forked from Minki/linux
74415edb04
Drivers should notify rt2x00lib when they provide the IV/ICV data. This adds some flexibility to drivers which can't provide all information. * rt2500usb provides ICV inside the frame * rt2800pci doesn't provide IV/ICV * rt2800usb doesn't provide IV/ICV Signed-off-by: Ivo van Doorn <IvDoorn@gmail.com> Signed-off-by: John W. Linville <linville@tuxdriver.com>
2828 lines
85 KiB
C
2828 lines
85 KiB
C
/*
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Copyright (C) 2004 - 2008 rt2x00 SourceForge Project
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<http://rt2x00.serialmonkey.com>
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This program is free software; you can redistribute it and/or modify
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it under the terms of the GNU General Public License as published by
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the Free Software Foundation; either version 2 of the License, or
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(at your option) any later version.
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This program is distributed in the hope that it will be useful,
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but WITHOUT ANY WARRANTY; without even the implied warranty of
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MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
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GNU General Public License for more details.
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You should have received a copy of the GNU General Public License
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along with this program; if not, write to the
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Free Software Foundation, Inc.,
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59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
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*/
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/*
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Module: rt61pci
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Abstract: rt61pci device specific routines.
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Supported chipsets: RT2561, RT2561s, RT2661.
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*/
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#include <linux/crc-itu-t.h>
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#include <linux/delay.h>
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#include <linux/etherdevice.h>
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#include <linux/init.h>
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#include <linux/kernel.h>
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#include <linux/module.h>
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#include <linux/pci.h>
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#include <linux/eeprom_93cx6.h>
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#include "rt2x00.h"
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#include "rt2x00pci.h"
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#include "rt61pci.h"
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/*
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* Allow hardware encryption to be disabled.
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*/
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static int modparam_nohwcrypt = 0;
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module_param_named(nohwcrypt, modparam_nohwcrypt, bool, S_IRUGO);
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MODULE_PARM_DESC(nohwcrypt, "Disable hardware encryption.");
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/*
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* Register access.
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* BBP and RF register require indirect register access,
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* and use the CSR registers PHY_CSR3 and PHY_CSR4 to achieve this.
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* These indirect registers work with busy bits,
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* and we will try maximal REGISTER_BUSY_COUNT times to access
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* the register while taking a REGISTER_BUSY_DELAY us delay
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* between each attampt. When the busy bit is still set at that time,
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* the access attempt is considered to have failed,
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* and we will print an error.
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*/
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#define WAIT_FOR_BBP(__dev, __reg) \
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rt2x00pci_regbusy_read((__dev), PHY_CSR3, PHY_CSR3_BUSY, (__reg))
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#define WAIT_FOR_RF(__dev, __reg) \
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rt2x00pci_regbusy_read((__dev), PHY_CSR4, PHY_CSR4_BUSY, (__reg))
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#define WAIT_FOR_MCU(__dev, __reg) \
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rt2x00pci_regbusy_read((__dev), H2M_MAILBOX_CSR, \
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H2M_MAILBOX_CSR_OWNER, (__reg))
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static void rt61pci_bbp_write(struct rt2x00_dev *rt2x00dev,
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const unsigned int word, const u8 value)
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{
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u32 reg;
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mutex_lock(&rt2x00dev->csr_mutex);
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/*
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* Wait until the BBP becomes available, afterwards we
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* can safely write the new data into the register.
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*/
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if (WAIT_FOR_BBP(rt2x00dev, ®)) {
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reg = 0;
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rt2x00_set_field32(®, PHY_CSR3_VALUE, value);
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rt2x00_set_field32(®, PHY_CSR3_REGNUM, word);
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rt2x00_set_field32(®, PHY_CSR3_BUSY, 1);
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rt2x00_set_field32(®, PHY_CSR3_READ_CONTROL, 0);
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rt2x00pci_register_write(rt2x00dev, PHY_CSR3, reg);
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}
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mutex_unlock(&rt2x00dev->csr_mutex);
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}
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static void rt61pci_bbp_read(struct rt2x00_dev *rt2x00dev,
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const unsigned int word, u8 *value)
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{
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u32 reg;
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mutex_lock(&rt2x00dev->csr_mutex);
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/*
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* Wait until the BBP becomes available, afterwards we
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* can safely write the read request into the register.
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* After the data has been written, we wait until hardware
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* returns the correct value, if at any time the register
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* doesn't become available in time, reg will be 0xffffffff
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* which means we return 0xff to the caller.
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*/
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if (WAIT_FOR_BBP(rt2x00dev, ®)) {
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reg = 0;
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rt2x00_set_field32(®, PHY_CSR3_REGNUM, word);
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rt2x00_set_field32(®, PHY_CSR3_BUSY, 1);
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rt2x00_set_field32(®, PHY_CSR3_READ_CONTROL, 1);
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rt2x00pci_register_write(rt2x00dev, PHY_CSR3, reg);
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WAIT_FOR_BBP(rt2x00dev, ®);
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}
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*value = rt2x00_get_field32(reg, PHY_CSR3_VALUE);
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mutex_unlock(&rt2x00dev->csr_mutex);
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}
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static void rt61pci_rf_write(struct rt2x00_dev *rt2x00dev,
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const unsigned int word, const u32 value)
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{
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u32 reg;
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if (!word)
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return;
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mutex_lock(&rt2x00dev->csr_mutex);
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/*
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* Wait until the RF becomes available, afterwards we
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* can safely write the new data into the register.
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*/
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if (WAIT_FOR_RF(rt2x00dev, ®)) {
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reg = 0;
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rt2x00_set_field32(®, PHY_CSR4_VALUE, value);
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rt2x00_set_field32(®, PHY_CSR4_NUMBER_OF_BITS, 21);
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rt2x00_set_field32(®, PHY_CSR4_IF_SELECT, 0);
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rt2x00_set_field32(®, PHY_CSR4_BUSY, 1);
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rt2x00pci_register_write(rt2x00dev, PHY_CSR4, reg);
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rt2x00_rf_write(rt2x00dev, word, value);
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}
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mutex_unlock(&rt2x00dev->csr_mutex);
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}
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#ifdef CONFIG_RT2X00_LIB_LEDS
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/*
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* This function is only called from rt61pci_led_brightness()
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* make gcc happy by placing this function inside the
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* same ifdef statement as the caller.
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*/
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static void rt61pci_mcu_request(struct rt2x00_dev *rt2x00dev,
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const u8 command, const u8 token,
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const u8 arg0, const u8 arg1)
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{
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u32 reg;
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mutex_lock(&rt2x00dev->csr_mutex);
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/*
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* Wait until the MCU becomes available, afterwards we
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* can safely write the new data into the register.
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*/
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if (WAIT_FOR_MCU(rt2x00dev, ®)) {
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rt2x00_set_field32(®, H2M_MAILBOX_CSR_OWNER, 1);
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rt2x00_set_field32(®, H2M_MAILBOX_CSR_CMD_TOKEN, token);
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rt2x00_set_field32(®, H2M_MAILBOX_CSR_ARG0, arg0);
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rt2x00_set_field32(®, H2M_MAILBOX_CSR_ARG1, arg1);
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rt2x00pci_register_write(rt2x00dev, H2M_MAILBOX_CSR, reg);
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rt2x00pci_register_read(rt2x00dev, HOST_CMD_CSR, ®);
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rt2x00_set_field32(®, HOST_CMD_CSR_HOST_COMMAND, command);
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rt2x00_set_field32(®, HOST_CMD_CSR_INTERRUPT_MCU, 1);
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rt2x00pci_register_write(rt2x00dev, HOST_CMD_CSR, reg);
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}
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mutex_unlock(&rt2x00dev->csr_mutex);
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}
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#endif /* CONFIG_RT2X00_LIB_LEDS */
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static void rt61pci_eepromregister_read(struct eeprom_93cx6 *eeprom)
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{
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struct rt2x00_dev *rt2x00dev = eeprom->data;
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u32 reg;
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rt2x00pci_register_read(rt2x00dev, E2PROM_CSR, ®);
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eeprom->reg_data_in = !!rt2x00_get_field32(reg, E2PROM_CSR_DATA_IN);
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eeprom->reg_data_out = !!rt2x00_get_field32(reg, E2PROM_CSR_DATA_OUT);
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eeprom->reg_data_clock =
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!!rt2x00_get_field32(reg, E2PROM_CSR_DATA_CLOCK);
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eeprom->reg_chip_select =
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!!rt2x00_get_field32(reg, E2PROM_CSR_CHIP_SELECT);
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}
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static void rt61pci_eepromregister_write(struct eeprom_93cx6 *eeprom)
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{
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struct rt2x00_dev *rt2x00dev = eeprom->data;
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u32 reg = 0;
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rt2x00_set_field32(®, E2PROM_CSR_DATA_IN, !!eeprom->reg_data_in);
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rt2x00_set_field32(®, E2PROM_CSR_DATA_OUT, !!eeprom->reg_data_out);
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rt2x00_set_field32(®, E2PROM_CSR_DATA_CLOCK,
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!!eeprom->reg_data_clock);
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rt2x00_set_field32(®, E2PROM_CSR_CHIP_SELECT,
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!!eeprom->reg_chip_select);
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rt2x00pci_register_write(rt2x00dev, E2PROM_CSR, reg);
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}
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#ifdef CONFIG_RT2X00_LIB_DEBUGFS
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static const struct rt2x00debug rt61pci_rt2x00debug = {
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.owner = THIS_MODULE,
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.csr = {
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.read = rt2x00pci_register_read,
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.write = rt2x00pci_register_write,
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.flags = RT2X00DEBUGFS_OFFSET,
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.word_base = CSR_REG_BASE,
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.word_size = sizeof(u32),
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.word_count = CSR_REG_SIZE / sizeof(u32),
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},
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.eeprom = {
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.read = rt2x00_eeprom_read,
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.write = rt2x00_eeprom_write,
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.word_base = EEPROM_BASE,
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.word_size = sizeof(u16),
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.word_count = EEPROM_SIZE / sizeof(u16),
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},
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.bbp = {
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.read = rt61pci_bbp_read,
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.write = rt61pci_bbp_write,
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.word_base = BBP_BASE,
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.word_size = sizeof(u8),
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.word_count = BBP_SIZE / sizeof(u8),
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},
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.rf = {
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.read = rt2x00_rf_read,
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.write = rt61pci_rf_write,
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.word_base = RF_BASE,
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.word_size = sizeof(u32),
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.word_count = RF_SIZE / sizeof(u32),
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},
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};
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#endif /* CONFIG_RT2X00_LIB_DEBUGFS */
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#ifdef CONFIG_RT2X00_LIB_RFKILL
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static int rt61pci_rfkill_poll(struct rt2x00_dev *rt2x00dev)
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{
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u32 reg;
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rt2x00pci_register_read(rt2x00dev, MAC_CSR13, ®);
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return rt2x00_get_field32(reg, MAC_CSR13_BIT5);
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}
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#else
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#define rt61pci_rfkill_poll NULL
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#endif /* CONFIG_RT2X00_LIB_RFKILL */
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#ifdef CONFIG_RT2X00_LIB_LEDS
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static void rt61pci_brightness_set(struct led_classdev *led_cdev,
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enum led_brightness brightness)
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{
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struct rt2x00_led *led =
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container_of(led_cdev, struct rt2x00_led, led_dev);
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unsigned int enabled = brightness != LED_OFF;
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unsigned int a_mode =
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(enabled && led->rt2x00dev->curr_band == IEEE80211_BAND_5GHZ);
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unsigned int bg_mode =
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(enabled && led->rt2x00dev->curr_band == IEEE80211_BAND_2GHZ);
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if (led->type == LED_TYPE_RADIO) {
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rt2x00_set_field16(&led->rt2x00dev->led_mcu_reg,
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MCU_LEDCS_RADIO_STATUS, enabled);
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rt61pci_mcu_request(led->rt2x00dev, MCU_LED, 0xff,
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(led->rt2x00dev->led_mcu_reg & 0xff),
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((led->rt2x00dev->led_mcu_reg >> 8)));
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} else if (led->type == LED_TYPE_ASSOC) {
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rt2x00_set_field16(&led->rt2x00dev->led_mcu_reg,
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MCU_LEDCS_LINK_BG_STATUS, bg_mode);
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rt2x00_set_field16(&led->rt2x00dev->led_mcu_reg,
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MCU_LEDCS_LINK_A_STATUS, a_mode);
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rt61pci_mcu_request(led->rt2x00dev, MCU_LED, 0xff,
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(led->rt2x00dev->led_mcu_reg & 0xff),
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((led->rt2x00dev->led_mcu_reg >> 8)));
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} else if (led->type == LED_TYPE_QUALITY) {
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/*
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* The brightness is divided into 6 levels (0 - 5),
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* this means we need to convert the brightness
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* argument into the matching level within that range.
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*/
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rt61pci_mcu_request(led->rt2x00dev, MCU_LED_STRENGTH, 0xff,
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brightness / (LED_FULL / 6), 0);
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}
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}
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static int rt61pci_blink_set(struct led_classdev *led_cdev,
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unsigned long *delay_on,
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unsigned long *delay_off)
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{
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struct rt2x00_led *led =
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container_of(led_cdev, struct rt2x00_led, led_dev);
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u32 reg;
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rt2x00pci_register_read(led->rt2x00dev, MAC_CSR14, ®);
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rt2x00_set_field32(®, MAC_CSR14_ON_PERIOD, *delay_on);
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rt2x00_set_field32(®, MAC_CSR14_OFF_PERIOD, *delay_off);
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rt2x00pci_register_write(led->rt2x00dev, MAC_CSR14, reg);
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return 0;
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}
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static void rt61pci_init_led(struct rt2x00_dev *rt2x00dev,
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struct rt2x00_led *led,
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enum led_type type)
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{
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led->rt2x00dev = rt2x00dev;
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led->type = type;
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led->led_dev.brightness_set = rt61pci_brightness_set;
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led->led_dev.blink_set = rt61pci_blink_set;
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led->flags = LED_INITIALIZED;
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}
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#endif /* CONFIG_RT2X00_LIB_LEDS */
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/*
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* Configuration handlers.
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*/
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static int rt61pci_config_shared_key(struct rt2x00_dev *rt2x00dev,
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struct rt2x00lib_crypto *crypto,
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struct ieee80211_key_conf *key)
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{
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struct hw_key_entry key_entry;
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struct rt2x00_field32 field;
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u32 mask;
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u32 reg;
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if (crypto->cmd == SET_KEY) {
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/*
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* rt2x00lib can't determine the correct free
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* key_idx for shared keys. We have 1 register
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* with key valid bits. The goal is simple, read
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* the register, if that is full we have no slots
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* left.
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* Note that each BSS is allowed to have up to 4
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* shared keys, so put a mask over the allowed
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* entries.
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*/
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mask = (0xf << crypto->bssidx);
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rt2x00pci_register_read(rt2x00dev, SEC_CSR0, ®);
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reg &= mask;
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if (reg && reg == mask)
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return -ENOSPC;
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key->hw_key_idx += reg ? ffz(reg) : 0;
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/*
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* Upload key to hardware
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*/
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memcpy(key_entry.key, crypto->key,
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sizeof(key_entry.key));
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memcpy(key_entry.tx_mic, crypto->tx_mic,
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sizeof(key_entry.tx_mic));
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memcpy(key_entry.rx_mic, crypto->rx_mic,
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sizeof(key_entry.rx_mic));
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reg = SHARED_KEY_ENTRY(key->hw_key_idx);
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rt2x00pci_register_multiwrite(rt2x00dev, reg,
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&key_entry, sizeof(key_entry));
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/*
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* The cipher types are stored over 2 registers.
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* bssidx 0 and 1 keys are stored in SEC_CSR1 and
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* bssidx 1 and 2 keys are stored in SEC_CSR5.
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* Using the correct defines correctly will cause overhead,
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* so just calculate the correct offset.
