text:
# This file is auto-generated by AWSMetadata.jl
using AWS
using AWS.AWSServices: sqs
using AWS.Compat
using AWS.UUIDs

"""
    AddPermission()

Adds a permission to a queue for a specific principal. This allows sharing access to the queue. When you create a queue, you have full control access rights for the queue. Only you, the owner of the queue, can grant or deny permissions to the queue. For more information about these permissions, see Allow Developers to Write Messages to a Shared Queue in the Amazon Simple Queue Service Developer Guide.     AddPermission generates a policy for you. You can use  SetQueueAttributes  to upload your policy. For more information, see Using Custom Policies with the Amazon SQS Access Policy Language in the Amazon Simple Queue Service Developer Guide.   An Amazon SQS policy can have a maximum of 7 actions.   To remove the ability to change queue permissions, you must deny permission to the AddPermission, RemovePermission, and SetQueueAttributes actions in your IAM policy.    Some actions take lists of parameters. These lists are specified using the param.n notation. Values of n are integers starting from 1. For example, a parameter list with two elements looks like this:  &AttributeName.1=first   &AttributeName.2=second   Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `AWSAccountId`: The AWS account number of the principal who is given permission. The principal must have an AWS account, but does not need to be signed up for Amazon SQS. For information about locating the AWS account identification, see Your AWS Identifiers in the Amazon Simple Queue Service Developer Guide.
- `ActionName`: The action the client wants to allow for the specified principal. Valid values: the name of any action or *. For more information about these actions, see Overview of Managing Access Permissions to Your Amazon Simple Queue Service Resource in the Amazon Simple Queue Service Developer Guide. Specifying SendMessage, DeleteMessage, or ChangeMessageVisibility for ActionName.n also grants permissions for the corresponding batch versions of those actions: SendMessageBatch, DeleteMessageBatch, and ChangeMessageVisibilityBatch.
- `Label`: The unique identification of the permission you're setting (for example, AliceSendMessage). Maximum 80 characters. Allowed characters include alphanumeric characters, hyphens (-), and underscores (_).
- `QueueUrl`: The URL of the Amazon SQS queue to which permissions are added. Queue URLs and names are case-sensitive.

# Optional Parameters
- `AWSAccountIds`: The AWS account number of the principal who is given permission. The principal must have an AWS account, but does not need to be signed up for Amazon SQS. For information about locating the AWS account identification, see Your AWS Identifiers in the Amazon Simple Queue Service Developer Guide.
- `Actions`: The action the client wants to allow for the specified principal. Valid values: the name of any action or *. For more information about these actions, see Overview of Managing Access Permissions to Your Amazon Simple Queue Service Resource in the Amazon Simple Queue Service Developer Guide. Specifying SendMessage, DeleteMessage, or ChangeMessageVisibility for ActionName.n also grants permissions for the corresponding batch versions of those actions: SendMessageBatch, DeleteMessageBatch, and ChangeMessageVisibilityBatch.
"""
add_permission(AWSAccountId, ActionName, Label, QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("AddPermission", Dict{String, Any}("AWSAccountId"=>AWSAccountId, "ActionName"=>ActionName, "Label"=>Label, "QueueUrl"=>QueueUrl); aws_config=aws_config)
add_permission(AWSAccountId, ActionName, Label, QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("AddPermission", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("AWSAccountId"=>AWSAccountId, "ActionName"=>ActionName, "Label"=>Label, "QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    ChangeMessageVisibility()

Changes the visibility timeout of a specified message in a queue to a new value. The default visibility timeout for a message is 30 seconds. The minimum is 0 seconds. The maximum is 12 hours. For more information, see Visibility Timeout in the Amazon Simple Queue Service Developer Guide. For example, you have a message with a visibility timeout of 5 minutes. After 3 minutes, you call ChangeMessageVisibility with a timeout of 10 minutes. You can continue to call ChangeMessageVisibility to extend the visibility timeout to the maximum allowed time. If you try to extend the visibility timeout beyond the maximum, your request is rejected. An Amazon SQS message has three basic states:   Sent to a queue by a producer.   Received from the queue by a consumer.   Deleted from the queue.   A message is considered to be stored after it is sent to a queue by a producer, but not yet received from the queue by a consumer (that is, between states 1 and 2). There is no limit to the number of stored messages. A message is considered to be in flight after it is received from a queue by a consumer, but not yet deleted from the queue (that is, between states 2 and 3). There is a limit to the number of inflight messages. Limits that apply to inflight messages are unrelated to the unlimited number of stored messages. For most standard queues (depending on queue traffic and message backlog), there can be a maximum of approximately 120,000 inflight messages (received from a queue by a consumer, but not yet deleted from the queue). If you reach this limit, Amazon SQS returns the OverLimit error message. To avoid reaching the limit, you should delete messages from the queue after they're processed. You can also increase the number of queues you use to process your messages. To request a limit increase, file a support request. For FIFO queues, there can be a maximum of 20,000 inflight messages (received from a queue by a consumer, but not yet deleted from the queue). If you reach this limit, Amazon SQS returns no error messages.  If you attempt to set the VisibilityTimeout to a value greater than the maximum time left, Amazon SQS returns an error. Amazon SQS doesn't automatically recalculate and increase the timeout to the maximum remaining time. Unlike with a queue, when you change the visibility timeout for a specific message the timeout value is applied immediately but isn't saved in memory for that message. If you don't delete a message after it is received, the visibility timeout for the message reverts to the original timeout value (not to the value you set using the ChangeMessageVisibility action) the next time the message is received.

# Required Parameters
- `QueueUrl`: The URL of the Amazon SQS queue whose message's visibility is changed. Queue URLs and names are case-sensitive.
- `ReceiptHandle`: The receipt handle associated with the message whose visibility timeout is changed. This parameter is returned by the  ReceiveMessage  action.
- `VisibilityTimeout`: The new value for the message's visibility timeout (in seconds). Values range: 0 to 43200. Maximum: 12 hours.

"""
change_message_visibility(QueueUrl, ReceiptHandle, VisibilityTimeout; aws_config::AWSConfig=global_aws_config()) = sqs("ChangeMessageVisibility", Dict{String, Any}("QueueUrl"=>QueueUrl, "ReceiptHandle"=>ReceiptHandle, "VisibilityTimeout"=>VisibilityTimeout); aws_config=aws_config)
change_message_visibility(QueueUrl, ReceiptHandle, VisibilityTimeout, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("ChangeMessageVisibility", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl, "ReceiptHandle"=>ReceiptHandle, "VisibilityTimeout"=>VisibilityTimeout), args)); aws_config=aws_config)

"""
    ChangeMessageVisibilityBatch()

Changes the visibility timeout of multiple messages. This is a batch version of  ChangeMessageVisibility. The result of the action on each message is reported individually in the response. You can send up to 10  ChangeMessageVisibility  requests with each ChangeMessageVisibilityBatch action.  Because the batch request can result in a combination of successful and unsuccessful actions, you should check for batch errors even when the call returns an HTTP status code of 200.  Some actions take lists of parameters. These lists are specified using the param.n notation. Values of n are integers starting from 1. For example, a parameter list with two elements looks like this:  &AttributeName.1=first   &AttributeName.2=second

# Required Parameters
- `ChangeMessageVisibilityBatchRequestEntry`: A list of receipt handles of the messages for which the visibility timeout must be changed.
- `QueueUrl`: The URL of the Amazon SQS queue whose messages' visibility is changed. Queue URLs and names are case-sensitive.

# Optional Parameters
- `Entries`: A list of receipt handles of the messages for which the visibility timeout must be changed.
"""
change_message_visibility_batch(ChangeMessageVisibilityBatchRequestEntry, QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("ChangeMessageVisibilityBatch", Dict{String, Any}("ChangeMessageVisibilityBatchRequestEntry"=>ChangeMessageVisibilityBatchRequestEntry, "QueueUrl"=>QueueUrl); aws_config=aws_config)
change_message_visibility_batch(ChangeMessageVisibilityBatchRequestEntry, QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("ChangeMessageVisibilityBatch", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("ChangeMessageVisibilityBatchRequestEntry"=>ChangeMessageVisibilityBatchRequestEntry, "QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    CreateQueue()

Creates a new standard or FIFO queue. You can pass one or more attributes in the request. Keep the following in mind:   If you don't specify the FifoQueue attribute, Amazon SQS creates a standard queue.  You can't change the queue type after you create it and you can't convert an existing standard queue into a FIFO queue. You must either create a new FIFO queue for your application or delete your existing standard queue and recreate it as a FIFO queue. For more information, see Moving From a Standard Queue to a FIFO Queue in the Amazon Simple Queue Service Developer Guide.     If you don't provide a value for an attribute, the queue is created with the default value for the attribute.   If you delete a queue, you must wait at least 60 seconds before creating a queue with the same name.   To successfully create a new queue, you must provide a queue name that adheres to the limits related to queues and is unique within the scope of your queues.  After you create a queue, you must wait at least one second after the queue is created to be able to use the queue.  To get the queue URL, use the  GetQueueUrl  action.  GetQueueUrl  requires only the QueueName parameter. be aware of existing queue names:   If you provide the name of an existing queue along with the exact names and values of all the queue's attributes, CreateQueue returns the queue URL for the existing queue.   If the queue name, attribute names, or attribute values don't match an existing queue, CreateQueue returns an error.   Some actions take lists of parameters. These lists are specified using the param.n notation. Values of n are integers starting from 1. For example, a parameter list with two elements looks like this:  &AttributeName.1=first   &AttributeName.2=second   Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueName`: The name of the new queue. The following limits apply to this name:   A queue name can have up to 80 characters.   Valid values: alphanumeric characters, hyphens (-), and underscores (_).   A FIFO queue name must end with the .fifo suffix.   Queue URLs and names are case-sensitive.

