{
u32 v;
- v = __raw_readl(clk->clksel_reg);
+ v = omap2_clk_readl(clk, clk->clksel_reg);
v &= ~clk->clksel_mask;
v |= field_val << __ffs(clk->clksel_mask);
- __raw_writel(v, clk->clksel_reg);
+ omap2_clk_writel(v, clk, clk->clksel_reg);
- v = __raw_readl(clk->clksel_reg); /* OCP barrier */
+ v = omap2_clk_readl(clk, clk->clksel_reg); /* OCP barrier */
}
/**
if (!clk->clksel || !clk->clksel_mask)
return 0;
- v = __raw_readl(clk->clksel_reg);
+ v = omap2_clk_readl(clk, clk->clksel_reg);
v &= clk->clksel_mask;
v >>= __ffs(clk->clksel_mask);
WARN((!clk->clksel || !clk->clksel_mask),
"clock: %s: attempt to call on a non-clksel clock", clk_name);
- r = __raw_readl(clk->clksel_reg) & clk->clksel_mask;
+ r = omap2_clk_readl(clk, clk->clksel_reg) & clk->clksel_mask;
r >>= __ffs(clk->clksel_mask);
for (clks = clk->clksel; clks->parent && !found; clks++) {
if (!dd)
return -EINVAL;
- v = __raw_readl(dd->control_reg);
+ v = omap2_clk_readl(clk, dd->control_reg);
v &= dd->enable_mask;
v >>= __ffs(dd->enable_mask);
return 0;
/* Return bypass rate if DPLL is bypassed */
- v = __raw_readl(dd->control_reg);
+ v = omap2_clk_readl(clk, dd->control_reg);
v &= dd->enable_mask;
v >>= __ffs(dd->enable_mask);
return __clk_get_rate(dd->clk_bypass);
}
- v = __raw_readl(dd->mult_div1_reg);
+ v = omap2_clk_readl(clk, dd->mult_div1_reg);
dpll_mult = v & dd->mult_mask;
dpll_mult >>= __ffs(dd->mult_mask);
dpll_div = v & dd->div1_mask;
/* XXX */
void omap2_clkt_iclk_allow_idle(struct clk_hw_omap *clk)
{
- u32 v, r;
+ u32 v;
+ void __iomem *r;
- r = ((__force u32)clk->enable_reg ^ (CM_AUTOIDLE ^ CM_ICLKEN));
+ r = (__force void __iomem *)
+ ((__force u32)clk->enable_reg ^ (CM_AUTOIDLE ^ CM_ICLKEN));
- v = __raw_readl((__force void __iomem *)r);
+ v = omap2_clk_readl(clk, r);
v |= (1 << clk->enable_bit);
- __raw_writel(v, (__force void __iomem *)r);
+ omap2_clk_writel(v, clk, r);
}
/* XXX */
void omap2_clkt_iclk_deny_idle(struct clk_hw_omap *clk)
{
- u32 v, r;
+ u32 v;
+ void __iomem *r;
- r = ((__force u32)clk->enable_reg ^ (CM_AUTOIDLE ^ CM_ICLKEN));
+ r = (__force void __iomem *)
+ ((__force u32)clk->enable_reg ^ (CM_AUTOIDLE ^ CM_ICLKEN));
- v = __raw_readl((__force void __iomem *)r);
+ v = omap2_clk_readl(clk, r);
v &= ~(1 << clk->enable_bit);
- __raw_writel(v, (__force void __iomem *)r);
+ omap2_clk_writel(v, clk, r);
}
/* Public data */
/**
* _wait_idlest_generic - wait for a module to leave the idle state
+ * @clk: module clock to wait for (needed for register offsets)
* @reg: virtual address of module IDLEST register
* @mask: value to mask against to determine if the module is active
* @idlest: idle state indicator (0 or 1) for the clock
* elapsed. XXX Deprecated - should be moved into drivers for the
* individual IP block that the IDLEST register exists in.
