提交 1f6b6b62 编写于 作者: L Laurent Pinchart 提交者: Tomi Valkeinen

drm: omapdrm: dispc: Allocate the dispc private data structure dynamically

The dispc private data structure is currently stored as a global
variable. While no platform with multiple DISPC currently exists
nor is planned, this doesn't comply with the kernel device model and
should thus be fixed.
Signed-off-by: NLaurent Pinchart <laurent.pinchart@ideasonboard.com>
Reviewed-by: NSebastian Reichel <sebastian.reichel@collabora.co.uk>
上级 8a7eda76
...@@ -47,6 +47,8 @@ ...@@ -47,6 +47,8 @@
#include "dss.h" #include "dss.h"
#include "dispc.h" #include "dispc.h"
struct dispc_device;
/* DISPC */ /* DISPC */
#define DISPC_SZ_REGS SZ_4K #define DISPC_SZ_REGS SZ_4K
...@@ -56,11 +58,12 @@ enum omap_burst_size { ...@@ -56,11 +58,12 @@ enum omap_burst_size {
BURST_SIZE_X8 = 2, BURST_SIZE_X8 = 2,
}; };
#define REG_GET(idx, start, end) \ #define REG_GET(dispc, idx, start, end) \
FLD_GET(dispc_read_reg(idx), start, end) FLD_GET(dispc_read_reg(dispc, idx), start, end)
#define REG_FLD_MOD(idx, val, start, end) \ #define REG_FLD_MOD(dispc, idx, val, start, end) \
dispc_write_reg(idx, FLD_MOD(dispc_read_reg(idx), val, start, end)) dispc_write_reg(dispc, idx, \
FLD_MOD(dispc_read_reg(dispc, idx), val, start, end))
/* DISPC has feature id */ /* DISPC has feature id */
enum dispc_feature_id { enum dispc_feature_id {
...@@ -105,7 +108,8 @@ struct dispc_features { ...@@ -105,7 +108,8 @@ struct dispc_features {
unsigned int max_downscale; unsigned int max_downscale;
unsigned int max_line_width; unsigned int max_line_width;
unsigned int min_pcd; unsigned int min_pcd;
int (*calc_scaling) (unsigned long pclk, unsigned long lclk, int (*calc_scaling)(struct dispc_device *dispc,
unsigned long pclk, unsigned long lclk,
const struct videomode *vm, const struct videomode *vm,
u16 width, u16 height, u16 out_width, u16 out_height, u16 width, u16 height, u16 out_width, u16 out_height,
u32 fourcc, bool *five_taps, u32 fourcc, bool *five_taps,
...@@ -196,8 +200,6 @@ struct dispc_device { ...@@ -196,8 +200,6 @@ struct dispc_device {
spinlock_t control_lock; spinlock_t control_lock;
}; };
static struct dispc_device dispc;
enum omap_color_component { enum omap_color_component {
/* used for all color formats for OMAP3 and earlier /* used for all color formats for OMAP3 and earlier
* and for RGB and Y color component on OMAP4 * and for RGB and Y color component on OMAP4
...@@ -355,45 +357,52 @@ struct color_conv_coef { ...@@ -355,45 +357,52 @@ struct color_conv_coef {
int full_range; int full_range;
}; };
static unsigned long dispc_fclk_rate(void); static unsigned long dispc_fclk_rate(struct dispc_device *dispc);
static unsigned long dispc_core_clk_rate(void); static unsigned long dispc_core_clk_rate(struct dispc_device *dispc);
static unsigned long dispc_mgr_lclk_rate(enum omap_channel channel); static unsigned long dispc_mgr_lclk_rate(struct dispc_device *dispc,
static unsigned long dispc_mgr_pclk_rate(enum omap_channel channel); enum omap_channel channel);
static unsigned long dispc_mgr_pclk_rate(struct dispc_device *dispc,
enum omap_channel channel);
static unsigned long dispc_plane_pclk_rate(enum omap_plane_id plane); static unsigned long dispc_plane_pclk_rate(struct dispc_device *dispc,
static unsigned long dispc_plane_lclk_rate(enum omap_plane_id plane); enum omap_plane_id plane);
static unsigned long dispc_plane_lclk_rate(struct dispc_device *dispc,
enum omap_plane_id plane);
static void dispc_clear_irqstatus(struct dispc_device *dispc, u32 mask); static void dispc_clear_irqstatus(struct dispc_device *dispc, u32 mask);
static inline void dispc_write_reg(const u16 idx, u32 val) static inline void dispc_write_reg(struct dispc_device *dispc, u16 idx, u32 val)
{ {
__raw_writel(val, dispc.base + idx); __raw_writel(val, dispc->base + idx);
} }
static inline u32 dispc_read_reg(const u16 idx) static inline u32 dispc_read_reg(struct dispc_device *dispc, u16 idx)
{ {
return __raw_readl(dispc.base + idx); return __raw_readl(dispc->base + idx);
} }
static u32 mgr_fld_read(enum omap_channel channel, enum mgr_reg_fields regfld) static u32 mgr_fld_read(struct dispc_device *dispc, enum omap_channel channel,
enum mgr_reg_fields regfld)
{ {
const struct dispc_reg_field rfld = mgr_desc[channel].reg_desc[regfld]; const struct dispc_reg_field rfld = mgr_desc[channel].reg_desc[regfld];
return REG_GET(rfld.reg, rfld.high, rfld.low);
return REG_GET(dispc, rfld.reg, rfld.high, rfld.low);
} }
static void mgr_fld_write(enum omap_channel channel, static void mgr_fld_write(struct dispc_device *dispc, enum omap_channel channel,
enum mgr_reg_fields regfld, int val) { enum mgr_reg_fields regfld, int val)
{
const struct dispc_reg_field rfld = mgr_desc[channel].reg_desc[regfld]; const struct dispc_reg_field rfld = mgr_desc[channel].reg_desc[regfld];
const bool need_lock = rfld.reg == DISPC_CONTROL || rfld.reg == DISPC_CONFIG; const bool need_lock = rfld.reg == DISPC_CONTROL || rfld.reg == DISPC_CONFIG;
unsigned long flags; unsigned long flags;
if (need_lock) if (need_lock)
spin_lock_irqsave(&dispc.control_lock, flags); spin_lock_irqsave(&dispc->control_lock, flags);
REG_FLD_MOD(rfld.reg, val, rfld.high, rfld.low); REG_FLD_MOD(dispc, rfld.reg, val, rfld.high, rfld.low);
if (need_lock) if (need_lock)
spin_unlock_irqrestore(&dispc.control_lock, flags); spin_unlock_irqrestore(&dispc->control_lock, flags);
} }
static int dispc_get_num_ovls(struct dispc_device *dispc) static int dispc_get_num_ovls(struct dispc_device *dispc)
...@@ -406,255 +415,257 @@ static int dispc_get_num_mgrs(struct dispc_device *dispc) ...@@ -406,255 +415,257 @@ static int dispc_get_num_mgrs(struct dispc_device *dispc)
return dispc->feat->num_mgrs; return dispc->feat->num_mgrs;
} }
static void dispc_get_reg_field(enum dispc_feat_reg_field id, static void dispc_get_reg_field(struct dispc_device *dispc,
enum dispc_feat_reg_field id,
u8 *start, u8 *end) u8 *start, u8 *end)
{ {
if (id >= dispc.feat->num_reg_fields) if (id >= dispc->feat->num_reg_fields)
BUG(); BUG();
*start = dispc.feat->reg_fields[id].start; *start = dispc->feat->reg_fields[id].start;
*end = dispc.feat->reg_fields[id].end; *end = dispc->feat->reg_fields[id].end;
} }
static bool dispc_has_feature(enum dispc_feature_id id) static bool dispc_has_feature(struct dispc_device *dispc,
enum dispc_feature_id id)
{ {
unsigned int i; unsigned int i;
for (i = 0; i < dispc.feat->num_features; i++) { for (i = 0; i < dispc->feat->num_features; i++) {
if (dispc.feat->features[i] == id) if (dispc->feat->features[i] == id)
return true; return true;
} }
return false; return false;
} }
#define SR(reg) \ #define SR(dispc, reg) \
dispc.ctx[DISPC_##reg / sizeof(u32)] = dispc_read_reg(DISPC_##reg) dispc->ctx[DISPC_##reg / sizeof(u32)] = dispc_read_reg(dispc, DISPC_##reg)
#define RR(reg) \ #define RR(dispc, reg) \
dispc_write_reg(DISPC_##reg, dispc.ctx[DISPC_##reg / sizeof(u32)]) dispc_write_reg(dispc, DISPC_##reg, dispc->ctx[DISPC_##reg / sizeof(u32)])
static void dispc_save_context(void) static void dispc_save_context(struct dispc_device *dispc)
{ {
int i, j; int i, j;
DSSDBG("dispc_save_context\n"); DSSDBG("dispc_save_context\n");
SR(IRQENABLE); SR(dispc, IRQENABLE);
SR(CONTROL); SR(dispc, CONTROL);
SR(CONFIG); SR(dispc, CONFIG);
SR(LINE_NUMBER); SR(dispc, LINE_NUMBER);
if (dispc_has_feature(FEAT_ALPHA_FIXED_ZORDER) || if (dispc_has_feature(dispc, FEAT_ALPHA_FIXED_ZORDER) ||
dispc_has_feature(FEAT_ALPHA_FREE_ZORDER)) dispc_has_feature(dispc, FEAT_ALPHA_FREE_ZORDER))
SR(GLOBAL_ALPHA); SR(dispc, GLOBAL_ALPHA);
if (dispc_has_feature(FEAT_MGR_LCD2)) { if (dispc_has_feature(dispc, FEAT_MGR_LCD2)) {
SR(CONTROL2); SR(dispc, CONTROL2);
SR(CONFIG2); SR(dispc, CONFIG2);
} }
if (dispc_has_feature(FEAT_MGR_LCD3)) { if (dispc_has_feature(dispc, FEAT_MGR_LCD3)) {
SR(CONTROL3); SR(dispc, CONTROL3);
SR(CONFIG3); SR(dispc, CONFIG3);
} }
for (i = 0; i < dispc_get_num_mgrs(&dispc); i++) { for (i = 0; i < dispc_get_num_mgrs(dispc); i++) {
SR(DEFAULT_COLOR(i)); SR(dispc, DEFAULT_COLOR(i));
SR(TRANS_COLOR(i)); SR(dispc, TRANS_COLOR(i));
SR(SIZE_MGR(i)); SR(dispc, SIZE_MGR(i));
if (i == OMAP_DSS_CHANNEL_DIGIT) if (i == OMAP_DSS_CHANNEL_DIGIT)
continue; continue;
SR(TIMING_H(i)); SR(dispc, TIMING_H(i));
SR(TIMING_V(i)); SR(dispc, TIMING_V(i));
SR(POL_FREQ(i)); SR(dispc, POL_FREQ(i));
SR(DIVISORo(i)); SR(dispc, DIVISORo(i));
SR(DATA_CYCLE1(i)); SR(dispc, DATA_CYCLE1(i));
SR(DATA_CYCLE2(i)); SR(dispc, DATA_CYCLE2(i));
SR(DATA_CYCLE3(i)); SR(dispc, DATA_CYCLE3(i));
if (dispc_has_feature(FEAT_CPR)) { if (dispc_has_feature(dispc, FEAT_CPR)) {
SR(CPR_COEF_R(i)); SR(dispc, CPR_COEF_R(i));
SR(CPR_COEF_G(i)); SR(dispc, CPR_COEF_G(i));
SR(CPR_COEF_B(i)); SR(dispc, CPR_COEF_B(i));
} }
} }
for (i = 0; i < dispc_get_num_ovls(&dispc); i++) { for (i = 0; i < dispc_get_num_ovls(dispc); i++) {
SR(OVL_BA0(i)); SR(dispc, OVL_BA0(i));
SR(OVL_BA1(i)); SR(dispc, OVL_BA1(i));
SR(OVL_POSITION(i)); SR(dispc, OVL_POSITION(i));
SR(OVL_SIZE(i)); SR(dispc, OVL_SIZE(i));
SR(OVL_ATTRIBUTES(i)); SR(dispc, OVL_ATTRIBUTES(i));
SR(OVL_FIFO_THRESHOLD(i)); SR(dispc, OVL_FIFO_THRESHOLD(i));
SR(OVL_ROW_INC(i)); SR(dispc, OVL_ROW_INC(i));
SR(OVL_PIXEL_INC(i)); SR(dispc, OVL_PIXEL_INC(i));
if (dispc_has_feature(FEAT_PRELOAD)) if (dispc_has_feature(dispc, FEAT_PRELOAD))
SR(OVL_PRELOAD(i)); SR(dispc, OVL_PRELOAD(i));
if (i == OMAP_DSS_GFX) { if (i == OMAP_DSS_GFX) {
SR(OVL_WINDOW_SKIP(i)); SR(dispc, OVL_WINDOW_SKIP(i));
SR(OVL_TABLE_BA(i)); SR(dispc, OVL_TABLE_BA(i));
continue; continue;
} }
SR(OVL_FIR(i)); SR(dispc, OVL_FIR(i));
SR(OVL_PICTURE_SIZE(i)); SR(dispc, OVL_PICTURE_SIZE(i));
SR(OVL_ACCU0(i)); SR(dispc, OVL_ACCU0(i));
SR(OVL_ACCU1(i)); SR(dispc, OVL_ACCU1(i));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
SR(OVL_FIR_COEF_H(i, j)); SR(dispc, OVL_FIR_COEF_H(i, j));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
SR(OVL_FIR_COEF_HV(i, j)); SR(dispc, OVL_FIR_COEF_HV(i, j));
for (j = 0; j < 5; j++) for (j = 0; j < 5; j++)
SR(OVL_CONV_COEF(i, j)); SR(dispc, OVL_CONV_COEF(i, j));
if (dispc_has_feature(FEAT_FIR_COEF_V)) { if (dispc_has_feature(dispc, FEAT_FIR_COEF_V)) {
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
SR(OVL_FIR_COEF_V(i, j)); SR(dispc, OVL_FIR_COEF_V(i, j));
} }
if (dispc_has_feature(FEAT_HANDLE_UV_SEPARATE)) { if (dispc_has_feature(dispc, FEAT_HANDLE_UV_SEPARATE)) {
SR(OVL_BA0_UV(i)); SR(dispc, OVL_BA0_UV(i));
SR(OVL_BA1_UV(i)); SR(dispc, OVL_BA1_UV(i));
SR(OVL_FIR2(i)); SR(dispc, OVL_FIR2(i));
SR(OVL_ACCU2_0(i)); SR(dispc, OVL_ACCU2_0(i));
SR(OVL_ACCU2_1(i)); SR(dispc, OVL_ACCU2_1(i));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
SR(OVL_FIR_COEF_H2(i, j)); SR(dispc, OVL_FIR_COEF_H2(i, j));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
SR(OVL_FIR_COEF_HV2(i, j)); SR(dispc, OVL_FIR_COEF_HV2(i, j));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
SR(OVL_FIR_COEF_V2(i, j)); SR(dispc, OVL_FIR_COEF_V2(i, j));
} }
if (dispc_has_feature(FEAT_ATTR2)) if (dispc_has_feature(dispc, FEAT_ATTR2))
SR(OVL_ATTRIBUTES2(i)); SR(dispc, OVL_ATTRIBUTES2(i));
} }
if (dispc_has_feature(FEAT_CORE_CLK_DIV)) if (dispc_has_feature(dispc, FEAT_CORE_CLK_DIV))
SR(DIVISOR); SR(dispc, DIVISOR);
dispc.ctx_valid = true; dispc->ctx_valid = true;
DSSDBG("context saved\n"); DSSDBG("context saved\n");
} }
static void dispc_restore_context(void) static void dispc_restore_context(struct dispc_device *dispc)
{ {
int i, j; int i, j;
DSSDBG("dispc_restore_context\n"); DSSDBG("dispc_restore_context\n");
if (!dispc.ctx_valid) if (!dispc->ctx_valid)
return; return;
/*RR(IRQENABLE);*/ /*RR(dispc, IRQENABLE);*/
/*RR(CONTROL);*/ /*RR(dispc, CONTROL);*/
RR(CONFIG); RR(dispc, CONFIG);
RR(LINE_NUMBER); RR(dispc, LINE_NUMBER);
if (dispc_has_feature(FEAT_ALPHA_FIXED_ZORDER) || if (dispc_has_feature(dispc, FEAT_ALPHA_FIXED_ZORDER) ||
dispc_has_feature(FEAT_ALPHA_FREE_ZORDER)) dispc_has_feature(dispc, FEAT_ALPHA_FREE_ZORDER))
RR(GLOBAL_ALPHA); RR(dispc, GLOBAL_ALPHA);
if (dispc_has_feature(FEAT_MGR_LCD2)) if (dispc_has_feature(dispc, FEAT_MGR_LCD2))
RR(CONFIG2); RR(dispc, CONFIG2);
if (dispc_has_feature(FEAT_MGR_LCD3)) if (dispc_has_feature(dispc, FEAT_MGR_LCD3))
RR(CONFIG3); RR(dispc, CONFIG3);
for (i = 0; i < dispc_get_num_mgrs(&dispc); i++) { for (i = 0; i < dispc_get_num_mgrs(dispc); i++) {
RR(DEFAULT_COLOR(i)); RR(dispc, DEFAULT_COLOR(i));
RR(TRANS_COLOR(i)); RR(dispc, TRANS_COLOR(i));
RR(SIZE_MGR(i)); RR(dispc, SIZE_MGR(i));
if (i == OMAP_DSS_CHANNEL_DIGIT) if (i == OMAP_DSS_CHANNEL_DIGIT)
continue; continue;
RR(TIMING_H(i)); RR(dispc, TIMING_H(i));
RR(TIMING_V(i)); RR(dispc, TIMING_V(i));
RR(POL_FREQ(i)); RR(dispc, POL_FREQ(i));
RR(DIVISORo(i)); RR(dispc, DIVISORo(i));
RR(DATA_CYCLE1(i)); RR(dispc, DATA_CYCLE1(i));
RR(DATA_CYCLE2(i)); RR(dispc, DATA_CYCLE2(i));
RR(DATA_CYCLE3(i)); RR(dispc, DATA_CYCLE3(i));
if (dispc_has_feature(FEAT_CPR)) { if (dispc_has_feature(dispc, FEAT_CPR)) {
RR(CPR_COEF_R(i)); RR(dispc, CPR_COEF_R(i));
RR(CPR_COEF_G(i)); RR(dispc, CPR_COEF_G(i));
RR(CPR_COEF_B(i)); RR(dispc, CPR_COEF_B(i));
} }
} }
for (i = 0; i < dispc_get_num_ovls(&dispc); i++) { for (i = 0; i < dispc_get_num_ovls(dispc); i++) {
RR(OVL_BA0(i)); RR(dispc, OVL_BA0(i));
RR(OVL_BA1(i)); RR(dispc, OVL_BA1(i));
RR(OVL_POSITION(i)); RR(dispc, OVL_POSITION(i));
RR(OVL_SIZE(i)); RR(dispc, OVL_SIZE(i));
RR(OVL_ATTRIBUTES(i)); RR(dispc, OVL_ATTRIBUTES(i));
RR(OVL_FIFO_THRESHOLD(i)); RR(dispc, OVL_FIFO_THRESHOLD(i));
RR(OVL_ROW_INC(i)); RR(dispc, OVL_ROW_INC(i));
RR(OVL_PIXEL_INC(i)); RR(dispc, OVL_PIXEL_INC(i));
if (dispc_has_feature(FEAT_PRELOAD)) if (dispc_has_feature(dispc, FEAT_PRELOAD))
RR(OVL_PRELOAD(i)); RR(dispc, OVL_PRELOAD(i));
if (i == OMAP_DSS_GFX) { if (i == OMAP_DSS_GFX) {
RR(OVL_WINDOW_SKIP(i)); RR(dispc, OVL_WINDOW_SKIP(i));
RR(OVL_TABLE_BA(i)); RR(dispc, OVL_TABLE_BA(i));
continue; continue;
} }
RR(OVL_FIR(i)); RR(dispc, OVL_FIR(i));
RR(OVL_PICTURE_SIZE(i)); RR(dispc, OVL_PICTURE_SIZE(i));
RR(OVL_ACCU0(i)); RR(dispc, OVL_ACCU0(i));
RR(OVL_ACCU1(i)); RR(dispc, OVL_ACCU1(i));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
RR(OVL_FIR_COEF_H(i, j)); RR(dispc, OVL_FIR_COEF_H(i, j));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
RR(OVL_FIR_COEF_HV(i, j)); RR(dispc, OVL_FIR_COEF_HV(i, j));
for (j = 0; j < 5; j++) for (j = 0; j < 5; j++)
RR(OVL_CONV_COEF(i, j)); RR(dispc, OVL_CONV_COEF(i, j));
if (dispc_has_feature(FEAT_FIR_COEF_V)) { if (dispc_has_feature(dispc, FEAT_FIR_COEF_V)) {
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
RR(OVL_FIR_COEF_V(i, j)); RR(dispc, OVL_FIR_COEF_V(i, j));
} }
if (dispc_has_feature(FEAT_HANDLE_UV_SEPARATE)) { if (dispc_has_feature(dispc, FEAT_HANDLE_UV_SEPARATE)) {
RR(OVL_BA0_UV(i)); RR(dispc, OVL_BA0_UV(i));
RR(OVL_BA1_UV(i)); RR(dispc, OVL_BA1_UV(i));
RR(OVL_FIR2(i)); RR(dispc, OVL_FIR2(i));
RR(OVL_ACCU2_0(i)); RR(dispc, OVL_ACCU2_0(i));
RR(OVL_ACCU2_1(i)); RR(dispc, OVL_ACCU2_1(i));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
RR(OVL_FIR_COEF_H2(i, j)); RR(dispc, OVL_FIR_COEF_H2(i, j));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
RR(OVL_FIR_COEF_HV2(i, j)); RR(dispc, OVL_FIR_COEF_HV2(i, j));
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
RR(OVL_FIR_COEF_V2(i, j)); RR(dispc, OVL_FIR_COEF_V2(i, j));
} }
if (dispc_has_feature(FEAT_ATTR2)) if (dispc_has_feature(dispc, FEAT_ATTR2))
RR(OVL_ATTRIBUTES2(i)); RR(dispc, OVL_ATTRIBUTES2(i));
} }
if (dispc_has_feature(FEAT_CORE_CLK_DIV)) if (dispc_has_feature(dispc, FEAT_CORE_CLK_DIV))
RR(DIVISOR); RR(dispc, DIVISOR);
/* enable last, because LCD & DIGIT enable are here */ /* enable last, because LCD & DIGIT enable are here */
RR(CONTROL); RR(dispc, CONTROL);
if (dispc_has_feature(FEAT_MGR_LCD2)) if (dispc_has_feature(dispc, FEAT_MGR_LCD2))
RR(CONTROL2); RR(dispc, CONTROL2);
if (dispc_has_feature(FEAT_MGR_LCD3)) if (dispc_has_feature(dispc, FEAT_MGR_LCD3))
RR(CONTROL3); RR(dispc, CONTROL3);
/* clear spurious SYNC_LOST_DIGIT interrupts */ /* clear spurious SYNC_LOST_DIGIT interrupts */
dispc_clear_irqstatus(&dispc, DISPC_IRQ_SYNC_LOST_DIGIT); dispc_clear_irqstatus(dispc, DISPC_IRQ_SYNC_LOST_DIGIT);
/* /*
* enable last so IRQs won't trigger before * enable last so IRQs won't trigger before
* the context is fully restored * the context is fully restored
*/ */
RR(IRQENABLE); RR(dispc, IRQENABLE);
DSSDBG("context restored\n"); DSSDBG("context restored\n");
} }
...@@ -712,21 +723,21 @@ u32 dispc_wb_get_framedone_irq(struct dispc_device *dispc) ...@@ -712,21 +723,21 @@ u32 dispc_wb_get_framedone_irq(struct dispc_device *dispc)
static void dispc_mgr_enable(struct dispc_device *dispc, static void dispc_mgr_enable(struct dispc_device *dispc,
enum omap_channel channel, bool enable) enum omap_channel channel, bool enable)
{ {
mgr_fld_write(channel, DISPC_MGR_FLD_ENABLE, enable); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_ENABLE, enable);
/* flush posted write */ /* flush posted write */
mgr_fld_read(channel, DISPC_MGR_FLD_ENABLE); mgr_fld_read(dispc, channel, DISPC_MGR_FLD_ENABLE);
} }
static bool dispc_mgr_is_enabled(struct dispc_device *dispc, static bool dispc_mgr_is_enabled(struct dispc_device *dispc,