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*/
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if (key->hw_key_idx < 8) {
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field.bit_offset = (3 * key->hw_key_idx);
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field.bit_mask = 0x7 << field.bit_offset;
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rt2x00pci_register_read(rt2x00dev, SEC_CSR1, ®);
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rt2x00_set_field32(®, field, crypto->cipher);
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rt2x00pci_register_write(rt2x00dev, SEC_CSR1, reg);
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} else {
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field.bit_offset = (3 * (key->hw_key_idx - 8));
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field.bit_mask = 0x7 << field.bit_offset;
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rt2x00pci_register_read(rt2x00dev, SEC_CSR5, ®);
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rt2x00_set_field32(®, field, crypto->cipher);
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rt2x00pci_register_write(rt2x00dev, SEC_CSR5, reg);
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}
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/*
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* The driver does not support the IV/EIV generation
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* in hardware. However it doesn't support the IV/EIV
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* inside the ieee80211 frame either, but requires it
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* to be provided seperately for the descriptor.
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* rt2x00lib will cut the IV/EIV data out of all frames
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* given to us by mac80211, but we must tell mac80211
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* to generate the IV/EIV data.
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*/
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key->flags |= IEEE80211_KEY_FLAG_GENERATE_IV;
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}
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/*
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* SEC_CSR0 contains only single-bit fields to indicate
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* a particular key is valid. Because using the FIELD32()
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* defines directly will cause a lot of overhead we use
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* a calculation to determine the correct bit directly.
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*/
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mask = 1 << key->hw_key_idx;
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rt2x00pci_register_read(rt2x00dev, SEC_CSR0, ®);
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if (crypto->cmd == SET_KEY)
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reg |= mask;
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else if (crypto->cmd == DISABLE_KEY)
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reg &= ~mask;
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rt2x00pci_register_write(rt2x00dev, SEC_CSR0, reg);
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return 0;
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}
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static int rt61pci_config_pairwise_key(struct rt2x00_dev *rt2x00dev,
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struct rt2x00lib_crypto *crypto,
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struct ieee80211_key_conf *key)
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{
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struct hw_pairwise_ta_entry addr_entry;
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struct hw_key_entry key_entry;
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u32 mask;
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u32 reg;
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if (crypto->cmd == SET_KEY) {
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/*
|
|
* rt2x00lib can't determine the correct free
|
|
* key_idx for pairwise keys. We have 2 registers
|
|
* with key valid bits. The goal is simple, read
|
|
* the first register, if that is full move to
|
|
* the next register.
|
|
* When both registers are full, we drop the key,
|
|
* otherwise we use the first invalid entry.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, SEC_CSR2, ®);
|
|
if (reg && reg == ~0) {
|
|
key->hw_key_idx = 32;
|
|
rt2x00pci_register_read(rt2x00dev, SEC_CSR3, ®);
|
|
if (reg && reg == ~0)
|
|
return -ENOSPC;
|
|
}
|
|
|
|
key->hw_key_idx += reg ? ffz(reg) : 0;
|
|
|
|
/*
|
|
* Upload key to hardware
|
|
*/
|
|
memcpy(key_entry.key, crypto->key,
|
|
sizeof(key_entry.key));
|
|
memcpy(key_entry.tx_mic, crypto->tx_mic,
|
|
sizeof(key_entry.tx_mic));
|
|
memcpy(key_entry.rx_mic, crypto->rx_mic,
|
|
sizeof(key_entry.rx_mic));
|
|
|
|
memset(&addr_entry, 0, sizeof(addr_entry));
|
|
memcpy(&addr_entry, crypto->address, ETH_ALEN);
|
|
addr_entry.cipher = crypto->cipher;
|
|
|
|
reg = PAIRWISE_KEY_ENTRY(key->hw_key_idx);
|
|
rt2x00pci_register_multiwrite(rt2x00dev, reg,
|
|
&key_entry, sizeof(key_entry));
|
|
|
|
reg = PAIRWISE_TA_ENTRY(key->hw_key_idx);
|
|
rt2x00pci_register_multiwrite(rt2x00dev, reg,
|
|
&addr_entry, sizeof(addr_entry));
|
|
|
|
/*
|
|
* Enable pairwise lookup table for given BSS idx,
|
|
* without this received frames will not be decrypted
|
|
* by the hardware.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, SEC_CSR4, ®);
|
|
reg |= (1 << crypto->bssidx);
|
|
rt2x00pci_register_write(rt2x00dev, SEC_CSR4, reg);
|
|
|
|
/*
|
|
* The driver does not support the IV/EIV generation
|
|
* in hardware. However it doesn't support the IV/EIV
|
|
* inside the ieee80211 frame either, but requires it
|
|
* to be provided seperately for the descriptor.
|
|
* rt2x00lib will cut the IV/EIV data out of all frames
|
|
* given to us by mac80211, but we must tell mac80211
|
|
* to generate the IV/EIV data.
|
|
*/
|
|
key->flags |= IEEE80211_KEY_FLAG_GENERATE_IV;
|
|
}
|
|
|
|
/*
|
|
* SEC_CSR2 and SEC_CSR3 contain only single-bit fields to indicate
|
|
* a particular key is valid. Because using the FIELD32()
|
|
* defines directly will cause a lot of overhead we use
|
|
* a calculation to determine the correct bit directly.
|
|
*/
|
|
if (key->hw_key_idx < 32) {
|
|
mask = 1 << key->hw_key_idx;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, SEC_CSR2, ®);
|
|
if (crypto->cmd == SET_KEY)
|
|
reg |= mask;
|
|
else if (crypto->cmd == DISABLE_KEY)
|
|
reg &= ~mask;
|
|
rt2x00pci_register_write(rt2x00dev, SEC_CSR2, reg);
|
|
} else {
|
|
mask = 1 << (key->hw_key_idx - 32);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, SEC_CSR3, ®);
|
|
if (crypto->cmd == SET_KEY)
|
|
reg |= mask;
|
|
else if (crypto->cmd == DISABLE_KEY)
|
|
reg &= ~mask;
|
|
rt2x00pci_register_write(rt2x00dev, SEC_CSR3, reg);
|
|
}
|
|
|
|
return 0;
|
|
}
|
|
|
|
static void rt61pci_config_filter(struct rt2x00_dev *rt2x00dev,
|
|
const unsigned int filter_flags)
|
|
{
|
|
u32 reg;
|
|
|
|
/*
|
|
* Start configuration steps.
|
|
* Note that the version error will always be dropped
|
|
* and broadcast frames will always be accepted since
|
|
* there is no filter for it at this time.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR0, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_CRC,
|
|
!(filter_flags & FIF_FCSFAIL));
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_PHYSICAL,
|
|
!(filter_flags & FIF_PLCPFAIL));
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_CONTROL,
|
|
!(filter_flags & FIF_CONTROL));
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_NOT_TO_ME,
|
|
!(filter_flags & FIF_PROMISC_IN_BSS));
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_TO_DS,
|
|
!(filter_flags & FIF_PROMISC_IN_BSS) &&
|
|
!rt2x00dev->intf_ap_count);
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_VERSION_ERROR, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_MULTICAST,
|
|
!(filter_flags & FIF_ALLMULTI));
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_BROADCAST, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR0_DROP_ACK_CTS,
|
|
!(filter_flags & FIF_CONTROL));
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR0, reg);
|
|
}
|
|
|
|
static void rt61pci_config_intf(struct rt2x00_dev *rt2x00dev,
|
|
struct rt2x00_intf *intf,
|
|
struct rt2x00intf_conf *conf,
|
|
const unsigned int flags)
|
|
{
|
|
unsigned int beacon_base;
|
|
u32 reg;
|
|
|
|
if (flags & CONFIG_UPDATE_TYPE) {
|
|
/*
|
|
* Clear current synchronisation setup.
|
|
* For the Beacon base registers we only need to clear
|
|
* the first byte since that byte contains the VALID and OWNER
|
|
* bits which (when set to 0) will invalidate the entire beacon.
|
|
*/
|
|
beacon_base = HW_BEACON_OFFSET(intf->beacon->entry_idx);
|
|
rt2x00pci_register_write(rt2x00dev, beacon_base, 0);
|
|
|
|
/*
|
|
* Enable synchronisation.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR9, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TSF_TICKING, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TSF_SYNC, conf->sync);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TBTT_ENABLE, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR9, reg);
|
|
}
|
|
|
|
if (flags & CONFIG_UPDATE_MAC) {
|
|
reg = le32_to_cpu(conf->mac[1]);
|
|
rt2x00_set_field32(®, MAC_CSR3_UNICAST_TO_ME_MASK, 0xff);
|
|
conf->mac[1] = cpu_to_le32(reg);
|
|
|
|
rt2x00pci_register_multiwrite(rt2x00dev, MAC_CSR2,
|
|
conf->mac, sizeof(conf->mac));
|
|
}
|
|
|
|
if (flags & CONFIG_UPDATE_BSSID) {
|
|
reg = le32_to_cpu(conf->bssid[1]);
|
|
rt2x00_set_field32(®, MAC_CSR5_BSS_ID_MASK, 3);
|
|
conf->bssid[1] = cpu_to_le32(reg);
|
|
|
|
rt2x00pci_register_multiwrite(rt2x00dev, MAC_CSR4,
|
|
conf->bssid, sizeof(conf->bssid));
|
|
}
|
|
}
|
|
|
|
static void rt61pci_config_erp(struct rt2x00_dev *rt2x00dev,
|
|
struct rt2x00lib_erp *erp)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR0, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR0_RX_ACK_TIMEOUT, erp->ack_timeout);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR0, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR4, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR4_AUTORESPOND_PREAMBLE,
|
|
!!erp->short_preamble);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR4, reg);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR5, erp->basic_rates);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR9, ®);
|
|
rt2x00_set_field32(®, MAC_CSR9_SLOT_TIME, erp->slot_time);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR9, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR8, ®);
|
|
rt2x00_set_field32(®, MAC_CSR8_SIFS, erp->sifs);
|
|
rt2x00_set_field32(®, MAC_CSR8_SIFS_AFTER_RX_OFDM, 3);
|
|
rt2x00_set_field32(®, MAC_CSR8_EIFS, erp->eifs);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR8, reg);
|
|
}
|
|
|
|
static void rt61pci_config_antenna_5x(struct rt2x00_dev *rt2x00dev,
|
|
struct antenna_setup *ant)
|
|
{
|
|
u8 r3;
|
|
u8 r4;
|
|
u8 r77;
|
|
|
|
rt61pci_bbp_read(rt2x00dev, 3, &r3);
|
|
rt61pci_bbp_read(rt2x00dev, 4, &r4);
|
|
rt61pci_bbp_read(rt2x00dev, 77, &r77);
|
|
|
|
rt2x00_set_field8(&r3, BBP_R3_SMART_MODE,
|
|
rt2x00_rf(&rt2x00dev->chip, RF5325));
|
|
|
|
/*
|
|
* Configure the RX antenna.
|
|
*/
|
|
switch (ant->rx) {
|
|
case ANTENNA_HW_DIVERSITY:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 2);
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_FRAME_END,
|
|
(rt2x00dev->curr_band != IEEE80211_BAND_5GHZ));
|
|
break;
|
|
case ANTENNA_A:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 1);
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_FRAME_END, 0);
|
|
if (rt2x00dev->curr_band == IEEE80211_BAND_5GHZ)
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 0);
|
|
else
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 3);
|
|
break;
|
|
case ANTENNA_B:
|
|
default:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 1);
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_FRAME_END, 0);
|
|
if (rt2x00dev->curr_band == IEEE80211_BAND_5GHZ)
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 3);
|
|
else
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 0);
|
|
break;
|
|
}
|
|
|
|
rt61pci_bbp_write(rt2x00dev, 77, r77);
|
|
rt61pci_bbp_write(rt2x00dev, 3, r3);
|
|
rt61pci_bbp_write(rt2x00dev, 4, r4);
|
|
}
|
|
|
|
static void rt61pci_config_antenna_2x(struct rt2x00_dev *rt2x00dev,
|
|
struct antenna_setup *ant)
|
|
{
|
|
u8 r3;
|
|
u8 r4;
|
|
u8 r77;
|
|
|
|
rt61pci_bbp_read(rt2x00dev, 3, &r3);
|
|
rt61pci_bbp_read(rt2x00dev, 4, &r4);
|
|
rt61pci_bbp_read(rt2x00dev, 77, &r77);
|
|
|
|
rt2x00_set_field8(&r3, BBP_R3_SMART_MODE,
|
|
rt2x00_rf(&rt2x00dev->chip, RF2529));
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_FRAME_END,
|
|
!test_bit(CONFIG_FRAME_TYPE, &rt2x00dev->flags));
|
|
|
|
/*
|
|
* Configure the RX antenna.
|
|
*/
|
|
switch (ant->rx) {
|
|
case ANTENNA_HW_DIVERSITY:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 2);
|
|
break;
|
|
case ANTENNA_A:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 1);
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 3);
|
|
break;
|
|
case ANTENNA_B:
|
|
default:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 1);
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 0);
|
|
break;
|
|
}
|
|
|
|
rt61pci_bbp_write(rt2x00dev, 77, r77);
|
|
rt61pci_bbp_write(rt2x00dev, 3, r3);
|
|
rt61pci_bbp_write(rt2x00dev, 4, r4);
|
|
}
|
|
|
|
static void rt61pci_config_antenna_2529_rx(struct rt2x00_dev *rt2x00dev,
|
|
const int p1, const int p2)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR13, ®);
|
|
|
|
rt2x00_set_field32(®, MAC_CSR13_BIT4, p1);
|
|
rt2x00_set_field32(®, MAC_CSR13_BIT12, 0);
|
|
|
|
rt2x00_set_field32(®, MAC_CSR13_BIT3, !p2);
|
|
rt2x00_set_field32(®, MAC_CSR13_BIT11, 0);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR13, reg);
|
|
}
|
|
|
|
static void rt61pci_config_antenna_2529(struct rt2x00_dev *rt2x00dev,
|
|
struct antenna_setup *ant)
|
|
{
|
|
u8 r3;
|
|
u8 r4;
|
|
u8 r77;
|
|
|
|
rt61pci_bbp_read(rt2x00dev, 3, &r3);
|
|
rt61pci_bbp_read(rt2x00dev, 4, &r4);
|
|
rt61pci_bbp_read(rt2x00dev, 77, &r77);
|
|
|
|
/*
|
|
* Configure the RX antenna.
|
|
*/
|
|
switch (ant->rx) {
|
|
case ANTENNA_A:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 1);
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 0);
|
|
rt61pci_config_antenna_2529_rx(rt2x00dev, 0, 0);
|
|
break;
|
|
case ANTENNA_HW_DIVERSITY:
|
|
/*
|
|
* FIXME: Antenna selection for the rf 2529 is very confusing
|
|
* in the legacy driver. Just default to antenna B until the
|
|
* legacy code can be properly translated into rt2x00 code.
|
|
*/
|
|
case ANTENNA_B:
|
|
default:
|
|
rt2x00_set_field8(&r4, BBP_R4_RX_ANTENNA_CONTROL, 1);
|
|
rt2x00_set_field8(&r77, BBP_R77_RX_ANTENNA, 3);
|
|
rt61pci_config_antenna_2529_rx(rt2x00dev, 1, 1);
|
|
break;
|
|
}
|
|
|
|
rt61pci_bbp_write(rt2x00dev, 77, r77);
|
|
rt61pci_bbp_write(rt2x00dev, 3, r3);
|
|
rt61pci_bbp_write(rt2x00dev, 4, r4);
|
|
}
|
|
|
|
struct antenna_sel {
|
|
u8 word;
|
|
/*
|
|
* value[0] -> non-LNA
|
|
* value[1] -> LNA
|
|
*/
|
|
u8 value[2];
|
|
};
|
|
|
|
static const struct antenna_sel antenna_sel_a[] = {
|
|
{ 96, { 0x58, 0x78 } },
|
|
{ 104, { 0x38, 0x48 } },
|
|
{ 75, { 0xfe, 0x80 } },
|
|
{ 86, { 0xfe, 0x80 } },
|
|
{ 88, { 0xfe, 0x80 } },
|
|
{ 35, { 0x60, 0x60 } },
|
|
{ 97, { 0x58, 0x58 } },
|
|
{ 98, { 0x58, 0x58 } },
|
|
};
|
|
|
|
static const struct antenna_sel antenna_sel_bg[] = {
|
|
{ 96, { 0x48, 0x68 } },
|
|
{ 104, { 0x2c, 0x3c } },
|
|
{ 75, { 0xfe, 0x80 } },
|
|
{ 86, { 0xfe, 0x80 } },
|
|
{ 88, { 0xfe, 0x80 } },
|
|
{ 35, { 0x50, 0x50 } },
|
|
{ 97, { 0x48, 0x48 } },
|
|
{ 98, { 0x48, 0x48 } },
|
|
};
|
|
|
|
static void rt61pci_config_ant(struct rt2x00_dev *rt2x00dev,
|
|
struct antenna_setup *ant)
|
|
{
|
|
const struct antenna_sel *sel;
|
|
unsigned int lna;
|
|
unsigned int i;
|
|
u32 reg;
|
|
|
|
/*
|
|
* We should never come here because rt2x00lib is supposed
|
|
* to catch this and send us the correct antenna explicitely.
