/*
* Copyright (c) 2004-2008 Reyk Floeter <reyk@openbsd.org>
- * Copyright (c) 2006-2008 Nick Kossifidis <mickflemm@gmail.com>
- * Copyright (c) 2008 Felix Fietkau <nbd@openwrt.org>
+ * Copyright (c) 2006-2009 Nick Kossifidis <mickflemm@gmail.com>
+ * Copyright (c) 2008-2009 Felix Fietkau <nbd@openwrt.org>
*
* Permission to use, copy, modify, and distribute this software for any
* purpose with or without fee is hereby granted, provided that the above
int ret;
u16 val;
- /* Initial TX thermal adjustment values */
- ee->ee_tx_clip = 4;
- ee->ee_pwd_84 = ee->ee_pwd_90 = 1;
- ee->ee_gain_select = 1;
-
/*
* Read values from EEPROM and store them in the capability structure
*/
ee->ee_adc_desired_size[mode] = (s8)((val >> 8) & 0xff);
switch(mode) {
case AR5K_EEPROM_MODE_11A:
- ee->ee_ob[mode][3] = (val >> 5) & 0x7;
- ee->ee_db[mode][3] = (val >> 2) & 0x7;
- ee->ee_ob[mode][2] = (val << 1) & 0x7;
+ ee->ee_ob[mode][3] = (val >> 5) & 0x7;
+ ee->ee_db[mode][3] = (val >> 2) & 0x7;
+ ee->ee_ob[mode][2] = (val << 1) & 0x7;
AR5K_EEPROM_READ(o++, val);
- ee->ee_ob[mode][2] |= (val >> 15) & 0x1;
- ee->ee_db[mode][2] = (val >> 12) & 0x7;
- ee->ee_ob[mode][1] = (val >> 9) & 0x7;
- ee->ee_db[mode][1] = (val >> 6) & 0x7;
- ee->ee_ob[mode][0] = (val >> 3) & 0x7;
- ee->ee_db[mode][0] = val & 0x7;
+ ee->ee_ob[mode][2] |= (val >> 15) & 0x1;
+ ee->ee_db[mode][2] = (val >> 12) & 0x7;
+ ee->ee_ob[mode][1] = (val >> 9) & 0x7;
+ ee->ee_db[mode][1] = (val >> 6) & 0x7;
+ ee->ee_ob[mode][0] = (val >> 3) & 0x7;
+ ee->ee_db[mode][0] = val & 0x7;
break;
case AR5K_EEPROM_MODE_11G:
case AR5K_EEPROM_MODE_11B:
- ee->ee_ob[mode][1] = (val >> 4) & 0x7;
- ee->ee_db[mode][1] = val & 0x7;
+ ee->ee_ob[mode][1] = (val >> 4) & 0x7;
+ ee->ee_db[mode][1] = val & 0x7;
break;
}
return 0;
}
-/* Used to match PCDAC steps with power values on RF5111 chips
- * (eeprom versions < 4). For RF5111 we have 10 pre-defined PCDAC
- * steps that match with the power values we read from eeprom. On
- * older eeprom versions (< 3.2) these steps are equaly spaced at
- * 10% of the pcdac curve -until the curve reaches it's maximum-
- * (10 steps from 0 to 100%) but on newer eeprom versions (>= 3.2)
- * these 10 steps are spaced in a different way. This function returns
- * the pcdac steps based on eeprom version and curve min/max so that we
- * can have pcdac/pwr points.
- */
-static inline void
-ath5k_get_pcdac_intercepts(struct ath5k_hw *ah, u8 min, u8 max, u8 *vp)
-{
- static const u16 intercepts3[] =
- { 0, 5, 10, 20, 30, 50, 70, 85, 90, 95, 100 };
- static const u16 intercepts3_2[] =
- { 0, 10, 20, 30, 40, 50, 60, 70, 80, 90, 100 };
- const u16 *ip;
- int i;
-
- if (ah->ah_ee_version >= AR5K_EEPROM_VERSION_3_2)
- ip = intercepts3_2;
- else
- ip = intercepts3;
-
- for (i = 0; i < ARRAY_SIZE(intercepts3); i++)
- *vp++ = (ip[i] * max + (100 - ip[i]) * min) / 100;
-}
-
/* Read the frequency piers for each mode (mostly used on newer eeproms with 0xff
* frequency mask) */
static inline int
int ret;
u16 val;
+ ee->ee_n_piers[mode] = 0;
while(i < max) {
AR5K_EEPROM_READ(o++, val);
- freq1 = (val >> 8) & 0xff;
- freq2 = val & 0xff;
-
- if (freq1) {
- pc[i++].freq = ath5k_eeprom_bin2freq(ee,
- freq1, mode);
- ee->ee_n_piers[mode]++;
- }
+ freq1 = val & 0xff;
+ if (!freq1)
+ break;
- if (freq2) {
- pc[i++].freq = ath5k_eeprom_bin2freq(ee,
- freq2, mode);
- ee->ee_n_piers[mode]++;
- }
+ pc[i++].freq = ath5k_eeprom_bin2freq(ee,
+ freq1, mode);
+ ee->ee_n_piers[mode]++;
- if (!freq1 || !freq2)
+ freq2 = (val >> 8) & 0xff;
+ if (!freq2)
break;
+
+ pc[i++].freq = ath5k_eeprom_bin2freq(ee,
+ freq2, mode);
+ ee->ee_n_piers[mode]++;
}
/* return new offset */
return 0;
}
-/* Read power calibration for RF5111 chips
+/*
+ * Read power calibration for RF5111 chips
+ *
* For RF5111 we have an XPD -eXternal Power Detector- curve
- * for each calibrated channel. Each curve has PCDAC steps on
- * x axis and power on y axis and looks like a logarithmic
- * function. To recreate the curve and pass the power values
- * on the pcdac table, we read 10 points here and interpolate later.
+ * for each calibrated channel. Each curve has 0,5dB Power steps
+ * on x axis and PCDAC steps (offsets) on y axis and looks like an
+ * exponential function. To recreate the curve we read 11 points
+ * here and interpolate later.
*/
+
+/* Used to match PCDAC steps with power values on RF5111 chips
+ * (eeprom versions < 4). For RF5111 we have 11 pre-defined PCDAC
+ * steps that match with the power values we read from eeprom. On
+ * older eeprom versions (< 3.2) these steps are equaly spaced at
+ * 10% of the pcdac curve -until the curve reaches it's maximum-
+ * (11 steps from 0 to 100%) but on newer eeprom versions (>= 3.2)
+ * these 11 steps are spaced in a different way. This function returns
+ * the pcdac steps based on eeprom version and curve min/max so that we
+ * can have pcdac/pwr points.
