/* * ASPEED GPIO Controller * * Copyright (C) 2017-2019 IBM Corp. * * SPDX-License-Identifier: GPL-2.0-or-later */ #include "qemu/osdep.h" #include "qemu/host-utils.h" #include "qemu/log.h" #include "hw/gpio/aspeed_gpio.h" #include "hw/misc/aspeed_scu.h" #include "qapi/error.h" #include "qapi/visitor.h" #include "hw/irq.h" #include "migration/vmstate.h" #include "trace.h" #include "hw/registerfields.h" #define GPIOS_PER_GROUP 8 /* GPIO Source Types */ #define ASPEED_CMD_SRC_MASK 0x01010101 #define ASPEED_SOURCE_ARM 0 #define ASPEED_SOURCE_LPC 1 #define ASPEED_SOURCE_COPROCESSOR 2 #define ASPEED_SOURCE_RESERVED 3 /* GPIO Interrupt Triggers */ /* * For each set of gpios there are three sensitivity registers that control * the interrupt trigger mode. * * | 2 | 1 | 0 | trigger mode * ----------------------------- * | 0 | 0 | 0 | falling-edge * | 0 | 0 | 1 | rising-edge * | 0 | 1 | 0 | level-low * | 0 | 1 | 1 | level-high * | 1 | X | X | dual-edge */ #define ASPEED_FALLING_EDGE 0 #define ASPEED_RISING_EDGE 1 #define ASPEED_LEVEL_LOW 2 #define ASPEED_LEVEL_HIGH 3 #define ASPEED_DUAL_EDGE 4 /* GPIO Register Address Offsets */ #define GPIO_ABCD_DATA_VALUE (0x000 >> 2) #define GPIO_ABCD_DIRECTION (0x004 >> 2) #define GPIO_ABCD_INT_ENABLE (0x008 >> 2) #define GPIO_ABCD_INT_SENS_0 (0x00C >> 2) #define GPIO_ABCD_INT_SENS_1 (0x010 >> 2) #define GPIO_ABCD_INT_SENS_2 (0x014 >> 2) #define GPIO_ABCD_INT_STATUS (0x018 >> 2) #define GPIO_ABCD_RESET_TOLERANT (0x01C >> 2) #define GPIO_EFGH_DATA_VALUE (0x020 >> 2) #define GPIO_EFGH_DIRECTION (0x024 >> 2) #define GPIO_EFGH_INT_ENABLE (0x028 >> 2) #define GPIO_EFGH_INT_SENS_0 (0x02C >> 2) #define GPIO_EFGH_INT_SENS_1 (0x030 >> 2) #define GPIO_EFGH_INT_SENS_2 (0x034 >> 2) #define GPIO_EFGH_INT_STATUS (0x038 >> 2) #define GPIO_EFGH_RESET_TOLERANT (0x03C >> 2) #define GPIO_ABCD_DEBOUNCE_1 (0x040 >> 2) #define GPIO_ABCD_DEBOUNCE_2 (0x044 >> 2) #define GPIO_EFGH_DEBOUNCE_1 (0x048 >> 2) #define GPIO_EFGH_DEBOUNCE_2 (0x04C >> 2) #define GPIO_DEBOUNCE_TIME_1 (0x050 >> 2) #define GPIO_DEBOUNCE_TIME_2 (0x054 >> 2) #define GPIO_DEBOUNCE_TIME_3 (0x058 >> 2) #define GPIO_ABCD_COMMAND_SRC_0 (0x060 >> 2) #define GPIO_ABCD_COMMAND_SRC_1 (0x064 >> 2) #define GPIO_EFGH_COMMAND_SRC_0 (0x068 >> 2) #define GPIO_EFGH_COMMAND_SRC_1 (0x06C >> 2) #define GPIO_IJKL_DATA_VALUE (0x070 >> 2) #define GPIO_IJKL_DIRECTION (0x074 >> 2) #define GPIO_MNOP_DATA_VALUE (0x078 >> 2) #define GPIO_MNOP_DIRECTION (0x07C >> 2) #define GPIO_QRST_DATA_VALUE (0x080 >> 2) #define GPIO_QRST_DIRECTION (0x084 >> 2) #define GPIO_UVWX_DATA_VALUE (0x088 >> 2) #define GPIO_UVWX_DIRECTION (0x08C >> 2) #define GPIO_IJKL_COMMAND_SRC_0 (0x090 >> 2) #define GPIO_IJKL_COMMAND_SRC_1 (0x094 >> 2) #define GPIO_IJKL_INT_ENABLE (0x098 >> 2) #define GPIO_IJKL_INT_SENS_0 (0x09C >> 2) #define GPIO_IJKL_INT_SENS_1 (0x0A0 >> 2) #define GPIO_IJKL_INT_SENS_2 (0x0A4 >> 2) #define GPIO_IJKL_INT_STATUS (0x0A8 >> 2) #define GPIO_IJKL_RESET_TOLERANT (0x0AC >> 2) #define GPIO_IJKL_DEBOUNCE_1 (0x0B0 >> 2) #define GPIO_IJKL_DEBOUNCE_2 (0x0B4 >> 2) #define GPIO_IJKL_INPUT_MASK (0x0B8 >> 2) #define GPIO_ABCD_DATA_READ (0x0C0 >> 2) #define GPIO_EFGH_DATA_READ (0x0C4 >> 2) #define GPIO_IJKL_DATA_READ (0x0C8 >> 2) #define GPIO_MNOP_DATA_READ (0x0CC >> 2) #define GPIO_QRST_DATA_READ (0x0D0 >> 2) #define GPIO_UVWX_DATA_READ (0x0D4 >> 2) #define GPIO_YZAAAB_DATA_READ (0x0D8 >> 2) #define GPIO_AC_DATA_READ (0x0DC >> 2) #define GPIO_MNOP_COMMAND_SRC_0 (0x0E0 >> 2) #define GPIO_MNOP_COMMAND_SRC_1 (0x0E4 >> 2) #define GPIO_MNOP_INT_ENABLE (0x0E8 >> 2) #define GPIO_MNOP_INT_SENS_0 (0x0EC >> 2) #define GPIO_MNOP_INT_SENS_1 (0x0F0 >> 2) #define GPIO_MNOP_INT_SENS_2 (0x0F4 >> 2) #define GPIO_MNOP_INT_STATUS (0x0F8 >> 2) #define GPIO_MNOP_RESET_TOLERANT (0x0FC >> 2) #define GPIO_MNOP_DEBOUNCE_1 (0x100 >> 2) #define GPIO_MNOP_DEBOUNCE_2 (0x104 >> 2) #define GPIO_MNOP_INPUT_MASK (0x108 >> 2) #define GPIO_QRST_COMMAND_SRC_0 (0x110 >> 2) #define GPIO_QRST_COMMAND_SRC_1 (0x114 >> 2) #define GPIO_QRST_INT_ENABLE (0x118 >> 2) #define GPIO_QRST_INT_SENS_0 (0x11C >> 2) #define GPIO_QRST_INT_SENS_1 (0x120 >> 2) #define GPIO_QRST_INT_SENS_2 (0x124 >> 2) #define GPIO_QRST_INT_STATUS (0x128 >> 2) #define GPIO_QRST_RESET_TOLERANT (0x12C >> 2) #define GPIO_QRST_DEBOUNCE_1 (0x130 >> 2) #define GPIO_QRST_DEBOUNCE_2 (0x134 >> 2) #define GPIO_QRST_INPUT_MASK (0x138 >> 2) #define GPIO_UVWX_COMMAND_SRC_0 (0x140 >> 2) #define GPIO_UVWX_COMMAND_SRC_1 (0x144 >> 2) #define GPIO_UVWX_INT_ENABLE (0x148 >> 2) #define GPIO_UVWX_INT_SENS_0 (0x14C >> 2) #define GPIO_UVWX_INT_SENS_1 (0x150 >> 2) #define GPIO_UVWX_INT_SENS_2 (0x154 >> 2) #define GPIO_UVWX_INT_STATUS (0x158 >> 2) #define GPIO_UVWX_RESET_TOLERANT (0x15C >> 2) #define GPIO_UVWX_DEBOUNCE_1 (0x160 >> 2) #define GPIO_UVWX_DEBOUNCE_2 (0x164 >> 2) #define GPIO_UVWX_INPUT_MASK (0x168 >> 2) #define GPIO_YZAAAB_COMMAND_SRC_0 (0x170 >> 2) #define GPIO_YZAAAB_COMMAND_SRC_1 (0x174 >> 2) #define GPIO_YZAAAB_INT_ENABLE (0x178 >> 2) #define GPIO_YZAAAB_INT_SENS_0 (0x17C >> 2) #define GPIO_YZAAAB_INT_SENS_1 (0x180 >> 2) #define GPIO_YZAAAB_INT_SENS_2 (0x184 >> 2) #define GPIO_YZAAAB_INT_STATUS (0x188 >> 2) #define GPIO_YZAAAB_RESET_TOLERANT (0x18C >> 2) #define GPIO_YZAAAB_DEBOUNCE_1 (0x190 >> 2) #define GPIO_YZAAAB_DEBOUNCE_2 (0x194 >> 2) #define GPIO_YZAAAB_INPUT_MASK (0x198 >> 2) #define GPIO_AC_COMMAND_SRC_0 (0x1A0 >> 2) #define GPIO_AC_COMMAND_SRC_1 (0x1A4 >> 2) #define GPIO_AC_INT_ENABLE (0x1A8 >> 2) #define GPIO_AC_INT_SENS_0 (0x1AC >> 2) #define GPIO_AC_INT_SENS_1 (0x1B0 >> 2) #define GPIO_AC_INT_SENS_2 (0x1B4 >> 2) #define GPIO_AC_INT_STATUS (0x1B8 >> 2) #define GPIO_AC_RESET_TOLERANT (0x1BC >> 2) #define GPIO_AC_DEBOUNCE_1 (0x1C0 >> 2) #define GPIO_AC_DEBOUNCE_2 (0x1C4 >> 2) #define GPIO_AC_INPUT_MASK (0x1C8 >> 2) #define GPIO_ABCD_INPUT_MASK (0x1D0 >> 2) #define GPIO_EFGH_INPUT_MASK (0x1D4 >> 2) #define GPIO_YZAAAB_DATA_VALUE (0x1E0 >> 2) #define GPIO_YZAAAB_DIRECTION (0x1E4 >> 2) #define GPIO_AC_DATA_VALUE (0x1E8 >> 2) #define GPIO_AC_DIRECTION (0x1EC >> 2) #define GPIO_3_3V_MEM_SIZE 0x1F0 #define GPIO_3_3V_REG_ARRAY_SIZE (GPIO_3_3V_MEM_SIZE >> 2) /* AST2600 only - 1.8V gpios */ /* * The AST2600 two copies of the GPIO controller: the same 3.3V gpios as the * AST2400 (memory offsets 0x0-0x198) and a second controller with 1.8V gpios * (memory offsets 0x800-0x9D4). */ #define GPIO_1_8V_ABCD_DATA_VALUE (0x000 >> 2) #define GPIO_1_8V_ABCD_DIRECTION (0x004 >> 2) #define GPIO_1_8V_ABCD_INT_ENABLE (0x008 >> 2) #define GPIO_1_8V_ABCD_INT_SENS_0 (0x00C >> 2) #define GPIO_1_8V_ABCD_INT_SENS_1 (0x010 >> 2) #define GPIO_1_8V_ABCD_INT_SENS_2 (0x014 >> 2) #define GPIO_1_8V_ABCD_INT_STATUS (0x018 >> 2) #define GPIO_1_8V_ABCD_RESET_TOLERANT (0x01C >> 2) #define GPIO_1_8V_E_DATA_VALUE (0x020 >> 2) #define GPIO_1_8V_E_DIRECTION (0x024 >> 2) #define GPIO_1_8V_E_INT_ENABLE (0x028 >> 2) #define GPIO_1_8V_E_INT_SENS_0 (0x02C >> 2) #define GPIO_1_8V_E_INT_SENS_1 (0x030 >> 2) #define GPIO_1_8V_E_INT_SENS_2 (0x034 >> 2) #define GPIO_1_8V_E_INT_STATUS (0x038 >> 2) #define GPIO_1_8V_E_RESET_TOLERANT (0x03C >> 2) #define GPIO_1_8V_ABCD_DEBOUNCE_1 (0x040 >> 2) #define GPIO_1_8V_ABCD_DEBOUNCE_2 (0x044 >> 2) #define GPIO_1_8V_E_DEBOUNCE_1 (0x048 >> 2) #define GPIO_1_8V_E_DEBOUNCE_2 (0x04C >> 2) #define GPIO_1_8V_DEBOUNCE_TIME_1 (0x050 >> 2) #define GPIO_1_8V_DEBOUNCE_TIME_2 (0x054 >> 2) #define GPIO_1_8V_DEBOUNCE_TIME_3 (0x058 >> 2) #define GPIO_1_8V_ABCD_COMMAND_SRC_0 (0x060 >> 2) #define GPIO_1_8V_ABCD_COMMAND_SRC_1 (0x064 >> 2) #define GPIO_1_8V_E_COMMAND_SRC_0 (0x068 >> 2) #define GPIO_1_8V_E_COMMAND_SRC_1 (0x06C >> 2) #define GPIO_1_8V_ABCD_DATA_READ (0x0C0 >> 2) #define GPIO_1_8V_E_DATA_READ (0x0C4 >> 2) #define GPIO_1_8V_ABCD_INPUT_MASK (0x1D0 >> 2) #define GPIO_1_8V_E_INPUT_MASK (0x1D4 >> 2) #define GPIO_1_8V_MEM_SIZE 0x1D8 #define GPIO_1_8V_REG_ARRAY_SIZE (GPIO_1_8V_MEM_SIZE >> 2) /* * GPIO index mode support * It only supports write operation */ REG32(GPIO_INDEX_REG, 0x2AC) FIELD(GPIO_INDEX_REG, NUMBER, 0, 8) FIELD(GPIO_INDEX_REG, COMMAND, 12, 1) FIELD(GPIO_INDEX_REG, TYPE, 16, 4) FIELD(GPIO_INDEX_REG, DATA_VALUE, 20, 1) FIELD(GPIO_INDEX_REG, DIRECTION, 20, 1) FIELD(GPIO_INDEX_REG, INT_ENABLE, 20, 1) FIELD(GPIO_INDEX_REG, INT_SENS_0, 21, 1) FIELD(GPIO_INDEX_REG, INT_SENS_1, 22, 1) FIELD(GPIO_INDEX_REG, INT_SENS_2, 23, 1) FIELD(GPIO_INDEX_REG, INT_STATUS, 24, 1) FIELD(GPIO_INDEX_REG, DEBOUNCE_1, 20, 1) FIELD(GPIO_INDEX_REG, DEBOUNCE_2, 21, 1) FIELD(GPIO_INDEX_REG, RESET_TOLERANT, 20, 1) FIELD(GPIO_INDEX_REG, COMMAND_SRC_0, 20, 1) FIELD(GPIO_INDEX_REG, COMMAND_SRC_1, 21, 1) FIELD(GPIO_INDEX_REG, INPUT_MASK, 20, 1) /* AST2700 GPIO Register Address Offsets */ REG32(GPIO_2700_DEBOUNCE_TIME_1, 0x000) REG32(GPIO_2700_DEBOUNCE_TIME_2, 0x004) REG32(GPIO_2700_DEBOUNCE_TIME_3, 0x008) REG32(GPIO_2700_INT_STATUS_1, 0x100) REG32(GPIO_2700_INT_STATUS_2, 0x104) REG32(GPIO_2700_INT_STATUS_3, 0x108) REG32(GPIO_2700_INT_STATUS_4, 0x10C) REG32(GPIO_2700_INT_STATUS_5, 0x110) REG32(GPIO_2700_INT_STATUS_6, 0x114) REG32(GPIO_2700_INT_STATUS_7, 0x118) /* GPIOA0 - GPIOAA7 Control Register */ REG32(GPIO_A0_CONTROL, 0x180) SHARED_FIELD(GPIO_CONTROL_OUT_DATA, 0, 1) SHARED_FIELD(GPIO_CONTROL_DIRECTION, 1, 1) SHARED_FIELD(GPIO_CONTROL_INT_ENABLE, 2, 1) SHARED_FIELD(GPIO_CONTROL_INT_SENS_0, 3, 1) SHARED_FIELD(GPIO_CONTROL_INT_SENS_1, 4, 1) SHARED_FIELD(GPIO_CONTROL_INT_SENS_2, 5, 1) SHARED_FIELD(GPIO_CONTROL_RESET_TOLERANCE, 6, 1) SHARED_FIELD(GPIO_CONTROL_DEBOUNCE_1, 7, 1) SHARED_FIELD(GPIO_CONTROL_DEBOUNCE_2, 8, 1) SHARED_FIELD(GPIO_CONTROL_INPUT_MASK, 9, 1) SHARED_FIELD(GPIO_CONTROL_BLINK_COUNTER_1, 10, 1) SHARED_FIELD(GPIO_CONTROL_BLINK_COUNTER_2, 11, 1) SHARED_FIELD(GPIO_CONTROL_INT_STATUS, 12, 1) SHARED_FIELD(GPIO_CONTROL_IN_DATA, 13, 1) SHARED_FIELD(GPIO_CONTROL_RESERVED, 14, 18) REG32(GPIO_AA7_CONTROL, 0x4DC) #define GPIO_2700_MEM_SIZE 0x4E0 #define GPIO_2700_REG_ARRAY_SIZE (GPIO_2700_MEM_SIZE >> 2) static int aspeed_evaluate_irq(GPIOSets *regs, int gpio_prev_high, int gpio) { uint32_t falling_edge = 0, rising_edge = 0; uint32_t int_trigger = extract32(regs->int_sens_0, gpio, 1) | extract32(regs->int_sens_1, gpio, 1) << 1 | extract32(regs->int_sens_2, gpio, 1) << 2; uint32_t gpio_curr_high = extract32(regs->data_value, gpio, 1); uint32_t gpio_int_enabled = extract32(regs->int_enable, gpio, 1); if (!gpio_int_enabled) { return 0; } /* Detect edges */ if (gpio_curr_high && !gpio_prev_high) { rising_edge = 1; } else if (!gpio_curr_high && gpio_prev_high) { falling_edge = 1; } if (((int_trigger == ASPEED_FALLING_EDGE) && falling_edge) || ((int_trigger == ASPEED_RISING_EDGE) && rising_edge) || ((int_trigger == ASPEED_LEVEL_LOW) && !gpio_curr_high) || ((int_trigger == ASPEED_LEVEL_HIGH) && gpio_curr_high) || ((int_trigger >= ASPEED_DUAL_EDGE) && (rising_edge || falling_edge))) { regs->int_status = deposit32(regs->int_status, gpio, 1, 1); return 1; } return 0; } #define nested_struct_index(ta, pa, m, tb, pb) \ (pb - ((tb *)(((char *)pa) + offsetof(ta, m)))) static ptrdiff_t aspeed_gpio_set_idx(AspeedGPIOState *s, GPIOSets *regs) { return nested_struct_index(AspeedGPIOState, s, sets, GPIOSets, regs); } static void aspeed_gpio_update(AspeedGPIOState *s, GPIOSets *regs, uint32_t value, uint32_t mode_mask) { uint32_t input_mask = regs->input_mask; uint32_t direction = regs->direction; uint32_t old = regs->data_value; uint32_t new = value; uint32_t diff; int gpio; diff = (old ^ new); diff &= mode_mask; if (diff) { for (gpio = 0; gpio < ASPEED_GPIOS_PER_SET; gpio++) { uint32_t mask = 1U << gpio; /* If the gpio needs to be updated... */ if (!(diff & mask)) { continue; } /* ...and we're output or not input-masked... */ if (!(direction & mask) && (input_mask & mask)) { continue; } /* ...then update the state. */ if (mask & new) { regs->data_value |= mask; } else { regs->data_value &= ~mask; } /* If the gpio is set to output... */ if (direction & mask) { /* ...trigger the line-state IRQ */ ptrdiff_t set = aspeed_gpio_set_idx(s, regs); qemu_set_irq(s->gpios[set][gpio], !!(new & mask)); } else { /* ...otherwise if we meet the line's current IRQ policy... */ if (aspeed_evaluate_irq(regs, old & mask, gpio)) { /* ...trigger the VIC IRQ */ s->pending++; } } } } qemu_set_irq(s->irq, !!(s->pending)); } static bool aspeed_gpio_get_pin_level(AspeedGPIOState *s, uint32_t set_idx, uint32_t pin) { uint32_t reg_val; uint32_t pin_mask = 1 << pin; reg_val = s->sets[set_idx].data_value; return !!