enum omap_channel channel) enum omap_channel channel)
{ {
return !!mgr_fld_read(channel, DISPC_MGR_FLD_ENABLE); return !!mgr_fld_read(dispc, channel, DISPC_MGR_FLD_ENABLE);
} }
static bool dispc_mgr_go_busy(struct dispc_device *dispc, static bool dispc_mgr_go_busy(struct dispc_device *dispc,
enum omap_channel channel) enum omap_channel channel)
{ {
return mgr_fld_read(channel, DISPC_MGR_FLD_GO) == 1; return mgr_fld_read(dispc, channel, DISPC_MGR_FLD_GO) == 1;
} }
static void dispc_mgr_go(struct dispc_device *dispc, enum omap_channel channel) static void dispc_mgr_go(struct dispc_device *dispc, enum omap_channel channel)
...@@ -736,12 +747,12 @@ static void dispc_mgr_go(struct dispc_device *dispc, enum omap_channel channel) ...@@ -736,12 +747,12 @@ static void dispc_mgr_go(struct dispc_device *dispc, enum omap_channel channel)
DSSDBG("GO %s\n", mgr_desc[channel].name); DSSDBG("GO %s\n", mgr_desc[channel].name);
mgr_fld_write(channel, DISPC_MGR_FLD_GO, 1); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_GO, 1);
} }
bool dispc_wb_go_busy(struct dispc_device *dispc) bool dispc_wb_go_busy(struct dispc_device *dispc)
{ {
return REG_GET(DISPC_CONTROL2, 6, 6) == 1; return REG_GET(dispc, DISPC_CONTROL2, 6, 6) == 1;
} }
void dispc_wb_go(struct dispc_device *dispc) void dispc_wb_go(struct dispc_device *dispc)
...@@ -749,65 +760,72 @@ void dispc_wb_go(struct dispc_device *dispc) ...@@ -749,65 +760,72 @@ void dispc_wb_go(struct dispc_device *dispc)
enum omap_plane_id plane = OMAP_DSS_WB; enum omap_plane_id plane = OMAP_DSS_WB;
bool enable, go; bool enable, go;
enable = REG_GET(DISPC_OVL_ATTRIBUTES(plane), 0, 0) == 1; enable = REG_GET(dispc, DISPC_OVL_ATTRIBUTES(plane), 0, 0) == 1;
if (!enable) if (!enable)
return; return;
go = REG_GET(DISPC_CONTROL2, 6, 6) == 1; go = REG_GET(dispc, DISPC_CONTROL2, 6, 6) == 1;
if (go) { if (go) {
DSSERR("GO bit not down for WB\n"); DSSERR("GO bit not down for WB\n");
return; return;
} }
REG_FLD_MOD(DISPC_CONTROL2, 1, 6, 6); REG_FLD_MOD(dispc, DISPC_CONTROL2, 1, 6, 6);
} }
static void dispc_ovl_write_firh_reg(enum omap_plane_id plane, int reg, static void dispc_ovl_write_firh_reg(struct dispc_device *dispc,
enum omap_plane_id plane, int reg,
u32 value) u32 value)
{ {
dispc_write_reg(DISPC_OVL_FIR_COEF_H(plane, reg), value); dispc_write_reg(dispc, DISPC_OVL_FIR_COEF_H(plane, reg), value);
} }
static void dispc_ovl_write_firhv_reg(enum omap_plane_id plane, int reg, static void dispc_ovl_write_firhv_reg(struct dispc_device *dispc,
enum omap_plane_id plane, int reg,
u32 value) u32 value)
{ {
dispc_write_reg(DISPC_OVL_FIR_COEF_HV(plane, reg), value); dispc_write_reg(dispc, DISPC_OVL_FIR_COEF_HV(plane, reg), value);
} }
static void dispc_ovl_write_firv_reg(enum omap_plane_id plane, int reg, static void dispc_ovl_write_firv_reg(struct dispc_device *dispc,
enum omap_plane_id plane, int reg,
u32 value) u32 value)
{ {
dispc_write_reg(DISPC_OVL_FIR_COEF_V(plane, reg), value); dispc_write_reg(dispc, DISPC_OVL_FIR_COEF_V(plane, reg), value);
} }
static void dispc_ovl_write_firh2_reg(enum omap_plane_id plane, int reg, static void dispc_ovl_write_firh2_reg(struct dispc_device *dispc,
enum omap_plane_id plane, int reg,
u32 value) u32 value)
{ {
BUG_ON(plane == OMAP_DSS_GFX); BUG_ON(plane == OMAP_DSS_GFX);
dispc_write_reg(DISPC_OVL_FIR_COEF_H2(plane, reg), value); dispc_write_reg(dispc, DISPC_OVL_FIR_COEF_H2(plane, reg), value);
} }
static void dispc_ovl_write_firhv2_reg(enum omap_plane_id plane, int reg, static void dispc_ovl_write_firhv2_reg(struct dispc_device *dispc,
u32 value) enum omap_plane_id plane, int reg,
u32 value)
{ {
BUG_ON(plane == OMAP_DSS_GFX); BUG_ON(plane == OMAP_DSS_GFX);
dispc_write_reg(DISPC_OVL_FIR_COEF_HV2(plane, reg), value); dispc_write_reg(dispc, DISPC_OVL_FIR_COEF_HV2(plane, reg), value);
} }
static void dispc_ovl_write_firv2_reg(enum omap_plane_id plane, int reg, static void dispc_ovl_write_firv2_reg(struct dispc_device *dispc,
enum omap_plane_id plane, int reg,
u32 value) u32 value)
{ {
BUG_ON(plane == OMAP_DSS_GFX); BUG_ON(plane == OMAP_DSS_GFX);
dispc_write_reg(DISPC_OVL_FIR_COEF_V2(plane, reg), value); dispc_write_reg(dispc, DISPC_OVL_FIR_COEF_V2(plane, reg), value);
} }
static void dispc_ovl_set_scale_coef(enum omap_plane_id plane, int fir_hinc, static void dispc_ovl_set_scale_coef(struct dispc_device *dispc,
int fir_vinc, int five_taps, enum omap_plane_id plane, int fir_hinc,
enum omap_color_component color_comp) int fir_vinc, int five_taps,
enum omap_color_component color_comp)
{ {
const struct dispc_coef *h_coef, *v_coef; const struct dispc_coef *h_coef, *v_coef;
int i; int i;
...@@ -828,11 +846,11 @@ static void dispc_ovl_set_scale_coef(enum omap_plane_id plane, int fir_hinc, ...@@ -828,11 +846,11 @@ static void dispc_ovl_set_scale_coef(enum omap_plane_id plane, int fir_hinc,
| FLD_VAL(v_coef[i].hc3_vc2, 31, 24); | FLD_VAL(v_coef[i].hc3_vc2, 31, 24);
if (color_comp == DISPC_COLOR_COMPONENT_RGB_Y) { if (color_comp == DISPC_COLOR_COMPONENT_RGB_Y) {
dispc_ovl_write_firh_reg(plane, i, h); dispc_ovl_write_firh_reg(dispc, plane, i, h);
dispc_ovl_write_firhv_reg(plane, i, hv); dispc_ovl_write_firhv_reg(dispc, plane, i, hv);
} else { } else {
dispc_ovl_write_firh2_reg(plane, i, h); dispc_ovl_write_firh2_reg(dispc, plane, i, h);
dispc_ovl_write_firhv2_reg(plane, i, hv); dispc_ovl_write_firhv2_reg(dispc, plane, i, hv);
} }
} }
...@@ -843,34 +861,35 @@ static void dispc_ovl_set_scale_coef(enum omap_plane_id plane, int fir_hinc, ...@@ -843,34 +861,35 @@ static void dispc_ovl_set_scale_coef(enum omap_plane_id plane, int fir_hinc,
v = FLD_VAL(v_coef[i].hc0_vc00, 7, 0) v = FLD_VAL(v_coef[i].hc0_vc00, 7, 0)
| FLD_VAL(v_coef[i].hc4_vc22, 15, 8); | FLD_VAL(v_coef[i].hc4_vc22, 15, 8);
if (color_comp == DISPC_COLOR_COMPONENT_RGB_Y) if (color_comp == DISPC_COLOR_COMPONENT_RGB_Y)
dispc_ovl_write_firv_reg(plane, i, v); dispc_ovl_write_firv_reg(dispc, plane, i, v);
else else
dispc_ovl_write_firv2_reg(plane, i, v); dispc_ovl_write_firv2_reg(dispc, plane, i, v);
} }
} }
} }
static void dispc_ovl_write_color_conv_coef(enum omap_plane_id plane, static void dispc_ovl_write_color_conv_coef(struct dispc_device *dispc,
const struct color_conv_coef *ct) enum omap_plane_id plane,
const struct color_conv_coef *ct)
{ {
#define CVAL(x, y) (FLD_VAL(x, 26, 16) | FLD_VAL(y, 10, 0)) #define CVAL(x, y) (FLD_VAL(x, 26, 16) | FLD_VAL(y, 10, 0))
dispc_write_reg(DISPC_OVL_CONV_COEF(plane, 0), CVAL(ct->rcr, ct->ry)); dispc_write_reg(dispc, DISPC_OVL_CONV_COEF(plane, 0), CVAL(ct->rcr, ct->ry));
dispc_write_reg(DISPC_OVL_CONV_COEF(plane, 1), CVAL(ct->gy, ct->rcb)); dispc_write_reg(dispc, DISPC_OVL_CONV_COEF(plane, 1), CVAL(ct->gy, ct->rcb));
dispc_write_reg(DISPC_OVL_CONV_COEF(plane, 2), CVAL(ct->gcb, ct->gcr)); dispc_write_reg(dispc, DISPC_OVL_CONV_COEF(plane, 2), CVAL(ct->gcb, ct->gcr));
dispc_write_reg(DISPC_OVL_CONV_COEF(plane, 3), CVAL(ct->bcr, ct->by)); dispc_write_reg(dispc, DISPC_OVL_CONV_COEF(plane, 3), CVAL(ct->bcr, ct->by));
dispc_write_reg(DISPC_OVL_CONV_COEF(plane, 4), CVAL(0, ct->bcb)); dispc_write_reg(dispc, DISPC_OVL_CONV_COEF(plane, 4), CVAL(0, ct->bcb));
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), ct->full_range, 11, 11); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), ct->full_range, 11, 11);
#undef CVAL #undef CVAL
} }
static void dispc_setup_color_conv_coef(void) static void dispc_setup_color_conv_coef(struct dispc_device *dispc)
{ {
int i; int i;
int num_ovl = dispc_get_num_ovls(&dispc); int num_ovl = dispc_get_num_ovls(dispc);
const struct color_conv_coef ctbl_bt601_5_ovl = { const struct color_conv_coef ctbl_bt601_5_ovl = {
/* YUV -> RGB */ /* YUV -> RGB */
298, 409, 0, 298, -208, -100, 298, 0, 517, 0, 298, 409, 0, 298, -208, -100, 298, 0, 517, 0,
...@@ -881,34 +900,40 @@ static void dispc_setup_color_conv_coef(void) ...@@ -881,34 +900,40 @@ static void dispc_setup_color_conv_coef(void)
}; };
for (i = 1; i < num_ovl; i++) for (i = 1; i < num_ovl; i++)
dispc_ovl_write_color_conv_coef(i, &ctbl_bt601_5_ovl); dispc_ovl_write_color_conv_coef(dispc, i, &ctbl_bt601_5_ovl);
if (dispc.feat->has_writeback) if (dispc->feat->has_writeback)
dispc_ovl_write_color_conv_coef(OMAP_DSS_WB, &ctbl_bt601_5_wb); dispc_ovl_write_color_conv_coef(dispc, OMAP_DSS_WB,
&ctbl_bt601_5_wb);
} }
static void dispc_ovl_set_ba0(enum omap_plane_id plane, u32 paddr) static void dispc_ovl_set_ba0(struct dispc_device *dispc,
enum omap_plane_id plane, u32 paddr)
{ {
dispc_write_reg(DISPC_OVL_BA0(plane), paddr); dispc_write_reg(dispc, DISPC_OVL_BA0(plane), paddr);
} }
static void dispc_ovl_set_ba1(enum omap_plane_id plane, u32 paddr) static void dispc_ovl_set_ba1(struct dispc_device *dispc,
enum omap_plane_id plane, u32 paddr)
{ {
dispc_write_reg(DISPC_OVL_BA1(plane), paddr); dispc_write_reg(dispc, DISPC_OVL_BA1(plane), paddr);
} }
static void dispc_ovl_set_ba0_uv(enum omap_plane_id plane, u32 paddr) static void dispc_ovl_set_ba0_uv(struct dispc_device *dispc,
enum omap_plane_id plane, u32 paddr)
{ {
dispc_write_reg(DISPC_OVL_BA0_UV(plane), paddr); dispc_write_reg(dispc, DISPC_OVL_BA0_UV(plane), paddr);
} }
static void dispc_ovl_set_ba1_uv(enum omap_plane_id plane, u32 paddr) static void dispc_ovl_set_ba1_uv(struct dispc_device *dispc,
enum omap_plane_id plane, u32 paddr)
{ {
dispc_write_reg(DISPC_OVL_BA1_UV(plane), paddr); dispc_write_reg(dispc, DISPC_OVL_BA1_UV(plane), paddr);
} }
static void dispc_ovl_set_pos(enum omap_plane_id plane, static void dispc_ovl_set_pos(struct dispc_device *dispc,
enum omap_overlay_caps caps, int x, int y) enum omap_plane_id plane,
enum omap_overlay_caps caps, int x, int y)
{ {
u32 val; u32 val;
...@@ -917,22 +942,24 @@ static void dispc_ovl_set_pos(enum omap_plane_id plane, ...@@ -917,22 +942,24 @@ static void dispc_ovl_set_pos(enum omap_plane_id plane,
val = FLD_VAL(y, 26, 16) | FLD_VAL(x, 10, 0); val = FLD_VAL(y, 26, 16) | FLD_VAL(x, 10, 0);
dispc_write_reg(DISPC_OVL_POSITION(plane), val); dispc_write_reg(dispc, DISPC_OVL_POSITION(plane), val);
} }
static void dispc_ovl_set_input_size(enum omap_plane_id plane, int width, static void dispc_ovl_set_input_size(struct dispc_device *dispc,
int height) enum omap_plane_id plane, int width,
int height)
{ {
u32 val = FLD_VAL(height - 1, 26, 16) | FLD_VAL(width - 1, 10, 0); u32 val = FLD_VAL(height - 1, 26, 16) | FLD_VAL(width - 1, 10, 0);
if (plane == OMAP_DSS_GFX || plane == OMAP_DSS_WB) if (plane == OMAP_DSS_GFX || plane == OMAP_DSS_WB)
dispc_write_reg(DISPC_OVL_SIZE(plane), val); dispc_write_reg(dispc, DISPC_OVL_SIZE(plane), val);
else else
dispc_write_reg(DISPC_OVL_PICTURE_SIZE(plane), val); dispc_write_reg(dispc, DISPC_OVL_PICTURE_SIZE(plane), val);
} }
static void dispc_ovl_set_output_size(enum omap_plane_id plane, int width, static void dispc_ovl_set_output_size(struct dispc_device *dispc,
int height) enum omap_plane_id plane, int width,
int height)
{ {
u32 val; u32 val;
...@@ -941,42 +968,47 @@ static void dispc_ovl_set_output_size(enum omap_plane_id plane, int width, ...@@ -941,42 +968,47 @@ static void dispc_ovl_set_output_size(enum omap_plane_id plane, int width,
val = FLD_VAL(height - 1, 26, 16) | FLD_VAL(width - 1, 10, 0); val = FLD_VAL(height - 1, 26, 16) | FLD_VAL(width - 1, 10, 0);
if (plane == OMAP_DSS_WB) if (plane == OMAP_DSS_WB)
dispc_write_reg(DISPC_OVL_PICTURE_SIZE(plane), val); dispc_write_reg(dispc, DISPC_OVL_PICTURE_SIZE(plane), val);
else else
dispc_write_reg(DISPC_OVL_SIZE(plane), val); dispc_write_reg(dispc, DISPC_OVL_SIZE(plane), val);
} }
static void dispc_ovl_set_zorder(enum omap_plane_id plane, static void dispc_ovl_set_zorder(struct dispc_device *dispc,
enum omap_overlay_caps caps, u8 zorder) enum omap_plane_id plane,
enum omap_overlay_caps caps, u8 zorder)
{ {
if ((caps & OMAP_DSS_OVL_CAP_ZORDER) == 0) if ((caps & OMAP_DSS_OVL_CAP_ZORDER) == 0)
return; return;
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), zorder, 27, 26); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), zorder, 27, 26);
} }
static void dispc_ovl_enable_zorder_planes(void) static void dispc_ovl_enable_zorder_planes(struct dispc_device *dispc)
{ {
int i; int i;
if (!dispc_has_feature(FEAT_ALPHA_FREE_ZORDER)) if (!dispc_has_feature(dispc, FEAT_ALPHA_FREE_ZORDER))
return; return;
for (i = 0; i < dispc_get_num_ovls(&dispc); i++) for (i = 0; i < dispc_get_num_ovls(dispc); i++)
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(i), 1, 25, 25); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(i), 1, 25, 25);
} }
static void dispc_ovl_set_pre_mult_alpha(enum omap_plane_id plane, static void dispc_ovl_set_pre_mult_alpha(struct dispc_device *dispc,
enum omap_overlay_caps caps, bool enable) enum omap_plane_id plane,
enum omap_overlay_caps caps,
bool enable)
{ {
if ((caps & OMAP_DSS_OVL_CAP_PRE_MULT_ALPHA) == 0) if ((caps & OMAP_DSS_OVL_CAP_PRE_MULT_ALPHA) == 0)
return; return;
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), enable ? 1 : 0, 28, 28); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), enable ? 1 : 0, 28, 28);
} }
static void dispc_ovl_setup_global_alpha(enum omap_plane_id plane, static void dispc_ovl_setup_global_alpha(struct dispc_device *dispc,
enum omap_overlay_caps caps, u8 global_alpha) enum omap_plane_id plane,
enum omap_overlay_caps caps,
u8 global_alpha)
{ {
static const unsigned int shifts[] = { 0, 8, 16, 24, }; static const unsigned int shifts[] = { 0, 8, 16, 24, };
int shift; int shift;
...@@ -985,20 +1017,23 @@ static void dispc_ovl_setup_global_alpha(enum omap_plane_id plane, ...@@ -985,20 +1017,23 @@ static void dispc_ovl_setup_global_alpha(enum omap_plane_id plane,
return; return;
shift = shifts[plane]; shift = shifts[plane];
REG_FLD_MOD(DISPC_GLOBAL_ALPHA, global_alpha, shift + 7, shift); REG_FLD_MOD(dispc, DISPC_GLOBAL_ALPHA, global_alpha, shift + 7, shift);
} }
static void dispc_ovl_set_pix_inc(enum omap_plane_id plane, s32 inc) static void dispc_ovl_set_pix_inc(struct dispc_device *dispc,
enum omap_plane_id plane, s32 inc)
{ {
dispc_write_reg(DISPC_OVL_PIXEL_INC(plane), inc); dispc_write_reg(dispc, DISPC_OVL_PIXEL_INC(plane), inc);
} }
static void dispc_ovl_set_row_inc(enum omap_plane_id plane, s32 inc) static void dispc_ovl_set_row_inc(struct dispc_device *dispc,
enum omap_plane_id plane, s32 inc)
{ {
dispc_write_reg(DISPC_OVL_ROW_INC(plane), inc); dispc_write_reg(dispc, DISPC_OVL_ROW_INC(plane), inc);
} }
static void dispc_ovl_set_color_mode(enum omap_plane_id plane, u32 fourcc) static void dispc_ovl_set_color_mode(struct dispc_device *dispc,
enum omap_plane_id plane, u32 fourcc)
{ {
u32 m = 0; u32 m = 0;
if (plane != OMAP_DSS_GFX) { if (plane != OMAP_DSS_GFX) {
...@@ -1067,7 +1102,7 @@ static void dispc_ovl_set_color_mode(enum omap_plane_id plane, u32 fourcc) ...@@ -1067,7 +1102,7 @@ static void dispc_ovl_set_color_mode(enum omap_plane_id plane, u32 fourcc)
} }
} }
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), m, 4, 1); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), m, 4, 1);
} }
static bool format_is_yuv(u32 fourcc) static bool format_is_yuv(u32 fourcc)
...@@ -1082,19 +1117,21 @@ static bool format_is_yuv(u32 fourcc) ...@@ -1082,19 +1117,21 @@ static bool format_is_yuv(u32 fourcc)
} }
} }
static void dispc_ovl_configure_burst_type(enum omap_plane_id plane, static void dispc_ovl_configure_burst_type(struct dispc_device *dispc,
enum omap_dss_rotation_type rotation_type) enum omap_plane_id plane,
enum omap_dss_rotation_type rotation)
{ {
if (dispc_has_feature(FEAT_BURST_2D) == 0) if (dispc_has_feature(dispc, FEAT_BURST_2D) == 0)
return; return;
if (rotation_type == OMAP_DSS_ROT_TILER) if (rotation == OMAP_DSS_ROT_TILER)
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), 1, 29, 29); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), 1, 29, 29);
else else
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), 0, 29, 29); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), 0, 29, 29);
} }
static void dispc_ovl_set_channel_out(enum omap_plane_id plane, static void dispc_ovl_set_channel_out(struct dispc_device *dispc,
enum omap_plane_id plane,
enum omap_channel channel) enum omap_channel channel)
{ {
int shift; int shift;
...@@ -1115,8 +1152,8 @@ static void dispc_ovl_set_channel_out(enum omap_plane_id plane, ...@@ -1115,8 +1152,8 @@ static void dispc_ovl_set_channel_out(enum omap_plane_id plane,
return; return;
} }
val = dispc_read_reg(DISPC_OVL_ATTRIBUTES(plane)); val = dispc_read_reg(dispc, DISPC_OVL_ATTRIBUTES(plane));
if (dispc_has_feature(FEAT_MGR_LCD2)) { if (dispc_has_feature(dispc, FEAT_MGR_LCD2)) {
switch (channel) { switch (channel) {
case OMAP_DSS_CHANNEL_LCD: case OMAP_DSS_CHANNEL_LCD:
chan = 0; chan = 0;
...@@ -1131,7 +1168,7 @@ static void dispc_ovl_set_channel_out(enum omap_plane_id plane, ...@@ -1131,7 +1168,7 @@ static void dispc_ovl_set_channel_out(enum omap_plane_id plane,
chan2 = 1; chan2 = 1;
break; break;
case OMAP_DSS_CHANNEL_LCD3: case OMAP_DSS_CHANNEL_LCD3:
if (dispc_has_feature(FEAT_MGR_LCD3)) { if (dispc_has_feature(dispc, FEAT_MGR_LCD3)) {
chan = 0; chan = 0;