# Optional Parameters
- `Attribute`: A map of attributes with their corresponding values. The following lists the names, descriptions, and values of the special request parameters that the CreateQueue action uses:    DelaySeconds – The length of time, in seconds, for which the delivery of all messages in the queue is delayed. Valid values: An integer from 0 to 900 seconds (15 minutes). Default: 0.     MaximumMessageSize – The limit of how many bytes a message can contain before Amazon SQS rejects it. Valid values: An integer from 1,024 bytes (1 KiB) to 262,144 bytes (256 KiB). Default: 262,144 (256 KiB).     MessageRetentionPeriod – The length of time, in seconds, for which Amazon SQS retains a message. Valid values: An integer from 60 seconds (1 minute) to 1,209,600 seconds (14 days). Default: 345,600 (4 days).     Policy – The queue's policy. A valid AWS policy. For more information about policy structure, see Overview of AWS IAM Policies in the Amazon IAM User Guide.     ReceiveMessageWaitTimeSeconds – The length of time, in seconds, for which a  ReceiveMessage  action waits for a message to arrive. Valid values: An integer from 0 to 20 (seconds). Default: 0.     RedrivePolicy – The string that includes the parameters for the dead-letter queue functionality of the source queue as a JSON object. For more information about the redrive policy and dead-letter queues, see Using Amazon SQS Dead-Letter Queues in the Amazon Simple Queue Service Developer Guide.    deadLetterTargetArn – The Amazon Resource Name (ARN) of the dead-letter queue to which Amazon SQS moves messages after the value of maxReceiveCount is exceeded.    maxReceiveCount – The number of times a message is delivered to the source queue before being moved to the dead-letter queue. When the ReceiveCount for a message exceeds the maxReceiveCount for a queue, Amazon SQS moves the message to the dead-letter-queue.    The dead-letter queue of a FIFO queue must also be a FIFO queue. Similarly, the dead-letter queue of a standard queue must also be a standard queue.     VisibilityTimeout – The visibility timeout for the queue, in seconds. Valid values: An integer from 0 to 43,200 (12 hours). Default: 30. For more information about the visibility timeout, see Visibility Timeout in the Amazon Simple Queue Service Developer Guide.   The following attributes apply only to server-side-encryption:    KmsMasterKeyId – The ID of an AWS-managed customer master key (CMK) for Amazon SQS or a custom CMK. For more information, see Key Terms. While the alias of the AWS-managed CMK for Amazon SQS is always alias/aws/sqs, the alias of a custom CMK can, for example, be alias/MyAlias . For more examples, see KeyId in the AWS Key Management Service API Reference.     KmsDataKeyReusePeriodSeconds – The length of time, in seconds, for which Amazon SQS can reuse a data key to encrypt or decrypt messages before calling AWS KMS again. An integer representing seconds, between 60 seconds (1 minute) and 86,400 seconds (24 hours). Default: 300 (5 minutes). A shorter time period provides better security but results in more calls to KMS which might incur charges after Free Tier. For more information, see How Does the Data Key Reuse Period Work?.    The following attributes apply only to FIFO (first-in-first-out) queues:    FifoQueue – Designates a queue as FIFO. Valid values: true, false. If you don't specify the FifoQueue attribute, Amazon SQS creates a standard queue. You can provide this attribute only during queue creation. You can't change it for an existing queue. When you set this attribute, you must also provide the MessageGroupId for your messages explicitly. For more information, see FIFO Queue Logic in the Amazon Simple Queue Service Developer Guide.    ContentBasedDeduplication – Enables content-based deduplication. Valid values: true, false. For more information, see Exactly-Once Processing in the Amazon Simple Queue Service Developer Guide.    Every message must have a unique MessageDeduplicationId,   You may provide a MessageDeduplicationId explicitly.   If you aren't able to provide a MessageDeduplicationId and you enable ContentBasedDeduplication for your queue, Amazon SQS uses a SHA-256 hash to generate the MessageDeduplicationId using the body of the message (but not the attributes of the message).    If you don't provide a MessageDeduplicationId and the queue doesn't have ContentBasedDeduplication set, the action fails with an error.   If the queue has ContentBasedDeduplication set, your MessageDeduplicationId overrides the generated one.     When ContentBasedDeduplication is in effect, messages with identical content sent within the deduplication interval are treated as duplicates and only one copy of the message is delivered.   If you send one message with ContentBasedDeduplication enabled and then another message with a MessageDeduplicationId that is the same as the one generated for the first MessageDeduplicationId, the two messages are treated as duplicates and only one copy of the message is delivered.
- `Tag`: Add cost allocation tags to the specified Amazon SQS queue. For an overview, see Tagging Your Amazon SQS Queues in the Amazon Simple Queue Service Developer Guide. When you use queue tags, keep the following guidelines in mind:   Adding more than 50 tags to a queue isn't recommended.   Tags don't have any semantic meaning. Amazon SQS interprets tags as character strings.   Tags are case-sensitive.   A new tag with a key identical to that of an existing tag overwrites the existing tag.   For a full list of tag restrictions, see Limits Related to Queues in the Amazon Simple Queue Service Developer Guide.  To be able to tag a queue on creation, you must have the sqs:CreateQueue and sqs:TagQueue permissions. Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.
"""
create_queue(QueueName; aws_config::AWSConfig=global_aws_config()) = sqs("CreateQueue", Dict{String, Any}("QueueName"=>QueueName); aws_config=aws_config)
create_queue(QueueName, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("CreateQueue", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueName"=>QueueName), args)); aws_config=aws_config)

"""
    DeleteMessage()

Deletes the specified message from the specified queue. To select the message to delete, use the ReceiptHandle of the message (not the MessageId which you receive when you send the message). Amazon SQS can delete a message from a queue even if a visibility timeout setting causes the message to be locked by another consumer. Amazon SQS automatically deletes messages left in a queue longer than the retention period configured for the queue.   The ReceiptHandle is associated with a specific instance of receiving a message. If you receive a message more than once, the ReceiptHandle is different each time you receive a message. When you use the DeleteMessage action, you must provide the most recently received ReceiptHandle for the message (otherwise, the request succeeds, but the message might not be deleted). For standard queues, it is possible to receive a message even after you delete it. This might happen on rare occasions if one of the servers which stores a copy of the message is unavailable when you send the request to delete the message. The copy remains on the server and might be returned to you during a subsequent receive request. You should ensure that your application is idempotent, so that receiving a message more than once does not cause issues.

# Required Parameters
- `QueueUrl`: The URL of the Amazon SQS queue from which messages are deleted. Queue URLs and names are case-sensitive.
- `ReceiptHandle`: The receipt handle associated with the message to delete.

"""
delete_message(QueueUrl, ReceiptHandle; aws_config::AWSConfig=global_aws_config()) = sqs("DeleteMessage", Dict{String, Any}("QueueUrl"=>QueueUrl, "ReceiptHandle"=>ReceiptHandle); aws_config=aws_config)
delete_message(QueueUrl, ReceiptHandle, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("DeleteMessage", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl, "ReceiptHandle"=>ReceiptHandle), args)); aws_config=aws_config)

"""
    DeleteMessageBatch()

Deletes up to ten messages from the specified queue. This is a batch version of  DeleteMessage. The result of the action on each message is reported individually in the response.  Because the batch request can result in a combination of successful and unsuccessful actions, you should check for batch errors even when the call returns an HTTP status code of 200.  Some actions take lists of parameters. These lists are specified using the param.n notation. Values of n are integers starting from 1. For example, a parameter list with two elements looks like this:  &AttributeName.1=first   &AttributeName.2=second

# Required Parameters
- `DeleteMessageBatchRequestEntry`: A list of receipt handles for the messages to be deleted.
- `QueueUrl`: The URL of the Amazon SQS queue from which messages are deleted. Queue URLs and names are case-sensitive.

# Optional Parameters
- `Entries`: A list of receipt handles for the messages to be deleted.
"""
delete_message_batch(DeleteMessageBatchRequestEntry, QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("DeleteMessageBatch", Dict{String, Any}("DeleteMessageBatchRequestEntry"=>DeleteMessageBatchRequestEntry, "QueueUrl"=>QueueUrl); aws_config=aws_config)
delete_message_batch(DeleteMessageBatchRequestEntry, QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("DeleteMessageBatch", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("DeleteMessageBatchRequestEntry"=>DeleteMessageBatchRequestEntry, "QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    DeleteQueue()

Deletes the queue specified by the QueueUrl, regardless of the queue's contents.  Be careful with the DeleteQueue action: When you delete a queue, any messages in the queue are no longer available.   When you delete a queue, the deletion process takes up to 60 seconds. Requests you send involving that queue during the 60 seconds might succeed. For example, a  SendMessage  request might succeed, but after 60 seconds the queue and the message you sent no longer exist. When you delete a queue, you must wait at least 60 seconds before creating a queue with the same name.  Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueUrl`: The URL of the Amazon SQS queue to delete. Queue URLs and names are case-sensitive.

"""
delete_queue(QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("DeleteQueue", Dict{String, Any}("QueueUrl"=>QueueUrl); aws_config=aws_config)
delete_queue(QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("DeleteQueue", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    GetQueueAttributes()

Gets attributes for the specified queue.  To determine whether a queue is FIFO, you can check whether QueueName ends with the .fifo suffix.

# Required Parameters
- `QueueUrl`: The URL of the Amazon SQS queue whose attribute information is retrieved. Queue URLs and names are case-sensitive.

# Optional Parameters
- `AttributeNames`: A list of attributes for which to retrieve information.  In the future, new attributes might be added. If you write code that calls this action, we recommend that you structure your code so that it can handle new attributes gracefully.  The following attributes are supported:  The ApproximateNumberOfMessagesDelayed, ApproximateNumberOfMessagesNotVisible, and ApproximateNumberOfMessagesVisible metrics may not achieve consistency until at least 1 minute after the producers stop sending messages. This period is required for the queue metadata to reach eventual consistency.      All – Returns all values.     ApproximateNumberOfMessages – Returns the approximate number of messages available for retrieval from the queue.    ApproximateNumberOfMessagesDelayed – Returns the approximate number of messages in the queue that are delayed and not available for reading immediately. This can happen when the queue is configured as a delay queue or when a message has been sent with a delay parameter.    ApproximateNumberOfMessagesNotVisible – Returns the approximate number of messages that are in flight. Messages are considered to be in flight if they have been sent to a client but have not yet been deleted or have not yet reached the end of their visibility window.     CreatedTimestamp – Returns the time when the queue was created in seconds (epoch time).    DelaySeconds – Returns the default delay on the queue in seconds.    LastModifiedTimestamp – Returns the time when the queue was last changed in seconds (epoch time).    MaximumMessageSize – Returns the limit of how many bytes a message can contain before Amazon SQS rejects it.    MessageRetentionPeriod – Returns the length of time, in seconds, for which Amazon SQS retains a message.    Policy – Returns the policy of the queue.    QueueArn – Returns the Amazon resource name (ARN) of the queue.    ReceiveMessageWaitTimeSeconds – Returns the length of time, in seconds, for which the ReceiveMessage action waits for a message to arrive.     RedrivePolicy – The string that includes the parameters for the dead-letter queue functionality of the source queue as a JSON object. For more information about the redrive policy and dead-letter queues, see Using Amazon SQS Dead-Letter Queues in the Amazon Simple Queue Service Developer Guide.    deadLetterTargetArn – The Amazon Resource Name (ARN) of the dead-letter queue to which Amazon SQS moves messages after the value of maxReceiveCount is exceeded.    maxReceiveCount – The number of times a message is delivered to the source queue before being moved to the dead-letter queue. When the ReceiveCount for a message exceeds the maxReceiveCount for a queue, Amazon SQS moves the message to the dead-letter-queue.      VisibilityTimeout – Returns the visibility timeout for the queue. For more information about the visibility timeout, see Visibility Timeout in the Amazon Simple Queue Service Developer Guide.    The following attributes apply only to server-side-encryption:    KmsMasterKeyId – Returns the ID of an AWS-managed customer master key (CMK) for Amazon SQS or a custom CMK. For more information, see Key Terms.     KmsDataKeyReusePeriodSeconds – Returns the length of time, in seconds, for which Amazon SQS can reuse a data key to encrypt or decrypt messages before calling AWS KMS again. For more information, see How Does the Data Key Reuse Period Work?.    The following attributes apply only to FIFO (first-in-first-out) queues:    FifoQueue – Returns whether the queue is FIFO. For more information, see FIFO Queue Logic in the Amazon Simple Queue Service Developer Guide.  To determine whether a queue is FIFO, you can check whether QueueName ends with the .fifo suffix.     ContentBasedDeduplication – Returns whether content-based deduplication is enabled for the queue. For more information, see Exactly-Once Processing in the Amazon Simple Queue Service Developer Guide.
"""
get_queue_attributes(QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("GetQueueAttributes", Dict{String, Any}("QueueUrl"=>QueueUrl); aws_config=aws_config)
get_queue_attributes(QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("GetQueueAttributes", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    GetQueueUrl()

Returns the URL of an existing Amazon SQS queue. To access a queue that belongs to another AWS account, use the QueueOwnerAWSAccountId parameter to specify the account ID of the queue's owner. The queue's owner must grant you permission to access the queue. For more information about shared queue access, see  AddPermission  or see Allow Developers to Write Messages to a Shared Queue in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueName`: The name of the queue whose URL must be fetched. Maximum 80 characters. Valid values: alphanumeric characters, hyphens (-), and underscores (_). Queue URLs and names are case-sensitive.

