Commit b0efc428 authored by Ville Syrjälä's avatar Ville Syrjälä

drm/i915/dpio: Clean up the vlv/chv PHY register bits

Use REG_BIT() & co. for the vlv/chv DPIO PHY registers.

Note that DPIO_BIAS_CURRENT_CTL_SHIFT was incorrectly defined
to be 21 wheres 20 is the correct value. It is not used in the
code though so didn't bother splitting to a separate patch.

v2: drop stray tabs (Jani)
Signed-off-by: default avatarVille Syrjälä <ville.syrjala@linux.intel.com>
Link: https://patchwork.freedesktop.org/patch/msgid/20240422083457.23815-14-ville.syrjala@linux.intel.comReviewed-by: default avatarJani Nikula <jani.nikula@intel.com>
parent 32373aaf
...@@ -1553,10 +1553,11 @@ static void assert_chv_phy_powergate(struct drm_i915_private *dev_priv, enum dpi ...@@ -1553,10 +1553,11 @@ static void assert_chv_phy_powergate(struct drm_i915_private *dev_priv, enum dpi
} }
if (ch == DPIO_CH0) if (ch == DPIO_CH0)
actual = val >> DPIO_ANYDL_POWERDOWN_SHIFT_CH0; actual = REG_FIELD_GET(DPIO_ANYDL_POWERDOWN_CH0 |
DPIO_ALLDL_POWERDOWN_CH0, val);
else else
actual = val >> DPIO_ANYDL_POWERDOWN_SHIFT_CH1; actual = REG_FIELD_GET(DPIO_ANYDL_POWERDOWN_CH1 |
actual &= DPIO_ALLDL_POWERDOWN | DPIO_ANYDL_POWERDOWN; DPIO_ALLDL_POWERDOWN_CH1, val);
drm_WARN(&dev_priv->drm, actual != expected, drm_WARN(&dev_priv->drm, actual != expected,
"Unexpected DPIO lane power down: all %d, any %d. Expected: all %d, any %d. (0x%x = 0x%08x)\n", "Unexpected DPIO lane power down: all %d, any %d. Expected: all %d, any %d. (0x%x = 0x%08x)\n",
......
...@@ -757,7 +757,7 @@ void chv_set_phy_signal_level(struct intel_encoder *encoder, ...@@ -757,7 +757,7 @@ void chv_set_phy_signal_level(struct intel_encoder *encoder,
for (i = 0; i < crtc_state->lane_count; i++) { for (i = 0; i < crtc_state->lane_count; i++) {
val = vlv_dpio_read(dev_priv, phy, CHV_TX_DW4(ch, i)); val = vlv_dpio_read(dev_priv, phy, CHV_TX_DW4(ch, i));
val &= ~DPIO_SWING_DEEMPH9P5_MASK; val &= ~DPIO_SWING_DEEMPH9P5_MASK;
val |= deemph_reg_value << DPIO_SWING_DEEMPH9P5_SHIFT; val |= DPIO_SWING_DEEMPH9P5(deemph_reg_value);
vlv_dpio_write(dev_priv, phy, CHV_TX_DW4(ch, i), val); vlv_dpio_write(dev_priv, phy, CHV_TX_DW4(ch, i), val);
} }
...@@ -766,15 +766,15 @@ void chv_set_phy_signal_level(struct intel_encoder *encoder, ...@@ -766,15 +766,15 @@ void chv_set_phy_signal_level(struct intel_encoder *encoder,
val = vlv_dpio_read(dev_priv, phy, CHV_TX_DW2(ch, i)); val = vlv_dpio_read(dev_priv, phy, CHV_TX_DW2(ch, i));
val &= ~DPIO_SWING_MARGIN000_MASK; val &= ~DPIO_SWING_MARGIN000_MASK;
val |= margin_reg_value << DPIO_SWING_MARGIN000_SHIFT; val |= DPIO_SWING_MARGIN000(margin_reg_value);
/* /*
* Supposedly this value shouldn't matter when unique transition * Supposedly this value shouldn't matter when unique transition
* scale is disabled, but in fact it does matter. Let's just * scale is disabled, but in fact it does matter. Let's just
* always program the same value and hope it's OK. * always program the same value and hope it's OK.
