Рабочие области и задания Microsoft.MachineLearningServices 2024-04-01-preview

Статья
07/24/2024

Определение ресурсов Bicep

Тип ресурса рабочих областей и заданий можно развернуть с помощью операций, предназначенных для следующих задач:

группы ресурсов . См. команды развертывания группы ресурсов

Список измененных свойств в каждой версии API см. в журнала изменений.

Формат ресурса

Чтобы создать ресурс Microsoft.MachineLearningServices/workspaces/jobs, добавьте следующий Bicep в шаблон.

resource symbolicname 'Microsoft.MachineLearningServices/workspaces/jobs@2024-04-01-preview' = {
  name: 'string'
  parent: resourceSymbolicName
  properties: {
    componentId: 'string'
    computeId: 'string'
    description: 'string'
    displayName: 'string'
    experimentName: 'string'
    identity: {
      identityType: 'string'
      // For remaining properties, see IdentityConfiguration objects
    }
    isArchived: bool
    notificationSetting: {
      emailOn: [
        'string'
      ]
      emails: [
        'string'
      ]
      webhooks: {
        {customized property}: {
          eventType: 'string'
          webhookType: 'string'
          // For remaining properties, see Webhook objects
        }
      }
    }
    properties: {
      {customized property}: 'string'
    }
    secretsConfiguration: {
      {customized property}: {
        uri: 'string'
        workspaceSecretName: 'string'
      }
    }
    services: {
      {customized property}: {
        endpoint: 'string'
        jobServiceType: 'string'
        nodes: {
          nodesValueType: 'string'
          // For remaining properties, see Nodes objects
        }
        port: int
        properties: {
          {customized property}: 'string'
        }
      }
    }
    tags: {}
    jobType: 'string'
    // For remaining properties, see JobBaseProperties objects
  }
}

Объекты JobBaseProperties

Задайте свойство jobType, чтобы указать тип объекта.

Для AutoMLиспользуйте:

  jobType: 'AutoML'
  environmentId: 'string'
  environmentVariables: {
    {customized property}: 'string'
  }
  outputs: {
    {customized property}: {
      description: 'string'
      jobOutputType: 'string'
      // For remaining properties, see JobOutput objects
    }
  }
  queueSettings: {
    jobTier: 'string'
    priority: int
  }
  resources: {
    dockerArgs: 'string'
    instanceCount: int
    instanceType: 'string'
    locations: [
      'string'
    ]
    maxInstanceCount: int
    properties: {
      {customized property}: any()
    }
    shmSize: 'string'
  }
  taskDetails: {
    logVerbosity: 'string'
    targetColumnName: 'string'
    trainingData: {
      description: 'string'
      jobInputType: 'string'
      mode: 'string'
      pathOnCompute: 'string'
      uri: 'string'
    }
    taskType: 'string'
    // For remaining properties, see AutoMLVertical objects
  }

Для команды используйте следующую команду:

  jobType: 'Command'
  autologgerSettings: {
    mlflowAutologger: 'string'
  }
  codeId: 'string'
  command: 'string'
  distribution: {
    distributionType: 'string'
    // For remaining properties, see DistributionConfiguration objects
  }
  environmentId: 'string'
  environmentVariables: {
    {customized property}: 'string'
  }
  inputs: {
    {customized property}: {
      description: 'string'
      jobInputType: 'string'
      // For remaining properties, see JobInput objects
    }
  }
  limits: {
    jobLimitsType: 'string'
    timeout: 'string'
  }
  outputs: {
    {customized property}: {
      description: 'string'
      jobOutputType: 'string'
      // For remaining properties, see JobOutput objects
    }
  }
  queueSettings: {
    jobTier: 'string'
    priority: int
  }
  resources: {
    dockerArgs: 'string'
    instanceCount: int
    instanceType: 'string'
    locations: [
      'string'
    ]
    maxInstanceCount: int
    properties: {
      {customized property}: any()
    }
    shmSize: 'string'
  }

Для FineTuningиспользуйте:

  jobType: 'FineTuning'
  fineTuningDetails: {
    model: {
      description: 'string'
      jobInputType: 'string'
      mode: 'string'
      pathOnCompute: 'string'
      uri: 'string'
    }
    taskType: 'string'
    trainingData: {
      description: 'string'
      jobInputType: 'string'
      // For remaining properties, see JobInput objects
    }
    validationData: {
      description: 'string'
      jobInputType: 'string'
      // For remaining properties, see JobInput objects
    }
    modelProvider: 'string'
    // For remaining properties, see FineTuningVertical objects
  }
  outputs: {
    {customized property}: {
      description: 'string'
      jobOutputType: 'string'
      // For remaining properties, see JobOutput objects
    }
  }

