/* * Copyright (c) 2022-2023 Shenzhen Kaihong DID Co., Ltd. * Licensed under the Apache License, Version 2.0 (the "License"); * you may not use this file except in compliance with the License. * You may obtain a copy of the License at * * http://www.apache.org/licenses/LICENSE-2.0 * * Unless required by applicable law or agreed to in writing, software * distributed under the License is distributed on an "AS IS" BASIS, * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. * See the License for the specific language governing permissions and * limitations under the License. */ #include "codec_config_parser.h" #include #include #include #include "codec_log_wrapper.h" #ifdef __ARCH64__ #define MASK_NUM_LIMIT 64 #else #define MASK_NUM_LIMIT 32 #endif static int32_t GetGroupCapabilitiesNumber(const struct DeviceResourceNode *node, const char *nodeName, int32_t *num) { if (node == NULL || nodeName == NULL || num == NULL) { CODEC_LOGE("failed for codec %{public}s, invalid param!", nodeName); return HDF_ERR_INVALID_PARAM; } int32_t result = 0; *num = result; const struct DeviceResourceNode *codecGroupNode = NULL; struct DeviceResourceNode *childNode = NULL; struct DeviceResourceIface *iface = DeviceResourceGetIfaceInstance(HDF_CONFIG_SOURCE); if (iface == NULL) { CODEC_LOGE("failed, iface NULL!"); return HDF_FAILURE; } codecGroupNode = iface->GetChildNode(node, nodeName); if (codecGroupNode == NULL) { CODEC_LOGE("failed to get child node %{public}s!", nodeName); return HDF_FAILURE; } DEV_RES_NODE_FOR_EACH_CHILD_NODE(codecGroupNode, childNode) { result++; } *num = result; return HDF_SUCCESS; } static int32_t GetUintTableConfig(const struct DeviceResourceIface *iface, const struct DeviceResourceNode *node, ConfigUintArrayNodeAttr *attr) { if (iface == NULL || node == NULL || attr == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } if (attr->array == NULL || attr->attrName == NULL) { CODEC_LOGE("invalid attr!"); return HDF_ERR_INVALID_PARAM; } int32_t count = iface->GetElemNum(node, attr->attrName); if (count < 0 || count >= attr->length) { CODEC_LOGE("%{public}s table size: %{public}d incorrect or exceed max size %{public}d!", attr->attrName, count, attr->length - 1); return HDF_FAILURE; } if (count > 0) { iface->GetUint32Array(node, attr->attrName, (uint32_t *)attr->array, count, 0); } attr->array[count] = attr->endValue; return HDF_SUCCESS; } static int32_t GetMaskedConfig(const struct DeviceResourceIface *iface, const struct DeviceResourceNode *node, const char *attrName, uint32_t *mask) { if (iface == NULL || node == NULL || attrName == NULL || mask == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } uint32_t *values = NULL; int32_t count = iface->GetElemNum(node, attrName); *mask = 0; if (count < 0 || count > MASK_NUM_LIMIT) { CODEC_LOGE("count %{public}d incorrect!", count); return HDF_FAILURE; } if (count > 0) { values = (uint32_t *)OsalMemAlloc(sizeof(uint32_t) * count); if (values == NULL) { CODEC_LOGE("failed to allocate mem for %{public}s!", attrName); return HDF_FAILURE; } iface->GetUint32Array(node, attrName, values, count, 0); for (int32_t index = 0; index < count; index++) { *mask |= values[index]; } OsalMemFree(values); } return HDF_SUCCESS; } static int32_t GetVideoPortCapability(const struct DeviceResourceIface *iface, const struct DeviceResourceNode *childNode, CodecCompCapability *cap) { if (iface == NULL || childNode == NULL || cap == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } ConfigUintNodeAttr nodeAttrs[] = { {CODEC_CONFIG_KEY_MIN_WIDTH, (uint32_t*)&cap->port.video.minSize.width, 0}, {CODEC_CONFIG_KEY_MIN_HEIGHT, (uint32_t*)&cap->port.video.minSize.height, 0}, {CODEC_CONFIG_KEY_MAX_WIDTH, (uint32_t*)&cap->port.video.maxSize.width, 0}, {CODEC_CONFIG_KEY_MAX_HEIGHT, (uint32_t*)&cap->port.video.maxSize.height, 0}, {CODEC_CONFIG_KEY_WIDTH_ALIGNMENT, (uint32_t*)&cap->port.video.whAlignment.widthAlignment, 0}, {CODEC_CONFIG_KEY_HEIGHT_ALIGNMENT, (uint32_t*)&cap->port.video.whAlignment.heightAlignment, 0}, {CODEC_CONFIG_KEY_MIN_BLOCK_COUNT, (uint32_t*)&cap->port.video.blockCount.min, 0}, {CODEC_CONFIG_KEY_MAX_BLOCK_COUNT, (uint32_t*)&cap->port.video.blockCount.max, 0}, {CODEC_CONFIG_KEY_MIN_BLOCKS_PER_SECOND, (uint32_t*)&cap->port.video.blocksPerSecond.min, 0}, {CODEC_CONFIG_KEY_MAX_BLOCKS_PER_SECOND, (uint32_t*)&cap->port.video.blocksPerSecond.max, 0}, {CODEC_CONFIG_KEY_BLOCK_SIZE_WIDTH, (uint32_t*)&cap->port.video.blockSize.width, 0}, {CODEC_CONFIG_KEY_BLOCK_SIZE_HEIGHT, (uint32_t*)&cap->port.video.blockSize.height, 0}, {CODEC_CONFIG_KEY_MIN_FRAME_RATE, (uint32_t *)&cap->port.video.frameRate.min, 0}, {CODEC_CONFIG_KEY_MAX_FRAME_RATE, (uint32_t *)&cap->port.video.frameRate.max, 0} }; int32_t count = sizeof(nodeAttrs) / sizeof(ConfigUintNodeAttr); for (int32_t i = 0; i < count; i++) { if (iface->GetUint32(childNode, nodeAttrs[i].attrName, nodeAttrs[i].valueAddr, nodeAttrs[i].defaultValue) != HDF_SUCCESS) { CODEC_LOGE("failed to get %{public}s.%{public}s!", childNode->name, nodeAttrs[i].attrName); return HDF_FAILURE; } } ConfigUintArrayNodeAttr arrayAttrs[] = { {CODEC_CONFIG_KEY_SUPPORT_PIXEL_FMTS, cap->port.video.supportPixFmts, PIX_FORMAT_NUM, OMX_COLOR_FormatUnused}, {CODEC_CONFIG_KEY_BITE_RATE_MODE, (int32_t *)cap->port.video.bitRatemode, BIT_RATE_MODE_NUM, BIT_RATE_MODE_INVALID}, {CODEC_CONFIG_KEY_MESURED_FRAME_RATE, cap->port.video.measuredFrameRate, MEASURED_FRAME_RATE_NUM, 0} }; count = sizeof(arrayAttrs) / sizeof(ConfigUintArrayNodeAttr); for (int32_t i = 0; i < count; i++) { if (GetUintTableConfig(iface, childNode, &arrayAttrs[i]) != HDF_SUCCESS) { CODEC_LOGE("failed to get %{public}s.%{public}s!", childNode->name, nodeAttrs[i].attrName); return HDF_FAILURE; } } return HDF_SUCCESS; } static int32_t GetAudioPortCapability(const struct DeviceResourceIface *iface, const struct DeviceResourceNode *childNode, CodecCompCapability *cap) { if (iface == NULL || childNode == NULL || cap == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } ConfigUintArrayNodeAttr arrayAttrs[] = { {CODEC_CONFIG_KEY_SAMPLE_FORMATS, cap->port.audio.sampleFormats, SAMPLE_FMT_NUM, AUDIO_SAMPLE_FMT_INVALID}, {CODEC_CONFIG_KEY_SAMPLE_RATE, cap->port.audio.sampleRate, SAMPLE_RATE_NUM, AUD_SAMPLE_RATE_INVALID}, {CODEC_CONFIG_KEY_CHANNEL_LAYOUTS, cap->port.audio.channelLayouts, CHANNEL_NUM, -1}, {CODEC_CONFIG_KEY_CHANNEL_COUNT, cap->port.audio.channelCount, CHANNEL_NUM, -1} }; int32_t count = sizeof(arrayAttrs) / sizeof(ConfigUintArrayNodeAttr); for (int32_t i = 0; i < count; i++) { if (GetUintTableConfig(iface, childNode, &arrayAttrs[i]) != HDF_SUCCESS) { CODEC_LOGE("failed to get %{public}s.