/* generated HAL source file - do not edit */
#include "hal_data.h"
/* Nominal and Data bit timing configuration */

can_bit_timing_cfg_t g_canfd1_bit_timing_cfg =
{
    /* Actual bitrate: 500000 Hz. Actual sample point: 75 %. */
    .baud_rate_prescaler = 1,
    .time_segment_1 = 59,
    .time_segment_2 = 20,
    .synchronization_jump_width = 4
};

can_bit_timing_cfg_t g_canfd1_data_timing_cfg =
{
    /* Actual bitrate: 2000000 Hz. Actual sample point: 75 %. */
    .baud_rate_prescaler = 1,
    .time_segment_1 = 14,
    .time_segment_2 = 5,
    .synchronization_jump_width = 1
};


extern const canfd_afl_entry_t p_canfd1_afl[CANFD_CFG_AFL_CH1_RULE_NUM];

#ifndef CANFD_PRV_GLOBAL_CFG
#define CANFD_PRV_GLOBAL_CFG
canfd_global_cfg_t g_canfd_global_cfg =
{
    .global_interrupts = CANFD_CFG_GLOBAL_ERR_SOURCES,
    .global_config     = (CANFD_CFG_TX_PRIORITY | CANFD_CFG_DLC_CHECK | CANFD_CFD_CLOCK_SOURCE | CANFD_CFG_FD_OVERFLOW | (uint32_t) (CANFD_CFG_TIMER_PRESCALER << R_CANFD_CFDGCFG_ITRCP_Pos)),
    .rx_mb_config      = (CANFD_CFG_RXMB_NUMBER | (CANFD_CFG_RXMB_SIZE << R_CANFD_CFDRMNB_RMPLS_Pos)),
    .global_err_ipl = CANFD_CFG_GLOBAL_ERR_IPL,
    .rx_fifo_ipl    = CANFD_CFG_RX_FIFO_IPL,
    .rx_fifo_config    =
    {
        ((CANFD_CFG_RXFIFO0_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO0_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO0_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO0_INT_MODE) | (CANFD_CFG_RXFIFO0_ENABLE)),
        ((CANFD_CFG_RXFIFO1_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO1_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO1_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO1_INT_MODE) | (CANFD_CFG_RXFIFO1_ENABLE)),
        ((CANFD_CFG_RXFIFO2_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO2_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO2_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO2_INT_MODE) | (CANFD_CFG_RXFIFO2_ENABLE)),
        ((CANFD_CFG_RXFIFO3_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO3_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO3_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO3_INT_MODE) | (CANFD_CFG_RXFIFO3_ENABLE)),
        ((CANFD_CFG_RXFIFO4_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO4_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO4_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO4_INT_MODE) | (CANFD_CFG_RXFIFO4_ENABLE)),
        ((CANFD_CFG_RXFIFO5_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO5_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO5_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO5_INT_MODE) | (CANFD_CFG_RXFIFO5_ENABLE)),
        ((CANFD_CFG_RXFIFO6_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO6_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO6_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO6_INT_MODE) | (CANFD_CFG_RXFIFO6_ENABLE)),
        ((CANFD_CFG_RXFIFO7_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO7_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO7_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO7_INT_MODE) | (CANFD_CFG_RXFIFO7_ENABLE)),
    },
    .common_fifo_config =
    {
        CANFD_CFG_COMMONFIFO0,
        CANFD_CFG_COMMONFIFO1,
        CANFD_CFG_COMMONFIFO2,
        CANFD_CFG_COMMONFIFO3,
        CANFD_CFG_COMMONFIFO4,
        CANFD_CFG_COMMONFIFO5,
    }
};
#endif

canfd_extended_cfg_t g_canfd1_extended_cfg =
{
    .p_afl              = p_canfd1_afl,
    .txmb_txi_enable    = ((1ULL << 1) |  0ULL),
    .error_interrupts   = ( 0U),
    .p_data_timing      = &g_canfd1_data_timing_cfg,
    .delay_compensation = (1),
    .p_global_cfg       = &g_canfd_global_cfg,
};

canfd_instance_ctrl_t g_canfd1_ctrl;
const can_cfg_t g_canfd1_cfg =
{
    .channel                = 1,
    .p_bit_timing           = &g_canfd1_bit_timing_cfg,
    .p_callback             = canfd1_callback,
    .p_extend               = &g_canfd1_extended_cfg,
    .p_context              = NULL,
    .ipl                    = (12),
#if defined(VECTOR_NUMBER_CAN1_COMFRX)
    .rx_irq             = VECTOR_NUMBER_CAN1_COMFRX,
#else
    .rx_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_CAN1_TX)
    .tx_irq             = VECTOR_NUMBER_CAN1_TX,
#else
    .tx_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_CAN1_CHERR)
    .error_irq             = VECTOR_NUMBER_CAN1_CHERR,
#else
    .error_irq             = FSP_INVALID_VECTOR,
#endif
};
/* Instance structure to use this module. */
const can_instance_t g_canfd1 =
{
    .p_ctrl        = &g_canfd1_ctrl,
    .p_cfg         = &g_canfd1_cfg,
    .p_api         = &g_canfd_on_canfd
};
/* Nominal and Data bit timing configuration */