+ */
+static inline void
+ath5k_get_pcdac_intercepts(struct ath5k_hw *ah, u8 min, u8 max, u8 *vp)
+{
+ const static u16 intercepts3[] =
+ { 0, 5, 10, 20, 30, 50, 70, 85, 90, 95, 100 };
+ const static u16 intercepts3_2[] =
+ { 0, 10, 20, 30, 40, 50, 60, 70, 80, 90, 100 };
+ const u16 *ip;
+ int i;
+
+ if (ah->ah_ee_version >= AR5K_EEPROM_VERSION_3_2)
+ ip = intercepts3_2;
+ else
+ ip = intercepts3;
+
+ for (i = 0; i < ARRAY_SIZE(intercepts3); i++)
+ vp[i] = (ip[i] * max + (100 - ip[i]) * min) / 100;
+}
+
+/* Convert RF5111 specific data to generic raw data
+ * used by interpolation code */
+static int
+ath5k_eeprom_convert_pcal_info_5111(struct ath5k_hw *ah, int mode,
+ struct ath5k_chan_pcal_info *chinfo)
+{
+ struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
+ struct ath5k_chan_pcal_info_rf5111 *pcinfo;
+ struct ath5k_pdgain_info *pd;
+ u8 pier, point, idx;
+ u8 *pdgain_idx = ee->ee_pdc_to_idx[mode];
+
+ /* Fill raw data for each calibration pier */
+ for (pier = 0; pier < ee->ee_n_piers[mode]; pier++) {
+
+ pcinfo = &chinfo[pier].rf5111_info;
+
+ /* Allocate pd_curves for this cal pier */
+ chinfo[pier].pd_curves =
+ kcalloc(AR5K_EEPROM_N_PD_CURVES,
+ sizeof(struct ath5k_pdgain_info),
+ GFP_KERNEL);
+
+ if (!chinfo[pier].pd_curves)
+ return -ENOMEM;
+
+ /* Only one curve for RF5111
+ * find out which one and place
+ * in in pd_curves.
+ * Note: ee_x_gain is reversed here */
+ for (idx = 0; idx < AR5K_EEPROM_N_PD_CURVES; idx++) {
+
+ if (!((ee->ee_x_gain[mode] >> idx) & 0x1)) {
+ pdgain_idx[0] = idx;
+ break;
+ }
+ }
+
+ ee->ee_pd_gains[mode] = 1;
+
+ pd = &chinfo[pier].pd_curves[idx];
+
+ pd->pd_points = AR5K_EEPROM_N_PWR_POINTS_5111;
+
+ /* Allocate pd points for this curve */
+ pd->pd_step = kcalloc(AR5K_EEPROM_N_PWR_POINTS_5111,
+ sizeof(u8), GFP_KERNEL);
+ if (!pd->pd_step)
+ return -ENOMEM;
+
+ pd->pd_pwr = kcalloc(AR5K_EEPROM_N_PWR_POINTS_5111,
+ sizeof(s16), GFP_KERNEL);
+ if (!pd->pd_pwr)
+ return -ENOMEM;
+
+ /* Fill raw dataset
+ * (convert power to 0.25dB units
+ * for RF5112 combatibility) */
+ for (point = 0; point < pd->pd_points; point++) {
+
+ /* Absolute values */
+ pd->pd_pwr[point] = 2 * pcinfo->pwr[point];
+
+ /* Already sorted */
+ pd->pd_step[point] = pcinfo->pcdac[point];
+ }
+
+ /* Set min/max pwr */
+ chinfo[pier].min_pwr = pd->pd_pwr[0];
+ chinfo[pier].max_pwr = pd->pd_pwr[10];
+
+ }
+
+ return 0;
+}
+
+/* Parse EEPROM data */
static int
ath5k_eeprom_read_pcal_info_5111(struct ath5k_hw *ah, int mode)
{
cdata->pcdac_max, cdata->pcdac);
}
- return 0;
+ return ath5k_eeprom_convert_pcal_info_5111(ah, mode, pcal);
}
-/* Read power calibration for RF5112 chips
+
+/*
+ * Read power calibration for RF5112 chips
+ *
* For RF5112 we have 4 XPD -eXternal Power Detector- curves
* for each calibrated channel on 0, -6, -12 and -18dbm but we only
- * use the higher (3) and the lower (0) curves. Each curve has PCDAC
- * steps on x axis and power on y axis and looks like a linear
- * function. To recreate the curve and pass the power values
- * on the pcdac table, we read 4 points for xpd 0 and 3 points
- * for xpd 3 here and interpolate later.
+ * use the higher (3) and the lower (0) curves. Each curve has 0.5dB
+ * power steps on x axis and PCDAC steps on y axis and looks like a
+ * linear function. To recreate the curve and pass the power values
+ * on hw, we read 4 points for xpd 0 (lower gain -> max power)
+ * and 3 points for xpd 3 (higher gain -> lower power) here and
+ * interpolate later.
*
* Note: Many vendors just use xpd 0 so xpd 3 is zeroed.
