GitHub API

This is a repository containing Go bindings for writing FUSE file systems. Go to https://godoc.org/github.com/hanwen/go-fuse/fs for the in-depth documentation for this library. Older, deprecated APIs are available at https://godoc.org/github.com/hanwen/go-fuse/fuse/pathfs and https://godoc.org/github.com/hanwen/go-fuse/fuse/nodefs.

Package eks provides the API client, operations, and parameter types for Amazon Elastic Kubernetes Service. Amazon Elastic Kubernetes Service (Amazon EKS) is a managed service that makes it easy for you to run Kubernetes on Amazon Web Services without needing to setup or maintain your own Kubernetes control plane. Kubernetes is an open-source system for automating the deployment, scaling, and management of containerized applications. Amazon EKS runs up-to-date versions of the open-source Kubernetes software, so you can use all the existing plugins and tooling from the Kubernetes community. Applications running on Amazon EKS are fully compatible with applications running on any standard Kubernetes environment, whether running in on-premises data centers or public clouds. This means that you can easily migrate any standard Kubernetes application to Amazon EKS without any code modification required.

ps provides an API for finding and listing processes in a platform-agnostic way. NOTE: If you're reading these docs online via GoDocs or some other system, you might only see the Unix docs. This project makes heavy use of platform-specific implementations. We recommend reading the source if you are interested.

Package main ORY Hydra Welcome to the ORY Hydra HTTP API documentation. You will find documentation for all HTTP APIs here. swagger:meta

Package log implements logging for the datadog agent. It wraps seelog, and supports logging to multiple destinations, buffering messages logged before setup, and scrubbing secrets from log messages. This module is exported and can be used outside of the datadog-agent repository, but is not designed as a general-purpose logging system. Its API may change incompatibly.

Package awsxrayexporter implements an OpenTelemetry Collector exporter that sends trace data to AWS X-Ray in the region the collector is running in using the PutTraceSegments API.

Package ecs provides the API client, operations, and parameter types for Amazon EC2 Container Service. Amazon Elastic Container Service (Amazon ECS) is a highly scalable, fast, container management service. It makes it easy to run, stop, and manage Docker containers. You can host your cluster on a serverless infrastructure that's managed by Amazon ECS by launching your services or tasks on Fargate. For more control, you can host your tasks on a cluster of Amazon Elastic Compute Cloud (Amazon EC2) or External (on-premises) instances that you manage. Amazon ECS makes it easy to launch and stop container-based applications with simple API calls. This makes it easy to get the state of your cluster from a centralized service, and gives you access to many familiar Amazon EC2 features. You can use Amazon ECS to schedule the placement of containers across your cluster based on your resource needs, isolation policies, and availability requirements. With Amazon ECS, you don't need to operate your own cluster management and configuration management systems. You also don't need to worry about scaling your management infrastructure.

Package gomail provides a simple interface to compose emails and to mail them efficiently. More info on Github: https://github.com/go-gomail/gomail A daemon that listens to a channel and sends all incoming messages. Efficiently send a customized newsletter to a list of recipients. Send an email using a local SMTP server. Send an email using an API or postfix.

Package awsemfexporter implements an OpenTelemetry Collector exporter that sends EmbeddedMetricFormat to AWS CloudWatch Logs in the region the collector is running in using the PutLogEvents API.

Package cloudtrail provides the API client, operations, and parameter types for AWS CloudTrail. This is the CloudTrail API Reference. It provides descriptions of actions, data types, common parameters, and common errors for CloudTrail. CloudTrail is a web service that records Amazon Web Services API calls for your Amazon Web Services account and delivers log files to an Amazon S3 bucket. The recorded information includes the identity of the user, the start time of the Amazon Web Services API call, the source IP address, the request parameters, and the response elements returned by the service. As an alternative to the API, you can use one of the Amazon Web Services SDKs, which consist of libraries and sample code for various programming languages and platforms (Java, Ruby, .NET, iOS, Android, etc.). The SDKs provide programmatic access to CloudTrail. For example, the SDKs handle cryptographically signing requests, managing errors, and retrying requests automatically. For more information about the Amazon Web Services SDKs, including how to download and install them, see Tools to Build on Amazon Web Services. See the CloudTrail User Guide for information about the data that is included with each Amazon Web Services API call listed in the log files.