|
|
*/
|
|
BUG_ON(ant->rx == ANTENNA_SW_DIVERSITY ||
|
|
ant->tx == ANTENNA_SW_DIVERSITY);
|
|
|
|
if (rt2x00dev->curr_band == IEEE80211_BAND_5GHZ) {
|
|
sel = antenna_sel_a;
|
|
lna = test_bit(CONFIG_EXTERNAL_LNA_A, &rt2x00dev->flags);
|
|
} else {
|
|
sel = antenna_sel_bg;
|
|
lna = test_bit(CONFIG_EXTERNAL_LNA_BG, &rt2x00dev->flags);
|
|
}
|
|
|
|
for (i = 0; i < ARRAY_SIZE(antenna_sel_a); i++)
|
|
rt61pci_bbp_write(rt2x00dev, sel[i].word, sel[i].value[lna]);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, PHY_CSR0, ®);
|
|
|
|
rt2x00_set_field32(®, PHY_CSR0_PA_PE_BG,
|
|
rt2x00dev->curr_band == IEEE80211_BAND_2GHZ);
|
|
rt2x00_set_field32(®, PHY_CSR0_PA_PE_A,
|
|
rt2x00dev->curr_band == IEEE80211_BAND_5GHZ);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, PHY_CSR0, reg);
|
|
|
|
if (rt2x00_rf(&rt2x00dev->chip, RF5225) ||
|
|
rt2x00_rf(&rt2x00dev->chip, RF5325))
|
|
rt61pci_config_antenna_5x(rt2x00dev, ant);
|
|
else if (rt2x00_rf(&rt2x00dev->chip, RF2527))
|
|
rt61pci_config_antenna_2x(rt2x00dev, ant);
|
|
else if (rt2x00_rf(&rt2x00dev->chip, RF2529)) {
|
|
if (test_bit(CONFIG_DOUBLE_ANTENNA, &rt2x00dev->flags))
|
|
rt61pci_config_antenna_2x(rt2x00dev, ant);
|
|
else
|
|
rt61pci_config_antenna_2529(rt2x00dev, ant);
|
|
}
|
|
}
|
|
|
|
static void rt61pci_config_lna_gain(struct rt2x00_dev *rt2x00dev,
|
|
struct rt2x00lib_conf *libconf)
|
|
{
|
|
u16 eeprom;
|
|
short lna_gain = 0;
|
|
|
|
if (libconf->conf->channel->band == IEEE80211_BAND_2GHZ) {
|
|
if (test_bit(CONFIG_EXTERNAL_LNA_BG, &rt2x00dev->flags))
|
|
lna_gain += 14;
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_RSSI_OFFSET_BG, &eeprom);
|
|
lna_gain -= rt2x00_get_field16(eeprom, EEPROM_RSSI_OFFSET_BG_1);
|
|
} else {
|
|
if (test_bit(CONFIG_EXTERNAL_LNA_A, &rt2x00dev->flags))
|
|
lna_gain += 14;
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_RSSI_OFFSET_A, &eeprom);
|
|
lna_gain -= rt2x00_get_field16(eeprom, EEPROM_RSSI_OFFSET_A_1);
|
|
}
|
|
|
|
rt2x00dev->lna_gain = lna_gain;
|
|
}
|
|
|
|
static void rt61pci_config_channel(struct rt2x00_dev *rt2x00dev,
|
|
struct rf_channel *rf, const int txpower)
|
|
{
|
|
u8 r3;
|
|
u8 r94;
|
|
u8 smart;
|
|
|
|
rt2x00_set_field32(&rf->rf3, RF3_TXPOWER, TXPOWER_TO_DEV(txpower));
|
|
rt2x00_set_field32(&rf->rf4, RF4_FREQ_OFFSET, rt2x00dev->freq_offset);
|
|
|
|
smart = !(rt2x00_rf(&rt2x00dev->chip, RF5225) ||
|
|
rt2x00_rf(&rt2x00dev->chip, RF2527));
|
|
|
|
rt61pci_bbp_read(rt2x00dev, 3, &r3);
|
|
rt2x00_set_field8(&r3, BBP_R3_SMART_MODE, smart);
|
|
rt61pci_bbp_write(rt2x00dev, 3, r3);
|
|
|
|
r94 = 6;
|
|
if (txpower > MAX_TXPOWER && txpower <= (MAX_TXPOWER + r94))
|
|
r94 += txpower - MAX_TXPOWER;
|
|
else if (txpower < MIN_TXPOWER && txpower >= (MIN_TXPOWER - r94))
|
|
r94 += txpower;
|
|
rt61pci_bbp_write(rt2x00dev, 94, r94);
|
|
|
|
rt61pci_rf_write(rt2x00dev, 1, rf->rf1);
|
|
rt61pci_rf_write(rt2x00dev, 2, rf->rf2);
|
|
rt61pci_rf_write(rt2x00dev, 3, rf->rf3 & ~0x00000004);
|
|
rt61pci_rf_write(rt2x00dev, 4, rf->rf4);
|
|
|
|
udelay(200);
|
|
|
|
rt61pci_rf_write(rt2x00dev, 1, rf->rf1);
|
|
rt61pci_rf_write(rt2x00dev, 2, rf->rf2);
|
|
rt61pci_rf_write(rt2x00dev, 3, rf->rf3 | 0x00000004);
|
|
rt61pci_rf_write(rt2x00dev, 4, rf->rf4);
|
|
|
|
udelay(200);
|
|
|
|
rt61pci_rf_write(rt2x00dev, 1, rf->rf1);
|
|
rt61pci_rf_write(rt2x00dev, 2, rf->rf2);
|
|
rt61pci_rf_write(rt2x00dev, 3, rf->rf3 & ~0x00000004);
|
|
rt61pci_rf_write(rt2x00dev, 4, rf->rf4);
|
|
|
|
msleep(1);
|
|
}
|
|
|
|
static void rt61pci_config_txpower(struct rt2x00_dev *rt2x00dev,
|
|
const int txpower)
|
|
{
|
|
struct rf_channel rf;
|
|
|
|
rt2x00_rf_read(rt2x00dev, 1, &rf.rf1);
|
|
rt2x00_rf_read(rt2x00dev, 2, &rf.rf2);
|
|
rt2x00_rf_read(rt2x00dev, 3, &rf.rf3);
|
|
rt2x00_rf_read(rt2x00dev, 4, &rf.rf4);
|
|
|
|
rt61pci_config_channel(rt2x00dev, &rf, txpower);
|
|
}
|
|
|
|
static void rt61pci_config_retry_limit(struct rt2x00_dev *rt2x00dev,
|
|
struct rt2x00lib_conf *libconf)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR4, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR4_LONG_RETRY_LIMIT,
|
|
libconf->conf->long_frame_max_tx_count);
|
|
rt2x00_set_field32(®, TXRX_CSR4_SHORT_RETRY_LIMIT,
|
|
libconf->conf->short_frame_max_tx_count);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR4, reg);
|
|
}
|
|
|
|
static void rt61pci_config_duration(struct rt2x00_dev *rt2x00dev,
|
|
struct rt2x00lib_conf *libconf)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR0, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR0_TSF_OFFSET, IEEE80211_HEADER);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR0, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR4, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR4_AUTORESPOND_ENABLE, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR4, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR9, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR9_BEACON_INTERVAL,
|
|
libconf->conf->beacon_int * 16);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR9, reg);
|
|
}
|
|
|
|
static void rt61pci_config(struct rt2x00_dev *rt2x00dev,
|
|
struct rt2x00lib_conf *libconf,
|
|
const unsigned int flags)
|
|
{
|
|
/* Always recalculate LNA gain before changing configuration */
|
|
rt61pci_config_lna_gain(rt2x00dev, libconf);
|
|
|
|
if (flags & IEEE80211_CONF_CHANGE_CHANNEL)
|
|
rt61pci_config_channel(rt2x00dev, &libconf->rf,
|
|
libconf->conf->power_level);
|
|
if ((flags & IEEE80211_CONF_CHANGE_POWER) &&
|
|
!(flags & IEEE80211_CONF_CHANGE_CHANNEL))
|
|
rt61pci_config_txpower(rt2x00dev, libconf->conf->power_level);
|
|
if (flags & IEEE80211_CONF_CHANGE_RETRY_LIMITS)
|
|
rt61pci_config_retry_limit(rt2x00dev, libconf);
|
|
if (flags & IEEE80211_CONF_CHANGE_BEACON_INTERVAL)
|
|
rt61pci_config_duration(rt2x00dev, libconf);
|
|
}
|
|
|
|
/*
|
|
* Link tuning
|
|
*/
|
|
static void rt61pci_link_stats(struct rt2x00_dev *rt2x00dev,
|
|
struct link_qual *qual)
|
|
{
|
|
u32 reg;
|
|
|
|
/*
|
|
* Update FCS error count from register.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, STA_CSR0, ®);
|
|
qual->rx_failed = rt2x00_get_field32(reg, STA_CSR0_FCS_ERROR);
|
|
|
|
/*
|
|
* Update False CCA count from register.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, STA_CSR1, ®);
|
|
qual->false_cca = rt2x00_get_field32(reg, STA_CSR1_FALSE_CCA_ERROR);
|
|
}
|
|
|
|
static void rt61pci_reset_tuner(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
rt61pci_bbp_write(rt2x00dev, 17, 0x20);
|
|
rt2x00dev->link.vgc_level = 0x20;
|
|
}
|
|
|
|
static void rt61pci_link_tuner(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
int rssi = rt2x00_get_link_rssi(&rt2x00dev->link);
|
|
u8 r17;
|
|
u8 up_bound;
|
|
u8 low_bound;
|
|
|
|
rt61pci_bbp_read(rt2x00dev, 17, &r17);
|
|
|
|
/*
|
|
* Determine r17 bounds.
|
|
*/
|
|
if (rt2x00dev->rx_status.band == IEEE80211_BAND_5GHZ) {
|
|
low_bound = 0x28;
|
|
up_bound = 0x48;
|
|
if (test_bit(CONFIG_EXTERNAL_LNA_A, &rt2x00dev->flags)) {
|
|
low_bound += 0x10;
|
|
up_bound += 0x10;
|
|
}
|
|
} else {
|
|
low_bound = 0x20;
|
|
up_bound = 0x40;
|
|
if (test_bit(CONFIG_EXTERNAL_LNA_BG, &rt2x00dev->flags)) {
|
|
low_bound += 0x10;
|
|
up_bound += 0x10;
|
|
}
|
|
}
|
|
|
|
/*
|
|
* If we are not associated, we should go straight to the
|
|
* dynamic CCA tuning.
|
|
*/
|
|
if (!rt2x00dev->intf_associated)
|
|
goto dynamic_cca_tune;
|
|
|
|
/*
|
|
* Special big-R17 for very short distance
|
|
*/
|
|
if (rssi >= -35) {
|
|
if (r17 != 0x60)
|
|
rt61pci_bbp_write(rt2x00dev, 17, 0x60);
|
|
return;
|
|
}
|
|
|
|
/*
|
|
* Special big-R17 for short distance
|
|
*/
|
|
if (rssi >= -58) {
|
|
if (r17 != up_bound)
|
|
rt61pci_bbp_write(rt2x00dev, 17, up_bound);
|
|
return;
|
|
}
|
|
|
|
/*
|
|
* Special big-R17 for middle-short distance
|
|
*/
|
|
if (rssi >= -66) {
|
|
low_bound += 0x10;
|
|
if (r17 != low_bound)
|
|
rt61pci_bbp_write(rt2x00dev, 17, low_bound);
|
|
return;
|
|
}
|
|
|
|
/*
|
|
* Special mid-R17 for middle distance
|
|
*/
|
|
if (rssi >= -74) {
|
|
low_bound += 0x08;
|
|
if (r17 != low_bound)
|
|
rt61pci_bbp_write(rt2x00dev, 17, low_bound);
|
|
return;
|
|
}
|
|
|
|
/*
|
|
* Special case: Change up_bound based on the rssi.
|
|
* Lower up_bound when rssi is weaker then -74 dBm.
|
|
*/
|
|
up_bound -= 2 * (-74 - rssi);
|
|
if (low_bound > up_bound)
|
|
up_bound = low_bound;
|
|
|
|
if (r17 > up_bound) {
|
|
rt61pci_bbp_write(rt2x00dev, 17, up_bound);
|
|
return;
|
|
}
|
|
|
|
dynamic_cca_tune:
|
|
|
|
/*
|
|
* r17 does not yet exceed upper limit, continue and base
|
|
* the r17 tuning on the false CCA count.
|
|
*/
|
|
if (rt2x00dev->link.qual.false_cca > 512 && r17 < up_bound) {
|
|
if (++r17 > up_bound)
|
|
r17 = up_bound;
|
|
rt61pci_bbp_write(rt2x00dev, 17, r17);
|
|
} else if (rt2x00dev->link.qual.false_cca < 100 && r17 > low_bound) {
|
|
if (--r17 < low_bound)
|
|
r17 = low_bound;
|
|
rt61pci_bbp_write(rt2x00dev, 17, r17);
|
|
}
|
|
}
|
|
|
|
/*
|
|
* Firmware functions
|
|
*/
|
|
static char *rt61pci_get_firmware_name(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
char *fw_name;
|
|
|
|
switch (rt2x00dev->chip.rt) {
|
|
case RT2561:
|
|
fw_name = FIRMWARE_RT2561;
|
|
break;
|
|
case RT2561s:
|
|
fw_name = FIRMWARE_RT2561s;
|
|
break;
|
|
case RT2661:
|
|
fw_name = FIRMWARE_RT2661;
|
|
break;
|
|
default:
|
|
fw_name = NULL;
|
|
break;
|
|
}
|
|
|
|
return fw_name;
|
|
}
|
|
|
|
static u16 rt61pci_get_firmware_crc(const void *data, const size_t len)
|
|
{
|
|
u16 crc;
|
|
|
|
/*
|
|
* Use the crc itu-t algorithm.
|
|
* The last 2 bytes in the firmware array are the crc checksum itself,
|
|
* this means that we should never pass those 2 bytes to the crc
|
|
* algorithm.
|
|
*/
|
|
crc = crc_itu_t(0, data, len - 2);
|
|
crc = crc_itu_t_byte(crc, 0);
|
|
crc = crc_itu_t_byte(crc, 0);
|
|
|
|
return crc;
|
|
}
|
|
|
|
static int rt61pci_load_firmware(struct rt2x00_dev *rt2x00dev, const void *data,
|
|
const size_t len)
|
|
{
|
|
int i;
|
|
u32 reg;
|
|
|
|
/*
|
|
* Wait for stable hardware.
|
|
*/
|
|
for (i = 0; i < 100; i++) {
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR0, ®);
|
|
if (reg)
|
|
break;
|
|
msleep(1);
|
|
}
|
|
|
|
if (!reg) {
|
|
ERROR(rt2x00dev, "Unstable hardware.\n");
|
|
return -EBUSY;
|
|
}
|
|
|
|
/*
|
|
* Prepare MCU and mailbox for firmware loading.