can_bit_timing_cfg_t g_canfd0_bit_timing_cfg =
{
    /* Actual bitrate: 500000 Hz. Actual sample point: 75 %. */
    .baud_rate_prescaler = 1,
    .time_segment_1 = 59,
    .time_segment_2 = 20,
    .synchronization_jump_width = 4
};

can_bit_timing_cfg_t g_canfd0_data_timing_cfg =
{
    /* Actual bitrate: 2000000 Hz. Actual sample point: 75 %. */
    .baud_rate_prescaler = 1,
    .time_segment_1 = 14,
    .time_segment_2 = 5,
    .synchronization_jump_width = 1
};


extern const canfd_afl_entry_t p_canfd0_afl[CANFD_CFG_AFL_CH0_RULE_NUM];

#ifndef CANFD_PRV_GLOBAL_CFG
#define CANFD_PRV_GLOBAL_CFG
canfd_global_cfg_t g_canfd_global_cfg =
{
    .global_interrupts = CANFD_CFG_GLOBAL_ERR_SOURCES,
    .global_config     = (CANFD_CFG_TX_PRIORITY | CANFD_CFG_DLC_CHECK | CANFD_CFD_CLOCK_SOURCE | CANFD_CFG_FD_OVERFLOW | (uint32_t) (CANFD_CFG_TIMER_PRESCALER << R_CANFD_CFDGCFG_ITRCP_Pos)),
    .rx_mb_config      = (CANFD_CFG_RXMB_NUMBER | (CANFD_CFG_RXMB_SIZE << R_CANFD_CFDRMNB_RMPLS_Pos)),
    .global_err_ipl = CANFD_CFG_GLOBAL_ERR_IPL,
    .rx_fifo_ipl    = CANFD_CFG_RX_FIFO_IPL,
    .rx_fifo_config    =
    {
        ((CANFD_CFG_RXFIFO0_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO0_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO0_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO0_INT_MODE) | (CANFD_CFG_RXFIFO0_ENABLE)),
        ((CANFD_CFG_RXFIFO1_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO1_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO1_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO1_INT_MODE) | (CANFD_CFG_RXFIFO1_ENABLE)),
        ((CANFD_CFG_RXFIFO2_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO2_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO2_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO2_INT_MODE) | (CANFD_CFG_RXFIFO2_ENABLE)),
        ((CANFD_CFG_RXFIFO3_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO3_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO3_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO3_INT_MODE) | (CANFD_CFG_RXFIFO3_ENABLE)),
        ((CANFD_CFG_RXFIFO4_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO4_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO4_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO4_INT_MODE) | (CANFD_CFG_RXFIFO4_ENABLE)),
        ((CANFD_CFG_RXFIFO5_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO5_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO5_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO5_INT_MODE) | (CANFD_CFG_RXFIFO5_ENABLE)),
        ((CANFD_CFG_RXFIFO6_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO6_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO6_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO6_INT_MODE) | (CANFD_CFG_RXFIFO6_ENABLE)),
        ((CANFD_CFG_RXFIFO7_INT_THRESHOLD << R_CANFD_CFDRFCC_RFIGCV_Pos) | (CANFD_CFG_RXFIFO7_DEPTH << R_CANFD_CFDRFCC_RFDC_Pos) | (CANFD_CFG_RXFIFO7_PAYLOAD << R_CANFD_CFDRFCC_RFPLS_Pos) | (CANFD_CFG_RXFIFO7_INT_MODE) | (CANFD_CFG_RXFIFO7_ENABLE)),
    },
    .common_fifo_config =
    {
        CANFD_CFG_COMMONFIFO0,
        CANFD_CFG_COMMONFIFO1,
        CANFD_CFG_COMMONFIFO2,
        CANFD_CFG_COMMONFIFO3,
        CANFD_CFG_COMMONFIFO4,
        CANFD_CFG_COMMONFIFO5,
    }
};
#endif

canfd_extended_cfg_t g_canfd0_extended_cfg =
{
    .p_afl              = p_canfd0_afl,
    .txmb_txi_enable    = ((1ULL << 0) |  0ULL),
    .error_interrupts   = ( 0U),
    .p_data_timing      = &g_canfd0_data_timing_cfg,
    .delay_compensation = (1),
    .p_global_cfg       = &g_canfd_global_cfg,
};

canfd_instance_ctrl_t g_canfd0_ctrl;
const can_cfg_t g_canfd0_cfg =
{
    .channel                = 0,
    .p_bit_timing           = &g_canfd0_bit_timing_cfg,
    .p_callback             = canfd0_callback,
    .p_extend               = &g_canfd0_extended_cfg,
    .p_context              = NULL,
    .ipl                    = (12),
#if defined(VECTOR_NUMBER_CAN0_COMFRX)
    .rx_irq             = VECTOR_NUMBER_CAN0_COMFRX,
#else
    .rx_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_CAN0_TX)
    .tx_irq             = VECTOR_NUMBER_CAN0_TX,
#else
    .tx_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_CAN0_CHERR)
    .error_irq             = VECTOR_NUMBER_CAN0_CHERR,
#else
    .error_irq             = FSP_INVALID_VECTOR,
#endif
};
/* Instance structure to use this module. */
const can_instance_t g_canfd0 =
{
    .p_ctrl        = &g_canfd0_ctrl,
    .p_cfg         = &g_canfd0_cfg,
    .p_api         = &g_canfd_on_canfd
};
sci_uart_instance_ctrl_t     g_uart0_ctrl;

