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Bunch of small fixes (#154)

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* use valid_params_if macro for lock assertion

* fixup param checking in pwm.h

* Fix range of fractional divider parameter check in pwm.h

Co-authored-by: Luke Wren <wren6991@gmail.com>
This commit is contained in:
Graham Sanderson 2021-02-19 08:15:29 -06:00 committed by GitHub
parent 3f0529a25c
commit 1478c6b89f
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GPG Key ID: 4AEE18F83AFDEB23
3 changed files with 26 additions and 17 deletions
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5
src/common/pico_sync/include/pico/lock_core.h
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@ -10,6 +10,11 @@
#include "pico.h" #include "pico.h"
#include "hardware/sync.h" #include "hardware/sync.h"
// PICO_CONFIG: PARAM_ASSERTIONS_ENABLED_LOCK_CORE, Enable/disable assertions in the lock core, type=bool, default=1, group=pico_sync
#ifndef PARAM_ASSERTIONS_ENABLED_LOCK_CORE
#define PARAM_ASSERTIONS_ENABLED_LOCK_CORE 1
#endif
/** \file lock_core.h /** \file lock_core.h
* \ingroup pico_sync * \ingroup pico_sync
* *

2
src/common/pico_sync/lock_core.c
View File

@ -7,7 +7,7 @@
#include "pico/lock_core.h" #include "pico/lock_core.h"
void lock_init(lock_core_t *core, uint lock_num) { void lock_init(lock_core_t *core, uint lock_num) {
assert(lock_num < NUM_SPIN_LOCKS); valid_params_if(LOCK_CORE, lock_num < NUM_SPIN_LOCKS);
core->spin_lock = spin_lock_instance(lock_num); core->spin_lock = spin_lock_instance(lock_num);
} }

