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Functional Modes

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SECTION 1. FUNCTIONAL MODES 1.1 DATALOGGER PROGRAMS - ∗1, ∗2, ∗3, AND ∗4 MODES Data acquisition and processing functions are controlled by user-entered instructions contained in program tables. Programming can be separated into 2 tables, each having its own user-entered execution interval. A third table is available for programming subroutines which may be called by instructions in Tables 1 or 2 or by a special interrupt. The ∗1 and ∗2 Modes are used to access Tables 1 and 2. The ∗3 Mode is used to access Subroutine Table 3. The ∗4 Mode Table is a table of values used in the program that someone can change while the rest of the program is protected. These values may be used for sensor calibrations or to select optional sensors. The ∗4 Table is only available when a special program created by EDLOG is loaded in the CR10X. When a program table is first entered, the display shows the table number in the ID field and 00 in the data field. Keying an "A" will advance the editor to the execution interval. If there is an existing program in the table, keying an instruction location number prior to "A" will advance directly to the instruction (e.g., 5 will advance to the fifth instruction in the table). 1.1.1 EXECUTION INTERVAL The execution interval is entered in units of seconds as follows: 1/64 ...1 seconds, in multiples of 1/64 (0.015625) 1 ......31.875 seconds, in multiples of 1/8 (0.125) 32 .....8191 seconds, in multiples of 1 second Execution of the table is repeated at the rate determined by this entry. The table will not be executed if 0 is entered. Entries less than 32 seconds will be rounded to a valid interval if they are within 1/512 (0.00195) second of a valid interval, otherwise error E41 will be displayed. Entries greater than 32 seconds are rounded to the nearest second. The sample rate for a CR10X measurement is the rate at which the measurement instruction can be executed (i.e., the measurement made, scaled with the instruction's multiplier and offset, and the result placed in Input Storage). Additional processing requires extra time. The throughput rate is the rate at which a measurement can be made and the resulting value stored in Final Storage. The maximum throughput rate for fast single-ended measurements with standard software is 192 measurements per second (12 measurements repeated 16 times per second). If the specified execution interval for a table is less than the time required to process that table, the CR10X finishes processing the table and waits for the next occurrence of the execution interval before again initiating the table (i.e., when the execution interval has elapsed and the table is still executing, that execution is skipped). Since no advantage is gained in the rate of execution with this situation, it should be avoided by specifying an execution interval adequate for the table processing time. NOTE: Whenever the processing time of the user's program exceeds a table's execution interval, an error is logged in memory. The number of overrun errors can be displayed and reset in the ∗B mode (Section 1.6) or using the Telecommunications A command (Section 5.1). An overrun will also cause decimal points to appear on both sides of the sixth digit of the CR10KD. The decimal points will not appear around the G in LOG if the ∗0 Mode is entered before the overrun occurs. In some cases, the processing time may exceed the execution interval only when the Output Flag is set and extra time is consumed by final Output Processing. This may be acceptable. For example, suppose it is desired to sample some phenomena every 0.125 seconds and output processed data every 10 minutes. The processing time of the table which does this is less than 0.125 seconds except when output occurs (every 10 minutes). With final output the processing time is 1 second. With the execution interval set at 0.125 seconds, and a one second lag between samples once every 10 minutes, 8 measurements out of 4800 (.17%) are missed: an acceptable statistical error for most populations. 1-1