*/ */
val &= ~(0xff << DPIO_UNIQ_TRANS_SCALE_SHIFT); val &= ~DPIO_UNIQ_TRANS_SCALE_MASK;
val |= 0x9a << DPIO_UNIQ_TRANS_SCALE_SHIFT; val |= DPIO_UNIQ_TRANS_SCALE(0x9a);
vlv_dpio_write(dev_priv, phy, CHV_TX_DW2(ch, i), val); vlv_dpio_write(dev_priv, phy, CHV_TX_DW2(ch, i), val);
} }
...@@ -902,20 +902,20 @@ void chv_phy_pre_pll_enable(struct intel_encoder *encoder, ...@@ -902,20 +902,20 @@ void chv_phy_pre_pll_enable(struct intel_encoder *encoder,
/* program clock channel usage */ /* program clock channel usage */
val = vlv_dpio_read(dev_priv, phy, VLV_PCS01_DW8(ch)); val = vlv_dpio_read(dev_priv, phy, VLV_PCS01_DW8(ch));
val |= CHV_PCS_USEDCLKCHANNEL_OVRRIDE; val |= DPIO_PCS_USEDCLKCHANNEL_OVRRIDE;
if (pipe != PIPE_B) if (pipe == PIPE_B)
val &= ~CHV_PCS_USEDCLKCHANNEL; val |= DPIO_PCS_USEDCLKCHANNEL;
else else
val |= CHV_PCS_USEDCLKCHANNEL; val &= ~DPIO_PCS_USEDCLKCHANNEL;
vlv_dpio_write(dev_priv, phy, VLV_PCS01_DW8(ch), val); vlv_dpio_write(dev_priv, phy, VLV_PCS01_DW8(ch), val);
if (crtc_state->lane_count > 2) { if (crtc_state->lane_count > 2) {
val = vlv_dpio_read(dev_priv, phy, VLV_PCS23_DW8(ch)); val = vlv_dpio_read(dev_priv, phy, VLV_PCS23_DW8(ch));
val |= CHV_PCS_USEDCLKCHANNEL_OVRRIDE; val |= DPIO_PCS_USEDCLKCHANNEL_OVRRIDE;
if (pipe != PIPE_B) if (pipe == PIPE_B)
val &= ~CHV_PCS_USEDCLKCHANNEL; val |= DPIO_PCS_USEDCLKCHANNEL;
else else
val |= CHV_PCS_USEDCLKCHANNEL; val &= ~DPIO_PCS_USEDCLKCHANNEL;
vlv_dpio_write(dev_priv, phy, VLV_PCS23_DW8(ch), val); vlv_dpio_write(dev_priv, phy, VLV_PCS23_DW8(ch), val);
} }
...@@ -925,10 +925,10 @@ void chv_phy_pre_pll_enable(struct intel_encoder *encoder, ...@@ -925,10 +925,10 @@ void chv_phy_pre_pll_enable(struct intel_encoder *encoder,
* pick the CL based on the port. * pick the CL based on the port.