36
src/rp2_common/hardware_pwm/include/hardware/pwm.h
View File

@ -65,6 +65,10 @@ typedef struct {
uint32_t top; uint32_t top;
} pwm_config; } pwm_config;
static inline void check_slice_num_param(__unused uint slice_num) {
valid_params_if(PWM, slice_num < NUM_PWM_SLICES);
}
/** \brief Determine the PWM slice that is attached to the specified GPIO /** \brief Determine the PWM slice that is attached to the specified GPIO
* \ingroup hardware_pwm * \ingroup hardware_pwm
* *
@ -181,7 +185,7 @@ static inline void pwm_config_set_wrap(pwm_config *c, uint16_t wrap) {
* manually using \ref pwm_set_enabled() or \ref pwm_set_mask_enabled() * manually using \ref pwm_set_enabled() or \ref pwm_set_mask_enabled()
*/ */
static inline void pwm_init(uint slice_num, pwm_config *c, bool start) { static inline void pwm_init(uint slice_num, pwm_config *c, bool start) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
pwm_hw->slice[slice_num].csr = 0; pwm_hw->slice[slice_num].csr = 0;
pwm_hw->slice[slice_num].ctr = PWM_CH0_CTR_RESET; pwm_hw->slice[slice_num].ctr = PWM_CH0_CTR_RESET;
@ -225,7 +229,7 @@ static inline pwm_config pwm_get_default_config(void) {
* \param wrap Value to set wrap to * \param wrap Value to set wrap to
*/ */
static inline void pwm_set_wrap(uint slice_num, uint16_t wrap) { static inline void pwm_set_wrap(uint slice_num, uint16_t wrap) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
pwm_hw->slice[slice_num].top = wrap; pwm_hw->slice[slice_num].top = wrap;
} }
@ -245,7 +249,7 @@ static inline void pwm_set_wrap(uint slice_num, uint16_t wrap) {
* \param level new level for the selected output * \param level new level for the selected output
*/ */
static inline void pwm_set_chan_level(uint slice_num, uint chan, uint16_t level) { static inline void pwm_set_chan_level(uint slice_num, uint chan, uint16_t level) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
hw_write_masked( hw_write_masked(
&pwm_hw->slice[slice_num].cc, &pwm_hw->slice[slice_num].cc,
level << (chan ? PWM_CH0_CC_B_LSB : PWM_CH0_CC_A_LSB), level << (chan ? PWM_CH0_CC_B_LSB : PWM_CH0_CC_A_LSB),
@ -269,7 +273,7 @@ static inline void pwm_set_chan_level(uint slice_num, uint chan, uint16_t level)
* \param level_b Value to set compare B to. When the counter reaches this value the B output is deasserted * \param level_b Value to set compare B to. When the counter reaches this value the B output is deasserted
*/ */
static inline void pwm_set_both_levels(uint slice_num, uint16_t level_a, uint16_t level_b) { static inline void pwm_set_both_levels(uint slice_num, uint16_t level_a, uint16_t level_b) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
pwm_hw->slice[slice_num].cc = (level_b << PWM_CH0_CC_B_LSB) | (level_a << PWM_CH0_CC_A_LSB); pwm_hw->slice[slice_num].cc = (level_b << PWM_CH0_CC_B_LSB) | (level_a << PWM_CH0_CC_A_LSB);
} }
@ -305,7 +309,7 @@ static inline void pwm_set_gpio_level(uint gpio, uint16_t level) {
* \return Current value of PWM counter * \return Current value of PWM counter
*/ */
static inline uint16_t pwm_get_counter(uint slice_num) { static inline uint16_t pwm_get_counter(uint slice_num) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
return (pwm_hw->slice[slice_num].ctr); return (pwm_hw->slice[slice_num].ctr);
} }
@ -319,7 +323,7 @@ static inline uint16_t pwm_get_counter(uint slice_num) {
* *
*/ */
static inline void pwm_set_counter(uint slice_num, uint16_t c) { static inline void pwm_set_counter(uint slice_num, uint16_t c) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
pwm_hw->slice[slice_num].ctr = c; pwm_hw->slice[slice_num].ctr = c;
} }
@ -333,7 +337,7 @@ static inline void pwm_set_counter(uint slice_num, uint16_t c) {
* \param slice_num PWM slice number * \param slice_num PWM slice number
*/ */
static inline void pwm_advance_count(uint slice_num) { static inline void pwm_advance_count(uint slice_num) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
hw_set_bits(&pwm_hw->slice[slice_num].csr, PWM_CH0_CSR_PH_ADV_BITS); hw_set_bits(&pwm_hw->slice[slice_num].csr, PWM_CH0_CSR_PH_ADV_BITS);
while (pwm_hw->slice[slice_num].csr & PWM_CH0_CSR_PH_ADV_BITS) { while (pwm_hw->slice[slice_num].csr & PWM_CH0_CSR_PH_ADV_BITS) {
tight_loop_contents(); tight_loop_contents();
@ -350,7 +354,7 @@ static inline void pwm_advance_count(uint slice_num) {
* \param slice_num PWM slice number * \param slice_num PWM slice number
*/ */
static inline void pwm_retard_count(uint slice_num) { static inline void pwm_retard_count(uint slice_num) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
hw_set_bits(&pwm_hw->slice[slice_num].csr, PWM_CH0_CSR_PH_RET_BITS); hw_set_bits(&pwm_hw->slice[slice_num].csr, PWM_CH0_CSR_PH_RET_BITS);
while (pwm_hw->slice[slice_num].csr & PWM_CH0_CSR_PH_RET_BITS) { while (pwm_hw->slice[slice_num].csr & PWM_CH0_CSR_PH_RET_BITS) {
tight_loop_contents(); tight_loop_contents();