*/
-static int _wait_idlest_generic(void __iomem *reg, u32 mask, u8 idlest,
- const char *name)
+static int _wait_idlest_generic(struct clk_hw_omap *clk, void __iomem *reg,
+ u32 mask, u8 idlest, const char *name)
{
int i = 0, ena = 0;
ena = (idlest) ? 0 : mask;
- omap_test_timeout(((__raw_readl(reg) & mask) == ena),
+ omap_test_timeout(((omap2_clk_readl(clk, reg) & mask) == ena),
MAX_MODULE_ENABLE_WAIT, i);
if (i < MAX_MODULE_ENABLE_WAIT)
/* Not all modules have multiple clocks that their IDLEST depends on */
if (clk->ops->find_companion) {
clk->ops->find_companion(clk, &companion_reg, &other_bit);
- if (!(__raw_readl(companion_reg) & (1 << other_bit)))
+ if (!(omap2_clk_readl(clk, companion_reg) & (1 << other_bit)))
return;
}
r = cm_split_idlest_reg(idlest_reg, &prcm_mod, &idlest_reg_id);
if (r) {
/* IDLEST register not in the CM module */
- _wait_idlest_generic(idlest_reg, (1 << idlest_bit), idlest_val,
- __clk_get_name(clk->hw.clk));
+ _wait_idlest_generic(clk, idlest_reg, (1 << idlest_bit),
+ idlest_val, __clk_get_name(clk->hw.clk));
} else {
cm_wait_module_ready(prcm_mod, idlest_reg_id, idlest_bit);
};
}
/* FIXME should not have INVERT_ENABLE bit here */
- v = __raw_readl(clk->enable_reg);
+ v = omap2_clk_readl(clk, clk->enable_reg);
if (clk->flags & INVERT_ENABLE)
v &= ~(1 << clk->enable_bit);
else
v |= (1 << clk->enable_bit);
- __raw_writel(v, clk->enable_reg);
- v = __raw_readl(clk->enable_reg); /* OCP barrier */
+ omap2_clk_writel(v, clk, clk->enable_reg);
+ v = omap2_clk_readl(clk, clk->enable_reg); /* OCP barrier */
if (clk->ops && clk->ops->find_idlest)
_omap2_module_wait_ready(clk);
return;
}
- v = __raw_readl(clk->enable_reg);
+ v = omap2_clk_readl(clk, clk->enable_reg);
if (clk->flags & INVERT_ENABLE)
v |= (1 << clk->enable_bit);
else
v &= ~(1 << clk->enable_bit);
- __raw_writel(v, clk->enable_reg);
+ omap2_clk_writel(v, clk, clk->enable_reg);
/* No OCP barrier needed here since it is a disable operation */
if (clkdm_control && clk->clkdm)
struct clk_hw_omap *clk = to_clk_hw_omap(hw);
u32 v;
- v = __raw_readl(clk->enable_reg);
+ v = omap2_clk_readl(clk, clk->enable_reg);
if (clk->flags & INVERT_ENABLE)
v ^= BIT(clk->enable_bit);
struct clk_divider *parent;
struct clk_hw *parent_hw;
u32 dummy_v, orig_v;
+ struct clk_hw_omap *omap_clk = to_clk_hw_omap(clk);
int ret;
/* Clear PWRDN bit of HSDIVIDER */
/* Restore the dividers */
if (!ret) {
- orig_v = __raw_readl(parent->reg);
+ orig_v = omap2_clk_readl(omap_clk, parent->reg);
dummy_v = orig_v;
/* Write any other value different from the Read value */
dummy_v ^= (1 << parent->shift);
- __raw_writel(dummy_v, parent->reg);
+ omap2_clk_writel(dummy_v, omap_clk, parent->reg);
/* Write the original divider */
- __raw_writel(orig_v, parent->reg);
+ omap2_clk_writel(orig_v, omap_clk, parent->reg);
}
return ret;
dd = clk->dpll_data;
- v = __raw_readl(dd->control_reg);
+ v = omap2_clk_readl(clk, dd->control_reg);
v &= ~dd->enable_mask;
v |= clken_bits << __ffs(dd->enable_mask);
- __raw_writel(v, dd->control_reg);
+ omap2_clk_writel(v, clk, dd->control_reg);
}
/* _omap3_wait_dpll_status: wait for a DPLL to enter a specific state */
state <<= __ffs(dd->idlest_mask);
- while (((__raw_readl(dd->idlest_reg) & dd->idlest_mask) != state) &&
- i < MAX_DPLL_WAIT_TRIES) {
+ while (((omap2_clk_readl(clk, dd->idlest_reg) & dd->idlest_mask)
+ != state) && i < MAX_DPLL_WAIT_TRIES) {
i++;
udelay(1);
}
state <<= __ffs(dd->idlest_mask);
/* Check if already locked */
- if ((__raw_readl(dd->idlest_reg) & dd->idlest_mask) == state)
+ if ((omap2_clk_readl(clk, dd->idlest_reg) & dd->idlest_mask) == state)
goto done;
ai = omap3_dpll_autoidle_read(clk);
* only since freqsel field is no longer present on other devices.
