aws_sdk_dynamodb/operation/create_table/

builders.rs

// Code generated by software.amazon.smithy.rust.codegen.smithy-rs. DO NOT EDIT.
pub use crate::operation::create_table::_create_table_output::CreateTableOutputBuilder;

pub use crate::operation::create_table::_create_table_input::CreateTableInputBuilder;

impl crate::operation::create_table::builders::CreateTableInputBuilder {
    /// Sends a request with this input using the given client.
    pub async fn send_with(
        self,
        client: &crate::Client,
    ) -> ::std::result::Result<
        crate::operation::create_table::CreateTableOutput,
        ::aws_smithy_runtime_api::client::result::SdkError<
            crate::operation::create_table::CreateTableError,
            ::aws_smithy_runtime_api::client::orchestrator::HttpResponse,
        >,
    > {
        let mut fluent_builder = client.create_table();
        fluent_builder.inner = self;
        fluent_builder.send().await
    }
}
/// Fluent builder constructing a request to `CreateTable`.
///
/// <p>The <code>CreateTable</code> operation adds a new table to your account. In an Amazon Web Services account, table names must be unique within each Region. That is, you can have two tables with same name if you create the tables in different Regions.</p>
/// <p><code>CreateTable</code> is an asynchronous operation. Upon receiving a <code>CreateTable</code> request, DynamoDB immediately returns a response with a <code>TableStatus</code> of <code>CREATING</code>. After the table is created, DynamoDB sets the <code>TableStatus</code> to <code>ACTIVE</code>. You can perform read and write operations only on an <code>ACTIVE</code> table.</p>
/// <p>You can optionally define secondary indexes on the new table, as part of the <code>CreateTable</code> operation. If you want to create multiple tables with secondary indexes on them, you must create the tables sequentially. Only one table with secondary indexes can be in the <code>CREATING</code> state at any given time.</p>
/// <p>You can use the <code>DescribeTable</code> action to check the table status.</p>
#[derive(::std::clone::Clone, ::std::fmt::Debug)]
pub struct CreateTableFluentBuilder {
    handle: ::std::sync::Arc<crate::client::Handle>,
    inner: crate::operation::create_table::builders::CreateTableInputBuilder,
    config_override: ::std::option::Option<crate::config::Builder>,
}
impl
    crate::client::customize::internal::CustomizableSend<
        crate::operation::create_table::CreateTableOutput,
        crate::operation::create_table::CreateTableError,
    > for CreateTableFluentBuilder
{
    fn send(
        self,
        config_override: crate::config::Builder,
    ) -> crate::client::customize::internal::BoxFuture<
        crate::client::customize::internal::SendResult<
            crate::operation::create_table::CreateTableOutput,
            crate::operation::create_table::CreateTableError,
        >,
    > {
        ::std::boxed::Box::pin(async move { self.config_override(config_override).send().await })
    }
}
impl CreateTableFluentBuilder {
    /// Creates a new `CreateTableFluentBuilder`.
    pub(crate) fn new(handle: ::std::sync::Arc<crate::client::Handle>) -> Self {
        Self {
            handle,
            inner: ::std::default::Default::default(),
            config_override: ::std::option::Option::None,
        }
    }
    /// Access the CreateTable as a reference.
    pub fn as_input(&self) -> &crate::operation::create_table::builders::CreateTableInputBuilder {
        &self.inner
    }
    /// Sends the request and returns the response.
    ///
    /// If an error occurs, an `SdkError` will be returned with additional details that
    /// can be matched against.
    ///
    /// By default, any retryable failures will be retried twice. Retry behavior
    /// is configurable with the [RetryConfig](aws_smithy_types::retry::RetryConfig), which can be
    /// set when configuring the client.
    pub async fn send(
        self,
    ) -> ::std::result::Result<
        crate::operation::create_table::CreateTableOutput,
        ::aws_smithy_runtime_api::client::result::SdkError<
            crate::operation::create_table::CreateTableError,
            ::aws_smithy_runtime_api::client::orchestrator::HttpResponse,
        >,
    > {
        let input = self
            .inner
            .build()
            .map_err(::aws_smithy_runtime_api::client::result::SdkError::construction_failure)?;
        let runtime_plugins = crate::operation::create_table::CreateTable::operation_runtime_plugins(
            self.handle.runtime_plugins.clone(),
            &self.handle.conf,
            self.config_override,
        );
        crate::operation::create_table::CreateTable::orchestrate(&runtime_plugins, input).await
    }

    /// Consumes this builder, creating a customizable operation that can be modified before being sent.
    pub fn customize(
        self,
    ) -> crate::client::customize::CustomizableOperation<
        crate::operation::create_table::CreateTableOutput,
        crate::operation::create_table::CreateTableError,
        Self,
    > {
        crate::client::customize::CustomizableOperation::new(self)
    }
    pub(crate) fn config_override(mut self, config_override: impl ::std::convert::Into<crate::config::Builder>) -> Self {
        self.set_config_override(::std::option::Option::Some(config_override.into()));
        self
    }

    pub(crate) fn set_config_override(&mut self, config_override: ::std::option::Option<crate::config::Builder>) -> &mut Self {
        self.config_override = config_override;
        self
    }
    ///
    /// Appends an item to `AttributeDefinitions`.
