Wiki source code of MQTT Forward Instruction

Version 49.1 by Kilight Cao on 2022/07/29 11:38

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1 **~ Table of Contents:**
2
3 {{toc/}}
4
5
6 = 1.  Introduction =
7
8
9 Dragino LoRa/LoRaWAN gateway support MQTT forwarding. It can forward the sensor data from LoRa network to MQTT server , and vice verse.
10
11
12 == 1.1  Support Devices ==
13
14
15 This MQTT forward instruction is for below devices:
16
17 * Firmware Version > LG02_LG08-5.3.1580178039 [[Firmware Download>>url:http://www.dragino.com/downloads/index.php?dir=LoRa_Gateway/LPS8/Firmware/Release/]]
18 * LG01N, OLG01N ((% style="color:red" %)**Warning**(%%): LG01-P LG01-S use another instruction: [[MQTT for LG01-P/LG01S>>doc:Through MQTT to upload data.WebHome]])
19 * LG02, OLG02
20 * LG308, DLOS8
21 * LPS8
22 * LIG16
23 * MS14 series if installed with the same firmware. (in this case, the MQTT forward will work , but no LoRa support)
24
25 = 2.  Firmware Change Log for MQTT feature =
26
27
28 (((
29 This instruction is wrote start from LG02_LG08-5.3.1580178039. Below is related change log since this version of firmware.
30 )))
31
32 * LG02_LG08-5.3.1580178039
33 ** Initiate version
34
35 = 3.  MQTT forward operating principle =
36
37
38 == 3.1  Network Structure ==
39
40
41 Below shows the network structure for MQTT forwarding.
42
43 * **For Uplink:**  The sensor sends data to LoRa Gateway via LoRa wireless, The gateway will process these data and forward to remote MQTT Broker via Internet.
44 * **For Downlink:** The gateway subscribe a topic in the MQTT broker, when there is update on the topic, the gateway will know and broadcast the data to Local LoRa network.
45
46 [[image:image-20220527133547-1.png]]
47
48 General MQTT structure
49
50
51
52 == 3.2  How sensor data is forwarded ==
53
54
55 In this MQTT forward feature, the key point is how the gateway process the sensor data.
56
57
58 === 3.2.1  Upstream ===
59
60
61 Assume there are two sensor nodes, their ID are Node1 ID: 6734 , Node2 ID: 7456. In the remote MQTT broker there are two topics: Topic1: /channel/765800, Topic2: /channel/367860. We can set up in the gateway to map Node1 to Topic1 and Node2 to Topic2. So when there is a sensor data from Node1, the gateway will forward the data to Topic1, when there is sensor data from Node2, the gateway will forward to Topic2.
62
63 (((
64 The data flow works as below diagram.
65
66
67 )))
68
69 [[image:image-20220527134000-2.png]]
70
71 (((
72 Upstream path
73
74
75 )))
76
77 (((
78 (% style="color:red" %)**Note: The sensor data can base or LoRa or other method, as long as there are data on the file /var/iot/channels. /span>**
79 )))
80
81 (((
82
83 )))
84
85 === 3.2.2  Downstream ===
86
87
88 The gateway subscribes to a topic of the remote MQTT broker topic. When there is some one publish a value on this topic. The gateway will get it and broadcast to local LoRa Network.
89
90 (((
91 Below are the data flow for downstream.
92 )))
93
94 [[image:image-20220527134038-3.png]]
95
96 Downstream path
97
98
99
100 == 3.3  Macro Definition ==
101
102
103 The MQTT publish command use Macro settings to generate flexible upstream payload for MQTT publish.
104
105 (((
106 Currently the (% style="color:#4f81bd" %)**-t (topic)**(%%) and (% style="color:#4f81bd" %)**-m (message)**(%%) support Macros.
107
108
109
110 )))
111
112 === 3.3.1  -t topic macro ===
113
114
115 * CHANNEL: Remote Channel ID
116 * CLIENTID: Client ID , Same as -i
117 * WRITE_API: Remote Channel Write API
118 * USERNAME: User ID (-u)
119 * HOSTNAME: Device Hostname
120
121 === 3.3.2  -m message macro ===
122
123
124 * HOSTNAME: Device Hostname
125 * CHANNEL: Remote Channel ID
126 * DATA: Sensor Data without time stamp and rssi
127 * META: Completely sensor data with time stamp and rssi
128 * JSON: Convert META to json format.
