/Linux-v5.15/arch/arm/boot/dts/ |
D | stm32h743.dtsi | 45 #include <dt-bindings/mfd/stm32h7-rcc.h> 77 clocks = <&rcc TIM5_CK>; 85 clocks = <&rcc LPTIM1_CK>; 113 resets = <&rcc STM32H7_APB1L_RESET(SPI2)>; 114 clocks = <&rcc SPI2_CK>; 125 resets = <&rcc STM32H7_APB1L_RESET(SPI3)>; 126 clocks = <&rcc SPI3_CK>; 135 clocks = <&rcc USART2_CK>; 143 clocks = <&rcc USART3_CK>; 151 clocks = <&rcc UART4_CK>; [all …]
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D | stm32f429.dtsi | 50 #include <dt-bindings/mfd/stm32f4-rcc.h> 100 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM2)>; 109 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM2)>; 130 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM3)>; 139 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM3)>; 160 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM4)>; 169 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM4)>; 190 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM5)>; 198 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM5)>; 219 clocks = <&rcc 0 STM32F4_APB1_CLOCK(TIM6)>; [all …]
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D | stm32f746.dtsi | 45 #include <dt-bindings/mfd/stm32f7-rcc.h> 82 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM2)>; 91 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM2)>; 112 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM3)>; 121 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM3)>; 142 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM4)>; 151 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM4)>; 172 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM5)>; 180 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM5)>; 201 clocks = <&rcc 0 STM32F7_APB1_CLOCK(TIM6)>; [all …]
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D | stm32mp151.dtsi | 130 clocks = <&rcc TIM2_K>; 163 clocks = <&rcc TIM3_K>; 197 clocks = <&rcc TIM4_K>; 229 clocks = <&rcc TIM5_K>; 263 clocks = <&rcc TIM6_K>; 281 clocks = <&rcc TIM7_K>; 299 clocks = <&rcc TIM12_K>; 321 clocks = <&rcc TIM13_K>; 343 clocks = <&rcc TIM14_K>; 366 clocks = <&rcc LPTIM1_K>; [all …]
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D | stm32mp157.dtsi | 15 clocks = <&rcc GPU>, <&rcc GPU_K>; 17 resets = <&rcc GPU_R>; 23 clocks = <&rcc DSI_K>, <&clk_hse>, <&rcc DSI_PX>; 25 resets = <&rcc DSI_R>;
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D | stm32f7-pinctrl.dtsi | 8 #include <dt-bindings/mfd/stm32f7-rcc.h> 26 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOA)>; 36 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOB)>; 46 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOC)>; 56 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOD)>; 66 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOE)>; 76 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOF)>; 86 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOG)>; 96 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOH)>; 106 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(GPIOI)>; [all …]
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D | stm32mp153.dtsi | 33 clocks = <&rcc CK_HSE>, <&rcc FDCAN_K>; 46 clocks = <&rcc CK_HSE>, <&rcc FDCAN_K>;
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D | stm32f769-disco.dts | 91 clocks = <&rcc 0 STM32F7_AHB1_CLOCK(OTGHSULPI)>; 103 &rcc { 104 compatible = "st,stm32f769-rcc", "st,stm32f746-rcc", "st,stm32-rcc";
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D | stm32f4-pinctrl.dtsi | 44 #include <dt-bindings/mfd/stm32f4-rcc.h> 62 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOA)>; 72 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOB)>; 82 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOC)>; 92 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOD)>; 102 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOE)>; 112 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOF)>; 122 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOG)>; 132 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOH)>; 142 clocks = <&rcc 0 STM32F4_AHB1_CLOCK(GPIOI)>; [all …]
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D | stm32mp157c-odyssey.dts | 33 assigned-clocks = <&rcc ETHCK_K>, <&rcc PLL4_P>; 34 assigned-clock-parents = <&rcc PLL4_P>;
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D | stm32f469.dtsi | 11 resets = <&rcc STM32F4_APB2_RESET(DSI)>; 13 clocks = <&rcc 1 CLK_F469_DSI>, <&clk_hse>;
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D | stm32mp15xc.dtsi | 13 clocks = <&rcc CRYP1>; 14 resets = <&rcc CRYP1_R>;
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/Linux-v5.15/Documentation/devicetree/bindings/clock/ |