    ///
    /// To override the contents of this collection use [`set_attribute_definitions`](Self::set_attribute_definitions).
    ///
    /// <p>An array of attributes that describe the key schema for the table and indexes.</p>
    pub fn attribute_definitions(mut self, input: crate::types::AttributeDefinition) -> Self {
        self.inner = self.inner.attribute_definitions(input);
        self
    }
    /// <p>An array of attributes that describe the key schema for the table and indexes.</p>
    pub fn set_attribute_definitions(mut self, input: ::std::option::Option<::std::vec::Vec<crate::types::AttributeDefinition>>) -> Self {
        self.inner = self.inner.set_attribute_definitions(input);
        self
    }
    /// <p>An array of attributes that describe the key schema for the table and indexes.</p>
    pub fn get_attribute_definitions(&self) -> &::std::option::Option<::std::vec::Vec<crate::types::AttributeDefinition>> {
        self.inner.get_attribute_definitions()
    }
    /// <p>The name of the table to create. You can also provide the Amazon Resource Name (ARN) of the table in this parameter.</p>
    pub fn table_name(mut self, input: impl ::std::convert::Into<::std::string::String>) -> Self {
        self.inner = self.inner.table_name(input.into());
        self
    }
    /// <p>The name of the table to create. You can also provide the Amazon Resource Name (ARN) of the table in this parameter.</p>
    pub fn set_table_name(mut self, input: ::std::option::Option<::std::string::String>) -> Self {
        self.inner = self.inner.set_table_name(input);
        self
    }
    /// <p>The name of the table to create. You can also provide the Amazon Resource Name (ARN) of the table in this parameter.</p>
    pub fn get_table_name(&self) -> &::std::option::Option<::std::string::String> {
        self.inner.get_table_name()
    }
    ///
    /// Appends an item to `KeySchema`.
    ///
    /// To override the contents of this collection use [`set_key_schema`](Self::set_key_schema).
    ///
    /// <p>Specifies the attributes that make up the primary key for a table or an index. The attributes in <code>KeySchema</code> must also be defined in the <code>AttributeDefinitions</code> array. For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/DataModel.html">Data Model</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    /// <p>Each <code>KeySchemaElement</code> in the array is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>AttributeName</code> - The name of this key attribute.</p></li>
    /// <li>
    /// <p><code>KeyType</code> - The role that the key attribute will assume:</p>
    /// <ul>
    /// <li>
    /// <p><code>HASH</code> - partition key</p></li>
    /// <li>
    /// <p><code>RANGE</code> - sort key</p></li>
    /// </ul></li>
    /// </ul><note>
    /// <p>The partition key of an item is also known as its <i>hash attribute</i>. The term "hash attribute" derives from the DynamoDB usage of an internal hash function to evenly distribute data items across partitions, based on their partition key values.</p>
    /// <p>The sort key of an item is also known as its <i>range attribute</i>. The term "range attribute" derives from the way DynamoDB stores items with the same partition key physically close together, in sorted order by the sort key value.</p>
    /// </note>
    /// <p>For a simple primary key (partition key), you must provide exactly one element with a <code>KeyType</code> of <code>HASH</code>.</p>
    /// <p>For a composite primary key (partition key and sort key), you must provide exactly two elements, in this order: The first element must have a <code>KeyType</code> of <code>HASH</code>, and the second element must have a <code>KeyType</code> of <code>RANGE</code>.</p>
    /// <p>For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/WorkingWithTables.html#WorkingWithTables.primary.key">Working with Tables</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    pub fn key_schema(mut self, input: crate::types::KeySchemaElement) -> Self {
        self.inner = self.inner.key_schema(input);
        self
    }
    /// <p>Specifies the attributes that make up the primary key for a table or an index. The attributes in <code>KeySchema</code> must also be defined in the <code>AttributeDefinitions</code> array. For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/DataModel.html">Data Model</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    /// <p>Each <code>KeySchemaElement</code> in the array is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>AttributeName</code> - The name of this key attribute.</p></li>
    /// <li>
    /// <p><code>KeyType</code> - The role that the key attribute will assume:</p>
    /// <ul>
    /// <li>
    /// <p><code>HASH</code> - partition key</p></li>
    /// <li>
    /// <p><code>RANGE</code> - sort key</p></li>
    /// </ul></li>
    /// </ul><note>
    /// <p>The partition key of an item is also known as its <i>hash attribute</i>. The term "hash attribute" derives from the DynamoDB usage of an internal hash function to evenly distribute data items across partitions, based on their partition key values.</p>
    /// <p>The sort key of an item is also known as its <i>range attribute</i>. The term "range attribute" derives from the way DynamoDB stores items with the same partition key physically close together, in sorted order by the sort key value.</p>
    /// </note>
    /// <p>For a simple primary key (partition key), you must provide exactly one element with a <code>KeyType</code> of <code>HASH</code>.</p>
    /// <p>For a composite primary key (partition key and sort key), you must provide exactly two elements, in this order: The first element must have a <code>KeyType</code> of <code>HASH</code>, and the second element must have a <code>KeyType</code> of <code>RANGE</code>.</p>