Section	Page
Revision and Copyright Information	1
Warranty and Assistance	3
Table of Contents	5
SELECTED OPERATING DETAILS	11
CAUTIONARY NOTES	12
CR10X MEASUREMENT AND CONTROL MODULE OVERVIEW	13
OV1. PHYSICAL DESCRIPTION	13
OV1.1 WIRING PANEL	13
OV1.1.1 ANALOG INPUTS	16
OV1.1.2 EXCITATION OUTPUTS	16
OV1.1.3 PULSE INPUTS	16
OV1.1.4 DIGITAL I/O PORTS	16
OV1.1.5 ANALOG GROUND (AG)	16
OV1.1.7 5V OUTPUTS	16
OV1.1.8 SERIAL I/O	16
OV1.1.9 SWITCHED 12 VOLT	16
OV1.2 CONNECTING POWER TO THE CR10X	17
OV2. MEMORY AND PROGRAMMING CONCEPTS	17
OV2.1 INTERNAL MEMORY	17
OV2.2 PROGRAM TABLES, EXECUTION INTERVAL AND OUTPUT INTERVALS	19
OV2.2.1 THE EXECUTION INTERVAL	19
OV2.2.2. THE OUTPUT INTERVAL	20
OV2.3 CR10X INSTRUCTION TYPES	20
OV3. COMMUNICATING WITH CR10X	22
OV3.1 CR10X KEYBOARD/DISPLAY	22
OV3.1.1 FUNCTIONAL MODES	22
OV3.1.2 KEY DEFINITION	22
OV3.2 USING COMPUTER WITH DATALOGGER SUPPORT SOFTWARE	23
OV3.3 ASCII TERMINAL OR COMPUTER WITH TERMINAL EMULATOR	23
OV4. PROGRAMMING THE CR10X	23
OV4.1 PROGRAMMING SEQUENCE	24
OV4.2 INSTRUCTION FORMAT	24
OV4.3 ENTERING A PROGRAM	25
OV5. PROGRAMMING EXAMPLES	25
OV5.1 SAMPLE PROGRAM 1	26
OV5.2 SAMPLE PROGRAM 2	28
OV5.3 EDITING AN EXISTING PROGRAM	29
OV6. DATA STORAGE AND TRANSFER PERIPHERALS	31
OV6.1 ON-SITE OPTIONS	32
OV6.2 TELECOMMUNICATIONS OPTIONS	33
OV7. SPECIFICATIONS	35
SECTION 1. FUNCTIONAL MODES	37
1.1 DATALOGGER PROGRAMS - 1, 2, 3, AND 4 MODES	37
1.1.1 EXECUTION INTERVAL	37
1.1.2 SUBROUTINES	38
1.1.3 TABLE PRIORITY/INTERRUPTS	38
1.1.4 *4 PARAMETER ENTRY TABLE	38
ASSIGNING PARAMETERS TO *4 - EDLOG	38
CHANGING VALUES IN *4 TABLE	39
1.1.5 COMPILING A PROGRAM	39
1.2 SETTING AND DISPLAYING THE CLOCK - *5 MODE	40
1.3 DISPLAYING/ALTERING INPUT MEMORY, FLAGS, AND PORTS - *6 MODE	40
1.3.1 DISPLAYING AND ALTERING INPUT STORAGE	40
1.3.2 DISPLAYING AND TOGGLING USER FLAGS	41
1.3.3 DISPLAYING AND TOGGLING PORTS	41
1.4 COMPILING AND LOGGING DATA - *0 MODE	41
1.5 MEMORY ALLOCATION - *A	41
1.5.1 INTERNAL MEMORY	41
1.5.2 *A MODE	44
1.6 MEMORY TESTING AND SYSTEM STATUS - *B	45
1.7 *C MODE -- SECURITY	46
1.8 *D MODE -- SAVE OR LOAD PROGRAM	46
1.8.1 INTERNAL FLASH PROGRAM STORAGE	47
1.8.2 PROGRAM TRANSFER WITH STORAGE MODULE	48
1.8.3 FULL/HALF DUPLEX	48
1.8.4 SET DATALOGGER ID	48
1.8.5 SETTING POWERUP OPTIONS	48
1.8.6 SET INITIAL BAUD	49
1.8.7 SET PROGRAM COMPILE OPTION	49
SECTION 2. INTERNAL DATA STORAGE	51
2.1 FINAL STORAGE AREAS, OUTPUT ARRAYS, AND MEMORY POINTERS	51
2.2 DATA OUTPUT FORMAT AND RANGE LIMITS	53
2.2.1 RESOLUTION AND RANGE LIMITS	53
2.2.2 INPUT AND INTERMEDIATE STORAGE DATA FORMAT	53
2.3 DISPLAYING STORED DATA ON KEYBOARD/DISPLAY - *7 MODE	53
SECTION 3. INSTRUCTION SET BASICS	55
3.1 PARAMETER DATA TYPES	55
3.2 REPETITIONS	55
3.3 ENTERING NEGATIVE NUMBERS	55
3.4 INDEXING INPUT LOCATIONS AND CONTROL PORTS	55
3.5 VOLTAGE RANGE AND OVERRANGE DETECTION	56