Дляметок используйте:

  jobType: 'Labeling'
  dataConfiguration: {
    dataId: 'string'
    incrementalDataRefresh: 'string'
  }
  jobInstructions: {
    uri: 'string'
  }
  labelCategories: {
    {customized property}: {
      classes: {
        {customized property}: {
          displayName: 'string'
          subclasses: {
            {customized property}: {}
        }
      }
      displayName: 'string'
      multiSelect: 'string'
    }
  }
  labelingJobMediaProperties: {
    mediaType: 'string'
    // For remaining properties, see LabelingJobMediaProperties objects
  }
  mlAssistConfiguration: {
    mlAssist: 'string'
    // For remaining properties, see MLAssistConfiguration objects
  }

Для конвейераиспользуйте:

  jobType: 'Pipeline'
  inputs: {
    {customized property}: {
      description: 'string'
      jobInputType: 'string'
      // For remaining properties, see JobInput objects
    }
  }
  jobs: {
    {customized property}: any()
  }
  outputs: {
    {customized property}: {
      description: 'string'
      jobOutputType: 'string'
      // For remaining properties, see JobOutput objects
    }
  }
  settings: any()
  sourceJobId: 'string'

Для Sparkиспользуйте:

  jobType: 'Spark'
  archives: [
    'string'
  ]
  args: 'string'
  codeId: 'string'
  conf: {
    {customized property}: 'string'
  }
  entry: {
    sparkJobEntryType: 'string'
    // For remaining properties, see SparkJobEntry objects
  }
  environmentId: 'string'
  environmentVariables: {
    {customized property}: 'string'
  }
  files: [
    'string'
  ]
  inputs: {
    {customized property}: {
      description: 'string'
      jobInputType: 'string'
      // For remaining properties, see JobInput objects
    }
  }
  jars: [
    'string'
  ]
  outputs: {
    {customized property}: {
      description: 'string'
      jobOutputType: 'string'
      // For remaining properties, see JobOutput objects
    }
  }
  pyFiles: [
    'string'
  ]
  queueSettings: {
    jobTier: 'string'
    priority: int
  }
  resources: {
    instanceType: 'string'
    runtimeVersion: 'string'
  }

Для используйте:

  jobType: 'Sweep'
  componentConfiguration: {
    pipelineSettings: any()
  }
  earlyTermination: {
    delayEvaluation: int
    evaluationInterval: int
    policyType: 'string'
    // For remaining properties, see EarlyTerminationPolicy objects
  }
  inputs: {
    {customized property}: {
      description: 'string'
      jobInputType: 'string'
      // For remaining properties, see JobInput objects
    }
  }
  limits: {
    jobLimitsType: 'string'
    maxConcurrentTrials: int
    maxTotalTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  objective: {
    goal: 'string'
    primaryMetric: 'string'
  }
  outputs: {
    {customized property}: {
      description: 'string'
      jobOutputType: 'string'
      // For remaining properties, see JobOutput objects
    }
  }
  queueSettings: {
    jobTier: 'string'
    priority: int
  }
  resources: {
    dockerArgs: 'string'
    instanceCount: int
    instanceType: 'string'
    locations: [
      'string'
    ]
    maxInstanceCount: int
    properties: {
      {customized property}: any()
    }
    shmSize: 'string'
  }
  samplingAlgorithm: {
    samplingAlgorithmType: 'string'
    // For remaining properties, see SamplingAlgorithm objects
  }
  searchSpace: any()
  trial: {
    codeId: 'string'
    command: 'string'
    distribution: {
      distributionType: 'string'
      // For remaining properties, see DistributionConfiguration objects
    }
    environmentId: 'string'
    environmentVariables: {
      {customized property}: 'string'
    }
    resources: {
      dockerArgs: 'string'
      instanceCount: int
      instanceType: 'string'
      locations: [
        'string'
      ]
      maxInstanceCount: int
      properties: {
        {customized property}: any()
      }
      shmSize: 'string'
    }
  }

Объекты IdentityConfiguration

Задайте свойство identityType, чтобы указать тип объекта.

Для AMLTokenиспользуйте:

  identityType: 'AMLToken'

Для управляемыхиспользуйте:

  identityType: 'Managed'
  clientId: 'string'
  objectId: 'string'
  resourceId: 'string'

Для UserIdentityиспользуйте:

  identityType: 'UserIdentity'

Объекты веб-перехватчика

Задайте свойство webhookType , чтобы указать тип объекта.

Для AzureDevOpsиспользуйте:

  webhookType: 'AzureDevOps'

Объекты nodes

Задайте свойство nodesValueType, чтобы указать тип объекта.

Для всехиспользуйте:

  nodesValueType: 'All'

Объекты JobOutput

Задайте свойство jobOutputType, чтобы указать тип объекта.