    /// <p>For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/WorkingWithTables.html#WorkingWithTables.primary.key">Working with Tables</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    pub fn set_key_schema(mut self, input: ::std::option::Option<::std::vec::Vec<crate::types::KeySchemaElement>>) -> Self {
        self.inner = self.inner.set_key_schema(input);
        self
    }
    /// <p>Specifies the attributes that make up the primary key for a table or an index. The attributes in <code>KeySchema</code> must also be defined in the <code>AttributeDefinitions</code> array. For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/DataModel.html">Data Model</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    /// <p>Each <code>KeySchemaElement</code> in the array is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>AttributeName</code> - The name of this key attribute.</p></li>
    /// <li>
    /// <p><code>KeyType</code> - The role that the key attribute will assume:</p>
    /// <ul>
    /// <li>
    /// <p><code>HASH</code> - partition key</p></li>
    /// <li>
    /// <p><code>RANGE</code> - sort key</p></li>
    /// </ul></li>
    /// </ul><note>
    /// <p>The partition key of an item is also known as its <i>hash attribute</i>. The term "hash attribute" derives from the DynamoDB usage of an internal hash function to evenly distribute data items across partitions, based on their partition key values.</p>
    /// <p>The sort key of an item is also known as its <i>range attribute</i>. The term "range attribute" derives from the way DynamoDB stores items with the same partition key physically close together, in sorted order by the sort key value.</p>
    /// </note>
    /// <p>For a simple primary key (partition key), you must provide exactly one element with a <code>KeyType</code> of <code>HASH</code>.</p>
    /// <p>For a composite primary key (partition key and sort key), you must provide exactly two elements, in this order: The first element must have a <code>KeyType</code> of <code>HASH</code>, and the second element must have a <code>KeyType</code> of <code>RANGE</code>.</p>
    /// <p>For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/WorkingWithTables.html#WorkingWithTables.primary.key">Working with Tables</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    pub fn get_key_schema(&self) -> &::std::option::Option<::std::vec::Vec<crate::types::KeySchemaElement>> {
        self.inner.get_key_schema()
    }
    ///
    /// Appends an item to `LocalSecondaryIndexes`.
    ///
    /// To override the contents of this collection use [`set_local_secondary_indexes`](Self::set_local_secondary_indexes).
    ///
    /// <p>One or more local secondary indexes (the maximum is 5) to be created on the table. Each index is scoped to a given partition key value. There is a 10 GB size limit per partition key value; otherwise, the size of a local secondary index is unconstrained.</p>
    /// <p>Each local secondary index in the array includes the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>IndexName</code> - The name of the local secondary index. Must be unique only for this table.</p>
    /// <p></p></li>
    /// <li>
    /// <p><code>KeySchema</code> - Specifies the key schema for the local secondary index. The key schema must begin with the same partition key as the table.</p></li>
    /// <li>
    /// <p><code>Projection</code> - Specifies attributes that are copied (projected) from the table into the index. These are in addition to the primary key attributes and index key attributes, which are automatically projected. Each attribute specification is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>ProjectionType</code> - One of the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the index and primary keys are projected into the index.</p></li>
    /// <li>
    /// <p><code>INCLUDE</code> - Only the specified table attributes are projected into the index. The list of projected attributes is in <code>NonKeyAttributes</code>.</p></li>
    /// <li>
    /// <p><code>ALL</code> - All of the table attributes are projected into the index.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>NonKeyAttributes</code> - A list of one or more non-key attribute names that are projected into the secondary index. The total count of attributes provided in <code>NonKeyAttributes</code>, summed across all of the secondary indexes, must not exceed 100. If you project the same attribute into two different indexes, this counts as two distinct attributes when determining the total. This limit only applies when you specify the ProjectionType of <code>INCLUDE</code>. You still can specify the ProjectionType of <code>ALL</code> to project all attributes from the source table, even if the table has more than 100 attributes.</p></li>
    /// </ul></li>
    /// </ul>
    pub fn local_secondary_indexes(mut self, input: crate::types::LocalSecondaryIndex) -> Self {
        self.inner = self.inner.local_secondary_indexes(input);
        self
    }
    /// <p>One or more local secondary indexes (the maximum is 5) to be created on the table. Each index is scoped to a given partition key value. There is a 10 GB size limit per partition key value; otherwise, the size of a local secondary index is unconstrained.</p>
    /// <p>Each local secondary index in the array includes the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>IndexName</code> - The name of the local secondary index. Must be unique only for this table.</p>
    /// <p></p></li>
    /// <li>
    /// <p><code>KeySchema</code> - Specifies the key schema for the local secondary index. The key schema must begin with the same partition key as the table.</p></li>