# Optional Parameters
- `QueueOwnerAWSAccountId`: The AWS account ID of the account that created the queue.
"""
get_queue_url(QueueName; aws_config::AWSConfig=global_aws_config()) = sqs("GetQueueUrl", Dict{String, Any}("QueueName"=>QueueName); aws_config=aws_config)
get_queue_url(QueueName, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("GetQueueUrl", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueName"=>QueueName), args)); aws_config=aws_config)

"""
    ListDeadLetterSourceQueues()

Returns a list of your queues that have the RedrivePolicy queue attribute configured with a dead-letter queue.  The ListDeadLetterSourceQueues methods supports pagination. Set parameter MaxResults in the request to specify the maximum number of results to be returned in the response. If you do not set MaxResults, the response includes a maximum of 1,000 results. If you set MaxResults and there are additional results to display, the response includes a value for NextToken. Use NextToken as a parameter in your next request to ListDeadLetterSourceQueues to receive the next page of results.  For more information about using dead-letter queues, see Using Amazon SQS Dead-Letter Queues in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueUrl`: The URL of a dead-letter queue. Queue URLs and names are case-sensitive.

# Optional Parameters
- `MaxResults`: Maximum number of results to include in the response. Value range is 1 to 1000. You must set MaxResults to receive a value for NextToken in the response.
- `NextToken`: Pagination token to request the next set of results.
"""
list_dead_letter_source_queues(QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("ListDeadLetterSourceQueues", Dict{String, Any}("QueueUrl"=>QueueUrl); aws_config=aws_config)
list_dead_letter_source_queues(QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("ListDeadLetterSourceQueues", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    ListQueueTags()

List all cost allocation tags added to the specified Amazon SQS queue. For an overview, see Tagging Your Amazon SQS Queues in the Amazon Simple Queue Service Developer Guide.  Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueUrl`: The URL of the queue.

"""
list_queue_tags(QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("ListQueueTags", Dict{String, Any}("QueueUrl"=>QueueUrl); aws_config=aws_config)
list_queue_tags(QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("ListQueueTags", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    ListQueues()

Returns a list of your queues in the current region. The response includes a maximum of 1,000 results. If you specify a value for the optional QueueNamePrefix parameter, only queues with a name that begins with the specified value are returned.  The listQueues methods supports pagination. Set parameter MaxResults in the request to specify the maximum number of results to be returned in the response. If you do not set MaxResults, the response includes a maximum of 1,000 results. If you set MaxResults and there are additional results to display, the response includes a value for NextToken. Use NextToken as a parameter in your next request to listQueues to receive the next page of results.   Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Optional Parameters
- `MaxResults`: Maximum number of results to include in the response. Value range is 1 to 1000. You must set MaxResults to receive a value for NextToken in the response.
- `NextToken`: Pagination token to request the next set of results.
- `QueueNamePrefix`: A string to use for filtering the list results. Only those queues whose name begins with the specified string are returned. Queue URLs and names are case-sensitive.
"""
list_queues(; aws_config::AWSConfig=global_aws_config()) = sqs("ListQueues"; aws_config=aws_config)
list_queues(args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("ListQueues", args; aws_config=aws_config)

"""
    PurgeQueue()

Deletes the messages in a queue specified by the QueueURL parameter.  When you use the PurgeQueue action, you can't retrieve any messages deleted from a queue. The message deletion process takes up to 60 seconds. We recommend waiting for 60 seconds regardless of your queue's size.   Messages sent to the queue before you call PurgeQueue might be received but are deleted within the next minute. Messages sent to the queue after you call PurgeQueue might be deleted while the queue is being purged.

# Required Parameters
- `QueueUrl`: The URL of the queue from which the PurgeQueue action deletes messages. Queue URLs and names are case-sensitive.

"""
purge_queue(QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("PurgeQueue", Dict{String, Any}("QueueUrl"=>QueueUrl); aws_config=aws_config)
purge_queue(QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("PurgeQueue", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    ReceiveMessage()

Retrieves one or more messages (up to 10), from the specified queue. Using the WaitTimeSeconds parameter enables long-poll support. For more information, see Amazon SQS Long Polling in the Amazon Simple Queue Service Developer Guide.  Short poll is the default behavior where a weighted random set of machines is sampled on a ReceiveMessage call. Thus, only the messages on the sampled machines are returned. If the number of messages in the queue is small (fewer than 1,000), you most likely get fewer messages than you requested per ReceiveMessage call. If the number of messages in the queue is extremely small, you might not receive any messages in a particular ReceiveMessage response. If this happens, repeat the request.  For each message returned, the response includes the following:   The message body.   An MD5 digest of the message body. For information about MD5, see RFC1321.   The MessageId you received when you sent the message to the queue.   The receipt handle.   The message attributes.   An MD5 digest of the message attributes.   The receipt handle is the identifier you must provide when deleting the message. For more information, see Queue and Message Identifiers in the Amazon Simple Queue Service Developer Guide. You can provide the VisibilityTimeout parameter in your request. The parameter is applied to the messages that Amazon SQS returns in the response. If you don't include the parameter, the overall visibility timeout for the queue is used for the returned messages. For more information, see Visibility Timeout in the Amazon Simple Queue Service Developer Guide. A message that isn't deleted or a message whose visibility isn't extended before the visibility timeout expires counts as a failed receive. Depending on the configuration of the queue, the message might be sent to the dead-letter queue.  In the future, new attributes might be added. If you write code that calls this action, we recommend that you structure your code so that it can handle new attributes gracefully.

# Required Parameters
- `QueueUrl`: The URL of the Amazon SQS queue from which messages are received. Queue URLs and names are case-sensitive.

# Optional Parameters
- `AttributeNames`: A list of attributes that need to be returned along with each message. These attributes include:    All – Returns all values.    ApproximateFirstReceiveTimestamp – Returns the time the message was first received from the queue (epoch time in milliseconds).    ApproximateReceiveCount – Returns the number of times a message has been received across all queues but not deleted.    AWSTraceHeader – Returns the AWS X-Ray trace header string.     SenderId    For an IAM user, returns the IAM user ID, for example ABCDEFGHI1JKLMNOPQ23R.   For an IAM role, returns the IAM role ID, for example ABCDE1F2GH3I4JK5LMNOP:i-a123b456.      SentTimestamp – Returns the time the message was sent to the queue (epoch time in milliseconds).    MessageDeduplicationId – Returns the value provided by the producer that calls the  SendMessage  action.    MessageGroupId – Returns the value provided by the producer that calls the  SendMessage  action. Messages with the same MessageGroupId are returned in sequence.    SequenceNumber – Returns the value provided by Amazon SQS.
- `MaxNumberOfMessages`: The maximum number of messages to return. Amazon SQS never returns more messages than this value (however, fewer messages might be returned). Valid values: 1 to 10. Default: 1.
- `MessageAttributeNames`: The name of the message attribute, where N is the index.   The name can contain alphanumeric characters and the underscore (_), hyphen (-), and period (.).   The name is case-sensitive and must be unique among all attribute names for the message.   The name must not start with AWS-reserved prefixes such as AWS. or Amazon. (or any casing variants).   The name must not start or end with a period (.), and it should not have periods in succession (..).   The name can be up to 256 characters long.   When using ReceiveMessage, you can send a list of attribute names to receive, or you can return all of the attributes by specifying All or .* in your request. You can also use all message attributes starting with a prefix, for example bar.*.
- `ReceiveRequestAttemptId`: This parameter applies only to FIFO (first-in-first-out) queues. The token used for deduplication of ReceiveMessage calls. If a networking issue occurs after a ReceiveMessage action, and instead of a response you receive a generic error, it is possible to retry the same action with an identical ReceiveRequestAttemptId to retrieve the same set of messages, even if their visibility timeout has not yet expired.   You can use ReceiveRequestAttemptId only for 5 minutes after a ReceiveMessage action.   When you set FifoQueue, a caller of the ReceiveMessage action can provide a ReceiveRequestAttemptId explicitly.   If a caller of the ReceiveMessage action doesn't provide a ReceiveRequestAttemptId, Amazon SQS generates a ReceiveRequestAttemptId.   It is possible to retry the ReceiveMessage action with the same ReceiveRequestAttemptId if none of the messages have been modified (deleted or had their visibility changes).   During a visibility timeout, subsequent calls with the same ReceiveRequestAttemptId return the same messages and receipt handles. If a retry occurs within the deduplication interval, it resets the visibility timeout. For more information, see Visibility Timeout in the Amazon Simple Queue Service Developer Guide.  If a caller of the ReceiveMessage action still processes messages when the visibility timeout expires and messages become visible, another worker consuming from the same queue can receive the same messages and therefore process duplicates. Also, if a consumer whose message processing time is longer than the visibility timeout tries to delete the processed messages, the action fails with an error. To mitigate this effect, ensure that your application observes a safe threshold before the visibility timeout expires and extend the visibility timeout as necessary.    While messages with a particular MessageGroupId are invisible, no more messages belonging to the same MessageGroupId are returned until the visibility timeout expires. You can still receive messages with another MessageGroupId as long as it is also visible.   If a caller of ReceiveMessage can't track the ReceiveRequestAttemptId, no retries work until the original visibility timeout expires. As a result, delays might occur but the messages in the queue remain in a strict order.   The maximum length of ReceiveRequestAttemptId is 128 characters. ReceiveRequestAttemptId can contain alphanumeric characters (a-z, A-Z, 0-9) and punctuation (!\"#%&'()*+,-./:;<=>?@[]^_`{|}~). For best practices of using ReceiveRequestAttemptId, see Using the ReceiveRequestAttemptId Request Parameter in the Amazon Simple Queue Service Developer Guide.
- `VisibilityTimeout`: The duration (in seconds) that the received messages are hidden from subsequent retrieve requests after being retrieved by a ReceiveMessage request.
- `WaitTimeSeconds`: The duration (in seconds) for which the call waits for a message to arrive in the queue before returning. If a message is available, the call returns sooner than WaitTimeSeconds. If no messages are available and the wait time expires, the call returns successfully with an empty list of messages.  To avoid HTTP errors, ensure that the HTTP response timeout for ReceiveMessage requests is longer than the WaitTimeSeconds parameter. For example, with the Java SDK, you can set HTTP transport settings using the  NettyNioAsyncHttpClient for asynchronous clients, or the  ApacheHttpClient for synchronous clients.
"""
receive_message(QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("ReceiveMessage", Dict{String, Any}("QueueUrl"=>QueueUrl); aws_config=aws_config)
receive_message(QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("ReceiveMessage", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    RemovePermission()

Revokes any permissions in the queue policy that matches the specified Label parameter.    Only the owner of a queue can remove permissions from it.   Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.   To remove the ability to change queue permissions, you must deny permission to the AddPermission, RemovePermission, and SetQueueAttributes actions in your IAM policy.

