZNE oriented |
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Magnetometer temperature |
00 |
Transmitted raw data |
K |
M |
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BKM |
MKM |
LKM |
VKM |
UKM |
RKM |
H |
mnemonic "M" for magnetometer |
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S/C power voltage |
80 |
Transmitted raw data |
E |
V |
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LEV |
VEV |
UEV |
REV |
H |
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SP Seismometer Channels |
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SP1 (High Gain) |
65 |
Transmitted raw data |
H |
U |
EHU |
SHU |
MHU |
LHU |
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G |
SP are three almost, but not exactly, orthogonal sensors with known
orientation |
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SP2 (High Gain) |
65 |
Transmitted raw data |
H |
V |
EHV |
SHV |
MHV |
LHV |
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G |
100 sps for E, but SP event could be downsampled to 50 sps (S) |
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SP3 High Gain) |
65 |
Transmitted raw data |
H |
W |
EHW |
SHW |
MHW |
LHW |
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G |
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SP1 ( Low Gain) |
70 |
Transmitted raw data |
H |
U |
EHU |
SHU |
MHU |
LHU |
VHU |
UHU |
RHU |
G |
SP are three almost, but not exactly, orthogonal sensors with known
orientation |
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SP2 (Low Gain) |
70 |
Transmitted raw data |
H |
V |
EHV |
SHV |
MHV |
LHV |
VHV |
UHV |
RHV |
G |
100 sps for E, but SP event could be downsampled to 50 sps (S) |
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SP3 (Low Gain) |
70 |
Transmitted raw data |
H |
W |
EHW |
SHW |
MHW |
LHW |
VHW |
UHW |
RHW |
G |
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SEIS Software Synthesized Data |
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SEISVELZ |
55 |
Transmitted processed data |
Z |
C |
HZC |
BZC |
MZC |
LZC |
VZC |
UZC |
RZC |
S |
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SPZ |
75 |
Transmitted processed data |
Z |
C |
EZC |
SZC |
MZC |
LZC |
VZC |
UZC |
RZC |
S |
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VBBR |
80 |
N/A |
Z |
C |
HZC |
BZC |
MZC |
LZC |
VZC |
UZC |
RZC |
S |
Not transmitted as such but as the replacement of a VBB channel U,V,W |
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SPR |
20 |
N/A |
Z |
C |
HZC |
BZC |
MZC |
LZC |
VZC |
UZC |
RZC |
S |
Not transmitted as such but as replacement of the SP channel U,V,W |
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ESTAVBB |
40 |
Transmitted processed data |
H |
Z |
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LHZ |
VHZ |
UHZ |
RHZ |
S |
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MAXVBB |
45 |
Transmitted processed data |
Y |
Z |
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LYZ |
VYZ |
UYZ |
RYZ |
S |
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ESTASP |
85 |
Transmitted processed data |
L |
Z |
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LLZ |
VLZ |
ULZ |
RLZ |
S |
Use Z though, even after leveling of the platform, this component will
not be exactly vertical, |
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MAXSP |
90 |
Transmitted processed data |
Y |
Z |
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LYZ |
VYZ |
UYZ |
RYZ |
S |
Use Z though, even after leveling of the platform, this component will
not be exactly vertical, |
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MAGZ |
20 |
Transmitted processed data |
F |
R |
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BFR |
MFR |
LFR |
VFR |
UFR |
RFR |
S |
with a departure of about 0.1°. The exact value may be written as a
comment in the header. |
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ESTAP1 |
50 |
Transmitted processed data |
D |
O |
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LDO |
VDO |
UDO |
RDO |
S |
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ESTAP2 |
60 |
Transmitted processed data |
D |
O |
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LDO |
VDO |
UDO |
RDO |
S |
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MAXP1 |
70 |
Transmitted processed data |
Y |
O |
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LYO |
VYO |
UYO |
RYO |
S |
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MAXP2 |
80 |
Transmitted processed data |
Y |
O |
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LYO |
VYO |
UYO |
RYO |
S |
|
ESTAM |
30 |
Transmitted processed data |
F |
A |
|
|
|
LFA |
VFA |
UFA |
RFA |
S |
Magnetometer is a three axis
orthogonal instrument and will be not ZNE oriented |
|
MAXM |
40 |
Transmitted processed data |
Y |
A |
|
|
|
LYA |
VYA |
UYA |
RYA |
S |
Magnetometer is a three axis
orthogonal instrument and will be not ZNE oriented |
|
Ancillary Data |
|
E-0771 SABC_1_SAPS_CURRENT |
80 |
Engineering format |
E |
A |
|
VEA |
UEA |
|
H |
Current from hard-tied string of the +Y / East Solar Array |
|
E-0791 SABC_2_SAPS_CURRENT |
81 |
Engineering format |
E |
A |
|
VEA |
UEA |
|
H |
Current from hard-tied string of the -Y / West Solar Array |
|
E-0772
AAC_PDDU_OFC_08_CHAN_12 |
82 |
Engineering format |
E |
A |
|
VEA |
UEA |
|
H |
Total current from
the arrays minus the portion from the hard-tied strings (however currents
from both wings are mixed in these parameters) |
|
E-0792 AAC_PDDU_OFC_09_CHAN_12 |
83 |
Engineering format |
E |
A |
|
VEA |
UEA |
|
H |
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|