            #define FSP_NOT_DEFINED (1)
            #if (FSP_NOT_DEFINED) != (FSP_NOT_DEFINED)

            /* If the transfer module is DMAC, define a DMAC transfer callback. */
            extern void sci_uart_tx_dmac_callback(sci_uart_instance_ctrl_t * p_instance_ctrl);

            void g_uart0_tx_transfer_callback (transfer_callback_args_t * p_args)
            {
                FSP_PARAMETER_NOT_USED(p_args);
                sci_uart_tx_dmac_callback(&g_uart0_ctrl);
            }
            #endif

            #if (FSP_NOT_DEFINED) != (FSP_NOT_DEFINED)

            /* If the transfer module is DMAC, define a DMAC transfer callback. */
            extern void sci_uart_rx_dmac_callback(sci_uart_instance_ctrl_t * p_instance_ctrl);

            void g_uart0_rx_transfer_callback (transfer_callback_args_t * p_args)
            {
                FSP_PARAMETER_NOT_USED(p_args);
                sci_uart_rx_dmac_callback(&g_uart0_ctrl);
            }
            #endif
            #undef FSP_NOT_DEFINED

            sci_baud_setting_t           g_uart0_baud_setting =
            {
                /* Baud rate calculated with 0.160% error. */ .baudrate_bits_b.abcse = 0, .baudrate_bits_b.abcs = 0, .baudrate_bits_b.bgdm = 1, .baudrate_bits_b.cks = 0, .baudrate_bits_b.brr = 51, .baudrate_bits_b.mddr = (uint8_t) 256, .baudrate_bits_b.brme = false
            };

            /** UART extended configuration for UARTonSCI HAL driver */
            const sci_uart_extended_cfg_t g_uart0_cfg_extend =
            {
                .clock                = SCI_UART_CLOCK_INT,
                .rx_edge_start          = SCI_UART_START_BIT_FALLING_EDGE,
                .noise_cancel         = SCI_UART_NOISE_CANCELLATION_DISABLE,
                .rx_fifo_trigger        = SCI_UART_RX_FIFO_TRIGGER_MAX,
                .p_baud_setting         = &g_uart0_baud_setting,
#if 1
                .clock_source           = SCI_UART_CLOCK_SOURCE_SCI0ASYNCCLK,
#else
                .clock_source           = SCI_UART_CLOCK_SOURCE_PCLKM,
#endif
                .flow_control           = SCI_UART_FLOW_CONTROL_RTS,
                #if 0xFF != 0xFF
                .flow_control_pin       = BSP_IO_PORT_FF_PIN_0xFF,
                #else
                .flow_control_pin       = (bsp_io_port_pin_t) UINT16_MAX,
                #endif
                .rs485_setting          = {
                    .enable = SCI_UART_RS485_DISABLE,
                    .polarity = SCI_UART_RS485_DE_POLARITY_HIGH,
                    .assertion_time = 1,
                    .negation_time = 1,
                },
            };

            /** UART interface configuration */
            const uart_cfg_t g_uart0_cfg =
            {
                .channel             = 0,
                .data_bits           = UART_DATA_BITS_8,
                .parity              = UART_PARITY_OFF,
                .stop_bits           = UART_STOP_BITS_1,
                .p_callback          = user_uart0_callback,
                .p_context           = NULL,
                .p_extend            = &g_uart0_cfg_extend,
                .p_transfer_tx       = g_uart0_P_TRANSFER_TX,
                .p_transfer_rx       = g_uart0_P_TRANSFER_RX,
                .rxi_ipl             = (12),
                .txi_ipl             = (12),
                .tei_ipl             = (12),
                .eri_ipl             = (12),
#if defined(VECTOR_NUMBER_SCI0_RXI)
                .rxi_irq             = VECTOR_NUMBER_SCI0_RXI,
#else
                .rxi_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_SCI0_TXI)
                .txi_irq             = VECTOR_NUMBER_SCI0_TXI,
#else
                .txi_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_SCI0_TEI)
                .tei_irq             = VECTOR_NUMBER_SCI0_TEI,
#else
                .tei_irq             = FSP_INVALID_VECTOR,
#endif
#if defined(VECTOR_NUMBER_SCI0_ERI)
                .eri_irq             = VECTOR_NUMBER_SCI0_ERI,
#else
                .eri_irq             = FSP_INVALID_VECTOR,
#endif
            };

/* Instance structure to use this module. */
const uart_instance_t g_uart0 =
{
    .p_ctrl        = &g_uart0_ctrl,
    .p_cfg         = &g_uart0_cfg,
    .p_api         = &g_uart_on_sci
};
void g_hal_init(void) {
g_common_init();
}