/* * * Wireless daemon for Linux * * Copyright (C) 2021 Intel Corporation. All rights reserved. * * This library is free software; you can redistribute it and/or * modify it under the terms of the GNU Lesser General Public * License as published by the Free Software Foundation; either * version 2.1 of the License, or (at your option) any later version. * * This library is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU * Lesser General Public License for more details. * * You should have received a copy of the GNU Lesser General Public * License along with this library; if not, write to the Free Software * Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA * */ #ifdef HAVE_CONFIG_H #include <config.h> #endif #include <stdio.h> #include <string.h> #include <assert.h> #include <stdlib.h> #include <errno.h> #include <ell/ell.h> #include "src/band.h" #include "src/netdev.h" #include "src/ie.h" static struct band *new_band() { /* Band with VHT/80, short GI, NSS:2 and VHT MCS 0-9 */ static const uint8_t vht_mcs_set[] = { 0xfa, 0xff, 0x00, 0x00, 0xfa, 0xff, 0x00, 0x20, }; static const uint8_t vht_capabilities[] = { 0xa0, 0x71, 0x80, 0x03, }; static const uint8_t ht_mcs_set[] = { 0xff, 0xff, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x2c, 0x01, 0x01, 0x00, 0x00, 0x00, }; static const uint8_t ht_capabilities[] = { 0xee, 0x11, }; /* band + 8 basic rates */ struct band *band = l_malloc(sizeof(struct band) + 8); memset(band, 0, sizeof(struct band) + 8); band->supported_rates_len = 8; band->supported_rates[0] = 12; band->supported_rates[1] = 18; band->supported_rates[2] = 24; band->supported_rates[3] = 36; band->supported_rates[4] = 48; band->supported_rates[5] = 72; band->supported_rates[6] = 96; band->supported_rates[7] = 108; band->ht_supported = true; band->vht_supported = true; memcpy(band->vht_mcs_set, vht_mcs_set, sizeof(band->vht_mcs_set)); memcpy(band->vht_capabilities, vht_capabilities, sizeof(band->vht_capabilities)); memcpy(band->ht_mcs_set, ht_mcs_set, sizeof(band->ht_mcs_set)); memcpy(band->ht_capabilities, ht_capabilities, sizeof(band->ht_capabilities)); return band; } static void band_test_nonht_1(const void *data) { uint8_t supported_rates[] = { 1, 8, 0x8c, 0x12, 0x98, 0x24, 0xb0, 0x48, 0x60, 0x6c }; struct band *band = new_band(); uint64_t data_rate; int ret; ret = band_estimate_nonht_rate(band, supported_rates, NULL, -50, &data_rate); assert(ret == 0); assert(data_rate == 54000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -66, &data_rate); assert(ret == 0); assert(data_rate == 48000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -70, &data_rate); assert(ret == 0); assert(data_rate == 36000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -74, &data_rate); assert(ret == 0); assert(data_rate == 24000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -77, &data_rate); assert(ret == 0); assert(data_rate == 18000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -79, &data_rate); assert(ret == 0); assert(data_rate == 12000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -81, &data_rate); assert(ret == 0); assert(data_rate == 9000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -82, &data_rate); assert(ret == 0); assert(data_rate == 6000000); ret = band_estimate_nonht_rate(band, supported_rates, NULL, -83, &data_rate); assert(ret < 0); band_free(band); } static void band_test_ht_1(const void *data) { /* HT40 */ uint8_t hto[] = { 61, 22, 0x95, 0x0d, 0x11, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00 }; /* HT40, MCS 0-23, 40/20Mhz SGI */ uint8_t htc[] = { 45, 26, 0xef, 0x09, 0x17, 0xff, 0xff, 0xff, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00 }; struct band *band = new_band(); uint64_t data_rate; int ret; ret = band_estimate_ht_rx_rate(band, htc, hto, -51, &data_rate); assert(ret == 0); assert(data_rate == 300000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -62, &data_rate); assert(ret == 0); assert(data_rate == 270000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -63, &data_rate); assert(ret == 0); assert(data_rate == 240000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -66, &data_rate); assert(ret == 0); assert(data_rate == 180000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -71, &data_rate); assert(ret == 0); assert(data_rate == 120000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -74, &data_rate); assert(ret == 0); assert(data_rate == 90000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -76, &data_rate); assert(ret == 0); assert(data_rate == 60000000); ret = band_estimate_ht_rx_rate(band, htc, hto, -79, &data_rate); assert(ret == 0); assert(data_rate == 30000000); /* We should now fall back to HT20 */ ret = band_estimate_ht_rx_rate(band, htc, hto, -82, &data_rate); assert(ret == 0); assert(data_rate == 14444440); ret = band_estimate_ht_rx_rate(band, htc, hto, -83, &data_rate); assert(ret < 0); band_free(band); } static void band_test_vht_1(const void *data) { /* VHT operating on 80 Mhz */ uint8_t vhto[] = { 192, 5, 0x01, 0x9b, 0x00, 0x00, 0x00 }; /* VHT80, NSS:3, MCS 0-9, 80Mhz SGI */ uint8_t vhtc[] = { 191, 12, 0xb2, 0x59, 0x82, 0x0f, 0xea, 0xff, 0x00, 0x00, 0xea, 0xff, 0x00, 0x00 }; /* HT40 */ uint8_t hto[] = { 61, 22, 0x95, 0x0d, 0x11, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00 }; /* HT40, MCS 0-23, 40/20Mhz SGI */ uint8_t htc[] = { 45, 26, 0xef, 0x09, 0x17, 0xff, 0xff, 0xff, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00 }; struct band *band = new_band(); uint64_t data_rate; int ret; ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -51, &data_rate); assert(ret == 0); assert(data_rate == 866666660); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -53, &data_rate); assert(ret == 0); assert(data_rate == 780000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -56, &data_rate); assert(ret == 0); assert(data_rate == 650000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -59, &data_rate); assert(ret == 0); assert(data_rate == 585000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -60, &data_rate); assert(ret == 0); assert(data_rate == 520000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -63, &data_rate); assert(ret == 0); assert(data_rate == 390000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -67, &data_rate); assert(ret == 0); assert(data_rate == 260000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -70, &data_rate); assert(ret == 0); assert(data_rate == 195000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -73, &data_rate); assert(ret == 0); assert(data_rate == 130000000); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -76, &data_rate); assert(ret == 0); assert(data_rate == 65000000); /* We should now fall back to HT40 */ ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -79, &data_rate); assert(ret == 0); assert(data_rate == 30000000); /* And only enough for HT20 */ ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -82, &data_rate); assert(ret == 0); assert(data_rate == 14444440); ret = band_estimate_vht_rx_rate(band, vhtc, vhto, htc, hto, -83, &data_rate); assert(ret < 0); band_free(band); } struct he_test_data { enum band_freq freq; int32_t rssi; uint64_t expected_rate; int expected_return; /* Own capabilities */ struct band_he_capabilities capabilities; /* Peer HE Capabilities IE */ uint8_t he_capabilities[31]; }; /* IWD doesn't look at this */ #define HE_MAC_CAPA 0, 0, 0, 0, 0, 0 /* IWD only cares about the width set byte */ #define HE_PHY_CAPA(wset) wset, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0 #define MCS7 0 #define MCS9 1 #define MCS11 2 #define MCS_UNSUP 0xff, 0xff /* A readable macro for defining MCS sets */ #define HE_MCS_SET(mcs, nss) \ (nss >= 1 ? mcs << 0 : 3 << 0) | \ (nss >= 2 ? mcs << 2 : 3 << 2) | \ (nss >= 3 ? mcs << 4 : 3 << 4) | \ (nss >= 4 ? mcs << 6 : 3 << 6), \ (nss >= 5 ? mcs << 0 : 3 << 0) | \ (nss >= 6 ? mcs << 2 : 3 << 2) | \ (nss >= 7 ? mcs << 4 : 3 << 4) | \ (nss >= 8 ? mcs << 6 : 3 << 6) /* 2.4GHz, 20MHz, MCS 7, NSS 1 */ const struct he_test_data he_test_2_4_20mhz_mcs_7_nss_1 = { .freq = BAND_FREQ_2_4_GHZ, .rssi = -20, .expected_rate = 86000000ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS7, 1), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x00) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 22, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x00), MCS_UNSUP, HE_MCS_SET(MCS7, 1), }, }; /* 2.4GHz, 40MHz, MCS 7, NSS 1 */ const struct he_test_data he_test_2_4_40mhz_mcs_7_nss_1 = { .freq = BAND_FREQ_2_4_GHZ, .rssi = -20, .expected_rate = 172000000ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS7, 1), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x02) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 22, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x02), MCS_UNSUP, HE_MCS_SET(MCS7, 1), }, }; /* 5GHz, 20MHz, MCS 7, NSS 1 */ const struct he_test_data he_test_5_20mhz_mcs_7_nss_1 = { .freq = BAND_FREQ_5_GHZ, .rssi = -20, .expected_rate = 86000000ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS7, 1), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x00) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 22, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x00), MCS_UNSUP, HE_MCS_SET(MCS7, 1) }, }; /* 5GHz, 80MHz, MCS 7, NSS 1 */ const struct he_test_data he_test_5_80mhz_mcs_7_nss_1 = { .freq = BAND_FREQ_5_GHZ, .rssi = -20, .expected_rate = 360300000ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS7, 1), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x04) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 22, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x04), MCS_UNSUP, HE_MCS_SET(MCS7, 1) }, }; /* 5GHz, 160MHz, MCS 7, NSS 1 */ const struct he_test_data he_test_5_160mhz_mcs_7_nss_1 = { .freq = BAND_FREQ_5_GHZ, .rssi = -20, .expected_rate = 720600000ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS7, 1), MCS_UNSUP, HE_MCS_SET(MCS7, 1), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x0c) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 26, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x0c), MCS_UNSUP, HE_MCS_SET(MCS7, 1), MCS_UNSUP, HE_MCS_SET(MCS7, 1) }, }; /* 5GHz, 160/80+80MHz, MCS 7, NSS 1 */ const struct he_test_data he_test_5_160_80_P_80_mhz_mcs_7_nss_1 = { .freq = BAND_FREQ_5_GHZ, .rssi = -20, .expected_rate = 720600000ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS7, 1), MCS_UNSUP, HE_MCS_SET(MCS7, 1), MCS_UNSUP, HE_MCS_SET(MCS7, 1), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x1c) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 30, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x1c), MCS_UNSUP, HE_MCS_SET(MCS7, 1), MCS_UNSUP, HE_MCS_SET(MCS7, 1), MCS_UNSUP, HE_MCS_SET(MCS7, 1) }, }; /* 5GHz, max data rate */ const struct he_test_data he_test_5_max_data_rate = { .freq = BAND_FREQ_5_GHZ, .rssi = -20, .expected_rate = 1201000000ULL * 8ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x1c) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 30, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x1c), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8) }, }; const struct he_test_data he_all_mcs_unsupported = { .freq = BAND_FREQ_5_GHZ, .rssi = -20, .expected_rate = 1201000000ULL * 8ULL, .expected_return = -ENETUNREACH, .capabilities = { .he_mcs_set = { MCS_UNSUP, MCS_UNSUP, MCS_UNSUP, MCS_UNSUP, MCS_UNSUP, MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x1c) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 30, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x1c), MCS_UNSUP, MCS_UNSUP, MCS_UNSUP, MCS_UNSUP, MCS_UNSUP, MCS_UNSUP }, }; /* 5GHz, max data rate, low-rssi */ const struct he_test_data he_test_5_low_rssi = { .freq = BAND_FREQ_5_GHZ, .rssi = -80, /* Should force 20MHz/MCS0 width to be used */ .expected_rate = 8600000ULL * 8ULL, .capabilities = { .he_mcs_set = { HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP }, .he_phy_capa = { HE_PHY_CAPA(0x1c) }, .iftypes = 1 << NETDEV_IFTYPE_STATION, }, .he_capabilities = { 30, IE_TYPE_HE_CAPABILITIES - 256, HE_MAC_CAPA, HE_PHY_CAPA(0x1c), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8), MCS_UNSUP, HE_MCS_SET(MCS11, 8) }, }; static void band_test_he(const void *data) { const struct he_test_data *he_data = data; struct band *band; uint64_t rate = 0; int ret; band = new_band(); band->freq = he_data->freq; band->he_capabilities = l_queue_new(); l_queue_push_tail(band->he_capabilities, (void*)&(he_data->capabilities)); assert(ie_validate_he_capabilities(he_data->he_capabilities + 2, he_data->he_capabilities[0])); ret = band_estimate_he_rx_rate(band, he_data->he_capabilities + 2, he_data->rssi, &rate); assert(ret == he_data->expected_return); if (ret == 0) assert(rate == he_data->expected_rate); l_queue_destroy(band->he_capabilities, NULL); l_free(band); } struct oci2freq_data { unsigned int op; unsigned int chan; int expected_freq; }; static const struct oci2freq_data oci2freq_data_1 = { 129, 100, 5500 }; static const struct oci2freq_data oci2freq_data_2 = { 129, 108, 5540 }; static const struct oci2freq_data oci2freq_data_3 = { 129, 106, -EINVAL }; static const struct oci2freq_data oci2freq_data_4 = { 81, 1, 2412 }; static const struct oci2freq_data oci2freq_data_5 = { 82, 1, -EINVAL }; static const struct oci2freq_data oci2freq_data_6 = { 82, 14, 2484 }; static const struct oci2freq_data oci2freq_data_7 = { 88, 0, -ENOENT }; static const struct oci2freq_data oci2freq_data_8 = { 128, 161, 5805 }; static void test_oci2freq(const void *data) { const struct oci2freq_data *test = data; int r; r = oci_to_frequency(test->op, test->chan); assert(r == test->expected_freq); } static const struct band_chandef cd_1 = { .frequency = 5540, .channel_width = BAND_CHANDEF_WIDTH_160, .center1_frequency = 5570, }; static const struct band_chandef cd_2 = { .frequency = 5180, .channel_width = BAND_CHANDEF_WIDTH_80P80, .center1_frequency = 5210, .center2_frequency = 5775, }; static const struct band_chandef cd_3 = { .frequency = 2437, .channel_width = BAND_CHANDEF_WIDTH_20NOHT, .center1_frequency = 2437, }; static const struct band_chandef cd_4 = { .frequency = 2437, .channel_width = BAND_CHANDEF_WIDTH_40, .center1_frequency = 2427, }; static const struct band_chandef cd_5 = { .frequency = 6235, .channel_width = BAND_CHANDEF_WIDTH_20, }; static const struct band_chandef cd_6 = { .frequency = 6235, .channel_width = BAND_CHANDEF_WIDTH_40, }; static const struct band_chandef cd_7 = { .frequency = 6235, .channel_width = BAND_CHANDEF_WIDTH_80, }; static const struct band_chandef cd_8 = { .frequency = 6235, .channel_width = BAND_CHANDEF_WIDTH_160, }; static const struct band_chandef cd_9 = { .frequency = 6235, .channel_width = BAND_CHANDEF_WIDTH_80P80, .center1_frequency = 6145, .center2_frequency = 6225, }; struct oci_data { const struct band_chandef *cd; uint8_t oci[3]; int expected_verify_error; }; static const struct oci_data oci_data_1 = { &cd_1, { 129, 108, 0 } }; static const struct oci_data oci_data_2 = { &cd_2, { 130, 36, 155 } }; static const struct oci_data oci_data_3 = { &cd_3, { 81, 6, 0 } }; static const struct oci_data oci_data_4 = { &cd_4, { 84, 6, 0 } }; static const struct oci_data oci_data_5 = { &cd_5, { 131, 57, 0 } }; static const struct oci_data oci_data_6 = { &cd_6, { 132, 57, 0 } }; static const struct oci_data oci_data_7 = { &cd_7, { 133, 57, 0 } }; static const struct oci_data oci_data_8 = { &cd_8, { 134, 57, 0 } }; static const struct oci_data oci_data_9 = { &cd_9, { 135, 57, 55 } }; static const struct oci_data oci_err_1 = { &cd_1, { 129, 36, 0 }, -EPERM }; static const struct oci_data oci_err_2 = { &cd_1, { 121, 108, 0 }, -EPERM }; static const struct oci_data oci_err_3 = { &cd_1, { 130, 36, 155 }, -EPERM }; static const struct oci_data oci_err_4 = { &cd_3, { 81, 5 }, -EPERM }; static const struct oci_data oci_err_5 = { &cd_3, { 80, 1 }, -ENOENT }; static const struct oci_data oci_err_6 = { &cd_3, { 81, 15 }, -EINVAL }; static const struct oci_data oci_err_7 = { &cd_4, { 84, 5 }, -EPERM }; static const struct oci_data oci_err_8 = { &cd_4, { 83, 6 }, -EPERM }; static void test_oci_verify(const void *data) { const struct oci_data *test = data; int r; r = oci_verify(test->oci, test->cd); assert(r == test->expected_verify_error); } static void test_oci_from_chandef(const void *data) { const struct oci_data *test = data; uint8_t oci[3]; int r; r = oci_from_chandef(test->cd, oci); assert(!r); assert(!memcmp(oci, test->oci, sizeof(oci))); } static void test_6ghz_channels(const void *data) { unsigned int i; /* Test all channels for 6GHz */ for (i = 1; i <= 233; i += 4) assert(band_channel_to_freq(i, BAND_FREQ_6_GHZ) != 0); } static void test_6ghz_freqs(const void *data) { uint32_t i; enum band_freq band; for (i = 5955; i <= 7115; i += 20) { assert(band_freq_to_channel(i, &band) != 0); assert(band == BAND_FREQ_6_GHZ); } } static void test_conversions(const void *data) { /* * Test a few invalid channels/frequencies that appear valid but are * not in the E-4 table. The checks in band.c seem to cover 2.4GHz and * 6GHz very well since there are no gaps, but the 5GHz band has some * segmentation. */ /* Gap in 5GHz channels between 68 and 96 */ assert(!band_channel_to_freq(72, BAND_FREQ_5_GHZ)); assert(!band_freq_to_channel(5360, NULL)); /* Invalid channel using 4000mhz starting frequency */ assert(!band_channel_to_freq(183, BAND_FREQ_5_GHZ)); assert(!band_freq_to_channel(4915, NULL)); assert(!band_channel_to_freq(192, BAND_FREQ_5_GHZ)); } static void test_conversion_fallback(const