(reg_val & pin_mask); } static void aspeed_gpio_set_pin_level(AspeedGPIOState *s, uint32_t set_idx, uint32_t pin, bool level) { uint32_t value = s->sets[set_idx].data_value; uint32_t pin_mask = 1 << pin; if (level) { value |= pin_mask; } else { value &= ~pin_mask; } aspeed_gpio_update(s, &s->sets[set_idx], value, ~s->sets[set_idx].direction); } /* * | src_1 | src_2 | source | * |-----------------------------| * | 0 | 0 | ARM | * | 0 | 1 | LPC | * | 1 | 0 | Coprocessor| * | 1 | 1 | Reserved | * * Once the source of a set is programmed, corresponding bits in the * data_value, direction, interrupt [enable, sens[0-2]], reset_tol and * debounce registers can only be written by the source. * * Source is ARM by default * only bits 24, 16, 8, and 0 can be set * * we don't currently have a model for the LPC or Coprocessor */ static uint32_t update_value_control_source(GPIOSets *regs, uint32_t old_value, uint32_t value) { int i; int cmd_source; /* assume the source is always ARM for now */ int source = ASPEED_SOURCE_ARM; uint32_t new_value = 0; /* for each group in set */ for (i = 0; i < ASPEED_GPIOS_PER_SET; i += GPIOS_PER_GROUP) { cmd_source = extract32(regs->cmd_source_0, i, 1) | (extract32(regs->cmd_source_1, i, 1) << 1); if (source == cmd_source) { new_value |= (0xff << i) & value; } else { new_value |= (0xff << i) & old_value; } } return new_value; } static const AspeedGPIOReg aspeed_3_3v_gpios[GPIO_3_3V_REG_ARRAY_SIZE] = { /* Set ABCD */ [GPIO_ABCD_DATA_VALUE] = { 0, gpio_reg_data_value }, [GPIO_ABCD_DIRECTION] = { 0, gpio_reg_direction }, [GPIO_ABCD_INT_ENABLE] = { 0, gpio_reg_int_enable }, [GPIO_ABCD_INT_SENS_0] = { 0, gpio_reg_int_sens_0 }, [GPIO_ABCD_INT_SENS_1] = { 0, gpio_reg_int_sens_1 }, [GPIO_ABCD_INT_SENS_2] = { 0, gpio_reg_int_sens_2 }, [GPIO_ABCD_INT_STATUS] = { 0, gpio_reg_int_status }, [GPIO_ABCD_RESET_TOLERANT] = { 0, gpio_reg_reset_tolerant }, [GPIO_ABCD_DEBOUNCE_1] = { 0, gpio_reg_debounce_1 }, [GPIO_ABCD_DEBOUNCE_2] = { 0, gpio_reg_debounce_2 }, [GPIO_ABCD_COMMAND_SRC_0] = { 0, gpio_reg_cmd_source_0 }, [GPIO_ABCD_COMMAND_SRC_1] = { 0, gpio_reg_cmd_source_1 }, [GPIO_ABCD_DATA_READ] = { 0, gpio_reg_data_read }, [GPIO_ABCD_INPUT_MASK] = { 0, gpio_reg_input_mask }, /* Set EFGH */ [GPIO_EFGH_DATA_VALUE] = { 1, gpio_reg_data_value }, [GPIO_EFGH_DIRECTION] = { 1, gpio_reg_direction }, [GPIO_EFGH_INT_ENABLE] = { 1, gpio_reg_int_enable }, [GPIO_EFGH_INT_SENS_0] = { 1, gpio_reg_int_sens_0 }, [GPIO_EFGH_INT_SENS_1] = { 1, gpio_reg_int_sens_1 }, [GPIO_EFGH_INT_SENS_2] = { 1, gpio_reg_int_sens_2 }, [GPIO_EFGH_INT_STATUS] = { 1, gpio_reg_int_status }, [GPIO_EFGH_RESET_TOLERANT] = { 1, gpio_reg_reset_tolerant }, [GPIO_EFGH_DEBOUNCE_1] = { 1, gpio_reg_debounce_1 }, [GPIO_EFGH_DEBOUNCE_2] = { 1, gpio_reg_debounce_2 }, [GPIO_EFGH_COMMAND_SRC_0] = { 1, gpio_reg_cmd_source_0 }, [GPIO_EFGH_COMMAND_SRC_1] = { 1, gpio_reg_cmd_source_1 }, [GPIO_EFGH_DATA_READ] = { 1, gpio_reg_data_read }, [GPIO_EFGH_INPUT_MASK] = { 1, gpio_reg_input_mask }, /* Set IJKL */ [GPIO_IJKL_DATA_VALUE] = { 2, gpio_reg_data_value }, [GPIO_IJKL_DIRECTION] = { 2, gpio_reg_direction }, [GPIO_IJKL_INT_ENABLE] = { 2, gpio_reg_int_enable }, [GPIO_IJKL_INT_SENS_0] = { 2, gpio_reg_int_sens_0 }, [GPIO_IJKL_INT_SENS_1] = { 2, gpio_reg_int_sens_1 }, [GPIO_IJKL_INT_SENS_2] = { 2, gpio_reg_int_sens_2 }, [GPIO_IJKL_INT_STATUS] = { 2, gpio_reg_int_status }, [GPIO_IJKL_RESET_TOLERANT] = { 2, gpio_reg_reset_tolerant }, [GPIO_IJKL_DEBOUNCE_1] = { 2, gpio_reg_debounce_1 }, [GPIO_IJKL_DEBOUNCE_2] = { 2, gpio_reg_debounce_2 }, [GPIO_IJKL_COMMAND_SRC_0] = { 2, gpio_reg_cmd_source_0 }, [GPIO_IJKL_COMMAND_SRC_1] = { 2, gpio_reg_cmd_source_1 }, [GPIO_IJKL_DATA_READ] = { 2, gpio_reg_data_read }, [GPIO_IJKL_INPUT_MASK] = { 2, gpio_reg_input_mask }, /* Set MNOP */ [GPIO_MNOP_DATA_VALUE] = { 3, gpio_reg_data_value }, [GPIO_MNOP_DIRECTION] = { 3, gpio_reg_direction }, [GPIO_MNOP_INT_ENABLE] = { 3, gpio_reg_int_enable }, [GPIO_MNOP_INT_SENS_0] = { 3, gpio_reg_int_sens_0 }, [GPIO_MNOP_INT_SENS_1] = { 3, gpio_reg_int_sens_1 }, [GPIO_MNOP_INT_SENS_2] = { 3, gpio_reg_int_sens_2 }, [GPIO_MNOP_INT_STATUS] = { 3, gpio_reg_int_status }, [GPIO_MNOP_RESET_TOLERANT] = { 3, gpio_reg_reset_tolerant }, [GPIO_MNOP_DEBOUNCE_1] = { 3, gpio_reg_debounce_1 }, [GPIO_MNOP_DEBOUNCE_2] = { 3, gpio_reg_debounce_2 }, [GPIO_MNOP_COMMAND_SRC_0] = { 3, gpio_reg_cmd_source_0 }, [GPIO_MNOP_COMMAND_SRC_1] = { 3, gpio_reg_cmd_source_1 }, [GPIO_MNOP_DATA_READ] = { 3, gpio_reg_data_read }, [GPIO_MNOP_INPUT_MASK] = { 3, gpio_reg_input_mask }, /* Set QRST */ [GPIO_QRST_DATA_VALUE] = { 4, gpio_reg_data_value }, [GPIO_QRST_DIRECTION] = { 4, gpio_reg_direction }, [GPIO_QRST_INT_ENABLE] = { 4, gpio_reg_int_enable }, [GPIO_QRST_INT_SENS_0] = { 4, gpio_reg_int_sens_0 }, [GPIO_QRST_INT_SENS_1] = { 4, gpio_reg_int_sens_1 }, [GPIO_QRST_INT_SENS_2] = { 4, gpio_reg_int_sens_2 }, [GPIO_QRST_INT_STATUS] = { 4, gpio_reg_int_status }, [GPIO_QRST_RESET_TOLERANT] = { 4, gpio_reg_reset_tolerant }, [GPIO_QRST_DEBOUNCE_1] = { 4, gpio_reg_debounce_1 }, [GPIO_QRST_DEBOUNCE_2] = { 4, gpio_reg_debounce_2 }, [GPIO_QRST_COMMAND_SRC_0] = { 4, gpio_reg_cmd_source_0 }, [GPIO_QRST_COMMAND_SRC_1] = { 4, gpio_reg_cmd_source_1 }, [GPIO_QRST_DATA_READ] = { 4, gpio_reg_data_read }, [GPIO_QRST_INPUT_MASK] = { 4, gpio_reg_input_mask }, /* Set UVWX */ [GPIO_UVWX_DATA_VALUE] = { 5, gpio_reg_data_value }, [GPIO_UVWX_DIRECTION] = { 5, gpio_reg_direction }, [GPIO_UVWX_INT_ENABLE] = { 5, gpio_reg_int_enable }, [GPIO_UVWX_INT_SENS_0] = { 5, gpio_reg_int_sens_0 }, [GPIO_UVWX_INT_SENS_1] = { 5, gpio_reg_int_sens_1 }, [GPIO_UVWX_INT_SENS_2] = { 5, gpio_reg_int_sens_2 }, [GPIO_UVWX_INT_STATUS] = { 5, gpio_reg_int_status }, [GPIO_UVWX_RESET_TOLERANT] = { 5, gpio_reg_reset_tolerant }, [GPIO_UVWX_DEBOUNCE_1] = { 5, gpio_reg_debounce_1 }, [GPIO_UVWX_DEBOUNCE_2] = { 5, gpio_reg_debounce_2 }, [GPIO_UVWX_COMMAND_SRC_0] = { 5, gpio_reg_cmd_source_0 }, [GPIO_UVWX_COMMAND_SRC_1] = { 5, gpio_reg_cmd_source_1 }, [GPIO_UVWX_DATA_READ] = { 5, gpio_reg_data_read }, [GPIO_UVWX_INPUT_MASK] = { 5, gpio_reg_input_mask }, /* Set YZAAAB */ [GPIO_YZAAAB_DATA_VALUE] = { 6, gpio_reg_data_value }, [GPIO_YZAAAB_DIRECTION] = { 6, gpio_reg_direction }, [GPIO_YZAAAB_INT_ENABLE] = { 6, gpio_reg_int_enable }, [GPIO_YZAAAB_INT_SENS_0] = { 6, gpio_reg_int_sens_0 }, [GPIO_YZAAAB_INT_SENS_1] = { 6, gpio_reg_int_sens_1 }, [GPIO_YZAAAB_INT_SENS_2] = { 6, gpio_reg_int_sens_2 }, [GPIO_YZAAAB_INT_STATUS] = { 6, gpio_reg_int_status }, [GPIO_YZAAAB_RESET_TOLERANT] = { 6, gpio_reg_reset_tolerant }, [GPIO_YZAAAB_DEBOUNCE_1] = { 6, gpio_reg_debounce_1 }, [GPIO_YZAAAB_DEBOUNCE_2] = { 6, gpio_reg_debounce_2 }, [GPIO_YZAAAB_COMMAND_SRC_0] = { 6, gpio_reg_cmd_source_0 }, [GPIO_YZAAAB_COMMAND_SRC_1] = { 6, gpio_reg_cmd_source_1 }, [GPIO_YZAAAB_DATA_READ] = { 6, gpio_reg_data_read }, [GPIO_YZAAAB_INPUT_MASK] = { 