*/
+
+/* Convert RF5112 specific data to generic raw data
+ * used by interpolation code */
+static int
+ath5k_eeprom_convert_pcal_info_5112(struct ath5k_hw *ah, int mode,
+ struct ath5k_chan_pcal_info *chinfo)
+{
+ struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
+ struct ath5k_chan_pcal_info_rf5112 *pcinfo;
+ u8 *pdgain_idx = ee->ee_pdc_to_idx[mode];
+ unsigned int pier, pdg, point;
+
+ /* Fill raw data for each calibration pier */
+ for (pier = 0; pier < ee->ee_n_piers[mode]; pier++) {
+
+ pcinfo = &chinfo[pier].rf5112_info;
+
+ /* Allocate pd_curves for this cal pier */
+ chinfo[pier].pd_curves =
+ kcalloc(AR5K_EEPROM_N_PD_CURVES,
+ sizeof(struct ath5k_pdgain_info),
+ GFP_KERNEL);
+
+ if (!chinfo[pier].pd_curves)
+ return -ENOMEM;
+
+ /* Fill pd_curves */
+ for (pdg = 0; pdg < ee->ee_pd_gains[mode]; pdg++) {
+
+ u8 idx = pdgain_idx[pdg];
+ struct ath5k_pdgain_info *pd =
+ &chinfo[pier].pd_curves[idx];
+
+ /* Lowest gain curve (max power) */
+ if (pdg == 0) {
+ /* One more point for better accuracy */
+ pd->pd_points = AR5K_EEPROM_N_XPD0_POINTS;
+
+ /* Allocate pd points for this curve */
+ pd->pd_step = kcalloc(pd->pd_points,
+ sizeof(u8), GFP_KERNEL);
+
+ if (!pd->pd_step)
+ return -ENOMEM;
+
+ pd->pd_pwr = kcalloc(pd->pd_points,
+ sizeof(s16), GFP_KERNEL);
+
+ if (!pd->pd_pwr)
+ return -ENOMEM;
+
+
+ /* Fill raw dataset
+ * (all power levels are in 0.25dB units) */
+ pd->pd_step[0] = pcinfo->pcdac_x0[0];
+ pd->pd_pwr[0] = pcinfo->pwr_x0[0];
+
+ for (point = 1; point < pd->pd_points;
+ point++) {
+ /* Absolute values */
+ pd->pd_pwr[point] =
+ pcinfo->pwr_x0[point];
+
+ /* Deltas */
+ pd->pd_step[point] =
+ pd->pd_step[point - 1] +
+ pcinfo->pcdac_x0[point];
+ }
+
+ /* Set min power for this frequency */
+ chinfo[pier].min_pwr = pd->pd_pwr[0];
+
+ /* Highest gain curve (min power) */
+ } else if (pdg == 1) {
+
+ pd->pd_points = AR5K_EEPROM_N_XPD3_POINTS;
+
+ /* Allocate pd points for this curve */
+ pd->pd_step = kcalloc(pd->pd_points,
+ sizeof(u8), GFP_KERNEL);
+
+ if (!pd->pd_step)
+ return -ENOMEM;
+
+ pd->pd_pwr = kcalloc(pd->pd_points,
+ sizeof(s16), GFP_KERNEL);
+
+ if (!pd->pd_pwr)
+ return -ENOMEM;
+
+ /* Fill raw dataset
+ * (all power levels are in 0.25dB units) */
+ for (point = 0; point < pd->pd_points;
+ point++) {
+ /* Absolute values */
+ pd->pd_pwr[point] =
+ pcinfo->pwr_x3[point];
+
+ /* Fixed points */
+ pd->pd_step[point] =
+ pcinfo->pcdac_x3[point];
+ }
+
+ /* Since we have a higher gain curve
+ * override min power */
+ chinfo[pier].min_pwr = pd->pd_pwr[0];
+ }
+ }
+ }
+
+ return 0;
+}
+
+/* Parse EEPROM data */
static int
ath5k_eeprom_read_pcal_info_5112(struct ath5k_hw *ah, int mode)
{
struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
struct ath5k_chan_pcal_info_rf5112 *chan_pcal_info;
struct ath5k_chan_pcal_info *gen_chan_info;
+ u8 *pdgain_idx = ee->ee_pdc_to_idx[mode];
u32 offset;
- unsigned int i, c;
+ u8 i, c;
u16 val;
int ret;
+ u8 pd_gains = 0;
+
+ /* Count how many curves we have and
+ * identify them (which one of the 4
+ * available curves we have on each count).
+ * Curves are stored from lower (x0) to
+ * higher (x3) gain */
+ for (i = 0; i < AR5K_EEPROM_N_PD_CURVES; i++) {
+ /* ee_x_gain[mode] is x gain mask */
+ if ((ee->ee_x_gain[mode] >> i) & 0x1)
+ pdgain_idx[pd_gains++] = i;
+ }
+ ee->ee_pd_gains[mode] = pd_gains;
+
+ if (pd_gains == 0 || pd_gains > 2)
+ return -EINVAL;
switch (mode) {
case AR5K_EEPROM_MODE_11A:
for (i = 0; i < ee->ee_n_piers[mode]; i++) {
chan_pcal_info = &gen_chan_info[i].rf5112_info;
- /* Power values in dBm * 4
+ /* Power values in quarter dB
* for the lower xpd gain curve
* (0 dBm -> higher output power) */
for (c = 0; c < AR5K_EEPROM_N_XPD0_POINTS; c++) {
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr_x0[c] = (val & 0xff);
- chan_pcal_info->pwr_x0[++c] = ((val >> 8) & 0xff);
+ chan_pcal_info->pwr_x0[c] = (s8) (val & 0xff);
+ chan_pcal_info->pwr_x0[++c] = (s8) ((val >> 8) & 0xff);
}
/* PCDAC steps
chan_pcal_info->pcdac_x0[2] = ((val >> 5) & 0x1f);
chan_pcal_info->pcdac_x0[3] = ((val >> 10) & 0x1f);
- /* Power values in dBm * 4
+ /* Power values in quarter dB
* for the higher xpd gain curve
* (18 dBm -> lower output power) */
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr_x3[0] = (val & 0xff);
- chan_pcal_info->pwr_x3[1] = ((val >> 8) & 0xff);
+ chan_pcal_info->pwr_x3[0] = (s8) (val & 0xff);
+ chan_pcal_info->pwr_x3[1] = (s8) ((val >> 8) & 0xff);
AR5K_EEPROM_READ(offset++, val);
chan_pcal_info->pwr_x3[2] = (val & 0xff);
chan_pcal_info->pcdac_x3[2] = 63;
if (ee->ee_version >= AR5K_EEPROM_VERSION_4_3) {
- chan_pcal_info->pcdac_x0[0] = ((val >> 8) & 0xff);
+ chan_pcal_info->pcdac_x0[0] = ((val >> 8) & 0x3f);
/* Last xpd0 power level is also channel maximum */
gen_chan_info[i].max_pwr = chan_pcal_info->pwr_x0[3];
} else {
chan_pcal_info->pcdac_x0[0] = 1;
- gen_chan_info[i].max_pwr = ((val >> 8) & 0xff);
+ gen_chan_info[i].max_pwr = (s8) ((val >> 8) & 0xff);
}
- /* Recreate pcdac_x0 table for this channel using pcdac steps */
- chan_pcal_info->pcdac_x0[1] += chan_pcal_info->pcdac_x0[0];
- chan_pcal_info->pcdac_x0[2] += chan_pcal_info->pcdac_x0[1];
- chan_pcal_info->pcdac_x0[3] += chan_pcal_info->pcdac_x0[2];
}
- return 0;
+ return ath5k_eeprom_convert_pcal_info_5112(ah, mode, gen_chan_info);
}
+
+/*
+ * Read power calibration for RF2413 chips
+ *
+ * For RF2413 we have a Power to PDDAC table (Power Detector)
+ * instead of a PCDAC and 4 pd gain curves for each calibrated channel.