129
130 === 3.3.3  Example for Macro ===
131
132
133 [[image:image-20220527134251-4.png]]
134
135 MQTT Publish configure
136
137
138 **Above screen shots shows below format:**
139
140 * -t: CLIENTID/CHANNEL/data
141 * -m: DATA
142
143 When there is a LoRa sensor arrive. it will be store at the /var/iot/channels as below:
144
145 [[image:image-20220527134332-5.png]]
146
147 Sensor Data
148
149
150 (((
151 According to above macro. Gateway will publish (% style="color:#4f81bd" %)**field1=22.0&field2=49.0**(%%) to topic: (% style="color:#4f81bd" %)**dragino-1b7060/78901/data**(%%), where 78901 is the remote channel for this node ID.
152 )))
153
154
155
156 == 3.4  Modify the MQTT to support more options ==
157
158
159 The MQTT Client Utility used in Dragino is **mosquitto_pub** and **mosquitto_sub**. User can add more options to the mqtt commands. User can check the valid options by command mosquitto_pub ~-~-help. as below:
160
161 (% class="box" %)
162 (((
163 root@dragino-1ec39c:~~# mosquitto_pub ~-~-help
164 mosquitto_pub is a simple mqtt client that will publish a message on a single topic and exit.
165 mosquitto_pub version 1.6.4 running on libmosquitto 1.6.4.
166 \\Usage: mosquitto_pub {[-h host] [-p port] [-u username] [-P password] -t topic | -L URL}
167 {-f file | -l | -n | -m message}
168 [-c] [-k keepalive] [-q qos] [-r] [~-~-repeat N] [~-~-repeat-delay time]
169 [-A bind_address]
170 [-i id] [-I id_prefix]
171 [-d] [~-~-quiet]
172 [-M max_inflight]
173 [-u username [-P password]]
174 [~-~-will-topic [~-~-will-payload payload] [~-~-will-qos qos] [~-~-will-retain]]
175 [{~-~-cafile file | ~-~-capath dir} [~-~-cert file] [~-~-key file]
176 [~-~-ciphers ciphers] [~-~-insecure]
177 [~-~-tls-alpn protocol]
178 [~-~-tls-engine engine] [~-~-keyform keyform] [~-~-tls-engine-kpass-sha1]]
179 [~-~-psk hex-key ~-~-psk-identity identity [~-~-ciphers ciphers]]
180 [~-~-proxy socks-url]
181 [~-~-property command identifier value]
182 [-D command identifier value]
183 mosquitto_pub ~-~-help
184 \\-A : bind the outgoing socket to this host/ip address. Use to control which interface
185 the client communicates over.
186 -d : enable debug messages.
187 -D : Define MQTT v5 properties. See the documentation for more details.
188 -f : send the contents of a file as the message.
189 -h : mqtt host to connect to. Defaults to localhost.
190 -i : id to use for this client. Defaults to mosquitto_pub_ appended with the process id.
191 -I : define the client id as id_prefix appended with the process id. Useful for when the
192 broker is using the clientid_prefixes option.
193 -k : keep alive in seconds for this client. Defaults to 60.
194 -L : specify user, password, hostname, port and topic as a URL in the form:
195 mqtt(s):~/~/[username[:password]@]host[:port]/topic
196 -l : read messages from stdin, sending a separate message for each line.
197 -m : message payload to send.
198 -M : the maximum inflight messages for QoS 1/2..
199 -n : send a null (zero length) message.
200 -p : network port to connect to. Defaults to 1883 for plain MQTT and 8883 for MQTT over TLS.
201 -P : provide a password
202 -q : quality of service level to use for all messages. Defaults to 0.
203 -r : message should be retained.
204 -s : read message from stdin, sending the entire input as a message.
205 -t : mqtt topic to publish to.
206 -u : provide a username
207 -V : specify the version of the MQTT protocol to use when connecting.
208 Can be mqttv5, mqttv311 or mqttv31. Defaults to mqttv311.
209 ~-~-help : display this message.
210 ~-~-repeat : if publish mode is -f, -m, or -s, then repeat the publish N times.
211 ~-~-repeat-delay : if using ~-~-repeat, wait time seconds between publishes. Defaults to 0.
212 ~-~-quiet : (% style="color:red" %)don't print error messages.
