Cellular IoT Fundamentals

Changing the version will not affect your certificate
Lesson 1 – Basics of cellular IoT
5 Topics | 1 Quiz
LTE-M and NB-IoT
Power saving techniques
Network coverage and SIM cards
nRF91 Series
Exercise 1 – Sending data to nRF Cloud
Lesson 1 quiz
Lesson 2 – Getting a cellular connection
4 Topics | 1 Quiz
AT commands
LTE link controller library
Exercise 1 – Using AT commands to control the modem
Exercise 2 – Using a library to establish an LTE connection
Lesson 2 quiz
Lesson 3 – Interacting with the modem
4 Topics | 1 Quiz
Network programming
nRF Modem library
Socket API
Exercise 1 – Using the socket API
Lesson 3 quiz
Lesson 4 – Reading buttons and controlling LEDs over MQTT
4 Topics | 1 Quiz
MQTT protocol
MQTT library
Exercise 1 – Connecting to an MQTT broker
Exercise 2 – Adding TLS to the MQTT connection
Lesson 4 quiz
Lesson 5 – Sending and receiving messages over CoAP
4 Topics | 1 Quiz
CoAP protocol
CoAP library
Exercise 1 – Connecting to a CoAP server
Exercise 2 – Adding DTLS to the CoAP connection
Lesson 5 quiz
Lesson 6 – Requesting location using GNSS
4 Topics | 1 Quiz
Global Navigation Satellite System (GNSS)
GNSS interface
Exercise 1 – Acquiring a GNSS fix
Exercise 2 – Sending GNSS coordinates to a UDP server
Lesson 6 quiz
Lesson 7 – Debugging with a modem trace
3 Topics | 1 Quiz
Modem trace
Exercise 1 – Capturing a modem trace
Exercise 2 – Decoding the modem trace
Lesson 7 quiz
Lesson 8 – nRF91 simple tracker
2 Topics | 1 Quiz
Project description
nRF91 simple tracker solution
Lesson 8 quiz
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Exercise 1 – Acquiring a GNSS fix

In this exercise, we will use the GNSS interface in the Modem library to enable the GNSS receiver on the nRF91 Series SiP and retrieve the GPS coordinates.

Exercise Steps

1. In the GitHub repository for this course, go to the base code for this exercise, found in l6/l6_e1.

2. Enable relevant configurations in prj.conf.

2.1 Enable the modem’s network mode for GPS through CONFIG_LTE_NETWORK_MODE_LTE_M_NBIOT.

Copy
CONFIG_LTE_NETWORK_MODE_LTE_M_NBIOT_GPS=y
Kconfig

2.2 Enable the following two configurations two enable printing floating-point numbers to console.

Copy
CONFIG_NEWLIB_LIBC_FLOAT_PRINTF=y
CONFIG_FPU=y
Kconfig

The GNSS interface is included when enabling the modem library (CONFIG_NRF_MODEM_LIB).

3. In the Kconfig file define the configurations for the fix interval and fix retry period.

3.1 Define the configuration GNSS_PERIODIC_INTERVAL that specifies at which interval the GNSS receiver will initiate searching for a fix.

Copy
config GNSS_PERIODIC_INTERVAL
	int "Fix interval for periodic GPS fixes"
	range 10 65535
	default 120
	help
	  Fix interval (in seconds) for periodic fixes.
Kconfig

3.2 Define the configuration GNSS_PERIODIC_TIMEOUT, which sets the maximum time the GNSS receiver is allowed to run while trying to produce a valid PVT estimate.

Copy
config GNSS_PERIODIC_TIMEOUT
	int "Fix timeout for periodic GPS fixes"
	range 0 65535
	default 480
	help
	  Fix timeout (in seconds) for periodic fixes.
	  If set to zero, GNSS is allowed to run indefinitely until a valid PVT estimate is produced.
Kconfig

We are configuring the GNSS in periodic mode, by setting the fix interval to 2 minutes and the fix retry period to 8 minutes.