+ * Each curve has power on x axis in 0.5 db steps and PDDADC steps on y
+ * axis and looks like an exponential function like the RF5111 curve.
+ *
+ * To recreate the curves we read here the points and interpolate
+ * later. Note that in most cases only 2 (higher and lower) curves are
+ * used (like RF5112) but vendors have the oportunity to include all
+ * 4 curves on eeprom. The final curve (higher power) has an extra
+ * point for better accuracy like RF5112.
+ */
+
/* For RF2413 power calibration data doesn't start on a fixed location and
* if a mode is not supported, it's section is missing -not zeroed-.
* So we need to calculate the starting offset for each section by using
switch(mode) {
case AR5K_EEPROM_MODE_11G:
if (AR5K_EEPROM_HDR_11B(ee->ee_header))
- offset += ath5k_pdgains_size_2413(ee, AR5K_EEPROM_MODE_11B) +
- AR5K_EEPROM_N_2GHZ_CHAN_2413 / 2;
+ offset += ath5k_pdgains_size_2413(ee,
+ AR5K_EEPROM_MODE_11B) +
+ AR5K_EEPROM_N_2GHZ_CHAN_2413 / 2;
/* fall through */
case AR5K_EEPROM_MODE_11B:
if (AR5K_EEPROM_HDR_11A(ee->ee_header))
- offset += ath5k_pdgains_size_2413(ee, AR5K_EEPROM_MODE_11A) +
- AR5K_EEPROM_N_5GHZ_CHAN / 2;
+ offset += ath5k_pdgains_size_2413(ee,
+ AR5K_EEPROM_MODE_11A) +
+ AR5K_EEPROM_N_5GHZ_CHAN / 2;
/* fall through */
case AR5K_EEPROM_MODE_11A:
break;
return offset;
}
-/* Read power calibration for RF2413 chips
- * For RF2413 we have a PDDAC table (Power Detector) instead
- * of a PCDAC and 4 pd gain curves for each calibrated channel.
- * Each curve has PDDAC steps on x axis and power on y axis and
- * looks like an exponential function. To recreate the curves
- * we read here the points and interpolate later. Note that
- * in most cases only higher and lower curves are used (like
- * RF5112) but vendors have the oportunity to include all 4
- * curves on eeprom. The final curve (higher power) has an extra
- * point for better accuracy like RF5112.
- */
+/* Convert RF2413 specific data to generic raw data
+ * used by interpolation code */
+static int
+ath5k_eeprom_convert_pcal_info_2413(struct ath5k_hw *ah, int mode,
+ struct ath5k_chan_pcal_info *chinfo)
+{
+ struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
+ struct ath5k_chan_pcal_info_rf2413 *pcinfo;
+ u8 *pdgain_idx = ee->ee_pdc_to_idx[mode];
+ unsigned int pier, pdg, point;
+
+ /* Fill raw data for each calibration pier */
+ for (pier = 0; pier < ee->ee_n_piers[mode]; pier++) {
+
+ pcinfo = &chinfo[pier].rf2413_info;
+
+ /* Allocate pd_curves for this cal pier */
+ chinfo[pier].pd_curves =
+ kcalloc(AR5K_EEPROM_N_PD_CURVES,
+ sizeof(struct ath5k_pdgain_info),
+ GFP_KERNEL);
+
+ if (!chinfo[pier].pd_curves)
+ return -ENOMEM;
+
+ /* Fill pd_curves */
+ for (pdg = 0; pdg < ee->ee_pd_gains[mode]; pdg++) {
+
+ u8 idx = pdgain_idx[pdg];
+ struct ath5k_pdgain_info *pd =
+ &chinfo[pier].pd_curves[idx];
+
+ /* One more point for the highest power
+ * curve (lowest gain) */
+ if (pdg == ee->ee_pd_gains[mode] - 1)
+ pd->pd_points = AR5K_EEPROM_N_PD_POINTS;
+ else
+ pd->pd_points = AR5K_EEPROM_N_PD_POINTS - 1;
+
+ /* Allocate pd points for this curve */
+ pd->pd_step = kcalloc(pd->pd_points,
+ sizeof(u8), GFP_KERNEL);
+
+ if (!pd->pd_step)
+ return -ENOMEM;
+
+ pd->pd_pwr = kcalloc(pd->pd_points,
+ sizeof(s16), GFP_KERNEL);
+
+ if (!pd->pd_pwr)
+ return -ENOMEM;
+
+ /* Fill raw dataset
+ * convert all pwr levels to
+ * quarter dB for RF5112 combatibility */
+ pd->pd_step[0] = pcinfo->pddac_i[pdg];
+ pd->pd_pwr[0] = 4 * pcinfo->pwr_i[pdg];
+
+ for (point = 1; point < pd->pd_points; point++) {
+
+ pd->pd_pwr[point] = pd->pd_pwr[point - 1] +
+ 2 * pcinfo->pwr[pdg][point - 1];
+
+ pd->pd_step[point] = pd->pd_step[point - 1] +
+ pcinfo->pddac[pdg][point - 1];
+
+ }
+
+ /* Highest gain curve -> min power */
+ if (pdg == 0)
+ chinfo[pier].min_pwr = pd->pd_pwr[0];
+
+ /* Lowest gain curve -> max power */
+ if (pdg == ee->ee_pd_gains[mode] - 1)
+ chinfo[pier].max_pwr =
+ pd->pd_pwr[pd->pd_points - 1];
+ }
+ }
+
+ return 0;
+}
+
+/* Parse EEPROM data */
static int
ath5k_eeprom_read_pcal_info_2413(struct ath5k_hw *ah, int mode)
{
struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
- struct ath5k_chan_pcal_info_rf2413 *chan_pcal_info;
- struct ath5k_chan_pcal_info *gen_chan_info;
- unsigned int i, c;
+ struct ath5k_chan_pcal_info_rf2413 *pcinfo;
+ struct ath5k_chan_pcal_info *chinfo;
+ u8 *pdgain_idx = ee->ee_pdc_to_idx[mode];
u32 offset;
- int ret;
+ int idx, i, ret;
u16 val;
u8 pd_gains = 0;
- if (ee->ee_x_gain[mode] & 0x1) pd_gains++;
- if ((ee->ee_x_gain[mode] >> 1) & 0x1) pd_gains++;
- if ((ee->ee_x_gain[mode] >> 2) & 0x1) pd_gains++;
- if ((ee->ee_x_gain[mode] >> 3) & 0x1) pd_gains++;
+ /* Count how many curves we have and
+ * identify them (which one of the 4
+ * available curves we have on each count).