213 ~-~-will-payload : payload for the client Will, which is sent by the broker in case of
214 unexpected disconnection. If not given and will-topic is set, a zero
215 length message will be sent.
216 ~-~-will-qos : QoS level for the client Will.
217 ~-~-will-retain : if given, make the client Will retained.
218 ~-~-will-topic : the topic on which to publish the client Will.
219 ~-~-cafile : path to a file containing trusted CA certificates to enable encrypted
220 communication.
221 ~-~-capath : path to a directory containing trusted CA certificates to enable encrypted
222 communication.
223 ~-~-cert : client certificate for authentication, if required by server.
224 ~-~-key : client private key for authentication, if required by server.
225 ~-~-keyform : keyfile type, can be either "pem" or "engine".
226 ~-~-ciphers : openssl compatible list of TLS ciphers to support.
227 ~-~-tls-version : TLS protocol version, can be one of tlsv1.3 tlsv1.2 or tlsv1.1.
228 Defaults to tlsv1.2 if available.
229 ~-~-insecure : do not check that the server certificate hostname matches the remote
230 hostname. Using this option means that you cannot be sure that the
231 remote host is the server you wish to connect to and so is insecure.
232 Do not use this option in a production environment.
233 ~-~-tls-engine : If set, enables the use of a TLS engine device.
234 ~-~-tls-engine-kpass-sha1 : SHA1 of the key password to be used with the selected SSL engine.
235 ~-~-psk : pre-shared-key in hexadecimal (no leading 0x) to enable TLS-PSK mode.
236 ~-~-psk-identity : client identity string for TLS-PSK mode.
237 ~-~-proxy : SOCKS5 proxy URL of the form:
238 socks5h:~/~/[username[:password]@]hostname[:port]
239 Only "none" and "username" authentication is supported.
240 \\See https:~/~/mosquitto.org/ for more information.
241 )))
242
243
244 (((
245 and modify the /usr/bin/mqtt_process.sh script, the location to change the command option is below lines:
246 )))
247
248 (% class="box" %)
249 (((
250 //# Call MQTT Publish command
251 \\# 1. Case with User, Password and Client ID present  (e.g. Azure)
252 if [ ! -z "$pass" ] && [ ! -z "$user" ] && [ ! -z "$clientID" ]; then
253 case="1" 
254 mosquitto_pub $D -h $server -p $port -q $pub_qos -i $clientID -t $pub_topic -u $user -P "$pass" $C $cafile $PUB_FLAG "$mqtt_data"
255 \\# 2. Case with Certificate, Key and ClientID present (e.g. AWS)
256 elif [ ! -z "$certfile" ] && [ ! -z "$key" ] && [ ! -z "$clientID" ]; then
257 case="2" 
258 mosquitto_pub $D -h $server -p $port -q $pub_qos -i $clientID -t $pub_topic ~-~-cert $cert ~-~-key $key $C $cafile $PUB_FLAG "$mqtt_data"
259 \\# 3. Case with no User, Certificate or ClientID present
260 elif [ -z "$user" ] && [ -z "$certfile" ] && [ -z "$clientID" ]; then
261 case="3" 
262 mosquitto_pub $D -h $server -p $port -q $pub_qos -t $pub_topic $PUB_FLAG "$mqtt_data"
263 \\# 4. Case with no User, Certificate, but with ClientID present
264 elif [ -z "$user" ] && [ -z "$certfile" ] && [ ! -z "$clientID" ]; then
265 case="4" 
266 mosquitto_pub $D -h $server -p $port -q $pub_qos -i $clientID -t $pub_topic $PUB_FLAG "$mqtt_data"
267 \\# 5. Case with User and ClientID present, but no Password and no Certificate present
268 elif [ -z "$pass" ] && [ -z "$certfile" ] && [ ! -z "$user" ] && [ ! -z "$clientID" ]; then
269 case="5" 
270 mosquitto_pub $D -h $server -p $port -q $pub_qos -i $clientID -t $pub_topic -u $user $PUB_FLAG "$mqtt_data"
271 \\# 6. Case with User and Password present, but no ClientID and no Certificate present
272 elif [ ! -z "$user" ] && [ ! -z "$pass" ] && [ -z "$clientID" ] && [ -z "$certfile" ]; then
273 case="6" 
274 mosquitto_pub $D -h $server -p $port -q $pub_qos  -t $pub_topic -u $user -P "$pass" $PUB_FLAG "$mqtt_data"
275 \\# 0. Else - invalid parameters, just log
276 else
277 case="(% style="color:red" %)Invalid parameters" (%%)
278 logger (% style="color:red" %)"[IoT.MQTT]:Invalid Parameters - mosquitto_pub not called."(%%)
279 fi//
280 )))
281
282
283
284 = 4.  Example to communicate to a simple MQTT server =
285
286
287 == 4.1  Overview ==
288
289
290 This section is an example to show how to set up LG01-N to communicate with a MQTT server. The MQTT server is a simple utility set up in a local PC. Note: User can set up same server via [[this instruction>>url:http://www.steves-internet-guide.com/install-mosquitto-broker/]].
