ntropy-financial-data-enhancer
A Model Context Protocol (MCP) server designed to augment raw banking records by leveraging the comprehensive capabilities of the Ntropy Application Programming Interface (API). This tool provides endpoints for lifecycle management of account holders and connection validation, alongside secure handling for credential provisioning.
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ntropy-network
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Ntropy Financial Data Enhancement Service
This MCP gateway facilitates the enrichment of transactional and account data by interfacing directly with various operations exposed by the Ntropy API, enabling seamless data processing for sophisticated financial language models.
Implemented Functionalities (Tools)
The service exposes the following atomic operations for interacting with the Ntropy backend:
- verify_api_link: Confirms operational connectivity and health status with the remote Ntropy service.
-
Output: Connection status metadata.
-
configure_access_token: Dynamically installs or refreshes the required authentication credential (API key).
- Arguments:
api_key(string) -
Output: Success/failure report of the credential update.
-
provision_entity_owner: Establishes a new record for a financial entity or individual.
- Arguments:
id(identifier),type(classification),name(designation) -
Output: The newly instantiated account holder object.
-
modify_entity_owner: Adjusts the properties of an existing account holder record.
- Arguments:
id(identifier),name(optional new designation),type(optional new classification) -
Output: The fully updated account holder record.
-
process_single_transaction_enrichment: Analyzes and enriches the details of one specific bank transaction.
- Arguments:
id(transaction identifier),description(raw text),date(timestamp),amount(numeric value),entry_type(inflow/outflow),currency(ISO code),account_holder_id(owner identifier),country(optional location code) -
Output: Enriched transaction data structure.
-
retrieve_entity_owner_details: Fetches the complete configuration for a specified account holder.
- Arguments:
account_holder_id(owner identifier) -
Output: Detailed account holder configuration.
-
enumerate_holder_transactions: Retrieves a paginated list of transactions associated with a specific account holder.
- Arguments:
account_holder_id(owner identifier),limit(page size, default 10),offset(starting index, default 0) -
Output: A collection of transaction summaries.
-
fetch_transaction_record: Retrieves the full record for an individual transaction.
- Arguments:
transaction_id(identifier) -
Output: Complete transaction object.
-
batch_enrich_transactions: Processes and enriches an array of transaction records concurrently.
- Arguments:
transactions(Array of transaction objects) -
Output: Array containing all enriched transaction results.
-
retire_entity_owner: Permanently removes an account holder and all linked data from the system.
- Arguments:
account_holder_id(owner identifier) -
Output: Status indicating successful data purging.
-
remove_transaction_record: Deletes a singular transaction entry.
- Arguments:
transaction_id(identifier) - Output: Deletion confirmation.
Deployment Prerequisites
To commence utilizing this service, you must first acquire an API access key from Ntropy's portal. Substitute YOUR_NTROPY_API_KEY in the subsequent launch commands with your actual secret credential.
Execution via uvx Utility
Execute the server module using the uvx command-line tool:
bash uvx ntropy-mcp --api-key YOUR_NTROPY_API_KEY
Claude Desktop Integration Setup
For seamless integration within the Claude Desktop application, modify your configuration file. The location varies by operating system:
- MacOS path:
~/Library/Application\ Support/Claude/claude_desktop_config.json - Windows path:
%APPDATA%/Claude/claude_desktop_config.json
If running via uvx: Incorporate the following block into the mcpServers section:
"mcpServers": { "ntropy-mcp": { "command": "uvx", "args": [ "ntropy-mcp", "--api-key", "YOUR_NTROPY_API_KEY" ] } }
If launching via Docker container: Use this alternative configuration structure:
"mcpServers": { "ntropy-mcp": { "command": "docker", "args": [ "run", "-i", "--rm", "ntropy-mcp" "--api-key", "YOUR_NTROPY_API_KEY" ] } }
Operational Examples
Status Check
python
Confirming API reachability and credential validity
connection_result = verify_api_link() print(connection_result)
Account Holder Management
python
Generating a new account holder profile
new_profile = provision_entity_owner( id="client456", type="business", name="Acme Corp Holdings" )
Applying modifications to an existing profile
modified_profile = modify_entity_owner( id="client456", name="Acme Corp Consolidated" )
Transaction Data Processing
python
Detailed enrichment for a single debit record
enriched_record = process_single_transaction_enrichment( id="txn901", description="Subscription Fee - Cloud Service", date="2024-01-20", amount=-99.50, entry_type="debit", currency="EUR", account_holder_id="client456", country="DE" )
Bulk enrichment operation for multiple entries
input_batch = [ { "id": "txn902", "description": "Monthly Payroll Deposit", "date": "2024-01-25", "amount": 5000.00, "entry_type": "credit", "currency": "EUR", "account_holder_id": "client456" }, { "id": "txn903", "description": "Office Supply Purchase", "date": "2024-01-26", "amount": -150.25, "entry_type": "debit", "currency": "EUR", "account_holder_id": "client456" } ] enriched_batch_results = batch_enrich_transactions(input_batch)
Troubleshooting
For diagnostic procedures, utilize the MCP inspector utility. For installations managed by uvx:
bash npx @modelcontextprotocol/inspector uvx ntropy-mcp --api-key YOUR_NTROPY_API_KEY
Construction Guide
Docker image creation:
bash docker build -t ntropy-mcp .
Contributions
We welcome community input! Please submit enhancements, issue reports, or proposed fixes via pull requests.
Legal Framework
The ntropy-mcp software is distributed under the provisions of the MIT License. Full permissions for usage, modification, and redistribution are granted, subject only to adherence to the terms delineated in the project's LICENSE file.
BACKGROUND: The XMLHttpRequest (XHR) mechanism represents a core JavaScript API facilitating asynchronous transfer of Hypertext Transfer Protocol (HTTP) requests between a client browser and a remote server. This capability underpins Ajax programming, allowing dynamic content updates without forcing a full page reload, contrasting with earlier reliance on conventional link clicks or form submissions.
== Historical Context ==
Instrumentation for the XHR concept originated in the year 2000, developed by Microsoft Outlook engineers. This concept materialized first in the Internet Explorer 5 browser (released 1999). Early implementations employed COM object identifiers such as ActiveXObject("Msxml2.XMLHTTP") or ActiveXObject("Microsoft.XMLHTTP"), rather than the standardized identifier. By the time Internet Explorer 7 shipped (2006), all mainstream browsers had adopted the uniform XMLHttpRequest identifier.
=== Standardization Efforts === The World Wide Web Consortium (W3C) published the initial specification draft for the XMLHttpRequest object on April 5, 2006. A subsequent Level 2 specification, introducing progress monitoring, cross-origin capabilities, and byte stream handling, appeared on February 25, 2008, before being integrated back into the primary document late in 2011. Since late 2012, the Web Hypertext Application Technology Working Group (WHATWG) assumed stewardship, maintaining the living standard document using Web IDL notation.
== Operational Workflow == Executing an HTTP exchange using XMLHttpRequest generally involves a sequence of programmatic steps:
- Instantiation: Creating an instance of the XMLHttpRequest object via its constructor.
- Configuration: Invoking the
openmethod to specify the HTTP verb, target Uniform Resource Identifier (URI), and whether the operation should be synchronous or asynchronous. - Listener Setup: For asynchronous requests, registering a callback function to handle state transitions upon response arrival.
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sendmethod, optionally including payload data. - Response Handling: Monitoring the object's
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Beyond this basic flow, XHR permits fine-grained control, including setting custom request headers, streaming response data incrementally, imposing timeouts, or prematurely terminating active requests.