Для custom_modelиспользуйте:

  jobOutputType: 'custom_model'
  assetName: 'string'
  assetVersion: 'string'
  autoDeleteSetting: {
    condition: 'string'
    value: 'string'
  }
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для mlflow_modelиспользуйте:

  jobOutputType: 'mlflow_model'
  assetName: 'string'
  assetVersion: 'string'
  autoDeleteSetting: {
    condition: 'string'
    value: 'string'
  }
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для mltableиспользуйте:

  jobOutputType: 'mltable'
  assetName: 'string'
  assetVersion: 'string'
  autoDeleteSetting: {
    condition: 'string'
    value: 'string'
  }
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для triton_modelиспользуйте:

  jobOutputType: 'triton_model'
  assetName: 'string'
  assetVersion: 'string'
  autoDeleteSetting: {
    condition: 'string'
    value: 'string'
  }
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для uri_fileиспользуйте:

  jobOutputType: 'uri_file'
  assetName: 'string'
  assetVersion: 'string'
  autoDeleteSetting: {
    condition: 'string'
    value: 'string'
  }
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для uri_folderиспользуйте:

  jobOutputType: 'uri_folder'
  assetName: 'string'
  assetVersion: 'string'
  autoDeleteSetting: {
    condition: 'string'
    value: 'string'
  }
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Объекты AutoMLVertical

Задайте свойство taskType, чтобы указать тип объекта.

Для классификациииспользуйте:

  taskType: 'Classification'
  cvSplitColumnNames: [
    'string'
  ]
  featurizationSettings: {
    blockedTransformers: [
      'string'
    ]
    columnNameAndTypes: {
      {customized property}: 'string'
    }
    datasetLanguage: 'string'
    enableDnnFeaturization: bool
    mode: 'string'
    transformerParams: {
      {customized property}: [
        {
          fields: [
            'string'
          ]
          parameters: any()
        }
      ]
    }
  }
  fixedParameters: {
    booster: 'string'
    boostingType: 'string'
    growPolicy: 'string'
    learningRate: int
    maxBin: int
    maxDepth: int
    maxLeaves: int
    minDataInLeaf: int
    minSplitGain: int
    modelName: 'string'
    nEstimators: int
    numLeaves: int
    preprocessorName: 'string'
    regAlpha: int
    regLambda: int
    subsample: int
    subsampleFreq: int
    treeMethod: 'string'
    withMean: bool
    withStd: bool
  }
  limitSettings: {
    enableEarlyTermination: bool
    exitScore: int
    maxConcurrentTrials: int
    maxCoresPerTrial: int
    maxNodes: int
    maxTrials: int
    sweepConcurrentTrials: int
    sweepTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  nCrossValidations: {
    mode: 'string'
    // For remaining properties, see NCrossValidations objects
  }
  positiveLabel: 'string'
  primaryMetric: 'string'
  searchSpace: [
    {
      booster: 'string'
      boostingType: 'string'
      growPolicy: 'string'
      learningRate: 'string'
      maxBin: 'string'
      maxDepth: 'string'
      maxLeaves: 'string'
      minDataInLeaf: 'string'
      minSplitGain: 'string'
      modelName: 'string'
      nEstimators: 'string'
      numLeaves: 'string'
      preprocessorName: 'string'
      regAlpha: 'string'
      regLambda: 'string'
      subsample: 'string'
      subsampleFreq: 'string'
      treeMethod: 'string'
      withMean: 'string'
      withStd: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  testData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  testDataSize: int
  trainingSettings: {
    allowedTrainingAlgorithms: [
      'string'
    ]
    blockedTrainingAlgorithms: [
      'string'
    ]
    enableDnnTraining: bool
    enableModelExplainability: bool
    enableOnnxCompatibleModels: bool
    enableStackEnsemble: bool
    enableVoteEnsemble: bool
    ensembleModelDownloadTimeout: 'string'
    stackEnsembleSettings: {
      stackMetaLearnerKWargs: any()
      stackMetaLearnerTrainPercentage: int
      stackMetaLearnerType: 'string'
    }
    trainingMode: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int
  weightColumnName: 'string'

Для прогнозированияиспользуйте:

  taskType: 'Forecasting'
  cvSplitColumnNames: [
    'string'
  ]
  featurizationSettings: {
    blockedTransformers: [
      'string'
    ]
    columnNameAndTypes: {
      {customized property}: 'string'
    }
    datasetLanguage: 'string'
    enableDnnFeaturization: bool
    mode: 'string'
    transformerParams: {
      {customized property}: [
        {
          fields: [
            'string'
          ]
          parameters: any()
        }
      ]
    }
  }
  fixedParameters: {
    booster: 'string'
    boostingType: 'string'
    growPolicy: 'string'
    learningRate: int
    maxBin: int
    maxDepth: int
    maxLeaves: int
    minDataInLeaf: int
    minSplitGain: int
    modelName: 'string'
    nEstimators: int
    numLeaves: int
    preprocessorName: 'string'
    regAlpha: int
    regLambda: int
    subsample: int
    subsampleFreq: int
    treeMethod: 'string'
    withMean: bool
    withStd: bool
  }
  forecastingSettings: {
    countryOrRegionForHolidays: 'string'
    cvStepSize: int
    featureLags: 'string'
    featuresUnknownAtForecastTime: [
      'string'
    ]
    forecastHorizon: {
      mode: 'string'
      // For remaining properties, see ForecastHorizon objects
    }
    frequency: 'string'
    seasonality: {
      mode: 'string'
      // For remaining properties, see Seasonality objects
    }
    shortSeriesHandlingConfig: 'string'
    targetAggregateFunction: 'string'
    targetLags: {
      mode: 'string'
      // For remaining properties, see TargetLags objects
    }
    targetRollingWindowSize: {
      mode: 'string'
      // For remaining properties, see TargetRollingWindowSize objects
    }
    timeColumnName: 'string'
    timeSeriesIdColumnNames: [
      'string'
    ]
    useStl: 'string'
  }
  limitSettings: {
    enableEarlyTermination: bool
    exitScore: int
    maxConcurrentTrials: int
    maxCoresPerTrial: int
    maxNodes: int
    maxTrials: int
    sweepConcurrentTrials: int
    sweepTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  nCrossValidations: {
    mode: 'string'
    // For remaining properties, see NCrossValidations objects
  }
  primaryMetric: 'string'
  searchSpace: [
    {
      booster: 'string'
      boostingType: 'string'
      growPolicy: 'string'
      learningRate: 'string'
      maxBin: 'string'
      maxDepth: 'string'
      maxLeaves: 'string'
      minDataInLeaf: 'string'
      minSplitGain: 'string'
      modelName: 'string'
      nEstimators: 'string'
      numLeaves: 'string'
      preprocessorName: 'string'
      regAlpha: 'string'
      regLambda: 'string'
      subsample: 'string'
      subsampleFreq: 'string'
      treeMethod: 'string'
      withMean: 'string'
      withStd: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  testData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  testDataSize: int
  trainingSettings: {
    allowedTrainingAlgorithms: [
      'string'
    ]
    blockedTrainingAlgorithms: [
      'string'
    ]
    enableDnnTraining: bool
    enableModelExplainability: bool
    enableOnnxCompatibleModels: bool
    enableStackEnsemble: bool
    enableVoteEnsemble: bool
    ensembleModelDownloadTimeout: 'string'
    stackEnsembleSettings: {
      stackMetaLearnerKWargs: any()
      stackMetaLearnerTrainPercentage: int
      stackMetaLearnerType: 'string'
    }
    trainingMode: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int
  weightColumnName: 'string'

Для ImageClassificationиспользуйте:

  taskType: 'ImageClassification'
  limitSettings: {
    maxConcurrentTrials: int
    maxTrials: int
    timeout: 'string'
  }
  modelSettings: {
    advancedSettings: 'string'
    amsGradient: bool
    augmentations: 'string'
    beta1: int
    beta2: int
    checkpointFrequency: int
    checkpointModel: {
      description: 'string'
      jobInputType: 'string'
      mode: 'string'
      pathOnCompute: 'string'
      uri: 'string'
    }
    checkpointRunId: 'string'
    distributed: bool
    earlyStopping: bool
    earlyStoppingDelay: int
    earlyStoppingPatience: int
    enableOnnxNormalization: bool
    evaluationFrequency: int
    gradientAccumulationStep: int
    layersToFreeze: int
    learningRate: int
    learningRateScheduler: 'string'
    modelName: 'string'
    momentum: int
    nesterov: bool
    numberOfEpochs: int
    numberOfWorkers: int
    optimizer: 'string'
    randomSeed: int
    stepLRGamma: int
    stepLRStepSize: int
    trainingBatchSize: int
    trainingCropSize: int
    validationBatchSize: int
    validationCropSize: int
    validationResizeSize: int
    warmupCosineLRCycles: int
    warmupCosineLRWarmupEpochs: int
    weightDecay: int
    weightedLoss: int
  }
  primaryMetric: 'string'
  searchSpace: [
    {
      amsGradient: 'string'
      augmentations: 'string'
      beta1: 'string'
      beta2: 'string'
      distributed: 'string'
      earlyStopping: 'string'
      earlyStoppingDelay: 'string'
      earlyStoppingPatience: 'string'
      enableOnnxNormalization: 'string'
      evaluationFrequency: 'string'
      gradientAccumulationStep: 'string'
      layersToFreeze: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      modelName: 'string'
      momentum: 'string'
      nesterov: 'string'
      numberOfEpochs: 'string'
      numberOfWorkers: 'string'
      optimizer: 'string'
      randomSeed: 'string'
      stepLRGamma: 'string'
      stepLRStepSize: 'string'
      trainingBatchSize: 'string'
      trainingCropSize: 'string'
      validationBatchSize: 'string'
      validationCropSize: 'string'
      validationResizeSize: 'string'
      warmupCosineLRCycles: 'string'
      warmupCosineLRWarmupEpochs: 'string'
      weightDecay: 'string'
      weightedLoss: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int