|
|
*/
|
|
reg = 0;
|
|
rt2x00_set_field32(®, MCU_CNTL_CSR_RESET, 1);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_CNTL_CSR, reg);
|
|
rt2x00pci_register_write(rt2x00dev, M2H_CMD_DONE_CSR, 0xffffffff);
|
|
rt2x00pci_register_write(rt2x00dev, H2M_MAILBOX_CSR, 0);
|
|
rt2x00pci_register_write(rt2x00dev, HOST_CMD_CSR, 0);
|
|
|
|
/*
|
|
* Write firmware to device.
|
|
*/
|
|
reg = 0;
|
|
rt2x00_set_field32(®, MCU_CNTL_CSR_RESET, 1);
|
|
rt2x00_set_field32(®, MCU_CNTL_CSR_SELECT_BANK, 1);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_CNTL_CSR, reg);
|
|
|
|
rt2x00pci_register_multiwrite(rt2x00dev, FIRMWARE_IMAGE_BASE,
|
|
data, len);
|
|
|
|
rt2x00_set_field32(®, MCU_CNTL_CSR_SELECT_BANK, 0);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_CNTL_CSR, reg);
|
|
|
|
rt2x00_set_field32(®, MCU_CNTL_CSR_RESET, 0);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_CNTL_CSR, reg);
|
|
|
|
for (i = 0; i < 100; i++) {
|
|
rt2x00pci_register_read(rt2x00dev, MCU_CNTL_CSR, ®);
|
|
if (rt2x00_get_field32(reg, MCU_CNTL_CSR_READY))
|
|
break;
|
|
msleep(1);
|
|
}
|
|
|
|
if (i == 100) {
|
|
ERROR(rt2x00dev, "MCU Control register not ready.\n");
|
|
return -EBUSY;
|
|
}
|
|
|
|
/*
|
|
* Hardware needs another millisecond before it is ready.
|
|
*/
|
|
msleep(1);
|
|
|
|
/*
|
|
* Reset MAC and BBP registers.
|
|
*/
|
|
reg = 0;
|
|
rt2x00_set_field32(®, MAC_CSR1_SOFT_RESET, 1);
|
|
rt2x00_set_field32(®, MAC_CSR1_BBP_RESET, 1);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR1, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR1, ®);
|
|
rt2x00_set_field32(®, MAC_CSR1_SOFT_RESET, 0);
|
|
rt2x00_set_field32(®, MAC_CSR1_BBP_RESET, 0);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR1, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR1, ®);
|
|
rt2x00_set_field32(®, MAC_CSR1_HOST_READY, 1);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR1, reg);
|
|
|
|
return 0;
|
|
}
|
|
|
|
/*
|
|
* Initialization functions.
|
|
*/
|
|
static bool rt61pci_get_entry_state(struct queue_entry *entry)
|
|
{
|
|
struct queue_entry_priv_pci *entry_priv = entry->priv_data;
|
|
u32 word;
|
|
|
|
if (entry->queue->qid == QID_RX) {
|
|
rt2x00_desc_read(entry_priv->desc, 0, &word);
|
|
|
|
return rt2x00_get_field32(word, RXD_W0_OWNER_NIC);
|
|
} else {
|
|
rt2x00_desc_read(entry_priv->desc, 0, &word);
|
|
|
|
return (rt2x00_get_field32(word, TXD_W0_OWNER_NIC) ||
|
|
rt2x00_get_field32(word, TXD_W0_VALID));
|
|
}
|
|
}
|
|
|
|
static void rt61pci_clear_entry(struct queue_entry *entry)
|
|
{
|
|
struct queue_entry_priv_pci *entry_priv = entry->priv_data;
|
|
struct skb_frame_desc *skbdesc = get_skb_frame_desc(entry->skb);
|
|
u32 word;
|
|
|
|
if (entry->queue->qid == QID_RX) {
|
|
rt2x00_desc_read(entry_priv->desc, 5, &word);
|
|
rt2x00_set_field32(&word, RXD_W5_BUFFER_PHYSICAL_ADDRESS,
|
|
skbdesc->skb_dma);
|
|
rt2x00_desc_write(entry_priv->desc, 5, word);
|
|
|
|
rt2x00_desc_read(entry_priv->desc, 0, &word);
|
|
rt2x00_set_field32(&word, RXD_W0_OWNER_NIC, 1);
|
|
rt2x00_desc_write(entry_priv->desc, 0, word);
|
|
} else {
|
|
rt2x00_desc_read(entry_priv->desc, 0, &word);
|
|
rt2x00_set_field32(&word, TXD_W0_VALID, 0);
|
|
rt2x00_set_field32(&word, TXD_W0_OWNER_NIC, 0);
|
|
rt2x00_desc_write(entry_priv->desc, 0, word);
|
|
}
|
|
}
|
|
|
|
static int rt61pci_init_queues(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
struct queue_entry_priv_pci *entry_priv;
|
|
u32 reg;
|
|
|
|
/*
|
|
* Initialize registers.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TX_RING_CSR0, ®);
|
|
rt2x00_set_field32(®, TX_RING_CSR0_AC0_RING_SIZE,
|
|
rt2x00dev->tx[0].limit);
|
|
rt2x00_set_field32(®, TX_RING_CSR0_AC1_RING_SIZE,
|
|
rt2x00dev->tx[1].limit);
|
|
rt2x00_set_field32(®, TX_RING_CSR0_AC2_RING_SIZE,
|
|
rt2x00dev->tx[2].limit);
|
|
rt2x00_set_field32(®, TX_RING_CSR0_AC3_RING_SIZE,
|
|
rt2x00dev->tx[3].limit);
|
|
rt2x00pci_register_write(rt2x00dev, TX_RING_CSR0, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TX_RING_CSR1, ®);
|
|
rt2x00_set_field32(®, TX_RING_CSR1_TXD_SIZE,
|
|
rt2x00dev->tx[0].desc_size / 4);
|
|
rt2x00pci_register_write(rt2x00dev, TX_RING_CSR1, reg);
|
|
|
|
entry_priv = rt2x00dev->tx[0].entries[0].priv_data;
|
|
rt2x00pci_register_read(rt2x00dev, AC0_BASE_CSR, ®);
|
|
rt2x00_set_field32(®, AC0_BASE_CSR_RING_REGISTER,
|
|
entry_priv->desc_dma);
|
|
rt2x00pci_register_write(rt2x00dev, AC0_BASE_CSR, reg);
|
|
|
|
entry_priv = rt2x00dev->tx[1].entries[0].priv_data;
|
|
rt2x00pci_register_read(rt2x00dev, AC1_BASE_CSR, ®);
|
|
rt2x00_set_field32(®, AC1_BASE_CSR_RING_REGISTER,
|
|
entry_priv->desc_dma);
|
|
rt2x00pci_register_write(rt2x00dev, AC1_BASE_CSR, reg);
|
|
|
|
entry_priv = rt2x00dev->tx[2].entries[0].priv_data;
|
|
rt2x00pci_register_read(rt2x00dev, AC2_BASE_CSR, ®);
|
|
rt2x00_set_field32(®, AC2_BASE_CSR_RING_REGISTER,
|
|
entry_priv->desc_dma);
|
|
rt2x00pci_register_write(rt2x00dev, AC2_BASE_CSR, reg);
|
|
|
|
entry_priv = rt2x00dev->tx[3].entries[0].priv_data;
|
|
rt2x00pci_register_read(rt2x00dev, AC3_BASE_CSR, ®);
|
|
rt2x00_set_field32(®, AC3_BASE_CSR_RING_REGISTER,
|
|
entry_priv->desc_dma);
|
|
rt2x00pci_register_write(rt2x00dev, AC3_BASE_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, RX_RING_CSR, ®);
|
|
rt2x00_set_field32(®, RX_RING_CSR_RING_SIZE, rt2x00dev->rx->limit);
|
|
rt2x00_set_field32(®, RX_RING_CSR_RXD_SIZE,
|
|
rt2x00dev->rx->desc_size / 4);
|
|
rt2x00_set_field32(®, RX_RING_CSR_RXD_WRITEBACK_SIZE, 4);
|
|
rt2x00pci_register_write(rt2x00dev, RX_RING_CSR, reg);
|
|
|
|
entry_priv = rt2x00dev->rx->entries[0].priv_data;
|
|
rt2x00pci_register_read(rt2x00dev, RX_BASE_CSR, ®);
|
|
rt2x00_set_field32(®, RX_BASE_CSR_RING_REGISTER,
|
|
entry_priv->desc_dma);
|
|
rt2x00pci_register_write(rt2x00dev, RX_BASE_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TX_DMA_DST_CSR, ®);
|
|
rt2x00_set_field32(®, TX_DMA_DST_CSR_DEST_AC0, 2);
|
|
rt2x00_set_field32(®, TX_DMA_DST_CSR_DEST_AC1, 2);
|
|
rt2x00_set_field32(®, TX_DMA_DST_CSR_DEST_AC2, 2);
|
|
rt2x00_set_field32(®, TX_DMA_DST_CSR_DEST_AC3, 2);
|
|
rt2x00pci_register_write(rt2x00dev, TX_DMA_DST_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, LOAD_TX_RING_CSR, ®);
|
|
rt2x00_set_field32(®, LOAD_TX_RING_CSR_LOAD_TXD_AC0, 1);
|
|
rt2x00_set_field32(®, LOAD_TX_RING_CSR_LOAD_TXD_AC1, 1);
|
|
rt2x00_set_field32(®, LOAD_TX_RING_CSR_LOAD_TXD_AC2, 1);
|
|
rt2x00_set_field32(®, LOAD_TX_RING_CSR_LOAD_TXD_AC3, 1);
|
|
rt2x00pci_register_write(rt2x00dev, LOAD_TX_RING_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, RX_CNTL_CSR, ®);
|
|
rt2x00_set_field32(®, RX_CNTL_CSR_LOAD_RXD, 1);
|
|
rt2x00pci_register_write(rt2x00dev, RX_CNTL_CSR, reg);
|
|
|
|
return 0;
|
|
}
|
|
|
|
static int rt61pci_init_registers(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR0, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR0_AUTO_TX_SEQ, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR0_DISABLE_RX, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR0_TX_WITHOUT_WAITING, 0);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR0, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR1, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID0, 47); /* CCK Signal */
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID0_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID1, 30); /* Rssi */
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID1_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID2, 42); /* OFDM Rate */
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID2_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID3, 30); /* Rssi */
|
|
rt2x00_set_field32(®, TXRX_CSR1_BBP_ID3_VALID, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR1, reg);
|
|
|
|
/*
|
|
* CCK TXD BBP registers
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR2, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID0, 13);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID0_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID1, 12);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID1_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID2, 11);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID2_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID3, 10);
|
|
rt2x00_set_field32(®, TXRX_CSR2_BBP_ID3_VALID, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR2, reg);
|
|
|
|
/*
|
|
* OFDM TXD BBP registers
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR3, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR3_BBP_ID0, 7);
|
|
rt2x00_set_field32(®, TXRX_CSR3_BBP_ID0_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR3_BBP_ID1, 6);
|
|
rt2x00_set_field32(®, TXRX_CSR3_BBP_ID1_VALID, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR3_BBP_ID2, 5);
|
|
rt2x00_set_field32(®, TXRX_CSR3_BBP_ID2_VALID, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR3, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR7, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR7_ACK_CTS_6MBS, 59);
|
|
rt2x00_set_field32(®, TXRX_CSR7_ACK_CTS_9MBS, 53);
|
|
rt2x00_set_field32(®, TXRX_CSR7_ACK_CTS_12MBS, 49);
|
|
rt2x00_set_field32(®, TXRX_CSR7_ACK_CTS_18MBS, 46);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR7, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR8, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR8_ACK_CTS_24MBS, 44);
|
|
rt2x00_set_field32(®, TXRX_CSR8_ACK_CTS_36MBS, 42);
|
|
rt2x00_set_field32(®, TXRX_CSR8_ACK_CTS_48MBS, 42);
|
|
rt2x00_set_field32(®, TXRX_CSR8_ACK_CTS_54MBS, 42);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR8, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR9, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR9_BEACON_INTERVAL, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TSF_TICKING, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TSF_SYNC, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TBTT_ENABLE, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_BEACON_GEN, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TIMESTAMP_COMPENSATE, 0);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR9, reg);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR15, 0x0000000f);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR6, 0x00000fff);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR9, ®);
|
|
rt2x00_set_field32(®, MAC_CSR9_CW_SELECT, 0);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR9, reg);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR10, 0x0000071c);
|
|
|
|
if (rt2x00dev->ops->lib->set_device_state(rt2x00dev, STATE_AWAKE))
|
|
return -EBUSY;
|
|
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR13, 0x0000e000);
|
|
|
|
/*
|
|
* Invalidate all Shared Keys (SEC_CSR0),
|
|
* and clear the Shared key Cipher algorithms (SEC_CSR1 & SEC_CSR5)
|
|
*/
|
|
rt2x00pci_register_write(rt2x00dev, SEC_CSR0, 0x00000000);
|
|
rt2x00pci_register_write(rt2x00dev, SEC_CSR1, 0x00000000);
|
|
rt2x00pci_register_write(rt2x00dev, SEC_CSR5, 0x00000000);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, PHY_CSR1, 0x000023b0);
|
|
rt2x00pci_register_write(rt2x00dev, PHY_CSR5, 0x060a100c);
|
|
rt2x00pci_register_write(rt2x00dev, PHY_CSR6, 0x00080606);
|
|
rt2x00pci_register_write(rt2x00dev, PHY_CSR7, 0x00000a08);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, PCI_CFG_CSR, 0x28ca4404);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, TEST_MODE_CSR, 0x00000200);
|
|
|
|
rt2x00pci_register_write(rt2x00dev, M2H_CMD_DONE_CSR, 0xffffffff);
|
|
|
|
/*
|
|
* Clear all beacons
|
|
* For the Beacon base registers we only need to clear
|
|
* the first byte since that byte contains the VALID and OWNER
|
|
* bits which (when set to 0) will invalidate the entire beacon.
|
|
*/
|
|
rt2x00pci_register_write(rt2x00dev, HW_BEACON_BASE0, 0);
|
|
rt2x00pci_register_write(rt2x00dev, HW_BEACON_BASE1, 0);
|
|
rt2x00pci_register_write(rt2x00dev, HW_BEACON_BASE2, 0);
|
|
rt2x00pci_register_write(rt2x00dev, HW_BEACON_BASE3, 0);
|
|
|
|
/*
|
|
* We must clear the error counters.