    /// <li>
    /// <p><code>Projection</code> - Specifies attributes that are copied (projected) from the table into the index. These are in addition to the primary key attributes and index key attributes, which are automatically projected. Each attribute specification is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>ProjectionType</code> - One of the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the index and primary keys are projected into the index.</p></li>
    /// <li>
    /// <p><code>INCLUDE</code> - Only the specified table attributes are projected into the index. The list of projected attributes is in <code>NonKeyAttributes</code>.</p></li>
    /// <li>
    /// <p><code>ALL</code> - All of the table attributes are projected into the index.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>NonKeyAttributes</code> - A list of one or more non-key attribute names that are projected into the secondary index. The total count of attributes provided in <code>NonKeyAttributes</code>, summed across all of the secondary indexes, must not exceed 100. If you project the same attribute into two different indexes, this counts as two distinct attributes when determining the total. This limit only applies when you specify the ProjectionType of <code>INCLUDE</code>. You still can specify the ProjectionType of <code>ALL</code> to project all attributes from the source table, even if the table has more than 100 attributes.</p></li>
    /// </ul></li>
    /// </ul>
    pub fn set_local_secondary_indexes(mut self, input: ::std::option::Option<::std::vec::Vec<crate::types::LocalSecondaryIndex>>) -> Self {
        self.inner = self.inner.set_local_secondary_indexes(input);
        self
    }
    /// <p>One or more local secondary indexes (the maximum is 5) to be created on the table. Each index is scoped to a given partition key value. There is a 10 GB size limit per partition key value; otherwise, the size of a local secondary index is unconstrained.</p>
    /// <p>Each local secondary index in the array includes the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>IndexName</code> - The name of the local secondary index. Must be unique only for this table.</p>
    /// <p></p></li>
    /// <li>
    /// <p><code>KeySchema</code> - Specifies the key schema for the local secondary index. The key schema must begin with the same partition key as the table.</p></li>
    /// <li>
    /// <p><code>Projection</code> - Specifies attributes that are copied (projected) from the table into the index. These are in addition to the primary key attributes and index key attributes, which are automatically projected. Each attribute specification is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>ProjectionType</code> - One of the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the index and primary keys are projected into the index.</p></li>
    /// <li>
    /// <p><code>INCLUDE</code> - Only the specified table attributes are projected into the index. The list of projected attributes is in <code>NonKeyAttributes</code>.</p></li>
    /// <li>
    /// <p><code>ALL</code> - All of the table attributes are projected into the index.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>NonKeyAttributes</code> - A list of one or more non-key attribute names that are projected into the secondary index. The total count of attributes provided in <code>NonKeyAttributes</code>, summed across all of the secondary indexes, must not exceed 100. If you project the same attribute into two different indexes, this counts as two distinct attributes when determining the total. This limit only applies when you specify the ProjectionType of <code>INCLUDE</code>. You still can specify the ProjectionType of <code>ALL</code> to project all attributes from the source table, even if the table has more than 100 attributes.</p></li>
    /// </ul></li>
    /// </ul>
    pub fn get_local_secondary_indexes(&self) -> &::std::option::Option<::std::vec::Vec<crate::types::LocalSecondaryIndex>> {
        self.inner.get_local_secondary_indexes()
    }
    ///
    /// Appends an item to `GlobalSecondaryIndexes`.
    ///
    /// To override the contents of this collection use [`set_global_secondary_indexes`](Self::set_global_secondary_indexes).
    ///
    /// <p>One or more global secondary indexes (the maximum is 20) to be created on the table. Each global secondary index in the array includes the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>IndexName</code> - The name of the global secondary index. Must be unique only for this table.</p>
    /// <p></p></li>
    /// <li>
    /// <p><code>KeySchema</code> - Specifies the key schema for the global secondary index.</p></li>
    /// <li>
    /// <p><code>Projection</code> - Specifies attributes that are copied (projected) from the table into the index. These are in addition to the primary key attributes and index key attributes, which are automatically projected. Each attribute specification is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>ProjectionType</code> - One of the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the index and primary keys are projected into the index.</p></li>
    /// <li>
    /// <p><code>INCLUDE</code> - Only the specified table attributes are projected into the index. The list of projected attributes is in <code>NonKeyAttributes</code>.</p></li>
    /// <li>