Для ImageClassificationMultilabelиспользуйте:

  taskType: 'ImageClassificationMultilabel'
  limitSettings: {
    maxConcurrentTrials: int
    maxTrials: int
    timeout: 'string'
  }
  modelSettings: {
    advancedSettings: 'string'
    amsGradient: bool
    augmentations: 'string'
    beta1: int
    beta2: int
    checkpointFrequency: int
    checkpointModel: {
      description: 'string'
      jobInputType: 'string'
      mode: 'string'
      pathOnCompute: 'string'
      uri: 'string'
    }
    checkpointRunId: 'string'
    distributed: bool
    earlyStopping: bool
    earlyStoppingDelay: int
    earlyStoppingPatience: int
    enableOnnxNormalization: bool
    evaluationFrequency: int
    gradientAccumulationStep: int
    layersToFreeze: int
    learningRate: int
    learningRateScheduler: 'string'
    modelName: 'string'
    momentum: int
    nesterov: bool
    numberOfEpochs: int
    numberOfWorkers: int
    optimizer: 'string'
    randomSeed: int
    stepLRGamma: int
    stepLRStepSize: int
    trainingBatchSize: int
    trainingCropSize: int
    validationBatchSize: int
    validationCropSize: int
    validationResizeSize: int
    warmupCosineLRCycles: int
    warmupCosineLRWarmupEpochs: int
    weightDecay: int
    weightedLoss: int
  }
  primaryMetric: 'string'
  searchSpace: [
    {
      amsGradient: 'string'
      augmentations: 'string'
      beta1: 'string'
      beta2: 'string'
      distributed: 'string'
      earlyStopping: 'string'
      earlyStoppingDelay: 'string'
      earlyStoppingPatience: 'string'
      enableOnnxNormalization: 'string'
      evaluationFrequency: 'string'
      gradientAccumulationStep: 'string'
      layersToFreeze: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      modelName: 'string'
      momentum: 'string'
      nesterov: 'string'
      numberOfEpochs: 'string'
      numberOfWorkers: 'string'
      optimizer: 'string'
      randomSeed: 'string'
      stepLRGamma: 'string'
      stepLRStepSize: 'string'
      trainingBatchSize: 'string'
      trainingCropSize: 'string'
      validationBatchSize: 'string'
      validationCropSize: 'string'
      validationResizeSize: 'string'
      warmupCosineLRCycles: 'string'
      warmupCosineLRWarmupEpochs: 'string'
      weightDecay: 'string'
      weightedLoss: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int

Для ImageInstanceSegmentationиспользуйте:

  taskType: 'ImageInstanceSegmentation'
  limitSettings: {
    maxConcurrentTrials: int
    maxTrials: int
    timeout: 'string'
  }
  modelSettings: {
    advancedSettings: 'string'
    amsGradient: bool
    augmentations: 'string'
    beta1: int
    beta2: int
    boxDetectionsPerImage: int
    boxScoreThreshold: int
    checkpointFrequency: int
    checkpointModel: {
      description: 'string'
      jobInputType: 'string'
      mode: 'string'
      pathOnCompute: 'string'
      uri: 'string'
    }
    checkpointRunId: 'string'
    distributed: bool
    earlyStopping: bool
    earlyStoppingDelay: int
    earlyStoppingPatience: int
    enableOnnxNormalization: bool
    evaluationFrequency: int
    gradientAccumulationStep: int
    imageSize: int
    layersToFreeze: int
    learningRate: int
    learningRateScheduler: 'string'
    logTrainingMetrics: 'string'
    logValidationLoss: 'string'
    maxSize: int
    minSize: int
    modelName: 'string'
    modelSize: 'string'
    momentum: int
    multiScale: bool
    nesterov: bool
    nmsIouThreshold: int
    numberOfEpochs: int
    numberOfWorkers: int
    optimizer: 'string'
    randomSeed: int
    stepLRGamma: int
    stepLRStepSize: int
    tileGridSize: 'string'
    tileOverlapRatio: int
    tilePredictionsNmsThreshold: int
    trainingBatchSize: int
    validationBatchSize: int
    validationIouThreshold: int
    validationMetricType: 'string'
    warmupCosineLRCycles: int
    warmupCosineLRWarmupEpochs: int
    weightDecay: int
  }
  primaryMetric: 'MeanAveragePrecision'
  searchSpace: [
    {
      amsGradient: 'string'
      augmentations: 'string'
      beta1: 'string'
      beta2: 'string'
      boxDetectionsPerImage: 'string'
      boxScoreThreshold: 'string'
      distributed: 'string'
      earlyStopping: 'string'
      earlyStoppingDelay: 'string'
      earlyStoppingPatience: 'string'
      enableOnnxNormalization: 'string'
      evaluationFrequency: 'string'
      gradientAccumulationStep: 'string'
      imageSize: 'string'
      layersToFreeze: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      maxSize: 'string'
      minSize: 'string'
      modelName: 'string'
      modelSize: 'string'
      momentum: 'string'
      multiScale: 'string'
      nesterov: 'string'
      nmsIouThreshold: 'string'
      numberOfEpochs: 'string'
      numberOfWorkers: 'string'
      optimizer: 'string'
      randomSeed: 'string'
      stepLRGamma: 'string'
      stepLRStepSize: 'string'
      tileGridSize: 'string'
      tileOverlapRatio: 'string'
      tilePredictionsNmsThreshold: 'string'
      trainingBatchSize: 'string'
      validationBatchSize: 'string'
      validationIouThreshold: 'string'
      validationMetricType: 'string'
      warmupCosineLRCycles: 'string'
      warmupCosineLRWarmupEpochs: 'string'
      weightDecay: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int

