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Changes for page ANU Seismic Data Loggers

Last modified by Jack Dent on 2026/06/03 09:42
From version 74.1
edited by Jack Dent
on 2026/06/03 09:41
Change comment: There is no comment for this version
To version 41.1
edited by robert
on 2025/03/03 18:19
Change comment: There is no comment for this version

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2 2  (((
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8 -(((
9 9  ANU has designed and built three generations of seismic data recorders, two of which (the small yellow TerraSAWR and the larger beige LPR-200) are still in use today. Despite their contrasting appearance, they both use the same software, data cards, and have the same instrument response.
10 10  )))
11 -)))
12 12  
13 -= Power Considerations =
14 -
15 -Both the LPR-200 (or "Low Power Recorder" 200) and TerraSAWR are designed to use as little power as possible.
16 -
17 -At 100 Hz and with a GPS cable connected these loggers draw about 220 mW of power once the screen is off (higher sample rates draw more power but only marginally, < 5 mW). Adding a sensor (e.g. a Trillium Compact 120) increases this to approximately 400 mW, or 0.4 volt-amps. So, in theory 7 Ah battery should last about 10 days without a solar panel, but in practice it seems to be a bit closer to 8 which may be due to variability in power drain while in getting GPS locks.
18 -
19 -For very sunny environments (latitudes < 30) a 20 Volt, 10 Watt solar panel should have no issue keeping these loggers alive over the summer months, and assuming unobstructed skies, should also be fine over winter. **However** when possible a 20 Watt panel works best, especially as they usually cost only $10-20 more these days.
20 -
21 -Measurements of a 20 Watt panel in the Canberra (Aus) area show that in full sun, roughly 0.75 amps are put out. As the LPR-200 and TSAWR loggers step down the solar voltage to 12v, a 20 Watt solar panel realistically provides 9 Watts to a seismic station. Theoretically, 1 hour and 9 minutes of sun per day should keep the battery charge stable. However, in practice, 1 hour and 30 minutes of full sunlight for a 20 Watt solar panel is required to keep these stations at a stable charge (this was tested over a 5 day period under Canberra sun in spring)
22 -
23 -**Note**: It is important to understand 2 main limitations of the solar component of these seismic stations. First, the voltage output of most solar panels will drop significantly if even a small portion of the panel is shaded. This is why 'full' sun is a requirement. Second, 1 hour and 30 minutes of full sun per day will not always be achieved. The sunniest possible location for a seismic station is always ideal.
24 -
25 -40 Watt panels can also be used, and may be needed for extreme climates, or areas without a full sky view. 60 Watt panels have also been known to work, but this is now reaching the the limit of what the loggers can reasonably handle for extended periods and are not recommended for long term deploys.
26 -
27 -(% class="box infomessage" %)
28 -(((
29 -Power issues are easy and cheap to solve relative to the cost of your experiment, don't skimp!
30 -)))
31 -
32 -(% class="wikigeneratedid" %)
33 -In the case of an LPR, there is a large compartment for housing an internal battery, able to accommodate anything from a 10-30Ah battery. To use a standard lead acid battery with a positive and negative terminal, a 6 pin adaptor must be used. This ensures the voltage from the external power port (pins A and C) connect to the battery and ensure the system actually recharges. (See [[Peripheral Equipment>>doc:Instrumentation.Peripheral Equipment.WebHome]] for a more comprehensive overview of this kind of setup)
34 -
35 -= GPS Considerations =
36 -
37 -GPS is required for the data to have accurate timestamps. A standard 3-5V 1575.42 Mhz coaxial "dongle" antenna works fine and can be found for relatively cheap (e.g. [[https:~~/~~/www.elecbee.com/en-3555-gps-antenna-bnc-male-for-garmin-gps-120120xl125-sounder-with-cable-2m) >>https://www.elecbee.com/en-3555-gps-antenna-bnc-male-for-garmin-gps-120120xl125-sounder-with-cable-2m]]. Anything that locates satellites and gives you a GPS-synced time works!