3.6 OUTPUT PROCESSING	56
3.7 USE OF FLAGS: OUTPUT AND PROGRAM CONTROL	57
3.7.1 THE OUTPUT FLAG	57
3.7.2 THE INTERMEDIATE PROCESSING DISABLE FLAG	57
3.7.3 USER FLAGS	58
3.8 PROGRAM CONTROL LOGICAL CONSTRUCTIONS	58
3.8.1 IF THEN/ELSE COMPARISONS	58
3.8.2 NESTING	59
3.9 INSTRUCTION MEMORY AND EXECUTION TIME	59
3.10 ERROR CODES	63
SECTION 4. EXTERNAL STORAGE PERIPHERALS	65
4.1 ON-LINE DATA TRANSFER - INSTRUCTION 96	65
4.2 MANUALLY INITIATED DATA OUTPUT - *8 MODE	67
4.3 PRINTER OUTPUT FORMATS	67
4.3.1 PRINTABLE ASCII FORMAT	67
4.3.2 COMMA SEPARATED ASCII	68
4.4 STORAGE MODULE	68
4.4.1 STORAGE MODULE ADDRESSING	68
4.4.2 STORAGE MODULE USE WITH INSTRUCTION 96	69
4.4.3 *8 DUMP TO STORAGE MODULE	69
4.5 *9 MODE -- SM192/716 STORAGE MODULE COMMANDS	69
SECTION 5. TELECOMMUNICATIONS	71
5.1 TELECOMMUNICATIONS COMMANDS	71
5.2 REMOTE PROGRAMMING OF THE CR10X	75
SECTION 6. 9-PIN SERIAL INPUT/OUTPUT	77
6.1 PIN DESCRIPTION	77
6.2 ENABLING AND ADDRESSING PERIPHERALS	78
6.2.1 PIN-ENABLED PERIPHERALS	78
6.2.2 ADDRESSED PERIPHERALS	78
6.3 RING INTERRUPTS	79
6.4 INTERRUPTS DURING DATA TRANSFER	79
6.5 MODEM/TERMINAL PERIPHERALS	80
6.6 SYNCHRONOUS DEVICE COMMUNICATION	80
6.7 MODEM/TERMINAL AND COMPUTER REQUIREMENTS	81
6.7.1 SC32A INTERFACE TO COMPUTER	81
6.7.2 SC932 INTERFACE TO MODEMS	82
6.7.3 COMPUTER/TERMINAL REQUIREMENTS	82
6.7.3 COMMUNICATION PROTOCOL/TROUBLE SHOOTING	83
SECTION 7. MEASUREMENT PROGRAMMING EXAMPLES	85
7.1 SINGLE-ENDED VOLTAGE/ SWITCHED 12 V TERMINAL - CS500	85
7.2 DIFFERENTIAL VOLTAGE MEASUREMENT	87
7.3 THERMOCOUPLE TEMPERATURES USING THE OPTIONAL CR10TCR TO MEASURE THE REFERENCE TEMPERATURE	88
7.4 THERMOCOUPLE TEMPERATURES USING AN EXTERNAL REFERENCE JUNCTION	88
7.5 107 TEMPERATURE PROBE	89
7.6 207 TEMPERATURE AND RH PROBE	89
7.7 ANEMOMETER WITH PHOTOCHOPPER OUTPUT	90
7.8 TIPPING BUCKET RAIN GAGE WITH LONG LEADS	91
7.9 100 OHM PRT IN 4 WIRE HALF BRIDGE	91
7.10 100 OHM PRT IN 3 WIRE HALF BRIDGE	93
7.11 100 OHM PRT IN 4 WIRE FULL BRIDGE	94
7.12 PRESSURE TRANSDUCER - 4 WIRE FULL BRIDGE	95
7.13 LYSIMETER - 6 WIRE FULL BRIDGE	96
7.14 227 GYPSUM SOIL MOISTURE BLOCK	98
7.15 NONLINEAR THERMISTOR IN HALF BRIDGE (MODEL 101 PROBE)	99
7.16 WATER LEVEL - GEOKON'S VIBRATING WIRE PRESSURE SENSOR	100
7.17 PAROSCIENTIFIC \	104
7.18 4 TO 20 MA SENSOR USING CURS100 TERMINAL INPUT MODULE	107
SECTION 8. PROCESSING AND PROGRAM CONTROL EXAMPLES	109
8.1 COMPUTATION OF RUNNING AVERAGE	109
8.2 RAINFALL INTENSITY	110
8.3 USING CONTROL PORTS AND LOOP TO RUN AM416 MULTIPLEXER	111
8.4 SUB 1 MINUTE OUTPUT INTERVAL SYNCHED TO REAL TIME	113
8.5 SWITCH CLOSURES ON CONTROL PORTS (RAIN GAGE)	113
8.6 SDM-A04 ANALOG OUTPUT MULTIPLEXER TO STRIP CHART	114
8.7 CONVERTING 0-360 WIND DIRECTION OUTPUT TO 0-540 FOR STRIP CHART	115
8.8 USE OF 2 FINAL STORAGE AREAS - SAVING DATA PRIOR TO EVENT	116