    /// <p><code>ALL</code> - All of the table attributes are projected into the index.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>NonKeyAttributes</code> - A list of one or more non-key attribute names that are projected into the secondary index. The total count of attributes provided in <code>NonKeyAttributes</code>, summed across all of the secondary indexes, must not exceed 100. If you project the same attribute into two different indexes, this counts as two distinct attributes when determining the total. This limit only applies when you specify the ProjectionType of <code>INCLUDE</code>. You still can specify the ProjectionType of <code>ALL</code> to project all attributes from the source table, even if the table has more than 100 attributes.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>ProvisionedThroughput</code> - The provisioned throughput settings for the global secondary index, consisting of read and write capacity units.</p></li>
    /// </ul>
    pub fn global_secondary_indexes(mut self, input: crate::types::GlobalSecondaryIndex) -> Self {
        self.inner = self.inner.global_secondary_indexes(input);
        self
    }
    /// <p>One or more global secondary indexes (the maximum is 20) to be created on the table. Each global secondary index in the array includes the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>IndexName</code> - The name of the global secondary index. Must be unique only for this table.</p>
    /// <p></p></li>
    /// <li>
    /// <p><code>KeySchema</code> - Specifies the key schema for the global secondary index.</p></li>
    /// <li>
    /// <p><code>Projection</code> - Specifies attributes that are copied (projected) from the table into the index. These are in addition to the primary key attributes and index key attributes, which are automatically projected. Each attribute specification is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>ProjectionType</code> - One of the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the index and primary keys are projected into the index.</p></li>
    /// <li>
    /// <p><code>INCLUDE</code> - Only the specified table attributes are projected into the index. The list of projected attributes is in <code>NonKeyAttributes</code>.</p></li>
    /// <li>
    /// <p><code>ALL</code> - All of the table attributes are projected into the index.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>NonKeyAttributes</code> - A list of one or more non-key attribute names that are projected into the secondary index. The total count of attributes provided in <code>NonKeyAttributes</code>, summed across all of the secondary indexes, must not exceed 100. If you project the same attribute into two different indexes, this counts as two distinct attributes when determining the total. This limit only applies when you specify the ProjectionType of <code>INCLUDE</code>. You still can specify the ProjectionType of <code>ALL</code> to project all attributes from the source table, even if the table has more than 100 attributes.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>ProvisionedThroughput</code> - The provisioned throughput settings for the global secondary index, consisting of read and write capacity units.</p></li>
    /// </ul>
    pub fn set_global_secondary_indexes(mut self, input: ::std::option::Option<::std::vec::Vec<crate::types::GlobalSecondaryIndex>>) -> Self {
        self.inner = self.inner.set_global_secondary_indexes(input);
        self
    }
    /// <p>One or more global secondary indexes (the maximum is 20) to be created on the table. Each global secondary index in the array includes the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>IndexName</code> - The name of the global secondary index. Must be unique only for this table.</p>
    /// <p></p></li>
    /// <li>
    /// <p><code>KeySchema</code> - Specifies the key schema for the global secondary index.</p></li>
    /// <li>
    /// <p><code>Projection</code> - Specifies attributes that are copied (projected) from the table into the index. These are in addition to the primary key attributes and index key attributes, which are automatically projected. Each attribute specification is composed of:</p>
    /// <ul>
    /// <li>
    /// <p><code>ProjectionType</code> - One of the following:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the index and primary keys are projected into the index.</p></li>
    /// <li>
    /// <p><code>INCLUDE</code> - Only the specified table attributes are projected into the index. The list of projected attributes is in <code>NonKeyAttributes</code>.</p></li>
    /// <li>
    /// <p><code>ALL</code> - All of the table attributes are projected into the index.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>NonKeyAttributes</code> - A list of one or more non-key attribute names that are projected into the secondary index. The total count of attributes provided in <code>NonKeyAttributes</code>, summed across all of the secondary indexes, must not exceed 100. If you project the same attribute into two different indexes, this counts as two distinct attributes when determining the total. This limit only applies when you specify the ProjectionType of <code>INCLUDE</code>. You still can specify the ProjectionType of <code>ALL</code> to project all attributes from the source table, even if the table has more than 100 attributes.</p></li>
    /// </ul></li>
    /// <li>
    /// <p><code>ProvisionedThroughput</code> - The provisioned throughput settings for the global secondary index, consisting of read and write capacity units.</p></li>
    /// </ul>
    pub fn get_global_secondary_indexes(&self) -> &::std::option::Option<::std::vec::Vec<crate::types::GlobalSecondaryIndex>> {
        self.inner.get_global_secondary_indexes()
    }
    /// <p>Controls how you are charged for read and write throughput and how you manage capacity. This setting can be changed later.</p>
    /// <ul>
    /// <li>