%{public}s!", childNode->name, arrayAttrs[i].attrName); return HDF_FAILURE; } } return HDF_SUCCESS; } static int32_t GetMiscOfCapability(const struct DeviceResourceIface *iface, const struct DeviceResourceNode *childNode, CodecCompCapability *cap) { if (iface == NULL || childNode == NULL || cap == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } ConfigUintArrayNodeAttr attr = {CODEC_CONFIG_KEY_SUPPORT_PROFILES, cap->supportProfiles, PROFILE_NUM, INVALID_PROFILE}; if (GetUintTableConfig(iface, childNode, &attr) != HDF_SUCCESS) { return HDF_FAILURE; } if (iface->GetUint32(childNode, CODEC_CONFIG_KEY_MAX_INST, (uint32_t*)&cap->maxInst, 0) != HDF_SUCCESS) { return HDF_FAILURE; } if (GetMaskedConfig(iface, childNode, CODEC_CONFIG_KEY_PROCESS_MODE_MASK, (uint32_t *)&cap->processModeMask) != HDF_SUCCESS) { return HDF_FAILURE; } if (GetMaskedConfig(iface, childNode, CODEC_CONFIG_KEY_CAPS_MASK, &cap->capsMask) != HDF_SUCCESS) { return HDF_FAILURE; } if (iface->GetUint32(childNode, CODEC_CONFIG_KEY_MIN_BITRATE, (uint32_t*)&(cap->bitRate.min), 0) != HDF_SUCCESS) { return HDF_FAILURE; } if (iface->GetUint32(childNode, CODEC_CONFIG_KEY_MAX_BITRATE, (uint32_t*)&(cap->bitRate.max), 0) != HDF_SUCCESS) { return HDF_FAILURE; } return HDF_SUCCESS; } static int32_t GetOneCapability(const struct DeviceResourceIface *iface, const struct DeviceResourceNode *childNode, CodecCompCapability *cap, bool isVideoGroup) { if (iface == NULL || childNode == NULL || cap == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } if (iface->GetUint32(childNode, CODEC_CONFIG_KEY_ROLE, (uint32_t*)&cap->role, MEDIA_ROLETYPE_INVALID) != HDF_SUCCESS) { cap->role = MEDIA_ROLETYPE_INVALID; CODEC_LOGE("failed to get mime for: %{public}s! Discarded", childNode->name); return HDF_FAILURE; } if (iface->GetUint32(childNode, CODEC_CONFIG_KEY_TYPE, (uint32_t*)&cap->type, INVALID_TYPE) != HDF_SUCCESS) { cap->role = MEDIA_ROLETYPE_INVALID; cap->type = INVALID_TYPE; CODEC_LOGE("failed to get type for: %{public}s! Discarded", childNode->name); return HDF_FAILURE; } const char *compName = NULL; if (iface->GetString(childNode, CODEC_CONFIG_KEY_NAME, &compName, "") != HDF_SUCCESS) { cap->role = MEDIA_ROLETYPE_INVALID; return HDF_FAILURE; } if (compName == NULL || strlen(compName) >= NAME_LENGTH || strlen(compName) == 0) { cap->role = MEDIA_ROLETYPE_INVALID; return HDF_FAILURE; } int32_t ret = strcpy_s(cap->compName, NAME_LENGTH, compName); if (ret != EOK) { CODEC_LOGE("strcpy_s is failed, error code: %{public}d!", ret); return HDF_FAILURE; } cap->isSoftwareCodec = iface->GetBool(childNode, CODEC_CONFIG_KEY_IS_SOFTWARE_CODEC); cap->canSwapWidthHeight = iface->GetBool(childNode, CODEC_CONFIG_KEY_CAN_SWAP_WIDTH_HEIGHT); if (GetMiscOfCapability(iface, childNode, cap) != HDF_SUCCESS) { cap->role = MEDIA_ROLETYPE_INVALID; return HDF_FAILURE; } if (isVideoGroup) { if (GetVideoPortCapability(iface, childNode, cap) != HDF_SUCCESS) { cap->role = MEDIA_ROLETYPE_INVALID; return HDF_FAILURE; } } else { if (GetAudioPortCapability(iface, childNode, cap) != HDF_SUCCESS) { cap->role = MEDIA_ROLETYPE_INVALID; return HDF_FAILURE; } } return HDF_SUCCESS; } static int32_t GetGroupCapabilities(const struct DeviceResourceNode *node, const char *nodeName, CodecCapablityGroup *capsGroup) { if (node == NULL || nodeName == NULL || capsGroup == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } CodecCompCapability *cap = NULL; int32_t index = 