+ * Curves are stored from higher to
+ * lower gain so we go backwards */
+ for (idx = AR5K_EEPROM_N_PD_CURVES - 1; idx >= 0; idx--) {
+ /* ee_x_gain[mode] is x gain mask */
+ if ((ee->ee_x_gain[mode] >> idx) & 0x1)
+ pdgain_idx[pd_gains++] = idx;
+
+ }
ee->ee_pd_gains[mode] = pd_gains;
+ if (pd_gains == 0)
+ return -EINVAL;
+
offset = ath5k_cal_data_offset_2413(ee, mode);
- ee->ee_n_piers[mode] = 0;
switch (mode) {
case AR5K_EEPROM_MODE_11A:
if (!AR5K_EEPROM_HDR_11A(ee->ee_header))
ath5k_eeprom_init_11a_pcal_freq(ah, offset);
offset += AR5K_EEPROM_N_5GHZ_CHAN / 2;
- gen_chan_info = ee->ee_pwr_cal_a;
+ chinfo = ee->ee_pwr_cal_a;
break;
case AR5K_EEPROM_MODE_11B:
if (!AR5K_EEPROM_HDR_11B(ee->ee_header))
ath5k_eeprom_init_11bg_2413(ah, mode, offset);
offset += AR5K_EEPROM_N_2GHZ_CHAN_2413 / 2;
- gen_chan_info = ee->ee_pwr_cal_b;
+ chinfo = ee->ee_pwr_cal_b;
break;
case AR5K_EEPROM_MODE_11G:
if (!AR5K_EEPROM_HDR_11G(ee->ee_header))
ath5k_eeprom_init_11bg_2413(ah, mode, offset);
offset += AR5K_EEPROM_N_2GHZ_CHAN_2413 / 2;
- gen_chan_info = ee->ee_pwr_cal_g;
+ chinfo = ee->ee_pwr_cal_g;
break;
default:
return -EINVAL;
}
- if (pd_gains == 0)
- return 0;
-
for (i = 0; i < ee->ee_n_piers[mode]; i++) {
- chan_pcal_info = &gen_chan_info[i].rf2413_info;
+ pcinfo = &chinfo[i].rf2413_info;
/*
* Read pwr_i, pddac_i and the first
* 2 pd points (pwr, pddac)
*/
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr_i[0] = val & 0x1f;
- chan_pcal_info->pddac_i[0] = (val >> 5) & 0x7f;
- chan_pcal_info->pwr[0][0] =
- (val >> 12) & 0xf;
+ pcinfo->pwr_i[0] = val & 0x1f;
+ pcinfo->pddac_i[0] = (val >> 5) & 0x7f;
+ pcinfo->pwr[0][0] = (val >> 12) & 0xf;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac[0][0] = val & 0x3f;
- chan_pcal_info->pwr[0][1] = (val >> 6) & 0xf;
- chan_pcal_info->pddac[0][1] =
- (val >> 10) & 0x3f;
+ pcinfo->pddac[0][0] = val & 0x3f;
+ pcinfo->pwr[0][1] = (val >> 6) & 0xf;
+ pcinfo->pddac[0][1] = (val >> 10) & 0x3f;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr[0][2] = val & 0xf;
- chan_pcal_info->pddac[0][2] =
- (val >> 4) & 0x3f;
+ pcinfo->pwr[0][2] = val & 0xf;
+ pcinfo->pddac[0][2] = (val >> 4) & 0x3f;
- chan_pcal_info->pwr[0][3] = 0;
- chan_pcal_info->pddac[0][3] = 0;
+ pcinfo->pwr[0][3] = 0;
+ pcinfo->pddac[0][3] = 0;
if (pd_gains > 1) {
/*
* so it only has 2 pd points.
* Continue wih pd gain 1.
*/
- chan_pcal_info->pwr_i[1] = (val >> 10) & 0x1f;
+ pcinfo->pwr_i[1] = (val >> 10) & 0x1f;
- chan_pcal_info->pddac_i[1] = (val >> 15) & 0x1;
+ pcinfo->pddac_i[1] = (val >> 15) & 0x1;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac_i[1] |= (val & 0x3F) << 1;
+ pcinfo->pddac_i[1] |= (val & 0x3F) << 1;
- chan_pcal_info->pwr[1][0] = (val >> 6) & 0xf;
- chan_pcal_info->pddac[1][0] =
- (val >> 10) & 0x3f;
+ pcinfo->pwr[1][0] = (val >> 6) & 0xf;
+ pcinfo->pddac[1][0] = (val >> 10) & 0x3f;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr[1][1] = val & 0xf;
- chan_pcal_info->pddac[1][1] =
- (val >> 4) & 0x3f;
- chan_pcal_info->pwr[1][2] =
- (val >> 10) & 0xf;
-
- chan_pcal_info->pddac[1][2] =
- (val >> 14) & 0x3;
+ pcinfo->pwr[1][1] = val & 0xf;
+ pcinfo->pddac[1][1] = (val >> 4) & 0x3f;
+ pcinfo->pwr[1][2] = (val >> 10) & 0xf;
+
+ pcinfo->pddac[1][2] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac[1][2] |=
- (val & 0xF) << 2;
+ pcinfo->pddac[1][2] |= (val & 0xF) << 2;
- chan_pcal_info->pwr[1][3] = 0;
- chan_pcal_info->pddac[1][3] = 0;
+ pcinfo->pwr[1][3] = 0;
+ pcinfo->pddac[1][3] = 0;
} else if (pd_gains == 1) {
/*
* Pd gain 0 is the last one so
* read the extra point.
*/
- chan_pcal_info->pwr[0][3] =
- (val >> 10) & 0xf;
+ pcinfo->pwr[0][3] = (val >> 10) & 0xf;
- chan_pcal_info->pddac[0][3] =
- (val >> 14) & 0x3;
+ pcinfo->pddac[0][3] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac[0][3] |=
- (val & 0xF) << 2;
+ pcinfo->pddac[0][3] |= (val & 0xF) << 2;
}
/*
* as above.