# Required Parameters
- `Label`: The identification of the permission to remove. This is the label added using the  AddPermission  action.
- `QueueUrl`: The URL of the Amazon SQS queue from which permissions are removed. Queue URLs and names are case-sensitive.

"""
remove_permission(Label, QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("RemovePermission", Dict{String, Any}("Label"=>Label, "QueueUrl"=>QueueUrl); aws_config=aws_config)
remove_permission(Label, QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("RemovePermission", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("Label"=>Label, "QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    SendMessage()

Delivers a message to the specified queue.  A message can include only XML, JSON, and unformatted text. The following Unicode characters are allowed:  #x9 | #xA | #xD | #x20 to #xD7FF | #xE000 to #xFFFD | #x10000 to #x10FFFF  Any characters not included in this list will be rejected. For more information, see the W3C specification for characters.

# Required Parameters
- `MessageBody`: The message to send. The minimum size is one character. The maximum size is 256 KB.  A message can include only XML, JSON, and unformatted text. The following Unicode characters are allowed:  #x9 | #xA | #xD | #x20 to #xD7FF | #xE000 to #xFFFD | #x10000 to #x10FFFF  Any characters not included in this list will be rejected. For more information, see the W3C specification for characters.
- `QueueUrl`: The URL of the Amazon SQS queue to which a message is sent. Queue URLs and names are case-sensitive.

# Optional Parameters
- `DelaySeconds`:  The length of time, in seconds, for which to delay a specific message. Valid values: 0 to 900. Maximum: 15 minutes. Messages with a positive DelaySeconds value become available for processing after the delay period is finished. If you don't specify a value, the default value for the queue applies.   When you set FifoQueue, you can't set DelaySeconds per message. You can set this parameter only on a queue level.
- `MessageAttribute`: Each message attribute consists of a Name, Type, and Value. For more information, see Amazon SQS Message Attributes in the Amazon Simple Queue Service Developer Guide.
- `MessageDeduplicationId`: This parameter applies only to FIFO (first-in-first-out) queues. The token used for deduplication of sent messages. If a message with a particular MessageDeduplicationId is sent successfully, any messages sent with the same MessageDeduplicationId are accepted successfully but aren't delivered during the 5-minute deduplication interval. For more information, see  Exactly-Once Processing in the Amazon Simple Queue Service Developer Guide.   Every message must have a unique MessageDeduplicationId,   You may provide a MessageDeduplicationId explicitly.   If you aren't able to provide a MessageDeduplicationId and you enable ContentBasedDeduplication for your queue, Amazon SQS uses a SHA-256 hash to generate the MessageDeduplicationId using the body of the message (but not the attributes of the message).    If you don't provide a MessageDeduplicationId and the queue doesn't have ContentBasedDeduplication set, the action fails with an error.   If the queue has ContentBasedDeduplication set, your MessageDeduplicationId overrides the generated one.     When ContentBasedDeduplication is in effect, messages with identical content sent within the deduplication interval are treated as duplicates and only one copy of the message is delivered.   If you send one message with ContentBasedDeduplication enabled and then another message with a MessageDeduplicationId that is the same as the one generated for the first MessageDeduplicationId, the two messages are treated as duplicates and only one copy of the message is delivered.     The MessageDeduplicationId is available to the consumer of the message (this can be useful for troubleshooting delivery issues). If a message is sent successfully but the acknowledgement is lost and the message is resent with the same MessageDeduplicationId after the deduplication interval, Amazon SQS can't detect duplicate messages. Amazon SQS continues to keep track of the message deduplication ID even after the message is received and deleted.  The maximum length of MessageDeduplicationId is 128 characters. MessageDeduplicationId can contain alphanumeric characters (a-z, A-Z, 0-9) and punctuation (!\"#%&'()*+,-./:;<=>?@[]^_`{|}~). For best practices of using MessageDeduplicationId, see Using the MessageDeduplicationId Property in the Amazon Simple Queue Service Developer Guide.
- `MessageGroupId`: This parameter applies only to FIFO (first-in-first-out) queues. The tag that specifies that a message belongs to a specific message group. Messages that belong to the same message group are processed in a FIFO manner (however, messages in different message groups might be processed out of order). To interleave multiple ordered streams within a single queue, use MessageGroupId values (for example, session data for multiple users). In this scenario, multiple consumers can process the queue, but the session data of each user is processed in a FIFO fashion.   You must associate a non-empty MessageGroupId with a message. If you don't provide a MessageGroupId, the action fails.    ReceiveMessage might return messages with multiple MessageGroupId values. For each MessageGroupId, the messages are sorted by time sent. The caller can't specify a MessageGroupId.   The length of MessageGroupId is 128 characters. Valid values: alphanumeric characters and punctuation (!\"#%&'()*+,-./:;<=>?@[]^_`{|}~). For best practices of using MessageGroupId, see Using the MessageGroupId Property in the Amazon Simple Queue Service Developer Guide.   MessageGroupId is required for FIFO queues. You can't use it for Standard queues.
- `MessageSystemAttribute`: The message system attribute to send. Each message system attribute consists of a Name, Type, and Value.    Currently, the only supported message system attribute is AWSTraceHeader. Its type must be String and its value must be a correctly formatted AWS X-Ray trace header string.   The size of a message system attribute doesn't count towards the total size of a message.
"""
send_message(MessageBody, QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("SendMessage", Dict{String, Any}("MessageBody"=>MessageBody, "QueueUrl"=>QueueUrl); aws_config=aws_config)
send_message(MessageBody, QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("SendMessage", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("MessageBody"=>MessageBody, "QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    SendMessageBatch()

Delivers up to ten messages to the specified queue. This is a batch version of  SendMessage. For a FIFO queue, multiple messages within a single batch are enqueued in the order they are sent. The result of sending each message is reported individually in the response. Because the batch request can result in a combination of successful and unsuccessful actions, you should check for batch errors even when the call returns an HTTP status code of 200. The maximum allowed individual message size and the maximum total payload size (the sum of the individual lengths of all of the batched messages) are both 256 KB (262,144 bytes).  A message can include only XML, JSON, and unformatted text. The following Unicode characters are allowed:  #x9 | #xA | #xD | #x20 to #xD7FF | #xE000 to #xFFFD | #x10000 to #x10FFFF  Any characters not included in this list will be rejected. For more information, see the W3C specification for characters.  If you don't specify the DelaySeconds parameter for an entry, Amazon SQS uses the default value for the queue. Some actions take lists of parameters. These lists are specified using the param.n notation. Values of n are integers starting from 1. For example, a parameter list with two elements looks like this:  &AttributeName.1=first   &AttributeName.2=second

# Required Parameters
- `QueueUrl`: The URL of the Amazon SQS queue to which batched messages are sent. Queue URLs and names are case-sensitive.
- `SendMessageBatchRequestEntry`: A list of  SendMessageBatchRequestEntry  items.

# Optional Parameters
- `Entries`: A list of  SendMessageBatchRequestEntry  items.
"""
send_message_batch(QueueUrl, SendMessageBatchRequestEntry; aws_config::AWSConfig=global_aws_config()) = sqs("SendMessageBatch", Dict{String, Any}("QueueUrl"=>QueueUrl, "SendMessageBatchRequestEntry"=>SendMessageBatchRequestEntry); aws_config=aws_config)
send_message_batch(QueueUrl, SendMessageBatchRequestEntry, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("SendMessageBatch", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl, "SendMessageBatchRequestEntry"=>SendMessageBatchRequestEntry), args)); aws_config=aws_config)

"""
    SetQueueAttributes()

Sets the value of one or more queue attributes. When you change a queue's attributes, the change can take up to 60 seconds for most of the attributes to propagate throughout the Amazon SQS system. Changes made to the MessageRetentionPeriod attribute can take up to 15 minutes.    In the future, new attributes might be added. If you write code that calls this action, we recommend that you structure your code so that it can handle new attributes gracefully.   Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.   To remove the ability to change queue permissions, you must deny permission to the AddPermission, RemovePermission, and SetQueueAttributes actions in your IAM policy.

