trait ProblemStatementOrBuilder extends MessageOrBuilder
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-   abstract  def findInitializationErrors(): List[String]
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 -   abstract  def getAllFields(): Map[FieldDescriptor, AnyRef]
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 -   abstract  def getDefaultInstanceForType(): Message
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 - MessageOrBuilder → MessageLiteOrBuilder
 
 -   abstract  def getDescription(): String
Description of the problem statement. For example, should describe how the problem statement was arrived at: what experiments were run, what side-by-sides were considered.
Description of the problem statement. For example, should describe how the problem statement was arrived at: what experiments were run, what side-by-sides were considered.
string description = 2;- returns
 The description.
 -   abstract  def getDescriptionBytes(): ByteString
Description of the problem statement. For example, should describe how the problem statement was arrived at: what experiments were run, what side-by-sides were considered.
Description of the problem statement. For example, should describe how the problem statement was arrived at: what experiments were run, what side-by-sides were considered.
string description = 2;- returns
 The bytes for description.
 -   abstract  def getDescriptorForType(): Descriptor
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def getEnvironment(): String
The environment of the ProblemStatement (optional). Specifies an environment string in the SchemaProto.
The environment of the ProblemStatement (optional). Specifies an environment string in the SchemaProto.
string environment = 4;- returns
 The environment.
 -   abstract  def getEnvironmentBytes(): ByteString
The environment of the ProblemStatement (optional). Specifies an environment string in the SchemaProto.
The environment of the ProblemStatement (optional). Specifies an environment string in the SchemaProto.
string environment = 4;- returns
 The bytes for environment.
 -   abstract  def getField(field: FieldDescriptor): AnyRef
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def getInitializationErrorString(): String
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def getMetaOptimizationTarget(index: Int): MetaOptimizationTarget
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
repeated .tensorflow.metadata.v0.MetaOptimizationTarget meta_optimization_target = 7; -   abstract  def getMetaOptimizationTargetCount(): Int
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
repeated .tensorflow.metadata.v0.MetaOptimizationTarget meta_optimization_target = 7; -   abstract  def getMetaOptimizationTargetList(): List[MetaOptimizationTarget]
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
repeated .tensorflow.metadata.v0.MetaOptimizationTarget meta_optimization_target = 7; -   abstract  def getMetaOptimizationTargetOrBuilder(index: Int): MetaOptimizationTargetOrBuilder
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
repeated .tensorflow.metadata.v0.MetaOptimizationTarget meta_optimization_target = 7; -   abstract  def getMetaOptimizationTargetOrBuilderList(): List[_ <: MetaOptimizationTargetOrBuilder]
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
The target used for meta-optimization. This is used to compare multiple solutions for this problem. For example, if two solutions have different candidates, a tuning tool can use meta_optimization_target to decide which candidate performs the best. A repeated meta-optimization target implies the weighted sum of the meta_optimization targets of any non-thresholded metrics.
repeated .tensorflow.metadata.v0.MetaOptimizationTarget meta_optimization_target = 7; -   abstract  def getOneofFieldDescriptor(oneof: OneofDescriptor): FieldDescriptor
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def getOwner(index: Int): String
repeated string owner = 3;repeated string owner = 3;- index
 The index of the element to return.
- returns
 The owner at the given index.
 -   abstract  def getOwnerBytes(index: Int): ByteString
repeated string owner = 3;repeated string owner = 3;- index
 The index of the value to return.
- returns
 The bytes of the owner at the given index.
 -   abstract  def getOwnerCount(): Int
repeated string owner = 3;repeated string owner = 3;- returns
 The count of owner.
 -   abstract  def getOwnerList(): List[String]
repeated string owner = 3;repeated string owner = 3;- returns
 A list containing the owner.
 -   abstract  def getRepeatedField(field: FieldDescriptor, index: Int): AnyRef
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def getRepeatedFieldCount(field: FieldDescriptor): Int
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def getTasks(index: Int): Task
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
repeated .tensorflow.metadata.v0.Task tasks = 9; -   abstract  def getTasksCount(): Int
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
repeated .tensorflow.metadata.v0.Task tasks = 9; -   abstract  def getTasksList(): List[Task]
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
repeated .tensorflow.metadata.v0.Task tasks = 9; -   abstract  def getTasksOrBuilder(index: Int): TaskOrBuilder
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
repeated .tensorflow.metadata.v0.Task tasks = 9; -   abstract  def getTasksOrBuilderList(): List[_ <: TaskOrBuilder]
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
Tasks for heads of the generated model. This field is repeated because some models are multi-task models. Each task should have a unique name. If you wish to directly optimize this problem statement, you need to specify the objective in the task.
repeated .tensorflow.metadata.v0.Task tasks = 9; -   abstract  def getUnknownFields(): UnknownFieldSet
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 - MessageOrBuilder
 
 -   abstract  def hasField(field: FieldDescriptor): Boolean
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 - MessageOrBuilder
 
 -   abstract  def hasOneof(oneof: OneofDescriptor): Boolean
- Definition Classes
 - MessageOrBuilder
 
 -   abstract  def isInitialized(): Boolean
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 - MessageLiteOrBuilder
 
 -   abstract  def getMultiObjective(): Boolean
bool multi_objective = 8 [deprecated = true];bool multi_objective = 8 [deprecated = true];- returns
 The multiObjective.
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 -    def finalize(): Unit
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 -   final  def getClass(): Class[_ <: AnyRef]
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 -    def hashCode(): Int
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 -   final  def notifyAll(): Unit
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 -    def toString(): String
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 -   final  def wait(): Unit
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 -   final  def wait(arg0: Long, arg1: Int): Unit
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 -   final  def wait(arg0: Long): Unit
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