com.intel.analytics.zoo.pipeline.inference.AbstractInferenceModel Maven / Gradle / Ivy
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/*
* Copyright 2018 Analytics Zoo Authors.
*
* 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.
*/
package com.intel.analytics.zoo.pipeline.inference;
import java.io.Serializable;
import java.util.ArrayList;
import java.util.Arrays;
import java.util.List;
public abstract class AbstractInferenceModel extends InferenceModel implements Serializable {
public AbstractInferenceModel() {
super();
}
public AbstractInferenceModel(int concurrentNum) {
super(concurrentNum);
}
public AbstractInferenceModel(boolean autoScalingEnabled, int concurrentNum) {
super(autoScalingEnabled, concurrentNum);
}
public void load(String modelPath) {
doLoad(modelPath, null);
}
public void load(String modelPath, String weightPath) {
doLoad(modelPath, weightPath);
}
public void loadCaffe(String modelPath) {
doLoadCaffe(modelPath, null);
}
public void loadCaffe(String modelPath, String weightPath) {
doLoadCaffe(modelPath, weightPath);
}
public void loadTF(String modelPath) {
doLoadTF(modelPath);
}
public void loadTF(String modelPath, int intraOpParallelismThreads, int interOpParallelismThreads, boolean usePerSessionThreads) {
doLoadTF(modelPath, intraOpParallelismThreads, interOpParallelismThreads, usePerSessionThreads);
}
public void loadTF(String modelPath, String objectDetectionModelType) {
doLoadTF(modelPath, objectDetectionModelType);
}
public void loadTF(String modelPath, String pipelineConfigFilePath, String extensionsConfigFilePath) {
doLoadTF(modelPath, pipelineConfigFilePath, extensionsConfigFilePath);
}
public void loadTF(String modelPath, String objectDetectionModelType, String pipelineConfigFilePath, String extensionsConfigFilePath) {
doLoadTF(modelPath, objectDetectionModelType, pipelineConfigFilePath, extensionsConfigFilePath);
}
public void loadTF(String modelPath, String imageClassificationModelType, String checkpointPath, int[] inputShape, boolean ifReverseInputChannels, float[] meanValues, float scale) {
doLoadTF(modelPath, imageClassificationModelType, checkpointPath, inputShape, ifReverseInputChannels, meanValues, scale);
}
public void loadTF(byte[] modelBytes, String imageClassificationModelType, byte[] checkpointBytes, int[] inputShape, boolean ifReverseInputChannels, float[] meanValues, float scale) {
doLoadTF(modelBytes, imageClassificationModelType, checkpointBytes, inputShape, ifReverseInputChannels, meanValues, scale);
}
public void loadTF(String savedModelDir, int[] inputShape, boolean ifReverseInputChannels, float[] meanValues, float scale, String input) {
doLoadTF(savedModelDir, inputShape, ifReverseInputChannels, meanValues, scale, input);
}
public void loadTF(byte[] savedModelBytes, int[] inputShape, boolean ifReverseInputChannels, float[] meanValues, float scale, String input) {
doLoadTF(savedModelBytes, inputShape, ifReverseInputChannels, meanValues, scale, input);
}
public void loadTFAsCalibratedOpenVINO(String modelPath, String modelType, String checkpointPath, int[] inputShape, boolean ifReverseInputChannels, float[] meanValues, float scale,
String networkType, String validationFilePath, int subset, String opencvLibPath) {
doLoadTFAsCalibratedOpenVINO(modelPath, modelType, checkpointPath, inputShape, ifReverseInputChannels, meanValues, scale, networkType, validationFilePath, subset, opencvLibPath);
}
public void loadOpenVINO(String modelFilePath, String weightFilePath, int batchSize) {
doLoadOpenVINO(modelFilePath, weightFilePath, batchSize);
}
public void loadOpenVINO(String modelFilePath, String weightFilePath) {
doLoadOpenVINO(modelFilePath, weightFilePath, 0);
}
public void loadOpenVINO(byte[] modelBytes, byte[] weightBytes, int batchSize) {
doLoadOpenVINO(modelBytes, weightBytes, batchSize);
}
public void loadOpenVINO(byte[] modelBytes, byte[] weightBytes) {
doLoadOpenVINO(modelBytes, weightBytes, 0);
}
public void reload(String modelPath) {
doReload(modelPath, null);
}
public void reload(String modelPath, String weightPath) {
doReload(modelPath, weightPath);
}
public void release() {
doRelease();
}
@Deprecated
public List predict(List input, int... shape) {
List inputShape = new ArrayList();
for (int s : shape) {
inputShape.add(s);
}
return doPredict(input, inputShape);
}
public List> predict(List> inputs) {
return doPredict(inputs);
}
public List> predict(List[] inputs) {
return predict(Arrays.asList(inputs));
}
@Override
public String toString() {
return super.toString();
}
public static void optimizeTF(String modelPath, String objectDetectionModelType, String pipelineConfigPath, String extensionsConfigPath, String outputDir) {
InferenceModel.doOptimizeTF(modelPath, objectDetectionModelType, pipelineConfigPath, extensionsConfigPath, outputDir);
}
public static void optimizeTF(String modelPath, String imageClassificationModelType, String checkpointPath, int[] inputShape, boolean ifReverseInputChannels, float[] meanValues, float scale, String outputDir) {
InferenceModel.doOptimizeTF(modelPath, imageClassificationModelType, checkpointPath, inputShape, ifReverseInputChannels, meanValues, scale, outputDir);
}
public static void calibrateTF(String modelPath, String networkType, String validationFilePath, int subset, String opencvLibPath, String outputDir) {
InferenceModel.doCalibrateTF(modelPath, networkType, validationFilePath, subset, opencvLibPath, outputDir);
}
}
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