8.9 LOGARITHMIC SAMPLING USING LOOPS	117
8.10 COVARIANCE CORRELATION PROGRAMMING EXAMPLE	119
8.11 FAST FOURIER TRANSFORM EXAMPLES	123
8.11.1. EXAMPLE WITHOUT BIN AVERAGING	123
8.11.2 EXAMPLE WITH BIN AVERAGING	126
8.12 USING THE SWITCHED 12 V TO POWER SENSORS	130
SECTION 9. INPUT/OUTPUT INSTRUCTIONS	133
1 SINGLE-ENDED VOLTS	133
2 DIFFERENTIAL VOLTS	133
3 PULSE COUNT	133
4 EXCITE, DELAY, AND MEASURE	136
5 AC HALF BRIDGE	136
6 FULL BRIDGE WITH SINGLE DIFFERENTIAL MEASUREMENT	137
7 THREE WIRE HALF BRIDGE	137
8 DIFFERENTIAL VOLTAGE WITH EXCITATION AND DELAY	137
9 FULL BRIDGE WITH EXCITATION COMPENSATION	138
10 BATTERY VOLTAGE	138
11 107 THERMISTOR PROBE	138
12 207 RELATIVE HUMIDITY PROBE	139
13 THERMOCOUPLE TEMPERATURE, SINGLE-ENDED MEASUREMENT	139
14 THERMOCOUPLE TEMPERATURE, DIFFERNTIAL MEASUREMENT	140
15 CONTROL PORT SERIAL I/O	141
16 TEMPERATURE FROM PLATINUM R.T.D.	141
17 INTERNAL TEMPERATURE	141
18 MOVE TIME TO INPUT LOCATION	141
19 MOVE SIGNATURE INTO INPUT LOCATION	142
20 PORT SET	142
21 PULSE PORT WITH DURATION	142
22 EXCITATION WITH DELAY	143
23 BURST MEASUREMENT	143
24 CALIBRATION	146
25 PORT READ	146
26 TIMER	146
27 PERIOD AVERAGE (SE)	147
28 VIBRATING WIRE MEASUREMENT	149
29 INW PS9105	149
100 SDM TDR	150
101 SDM-INT8	150
102 SDM-SW8A	150
103 SDM-AO4	151
104 SDM-CD16AC	151
105 SDI-12 RECORDER	152
106 SDI-12 SENSOR	154
107 SDM-CSAT3	156
108 SDM-UDG01	156
109 SDMX50 CHANNEL SELECT	156
110 SDM-GROUP TRIGGER	156
113 SDM-SIO4	156
114 SET TIME	156
115 SET SDM BAUD	157
117 READ DATALOGGER ID	157
118 SDM-CAN	157
130 ERROR MONITOR	157
131 ENHANCED VIBRATING WIRE MEASUREMENT	157
SECTION 10. PROCESSING INSTRUCTIONS	159
39 Z = F	159
31 Z = X	159
32 Z = Z + 1	159
33 X + Y	159
34 X + F	159
35 X - Y	159
36 X * Y	160
37 X * F	160
38 X / Y	160
39 SQUARE ROOT	160
40 LN(X)	160
41 EXP(X)	160
42 1/X	160
43 ABS(X)	161
44 FRACTIONAL VALUE OF X	161
45 INTEGER VALUE OF X	161
46 X MOD F	161
47 XY	161
48 SIN(X)	161
49 SPATIAL MAXIMUM	161
50 SPATIAL MINIMUM	162
51 SPATIAL AVERAGE	162
52 RUNNING AVERAGE	162
53 SCALING ARRAY WITH MULTIPLIER AND OFFSET	162
54 BLOCK MOVE	163
55 5TH ORDER POLYNOMIAL	163
56 SATURATION VAPOR PRESSURE	163
57 VAPOR PRESSURE FROM WET-/DRY-BULB TEMPERATURES	164
58 LOW PASS FILTER	164
59 BRIDGE TRANSFORM	164
60 FAST FOURIER TRANSFORM	165
61 INDIRECT INDEXED MOVE	169
62 COVARIANCE/CORRELATION	169
63 PARAMETER EXTENSION	172
64 PAROSCIENTIFIC \	172
65 BULK LOAD	173
66 ARCTAN	174
67 DYNAGAGE SAP-FLOW	174
68 EXTENDED PARAMETERS 4 DIGIT	174
SECTION 11. OUTPUT PROCESSING INSTRUCTIONS	175
69 WIND VECTOR	175
70 SAMPLE	177
71 AVERAGE	178
72 TOTALIZE	178
73 MAXIMIZE	178
74 MINIMIZE	178
75 STANDARD AND WEIGHTED VALUE HISTOGRAM	178
77 RECORD REAL TIME	179
78 SET HIGH OR LOW RESOLUTION DATA STORAGE FORMAT	180
79 SAMPLE ON MAXIMUM OR MINIMUM	180
80 SET ACTIVE STORAGE AREA	180
