/* It calls jzmmc_manual_detect() to re-scan SDIO card */ int ssv_wlan_power_on(int flag) { static struct wake_lock *wifi_wake_lock = &ssv_6xxx_data.wifi_wake_lock; //struct regulator *wifi_vbat = ssv_6xxx_data.wifi_vbat; //struct regulator *wifi_vddio = ssv_6xxx_data.wifi_vddio; int reset = ssv_6xxx_data.wifi_reset; /* if (wifi_wake_lock == NULL) pr_warn("%s: invalid wifi_wake_lock\n", __func__); else if (wifi_vbat == NULL) pr_warn("%s: invalid wifi_vbat\n", __func__); else if (wifi_vddio == NULL) pr_warn("%s: invalid wifi_vddio\n", __func__); else if (!gpio_is_valid(reset)) pr_warn("%s: invalid reset\n", __func__); else goto start; return -ENODEV; start: */ printk("wlan power on:%d\n", flag); wake_lock(wifi_wake_lock); //rtc32k_enable(); switch(flag) { case RESET: wlan_pw_en_enable(); jzmmc_clk_ctrl(WLAN_SDIO_INDEX, 1); gpio_direction_output(reset, 0); msleep(100); gpio_direction_output(reset, 1); break; case NORMAL: wlan_pw_en_enable(); gpio_direction_output(reset, 0); msleep(200); gpio_direction_output(reset, 1); jzmmc_manual_detect(WLAN_SDIO_INDEX, 1); break; } wake_unlock(wifi_wake_lock); return 0; }
int bcm_wlan_power_on(int flag) { static struct wake_lock *wifi_wake_lock = &bcm_ap6212_data.wifi_wake_lock; struct regulator *wifi_vbat = bcm_ap6212_data.wifi_vbat; struct regulator *wifi_vddio = bcm_ap6212_data.wifi_vddio; int reset = bcm_ap6212_data.wifi_reset; if (wifi_wake_lock == NULL) pr_warn("%s: invalid wifi_wake_lock\n", __func__); else if (wifi_vbat == NULL) pr_warn("%s: invalid wifi_vbat\n", __func__); else if (wifi_vddio == NULL) pr_warn("%s: invalid wifi_vddio\n", __func__); else if (!gpio_is_valid(reset)) pr_warn("%s: invalid reset\n", __func__); else goto start; return -ENODEV; start: pr_debug("wlan power on:%d\n", flag); wake_lock(wifi_wake_lock); rtc32k_enable(); switch(flag) { case RESET: wlan_pw_en_enable(); jzmmc_clk_ctrl(WLAN_SDIO_INDEX, 1); gpio_set_value(reset, 0); msleep(100); gpio_set_value(reset, 1); break; case NORMAL: wlan_pw_en_enable(); gpio_set_value(reset, 0); msleep(100); gpio_set_value(reset, 1); jzmmc_manual_detect(WLAN_SDIO_INDEX, 1); break; } wake_unlock(wifi_wake_lock); return 0; }
int IW8101_wlan_power_on(int flag) { static struct wake_lock *wifi_wake_lock = &iw8101_data.wifi_wake_lock; struct regulator *power = iw8101_data.wifi_power; int reset = iw8101_data.wifi_reset; if (wifi_wake_lock == NULL) pr_warn("%s: invalid wifi_wake_lock\n", __func__); else if (power == NULL) pr_warn("%s: invalid power\n", __func__); else if (!gpio_is_valid(reset)) pr_warn("%s: invalid reset\n", __func__); else goto start; return -ENODEV; start: pr_info("------------------------wlan power on:%d\n", flag); /* writel(gpio_bakup[0] & 0x1f00000, (void *)(0xb0010300 + PXINTS)); writel(~gpio_bakup[0] & 0x1f00000, (void *)(0xb0010300 + PXINTC)); writel(gpio_bakup[1] & 0x1f00000, (void *)(0xb0010300 + PXMSKS)); writel(~gpio_bakup[1] & 0x1f00000, (void *)(0xb0010300 + PXMSKC)); writel(gpio_bakup[2] & 0x1f00000, (void *)(0xb0010300 + PXPAT1S)); writel(~gpio_bakup[2] & 0x1f00000, (void *)(0xb0010300 + PXPAT1C)); writel(gpio_bakup[3] & 0x1f00000, (void *)(0xb0010300 + PXPAT0S)); writel(~gpio_bakup[3] & 0x1f00000, (void *)(0xb0010300 + PXPAT0C)); */ //jzrtc_enable_clk32k(); clk_32k_on(); msleep(200); switch(flag) { case RESET: wlan_pw_en_enable(); regulator_enable(power); jzmmc_clk_ctrl(1, 1); gpio_set_value(reset, 0); msleep(200); gpio_set_value(reset, 1); msleep(200); break; case NORMAL: wlan_pw_en_enable(); regulator_enable(power); gpio_set_value(reset, 0); msleep(200); gpio_set_value(reset, 1); msleep(200); jzmmc_manual_detect(1, 1); break; } wake_lock(wifi_wake_lock); return 0; }