# Required Parameters
- `Attribute`: A map of attributes to set. The following lists the names, descriptions, and values of the special request parameters that the SetQueueAttributes action uses:    DelaySeconds – The length of time, in seconds, for which the delivery of all messages in the queue is delayed. Valid values: An integer from 0 to 900 (15 minutes). Default: 0.     MaximumMessageSize – The limit of how many bytes a message can contain before Amazon SQS rejects it. Valid values: An integer from 1,024 bytes (1 KiB) up to 262,144 bytes (256 KiB). Default: 262,144 (256 KiB).     MessageRetentionPeriod – The length of time, in seconds, for which Amazon SQS retains a message. Valid values: An integer representing seconds, from 60 (1 minute) to 1,209,600 (14 days). Default: 345,600 (4 days).     Policy – The queue's policy. A valid AWS policy. For more information about policy structure, see Overview of AWS IAM Policies in the Amazon IAM User Guide.     ReceiveMessageWaitTimeSeconds – The length of time, in seconds, for which a  ReceiveMessage  action waits for a message to arrive. Valid values: An integer from 0 to 20 (seconds). Default: 0.     RedrivePolicy – The string that includes the parameters for the dead-letter queue functionality of the source queue as a JSON object. For more information about the redrive policy and dead-letter queues, see Using Amazon SQS Dead-Letter Queues in the Amazon Simple Queue Service Developer Guide.    deadLetterTargetArn – The Amazon Resource Name (ARN) of the dead-letter queue to which Amazon SQS moves messages after the value of maxReceiveCount is exceeded.    maxReceiveCount – The number of times a message is delivered to the source queue before being moved to the dead-letter queue. When the ReceiveCount for a message exceeds the maxReceiveCount for a queue, Amazon SQS moves the message to the dead-letter-queue.    The dead-letter queue of a FIFO queue must also be a FIFO queue. Similarly, the dead-letter queue of a standard queue must also be a standard queue.     VisibilityTimeout – The visibility timeout for the queue, in seconds. Valid values: An integer from 0 to 43,200 (12 hours). Default: 30. For more information about the visibility timeout, see Visibility Timeout in the Amazon Simple Queue Service Developer Guide.   The following attributes apply only to server-side-encryption:    KmsMasterKeyId – The ID of an AWS-managed customer master key (CMK) for Amazon SQS or a custom CMK. For more information, see Key Terms. While the alias of the AWS-managed CMK for Amazon SQS is always alias/aws/sqs, the alias of a custom CMK can, for example, be alias/MyAlias . For more examples, see KeyId in the AWS Key Management Service API Reference.     KmsDataKeyReusePeriodSeconds – The length of time, in seconds, for which Amazon SQS can reuse a data key to encrypt or decrypt messages before calling AWS KMS again. An integer representing seconds, between 60 seconds (1 minute) and 86,400 seconds (24 hours). Default: 300 (5 minutes). A shorter time period provides better security but results in more calls to KMS which might incur charges after Free Tier. For more information, see How Does the Data Key Reuse Period Work?.    The following attribute applies only to FIFO (first-in-first-out) queues:    ContentBasedDeduplication – Enables content-based deduplication. For more information, see Exactly-Once Processing in the Amazon Simple Queue Service Developer Guide.    Every message must have a unique MessageDeduplicationId,   You may provide a MessageDeduplicationId explicitly.   If you aren't able to provide a MessageDeduplicationId and you enable ContentBasedDeduplication for your queue, Amazon SQS uses a SHA-256 hash to generate the MessageDeduplicationId using the body of the message (but not the attributes of the message).    If you don't provide a MessageDeduplicationId and the queue doesn't have ContentBasedDeduplication set, the action fails with an error.   If the queue has ContentBasedDeduplication set, your MessageDeduplicationId overrides the generated one.     When ContentBasedDeduplication is in effect, messages with identical content sent within the deduplication interval are treated as duplicates and only one copy of the message is delivered.   If you send one message with ContentBasedDeduplication enabled and then another message with a MessageDeduplicationId that is the same as the one generated for the first MessageDeduplicationId, the two messages are treated as duplicates and only one copy of the message is delivered.
- `QueueUrl`: The URL of the Amazon SQS queue whose attributes are set. Queue URLs and names are case-sensitive.

"""
set_queue_attributes(Attribute, QueueUrl; aws_config::AWSConfig=global_aws_config()) = sqs("SetQueueAttributes", Dict{String, Any}("Attribute"=>Attribute, "QueueUrl"=>QueueUrl); aws_config=aws_config)
set_queue_attributes(Attribute, QueueUrl, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("SetQueueAttributes", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("Attribute"=>Attribute, "QueueUrl"=>QueueUrl), args)); aws_config=aws_config)

"""
    TagQueue()

Add cost allocation tags to the specified Amazon SQS queue. For an overview, see Tagging Your Amazon SQS Queues in the Amazon Simple Queue Service Developer Guide. When you use queue tags, keep the following guidelines in mind:   Adding more than 50 tags to a queue isn't recommended.   Tags don't have any semantic meaning. Amazon SQS interprets tags as character strings.   Tags are case-sensitive.   A new tag with a key identical to that of an existing tag overwrites the existing tag.   For a full list of tag restrictions, see Limits Related to Queues in the Amazon Simple Queue Service Developer Guide.  Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueUrl`: The URL of the queue.
- `Tags`: The list of tags to be added to the specified queue.

"""
tag_queue(QueueUrl, Tags; aws_config::AWSConfig=global_aws_config()) = sqs("TagQueue", Dict{String, Any}("QueueUrl"=>QueueUrl, "Tags"=>Tags); aws_config=aws_config)
tag_queue(QueueUrl, Tags, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("TagQueue", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl, "Tags"=>Tags), args)); aws_config=aws_config)

"""
    UntagQueue()

Remove cost allocation tags from the specified Amazon SQS queue. For an overview, see Tagging Your Amazon SQS Queues in the Amazon Simple Queue Service Developer Guide.  Cross-account permissions don't apply to this action. For more information, see Grant Cross-Account Permissions to a Role and a User Name in the Amazon Simple Queue Service Developer Guide.

# Required Parameters
- `QueueUrl`: The URL of the queue.
- `TagKey`: The list of tags to be removed from the specified queue.

# Optional Parameters
- `TagKeys`: The list of tags to be removed from the specified queue.
"""
untag_queue(QueueUrl, TagKey; aws_config::AWSConfig=global_aws_config()) = sqs("UntagQueue", Dict{String, Any}("QueueUrl"=>QueueUrl, "TagKey"=>TagKey); aws_config=aws_config)
untag_queue(QueueUrl, TagKey, args::AbstractDict{String, <:Any}; aws_config::AWSConfig=global_aws_config()) = sqs("UntagQueue", Dict{String, Any}(mergewith(_merge, Dict{String, Any}("QueueUrl"=>QueueUrl, "TagKey"=>TagKey), args)); aws_config=aws_config)


text:
# Autogenerated wrapper script for ADIOS2_jll for x86_64-apple-darwin-libgfortran4
export bpls, libadios2_c, libadios2_c_mpi, libadios2_core, libadios2_core_mpi, libadios2_cxx11, libadios2_cxx11_mpi

using Blosc_jll
using CompilerSupportLibraries_jll
using MPItrampoline_jll
using MicrosoftMPI_jll
using ZeroMQ_jll
using libpng_jll
using zfp_jll
JLLWrappers.@generate_wrapper_header("ADIOS2")
JLLWrappers.@declare_executable_product(bpls)
JLLWrappers.@declare_library_product(libadios2_c, "@rpath/libadios2_c.2.dylib")
JLLWrappers.@declare_library_product(libadios2_c_mpi, "@rpath/libadios2_c_mpi.2.dylib")
JLLWrappers.@declare_library_product(libadios2_core, "@rpath/libadios2_core.2.dylib")
JLLWrappers.@declare_library_product(libadios2_core_mpi, "@rpath/libadios2_core_mpi.2.dylib")
JLLWrappers.@declare_library_product(libadios2_cxx11, "@rpath/libadios2_cxx11.2.dylib")
JLLWrappers.@declare_library_product(libadios2_cxx11_mpi, "@rpath/libadios2_cxx11_mpi.2.dylib")
function __init__()
    JLLWrappers.@generate_init_header(Blosc_jll, CompilerSupportLibraries_jll, MPItrampoline_jll, MicrosoftMPI_jll, ZeroMQ_jll, libpng_jll, zfp_jll)
    JLLWrappers.@init_executable_product(
        bpls,
        "bin/bpls",
    )

    JLLWrappers.@init_library_product(
        libadios2_c,
        "lib/libadios2_c.2.7.1.dylib",
        RTLD_LAZY | RTLD_DEEPBIND,
    )

    JLLWrappers.@init_library_product(
        libadios2_c_mpi,
        "lib/libadios2_c_mpi.2.7.1.dylib",
        RTLD_LAZY | RTLD_DEEPBIND,
    )

    JLLWrappers.@init_library_product(
        libadios2_core,
        "lib/libadios2_core.2.7.1.dylib",
        RTLD_LAZY | RTLD_DEEPBIND,
    )

    JLLWrappers.@init_library_product(
        libadios2_core_mpi,
        "lib/libadios2_core_mpi.2.7.1.dylib",
        RTLD_LAZY | RTLD_DEEPBIND,
    )

    JLLWrappers.@init_library_product(
        libadios2_cxx11,
        "lib/libadios2_cxx11.2.7.1.dylib",
        RTLD_LAZY | RTLD_DEEPBIND,
    )

    JLLWrappers.@init_library_product(
        libadios2_cxx11_mpi,
        "lib/libadios2_cxx11_mpi.2.7.1.dylib",
        RTLD_LAZY | RTLD_DEEPBIND,
    )

    JLLWrappers.@generate_init_footer()
end  # __init__()

ext: jl


text:
"""
discrete Lehmann representation for imaginary-time/Matsubara-freqeuncy correlator
"""
# include("spectral.jl")
# using ..Spectral
# include("./functional/builder.jl")
# include("./discrete/builder.jl")
# include("operation.jl")

"""
struct DLRGrid

    DLR grids for imaginary-time/Matsubara frequency correlators

#Members:
- `isFermi`: bool is fermionic or bosonic
- `symmetry`: particle-hole symmetric :ph, or particle-hole asymmetric :pha, or :none
- `Euv` : the UV energy scale of the spectral density
- `β` : inverse temeprature
- `Λ`: cutoff = UV Energy scale of the spectral density * inverse temperature
- `rtol`: tolerance absolute error
- `size` : number of DLR basis
- `ω` : selected representative real-frequency grid
- `n` : selected representative Matsubara-frequency grid (integer)
- `ωn` : (2n+1)π/β
- `τ` : selected representative imaginary-time grid
"""
mutable struct DLRGrid
    isFermi::Bool
    symmetry::Symbol
    Euv::Float64
    β::Float64
    Λ::Float64
    rtol::Float64

    # dlr grids
    # size::Int # rank of the dlr representation
    ω::Vector{Float64}
    n::Vector{Int} # integers, (2n+1)π/β gives the Matsubara frequency
    ωn::Vector{Float64} # (2n+1)π/β
    τ::Vector{Float64}

    kernel_τ::Any
    kernel_n::Any

    """
    function DLRGrid(Euv, β, rtol, isFermi::Bool; symmetry::Symbol = :none, rebuild = false, folder = nothing, algorithm = :functional, verbose = false)
    function DLRGrid(; isFermi::Bool, β = -1.0, beta = -1.0, Euv = 1.0, symmetry::Symbol = :none, rtol = 1e-14, rebuild = false, folder = nothing, algorithm = :functional, verbose = false)