Package apigateway provides the API client, operations, and parameter types for Amazon API Gateway. Amazon API Gateway helps developers deliver robust, secure, and scalable mobile and web application back ends. API Gateway allows developers to securely connect mobile and web applications to APIs that run on Lambda, Amazon EC2, or other publicly addressable web services that are hosted outside of AWS.

Package martian provides an HTTP/1.1 proxy with an API for configurable request and response modifiers.

Package cloudformation provides the API client, operations, and parameter types for AWS CloudFormation. CloudFormation allows you to create and manage Amazon Web Services infrastructure deployments predictably and repeatedly. You can use CloudFormation to leverage Amazon Web Services products, such as Amazon Elastic Compute Cloud, Amazon Elastic Block Store, Amazon Simple Notification Service, Elastic Load Balancing, and Amazon EC2 Auto Scaling to build highly reliable, highly scalable, cost-effective applications without creating or configuring the underlying Amazon Web Services infrastructure. With CloudFormation, you declare all your resources and dependencies in a template file. The template defines a collection of resources as a single unit called a stack. CloudFormation creates and deletes all member resources of the stack together and manages all dependencies between the resources for you. For more information about CloudFormation, see the CloudFormation product page. CloudFormation makes use of other Amazon Web Services products. If you need additional technical information about a specific Amazon Web Services product, you can find the product's technical documentation at docs.aws.amazon.com.

Package timestreamwrite provides the API client, operations, and parameter types for Amazon Timestream Write. Amazon Timestream is a fast, scalable, fully managed time-series database service that makes it easy to store and analyze trillions of time-series data points per day. With Timestream, you can easily store and analyze IoT sensor data to derive insights from your IoT applications. You can analyze industrial telemetry to streamline equipment management and maintenance. You can also store and analyze log data and metrics to improve the performance and availability of your applications. Timestream is built from the ground up to effectively ingest, process, and store time-series data. It organizes data to optimize query processing. It automatically scales based on the volume of data ingested and on the query volume to ensure you receive optimal performance while inserting and querying data. As your data grows over time, Timestream’s adaptive query processing engine spans across storage tiers to provide fast analysis while reducing costs.

Package proxy provides an http server to act as a signing proxy for SDKs calling AWS X-Ray APIs

Package goji provides an out-of-box web server with reasonable defaults. Example: This package exists purely as a convenience to programmers who want to get started as quickly as possible. It draws almost all of its code from goji's subpackages, the most interesting of which is goji/web, and where most of the documentation for the web framework lives. A side effect of this package's ease-of-use is the fact that it is opinionated. If you don't like (or have outgrown) its opinions, it should be straightforward to use the APIs of goji's subpackages to reimplement things to your liking. Both methods of using this library are equally well supported. Goji requires Go 1.2 or newer.

Package autoscaling provides the API client, operations, and parameter types for Auto Scaling. Amazon EC2 Auto Scaling is designed to automatically launch and terminate EC2 instances based on user-defined scaling policies, scheduled actions, and health checks. For more information, see the Amazon EC2 Auto Scaling User Guide and the Amazon EC2 Auto Scaling API Reference.

Package awsproxy defines an extension that accepts requests without any authentication of AWS signatures applied and forwards them to the AWS API, applying authentication and signing.

Package elasticache provides the API client, operations, and parameter types for Amazon ElastiCache. Amazon ElastiCache is a web service that makes it easier to set up, operate, and scale a distributed cache in the cloud. With ElastiCache, customers get all of the benefits of a high-performance, in-memory cache with less of the administrative burden involved in launching and managing a distributed cache. The service makes setup, scaling, and cluster failure handling much simpler than in a self-managed cache deployment. In addition, through integration with Amazon CloudWatch, customers get enhanced visibility into the key performance statistics associated with their cache and can receive alarms if a part of their cache runs hot.