4. In main.c, include the header file for the GNSS interface.

Copy
#include <nrf_modem_gnss.h>
C

5. Define the PVT data frame variables, of type struct nrf_modem_gnss_pvt_data_frame. This will be used when reading PVT data from GNSS.

Copy
static struct nrf_modem_gnss_pvt_data_frame pvt_data;
C

6. Define the function print_fix_data(), to log fix data in a readable format.

This function will take a parameter of type struct nrf_modem_gnss_pvt_data_frame and print out the members double latitude, double longitude, float altitude and struct nrf_modem_gnss_datetime datetime

Copy
static void print_fix_data(struct nrf_modem_gnss_pvt_data_frame *pvt_data)
{
	LOG_INF("Latitude:       %.06f", pvt_data->latitude);
	LOG_INF("Longitude:      %.06f", pvt_data->longitude);
	LOG_INF("Altitude:       %.01f m", (double)pvt_data->altitude);
	LOG_INF("Time (UTC):     %02u:%02u:%02u.%03u",
	       pvt_data->datetime.hour,
	       pvt_data->datetime.minute,
	       pvt_data->datetime.seconds,
	       pvt_data->datetime.ms);
}
C

Note

When printing floats, the format specifier (%*.*f) determines how many digits to print. The number before the decimal point sets the number of integers and the number after sets the number of decimals.

7. In the event handler gnss_event_handler(), add the events EVT_PVT, EVT_PERIODIC_WAKEUP and EVT_SLEEP_AFTER_FIX.

7.1 On a PVT event, read PVT data from GNSS, check if it’s a valid fix and print fix data to console.

Pass the data frame variable pvt_data, and the data type NRF_MODEM_GNSS_DATA_PVT to nrf_modem_gnss_read() to read the PVT data. Then check if it’s a valid fix by seeing if the NRF_MODEM_GNSS_PVT_FLAG_FIX_VALID flag is set. If so, call print_fix_data() to print the information to console.

Copy
case NRF_MODEM_GNSS_EVT_PVT:
	LOG_INF("Searching...");
	/* STEP 15 - Print satellite information */
	err = nrf_modem_gnss_read(&pvt_data, sizeof(pvt_data), NRF_MODEM_GNSS_DATA_PVT);
	if (err) {
		LOG_ERR("nrf_modem_gnss_read failed, err %d", err);
		return;
	}
	if (pvt_data.flags & NRF_MODEM_GNSS_PVT_FLAG_FIX_VALID) {
		dk_set_led_on(DK_LED1);
		print_fix_data(&pvt_data);
		/* STEP 12.3 - Print the time to first fix */
		return;
	}
	break;
C

Ignore the comments, that’s to help you later.

7.2. Add EVT_PERIODIC_WAKEUP and EVT_SLEEP_AFTER_FIX to the event handler, and log the events to console.

This will tell us when the GNSS is sleeping and when it wakes up to get the next fix.

Copy
case NRF_MODEM_GNSS_EVT_PERIODIC_WAKEUP:
	LOG_INF("GNSS has woken up");
	break;
case NRF_MODEM_GNSS_EVT_SLEEP_AFTER_FIX:
	LOG_INF("GNSS enters sleep after fix");
	break;
C

8. In main(), activate the GNSS stack only.

Using lte_lc_func_mode_set(), set the modem to mode LTE_LC_FUNC_MODE_ACTIVATE_GNSS. This will activate only the GNSS stack.

Copy
if (lte_lc_func_mode_set(LTE_LC_FUNC_MODE_ACTIVATE_GNSS) != 0) {
	LOG_ERR("Failed to activate GNSS functional mode");
	return;
}	
C

In an actual application, you wouldn’t completely deactivate LTE but rather configure PSM or eDRX so that the GNSS and LTE can be used rather often without having to completely activate and deactivate the modes.

We will take a look at how to do this in Exercise 2.