38 -
39 -The TerraSAWR has a built-in GPS but this doesn't work as well, especially if the logger is (wisely) buried. **The LPR does NOT have a built-in GPS antenna, so an external antenna is mandatory.**
40 -
41 -In a pinch, a severed or broken antenna can be mended back together relatively easily by non-experts. Even stripping the wire and twisting it back together by hand on site is possible!
42 -
43 43  = Data Card Formatting and Information =
44 44  
45 -Both the TerraSAWR and LPR-200 require SD Cards to be formatted in FAT32 filesystem. For 64Gb cards it can be difficult to format in FAT32, but [[software >>http://auspass.edu.au/field/fat32cardformatter.exe]]is available. ANU recommend SanDisk Extreme 150 mb/s cards in either 32 or 64Gb size. We strongly discourage using cards larger than 64Gb, and in general smaller cards are less likely to fail. We have also found that "adapter" cards (e.g. SD to microSD) are prone to having write issues and **strongly** advise against them.
8 +Both the TerraSAWR and LPR-200 require SD Cards to be formatted in FAT32 filesystem. For 64Gb cards it can be difficult to format in FAT32, but [[software >>url:http://auspass.edu.au/field/fat32cardformatter.exe]]is available. ANU recommend SanDisk Extreme 150 mb/s cards in either 32 or 64Gb size. We strongly discourage using cards larger than 64Gb, and in general smaller cards are less likely to fail. We have also found that "adapter" cards (e.g. SD to microSD) are prone to having write issues and **strongly** advise against them.
46 46  
47 -The loggers can be "pre-programmed" with information (e.g. site name, sampling rate, etc) or they can be programmed in the field using the buttons on the logger. To pre-program the cards you simply edit a text file (named "[[ANUSRSetup.txt>>http://auspass.edu.au/field/ANUSRSetup.txt]]" for the LPRs, or "[[tSAWRSetup.txt>>http://auspass.edu.au/field/tSAWRSetup.txt]]" for the TerraSAWRs) and place it in the root directory on the SDCard. When the logger boots up, it will parse and load this information.
10 +The loggers can be "pre-programmed" with information (e.g. site name, sampling rate, etc) or they can be programmed in the field using the buttons on the logger. To pre-program the cards you simply edit a text file (named "[[ANUSRSetup.txt>>url:http://auspass.edu.au/field/ANUSRSetup.txt]]" for the LPRs, or "[[tSAWRSetup.txt>>url:http://auspass.edu.au/field/tSAWRSetup.txt]]" for the TerraSAWRs) and place it in the root directory on the SDCard. When the logger boots up, it will parse and load this information.
48 48  
49 -(% class="wikigeneratedid" id="HTheformatforANUSRSetup.txt2FLPR200swillbeasinglelineoftextthatlookslikethis:" %)
50 -The format for ANUSRSetup.txt / LPR200s will be a single line of text that looks like this:
12 +=== The format for ANUSRSetup.txt / LPR200s will be a single line of text that looks like this: ===
51 51  
52 52  {{{XXX195G0100010034864 2 }}}
53 53  
54 -//corresponding to//
16 +corresponding to site XXX19,
17 + network 5G,
18 + sample rate 0100, (i.e. 100 Hz)
19 + "gps interval" 01 (once per hour~-~- don't change),
20 + start mode (always 0),
21 + stop mode (always 0),
22 + seismometer type (3 = broadband (+/- 20V), 2 = Guralp (+/- 10V), 1 = shortperiod (+/- 5V),
23 + and seismometer serial number (4864).
55 55  
56 - site **XXX19**,
57 - network **5G**,
58 - sample rate **0100**, (i.e. 100 Hz)
59 - "gps interval" **01** (once per hour~-~- don't change),
60 - start mode (always **0**),
61 - stop mode (always **0**),
62 - seismometer type (**3** = broadband (+/- 20V), 2 = Guralp (+/- 10V), 1 = shortperiod (+/- 5V),
63 - and seismometer serial number (**4864**).