*/
if (pd_gains > 2) {
- chan_pcal_info->pwr_i[2] = (val >> 4) & 0x1f;
- chan_pcal_info->pddac_i[2] = (val >> 9) & 0x7f;
+ pcinfo->pwr_i[2] = (val >> 4) & 0x1f;
+ pcinfo->pddac_i[2] = (val >> 9) & 0x7f;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr[2][0] =
- (val >> 0) & 0xf;
- chan_pcal_info->pddac[2][0] =
- (val >> 4) & 0x3f;
- chan_pcal_info->pwr[2][1] =
- (val >> 10) & 0xf;
-
- chan_pcal_info->pddac[2][1] =
- (val >> 14) & 0x3;
+ pcinfo->pwr[2][0] = (val >> 0) & 0xf;
+ pcinfo->pddac[2][0] = (val >> 4) & 0x3f;
+ pcinfo->pwr[2][1] = (val >> 10) & 0xf;
+
+ pcinfo->pddac[2][1] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac[2][1] |=
- (val & 0xF) << 2;
+ pcinfo->pddac[2][1] |= (val & 0xF) << 2;
- chan_pcal_info->pwr[2][2] =
- (val >> 4) & 0xf;
- chan_pcal_info->pddac[2][2] =
- (val >> 8) & 0x3f;
+ pcinfo->pwr[2][2] = (val >> 4) & 0xf;
+ pcinfo->pddac[2][2] = (val >> 8) & 0x3f;
- chan_pcal_info->pwr[2][3] = 0;
- chan_pcal_info->pddac[2][3] = 0;
+ pcinfo->pwr[2][3] = 0;
+ pcinfo->pddac[2][3] = 0;
} else if (pd_gains == 2) {
- chan_pcal_info->pwr[1][3] =
- (val >> 4) & 0xf;
- chan_pcal_info->pddac[1][3] =
- (val >> 8) & 0x3f;
+ pcinfo->pwr[1][3] = (val >> 4) & 0xf;
+ pcinfo->pddac[1][3] = (val >> 8) & 0x3f;
}
if (pd_gains > 3) {
- chan_pcal_info->pwr_i[3] = (val >> 14) & 0x3;
+ pcinfo->pwr_i[3] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr_i[3] |= ((val >> 0) & 0x7) << 2;
+ pcinfo->pwr_i[3] |= ((val >> 0) & 0x7) << 2;
- chan_pcal_info->pddac_i[3] = (val >> 3) & 0x7f;
- chan_pcal_info->pwr[3][0] =
- (val >> 10) & 0xf;
- chan_pcal_info->pddac[3][0] =
- (val >> 14) & 0x3;
+ pcinfo->pddac_i[3] = (val >> 3) & 0x7f;
+ pcinfo->pwr[3][0] = (val >> 10) & 0xf;
+ pcinfo->pddac[3][0] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac[3][0] |=
- (val & 0xF) << 2;
- chan_pcal_info->pwr[3][1] =
- (val >> 4) & 0xf;
- chan_pcal_info->pddac[3][1] =
- (val >> 8) & 0x3f;
-
- chan_pcal_info->pwr[3][2] =
- (val >> 14) & 0x3;
+ pcinfo->pddac[3][0] |= (val & 0xF) << 2;
+ pcinfo->pwr[3][1] = (val >> 4) & 0xf;
+ pcinfo->pddac[3][1] = (val >> 8) & 0x3f;
+
+ pcinfo->pwr[3][2] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr[3][2] |=
- ((val >> 0) & 0x3) << 2;
+ pcinfo->pwr[3][2] |= ((val >> 0) & 0x3) << 2;
- chan_pcal_info->pddac[3][2] =
- (val >> 2) & 0x3f;
- chan_pcal_info->pwr[3][3] =
- (val >> 8) & 0xf;
+ pcinfo->pddac[3][2] = (val >> 2) & 0x3f;
+ pcinfo->pwr[3][3] = (val >> 8) & 0xf;
- chan_pcal_info->pddac[3][3] =
- (val >> 12) & 0xF;
+ pcinfo->pddac[3][3] = (val >> 12) & 0xF;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pddac[3][3] |=
- ((val >> 0) & 0x3) << 4;
+ pcinfo->pddac[3][3] |= ((val >> 0) & 0x3) << 4;
} else if (pd_gains == 3) {
- chan_pcal_info->pwr[2][3] =
- (val >> 14) & 0x3;
+ pcinfo->pwr[2][3] = (val >> 14) & 0x3;
AR5K_EEPROM_READ(offset++, val);
- chan_pcal_info->pwr[2][3] |=
- ((val >> 0) & 0x3) << 2;
-
- chan_pcal_info->pddac[2][3] =
- (val >> 2) & 0x3f;
- }
+ pcinfo->pwr[2][3] |= ((val >> 0) & 0x3) << 2;
- for (c = 0; c < pd_gains; c++) {
- /* Recreate pwr table for this channel using pwr steps */
- chan_pcal_info->pwr[c][0] += chan_pcal_info->pwr_i[c] * 2;
- chan_pcal_info->pwr[c][1] += chan_pcal_info->pwr[c][0];
- chan_pcal_info->pwr[c][2] += chan_pcal_info->pwr[c][1];
- chan_pcal_info->pwr[c][3] += chan_pcal_info->pwr[c][2];
- if (chan_pcal_info->pwr[c][3] == chan_pcal_info->pwr[c][2])
- chan_pcal_info->pwr[c][3] = 0;
-
- /* Recreate pddac table for this channel using pddac steps */
- chan_pcal_info->pddac[c][0] += chan_pcal_info->pddac_i[c];
- chan_pcal_info->pddac[c][1] += chan_pcal_info->pddac[c][0];
- chan_pcal_info->pddac[c][2] += chan_pcal_info->pddac[c][1];
- chan_pcal_info->pddac[c][3] += chan_pcal_info->pddac[c][2];
- if (chan_pcal_info->pddac[c][3] == chan_pcal_info->pddac[c][2])
- chan_pcal_info->pddac[c][3] = 0;
+ pcinfo->pddac[2][3] = (val >> 2) & 0x3f;
}
}
- return 0;
+ return ath5k_eeprom_convert_pcal_info_2413(ah, mode, chinfo);
}
+
/*
* Read per rate target power (this is the maximum tx power
* supported by the card). This info is used when setting
*
* This also works for v5 EEPROMs.
