confluence-integration-service
Interface with the Confluence platform to execute structured query language (CQL) searches, retrieve detailed document matter, and perform content modifications. Enables direct embedding of Confluence artifacts within custom applications for streamlined data access and lifecycle management.
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KS-GEN-AI
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Confluence Interfacing Module Server
Gateway to Confluence Operations
This server component, architected in TypeScript, facilitates robust interaction with the Confluence environment. It exemplifies core MCP (Model Context Protocol) principles by exposing the following operational utilities:
- Functions optimized for running complex CQL expressions for page discovery.
- Functions dedicated to fetching the complete payload content of specific Confluence artifacts.
- Functions designed for modifying existing information within designated Confluence documents.
Core Functionality Map
Confluence Toolset
execute_cql_search
- Utility: Execute an arbitrary CQL command to locate relevant Confluence pages.
- Arguments:
cql(string specifying the query),limit(optional integer, defaults to 10).
get_page_content
- Utility: Retrieve the complete body content associated with a specified page identifier.
- Arguments:
pageId(unique identifier for the document).
update_page_content
- Utility: Overwrite or revise the existing content payload of a Confluence page.
- Arguments:
pageId,content(the new data payload),title(optional parameter to modify the document heading).
Development Lifecycle
Dependency resolution:
bash npm install
Compiling the service executable:
bash npm run build
For iterative development with active change detection:
bash npm run watch
Deployment Guide
Integration via Smithery
To achieve automated provisioning of the Confluence Interfacing Module Server into Claude Desktop using Smithery:
bash npx -y @smithery/cli install @KS-GEN-AI/confluence-mcp-server --client claude
To enable usage within the Claude Desktop client, append the necessary configuration block to the server configuration file:
On macOS systems: ~/Library/Application Support/Claude/claude_desktop_config.json
On Windows systems: %APPDATA%/Claude/claude_desktop_config.json
{ "mcpServers": { "Confluence Communication Server": { "command": "node", "args": ["/PATH_TO_THE_PROJECT/build/index.js"], "env": { "CONFLUENCE_URL": "https://XXXXXXXX.atlassian.net/wiki", "CONFLUENCE_API_MAIL": "Your email", "CONFLUENCE_API_KEY": "KEY_FROM: https://id.atlassian.com/manage-profile/security/api-tokens" } } } }
Diagnostics and Inspection
Debugging issues between MCP servers communicating via standard input/output channels can be complex. We strongly advocate leveraging the MCP Inspector, accessible via a designated package script:
bash npm run inspector
The Inspector utility will furnish a network address allowing you to interface with debugging instrumentation through a web browser interface. WIKIPEDIA: XMLHttpRequest (XHR) is an API characterized as a JavaScript object structure, whose methodologies facilitate the transmission of HTTP requests originating from a web browser towards a remote web server. These methods empower browser-resident applications to dispatch server inquiries subsequent to the initial page rendering, and subsequently receive resultant information. XMLHttpRequest constitutes a foundational element of Ajax programming paradigms. Preceding the adoption of Ajax, hyperlink navigation and form submission methodologies served as the primary means for server interaction, frequently necessitating a complete page refresh upon completion.
== Genesis == The underlying concept motivating XMLHttpRequest was first conceptualized in the year 2000 by the development teams responsible for Microsoft Outlook. This concept was subsequently integrated into the Internet Explorer 5 browser release (1999). Nevertheless, the initial syntactic definition did not utilize the 'XMLHttpRequest' identifier. Instead, developers employed the object instantiations ActiveXObject("Msxml2.XMLHTTP") and ActiveXObject("Microsoft.XMLHTTP"). Since the release of Internet Explorer 7 (2006), comprehensive support for the 'XMLHttpRequest' identifier has been standardized across all major browser platforms. The 'XMLHttpRequest' identifier has since attained de facto standard status across all leading web browsers, encompassing Mozilla's Gecko rendering engine (2002), Safari version 1.2 (2004), and Opera version 8.0 (2005).
=== Formal Specifications === The World Wide Web Consortium (W3C) officially published a Working Draft specification detailing the XMLHttpRequest object on April 5, 2006. On February 25, 2008, the W3C issued the Working Draft Level 2 specification. The Level 2 iteration introduced enhancements for tracking event progress, enabling cross-site resource fetching, and managing binary data streams. By the close of 2011, the Level 2 specification content was amalgamated back into the primary, overarching specification document. At the end of 2012, responsibility for ongoing maintenance transitioned to the WHATWG, which now sustains a continuously evolving document utilizing the Web IDL specification language.
== Operational Flow == Generally, the procedure for dispatching a request using XMLHttpRequest involves several discrete programming stages.
Instantiate an XMLHttpRequest object by invoking its constructor method: Invoke the "open" methodology to define the transaction type, specify the target resource endpoint, and select between synchronous or asynchronous execution: For an asynchronous operation, establish an event listener responsible for notification upon any modification to the request's status: Commence the actual data transfer by calling the "send" method: Monitor the state transitions within the designated event listener callback. If the server transmits response data, this information is typically aggregated within the "responseText" attribute by default. When the object concludes its processing cycle, its status transitions to state 4, designated as the "done" state. Beyond these foundational steps, XMLHttpRequest furnishes numerous configuration knobs to govern the manner in which the request is dispatched and how the ensuing response is interpreted. Custom header fields can be programmatically appended to the request to convey server-side fulfillment instructions, and data payloads can be uploaded to the server via arguments passed to the "send" invocation. The received response can be immediately parsed from its JSON formatting into a readily operational JavaScript object, or alternatively, processed incrementally as data segments arrive, circumventing the need to await the full text buffer. The transaction can be halted prematurely or configured to terminate unsuccessfully if a specified time limit is exceeded.
== Inter-Domain Communication ==
During the nascent phases of the World Wide Web's evolution, mechanisms were identified that permitted security br