64 -
65 65  (% class="box warningmessage" %)
66 66  (((
67 -NOTE: the 2 at the very end is for "RECORD ON RESTART". The record on restart option ensures that if the logger dies and is powered back up whilst in the field (due to battery charging cycles or other causes) that the recording will resume. (# of blank spaces before this doesn't matter)
27 +NOTE: the 2 at the very end is for "RECORD ON RESTART". The record on restart option ensures that if the logger dies and is powered back up whilst in the field (due to battery charging cycles or other causes) that the recording will resume. (# of blank spaces before this doesn't matter)
68 68  )))
69 69  
70 -(% class="wikigeneratedid" id="HTheformatforTSAWRloggersisshorter:" %)
71 -The format for TSAWR loggers is shorter:
30 +=== The format for TSAWR loggers is shorter: ===
72 72  
73 73  (% class="box errormessage" %)
74 74  (((
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87 87   and seismometer serial number (9999).
88 88  
89 89  
90 -(% class="wikigeneratedid" id="HTheformattingprocessusingthelogger:" %)
91 -The formatting process using the logger:
49 +=== The formatting process using the logger: ===
92 92  
93 93  The process for formatting an SD card within the logger is straightforward. Navigate to the "SD INFORMATION" screen and press ERASE SD CARD. This process may take up to a minute. This will result in erasing all files from the card. Upon starting recording, a new 'seed' will be written containing all the information that the logger has been set with FINISH THIS SECTION
94 94  
95 -[[image:original_0747763c-e3dd-4667-b897-833f12c8e0b8_20241219_130604.jpg||height="240" width="298"]]
53 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/original_0747763c-e3dd-4667-b897-833f12c8e0b8_20241219_130604.jpg?width=298&height=240&rev=1.1||alt="original_0747763c-e3dd-4667-b897-833f12c8e0b8_20241219_130604.jpg" height="240" width="298"]]
96 96  
97 97  Here is a general guideline for how much data you can expect to fit on a card:
98 98  
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100 100   32Gb card: 122 days @ 250hz or 305 days @ 100hz
101 101  }}}
102 102  
103 -== Default Settings ==
104 104  
105 -As of 2025, the default settings for both LPR (v. 2.7) and TSWAR (v 3.6a) loggers are below. If you're using a broadband instrument, you are essentially good to go without having to program the cards.
106 -
107 -* XX.ANUSR network and station name
108 -* 100 Hz Sample Rate
109 -* 40 Vpp (or +/- 20 V) gain / Trillium Compact seismometer version
110 -* Record on Restart enabled
111 -
112 -Note that if a user sets the gain incorrectly, this can be fixed later (assuming nothing clipped) by multiplying or dividing by factors of 2. The gain setting can be looked up from the logfile, else you may have to guess from a PSD or other method.
113 -
114 114  = Logger Menus Overview (and setup) =
115 115  
116 116  The same menus are used in both the TSAWR and LPR-200 loggers.
... ... @@ -121,27 +121,40 @@
121 121  
122 122  This menu also displays the firmware version, battery, external, and solar voltages, and the temperature of the system.
123 123  
124 -* Check that all //Initialisation Parameters// are marked as successful.
125 -* Check that solar voltage is above 10 V in the software, or preferrably physically check that the battery's voltage is increasing via a DMM.
72 +==== Upon setup ====
126 126  
74 +- Check all Initialisation Parameters are marked as successful.
75 +
76 +- Check that solar voltage is above 10 V, otherwise the station will not last long.
77 +
78 +
127 127  == Live Seismometer Data ==
128 128  
129 129  This screen displays real time seismometer data for all 3 axes of the seismometer. Initially, a plot of raw data from all 3 channels is shown. By pressing enter, a high pass filter can be applied showing a more useful plot of all channels. The up and down arrows can be used to change between a view of all channels, individual channels, and all channels on different X axes.