    /// <p><code>PAY_PER_REQUEST</code> - We recommend using <code>PAY_PER_REQUEST</code> for most DynamoDB workloads. <code>PAY_PER_REQUEST</code> sets the billing mode to <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/on-demand-capacity-mode.html">On-demand capacity mode</a>.</p></li>
    /// <li>
    /// <p><code>PROVISIONED</code> - We recommend using <code>PROVISIONED</code> for steady workloads with predictable growth where capacity requirements can be reliably forecasted. <code>PROVISIONED</code> sets the billing mode to <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/provisioned-capacity-mode.html">Provisioned capacity mode</a>.</p></li>
    /// </ul>
    pub fn billing_mode(mut self, input: crate::types::BillingMode) -> Self {
        self.inner = self.inner.billing_mode(input);
        self
    }
    /// <p>Controls how you are charged for read and write throughput and how you manage capacity. This setting can be changed later.</p>
    /// <ul>
    /// <li>
    /// <p><code>PAY_PER_REQUEST</code> - We recommend using <code>PAY_PER_REQUEST</code> for most DynamoDB workloads. <code>PAY_PER_REQUEST</code> sets the billing mode to <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/on-demand-capacity-mode.html">On-demand capacity mode</a>.</p></li>
    /// <li>
    /// <p><code>PROVISIONED</code> - We recommend using <code>PROVISIONED</code> for steady workloads with predictable growth where capacity requirements can be reliably forecasted. <code>PROVISIONED</code> sets the billing mode to <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/provisioned-capacity-mode.html">Provisioned capacity mode</a>.</p></li>
    /// </ul>
    pub fn set_billing_mode(mut self, input: ::std::option::Option<crate::types::BillingMode>) -> Self {
        self.inner = self.inner.set_billing_mode(input);
        self
    }
    /// <p>Controls how you are charged for read and write throughput and how you manage capacity. This setting can be changed later.</p>
    /// <ul>
    /// <li>
    /// <p><code>PAY_PER_REQUEST</code> - We recommend using <code>PAY_PER_REQUEST</code> for most DynamoDB workloads. <code>PAY_PER_REQUEST</code> sets the billing mode to <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/on-demand-capacity-mode.html">On-demand capacity mode</a>.</p></li>
    /// <li>
    /// <p><code>PROVISIONED</code> - We recommend using <code>PROVISIONED</code> for steady workloads with predictable growth where capacity requirements can be reliably forecasted. <code>PROVISIONED</code> sets the billing mode to <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/provisioned-capacity-mode.html">Provisioned capacity mode</a>.</p></li>
    /// </ul>
    pub fn get_billing_mode(&self) -> &::std::option::Option<crate::types::BillingMode> {
        self.inner.get_billing_mode()
    }
    /// <p>Represents the provisioned throughput settings for a specified table or index. The settings can be modified using the <code>UpdateTable</code> operation.</p>
    /// <p>If you set BillingMode as <code>PROVISIONED</code>, you must specify this property. If you set BillingMode as <code>PAY_PER_REQUEST</code>, you cannot specify this property.</p>
    /// <p>For current minimum and maximum provisioned throughput values, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/Limits.html">Service, Account, and Table Quotas</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    pub fn provisioned_throughput(mut self, input: crate::types::ProvisionedThroughput) -> Self {
        self.inner = self.inner.provisioned_throughput(input);
        self
    }
    /// <p>Represents the provisioned throughput settings for a specified table or index. The settings can be modified using the <code>UpdateTable</code> operation.</p>
    /// <p>If you set BillingMode as <code>PROVISIONED</code>, you must specify this property. If you set BillingMode as <code>PAY_PER_REQUEST</code>, you cannot specify this property.</p>
    /// <p>For current minimum and maximum provisioned throughput values, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/Limits.html">Service, Account, and Table Quotas</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    pub fn set_provisioned_throughput(mut self, input: ::std::option::Option<crate::types::ProvisionedThroughput>) -> Self {
        self.inner = self.inner.set_provisioned_throughput(input);
        self
    }
    /// <p>Represents the provisioned throughput settings for a specified table or index. The settings can be modified using the <code>UpdateTable</code> operation.</p>
    /// <p>If you set BillingMode as <code>PROVISIONED</code>, you must specify this property. If you set BillingMode as <code>PAY_PER_REQUEST</code>, you cannot specify this property.</p>
    /// <p>For current minimum and maximum provisioned throughput values, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/Limits.html">Service, Account, and Table Quotas</a> in the <i>Amazon DynamoDB Developer Guide</i>.</p>
    pub fn get_provisioned_throughput(&self) -> &::std::option::Option<crate::types::ProvisionedThroughput> {
        self.inner.get_provisioned_throughput()
    }
    /// <p>The settings for DynamoDB Streams on the table. These settings consist of:</p>
    /// <ul>
    /// <li>
    /// <p><code>StreamEnabled</code> - Indicates whether DynamoDB Streams is to be enabled (true) or disabled (false).</p></li>
    /// <li>
    /// <p><code>StreamViewType</code> - When an item in the table is modified, <code>StreamViewType</code> determines what information is written to the table's stream. Valid values for <code>StreamViewType</code> are:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the key attributes of the modified item are written to the stream.</p></li>
    /// <li>
    /// <p><code>NEW_IMAGE</code> - The entire item, as it appears after it was modified, is written to the stream.</p></li>
    /// <li>