Для ImageObjectDetectionиспользуйте:

  taskType: 'ImageObjectDetection'
  limitSettings: {
    maxConcurrentTrials: int
    maxTrials: int
    timeout: 'string'
  }
  modelSettings: {
    advancedSettings: 'string'
    amsGradient: bool
    augmentations: 'string'
    beta1: int
    beta2: int
    boxDetectionsPerImage: int
    boxScoreThreshold: int
    checkpointFrequency: int
    checkpointModel: {
      description: 'string'
      jobInputType: 'string'
      mode: 'string'
      pathOnCompute: 'string'
      uri: 'string'
    }
    checkpointRunId: 'string'
    distributed: bool
    earlyStopping: bool
    earlyStoppingDelay: int
    earlyStoppingPatience: int
    enableOnnxNormalization: bool
    evaluationFrequency: int
    gradientAccumulationStep: int
    imageSize: int
    layersToFreeze: int
    learningRate: int
    learningRateScheduler: 'string'
    logTrainingMetrics: 'string'
    logValidationLoss: 'string'
    maxSize: int
    minSize: int
    modelName: 'string'
    modelSize: 'string'
    momentum: int
    multiScale: bool
    nesterov: bool
    nmsIouThreshold: int
    numberOfEpochs: int
    numberOfWorkers: int
    optimizer: 'string'
    randomSeed: int
    stepLRGamma: int
    stepLRStepSize: int
    tileGridSize: 'string'
    tileOverlapRatio: int
    tilePredictionsNmsThreshold: int
    trainingBatchSize: int
    validationBatchSize: int
    validationIouThreshold: int
    validationMetricType: 'string'
    warmupCosineLRCycles: int
    warmupCosineLRWarmupEpochs: int
    weightDecay: int
  }
  primaryMetric: 'MeanAveragePrecision'
  searchSpace: [
    {
      amsGradient: 'string'
      augmentations: 'string'
      beta1: 'string'
      beta2: 'string'
      boxDetectionsPerImage: 'string'
      boxScoreThreshold: 'string'
      distributed: 'string'
      earlyStopping: 'string'
      earlyStoppingDelay: 'string'
      earlyStoppingPatience: 'string'
      enableOnnxNormalization: 'string'
      evaluationFrequency: 'string'
      gradientAccumulationStep: 'string'
      imageSize: 'string'
      layersToFreeze: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      maxSize: 'string'
      minSize: 'string'
      modelName: 'string'
      modelSize: 'string'
      momentum: 'string'
      multiScale: 'string'
      nesterov: 'string'
      nmsIouThreshold: 'string'
      numberOfEpochs: 'string'
      numberOfWorkers: 'string'
      optimizer: 'string'
      randomSeed: 'string'
      stepLRGamma: 'string'
      stepLRStepSize: 'string'
      tileGridSize: 'string'
      tileOverlapRatio: 'string'
      tilePredictionsNmsThreshold: 'string'
      trainingBatchSize: 'string'
      validationBatchSize: 'string'
      validationIouThreshold: 'string'
      validationMetricType: 'string'
      warmupCosineLRCycles: 'string'
      warmupCosineLRWarmupEpochs: 'string'
      weightDecay: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int

Для регрессиииспользуйте:

  taskType: 'Regression'
  cvSplitColumnNames: [
    'string'
  ]
  featurizationSettings: {
    blockedTransformers: [
      'string'
    ]
    columnNameAndTypes: {
      {customized property}: 'string'
    }
    datasetLanguage: 'string'
    enableDnnFeaturization: bool
    mode: 'string'
    transformerParams: {
      {customized property}: [
        {
          fields: [
            'string'
          ]
          parameters: any()
        }
      ]
    }
  }
  fixedParameters: {
    booster: 'string'
    boostingType: 'string'
    growPolicy: 'string'
    learningRate: int
    maxBin: int
    maxDepth: int
    maxLeaves: int
    minDataInLeaf: int
    minSplitGain: int
    modelName: 'string'
    nEstimators: int
    numLeaves: int
    preprocessorName: 'string'
    regAlpha: int
    regLambda: int
    subsample: int
    subsampleFreq: int
    treeMethod: 'string'
    withMean: bool
    withStd: bool
  }
  limitSettings: {
    enableEarlyTermination: bool
    exitScore: int
    maxConcurrentTrials: int
    maxCoresPerTrial: int
    maxNodes: int
    maxTrials: int
    sweepConcurrentTrials: int
    sweepTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  nCrossValidations: {
    mode: 'string'
    // For remaining properties, see NCrossValidations objects
  }
  primaryMetric: 'string'
  searchSpace: [
    {
      booster: 'string'
      boostingType: 'string'
      growPolicy: 'string'
      learningRate: 'string'
      maxBin: 'string'
      maxDepth: 'string'
      maxLeaves: 'string'
      minDataInLeaf: 'string'
      minSplitGain: 'string'
      modelName: 'string'
      nEstimators: 'string'
      numLeaves: 'string'
      preprocessorName: 'string'
      regAlpha: 'string'
      regLambda: 'string'
      subsample: 'string'
      subsampleFreq: 'string'
      treeMethod: 'string'
      withMean: 'string'
      withStd: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  testData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  testDataSize: int
  trainingSettings: {
    allowedTrainingAlgorithms: [
      'string'
    ]
    blockedTrainingAlgorithms: [
      'string'
    ]
    enableDnnTraining: bool
    enableModelExplainability: bool
    enableOnnxCompatibleModels: bool
    enableStackEnsemble: bool
    enableVoteEnsemble: bool
    ensembleModelDownloadTimeout: 'string'
    stackEnsembleSettings: {
      stackMetaLearnerKWargs: any()
      stackMetaLearnerTrainPercentage: int
      stackMetaLearnerType: 'string'
    }
    trainingMode: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }
  validationDataSize: int
  weightColumnName: 'string'

Для TextClassificationиспользуйте:

  taskType: 'TextClassification'
  featurizationSettings: {
    datasetLanguage: 'string'
  }
  fixedParameters: {
    gradientAccumulationSteps: int
    learningRate: int
    learningRateScheduler: 'string'
    modelName: 'string'
    numberOfEpochs: int
    trainingBatchSize: int
    validationBatchSize: int
    warmupRatio: int
    weightDecay: int
  }
  limitSettings: {
    maxConcurrentTrials: int
    maxNodes: int
    maxTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  primaryMetric: 'string'
  searchSpace: [
    {
      gradientAccumulationSteps: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      modelName: 'string'
      numberOfEpochs: 'string'
      trainingBatchSize: 'string'
      validationBatchSize: 'string'
      warmupRatio: 'string'
      weightDecay: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }

Для TextClassificationMultilabelиспользуйте:

  taskType: 'TextClassificationMultilabel'
  featurizationSettings: {
    datasetLanguage: 'string'
  }
  fixedParameters: {
    gradientAccumulationSteps: int
    learningRate: int
    learningRateScheduler: 'string'
    modelName: 'string'
    numberOfEpochs: int
    trainingBatchSize: int
    validationBatchSize: int
    warmupRatio: int
    weightDecay: int
  }
  limitSettings: {
    maxConcurrentTrials: int
    maxNodes: int
    maxTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  searchSpace: [
    {
      gradientAccumulationSteps: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      modelName: 'string'
      numberOfEpochs: 'string'
      trainingBatchSize: 'string'
      validationBatchSize: 'string'
      warmupRatio: 'string'
      weightDecay: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }

Для TextNERиспользуйте:

  taskType: 'TextNER'
  featurizationSettings: {
    datasetLanguage: 'string'
  }
  fixedParameters: {
    gradientAccumulationSteps: int
    learningRate: int
    learningRateScheduler: 'string'
    modelName: 'string'
    numberOfEpochs: int
    trainingBatchSize: int
    validationBatchSize: int
    warmupRatio: int
    weightDecay: int
  }
  limitSettings: {
    maxConcurrentTrials: int
    maxNodes: int
    maxTrials: int
    timeout: 'string'
    trialTimeout: 'string'
  }
  searchSpace: [
    {
      gradientAccumulationSteps: 'string'
      learningRate: 'string'
      learningRateScheduler: 'string'
      modelName: 'string'
      numberOfEpochs: 'string'
      trainingBatchSize: 'string'
      validationBatchSize: 'string'
      warmupRatio: 'string'
      weightDecay: 'string'
    }
  ]
  sweepSettings: {
    earlyTermination: {
      delayEvaluation: int
      evaluationInterval: int
      policyType: 'string'
      // For remaining properties, see EarlyTerminationPolicy objects
    }
    samplingAlgorithm: 'string'
  }
  validationData: {
    description: 'string'
    jobInputType: 'string'
    mode: 'string'
    pathOnCompute: 'string'
    uri: 'string'
  }

Объекты NCrossValidations

Задайте свойство режима, чтобы указать тип объекта.