    Create DLR grids

    #Arguments:
    - `Euv`         : the UV energy scale of the spectral density
    - `β` or `beta` : inverse temeprature
    - `isFermi`     : bool is fermionic or bosonic
    - `symmetry`    : particle-hole symmetric :ph, or particle-hole asymmetric :pha, or :none
    - `rtol`        : tolerance absolute error
    - `rebuild`     : set false to load DLR basis from the file, set true to recalculate the DLR basis on the fly
    - `folder`      : if rebuild is true and folder is set, then dlrGrid will be rebuilt and saved to the specified folder
                      if rebuild is false and folder is set, then dlrGrid will be loaded from the specified folder
    - `algorithm`   : if rebuild = true, then set :functional to use the functional algorithm to generate the DLR basis, or set :discrete to use the matrix algorithm.
    - `verbose`     : false not to print DLRGrid to terminal, or true to print
    """
    function DLRGrid(Euv, β, rtol, isFermi::Bool, symmetry::Symbol = :none; rebuild = false, folder = nothing, algorithm = :functional, verbose = false)
        Λ = Euv * β # dlr only depends on this dimensionless scale
        # println("Get $Λ")
        @assert rtol > 0.0 "rtol=$rtol is not positive and nonzero!"
        @assert Λ > 0 "Energy scale $Λ must be positive!"
        @assert symmetry == :ph || symmetry == :pha || symmetry == :none "symmetry must be :ph, :pha or nothing"
        @assert algorithm == :functional || algorithm == :discrete "Algorithm is either :functional or :discrete"
        @assert β > 0.0 "Inverse temperature must be temperature."
        @assert Euv > 0.0 "Energy cutoff must be positive."

        if Λ > 1e8 && symmetry == :none
            @warn("Current DLR without symmetry may cause ~ 3-4 digits loss for Λ ≥ 1e8!")
        end

        if rtol > 1e-6
            @warn("Current implementation may cause ~ 3-4 digits loss for rtol > 1e-6!")
        end

        rtolpower = Int(floor(log10(rtol))) # get the biggest n so that rtol>1e-n
        if abs(rtolpower) < 4
            rtolpower = -4
        end
        rtol = 10.0^float(rtolpower)

        function finddlr(folder, filename)
            searchdir(path, key) = filter(x -> occursin(key, x), readdir(path))
            for dir in folder
                if length(searchdir(dir, filename)) > 0
                    #dlr file found
                    return joinpath(dir, filename)
                end
            end
            @warn("Cann't find the DLR file $filename in the folders $folder. Regenerating DLR...")
            return nothing
        end

        function filename(lambda, errpower)
            lambda = Int(floor(lambda))
            errstr = "1e$errpower"

            if symmetry == :none
                return "universal_$(lambda)_$(errstr).dlr"
            elseif symmetry == :ph
                return "ph_$(lambda)_$(errstr).dlr"
            elseif symmetry == :pha
                return "pha_$(lambda)_$(errstr).dlr"
            else
                error("$symmetry is not implemented!")
            end
        end

        if rebuild == false
            if isnothing(folder)
                Λ = Λ < 100 ? Int(100) : 10^(Int(ceil(log10(Λ)))) # get smallest n so that Λ<10^n
                folderList = [string(@__DIR__, "/../basis/"),]
            else
                folderList = [folder,]
            end

            file = filename(Λ, rtolpower)
            dlrfile = finddlr(folderList, file)

            if isnothing(dlrfile) == false
                dlr = new(isFermi, symmetry, Euv, β, Λ, rtol, [], [], [], [], nothing, nothing)
                _load!(dlr, dlrfile, verbose)
                dlr.kernel_τ = Spectral.kernelT(Val(dlr.isFermi), Val(dlr.symmetry), dlr.τ, dlr.ω, dlr.β, true)
                dlr.kernel_n = Spectral.kernelΩ(Val(dlr.isFermi), Val(dlr.symmetry), dlr.n, dlr.ω, dlr.β, true)
                return dlr
            else
                @warn("No DLR is found in the folder $folder, try to rebuild instead.")
            end

        end

        # try to rebuild the dlrGrid
        dlr = new(isFermi, symmetry, Euv, β, Euv * β, rtol, [], [], [], [], nothing, nothing)
        file2save = filename(Euv * β, rtolpower)
        _build!(dlr, folder, file2save, algorithm, verbose)

        dlr.kernel_τ = Spectral.kernelT(Val(dlr.isFermi), Val(dlr.symmetry), dlr.τ, dlr.ω, dlr.β, true)
        dlr.kernel_n = Spectral.kernelΩ(Val(dlr.isFermi), Val(dlr.symmetry), dlr.n, dlr.ω, dlr.β, true)
        return dlr
    end

    function DLRGrid(; isFermi::Bool, β = -1.0, beta = -1.0, Euv = 1.0, symmetry::Symbol = :none, rtol = 1e-14, rebuild = false, folder = nothing, algorithm = :functional, verbose = false)
        if β <= 0.0 && beta > 0.0
            β = beta
        elseif β > 0.0 && beta <= 0.0
            beta = β
        elseif β < 0.0 && beta < 0.0
            error("Either β or beta needs to be initialized with a positive value!")
        end
        @assert β ≈ beta
        return DLRGrid(Euv, β, rtol, isFermi, symmetry; rebuild = rebuild, folder = folder, algorithm = algorithm, verbose = verbose)
    end
end

function Base.getproperty(obj::DLRGrid, sym::Symbol)
    # if sym === :hasTau
    #     return obj.totalTauNum > 0
    if sym == :size
        return size(obj)
    else # fallback to getfield
        return getfield(obj, sym)
    end
end

"""
Base.size(dlrGrid::DLRGrid) = length(dlrGrid.ω)
Base.length(dlrGrid::DLRGrid) = length(dlrGrid.ω)
rank(dlrGrid::DLRGrid) = length(dlrGrid.ω)

get the rank of the DLR grid, namely the number of the DLR coefficients.
"""
Base.size(dlrGrid::DLRGrid) = length(dlrGrid.ω)
Base.length(dlrGrid::DLRGrid) = length(dlrGrid.ω)
rank(dlrGrid::DLRGrid) = length(dlrGrid.ω)

function _load!(dlrGrid::DLRGrid, dlrfile, verbose = false)

    grid = readdlm(dlrfile, comments = true, comment_char = '#')
    # println("reading $filename")

    β = dlrGrid.β
    ω, τ = grid[:, 2], grid[:, 3]

    if dlrGrid.isFermi
        n = Int.(grid[:, 4])
        ωn = @. (2n + 1.0) * π / β
    else
        n = Int.(grid[:, 5])
        ωn = @. 2n * π / β
    end
    for r = 1:length(ω)
        push!(dlrGrid.ω, ω[r] / β)
        push!(dlrGrid.τ, τ[r] * β)
        push!(dlrGrid.n, n[r])
        push!(dlrGrid.ωn, ωn[r])
    end
    verbose && println(dlrGrid)
end

function _build!(dlrGrid::DLRGrid, folder, filename, algorithm, verbose = false)
    isFermi = dlrGrid.isFermi
    β = dlrGrid.β
    if algorithm == :discrete || dlrGrid.symmetry == :none
        ω, τ, nF, nB = Discrete.build(dlrGrid, verbose)
    elseif algorithm == :functional && (dlrGrid.symmetry == :ph || dlrGrid.symmetry == :pha)
        ω, τ, nF, nB = Functional.build(dlrGrid, verbose)
    else
        error("$algorithm has not yet been implemented!")
    end
    rank = length(ω)
    if isnothing(folder) == false
        open(joinpath(folder, filename), "w") do io
            @printf(io, "# %5s  %25s  %25s  %25s  %20s\n", "index", "freq", "tau", "fermi n", "bose n")
            for r = 1:rank
                @printf(io, "%5i  %32.17g  %32.17g  %16i  %16i\n", r, ω[r], τ[r], nF[r], nB[r])
            end
        end
    end
    for r = 1:rank
        push!(dlrGrid.ω, ω[r] / β)
        push!(dlrGrid.τ, τ[r] * β)
        n = isFermi ? nF[r] : nB[r]
        push!(dlrGrid.n, n)
        push!(dlrGrid.ωn, isFermi ? (2n + 1.0) * π / β : 2n * π / β)
    end
    # println(rank)
end

function Base.show(io::IO, dlr::DLRGrid)
    title = dlr.isFermi ? "ferminoic" : "bosonic"
    println(io, "rank = $(dlr.size) $title DLR with $(dlr.symmetry) symmetry: Euv = $(dlr.Euv), β = $(dlr.β), rtol = $(dlr.rtol)")
    @printf(io, "# %5s  %28s  %28s  %28s      %20s\n", "index", "freq", "tau", "ωn", "n")
    for r = 1:dlr.size
        @printf(io, "%5i  %32.17g  %32.17g  %32.17g  %16i\n", r, dlr.ω[r], dlr.τ[r], dlr.ωn[r], dlr.n[r])
    end

end


text:
using Dates

function tag_badge(tag_name)
    tag_link = "/tag/$(tag_name)"

    """

        $(tag_name)

    """
end

function hfun_postcard(params)
    page_rpath = strip(params[1], ['/', '"'])

    title = pagevar(page_rpath, "title")
    description = pagevar(page_rpath, "desc")
    tags = pagevar(page_rpath, "tags")
    date = pagevar(page_rpath, "date")
    formatted_date = "$(dayname(date)), $(monthabbr(date)) $(day(date)), $(year(date))"
    link = "/" * page_rpath
    image = length(params) ≥ 2 ?
        """""" :
        ""#"

"""

    tag_html = join(tag_badge.(tags), "\n")

    """

        $(image)

$(title)

            $(formatted_date)

$(description)   Read More

            $(tag_html)

    """
end

max_stars_repo_name: tmthyln/personal-website-xranklin

max_issues_repo_name: tmthyln/personal-website-xranklin

max_forks_repo_name: tmthyln/personal-website-xranklin


text:
"""
    Layers(layers::Vector{Layer})

Algebraic object encoding a list of [`AlgebraOfGraphics.Layer`](@ref) objects.
`Layers` objects can be added or multiplied, yielding a novel `Layers` object.
"""
struct Layers
    layers::Vector{Layer}
end

Base.convert(::Type{Layers}, s::Layer) = Layers([s])
Base.convert(::Type{Layers}, s::Layers) = s

Base.getindex(v::Layers, i::Int) = v.layers[i]
Base.length(v::Layers) = length(v.layers)
Base.eltype(::Type{Layers}) = Layer
Base.iterate(v::Layers, args...) = iterate(v.layers, args...)

const OneOrMoreLayers = Union{Layers, Layer}

function Base.:+(s1::OneOrMoreLayers, s2::OneOrMoreLayers)
    l1::Layers, l2::Layers = s1, s2
    return Layers(vcat(l1.layers, l2.layers))
end

function Base.:*(s1::OneOrMoreLayers, s2::OneOrMoreLayers)
    l1::Layers, l2::Layers = s1, s2
    return Layers([el1 * el2 for el1 in l1 for el2 in l2])
end

function compute_processedlayers_grid(processedlayers, categoricalscales)
    indices = CartesianIndices(compute_grid_positions(categoricalscales))
    pls_grid = map(_ -> ProcessedLayer[], indices)
    for processedlayer in processedlayers
        append_processedlayers!(pls_grid, processedlayer, categoricalscales)
    end
    return pls_grid
end

function compute_entries_continuousscales(pls_grid, categoricalscales)
    # Here processed layers in `pls_grid` are "sliced",
    # the categorical scales have been applied, but not
    # the continuous scales

    rescaled_pls_grid = map(_ -> ProcessedLayer[], pls_grid)
    continuousscales_grid = map(_ -> MixedArguments(), pls_grid)

    for idx in eachindex(pls_grid), pl in pls_grid[idx]
        # Apply continuous transformations
        positional = map(contextfree_rescale, pl.positional)
        named = map(contextfree_rescale, pl.named)
        plottype = Makie.plottype(pl.plottype, positional...)