    /// <p><code>OLD_IMAGE</code> - The entire item, as it appeared before it was modified, is written to the stream.</p></li>
    /// <li>
    /// <p><code>NEW_AND_OLD_IMAGES</code> - Both the new and the old item images of the item are written to the stream.</p></li>
    /// </ul></li>
    /// </ul>
    pub fn stream_specification(mut self, input: crate::types::StreamSpecification) -> Self {
        self.inner = self.inner.stream_specification(input);
        self
    }
    /// <p>The settings for DynamoDB Streams on the table. These settings consist of:</p>
    /// <ul>
    /// <li>
    /// <p><code>StreamEnabled</code> - Indicates whether DynamoDB Streams is to be enabled (true) or disabled (false).</p></li>
    /// <li>
    /// <p><code>StreamViewType</code> - When an item in the table is modified, <code>StreamViewType</code> determines what information is written to the table's stream. Valid values for <code>StreamViewType</code> are:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the key attributes of the modified item are written to the stream.</p></li>
    /// <li>
    /// <p><code>NEW_IMAGE</code> - The entire item, as it appears after it was modified, is written to the stream.</p></li>
    /// <li>
    /// <p><code>OLD_IMAGE</code> - The entire item, as it appeared before it was modified, is written to the stream.</p></li>
    /// <li>
    /// <p><code>NEW_AND_OLD_IMAGES</code> - Both the new and the old item images of the item are written to the stream.</p></li>
    /// </ul></li>
    /// </ul>
    pub fn set_stream_specification(mut self, input: ::std::option::Option<crate::types::StreamSpecification>) -> Self {
        self.inner = self.inner.set_stream_specification(input);
        self
    }
    /// <p>The settings for DynamoDB Streams on the table. These settings consist of:</p>
    /// <ul>
    /// <li>
    /// <p><code>StreamEnabled</code> - Indicates whether DynamoDB Streams is to be enabled (true) or disabled (false).</p></li>
    /// <li>
    /// <p><code>StreamViewType</code> - When an item in the table is modified, <code>StreamViewType</code> determines what information is written to the table's stream. Valid values for <code>StreamViewType</code> are:</p>
    /// <ul>
    /// <li>
    /// <p><code>KEYS_ONLY</code> - Only the key attributes of the modified item are written to the stream.</p></li>
    /// <li>
    /// <p><code>NEW_IMAGE</code> - The entire item, as it appears after it was modified, is written to the stream.</p></li>
    /// <li>
    /// <p><code>OLD_IMAGE</code> - The entire item, as it appeared before it was modified, is written to the stream.</p></li>
    /// <li>
    /// <p><code>NEW_AND_OLD_IMAGES</code> - Both the new and the old item images of the item are written to the stream.</p></li>
    /// </ul></li>
    /// </ul>
    pub fn get_stream_specification(&self) -> &::std::option::Option<crate::types::StreamSpecification> {
        self.inner.get_stream_specification()
    }
    /// <p>Represents the settings used to enable server-side encryption.</p>
    pub fn sse_specification(mut self, input: crate::types::SseSpecification) -> Self {
        self.inner = self.inner.sse_specification(input);
        self
    }
    /// <p>Represents the settings used to enable server-side encryption.</p>
    pub fn set_sse_specification(mut self, input: ::std::option::Option<crate::types::SseSpecification>) -> Self {
        self.inner = self.inner.set_sse_specification(input);
        self
    }
    /// <p>Represents the settings used to enable server-side encryption.</p>
    pub fn get_sse_specification(&self) -> &::std::option::Option<crate::types::SseSpecification> {
        self.inner.get_sse_specification()
    }
    ///
    /// Appends an item to `Tags`.
    ///
    /// To override the contents of this collection use [`set_tags`](Self::set_tags).
    ///
    /// <p>A list of key-value pairs to label the table. For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/Tagging.html">Tagging for DynamoDB</a>.</p>
    pub fn tags(mut self, input: crate::types::Tag) -> Self {
        self.inner = self.inner.tags(input);
        self
    }
    /// <p>A list of key-value pairs to label the table. For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/Tagging.html">Tagging for DynamoDB</a>.</p>
    pub fn set_tags(mut self, input: ::std::option::Option<::std::vec::Vec<crate::types::Tag>>) -> Self {
        self.inner = self.inner.set_tags(input);
        self
    }
    /// <p>A list of key-value pairs to label the table. For more information, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/Tagging.html">Tagging for DynamoDB</a>.</p>
    pub fn get_tags(&self) -> &::std::option::Option<::std::vec::Vec<crate::types::Tag>> {
        self.inner.get_tags()
    }
    /// <p>The table class of the new table. Valid values are <code>STANDARD</code> and <code>STANDARD_INFREQUENT_ACCESS</code>.</p>
    pub fn table_class(mut self, input: crate::types::TableClass) -> Self {
        self.inner = self.inner.table_class(input);
        self
    }
    /// <p>The table class of the new table. Valid values are <code>STANDARD</code> and <code>STANDARD_INFREQUENT_ACCESS</code>.</p>
    pub fn set_table_class(mut self, input: ::std::option::Option<crate::types::TableClass>) -> Self {
        self.inner = self.inner.set_table_class(input);
        self
    }
    /// <p>The table class of the new table. Valid values are <code>STANDARD</code> and <code>STANDARD_INFREQUENT_ACCESS</code>.</p>
    pub fn get_table_class(&self) -> &::std::option::Option<crate::types::TableClass> {
        self.inner.get_table_class()
    }
    /// <p>Indicates whether deletion protection is to be enabled (true) or disabled (false) on the table.</p>
    pub fn deletion_protection_enabled(mut self, input: bool) -> Self {