130 130  
131 -* Check that all 3 channels are present and are producing a signal.
132 -* Stomp on the ground near where the sensor is installed to check that a signal is being picked up by all 3 channels.
133 -* Common representations of poor signals include channels sloping smoothly from high values to zero, or sharp corners in the plots.
83 +==== Upon setup ====
134 134  
85 +- Check that all 3 channels are present and are producing a signal.
86 +
87 +- Stomp on the ground near where the sensor is installed to check that a signal is being picked up by all 3 channels.
88 +
89 +- Common representations of poor signals include channels sloping smoothly from high values to zero, or sharp corners in the plots.
90 +
91 +
135 135  == GPS Data ==
136 136  
137 137  This menu displays the status of the stations' GPS connection. The screen lists; UTC time, UTC date, latitude, longitude, altitude, number of satellite connections, and SNR.
138 138  
139 -* Check that the station is connected to satellites. 3 or more should be perfectly adequate to keep time.
96 +==== Upon setup ====
140 140  
98 +- Check that the station is connected to satellites
99 +
100 +
141 141  == SD Information ==
142 142  
143 143  The menu lists if the SD card has been initialised, as well as the capacity and space free on the memory card. See "Data card formatting" (above) to see how to format and initialise the inserted SD card.
144 144  
105 +
145 145  == System Configuration ==
146 146  
147 147  This menu is used to set the stations identifiers and parameters.
... ... @@ -154,114 +154,89 @@
154 154  
155 155  The seismometer model and serial number (up to 10 characters) can be set. Seismometer model options include:
156 156  
157 -* Trillium Compact (same for 20s and 120s models)
158 -* CMG - 3ESP
159 -* Guralp 40T
160 -* LE-3D Lite
161 -* Mark L4C
162 -* Mark L4
118 +- Trillium Compact
163 163  
120 +- CMG - 3ESP
121 +
122 +- Guralp 40T
123 +
124 +- LE-3D Lite
125 +
126 +- Mark L4C
127 +
128 +- Mark L4
129 +
164 164  Additionally, the following settings can be used in place of the seismometer model types: +/- 20V, +/- 10V, +/- 5V
165 165  
166 166  The record on restart option ensures that if the logger dies and is powered back up whilst in the field (due to battery charging cycles or other causes) that the recording will resume.
167 167  
168 -* Set the sampling rate, station identifier, and network code. Set the appropriate seismometer type. Most importantly, ensure the record on restart setting is checked.
134 +==== Upon setup ====
169 169  
136 +- Set the sampling rate, station identifier, and network code. Set the appropriate seismometer type. Most importantly, ensure the record on restart setting is checked.
137 +
170 170  (% class="box errormessage" %)
171 171  (((
172 -Again, ensure the 'RECORD ON RESTART' option is marked with a cross (the default setting). This ensures that the logger will record any time it receives enough power!
140 +NOTE: Ensure the 'RECORD ON RESTART' option is marked with a cross.
173 173  )))
174 174  
175 175  (% class="wikigeneratedid" %)
176 -[[image:original_2b83fcf5-ee5a-4375-bab1-2d738e4ffe8c_20241219_130646.jpg||height="234" width="289"]]
144 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/original_2b83fcf5-ee5a-4375-bab1-2d738e4ffe8c_20241219_130646.jpg?width=289&height=234&rev=1.1||alt="original_2b83fcf5-ee5a-4375-bab1-2d738e4ffe8c_20241219_130646.jpg" height="234" width="289"]]
177 177  
178 178  == STA/LTA Configuration ==
179 179  
180 -The Short Term Average and Long Term Average Configuration screen.. this is a relic for when people weren't recording continuously. Not advised!
148 +The Short Term Average and Long Term Average Configuration screen is no longer used.