*/
if (cpu_is_omap343x()) {
- v = __raw_readl(dd->control_reg);
+ v = omap2_clk_readl(clk, dd->control_reg);
v &= ~dd->freqsel_mask;
v |= freqsel << __ffs(dd->freqsel_mask);
- __raw_writel(v, dd->control_reg);
+ omap2_clk_writel(v, clk, dd->control_reg);
}
/* Set DPLL multiplier, divider */
- v = __raw_readl(dd->mult_div1_reg);
+ v = omap2_clk_readl(clk, dd->mult_div1_reg);
v &= ~(dd->mult_mask | dd->div1_mask);
v |= dd->last_rounded_m << __ffs(dd->mult_mask);
v |= (dd->last_rounded_n - 1) << __ffs(dd->div1_mask);
v |= sd_div << __ffs(dd->sddiv_mask);
}
- __raw_writel(v, dd->mult_div1_reg);
+ omap2_clk_writel(v, clk, dd->mult_div1_reg);
/* Set 4X multiplier and low-power mode */
if (dd->m4xen_mask || dd->lpmode_mask) {
- v = __raw_readl(dd->control_reg);
+ v = omap2_clk_readl(clk, dd->control_reg);
if (dd->m4xen_mask) {
if (dd->last_rounded_m4xen)
v &= ~dd->lpmode_mask;
}
- __raw_writel(v, dd->control_reg);
+ omap2_clk_writel(v, clk, dd->control_reg);
}
/* We let the clock framework set the other output dividers later */
if (!dd->autoidle_reg)
return -EINVAL;
- v = __raw_readl(dd->autoidle_reg);
+ v = omap2_clk_readl(clk, dd->autoidle_reg);
v &= dd->autoidle_mask;
v >>= __ffs(dd->autoidle_mask);
* by writing 0x5 instead of 0x1. Add some mechanism to
* optionally enter this mode.
*/
- v = __raw_readl(dd->autoidle_reg);
+ v = omap2_clk_readl(clk, dd->autoidle_reg);
v &= ~dd->autoidle_mask;
v |= DPLL_AUTOIDLE_LOW_POWER_STOP << __ffs(dd->autoidle_mask);
- __raw_writel(v, dd->autoidle_reg);
+ omap2_clk_writel(v, clk, dd->autoidle_reg);
}
if (!dd->autoidle_reg)
return;
- v = __raw_readl(dd->autoidle_reg);
+ v = omap2_clk_readl(clk, dd->autoidle_reg);
v &= ~dd->autoidle_mask;
v |= DPLL_AUTOIDLE_DISABLE << __ffs(dd->autoidle_mask);
- __raw_writel(v, dd->autoidle_reg);
+ omap2_clk_writel(v, clk, dd->autoidle_reg);
}
struct clk_hw_omap *pclk = NULL;
struct clk *parent;
+ if (!parent_rate)
+ return 0;
+
/* Walk up the parents of clk, looking for a DPLL */
do {
do {
WARN_ON(!dd->enable_mask);
- v = __raw_readl(dd->control_reg) & dd->enable_mask;
+ v = omap2_clk_readl(pclk, dd->control_reg) & dd->enable_mask;
v >>= __ffs(dd->enable_mask);
if ((v != OMAP3XXX_EN_DPLL_LOCKED) || (dd->flags & DPLL_J_TYPE))
rate = parent_rate;
OMAP4430_DPLL_CLKOUTX2_GATE_CTRL_MASK :
OMAP4430_DPLL_CLKOUT_GATE_CTRL_MASK;
- v = __raw_readl(clk->clksel_reg);
+ v = omap2_clk_readl(clk, clk->clksel_reg);
v &= mask;
v >>= __ffs(mask);
OMAP4430_DPLL_CLKOUTX2_GATE_CTRL_MASK :
OMAP4430_DPLL_CLKOUT_GATE_CTRL_MASK;
- v = __raw_readl(clk->clksel_reg);
+ v = omap2_clk_readl(clk, clk->clksel_reg);
/* Clear the bit to allow gatectrl */
v &= ~mask;
- __raw_writel(v, clk->clksel_reg);
+ omap2_clk_writel(v, clk, clk->clksel_reg);
}
void omap4_dpllmx_deny_gatectrl(struct clk_hw_omap *clk)
OMAP4430_DPLL_CLKOUTX2_GATE_CTRL_MASK :
OMAP4430_DPLL_CLKOUT_GATE_CTRL_MASK;
- v = __raw_readl(clk->clksel_reg);
+ v = omap2_clk_readl(clk, clk->clksel_reg);
/* Set the bit to deny gatectrl */
v |= mask;
- __raw_writel(v, clk->clksel_reg);
+ omap2_clk_writel(v, clk, clk->clksel_reg);
}
const struct clk_hw_omap_ops clkhwops_omap4_dpllmx = {
rate = omap2_get_dpll_rate(clk);
/* regm4xen adds a multiplier of 4 to DPLL calculations */
- v = __raw_readl(dd->control_reg);
+ v = omap2_clk_readl(clk, dd->control_reg);
if (v & OMAP4430_DPLL_REGM4XEN_MASK)
rate *= OMAP4430_REGM4XEN_MULT;
projects / karo-tx-linux.git / commitdiff