/*

 * This file is auto-generated, do not modify!

 *

 * SPDX-License-Identifier: LGPL-2.1-or-later

 */

#include "config.h"

#include <glib.h>

#include "fu-ccgx-struct.h"

#include "fu-byte-array.h"

#include "fu-mem-private.h"

#include "fu-string.h"

#ifdef G_LOG_DOMAIN

  #undef G_LOG_DOMAIN

#endif

#define G_LOG_DOMAIN "FuStruct"

/**

 * fu_ccgx_image_type_to_string:

 * @val: value, e.g. %FU_CCGX_IMAGE_TYPE_SINGLE

 *

 * Converts an enumerated value to a string.

 *

 * Returns: identifier string

 **/

const gchar *

fu_ccgx_image_type_to_string(FuCcgxImageType val)

{

    if (val == FU_CCGX_IMAGE_TYPE_SINGLE)

        return "single";

    if (val == FU_CCGX_IMAGE_TYPE_DUAL_SYMMETRIC)

        return "dual-symmetric";

    if (val == FU_CCGX_IMAGE_TYPE_DUAL_ASYMMETRIC)

        return "dual-asymmetric";

    if (val == FU_CCGX_IMAGE_TYPE_DUAL_ASYMMETRIC_VARIABLE)

        return "dual-asymmetric-variable";

    return NULL;

}

/**

 * fu_ccgx_image_type_from_string:

 * @val: (nullable): a string, e.g. `single`

 *

 * Converts a string to an enumerated value.

 *

 * Returns: enumerated value

 **/

FuCcgxImageType

fu_ccgx_image_type_from_string(const gchar *val)

{

    if (g_strcmp0(val, "single") == 0)

        return FU_CCGX_IMAGE_TYPE_SINGLE;

    if (g_strcmp0(val, "dual-symmetric") == 0)

        return FU_CCGX_IMAGE_TYPE_DUAL_SYMMETRIC;

    if (g_strcmp0(val, "dual-asymmetric") == 0)

        return FU_CCGX_IMAGE_TYPE_DUAL_ASYMMETRIC;

    if (g_strcmp0(val, "dual-asymmetric-variable") == 0)

        return FU_CCGX_IMAGE_TYPE_DUAL_ASYMMETRIC_VARIABLE;

    return FU_CCGX_IMAGE_TYPE_UNKNOWN;

}

/**

 * fu_ccgx_fw_mode_to_string:

 * @val: value, e.g. %FU_CCGX_FW_MODE_FW1

 *

 * Converts an enumerated value to a string.

 *

 * Returns: identifier string

 **/

const gchar *

fu_ccgx_fw_mode_to_string(FuCcgxFwMode val)

{

    if (val == FU_CCGX_FW_MODE_BOOT)

        return "boot";

    if (val == FU_CCGX_FW_MODE_FW1)

        return "fw1";

    if (val == FU_CCGX_FW_MODE_FW2)

        return "fw2";

    return NULL;

}

/**

 * fu_ccgx_pd_resp_to_string:

 * @val: value, e.g. %FU_CCGX_PD_RESP_SUCCESS

 *

 * Converts an enumerated value to a string.

 *

 * Returns: identifier string

 **/

const gchar *

fu_ccgx_pd_resp_to_string(FuCcgxPdResp val)

{

    if (val == FU_CCGX_PD_RESP_NO_RESPONSE)

        return "no-response";

    if (val == FU_CCGX_PD_RESP_SUCCESS)

        return "success";

    if (val == FU_CCGX_PD_RESP_FLASH_DATA_AVAILABLE)

        return "flash-data-available";

    if (val == FU_CCGX_PD_RESP_INVALID_COMMAND)

        return "invalid-command";

    if (val == FU_CCGX_PD_RESP_COLLISION_DETECTED)

        return "collision-detected";

    if (val == FU_CCGX_PD_RESP_FLASH_UPDATE_FAILED)

        return "flash-update-failed";

    if (val == FU_CCGX_PD_RESP_INVALID_FW)

        return "invalid-fw";

    if (val == FU_CCGX_PD_RESP_INVALID_ARGUMENTS)

        return "invalid-arguments";

    if (val == FU_CCGX_PD_RESP_NOT_SUPPORTED)

        return "not-supported";