chan2 = 2; chan2 = 2;
} else { } else {
...@@ -1153,10 +1190,11 @@ static void dispc_ovl_set_channel_out(enum omap_plane_id plane, ...@@ -1153,10 +1190,11 @@ static void dispc_ovl_set_channel_out(enum omap_plane_id plane,
} else { } else {
val = FLD_MOD(val, channel, shift, shift); val = FLD_MOD(val, channel, shift, shift);
} }
dispc_write_reg(DISPC_OVL_ATTRIBUTES(plane), val); dispc_write_reg(dispc, DISPC_OVL_ATTRIBUTES(plane), val);
} }
static enum omap_channel dispc_ovl_get_channel_out(enum omap_plane_id plane) static enum omap_channel dispc_ovl_get_channel_out(struct dispc_device *dispc,
enum omap_plane_id plane)
{ {
int shift; int shift;
u32 val; u32 val;
...@@ -1175,12 +1213,12 @@ static enum omap_channel dispc_ovl_get_channel_out(enum omap_plane_id plane) ...@@ -1175,12 +1213,12 @@ static enum omap_channel dispc_ovl_get_channel_out(enum omap_plane_id plane)
return 0; return 0;
} }
val = dispc_read_reg(DISPC_OVL_ATTRIBUTES(plane)); val = dispc_read_reg(dispc, DISPC_OVL_ATTRIBUTES(plane));
if (FLD_GET(val, shift, shift) == 1) if (FLD_GET(val, shift, shift) == 1)
return OMAP_DSS_CHANNEL_DIGIT; return OMAP_DSS_CHANNEL_DIGIT;
if (!dispc_has_feature(FEAT_MGR_LCD2)) if (!dispc_has_feature(dispc, FEAT_MGR_LCD2))
return OMAP_DSS_CHANNEL_LCD; return OMAP_DSS_CHANNEL_LCD;
switch (FLD_GET(val, 31, 30)) { switch (FLD_GET(val, 31, 30)) {
...@@ -1201,43 +1239,47 @@ void dispc_wb_set_channel_in(struct dispc_device *dispc, ...@@ -1201,43 +1239,47 @@ void dispc_wb_set_channel_in(struct dispc_device *dispc,
{ {
enum omap_plane_id plane = OMAP_DSS_WB; enum omap_plane_id plane = OMAP_DSS_WB;
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), channel, 18, 16); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), channel, 18, 16);
} }
static void dispc_ovl_set_burst_size(enum omap_plane_id plane, static void dispc_ovl_set_burst_size(struct dispc_device *dispc,
enum omap_burst_size burst_size) enum omap_plane_id plane,
enum omap_burst_size burst_size)
{ {
static const unsigned int shifts[] = { 6, 14, 14, 14, 14, }; static const unsigned int shifts[] = { 6, 14, 14, 14, 14, };
int shift; int shift;
shift = shifts[plane]; shift = shifts[plane];
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), burst_size, shift + 1, shift); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), burst_size,
shift + 1, shift);
} }
static void dispc_configure_burst_sizes(void) static void dispc_configure_burst_sizes(struct dispc_device *dispc)
{ {
int i; int i;
const int burst_size = BURST_SIZE_X8; const int burst_size = BURST_SIZE_X8;
/* Configure burst size always to maximum size */ /* Configure burst size always to maximum size */
for (i = 0; i < dispc_get_num_ovls(&dispc); ++i) for (i = 0; i < dispc_get_num_ovls(dispc); ++i)
dispc_ovl_set_burst_size(i, burst_size); dispc_ovl_set_burst_size(dispc, i, burst_size);
if (dispc.feat->has_writeback) if (dispc->feat->has_writeback)
dispc_ovl_set_burst_size(OMAP_DSS_WB, burst_size); dispc_ovl_set_burst_size(dispc, OMAP_DSS_WB, burst_size);
} }
static u32 dispc_ovl_get_burst_size(enum omap_plane_id plane) static u32 dispc_ovl_get_burst_size(struct dispc_device *dispc,
enum omap_plane_id plane)
{ {
/* burst multiplier is always x8 (see dispc_configure_burst_sizes()) */ /* burst multiplier is always x8 (see dispc_configure_burst_sizes()) */
return dispc.feat->burst_size_unit * 8; return dispc->feat->burst_size_unit * 8;
} }
static bool dispc_ovl_color_mode_supported(enum omap_plane_id plane, u32 fourcc) static bool dispc_ovl_color_mode_supported(struct dispc_device *dispc,
enum omap_plane_id plane, u32 fourcc)
{ {
const u32 *modes; const u32 *modes;
unsigned int i; unsigned int i;
modes = dispc.feat->supported_color_modes[plane]; modes = dispc->feat->supported_color_modes[plane];
for (i = 0; modes[i]; ++i) { for (i = 0; modes[i]; ++i) {
if (modes[i] == fourcc) if (modes[i] == fourcc)
...@@ -1253,16 +1295,18 @@ static const u32 *dispc_ovl_get_color_modes(struct dispc_device *dispc, ...@@ -1253,16 +1295,18 @@ static const u32 *dispc_ovl_get_color_modes(struct dispc_device *dispc,
return dispc->feat->supported_color_modes[plane]; return dispc->feat->supported_color_modes[plane];
} }
static void dispc_mgr_enable_cpr(enum omap_channel channel, bool enable) static void dispc_mgr_enable_cpr(struct dispc_device *dispc,
enum omap_channel channel, bool enable)
{ {
if (channel == OMAP_DSS_CHANNEL_DIGIT) if (channel == OMAP_DSS_CHANNEL_DIGIT)
return; return;
mgr_fld_write(channel, DISPC_MGR_FLD_CPR, enable); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_CPR, enable);
} }
static void dispc_mgr_set_cpr_coef(enum omap_channel channel, static void dispc_mgr_set_cpr_coef(struct dispc_device *dispc,
const struct omap_dss_cpr_coefs *coefs) enum omap_channel channel,
const struct omap_dss_cpr_coefs *coefs)
{ {
u32 coef_r, coef_g, coef_b; u32 coef_r, coef_g, coef_b;
...@@ -1276,25 +1320,27 @@ static void dispc_mgr_set_cpr_coef(enum omap_channel channel, ...@@ -1276,25 +1320,27 @@ static void dispc_mgr_set_cpr_coef(enum omap_channel channel,
coef_b = FLD_VAL(coefs->br, 31, 22) | FLD_VAL(coefs->bg, 20, 11) | coef_b = FLD_VAL(coefs->br, 31, 22) | FLD_VAL(coefs->bg, 20, 11) |
FLD_VAL(coefs->bb, 9, 0); FLD_VAL(coefs->bb, 9, 0);
dispc_write_reg(DISPC_CPR_COEF_R(channel), coef_r); dispc_write_reg(dispc, DISPC_CPR_COEF_R(channel), coef_r);
dispc_write_reg(DISPC_CPR_COEF_G(channel), coef_g); dispc_write_reg(dispc, DISPC_CPR_COEF_G(channel), coef_g);
dispc_write_reg(DISPC_CPR_COEF_B(channel), coef_b); dispc_write_reg(dispc, DISPC_CPR_COEF_B(channel), coef_b);
} }
static void dispc_ovl_set_vid_color_conv(enum omap_plane_id plane, static void dispc_ovl_set_vid_color_conv(struct dispc_device *dispc,
bool enable) enum omap_plane_id plane, bool enable)
{ {
u32 val; u32 val;
BUG_ON(plane == OMAP_DSS_GFX); BUG_ON(plane == OMAP_DSS_GFX);
val = dispc_read_reg(DISPC_OVL_ATTRIBUTES(plane)); val = dispc_read_reg(dispc, DISPC_OVL_ATTRIBUTES(plane));
val = FLD_MOD(val, enable, 9, 9); val = FLD_MOD(val, enable, 9, 9);
dispc_write_reg(DISPC_OVL_ATTRIBUTES(plane), val); dispc_write_reg(dispc, DISPC_OVL_ATTRIBUTES(plane), val);
} }
static void dispc_ovl_enable_replication(enum omap_plane_id plane, static void dispc_ovl_enable_replication(struct dispc_device *dispc,
enum omap_overlay_caps caps, bool enable) enum omap_plane_id plane,
enum omap_overlay_caps caps,
bool enable)
{ {
static const unsigned int shifts[] = { 5, 10, 10, 10 }; static const unsigned int shifts[] = { 5, 10, 10, 10 };
int shift; int shift;
...@@ -1303,21 +1349,21 @@ static void dispc_ovl_enable_replication(enum omap_plane_id plane, ...@@ -1303,21 +1349,21 @@ static void dispc_ovl_enable_replication(enum omap_plane_id plane,
return; return;
shift = shifts[plane]; shift = shifts[plane];
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), enable, shift, shift); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), enable, shift, shift);
} }
static void dispc_mgr_set_size(enum omap_channel channel, u16 width, static void dispc_mgr_set_size(struct dispc_device *dispc,
u16 height) enum omap_channel channel, u16 width, u16 height)
{ {
u32 val; u32 val;
val = FLD_VAL(height - 1, dispc.feat->mgr_height_start, 16) | val = FLD_VAL(height - 1, dispc->feat->mgr_height_start, 16) |
FLD_VAL(width - 1, dispc.feat->mgr_width_start, 0); FLD_VAL(width - 1, dispc->feat->mgr_width_start, 0);
dispc_write_reg(DISPC_SIZE_MGR(channel), val); dispc_write_reg(dispc, DISPC_SIZE_MGR(channel), val);
} }
static void dispc_init_fifos(void) static void dispc_init_fifos(struct dispc_device *dispc)
{ {
u32 size; u32 size;
int fifo; int fifo;
...@@ -1325,20 +1371,21 @@ static void dispc_init_fifos(void) ...@@ -1325,20 +1371,21 @@ static void dispc_init_fifos(void)
u32 unit; u32 unit;
int i; int i;
unit = dispc.feat->buffer_size_unit; unit = dispc->feat->buffer_size_unit;
dispc_get_reg_field(FEAT_REG_FIFOSIZE, &start, &end); dispc_get_reg_field(dispc, FEAT_REG_FIFOSIZE, &start, &end);
for (fifo = 0; fifo < dispc.feat->num_fifos; ++fifo) { for (fifo = 0; fifo < dispc->feat->num_fifos; ++fifo) {
size = REG_GET(DISPC_OVL_FIFO_SIZE_STATUS(fifo), start, end); size = REG_GET(dispc, DISPC_OVL_FIFO_SIZE_STATUS(fifo),
start, end);
size *= unit; size *= unit;
dispc.fifo_size[fifo] = size; dispc->fifo_size[fifo] = size;
/* /*
* By default fifos are mapped directly to overlays, fifo 0 to * By default fifos are mapped directly to overlays, fifo 0 to
* ovl 0, fifo 1 to ovl 1, etc. * ovl 0, fifo 1 to ovl 1, etc.
*/ */
dispc.fifo_assignment[fifo] = fifo; dispc->fifo_assignment[fifo] = fifo;
} }
/* /*
...@@ -1348,57 +1395,58 @@ static void dispc_init_fifos(void) ...@@ -1348,57 +1395,58 @@ static void dispc_init_fifos(void)
* giving GFX plane a larger fifo. WB but should work fine with a * giving GFX plane a larger fifo. WB but should work fine with a
* smaller fifo. * smaller fifo.
*/ */
if (dispc.feat->gfx_fifo_workaround) { if (dispc->feat->gfx_fifo_workaround) {
u32 v; u32 v;
v = dispc_read_reg(DISPC_GLOBAL_BUFFER); v = dispc_read_reg(dispc, DISPC_GLOBAL_BUFFER);
v = FLD_MOD(v, 4, 2, 0); /* GFX BUF top to WB */ v = FLD_MOD(v, 4, 2, 0); /* GFX BUF top to WB */
v = FLD_MOD(v, 4, 5, 3); /* GFX BUF bottom to WB */ v = FLD_MOD(v, 4, 5, 3); /* GFX BUF bottom to WB */
v = FLD_MOD(v, 0, 26, 24); /* WB BUF top to GFX */ v = FLD_MOD(v, 0, 26, 24); /* WB BUF top to GFX */
v = FLD_MOD(v, 0, 29, 27); /* WB BUF bottom to GFX */ v = FLD_MOD(v, 0, 29, 27); /* WB BUF bottom to GFX */
dispc_write_reg(DISPC_GLOBAL_BUFFER, v); dispc_write_reg(dispc, DISPC_GLOBAL_BUFFER, v);
dispc.fifo_assignment[OMAP_DSS_GFX] = OMAP_DSS_WB; dispc->fifo_assignment[OMAP_DSS_GFX] = OMAP_DSS_WB;
dispc.fifo_assignment[OMAP_DSS_WB] = OMAP_DSS_GFX; dispc->fifo_assignment[OMAP_DSS_WB] = OMAP_DSS_GFX;
} }
/* /*
* Setup default fifo thresholds. * Setup default fifo thresholds.
*/ */
for (i = 0; i < dispc_get_num_ovls(&dispc); ++i) { for (i = 0; i < dispc_get_num_ovls(dispc); ++i) {
u32 low, high; u32 low, high;
const bool use_fifomerge = false; const bool use_fifomerge = false;
const bool manual_update = false; const bool manual_update = false;
dispc_ovl_compute_fifo_thresholds(&dispc, i, &low, &high, dispc_ovl_compute_fifo_thresholds(dispc, i, &low, &high,
use_fifomerge, manual_update); use_fifomerge, manual_update);
dispc_ovl_set_fifo_threshold(&dispc, i, low, high); dispc_ovl_set_fifo_threshold(dispc, i, low, high);
} }
if (dispc.feat->has_writeback) { if (dispc->feat->has_writeback) {
u32 low, high; u32 low, high;
const bool use_fifomerge = false; const bool use_fifomerge = false;
const bool manual_update = false; const bool manual_update = false;
dispc_ovl_compute_fifo_thresholds(&dispc, OMAP_DSS_WB, dispc_ovl_compute_fifo_thresholds(dispc, OMAP_DSS_WB,
&low, &high, &low, &high, use_fifomerge,
use_fifomerge, manual_update); manual_update);
dispc_ovl_set_fifo_threshold(&dispc, OMAP_DSS_WB, low, high); dispc_ovl_set_fifo_threshold(dispc, OMAP_DSS_WB, low, high);
} }
} }
static u32 dispc_ovl_get_fifo_size(enum omap_plane_id plane) static u32 dispc_ovl_get_fifo_size(struct dispc_device *dispc,
enum omap_plane_id plane)
{ {
int fifo; int fifo;
u32 size = 0; u32 size = 0;
for (fifo = 0; fifo < dispc.feat->num_fifos; ++fifo) { for (fifo = 0; fifo < dispc->feat->num_fifos; ++fifo) {
if (dispc.fifo_assignment[fifo] == plane) if (dispc->fifo_assignment[fifo] == plane)
size += dispc.fifo_size[fifo]; size += dispc->fifo_size[fifo];
} }
return size; return size;
...@@ -1419,18 +1467,20 @@ void dispc_ovl_set_fifo_threshold(struct dispc_device *dispc, ...@@ -1419,18 +1467,20 @@ void dispc_ovl_set_fifo_threshold(struct dispc_device *dispc,
low /= unit; low /= unit;
high /= unit; high /= unit;
dispc_get_reg_field(FEAT_REG_FIFOHIGHTHRESHOLD, &hi_start, &hi_end); dispc_get_reg_field(dispc, FEAT_REG_FIFOHIGHTHRESHOLD,
dispc_get_reg_field(FEAT_REG_FIFOLOWTHRESHOLD, &lo_start, &lo_end); &hi_start, &hi_end);
dispc_get_reg_field(dispc, FEAT_REG_FIFOLOWTHRESHOLD,
&lo_start, &lo_end);
DSSDBG("fifo(%d) threshold (bytes), old %u/%u, new %u/%u\n", DSSDBG("fifo(%d) threshold (bytes), old %u/%u, new %u/%u\n",
plane, plane,
REG_GET(DISPC_OVL_FIFO_THRESHOLD(plane), REG_GET(dispc, DISPC_OVL_FIFO_THRESHOLD(plane),
lo_start, lo_end) * unit, lo_start, lo_end) * unit,
REG_GET(DISPC_OVL_FIFO_THRESHOLD(plane), REG_GET(dispc, DISPC_OVL_FIFO_THRESHOLD(plane),
hi_start, hi_end) * unit, hi_start, hi_end) * unit,
low * unit, high * unit); low * unit, high * unit);
dispc_write_reg(DISPC_OVL_FIFO_THRESHOLD(plane), dispc_write_reg(dispc, DISPC_OVL_FIFO_THRESHOLD(plane),
FLD_VAL(high, hi_start, hi_end) | FLD_VAL(high, hi_start, hi_end) |
FLD_VAL(low, lo_start, lo_end)); FLD_VAL(low, lo_start, lo_end));
...@@ -1439,20 +1489,21 @@ void dispc_ovl_set_fifo_threshold(struct dispc_device *dispc, ...@@ -1439,20 +1489,21 @@ void dispc_ovl_set_fifo_threshold(struct dispc_device *dispc,
* large for the preload field, set the threshold to the maximum value * large for the preload field, set the threshold to the maximum value
* that can be held by the preload register * that can be held by the preload register
*/ */
if (dispc_has_feature(FEAT_PRELOAD) && dispc->feat->set_max_preload && if (dispc_has_feature(dispc, FEAT_PRELOAD) &&
plane != OMAP_DSS_WB) dispc->feat->set_max_preload && plane != OMAP_DSS_WB)
dispc_write_reg(DISPC_OVL_PRELOAD(plane), min(high, 0xfffu)); dispc_write_reg(dispc, DISPC_OVL_PRELOAD(plane),
min(high, 0xfffu));
} }
void dispc_enable_fifomerge(struct dispc_device *dispc, bool enable) void dispc_enable_fifomerge(struct dispc_device *dispc, bool enable)
{ {
if (!dispc_has_feature(FEAT_FIFO_MERGE)) { if (!dispc_has_feature(dispc, FEAT_FIFO_MERGE)) {
WARN_ON(enable); WARN_ON(enable);
return; return;
} }
DSSDBG("FIFO merge %s\n", enable ? "enabled" : "disabled"); DSSDBG("FIFO merge %s\n", enable ? "enabled" : "disabled");
REG_FLD_MOD(DISPC_CONFIG, enable ? 1 : 0, 14, 14); REG_FLD_MOD(dispc, DISPC_CONFIG, enable ? 1 : 0, 14, 14);
} }
void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc, void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc,
...@@ -1468,13 +1519,13 @@ void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc, ...@@ -1468,13 +1519,13 @@ void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc,
unsigned int ovl_fifo_size, total_fifo_size, burst_size; unsigned int ovl_fifo_size, total_fifo_size, burst_size;
int i; int i;
burst_size = dispc_ovl_get_burst_size(plane); burst_size = dispc_ovl_get_burst_size(dispc, plane);
ovl_fifo_size = dispc_ovl_get_fifo_size(plane); ovl_fifo_size = dispc_ovl_get_fifo_size(dispc, plane);
if (use_fifomerge) { if (use_fifomerge) {
total_fifo_size = 0; total_fifo_size = 0;
for (i = 0; i < dispc_get_num_ovls(dispc); ++i) for (i = 0; i < dispc_get_num_ovls(dispc); ++i)
total_fifo_size += dispc_ovl_get_fifo_size(i); total_fifo_size += dispc_ovl_get_fifo_size(dispc, i);
} else { } else {
total_fifo_size = ovl_fifo_size; total_fifo_size = ovl_fifo_size;
} }
...@@ -1485,7 +1536,7 @@ void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc, ...@@ -1485,7 +1536,7 @@ void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc,
* combined fifo size * combined fifo size
*/ */
if (manual_update && dispc_has_feature(FEAT_OMAP3_DSI_FIFO_BUG)) { if (manual_update && dispc_has_feature(dispc, FEAT_OMAP3_DSI_FIFO_BUG)) {
*fifo_low = ovl_fifo_size - burst_size * 2; *fifo_low = ovl_fifo_size - burst_size * 2;
*fifo_high = total_fifo_size - burst_size; *fifo_high = total_fifo_size - burst_size;
} else if (plane == OMAP_DSS_WB) { } else if (plane == OMAP_DSS_WB) {
...@@ -1502,7 +1553,8 @@ void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc, ...@@ -1502,7 +1553,8 @@ void dispc_ovl_compute_fifo_thresholds(struct dispc_device *dispc,
} }
} }
static void dispc_ovl_set_mflag(enum omap_plane_id plane, bool enable) static void dispc_ovl_set_mflag(struct dispc_device *dispc,
enum omap_plane_id plane, bool enable)
{ {
int bit; int bit;
...@@ -1511,17 +1563,18 @@ static void dispc_ovl_set_mflag(enum omap_plane_id plane, bool enable) ...@@ -1511,17 +1563,18 @@ static void dispc_ovl_set_mflag(enum omap_plane_id plane, bool enable)
else else
bit = 23; bit = 23;
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), enable, bit, bit); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), enable, bit, bit);
} }
static void dispc_ovl_set_mflag_threshold(enum omap_plane_id plane, static void dispc_ovl_set_mflag_threshold(struct dispc_device *dispc,
int low, int high) enum omap_plane_id plane,
int low, int high)
{ {
dispc_write_reg(DISPC_OVL_MFLAG_THRESHOLD(plane), dispc_write_reg(dispc, DISPC_OVL_MFLAG_THRESHOLD(plane),
FLD_VAL(high, 31, 16) | FLD_VAL(low, 15, 0)); FLD_VAL(high, 31, 16) | FLD_VAL(low, 15, 0));
} }
static void dispc_init_mflag(void) static void dispc_init_mflag(struct dispc_device *dispc)
{ {
int i; int i;
...@@ -1535,16 +1588,16 @@ static void dispc_init_mflag(void) ...@@ -1535,16 +1588,16 @@ static void dispc_init_mflag(void)
* *
* As a work-around, set force MFLAG to always on. * As a work-around, set force MFLAG to always on.