        # Compute continuous scales with correct plottype, to figure out role of color
        continuousscales = AlgebraOfGraphics.continuousscales(ProcessedLayer(pl; plottype))
        mergewith!(mergescales, continuousscales_grid[idx], continuousscales)

        # Compute `ProcessedLayer` with rescaled columns
        push!(rescaled_pls_grid[idx], ProcessedLayer(pl; plottype, positional, named))
    end

    # Compute merged continuous scales, as it may be needed to use global extrema
    merged_continuousscales = reduce(mergewith!(mergescales), continuousscales_grid, init=MixedArguments())

    to_entry = function (pl)
        attrs = compute_attributes(pl, categoricalscales, continuousscales_grid, merged_continuousscales)
        return Entry(pl.plottype, pl.positional, attrs)
    end
    entries_grid = map(pls -> map(to_entry, pls), rescaled_pls_grid)

    return entries_grid, continuousscales_grid, merged_continuousscales
end

function compute_palettes(palettes)
    layout = Dictionary((layout=wrap,))
    theme_palettes = map(to_value, Dictionary(Makie.current_default_theme()[:palette]))
    user_palettes = Dictionary(palettes)
    return foldl(merge!, (layout, theme_palettes, user_palettes), init=NamedArguments())
end

function compute_axes_grid(fig, s::OneOrMoreLayers;
                           axis=NamedTuple(), palettes=NamedTuple())

    axes_grid = compute_axes_grid(s; axis, palettes)
    sz = size(axes_grid)
    if sz != (1, 1) && fig isa Axis
        msg = "You can only pass an `Axis` to `draw!` if the calculated layout only contains one element. Elements: $(sz)"
        throw(ArgumentError(msg))
    end

    return map(ae -> AxisEntries(ae, fig), axes_grid)
end

function compute_axes_grid(s::OneOrMoreLayers;
                           axis=NamedTuple(), palettes=NamedTuple())
    layers::Layers = s
    processedlayers = map(ProcessedLayer, layers)

    palettes = compute_palettes(palettes)

    categoricalscales = MixedArguments()
    for processedlayer in processedlayers
        mergewith!(
            mergescales,
            categoricalscales,
            AlgebraOfGraphics.categoricalscales(processedlayer, palettes)
        )
    end
    # fit categorical scales (compute plot values using all data values)
    map!(fitscale, categoricalscales, categoricalscales)

    pls_grid = compute_processedlayers_grid(processedlayers, categoricalscales)
    entries_grid, continuousscales_grid, merged_continuousscales =
        compute_entries_continuousscales(pls_grid, categoricalscales)

    indices = CartesianIndices(pls_grid)
    axes_grid = map(indices) do c
        return AxisSpecEntries(
            AxisSpec(c, axis),
            entries_grid[c],
            categoricalscales,
            continuousscales_grid[c]
        )
    end

    # Axis labels and ticks
    for ae in axes_grid
        ndims = isaxis2d(ae) ? 2 : 3
        for (i, var) in zip(1:ndims, (:x, :y, :z))
            scale = get(ae.categoricalscales, i) do
                return get(ae.continuousscales, i, nothing)
            end
            isnothing(scale) && continue
            label = getlabel(scale)
            # Use global scales for ticks for now
            # TODO: requires a nicer mechanism that takes into account axis linking
            (scale isa ContinuousScale) && (scale = merged_continuousscales[i])
            for (k, v) in pairs((label=to_string(label), ticks=ticks(scale)))
                keyword = Symbol(var, k)
                # Only set attribute if it was not present beforehand
                get!(ae.axis.attributes, keyword, v)
            end
        end
    end

    return axes_grid
end


text:
using BinDeps
using Compat
import Base.Sys.WORD_SIZE

# version of cubature package to use
letsberational="1.0.0.1203"
tagfile = "installed_vers"

if !isfile(tagfile) || readchomp(tagfile) != "$letsberational $WORD_SIZE"
    info("Installing Let's be rational library...")
    cd("src") do
        run(`make`)
    end
    open(tagfile, "w") do f
        println(f, "$letsberational $WORD_SIZE")
    end
else
    info("Let's be rational $letsberational is already installed.")
end


text:
# functions related to student's T distribution

import .RFunctions:
    tdistpdf,
    tdistlogpdf,
    tdistcdf,
    tdistccdf,
    tdistlogcdf,
    tdistlogccdf,
    tdistinvcdf,
    tdistinvccdf,
    tdistinvlogcdf,
    tdistinvlogccdf

# pdf for numbers with generic types
tdistpdf(ν::Real, x::Number) = gamma((ν + 1) / 2) / (sqrt(ν * pi) * gamma(ν / 2)) * (1 + x^2 / ν)^(-(ν + 1) / 2)

# logpdf for numbers with generic types
tdistlogpdf(ν::Real, x::Number) = loggamma((ν + 1) / 2) - log(ν * pi) / 2 - loggamma(ν / 2) + (-(ν + 1) / 2) * log(1 + x^2 / ν)


text:
using Zalgo

using Test

s = "Julia is really cool"

@test length(zalgo(s)) > length(s)

t = "this is text"

@test Int(upsidedown(t)[1]) == 647

@test Int(fraktur(t)[1])    == 120217

@test Int(script(t)[1])     == 120061


text:
"""
    DropObs(; context=Context)

Removes missing observations from the `AbstractArray` or `Tables.table` provided.

# Keyword Arguments
* `context::AbstractContext=Context()`: A context which keeps track of missing data
  summary information

# Example
```jldoctest
julia> using Impute: DropObs, Context, impute

julia> M = [1.0 2.0 missing missing 5.0; 1.1 2.2 3.3 missing 5.5]
2×5 Array{Union{Missing, Float64},2}:
 1.0  2.0   missing  missing  5.0
 1.1  2.2  3.3       missing  5.5

julia> impute(M, DropObs(; context=Context(; limit=1.0)); dims=2)
2×3 Array{Union{Missing, Float64},2}:
 1.0  2.0  5.0
 1.1  2.2  5.5
```
"""
struct DropObs <: Imputor
    context::AbstractContext
end

# TODO: Switch to using Base.@kwdef on 1.1
DropObs(; context=Context()) = DropObs(context)

# Special case impute! for vectors because we know filter! will work
function impute!(data::Vector, imp::DropObs)
    imp.context(c -> filter!(x -> !ismissing!(c, x), data))
end

function impute(data::AbstractVector, imp::DropObs)
    imp.context(c -> filter(x -> !ismissing!(c, x), data))
end

function impute(data::AbstractMatrix, imp::DropObs; dims=1)
    imp.context() do c
        return filterobs(data; dims=dims) do obs
            !ismissing!(c, obs)
        end
    end
end

function impute(table, imp::DropObs)
    imp.context() do c
        @assert istable(table)
        rows = Tables.rows(table)

        # Unfortunately, we'll need to construct a new table
        # since Tables.rows is just an iterator
        filtered = Iterators.filter(rows) do r
            !any(x -> ismissing!(c, x), propertyvalues(r))
        end

        table = materializer(table)(filtered)
        return table
    end
end

"""
    DropVars(; context=Context())

Finds variables with too many missing values in a `AbstractMatrix` or `Tables.table` and
removes them from the input data.

# Keyword Arguments
* `context::AbstractContext`: A context which keeps track of missing data
  summary information

# Examples
```jldoctest
julia> using Impute: DropVars, Context, impute

julia> M = [1.0 2.0 missing missing 5.0; 1.1 2.2 3.3 missing 5.5]
2×5 Array{Union{Missing, Float64},2}:
 1.0  2.0   missing  missing  5.0
 1.1  2.2  3.3       missing  5.5

julia> impute(M, DropVars(; context=Context(; limit=0.2)); dims=2)
1×5 Array{Union{Missing, Float64},2}:
 1.1  2.2  3.3  missing  5.5
```
"""
struct DropVars <: Imputor
    context::AbstractContext
end

# TODO: Switch to using Base.@kwdef on 1.1
DropVars(; context=Context()) = DropVars(context)

function impute(data::AbstractMatrix, imp::DropVars; dims=1)
    imp.context() do c
        return filtervars(data; dims=dims) do vars
            !ismissing!(c, vars)
        end
    end
end

function impute(table, imp::DropVars)
    istable(table) || throw(MethodError(impute!, (table, imp)))
    cols = Tables.columns(table)

    imp.context() do c
        cnames = Iterators.filter(propertynames(cols)) do cname
            !ismissing!(c, getproperty(cols, cname))
        end

        selected = Tables.select(table, cnames...)
        table = materializer(table)(selected)
        return table
    end
end

# Add impute! methods to override the default behaviour in imputors.jl
impute!(data::AbstractMatrix, imp::Union{DropObs, DropVars}) = impute(data, imp)
impute!(data, imp::Union{DropObs, DropVars}) = impute(data, imp)


text:
module DecisionMakingPolicies

using DistributionsAD
using LinearAlgebra
import Distributions: logpdf, Categorical, Normal, MvNormal
using ChainRulesCore
import ChainRulesCore: rrule, Tangent
import Zygote
import Flux

export logpdf, grad_logpdf, sample_with_trace
export params, paramsvec, paramsfromvec!

export ParameterizedPolicy, ParameterizedStatelessPolicy
export AbstractPolicy, AbstractStatelessPolicy
export StatelessSoftmax, LinearSoftmax, SoftmaxBuffer
export StatelessNormal, LinearNormal, NormalBuffer
export LinearPolicyWithBasis
export LinearPolicyWithFluxBasis

abstract type AbstractPolicy end
abstract type AbstractStatelessPolicy <: AbstractPolicy end

struct BufferedPolicy{TP,TB} <: AbstractPolicy where {TP,TB}
    π::TP
    buff::TB
end

function (π::BufferedPolicy)(s)
    return π.π(π.buff, s)
end

function logpdf(π::BufferedPolicy, s, a)
    return logpdf!(π.buff, π.π, s, a)
end

function grad_logpdf(π::BufferedPolicy, s, a)
    logp, ψ = grad_logpdf!(π.buff, π.π, s, a)
    return logp, ψ
end

function sample_with_trace(π::BufferedPolicy, s)
    action, logp, ψ =  sample_with_trace!(π.buff, π.π, s)
    return action, logp, ψ
end

function params(π::BufferedPolicy)
    return params(π.π)
end

include("softmax.jl")
include("normal.jl")
include("linearbasis.jl")
# include("flux.jl")
include("linearfluxbasis.jl")

end


text:
using Tar, Inflate, SHA

filename = ARGS[1]
filepath = joinpath("..", filename)

sha = bytes2hex(open(sha256, filepath))
gittreesha1 = Tar.tree_hash(IOBuffer(inflate_gzip(filepath)))

open("../Artifacts.toml", "w") do io
    write(io, "[ExaData]\n")
    write(io, "git-tree-sha1 = \"$(gittreesha1)\"\n")
    write(io, "lazy = true\n")
    write(io, "    [[ExaData.download]]\n")
    write(io, "    url = \"https://web.cels.anl.gov/~mschanen/$filename\"\n")
    write(io, "    sha256 = \"$sha\"\n")
end;

max_stars_repo_name: exanauts/ExaData

max_issues_repo_name: exanauts/ExaData

max_forks_repo_name: exanauts/ExaData


text:
"""

    Parsers

Generate regex parsers from grammars.