Package geoip2 provides an easy-to-use API for the MaxMind GeoIP2 and GeoLite2 databases; this package does not support GeoIP Legacy databases. The structs provided by this package match the internal structure of the data in the MaxMind databases. See github.com/oschwald/maxminddb-golang for more advanced used cases. Example provides a basic example of using the API. Use of the Country method is analogous to that of the City method.

Package cloudfoundryreceiver implements a receiver that can be used by the OpenTelemetry collector to receive Cloud Foundry metrics and logs via its Reverse Log Proxy (RLP) Gateway component. The protocol is handled by the go-loggregator library, which uses HTTP to connect to the gateway and receive JSON-protobuf encoded v2 Envelope messages as documented by loggregator-api.

Package cloudfront provides the API client, operations, and parameter types for Amazon CloudFront. This is the Amazon CloudFront API Reference. This guide is for developers who need detailed information about CloudFront API actions, data types, and errors. For detailed information about CloudFront features, see the Amazon CloudFront Developer Guide.

Package whatsapp provides a developer API to interact with the WhatsAppWeb-Servers.

Package dbus implements bindings to the D-Bus message bus system. To use the message bus API, you first need to connect to a bus (usually the session or system bus). The acquired connection then can be used to call methods on remote objects and emit or receive signals. Using the Export method, you can arrange D-Bus methods calls to be directly translated to method calls on a Go value. For outgoing messages, Go types are automatically converted to the corresponding D-Bus types. See the official specification at https://dbus.freedesktop.org/doc/dbus-specification.html#type-system for more information on the D-Bus type system. The following types are directly encoded as their respective D-Bus equivalents: Slices and arrays encode as ARRAYs of their element type. Maps encode as DICTs, provided that their key type can be used as a key for a DICT. Structs other than Variant and Signature encode as a STRUCT containing their exported fields in order. Fields whose tags contain `dbus:"-"` and unexported fields will be skipped. Pointers encode as the value they're pointed to. Types convertible to one of the base types above will be mapped as the base type. Trying to encode any other type or a slice, map or struct containing an unsupported type will result in an InvalidTypeError. For incoming messages, the inverse of these rules are used, with the exception of STRUCTs. Incoming STRUCTS are represented as a slice of empty interfaces containing the struct fields in the correct order. The Store function can be used to convert such values to Go structs. Handling Unix file descriptors deserves special mention. To use them, you should first check that they are supported on a connection by calling SupportsUnixFDs. If it returns true, all method of Connection will translate messages containing UnixFD's to messages that are accompanied by the given file descriptors with the UnixFD values being substituted by the correct indices. Similarly, the indices of incoming messages are automatically resolved. It shouldn't be necessary to use UnixFDIndex.

Package redshift provides the API client, operations, and parameter types for Amazon Redshift. This is an interface reference for Amazon Redshift. It contains documentation for one of the programming or command line interfaces you can use to manage Amazon Redshift clusters. Note that Amazon Redshift is asynchronous, which means that some interfaces may require techniques, such as polling or asynchronous callback handlers, to determine when a command has been applied. In this reference, the parameter descriptions indicate whether a change is applied immediately, on the next instance reboot, or during the next maintenance window. For a summary of the Amazon Redshift cluster management interfaces, go to Using the Amazon Redshift Management Interfaces. Amazon Redshift manages all the work of setting up, operating, and scaling a data warehouse: provisioning capacity, monitoring and backing up the cluster, and applying patches and upgrades to the Amazon Redshift engine. You can focus on using your data to acquire new insights for your business and customers. If you are a first-time user of Amazon Redshift, we recommend that you begin by reading the Amazon Redshift Getting Started Guide. If you are a database developer, the Amazon Redshift Database Developer Guide explains how to design, build, query, and maintain the databases that make up your data warehouse.