6, gpio_reg_input_mask }, /* Set AC (ast2500 only) */ [GPIO_AC_DATA_VALUE] = { 7, gpio_reg_data_value }, [GPIO_AC_DIRECTION] = { 7, gpio_reg_direction }, [GPIO_AC_INT_ENABLE] = { 7, gpio_reg_int_enable }, [GPIO_AC_INT_SENS_0] = { 7, gpio_reg_int_sens_0 }, [GPIO_AC_INT_SENS_1] = { 7, gpio_reg_int_sens_1 }, [GPIO_AC_INT_SENS_2] = { 7, gpio_reg_int_sens_2 }, [GPIO_AC_INT_STATUS] = { 7, gpio_reg_int_status }, [GPIO_AC_RESET_TOLERANT] = { 7, gpio_reg_reset_tolerant }, [GPIO_AC_DEBOUNCE_1] = { 7, gpio_reg_debounce_1 }, [GPIO_AC_DEBOUNCE_2] = { 7, gpio_reg_debounce_2 }, [GPIO_AC_COMMAND_SRC_0] = { 7, gpio_reg_cmd_source_0 }, [GPIO_AC_COMMAND_SRC_1] = { 7, gpio_reg_cmd_source_1 }, [GPIO_AC_DATA_READ] = { 7, gpio_reg_data_read }, [GPIO_AC_INPUT_MASK] = { 7, gpio_reg_input_mask }, }; static const AspeedGPIOReg aspeed_1_8v_gpios[GPIO_1_8V_REG_ARRAY_SIZE] = { /* 1.8V Set ABCD */ [GPIO_1_8V_ABCD_DATA_VALUE] = {0, gpio_reg_data_value}, [GPIO_1_8V_ABCD_DIRECTION] = {0, gpio_reg_direction}, [GPIO_1_8V_ABCD_INT_ENABLE] = {0, gpio_reg_int_enable}, [GPIO_1_8V_ABCD_INT_SENS_0] = {0, gpio_reg_int_sens_0}, [GPIO_1_8V_ABCD_INT_SENS_1] = {0, gpio_reg_int_sens_1}, [GPIO_1_8V_ABCD_INT_SENS_2] = {0, gpio_reg_int_sens_2}, [GPIO_1_8V_ABCD_INT_STATUS] = {0, gpio_reg_int_status}, [GPIO_1_8V_ABCD_RESET_TOLERANT] = {0, gpio_reg_reset_tolerant}, [GPIO_1_8V_ABCD_DEBOUNCE_1] = {0, gpio_reg_debounce_1}, [GPIO_1_8V_ABCD_DEBOUNCE_2] = {0, gpio_reg_debounce_2}, [GPIO_1_8V_ABCD_COMMAND_SRC_0] = {0, gpio_reg_cmd_source_0}, [GPIO_1_8V_ABCD_COMMAND_SRC_1] = {0, gpio_reg_cmd_source_1}, [GPIO_1_8V_ABCD_DATA_READ] = {0, gpio_reg_data_read}, [GPIO_1_8V_ABCD_INPUT_MASK] = {0, gpio_reg_input_mask}, /* 1.8V Set E */ [GPIO_1_8V_E_DATA_VALUE] = {1, gpio_reg_data_value}, [GPIO_1_8V_E_DIRECTION] = {1, gpio_reg_direction}, [GPIO_1_8V_E_INT_ENABLE] = {1, gpio_reg_int_enable}, [GPIO_1_8V_E_INT_SENS_0] = {1, gpio_reg_int_sens_0}, [GPIO_1_8V_E_INT_SENS_1] = {1, gpio_reg_int_sens_1}, [GPIO_1_8V_E_INT_SENS_2] = {1, gpio_reg_int_sens_2}, [GPIO_1_8V_E_INT_STATUS] = {1, gpio_reg_int_status}, [GPIO_1_8V_E_RESET_TOLERANT] = {1, gpio_reg_reset_tolerant}, [GPIO_1_8V_E_DEBOUNCE_1] = {1, gpio_reg_debounce_1}, [GPIO_1_8V_E_DEBOUNCE_2] = {1, gpio_reg_debounce_2}, [GPIO_1_8V_E_COMMAND_SRC_0] = {1, gpio_reg_cmd_source_0}, [GPIO_1_8V_E_COMMAND_SRC_1] = {1, gpio_reg_cmd_source_1}, [GPIO_1_8V_E_DATA_READ] = {1, gpio_reg_data_read}, [GPIO_1_8V_E_INPUT_MASK] = {1, gpio_reg_input_mask}, }; static uint64_t aspeed_gpio_read(void *opaque, hwaddr offset, uint32_t size) { AspeedGPIOState *s = ASPEED_GPIO(opaque); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); uint64_t idx = -1; const AspeedGPIOReg *reg; GPIOSets *set; uint32_t value = 0; uint64_t debounce_value; idx = offset >> 2; if (idx >= GPIO_DEBOUNCE_TIME_1 && idx <= GPIO_DEBOUNCE_TIME_3) { idx -= GPIO_DEBOUNCE_TIME_1; debounce_value = (uint64_t) s->debounce_regs[idx]; trace_aspeed_gpio_read(offset, debounce_value); return debounce_value; } if (idx >= agc->reg_table_count) { qemu_log_mask(LOG_GUEST_ERROR, "%s: idx 0x%" PRIx64 " out of bounds\n", __func__, idx); return 0; } reg = &agc->reg_table[idx]; if (reg->set_idx >= agc->nr_gpio_sets) { qemu_log_mask(LOG_GUEST_ERROR, "%s: no getter for offset 0x%" PRIx64"\n", __func__, offset); return 0; } set = &s->sets[reg->set_idx]; switch (reg->type) { case gpio_reg_data_value: value = set->data_value; break; case gpio_reg_direction: value = set->direction; break; case gpio_reg_int_enable: value = set->int_enable; break; case gpio_reg_int_sens_0: value = set->int_sens_0; break; case gpio_reg_int_sens_1: value = set->int_sens_1; break; case gpio_reg_int_sens_2: value = set->int_sens_2; break; case gpio_reg_int_status: value = set->int_status; break; case gpio_reg_reset_tolerant: value = set->reset_tol; break; case gpio_reg_debounce_1: value = set->debounce_1; break; case gpio_reg_debounce_2: value = set->debounce_2; break; case gpio_reg_cmd_source_0: value = set->cmd_source_0; break; case gpio_reg_cmd_source_1: value = set->cmd_source_1; break; case gpio_reg_data_read: value = set->data_read; break; case gpio_reg_input_mask: value = set->input_mask; break; default: qemu_log_mask(LOG_GUEST_ERROR, "%s: no getter for offset 0x%" PRIx64"\n", __func__, offset); return 0; } trace_aspeed_gpio_read(offset, value); return value; } static void aspeed_gpio_write_index_mode(void *opaque, hwaddr offset, uint64_t data, uint32_t size) { AspeedGPIOState *s = ASPEED_GPIO(opaque); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); const GPIOSetProperties *props; GPIOSets *set; uint32_t reg_idx_number = FIELD_EX32(data, GPIO_INDEX_REG, NUMBER); uint32_t reg_idx_type = FIELD_EX32(data, GPIO_INDEX_REG, TYPE); uint32_t reg_idx_command = FIELD_EX32(data, GPIO_INDEX_REG, COMMAND); uint32_t set_idx = reg_idx_number / ASPEED_GPIOS_PER_SET; uint32_t pin_idx = reg_idx_number % ASPEED_GPIOS_PER_SET; uint32_t group_idx = pin_idx / GPIOS_PER_GROUP; uint32_t reg_value = 0; uint32_t pending = 0; set = &s->sets[set_idx]; props = &agc->props[set_idx]; if (reg_idx_command) qemu_log_mask(LOG_GUEST_ERROR, "%s: offset 0x%" PRIx64 "data 0x%" PRIx64 "index mode wrong command 0x%x\n", __func__, offset, data, reg_idx_command); switch (reg_idx_type) { case gpio_reg_idx_data: reg_value = set->data_read; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, DATA_VALUE)); reg_value &= props->output; reg_value = update_value_control_source(set, set->data_value, reg_value); set->data_read = reg_value; aspeed_gpio_update(s, set, reg_value, set->direction); return; case gpio_reg_idx_direction: reg_value = set->direction; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, DIRECTION)); /* * where data is the value attempted to be written to the pin: * pin type | input mask | output mask | expected value * ------------------------------------------------------------ * bidirectional | 1 | 1 | data * input only | 1 | 0 | 0 * output only | 0 | 1 | 1 * no pin | 0 | 0 | 0 * * which is captured by: * data = ( data | ~input) & output; */ reg_value = (reg_value | ~props->input) & props->output; set->direction = update_value_control_source(set, set->direction, reg_value); break; case gpio_reg_idx_interrupt: reg_value = set->int_enable; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, INT_ENABLE)); set->int_enable = update_value_control_source(set, set->int_enable, reg_value); reg_value = set->int_sens_0; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, INT_SENS_0)); set->int_sens_0 = update_value_control_source(set, set->int_sens_0, reg_value); reg_value = set->int_sens_1; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, INT_SENS_1)); set->int_sens_1 = update_value_control_source(set, set->int_sens_1, reg_value); reg_value = set->int_sens_2; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, INT_SENS_2)); set->int_sens_2 = update_value_control_source(set, set->int_sens_2, reg_value); /* interrupt status */ if (FIELD_EX32(data, GPIO_INDEX_REG, INT_STATUS)) { /* pending is either 1 or 0 for a 1-bit field */ pending = extract32(set->int_status, pin_idx, 1); assert(s->pending >= pending); /* No change to s->pending if pending is 0 */ s->pending -= pending; /* * The write acknowledged the interrupt regardless of whether it * was pending or not. The post-condition is that it mustn't be * pending. Unconditionally clear the status bit. */ set->int_status = deposit32(set->int_status, pin_idx, 1, 0); } break; case gpio_reg_idx_debounce: reg_value = set->debounce_1; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, DEBOUNCE_1)); set->debounce_1 = update_value_control_source(set, set->debounce_1, reg_value); reg_value = set->debounce_2; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, DEBOUNCE_2)); set->debounce_2 = update_value_control_source(set, set->debounce_2, reg_value); return; case gpio_reg_idx_tolerance: reg_value = set->reset_tol; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, RESET_TOLERANT)); set->reset_tol = update_value_control_source(set, set->reset_tol, reg_value); return; case gpio_reg_idx_cmd_src: reg_value = set->cmd_source_0; reg_value = deposit32(reg_value, GPIOS_PER_GROUP * group_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, COMMAND_SRC_0)); set->cmd_source_0 = reg_value & ASPEED_CMD_SRC_MASK; reg_value = set->cmd_source_1; reg_value = deposit32(reg_value, GPIOS_PER_GROUP * group_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, COMMAND_SRC_1)); set->cmd_source_1 = reg_value & ASPEED_CMD_SRC_MASK; return; case gpio_reg_idx_input_mask: reg_value = set->input_mask; reg_value = deposit32(reg_value, pin_idx, 1, FIELD_EX32(data, GPIO_INDEX_REG, INPUT_MASK)); /* * feeds into interrupt generation * 0: read from data value reg will be updated * 1: read from data value reg will not be updated */ set->input_mask = reg_value & props->input; break; default: qemu_log_mask(LOG_GUEST_ERROR, "%s: offset 0x%" PRIx64 "data 0x%" PRIx64 "index mode wrong type 0x%x\n", __func__, offset, data, reg_idx_type); return; } aspeed_gpio_update(s, set, set->data_value, UINT32_MAX); return; } static void aspeed_gpio_write(void *opaque, hwaddr offset, uint64_t data, uint32_t size) { AspeedGPIOState *s = ASPEED_GPIO(opaque); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); const GPIOSetProperties *props; uint64_t idx = -1; const AspeedGPIOReg *reg; GPIOSets *set; uint32_t cleared; trace_aspeed_gpio_write(offset, data); idx = offset >> 2; /* check gpio index mode */ if (idx == R_GPIO_INDEX_REG) { aspeed_gpio_write_index_mode(opaque, offset, data, size); return; } if (idx >= GPIO_DEBOUNCE_TIME_1 && idx <= GPIO_DEBOUNCE_TIME_3) { idx -= GPIO_DEBOUNCE_TIME_1; s->debounce_regs[idx] = (uint32_t) data; return; } if (idx >= agc->reg_table_count) { qemu_log_mask(LOG_GUEST_ERROR, "%s: idx 0x%" PRIx64 " out of bounds\n", __func__, idx); return; } reg = &agc->reg_table[idx]; if (reg->set_idx >= agc->nr_gpio_sets) { qemu_log_mask(LOG_GUEST_ERROR, "%s: no setter for offset 0x%" PRIx64"\n", __func__, offset); return; } set = &s->sets[reg->set_idx]; props = &agc->props[reg->set_idx]; switch (reg->type) { case gpio_reg_data_value: data &= props->output; data = update_value_control_source(set, set->data_value, data); set->data_read = data; aspeed_gpio_update(s, set, data, set->direction); return; case gpio_reg_direction: /* * where data is the value attempted to be written to the pin: * pin type | input mask | output mask | expected value * ------------------------------------------------------------ * bidirectional | 1 | 1 | data * input only | 1 | 0 | 0 * output only | 0 | 1 | 1 * no pin | 0 | 0 | 0 * * which is captured by: * data = ( data | ~input) & output; */ data = (data | ~props->input) & props->output; set->direction = update_value_control_source(set, set->direction, data); break; case gpio_reg_int_enable: set->int_enable = update_value_control_source(set, set->int_enable, data); break; case gpio_reg_int_sens_0: set->int_sens_0 = update_value_control_source(set, set->int_sens_0, data); break; case gpio_reg_int_sens_1: set->int_sens_1 = update_value_control_source(set, set->int_sens_1, data); break; case gpio_reg_int_sens_2: set->int_sens_2 = update_value_control_source(set, set->int_sens_2, data); break; case gpio_reg_int_status: cleared = ctpop32(data & set->int_status); if (s->pending && cleared) { assert(s->pending >= cleared); s->pending -= cleared; } set->int_status &= ~data; break; case gpio_reg_reset_tolerant: set->reset_tol = update_value_control_source(set, set->reset_tol, data); return; case gpio_reg_debounce_1: set->debounce_1 = update_value_control_source(set, set->debounce_1, data); return; case gpio_reg_debounce_2: set->debounce_2 = update_value_control_source(set, set->debounce_2, data); return; case gpio_reg_cmd_source_0: set->cmd_source_0 = data & ASPEED_CMD_SRC_MASK; return; case gpio_reg_cmd_source_1: set->cmd_source_1 = data & ASPEED_CMD_SRC_MASK; return; case gpio_reg_data_read: /* Read only register */ return; case gpio_reg_input_mask: /* * feeds into interrupt generation * 0: read from data value reg will be updated * 1: read from data value reg will not be updated */ set->input_mask = data & props->input; break; default: qemu_log_mask(LOG_GUEST_ERROR, "%s: no setter for offset 0x%" PRIx64"\n", __func__, offset); return; } aspeed_gpio_update(s, set, set->data_value, UINT32_MAX); return; } static int get_set_idx(AspeedGPIOState *s, const char *group, int *group_idx) { AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); int set_idx, g_idx; for (set_idx = 0; set_idx < agc->nr_gpio_sets; set_idx++) { const GPIOSetProperties *set_props = &agc->props[set_idx]; for (g_idx = 0; g_idx < ASPEED_GROUPS_PER_SET; g_idx++) { if (!strncmp(group, set_props->group_label[g_idx], strlen(group))) { *group_idx = g_idx; return set_idx; } } } return -1; } static void aspeed_gpio_get_pin(Object *obj, Visitor *v, const char *name, void *opaque, Error **errp) { int pin = 0xfff; bool level = true; char group[4]; AspeedGPIOState *s = ASPEED_GPIO(obj); int set_idx, group_idx = 0; if (sscanf(name, "gpio%2[A-Z]%1d", group, &pin) != 2) { /* 1.8V gpio */ if (sscanf(name, "gpio%3[18A-E]%1d", group, &pin) != 2) { error_setg(errp, "%s: error reading %s", __func__, name); return; } } set_idx = get_set_idx(s, group, &group_idx); if (set_idx == -1) { error_setg(errp, "%s: invalid group %s", __func__, group); return; } pin = pin + group_idx * GPIOS_PER_GROUP; level = aspeed_gpio_get_pin_level(s, set_idx, pin); visit_type_bool(v, name, &level, errp); } static void aspeed_gpio_set_pin(Object *obj, Visitor *v, const char *name, void *opaque, Error **errp) { bool level; int pin = 0xfff; char group[4]; AspeedGPIOState *s = ASPEED_GPIO(obj); int set_idx, group_idx = 0; if (!visit_type_bool(v, name, &level, errp)) { return; } if (sscanf(name, "gpio%2[A-Z]%1d", group, &pin) != 2) { /* 1.8V gpio */ if (sscanf(name, "gpio%3[18A-E]%1d", group, &pin) != 2) { error_setg(errp, "%s: error reading %s", __func__, name); return; } } set_idx = get_set_idx(s, group, &group_idx); if (set_idx == -1) { error_setg(errp, "%s: invalid group %s", __func__, group); return; } pin = pin + group_idx * GPIOS_PER_GROUP; aspeed_gpio_set_pin_level(s, set_idx, pin, level); } static uint64_t aspeed_gpio_2700_read_control_reg(AspeedGPIOState *s, uint32_t pin) { AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); GPIOSets *set; uint64_t value = 0; uint32_t set_idx; uint32_t pin_idx; set_idx = pin / ASPEED_GPIOS_PER_SET; pin_idx = pin % ASPEED_GPIOS_PER_SET; if (set_idx >= agc->nr_gpio_sets) { qemu_log_mask(LOG_GUEST_ERROR, "%s: set index: %d, out of bounds\n", __func__, set_idx); return 0; } set = &s->sets[set_idx]; value = SHARED_FIELD_DP32(value, GPIO_CONTROL_OUT_DATA, extract32(set->data_read, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_DIRECTION, extract32(set->direction, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_INT_ENABLE, extract32(set->int_enable, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_INT_SENS_0, extract32(set->int_sens_0, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_INT_SENS_1, extract32(set->int_sens_1, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_INT_SENS_2, extract32(set->int_sens_2, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_RESET_TOLERANCE, extract32(set->reset_tol, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_DEBOUNCE_1, extract32(set->debounce_1, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_DEBOUNCE_2, extract32(set->debounce_2, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_INPUT_MASK, extract32(set->input_mask, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_INT_STATUS, extract32(set->int_status, pin_idx, 1)); value = SHARED_FIELD_DP32(value, GPIO_CONTROL_IN_DATA, extract32(set->data_value, pin_idx, 1)); return value; } static void aspeed_gpio_2700_write_control_reg(AspeedGPIOState *s, uint32_t pin, uint64_t data) { AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); const GPIOSetProperties *props; GPIOSets *set; uint32_t set_idx; uint32_t pin_idx; uint32_t group_value = 0; uint32_t pending = 0; set_idx = pin / ASPEED_GPIOS_PER_SET; pin_idx = pin % ASPEED_GPIOS_PER_SET; if (set_idx >= agc->nr_gpio_sets) { qemu_log_mask(LOG_GUEST_ERROR, "%s: set index: %d, out of bounds\n", __func__, set_idx); return; } set = &s->sets[set_idx]; props = &agc->props[set_idx]; /* direction */ group_value = set->direction; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_DIRECTION)); /* * where data is the value attempted to be written to the pin: * pin type | input mask | output mask | expected value * ------------------------------------------------------------ * bidirectional | 1 | 1 | data * input only | 1 | 0 | 0 * output only | 0 | 1 | 1 * no pin | 0 | 0 | 0 * * which is captured by: * data = ( data | ~input) & output; */ group_value = (group_value | ~props->input) & props->output; set->direction = update_value_control_source(set, set->direction, group_value); /* out data */ group_value = set->data_read; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_OUT_DATA)); group_value &= props->output; group_value = update_value_control_source(set, set->data_read, group_value); set->data_read = group_value; /* interrupt enable */ group_value = set->int_enable; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_INT_ENABLE)); set->int_enable = update_value_control_source(set, set->int_enable, group_value); /* interrupt sensitivity type 0 */ group_value = set->int_sens_0; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_INT_SENS_0)); set->int_sens_0 = update_value_control_source(set, set->int_sens_0, group_value); /* interrupt sensitivity type 1 */ group_value = set->int_sens_1; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_INT_SENS_1)); set->int_sens_1 = update_value_control_source(set, set->int_sens_1, group_value); /* interrupt sensitivity type 2 */ group_value = set->int_sens_2; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_INT_SENS_2)); set->int_sens_2 = update_value_control_source(set, set->int_sens_2, group_value); /* reset tolerance enable */ group_value = set->reset_tol; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_RESET_TOLERANCE)); set->reset_tol = update_value_control_source(set, set->reset_tol, group_value); /* debounce 1 */ group_value = set->debounce_1; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_DEBOUNCE_1)); set->debounce_1 = update_value_control_source(set, set->debounce_1, group_value); /* debounce 2 */ group_value = set->debounce_2; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_DEBOUNCE_2)); set->debounce_2 = update_value_control_source(set, set->debounce_2, group_value); /* input mask */ group_value = set->input_mask; group_value = deposit32(group_value, pin_idx, 1, SHARED_FIELD_EX32(data, GPIO_CONTROL_INPUT_MASK)); /* * feeds into interrupt generation * 0: read from data value reg will be updated * 1: read from data value reg will not be updated */ set->input_mask = group_value & props->input; /* blink counter 1 */ /* blink counter 2 */ /* unimplement */ /* interrupt status */ if (SHARED_FIELD_EX32(data, GPIO_CONTROL_INT_STATUS)) { /* pending is either 1 or 0 for a 1-bit field */ pending = extract32(set->int_status, pin_idx, 1); assert(s->pending >= pending); /* No change to s->pending if pending