9. Then register the GNSS event handler, using nrf_modem_gnss_event_handler_set().

Copy
if (nrf_modem_gnss_event_handler_set(gnss_event_handler) != 0) {
	LOG_ERR("Failed to set GNSS event handler");
	return;
}
C

10. Using nrf_modem_gnss_fix_interval_set() and nrf_modem_gnss_fix_retry_set(), set the GNSS fix interval and GNSS fix retry period, which we defined in the Kconfig file.

Copy
if (nrf_modem_gnss_fix_interval_set(CONFIG_GNSS_PERIODIC_INTERVAL) != 0) {
	LOG_ERR("Failed to set GNSS fix interval");
	return;
}

if (nrf_modem_gnss_fix_retry_set(CONFIG_GNSS_PERIODIC_TIMEOUT) != 0) {
	LOG_ERR("Failed to set GNSS fix retry");
	return;
}
C

11. When everything is configured, start the GNSS receiver using nrf_modem_gnss_start().

Copy
LOG_INF("Starting GNSS");
if (nrf_modem_gnss_start() != 0) {
	LOG_ERR("Failed to start GNSS");
	return;
}
C

12. Upon the first fix, print the time it took from GNSS start to first fix (Time-To-First-Fix).

12.1 Declare the variable gnss_start_time to store the GNSS start time and a flag first_fix.

Copy
static int64_t gnss_start_time;
static bool first_fix = false;
C

12.2 After starting GNSS, log the system uptime using k_uptime_get().

Copy
gnss_start_time = k_uptime_get();
C

12.3 In gnss_event_handler(), check whether valid fixes are the first using the first_fix flag, and if so, print the time from GNSS start to the current system uptime and set the first_fix flag false.

Copy
if (!first_fix) {
	first_fix = true;
	dk_set_led_on(DK_LED1);
	LOG_INF("Time to first fix: %2.1lld s", (k_uptime_get() - gnss_start_time)/1000);
}
C