*/ */
val = vlv_dpio_read(dev_priv, phy, CHV_CMN_DW19(ch)); val = vlv_dpio_read(dev_priv, phy, CHV_CMN_DW19(ch));
if (pipe != PIPE_B) if (pipe == PIPE_B)
val &= ~CHV_CMN_USEDCLKCHANNEL;
else
val |= CHV_CMN_USEDCLKCHANNEL; val |= CHV_CMN_USEDCLKCHANNEL;
else
val &= ~CHV_CMN_USEDCLKCHANNEL;
vlv_dpio_write(dev_priv, phy, CHV_CMN_DW19(ch), val); vlv_dpio_write(dev_priv, phy, CHV_CMN_DW19(ch), val);
vlv_dpio_put(dev_priv); vlv_dpio_put(dev_priv);
...@@ -962,11 +962,10 @@ void chv_phy_pre_encoder_enable(struct intel_encoder *encoder, ...@@ -962,11 +962,10 @@ void chv_phy_pre_encoder_enable(struct intel_encoder *encoder,
for (i = 0; i < crtc_state->lane_count; i++) { for (i = 0; i < crtc_state->lane_count; i++) {
/* Set the upar bit */ /* Set the upar bit */
if (crtc_state->lane_count == 1) if (crtc_state->lane_count == 1)
data = 0x0; data = 0;
else else
data = (i == 1) ? 0x0 : 0x1; data = (i == 1) ? 0 : DPIO_UPAR;
vlv_dpio_write(dev_priv, phy, CHV_TX_DW14(ch, i), vlv_dpio_write(dev_priv, phy, CHV_TX_DW14(ch, i), data);
data << DPIO_UPAR_SHIFT);
} }
/* Data lane stagger programming */ /* Data lane stagger programming */
...@@ -1099,13 +1098,13 @@ void vlv_phy_pre_pll_enable(struct intel_encoder *encoder, ...@@ -1099,13 +1098,13 @@ void vlv_phy_pre_pll_enable(struct intel_encoder *encoder,
vlv_dpio_get(dev_priv); vlv_dpio_get(dev_priv);
vlv_dpio_write(dev_priv, phy, VLV_PCS_DW0_GRP(ch), vlv_dpio_write(dev_priv, phy, VLV_PCS_DW0_GRP(ch),
DPIO_PCS_TX_LANE2_RESET | DPIO_PCS_TX_LANE2_RESET |
DPIO_PCS_TX_LANE1_RESET); DPIO_PCS_TX_LANE1_RESET);
vlv_dpio_write(dev_priv, phy, VLV_PCS_DW1_GRP(ch), vlv_dpio_write(dev_priv, phy, VLV_PCS_DW1_GRP(ch),
DPIO_PCS_CLK_CRI_RXEB_EIOS_EN | DPIO_PCS_CLK_CRI_RXEB_EIOS_EN |
DPIO_PCS_CLK_CRI_RXDIGFILTSG_EN | DPIO_PCS_CLK_CRI_RXDIGFILTSG_EN |
(1<<DPIO_PCS_CLK_DATAWIDTH_SHIFT) | DPIO_PCS_CLK_DATAWIDTH_8_10 |
DPIO_PCS_CLK_SOFT_RESET); DPIO_PCS_CLK_SOFT_RESET);
/* Fix up inter-pair skew failure */ /* Fix up inter-pair skew failure */
vlv_dpio_write(dev_priv, phy, VLV_PCS_DW12_GRP(ch), 0x00750f00); vlv_dpio_write(dev_priv, phy, VLV_PCS_DW12_GRP(ch), 0x00750f00);
...@@ -1130,12 +1129,10 @@ void vlv_phy_pre_encoder_enable(struct intel_encoder *encoder, ...@@ -1130,12 +1129,10 @@ void vlv_phy_pre_encoder_enable(struct intel_encoder *encoder,
vlv_dpio_get(dev_priv); vlv_dpio_get(dev_priv);
/* Enable clock channels for this port */ /* Enable clock channels for this port */
val = 0; val = DPIO_PCS_USEDCLKCHANNEL_OVRRIDE;
if (pipe) if (pipe == PIPE_B)
val |= (1<<21); val |= DPIO_PCS_USEDCLKCHANNEL;
else val |= 0xc4;
val &= ~(1<<21);
val |= 0x001000c4;
vlv_dpio_write(dev_priv, phy, VLV_PCS_DW8_GRP(ch), val); vlv_dpio_write(dev_priv, phy, VLV_PCS_DW8_GRP(ch), val);
/* Program lane clock */ /* Program lane clock */
......
