// Copyright (c) OpenMMLab. All rights reserved. #include "operator.h" #include namespace mmdeploy::graph { Result Gather(const Value::Array& array, const vector& idxs, Value::Array& output) { if (idxs.empty()) { return success(); } auto max_idx = *max_element(begin(idxs), end(idxs)); if (array.size() <= max_idx) { return Status(eOutOfRange); } output.reserve(output.size() + idxs.size()); for (const auto& idx : idxs) { output.push_back(array[idx]); } return success(); } Result Gather(Value::Array&& array, const vector& idxs, Value::Array& output) { if (idxs.empty()) { return success(); } auto max_idx = *max_element(begin(idxs), end(idxs)); if (array.size() <= max_idx) { return Status(eOutOfRange); } output.reserve(output.size() + idxs.size()); for (const auto& idx : idxs) { output.push_back(std::move(array[idx])); } return success(); } Result Gather(const Value::Object& object, const vector& keys, Value::Array& output) { output.reserve(output.size() + keys.size()); try { for (const auto& key : keys) { output.push_back(object.at(key)); } } catch (const std::out_of_range& e) { return Status(eOutOfRange); } return success(); } Result Gather(Value::Object&& object, const vector& keys, Value::Array& output) { output.reserve(output.size() + keys.size()); try { for (const auto& key : keys) { output.push_back(std::move(object.at(key))); } } catch (const std::out_of_range& e) { return Status(eOutOfRange); } return success(); } Result Scatter(Value::Array array, const vector& idxs, Value::Array& output) { if (array.size() < idxs.size()) { return Status(eOutOfRange); } for (int i = 0; i < idxs.size(); ++i) { output[idxs[i]] = std::move(array[i]); } return success(); } Result Scatter(Value::Array array, const vector& keys, Value::Object& output) { if (array.size() < keys.size()) { return Status(eOutOfRange); } for (int i = 0; i < keys.size(); ++i) { output.emplace(keys[i], std::move(array[i])); } return success(); } Result DistribOA(const Value& oa) { if (!oa.is_object()) { return Status(eInvalidArgument); } Value ao = ValueType::kArray; for (auto inner = oa.begin(); inner != oa.end(); ++inner) { if (!inner->is_array()) { return Status(eInvalidArgument); } if (ao.empty()) { for (int i = 0; i < inner->size(); ++i) ao.push_back(ValueType::kObject); } if (inner->size() != oa.size()) { return Status(eInvalidArgument); } for (int i = 0; i < inner->size(); ++i) { ao[i][inner.key()] = (*inner)[i]; } } return ao; } Result DistribAO(const Value& ao) { if (!ao.is_array()) { return Status(eInvalidArgument); } Value oa = ValueType::kObject; for (const auto& inner : ao) { if (inner.is_object()) { return Status(eInvalidArgument); } if (oa.empty()) { for (auto item = inner.begin(); item != inner.end(); ++item) { oa[item.key()] = ValueType::kObject; } } if (inner.size() != oa.size()) { return Status(eInvalidArgument); } for (auto item = inner.begin(); item != inner.end(); ++item) { if (!oa.contains(item.key())) { return Status(eInvalidArgument); } oa[item.key()].push_back(*item); } } return oa; } Result DistribAA(const Value& a) { if (!a.is_array()) { return Status(eInvalidArgument); } auto ta = Value::Array{}; for (const auto& inner : a.get_ref()) { if (!inner.is_array()) { return Status(eInvalidArgument); } if (ta.empty()) { ta.reserve(inner.size()); for (int i = 0; i < inner.size(); ++i) { ta.emplace_back(Value::kArray); } } if (inner.size() != ta.size()) { return Status(eInvalidArgument); } for (int i = 0; i < inner.size(); ++i) { ta[i].push_back(inner[i]); } } return ta; } } // namespace mmdeploy::graph