181 181  
150 +
182 182  = LogFile Conversion Script =
183 183  
184 -Both the TSAWR and LPR-200 write logging information as a binary "dat" file which includes GPS time syncs, temperatures, battery power, and position. To convert them into ASCII you can read, use [[THIS PYTHON SCRIPT>>http://auspass.edu.au/field/anusr_log.py]] (current version: 1.42, 02/2026).
153 +Both the TSAWR and LPR-200 write logging information as a binary "dat" file which includes GPS time syncs, temperatures, battery power, and position. To convert them into ASCII you can read, use [[THIS PYTHON SCRIPT>>url:http://auspass.edu.au/field/anusr_log.py]].
185 185  
155 +
186 186  = Instrument Response =
187 187  
188 -Both the TerraSAWR and LPR-200 use the same ADS1281 analog-to-digital converter chip and are designed to have identical instrument response. The ADC (analog to digital) chip in both loggers originally samples at 1024000 Hz and downsamples towards the output data rate via a 5th order SINC filter, then another four FIR filters. If the output is below 250 Hz, a final "pure" /5 decimation is done without any sort of FIR filter (for better or worse!).
158 +Both the TerraSAWR and LPR-200 use the same ADS1281 analog-to-digital converter chip and are designed to have identical instrument response. Depending on the output sample rate (e.g. 100 Hz, 250 Hz, 500 Hz, 1000 Hz) amplitude response is consistently flat up to ~~100 Hz but phase response can vary above 1 Hz at 100 Hz (or 10 Hz at 250 Hz).
189 189  
190 -In the logger's menu, the user can choose to apply a 2nd stage "sensor gain" by selecting an instrument type in the setup menu. This effectively selects a 10 Vpp (e.g. short period sensors), 20 Vpp, 40 Vpp (most broadband sensors) regime to match the sensor's sensitivity. This has the effect of doubling amplitude from 10v to 20v, or quadrupling from 10v to 40v. If you have set your sensor correctly (and the signal isn't clipped!) you can "correct" this by simply multiplying your data by 0.5 etc. This gain manifests itself in stage 2 in the response information.
160 +The user can choose to apply a 2nd stage "sensor gain" by selecting an instrument type in the setup menu. This effectively selects a 10 Vpp (e.g. short period sensors), 20 Vpp, 40 Vpp (most broadband sensors) regime to match the sensor's sensitivity. This has the effect of doubling amplitude from 10v to 20v, or quadrupling from 10v to 40v. If you have set your sensor correctly (and the signal isn't clipped!) you can "correct" this by simply multiplying your data by 0.5 etc.
191 191  
192 -//(The 600+ Stage 3 SINC coefficients during the initial 1024k > 16k decimation were left off as they slowed down the process x10 and contribute at most 0.3 db amplitude and 0.31 ms phase delay discrepancies, and primarily only to frequencies near the nyquist. If for some reason you want to add this phase manually we can share the parameters with you.)//
162 +Another important thing to note is that the group delay associated with late stage FIR filters is **automatically applied in the logger**, hence there is no need to apply this in the response. These tend to max out at 0.124 seconds for most output sampling rates (0.062 s for 100 Hz).
193 193  
194 -You might notice that the response information may come in two versions. The response from our website (see link below) includes the 2nd "sensor gain" stage for clarity. e.g. here is a Trillium Compact 120 & ANU Logger response
164 +Instrument response can be downloaded from IRIS-NRL (v2) if need be, or by downloading the response of an equivalent sensor at AusPass (e.g. get_stations(level='response') )
195 195  
196 -##Channel Response
197 - From M/S (Velocity) to COUNTS ()
198 - Overall Sensitivity: 3.95452e+08 defined at 1.000 Hz
199 - 8 stages:
200 - Stage 1: PolesZerosResponseStage from M/S to V, gain: 754.3
201 - Stage 2: ResponseStage from V to V, gain: 0.25
202 - Stage 3: CoefficientsTypeResponseStage from V to COUNTS, gain: 2.09715e+06
203 - Stage 4: FIRResponseStage from COUNTS to COUNTS, gain: 1
204 - Stage 5: FIRResponseStage from COUNTS to COUNTS, gain: 1
205 - Stage 6: FIRResponseStage from COUNTS to COUNTS, gain: 0.99998
206 - Stage 7: FIRResponseStage from COUNTS to COUNTS, gain: 1##
207 207  
167 += ANU TerraSAWR (Gen 3, FW 3.5a, 2017?- current) =
208 208  
209 -However, if retrieving from AusPass or IRIS, the 2nd "sensor gain" stage is combined with the logger gain. This has no affect, but you may detect that the former Stage 2 V->V ResponseStage has been merged into the Stage 3 gain.