*/ */
dispc_write_reg(DISPC_GLOBAL_MFLAG_ATTRIBUTE, dispc_write_reg(dispc, DISPC_GLOBAL_MFLAG_ATTRIBUTE,
(1 << 0) | /* MFLAG_CTRL = force always on */ (1 << 0) | /* MFLAG_CTRL = force always on */
(0 << 2)); /* MFLAG_START = disable */ (0 << 2)); /* MFLAG_START = disable */
for (i = 0; i < dispc_get_num_ovls(&dispc); ++i) { for (i = 0; i < dispc_get_num_ovls(dispc); ++i) {
u32 size = dispc_ovl_get_fifo_size(i); u32 size = dispc_ovl_get_fifo_size(dispc, i);
u32 unit = dispc.feat->buffer_size_unit; u32 unit = dispc->feat->buffer_size_unit;
u32 low, high; u32 low, high;
dispc_ovl_set_mflag(i, true); dispc_ovl_set_mflag(dispc, i, true);
/* /*
* Simulation team suggests below thesholds: * Simulation team suggests below thesholds:
...@@ -1555,15 +1608,15 @@ static void dispc_init_mflag(void) ...@@ -1555,15 +1608,15 @@ static void dispc_init_mflag(void)
low = size * 4 / 8 / unit; low = size * 4 / 8 / unit;
high = size * 5 / 8 / unit; high = size * 5 / 8 / unit;
dispc_ovl_set_mflag_threshold(i, low, high); dispc_ovl_set_mflag_threshold(dispc, i, low, high);
} }
if (dispc.feat->has_writeback) { if (dispc->feat->has_writeback) {
u32 size = dispc_ovl_get_fifo_size(OMAP_DSS_WB); u32 size = dispc_ovl_get_fifo_size(dispc, OMAP_DSS_WB);
u32 unit = dispc.feat->buffer_size_unit; u32 unit = dispc->feat->buffer_size_unit;
u32 low, high; u32 low, high;
dispc_ovl_set_mflag(OMAP_DSS_WB, true); dispc_ovl_set_mflag(dispc, OMAP_DSS_WB, true);
/* /*
* Simulation team suggests below thesholds: * Simulation team suggests below thesholds:
...@@ -1574,98 +1627,112 @@ static void dispc_init_mflag(void) ...@@ -1574,98 +1627,112 @@ static void dispc_init_mflag(void)
low = size * 4 / 8 / unit; low = size * 4 / 8 / unit;
high = size * 5 / 8 / unit; high = size * 5 / 8 / unit;
dispc_ovl_set_mflag_threshold(OMAP_DSS_WB, low, high); dispc_ovl_set_mflag_threshold(dispc, OMAP_DSS_WB, low, high);
} }
} }
static void dispc_ovl_set_fir(enum omap_plane_id plane, static void dispc_ovl_set_fir(struct dispc_device *dispc,
int hinc, int vinc, enum omap_plane_id plane,
enum omap_color_component color_comp) int hinc, int vinc,
enum omap_color_component color_comp)
{ {
u32 val; u32 val;
if (color_comp == DISPC_COLOR_COMPONENT_RGB_Y) { if (color_comp == DISPC_COLOR_COMPONENT_RGB_Y) {
u8 hinc_start, hinc_end, vinc_start, vinc_end; u8 hinc_start, hinc_end, vinc_start, vinc_end;
dispc_get_reg_field(FEAT_REG_FIRHINC, &hinc_start, &hinc_end); dispc_get_reg_field(dispc, FEAT_REG_FIRHINC,
dispc_get_reg_field(FEAT_REG_FIRVINC, &vinc_start, &vinc_end); &hinc_start, &hinc_end);
dispc_get_reg_field(dispc, FEAT_REG_FIRVINC,
&vinc_start, &vinc_end);
val = FLD_VAL(vinc, vinc_start, vinc_end) | val = FLD_VAL(vinc, vinc_start, vinc_end) |
FLD_VAL(hinc, hinc_start, hinc_end); FLD_VAL(hinc, hinc_start, hinc_end);
dispc_write_reg(DISPC_OVL_FIR(plane), val); dispc_write_reg(dispc, DISPC_OVL_FIR(plane), val);
} else { } else {
val = FLD_VAL(vinc, 28, 16) | FLD_VAL(hinc, 12, 0); val = FLD_VAL(vinc, 28, 16) | FLD_VAL(hinc, 12, 0);
dispc_write_reg(DISPC_OVL_FIR2(plane), val); dispc_write_reg(dispc, DISPC_OVL_FIR2(plane), val);
} }
} }
static void dispc_ovl_set_vid_accu0(enum omap_plane_id plane, int haccu, static void dispc_ovl_set_vid_accu0(struct dispc_device *dispc,
enum omap_plane_id plane, int haccu,
int vaccu) int vaccu)
{ {
u32 val; u32 val;
u8 hor_start, hor_end, vert_start, vert_end; u8 hor_start, hor_end, vert_start, vert_end;
dispc_get_reg_field(FEAT_REG_HORIZONTALACCU, &hor_start, &hor_end); dispc_get_reg_field(dispc, FEAT_REG_HORIZONTALACCU,
dispc_get_reg_field(FEAT_REG_VERTICALACCU, &vert_start, &vert_end); &hor_start, &hor_end);
dispc_get_reg_field(dispc, FEAT_REG_VERTICALACCU,
&vert_start, &vert_end);
val = FLD_VAL(vaccu, vert_start, vert_end) | val = FLD_VAL(vaccu, vert_start, vert_end) |
FLD_VAL(haccu, hor_start, hor_end); FLD_VAL(haccu, hor_start, hor_end);
dispc_write_reg(DISPC_OVL_ACCU0(plane), val); dispc_write_reg(dispc, DISPC_OVL_ACCU0(plane), val);
} }
static void dispc_ovl_set_vid_accu1(enum omap_plane_id plane, int haccu, static void dispc_ovl_set_vid_accu1(struct dispc_device *dispc,
enum omap_plane_id plane, int haccu,
int vaccu) int vaccu)
{ {
u32 val; u32 val;
u8 hor_start, hor_end, vert_start, vert_end; u8 hor_start, hor_end, vert_start, vert_end;
dispc_get_reg_field(FEAT_REG_HORIZONTALACCU, &hor_start, &hor_end); dispc_get_reg_field(dispc, FEAT_REG_HORIZONTALACCU,
dispc_get_reg_field(FEAT_REG_VERTICALACCU, &vert_start, &vert_end); &hor_start, &hor_end);
dispc_get_reg_field(dispc, FEAT_REG_VERTICALACCU,
&vert_start, &vert_end);
val = FLD_VAL(vaccu, vert_start, vert_end) | val = FLD_VAL(vaccu, vert_start, vert_end) |
FLD_VAL(haccu, hor_start, hor_end); FLD_VAL(haccu, hor_start, hor_end);
dispc_write_reg(DISPC_OVL_ACCU1(plane), val); dispc_write_reg(dispc, DISPC_OVL_ACCU1(plane), val);
} }
static void dispc_ovl_set_vid_accu2_0(enum omap_plane_id plane, int haccu, static void dispc_ovl_set_vid_accu2_0(struct dispc_device *dispc,
int vaccu) enum omap_plane_id plane, int haccu,
int vaccu)
{ {
u32 val; u32 val;
val = FLD_VAL(vaccu, 26, 16) | FLD_VAL(haccu, 10, 0); val = FLD_VAL(vaccu, 26, 16) | FLD_VAL(haccu, 10, 0);
dispc_write_reg(DISPC_OVL_ACCU2_0(plane), val); dispc_write_reg(dispc, DISPC_OVL_ACCU2_0(plane), val);
} }
static void dispc_ovl_set_vid_accu2_1(enum omap_plane_id plane, int haccu, static void dispc_ovl_set_vid_accu2_1(struct dispc_device *dispc,
int vaccu) enum omap_plane_id plane, int haccu,
int vaccu)
{ {
u32 val; u32 val;
val = FLD_VAL(vaccu, 26, 16) | FLD_VAL(haccu, 10, 0); val = FLD_VAL(vaccu, 26, 16) | FLD_VAL(haccu, 10, 0);
dispc_write_reg(DISPC_OVL_ACCU2_1(plane), val); dispc_write_reg(dispc, DISPC_OVL_ACCU2_1(plane), val);
} }
static void dispc_ovl_set_scale_param(enum omap_plane_id plane, static void dispc_ovl_set_scale_param(struct dispc_device *dispc,
u16 orig_width, u16 orig_height, enum omap_plane_id plane,
u16 out_width, u16 out_height, u16 orig_width, u16 orig_height,
bool five_taps, u8 rotation, u16 out_width, u16 out_height,
enum omap_color_component color_comp) bool five_taps, u8 rotation,
enum omap_color_component color_comp)
{ {
int fir_hinc, fir_vinc; int fir_hinc, fir_vinc;
fir_hinc = 1024 * orig_width / out_width; fir_hinc = 1024 * orig_width / out_width;
fir_vinc = 1024 * orig_height / out_height; fir_vinc = 1024 * orig_height / out_height;
dispc_ovl_set_scale_coef(plane, fir_hinc, fir_vinc, five_taps, dispc_ovl_set_scale_coef(dispc, plane, fir_hinc, fir_vinc, five_taps,
color_comp); color_comp);
dispc_ovl_set_fir(plane, fir_hinc, fir_vinc, color_comp); dispc_ovl_set_fir(dispc, plane, fir_hinc, fir_vinc, color_comp);
} }
static void dispc_ovl_set_accu_uv(enum omap_plane_id plane, static void dispc_ovl_set_accu_uv(struct dispc_device *dispc,
u16 orig_width, u16 orig_height, u16 out_width, u16 out_height, enum omap_plane_id plane,
bool ilace, u32 fourcc, u8 rotation) u16 orig_width, u16 orig_height,
u16 out_width, u16 out_height,
bool ilace, u32 fourcc, u8 rotation)
{ {
int h_accu2_0, h_accu2_1; int h_accu2_0, h_accu2_1;
int v_accu2_0, v_accu2_1; int v_accu2_0, v_accu2_1;
...@@ -1746,25 +1813,26 @@ static void dispc_ovl_set_accu_uv(enum omap_plane_id plane, ...@@ -1746,25 +1813,26 @@ static void dispc_ovl_set_accu_uv(enum omap_plane_id plane,
v_accu2_0 = (accu_val->v0_m * chroma_vinc / accu_val->v0_n) % 1024; v_accu2_0 = (accu_val->v0_m * chroma_vinc / accu_val->v0_n) % 1024;
v_accu2_1 = (accu_val->v1_m * chroma_vinc / accu_val->v1_n) % 1024; v_accu2_1 = (accu_val->v1_m * chroma_vinc / accu_val->v1_n) % 1024;
dispc_ovl_set_vid_accu2_0(plane, h_accu2_0, v_accu2_0); dispc_ovl_set_vid_accu2_0(dispc, plane, h_accu2_0, v_accu2_0);
dispc_ovl_set_vid_accu2_1(plane, h_accu2_1, v_accu2_1); dispc_ovl_set_vid_accu2_1(dispc, plane, h_accu2_1, v_accu2_1);
} }
static void dispc_ovl_set_scaling_common(enum omap_plane_id plane, static void dispc_ovl_set_scaling_common(struct dispc_device *dispc,
u16 orig_width, u16 orig_height, enum omap_plane_id plane,
u16 out_width, u16 out_height, u16 orig_width, u16 orig_height,
bool ilace, bool five_taps, u16 out_width, u16 out_height,
bool fieldmode, u32 fourcc, bool ilace, bool five_taps,
u8 rotation) bool fieldmode, u32 fourcc,
u8 rotation)
{ {
int accu0 = 0; int accu0 = 0;
int accu1 = 0; int accu1 = 0;
u32 l; u32 l;
dispc_ovl_set_scale_param(plane, orig_width, orig_height, dispc_ovl_set_scale_param(dispc, plane, orig_width, orig_height,
out_width, out_height, five_taps, out_width, out_height, five_taps,
rotation, DISPC_COLOR_COMPONENT_RGB_Y); rotation, DISPC_COLOR_COMPONENT_RGB_Y);
l = dispc_read_reg(DISPC_OVL_ATTRIBUTES(plane)); l = dispc_read_reg(dispc, DISPC_OVL_ATTRIBUTES(plane));
/* RESIZEENABLE and VERTICALTAPS */ /* RESIZEENABLE and VERTICALTAPS */
l &= ~((0x3 << 5) | (0x1 << 21)); l &= ~((0x3 << 5) | (0x1 << 21));
...@@ -1773,19 +1841,19 @@ static void dispc_ovl_set_scaling_common(enum omap_plane_id plane, ...@@ -1773,19 +1841,19 @@ static void dispc_ovl_set_scaling_common(enum omap_plane_id plane,
l |= five_taps ? (1 << 21) : 0; l |= five_taps ? (1 << 21) : 0;
/* VRESIZECONF and HRESIZECONF */ /* VRESIZECONF and HRESIZECONF */
if (dispc_has_feature(FEAT_RESIZECONF)) { if (dispc_has_feature(dispc, FEAT_RESIZECONF)) {
l &= ~(0x3 << 7); l &= ~(0x3 << 7);
l |= (orig_width <= out_width) ? 0 : (1 << 7); l |= (orig_width <= out_width) ? 0 : (1 << 7);
l |= (orig_height <= out_height) ? 0 : (1 << 8); l |= (orig_height <= out_height) ? 0 : (1 << 8);
} }
/* LINEBUFFERSPLIT */ /* LINEBUFFERSPLIT */
if (dispc_has_feature(FEAT_LINEBUFFERSPLIT)) { if (dispc_has_feature(dispc, FEAT_LINEBUFFERSPLIT)) {
l &= ~(0x1 << 22); l &= ~(0x1 << 22);
l |= five_taps ? (1 << 22) : 0; l |= five_taps ? (1 << 22) : 0;
} }
dispc_write_reg(DISPC_OVL_ATTRIBUTES(plane), l); dispc_write_reg(dispc, DISPC_OVL_ATTRIBUTES(plane), l);
/* /*
* field 0 = even field = bottom field * field 0 = even field = bottom field
...@@ -1800,33 +1868,35 @@ static void dispc_ovl_set_scaling_common(enum omap_plane_id plane, ...@@ -1800,33 +1868,35 @@ static void dispc_ovl_set_scaling_common(enum omap_plane_id plane,
} }
} }
dispc_ovl_set_vid_accu0(plane, 0, accu0); dispc_ovl_set_vid_accu0(dispc, plane, 0, accu0);
dispc_ovl_set_vid_accu1(plane, 0, accu1); dispc_ovl_set_vid_accu1(dispc, plane, 0, accu1);
} }
static void dispc_ovl_set_scaling_uv(enum omap_plane_id plane, static void dispc_ovl_set_scaling_uv(struct dispc_device *dispc,
u16 orig_width, u16 orig_height, enum omap_plane_id plane,
u16 out_width, u16 out_height, u16 orig_width, u16 orig_height,
bool ilace, bool five_taps, u16 out_width, u16 out_height,
bool fieldmode, u32 fourcc, bool ilace, bool five_taps,
u8 rotation) bool fieldmode, u32 fourcc,
u8 rotation)
{ {
int scale_x = out_width != orig_width; int scale_x = out_width != orig_width;
int scale_y = out_height != orig_height; int scale_y = out_height != orig_height;
bool chroma_upscale = plane != OMAP_DSS_WB; bool chroma_upscale = plane != OMAP_DSS_WB;
if (!dispc_has_feature(FEAT_HANDLE_UV_SEPARATE)) if (!dispc_has_feature(dispc, FEAT_HANDLE_UV_SEPARATE))
return; return;
if (!format_is_yuv(fourcc)) { if (!format_is_yuv(fourcc)) {
/* reset chroma resampling for RGB formats */ /* reset chroma resampling for RGB formats */
if (plane != OMAP_DSS_WB) if (plane != OMAP_DSS_WB)
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES2(plane), 0, 8, 8); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES2(plane),
0, 8, 8);
return; return;
} }
dispc_ovl_set_accu_uv(plane, orig_width, orig_height, out_width, dispc_ovl_set_accu_uv(dispc, plane, orig_width, orig_height, out_width,
out_height, ilace, fourcc, rotation); out_height, ilace, fourcc, rotation);
switch (fourcc) { switch (fourcc) {
case DRM_FORMAT_NV12: case DRM_FORMAT_NV12:
...@@ -1868,46 +1938,43 @@ static void dispc_ovl_set_scaling_uv(enum omap_plane_id plane, ...@@ -1868,46 +1938,43 @@ static void dispc_ovl_set_scaling_uv(enum omap_plane_id plane,
if (out_height != orig_height) if (out_height != orig_height)
scale_y = true; scale_y = true;
dispc_ovl_set_scale_param(plane, orig_width, orig_height, dispc_ovl_set_scale_param(dispc, plane, orig_width, orig_height,
out_width, out_height, five_taps, out_width, out_height, five_taps,
rotation, DISPC_COLOR_COMPONENT_UV); rotation, DISPC_COLOR_COMPONENT_UV);
if (plane != OMAP_DSS_WB) if (plane != OMAP_DSS_WB)
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES2(plane), REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES2(plane),
(scale_x || scale_y) ? 1 : 0, 8, 8); (scale_x || scale_y) ? 1 : 0, 8, 8);
/* set H scaling */ /* set H scaling */
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), scale_x ? 1 : 0, 5, 5); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), scale_x ? 1 : 0, 5, 5);
/* set V scaling */ /* set V scaling */
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), scale_y ? 1 : 0, 6, 6); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), scale_y ? 1 : 0, 6, 6);
} }
static void dispc_ovl_set_scaling(enum omap_plane_id plane, static void dispc_ovl_set_scaling(struct dispc_device *dispc,
u16 orig_width, u16 orig_height, enum omap_plane_id plane,
u16 out_width, u16 out_height, u16 orig_width, u16 orig_height,
bool ilace, bool five_taps, u16 out_width, u16 out_height,
bool fieldmode, u32 fourcc, bool ilace, bool five_taps,
u8 rotation) bool fieldmode, u32 fourcc,
u8 rotation)
{ {
BUG_ON(plane == OMAP_DSS_GFX); BUG_ON(plane == OMAP_DSS_GFX);
dispc_ovl_set_scaling_common(plane, dispc_ovl_set_scaling_common(dispc, plane, orig_width, orig_height,
orig_width, orig_height, out_width, out_height, ilace, five_taps,
out_width, out_height, fieldmode, fourcc, rotation);
ilace, five_taps,
fieldmode, fourcc,
rotation);
dispc_ovl_set_scaling_uv(plane, dispc_ovl_set_scaling_uv(dispc, plane, orig_width, orig_height,
orig_width, orig_height, out_width, out_height, ilace, five_taps,
out_width, out_height, fieldmode, fourcc, rotation);
ilace, five_taps,
fieldmode, fourcc,
rotation);
} }
static void dispc_ovl_set_rotation_attrs(enum omap_plane_id plane, u8 rotation, static void dispc_ovl_set_rotation_attrs(struct dispc_device *dispc,
enum omap_dss_rotation_type rotation_type, u32 fourcc) enum omap_plane_id plane, u8 rotation,
enum omap_dss_rotation_type rotation_type,
u32 fourcc)
{ {
bool row_repeat = false; bool row_repeat = false;
int vidrot = 0; int vidrot = 0;
...@@ -1961,19 +2028,20 @@ static void dispc_ovl_set_rotation_attrs(enum omap_plane_id plane, u8 rotation, ...@@ -1961,19 +2028,20 @@ static void dispc_ovl_set_rotation_attrs(enum omap_plane_id plane, u8 rotation,
if (fourcc == DRM_FORMAT_NV12 && rotation_type != OMAP_DSS_ROT_TILER) if (fourcc == DRM_FORMAT_NV12 && rotation_type != OMAP_DSS_ROT_TILER)
vidrot = 1; vidrot = 1;
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), vidrot, 13, 12); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), vidrot, 13, 12);
if (dispc_has_feature(FEAT_ROWREPEATENABLE)) if (dispc_has_feature(dispc, FEAT_ROWREPEATENABLE))
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane),
row_repeat ? 1 : 0, 18, 18); row_repeat ? 1 : 0, 18, 18);
if (dispc_ovl_color_mode_supported(plane, DRM_FORMAT_NV12)) { if (dispc_ovl_color_mode_supported(dispc, plane, DRM_FORMAT_NV12)) {
bool doublestride = bool doublestride =
fourcc == DRM_FORMAT_NV12 && fourcc == DRM_FORMAT_NV12 &&
rotation_type == OMAP_DSS_ROT_TILER && rotation_type == OMAP_DSS_ROT_TILER &&
!drm_rotation_90_or_270(rotation); !drm_rotation_90_or_270(rotation);
/* DOUBLESTRIDE */ /* DOUBLESTRIDE */
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), doublestride, 22, 22); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane),
doublestride, 22, 22);
} }
} }
...@@ -2210,27 +2278,31 @@ static unsigned long calc_core_clk_44xx(unsigned long pclk, u16 width, ...@@ -2210,27 +2278,31 @@ static unsigned long calc_core_clk_44xx(unsigned long pclk, u16 width,
return pclk; return pclk;
} }
static int dispc_ovl_calc_scaling_24xx(unsigned long pclk, unsigned long lclk, static int dispc_ovl_calc_scaling_24xx(struct dispc_device *dispc,
const struct videomode *vm, unsigned long pclk, unsigned long lclk,
u16 width, u16 height, u16 out_width, u16 out_height, const struct videomode *vm,
u32 fourcc, bool *five_taps, u16 width, u16 height,
int *x_predecim, int *y_predecim, int *decim_x, int *decim_y, u16 out_width, u16 out_height,
u16 pos_x, unsigned long *core_clk, bool mem_to_mem) u32 fourcc, bool *five_taps,
int *x_predecim, int *y_predecim,
int *decim_x, int *decim_y,
u16 pos_x, unsigned long *core_clk,
bool mem_to_mem)
{ {
int error; int error;
u16 in_width, in_height; u16 in_width, in_height;
int min_factor = min(*decim_x, *decim_y); int min_factor = min(*decim_x, *decim_y);
const int maxsinglelinewidth = dispc.feat->max_line_width; const int maxsinglelinewidth = dispc->feat->max_line_width;
*five_taps = false; *five_taps = false;
do { do {
in_height = height / *decim_y; in_height = height / *decim_y;
in_width = width / *decim_x; in_width = width / *decim_x;
*core_clk = dispc.feat->calc_core_clk(pclk, in_width, *core_clk = dispc->feat->calc_core_clk(pclk, in_width,
in_height, out_width, out_height, mem_to_mem); in_height, out_width, out_height, mem_to_mem);
error = (in_width > maxsinglelinewidth || !*core_clk || error = (in_width > maxsinglelinewidth || !*core_clk ||
*core_clk > dispc_core_clk_rate()); *core_clk > dispc_core_clk_rate(dispc));
if (error) { if (error) {
if (*decim_x == *decim_y) { if (*decim_x == *decim_y) {
*decim_x = min_factor; *decim_x = min_factor;
...@@ -2255,16 +2327,20 @@ static int dispc_ovl_calc_scaling_24xx(unsigned long pclk, unsigned long lclk, ...@@ -2255,16 +2327,20 @@ static int dispc_ovl_calc_scaling_24xx(unsigned long pclk, unsigned long lclk,
return 0; return 0;
} }
static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk, static int dispc_ovl_calc_scaling_34xx(struct dispc_device *dispc,
const struct videomode *vm, unsigned long pclk, unsigned long lclk,
u16 width, u16 height, u16 out_width, u16 out_height, const struct videomode *vm,
u32 fourcc, bool *five_taps, u16 width, u16 height,
int *x_predecim, int *y_predecim, int *decim_x, int *decim_y, u16 out_width, u16 out_height,
u16 pos_x, unsigned long *core_clk, bool mem_to_mem) u32 fourcc, bool *five_taps,
int *x_predecim, int *y_predecim,
int *decim_x, int *decim_y,
u16 pos_x, unsigned long *core_clk,
bool mem_to_mem)
{ {
int error; int error;
u16 in_width, in_height; u16 in_width, in_height;
const int maxsinglelinewidth = dispc.feat->max_line_width; const int maxsinglelinewidth = dispc->feat->max_line_width;
do { do {
in_height = height / *decim_y; in_height = height / *decim_y;
...@@ -2281,7 +2357,7 @@ static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk, ...@@ -2281,7 +2357,7 @@ static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk,
in_width, in_height, out_width, in_width, in_height, out_width,
out_height, fourcc); out_height, fourcc);
else else
*core_clk = dispc.feat->calc_core_clk(pclk, in_width, *core_clk = dispc->feat->calc_core_clk(pclk, in_width,
in_height, out_width, out_height, in_height, out_width, out_height,
mem_to_mem); mem_to_mem);
...@@ -2295,7 +2371,7 @@ static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk, ...@@ -2295,7 +2371,7 @@ static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk,
error = (error || in_width > maxsinglelinewidth * 2 || error = (error || in_width > maxsinglelinewidth * 2 ||
(in_width > maxsinglelinewidth && *five_taps) || (in_width > maxsinglelinewidth && *five_taps) ||
!*core_clk || *core_clk > dispc_core_clk_rate()); !*core_clk || *core_clk > dispc_core_clk_rate(dispc));
if (!error) { if (!error) {
/* verify that we're inside the limits of scaler */ /* verify that we're inside the limits of scaler */
...@@ -2339,24 +2415,28 @@ static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk, ...@@ -2339,24 +2415,28 @@ static int dispc_ovl_calc_scaling_34xx(unsigned long pclk, unsigned long lclk,
return 0; return 0;
} }
static int dispc_ovl_calc_scaling_44xx(unsigned long pclk, unsigned long lclk, static int dispc_ovl_calc_scaling_44xx(struct dispc_device *dispc,
const struct videomode *vm, unsigned long pclk, unsigned long lclk,
u16 width, u16 height, u16 out_width, u16 out_height, const struct videomode *vm,
u32 fourcc, bool *five_taps, u16 width, u16 height,
int *x_predecim, int *y_predecim, int *decim_x, int *decim_y, u16 out_width, u16 out_height,
u16 pos_x, unsigned long *core_clk, bool mem_to_mem) u32 fourcc, bool *five_taps,
int *x_predecim, int *y_predecim,
int *decim_x, int *decim_y,
u16 pos_x, unsigned long *core_clk,
bool mem_to_mem)
{ {
u16 in_width, in_width_max; u16 in_width, in_width_max;
int decim_x_min = *decim_x; int decim_x_min = *decim_x;
u16 in_height = height / *decim_y; u16 in_height = height / *decim_y;
const int maxsinglelinewidth = dispc.feat->max_line_width; const int maxsinglelinewidth = dispc->feat->max_line_width;
const int maxdownscale = dispc.feat->max_downscale; const int maxdownscale = dispc->feat->max_downscale;
if (mem_to_mem) { if (mem_to_mem) {
in_width_max = out_width * maxdownscale; in_width_max = out_width * maxdownscale;
} else { } else {
in_width_max = dispc_core_clk_rate() / in_width_max = dispc_core_clk_rate(dispc)
DIV_ROUND_UP(pclk, out_width); / DIV_ROUND_UP(pclk, out_width);
} }
*decim_x = DIV_ROUND_UP(width, in_width_max); *decim_x = DIV_ROUND_UP(width, in_width_max);
...@@ -2394,7 +2474,7 @@ static int dispc_ovl_calc_scaling_44xx(unsigned long pclk, unsigned long lclk, ...@@ -2394,7 +2474,7 @@ static int dispc_ovl_calc_scaling_44xx(unsigned long pclk, unsigned long lclk,
return -EINVAL; return -EINVAL;
} }
*core_clk = dispc.feat->calc_core_clk(pclk, in_width, in_height, *core_clk = dispc->feat->calc_core_clk(pclk, in_width, in_height,
out_width, out_height, mem_to_mem); out_width, out_height, mem_to_mem);
return 0; return 0;
} }
...@@ -2402,15 +2482,18 @@ static int dispc_ovl_calc_scaling_44xx(unsigned long pclk, unsigned long lclk, ...@@ -2402,15 +2482,18 @@ static int dispc_ovl_calc_scaling_44xx(unsigned long pclk, unsigned long lclk,
#define DIV_FRAC(dividend, divisor) \ #define DIV_FRAC(dividend, divisor) \
((dividend) * 100 / (divisor) - ((dividend) / (divisor) * 100)) ((dividend) * 100 / (divisor) - ((dividend) / (divisor) * 100))
static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk, static int dispc_ovl_calc_scaling(struct dispc_device *dispc,
enum omap_overlay_caps caps, unsigned long pclk, unsigned long lclk,
const struct videomode *vm, enum omap_overlay_caps caps,
u16 width, u16 height, u16 out_width, u16 out_height, const struct videomode *vm,
u32 fourcc, bool *five_taps, u16 width, u16 height,
int *x_predecim, int *y_predecim, u16 pos_x, u16 out_width, u16 out_height,
enum omap_dss_rotation_type rotation_type, bool mem_to_mem) u32 fourcc, bool *five_taps,
{ int *x_predecim, int *y_predecim, u16 pos_x,
const int maxdownscale = dispc.feat->max_downscale; enum omap_dss_rotation_type rotation_type,
bool mem_to_mem)
{
const int maxdownscale = dispc->feat->max_downscale;
const int max_decim_limit = 16; const int max_decim_limit = 16;
unsigned long core_clk = 0; unsigned long core_clk = 0;
int decim_x, decim_y, ret; int decim_x, decim_y, ret;
...@@ -2431,7 +2514,7 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk, ...@@ -2431,7 +2514,7 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk,
} else { } else {
*x_predecim = max_decim_limit; *x_predecim = max_decim_limit;
*y_predecim = (rotation_type == OMAP_DSS_ROT_TILER && *y_predecim = (rotation_type == OMAP_DSS_ROT_TILER &&
dispc_has_feature(FEAT_BURST_2D)) ? dispc_has_feature(dispc, FEAT_BURST_2D)) ?