|
|
* These registers are cleared on read,
|
|
* so we may pass a useless variable to store the value.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, STA_CSR0, ®);
|
|
rt2x00pci_register_read(rt2x00dev, STA_CSR1, ®);
|
|
rt2x00pci_register_read(rt2x00dev, STA_CSR2, ®);
|
|
|
|
/*
|
|
* Reset MAC and BBP registers.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR1, ®);
|
|
rt2x00_set_field32(®, MAC_CSR1_SOFT_RESET, 1);
|
|
rt2x00_set_field32(®, MAC_CSR1_BBP_RESET, 1);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR1, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR1, ®);
|
|
rt2x00_set_field32(®, MAC_CSR1_SOFT_RESET, 0);
|
|
rt2x00_set_field32(®, MAC_CSR1_BBP_RESET, 0);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR1, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR1, ®);
|
|
rt2x00_set_field32(®, MAC_CSR1_HOST_READY, 1);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR1, reg);
|
|
|
|
return 0;
|
|
}
|
|
|
|
static int rt61pci_wait_bbp_ready(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
unsigned int i;
|
|
u8 value;
|
|
|
|
for (i = 0; i < REGISTER_BUSY_COUNT; i++) {
|
|
rt61pci_bbp_read(rt2x00dev, 0, &value);
|
|
if ((value != 0xff) && (value != 0x00))
|
|
return 0;
|
|
udelay(REGISTER_BUSY_DELAY);
|
|
}
|
|
|
|
ERROR(rt2x00dev, "BBP register access failed, aborting.\n");
|
|
return -EACCES;
|
|
}
|
|
|
|
static int rt61pci_init_bbp(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
unsigned int i;
|
|
u16 eeprom;
|
|
u8 reg_id;
|
|
u8 value;
|
|
|
|
if (unlikely(rt61pci_wait_bbp_ready(rt2x00dev)))
|
|
return -EACCES;
|
|
|
|
rt61pci_bbp_write(rt2x00dev, 3, 0x00);
|
|
rt61pci_bbp_write(rt2x00dev, 15, 0x30);
|
|
rt61pci_bbp_write(rt2x00dev, 21, 0xc8);
|
|
rt61pci_bbp_write(rt2x00dev, 22, 0x38);
|
|
rt61pci_bbp_write(rt2x00dev, 23, 0x06);
|
|
rt61pci_bbp_write(rt2x00dev, 24, 0xfe);
|
|
rt61pci_bbp_write(rt2x00dev, 25, 0x0a);
|
|
rt61pci_bbp_write(rt2x00dev, 26, 0x0d);
|
|
rt61pci_bbp_write(rt2x00dev, 34, 0x12);
|
|
rt61pci_bbp_write(rt2x00dev, 37, 0x07);
|
|
rt61pci_bbp_write(rt2x00dev, 39, 0xf8);
|
|
rt61pci_bbp_write(rt2x00dev, 41, 0x60);
|
|
rt61pci_bbp_write(rt2x00dev, 53, 0x10);
|
|
rt61pci_bbp_write(rt2x00dev, 54, 0x18);
|
|
rt61pci_bbp_write(rt2x00dev, 60, 0x10);
|
|
rt61pci_bbp_write(rt2x00dev, 61, 0x04);
|
|
rt61pci_bbp_write(rt2x00dev, 62, 0x04);
|
|
rt61pci_bbp_write(rt2x00dev, 75, 0xfe);
|
|
rt61pci_bbp_write(rt2x00dev, 86, 0xfe);
|
|
rt61pci_bbp_write(rt2x00dev, 88, 0xfe);
|
|
rt61pci_bbp_write(rt2x00dev, 90, 0x0f);
|
|
rt61pci_bbp_write(rt2x00dev, 99, 0x00);
|
|
rt61pci_bbp_write(rt2x00dev, 102, 0x16);
|
|
rt61pci_bbp_write(rt2x00dev, 107, 0x04);
|
|
|
|
for (i = 0; i < EEPROM_BBP_SIZE; i++) {
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_BBP_START + i, &eeprom);
|
|
|
|
if (eeprom != 0xffff && eeprom != 0x0000) {
|
|
reg_id = rt2x00_get_field16(eeprom, EEPROM_BBP_REG_ID);
|
|
value = rt2x00_get_field16(eeprom, EEPROM_BBP_VALUE);
|
|
rt61pci_bbp_write(rt2x00dev, reg_id, value);
|
|
}
|
|
}
|
|
|
|
return 0;
|
|
}
|
|
|
|
/*
|
|
* Device state switch handlers.
|
|
*/
|
|
static void rt61pci_toggle_rx(struct rt2x00_dev *rt2x00dev,
|
|
enum dev_state state)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR0, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR0_DISABLE_RX,
|
|
(state == STATE_RADIO_RX_OFF) ||
|
|
(state == STATE_RADIO_RX_OFF_LINK));
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR0, reg);
|
|
}
|
|
|
|
static void rt61pci_toggle_irq(struct rt2x00_dev *rt2x00dev,
|
|
enum dev_state state)
|
|
{
|
|
int mask = (state == STATE_RADIO_IRQ_OFF);
|
|
u32 reg;
|
|
|
|
/*
|
|
* When interrupts are being enabled, the interrupt registers
|
|
* should clear the register to assure a clean state.
|
|
*/
|
|
if (state == STATE_RADIO_IRQ_ON) {
|
|
rt2x00pci_register_read(rt2x00dev, INT_SOURCE_CSR, ®);
|
|
rt2x00pci_register_write(rt2x00dev, INT_SOURCE_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MCU_INT_SOURCE_CSR, ®);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_INT_SOURCE_CSR, reg);
|
|
}
|
|
|
|
/*
|
|
* Only toggle the interrupts bits we are going to use.
|
|
* Non-checked interrupt bits are disabled by default.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, INT_MASK_CSR, ®);
|
|
rt2x00_set_field32(®, INT_MASK_CSR_TXDONE, mask);
|
|
rt2x00_set_field32(®, INT_MASK_CSR_RXDONE, mask);
|
|
rt2x00_set_field32(®, INT_MASK_CSR_ENABLE_MITIGATION, mask);
|
|
rt2x00_set_field32(®, INT_MASK_CSR_MITIGATION_PERIOD, 0xff);
|
|
rt2x00pci_register_write(rt2x00dev, INT_MASK_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MCU_INT_MASK_CSR, ®);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_0, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_1, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_2, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_3, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_4, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_5, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_6, mask);
|
|
rt2x00_set_field32(®, MCU_INT_MASK_CSR_7, mask);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_INT_MASK_CSR, reg);
|
|
}
|
|
|
|
static int rt61pci_enable_radio(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
u32 reg;
|
|
|
|
/*
|
|
* Initialize all registers.
|
|
*/
|
|
if (unlikely(rt61pci_init_queues(rt2x00dev) ||
|
|
rt61pci_init_registers(rt2x00dev) ||
|
|
rt61pci_init_bbp(rt2x00dev)))
|
|
return -EIO;
|
|
|
|
/*
|
|
* Enable RX.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, RX_CNTL_CSR, ®);
|
|
rt2x00_set_field32(®, RX_CNTL_CSR_ENABLE_RX_DMA, 1);
|
|
rt2x00pci_register_write(rt2x00dev, RX_CNTL_CSR, reg);
|
|
|
|
return 0;
|
|
}
|
|
|
|
static void rt61pci_disable_radio(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR10, 0x00001818);
|
|
|
|
/*
|
|
* Disable synchronisation.
|
|
*/
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR9, 0);
|
|
|
|
/*
|
|
* Cancel RX and TX.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TX_CNTL_CSR, ®);
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_ABORT_TX_AC0, 1);
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_ABORT_TX_AC1, 1);
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_ABORT_TX_AC2, 1);
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_ABORT_TX_AC3, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TX_CNTL_CSR, reg);
|
|
}
|
|
|
|
static int rt61pci_set_state(struct rt2x00_dev *rt2x00dev, enum dev_state state)
|
|
{
|
|
u32 reg;
|
|
unsigned int i;
|
|
char put_to_sleep;
|
|
|
|
put_to_sleep = (state != STATE_AWAKE);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR12, ®);
|
|
rt2x00_set_field32(®, MAC_CSR12_FORCE_WAKEUP, !put_to_sleep);
|
|
rt2x00_set_field32(®, MAC_CSR12_PUT_TO_SLEEP, put_to_sleep);
|
|
rt2x00pci_register_write(rt2x00dev, MAC_CSR12, reg);
|
|
|
|
/*
|
|
* Device is not guaranteed to be in the requested state yet.
|
|
* We must wait until the register indicates that the
|
|
* device has entered the correct state.
|
|
*/
|
|
for (i = 0; i < REGISTER_BUSY_COUNT; i++) {
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR12, ®);
|
|
state = rt2x00_get_field32(reg, MAC_CSR12_BBP_CURRENT_STATE);
|
|
if (state == !put_to_sleep)
|
|
return 0;
|
|
msleep(10);
|
|
}
|
|
|
|
return -EBUSY;
|
|
}
|
|
|
|
static int rt61pci_set_device_state(struct rt2x00_dev *rt2x00dev,
|
|
enum dev_state state)
|
|
{
|
|
int retval = 0;
|
|
|
|
switch (state) {
|
|
case STATE_RADIO_ON:
|
|
retval = rt61pci_enable_radio(rt2x00dev);
|
|
break;
|
|
case STATE_RADIO_OFF:
|
|
rt61pci_disable_radio(rt2x00dev);
|
|
break;
|
|
case STATE_RADIO_RX_ON:
|
|
case STATE_RADIO_RX_ON_LINK:
|
|
case STATE_RADIO_RX_OFF:
|
|
case STATE_RADIO_RX_OFF_LINK:
|
|
rt61pci_toggle_rx(rt2x00dev, state);
|
|
break;
|
|
case STATE_RADIO_IRQ_ON:
|
|
case STATE_RADIO_IRQ_OFF:
|
|
rt61pci_toggle_irq(rt2x00dev, state);
|
|
break;
|
|
case STATE_DEEP_SLEEP:
|
|
case STATE_SLEEP:
|
|
case STATE_STANDBY:
|
|
case STATE_AWAKE:
|
|
retval = rt61pci_set_state(rt2x00dev, state);
|
|
break;
|
|
default:
|
|
retval = -ENOTSUPP;
|
|
break;
|
|
}
|
|
|
|
if (unlikely(retval))
|
|
ERROR(rt2x00dev, "Device failed to enter state %d (%d).\n",
|
|
state, retval);
|
|
|
|
return retval;
|
|
}
|
|
|
|
/*
|
|
* TX descriptor initialization
|
|
*/
|
|
static void rt61pci_write_tx_desc(struct rt2x00_dev *rt2x00dev,
|
|
struct sk_buff *skb,
|
|
struct txentry_desc *txdesc)
|
|
{
|
|
struct skb_frame_desc *skbdesc = get_skb_frame_desc(skb);
|
|
__le32 *txd = skbdesc->desc;
|
|
u32 word;
|
|
|
|
/*
|
|
* Start writing the descriptor words.
|
|
*/
|
|
rt2x00_desc_read(txd, 1, &word);
|
|
rt2x00_set_field32(&word, TXD_W1_HOST_Q_ID, txdesc->queue);
|
|
rt2x00_set_field32(&word, TXD_W1_AIFSN, txdesc->aifs);
|
|
rt2x00_set_field32(&word, TXD_W1_CWMIN, txdesc->cw_min);
|
|
rt2x00_set_field32(&word, TXD_W1_CWMAX, txdesc->cw_max);
|
|
rt2x00_set_field32(&word, TXD_W1_IV_OFFSET, txdesc->iv_offset);
|
|
rt2x00_set_field32(&word, TXD_W1_HW_SEQUENCE,
|
|
test_bit(ENTRY_TXD_GENERATE_SEQ, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W1_BUFFER_COUNT, 1);
|
|
rt2x00_desc_write(txd, 1, word);
|
|
|
|
rt2x00_desc_read(txd, 2, &word);
|
|
rt2x00_set_field32(&word, TXD_W2_PLCP_SIGNAL, txdesc->signal);
|
|
rt2x00_set_field32(&word, TXD_W2_PLCP_SERVICE, txdesc->service);
|
|
rt2x00_set_field32(&word, TXD_W2_PLCP_LENGTH_LOW, txdesc->length_low);
|
|
rt2x00_set_field32(&word, TXD_W2_PLCP_LENGTH_HIGH, txdesc->length_high);
|
|
rt2x00_desc_write(txd, 2, word);
|
|
|
|
if (test_bit(ENTRY_TXD_ENCRYPT, &txdesc->flags)) {
|
|
_rt2x00_desc_write(txd, 3, skbdesc->iv[0]);
|
|
_rt2x00_desc_write(txd, 4, skbdesc->iv[1]);
|
|
}
|
|
|
|
rt2x00_desc_read(txd, 5, &word);
|
|
rt2x00_set_field32(&word, TXD_W5_PID_TYPE, skbdesc->entry->queue->qid);
|
|
rt2x00_set_field32(&word, TXD_W5_PID_SUBTYPE,
|
|
skbdesc->entry->entry_idx);
|
|
rt2x00_set_field32(&word, TXD_W5_TX_POWER,
|
|
TXPOWER_TO_DEV(rt2x00dev->tx_power));
|
|
rt2x00_set_field32(&word, TXD_W5_WAITING_DMA_DONE_INT, 1);
|
|
rt2x00_desc_write(txd, 5, word);
|
|
|
|
rt2x00_desc_read(txd, 6, &word);
|
|
rt2x00_set_field32(&word, TXD_W6_BUFFER_PHYSICAL_ADDRESS,
|
|
skbdesc->skb_dma);
|
|
rt2x00_desc_write(txd, 6, word);
|
|
|
|
if (skbdesc->desc_len > TXINFO_SIZE) {
|
|
rt2x00_desc_read(txd, 11, &word);
|
|
rt2x00_set_field32(&word, TXD_W11_BUFFER_LENGTH0, skb->len);
|
|
rt2x00_desc_write(txd, 11, word);
|
|
}
|
|
|
|
rt2x00_desc_read(txd, 0, &word);
|
|
rt2x00_set_field32(&word, TXD_W0_OWNER_NIC, 1);
|
|
rt2x00_set_field32(&word, TXD_W0_VALID, 1);
|
|
rt2x00_set_field32(&word, TXD_W0_MORE_FRAG,
|
|
test_bit(ENTRY_TXD_MORE_FRAG, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_ACK,
|
|
test_bit(ENTRY_TXD_ACK, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_TIMESTAMP,
|
|
test_bit(ENTRY_TXD_REQ_TIMESTAMP, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_OFDM,
|
|
test_bit(ENTRY_TXD_OFDM_RATE, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_IFS, txdesc->ifs);
|
|
rt2x00_set_field32(&word, TXD_W0_RETRY_MODE,
|
|
test_bit(ENTRY_TXD_RETRY_MODE, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_TKIP_MIC,
|
|
test_bit(ENTRY_TXD_ENCRYPT_MMIC, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_KEY_TABLE,
|
|
test_bit(ENTRY_TXD_ENCRYPT_PAIRWISE, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_KEY_INDEX, txdesc->key_idx);
|
|
rt2x00_set_field32(&word, TXD_W0_DATABYTE_COUNT, skb->len);
|
|
rt2x00_set_field32(&word, TXD_W0_BURST,
|
|
test_bit(ENTRY_TXD_BURST, &txdesc->flags));
|
|
rt2x00_set_field32(&word, TXD_W0_CIPHER_ALG, txdesc->cipher);
|
|
rt2x00_desc_write(txd, 0, word);
|
|
}
|
|
|
|
/*
|
|
* TX data initialization
|
|
*/
|
|
static void rt61pci_write_beacon(struct queue_entry *entry)
|
|
{
|
|
struct rt2x00_dev *rt2x00dev = entry->queue->rt2x00dev;
|
|
struct skb_frame_desc *skbdesc = get_skb_frame_desc(entry->skb);
|
|
unsigned int beacon_base;
|
|
u32 reg;
|
|
|
|
/*
|
|
* Disable beaconing while we are reloading the beacon data,
|
|
* otherwise we might be sending out invalid data.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR9, ®);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TSF_TICKING, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TBTT_ENABLE, 0);
|
|
rt2x00_set_field32(®, TXRX_CSR9_BEACON_GEN, 0);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR9, reg);
|
|
|
|
/*
|
|
* Write entire beacon with descriptor to register.
|
|
*/
|
|
beacon_base = HW_BEACON_OFFSET(entry->entry_idx);
|
|
rt2x00pci_register_multiwrite(rt2x00dev,
|
|
beacon_base,
|
|
skbdesc->desc, skbdesc->desc_len);
|
|
rt2x00pci_register_multiwrite(rt2x00dev,
|
|
beacon_base + skbdesc->desc_len,
|
|
entry->skb->data, entry->skb->len);
|
|
|
|
/*
|
|
* Clean up beacon skb.
|
|
*/
|
|
dev_kfree_skb_any(entry->skb);
|
|
entry->skb = NULL;
|
|
}
|
|
|
|
static void rt61pci_kick_tx_queue(struct rt2x00_dev *rt2x00dev,
|
|
const enum data_queue_qid queue)
|
|
{
|
|
u32 reg;
|
|
|
|
if (queue == QID_BEACON) {
|
|
/*
|
|
* For Wi-Fi faily generated beacons between participating
|
|
* stations. Set TBTT phase adaptive adjustment step to 8us.
