Use the search bar above to find live radio stations. Try "jazz", "bbc", or "france".
Stations you save will appear here for quick access.
*This tool uses data from the Radio Browser API. All broadcast content is owned by the respective radio stations.
The first internet radio broadcast occurred in 1993 when Carl Malamud launched "Internet Talk Radio," a weekly show that was made available for download rather than live streaming. In 1994, WXYC, the student radio station of the University of North Carolina at Chapel Hill, became the first traditional radio station to broadcast its signal over the internet. The station used an FM radio connected to a computer system running Cornell's CU-SeeMe software to transmit its signal over the internet. [Wikipedia, Internet Radio]
In 1995, RealNetworks (then known as Progressive Networks) released RealAudio, the first streaming audio system that allowed users to listen to audio files in real time without waiting for full downloads. RealAudio used buffering technology to store a small portion of the audio data ahead of playback, smoothing over network irregularities. This innovation made live streaming practical. Nullsoft's SHOUTcast, released in 1998, enabled anyone with a computer and internet connection to start their own internet radio station using the MP3 format, dramatically democratizing broadcasting. [Wikipedia, Streaming Media]
The early 2000s saw rapid growth in internet radio, with services like Live365 (1999) allowing thousands of amateur broadcasters to reach global audiences. Pandora was founded in 2000 and publicly launched its personalized radio service in 2005, introducing stations based on the Music Genome Project. Spotify arrived in 2008, and TuneIn Radio (2002) aggregated thousands of traditional radio streams. However, the industry faced challenges: royalty rate disputes with SoundExchange threatened small broadcasters, leading to the shutdown of many stations in 2007. The Webcaster Settlement Act of 2008 and 2009 provided temporary relief. [Library of Congress, Radio Preservation]
Radio Browser was created by a community of developers as an open source, crowdsourced directory of internet radio stations. Unlike proprietary directories, Radio Browser relies on user contributions for station data and uses a decentralized API structure with multiple mirrors worldwide. The project maintains data on over 50,000 stations, including stream URLs, genres, countries, languages, and reliability metrics. Stations are ranked by votes and click tracking, helping surface the most popular and reliable streams. The API is free to use for non commercial applications, making projects like LiveStream Radio possible. [Radio Browser Official]
Internet radio streaming involves three main components: the source (radio station studio), the server (streaming host), and the client (listener's player). The station sends audio to an encoding computer that converts analog sound into digital audio data using codecs like MP3, AAC, or OGG Vorbis. This encoded stream is sent to a streaming server, which distributes copies to multiple listeners. When a listener requests the stream, the server begins sending small chunks of audio data continuously. The client player buffers a few seconds of data before playback to handle network fluctuations. [Wikipedia, Streaming Process]
Codecs (compression decompression algorithms) determine the balance between audio quality and bandwidth usage. MP3 at 128 kbps (kilobits per second) remains the most common internet radio bitrate, offering acceptable quality for music and voice. AAC (Advanced Audio Coding) provides better quality at the same bitrate and is used by many modern streams. OGG Vorbis is an open source codec popular in community driven stations. Higher bitrates like 320 kbps approach CD quality but require more bandwidth. Lower bitrates like 64 kbps work well for talk radio and areas with slower connections. [Wikipedia, Codec]
Buffering is the process of preloading audio data into memory before playback begins. A typical buffer holds 3 to 10 seconds of audio. If network speed fluctuates, the buffer helps prevent stuttering and dropouts. Adaptive streaming protocols like HLS (HTTP Live Streaming) and MPEG DASH automatically adjust bitrate based on available bandwidth, switching between quality levels without interrupting playback. Many modern internet radio platforms use these technologies to provide smooth listening experiences across varying network conditions. [Apple HLS Documentation]
Internet radio streams can carry metadata alongside audio data using protocols like ICY (SHOUTcast metadata) or ID3 tags within the stream. This metadata includes the station name, current song title, artist name, album artwork URLs, and sometimes genre information. The player extracts this metadata and displays it to listeners. The Radio Browser API aggregates this information from participating stations, allowing applications to show what song is currently playing even before the listener clicks play. [Wikipedia, ID3]
Protocols: SHOUTcast (Nullsoft, 1998) and Icecast (open source, 1999) are the two dominant streaming server technologies for internet radio. Both use HTTP based streaming protocols that work through most firewalls. SHOUTcast introduced the ICY protocol which includes metadata headers. Icecast supports multiple codecs including OGG, MP3, and WebM, and offers more flexible configuration. Most internet radio streams use one of these two server platforms. [Icecast Official]
Apple developed HLS in 2009 as a more robust streaming solution for iOS devices. HLS breaks the audio stream into small MPEG TS segment files (usually 10 seconds each) served over standard HTTP. A playlist file (M3U8) tells the player which segments to request next. HLS supports adaptive bitrate streaming, automatic quality switching, and live edge control. Many professional broadcasters including BBC, NPR, and commercial stations have adopted HLS for its reliability. [Wikipedia, HLS]
Modern web browsers support streaming audio through the HTML5 audio element, which handles decoding and playback without plugins. The Web Audio API provides more advanced capabilities including real time audio processing, visualizations, and multi source mixing. LiveStream Radio uses the standard HTML5 audio element, which supports MP3, AAC, and OGG formats across all modern browsers. The audio element handles buffering, playback control, volume management, and error recovery automatically. [MDN, Audio Element]
Cross Origin Resource Sharing (CORS) policies sometimes block web applications from playing streams hosted on different domains. Streaming servers must include CORS headers to allow browser based playback. When streams lack CORS support, applications can use proxy servers that fetch the stream and relay it with proper headers. LiveStream Radio uses a Cloudflare Worker proxy to resolve CORS issues, ensuring compatibility with thousands of streams that would otherwise be unplayable in a browser environment. [MDN, CORS]
The Radio Browser API provides RESTful endpoints for station discovery. Key endpoints include /json/stations/search (search by name or tag), /json/stations/topvote (most voted stations), and /json/stations/byuuid (specific station lookup). The API returns JSON data containing station names, stream URLs, bitrates, codecs, languages, countries, and reliability scores. Click tracking endpoints help maintain data quality. The API operates on a best effort basis with no rate limiting for non commercial use, relying on community supported server infrastructure across multiple geographic regions. [Radio Browser API Documentation]