2 : max_decim_limit; 2 : max_decim_limit;
} }
...@@ -2444,10 +2527,11 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk, ...@@ -2444,10 +2527,11 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk,
if (decim_y > *y_predecim || out_height > height * 8) if (decim_y > *y_predecim || out_height > height * 8)
return -EINVAL; return -EINVAL;
ret = dispc.feat->calc_scaling(pclk, lclk, vm, width, height, ret = dispc->feat->calc_scaling(dispc, pclk, lclk, vm, width, height,
out_width, out_height, fourcc, five_taps, out_width, out_height, fourcc,
x_predecim, y_predecim, &decim_x, &decim_y, pos_x, &core_clk, five_taps, x_predecim, y_predecim,
mem_to_mem); &decim_x, &decim_y, pos_x, &core_clk,
mem_to_mem);
if (ret) if (ret)
return ret; return ret;
...@@ -2463,13 +2547,13 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk, ...@@ -2463,13 +2547,13 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk,
out_height / (height / decim_y), DIV_FRAC(out_height, height / decim_y), out_height / (height / decim_y), DIV_FRAC(out_height, height / decim_y),
*five_taps ? 5 : 3, *five_taps ? 5 : 3,
core_clk, dispc_core_clk_rate()); core_clk, dispc_core_clk_rate(dispc));
if (!core_clk || core_clk > dispc_core_clk_rate()) { if (!core_clk || core_clk > dispc_core_clk_rate(dispc)) {
DSSERR("failed to set up scaling, " DSSERR("failed to set up scaling, "
"required core clk rate = %lu Hz, " "required core clk rate = %lu Hz, "
"current core clk rate = %lu Hz\n", "current core clk rate = %lu Hz\n",
core_clk, dispc_core_clk_rate()); core_clk, dispc_core_clk_rate(dispc));
return -EINVAL; return -EINVAL;
} }
...@@ -2478,14 +2562,18 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk, ...@@ -2478,14 +2562,18 @@ static int dispc_ovl_calc_scaling(unsigned long pclk, unsigned long lclk,
return 0; return 0;
} }
static int dispc_ovl_setup_common(enum omap_plane_id plane, static int dispc_ovl_setup_common(struct dispc_device *dispc,
enum omap_overlay_caps caps, u32 paddr, u32 p_uv_addr, enum omap_plane_id plane,
u16 screen_width, int pos_x, int pos_y, u16 width, u16 height, enum omap_overlay_caps caps,
u16 out_width, u16 out_height, u32 fourcc, u32 paddr, u32 p_uv_addr,
u8 rotation, u8 zorder, u8 pre_mult_alpha, u16 screen_width, int pos_x, int pos_y,
u8 global_alpha, enum omap_dss_rotation_type rotation_type, u16 width, u16 height,
bool replication, const struct videomode *vm, u16 out_width, u16 out_height,
bool mem_to_mem) u32 fourcc, u8 rotation, u8 zorder,
u8 pre_mult_alpha, u8 global_alpha,
enum omap_dss_rotation_type rotation_type,
bool replication, const struct videomode *vm,
bool mem_to_mem)
{ {
bool five_taps = true; bool five_taps = true;
bool fieldmode = false; bool fieldmode = false;
...@@ -2499,8 +2587,8 @@ static int dispc_ovl_setup_common(enum omap_plane_id plane, ...@@ -2499,8 +2587,8 @@ static int dispc_ovl_setup_common(enum omap_plane_id plane,
u16 in_width = width; u16 in_width = width;
int x_predecim = 1, y_predecim = 1; int x_predecim = 1, y_predecim = 1;
bool ilace = !!(vm->flags & DISPLAY_FLAGS_INTERLACED); bool ilace = !!(vm->flags & DISPLAY_FLAGS_INTERLACED);
unsigned long pclk = dispc_plane_pclk_rate(plane); unsigned long pclk = dispc_plane_pclk_rate(dispc, plane);
unsigned long lclk = dispc_plane_lclk_rate(plane); unsigned long lclk = dispc_plane_lclk_rate(dispc, plane);
if (paddr == 0 && rotation_type != OMAP_DSS_ROT_TILER) if (paddr == 0 && rotation_type != OMAP_DSS_ROT_TILER)
return -EINVAL; return -EINVAL;
...@@ -2527,13 +2615,13 @@ static int dispc_ovl_setup_common(enum omap_plane_id plane, ...@@ -2527,13 +2615,13 @@ static int dispc_ovl_setup_common(enum omap_plane_id plane,
out_height); out_height);
} }
if (!dispc_ovl_color_mode_supported(plane, fourcc)) if (!dispc_ovl_color_mode_supported(dispc, plane, fourcc))
return -EINVAL; return -EINVAL;
r = dispc_ovl_calc_scaling(pclk, lclk, caps, vm, in_width, r = dispc_ovl_calc_scaling(dispc, pclk, lclk, caps, vm, in_width,
in_height, out_width, out_height, fourcc, in_height, out_width, out_height, fourcc,
&five_taps, &x_predecim, &y_predecim, pos_x, &five_taps, &x_predecim, &y_predecim, pos_x,
rotation_type, mem_to_mem); rotation_type, mem_to_mem);
if (r) if (r)
return r; return r;
...@@ -2595,49 +2683,50 @@ static int dispc_ovl_setup_common(enum omap_plane_id plane, ...@@ -2595,49 +2683,50 @@ static int dispc_ovl_setup_common(enum omap_plane_id plane,
DSSDBG("offset0 %u, offset1 %u, row_inc %d, pix_inc %d\n", DSSDBG("offset0 %u, offset1 %u, row_inc %d, pix_inc %d\n",
offset0, offset1, row_inc, pix_inc); offset0, offset1, row_inc, pix_inc);
dispc_ovl_set_color_mode(plane, fourcc); dispc_ovl_set_color_mode(dispc, plane, fourcc);
dispc_ovl_configure_burst_type(plane, rotation_type); dispc_ovl_configure_burst_type(dispc, plane, rotation_type);
if (dispc.feat->reverse_ilace_field_order) if (dispc->feat->reverse_ilace_field_order)
swap(offset0, offset1); swap(offset0, offset1);
dispc_ovl_set_ba0(plane, paddr + offset0); dispc_ovl_set_ba0(dispc, plane, paddr + offset0);
dispc_ovl_set_ba1(plane, paddr + offset1); dispc_ovl_set_ba1(dispc, plane, paddr + offset1);
if (fourcc == DRM_FORMAT_NV12) { if (fourcc == DRM_FORMAT_NV12) {
dispc_ovl_set_ba0_uv(plane, p_uv_addr + offset0); dispc_ovl_set_ba0_uv(dispc, plane, p_uv_addr + offset0);
dispc_ovl_set_ba1_uv(plane, p_uv_addr + offset1); dispc_ovl_set_ba1_uv(dispc, plane, p_uv_addr + offset1);
} }
if (dispc.feat->last_pixel_inc_missing) if (dispc->feat->last_pixel_inc_missing)
row_inc += pix_inc - 1; row_inc += pix_inc - 1;
dispc_ovl_set_row_inc(plane, row_inc); dispc_ovl_set_row_inc(dispc, plane, row_inc);
dispc_ovl_set_pix_inc(plane, pix_inc); dispc_ovl_set_pix_inc(dispc, plane, pix_inc);
DSSDBG("%d,%d %dx%d -> %dx%d\n", pos_x, pos_y, in_width, DSSDBG("%d,%d %dx%d -> %dx%d\n", pos_x, pos_y, in_width,
in_height, out_width, out_height); in_height, out_width, out_height);
dispc_ovl_set_pos(plane, caps, pos_x, pos_y); dispc_ovl_set_pos(dispc, plane, caps, pos_x, pos_y);
dispc_ovl_set_input_size(plane, in_width, in_height); dispc_ovl_set_input_size(dispc, plane, in_width, in_height);
if (caps & OMAP_DSS_OVL_CAP_SCALE) { if (caps & OMAP_DSS_OVL_CAP_SCALE) {
dispc_ovl_set_scaling(plane, in_width, in_height, out_width, dispc_ovl_set_scaling(dispc, plane, in_width, in_height,
out_height, ilace, five_taps, fieldmode, out_width, out_height, ilace, five_taps,
fourcc, rotation); fieldmode, fourcc, rotation);
dispc_ovl_set_output_size(plane, out_width, out_height); dispc_ovl_set_output_size(dispc, plane, out_width, out_height);
dispc_ovl_set_vid_color_conv(plane, cconv); dispc_ovl_set_vid_color_conv(dispc, plane, cconv);
} }
dispc_ovl_set_rotation_attrs(plane, rotation, rotation_type, fourcc); dispc_ovl_set_rotation_attrs(dispc, plane, rotation, rotation_type,
fourcc);
dispc_ovl_set_zorder(plane, caps, zorder); dispc_ovl_set_zorder(dispc, plane, caps, zorder);
dispc_ovl_set_pre_mult_alpha(plane, caps, pre_mult_alpha); dispc_ovl_set_pre_mult_alpha(dispc, plane, caps, pre_mult_alpha);
dispc_ovl_setup_global_alpha(plane, caps, global_alpha); dispc_ovl_setup_global_alpha(dispc, plane, caps, global_alpha);
dispc_ovl_enable_replication(plane, caps, replication); dispc_ovl_enable_replication(dispc, plane, caps, replication);
return 0; return 0;
} }
...@@ -2658,9 +2747,9 @@ static int dispc_ovl_setup(struct dispc_device *dispc, ...@@ -2658,9 +2747,9 @@ static int dispc_ovl_setup(struct dispc_device *dispc,
oi->pos_y, oi->width, oi->height, oi->out_width, oi->out_height, oi->pos_y, oi->width, oi->height, oi->out_width, oi->out_height,
oi->fourcc, oi->rotation, channel, replication); oi->fourcc, oi->rotation, channel, replication);
dispc_ovl_set_channel_out(plane, channel); dispc_ovl_set_channel_out(dispc, plane, channel);
r = dispc_ovl_setup_common(plane, caps, oi->paddr, oi->p_uv_addr, r = dispc_ovl_setup_common(dispc, plane, caps, oi->paddr, oi->p_uv_addr,
oi->screen_width, oi->pos_x, oi->pos_y, oi->width, oi->height, oi->screen_width, oi->pos_x, oi->pos_y, oi->width, oi->height,
oi->out_width, oi->out_height, oi->fourcc, oi->rotation, oi->out_width, oi->out_height, oi->fourcc, oi->rotation,
oi->zorder, oi->pre_mult_alpha, oi->global_alpha, oi->zorder, oi->pre_mult_alpha, oi->global_alpha,
...@@ -2689,7 +2778,7 @@ int dispc_wb_setup(struct dispc_device *dispc, ...@@ -2689,7 +2778,7 @@ int dispc_wb_setup(struct dispc_device *dispc,
"rot %d\n", wi->paddr, wi->p_uv_addr, in_width, "rot %d\n", wi->paddr, wi->p_uv_addr, in_width,
in_height, wi->width, wi->height, wi->fourcc, wi->rotation); in_height, wi->width, wi->height, wi->fourcc, wi->rotation);
r = dispc_ovl_setup_common(plane, caps, wi->paddr, wi->p_uv_addr, r = dispc_ovl_setup_common(dispc, plane, caps, wi->paddr, wi->p_uv_addr,
wi->buf_width, pos_x, pos_y, in_width, in_height, wi->width, wi->buf_width, pos_x, pos_y, in_width, in_height, wi->width,
wi->height, wi->fourcc, wi->rotation, zorder, wi->height, wi->fourcc, wi->rotation, zorder,
wi->pre_mult_alpha, global_alpha, wi->rotation_type, wi->pre_mult_alpha, global_alpha, wi->rotation_type,
...@@ -2712,18 +2801,18 @@ int dispc_wb_setup(struct dispc_device *dispc, ...@@ -2712,18 +2801,18 @@ int dispc_wb_setup(struct dispc_device *dispc,
} }
/* setup extra DISPC_WB_ATTRIBUTES */ /* setup extra DISPC_WB_ATTRIBUTES */
l = dispc_read_reg(DISPC_OVL_ATTRIBUTES(plane)); l = dispc_read_reg(dispc, DISPC_OVL_ATTRIBUTES(plane));
l = FLD_MOD(l, truncation, 10, 10); /* TRUNCATIONENABLE */ l = FLD_MOD(l, truncation, 10, 10); /* TRUNCATIONENABLE */
l = FLD_MOD(l, mem_to_mem, 19, 19); /* WRITEBACKMODE */ l = FLD_MOD(l, mem_to_mem, 19, 19); /* WRITEBACKMODE */
if (mem_to_mem) if (mem_to_mem)
l = FLD_MOD(l, 1, 26, 24); /* CAPTUREMODE */ l = FLD_MOD(l, 1, 26, 24); /* CAPTUREMODE */
else else
l = FLD_MOD(l, 0, 26, 24); /* CAPTUREMODE */ l = FLD_MOD(l, 0, 26, 24); /* CAPTUREMODE */
dispc_write_reg(DISPC_OVL_ATTRIBUTES(plane), l); dispc_write_reg(dispc, DISPC_OVL_ATTRIBUTES(plane), l);
if (mem_to_mem) { if (mem_to_mem) {
/* WBDELAYCOUNT */ /* WBDELAYCOUNT */
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES2(plane), 0, 7, 0); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES2(plane), 0, 7, 0);
} else { } else {
int wbdelay; int wbdelay;
...@@ -2731,7 +2820,7 @@ int dispc_wb_setup(struct dispc_device *dispc, ...@@ -2731,7 +2820,7 @@ int dispc_wb_setup(struct dispc_device *dispc,
vm->vsync_len + vm->vback_porch, (u32)255); vm->vsync_len + vm->vback_porch, (u32)255);
/* WBDELAYCOUNT */ /* WBDELAYCOUNT */
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES2(plane), wbdelay, 7, 0); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES2(plane), wbdelay, 7, 0);
} }
return r; return r;
...@@ -2742,7 +2831,7 @@ static int dispc_ovl_enable(struct dispc_device *dispc, ...@@ -2742,7 +2831,7 @@ static int dispc_ovl_enable(struct dispc_device *dispc,
{ {
DSSDBG("dispc_enable_plane %d, %d\n", plane, enable); DSSDBG("dispc_enable_plane %d, %d\n", plane, enable);
REG_FLD_MOD(DISPC_OVL_ATTRIBUTES(plane), enable ? 1 : 0, 0, 0); REG_FLD_MOD(dispc, DISPC_OVL_ATTRIBUTES(plane), enable ? 1 : 0, 0, 0);
return 0; return 0;
} }
...@@ -2754,94 +2843,106 @@ dispc_mgr_get_supported_outputs(struct dispc_device *dispc, ...@@ -2754,94 +2843,106 @@ dispc_mgr_get_supported_outputs(struct dispc_device *dispc,
return dss_get_supported_outputs(dispc->dss, channel); return dss_get_supported_outputs(dispc->dss, channel);
} }
static void dispc_lcd_enable_signal_polarity(bool act_high) static void dispc_lcd_enable_signal_polarity(struct dispc_device *dispc,
bool act_high)
{ {
if (!dispc_has_feature(FEAT_LCDENABLEPOL)) if (!dispc_has_feature(dispc, FEAT_LCDENABLEPOL))
return; return;
REG_FLD_MOD(DISPC_CONTROL, act_high ? 1 : 0, 29, 29); REG_FLD_MOD(dispc, DISPC_CONTROL, act_high ? 1 : 0, 29, 29);
} }
void dispc_lcd_enable_signal(struct dispc_device *dispc, bool enable) void dispc_lcd_enable_signal(struct dispc_device *dispc, bool enable)
{ {
if (!dispc_has_feature(FEAT_LCDENABLESIGNAL)) if (!dispc_has_feature(dispc, FEAT_LCDENABLESIGNAL))
return; return;
REG_FLD_MOD(DISPC_CONTROL, enable ? 1 : 0, 28, 28); REG_FLD_MOD(dispc, DISPC_CONTROL, enable ? 1 : 0, 28, 28);
} }
void dispc_pck_free_enable(struct dispc_device *dispc, bool enable) void dispc_pck_free_enable(struct dispc_device *dispc, bool enable)
{ {
if (!dispc_has_feature(FEAT_PCKFREEENABLE)) if (!dispc_has_feature(dispc, FEAT_PCKFREEENABLE))
return; return;
REG_FLD_MOD(DISPC_CONTROL, enable ? 1 : 0, 27, 27); REG_FLD_MOD(dispc, DISPC_CONTROL, enable ? 1 : 0, 27, 27);
} }
static void dispc_mgr_enable_fifohandcheck(enum omap_channel channel, bool enable) static void dispc_mgr_enable_fifohandcheck(struct dispc_device *dispc,
enum omap_channel channel,
bool enable)
{ {
mgr_fld_write(channel, DISPC_MGR_FLD_FIFOHANDCHECK, enable); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_FIFOHANDCHECK, enable);
} }
static void dispc_mgr_set_lcd_type_tft(enum omap_channel channel) static void dispc_mgr_set_lcd_type_tft(struct dispc_device *dispc,
enum omap_channel channel)
{ {
mgr_fld_write(channel, DISPC_MGR_FLD_STNTFT, 1); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_STNTFT, 1);
} }
static void dispc_set_loadmode(enum omap_dss_load_mode mode) static void dispc_set_loadmode(struct dispc_device *dispc,
enum omap_dss_load_mode mode)
{ {
REG_FLD_MOD(DISPC_CONFIG, mode, 2, 1); REG_FLD_MOD(dispc, DISPC_CONFIG, mode, 2, 1);
} }
static void dispc_mgr_set_default_color(enum omap_channel channel, u32 color) static void dispc_mgr_set_default_color(struct dispc_device *dispc,
enum omap_channel channel, u32 color)
{ {
dispc_write_reg(DISPC_DEFAULT_COLOR(channel), color); dispc_write_reg(dispc, DISPC_DEFAULT_COLOR(channel), color);
} }
static void dispc_mgr_set_trans_key(enum omap_channel ch, static void dispc_mgr_set_trans_key(struct dispc_device *dispc,
enum omap_dss_trans_key_type type, enum omap_channel ch,
u32 trans_key) enum omap_dss_trans_key_type type,
u32 trans_key)
{ {
mgr_fld_write(ch, DISPC_MGR_FLD_TCKSELECTION, type); mgr_fld_write(dispc, ch, DISPC_MGR_FLD_TCKSELECTION, type);
dispc_write_reg(DISPC_TRANS_COLOR(ch), trans_key); dispc_write_reg(dispc, DISPC_TRANS_COLOR(ch), trans_key);
} }
static void dispc_mgr_enable_trans_key(enum omap_channel ch, bool enable) static void dispc_mgr_enable_trans_key(struct dispc_device *dispc,
enum omap_channel ch, bool enable)
{ {
mgr_fld_write(ch, DISPC_MGR_FLD_TCKENABLE, enable); mgr_fld_write(dispc, ch, DISPC_MGR_FLD_TCKENABLE, enable);
} }
static void dispc_mgr_enable_alpha_fixed_zorder(enum omap_channel ch, static void dispc_mgr_enable_alpha_fixed_zorder(struct dispc_device *dispc,
bool enable) enum omap_channel ch,
bool enable)
{ {
if (!dispc_has_feature(FEAT_ALPHA_FIXED_ZORDER)) if (!dispc_has_feature(dispc, FEAT_ALPHA_FIXED_ZORDER))
return; return;
if (ch == OMAP_DSS_CHANNEL_LCD) if (ch == OMAP_DSS_CHANNEL_LCD)
REG_FLD_MOD(DISPC_CONFIG, enable, 18, 18); REG_FLD_MOD(dispc, DISPC_CONFIG, enable, 18, 18);
else if (ch == OMAP_DSS_CHANNEL_DIGIT) else if (ch == OMAP_DSS_CHANNEL_DIGIT)
REG_FLD_MOD(DISPC_CONFIG, enable, 19, 19); REG_FLD_MOD(dispc, DISPC_CONFIG, enable, 19, 19);
} }
static void dispc_mgr_setup(struct dispc_device *dispc, static void dispc_mgr_setup(struct dispc_device *dispc,
enum omap_channel channel, enum omap_channel channel,
const struct omap_overlay_manager_info *info) const struct omap_overlay_manager_info *info)
{ {
dispc_mgr_set_default_color(channel, info->default_color); dispc_mgr_set_default_color(dispc, channel, info->default_color);
dispc_mgr_set_trans_key(channel, info->trans_key_type, info->trans_key); dispc_mgr_set_trans_key(dispc, channel, info->trans_key_type,
dispc_mgr_enable_trans_key(channel, info->trans_enabled); info->trans_key);
dispc_mgr_enable_alpha_fixed_zorder(channel, dispc_mgr_enable_trans_key(dispc, channel, info->trans_enabled);
dispc_mgr_enable_alpha_fixed_zorder(dispc, channel,
info->partial_alpha_enabled); info->partial_alpha_enabled);
if (dispc_has_feature(FEAT_CPR)) { if (dispc_has_feature(dispc, FEAT_CPR)) {
dispc_mgr_enable_cpr(channel, info->cpr_enable); dispc_mgr_enable_cpr(dispc, channel, info->cpr_enable);
dispc_mgr_set_cpr_coef(channel, &info->cpr_coefs); dispc_mgr_set_cpr_coef(dispc, channel, &info->cpr_coefs);
} }
} }
static void dispc_mgr_set_tft_data_lines(enum omap_channel channel, u8 data_lines) static void dispc_mgr_set_tft_data_lines(struct dispc_device *dispc,
enum omap_channel channel,
u8 data_lines)
{ {
int code; int code;
...@@ -2863,10 +2964,11 @@ static void dispc_mgr_set_tft_data_lines(enum omap_channel channel, u8 data_line ...@@ -2863,10 +2964,11 @@ static void dispc_mgr_set_tft_data_lines(enum omap_channel channel, u8 data_line
return; return;
} }
mgr_fld_write(channel, DISPC_MGR_FLD_TFTDATALINES, code); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_TFTDATALINES, code);
} }
static void dispc_mgr_set_io_pad_mode(enum dss_io_pad_mode mode) static void dispc_mgr_set_io_pad_mode(struct dispc_device *dispc,
enum dss_io_pad_mode mode)
{ {
u32 l; u32 l;
int gpout0, gpout1; int gpout0, gpout1;
...@@ -2889,70 +2991,74 @@ static void dispc_mgr_set_io_pad_mode(enum dss_io_pad_mode mode) ...@@ -2889,70 +2991,74 @@ static void dispc_mgr_set_io_pad_mode(enum dss_io_pad_mode mode)
return; return;
} }
l = dispc_read_reg(DISPC_CONTROL); l = dispc_read_reg(dispc, DISPC_CONTROL);
l = FLD_MOD(l, gpout0, 15, 15); l = FLD_MOD(l, gpout0, 15, 15);
l = FLD_MOD(l, gpout1, 16, 16); l = FLD_MOD(l, gpout1, 16, 16);
dispc_write_reg(DISPC_CONTROL, l); dispc_write_reg(dispc, DISPC_CONTROL, l);
} }
static void dispc_mgr_enable_stallmode(enum omap_channel channel, bool enable) static void dispc_mgr_enable_stallmode(struct dispc_device *dispc,