291
292
293 == 4.2  Simulate via MQTT.fx utility ==
294
295
296 The [[MQTT.fx>>url:http://mqttfx.jensd.de/index.php/download]] is a MQTT client tool. We can use this to simulate a MQTT connection to our MQTT broker first to make sure the MQTT broker works. This will also help us understand how it works.
297
298 (((
299 In this test, the MQTT broker and MQTT.fx are installed in the same PC, so the MQTT server address in MQTT.fx should be localhost. Below shows how to connect to the server.
300 )))
301
302 [[image:image-20220527134929-6.png]]
303
304 Connect to MQTT Broker
305
306
307 After connected, use publish to public some thing to MQTT server. This to simulate upsteam
308
309 [[image:image-20220527135037-7.png]]
310
311 Upstream: Publish message to MQTT Broker
312
313
314 To simulate a downstream, use MQTT.fx to subscribe a topic, and publish something to this topic. as Below:
315
316 [[image:image-20220527135215-8.png]]
317
318 Downstream: Subscribe a topic to get downstream
319
320
321
322 == 4.3  Simulate via Dragino Command Line ==
323
324
325 For first try of MQTT connection, simulate via command line is recommend, there are many servers / connection type for MQTT. They are using different connection parameters. Simulating the connection via command line will help us rapidly connect to server and debug.
326
327 In the Dragino Gateway, we use [[mosquitto client>>url:https://mosquitto.org/]] for MQTT connection.
328
329
330 (% style="color:blue" %)**For Upstream**
331
332 command is [[mosquitto_pub>>url:https://mosquitto.org/man/mosquitto_pub-1.html]]
333
334 Example: mosquitto_pub -h 192.168.199.148 -p 1883 -t /channel/6543 -m temp=36
335
336 Note: 192.168.199.148 is MQTT broker address, the gateway and the MQTT broker PC are in the same network.
337
338 [[image:image-20220527135310-9.png]]
339
340 mosquitto_pub
341
342
343
344 (% style="color:blue" %)**For Downstream**
345
346 Use [[mosquitto_sub>>url:https://mosquitto.org/man/mosquitto_sub-1.html]] to subscribe the change on the topic.
347
348 [[image:image-20220527135440-10.png]]
349
350 mosquitto_sub
351
352
353
354 == 4.4  Configure Dragino UI for MQTT connection ==
355
356
357 This chapter are step by step to show to configure the Dragino Menu for MQTT auto connection.
358
359 (((
360 Go to (% style="color:#4f81bd" %)**Dragino Menu ~-~-> MQTT Client**
361 )))
362
363 [[image:image-20220714155901-1.png]]
364
365 go to mqtt configure menu
366
367
368 (((
369 Select (% style="color:#4f81bd" %)**Forward to MQTT server**. (% style="color:red" %)**Notice**(%%): This option is removed from the latest firmware, in the latest firmware, if user submit "SAVE & APPLY" in MQTT page, the gateway will use MQTT service.