81 RAINFLOW HISTOGRAM	180
82 STANDARD DEVIATION IN TIME	182
SECTION 12. PROGRAM CONTROL INSTRUCTIONS	183
83 IF CASE X < F	183
85 LABEL SUBROUTINE	183
86 DO	184
87 LOOP	184
88 IF X COMPARED TO Y	186
89 IF X COMPARED TO F	186
90 STEP LOOP INDEX	187
91 IF FLAG / PORT / MODEM	187
92 IF TIME	187
93 BEGIN CASE STATEMENT	187
94 ELSE	188
95 END	188
96 ACTIVATE SERIAL DATA OUTPUT	188
97 INITIATE TELECOMMUNICATIONS	189
98 SEND CHARACTER	191
111 RUN PROGRAM FROM FLASH	192
119 TDR100	192
120 TGT1 TELONICS GOES	192
121 ARGOS	192
122 INMARSAT-C	192
123 AUTOMATIC PROGRAMMING OF A TGT1	192
124 FIRE DATA TO HDR GOES	192
125 ARGOS SDC	192
126 TRANSFER DATA TO HDR GOES	192
127 HDR GOES STATUS	192
SECTION 13. CR10X MEASUREMENTS	193
13.1 FAST AND SLOW MEASUREMENT SEQUENCE	193
13.2 SINGLE-ENDED AND DIFFERENTIAL VOLTAGE MEASUREMENTS	194
13.3 THE EFFECT OF SENSOR LEAD LENGTH ON THE SIGNAL SETTLING TIME	195
13.3.1 THE INPUT SETTLING TIME CONSTANT	196
13.3.2 EFFECT OF LEAD LENGTH ON SIGNAL RISE TIME	198
13.3.3 TRANSIENTS INDUCED BY SWITCHED EXCITATION	199
13.3.4 SUMMARY OF SETTLING ERRORS FOR CAMPBELL SCIENTIFIC RESISTIVE SENSORS	200
13.4 THERMOCOUPLE MEASUREMENTS	204
13.4.1 ERROR ANALYSIS	205
13.4.2 USE OF EXTERNAL REFERENCE JUNCTION OR JUNCTION BOX	208
13.5 BRIDGE RESISTANCE MEASUREMENTS	209
13.6 RESISTANCE MEASUREMENTS REQUIRING AC EXCITATION	213
13.7 CALIBRATION PROCESS	214
SECTION 14. INSTALLATION AND MAINTENANCE	217
14.1 PROTECTION FROM THE ENVIRONMENT	217
14.2 POWER REQUIREMENTS	217
14.3 CAMPBELL SCIENTIFIC POWER SUPPLIES	218
14.3.1 BPALK ALKALINE POWER SUPPLY	218
14.3.2 PS12LA LEAD ACID POWER SUPPLY	220
14.3.3 PS512M VOLTAGE REGULATOR WITH NULL MODEM PORTS	221
14.4 SOLAR PANELS	221
14.5 DIRECT BATTERY CONNECTION TO THE CR10X WIRING PANEL	222
14.6 VEHICLE POWER SUPPLY CONNECTIONS	222
14.7 GROUNDING	223
14.7.1 PROTECTION FROM LIGHTNING	223
14.7.2 EFFECT OF GROUNDING ON MEASUREMENTS: COMMON MODE RANGE	224
14.8 WIRING PANEL	224
14.9 SWITCHED 12 VOLT	224
14.10 USE OF DIGITAL I/O PORTS FOR SWITCHING RELAYS	224
14.11 MAINTENANCE	226
14.11.1 DESICCANT	226
14.11.2 REPLACING THE INTERNAL BATTERY	226
APPENDIX A. GLOSSARY	229
APPENDIX B. CR10X CONTROL PORT SERIAL I/O INSTRUCTION 15	233
B.1 SPECIFICATIONS	233
FUNCTION	233
BAUD RATES	233
HANDSHAKE CONTROL LINES	233
LOGIC LEVELS	233
PARITY AND STOP BITS	233
B.2 SELECTED OPERATING DETAILS	233
B.3 INSTRUCTION 15 AND PARAMETER DESCRIPTIONS	234
PARAMETER 1 - REPETITIONS	234
PARAMETER 2 - CONFIGURATION CODE	235
PARAMETER 3 - CTS / DELAY BEFORE SEND	235
PARAMETER 4 – PORT CONFIGURATION	235
PARAMETER 5 - OUTPUT START LOCATION	236
PARAMETER 6 - NUMBER OF LOCATIONS TO SEND; PREAMBLE OR DATA	236
PARAMETER 7 - INPUT TERMINATION CHARACTER	236
PARAMETER 8 - MAXIMUM NUMBER OF CHARACTERS TO RECEIVE	236
PARAMETER 9 - TIME OUT FOR CLEAR-TO-SEND OR SERIAL INPUT	236