enum omap_channel channel, bool enable)
{ {
mgr_fld_write(channel, DISPC_MGR_FLD_STALLMODE, enable); mgr_fld_write(dispc, channel, DISPC_MGR_FLD_STALLMODE, enable);
} }
static void dispc_mgr_set_lcd_config(struct dispc_device *dispc, static void dispc_mgr_set_lcd_config(struct dispc_device *dispc,
enum omap_channel channel, enum omap_channel channel,
const struct dss_lcd_mgr_config *config) const struct dss_lcd_mgr_config *config)
{ {
dispc_mgr_set_io_pad_mode(config->io_pad_mode); dispc_mgr_set_io_pad_mode(dispc, config->io_pad_mode);
dispc_mgr_enable_stallmode(channel, config->stallmode); dispc_mgr_enable_stallmode(dispc, channel, config->stallmode);
dispc_mgr_enable_fifohandcheck(channel, config->fifohandcheck); dispc_mgr_enable_fifohandcheck(dispc, channel, config->fifohandcheck);
dispc_mgr_set_clock_div(dispc, channel, &config->clock_info); dispc_mgr_set_clock_div(dispc, channel, &config->clock_info);
dispc_mgr_set_tft_data_lines(channel, config->video_port_width); dispc_mgr_set_tft_data_lines(dispc, channel, config->video_port_width);
dispc_lcd_enable_signal_polarity(config->lcden_sig_polarity); dispc_lcd_enable_signal_polarity(dispc, config->lcden_sig_polarity);
dispc_mgr_set_lcd_type_tft(channel); dispc_mgr_set_lcd_type_tft(dispc, channel);
} }
static bool _dispc_mgr_size_ok(u16 width, u16 height) static bool _dispc_mgr_size_ok(struct dispc_device *dispc,
u16 width, u16 height)
{ {
return width <= dispc.feat->mgr_width_max && return width <= dispc->feat->mgr_width_max &&
height <= dispc.feat->mgr_height_max; height <= dispc->feat->mgr_height_max;
} }
static bool _dispc_lcd_timings_ok(int hsync_len, int hfp, int hbp, static bool _dispc_lcd_timings_ok(struct dispc_device *dispc,
int vsw, int vfp, int vbp) int hsync_len, int hfp, int hbp,
int vsw, int vfp, int vbp)
{ {
if (hsync_len < 1 || hsync_len > dispc.feat->sw_max || if (hsync_len < 1 || hsync_len > dispc->feat->sw_max ||
hfp < 1 || hfp > dispc.feat->hp_max || hfp < 1 || hfp > dispc->feat->hp_max ||
hbp < 1 || hbp > dispc.feat->hp_max || hbp < 1 || hbp > dispc->feat->hp_max ||
vsw < 1 || vsw > dispc.feat->sw_max || vsw < 1 || vsw > dispc->feat->sw_max ||
vfp < 0 || vfp > dispc.feat->vp_max || vfp < 0 || vfp > dispc->feat->vp_max ||
vbp < 0 || vbp > dispc.feat->vp_max) vbp < 0 || vbp > dispc->feat->vp_max)
return false; return false;
return true; return true;
} }
static bool _dispc_mgr_pclk_ok(enum omap_channel channel, static bool _dispc_mgr_pclk_ok(struct dispc_device *dispc,
unsigned long pclk) enum omap_channel channel,
unsigned long pclk)
{ {
if (dss_mgr_is_lcd(channel)) if (dss_mgr_is_lcd(channel))
return pclk <= dispc.feat->max_lcd_pclk; return pclk <= dispc->feat->max_lcd_pclk;
else else
return pclk <= dispc.feat->max_tv_pclk; return pclk <= dispc->feat->max_tv_pclk;
} }
bool dispc_mgr_timings_ok(struct dispc_device *dispc, enum omap_channel channel, bool dispc_mgr_timings_ok(struct dispc_device *dispc, enum omap_channel channel,
const struct videomode *vm) const struct videomode *vm)
{ {
if (!_dispc_mgr_size_ok(vm->hactive, vm->vactive)) if (!_dispc_mgr_size_ok(dispc, vm->hactive, vm->vactive))
return false; return false;
if (!_dispc_mgr_pclk_ok(channel, vm->pixelclock)) if (!_dispc_mgr_pclk_ok(dispc, channel, vm->pixelclock))
return false; return false;
if (dss_mgr_is_lcd(channel)) { if (dss_mgr_is_lcd(channel)) {
...@@ -2960,7 +3066,7 @@ bool dispc_mgr_timings_ok(struct dispc_device *dispc, enum omap_channel channel, ...@@ -2960,7 +3066,7 @@ bool dispc_mgr_timings_ok(struct dispc_device *dispc, enum omap_channel channel,
if (vm->flags & DISPLAY_FLAGS_INTERLACED) if (vm->flags & DISPLAY_FLAGS_INTERLACED)
return false; return false;
if (!_dispc_lcd_timings_ok(vm->hsync_len, if (!_dispc_lcd_timings_ok(dispc, vm->hsync_len,
vm->hfront_porch, vm->hback_porch, vm->hfront_porch, vm->hback_porch,
vm->vsync_len, vm->vfront_porch, vm->vsync_len, vm->vfront_porch,
vm->vback_porch)) vm->vback_porch))
...@@ -2970,21 +3076,22 @@ bool dispc_mgr_timings_ok(struct dispc_device *dispc, enum omap_channel channel, ...@@ -2970,21 +3076,22 @@ bool dispc_mgr_timings_ok(struct dispc_device *dispc, enum omap_channel channel,
return true; return true;
} }
static void _dispc_mgr_set_lcd_timings(enum omap_channel channel, static void _dispc_mgr_set_lcd_timings(struct dispc_device *dispc,
enum omap_channel channel,
const struct videomode *vm) const struct videomode *vm)
{ {
u32 timing_h, timing_v, l; u32 timing_h, timing_v, l;
bool onoff, rf, ipc, vs, hs, de; bool onoff, rf, ipc, vs, hs, de;
timing_h = FLD_VAL(vm->hsync_len - 1, dispc.feat->sw_start, 0) | timing_h = FLD_VAL(vm->hsync_len - 1, dispc->feat->sw_start, 0) |
FLD_VAL(vm->hfront_porch - 1, dispc.feat->fp_start, 8) | FLD_VAL(vm->hfront_porch - 1, dispc->feat->fp_start, 8) |
FLD_VAL(vm->hback_porch - 1, dispc.feat->bp_start, 20); FLD_VAL(vm->hback_porch - 1, dispc->feat->bp_start, 20);
timing_v = FLD_VAL(vm->vsync_len - 1, dispc.feat->sw_start, 0) | timing_v = FLD_VAL(vm->vsync_len - 1, dispc->feat->sw_start, 0) |
FLD_VAL(vm->vfront_porch, dispc.feat->fp_start, 8) | FLD_VAL(vm->vfront_porch, dispc->feat->fp_start, 8) |
FLD_VAL(vm->vback_porch, dispc.feat->bp_start, 20); FLD_VAL(vm->vback_porch, dispc->feat->bp_start, 20);
dispc_write_reg(DISPC_TIMING_H(channel), timing_h); dispc_write_reg(dispc, DISPC_TIMING_H(channel), timing_h);
dispc_write_reg(DISPC_TIMING_V(channel), timing_v); dispc_write_reg(dispc, DISPC_TIMING_V(channel), timing_v);
if (vm->flags & DISPLAY_FLAGS_VSYNC_HIGH) if (vm->flags & DISPLAY_FLAGS_VSYNC_HIGH)
vs = false; vs = false;
...@@ -3022,12 +3129,12 @@ static void _dispc_mgr_set_lcd_timings(enum omap_channel channel, ...@@ -3022,12 +3129,12 @@ static void _dispc_mgr_set_lcd_timings(enum omap_channel channel,
FLD_VAL(vs, 12, 12); FLD_VAL(vs, 12, 12);
/* always set ALIGN bit when available */ /* always set ALIGN bit when available */
if (dispc.feat->supports_sync_align) if (dispc->feat->supports_sync_align)
l |= (1 << 18); l |= (1 << 18);
dispc_write_reg(DISPC_POL_FREQ(channel), l); dispc_write_reg(dispc, DISPC_POL_FREQ(channel), l);
if (dispc.syscon_pol) { if (dispc->syscon_pol) {
const int shifts[] = { const int shifts[] = {
[OMAP_DSS_CHANNEL_LCD] = 0, [OMAP_DSS_CHANNEL_LCD] = 0,
[OMAP_DSS_CHANNEL_LCD2] = 1, [OMAP_DSS_CHANNEL_LCD2] = 1,
...@@ -3042,8 +3149,8 @@ static void _dispc_mgr_set_lcd_timings(enum omap_channel channel, ...@@ -3042,8 +3149,8 @@ static void _dispc_mgr_set_lcd_timings(enum omap_channel channel,
mask <<= 16 + shifts[channel]; mask <<= 16 + shifts[channel];
val <<= 16 + shifts[channel]; val <<= 16 + shifts[channel];
regmap_update_bits(dispc.syscon_pol, dispc.syscon_pol_offset, regmap_update_bits(dispc->syscon_pol, dispc->syscon_pol_offset,
mask, val); mask, val);
} }
} }
...@@ -3074,7 +3181,7 @@ static void dispc_mgr_set_timings(struct dispc_device *dispc, ...@@ -3074,7 +3181,7 @@ static void dispc_mgr_set_timings(struct dispc_device *dispc,
} }
if (dss_mgr_is_lcd(channel)) { if (dss_mgr_is_lcd(channel)) {
_dispc_mgr_set_lcd_timings(channel, &t); _dispc_mgr_set_lcd_timings(dispc, channel, &t);
xtot = t.hactive + t.hfront_porch + t.hsync_len + t.hback_porch; xtot = t.hactive + t.hfront_porch + t.hsync_len + t.hback_porch;
ytot = t.vactive + t.vfront_porch + t.vsync_len + t.vback_porch; ytot = t.vactive + t.vfront_porch + t.vsync_len + t.vback_porch;
...@@ -3099,51 +3206,53 @@ static void dispc_mgr_set_timings(struct dispc_device *dispc, ...@@ -3099,51 +3206,53 @@ static void dispc_mgr_set_timings(struct dispc_device *dispc,
t.vactive /= 2; t.vactive /= 2;
if (dispc->feat->supports_double_pixel) if (dispc->feat->supports_double_pixel)
REG_FLD_MOD(DISPC_CONTROL, REG_FLD_MOD(dispc, DISPC_CONTROL,
!!(t.flags & DISPLAY_FLAGS_DOUBLECLK), !!(t.flags & DISPLAY_FLAGS_DOUBLECLK),
19, 17); 19, 17);
} }
dispc_mgr_set_size(channel, t.hactive, t.vactive); dispc_mgr_set_size(dispc, channel, t.hactive, t.vactive);
} }
static void dispc_mgr_set_lcd_divisor(enum omap_channel channel, u16 lck_div, static void dispc_mgr_set_lcd_divisor(struct dispc_device *dispc,
u16 pck_div) enum omap_channel channel, u16 lck_div,
u16 pck_div)
{ {
BUG_ON(lck_div < 1); BUG_ON(lck_div < 1);
BUG_ON(pck_div < 1); BUG_ON(pck_div < 1);
dispc_write_reg(DISPC_DIVISORo(channel), dispc_write_reg(dispc, DISPC_DIVISORo(channel),
FLD_VAL(lck_div, 23, 16) | FLD_VAL(pck_div, 7, 0)); FLD_VAL(lck_div, 23, 16) | FLD_VAL(pck_div, 7, 0));
if (!dispc_has_feature(FEAT_CORE_CLK_DIV) && if (!dispc_has_feature(dispc, FEAT_CORE_CLK_DIV) &&
channel == OMAP_DSS_CHANNEL_LCD) channel == OMAP_DSS_CHANNEL_LCD)
dispc.core_clk_rate = dispc_fclk_rate() / lck_div; dispc->core_clk_rate = dispc_fclk_rate(dispc) / lck_div;
} }
static void dispc_mgr_get_lcd_divisor(enum omap_channel channel, int *lck_div, static void dispc_mgr_get_lcd_divisor(struct dispc_device *dispc,
int *pck_div) enum omap_channel channel, int *lck_div,
int *pck_div)
{ {
u32 l; u32 l;
l = dispc_read_reg(DISPC_DIVISORo(channel)); l = dispc_read_reg(dispc, DISPC_DIVISORo(channel));
*lck_div = FLD_GET(l, 23, 16); *lck_div = FLD_GET(l, 23, 16);
*pck_div = FLD_GET(l, 7, 0); *pck_div = FLD_GET(l, 7, 0);
} }
static unsigned long dispc_fclk_rate(void) static unsigned long dispc_fclk_rate(struct dispc_device *dispc)
{ {
unsigned long r; unsigned long r;
enum dss_clk_source src; enum dss_clk_source src;
src = dss_get_dispc_clk_source(dispc.dss); src = dss_get_dispc_clk_source(dispc->dss);
if (src == DSS_CLK_SRC_FCK) { if (src == DSS_CLK_SRC_FCK) {
r = dss_get_dispc_clk_rate(dispc.dss); r = dss_get_dispc_clk_rate(dispc->dss);
} else { } else {
struct dss_pll *pll; struct dss_pll *pll;
unsigned int clkout_idx; unsigned int clkout_idx;
pll = dss_pll_find_by_src(dispc.dss, src); pll = dss_pll_find_by_src(dispc->dss, src);
clkout_idx = dss_pll_get_clkout_idx_for_src(src); clkout_idx = dss_pll_get_clkout_idx_for_src(src);
r = pll->cinfo.clkout[clkout_idx]; r = pll->cinfo.clkout[clkout_idx];
...@@ -3152,7 +3261,8 @@ static unsigned long dispc_fclk_rate(void) ...@@ -3152,7 +3261,8 @@ static unsigned long dispc_fclk_rate(void)
return r; return r;
} }
static unsigned long dispc_mgr_lclk_rate(enum omap_channel channel) static unsigned long dispc_mgr_lclk_rate(struct dispc_device *dispc,
enum omap_channel channel)
{ {
int lcd; int lcd;
unsigned long r; unsigned long r;
...@@ -3160,28 +3270,29 @@ static unsigned long dispc_mgr_lclk_rate(enum omap_channel channel) ...@@ -3160,28 +3270,29 @@ static unsigned long dispc_mgr_lclk_rate(enum omap_channel channel)
/* for TV, LCLK rate is the FCLK rate */ /* for TV, LCLK rate is the FCLK rate */
if (!dss_mgr_is_lcd(channel)) if (!dss_mgr_is_lcd(channel))
return dispc_fclk_rate(); return dispc_fclk_rate(dispc);
src = dss_get_lcd_clk_source(dispc.dss, channel); src = dss_get_lcd_clk_source(dispc->dss, channel);
if (src == DSS_CLK_SRC_FCK) { if (src == DSS_CLK_SRC_FCK) {
r = dss_get_dispc_clk_rate(dispc.dss); r = dss_get_dispc_clk_rate(dispc->dss);
} else { } else {
struct dss_pll *pll; struct dss_pll *pll;
unsigned int clkout_idx; unsigned int clkout_idx;
pll = dss_pll_find_by_src(dispc.dss, src); pll = dss_pll_find_by_src(dispc->dss, src);
clkout_idx = dss_pll_get_clkout_idx_for_src(src); clkout_idx = dss_pll_get_clkout_idx_for_src(src);
r = pll->cinfo.clkout[clkout_idx]; r = pll->cinfo.clkout[clkout_idx];
} }
lcd = REG_GET(DISPC_DIVISORo(channel), 23, 16); lcd = REG_GET(dispc, DISPC_DIVISORo(channel), 23, 16);
return r / lcd; return r / lcd;
} }
static unsigned long dispc_mgr_pclk_rate(enum omap_channel channel) static unsigned long dispc_mgr_pclk_rate(struct dispc_device *dispc,
enum omap_channel channel)
{ {
unsigned long r; unsigned long r;
...@@ -3189,15 +3300,15 @@ static unsigned long dispc_mgr_pclk_rate(enum omap_channel channel) ...@@ -3189,15 +3300,15 @@ static unsigned long dispc_mgr_pclk_rate(enum omap_channel channel)
int pcd; int pcd;
u32 l; u32 l;
l = dispc_read_reg(DISPC_DIVISORo(channel)); l = dispc_read_reg(dispc, DISPC_DIVISORo(channel));
pcd = FLD_GET(l, 7, 0); pcd = FLD_GET(l, 7, 0);
r = dispc_mgr_lclk_rate(channel); r = dispc_mgr_lclk_rate(dispc, channel);
return r / pcd; return r / pcd;
} else { } else {
return dispc.tv_pclk_rate; return dispc->tv_pclk_rate;
} }
} }
...@@ -3206,53 +3317,57 @@ void dispc_set_tv_pclk(struct dispc_device *dispc, unsigned long pclk) ...@@ -3206,53 +3317,57 @@ void dispc_set_tv_pclk(struct dispc_device *dispc, unsigned long pclk)
dispc->tv_pclk_rate = pclk; dispc->tv_pclk_rate = pclk;
} }
static unsigned long dispc_core_clk_rate(void) static unsigned long dispc_core_clk_rate(struct dispc_device *dispc)
{ {
return dispc.core_clk_rate; return dispc->core_clk_rate;
} }
static unsigned long dispc_plane_pclk_rate(enum omap_plane_id plane) static unsigned long dispc_plane_pclk_rate(struct dispc_device *dispc,
enum omap_plane_id plane)
{ {
enum omap_channel channel; enum omap_channel channel;
if (plane == OMAP_DSS_WB) if (plane == OMAP_DSS_WB)
return 0; return 0;
channel = dispc_ovl_get_channel_out(plane); channel = dispc_ovl_get_channel_out(dispc, plane);
return dispc_mgr_pclk_rate(channel); return dispc_mgr_pclk_rate(dispc, channel);
} }
static unsigned long dispc_plane_lclk_rate(enum omap_plane_id plane) static unsigned long dispc_plane_lclk_rate(struct dispc_device *dispc,
enum omap_plane_id plane)
{ {
enum omap_channel channel; enum omap_channel channel;
if (plane == OMAP_DSS_WB) if (plane == OMAP_DSS_WB)
return 0; return 0;
channel = dispc_ovl_get_channel_out(plane); channel = dispc_ovl_get_channel_out(dispc, plane);
return dispc_mgr_lclk_rate(channel); return dispc_mgr_lclk_rate(dispc, channel);
} }
static void dispc_dump_clocks_channel(struct seq_file *s, enum omap_channel channel) static void dispc_dump_clocks_channel(struct dispc_device *dispc,
struct seq_file *s,
enum omap_channel channel)
{ {
int lcd, pcd; int lcd, pcd;
enum dss_clk_source lcd_clk_src; enum dss_clk_source lcd_clk_src;
seq_printf(s, "- %s -\n", mgr_desc[channel].name); seq_printf(s, "- %s -\n", mgr_desc[channel].name);
lcd_clk_src = dss_get_lcd_clk_source(dispc.dss, channel); lcd_clk_src = dss_get_lcd_clk_source(dispc->dss, channel);
seq_printf(s, "%s clk source = %s\n", mgr_desc[channel].name, seq_printf(s, "%s clk source = %s\n", mgr_desc[channel].name,
dss_get_clk_source_name(lcd_clk_src)); dss_get_clk_source_name(lcd_clk_src));
dispc_mgr_get_lcd_divisor(channel, &lcd, &pcd); dispc_mgr_get_lcd_divisor(dispc, channel, &lcd, &pcd);
seq_printf(s, "lck\t\t%-16lulck div\t%u\n", seq_printf(s, "lck\t\t%-16lulck div\t%u\n",
dispc_mgr_lclk_rate(channel), lcd); dispc_mgr_lclk_rate(dispc, channel), lcd);
seq_printf(s, "pck\t\t%-16lupck div\t%u\n", seq_printf(s, "pck\t\t%-16lupck div\t%u\n",
dispc_mgr_pclk_rate(channel), pcd); dispc_mgr_pclk_rate(dispc, channel), pcd);
} }
void dispc_dump_clocks(struct dispc_device *dispc, struct seq_file *s) void dispc_dump_clocks(struct dispc_device *dispc, struct seq_file *s)
...@@ -3270,29 +3385,30 @@ void dispc_dump_clocks(struct dispc_device *dispc, struct seq_file *s) ...@@ -3270,29 +3385,30 @@ void dispc_dump_clocks(struct dispc_device *dispc, struct seq_file *s)
seq_printf(s, "dispc fclk source = %s\n", seq_printf(s, "dispc fclk source = %s\n",
dss_get_clk_source_name(dispc_clk_src)); dss_get_clk_source_name(dispc_clk_src));
seq_printf(s, "fck\t\t%-16lu\n", dispc_fclk_rate()); seq_printf(s, "fck\t\t%-16lu\n", dispc_fclk_rate(dispc));
if (dispc_has_feature(FEAT_CORE_CLK_DIV)) { if (dispc_has_feature(dispc, FEAT_CORE_CLK_DIV)) {
seq_printf(s, "- DISPC-CORE-CLK -\n"); seq_printf(s, "- DISPC-CORE-CLK -\n");
l = dispc_read_reg(DISPC_DIVISOR); l = dispc_read_reg(dispc, DISPC_DIVISOR);
lcd = FLD_GET(l, 23, 16); lcd = FLD_GET(l, 23, 16);
seq_printf(s, "lck\t\t%-16lulck div\t%u\n", seq_printf(s, "lck\t\t%-16lulck div\t%u\n",
(dispc_fclk_rate()/lcd), lcd); (dispc_fclk_rate(dispc)/lcd), lcd);
} }
dispc_dump_clocks_channel(s, OMAP_DSS_CHANNEL_LCD); dispc_dump_clocks_channel(dispc, s, OMAP_DSS_CHANNEL_LCD);
if (dispc_has_feature(FEAT_MGR_LCD2)) if (dispc_has_feature(dispc, FEAT_MGR_LCD2))
dispc_dump_clocks_channel(s, OMAP_DSS_CHANNEL_LCD2); dispc_dump_clocks_channel(dispc, s, OMAP_DSS_CHANNEL_LCD2);
if (dispc_has_feature(FEAT_MGR_LCD3)) if (dispc_has_feature(dispc, FEAT_MGR_LCD3))
dispc_dump_clocks_channel(s, OMAP_DSS_CHANNEL_LCD3); dispc_dump_clocks_channel(dispc, s, OMAP_DSS_CHANNEL_LCD3);
dispc_runtime_put(dispc); dispc_runtime_put(dispc);
} }
static int dispc_dump_regs(struct seq_file *s, void *p) static int dispc_dump_regs(struct seq_file *s, void *p)
{ {
struct dispc_device *dispc = s->private;
int i, j; int i, j;
const char *mgr_names[] = { const char *mgr_names[] = {
[OMAP_DSS_CHANNEL_LCD] = "LCD", [OMAP_DSS_CHANNEL_LCD] = "LCD",
...@@ -3309,178 +3425,179 @@ static int dispc_dump_regs(struct seq_file *s, void *p) ...@@ -3309,178 +3425,179 @@ static int dispc_dump_regs(struct seq_file *s, void *p)
}; };
const char **p_names; const char **p_names;
#define DUMPREG(r) seq_printf(s, "%-50s %08x\n", #r, dispc_read_reg(r)) #define DUMPREG(dispc, r) \
seq_printf(s, "%-50s %08x\n", #r, dispc_read_reg(dispc, r))
if (dispc_runtime_get(&dispc)) if (dispc_runtime_get(dispc))
return 0; return 0;
/* DISPC common registers */ /* DISPC common registers */
DUMPREG(DISPC_REVISION); DUMPREG(dispc, DISPC_REVISION);
DUMPREG(DISPC_SYSCONFIG); DUMPREG(dispc, DISPC_SYSCONFIG);
DUMPREG(DISPC_SYSSTATUS); DUMPREG(dispc, DISPC_SYSSTATUS);
DUMPREG(DISPC_IRQSTATUS); DUMPREG(dispc, DISPC_IRQSTATUS);
DUMPREG(DISPC_IRQENABLE); DUMPREG(dispc, DISPC_IRQENABLE);
DUMPREG(DISPC_CONTROL); DUMPREG(dispc, DISPC_CONTROL);
