The definitive flight simulation hub for US terminal data, global airline callsigns, and airport facility information.
Locate any US waypoint, fix, or NAVAID instantly. Our engine supports exact matching and phonetic "sound-like" lookup for standard FAA identifiers.
Visualize Standard Instrument Departures (SIDs) and Arrivals (STARs). See the exact pathing for complex US terminal environments.
Access critical communication data including Tower, Ground, Approach, and Center frequencies for every facility in the National Airspace System.
Access FAA d-TPP approach plates, airport diagrams, SIDs, and STARs directly within the interface for enhanced situational awareness.
We have built a comprehensive guide to help you navigate the system. Simply click the "USER GUIDE" button in the top navigation bar (it flashes green on your first visit). This guide covers the Search bar, Airport Explorer, and Map Layers.
FixesFinder uses the latest FAA NASR data cycle to help you locate 5-letter navigation fixes, VORs, and NDBs. Simply type the identifier (e.g., "MERCE") into the search bar to see its exact coordinates and usage in SIDs/STARs.
Yes. Enter any US ICAO code (like KLAX or KJFK) in the Airport Explorer to view real-world Tower, Ground, Approach, and Departure frequencies, which are often used by VATSIM and IVAO controllers.
Our database is updated according to the FAA's 28-day AIRAC cycle, ensuring you have the correct procedure and waypoint data for online flight networks and offline simulation.
The aviation industry relies on precise, standardized data to ensure safety and efficiency in the National Airspace System (NAS). FixesFinder was engineered to democratize access to this data for the flight simulation community, specifically targeting users of Microsoft Flight Simulator (MSFS), X-Plane, and Prepar3D, as well as online networks like VATSIM and IVAO. The platform ingests raw data directly from the Federal Aviation Administration's (FAA) National Airspace System Resource (NASR), converting cryptic government text files into an interactive, visually rich experience.
Unlike traditional aviation databases that require server-side queries for every search—resulting in slow load times and "spinning wheels"—FixesFinder utilizes a high-performance client-side architecture. Upon initial load, the entire US waypoint database, comprising over 60,000 distinct reporting points, is parsed and loaded directly into the browser's memory using optimized CSV structures.
This architectural decision means that searching is instantaneous. Whether you are looking for a VOR in New York or an RNAV intersection in California, the result appears the millisecond you stop typing. There is no database lag, no server timeout, and no waiting. This is critical for pilots flying online who receive a rapid "Direct-To" instruction from Air Traffic Control and need to locate a fix immediately without pausing the simulator.
One of the most challenging aspects of aviation communication is radio clarity. A controller might instruct a pilot to proceed direct to "ZEE-RO," but the pilot might not know if that is spelled "ZERO," "ZIRO," or "XERO." Standard databases fail here because they require exact spelling.
FixesFinder implements a custom "Sound-Like" search engine based on the Levenshtein distance algorithm and phonetic matching principles. When a user toggles "SOUND-LIKE" mode, the system doesn't just look for matching letters; it calculates the phonetic distance between the user's input and the database of fixes. This allows users to find waypoints based on how they sound rather than how they are spelled, a feature derived from real-world Flight Management Systems (FMS).
The map interface is built upon the open-source Leaflet.js library, customized to handle aviation-specific coordinate systems. The application parses complex "DP.txt" and "STAR.txt" data files to reconstruct Standard Instrument Departures and Arrivals line-by-line. Instead of showing a static PDF image, FixesFinder draws the actual flight path vector on the map, allowing users to zoom in on specific transitions and altitude restrictions.
Furthermore, the system integrates the FAA's official IFR Enroute Low Altitude chart tiles as a selectable layer. This provides pilots with the exact visual reference used in real-world cockpits, including Victor Airways, Minimum Enroute Altitudes (MEAs), and airspace boundaries, seamlessly overlaid on a modern, responsive interface.