13. Build the exercise and flash it to your board.

14. To test the application, make sure you are outdoors under an open sky to achieve the best conditions.

14.1 Run the application until the LED indicating the first fix lights up. Your console should look something like this.

*** Booting nRF Connect SDK ***
[00:00:00.234,609] <inf> Lesson6_Exercise1: Initializing modem library
[00:00:00.583,709] <inf> Lesson6_Exercise1: Connecting to LTE network
[00:00:01.562,622] <inf> Lesson6_Exercise1: RRC mode: Connected
[00:00:03.604,370] <inf> Lesson6_Exercise1: Network registration status: Connected - roaming
[00:00:03.604,553] <inf> Lesson6_Exercise1: Connected to LTE network
[00:00:03.604,553] <inf> Lesson6_Exercise1: Deactivating LTE
[00:00:05.000,640] <inf> Lesson6_Exercise1: RRC mode: Idle
[00:00:05.076,110] <inf> Lesson6_Exercise1: Activating GNSS
[00:00:05.078,826] <inf> Lesson6_Exercise1: Starting GNSS
[00:00:05.104,583] <inf> Lesson6_Exercise1: Searching...
[00:00:06.108,734] <inf> Lesson6_Exercise1: Searching...
[00:00:07.110,412] <inf> Lesson6_Exercise1: Searching...
[00:00:08.109,893] <inf> Lesson6_Exercise1: Searching...
[00:00:09.109,954] <inf> Lesson6_Exercise1: Searching...
[00:00:10.110,687] <inf> Lesson6_Exercise1: Searching...
[00:00:11.110,656] <inf> Lesson6_Exercise1: Searching...
[00:00:12.110,748] <inf> Lesson6_Exercise1: Searching...
[00:00:13.110,687] <inf> Lesson6_Exercise1: Searching...
[00:00:14.111,053] <inf> Lesson6_Exercise1: Searching...
[00:00:15.110,870] <inf> Lesson6_Exercise1: Searching...
[00:00:16.111,755] <inf> Lesson6_Exercise1: Searching...
[00:00:17.110,900] <inf> Lesson6_Exercise1: Searching...
[00:00:18.111,938] <inf> Lesson6_Exercise1: Searching...
[00:00:19.111,633] <inf> Lesson6_Exercise1: Searching...
[00:00:20.111,419] <inf> Lesson6_Exercise1: Searching...
[00:00:21.112,030] <inf> Lesson6_Exercise1: Searching...
[00:00:22.111,999] <inf> Lesson6_Exercise1: Searching...
[00:00:23.112,091] <inf> Lesson6_Exercise1: Searching...
[00:00:24.112,060] <inf> Lesson6_Exercise1: Searching...
[00:00:25.112,182] <inf> Lesson6_Exercise1: Searching...
[00:00:28.112,243] <inf> Lesson6_Exercise1: Searching...
[00:00:29.112,396] <inf> Lesson6_Exercise1: Searching...
[00:00:30.112,304] <inf> Lesson6_Exercise1: Searching...
[00:00:31.112,365] <inf> Lesson6_Exercise1: Searching...
[00:00:32.112,396] <inf> Lesson6_Exercise1: Searching...
[00:00:33.112,548] <inf> Lesson6_Exercise1: Searching...
[00:00:34.112,518] <inf> Lesson6_Exercise1: Searching...
[00:00:35.112,579] <inf> Lesson6_Exercise1: Searching...
[00:00:36.112,579] <inf> Lesson6_Exercise1: Searching...
[00:00:37.112,701] <inf> Lesson6_Exercise1: Searching...
[00:00:38.112,670] <inf> Lesson6_Exercise1: Searching...
[00:00:39.178,436] <inf> Lesson6_Exercise1: Searching...
[00:00:39.178,497] <inf> Lesson6_Exercise1: Latitude:       63.421139
[00:00:39.178,527] <inf> Lesson6_Exercise1: Longitude:      10.437277
[00:00:39.178,527] <inf> Lesson6_Exercise1: Altitude:       157.6 m
[00:00:39.178,558] <inf> Lesson6_Exercise1: Time (UTC):     15:18:00.567
[00:00:39.178,558] <inf> Lesson6_Exercise1: Time to first fix: 34 s
[00:00:39.180,928] <inf> Lesson6_Exercise1: GNSS enter sleep after fix
Terminal

We can see that the time to first fix took 34 seconds, which is an expected amount of time.

14.2. Now run the appliation for around 10 minutes. The output should look something like this.

[00:00:36.771,087] <inf> Lesson6_Exercise1: Searching...
[00:00:37.771,179] <inf> Lesson6_Exercise1: Searching...
[00:00:38.820,800] <inf> Lesson6_Exercise1: Searching...
[00:00:38.820,861] <inf> Lesson6_Exercise1: Latitude:       63.421116
[00:00:38.820,892] <inf> Lesson6_Exercise1: Longitude:      10.437321
[00:00:38.820,892] <inf> Lesson6_Exercise1: Altitude:       154.2 m
[00:00:38.820,892] <inf> Lesson6_Exercise1: Time (UTC):     10:28:49.022
[00:00:38.820,922] <inf> Lesson6_Exercise1: Time to first fix: 34 s
[00:00:38.822,265] <inf> Lesson6_Exercise1: GNSS enter sleep after fix
[00:02:04.753,479] <inf> Lesson6_Exercise1: GNSS has woken up
[00:02:04.782,135] <inf> Lesson6_Exercise1: Searching...
[00:02:05.813,415] <inf> Lesson6_Exercise1: Searching...
[00:02:05.813,476] <inf> Lesson6_Exercise1: Latitude:       63.421127
[00:02:05.813,507] <inf> Lesson6_Exercise1: Longitude:      10.437298
[00:02:05.813,507] <inf> Lesson6_Exercise1: Altitude:       158.2 m
[00:02:05.813,537] <inf> Lesson6_Exercise1: Time (UTC):     10:30:16.030
[00:02:05.814,666] <inf> Lesson6_Exercise1: GNSS enter sleep after fix
[00:04:04.758,117] <inf> Lesson6_Exercise1: GNSS has woken up
[00:04:04.786,712] <inf> Lesson6_Exercise1: Searching...
[00:04:05.815,643] <inf> Lesson6_Exercise1: Searching...
[00:04:05.815,704] <inf> Lesson6_Exercise1: Latitude:       63.421158
[00:04:05.815,734] <inf> Lesson6_Exercise1: Longitude:      10.437305
[00:04:05.815,734] <inf> Lesson6_Exercise1: Altitude:       161.0 m
[00:04:05.815,734] <inf> Lesson6_Exercise1: Time (UTC):     10:32:16.030
[00:04:05.817,047] <inf> Lesson6_Exercise1: GNSS enter sleep after fix
Terminal