D | st,stm32-rcc.txt | 4 The RCC IP is both a reset and a clock controller. 11 "st,stm32f42xx-rcc" 12 "st,stm32f469-rcc" 13 "st,stm32f746-rcc" 14 "st,stm32f769-rcc" 29 rcc: rcc@40023800 { 32 compatible = "st,stm32f42xx-rcc", "st,stm32-rcc"; 42 The secondary index is the bit number within the RCC register bank, starting 43 from the first RCC clock enable register (RCC_AHB1ENR, address offset 0x30). 49 drivers of the RCC IP, macros are available to generate the index in [all …]
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D | st,stm32mp1-rcc.yaml | 4 $id: http://devicetree.org/schemas/clock/st,stm32mp1-rcc.yaml# 13 The RCC IP is both a reset and a clock controller. 14 RCC makes also power management (resume/supend and wakeup interrupt). 33 The index is the bit number within the RCC registers bank, starting from RCC 58 - st,stm32mp1-rcc-secure 59 - st,stm32mp1-rcc 75 rcc: rcc@50000000 { 76 compatible = "st,stm32mp1-rcc-secure", "syscon";
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D | st,stm32h7-rcc.txt | 4 The RCC IP is both a reset and a clock controller. 11 "st,stm32h743-rcc" 31 rcc: reset-clock-controller@58024400 { 32 compatible = "st,stm32h743-rcc", "st,stm32-rcc"; 50 clocks = <&rcc TIM5_CK>; 59 The index is the bit number within the RCC registers bank, starting from RCC 70 resets = <&rcc STM32H7_APB1L_RESET(TIM2)>;
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/Linux-v5.15/Documentation/devicetree/bindings/net/ |
D | stm32-dwmac.yaml | 77 set this property in RGMII PHY when you want to select RCC clock instead of ETH_CLK125. 83 select RCC clock instead of ETH_REF_CLK. 99 #include <dt-bindings/mfd/stm32h7-rcc.h> 112 clocks = <&rcc ETHMAC>, 113 <&rcc ETHTX>, 114 <&rcc ETHRX>, 115 <&rcc ETHSTP>, 116 <&rcc ETHCK_K>; 132 clocks = <&rcc 0 25>, <&rcc 0 26>, <&rcc 0 27>; 147 clocks = <&rcc 62>, <&rcc 61>, <&rcc 60>;
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/Linux-v5.15/drivers/clk/qcom/ |
D | clk-rpm.c | 250 struct rpm_cc *rcc = r->rpm_cc; in clk_rpm_xo_prepare() local 254 mutex_lock(&rcc->xo_lock); in clk_rpm_xo_prepare() 256 value = rcc->xo_buffer_value | (QCOM_RPM_XO_MODE_ON << r->xo_offset); in clk_rpm_xo_prepare() 260 rcc->xo_buffer_value = value; in clk_rpm_xo_prepare() 263 mutex_unlock(&rcc->xo_lock); in clk_rpm_xo_prepare() 271 struct rpm_cc *rcc = r->rpm_cc; in clk_rpm_xo_unprepare() local 275 mutex_lock(&rcc->xo_lock); in clk_rpm_xo_unprepare() 277 value = rcc->xo_buffer_value & ~(QCOM_RPM_XO_MODE_ON << r->xo_offset); in clk_rpm_xo_unprepare() 281 rcc->xo_buffer_value = value; in clk_rpm_xo_unprepare() 284 mutex_unlock(&rcc->xo_lock); in clk_rpm_xo_unprepare() [all …]
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/Linux-v5.15/Documentation/devicetree/bindings/i2c/ |
D | st,stm32-i2c.yaml | 101 #include <dt-bindings/mfd/stm32f7-rcc.h> 111 resets = <&rcc 277>; 112 clocks = <&rcc 0 149>; 123 resets = <&rcc STM32F7_APB1_RESET(I2C1)>; 124 clocks = <&rcc 1 CLK_I2C1>; 138 clocks = <&rcc I2C2_K>; 139 resets = <&rcc I2C2_R>;
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/Linux-v5.15/Documentation/devicetree/bindings/rtc/ |
D | st,stm32-rtc.yaml | 117 #include <dt-bindings/mfd/stm32f4-rcc.h> 122 clocks = <&rcc 1 CLK_RTC>; 123 assigned-clocks = <&rcc 1 CLK_RTC>; 124 assigned-clock-parents = <&rcc 1 CLK_LSE>; 135 clocks = <&rcc RTCAPB>, <&rcc RTC>;
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/Linux-v5.15/Documentation/devicetree/bindings/sound/ |
D | st,stm32-i2s.yaml | 81 clocks = <&rcc SPI2>, <&rcc SPI2_K>, <&rcc PLL3_Q>, <&rcc PLL3_R>;
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D | st,stm32-sai.yaml | 178 clocks = <&rcc SAI2>, <&rcc PLL3_Q>, <&rcc PLL3_R>; 190 clocks = <&rcc SAI2_K>;
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/Linux-v5.15/Documentation/devicetree/bindings/remoteproc/ |
D | st,stm32-rproc.yaml | 40 Reference to the system configuration which holds the RCC trust zone mode 134 resets = <&rcc MCU_R>; 135 st,syscfg-holdboot = <&rcc 0x10C 0x1>; 136 st,syscfg-tz = <&rcc 0x000 0x1>;
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/Linux-v5.15/Documentation/devicetree/bindings/reset/ |
D | st,stm32-rcc.txt | 4 The RCC IP is both a reset and a clock controller. 6 Please see Documentation/devicetree/bindings/clock/st,stm32-rcc.txt
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D | st,stm32mp1-rcc.txt | 4 The RCC IP is both a reset and a clock controller. 6 Please see Documentation/devicetree/bindings/clock/st,stm32mp1-rcc.yaml
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/Linux-v5.15/Documentation/devicetree/bindings/display/ |
D | st,stm32-dsi.yaml | 85 clocks = <&rcc DSI_K>, <&clk_hse>, <&rcc DSI_PX>; 87 resets = <&rcc DSI_R>;
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