...@@ -527,11 +527,11 @@ void vlv_crtc_clock_get(struct intel_crtc_state *crtc_state) ...@@ -527,11 +527,11 @@ void vlv_crtc_clock_get(struct intel_crtc_state *crtc_state)
tmp = vlv_dpio_read(dev_priv, phy, VLV_PLL_DW3(ch)); tmp = vlv_dpio_read(dev_priv, phy, VLV_PLL_DW3(ch));
vlv_dpio_put(dev_priv); vlv_dpio_put(dev_priv);
clock.m1 = (tmp >> DPIO_M1DIV_SHIFT) & 7; clock.m1 = REG_FIELD_GET(DPIO_M1_DIV_MASK, tmp);
clock.m2 = tmp & DPIO_M2DIV_MASK; clock.m2 = REG_FIELD_GET(DPIO_M2_DIV_MASK, tmp);
clock.n = (tmp >> DPIO_N_SHIFT) & 0xf; clock.n = REG_FIELD_GET(DPIO_N_DIV_MASK, tmp);
clock.p1 = (tmp >> DPIO_P1_SHIFT) & 7; clock.p1 = REG_FIELD_GET(DPIO_P1_DIV_MASK, tmp);
clock.p2 = (tmp >> DPIO_P2_SHIFT) & 0x1f; clock.p2 = REG_FIELD_GET(DPIO_P2_DIV_MASK, tmp);
crtc_state->port_clock = vlv_calc_dpll_params(refclk, &clock); crtc_state->port_clock = vlv_calc_dpll_params(refclk, &clock);
} }
...@@ -559,13 +559,13 @@ void chv_crtc_clock_get(struct intel_crtc_state *crtc_state) ...@@ -559,13 +559,13 @@ void chv_crtc_clock_get(struct intel_crtc_state *crtc_state)
pll_dw3 = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW3(ch)); pll_dw3 = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW3(ch));
vlv_dpio_put(dev_priv); vlv_dpio_put(dev_priv);
clock.m1 = (pll_dw1 & 0x7) == DPIO_CHV_M1_DIV_BY_2 ? 2 : 0; clock.m1 = REG_FIELD_GET(DPIO_CHV_M1_DIV_MASK, pll_dw1) == DPIO_CHV_M1_DIV_BY_2 ? 2 : 0;
clock.m2 = (pll_dw0 & 0xff) << 22; clock.m2 = REG_FIELD_GET(DPIO_CHV_M2_DIV_MASK, pll_dw0) << 22;
if (pll_dw3 & DPIO_CHV_FRAC_DIV_EN) if (pll_dw3 & DPIO_CHV_FRAC_DIV_EN)
clock.m2 |= pll_dw2 & 0x3fffff; clock.m2 |= REG_FIELD_GET(DPIO_CHV_M2_FRAC_DIV_MASK, pll_dw2);
clock.n = (pll_dw1 >> DPIO_CHV_N_DIV_SHIFT) & 0xf; clock.n = REG_FIELD_GET(DPIO_CHV_N_DIV_MASK, pll_dw1);
clock.p1 = (cmn_dw13 >> DPIO_CHV_P1_DIV_SHIFT) & 0x7; clock.p1 = REG_FIELD_GET(DPIO_CHV_P1_DIV_MASK, cmn_dw13);
clock.p2 = (cmn_dw13 >> DPIO_CHV_P2_DIV_SHIFT) & 0x1f; clock.p2 = REG_FIELD_GET(DPIO_CHV_P2_DIV_MASK, cmn_dw13);
crtc_state->port_clock = chv_calc_dpll_params(refclk, &clock); crtc_state->port_clock = chv_calc_dpll_params(refclk, &clock);
} }
...@@ -1926,19 +1926,19 @@ static void vlv_prepare_pll(const struct intel_crtc_state *crtc_state) ...@@ -1926,19 +1926,19 @@ static void vlv_prepare_pll(const struct intel_crtc_state *crtc_state)
vlv_dpio_write(dev_priv, phy, VLV_CMN_DW0, 0x610); vlv_dpio_write(dev_priv, phy, VLV_CMN_DW0, 0x610);
/* Set idtafcrecal before PLL is enabled */ /* Set idtafcrecal before PLL is enabled */
tmp = (clock->m1 << DPIO_M1DIV_SHIFT) | tmp = DPIO_M1_DIV(clock->m1) |
(clock->m2 & DPIO_M2DIV_MASK) | DPIO_M2_DIV(clock->m2) |
(clock->p1 << DPIO_P1_SHIFT) | DPIO_P1_DIV(clock->p1) |
(clock->p2 << DPIO_P2_SHIFT) | DPIO_P2_DIV(clock->p2) |
(clock->n << DPIO_N_SHIFT) | DPIO_N_DIV(clock->n) |
(1 << DPIO_K_SHIFT); DPIO_K_DIV(1);
/* /*
* Post divider depends on pixel clock rate, DAC vs digital (and LVDS, * Post divider depends on pixel clock rate, DAC vs digital (and LVDS,
* but we don't support that). * but we don't support that).
* Note: don't use the DAC post divider as it seems unstable. * Note: don't use the DAC post divider as it seems unstable.