is 0 */ s->pending -= pending; /* * The write acknowledged the interrupt regardless of whether it * was pending or not. The post-condition is that it mustn't be * pending. Unconditionally clear the status bit. */ set->int_status = deposit32(set->int_status, pin_idx, 1, 0); } aspeed_gpio_update(s, set, set->data_value, UINT32_MAX); return; } static uint64_t aspeed_gpio_2700_read(void *opaque, hwaddr offset, uint32_t size) { AspeedGPIOState *s = ASPEED_GPIO(opaque); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); GPIOSets *set; uint64_t value; uint64_t reg; uint32_t pin; uint32_t idx; reg = offset >> 2; if (reg >= agc->reg_table_count) { qemu_log_mask(LOG_GUEST_ERROR, "%s: offset 0x%" PRIx64 " out of bounds\n", __func__, offset); return 0; } switch (reg) { case R_GPIO_2700_DEBOUNCE_TIME_1 ... R_GPIO_2700_DEBOUNCE_TIME_3: idx = reg - R_GPIO_2700_DEBOUNCE_TIME_1; if (idx >= ASPEED_GPIO_NR_DEBOUNCE_REGS) { qemu_log_mask(LOG_GUEST_ERROR, "%s: debounce index: %d, out of bounds\n", __func__, idx); return 0; } value = (uint64_t) s->debounce_regs[idx]; break; case R_GPIO_2700_INT_STATUS_1 ... R_GPIO_2700_INT_STATUS_7: idx = reg - R_GPIO_2700_INT_STATUS_1; if (idx >= agc->nr_gpio_sets) { qemu_log_mask(LOG_GUEST_ERROR, "%s: interrupt status index: %d, out of bounds\n", __func__, idx); return 0; } set = &s->sets[idx]; value = (uint64_t) set->int_status; break; case R_GPIO_A0_CONTROL ... R_GPIO_AA7_CONTROL: pin = reg - R_GPIO_A0_CONTROL; if (pin >= agc->nr_gpio_pins) { qemu_log_mask(LOG_GUEST_ERROR, "%s: invalid pin number: %d\n", __func__, pin); return 0; } value = aspeed_gpio_2700_read_control_reg(s, pin); break; default: qemu_log_mask(LOG_GUEST_ERROR, "%s: no getter for offset 0x%" PRIx64"\n", __func__, offset); return 0; } trace_aspeed_gpio_read(offset, value); return value; } static void aspeed_gpio_2700_write(void *opaque, hwaddr offset, uint64_t data, uint32_t size) { AspeedGPIOState *s = ASPEED_GPIO(opaque); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); uint64_t reg; uint32_t pin; uint32_t idx; trace_aspeed_gpio_write(offset, data); reg = offset >> 2; if (reg >= agc->reg_table_count) { qemu_log_mask(LOG_GUEST_ERROR, "%s: offset 0x%" PRIx64 " out of bounds\n", __func__, offset); return; } switch (reg) { case R_GPIO_2700_DEBOUNCE_TIME_1 ... R_GPIO_2700_DEBOUNCE_TIME_3: idx = reg - R_GPIO_2700_DEBOUNCE_TIME_1; if (idx >= ASPEED_GPIO_NR_DEBOUNCE_REGS) { qemu_log_mask(LOG_GUEST_ERROR, "%s: debounce index: %d out of bounds\n", __func__, idx); return; } s->debounce_regs[idx] = (uint32_t) data; break; case R_GPIO_A0_CONTROL ... R_GPIO_AA7_CONTROL: pin = reg - R_GPIO_A0_CONTROL; if (pin >= agc->nr_gpio_pins) { qemu_log_mask(LOG_GUEST_ERROR, "%s: invalid pin number: %d\n", __func__, pin); return; } if (SHARED_FIELD_EX32(data, GPIO_CONTROL_RESERVED)) { qemu_log_mask(LOG_GUEST_ERROR, "%s: invalid reserved data: 0x%" PRIx64"\n", __func__, data); return; } aspeed_gpio_2700_write_control_reg(s, pin, data); break; default: qemu_log_mask(LOG_GUEST_ERROR, "%s: no setter for offset 0x%" PRIx64"\n", __func__, offset); break; } return; } /* Setup functions */ static const GPIOSetProperties ast2400_set_props[ASPEED_GPIO_MAX_NR_SETS] = { [0] = {0xffffffff, 0xffffffff, {"A", "B", "C", "D"} }, [1] = {0xffffffff, 0xffffffff, {"E", "F", "G", "H"} }, [2] = {0xffffffff, 0xffffffff, {"I", "J", "K", "L"} }, [3] = {0xffffffff, 0xffffffff, {"M", "N", "O", "P"} }, [4] = {0xffffffff, 0xffffffff, {"Q", "R", "S", "T"} }, [5] = {0xffffffff, 0x0000ffff, {"U", "V", "W", "X"} }, [6] = {0x0000000f, 0x0fffff0f, {"Y", "Z", "AA", "AB"} }, }; static const GPIOSetProperties ast2500_set_props[ASPEED_GPIO_MAX_NR_SETS] = { [0] = {0xffffffff, 0xffffffff, {"A", "B", "C", "D"} }, [1] = {0xffffffff, 0xffffffff, {"E", "F", "G", "H"} }, [2] = {0xffffffff, 0xffffffff, {"I", "J", "K", "L"} }, [3] = {0xffffffff, 0xffffffff, {"M", "N", "O", "P"} }, [4] = {0xffffffff, 0xffffffff, {"Q", "R", "S", "T"} }, [5] = {0xffffffff, 0x0000ffff, {"U", "V", "W", "X"} }, [6] = {0x0fffffff, 0x0fffffff, {"Y", "Z", "AA", "AB"} }, [7] = {0x000000ff, 0x000000ff, {"AC"} }, }; static GPIOSetProperties ast2600_3_3v_set_props[ASPEED_GPIO_MAX_NR_SETS] = { [0] = {0xffffffff, 0xffffffff, {"A", "B", "C", "D"} }, [1] = {0xffffffff, 0xffffffff, {"E", "F", "G", "H"} }, [2] = {0xffffffff, 0xffffffff, {"I", "J", "K", "L"} }, [3] = {0xffffffff, 0xffffffff, {"M", "N", "O", "P"} }, [4] = {0xffffffff, 0x00ffffff, {"Q", "R", "S", "T"} }, [5] = {0xffffffff, 0xffffff00, {"U", "V", "W", "X"} }, [6] = {0x0000ffff, 0x0000ffff, {"Y", "Z"} }, }; static GPIOSetProperties ast2600_1_8v_set_props[ASPEED_GPIO_MAX_NR_SETS] = { [0] = {0xffffffff, 0xffffffff, {"18A", "18B", "18C", "18D"} }, [1] = {0x0000000f, 0x0000000f, {"18E"} }, }; static GPIOSetProperties ast1030_set_props[ASPEED_GPIO_MAX_NR_SETS] = { [0] = {0xffffffff, 0xffffffff, {"A", "B", "C", "D"} }, [1] = {0xffffffff, 0xffffffff, {"E", "F", "G", "H"} }, [2] = {0xffffffff, 0xffffffff, {"I", "J", "K", "L"} }, [3] = {0xffffff3f, 0xffffff3f, {"M", "N", "O", "P"} }, [4] = {0xff060c1f, 0x00060c1f, {"Q", "R", "S", "T"} }, [5] = {0x000000ff, 0x00000000, {"U"} }, }; static GPIOSetProperties ast2700_set_props[ASPEED_GPIO_MAX_NR_SETS] = { [0] = {0xffffffff, 0xffffffff, {"A", "B", "C", "D"} }, [1] = {0x0fffffff, 0x0fffffff, {"E", "F", "G", "H"} }, [2] = {0xffffffff, 0xffffffff, {"I", "J", "K", "L"} }, [3] = {0xffffffff, 0xffffffff, {"M", "N", "O", "P"} }, [4] = {0xffffffff, 0xffffffff, {"Q", "R", "S", "T"} }, [5] = {0xffffffff, 0xffffffff, {"U", "V", "W", "X"} }, [6] = {0x00ffffff, 0x00ffffff, {"Y", "Z", "AA"} }, }; static const MemoryRegionOps aspeed_gpio_ops = { .read = aspeed_gpio_read, .write = aspeed_gpio_write, .endianness = DEVICE_LITTLE_ENDIAN, .valid.min_access_size = 4, .valid.max_access_size = 4, }; static const MemoryRegionOps aspeed_gpio_2700_ops = { .read = aspeed_gpio_2700_read, .write = aspeed_gpio_2700_write, .endianness = DEVICE_LITTLE_ENDIAN, .valid.min_access_size = 4, .valid.max_access_size = 4, }; static void aspeed_gpio_reset(DeviceState *dev) { AspeedGPIOState *s = ASPEED_GPIO(dev); /* TODO: respect the reset tolerance registers */ memset(s->sets, 0, sizeof(s->sets)); } static void aspeed_gpio_realize(DeviceState *dev, Error **errp) { AspeedGPIOState *s = ASPEED_GPIO(dev); SysBusDevice *sbd = SYS_BUS_DEVICE(dev); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); /* Interrupt parent line */ sysbus_init_irq(sbd, &s->irq); /* Individual