DUMPREG(DISPC_CONFIG); DUMPREG(dispc, DISPC_CONFIG);
DUMPREG(DISPC_CAPABLE); DUMPREG(dispc, DISPC_CAPABLE);
DUMPREG(DISPC_LINE_STATUS); DUMPREG(dispc, DISPC_LINE_STATUS);
DUMPREG(DISPC_LINE_NUMBER); DUMPREG(dispc, DISPC_LINE_NUMBER);
if (dispc_has_feature(FEAT_ALPHA_FIXED_ZORDER) || if (dispc_has_feature(dispc, FEAT_ALPHA_FIXED_ZORDER) ||
dispc_has_feature(FEAT_ALPHA_FREE_ZORDER)) dispc_has_feature(dispc, FEAT_ALPHA_FREE_ZORDER))
DUMPREG(DISPC_GLOBAL_ALPHA); DUMPREG(dispc, DISPC_GLOBAL_ALPHA);
if (dispc_has_feature(FEAT_MGR_LCD2)) { if (dispc_has_feature(dispc, FEAT_MGR_LCD2)) {
DUMPREG(DISPC_CONTROL2); DUMPREG(dispc, DISPC_CONTROL2);
DUMPREG(DISPC_CONFIG2); DUMPREG(dispc, DISPC_CONFIG2);
} }
if (dispc_has_feature(FEAT_MGR_LCD3)) { if (dispc_has_feature(dispc, FEAT_MGR_LCD3)) {
DUMPREG(DISPC_CONTROL3); DUMPREG(dispc, DISPC_CONTROL3);
DUMPREG(DISPC_CONFIG3); DUMPREG(dispc, DISPC_CONFIG3);
} }
if (dispc_has_feature(FEAT_MFLAG)) if (dispc_has_feature(dispc, FEAT_MFLAG))
DUMPREG(DISPC_GLOBAL_MFLAG_ATTRIBUTE); DUMPREG(dispc, DISPC_GLOBAL_MFLAG_ATTRIBUTE);
#undef DUMPREG #undef DUMPREG
#define DISPC_REG(i, name) name(i) #define DISPC_REG(i, name) name(i)
#define DUMPREG(i, r) seq_printf(s, "%s(%s)%*s %08x\n", #r, p_names[i], \ #define DUMPREG(dispc, i, r) seq_printf(s, "%s(%s)%*s %08x\n", #r, p_names[i], \
(int)(48 - strlen(#r) - strlen(p_names[i])), " ", \ (int)(48 - strlen(#r) - strlen(p_names[i])), " ", \
dispc_read_reg(DISPC_REG(i, r))) dispc_read_reg(dispc, DISPC_REG(i, r)))
p_names = mgr_names; p_names = mgr_names;
/* DISPC channel specific registers */ /* DISPC channel specific registers */
for (i = 0; i < dispc_get_num_mgrs(&dispc); i++) { for (i = 0; i < dispc_get_num_mgrs(dispc); i++) {
DUMPREG(i, DISPC_DEFAULT_COLOR); DUMPREG(dispc, i, DISPC_DEFAULT_COLOR);
DUMPREG(i, DISPC_TRANS_COLOR); DUMPREG(dispc, i, DISPC_TRANS_COLOR);
DUMPREG(i, DISPC_SIZE_MGR); DUMPREG(dispc, i, DISPC_SIZE_MGR);
if (i == OMAP_DSS_CHANNEL_DIGIT) if (i == OMAP_DSS_CHANNEL_DIGIT)
continue; continue;
DUMPREG(i, DISPC_TIMING_H); DUMPREG(dispc, i, DISPC_TIMING_H);
DUMPREG(i, DISPC_TIMING_V); DUMPREG(dispc, i, DISPC_TIMING_V);
DUMPREG(i, DISPC_POL_FREQ); DUMPREG(dispc, i, DISPC_POL_FREQ);
DUMPREG(i, DISPC_DIVISORo); DUMPREG(dispc, i, DISPC_DIVISORo);
DUMPREG(i, DISPC_DATA_CYCLE1); DUMPREG(dispc, i, DISPC_DATA_CYCLE1);
DUMPREG(i, DISPC_DATA_CYCLE2); DUMPREG(dispc, i, DISPC_DATA_CYCLE2);
DUMPREG(i, DISPC_DATA_CYCLE3); DUMPREG(dispc, i, DISPC_DATA_CYCLE3);
if (dispc_has_feature(FEAT_CPR)) { if (dispc_has_feature(dispc, FEAT_CPR)) {
DUMPREG(i, DISPC_CPR_COEF_R); DUMPREG(dispc, i, DISPC_CPR_COEF_R);
DUMPREG(i, DISPC_CPR_COEF_G); DUMPREG(dispc, i, DISPC_CPR_COEF_G);
DUMPREG(i, DISPC_CPR_COEF_B); DUMPREG(dispc, i, DISPC_CPR_COEF_B);
} }
} }
p_names = ovl_names; p_names = ovl_names;
for (i = 0; i < dispc_get_num_ovls(&dispc); i++) { for (i = 0; i < dispc_get_num_ovls(dispc); i++) {
DUMPREG(i, DISPC_OVL_BA0); DUMPREG(dispc, i, DISPC_OVL_BA0);
DUMPREG(i, DISPC_OVL_BA1); DUMPREG(dispc, i, DISPC_OVL_BA1);
DUMPREG(i, DISPC_OVL_POSITION); DUMPREG(dispc, i, DISPC_OVL_POSITION);
DUMPREG(i, DISPC_OVL_SIZE); DUMPREG(dispc, i, DISPC_OVL_SIZE);
DUMPREG(i, DISPC_OVL_ATTRIBUTES); DUMPREG(dispc, i, DISPC_OVL_ATTRIBUTES);
DUMPREG(i, DISPC_OVL_FIFO_THRESHOLD); DUMPREG(dispc, i, DISPC_OVL_FIFO_THRESHOLD);
DUMPREG(i, DISPC_OVL_FIFO_SIZE_STATUS); DUMPREG(dispc, i, DISPC_OVL_FIFO_SIZE_STATUS);
DUMPREG(i, DISPC_OVL_ROW_INC); DUMPREG(dispc, i, DISPC_OVL_ROW_INC);
DUMPREG(i, DISPC_OVL_PIXEL_INC); DUMPREG(dispc, i, DISPC_OVL_PIXEL_INC);
if (dispc_has_feature(FEAT_PRELOAD)) if (dispc_has_feature(dispc, FEAT_PRELOAD))
DUMPREG(i, DISPC_OVL_PRELOAD); DUMPREG(dispc, i, DISPC_OVL_PRELOAD);
if (dispc_has_feature(FEAT_MFLAG)) if (dispc_has_feature(dispc, FEAT_MFLAG))
DUMPREG(i, DISPC_OVL_MFLAG_THRESHOLD); DUMPREG(dispc, i, DISPC_OVL_MFLAG_THRESHOLD);
if (i == OMAP_DSS_GFX) { if (i == OMAP_DSS_GFX) {
DUMPREG(i, DISPC_OVL_WINDOW_SKIP); DUMPREG(dispc, i, DISPC_OVL_WINDOW_SKIP);
DUMPREG(i, DISPC_OVL_TABLE_BA); DUMPREG(dispc, i, DISPC_OVL_TABLE_BA);
continue; continue;
} }
DUMPREG(i, DISPC_OVL_FIR); DUMPREG(dispc, i, DISPC_OVL_FIR);
DUMPREG(i, DISPC_OVL_PICTURE_SIZE); DUMPREG(dispc, i, DISPC_OVL_PICTURE_SIZE);
DUMPREG(i, DISPC_OVL_ACCU0); DUMPREG(dispc, i, DISPC_OVL_ACCU0);
DUMPREG(i, DISPC_OVL_ACCU1); DUMPREG(dispc, i, DISPC_OVL_ACCU1);
if (dispc_has_feature(FEAT_HANDLE_UV_SEPARATE)) { if (dispc_has_feature(dispc, FEAT_HANDLE_UV_SEPARATE)) {
DUMPREG(i, DISPC_OVL_BA0_UV); DUMPREG(dispc, i, DISPC_OVL_BA0_UV);
DUMPREG(i, DISPC_OVL_BA1_UV); DUMPREG(dispc, i, DISPC_OVL_BA1_UV);
DUMPREG(i, DISPC_OVL_FIR2); DUMPREG(dispc, i, DISPC_OVL_FIR2);
DUMPREG(i, DISPC_OVL_ACCU2_0); DUMPREG(dispc, i, DISPC_OVL_ACCU2_0);
DUMPREG(i, DISPC_OVL_ACCU2_1); DUMPREG(dispc, i, DISPC_OVL_ACCU2_1);
} }
if (dispc_has_feature(FEAT_ATTR2)) if (dispc_has_feature(dispc, FEAT_ATTR2))
DUMPREG(i, DISPC_OVL_ATTRIBUTES2); DUMPREG(dispc, i, DISPC_OVL_ATTRIBUTES2);
} }
if (dispc.feat->has_writeback) { if (dispc->feat->has_writeback) {
i = OMAP_DSS_WB; i = OMAP_DSS_WB;
DUMPREG(i, DISPC_OVL_BA0); DUMPREG(dispc, i, DISPC_OVL_BA0);
DUMPREG(i, DISPC_OVL_BA1); DUMPREG(dispc, i, DISPC_OVL_BA1);
DUMPREG(i, DISPC_OVL_SIZE); DUMPREG(dispc, i, DISPC_OVL_SIZE);
DUMPREG(i, DISPC_OVL_ATTRIBUTES); DUMPREG(dispc, i, DISPC_OVL_ATTRIBUTES);
DUMPREG(i, DISPC_OVL_FIFO_THRESHOLD); DUMPREG(dispc, i, DISPC_OVL_FIFO_THRESHOLD);
DUMPREG(i, DISPC_OVL_FIFO_SIZE_STATUS); DUMPREG(dispc, i, DISPC_OVL_FIFO_SIZE_STATUS);
DUMPREG(i, DISPC_OVL_ROW_INC); DUMPREG(dispc, i, DISPC_OVL_ROW_INC);
DUMPREG(i, DISPC_OVL_PIXEL_INC); DUMPREG(dispc, i, DISPC_OVL_PIXEL_INC);
if (dispc_has_feature(FEAT_MFLAG)) if (dispc_has_feature(dispc, FEAT_MFLAG))
DUMPREG(i, DISPC_OVL_MFLAG_THRESHOLD); DUMPREG(dispc, i, DISPC_OVL_MFLAG_THRESHOLD);
DUMPREG(i, DISPC_OVL_FIR); DUMPREG(dispc, i, DISPC_OVL_FIR);
DUMPREG(i, DISPC_OVL_PICTURE_SIZE); DUMPREG(dispc, i, DISPC_OVL_PICTURE_SIZE);
DUMPREG(i, DISPC_OVL_ACCU0); DUMPREG(dispc, i, DISPC_OVL_ACCU0);
DUMPREG(i, DISPC_OVL_ACCU1); DUMPREG(dispc, i, DISPC_OVL_ACCU1);
if (dispc_has_feature(FEAT_HANDLE_UV_SEPARATE)) { if (dispc_has_feature(dispc, FEAT_HANDLE_UV_SEPARATE)) {
DUMPREG(i, DISPC_OVL_BA0_UV); DUMPREG(dispc, i, DISPC_OVL_BA0_UV);
DUMPREG(i, DISPC_OVL_BA1_UV); DUMPREG(dispc, i, DISPC_OVL_BA1_UV);
DUMPREG(i, DISPC_OVL_FIR2); DUMPREG(dispc, i, DISPC_OVL_FIR2);
DUMPREG(i, DISPC_OVL_ACCU2_0); DUMPREG(dispc, i, DISPC_OVL_ACCU2_0);
DUMPREG(i, DISPC_OVL_ACCU2_1); DUMPREG(dispc, i, DISPC_OVL_ACCU2_1);
} }
if (dispc_has_feature(FEAT_ATTR2)) if (dispc_has_feature(dispc, FEAT_ATTR2))
DUMPREG(i, DISPC_OVL_ATTRIBUTES2); DUMPREG(dispc, i, DISPC_OVL_ATTRIBUTES2);
} }
#undef DISPC_REG #undef DISPC_REG
#undef DUMPREG #undef DUMPREG
#define DISPC_REG(plane, name, i) name(plane, i) #define DISPC_REG(plane, name, i) name(plane, i)
#define DUMPREG(plane, name, i) \ #define DUMPREG(dispc, plane, name, i) \
seq_printf(s, "%s_%d(%s)%*s %08x\n", #name, i, p_names[plane], \ seq_printf(s, "%s_%d(%s)%*s %08x\n", #name, i, p_names[plane], \
(int)(46 - strlen(#name) - strlen(p_names[plane])), " ", \ (int)(46 - strlen(#name) - strlen(p_names[plane])), " ", \
dispc_read_reg(DISPC_REG(plane, name, i))) dispc_read_reg(dispc, DISPC_REG(plane, name, i)))
/* Video pipeline coefficient registers */ /* Video pipeline coefficient registers */
/* start from OMAP_DSS_VIDEO1 */ /* start from OMAP_DSS_VIDEO1 */
for (i = 1; i < dispc_get_num_ovls(&dispc); i++) { for (i = 1; i < dispc_get_num_ovls(dispc); i++) {
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
DUMPREG(i, DISPC_OVL_FIR_COEF_H, j); DUMPREG(dispc, i, DISPC_OVL_FIR_COEF_H, j);
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
DUMPREG(i, DISPC_OVL_FIR_COEF_HV, j); DUMPREG(dispc, i, DISPC_OVL_FIR_COEF_HV, j);
for (j = 0; j < 5; j++) for (j = 0; j < 5; j++)
DUMPREG(i, DISPC_OVL_CONV_COEF, j); DUMPREG(dispc, i, DISPC_OVL_CONV_COEF, j);
if (dispc_has_feature(FEAT_FIR_COEF_V)) { if (dispc_has_feature(dispc, FEAT_FIR_COEF_V)) {
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
DUMPREG(i, DISPC_OVL_FIR_COEF_V, j); DUMPREG(dispc, i, DISPC_OVL_FIR_COEF_V, j);
} }
if (dispc_has_feature(FEAT_HANDLE_UV_SEPARATE)) { if (dispc_has_feature(dispc, FEAT_HANDLE_UV_SEPARATE)) {
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
DUMPREG(i, DISPC_OVL_FIR_COEF_H2, j); DUMPREG(dispc, i, DISPC_OVL_FIR_COEF_H2, j);
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
DUMPREG(i, DISPC_OVL_FIR_COEF_HV2, j); DUMPREG(dispc, i, DISPC_OVL_FIR_COEF_HV2, j);
for (j = 0; j < 8; j++) for (j = 0; j < 8; j++)
DUMPREG(i, DISPC_OVL_FIR_COEF_V2, j); DUMPREG(dispc, i, DISPC_OVL_FIR_COEF_V2, j);
} }
} }
dispc_runtime_put(&dispc); dispc_runtime_put(dispc);
#undef DISPC_REG #undef DISPC_REG
#undef DUMPREG #undef DUMPREG
...@@ -3548,8 +3665,8 @@ bool dispc_div_calc(struct dispc_device *dispc, unsigned long dispc_freq, ...@@ -3548,8 +3665,8 @@ bool dispc_div_calc(struct dispc_device *dispc, unsigned long dispc_freq,
* also. Thus we need to use the calculated lck. For * also. Thus we need to use the calculated lck. For
* OMAP4+ the DISPC fclk is a separate clock. * OMAP4+ the DISPC fclk is a separate clock.
*/ */
if (dispc_has_feature(FEAT_CORE_CLK_DIV)) if (dispc_has_feature(dispc, FEAT_CORE_CLK_DIV))
fck = dispc_core_clk_rate(); fck = dispc_core_clk_rate(dispc);
else else
fck = lck; fck = lck;
...@@ -3571,7 +3688,8 @@ void dispc_mgr_set_clock_div(struct dispc_device *dispc, ...@@ -3571,7 +3688,8 @@ void dispc_mgr_set_clock_div(struct dispc_device *dispc,
DSSDBG("lck = %lu (%u)\n", cinfo->lck, cinfo->lck_div); DSSDBG("lck = %lu (%u)\n", cinfo->lck, cinfo->lck_div);
DSSDBG("pck = %lu (%u)\n", cinfo->pck, cinfo->pck_div); DSSDBG("pck = %lu (%u)\n", cinfo->pck, cinfo->pck_div);
dispc_mgr_set_lcd_divisor(channel, cinfo->lck_div, cinfo->pck_div); dispc_mgr_set_lcd_divisor(dispc, channel, cinfo->lck_div,
cinfo->pck_div);
} }
int dispc_mgr_get_clock_div(struct dispc_device *dispc, int dispc_mgr_get_clock_div(struct dispc_device *dispc,
...@@ -3580,10 +3698,10 @@ int dispc_mgr_get_clock_div(struct dispc_device *dispc, ...@@ -3580,10 +3698,10 @@ int dispc_mgr_get_clock_div(struct dispc_device *dispc,
{ {
unsigned long fck; unsigned long fck;
fck = dispc_fclk_rate(); fck = dispc_fclk_rate(dispc);
cinfo->lck_div = REG_GET(DISPC_DIVISORo(channel), 23, 16); cinfo->lck_div = REG_GET(dispc, DISPC_DIVISORo(channel), 23, 16);
cinfo->pck_div = REG_GET(DISPC_DIVISORo(channel), 7, 0); cinfo->pck_div = REG_GET(dispc, DISPC_DIVISORo(channel), 7, 0);
cinfo->lck = fck / cinfo->lck_div; cinfo->lck = fck / cinfo->lck_div;
cinfo->pck = cinfo->lck / cinfo->pck_div; cinfo->pck = cinfo->lck / cinfo->pck_div;
...@@ -3593,35 +3711,36 @@ int dispc_mgr_get_clock_div(struct dispc_device *dispc, ...@@ -3593,35 +3711,36 @@ int dispc_mgr_get_clock_div(struct dispc_device *dispc,
static u32 dispc_read_irqstatus(struct dispc_device *dispc) static u32 dispc_read_irqstatus(struct dispc_device *dispc)
{ {
return dispc_read_reg(DISPC_IRQSTATUS); return dispc_read_reg(dispc, DISPC_IRQSTATUS);
} }
static void dispc_clear_irqstatus(struct dispc_device *dispc, u32 mask) static void dispc_clear_irqstatus(struct dispc_device *dispc, u32 mask)
{ {
dispc_write_reg(DISPC_IRQSTATUS, mask); dispc_write_reg(dispc, DISPC_IRQSTATUS, mask);
} }
static void dispc_write_irqenable(struct dispc_device *dispc, u32 mask) static void dispc_write_irqenable(struct dispc_device *dispc, u32 mask)
{ {
u32 old_mask = dispc_read_reg(DISPC_IRQENABLE); u32 old_mask = dispc_read_reg(dispc, DISPC_IRQENABLE);
/* clear the irqstatus for newly enabled irqs */ /* clear the irqstatus for newly enabled irqs */
dispc_clear_irqstatus(dispc, (mask ^ old_mask) & mask); dispc_clear_irqstatus(dispc, (mask ^ old_mask) & mask);
dispc_write_reg(DISPC_IRQENABLE, mask); dispc_write_reg(dispc, DISPC_IRQENABLE, mask);
/* flush posted write */ /* flush posted write */
dispc_read_reg(DISPC_IRQENABLE); dispc_read_reg(dispc, DISPC_IRQENABLE);
} }
void dispc_enable_sidle(struct dispc_device *dispc) void dispc_enable_sidle(struct dispc_device *dispc)
{ {
REG_FLD_MOD(DISPC_SYSCONFIG, 2, 4, 3); /* SIDLEMODE: smart idle */ /* SIDLEMODE: smart idle */
REG_FLD_MOD(dispc, DISPC_SYSCONFIG, 2, 4, 3);
} }
void dispc_disable_sidle(struct dispc_device *dispc) void dispc_disable_sidle(struct dispc_device *dispc)
{ {
REG_FLD_MOD(DISPC_SYSCONFIG, 1, 4, 3); /* SIDLEMODE: no idle */ REG_FLD_MOD(dispc, DISPC_SYSCONFIG, 1, 4, 3); /* SIDLEMODE: no idle */
} }
static u32 dispc_mgr_gamma_size(struct dispc_device *dispc, static u32 dispc_mgr_gamma_size(struct dispc_device *dispc,
...@@ -3635,10 +3754,11 @@ static u32 dispc_mgr_gamma_size(struct dispc_device *dispc, ...@@ -3635,10 +3754,11 @@ static u32 dispc_mgr_gamma_size(struct dispc_device *dispc,
return gdesc->len; return gdesc->len;
} }
static void dispc_mgr_write_gamma_table(enum omap_channel channel) static void dispc_mgr_write_gamma_table(struct dispc_device *dispc,
enum omap_channel channel)
{ {
const struct dispc_gamma_desc *gdesc = &mgr_desc[channel].gamma; const struct dispc_gamma_desc *gdesc = &mgr_desc[channel].gamma;
u32 *table = dispc.gamma_table[channel]; u32 *table = dispc->gamma_table[channel];
unsigned int i; unsigned int i;
DSSDBG("%s: channel %d\n", __func__, channel); DSSDBG("%s: channel %d\n", __func__, channel);
...@@ -3651,26 +3771,26 @@ static void dispc_mgr_write_gamma_table(enum omap_channel channel) ...@@ -3651,26 +3771,26 @@ static void dispc_mgr_write_gamma_table(enum omap_channel channel)
else if (i == 0) else if (i == 0)
v |= 1 << 31; v |= 1 << 31;
dispc_write_reg(gdesc->reg, v); dispc_write_reg(dispc, gdesc->reg, v);
} }
} }
static void dispc_restore_gamma_tables(void) static void dispc_restore_gamma_tables(struct dispc_device *dispc)
{ {
DSSDBG("%s()\n", __func__); DSSDBG("%s()\n", __func__);
if (!dispc.feat->has_gamma_table) if (!dispc->feat->has_gamma_table)
return; return;
dispc_mgr_write_gamma_table(OMAP_DSS_CHANNEL_LCD); dispc_mgr_write_gamma_table(dispc, OMAP_DSS_CHANNEL_LCD);
dispc_mgr_write_gamma_table(OMAP_DSS_CHANNEL_DIGIT); dispc_mgr_write_gamma_table(dispc, OMAP_DSS_CHANNEL_DIGIT);
if (dispc_has_feature(FEAT_MGR_LCD2)) if (dispc_has_feature(dispc, FEAT_MGR_LCD2))
dispc_mgr_write_gamma_table(OMAP_DSS_CHANNEL_LCD2); dispc_mgr_write_gamma_table(dispc, OMAP_DSS_CHANNEL_LCD2);
if (dispc_has_feature(FEAT_MGR_LCD3)) if (dispc_has_feature(dispc, FEAT_MGR_LCD3))
dispc_mgr_write_gamma_table(OMAP_DSS_CHANNEL_LCD3); dispc_mgr_write_gamma_table(dispc, OMAP_DSS_CHANNEL_LCD3);
} }
static const struct drm_color_lut dispc_mgr_gamma_default_lut[] = { static const struct drm_color_lut dispc_mgr_gamma_default_lut[] = {
...@@ -3723,81 +3843,82 @@ static void dispc_mgr_set_gamma(struct dispc_device *dispc, ...@@ -3723,81 +3843,82 @@ static void dispc_mgr_set_gamma(struct dispc_device *dispc,
} }
if (dispc->is_enabled) if (dispc->is_enabled)
dispc_mgr_write_gamma_table(channel); dispc_mgr_write_gamma_table(dispc, channel);
} }
static int dispc_init_gamma_tables(void) static int dispc_init_gamma_tables(struct dispc_device *dispc)
{ {
int channel; int channel;
if (!dispc.feat->has_gamma_table) if (!dispc->feat->has_gamma_table)
return 0; return 0;
for (channel = 0; channel < ARRAY_SIZE(dispc.gamma_table); channel++) { for (channel = 0; channel < ARRAY_SIZE(dispc->gamma_table); channel++) {
const struct dispc_gamma_desc *gdesc = &mgr_desc[channel].gamma; const struct dispc_gamma_desc *gdesc = &mgr_desc[channel].gamma;
u32 *gt; u32 *gt;
if (channel == OMAP_DSS_CHANNEL_LCD2 && if (channel == OMAP_DSS_CHANNEL_LCD2 &&
!dispc_has_feature(FEAT_MGR_LCD2)) !dispc_has_feature(dispc, FEAT_MGR_LCD2))
continue; continue;
if (channel == OMAP_DSS_CHANNEL_LCD3 && if (channel == OMAP_DSS_CHANNEL_LCD3 &&
!dispc_has_feature(FEAT_MGR_LCD3)) !dispc_has_feature(dispc, FEAT_MGR_LCD3))
continue; continue;
gt = devm_kmalloc_array(&dispc.pdev->dev, gdesc->len, gt = devm_kmalloc_array(&dispc->pdev->dev, gdesc->len,
sizeof(u32), GFP_KERNEL); sizeof(u32), GFP_KERNEL);
if (!gt) if (!gt)
return -ENOMEM; return -ENOMEM;
dispc.gamma_table[channel] = gt; dispc->gamma_table[channel] = gt;
dispc_mgr_set_gamma(&dispc, channel, NULL, 0); dispc_mgr_set_gamma(dispc, channel, NULL, 0);
} }
return 0; return 0;
} }
static void _omap_dispc_initial_config(void) static void _omap_dispc_initial_config(struct dispc_device *dispc)
{ {
u32 l; u32 l;
/* Exclusively enable DISPC_CORE_CLK and set divider to 1 */ /* Exclusively enable DISPC_CORE_CLK and set divider to 1 */
if (dispc_has_feature(FEAT_CORE_CLK_DIV)) { if (dispc_has_feature(dispc, FEAT_CORE_CLK_DIV)) {
l = dispc_read_reg(DISPC_DIVISOR); l = dispc_read_reg(dispc, DISPC_DIVISOR);
/* Use DISPC_DIVISOR.LCD, instead of DISPC_DIVISOR1.LCD */ /* Use DISPC_DIVISOR.LCD, instead of DISPC_DIVISOR1.LCD */
l = FLD_MOD(l, 1, 0, 0); l = FLD_MOD(l, 1, 0, 0);
l = FLD_MOD(l, 1, 23, 16); l = FLD_MOD(l, 1, 23, 16);
dispc_write_reg(DISPC_DIVISOR, l); dispc_write_reg(dispc, DISPC_DIVISOR, l);
dispc.core_clk_rate = dispc_fclk_rate(); dispc->core_clk_rate = dispc_fclk_rate(dispc);
} }
/* Use gamma table mode, instead of palette mode */ /* Use gamma table mode, instead of palette mode */
if (dispc.feat->has_gamma_table) if (dispc->feat->has_gamma_table)
REG_FLD_MOD(DISPC_CONFIG, 1, 3, 3); REG_FLD_MOD(dispc, DISPC_CONFIG, 1, 3, 3);
/* For older DSS versions (FEAT_FUNCGATED) this enables /* For older DSS versions (FEAT_FUNCGATED) this enables
* func-clock auto-gating. For newer versions * func-clock auto-gating. For newer versions
* (dispc.feat->has_gamma_table) this enables tv-out gamma tables. * (dispc->feat->has_gamma_table) this enables tv-out gamma tables.