Package elasticloadbalancing provides the API client, operations, and parameter types for Elastic Load Balancing. A load balancer can distribute incoming traffic across your EC2 instances. This enables you to increase the availability of your application. The load balancer also monitors the health of its registered instances and ensures that it routes traffic only to healthy instances. You configure your load balancer to accept incoming traffic by specifying one or more listeners, which are configured with a protocol and port number for connections from clients to the load balancer and a protocol and port number for connections from the load balancer to the instances. Elastic Load Balancing supports three types of load balancers: Application Load Balancers, Network Load Balancers, and Classic Load Balancers. You can select a load balancer based on your application needs. For more information, see the Elastic Load Balancing User Guide. This reference covers the 2012-06-01 API, which supports Classic Load Balancers. The 2015-12-01 API supports Application Load Balancers and Network Load Balancers. To get started, create a load balancer with one or more listeners using CreateLoadBalancer. Register your instances with the load balancer using RegisterInstancesWithLoadBalancer. All Elastic Load Balancing operations are idempotent, which means that they complete at most one time. If you repeat an operation, it succeeds with a 200 OK response code.

Package efs provides the API client, operations, and parameter types for Amazon Elastic File System. Amazon Elastic File System (Amazon EFS) provides simple, scalable file storage for use with Amazon EC2 Linux and Mac instances in the Amazon Web Services Cloud. With Amazon EFS, storage capacity is elastic, growing and shrinking automatically as you add and remove files, so that your applications have the storage they need, when they need it. For more information, see the Amazon Elastic File System API Referenceand the Amazon Elastic File System User Guide.

Package dbus implements bindings to the D-Bus message bus system. To use the message bus API, you first need to connect to a bus (usually the session or system bus). The acquired connection then can be used to call methods on remote objects and emit or receive signals. Using the Export method, you can arrange D-Bus methods calls to be directly translated to method calls on a Go value. For outgoing messages, Go types are automatically converted to the corresponding D-Bus types. The following types are directly encoded as their respective D-Bus equivalents: Slices and arrays encode as ARRAYs of their element type. Maps encode as DICTs, provided that their key type can be used as a key for a DICT. Structs other than Variant and Signature encode as a STRUCT containing their exported fields. Fields whose tags contain `dbus:"-"` and unexported fields will be skipped. Pointers encode as the value they're pointed to. Types convertible to one of the base types above will be mapped as the base type. Trying to encode any other type or a slice, map or struct containing an unsupported type will result in an InvalidTypeError. For incoming messages, the inverse of these rules are used, with the exception of STRUCTs. Incoming STRUCTS are represented as a slice of empty interfaces containing the struct fields in the correct order. The Store function can be used to convert such values to Go structs. Handling Unix file descriptors deserves special mention. To use them, you should first check that they are supported on a connection by calling SupportsUnixFDs. If it returns true, all method of Connection will translate messages containing UnixFD's to messages that are accompanied by the given file descriptors with the UnixFD values being substituted by the correct indices. Similarily, the indices of incoming messages are automatically resolved. It shouldn't be necessary to use UnixFDIndex.

Package athena provides the API client, operations, and parameter types for Amazon Athena. Amazon Athena is an interactive query service that lets you use standard SQL to analyze data directly in Amazon S3. You can point Athena at your data in Amazon S3 and run ad-hoc queries and get results in seconds. Athena is serverless, so there is no infrastructure to set up or manage. You pay only for the queries you run. Athena scales automatically—executing queries in parallel—so results are fast, even with large datasets and complex queries. For more information, see What is Amazon Athena in the Amazon Athena User Guide. If you connect to Athena using the JDBC driver, use version 1.1.0 of the driver or later with the Amazon Athena API. Earlier version drivers do not support the API. For more information and to download the driver, see Accessing Amazon Athena with JDBC.

Package codebuild provides the API client, operations, and parameter types for AWS CodeBuild. CodeBuild is a fully managed build service in the cloud. CodeBuild compiles your source code, runs unit tests, and produces artifacts that are ready to deploy. CodeBuild eliminates the need to provision, manage, and scale your own build servers. It provides prepackaged build environments for the most popular programming languages and build tools, such as Apache Maven, Gradle, and more. You can also fully customize build environments in CodeBuild to use your own build tools. CodeBuild scales automatically to meet peak build requests. You pay only for the build time you consume. For more information about CodeBuild, see the CodeBuild User Guide.