0; bool isVideoGroup = true; const struct DeviceResourceNode *codecGroupNode = NULL; struct DeviceResourceNode *childNode = NULL; struct DeviceResourceIface *iface = DeviceResourceGetIfaceInstance(HDF_CONFIG_SOURCE); if (iface == NULL) { CODEC_LOGE("iface NULL!"); return HDF_ERR_INVALID_PARAM; } codecGroupNode = iface->GetChildNode(node, nodeName); if (codecGroupNode == NULL) { CODEC_LOGE("failed to get child node: %{public}s!", nodeName); return HDF_FAILURE; } if (strstr(nodeName, "Video") == NULL) { isVideoGroup = false; } DEV_RES_NODE_FOR_EACH_CHILD_NODE(codecGroupNode, childNode) { cap = &(capsGroup->capablitis[index++]); if (cap == NULL) { continue; } if (GetOneCapability(iface, childNode, cap, isVideoGroup) != HDF_SUCCESS) { CODEC_LOGE("GetOneCapability failed, role is %{public}d!", cap->role); } } return HDF_SUCCESS; } int32_t LoadCodecCapabilityFromHcs(const struct DeviceResourceNode *node, CodecCapablites *caps) { if (node == NULL || caps == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } CodecCapablityGroup *codecCapGroup = NULL; int32_t index; int32_t codecNum = 0; char *codecGroupsNodeName[] = { NODE_VIDEO_HARDWARE_ENCODERS, NODE_VIDEO_HARDWARE_DECODERS, NODE_VIDEO_SOFTWARE_ENCODERS, NODE_VIDEO_SOFTWARE_DECODERS, NODE_AUDIO_HARDWARE_ENCODERS, NODE_AUDIO_HARDWARE_DECODERS, NODE_AUDIO_SOFTWARE_ENCODERS, NODE_AUDIO_SOFTWARE_DECODERS }; CodecCapablityGroup *codecCapGroups[] = { &(caps->videoHwEncoderGroup), &(caps->videoHwDecoderGroup), &(caps->videoSwEncoderGroup), &(caps->videoSwDecoderGroup), &(caps->audioHwEncoderGroup), &(caps->audioHwDecoderGroup), &(caps->audioSwEncoderGroup), &(caps->audioSwDecoderGroup) }; for (index = 0; index < CODEC_CAPABLITY_GROUP_NUM; index++) { if (GetGroupCapabilitiesNumber(node, codecGroupsNodeName[index], &codecNum) == HDF_SUCCESS) { codecCapGroup = codecCapGroups[index]; if (codecNum > 0) { codecCapGroup->num = codecNum; codecCapGroup->capablitis = (CodecCompCapability *)OsalMemAlloc(sizeof(CodecCompCapability) * codecNum); } else { codecCapGroup->capablitis = NULL; codecCapGroup->num = 0; } if (codecNum > 0 && codecCapGroup->capablitis == NULL) { codecCapGroup->num = 0; CODEC_LOGE("MemAlloc for capability group failed!"); return HDF_FAILURE; } caps->total += codecCapGroup->num; } } for (index = 0; index < CODEC_CAPABLITY_GROUP_NUM; index++) { if (GetGroupCapabilities(node, codecGroupsNodeName[index], codecCapGroups[index]) != HDF_SUCCESS) { CODEC_LOGE("GetGroupCapabilities failed index: %{public}d!", index); return HDF_FAILURE; } } caps->inited = true; return HDF_SUCCESS; } int32_t ClearCapabilityGroup(CodecCapablites *caps) { if (caps == NULL) { CODEC_LOGE("invalid param!"); return HDF_ERR_INVALID_PARAM; } int32_t index; CodecCapablityGroup *codecCapGroup = NULL; CodecCapablityGroup *codecCapGroups[] = { &(caps->videoHwEncoderGroup), &(caps->videoHwDecoderGroup), &(caps->videoSwEncoderGroup), &(caps->videoSwDecoderGroup), &(caps->audioHwEncoderGroup), &(caps->audioHwDecoderGroup), &(caps->audioSwEncoderGroup), &(caps->audioSwDecoderGroup) }; for (index = 0; index < CODEC_CAPABLITY_GROUP_NUM; index++) { codecCapGroup = codecCapGroups[index]; if (codecCapGroup->capablitis != NULL) { OsalMemFree(codecCapGroup->capablitis); codecCapGroup->num = 0; codecCapGroup->capablitis = NULL; } } caps->inited = false; caps->total = 0; return HDF_SUCCESS; }