PARAMETER 10 - INPUT LOCATION	237
PARAMETERS 11 AND 12 - MULTIPLIER AND OFFSET	237
B.4 CONTROL PORT CONFIGURATIONS AND SENSOR WIRING	237
CONFIGURATION 1	237
CONFIGURATION 2	237
CONFIGURATION 3	237
CONFIGURATION 4	237
CONFIGURATION 5	238
B.5 INPUT DATA FILTERS.	238
B.6 PROGRAM EXAMPLES	240
B.6.1 EXAMPLE 1: ATMOSPHERIC INSTRUMENTS RESEARCH AIR-DB-1A BAROMETER	240
B.6.1.1 CR10X-BAROMETER CONFIGURATION LIMITATIONS	241
B.6.1.2 CR10X/BAROMETER HOOK-UP	241
B.6.1.3 INSTRUCTION 15 PARAMETER CONSIDERATIONS	242
B.6.1.4 BAROMETER PROGRAM	244
B.6.2 EXAMPLE 2: CR10X TO CR10X COMMUNICATION	246
B.7 SUMMARY OF BAROMETER JUMPER CONFIGURATIONS	248
APPENDIX C. ADDITIONAL TELECOMMUNICATIONS INFORMATION	249
C.1 TELECOMMUNICATIONS COMMAND WITH BINARY RESPONSES	249
C.2 FINAL STORAGE FORMAT	252
C.3 GENERATION OF SIGNATURE	253
C.4 COMMANDS TO TRANSFER PROGRAM WITH COMPUTER	254
APPENDIX D. CR10X 37 PIN PORT DESCRIPTION	257
APPENDIX E. ASCII TABLE	259
APPENDIX F. DYNAGAGE SAP-FLOW (P67)	261
F1. FUNCTION	261
F2. INSTRUCTION DETAILS	261
F2.1 INPUT VOLTAGES	261
F2.2 CONSTANTS	261
F2.3 FILTERS	261
F2.4 INSTRUCTION OUTPUT	262
F2.4.1 Sapflow (g h-1)	262
F2.4.2 Qf and dT	262
F2.4.3 Qr, Ksh, Kshapp	262
F2.4.4 Power Input (W)	262
F2.4.5 Qv (W)	262
APPENDIX G. DATALOGGER INITIATED COMMUNICATIONS	265
G.1 INTRODUCTION	265
G.2 EXAMPLE PROGRAM—PHONE CALLBACK BASED ON A CONDITION	265
G.3 PC208W WINDOWS SOFTWARE AND COMPUTER SETUP	266
G.4 PC208 DOS COMPUTER SOFTWARE AND ITS COMPUTER SETUP	270
G.4.1 PC208 SETUP	270
G.4.1.1 Create Station File	270
G.4.1.2 Create a Schedule or Script	270
G.4.1.3 Run the Schedule or Script	270
APPENDIX HCALL ANOTHER DATALOGGER VIA PHONE OR RF	273
H.1 INTRODUCTION	273
H.2 PROGRAMMING	273
H.3 PROGRAMMING FOR THE CALLING CR10X	273
H.3.1 INSTRUCTION 97	273
H.3.2 INSTRUCTION 63	274
H.4 REMOTE DATALOGGER PROGRAMMING	275
APPENDIX I. MODBUS ON THE CR10 AND CR10X	277
I.1 TERMINOLOGY	277
I.2 COMMUNICATIONS AND COMPATIBILITY	277
I.2.1 RF COMMUNICATIONS	278
I.2.2 CR10 TO CR10 COMMUNICATION	278
I.3 MORE ON MODBUS	278
APPENDIX J. TD OPERATING SYSTEM ADDENDUM FOR CR510, CR10X, AND CR23X MANUALS	281
Revision and Copyright Information	283
TD and PakBus Operating System Addendum for CR510, CR10X, and CR23X Manuals	285
AD1 Major Differences	285
AD2 Overview of Data Storage Tables	286
AD3 Converting an existing program to Table Based OS	286
AD3.1 Programming changes	286
AD3.2 Making the Changes with Edlog	287
AD4 Summary of Differences from the Datalogger Manual:	288
MEASUREMENT AND CONTROL MODULE OVERVIEW	291
OV4. PROGRAMMING THE CR10X	291
OV4.1 FUNCTIONAL MODES	291
OV4.2 KEY DEFINITION	291
OV4.3 PROGRAMMING SEQUENCE	292
OV4.4 INSTRUCTION FORMAT	292
OV4.5 ENTERING A PROGRAM	293
OV5. PROGRAMMING EXAMPLES	293
OV5.1 SAMPLE PROGRAM 1	293
OV5.2 SAMPLE PROGRAM 2	295
OV5.3 EDITING AN EXISTING PROGRAM	297