Package gorethink implements a Go driver for RethinkDB Current version: v3.0.2 (RethinkDB v2.3) For more in depth information on how to use RethinkDB check out the API docs at http://rethinkdb.com/api

Package stripe provides the binding for Stripe REST APIs.

RBAC TODO: mention the required RBAC rules. TODO: example config. The processor supports running both in agent and collector mode. When running as an agent, the processor detects IP addresses of pods sending spans, metrics or logs to the agent and uses this information to extract metadata from pods. When running as an agent, it is important to apply a discovery filter so that the processor only discovers pods from the same host that it is running on. Not using such a filter can result in unnecessary resource usage especially on very large clusters. Once the filter is applied, each processor will only query the k8s API for pods running on it's own node. Node filter can be applied by setting the `filter.node` config option to the name of a k8s node. While this works as expected, it cannot be used to automatically filter pods by the same node that the processor is running on in most cases as it is not know before hand which node a pod will be scheduled on. Luckily, kubernetes has a solution for this called the downward API. To automatically filter pods by the node the processor is running on, you'll need to complete the following steps: 1. Use the downward API to inject the node name as an environment variable. Add the following snippet under the pod env section of the OpenTelemetry container. This will inject a new environment variable to the OpenTelemetry container with the value as the name of the node the pod was scheduled to run on. 2. Set "filter.node_from_env_var" to the name of the environment variable holding the node name. This will restrict each OpenTelemetry agent to query pods running on the same node only dramatically reducing resource requirements for very large clusters. The processor can be deployed both as an agent or as a collector. When running as a collector, the processor cannot correctly detect the IP address of the pods generating the telemetry data without any of the well-known IP attributes, when it receives them from an agent instead of receiving them directly from the pods. To workaround this issue, agents deployed with the k8s_tagger processor can be configured to detect the IP addresses and forward them along with the telemetry data resources. Collector can then match this IP address with k8s pods and enrich the records with the metadata. In order to set this up, you'll need to complete the following steps: 1. Setup agents in passthrough mode Configure the agents' k8s_tagger processors to run in passthrough mode. This will ensure that the agents detect the IP address as add it as an attribute to all telemetry resources. Agents will not make any k8s API calls, do any discovery of pods or extract any metadata. 2. Configure the collector as usual No special configuration changes are needed to be made on the collector. It'll automatically detect the IP address of spans, logs and metrics sent by the agents as well as directly by other services/pods. There are some edge-cases and scenarios where k8s_tagger will not work properly. The processor cannot correct identify pods running in the host network mode and enriching telemetry data generated by such pods is not supported at the moment, unless the attributes contain information about the source IP. The processor does not support detecting containers from the same pods when running as a sidecar. While this can be done, we think it is simpler to just use the kubernetes downward API to inject environment variables into the pods and directly use their values as tags.

Goserial is a simple go package to allow you to read and write from the serial port as a stream of bytes. It aims to have the same API on all platforms, including windows. As an added bonus, the windows package does not use cgo, so you can cross compile for windows from another platform. Unfortunately goinstall does not currently let you cross compile so you will have to do it manually: Currently there is very little in the way of configurability. You can set the baud rate. Then you can Read(), Write(), or Close() the connection. Read() will block until at least one byte is returned. Write is the same. There is currently no exposed way to set the timeouts, though patches are welcome. Currently all ports are opened with 8 data bits, 1 stop bit, no parity, no hardware flow control, and no software flow control. This works fine for many real devices and many faux serial devices including usb-to-serial converters and bluetooth serial ports. You may Read() and Write() simulantiously on the same connection (from different goroutines). Example usage:

Package trace encapsulates a module which contains the entirety of the trace-agent's processing pipeline. The code may be reused to process traces in the same way that the Datadog Agent does, but outside of it. Please note that the API is subject to major changes and should not be relied upon as being stable.

Package elasticsearchservice provides the API client, operations, and parameter types for Amazon Elasticsearch Service. Use the Amazon Elasticsearch Configuration API to create, configure, and manage Elasticsearch domains. For sample code that uses the Configuration API, see the Amazon Elasticsearch Service Developer Guide. The guide also contains sample code for sending signed HTTP requests to the Elasticsearch APIs. The endpoint for configuration service requests is region-specific: es.region.amazonaws.com. For example, es.us-east-1.amazonaws.com. For a current list of supported regions and endpoints, see Regions and Endpoints.