|
|
*/
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR10, 0x00001008);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR9, ®);
|
|
if (!rt2x00_get_field32(reg, TXRX_CSR9_BEACON_GEN)) {
|
|
rt2x00_set_field32(®, TXRX_CSR9_TSF_TICKING, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR9_TBTT_ENABLE, 1);
|
|
rt2x00_set_field32(®, TXRX_CSR9_BEACON_GEN, 1);
|
|
rt2x00pci_register_write(rt2x00dev, TXRX_CSR9, reg);
|
|
}
|
|
return;
|
|
}
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TX_CNTL_CSR, ®);
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_KICK_TX_AC0, (queue == QID_AC_BE));
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_KICK_TX_AC1, (queue == QID_AC_BK));
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_KICK_TX_AC2, (queue == QID_AC_VI));
|
|
rt2x00_set_field32(®, TX_CNTL_CSR_KICK_TX_AC3, (queue == QID_AC_VO));
|
|
rt2x00pci_register_write(rt2x00dev, TX_CNTL_CSR, reg);
|
|
}
|
|
|
|
/*
|
|
* RX control handlers
|
|
*/
|
|
static int rt61pci_agc_to_rssi(struct rt2x00_dev *rt2x00dev, int rxd_w1)
|
|
{
|
|
u8 offset = rt2x00dev->lna_gain;
|
|
u8 lna;
|
|
|
|
lna = rt2x00_get_field32(rxd_w1, RXD_W1_RSSI_LNA);
|
|
switch (lna) {
|
|
case 3:
|
|
offset += 90;
|
|
break;
|
|
case 2:
|
|
offset += 74;
|
|
break;
|
|
case 1:
|
|
offset += 64;
|
|
break;
|
|
default:
|
|
return 0;
|
|
}
|
|
|
|
if (rt2x00dev->rx_status.band == IEEE80211_BAND_5GHZ) {
|
|
if (lna == 3 || lna == 2)
|
|
offset += 10;
|
|
}
|
|
|
|
return rt2x00_get_field32(rxd_w1, RXD_W1_RSSI_AGC) * 2 - offset;
|
|
}
|
|
|
|
static void rt61pci_fill_rxdone(struct queue_entry *entry,
|
|
struct rxdone_entry_desc *rxdesc)
|
|
{
|
|
struct rt2x00_dev *rt2x00dev = entry->queue->rt2x00dev;
|
|
struct queue_entry_priv_pci *entry_priv = entry->priv_data;
|
|
u32 word0;
|
|
u32 word1;
|
|
|
|
rt2x00_desc_read(entry_priv->desc, 0, &word0);
|
|
rt2x00_desc_read(entry_priv->desc, 1, &word1);
|
|
|
|
if (rt2x00_get_field32(word0, RXD_W0_CRC_ERROR))
|
|
rxdesc->flags |= RX_FLAG_FAILED_FCS_CRC;
|
|
|
|
if (test_bit(CONFIG_SUPPORT_HW_CRYPTO, &rt2x00dev->flags)) {
|
|
rxdesc->cipher =
|
|
rt2x00_get_field32(word0, RXD_W0_CIPHER_ALG);
|
|
rxdesc->cipher_status =
|
|
rt2x00_get_field32(word0, RXD_W0_CIPHER_ERROR);
|
|
}
|
|
|
|
if (rxdesc->cipher != CIPHER_NONE) {
|
|
_rt2x00_desc_read(entry_priv->desc, 2, &rxdesc->iv[0]);
|
|
_rt2x00_desc_read(entry_priv->desc, 3, &rxdesc->iv[1]);
|
|
rxdesc->dev_flags |= RXDONE_CRYPTO_IV;
|
|
|
|
_rt2x00_desc_read(entry_priv->desc, 4, &rxdesc->icv);
|
|
rxdesc->dev_flags |= RXDONE_CRYPTO_ICV;
|
|
|
|
/*
|
|
* Hardware has stripped IV/EIV data from 802.11 frame during
|
|
* decryption. It has provided the data seperately but rt2x00lib
|
|
* should decide if it should be reinserted.
|
|
*/
|
|
rxdesc->flags |= RX_FLAG_IV_STRIPPED;
|
|
|
|
/*
|
|
* FIXME: Legacy driver indicates that the frame does
|
|
* contain the Michael Mic. Unfortunately, in rt2x00
|
|
* the MIC seems to be missing completely...
|
|
*/
|
|
rxdesc->flags |= RX_FLAG_MMIC_STRIPPED;
|
|
|
|
if (rxdesc->cipher_status == RX_CRYPTO_SUCCESS)
|
|
rxdesc->flags |= RX_FLAG_DECRYPTED;
|
|
else if (rxdesc->cipher_status == RX_CRYPTO_FAIL_MIC)
|
|
rxdesc->flags |= RX_FLAG_MMIC_ERROR;
|
|
}
|
|
|
|
/*
|
|
* Obtain the status about this packet.
|
|
* When frame was received with an OFDM bitrate,
|
|
* the signal is the PLCP value. If it was received with
|
|
* a CCK bitrate the signal is the rate in 100kbit/s.
|
|
*/
|
|
rxdesc->signal = rt2x00_get_field32(word1, RXD_W1_SIGNAL);
|
|
rxdesc->rssi = rt61pci_agc_to_rssi(rt2x00dev, word1);
|
|
rxdesc->size = rt2x00_get_field32(word0, RXD_W0_DATABYTE_COUNT);
|
|
|
|
if (rt2x00_get_field32(word0, RXD_W0_OFDM))
|
|
rxdesc->dev_flags |= RXDONE_SIGNAL_PLCP;
|
|
else
|
|
rxdesc->dev_flags |= RXDONE_SIGNAL_BITRATE;
|
|
if (rt2x00_get_field32(word0, RXD_W0_MY_BSS))
|
|
rxdesc->dev_flags |= RXDONE_MY_BSS;
|
|
}
|
|
|
|
/*
|
|
* Interrupt functions.
|
|
*/
|
|
static void rt61pci_txdone(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
struct data_queue *queue;
|
|
struct queue_entry *entry;
|
|
struct queue_entry *entry_done;
|
|
struct queue_entry_priv_pci *entry_priv;
|
|
struct txdone_entry_desc txdesc;
|
|
u32 word;
|
|
u32 reg;
|
|
u32 old_reg;
|
|
int type;
|
|
int index;
|
|
|
|
/*
|
|
* During each loop we will compare the freshly read
|
|
* STA_CSR4 register value with the value read from
|
|
* the previous loop. If the 2 values are equal then
|
|
* we should stop processing because the chance it
|
|
* quite big that the device has been unplugged and
|
|
* we risk going into an endless loop.
|
|
*/
|
|
old_reg = 0;
|
|
|
|
while (1) {
|
|
rt2x00pci_register_read(rt2x00dev, STA_CSR4, ®);
|
|
if (!rt2x00_get_field32(reg, STA_CSR4_VALID))
|
|
break;
|
|
|
|
if (old_reg == reg)
|
|
break;
|
|
old_reg = reg;
|
|
|
|
/*
|
|
* Skip this entry when it contains an invalid
|
|
* queue identication number.
|
|
*/
|
|
type = rt2x00_get_field32(reg, STA_CSR4_PID_TYPE);
|
|
queue = rt2x00queue_get_queue(rt2x00dev, type);
|
|
if (unlikely(!queue))
|
|
continue;
|
|
|
|
/*
|
|
* Skip this entry when it contains an invalid
|
|
* index number.
|
|
*/
|
|
index = rt2x00_get_field32(reg, STA_CSR4_PID_SUBTYPE);
|
|
if (unlikely(index >= queue->limit))
|
|
continue;
|
|
|
|
entry = &queue->entries[index];
|
|
entry_priv = entry->priv_data;
|
|
rt2x00_desc_read(entry_priv->desc, 0, &word);
|
|
|
|
if (rt2x00_get_field32(word, TXD_W0_OWNER_NIC) ||
|
|
!rt2x00_get_field32(word, TXD_W0_VALID))
|
|
return;
|
|
|
|
entry_done = rt2x00queue_get_entry(queue, Q_INDEX_DONE);
|
|
while (entry != entry_done) {
|
|
/* Catch up.
|
|
* Just report any entries we missed as failed.
|
|
*/
|
|
WARNING(rt2x00dev,
|
|
"TX status report missed for entry %d\n",
|
|
entry_done->entry_idx);
|
|
|
|
txdesc.flags = 0;
|
|
__set_bit(TXDONE_UNKNOWN, &txdesc.flags);
|
|
txdesc.retry = 0;
|
|
|
|
rt2x00lib_txdone(entry_done, &txdesc);
|
|
entry_done = rt2x00queue_get_entry(queue, Q_INDEX_DONE);
|
|
}
|
|
|
|
/*
|
|
* Obtain the status about this packet.
|
|
*/
|
|
txdesc.flags = 0;
|
|
switch (rt2x00_get_field32(reg, STA_CSR4_TX_RESULT)) {
|
|
case 0: /* Success, maybe with retry */
|
|
__set_bit(TXDONE_SUCCESS, &txdesc.flags);
|
|
break;
|
|
case 6: /* Failure, excessive retries */
|
|
__set_bit(TXDONE_EXCESSIVE_RETRY, &txdesc.flags);
|
|
/* Don't break, this is a failed frame! */
|
|
default: /* Failure */
|
|
__set_bit(TXDONE_FAILURE, &txdesc.flags);
|
|
}
|
|
txdesc.retry = rt2x00_get_field32(reg, STA_CSR4_RETRY_COUNT);
|
|
|
|
rt2x00lib_txdone(entry, &txdesc);
|
|
}
|
|
}
|
|
|
|
static irqreturn_t rt61pci_interrupt(int irq, void *dev_instance)
|
|
{
|
|
struct rt2x00_dev *rt2x00dev = dev_instance;
|
|
u32 reg_mcu;
|
|
u32 reg;
|
|
|
|
/*
|
|
* Get the interrupt sources & saved to local variable.
|
|
* Write register value back to clear pending interrupts.
|
|
*/
|
|
rt2x00pci_register_read(rt2x00dev, MCU_INT_SOURCE_CSR, ®_mcu);
|
|
rt2x00pci_register_write(rt2x00dev, MCU_INT_SOURCE_CSR, reg_mcu);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, INT_SOURCE_CSR, ®);
|
|
rt2x00pci_register_write(rt2x00dev, INT_SOURCE_CSR, reg);
|
|
|
|
if (!reg && !reg_mcu)
|
|
return IRQ_NONE;
|
|
|
|
if (!test_bit(DEVICE_STATE_ENABLED_RADIO, &rt2x00dev->flags))
|
|
return IRQ_HANDLED;
|
|
|
|
/*
|
|
* Handle interrupts, walk through all bits
|
|
* and run the tasks, the bits are checked in order of
|
|
* priority.
|
|
*/
|
|
|
|
/*
|
|
* 1 - Rx ring done interrupt.
|
|
*/
|
|
if (rt2x00_get_field32(reg, INT_SOURCE_CSR_RXDONE))
|
|
rt2x00pci_rxdone(rt2x00dev);
|
|
|
|
/*
|
|
* 2 - Tx ring done interrupt.
|
|
*/
|
|
if (rt2x00_get_field32(reg, INT_SOURCE_CSR_TXDONE))
|
|
rt61pci_txdone(rt2x00dev);
|
|
|
|
/*
|
|
* 3 - Handle MCU command done.
|
|
*/
|
|
if (reg_mcu)
|
|
rt2x00pci_register_write(rt2x00dev,
|
|
M2H_CMD_DONE_CSR, 0xffffffff);
|
|
|
|
return IRQ_HANDLED;
|
|
}
|
|
|
|
/*
|
|
* Device probe functions.
|
|
*/
|
|
static int rt61pci_validate_eeprom(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
struct eeprom_93cx6 eeprom;
|
|
u32 reg;
|
|
u16 word;
|
|
u8 *mac;
|
|
s8 value;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, E2PROM_CSR, ®);
|
|
|
|
eeprom.data = rt2x00dev;
|
|
eeprom.register_read = rt61pci_eepromregister_read;
|
|
eeprom.register_write = rt61pci_eepromregister_write;
|
|
eeprom.width = rt2x00_get_field32(reg, E2PROM_CSR_TYPE_93C46) ?
|
|
PCI_EEPROM_WIDTH_93C46 : PCI_EEPROM_WIDTH_93C66;
|
|
eeprom.reg_data_in = 0;
|
|
eeprom.reg_data_out = 0;
|
|
eeprom.reg_data_clock = 0;
|
|
eeprom.reg_chip_select = 0;
|
|
|
|
eeprom_93cx6_multiread(&eeprom, EEPROM_BASE, rt2x00dev->eeprom,
|
|
EEPROM_SIZE / sizeof(u16));
|
|
|
|
/*
|
|
* Start validation of the data that has been read.
|
|
*/
|
|
mac = rt2x00_eeprom_addr(rt2x00dev, EEPROM_MAC_ADDR_0);
|
|
if (!is_valid_ether_addr(mac)) {
|
|
random_ether_addr(mac);
|
|
EEPROM(rt2x00dev, "MAC: %pM\n", mac);
|
|
}
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_ANTENNA, &word);
|
|
if (word == 0xffff) {
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_NUM, 2);
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_TX_DEFAULT,
|
|
ANTENNA_B);
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_RX_DEFAULT,
|
|
ANTENNA_B);
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_FRAME_TYPE, 0);
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_DYN_TXAGC, 0);
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_HARDWARE_RADIO, 0);
|
|
rt2x00_set_field16(&word, EEPROM_ANTENNA_RF_TYPE, RF5225);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_ANTENNA, word);
|
|
EEPROM(rt2x00dev, "Antenna: 0x%04x\n", word);
|
|
}
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_NIC, &word);
|
|
if (word == 0xffff) {
|
|
rt2x00_set_field16(&word, EEPROM_NIC_ENABLE_DIVERSITY, 0);
|
|
rt2x00_set_field16(&word, EEPROM_NIC_TX_DIVERSITY, 0);
|
|
rt2x00_set_field16(&word, EEPROM_NIC_TX_RX_FIXED, 0);
|
|
rt2x00_set_field16(&word, EEPROM_NIC_EXTERNAL_LNA_BG, 0);
|
|
rt2x00_set_field16(&word, EEPROM_NIC_CARDBUS_ACCEL, 0);
|
|
rt2x00_set_field16(&word, EEPROM_NIC_EXTERNAL_LNA_A, 0);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_NIC, word);
|
|
EEPROM(rt2x00dev, "NIC: 0x%04x\n", word);
|
|
}
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_LED, &word);
|
|
if (word == 0xffff) {
|
|
rt2x00_set_field16(&word, EEPROM_LED_LED_MODE,
|
|
LED_MODE_DEFAULT);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_LED, word);
|
|
EEPROM(rt2x00dev, "Led: 0x%04x\n", word);
|
|
}
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_FREQ, &word);
|
|
if (word == 0xffff) {
|
|
rt2x00_set_field16(&word, EEPROM_FREQ_OFFSET, 0);
|
|
rt2x00_set_field16(&word, EEPROM_FREQ_SEQ, 0);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_FREQ, word);
|
|
EEPROM(rt2x00dev, "Freq: 0x%04x\n", word);
|
|
}
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_RSSI_OFFSET_BG, &word);
|
|
if (word == 0xffff) {
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_BG_1, 0);
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_BG_2, 0);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_RSSI_OFFSET_BG, word);
|
|
EEPROM(rt2x00dev, "RSSI OFFSET BG: 0x%04x\n", word);
|
|
} else {
|
|
value = rt2x00_get_field16(word, EEPROM_RSSI_OFFSET_BG_1);
|
|
if (value < -10 || value > 10)
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_BG_1, 0);
|
|
value = rt2x00_get_field16(word, EEPROM_RSSI_OFFSET_BG_2);
|
|
if (value < -10 || value > 10)
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_BG_2, 0);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_RSSI_OFFSET_BG, word);
|
|
}
|
|
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_RSSI_OFFSET_A, &word);
|
|
if (word == 0xffff) {
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_A_1, 0);
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_A_2, 0);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_RSSI_OFFSET_A, word);
|
|
EEPROM(rt2x00dev, "RSSI OFFSET A: 0x%04x\n", word);
|
|
} else {
|
|
value = rt2x00_get_field16(word, EEPROM_RSSI_OFFSET_A_1);
|
|
if (value < -10 || value > 10)
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_A_1, 0);
|
|
value = rt2x00_get_field16(word, EEPROM_RSSI_OFFSET_A_2);
|
|
if (value < -10 || value > 10)
|
|
rt2x00_set_field16(&word, EEPROM_RSSI_OFFSET_A_2, 0);
|
|
rt2x00_eeprom_write(rt2x00dev, EEPROM_RSSI_OFFSET_A, word);
|
|
}
|
|
|
|
return 0;
|
|
}
|
|
|
|
static int rt61pci_init_eeprom(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
u32 reg;
|
|
u16 value;
|
|
u16 eeprom;
|
|
u16 device;
|
|
|
|
/*
|
|
* Read EEPROM word for configuration.