OV6. DATA RETRIEVAL OPTIONS	297
SECTION 1. FUNCTIONAL MODES	299
1.5 MEMORY ALLOCATION - ?A	299
1.5.1 INTERNAL MEMORY	299
1.5.2 ?A MODE	300
MEMORY TESTING AND SYSTEM STATUS - ?B	301
1.7 *C MODE -- SECURITY	301
1.8 *D MODE – TRANSFER PROGRAMS, GENERAL SETTING	301
1.8.1 ERASING CURRENT PROGRAM	302
1.8.2 PROGRAM TRANSFER WITH STORAGE MODULE	302
1.8.3 FULL/HALF DUPLEX	302
1.8.4 SET DATALOGGER ID	302
1.8.5 SETTING POWERUP OPTIONS	302
1.8.6 SET INITIAL BAUD	303
1.8.7 SET PROGRAM COMPILE OPTION	303
1.8.8 SET PAKBUS ADDRESS	303
1.8.9 ALLOCATE MEMORY FOR GENERAL PURPOSE FILES	304
1.8.10 VIEW ROUTING TABLE	304
1.8.11 SET PAKBUS ROUTER BEACON INTERVAL	304
1.8.12 PAKBUS NEIGHBOR FILTER	304
1.9 *9 DATA TABLES SIZES.	305
SECTION 2. INTERNAL DATA STORAGE	307
2.1 FINAL STORAGE AND DATA TABLES	307
2.1.1 TIME AND TIMESTAMPS	307
2.1.2 RECORD NUMBERS	308
2.1.3 TABLES AND FIELDS.	308
2.2 DATA OUTPUT FORMAT AND RANGE LIMITS	309
2.2.1 RESOLUTION AND RANGE LIMITS	309
2.2.2 HIGH RESOLUTION FINAL STORAGE DATA, INPUT, AND INTERMEDIATE STORAGE DATA FORMAT	309
2.3 DISPLAYING STORED DATA ON KEYBOARD/DISPLAY *7 MODE.	309
SECTION 3. INSTRUCTION SET BASICS	311
SECTION 8. PROCESSING AND PROGRAM CONTROL EXAMPLES	313
8.1 COMPUTATION OF RUNNING AVERAGE	313
8.2 RAINFALL INTENSITY	314
8.3 USING CONTROL PORTS AND LOOP TO RUN AM416 MULTIPLEXER	315
8.4 INTERRUPT SUBROUTINE USED TO COUNT SWITCH CLOSURES (RAIN GAGE)	317
8.5 SDM-A04 ANALOG OUTPUT MULTIPLEXER TO STRIP CHART	318
8.6 CONVERTING 0-360 WIND DIRECTION OUTPUT TO 0-540 FOR STRIP CHART	319
8.7 LOGARITHMIC SAMPLING USING LOOPS	319
SECTION 9. INPUT/OUTPUT INSTRUCTIONS	323
SECTION 11. OUTPUT PROCESSING INSTRUCTIONS	325
SECTION 12. PROGRAM CONTROL INSTRUCTIONS	327
Wireless Networks	327
Datalogger Requirements	327
Communication Notes	327
PakBus Get/Send Locations (P190)	329
Port	330
Address	330
PakBus Communication	331
Modbus Communication	331
Command	331
Security	332
Remote Location/Coil/Register	332
PakBus Communication	332
Modbus Communication	332
Remote Location	333
PakBus Communication	333
Modbus Communication	333
Swath	333
PakBus Communication	333
Modbus Communication	333
Local Location	333
PakBus Communication	333
Modbus Communication	333
Result Code Location	334
Send Final Storage Data (P191)	334
Table ID	334
Flag	334
Send Message (P192)	334
Message Type	335
Wireless Network Master (P193)	335
Number of Remotes	336
First Remote Address	336
Time into Transmit Interval	336
Example	336
Transmit Interval	336
Example	337
Transmit Delay Between Remotes	337
Example	337
Swath to Receive	337
First Location for Data Received	337
Swath to Send	338
First Location to Send	338
Result Code Location	338
Seconds Until Transmit (P194)	338
Location with Seconds Until Transmit	339
Use Remote Clock Report (P195)	339
Address	339
Wireless Network Remote (P196)	339