169 +Text here
210 210  
211 -##Channel Response
212 - From M/S (Velocity) to COUNTS ()
213 - Overall Sensitivity: 3.9546e+08 defined at 1.000 Hz
214 - 6 stages:
215 - Stage 1: PolesZerosResponseStage from M/S to V, gain: 754.3
216 - Stage 2: CoefficientsTypeResponseStage from V to COUNTS, gain: 524288
217 - Stage 3: FIRResponseStage from COUNTS to COUNTS, gain: 1
218 - Stage 4: FIRResponseStage from COUNTS to COUNTS, gain: 1
219 - Stage 5: FIRResponseStage from COUNTS to COUNTS, gain: 0.99998
220 - Stage 6: FIRResponseStage from COUNTS to COUNTS, gain: 1##
171 +== Sub-paragraph ==
221 221  
173 +XXXX
222 222  
223 -For the most part, the data logger response essentially flat when the samplerate output is set to 100 Hz or less and for seismological purposes is likely to be impossible to detect below 20 Hz regardless.
175 +== Sub-paragraph ==
224 224  
225 -Instrument response can be downloaded from IRIS [[Nominal Response Library>>https://ds.iris.edu/ds/nrl/datalogger/anurses]] if need be, or [[directly from us>>http://auspass.edu.au/data/logger_response]] , or by downloading the response of an equivalent sensor at AusPass (e.g. get_stations(level='response') ).
177 +xx
226 226  
227 227  
228 -[[Amplitude and phase response for ANU logger at 50 Hz>>image:ANU_50hz_response.png||data-xwiki-image-style-alignment="center" height="356" width="475"]]
229 229  
230 -[[Amplitude and phase response for ANU logger at 100 Hz>>image:ANU_100hz_response.png||data-xwiki-image-style-alignment="center" height="355" width="473"]]
231 231  
232 -[[Amplitude and phase response for ANU logger at 250 Hz>>image:ANU_250hz_response.png||data-xwiki-image-style-alignment="center" height="359" width="479"]]
182 += ANU LPR-200 (Gen 2, FW 2.6a/2.7a, 2013 - current) =
233 233  
234 -[[Amplitude and phase response for ANU logger at 1000 Hz>>image:ANU_1000hz_response.png||data-xwiki-image-style-alignment="center" height="367" width="489"]]
184 +Text here
235 235  
186 +== Sub-paragraph ==
236 236  
237 -[[Huddle test comparing a Trillium Compact 120 + TerraSAWR vs a Trillium Compact 120 + Nanometrics Centaur (M8.AUANU) at 100 Hz>>image:TC120_ANU_vs_CENTAUR.png||data-xwiki-image-style-alignment="center"]]
188 +x
238 238  
239 -= ANU TerraSAWR (Gen 3, FW 3.5a, 2014- current) =
240 240  
241 -Earliest known model is dated July 2014 (though first deployed in 2019) and our current flagship model. Lightweight and small.
242 242  
243 -= ANU LPR-200 (Gen 2, FW 2.6a/2.7a, 2011 - current) =
192 += ANU "ANUSR" (Gen 1, 2003? - 2013?) =
244 244  
245 -Earliest known model is dated May 2011 (but first deployed November 2012) and still in use today. Potentially capable of housing much larger batteries than the TSAWR due to the larger cavity space.