    if (val == FU_CCGX_PD_RESP_TRANSACTION_FAILED)

        return "transaction-failed";

    if (val == FU_CCGX_PD_RESP_PD_COMMAND_FAILED)

        return "pd-command-failed";

    if (val == FU_CCGX_PD_RESP_UNDEFINED)

        return "undefined";

    if (val == FU_CCGX_PD_RESP_RA_DETECT)

        return "ra-detect";

    if (val == FU_CCGX_PD_RESP_RA_REMOVED)

        return "ra-removed";

    if (val == FU_CCGX_PD_RESP_RESET_COMPLETE)

        return "reset-complete";

    if (val == FU_CCGX_PD_RESP_MESSAGE_QUEUE_OVERFLOW)

        return "message-queue-overflow";

    if (val == FU_CCGX_PD_RESP_OVER_CURRENT_DETECTED)

        return "over-current-detected";

    if (val == FU_CCGX_PD_RESP_OVER_VOLTAGE_DETECTED)

        return "over-voltage-detected";

    if (val == FU_CCGX_PD_RESP_TYPE_C_CONNECTED)

        return "type-c-connected";

    if (val == FU_CCGX_PD_RESP_TYPE_C_DISCONNECTED)

        return "type-c-disconnected";

    if (val == FU_CCGX_PD_RESP_PD_CONTRACT_ESTABLISHED)

        return "pd-contract-established";

    if (val == FU_CCGX_PD_RESP_DR_SWAP)

        return "dr-swap";

    if (val == FU_CCGX_PD_RESP_PR_SWAP)

        return "pr-swap";

    if (val == FU_CCGX_PD_RESP_VCON_SWAP)

        return "vcon-swap";

    if (val == FU_CCGX_PD_RESP_PS_RDY)

        return "ps-rdy";

    if (val == FU_CCGX_PD_RESP_GOTOMIN)

        return "gotomin";

    if (val == FU_CCGX_PD_RESP_ACCEPT_MESSAGE)

        return "accept-message";

    if (val == FU_CCGX_PD_RESP_REJECT_MESSAGE)

        return "reject-message";

    if (val == FU_CCGX_PD_RESP_WAIT_MESSAGE)

        return "wait-message";

    if (val == FU_CCGX_PD_RESP_HARD_RESET)

        return "hard-reset";

    if (val == FU_CCGX_PD_RESP_VDM_RECEIVED)

        return "vdm-received";

    if (val == FU_CCGX_PD_RESP_SRC_CAP_RCVD)

        return "src-cap-rcvd";

    if (val == FU_CCGX_PD_RESP_SINK_CAP_RCVD)

        return "sink-cap-rcvd";

    if (val == FU_CCGX_PD_RESP_DP_ALTERNATE_MODE)

        return "dp-alternate-mode";

    if (val == FU_CCGX_PD_RESP_DP_DEVICE_NONNECTED)

        return "dp-device-nonnected";

    if (val == FU_CCGX_PD_RESP_DP_DEVICE_NOT_CONNECTED)

        return "dp-device-not-connected";

    if (val == FU_CCGX_PD_RESP_DP_SID_NOT_FOUND)

        return "dp-sid-not-found";

    if (val == FU_CCGX_PD_RESP_MULTIPLE_SVID_DISCOVERED)

        return "multiple-svid-discovered";

    if (val == FU_CCGX_PD_RESP_DP_FUNCTION_NOT_SUPPORTED)

        return "dp-function-not-supported";

    if (val == FU_CCGX_PD_RESP_DP_PORT_CONFIG_NOT_SUPPORTED)

        return "dp-port-config-not-supported";

    if (val == FU_CCGX_PD_RESP_HARD_RESET_SENT)

        return "hard-reset-sent";

    if (val == FU_CCGX_PD_RESP_SOFT_RESET_SENT)

        return "soft-reset-sent";

    if (val == FU_CCGX_PD_RESP_CABLE_RESET_SENT)

        return "cable-reset-sent";

    if (val == FU_CCGX_PD_RESP_SOURCE_DISABLED_STATE_ENTERED)

        return "source-disabled-state-entered";

    if (val == FU_CCGX_PD_RESP_SENDER_RESPONSE_TIMER_TIMEOUT)

        return "sender-response-timer-timeout";

    if (val == FU_CCGX_PD_RESP_NO_VDM_RESPONSE_RECEIVED)

        return "no-vdm-response-received";

    return NULL;