@ -367,8 +371,8 @@ static inline void pwm_retard_count(uint slice_num) {
* \param fract 4 bit fractional part of the clock divider * \param fract 4 bit fractional part of the clock divider
*/ */
static inline void pwm_set_clkdiv_int_frac(uint slice_num, uint8_t integer, uint8_t fract) { static inline void pwm_set_clkdiv_int_frac(uint slice_num, uint8_t integer, uint8_t fract) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
valid_params_if(PWM, fract >= 0 && slice_num <= 16); valid_params_if(PWM, fract < 16);
pwm_hw->slice[slice_num].div = (integer << PWM_CH0_DIV_INT_LSB) | (fract << PWM_CH0_DIV_FRAC_LSB); pwm_hw->slice[slice_num].div = (integer << PWM_CH0_DIV_INT_LSB) | (fract << PWM_CH0_DIV_FRAC_LSB);
} }
@ -381,7 +385,7 @@ static inline void pwm_set_clkdiv_int_frac(uint slice_num, uint8_t integer, uint
* \param divider Floating point clock divider, 1.f <= value < 256.f * \param divider Floating point clock divider, 1.f <= value < 256.f
*/ */
static inline void pwm_set_clkdiv(uint slice_num, float divider) { static inline void pwm_set_clkdiv(uint slice_num, float divider) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
valid_params_if(PWM, divider >= 1.f && divider < 256.f); valid_params_if(PWM, divider >= 1.f && divider < 256.f);
uint8_t i = (uint8_t)divider; uint8_t i = (uint8_t)divider;
uint8_t f = (uint8_t)((divider - i) * (0x01 << 4)); uint8_t f = (uint8_t)((divider - i) * (0x01 << 4));
@ -396,7 +400,7 @@ static inline void pwm_set_clkdiv(uint slice_num, float divider) {
* \param b true to invert output B * \param b true to invert output B
*/ */
static inline void pwm_set_output_polarity(uint slice_num, bool a, bool b) { static inline void pwm_set_output_polarity(uint slice_num, bool a, bool b) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
hw_write_masked(&pwm_hw->slice[slice_num].csr, !!a << PWM_CH0_CSR_A_INV_LSB | !!b << PWM_CH0_CSR_B_INV_LSB, hw_write_masked(&pwm_hw->slice[slice_num].csr, !!a << PWM_CH0_CSR_A_INV_LSB | !!b << PWM_CH0_CSR_B_INV_LSB,
PWM_CH0_CSR_A_INV_BITS | PWM_CH0_CSR_B_INV_BITS); PWM_CH0_CSR_A_INV_BITS | PWM_CH0_CSR_B_INV_BITS);
} }
@ -409,7 +413,7 @@ static inline void pwm_set_output_polarity(uint slice_num, bool a, bool b) {
* \param mode Required divider mode * \param mode Required divider mode
*/ */
static inline void pwm_set_clkdiv_mode(uint slice_num, enum pwm_clkdiv_mode mode) { static inline void pwm_set_clkdiv_mode(uint slice_num, enum pwm_clkdiv_mode mode) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
valid_params_if(PWM, mode >= PWM_DIV_FREE_RUNNING && mode <= PWM_DIV_B_FALLING); valid_params_if(PWM, mode >= PWM_DIV_FREE_RUNNING && mode <= PWM_DIV_B_FALLING);
hw_write_masked(&pwm_hw->slice[slice_num].csr, mode << PWM_CH0_CSR_DIVMODE_LSB, PWM_CH0_CSR_DIVMODE_BITS); hw_write_masked(&pwm_hw->slice[slice_num].csr, mode << PWM_CH0_CSR_DIVMODE_LSB, PWM_CH0_CSR_DIVMODE_BITS);
} }
@ -424,7 +428,7 @@ static inline void pwm_set_clkdiv_mode(uint slice_num, enum pwm_clkdiv_mode mode
* the PWM starts counting back down. The output frequency is halved when phase-correct mode is enabled. * the PWM starts counting back down. The output frequency is halved when phase-correct mode is enabled.
*/ */
static inline void pwm_set_phase_correct(uint slice_num, bool phase_correct) { static inline void pwm_set_phase_correct(uint slice_num, bool phase_correct) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
hw_write_masked(&pwm_hw->slice[slice_num].csr, phase_correct << PWM_CH0_CSR_PH_CORRECT_LSB, PWM_CH0_CSR_PH_CORRECT_BITS); hw_write_masked(&pwm_hw->slice[slice_num].csr, phase_correct << PWM_CH0_CSR_PH_CORRECT_LSB, PWM_CH0_CSR_PH_CORRECT_BITS);
} }
@ -435,7 +439,7 @@ static inline void pwm_set_phase_correct(uint slice_num, bool phase_correct) {
* \param enabled true to enable the specified PWM, false to disable * \param enabled true to enable the specified PWM, false to disable
*/ */
static inline void pwm_set_enabled(uint slice_num, bool enabled) { static inline void pwm_set_enabled(uint slice_num, bool enabled) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
hw_write_masked(&pwm_hw->slice[slice_num].csr, !!enabled << PWM_CH0_CSR_EN_LSB, PWM_CH0_CSR_EN_BITS); hw_write_masked(&pwm_hw->slice[slice_num].csr, !!enabled << PWM_CH0_CSR_EN_LSB, PWM_CH0_CSR_EN_BITS);
} }
@ -457,7 +461,7 @@ static inline void pwm_set_mask_enabled(uint32_t mask) {
* \param enabled true to enable, false to disable * \param enabled true to enable, false to disable
*/ */
static inline void pwm_set_irq_enabled(uint slice_num, bool enabled) { static inline void pwm_set_irq_enabled(uint slice_num, bool enabled) {
valid_params_if(PWM, slice_num >= 0 && slice_num < NUM_PWM_SLICES); check_slice_num_param(slice_num);
if (enabled) { if (enabled) {
hw_set_bits(&pwm_hw->inte, 1u << slice_num); hw_set_bits(&pwm_hw->inte, 1u << slice_num);
} else { } else {