## Exports

- `wsn_str` The `wsn""` macro for generating grammars in Wirth Syntax Notation.

"""
module Parsers
export wsn_str

struct Grammar
    regex::Regex
    rules::Dict{Symbol,Regex}
    Grammar(regex::Regex) = new(regex, Dict{Symbol,Regex}())
end

function Base.getindex(grammar::Grammar, name::Symbol)
    get!(grammar.rules, name) do
        if name in keys(grammar)
            grammar.rules[name] = Regex(
                "$(grammar.regex.pattern)(?&$(name))",
                grammar.regex.compile_options,
                grammar.regex.match_options
            )
        else
            throw(ArgumentError("$(name) is not a named group of the grammar."))
        end
    end
end

function Base.keys(grammar::Grammar)
    Symbol.(filter(Base.Fix2(isa, String), keys(match(grammar.regex, ""))))
end

function Base.match(grammar::Grammar, symbol::Symbol, str::AbstractString, idx::Integer=firstindex(str), addopts...)
    match(grammar[symbol], str, idx, addopts...).match
end

function Base.eachmatch(grammar::Grammar, symbol::Symbol, str::AbstractString; overlap::Bool=false)
    (m.match for m in eachmatch(grammar[symbol], str; overlap=overlap))
end

Base.show(io::IO, grammar::Grammar) = print(io, "Grammar(", grammar.regex, ")")

"""

    @wsn""

Convert a grammar written in Wirth Syntax Notation to a `Grammar`.

- `upper`   `[A-Z]`                 uppercase letters
- `lower`   `[a-z]`	                lowercase letters
- `alpha`   `[A-Za-z]`	            upper- and lowercase letters
- `digit`   `[0-9]`	                digits
- `xdigit`  `[0-9A-Fa-f]`	        hexadecimal digits
- `alnum`   `[A-Za-z0-9]`	        digits, upper- and lowercase letters
- `punct`  	                        punctuation (all graphic characters except letters and digits)
- `blank`   `[ \\t]`	            space and tab characters only
- `space`   `[ \\t\\n\\r\\f\\v]`	blank (whitespace) characters
- `cntrl`  	                        control characters
- `graph`   `[^ [:cntrl:]]`	        graphic characters (all characters which have graphic representation)
- `print`   `[[:graph:] ]`	        graphic characters and space
- `word`    `[[:alnum:]_]`	        alphanumeric characters with underscore character _, meaning alnum + _.
- `vspace`  `\\r\\n?|\\n`           vertical whitespace characters (cr, lf or crlf)
"""
macro wsn_str(grammar)
    :(Parser.Grammar(Parser.wsn(grammar)))
end

wsngrammar = Grammar(r"""
(?(DEFINE) # Wirth Syntax Notation
(?<syntax>
    ^(?>\s*) (?> (?&production) \s* )* $ )
(?<production>
    (?&identifier) (?>\s*) (::)?= (?&expression) [\.;] )
(?<expression>
    (?&term) (?> \| (?&term) )* )
(?<term>
    (?&factor) ( ,? (?&factor) )* )
(?<factor> (?>\s*) (?>
    \[ (?&expression) \]
    | \( (?&expression) \)
    | { (?&expression) }
    | (?&literal)
    | (?&identifier) ) (?>\s*) )
(?<identifier>
    (?<rawid>[[:alpha:]_][[:alnum:]_]*)
    | <(?&rawid)> )
(?<literal>
    " ( [^"] | "" )* " )
(?<tokens>
    (?&literal) | ::= | [={}[\](){}|.;] | (?&identifier) )
)"""x)

wsn(str::AbstractString) = Grammar(Regex(syntax(wsngrammar, str)))

function syntax(grammar::Grammar, str::AbstractString)
    """(?(DEFINE)$(join(production(grammar, eachmatch(grammar, :production, str))))"""
end

production(grammar::Grammar, iter) = (production(grammar, match) for match in iter)
function production(grammar::Grammar, str::AbstractString)
    rstrip(c -> isspace(c) || c == '.', str)
    id, expr = split(str, r"\s*=\s*", limit=2)
    id = identifier(grammar, id)
    "(?<$(id)>" * join(
        expression(grammar, eachmatch(grammar, :expression, expr)),
        '|') * ")"
end

expression(grammar::Grammar, iter) = (expression(grammar, match) for match in iter)
function expression(grammar::Grammar, str::AbstractString)
    join(term(grammar, eachmatch(grammar, :term, str)), '|')
end

term(grammar::Grammar, iter) = (term(grammar, match) for match in iter)
function term(grammar::Grammar, str::AbstractString)
    join(factor(grammar, eachmatch(grammar, :factor, str)))
end

factor(grammar::Grammar, iter) = (factor(grammar, match) for match in iter)
function factor(grammar::Grammar, str::AbstractString)
    str = strip(str)
    if startswith(str, '"')
        literal(grammar, str)
    elseif startswith(str, r"[[({]")
        "(" * expression(grammar, str[begin+1:end-1]) * (
            if startswith(str, '[')
                ")?"
            elseif startswith(str, '{')
                ")*"
            else
                ")"
            end
        )
    elseif str in (
        "upper", "lower", "alpha", "digit", "xdigit", "alnum",
        "punct", "blank", "space", "cntrl", "graph", "print", "word"
    )
        "[[:$(str):]]"
    elseif str == "vspace"
        "(\\r*\\n?|\\n)"
    else
        "(?&$(identifier(grammar, str)))"
    end
end

function literal(::Grammar, str::AbstractString)
    "\\Q$(replace(str[begin+1:end-1], "\"\"" => "\""))\\E"
end

function identifier(::Grammar, str::AbstractString)
    strip(in("<> \t"), str)
end

end # module

max_stars_repo_name: stellartux/Esolangs

max_issues_repo_name: stellartux/Esolangs

max_forks_repo_name: stellartux/Esolangs


text:
using CurryPipe
using Base.Test
import CurryPipe: startswith, is_pipe_call, is_fun_call, curry

@testset "startswith" begin
    @test startswith([1,2], 1)
    @test !startswith([1,2], 2)
    @test !startswith([], 1)
end

@testset "is_pipe_call" begin
    @test is_pipe_call( :(x |> f) )
    @test is_pipe_call( :(x |> f(34) |> g(z,y)) )
    @test !is_pipe_call( :(f(x)) )
    @test !is_pipe_call(:x)
end

@testset "is_fun_call" begin
    @test !is_fun_call( :(x |> f) )
    @test is_fun_call( :(g(z,y)) )
    @test is_fun_call( :(f(x)) )
    @test !is_fun_call( :((1,2)))
end

@testset "curry" begin
    @test :(x |> f)            |> curry == :(f(x))
    @test :(x |> f |> g)       |> curry == :(g(f(x)))
    @test :x                   |> curry == :x
    @test :(3)                 |> curry == :(3)
    @test :(x |> g(y))         |> curry == :(g(y,x))
    @test :( f(x) |> g(y, z))  |> curry == :(g(y,z,f(x)))
    @test :(3 |> sin |> +(2))  |> curry == :(2 + sin(3))

    @testset "curry _" begin
        @test :(x |> f(_, y)) |> curry == :(f(x,y))
        @test :(x |> f(a, _, _) |> g(_, z)) |> curry == :(g(f(a,x,x),z))
    end
end

@testset "@curry, @c" begin
    @test macroexpand(:(@curry x |> f(y) |> g(z))) == :(g(z,f(y,x)))
    @test 5 == @curry 2 |> +(3)
    @test (2+1) * (2+1) == @c 2 |> _ + 1 |> _ * _
end


text:
@testset "Sequence" begin
    schedules = (log, sqrt)
    step_sizes = (rand(1:10), rand(1:10))
    s = Sequence(schedules, step_sizes)
    @test s == Sequence([s => t for (s, t) in zip(schedules, step_sizes)]...)
    i = rand(UInt) + 1
    @test s(i) == ((i > step_sizes[1]) ? sqrt(i - step_sizes[1]) : log(i))
    @test all(p == ((t > step_sizes[1]) ? sqrt(t - step_sizes[1]) : log(t))
              for (t, p) in zip(1:(sum(step_sizes) + 10), s))
    @test Base.IteratorEltype(typeof(s)) == Base.EltypeUnknown()
    @test Base.IteratorSize(typeof(s)) == Base.SizeUnknown()

    params = [rand(), rand()]
    s = Sequence(params, step_sizes)
    @test s(i) == ((i > step_sizes[1]) ? params[2] : params[1])
    @test all(p == ((t > step_sizes[1]) ? params[2] : params[1])
              for (t, p) in zip(1:(sum(step_sizes) + 10), s))
end

@testset "Loop" begin
    period = rand(1:10)
    s = Loop(log, period)
    i = rand(UInt) + 1
    @test s(i) == log(mod1(i, period))
    @test all(p == log(mod1(t, period)) for (t, p) in zip(1:100, s))
    @test Base.IteratorEltype(typeof(s)) == Base.IteratorEltype(typeof(log))
    @test Base.IteratorSize(typeof(s)) == Base.IsInfinite()
    @test axes(s) == (OneToInf(),)

    @testset "utilities" begin
        reverse_f = ParameterSchedulers.reverse(log, period)
        @test all(reverse_f(period - t) == log(t) for t in 1:period)
        symmetric_f = ParameterSchedulers.symmetric(log, period)
        @test all(symmetric_f(t) == ((t < period / 2) ? log(t) : log(period - t)) for t in 1:period)
    end
end

@testset "Stateful" begin
    stateful_s = Stateful(log)
    @test all(next!(stateful_s) == log(i) for i in 1:100)
    reset!(stateful_s)
    @test log(1) == next!(stateful_s)
    stateful_s = Stateful(log; advance = s -> s == 1)
    @test log(1) == next!(stateful_s)
    @test log(2) == next!(stateful_s)
    @test log(2) == next!(stateful_s)
end