void *data) { enum band_freq band; const uint8_t cc[] = {'E', 'S', 0x04}; /* * Without a fallback, this would fail. There is no operclass 3 in the * global operating table (E-4) */ band = band_oper_class_to_band(cc, 3); assert(band == BAND_FREQ_5_GHZ); } int main(int argc, char *argv[]) { l_test_init(&argc, &argv); l_test_add("/band/non-HT/test1", band_test_nonht_1, NULL); l_test_add("/band/HT/test1", band_test_ht_1, NULL); l_test_add("/band/VHT/test1", band_test_vht_1, NULL); l_test_add("/band/HE/test/2.4GHz/20MHz/MCS7/NSS1", band_test_he, &he_test_2_4_20mhz_mcs_7_nss_1); l_test_add("/band/HE/test/2.4GHz/40MHz/MCS7/NSS1", band_test_he, &he_test_2_4_40mhz_mcs_7_nss_1); l_test_add("/band/HE/test/5GHz/20MHz/MCS7/NSS1", band_test_he, &he_test_5_20mhz_mcs_7_nss_1); l_test_add("/band/HE/test/5GHz/80MHz/MCS7/NSS1", band_test_he, &he_test_5_80mhz_mcs_7_nss_1); l_test_add("/band/HE/test/5GHz/160MHz/MCS7/NSS1", band_test_he, &he_test_5_160mhz_mcs_7_nss_1); l_test_add("/band/HE/test/5GHz/160/80+80MHz/MCS7/NSS1", band_test_he, &he_test_5_160_80_P_80_mhz_mcs_7_nss_1); l_test_add("/band/HE/test/5GHz/max data rate", band_test_he, &he_test_5_max_data_rate); l_test_add("/band/HE/test/all MCS unsupported", band_test_he, &he_all_mcs_unsupported); l_test_add("/band/HE/test/low RSSI", band_test_he, &he_test_5_low_rssi); l_test_add("/band/oci2freq 1", test_oci2freq, &oci2freq_data_1); l_test_add("/band/oci2freq 2", test_oci2freq, &oci2freq_data_2); l_test_add("/band/oci2freq 3", test_oci2freq, &oci2freq_data_3); l_test_add("/band/oci2freq 4", test_oci2freq, &oci2freq_data_4); l_test_add("/band/oci2freq 5", test_oci2freq, &oci2freq_data_5); l_test_add("/band/oci2freq 6", test_oci2freq, &oci2freq_data_6); l_test_add("/band/oci2freq 7", test_oci2freq, &oci2freq_data_7); l_test_add("/band/oci2freq 8", test_oci2freq, &oci2freq_data_8); l_test_add("/band/oci/verify 1", test_oci_verify, &oci_data_1); l_test_add("/band/oci/verify 2", test_oci_verify, &oci_data_2); l_test_add("/band/oci/verify 3", test_oci_verify, &oci_data_3); l_test_add("/band/oci/verify 4", test_oci_verify, &oci_data_4); l_test_add("/band/oci/verify 5", test_oci_verify, &oci_data_5); l_test_add("/band/oci/verify 6", test_oci_verify, &oci_data_6); l_test_add("/band/oci/verify 7", test_oci_verify, &oci_data_7); l_test_add("/band/oci/verify 8", test_oci_verify, &oci_data_8); l_test_add("/band/oci/verify 9", test_oci_verify, &oci_data_9); l_test_add("/band/oci/noverify 1", test_oci_verify, &oci_err_1); l_test_add("/band/oci/noverify 2", test_oci_verify, &oci_err_2); l_test_add("/band/oci/noverify 3", test_oci_verify, &oci_err_3); l_test_add("/band/oci/noverify 4", test_oci_verify, &oci_err_4); l_test_add("/band/oci/noverify 5", test_oci_verify, &oci_err_5); l_test_add("/band/oci/noverify 6", test_oci_verify, &oci_err_6); l_test_add("/band/oci/noverify 7", test_oci_verify, &oci_err_7); l_test_add("/band/oci/noverify 8", test_oci_verify, &oci_err_8); l_test_add("/band/oci/chandef 1", test_oci_from_chandef, &oci_data_1); l_test_add("/band/oci/chandef 2", test_oci_from_chandef, &oci_data_2); l_test_add("/band/oci/chandef 3", test_oci_from_chandef, &oci_data_3); l_test_add("/band/oci/chandef 4", test_oci_from_chandef, &oci_data_4); l_test_add("/band/6ghz/channels", test_6ghz_channels, NULL); l_test_add("/band/6ghz/freq", test_6ghz_freqs, NULL); l_test_add("/band/conversions", test_conversions, NULL); l_test_add("/band/conversion fallback", test_conversion_fallback, NULL); return l_test_run(); }