194 +x
246 246  
247 -We have found that the older LPR SD card slots can sometimes fail such that the data cards prematurely "pop out" during recording, which can be catastrophic. This seems to mostly occur in periods of hot weather, but not always. We have developed a small add-on that screws into the nearby serial port that effectively holds the cards in place and will ship included with these loggers. Screw the device in firmly, then **gently** slide over a pre-inserted card until it is flush with the top of the card. It probably won't slide over all the way and that's by design. Take care not to force the depress the card inadvertently (although testing has shown it will still record).
248 -
249 - [[image:LPR_card_adaptors.jpg||alt="image of the LPR SD-card adapter"]]
250 -
251 -= ANU "ANUSR" (Gen 1, 2003? - 2012) =
252 -
253 -This logger has been retired for a long time and has a different instrument response. It used modular component boards and was powered via an acrylic case of 6 x 6V lantern batteries. There is a somewhat complete one above the CAT lab door if anyone is so inclined to have a look.
254 -
255 -
256 256  = References =
257 257  
258 -* [[PDF Manual>>http://auspass.edu.au/field/LPR-200_Instruction_Manual.pdf]]
198 +* [[PDF Manual>>url:http://auspass.edu.au/field/LPR-200_Instruction_Manual.pdf]]
199 +~)~)~)
259 259  
260 -[[TSAWR & LPR-200 sensor pinout>>image:ANU_seismometer_connection.png]]
261 -
262 -
263 -)))
264 -
265 265  (% class="col-xs-12 col-sm-4" %)
266 266  (((
267 267  (% class="box" %)
... ... @@ -268,62 +268,61 @@
268 268  (((
269 269  **Contents**
270 270  
271 -{{toc/}}
207 +(% class="wikitoc" %)
208 +* [[Data Card Formatting and Information>>path:#HDataCardFormattingandInformation]]
209 +**
210 +*** [[The format for ANUSRSetup.txt / LPR200s will be a single line of text that looks like this:>>path:#HTheformatforANUSRSetup.txt2FLPR200swillbeasinglelineoftextthatlookslikethis:]]
211 +*** [[The format for TSAWR loggers is shorter:>>path:#HTheformatforTSAWRloggersisshorter:]]
212 +*** [[The formatting process using the logger:>>path:#HTheformattingprocessusingthelogger:]]
213 +* [[Logger Menus Overview (and setup)>>path:#HLoggerMenusOverview28andsetup29]]
214 +** [[System Information>>path:#HSystemInformation]]
215 +***
216 +**** [[Upon setup>>path:#HUponsetup]]
217 +** [[Live Seismometer Data>>path:#HLiveSeismometerData]]
218 +***
219 +**** [[Upon setup>>path:#HUponsetup-1]]
220 +** [[GPS Data>>path:#HGPSData]]
221 +***
222 +**** [[Upon setup>>path:#HUponsetup-2]]
223 +** [[SD Information>>path:#HSDInformation]]
224 +** [[System Configuration>>path:#HSystemConfiguration]]
225 +***
226 +**** [[Upon setup>>path:#HUponsetup-3]]
227 +** [[STA/LTA Configuration>>path:#HSTA2FLTAConfiguration]]
228 +* [[LogFile Conversion Script>>path:#HLogFileConversionScript]]
229 +* [[Instrument Response>>path:#HInstrumentResponse]]
230 +* [[ANU TerraSAWR (Gen 3, FW 3.5a, 2017?- current)>>path:#HANUTerraSAWR28Gen32CFW3.5a2C20173F-current29]]
231 +** [[Sub-paragraph>>path:#HSub-paragraph]]