|
|
*/
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_ANTENNA, &eeprom);
|
|
|
|
/*
|
|
* Identify RF chipset.
|
|
* To determine the RT chip we have to read the
|
|
* PCI header of the device.
|
|
*/
|
|
pci_read_config_word(to_pci_dev(rt2x00dev->dev),
|
|
PCI_CONFIG_HEADER_DEVICE, &device);
|
|
value = rt2x00_get_field16(eeprom, EEPROM_ANTENNA_RF_TYPE);
|
|
rt2x00pci_register_read(rt2x00dev, MAC_CSR0, ®);
|
|
rt2x00_set_chip(rt2x00dev, device, value, reg);
|
|
|
|
if (!rt2x00_rf(&rt2x00dev->chip, RF5225) &&
|
|
!rt2x00_rf(&rt2x00dev->chip, RF5325) &&
|
|
!rt2x00_rf(&rt2x00dev->chip, RF2527) &&
|
|
!rt2x00_rf(&rt2x00dev->chip, RF2529)) {
|
|
ERROR(rt2x00dev, "Invalid RF chipset detected.\n");
|
|
return -ENODEV;
|
|
}
|
|
|
|
/*
|
|
* Determine number of antenna's.
|
|
*/
|
|
if (rt2x00_get_field16(eeprom, EEPROM_ANTENNA_NUM) == 2)
|
|
__set_bit(CONFIG_DOUBLE_ANTENNA, &rt2x00dev->flags);
|
|
|
|
/*
|
|
* Identify default antenna configuration.
|
|
*/
|
|
rt2x00dev->default_ant.tx =
|
|
rt2x00_get_field16(eeprom, EEPROM_ANTENNA_TX_DEFAULT);
|
|
rt2x00dev->default_ant.rx =
|
|
rt2x00_get_field16(eeprom, EEPROM_ANTENNA_RX_DEFAULT);
|
|
|
|
/*
|
|
* Read the Frame type.
|
|
*/
|
|
if (rt2x00_get_field16(eeprom, EEPROM_ANTENNA_FRAME_TYPE))
|
|
__set_bit(CONFIG_FRAME_TYPE, &rt2x00dev->flags);
|
|
|
|
/*
|
|
* Detect if this device has an hardware controlled radio.
|
|
*/
|
|
#ifdef CONFIG_RT2X00_LIB_RFKILL
|
|
if (rt2x00_get_field16(eeprom, EEPROM_ANTENNA_HARDWARE_RADIO))
|
|
__set_bit(CONFIG_SUPPORT_HW_BUTTON, &rt2x00dev->flags);
|
|
#endif /* CONFIG_RT2X00_LIB_RFKILL */
|
|
|
|
/*
|
|
* Read frequency offset and RF programming sequence.
|
|
*/
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_FREQ, &eeprom);
|
|
if (rt2x00_get_field16(eeprom, EEPROM_FREQ_SEQ))
|
|
__set_bit(CONFIG_RF_SEQUENCE, &rt2x00dev->flags);
|
|
|
|
rt2x00dev->freq_offset = rt2x00_get_field16(eeprom, EEPROM_FREQ_OFFSET);
|
|
|
|
/*
|
|
* Read external LNA informations.
|
|
*/
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_NIC, &eeprom);
|
|
|
|
if (rt2x00_get_field16(eeprom, EEPROM_NIC_EXTERNAL_LNA_A))
|
|
__set_bit(CONFIG_EXTERNAL_LNA_A, &rt2x00dev->flags);
|
|
if (rt2x00_get_field16(eeprom, EEPROM_NIC_EXTERNAL_LNA_BG))
|
|
__set_bit(CONFIG_EXTERNAL_LNA_BG, &rt2x00dev->flags);
|
|
|
|
/*
|
|
* When working with a RF2529 chip without double antenna
|
|
* the antenna settings should be gathered from the NIC
|
|
* eeprom word.
|
|
*/
|
|
if (rt2x00_rf(&rt2x00dev->chip, RF2529) &&
|
|
!test_bit(CONFIG_DOUBLE_ANTENNA, &rt2x00dev->flags)) {
|
|
switch (rt2x00_get_field16(eeprom, EEPROM_NIC_TX_RX_FIXED)) {
|
|
case 0:
|
|
rt2x00dev->default_ant.tx = ANTENNA_B;
|
|
rt2x00dev->default_ant.rx = ANTENNA_A;
|
|
break;
|
|
case 1:
|
|
rt2x00dev->default_ant.tx = ANTENNA_B;
|
|
rt2x00dev->default_ant.rx = ANTENNA_B;
|
|
break;
|
|
case 2:
|
|
rt2x00dev->default_ant.tx = ANTENNA_A;
|
|
rt2x00dev->default_ant.rx = ANTENNA_A;
|
|
break;
|
|
case 3:
|
|
rt2x00dev->default_ant.tx = ANTENNA_A;
|
|
rt2x00dev->default_ant.rx = ANTENNA_B;
|
|
break;
|
|
}
|
|
|
|
if (rt2x00_get_field16(eeprom, EEPROM_NIC_TX_DIVERSITY))
|
|
rt2x00dev->default_ant.tx = ANTENNA_SW_DIVERSITY;
|
|
if (rt2x00_get_field16(eeprom, EEPROM_NIC_ENABLE_DIVERSITY))
|
|
rt2x00dev->default_ant.rx = ANTENNA_SW_DIVERSITY;
|
|
}
|
|
|
|
/*
|
|
* Store led settings, for correct led behaviour.
|
|
* If the eeprom value is invalid,
|
|
* switch to default led mode.
|
|
*/
|
|
#ifdef CONFIG_RT2X00_LIB_LEDS
|
|
rt2x00_eeprom_read(rt2x00dev, EEPROM_LED, &eeprom);
|
|
value = rt2x00_get_field16(eeprom, EEPROM_LED_LED_MODE);
|
|
|
|
rt61pci_init_led(rt2x00dev, &rt2x00dev->led_radio, LED_TYPE_RADIO);
|
|
rt61pci_init_led(rt2x00dev, &rt2x00dev->led_assoc, LED_TYPE_ASSOC);
|
|
if (value == LED_MODE_SIGNAL_STRENGTH)
|
|
rt61pci_init_led(rt2x00dev, &rt2x00dev->led_qual,
|
|
LED_TYPE_QUALITY);
|
|
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_LED_MODE, value);
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_GPIO_0,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_GPIO_0));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_GPIO_1,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_GPIO_1));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_GPIO_2,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_GPIO_2));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_GPIO_3,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_GPIO_3));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_GPIO_4,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_GPIO_4));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_ACT,
|
|
rt2x00_get_field16(eeprom, EEPROM_LED_POLARITY_ACT));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_READY_BG,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_RDY_G));
|
|
rt2x00_set_field16(&rt2x00dev->led_mcu_reg, MCU_LEDCS_POLARITY_READY_A,
|
|
rt2x00_get_field16(eeprom,
|
|
EEPROM_LED_POLARITY_RDY_A));
|
|
#endif /* CONFIG_RT2X00_LIB_LEDS */
|
|
|
|
return 0;
|
|
}
|
|
|
|
/*
|
|
* RF value list for RF5225 & RF5325
|
|
* Supports: 2.4 GHz & 5.2 GHz, rf_sequence disabled
|
|
*/
|
|
static const struct rf_channel rf_vals_noseq[] = {
|
|
{ 1, 0x00002ccc, 0x00004786, 0x00068455, 0x000ffa0b },
|
|
{ 2, 0x00002ccc, 0x00004786, 0x00068455, 0x000ffa1f },
|
|
{ 3, 0x00002ccc, 0x0000478a, 0x00068455, 0x000ffa0b },
|
|
{ 4, 0x00002ccc, 0x0000478a, 0x00068455, 0x000ffa1f },
|
|
{ 5, 0x00002ccc, 0x0000478e, 0x00068455, 0x000ffa0b },
|
|
{ 6, 0x00002ccc, 0x0000478e, 0x00068455, 0x000ffa1f },
|
|
{ 7, 0x00002ccc, 0x00004792, 0x00068455, 0x000ffa0b },
|
|
{ 8, 0x00002ccc, 0x00004792, 0x00068455, 0x000ffa1f },
|
|
{ 9, 0x00002ccc, 0x00004796, 0x00068455, 0x000ffa0b },
|
|
{ 10, 0x00002ccc, 0x00004796, 0x00068455, 0x000ffa1f },
|
|
{ 11, 0x00002ccc, 0x0000479a, 0x00068455, 0x000ffa0b },
|
|
{ 12, 0x00002ccc, 0x0000479a, 0x00068455, 0x000ffa1f },
|
|
{ 13, 0x00002ccc, 0x0000479e, 0x00068455, 0x000ffa0b },
|
|
{ 14, 0x00002ccc, 0x000047a2, 0x00068455, 0x000ffa13 },
|
|
|
|
/* 802.11 UNI / HyperLan 2 */
|
|
{ 36, 0x00002ccc, 0x0000499a, 0x0009be55, 0x000ffa23 },
|
|
{ 40, 0x00002ccc, 0x000049a2, 0x0009be55, 0x000ffa03 },
|
|
{ 44, 0x00002ccc, 0x000049a6, 0x0009be55, 0x000ffa0b },
|
|
{ 48, 0x00002ccc, 0x000049aa, 0x0009be55, 0x000ffa13 },
|
|
{ 52, 0x00002ccc, 0x000049ae, 0x0009ae55, 0x000ffa1b },
|
|
{ 56, 0x00002ccc, 0x000049b2, 0x0009ae55, 0x000ffa23 },
|
|
{ 60, 0x00002ccc, 0x000049ba, 0x0009ae55, 0x000ffa03 },
|
|
{ 64, 0x00002ccc, 0x000049be, 0x0009ae55, 0x000ffa0b },
|
|
|
|
/* 802.11 HyperLan 2 */
|
|
{ 100, 0x00002ccc, 0x00004a2a, 0x000bae55, 0x000ffa03 },
|
|
{ 104, 0x00002ccc, 0x00004a2e, 0x000bae55, 0x000ffa0b },
|
|
{ 108, 0x00002ccc, 0x00004a32, 0x000bae55, 0x000ffa13 },
|
|
{ 112, 0x00002ccc, 0x00004a36, 0x000bae55, 0x000ffa1b },
|
|
{ 116, 0x00002ccc, 0x00004a3a, 0x000bbe55, 0x000ffa23 },
|
|
{ 120, 0x00002ccc, 0x00004a82, 0x000bbe55, 0x000ffa03 },
|
|
{ 124, 0x00002ccc, 0x00004a86, 0x000bbe55, 0x000ffa0b },
|
|
{ 128, 0x00002ccc, 0x00004a8a, 0x000bbe55, 0x000ffa13 },
|
|
{ 132, 0x00002ccc, 0x00004a8e, 0x000bbe55, 0x000ffa1b },
|
|
{ 136, 0x00002ccc, 0x00004a92, 0x000bbe55, 0x000ffa23 },
|
|
|
|
/* 802.11 UNII */
|
|
{ 140, 0x00002ccc, 0x00004a9a, 0x000bbe55, 0x000ffa03 },
|
|
{ 149, 0x00002ccc, 0x00004aa2, 0x000bbe55, 0x000ffa1f },
|
|
{ 153, 0x00002ccc, 0x00004aa6, 0x000bbe55, 0x000ffa27 },
|
|
{ 157, 0x00002ccc, 0x00004aae, 0x000bbe55, 0x000ffa07 },
|
|
{ 161, 0x00002ccc, 0x00004ab2, 0x000bbe55, 0x000ffa0f },
|
|
{ 165, 0x00002ccc, 0x00004ab6, 0x000bbe55, 0x000ffa17 },
|
|
|
|
/* MMAC(Japan)J52 ch 34,38,42,46 */
|
|
{ 34, 0x00002ccc, 0x0000499a, 0x0009be55, 0x000ffa0b },
|
|
{ 38, 0x00002ccc, 0x0000499e, 0x0009be55, 0x000ffa13 },
|
|
{ 42, 0x00002ccc, 0x000049a2, 0x0009be55, 0x000ffa1b },
|
|
{ 46, 0x00002ccc, 0x000049a6, 0x0009be55, 0x000ffa23 },
|
|
};
|
|
|
|
/*
|
|
* RF value list for RF5225 & RF5325
|
|
* Supports: 2.4 GHz & 5.2 GHz, rf_sequence enabled
|
|
*/
|
|
static const struct rf_channel rf_vals_seq[] = {
|
|
{ 1, 0x00002ccc, 0x00004786, 0x00068455, 0x000ffa0b },
|
|
{ 2, 0x00002ccc, 0x00004786, 0x00068455, 0x000ffa1f },
|
|
{ 3, 0x00002ccc, 0x0000478a, 0x00068455, 0x000ffa0b },
|
|
{ 4, 0x00002ccc, 0x0000478a, 0x00068455, 0x000ffa1f },
|
|
{ 5, 0x00002ccc, 0x0000478e, 0x00068455, 0x000ffa0b },
|
|
{ 6, 0x00002ccc, 0x0000478e, 0x00068455, 0x000ffa1f },
|
|
{ 7, 0x00002ccc, 0x00004792, 0x00068455, 0x000ffa0b },
|
|
{ 8, 0x00002ccc, 0x00004792, 0x00068455, 0x000ffa1f },
|
|
{ 9, 0x00002ccc, 0x00004796, 0x00068455, 0x000ffa0b },
|
|
{ 10, 0x00002ccc, 0x00004796, 0x00068455, 0x000ffa1f },
|
|
{ 11, 0x00002ccc, 0x0000479a, 0x00068455, 0x000ffa0b },
|
|
{ 12, 0x00002ccc, 0x0000479a, 0x00068455, 0x000ffa1f },
|
|
{ 13, 0x00002ccc, 0x0000479e, 0x00068455, 0x000ffa0b },
|
|
{ 14, 0x00002ccc, 0x000047a2, 0x00068455, 0x000ffa13 },
|
|
|
|
/* 802.11 UNI / HyperLan 2 */
|
|
{ 36, 0x00002cd4, 0x0004481a, 0x00098455, 0x000c0a03 },
|
|
{ 40, 0x00002cd0, 0x00044682, 0x00098455, 0x000c0a03 },
|
|
{ 44, 0x00002cd0, 0x00044686, 0x00098455, 0x000c0a1b },
|
|
{ 48, 0x00002cd0, 0x0004468e, 0x00098655, 0x000c0a0b },
|
|
{ 52, 0x00002cd0, 0x00044692, 0x00098855, 0x000c0a23 },
|
|
{ 56, 0x00002cd0, 0x0004469a, 0x00098c55, 0x000c0a13 },
|
|
{ 60, 0x00002cd0, 0x000446a2, 0x00098e55, 0x000c0a03 },
|
|
{ 64, 0x00002cd0, 0x000446a6, 0x00099255, 0x000c0a1b },
|
|
|
|
/* 802.11 HyperLan 2 */
|
|
{ 100, 0x00002cd4, 0x0004489a, 0x000b9855, 0x000c0a03 },
|
|
{ 104, 0x00002cd4, 0x000448a2, 0x000b9855, 0x000c0a03 },
|
|
{ 108, 0x00002cd4, 0x000448aa, 0x000b9855, 0x000c0a03 },
|
|
{ 112, 0x00002cd4, 0x000448b2, 0x000b9a55, 0x000c0a03 },
|
|
{ 116, 0x00002cd4, 0x000448ba, 0x000b9a55, 0x000c0a03 },
|
|
{ 120, 0x00002cd0, 0x00044702, 0x000b9a55, 0x000c0a03 },
|
|
{ 124, 0x00002cd0, 0x00044706, 0x000b9a55, 0x000c0a1b },
|
|
{ 128, 0x00002cd0, 0x0004470e, 0x000b9c55, 0x000c0a0b },
|
|
{ 132, 0x00002cd0, 0x00044712, 0x000b9c55, 0x000c0a23 },
|
|
{ 136, 0x00002cd0, 0x0004471a, 0x000b9e55, 0x000c0a13 },
|
|
|
|
/* 802.11 UNII */
|
|
{ 140, 0x00002cd0, 0x00044722, 0x000b9e55, 0x000c0a03 },
|
|
{ 149, 0x00002cd0, 0x0004472e, 0x000ba255, 0x000c0a1b },
|
|
{ 153, 0x00002cd0, 0x00044736, 0x000ba255, 0x000c0a0b },
|
|
{ 157, 0x00002cd4, 0x0004490a, 0x000ba255, 0x000c0a17 },
|
|
{ 161, 0x00002cd4, 0x00044912, 0x000ba255, 0x000c0a17 },
|
|
{ 165, 0x00002cd4, 0x0004491a, 0x000ba255, 0x000c0a17 },
|
|
|
|
/* MMAC(Japan)J52 ch 34,38,42,46 */
|
|
{ 34, 0x00002ccc, 0x0000499a, 0x0009be55, 0x000c0a0b },
|
|
{ 38, 0x00002ccc, 0x0000499e, 0x0009be55, 0x000c0a13 },
|
|
{ 42, 0x00002ccc, 0x000049a2, 0x0009be55, 0x000c0a1b },
|
|
{ 46, 0x00002ccc, 0x000049a6, 0x0009be55, 0x000c0a23 },
|
|
};
|
|
|
|
static int rt61pci_probe_hw_mode(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
struct hw_mode_spec *spec = &rt2x00dev->spec;
|
|
struct channel_info *info;
|
|
char *tx_power;
|
|
unsigned int i;
|
|
|
|
/*
|
|
* Initialize all hw fields.