*/
-static int ath5k_eeprom_read_target_rate_pwr_info(struct ath5k_hw *ah, unsigned int mode)
+static int
+ath5k_eeprom_read_target_rate_pwr_info(struct ath5k_hw *ah, unsigned int mode)
{
struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
struct ath5k_rate_pcal_info *rate_pcal_info;
- u16 *rate_target_pwr_num;
+ u8 *rate_target_pwr_num;
u32 offset;
u16 val;
int ret, i;
else
read_pcal = ath5k_eeprom_read_pcal_info_5111;
- for (mode = AR5K_EEPROM_MODE_11A; mode <= AR5K_EEPROM_MODE_11G; mode++) {
+
+ for (mode = AR5K_EEPROM_MODE_11A; mode <= AR5K_EEPROM_MODE_11G;
+ mode++) {
err = read_pcal(ah, mode);
if (err)
return err;
return 0;
}
+static int
+ath5k_eeprom_free_pcal_info(struct ath5k_hw *ah, int mode)
+{
+ struct ath5k_eeprom_info *ee = &ah->ah_capabilities.cap_eeprom;
+ struct ath5k_chan_pcal_info *chinfo;
+ u8 pier, pdg;
+
+ switch (mode) {
+ case AR5K_EEPROM_MODE_11A:
+ if (!AR5K_EEPROM_HDR_11A(ee->ee_header))
+ return 0;
+ chinfo = ee->ee_pwr_cal_a;
+ break;
+ case AR5K_EEPROM_MODE_11B:
+ if (!AR5K_EEPROM_HDR_11B(ee->ee_header))
+ return 0;
+ chinfo = ee->ee_pwr_cal_b;
+ break;
+ case AR5K_EEPROM_MODE_11G:
+ if (!AR5K_EEPROM_HDR_11G(ee->ee_header))
+ return 0;
+ chinfo = ee->ee_pwr_cal_g;
+ break;
+ default:
+ return -EINVAL;
+ }
+
+ for (pier = 0; pier < ee->ee_n_piers[mode]; pier++) {
+ if (!chinfo[pier].pd_curves)
+ continue;
+
+ for (pdg = 0; pdg < ee->ee_pd_gains[mode]; pdg++) {
+ struct ath5k_pdgain_info *pd =
+ &chinfo[pier].pd_curves[pdg];
+
+ if (pd != NULL) {
+ kfree(pd->pd_step);
+ kfree(pd->pd_pwr);
+ }
+ }
+
+ kfree(chinfo[pier].pd_curves);
+ }
+
+ return 0;
+}
+
+void
+ath5k_eeprom_detach(struct ath5k_hw *ah)
+{
+ u8 mode;
+
+ for (mode = AR5K_EEPROM_MODE_11A; mode <= AR5K_EEPROM_MODE_11G; mode++)
+ ath5k_eeprom_free_pcal_info(ah, mode);
+}
+
/* Read conformance test limits used for regulatory control */
static int
ath5k_eeprom_read_ctl_info(struct ath5k_hw *ah)
else
return false;
}
+
#define AR5K_EEPROM_N_5GHZ_CHAN 10
#define AR5K_EEPROM_N_2GHZ_CHAN 3
#define AR5K_EEPROM_N_2GHZ_CHAN_2413 4
+#define AR5K_EEPROM_N_2GHZ_CHAN_MAX 4
#define AR5K_EEPROM_MAX_CHAN 10
#define AR5K_EEPROM_N_PWR_POINTS_5111 11
#define AR5K_EEPROM_N_PCDAC 11
#define AR5K_EEPROM_SCALE_OC_DELTA(_x) (((_x) * 2) / 10)
#define AR5K_EEPROM_N_CTLS(_v) AR5K_EEPROM_OFF(_v, 16, 32)
#define AR5K_EEPROM_MAX_CTLS 32
-#define AR5K_EEPROM_N_XPD_PER_CHANNEL 4
+#define AR5K_EEPROM_N_PD_CURVES 4
#define AR5K_EEPROM_N_XPD0_POINTS 4
#define AR5K_EEPROM_N_XPD3_POINTS 3
#define AR5K_EEPROM_N_PD_GAINS 4
AR5K_CTL_11B = 1,
AR5K_CTL_11G = 2,
AR5K_CTL_TURBO = 3,
- AR5K_CTL_108G = 4,
+ AR5K_CTL_TURBOG = 4,
AR5K_CTL_2GHT20 = 5,
AR5K_CTL_5GHT20 = 6,
AR5K_CTL_2GHT40 = 7,
AR5K_CTL_MODE_M = 15,
};
+/* Default CTL ids for the 3 main reg domains.
+ * Atheros only uses these by default but vendors
+ * can have up to 32 different CTLs for different
+ * scenarios. Note that theese values are ORed with
+ * the mode id (above) so we can have up to 24 CTL
+ * datasets out of these 3 main regdomains. That leaves
+ * 8 ids that can be used by vendors and since 0x20 is
+ * missing from HAL sources i guess this is the set of
+ * custom CTLs vendors can use. */
+#define AR5K_CTL_FCC 0x10
+#define AR5K_CTL_CUSTOM 0x20
+#define AR5K_CTL_ETSI 0x30
+#define AR5K_CTL_MKK 0x40
+
+/* Indicates a CTL with only mode set and
+ * no reg domain mapping, such CTLs are used
+ * for world roaming domains or simply when
+ * a reg domain is not set */
+#define AR5K_CTL_NO_REGDOMAIN 0xf0
+
+/* Indicates an empty (invalid) CTL */
+#define AR5K_CTL_NO_CTL 0xff
+
/* Per channel calibration data, used for power table setup */
struct ath5k_chan_pcal_info_rf5111 {
/* Power levels in half dbm units
* for one power curve. */
- u8 pwr[AR5K_EEPROM_N_PWR_POINTS_5111];
+ u8 pwr[AR5K_EEPROM_N_PWR_POINTS_5111];
/* PCDAC table steps
* for the above values */
- u8 pcdac[AR5K_EEPROM_N_PWR_POINTS_5111];
+ u8 pcdac[AR5K_EEPROM_N_PWR_POINTS_5111];
/* Starting PCDAC step */
- u8 pcdac_min;
+ u8 pcdac_min;
/* Final PCDAC step */
- u8 pcdac_max;
+ u8 pcdac_max;
};
struct ath5k_chan_pcal_info_rf5112 {
/* Power levels in quarter dBm units
* for lower (0) and higher (3)
- * level curves */
- s8 pwr_x0[AR5K_EEPROM_N_XPD0_POINTS];
- s8 pwr_x3[AR5K_EEPROM_N_XPD3_POINTS];