GPIOs */ for (int i = 0; i < ASPEED_GPIO_MAX_NR_SETS; i++) { const GPIOSetProperties *props = &agc->props[i]; uint32_t skip = ~(props->input | props->output); for (int j = 0; j < ASPEED_GPIOS_PER_SET; j++) { if (skip >> j & 1) { continue; } sysbus_init_irq(sbd, &s->gpios[i][j]); } } memory_region_init_io(&s->iomem, OBJECT(s), agc->reg_ops, s, TYPE_ASPEED_GPIO, agc->mem_size); sysbus_init_mmio(sbd, &s->iomem); } static void aspeed_gpio_init(Object *obj) { AspeedGPIOState *s = ASPEED_GPIO(obj); AspeedGPIOClass *agc = ASPEED_GPIO_GET_CLASS(s); for (int i = 0; i < ASPEED_GPIO_MAX_NR_SETS; i++) { const GPIOSetProperties *props = &agc->props[i]; uint32_t skip = ~(props->input | props->output); for (int j = 0; j < ASPEED_GPIOS_PER_SET; j++) { if (skip >> j & 1) { continue; } int group_idx = j / GPIOS_PER_GROUP; int pin_idx = j % GPIOS_PER_GROUP; const char *group = &props->group_label[group_idx][0]; char *name = g_strdup_printf("gpio%s%d", group, pin_idx); object_property_add(obj, name, "bool", aspeed_gpio_get_pin, aspeed_gpio_set_pin, NULL, NULL); g_free(name); } } } static const VMStateDescription vmstate_gpio_regs = { .name = TYPE_ASPEED_GPIO"/regs", .version_id = 1, .minimum_version_id = 1, .fields = (const VMStateField[]) { VMSTATE_UINT32(data_value, GPIOSets), VMSTATE_UINT32(data_read, GPIOSets), VMSTATE_UINT32(direction, GPIOSets), VMSTATE_UINT32(int_enable, GPIOSets), VMSTATE_UINT32(int_sens_0, GPIOSets), VMSTATE_UINT32(int_sens_1, GPIOSets), VMSTATE_UINT32(int_sens_2, GPIOSets), VMSTATE_UINT32(int_status, GPIOSets), VMSTATE_UINT32(reset_tol, GPIOSets), VMSTATE_UINT32(cmd_source_0, GPIOSets), VMSTATE_UINT32(cmd_source_1, GPIOSets), VMSTATE_UINT32(debounce_1, GPIOSets), VMSTATE_UINT32(debounce_2, GPIOSets), VMSTATE_UINT32(input_mask, GPIOSets), VMSTATE_END_OF_LIST(), } }; static const VMStateDescription vmstate_aspeed_gpio = { .name = TYPE_ASPEED_GPIO, .version_id = 1, .minimum_version_id = 1, .fields = (const VMStateField[]) { VMSTATE_STRUCT_ARRAY(sets, AspeedGPIOState, ASPEED_GPIO_MAX_NR_SETS, 1, vmstate_gpio_regs, GPIOSets), VMSTATE_UINT32_ARRAY(debounce_regs, AspeedGPIOState, ASPEED_GPIO_NR_DEBOUNCE_REGS), VMSTATE_END_OF_LIST(), } }; static void aspeed_gpio_class_init(ObjectClass *klass, void *data) { DeviceClass *dc = DEVICE_CLASS(klass); dc->realize = aspeed_gpio_realize; device_class_set_legacy_reset(dc, aspeed_gpio_reset); dc->desc = "Aspeed GPIO Controller"; dc->vmsd = &vmstate_aspeed_gpio; } static void aspeed_gpio_ast2400_class_init(ObjectClass *klass, void *data) { AspeedGPIOClass *agc = ASPEED_GPIO_CLASS(klass); agc->props = ast2400_set_props; agc->nr_gpio_pins = 216; agc->nr_gpio_sets = 7; agc->reg_table = aspeed_3_3v_gpios; agc->reg_table_count = GPIO_3_3V_REG_ARRAY_SIZE; agc->mem_size = 0x1000; agc->reg_ops = &aspeed_gpio_ops; } static void aspeed_gpio_2500_class_init(ObjectClass *klass, void *data) { AspeedGPIOClass *agc = ASPEED_GPIO_CLASS(klass); agc->props = ast2500_set_props; agc->nr_gpio_pins = 228; agc->nr_gpio_sets = 8; agc->reg_table = aspeed_3_3v_gpios; agc->reg_table_count = GPIO_3_3V_REG_ARRAY_SIZE; agc->mem_size = 0x1000; agc->reg_ops = &aspeed_gpio_ops; } static void aspeed_gpio_ast2600_3_3v_class_init(ObjectClass *klass, void *data) { AspeedGPIOClass *agc = ASPEED_GPIO_CLASS(klass); agc->props = ast2600_3_3v_set_props; agc->nr_gpio_pins = 208; agc->nr_gpio_sets = 7; agc->reg_table = aspeed_3_3v_gpios; agc->reg_table_count = GPIO_3_3V_REG_ARRAY_SIZE; agc->mem_size = 0x800; agc->reg_ops = &aspeed_gpio_ops; } static void aspeed_gpio_ast2600_1_8v_class_init(ObjectClass *klass, void *data) { AspeedGPIOClass *agc = ASPEED_GPIO_CLASS(klass); agc->props = ast2600_1_8v_set_props; agc->nr_gpio_pins = 36; agc->nr_gpio_sets = 2; agc->reg_table = aspeed_1_8v_gpios; agc->reg_table_count = GPIO_1_8V_REG_ARRAY_SIZE; agc->mem_size = 0x800; agc->reg_ops = &aspeed_gpio_ops; } static void aspeed_gpio_1030_class_init(ObjectClass *klass, void *data) { AspeedGPIOClass *agc = ASPEED_GPIO_CLASS(klass); agc->props = ast1030_set_props; agc->nr_gpio_pins = 151; agc->nr_gpio_sets = 6; agc->reg_table = aspeed_3_3v_gpios; agc->reg_table_count = GPIO_3_3V_REG_ARRAY_SIZE; agc->mem_size = 0x1000; agc->reg_ops = &aspeed_gpio_ops; } static void aspeed_gpio_2700_class_init(ObjectClass *klass, void *data) { AspeedGPIOClass *agc = ASPEED_GPIO_CLASS(klass); agc->props = ast2700_set_props; agc->nr_gpio_pins = 216; agc->nr_gpio_sets = 7; agc->reg_table_count = GPIO_2700_REG_ARRAY_SIZE; agc->mem_size = 0x1000; agc->reg_ops = &aspeed_gpio_2700_ops; } static const TypeInfo aspeed_gpio_info = { .name = TYPE_ASPEED_GPIO, .parent = TYPE_SYS_BUS_DEVICE, .instance_size = sizeof(AspeedGPIOState), .class_size = sizeof(AspeedGPIOClass), .class_init = aspeed_gpio_class_init, .abstract = true, }; static const TypeInfo aspeed_gpio_ast2400_info = { .name = TYPE_ASPEED_GPIO "-ast2400", .parent = TYPE_ASPEED_GPIO, .class_init = aspeed_gpio_ast2400_class_init, .instance_init = aspeed_gpio_init, }; static const TypeInfo aspeed_gpio_ast2500_info = { .name = TYPE_ASPEED_GPIO "-ast2500", .parent = TYPE_ASPEED_GPIO, .class_init = aspeed_gpio_2500_class_init, .instance_init = aspeed_gpio_init, }; static const TypeInfo aspeed_gpio_ast2600_3_3v_info = { .name = TYPE_ASPEED_GPIO "-ast2600", .parent = TYPE_ASPEED_GPIO, .class_init = aspeed_gpio_ast2600_3_3v_class_init, .instance_init = aspeed_gpio_init, }; static const TypeInfo aspeed_gpio_ast2600_1_8v_info = { .name = TYPE_ASPEED_GPIO "-ast2600-1_8v", .parent = TYPE_ASPEED_GPIO, .class_init = aspeed_gpio_ast2600_1_8v_class_init, .instance_init = aspeed_gpio_init, }; static const TypeInfo aspeed_gpio_ast1030_info = { .name = TYPE_ASPEED_GPIO "-ast1030", .parent = TYPE_ASPEED_GPIO, .class_init = aspeed_gpio_1030_class_init, .instance_init = aspeed_gpio_init, }; static const TypeInfo aspeed_gpio_ast2700_info = { .name = TYPE_ASPEED_GPIO "-ast2700", .parent = TYPE_ASPEED_GPIO, .class_init = aspeed_gpio_2700_class_init, .instance_init = aspeed_gpio_init, }; static void aspeed_gpio_register_types(void) { type_register_static(&aspeed_gpio_info); type_register_static(&aspeed_gpio_ast2400_info); type_register_static(&aspeed_gpio_ast2500_info); type_register_static(&aspeed_gpio_ast2600_3_3v_info); type_register_static(&aspeed_gpio_ast2600_1_8v_info); type_register_static(&aspeed_gpio_ast1030_info); type_register_static(&aspeed_gpio_ast2700_info); } type_init(aspeed_gpio_register_types);