*/ */
if (dispc_has_feature(FEAT_FUNCGATED) || dispc.feat->has_gamma_table) if (dispc_has_feature(dispc, FEAT_FUNCGATED) ||
REG_FLD_MOD(DISPC_CONFIG, 1, 9, 9); dispc->feat->has_gamma_table)
REG_FLD_MOD(dispc, DISPC_CONFIG, 1, 9, 9);
dispc_setup_color_conv_coef(); dispc_setup_color_conv_coef(dispc);
dispc_set_loadmode(OMAP_DSS_LOAD_FRAME_ONLY); dispc_set_loadmode(dispc, OMAP_DSS_LOAD_FRAME_ONLY);
dispc_init_fifos(); dispc_init_fifos(dispc);
dispc_configure_burst_sizes(); dispc_configure_burst_sizes(dispc);
dispc_ovl_enable_zorder_planes(); dispc_ovl_enable_zorder_planes(dispc);
if (dispc.feat->mstandby_workaround) if (dispc->feat->mstandby_workaround)
REG_FLD_MOD(DISPC_MSTANDBY_CTRL, 1, 0, 0); REG_FLD_MOD(dispc, DISPC_MSTANDBY_CTRL, 1, 0, 0);
if (dispc_has_feature(FEAT_MFLAG)) if (dispc_has_feature(dispc, FEAT_MFLAG))
dispc_init_mflag(); dispc_init_mflag(dispc);
} }
static const enum dispc_feature_id omap2_dispc_features_list[] = { static const enum dispc_feature_id omap2_dispc_features_list[] = {
...@@ -4316,10 +4437,12 @@ static const struct dispc_features omap54xx_dispc_feats = { ...@@ -4316,10 +4437,12 @@ static const struct dispc_features omap54xx_dispc_feats = {
static irqreturn_t dispc_irq_handler(int irq, void *arg) static irqreturn_t dispc_irq_handler(int irq, void *arg)
{ {
if (!dispc.is_enabled) struct dispc_device *dispc = arg;
if (!dispc->is_enabled)
return IRQ_NONE; return IRQ_NONE;
return dispc.user_handler(irq, dispc.user_data); return dispc->user_handler(irq, dispc->user_data);
} }
static int dispc_request_irq(struct dispc_device *dispc, irq_handler_t handler, static int dispc_request_irq(struct dispc_device *dispc, irq_handler_t handler,
...@@ -4436,18 +4559,19 @@ static struct i734_buf { ...@@ -4436,18 +4559,19 @@ static struct i734_buf {
void *vaddr; void *vaddr;
} i734_buf; } i734_buf;
static int dispc_errata_i734_wa_init(void) static int dispc_errata_i734_wa_init(struct dispc_device *dispc)
{ {
if (!dispc.feat->has_gamma_i734_bug) if (!dispc->feat->has_gamma_i734_bug)
return 0; return 0;
i734_buf.size = i734.ovli.width * i734.ovli.height * i734_buf.size = i734.ovli.width * i734.ovli.height *
color_mode_to_bpp(i734.ovli.fourcc) / 8; color_mode_to_bpp(i734.ovli.fourcc) / 8;
i734_buf.vaddr = dma_alloc_writecombine(&dispc.pdev->dev, i734_buf.size, i734_buf.vaddr = dma_alloc_writecombine(&dispc->pdev->dev,
&i734_buf.paddr, GFP_KERNEL); i734_buf.size, &i734_buf.paddr,
GFP_KERNEL);
if (!i734_buf.vaddr) { if (!i734_buf.vaddr) {
dev_err(&dispc.pdev->dev, "%s: dma_alloc_writecombine failed", dev_err(&dispc->pdev->dev, "%s: dma_alloc_writecombine failed",
__func__); __func__);
return -ENOMEM; return -ENOMEM;
} }
...@@ -4455,73 +4579,73 @@ static int dispc_errata_i734_wa_init(void) ...@@ -4455,73 +4579,73 @@ static int dispc_errata_i734_wa_init(void)
return 0; return 0;
} }
static void dispc_errata_i734_wa_fini(void) static void dispc_errata_i734_wa_fini(struct dispc_device *dispc)
{ {
if (!dispc.feat->has_gamma_i734_bug) if (!dispc->feat->has_gamma_i734_bug)
return; return;
dma_free_writecombine(&dispc.pdev->dev, i734_buf.size, i734_buf.vaddr, dma_free_writecombine(&dispc->pdev->dev, i734_buf.size, i734_buf.vaddr,
i734_buf.paddr); i734_buf.paddr);
} }
static void dispc_errata_i734_wa(void) static void dispc_errata_i734_wa(struct dispc_device *dispc)
{ {
u32 framedone_irq = dispc_mgr_get_framedone_irq(&dispc, u32 framedone_irq = dispc_mgr_get_framedone_irq(dispc,
OMAP_DSS_CHANNEL_LCD); OMAP_DSS_CHANNEL_LCD);
struct omap_overlay_info ovli; struct omap_overlay_info ovli;
struct dss_lcd_mgr_config lcd_conf; struct dss_lcd_mgr_config lcd_conf;
u32 gatestate; u32 gatestate;
unsigned int count; unsigned int count;
if (!dispc.feat->has_gamma_i734_bug) if (!dispc->feat->has_gamma_i734_bug)
return; return;
gatestate = REG_GET(DISPC_CONFIG, 8, 4); gatestate = REG_GET(dispc, DISPC_CONFIG, 8, 4);
ovli = i734.ovli; ovli = i734.ovli;
ovli.paddr = i734_buf.paddr; ovli.paddr = i734_buf.paddr;
lcd_conf = i734.lcd_conf; lcd_conf = i734.lcd_conf;
/* Gate all LCD1 outputs */ /* Gate all LCD1 outputs */
REG_FLD_MOD(DISPC_CONFIG, 0x1f, 8, 4); REG_FLD_MOD(dispc, DISPC_CONFIG, 0x1f, 8, 4);
/* Setup and enable GFX plane */ /* Setup and enable GFX plane */
dispc_ovl_setup(&dispc, OMAP_DSS_GFX, &ovli, &i734.vm, false, dispc_ovl_setup(dispc, OMAP_DSS_GFX, &ovli, &i734.vm, false,
OMAP_DSS_CHANNEL_LCD); OMAP_DSS_CHANNEL_LCD);
dispc_ovl_enable(&dispc, OMAP_DSS_GFX, true); dispc_ovl_enable(dispc, OMAP_DSS_GFX, true);
/* Set up and enable display manager for LCD1 */ /* Set up and enable display manager for LCD1 */
dispc_mgr_setup(&dispc, OMAP_DSS_CHANNEL_LCD, &i734.mgri); dispc_mgr_setup(dispc, OMAP_DSS_CHANNEL_LCD, &i734.mgri);
dispc_calc_clock_rates(&dispc, dss_get_dispc_clk_rate(dispc.dss), dispc_calc_clock_rates(dispc, dss_get_dispc_clk_rate(dispc->dss),
&lcd_conf.clock_info); &lcd_conf.clock_info);
dispc_mgr_set_lcd_config(&dispc, OMAP_DSS_CHANNEL_LCD, &lcd_conf); dispc_mgr_set_lcd_config(dispc, OMAP_DSS_CHANNEL_LCD, &lcd_conf);
dispc_mgr_set_timings(&dispc, OMAP_DSS_CHANNEL_LCD, &i734.vm); dispc_mgr_set_timings(dispc, OMAP_DSS_CHANNEL_LCD, &i734.vm);
dispc_clear_irqstatus(&dispc, framedone_irq); dispc_clear_irqstatus(dispc, framedone_irq);
/* Enable and shut the channel to produce just one frame */ /* Enable and shut the channel to produce just one frame */
dispc_mgr_enable(&dispc, OMAP_DSS_CHANNEL_LCD, true); dispc_mgr_enable(dispc, OMAP_DSS_CHANNEL_LCD, true);
dispc_mgr_enable(&dispc, OMAP_DSS_CHANNEL_LCD, false); dispc_mgr_enable(dispc, OMAP_DSS_CHANNEL_LCD, false);
/* Busy wait for framedone. We can't fiddle with irq handlers /* Busy wait for framedone. We can't fiddle with irq handlers
* in PM resume. Typically the loop runs less than 5 times and * in PM resume. Typically the loop runs less than 5 times and
* waits less than a micro second. * waits less than a micro second.
*/ */
count = 0; count = 0;
while (!(dispc_read_irqstatus(&dispc) & framedone_irq)) { while (!(dispc_read_irqstatus(dispc) & framedone_irq)) {
if (count++ > 10000) { if (count++ > 10000) {
dev_err(&dispc.pdev->dev, "%s: framedone timeout\n", dev_err(&dispc->pdev->dev, "%s: framedone timeout\n",
__func__); __func__);
break; break;
} }
} }
dispc_ovl_enable(&dispc, OMAP_DSS_GFX, false); dispc_ovl_enable(dispc, OMAP_DSS_GFX, false);
/* Clear all irq bits before continuing */ /* Clear all irq bits before continuing */
dispc_clear_irqstatus(&dispc, 0xffffffff); dispc_clear_irqstatus(dispc, 0xffffffff);
/* Restore the original state to LCD1 output gates */ /* Restore the original state to LCD1 output gates */
REG_FLD_MOD(DISPC_CONFIG, gatestate, 8, 4); REG_FLD_MOD(dispc, DISPC_CONFIG, gatestate, 8, 4);
} }
static const struct dispc_ops dispc_ops = { static const struct dispc_ops dispc_ops = {
...@@ -4583,15 +4707,21 @@ static int dispc_bind(struct device *dev, struct device *master, void *data) ...@@ -4583,15 +4707,21 @@ static int dispc_bind(struct device *dev, struct device *master, void *data)
struct platform_device *pdev = to_platform_device(dev); struct platform_device *pdev = to_platform_device(dev);
const struct soc_device_attribute *soc; const struct soc_device_attribute *soc;
struct dss_device *dss = dss_get_device(master); struct dss_device *dss = dss_get_device(master);
struct dispc_device *dispc;
u32 rev; u32 rev;
int r = 0; int r = 0;
struct resource *dispc_mem; struct resource *dispc_mem;
struct device_node *np = pdev->dev.of_node; struct device_node *np = pdev->dev.of_node;
dispc.pdev = pdev; dispc = kzalloc(sizeof(*dispc), GFP_KERNEL);
dispc.dss = dss; if (!dispc)
return -ENOMEM;
dispc->pdev = pdev;
platform_set_drvdata(pdev, dispc);
dispc->dss = dss;
spin_lock_init(&dispc.control_lock); spin_lock_init(&dispc->control_lock);
/* /*
* The OMAP3-based models can't be told apart using the compatible * The OMAP3-based models can't be told apart using the compatible
...@@ -4599,82 +4729,92 @@ static int dispc_bind(struct device *dev, struct device *master, void *data) ...@@ -4599,82 +4729,92 @@ static int dispc_bind(struct device *dev, struct device *master, void *data)
*/ */
soc = soc_device_match(dispc_soc_devices); soc = soc_device_match(dispc_soc_devices);
if (soc) if (soc)
dispc.feat = soc->data; dispc->feat = soc->data;
else else
dispc.feat = of_match_device(dispc_of_match, &pdev->dev)->data; dispc->feat = of_match_device(dispc_of_match, &pdev->dev)->data;
r = dispc_errata_i734_wa_init(); r = dispc_errata_i734_wa_init(dispc);
if (r) if (r)
return r; goto err_free;
dispc_mem = platform_get_resource(dispc.pdev, IORESOURCE_MEM, 0); dispc_mem = platform_get_resource(dispc->pdev, IORESOURCE_MEM, 0);
dispc.base = devm_ioremap_resource(&pdev->dev, dispc_mem); dispc->base = devm_ioremap_resource(&pdev->dev, dispc_mem);
if (IS_ERR(dispc.base)) if (IS_ERR(dispc->base)) {
return PTR_ERR(dispc.base); r = PTR_ERR(dispc->base);
goto err_free;
}
dispc.irq = platform_get_irq(dispc.pdev, 0); dispc->irq = platform_get_irq(dispc->pdev, 0);
if (dispc.irq < 0) { if (dispc->irq < 0) {
DSSERR("platform_get_irq failed\n"); DSSERR("platform_get_irq failed\n");
return -ENODEV; r = -ENODEV;
goto err_free;
} }
if (np && of_property_read_bool(np, "syscon-pol")) { if (np && of_property_read_bool(np, "syscon-pol")) {
dispc.syscon_pol = syscon_regmap_lookup_by_phandle(np, "syscon-pol"); dispc->syscon_pol = syscon_regmap_lookup_by_phandle(np, "syscon-pol");
if (IS_ERR(dispc.syscon_pol)) { if (IS_ERR(dispc->syscon_pol)) {
dev_err(&pdev->dev, "failed to get syscon-pol regmap\n"); dev_err(&pdev->dev, "failed to get syscon-pol regmap\n");
return PTR_ERR(dispc.syscon_pol); r = PTR_ERR(dispc->syscon_pol);
goto err_free;
} }
if (of_property_read_u32_index(np, "syscon-pol", 1, if (of_property_read_u32_index(np, "syscon-pol", 1,
&dispc.syscon_pol_offset)) { &dispc->syscon_pol_offset)) {
dev_err(&pdev->dev, "failed to get syscon-pol offset\n"); dev_err(&pdev->dev, "failed to get syscon-pol offset\n");
return -EINVAL; r = -EINVAL;
goto err_free;
} }
} }
r = dispc_init_gamma_tables(); r = dispc_init_gamma_tables(dispc);
if (r) if (r)
return r; goto err_free;
pm_runtime_enable(&pdev->dev); pm_runtime_enable(&pdev->dev);
r = dispc_runtime_get(&dispc); r = dispc_runtime_get(dispc);
if (r) if (r)
goto err_runtime_get; goto err_runtime_get;
_omap_dispc_initial_config(); _omap_dispc_initial_config(dispc);
rev = dispc_read_reg(DISPC_REVISION); rev = dispc_read_reg(dispc, DISPC_REVISION);
dev_dbg(&pdev->dev, "OMAP DISPC rev %d.%d\n", dev_dbg(&pdev->dev, "OMAP DISPC rev %d.%d\n",
FLD_GET(rev, 7, 4), FLD_GET(rev, 3, 0)); FLD_GET(rev, 7, 4), FLD_GET(rev, 3, 0));
dispc_runtime_put(&dispc); dispc_runtime_put(dispc);
dss->dispc = &dispc; dss->dispc = dispc;
dss->dispc_ops = &dispc_ops; dss->dispc_ops = &dispc_ops;
dispc.debugfs = dss_debugfs_create_file(dss, "dispc", dispc_dump_regs, dispc->debugfs = dss_debugfs_create_file(dss, "dispc", dispc_dump_regs,
&dispc); dispc);
return 0; return 0;
err_runtime_get: err_runtime_get:
pm_runtime_disable(&pdev->dev); pm_runtime_disable(&pdev->dev);
err_free:
kfree(dispc);
return r; return r;
} }
static void dispc_unbind(struct device *dev, struct device *master, void *data) static void dispc_unbind(struct device *dev, struct device *master, void *data)
{ {
struct dss_device *dss = dispc.dss; struct dispc_device *dispc = dev_get_drvdata(dev);
struct dss_device *dss = dispc->dss;
dss_debugfs_remove_file(dispc.debugfs); dss_debugfs_remove_file(dispc->debugfs);
dss->dispc = NULL; dss->dispc = NULL;
dss->dispc_ops = NULL; dss->dispc_ops = NULL;
pm_runtime_disable(dev); pm_runtime_disable(dev);
dispc_errata_i734_wa_fini(); dispc_errata_i734_wa_fini(dispc);
kfree(dispc);
} }
static const struct component_ops dispc_component_ops = { static const struct component_ops dispc_component_ops = {
...@@ -4695,36 +4835,40 @@ static int dispc_remove(struct platform_device *pdev) ...@@ -4695,36 +4835,40 @@ static int dispc_remove(struct platform_device *pdev)
static int dispc_runtime_suspend(struct device *dev) static int dispc_runtime_suspend(struct device *dev)
{ {
dispc.is_enabled = false; struct dispc_device *dispc = dev_get_drvdata(dev);
dispc->is_enabled = false;
/* ensure the dispc_irq_handler sees the is_enabled value */ /* ensure the dispc_irq_handler sees the is_enabled value */
smp_wmb(); smp_wmb();
/* wait for current handler to finish before turning the DISPC off */ /* wait for current handler to finish before turning the DISPC off */
synchronize_irq(dispc.irq); synchronize_irq(dispc->irq);
dispc_save_context(); dispc_save_context(dispc);
return 0; return 0;
} }
static int dispc_runtime_resume(struct device *dev) static int dispc_runtime_resume(struct device *dev)
{ {
struct dispc_device *dispc = dev_get_drvdata(dev);
/* /*
* The reset value for load mode is 0 (OMAP_DSS_LOAD_CLUT_AND_FRAME) * The reset value for load mode is 0 (OMAP_DSS_LOAD_CLUT_AND_FRAME)
* but we always initialize it to 2 (OMAP_DSS_LOAD_FRAME_ONLY) in * but we always initialize it to 2 (OMAP_DSS_LOAD_FRAME_ONLY) in
* _omap_dispc_initial_config(). We can thus use it to detect if * _omap_dispc_initial_config(). We can thus use it to detect if
* we have lost register context. * we have lost register context.
*/ */
if (REG_GET(DISPC_CONFIG, 2, 1) != OMAP_DSS_LOAD_FRAME_ONLY) { if (REG_GET(dispc, DISPC_CONFIG, 2, 1) != OMAP_DSS_LOAD_FRAME_ONLY) {
_omap_dispc_initial_config(); _omap_dispc_initial_config(dispc);
dispc_errata_i734_wa(); dispc_errata_i734_wa(dispc);
dispc_restore_context(); dispc_restore_context(dispc);
dispc_restore_gamma_tables(); dispc_restore_gamma_tables(dispc);
} }
dispc.is_enabled = true; dispc->is_enabled = true;
/* ensure the dispc_irq_handler sees the is_enabled value */ /* ensure the dispc_irq_handler sees the is_enabled value */
smp_wmb(); smp_wmb();
......
Markdown is supported
0% .
You are about to add 0 people to the discussion. Proceed with caution.
先完成此消息的编辑!
想要评论请 注册