Package scrubber implements support for cleaning sensitive information out of strings and files. This module's API is not yet stable, and may change incompatibly from version to version.

Package codecommit provides the API client, operations, and parameter types for AWS CodeCommit. This is the CodeCommit API Reference. This reference provides descriptions of the operations and data types for CodeCommit API along with usage examples. You can use the CodeCommit API to work with the following objects: Repositories, by calling the following: BatchGetRepositories CreateRepository DeleteRepository GetRepository ListRepositories UpdateRepositoryDescription UpdateRepositoryEncryptionKey UpdateRepositoryName Branches, by calling the following: CreateBranch DeleteBranch GetBranch ListBranches UpdateDefaultBranch Files, by calling the following: DeleteFile GetBlob GetFile GetFolder ListFileCommitHistory PutFile Commits, by calling the following: BatchGetCommits CreateCommit GetCommit GetDifferences Merges, by calling the following: BatchDescribeMergeConflicts CreateUnreferencedMergeCommit DescribeMergeConflicts GetMergeCommit GetMergeConflicts GetMergeOptions MergeBranchesByFastForward MergeBranchesBySquash MergeBranchesByThreeWay Pull requests, by calling the following: CreatePullRequest CreatePullRequestApprovalRule DeletePullRequestApprovalRule DescribePullRequestEvents EvaluatePullRequestApprovalRules GetCommentsForPullRequest GetPullRequest GetPullRequestApprovalStates GetPullRequestOverrideState ListPullRequests MergePullRequestByFastForward MergePullRequestBySquash MergePullRequestByThreeWay OverridePullRequestApprovalRules PostCommentForPullRequest UpdatePullRequestApprovalRuleContent UpdatePullRequestApprovalState UpdatePullRequestDescription UpdatePullRequestStatus UpdatePullRequestTitle Approval rule templates, by calling the following: AssociateApprovalRuleTemplateWithRepository BatchAssociateApprovalRuleTemplateWithRepositories BatchDisassociateApprovalRuleTemplateFromRepositories CreateApprovalRuleTemplate DeleteApprovalRuleTemplate DisassociateApprovalRuleTemplateFromRepository GetApprovalRuleTemplate ListApprovalRuleTemplates ListAssociatedApprovalRuleTemplatesForRepository ListRepositoriesForApprovalRuleTemplate UpdateApprovalRuleTemplateDescription UpdateApprovalRuleTemplateName UpdateApprovalRuleTemplateContent Comments in a repository, by calling the following: DeleteCommentContent GetComment GetCommentReactions GetCommentsForComparedCommit PostCommentForComparedCommit PostCommentReply PutCommentReaction UpdateComment Tags used to tag resources in CodeCommit (not Git tags), by calling the following: ListTagsForResource TagResource UntagResource Triggers, by calling the following: GetRepositoryTriggers PutRepositoryTriggers TestRepositoryTriggers For information about how to use CodeCommit, see the CodeCommit User Guide.

Package turn contains the public API for pion/turn, a toolkit for building TURN clients and servers

Package workspaces provides the API client, operations, and parameter types for Amazon WorkSpaces. Amazon WorkSpaces enables you to provision virtual, cloud-based Microsoft Windows or Amazon Linux desktops for your users, known as WorkSpaces. WorkSpaces eliminates the need to procure and deploy hardware or install complex software. You can quickly add or remove users as your needs change. Users can access their virtual desktops from multiple devices or web browsers. This API Reference provides detailed information about the actions, data types, parameters, and errors of the WorkSpaces service. For more information about the supported Amazon Web Services Regions, endpoints, and service quotas of the Amazon WorkSpaces service, see WorkSpaces endpoints and quotasin the Amazon Web Services General Reference. You can also manage your WorkSpaces resources using the WorkSpaces console, Command Line Interface (CLI), and SDKs. For more information about administering WorkSpaces, see the Amazon WorkSpaces Administration Guide. For more information about using the Amazon WorkSpaces client application or web browser to access provisioned WorkSpaces, see the Amazon WorkSpaces User Guide. For more information about using the CLI to manage your WorkSpaces resources, see the WorkSpaces section of the CLI Reference.