        self.inner = self.inner.deletion_protection_enabled(input);
        self
    }
    /// <p>Indicates whether deletion protection is to be enabled (true) or disabled (false) on the table.</p>
    pub fn set_deletion_protection_enabled(mut self, input: ::std::option::Option<bool>) -> Self {
        self.inner = self.inner.set_deletion_protection_enabled(input);
        self
    }
    /// <p>Indicates whether deletion protection is to be enabled (true) or disabled (false) on the table.</p>
    pub fn get_deletion_protection_enabled(&self) -> &::std::option::Option<bool> {
        self.inner.get_deletion_protection_enabled()
    }
    /// <p>Represents the warm throughput (in read units per second and write units per second) for creating a table.</p>
    pub fn warm_throughput(mut self, input: crate::types::WarmThroughput) -> Self {
        self.inner = self.inner.warm_throughput(input);
        self
    }
    /// <p>Represents the warm throughput (in read units per second and write units per second) for creating a table.</p>
    pub fn set_warm_throughput(mut self, input: ::std::option::Option<crate::types::WarmThroughput>) -> Self {
        self.inner = self.inner.set_warm_throughput(input);
        self
    }
    /// <p>Represents the warm throughput (in read units per second and write units per second) for creating a table.</p>
    pub fn get_warm_throughput(&self) -> &::std::option::Option<crate::types::WarmThroughput> {
        self.inner.get_warm_throughput()
    }
    /// <p>An Amazon Web Services resource-based policy document in JSON format that will be attached to the table.</p>
    /// <p>When you attach a resource-based policy while creating a table, the policy application is <i>strongly consistent</i>.</p>
    /// <p>The maximum size supported for a resource-based policy document is 20 KB. DynamoDB counts whitespaces when calculating the size of a policy against this limit. For a full list of all considerations that apply for resource-based policies, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/rbac-considerations.html">Resource-based policy considerations</a>.</p><note>
    /// <p>You need to specify the <code>CreateTable</code> and <code>PutResourcePolicy</code> IAM actions for authorizing a user to create a table with a resource-based policy.</p>
    /// </note>
    pub fn resource_policy(mut self, input: impl ::std::convert::Into<::std::string::String>) -> Self {
        self.inner = self.inner.resource_policy(input.into());
        self
    }
    /// <p>An Amazon Web Services resource-based policy document in JSON format that will be attached to the table.</p>
    /// <p>When you attach a resource-based policy while creating a table, the policy application is <i>strongly consistent</i>.</p>
    /// <p>The maximum size supported for a resource-based policy document is 20 KB. DynamoDB counts whitespaces when calculating the size of a policy against this limit. For a full list of all considerations that apply for resource-based policies, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/rbac-considerations.html">Resource-based policy considerations</a>.</p><note>
    /// <p>You need to specify the <code>CreateTable</code> and <code>PutResourcePolicy</code> IAM actions for authorizing a user to create a table with a resource-based policy.</p>
    /// </note>
    pub fn set_resource_policy(mut self, input: ::std::option::Option<::std::string::String>) -> Self {
        self.inner = self.inner.set_resource_policy(input);
        self
    }
    /// <p>An Amazon Web Services resource-based policy document in JSON format that will be attached to the table.</p>
    /// <p>When you attach a resource-based policy while creating a table, the policy application is <i>strongly consistent</i>.</p>
    /// <p>The maximum size supported for a resource-based policy document is 20 KB. DynamoDB counts whitespaces when calculating the size of a policy against this limit. For a full list of all considerations that apply for resource-based policies, see <a href="https://docs.aws.amazon.com/amazondynamodb/latest/developerguide/rbac-considerations.html">Resource-based policy considerations</a>.</p><note>
    /// <p>You need to specify the <code>CreateTable</code> and <code>PutResourcePolicy</code> IAM actions for authorizing a user to create a table with a resource-based policy.</p>
    /// </note>
    pub fn get_resource_policy(&self) -> &::std::option::Option<::std::string::String> {
        self.inner.get_resource_policy()
    }
    /// <p>Sets the maximum number of read and write units for the specified table in on-demand capacity mode. If you use this parameter, you must specify <code>MaxReadRequestUnits</code>, <code>MaxWriteRequestUnits</code>, or both.</p>
    pub fn on_demand_throughput(mut self, input: crate::types::OnDemandThroughput) -> Self {
        self.inner = self.inner.on_demand_throughput(input);
        self
    }
    /// <p>Sets the maximum number of read and write units for the specified table in on-demand capacity mode. If you use this parameter, you must specify <code>MaxReadRequestUnits</code>, <code>MaxWriteRequestUnits</code>, or both.</p>
    pub fn set_on_demand_throughput(mut self, input: ::std::option::Option<crate::types::OnDemandThroughput>) -> Self {
        self.inner = self.inner.set_on_demand_throughput(input);
        self
    }
    /// <p>Sets the maximum number of read and write units for the specified table in on-demand capacity mode. If you use this parameter, you must specify <code>MaxReadRequestUnits</code>, <code>MaxWriteRequestUnits</code>, or both.</p>
    pub fn get_on_demand_throughput(&self) -> &::std::option::Option<crate::types::OnDemandThroughput> {
        self.inner.get_on_demand_throughput()
    }
}