From the time stamps, it is clear that after getting the first fix, the GNSS sleeps then wakes up when the GNSS fix interval has passed (120 seconds or 2 minutes) and starts searching for a new fix. Then it sleeps and repeats.

Let’s modify the application to print a bit more debugging information when the GNSS is running.

15. Print the satellites that the GNSS is currently tracking and their signal strength.

The PVT event payload contains the array sv[12] of type struct nrf_modem_gnss_sv, which describes up to 12 of the space vehicles used for the measurements. It has the following signature

We are interested in the carrier-to-noise density ratio for all the valid satellites the GNSS is currently tracking, which is found in the member cn0. This tells us something about the signal strength from that satellite and it has to be above 30 dB/Hz (cn0 = 300) for the GNSS receiver to consider the satellite “healthy” and use it in calculations.

Insert the following code in the PVT event in gnss_event_handler().

Copy
int num_satellites = 0;
for (int i = 0; i < 12 ; i++) {
	if (pvt_data.sv[i].signal != 0) {
		LOG_INF("sv: %d, cn0: %d", pvt_data.sv[i].sv, pvt_data.sv[i].cn0);
		num_satellites++;
	}

}
LOG_INF("Number of satellites: %d", num_satellites);
C

16. Build the exercise and flash it to your board.

You should have a log output that looks something like this.

[00:00:05.153,625] <inf> Lesson6_Exercise1: Searching...
[00:00:05.153,656] <inf> Lesson6_Exercise1: Number of satellites: 0
[00:00:06.157,745] <inf> Lesson6_Exercise1: Searching...
[00:00:06.157,775] <inf> Lesson6_Exercise1: Number of satellites: 0
[00:00:07.158,843] <inf> Lesson6_Exercise1: Searching...
[00:00:07.158,874] <inf> Lesson6_Exercise1: sv: 18, cn0: 453
[00:00:07.158,874] <inf> Lesson6_Exercise1: sv: 30, cn0: 486
[00:00:07.158,905] <inf> Lesson6_Exercise1: sv: 27, cn0: 432
[00:00:07.158,905] <inf> Lesson6_Exercise1: sv: 8, cn0: 428
[00:00:07.158,905] <inf> Lesson6_Exercise1: sv: 5, cn0: 446
[00:00:07.158,935] <inf> Lesson6_Exercise1: sv: 13, cn0: 453
[00:00:07.158,935] <inf> Lesson6_Exercise1: sv: 7, cn0: 492
[00:00:07.158,966] <inf> Lesson6_Exercise1: sv: 14, cn0: 461
[00:00:07.158,966] <inf> Lesson6_Exercise1: sv: 15, cn0: 465
[00:00:07.158,996] <inf> Lesson6_Exercise1: sv: 28, cn0: 421
[00:00:07.158,996] <inf> Lesson6_Exercise1: Number of satellites: 10
[00:00:08.158,874] <inf> Lesson6_Exercise1: Searching...
[00:00:08.158,905] <inf> Lesson6_Exercise1: sv: 18, cn0: 445
[00:00:08.158,905] <inf> Lesson6_Exercise1: sv: 30, cn0: 484
[00:00:08.158,935] <inf> Lesson6_Exercise1: sv: 27, cn0: 432
[00:00:08.158,935] <inf> Lesson6_Exercise1: sv: 8, cn0: 428
[00:00:08.158,966] <inf> Lesson6_Exercise1: sv: 5, cn0: 446
[00:00:08.158,966] <inf> Lesson6_Exercise1: sv: 13, cn0: 453
[00:00:08.158,966] <inf> Lesson6_Exercise1: sv: 7, cn0: 492
[00:00:08.158,996] <inf> Lesson6_Exercise1: sv: 14, cn0: 461
[00:00:08.158,996] <inf> Lesson6_Exercise1: sv: 15, cn0: 465
[00:00:08.159,027] <inf> Lesson6_Exercise1: sv: 28, cn0: 421
[00:00:08.159,057] <inf> Lesson6_Exercise1: sv: 20, cn0: 432
[00:00:08.159,057] <inf> Lesson6_Exercise1: Number of satellites: 11
Terminal