*/ */
tmp |= (DPIO_POST_DIV_HDMIDP << DPIO_POST_DIV_SHIFT); tmp |= DPIO_S1_DIV(DPIO_S1_DIV_HDMIDP);
vlv_dpio_write(dev_priv, phy, VLV_PLL_DW3(ch), tmp); vlv_dpio_write(dev_priv, phy, VLV_PLL_DW3(ch), tmp);
tmp |= DPIO_ENABLE_CALIBRATION; tmp |= DPIO_ENABLE_CALIBRATION;
...@@ -2034,34 +2034,33 @@ static void chv_prepare_pll(const struct intel_crtc_state *crtc_state) ...@@ -2034,34 +2034,33 @@ static void chv_prepare_pll(const struct intel_crtc_state *crtc_state)
u32 m2_frac; u32 m2_frac;
m2_frac = clock->m2 & 0x3fffff; m2_frac = clock->m2 & 0x3fffff;
loopfilter = 0;
vlv_dpio_get(dev_priv); vlv_dpio_get(dev_priv);
/* p1 and p2 divider */ /* p1 and p2 divider */
vlv_dpio_write(dev_priv, phy, CHV_CMN_DW13(ch), vlv_dpio_write(dev_priv, phy, CHV_CMN_DW13(ch),
5 << DPIO_CHV_S1_DIV_SHIFT | DPIO_CHV_S1_DIV(5) |
clock->p1 << DPIO_CHV_P1_DIV_SHIFT | DPIO_CHV_P1_DIV(clock->p1) |
clock->p2 << DPIO_CHV_P2_DIV_SHIFT | DPIO_CHV_P2_DIV(clock->p2) |
1 << DPIO_CHV_K_DIV_SHIFT); DPIO_CHV_K_DIV(1));
/* Feedback post-divider - m2 */ /* Feedback post-divider - m2 */
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW0(ch), vlv_dpio_write(dev_priv, phy, CHV_PLL_DW0(ch),
clock->m2 >> 22); DPIO_CHV_M2_DIV(clock->m2 >> 22));
/* Feedback refclk divider - n and m1 */ /* Feedback refclk divider - n and m1 */
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW1(ch), vlv_dpio_write(dev_priv, phy, CHV_PLL_DW1(ch),
DPIO_CHV_M1_DIV_BY_2 | DPIO_CHV_M1_DIV(DPIO_CHV_M1_DIV_BY_2) |
1 << DPIO_CHV_N_DIV_SHIFT); DPIO_CHV_N_DIV(1));
/* M2 fraction division */ /* M2 fraction division */
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW2(ch), vlv_dpio_write(dev_priv, phy, CHV_PLL_DW2(ch),
m2_frac); DPIO_CHV_M2_FRAC_DIV(m2_frac));
/* M2 fraction division enable */ /* M2 fraction division enable */
tmp = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW3(ch)); tmp = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW3(ch));
tmp &= ~(DPIO_CHV_FEEDFWD_GAIN_MASK | DPIO_CHV_FRAC_DIV_EN); tmp &= ~(DPIO_CHV_FEEDFWD_GAIN_MASK | DPIO_CHV_FRAC_DIV_EN);
tmp |= (2 << DPIO_CHV_FEEDFWD_GAIN_SHIFT); tmp |= DPIO_CHV_FEEDFWD_GAIN(2);
if (m2_frac) if (m2_frac)
tmp |= DPIO_CHV_FRAC_DIV_EN; tmp |= DPIO_CHV_FRAC_DIV_EN;
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW3(ch), tmp); vlv_dpio_write(dev_priv, phy, CHV_PLL_DW3(ch), tmp);
...@@ -2069,40 +2068,40 @@ static void chv_prepare_pll(const struct intel_crtc_state *crtc_state) ...@@ -2069,40 +2068,40 @@ static void chv_prepare_pll(const struct intel_crtc_state *crtc_state)
/* Program digital lock detect threshold */ /* Program digital lock detect threshold */
tmp = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW9(ch)); tmp = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW9(ch));