|
|
*/
|
|
rt2x00dev->hw->flags =
|
|
IEEE80211_HW_HOST_BROADCAST_PS_BUFFERING |
|
|
IEEE80211_HW_SIGNAL_DBM;
|
|
rt2x00dev->hw->extra_tx_headroom = 0;
|
|
|
|
SET_IEEE80211_DEV(rt2x00dev->hw, rt2x00dev->dev);
|
|
SET_IEEE80211_PERM_ADDR(rt2x00dev->hw,
|
|
rt2x00_eeprom_addr(rt2x00dev,
|
|
EEPROM_MAC_ADDR_0));
|
|
|
|
/*
|
|
* Initialize hw_mode information.
|
|
*/
|
|
spec->supported_bands = SUPPORT_BAND_2GHZ;
|
|
spec->supported_rates = SUPPORT_RATE_CCK | SUPPORT_RATE_OFDM;
|
|
|
|
if (!test_bit(CONFIG_RF_SEQUENCE, &rt2x00dev->flags)) {
|
|
spec->num_channels = 14;
|
|
spec->channels = rf_vals_noseq;
|
|
} else {
|
|
spec->num_channels = 14;
|
|
spec->channels = rf_vals_seq;
|
|
}
|
|
|
|
if (rt2x00_rf(&rt2x00dev->chip, RF5225) ||
|
|
rt2x00_rf(&rt2x00dev->chip, RF5325)) {
|
|
spec->supported_bands |= SUPPORT_BAND_5GHZ;
|
|
spec->num_channels = ARRAY_SIZE(rf_vals_seq);
|
|
}
|
|
|
|
/*
|
|
* Create channel information array
|
|
*/
|
|
info = kzalloc(spec->num_channels * sizeof(*info), GFP_KERNEL);
|
|
if (!info)
|
|
return -ENOMEM;
|
|
|
|
spec->channels_info = info;
|
|
|
|
tx_power = rt2x00_eeprom_addr(rt2x00dev, EEPROM_TXPOWER_G_START);
|
|
for (i = 0; i < 14; i++)
|
|
info[i].tx_power1 = TXPOWER_FROM_DEV(tx_power[i]);
|
|
|
|
if (spec->num_channels > 14) {
|
|
tx_power = rt2x00_eeprom_addr(rt2x00dev, EEPROM_TXPOWER_A_START);
|
|
for (i = 14; i < spec->num_channels; i++)
|
|
info[i].tx_power1 = TXPOWER_FROM_DEV(tx_power[i]);
|
|
}
|
|
|
|
return 0;
|
|
}
|
|
|
|
static int rt61pci_probe_hw(struct rt2x00_dev *rt2x00dev)
|
|
{
|
|
int retval;
|
|
|
|
/*
|
|
* Allocate eeprom data.
|
|
*/
|
|
retval = rt61pci_validate_eeprom(rt2x00dev);
|
|
if (retval)
|
|
return retval;
|
|
|
|
retval = rt61pci_init_eeprom(rt2x00dev);
|
|
if (retval)
|
|
return retval;
|
|
|
|
/*
|
|
* Initialize hw specifications.
|
|
*/
|
|
retval = rt61pci_probe_hw_mode(rt2x00dev);
|
|
if (retval)
|
|
return retval;
|
|
|
|
/*
|
|
* This device requires firmware and DMA mapped skbs.
|
|
*/
|
|
__set_bit(DRIVER_REQUIRE_FIRMWARE, &rt2x00dev->flags);
|
|
__set_bit(DRIVER_REQUIRE_DMA, &rt2x00dev->flags);
|
|
if (!modparam_nohwcrypt)
|
|
__set_bit(CONFIG_SUPPORT_HW_CRYPTO, &rt2x00dev->flags);
|
|
|
|
/*
|
|
* Set the rssi offset.
|
|
*/
|
|
rt2x00dev->rssi_offset = DEFAULT_RSSI_OFFSET;
|
|
|
|
return 0;
|
|
}
|
|
|
|
/*
|
|
* IEEE80211 stack callback functions.
|
|
*/
|
|
static int rt61pci_conf_tx(struct ieee80211_hw *hw, u16 queue_idx,
|
|
const struct ieee80211_tx_queue_params *params)
|
|
{
|
|
struct rt2x00_dev *rt2x00dev = hw->priv;
|
|
struct data_queue *queue;
|
|
struct rt2x00_field32 field;
|
|
int retval;
|
|
u32 reg;
|
|
|
|
/*
|
|
* First pass the configuration through rt2x00lib, that will
|
|
* update the queue settings and validate the input. After that
|
|
* we are free to update the registers based on the value
|
|
* in the queue parameter.
|
|
*/
|
|
retval = rt2x00mac_conf_tx(hw, queue_idx, params);
|
|
if (retval)
|
|
return retval;
|
|
|
|
queue = rt2x00queue_get_queue(rt2x00dev, queue_idx);
|
|
|
|
/* Update WMM TXOP register */
|
|
if (queue_idx < 2) {
|
|
field.bit_offset = queue_idx * 16;
|
|
field.bit_mask = 0xffff << field.bit_offset;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, AC_TXOP_CSR0, ®);
|
|
rt2x00_set_field32(®, field, queue->txop);
|
|
rt2x00pci_register_write(rt2x00dev, AC_TXOP_CSR0, reg);
|
|
} else if (queue_idx < 4) {
|
|
field.bit_offset = (queue_idx - 2) * 16;
|
|
field.bit_mask = 0xffff << field.bit_offset;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, AC_TXOP_CSR1, ®);
|
|
rt2x00_set_field32(®, field, queue->txop);
|
|
rt2x00pci_register_write(rt2x00dev, AC_TXOP_CSR1, reg);
|
|
}
|
|
|
|
/* Update WMM registers */
|
|
field.bit_offset = queue_idx * 4;
|
|
field.bit_mask = 0xf << field.bit_offset;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, AIFSN_CSR, ®);
|
|
rt2x00_set_field32(®, field, queue->aifs);
|
|
rt2x00pci_register_write(rt2x00dev, AIFSN_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, CWMIN_CSR, ®);
|
|
rt2x00_set_field32(®, field, queue->cw_min);
|
|
rt2x00pci_register_write(rt2x00dev, CWMIN_CSR, reg);
|
|
|
|
rt2x00pci_register_read(rt2x00dev, CWMAX_CSR, ®);
|
|
rt2x00_set_field32(®, field, queue->cw_max);
|
|
rt2x00pci_register_write(rt2x00dev, CWMAX_CSR, reg);
|
|
|
|
return 0;
|
|
}
|
|
|
|
static u64 rt61pci_get_tsf(struct ieee80211_hw *hw)
|
|
{
|
|
struct rt2x00_dev *rt2x00dev = hw->priv;
|
|
u64 tsf;
|
|
u32 reg;
|
|
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR13, ®);
|
|
tsf = (u64) rt2x00_get_field32(reg, TXRX_CSR13_HIGH_TSFTIMER) << 32;
|
|
rt2x00pci_register_read(rt2x00dev, TXRX_CSR12, ®);
|
|
tsf |= rt2x00_get_field32(reg, TXRX_CSR12_LOW_TSFTIMER);
|
|
|
|
return tsf;
|
|
}
|
|
|
|
static const struct ieee80211_ops rt61pci_mac80211_ops = {
|
|
.tx = rt2x00mac_tx,
|
|
.start = rt2x00mac_start,
|
|
.stop = rt2x00mac_stop,
|
|
.add_interface = rt2x00mac_add_interface,
|
|
.remove_interface = rt2x00mac_remove_interface,
|
|
.config = rt2x00mac_config,
|
|
.config_interface = rt2x00mac_config_interface,
|
|
.configure_filter = rt2x00mac_configure_filter,
|
|
.set_key = rt2x00mac_set_key,
|
|
.get_stats = rt2x00mac_get_stats,
|
|
.bss_info_changed = rt2x00mac_bss_info_changed,
|
|
.conf_tx = rt61pci_conf_tx,
|
|
.get_tx_stats = rt2x00mac_get_tx_stats,
|
|
.get_tsf = rt61pci_get_tsf,
|
|
};
|
|
|
|
static const struct rt2x00lib_ops rt61pci_rt2x00_ops = {
|
|
.irq_handler = rt61pci_interrupt,
|
|
.probe_hw = rt61pci_probe_hw,
|
|
.get_firmware_name = rt61pci_get_firmware_name,
|
|
.get_firmware_crc = rt61pci_get_firmware_crc,
|
|
.load_firmware = rt61pci_load_firmware,
|
|
.initialize = rt2x00pci_initialize,
|
|
.uninitialize = rt2x00pci_uninitialize,
|
|
.get_entry_state = rt61pci_get_entry_state,
|
|
.clear_entry = rt61pci_clear_entry,
|
|
.set_device_state = rt61pci_set_device_state,
|
|
.rfkill_poll = rt61pci_rfkill_poll,
|
|
.link_stats = rt61pci_link_stats,
|
|
.reset_tuner = rt61pci_reset_tuner,
|
|
.link_tuner = rt61pci_link_tuner,
|
|
.write_tx_desc = rt61pci_write_tx_desc,
|
|
.write_tx_data = rt2x00pci_write_tx_data,
|
|
.write_beacon = rt61pci_write_beacon,
|
|
.kick_tx_queue = rt61pci_kick_tx_queue,
|
|
.fill_rxdone = rt61pci_fill_rxdone,
|
|
.config_shared_key = rt61pci_config_shared_key,
|
|
.config_pairwise_key = rt61pci_config_pairwise_key,
|
|
.config_filter = rt61pci_config_filter,
|
|
.config_intf = rt61pci_config_intf,
|
|
.config_erp = rt61pci_config_erp,
|
|
.config_ant = rt61pci_config_ant,
|
|
.config = rt61pci_config,
|
|
};
|
|
|
|
static const struct data_queue_desc rt61pci_queue_rx = {
|
|
.entry_num = RX_ENTRIES,
|
|
.data_size = DATA_FRAME_SIZE,
|
|
.desc_size = RXD_DESC_SIZE,
|
|
.priv_size = sizeof(struct queue_entry_priv_pci),
|
|
};
|
|
|
|
static const struct data_queue_desc rt61pci_queue_tx = {
|
|
.entry_num = TX_ENTRIES,
|
|
.data_size = DATA_FRAME_SIZE,
|
|
.desc_size = TXD_DESC_SIZE,
|
|
.priv_size = sizeof(struct queue_entry_priv_pci),
|
|
};
|
|
|
|
static const struct data_queue_desc rt61pci_queue_bcn = {
|
|
.entry_num = 4 * BEACON_ENTRIES,
|
|
.data_size = 0, /* No DMA required for beacons */
|
|
.desc_size = TXINFO_SIZE,
|
|
.priv_size = sizeof(struct queue_entry_priv_pci),
|
|
};
|
|
|
|
static const struct rt2x00_ops rt61pci_ops = {
|
|
.name = KBUILD_MODNAME,
|
|
.max_sta_intf = 1,
|
|
.max_ap_intf = 4,
|
|
.eeprom_size = EEPROM_SIZE,
|
|
.rf_size = RF_SIZE,
|
|
.tx_queues = NUM_TX_QUEUES,
|
|
.rx = &rt61pci_queue_rx,
|
|
.tx = &rt61pci_queue_tx,
|
|
.bcn = &rt61pci_queue_bcn,
|
|
.lib = &rt61pci_rt2x00_ops,
|
|
.hw = &rt61pci_mac80211_ops,
|
|
#ifdef CONFIG_RT2X00_LIB_DEBUGFS
|
|
.debugfs = &rt61pci_rt2x00debug,
|
|
#endif /* CONFIG_RT2X00_LIB_DEBUGFS */
|
|
};
|
|
|
|
/*
|
|
* RT61pci module information.
|
|
*/
|
|
static struct pci_device_id rt61pci_device_table[] = {
|
|
/* RT2561s */
|
|
{ PCI_DEVICE(0x1814, 0x0301), PCI_DEVICE_DATA(&rt61pci_ops) },
|
|
/* RT2561 v2 */
|
|
{ PCI_DEVICE(0x1814, 0x0302), PCI_DEVICE_DATA(&rt61pci_ops) },
|
|
/* RT2661 */
|
|
{ PCI_DEVICE(0x1814, 0x0401), PCI_DEVICE_DATA(&rt61pci_ops) },
|
|
{ 0, }
|
|
};
|
|
|
|
MODULE_AUTHOR(DRV_PROJECT);
|
|
MODULE_VERSION(DRV_VERSION);
|
|
MODULE_DESCRIPTION("Ralink RT61 PCI & PCMCIA Wireless LAN driver.");
|
|
MODULE_SUPPORTED_DEVICE("Ralink RT2561, RT2561s & RT2661 "
|
|
"PCI & PCMCIA chipset based cards");
|
|
MODULE_DEVICE_TABLE(pci, rt61pci_device_table);
|
|
MODULE_FIRMWARE(FIRMWARE_RT2561);
|
|
MODULE_FIRMWARE(FIRMWARE_RT2561s);
|
|
MODULE_FIRMWARE(FIRMWARE_RT2661);
|
|
MODULE_LICENSE("GPL");
|
|
|
|
static struct pci_driver rt61pci_driver = {
|
|
.name = KBUILD_MODNAME,
|
|
.id_table = rt61pci_device_table,
|
|
.probe = rt2x00pci_probe,
|
|
.remove = __devexit_p(rt2x00pci_remove),
|
|
.suspend = rt2x00pci_suspend,
|
|
.resume = rt2x00pci_resume,
|
|
};
|
|
|
|
static int __init rt61pci_init(void)
|
|
{
|
|
return pci_register_driver(&rt61pci_driver);
|
|
}
|
|
|
|
static void __exit rt61pci_exit(void)
|
|
{
|
|
pci_unregister_driver(&rt61pci_driver);
|
|
}
|
|
|
|
module_init(rt61pci_init);
|
|
module_exit(rt61pci_exit);
|