Package stripe provides the binding for Stripe REST APIs.

Package securityhub provides the API client, operations, and parameter types for AWS SecurityHub. Security Hub provides you with a comprehensive view of your security state in Amazon Web Services and helps you assess your Amazon Web Services environment against security industry standards and best practices. Security Hub collects security data across Amazon Web Services accounts, Amazon Web Services services, and supported third-party products and helps you analyze your security trends and identify the highest priority security issues. To help you manage the security state of your organization, Security Hub supports multiple security standards. These include the Amazon Web Services Foundational Security Best Practices (FSBP) standard developed by Amazon Web Services, and external compliance frameworks such as the Center for Internet Security (CIS), the Payment Card Industry Data Security Standard (PCI DSS), and the National Institute of Standards and Technology (NIST). Each standard includes several security controls, each of which represents a security best practice. Security Hub runs checks against security controls and generates control findings to help you assess your compliance against security best practices. In addition to generating control findings, Security Hub also receives findings from other Amazon Web Services services, such as Amazon GuardDuty and Amazon Inspector, and supported third-party products. This gives you a single pane of glass into a variety of security-related issues. You can also send Security Hub findings to other Amazon Web Services services and supported third-party products. Security Hub offers automation features that help you triage and remediate security issues. For example, you can use automation rules to automatically update critical findings when a security check fails. You can also leverage the integration with Amazon EventBridge to trigger automatic responses to specific findings. This guide, the Security Hub API Reference, provides information about the Security Hub API. This includes supported resources, HTTP methods, parameters, and schemas. If you're new to Security Hub, you might find it helpful to also review the Security Hub User Guide. The user guide explains key concepts and provides procedures that demonstrate how to use Security Hub features. It also provides information about topics such as integrating Security Hub with other Amazon Web Services services. In addition to interacting with Security Hub by making calls to the Security Hub API, you can use a current version of an Amazon Web Services command line tool or SDK. Amazon Web Services provides tools and SDKs that consist of libraries and sample code for various languages and platforms, such as PowerShell, Java, Go, Python, C++, and .NET. These tools and SDKs provide convenient, programmatic access to Security Hub and other Amazon Web Services services . They also handle tasks such as signing requests, managing errors, and retrying requests automatically. For information about installing and using the Amazon Web Services tools and SDKs, see Tools to Build on Amazon Web Services. With the exception of operations that are related to central configuration, Security Hub API requests are executed only in the Amazon Web Services Region that is currently active or in the specific Amazon Web Services Region that you specify in your request. Any configuration or settings change that results from the operation is applied only to that Region. To make the same change in other Regions, call the same API operation in each Region in which you want to apply the change. When you use central configuration, API requests for enabling Security Hub, standards, and controls are executed in the home Region and all linked Regions. For a list of central configuration operations, see the Central configuration terms and conceptssection of the Security Hub User Guide. The following throttling limits apply to Security Hub API operations. BatchEnableStandards - RateLimit of 1 request per second. BurstLimit of 1 request per second. GetFindings - RateLimit of 3 requests per second. BurstLimit of 6 requests per second. BatchImportFindings - RateLimit of 10 requests per second. BurstLimit of 30 requests per second. BatchUpdateFindings - RateLimit of 10 requests per second. BurstLimit of 30 requests per second. UpdateStandardsControl - RateLimit of 1 request per second. BurstLimit of 5 requests per second. All other operations - RateLimit of 10 requests per second. BurstLimit of 30 requests per second.