}

/**

 * fu_struct_ccgx_metadata_hdr_ref: (skip):

 **/

FuStructCcgxMetadataHdr *

fu_struct_ccgx_metadata_hdr_ref(FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, NULL);

    st->refcount++;

    return st;

}

/**

 * fu_struct_ccgx_metadata_hdr_unref: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_unref(FuStructCcgxMetadataHdr *st)

{

    g_return_if_fail(st != NULL);

    if (st->refcount == 0) {

        g_critical("FuStructCcgxMetadataHdr refcount already zero");

        return;

    }

    if (--st->refcount > 0)

        return;

    if (st->buf != NULL)

        g_byte_array_unref(st->buf);

    g_free(st);

}

/**

 * fu_struct_ccgx_metadata_hdr_new_internal: (skip):

 **/

static FuStructCcgxMetadataHdr *

fu_struct_ccgx_metadata_hdr_new_internal(void)

{

    FuStructCcgxMetadataHdr *st = g_new0(FuStructCcgxMetadataHdr, 1);

    st->refcount = 1;

    return st;

}

/* getters */

/**

 * fu_struct_ccgx_metadata_hdr_get_fw_checksum: (skip):

 **/

guint8

fu_struct_ccgx_metadata_hdr_get_fw_checksum(const FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, 0x0);

    return st->buf->data[0];

}

/**

 * fu_struct_ccgx_metadata_hdr_get_fw_entry: (skip):

 **/

guint32

fu_struct_ccgx_metadata_hdr_get_fw_entry(const FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, 0x0);

    return fu_memread_uint32(st->buf->data + 1, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_get_last_boot_row: (skip):

 **/

guint16

fu_struct_ccgx_metadata_hdr_get_last_boot_row(const FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, 0x0);

    return fu_memread_uint16(st->buf->data + 5, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_get_fw_size: (skip):

 **/

guint32

fu_struct_ccgx_metadata_hdr_get_fw_size(const FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, 0x0);

    return fu_memread_uint32(st->buf->data + 9, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_get_metadata_valid: (skip):

 **/

guint16

fu_struct_ccgx_metadata_hdr_get_metadata_valid(const FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, 0x0);

    return fu_memread_uint16(st->buf->data + 22, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_get_boot_seq: (skip):

 **/

guint32

fu_struct_ccgx_metadata_hdr_get_boot_seq(const FuStructCcgxMetadataHdr *st)

{

    g_return_val_if_fail(st != NULL, 0x0);

    return fu_memread_uint32(st->buf->data + 28, G_LITTLE_ENDIAN);

}

/* setters */

/**

 * fu_struct_ccgx_metadata_hdr_set_fw_checksum: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_set_fw_checksum(FuStructCcgxMetadataHdr *st, guint8 value)

{

    g_return_if_fail(st != NULL);

    st->buf->data[0] = value;

}

/**

 * fu_struct_ccgx_metadata_hdr_set_fw_entry: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_set_fw_entry(FuStructCcgxMetadataHdr *st, guint32 value)

{

    g_return_if_fail(st != NULL);

    fu_memwrite_uint32(st->buf->data + 1, value, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_set_last_boot_row: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_set_last_boot_row(FuStructCcgxMetadataHdr *st, guint16 value)

{

    g_return_if_fail(st != NULL);

    fu_memwrite_uint16(st->buf->data + 5, value, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_set_fw_size: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_set_fw_size(FuStructCcgxMetadataHdr *st, guint32 value)

{

    g_return_if_fail(st != NULL);

    fu_memwrite_uint32(st->buf->data + 9, value, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_set_metadata_valid: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_set_metadata_valid(FuStructCcgxMetadataHdr *st, guint16 value)

{

    g_return_if_fail(st != NULL);

    fu_memwrite_uint16(st->buf->data + 22, value, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_set_boot_seq: (skip):

 **/

void

fu_struct_ccgx_metadata_hdr_set_boot_seq(FuStructCcgxMetadataHdr *st, guint32 value)

{

    g_return_if_fail(st != NULL);

    fu_memwrite_uint32(st->buf->data + 28, value, G_LITTLE_ENDIAN);