370 )))
371
372 [[image:image-20220527135742-11.png]]
373
374 forward to MQTT
375
376
377
378 === 4.4.1  Configure the MQTT Client for Upstream ===
379
380
381 **Below screenshot is same as the publish command:**
382
383 (% class="box" %)
384 (((
385 **mosquitto_pub -h 192.168.199.148 -p 1883 -i dragino-1b7060 -t CLIENTID/CHANNEL/data -m DATA
386 ~/~/where the CLIENTID, CHANNEL & DATA are macro. represent for
387 ~/~/CLIENTID: dragino-1b7060
388 ~/~/CHANNEL: Remote ID in Channel settings; here is 78901 or 567456
389 ~/~/DATA: The data stores in /var/iot/channels/**
390 )))
391
392
393 [[image:image-20220527135828-12.png]]
394
395 MQTT Publish configure
396
397
398
399 [[image:image-20220527135929-13.png]]
400
401 MQTT Channel settings
402
403
404 (((
405 For example, if we put a data(temp=46) on the file /var/iot/channels/4567, because 4567 match the remote channel 78901. the gateway will run this command:
406 )))
407
408 (% class="box" %)
409 (((
410 mosquitto_pub -h 192.168.199.148 -p 1883 -i dragino-1b7060 -t dragino-1b7060/78901/data -m temp=46
411 )))
412
413 (((
414 to MQTT broker.
415 )))
416
417
418 (((
419 Below is a simulation to put this data to active the MQTT publish.
420 )))
421
422 [[image:image-20220527140023-14.png]]
423
424 MQTT Publish
425
426
427
428 === 4.4.2  Configure the MQTT Client for Downstream ===
429
430
431 Below screen shot equal to this subscribe command:
432
433 (% class="box" %)
434 (((
435 mosquitto_sub -h 192.168.199.148 -p 1883 -i dragino-1b7060 -t command.
436 )))
437
438 [[image:image-20220527140100-15.png]]
439
440 MQTT Subscribe
441
442
443 (((
444 When MQTT broker receive a update on this topic, the gateway will get the update and use LoRa radio to broadcast this message. The LoRa parameters used for update is:
445 )))
446
447 [[image:image-20220527140148-16.png]]
448
449 LoRa Broadcast parameters.
450
451
452 And below is the subscribe simulation:
453
454 [[image:image-20220527140238-17.png]]
455
456 downstream simulation
457
458
459 == 4.5  Add LoRa support to communicate with remote sensor ==
460
461
462 In above section, we have configured the UI to support MQTT upstream and downstream. We can simulate via Linux command. In this section, we will guide how to communicate with remote LoRa End Node for upstream and downstream.
463
464
465 === 4.5.1  Use LoRa Raw protocol for communication ~-~- For LG01/LG02 ===
466
467
468 (((
469 We can use [[LoRa Shield>>url:http://www.dragino.com/products/lora/item/102-lora-shield.html]] to send LoRa Raw data to Gateway and receive data from gateway.
470 )))
471
472 (((
473 The example Sketch for LoRa Shield +Arduino is here: [[LoRa_Shield_Sketch_For_MQTT>>url:http://www.dragino.com/downloads/index.php?dir=LoraShield/]]
474 )))
475
476 (((
477 And this link is the required library: [[arduino-LoRa-master>>url:http://www.dragino.com/downloads/index.php?dir=LoraShield/]]. Unzip this library and put in Arduino library location.
478
479
480 )))
481
482 (((
483 What does the Arduino Sketch do? The Arduino Sketch will:
484 )))
485
486 * Upstream: Keep sending a LoRa Message every minutes with this payload : <4567>tem=xx&hum=yy (Where xx and yy are temperature and humidity value generated randomly).
487 * Downstream: Listening broadcast message from gateway, and print it in console.
488 * The LoRa parameter settings in Arduino should match the LoRa settings in gateway, as below:
489
490 [[image:image-20220527140354-18.png]]
491
492 LoRa Parameter should match
493
494
495
496 Below is the test result after the Arduino Sketch is running.
497
498 [[image:image-20220527140459-19.png]]
499
500 Upstream Data Flow
501
502
503
504 [[image:image-20220527140542-20.png]]
505
506 Downstream Data Flow
507
508
509
510 === 4.5.2  Use LoRaWAN Protocol for communication ~-~- For LG308/LPS8/DLOS8 ===
511
512
513 (((
514 Since firmware (% style="color:#4f81bd" %)**LG02_LG08~-~-build-v5.3.1585192026-20200326-1109,**(%%) Dragino LoRaWAN gateways support the communication to LoRaWAN (% style="color:#4f81bd" %)**ABP end node**(%%) locally without the need of LoRaWAN server. This feature allow us to integrate MQTT in the gateway to support LoRaWAN to MQTT forwarding or visa verse.