tmp &= ~(DPIO_CHV_INT_LOCK_THRESHOLD_MASK | tmp &= ~(DPIO_CHV_INT_LOCK_THRESHOLD_MASK |
DPIO_CHV_INT_LOCK_THRESHOLD_SEL_COARSE); DPIO_CHV_INT_LOCK_THRESHOLD_SEL_COARSE);
tmp |= (0x5 << DPIO_CHV_INT_LOCK_THRESHOLD_SHIFT); tmp |= DPIO_CHV_INT_LOCK_THRESHOLD(0x5);
if (!m2_frac) if (!m2_frac)
tmp |= DPIO_CHV_INT_LOCK_THRESHOLD_SEL_COARSE; tmp |= DPIO_CHV_INT_LOCK_THRESHOLD_SEL_COARSE;
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW9(ch), tmp); vlv_dpio_write(dev_priv, phy, CHV_PLL_DW9(ch), tmp);
/* Loop filter */ /* Loop filter */
if (clock->vco == 5400000) { if (clock->vco == 5400000) {
loopfilter |= (0x3 << DPIO_CHV_PROP_COEFF_SHIFT); loopfilter = DPIO_CHV_PROP_COEFF(0x3) |
loopfilter |= (0x8 << DPIO_CHV_INT_COEFF_SHIFT); DPIO_CHV_INT_COEFF(0x8) |
loopfilter |= (0x1 << DPIO_CHV_GAIN_CTRL_SHIFT); DPIO_CHV_GAIN_CTRL(0x1);
tribuf_calcntr = 0x9; tribuf_calcntr = 0x9;
} else if (clock->vco <= 6200000) { } else if (clock->vco <= 6200000) {
loopfilter |= (0x5 << DPIO_CHV_PROP_COEFF_SHIFT); loopfilter = DPIO_CHV_PROP_COEFF(0x5) |
loopfilter |= (0xB << DPIO_CHV_INT_COEFF_SHIFT); DPIO_CHV_INT_COEFF(0xB) |
loopfilter |= (0x3 << DPIO_CHV_GAIN_CTRL_SHIFT); DPIO_CHV_GAIN_CTRL(0x3);
tribuf_calcntr = 0x9; tribuf_calcntr = 0x9;
} else if (clock->vco <= 6480000) { } else if (clock->vco <= 6480000) {
loopfilter |= (0x4 << DPIO_CHV_PROP_COEFF_SHIFT); loopfilter = DPIO_CHV_PROP_COEFF(0x4) |
loopfilter |= (0x9 << DPIO_CHV_INT_COEFF_SHIFT); DPIO_CHV_INT_COEFF(0x9) |
loopfilter |= (0x3 << DPIO_CHV_GAIN_CTRL_SHIFT); DPIO_CHV_GAIN_CTRL(0x3);
tribuf_calcntr = 0x8; tribuf_calcntr = 0x8;
} else { } else {
/* Not supported. Apply the same limits as in the max case */ /* Not supported. Apply the same limits as in the max case */
loopfilter |= (0x4 << DPIO_CHV_PROP_COEFF_SHIFT); loopfilter = DPIO_CHV_PROP_COEFF(0x4) |
loopfilter |= (0x9 << DPIO_CHV_INT_COEFF_SHIFT); DPIO_CHV_INT_COEFF(0x9) |
loopfilter |= (0x3 << DPIO_CHV_GAIN_CTRL_SHIFT); DPIO_CHV_GAIN_CTRL(0x3);
tribuf_calcntr = 0; tribuf_calcntr = 0;
} }
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW6(ch), loopfilter); vlv_dpio_write(dev_priv, phy, CHV_PLL_DW6(ch), loopfilter);
tmp = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW8(ch)); tmp = vlv_dpio_read(dev_priv, phy, CHV_PLL_DW8(ch));
tmp &= ~DPIO_CHV_TDC_TARGET_CNT_MASK; tmp &= ~DPIO_CHV_TDC_TARGET_CNT_MASK;
tmp |= (tribuf_calcntr << DPIO_CHV_TDC_TARGET_CNT_SHIFT); tmp |= DPIO_CHV_TDC_TARGET_CNT(tribuf_calcntr);
vlv_dpio_write(dev_priv, phy, CHV_PLL_DW8(ch), tmp); vlv_dpio_write(dev_priv, phy, CHV_PLL_DW8(ch), tmp);
/* AFC Recal */ /* AFC Recal */
......
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