}

/**

 * fu_struct_ccgx_metadata_hdr_new: (skip):

 **/

FuStructCcgxMetadataHdr *

fu_struct_ccgx_metadata_hdr_new(void)

{

    FuStructCcgxMetadataHdr *st = fu_struct_ccgx_metadata_hdr_new_internal();

    st->buf = g_byte_array_sized_new(32);

    fu_byte_array_set_size(st->buf, 32, 0x0);

    fu_struct_ccgx_metadata_hdr_set_metadata_valid(st, 0x4359);

    return st;

}

/**

 * fu_struct_ccgx_metadata_hdr_to_string: (skip):

 **/

static gchar *

fu_struct_ccgx_metadata_hdr_to_string(const FuStructCcgxMetadataHdr *st)

{

    g_autoptr(GString) str = g_string_new("FuStructCcgxMetadataHdr:\n");

    g_return_val_if_fail(st != NULL, NULL);

    g_string_append_printf(str, "  fw_checksum: 0x%x\n",

                           (guint) fu_struct_ccgx_metadata_hdr_get_fw_checksum(st));

    g_string_append_printf(str, "  fw_entry: 0x%x\n",

                           (guint) fu_struct_ccgx_metadata_hdr_get_fw_entry(st));

    g_string_append_printf(str, "  last_boot_row: 0x%x\n",

                           (guint) fu_struct_ccgx_metadata_hdr_get_last_boot_row(st));

    g_string_append_printf(str, "  fw_size: 0x%x\n",

                           (guint) fu_struct_ccgx_metadata_hdr_get_fw_size(st));

    g_string_append_printf(str, "  metadata_valid: 0x%x\n",

                           (guint) fu_struct_ccgx_metadata_hdr_get_metadata_valid(st));

    g_string_append_printf(str, "  boot_seq: 0x%x\n",

                           (guint) fu_struct_ccgx_metadata_hdr_get_boot_seq(st));

    if (str->len > 0)

        g_string_set_size(str, str->len - 1);

    return g_string_free(g_steal_pointer(&str), FALSE);

}

static gboolean

fu_struct_ccgx_metadata_hdr_validate_internal(FuStructCcgxMetadataHdr *st, GError **error)

{

    g_return_val_if_fail(st != NULL, FALSE);

    return TRUE;

}

static gboolean

fu_struct_ccgx_metadata_hdr_parse_internal(FuStructCcgxMetadataHdr *st, GError **error)

{

    if (g_getenv("FWUPD_VERBOSE") != NULL) {

        g_autofree gchar *str = fu_struct_ccgx_metadata_hdr_to_string(st);

        g_debug("%s", str);

    }

    if (!fu_struct_ccgx_metadata_hdr_validate_internal(st, error))

        return FALSE;

    return TRUE;

}

/**

 * fu_struct_ccgx_metadata_hdr_parse: (skip):

 **/

static FuStructCcgxMetadataHdr *

fu_struct_ccgx_metadata_hdr_parse(const guint8 *buf, gsize bufsz, gsize offset, GError **error)

{

    g_autoptr(FuStructCcgxMetadataHdr) st = fu_struct_ccgx_metadata_hdr_new_internal();

    g_return_val_if_fail(buf != NULL, NULL);

    g_return_val_if_fail(error == NULL || *error == NULL, NULL);

    if (!fu_memchk_read(bufsz, offset, 32, error)) {

        g_prefix_error_literal(error, "invalid struct FuStructCcgxMetadataHdr: ");

        return NULL;

    }

    st->buf = g_byte_array_new();

    g_byte_array_append(st->buf, buf + offset, 32);

    if (!fu_struct_ccgx_metadata_hdr_parse_internal(st, error))

        return NULL;

    return g_steal_pointer(&st);

}

/**

 * fu_struct_ccgx_metadata_hdr_parse_bytes: (skip):

 **/

FuStructCcgxMetadataHdr *

fu_struct_ccgx_metadata_hdr_parse_bytes(GBytes *blob, gsize offset, GError **error)

{

    gsize bufsz = 0;

    const guint8 *buf = g_bytes_get_data(blob, &bufsz);

    return fu_struct_ccgx_metadata_hdr_parse(buf, bufsz, offset, error);

}