Match case Limit results 1 per page

1-1

SECTION 1.

FUNCTIONAL MODES

1.1

DATALOGGER PROGRAMS -

∗

3, AND

∗

4 MODES

Data acquisition and processing functions are

controlled by user-entered instructions

contained in program tables.

Programming can

be separated into 2 tables, each having its own

user-entered execution interval.

A third table is

available for programming subroutines which

may be called by instructions in Tables 1 or 2 or

by a special interrupt.

The

∗

1 and

∗

2 Modes

are used to access Tables 1 and 2.

The

∗

Mode is used to access Subroutine Table 3.

The

∗

4 Mode Table is a table of values used in

the program that someone can change while

the rest of the program is protected.

These

values may be used for sensor calibrations or to

select optional sensors.

The

∗

4 Table is only

available when a special program created by

EDLOG is loaded in the CR10X.

When a program table is first entered, the

display shows the table number in the ID field

and 00 in the data field.

Keying an "A" will

advance the editor to the execution interval.

there is an existing program in the table, keying

an instruction location number prior to "A" will

advance directly to the instruction (e.g., 5 will

advance to the fifth instruction in the table).

1.1.1

EXECUTION INTERVAL

The execution interval is entered in units of

seconds as follows:

1/64 ...1 seconds, in multiples of 1/64 (0.015625)

......

31.875 seconds, in multiples of 1/8 (0.125)

.....

8191 seconds, in multiples of 1 second

Execution of the table is repeated at the rate

determined by this entry.

The table will not be

executed if 0 is entered.

Entries less than 32

seconds will be rounded to a valid interval if

they are within 1/512 (0.00195) second of a

valid interval, otherwise error E41 will be

displayed.

Entries greater than 32 seconds are

rounded to the nearest second.

The sample rate for a CR10X measurement is

the rate at which the measurement instruction

can be executed (i.e., the measurement made,

scaled with the instruction's multiplier and

offset, and the result placed in Input Storage).

Additional processing requires extra time.

The

throughput rate is the rate at which a

measurement can be made and the resulting

value stored in Final Storage.

The maximum

throughput rate for fast single-ended

measurements with standard software is 192

measurements per second (12 measurements

repeated 16 times per second).

If the specified execution interval for a table is

less than the time required to process that

table, the CR10X finishes processing the table

and waits for the next occurrence of the

execution interval before again initiating the

table (i.e., when the execution interval has

elapsed and the table is still executing, that

execution is skipped).

Since no advantage is

gained in the rate of execution with this

situation, it should be avoided by specifying an

execution interval adequate for the table

processing time.

NOTE:

Whenever the processing time of

the user's program exceeds a table's

execution interval, an error is logged in

memory.

The number of overrun errors

can be displayed and reset in the

∗

B mode

(Section 1.6) or using the Telecommunica-

tions A command (Section 5.1).

An overrun

will also cause decimal points to appear on

both sides of the sixth digit of the CR10KD.

The decimal points will not appear around

the G in LOG if the

∗

0 Mode is entered

before the overrun occurs.

In some cases, the processing time may exceed

the execution interval only when the Output Flag is

set and extra time is consumed by final Output

Processing.

This may be acceptable.

For

example, suppose it is desired to sample some

phenomena every 0.125 seconds and output

processed data every 10 minutes.

The processing

time of the table which does this is less than 0.125

seconds except when output occurs (every 10

minutes).

With final output the processing time is

1 second.

With the execution interval set at 0.125

seconds, and a one second lag between samples

once every 10 minutes, 8 measurements out of

4800 (.17%) are missed:

an acceptable statistical

error for most populations.