Printing the satellite information and signal strength is useful for debugging purposes if your application is not getting a fix.

Because the GNSS is solving for four unknown variables, it needs at least 4 satellites to get a valid fix.

The solution for this exercise can be found in l6/l6_e1_sol.

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‍Nothing within these Terms of Use is intended to limit your statutory data privacy rights as a data subject, as described in the Nordic Developer Academy Privacy Policy. ‍You acknowledge that errors might occur from time to time and waive any right to claim for compensation as a result of errors in Nordic Developer Academy. When an error occurs, you shall notify Nordic Semiconductor of the error and provide a description of the error situation.

You agree to indemnify Nordic Semiconductor for any loss, including indirect loss, arising out of or in connection with your use of Nordic Developer Academy or violations of these Terms of Use. ‍Nordic Semiconductor shall not be held liable for, and does not warrant that (i) Nordic Developer Academy will meet your specific requirements, (ii) Nordic Developer Academy will be uninterrupted, timely, secure, or error-free, (iii) the results that may be obtained from the use of Nordic Developer Academy will be accurate or reliable, (iv) the quality of any products, services, information, or other material purchased or obtained by you through Nordic Developer Academy will meet your expectations, or that (v) any errors in Nordic Developer Academy will be corrected.

You accept that this is a service provided to you without any payment and hence you accept that Nordic Semiconductor will not be held responsible, or liable, for any breaches of these Terms of Use or any loss connected to your use of Nordic Developer Academy. Unless otherwise follows from mandatory law, Nordic Semiconductor will not accept any such responsibility or liability.

‍7. Change of terms

‍Nordic Semiconductor may update and change the Terms of Use from time to time. Nordic Semiconductor will seek to notify you about significant changes before such changes come into force and give you a possibility to evaluate the effects of proposed changes. Continued use of Nordic Developer Academy after any such changes shall constitute your acceptance of such changes. You can review the current version of the Terms of Use at any time at https://academy.nordicsemi.com/terms-of-service/

‍8. Transfer of rights

‍Nordic Semiconductor is entitled to transfer its rights and obligation pursuant to these Terms of Use to a third party as part of a merger or acquisition process, or as a result of other organizational changes.

‍9. Third Party Services

‍‍To the extent Nordic Developer Academy facilitates access to services provided by a third party, you agree to comply with the terms governing such third party services. Nordic Semiconductor shall not be held liable for any errors, omissions, inaccuracies, etc. related to such third party services.

‍10. Dispute resolution

‍‍The Terms of Use and any other legally binding agreement between yourself and Nordic Semiconductor shall be subject to Norwegian law and Norwegian courts’ exclusive jurisdiction.

 

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      Change summary

      What's new in the latest version

      MCUboot & Partition Manager

      MCUboot & Partition Manager

      •Single-Slot DFU and RAM Load mode are both promoted to fully supported
      •Partition Manager is officially deprecated in favor of Zephyr's devicetree-based partitioning.