Для автоматическогоиспользуйте:

  mode: 'Auto'

Для пользовательскихиспользуйте:

  mode: 'Custom'
  value: int

Объекты EarlyTerminationPolicy

Задайте свойство policyType, чтобы указать тип объекта.

Для Banditиспользуйте:

  policyType: 'Bandit'
  slackAmount: int
  slackFactor: int

Для MedianStoppingиспользуйте:

  policyType: 'MedianStopping'

Для TruncationSelectionиспользуйте:

  policyType: 'TruncationSelection'
  truncationPercentage: int

Объекты ForecastHorizon

Задайте свойство режима, чтобы указать тип объекта.

Для автоматическогоиспользуйте:

  mode: 'Auto'

Для пользовательскихиспользуйте:

  mode: 'Custom'
  value: int

Объекты сезонности

Задайте свойство режима, чтобы указать тип объекта.

Для автоматическогоиспользуйте:

  mode: 'Auto'

Для пользовательскихиспользуйте:

  mode: 'Custom'
  value: int

Объекты TargetLags

Задайте свойство режима, чтобы указать тип объекта.

Для автоматическогоиспользуйте:

  mode: 'Auto'

Для пользовательскихиспользуйте:

  mode: 'Custom'
  values: [
    int
  ]

Объекты TargetRollingWindowSize

Задайте свойство режима, чтобы указать тип объекта.

Для автоматическогоиспользуйте:

  mode: 'Auto'

Для пользовательскихиспользуйте:

  mode: 'Custom'
  value: int

Объекты DistributionConfiguration

Задайте свойство distributionType, чтобы указать тип объекта.

Для Mpiиспользуйте:

  distributionType: 'Mpi'
  processCountPerInstance: int

Для PyTorchиспользуйте:

  distributionType: 'PyTorch'
  processCountPerInstance: int

Для Rayиспользуйте:

  distributionType: 'Ray'
  address: 'string'
  dashboardPort: int
  headNodeAdditionalArgs: 'string'
  includeDashboard: bool
  port: int
  workerNodeAdditionalArgs: 'string'

Для TensorFlowиспользуйте:

  distributionType: 'TensorFlow'
  parameterServerCount: int
  workerCount: int

Объекты JobInput

Задайте свойство jobInputType, чтобы указать тип объекта.

Для custom_modelиспользуйте:

  jobInputType: 'custom_model'
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для литералаиспользуйте:

  jobInputType: 'literal'
  value: 'string'

Для mlflow_modelиспользуйте:

  jobInputType: 'mlflow_model'
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для mltableиспользуйте:

  jobInputType: 'mltable'
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для triton_modelиспользуйте:

  jobInputType: 'triton_model'
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для uri_fileиспользуйте:

  jobInputType: 'uri_file'
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Для uri_folderиспользуйте:

  jobInputType: 'uri_folder'
  mode: 'string'
  pathOnCompute: 'string'
  uri: 'string'

Объекты FineTuningVertical

Задайте свойство modelProvider, чтобы указать тип объекта.

Для AzureOpenAIиспользуйте:

  modelProvider: 'AzureOpenAI'
  hyperParameters: {
    batchSize: int
    learningRateMultiplier: int
    nEpochs: int
  }

Для пользовательскихиспользуйте:

  modelProvider: 'Custom'
  hyperParameters: {
    {customized property}: 'string'
  }

Объекты LabelingJobMediaProperties

Задайте свойство mediaType mediaType, чтобы указать тип объекта.

Для изображенияиспользуйте:

  mediaType: 'Image'
  annotationType: 'string'

Для текстовыхиспользуйте:

  mediaType: 'Text'
  annotationType: 'string'

Объекты MLAssistConfiguration

Задайте свойство mlAssist, чтобы указать тип объекта.

Для отключенныхиспользуйте:

  mlAssist: 'Disabled'

Для включеноиспользуйте:

  mlAssist: 'Enabled'
  inferencingComputeBinding: 'string'
  trainingComputeBinding: 'string'

Объекты SparkJobEntry

Задайте свойство sparkJobEntryType, чтобы указать тип объекта.

Для SparkJobPythonEntryиспользуйте:

  sparkJobEntryType: 'SparkJobPythonEntry'
  file: 'string'

Для SparkJobScalaEntryиспользуйте:

  sparkJobEntryType: 'SparkJobScalaEntry'
  className: 'string'

Объекты ВыборкиAlgorithm

Задайте свойство выборкиAlgorithmType, чтобы указать тип объекта.

Для Байезианаиспользуйте:

  samplingAlgorithmType: 'Bayesian'

Для сеткииспользуйте:

  samplingAlgorithmType: 'Grid'

Для случайныхиспользуйте:

  samplingAlgorithmType: 'Random'
  logbase: 'string'
  rule: 'string'
  seed: int

Значения свойств