515 )))
516
517 (((
518 When use test this feature, please use the version higher then : (% style="color:#4f81bd" %)**LG02_LG08~-~-build-v5.4.1593400722-20200629-1120**(%%), in this version, the upload format is changed and readable, which is easier for integration.
519
520
521 (% style="color:blue" %)**Video Instruction**(%%): (% style="color:blue" %)[[https:~~/~~/youtu.be/qJTY441-t90>>url:https://youtu.be/qJTY441-t90]]
522 )))
523
524 (((
525 (% style="color:blue" %)**Step 1**(%%): Refer [[Communicate with ABP End Node>>Communicate with ABP End Node without LoRaWAN Network Server --- LG308]] to know how to set up LG308 to work with LoRaWAN End node.
526 )))
527
528 (((
529 (% style="color:blue" %)**Step 2**(%%): Make sure your Radio settings match the End Node settings.
530 )))
531
532 [[image:image-20220527141235-21.png]]
533
534 Use Same Frequency Band as End Node
535
536
537 (((
538 (((
539 (% style="color:blue" %)**Step 3**(%%): Set up publish format and MQTT channel. The LG308 will store the Data from End node in (% style="color:#4f81bd" %)**HEX format**(%%) in the file.
540 )))
541 )))
542
543 [[image:image-20220613191345-4.png]]
544
545
546
547 (% style="color:blue" %)**Step 4**(%%): Map the Device Address to Remote ID in MQTT server.
548
549 [[image:image-20220613190635-2.png]]
550
551
552
553 (% style="color:blue" %)**Step 5: Upstream**(%%): Save the change, we can see the log info via "sytem log", End Node and MQTT Server
554
555 [[image:image-20220527141843-24.png]]
556
557
558
559
560 [[image:image-20220527141933-25.png]]
561
562 Choose ASCII Format
563
564
565
566 [[image:image-20220527142028-26.png]]
567
568 LHT65 Decoder
569
570
571
572 (% style="color:blue" %)**Step 6: Set up subscribe**(%%)**:** Subscribe a topci for downstream.
573
574 [[image:image-20220613191426-5.png]]
575
576
577
578 (% style="color:blue" %)**Step 7: Downstream**(%%): Save the change, we can see the log info via "sytem log", End Node and MQTT Server.
579
580 [[image:image-20220527142239-28.png]]
581
582
583
584 === 4.5.3 MQTT Downstream format ===
585
586
587 mosquitto_pub -h $server_address -p $server_port -t $Client_ID -m "**dev_addr,imme/time,txt/hex,payload**"
588
589 (% class="box infomessage" %)
590 (((
591 **mosquitto_pub -h 10.130.2.192 -p 1883 -t dragino-1d25dc/ -m "260211D,time,txt,hello"**
592 )))
593
594 mosquitto_pub -h $server_address -p $server_port -t $Client_ID -m "**dev_addr,imme/time,txt/hex,payload,txpw,txbw,SF,frequency,rxwindow**"
595
596 (% class="box infomessage" %)
597 (((
598 **mosquitto_pub -h 10.130.2.192 -p 1883 -t dragino-1d25dc/ -m "260211D,time,txt,hello,20,1,SF12,923300000,2"**
599 )))
600
601 Or use [[MQTT.fx>>https://mqttfx.jensd.de/index.php/download]]
602
603 [[image:image-20220613192816-6.png||height="440" width="1056"]]
604
605
606 (% style="color:red" %)**Notice: The text use for Downstream must meet the requirement from [[LG308 Downstream Payload>>Communicate with ABP End Node without LoRaWAN Network Server --- LG308||anchor="H2.2Downstream"]]**
607
608
609 Check out this link for more mosquito-related directives [[https:~~/~~/mosquitto.org/man/mosquitto_pub-1.html>>https://mosquitto.org/man/mosquitto_pub-1.html]]
610
611
612
613 = 5.  How to Debug =
614
615
616 User can login the gateway's console and run (% style="color:#4f81bd" %)**logread -f**(%%). It will shows the output when there is packet arrive.User can see if it is correct.
617
618
619 = 6.  How to ask for Support =
620
621
622 If a user still not have trouble making it works. please send a mail to support@dragino.com with the below info:
623
624 * Detail of your LoRaWAN end node.
625 * Gateway Model and firmware version
626 * A set of screenshots you configure in the gateway according to our instruction
627 * A full log of "logread -f"