+ * level curves in 0.25dB units */
+ s8 pwr_x0[AR5K_EEPROM_N_XPD0_POINTS];
+ s8 pwr_x3[AR5K_EEPROM_N_XPD3_POINTS];
/* PCDAC table steps
* for the above values */
- u8 pcdac_x0[AR5K_EEPROM_N_XPD0_POINTS];
- u8 pcdac_x3[AR5K_EEPROM_N_XPD3_POINTS];
+ u8 pcdac_x0[AR5K_EEPROM_N_XPD0_POINTS];
+ u8 pcdac_x3[AR5K_EEPROM_N_XPD3_POINTS];
};
struct ath5k_chan_pcal_info_rf2413 {
/* Starting pwr/pddac values */
- s8 pwr_i[AR5K_EEPROM_N_PD_GAINS];
- u8 pddac_i[AR5K_EEPROM_N_PD_GAINS];
- /* (pwr,pddac) points */
- s8 pwr[AR5K_EEPROM_N_PD_GAINS]
- [AR5K_EEPROM_N_PD_POINTS];
- u8 pddac[AR5K_EEPROM_N_PD_GAINS]
- [AR5K_EEPROM_N_PD_POINTS];
+ s8 pwr_i[AR5K_EEPROM_N_PD_GAINS];
+ u8 pddac_i[AR5K_EEPROM_N_PD_GAINS];
+ /* (pwr,pddac) points
+ * power levels in 0.5dB units */
+ s8 pwr[AR5K_EEPROM_N_PD_GAINS]
+ [AR5K_EEPROM_N_PD_POINTS];
+ u8 pddac[AR5K_EEPROM_N_PD_GAINS]
+ [AR5K_EEPROM_N_PD_POINTS];
+};
+
+enum ath5k_powertable_type {
+ AR5K_PWRTABLE_PWR_TO_PCDAC = 0,
+ AR5K_PWRTABLE_LINEAR_PCDAC = 1,
+ AR5K_PWRTABLE_PWR_TO_PDADC = 2,
+};
+
+struct ath5k_pdgain_info {
+ u8 pd_points;
+ u8 *pd_step;
+ /* Power values are in
+ * 0.25dB units */
+ s16 *pd_pwr;
};
struct ath5k_chan_pcal_info {
/* Frequency */
u16 freq;
- /* Max available power */
- s8 max_pwr;
+ /* Tx power boundaries */
+ s16 max_pwr;
+ s16 min_pwr;
union {
struct ath5k_chan_pcal_info_rf5111 rf5111_info;
struct ath5k_chan_pcal_info_rf5112 rf5112_info;
struct ath5k_chan_pcal_info_rf2413 rf2413_info;
};
+ /* Raw values used by phy code
+ * Curves are stored in order from lower
+ * gain to higher gain (max txpower -> min txpower) */
+ struct ath5k_pdgain_info *pd_curves;
};
-/* Per rate calibration data for each mode, used for power table setup */
+/* Per rate calibration data for each mode,
+ * used for rate power table setup.
+ * Note: Values in 0.5dB units */
struct ath5k_rate_pcal_info {
u16 freq; /* Frequency */
- /* Power level for 6-24Mbit/s rates */
+ /* Power level for 6-24Mbit/s rates or
+ * 1Mb rate */
u16 target_power_6to24;
- /* Power level for 36Mbit rate */
+ /* Power level for 36Mbit rate or
+ * 2Mb rate */
u16 target_power_36;
- /* Power level for 48Mbit rate */
+ /* Power level for 48Mbit rate or
+ * 5.5Mbit rate */
u16 target_power_48;
- /* Power level for 54Mbit rate */
+ /* Power level for 54Mbit rate or
+ * 11Mbit rate */
u16 target_power_54;
};
u16 ee_cck_ofdm_power_delta;
u16 ee_scaled_cck_delta;
- /* Used for tx thermal adjustment (eeprom_init, rfregs) */
- u16 ee_tx_clip;
- u16 ee_pwd_84;
- u16 ee_pwd_90;
- u16 ee_gain_select;
-
/* RF Calibration settings (reset, rfregs) */
u16 ee_i_cal[AR5K_EEPROM_N_MODES];
u16 ee_q_cal[AR5K_EEPROM_N_MODES];
/* Power calibration data */
u16 ee_false_detect[AR5K_EEPROM_N_MODES];
- /* Number of pd gain curves per mode (RF2413) */
- u8 ee_pd_gains[AR5K_EEPROM_N_MODES];
+ /* Number of pd gain curves per mode */
+ u8 ee_pd_gains[AR5K_EEPROM_N_MODES];
+ /* Back mapping pdcurve number -> pdcurve index in pd->pd_curves */
+ u8 ee_pdc_to_idx[AR5K_EEPROM_N_MODES][AR5K_EEPROM_N_PD_GAINS];
- u8 ee_n_piers[AR5K_EEPROM_N_MODES];
+ u8 ee_n_piers[AR5K_EEPROM_N_MODES];
struct ath5k_chan_pcal_info ee_pwr_cal_a[AR5K_EEPROM_N_5GHZ_CHAN];
- struct ath5k_chan_pcal_info ee_pwr_cal_b[AR5K_EEPROM_N_2GHZ_CHAN];
- struct ath5k_chan_pcal_info ee_pwr_cal_g[AR5K_EEPROM_N_2GHZ_CHAN];
+ struct ath5k_chan_pcal_info ee_pwr_cal_b[AR5K_EEPROM_N_2GHZ_CHAN_MAX];
+ struct ath5k_chan_pcal_info ee_pwr_cal_g[AR5K_EEPROM_N_2GHZ_CHAN_MAX];
/* Per rate target power levels */
- u16 ee_rate_target_pwr_num[AR5K_EEPROM_N_MODES];
+ u8 ee_rate_target_pwr_num[AR5K_EEPROM_N_MODES];
struct ath5k_rate_pcal_info ee_rate_tpwr_a[AR5K_EEPROM_N_5GHZ_CHAN];
- struct ath5k_rate_pcal_info ee_rate_tpwr_b[AR5K_EEPROM_N_2GHZ_CHAN];
- struct ath5k_rate_pcal_info ee_rate_tpwr_g[AR5K_EEPROM_N_2GHZ_CHAN];
+ struct ath5k_rate_pcal_info ee_rate_tpwr_b[AR5K_EEPROM_N_2GHZ_CHAN_MAX];
+ struct ath5k_rate_pcal_info ee_rate_tpwr_g[AR5K_EEPROM_N_2GHZ_CHAN_MAX];
/* Conformance test limits (Unused) */
- u16 ee_ctls;
- u16 ee_ctl[AR5K_EEPROM_MAX_CTLS];
+ u8 ee_ctls;
+ u8 ee_ctl[AR5K_EEPROM_MAX_CTLS];
struct ath5k_edge_power ee_ctl_pwr[AR5K_EEPROM_N_EDGES * AR5K_EEPROM_MAX_CTLS];
/* Noise Floor Calibration settings */
projects / linux-2.6-omap-h63xx.git / commitdiff