Package cognitoidentityprovider provides the API client, operations, and parameter types for Amazon Cognito Identity Provider. With the Amazon Cognito user pools API, you can configure user pools and authenticate users. To authenticate users from third-party identity providers (IdPs) in this API, you can link IdP users to native user profiles. Learn more about the authentication and authorization of federated users at Adding user pool sign-in through a third partyand in the User pool federation endpoints and hosted UI reference. This API reference provides detailed information about API operations and object types in Amazon Cognito. Along with resource management operations, the Amazon Cognito user pools API includes classes of operations and authorization models for client-side and server-side authentication of users. You can interact with operations in the Amazon Cognito user pools API as any of the following subjects. An administrator who wants to configure user pools, app clients, users, groups, or other user pool functions. A server-side app, like a web application, that wants to use its Amazon Web Services privileges to manage, authenticate, or authorize a user. A client-side app, like a mobile app, that wants to make unauthenticated requests to manage, authenticate, or authorize a user. For more information, see Using the Amazon Cognito user pools API and user pool endpoints in the Amazon Cognito Developer Guide. With your Amazon Web Services SDK, you can build the logic to support operational flows in every use case for this API. You can also make direct REST API requests to Amazon Cognito user pools service endpoints. The following links can get you started with the CognitoIdentityProvider client in other supported Amazon Web Services SDKs. Amazon Web Services Command Line Interface Amazon Web Services SDK for .NET Amazon Web Services SDK for C++ Amazon Web Services SDK for Go Amazon Web Services SDK for Java V2 Amazon Web Services SDK for JavaScript Amazon Web Services SDK for PHP V3 Amazon Web Services SDK for Python Amazon Web Services SDK for Ruby V3 To get started with an Amazon Web Services SDK, see Tools to Build on Amazon Web Services. For example actions and scenarios, see Code examples for Amazon Cognito Identity Provider using Amazon Web Services SDKs.

Package accessanalyzer provides the API client, operations, and parameter types for Access Analyzer. Identity and Access Management Access Analyzer helps you to set, verify, and refine your IAM policies by providing a suite of capabilities. Its features include findings for external and unused access, basic and custom policy checks for validating policies, and policy generation to generate fine-grained policies. To start using IAM Access Analyzer to identify external or unused access, you first need to create an analyzer. External access analyzers help identify potential risks of accessing resources by enabling you to identify any resource policies that grant access to an external principal. It does this by using logic-based reasoning to analyze resource-based policies in your Amazon Web Services environment. An external principal can be another Amazon Web Services account, a root user, an IAM user or role, a federated user, an Amazon Web Services service, or an anonymous user. You can also use IAM Access Analyzer to preview public and cross-account access to your resources before deploying permissions changes. Unused access analyzers help identify potential identity access risks by enabling you to identify unused IAM roles, unused access keys, unused console passwords, and IAM principals with unused service and action-level permissions. Beyond findings, IAM Access Analyzer provides basic and custom policy checks to validate IAM policies before deploying permissions changes. You can use policy generation to refine permissions by attaching a policy generated using access activity logged in CloudTrail logs. This guide describes the IAM Access Analyzer operations that you can call programmatically. For general information about IAM Access Analyzer, see Identity and Access Management Access Analyzerin the IAM User Guide.

Package emr provides the API client, operations, and parameter types for Amazon EMR. Amazon EMR is a web service that makes it easier to process large amounts of data efficiently. Amazon EMR uses Hadoop processing combined with several Amazon Web Services services to do tasks such as web indexing, data mining, log file analysis, machine learning, scientific simulation, and data warehouse management.

Package elasticsearch provides a Go client for Elasticsearch. Create the client with the NewDefaultClient function: The ELASTICSEARCH_URL environment variable is used instead of the default URL, when set. Use a comma to separate multiple URLs. To configure the client, pass a Config object to the NewClient function: See the elasticsearch_integration_test.go file and the _examples folder for more information. Call the Elasticsearch APIs by invoking the corresponding methods on the client: See the github.com/elastic/go-elasticsearch/esapi package for more information and examples.

Package kafka provides the API client, operations, and parameter types for Managed Streaming for Kafka. The operations for managing an Amazon MSK cluster.

Package flutter combines the embedder API with GLFW and plugins. Flutter and Go on the desktop. go-flutter is in active development. API's must be considered beta and may be changed.

Package martian provides an HTTP/1.1 proxy with an API for configurable request and response modifiers.