232 +** [[Sub-paragraph>>path:#HSub-paragraph-1]]
233 +* [[ANU LPR-200 (Gen 2, FW 2.6a/2.7a, 2013 - current)>>path:#HANULPR-20028Gen22CFW2.6a2F2.7a2C2013-current29]]
234 +** [[Sub-paragraph>>path:#HSub-paragraph-2]]
235 +* [[ANU "ANUSR" (Gen 1, 2003? - 2013?)>>path:#HANU22ANUSR2228Gen12C20033F-20133F29]]
236 +* [[References>>path:#HReferences]]
237 +* [[TerraSAWR Specs>>path:#HTerraSAWRSpecs]]
238 +* [[LPR-200 Specs>>path:#HLPR-200Specs]]
272 272  )))
273 273  
274 274  
275 -
276 -
277 -
278 -
279 -
280 -
281 -
282 -
283 -
284 -
285 -
286 -
287 -
288 -
289 -
290 -
291 -
292 -
293 -
294 -
295 -
296 -
297 -
298 -
299 -
300 -
301 -
302 -
303 -
304 -
305 -
306 306  (% class="box" %)
307 307  (((
308 308  = TerraSAWR Specs =
309 309  
310 310  
311 -[[image:Terrasawr 1.jpg]]
247 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/Terrasawr%201.jpg?rev=1.1||alt="Terrasawr 1.jpg"]]
312 312  
313 -[[image:1704865206800-824.jpg]]
249 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/1704865206800-824.jpg?rev=1.1||alt="1704865206800-824.jpg"]]
314 314  
315 -[[image:1704864886951-793.jpg]]
251 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/1704864886951-793.jpg?rev=1.1||alt="1704864886951-793.jpg"]]
316 316  
317 317  |=Size (L x W x H)|30 x 25 x12cm
318 -|=Weight (with battery)| 1.9kg (2.5kg)
254 +|=Weight (with battery)| ~*~*1.9kg (2.5kg)
319 319  |=Battery|(((
320 -Lead-acid 12v, ~~7-9Ah
256 +Lead-acid 12v, ~~7Ah
321 321  
322 322  Rechargeable
323 323  )))
324 -|=Current Firmware|3.5a (Jan 2025)
325 325  
326 -[[image:terrasawr battery.jpg]]
261 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/terrasawr%20battery.jpg?rev=1.1||alt="terrasawr battery.jpg"]]
327 327  )))
328 328  
329 329  
... ... @@ -331,44 +331,22 @@
331 331  (((
332 332  = LPR-200 Specs =
333 333  
334 -[[image:LPR 1.jpg]]
269 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/LPR%201.jpg?rev=1.3||alt="LPR 1.jpg"]]
335 335  
336 -[[image:LPR 2.jpg]]
271 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/LPR%202.jpg?rev=1.3||alt="LPR 2.jpg"]]
337 337  
338 -[[image:LPR 3.jpg]]
273 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/LPR%203.jpg?rev=1.8||alt="LPR 3.jpg"]]
339 339  
340 340  |=Size (L x W x H)|42 x 34 x17 cm
341 -|=Weight (no battery)|5.5 kg
276 +|=Weight (with battery)|4.9 kg (7.3 kg)
342 342  |=Battery|(((
343 -NOW: Any 12v battery with tab connections that will fit (ex. the same TSAWR battery)
278 +LiFePo4 140Ah
344 344  
345 -DISCONTINUED: LiFePo4 140Ah Rechargeable (shown below).
280 +Rechargeable
346 346  )))
347 -|=Current Firmware|(((
348 -2.6a (old GPS modules) / 2.7a
349 349  
350 -Jan 2025
283 +[[image:/xwiki/bin/download/Instrumentation/ANU%20LPR-200/WebHome/LPR%20battery.jpg?rev=1.1||alt="LPR battery.jpg"]]
351 351  )))
352 -
353 -[[image:LPR battery.jpg]]
354 354  )))
355 -)))
356 356  
357 -
358 -
359 -
360 -
361 -
362 -
363 -
364 -
365 -
366 -
367 -
368 -
369 -
370 -
371 -
372 -
373 -
374 -)))
287 +~)~)~)
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