Video Information

How I can listen to live video on my website independent of any other supplier?

I'm trying to load "live" the video camera the day care center for parents to watch. However, this video should be accessible only to parents who leave their children / children with me (restricted access). Also, you may want to charge parents for this point of view on a monthly basis that can be paid on the net with a credit card or paypal and access. What are the hardware and software required to accomplish this. I understand that one. I need a website of my own 2. Need webcams or video capture card Thanks Tuner

Here is some information from Wikipedia. Hope this helps. Streaming From Wikipedia, the free encyclopedia Jump to: navigation, search This article relies largely or entirely from a single source. Please help improve this article by introducing appropriate citations of additional sources. Streaming media multimedia that is constantly received by, and normally displayed to end users, which is given by the supplier. The name refers to the method Delivery of the medium rather than the medium itself. The distinction is usually applied to media that are distributed via telecommunications networks, such as most other delivery systems are inherently streaming (radio, television) or inherently non-real (eg, books, video tapes, audio CDs). The verb "Listen" is also derived from this term, ie the media to provide this. Contents [hide] 1 History 2 wide Streaming Bandwidth and storage of 3 numbers Cost Protocol 4 and 5 Social Affairs legal issues 6 References 7 See also 8 External links 8.1 8.2 Media Streaming Stream technologies and transport protocols 8.3 8.4 Streaming Media container formats providers of streaming media content distribution 8.5 Suppliers media [History attempts] to display media on computers date back to the early days of computing, in the twentieth-century. However, little progress has been made in several decades, mainly due to high cost and limited capacity of computer hardware. Academic experiments in the 1970s demonstrated the basic concepts and feasibility of streaming media computers. During the 1980s, the consumer-grade computers became powerful enough to display various media communication. Technical problems with streaming rates were: having enough CPU power and bandwidth to support data rates requires the establishment of latency break-down paths in the operating system to prevent buffer underrun However, computer networks were still limited, and the media was usually delivered streaming through channels such as CD-ROM. The 1990s saw: greater network bandwidth, especially in the last section increasing access to networks, especially the use of standard Internet protocols and formats, such as TCP / IP, HTTP, HTML and Internet marketing These advances in computer networking combined with computers powerful and modern operating systems made streaming media practical and affordable for the average consumer. Independent Internet devices are offering radio listeners a "non-computer" option to stream audio. In general, multimedia content is large, so media storage and transmission costs are still significant to offset this somewhat, media are generally compressed for both storage and streaming. A stream media can be on demand or live. On demand streams are stored on a server for a long period of time, and are available for broadcast at the request of a user. Live currents are only available at a given time, as in a video stream of a live sporting event. The transmission media research is ongoing and representative research can be found in the Journal of Multimedia. [Edit] Streaming bandwidth and storage Unicast Connections require multiple connections streaming server that transmits the same even when the same size contentStreaming storage media (on file with measurements of the common megabytes, gigabytes, terabytes, and so on) are calculated from the transmission bandwidth and the duration of the media with the following formula (For a single user and file): storage size (in megabytes) = length (in seconds) · Bit rate (in kbit / s) / 8388.608 (since 1 megabyte = 8 * 1,048,576 bits = 8388.608 kilobits) real world example: One hour of video encoded at 300 kbit / s (this is a typical broadband video for 2005, and it is usually encoded in a × 320 240 pixels window size) will be: (3,600 s · 300 kbit / s) / (8 * 1024 * 1024) gives about 130 MB of storage if the file is stored on a server on-demand streaming and this stream is seen by 1,000 people at the same time using a Unicast protocol, you would need 300 kbit / S · 1000 = 300 000 kbit / s = 300 Mbit / s bandwidth, equivalent to about 125 GB per hour. Of course, using a multicast protocol on the server sends only a single sequence that is common to all users. Therefore, such a stream only use 300 kbit / s bandwidth to serve. See below for more information on these protocols. [Edit] Problems Protocol This article or section needs copy editing for grammar, style, cohesion, tone or spelling. You can help by editing it now. An instruction guide is available. (January 2008) Design of a protocol network to support streaming media raises many issues, such as datagram protocols such as User Datagram Protocol (UDP), send the flow of media as a series of small packets. This is simple and efficient, however, there is no mechanism within the protocol to ensure delivery. Corresponds to the receiving application to detect the loss or corruption and recover data using error correction techniques. If data is lost, the current may suffer neglect. The Real-Time Streaming Protocol (RTSP), Real-time Transport Protocol (RTP) and Realtime Transport Control Protocol (PSTN) were specifically designed for transmitting multimedia content over networks. The last two are built on top of the UDP. Reliable protocols such as Transmission Control Protocol (TCP), guarantee correct delivery of each bit in the flow of media. However, achieving this with a system of timeouts and retries, which makes more complex to implement. It also means that when data is lost in the network, the media stream stalls, while the detection protocol handlers loss and retransmit the missing data. Customers can minimize the effect of this the data buffer for display. Multicast broadcasts the same copy of the multimedia throughout the network to all clientsUnicast protocols send a separate copy of the flow of media from the server to each client. As for the difficulty to implement technically, these protocols are the most simplistic. At the cost of this simplicity, there can be massive duplication of data sent over the network. Multicast protocols were developed to try to cut down on duplication that causes Unicast protocols. These protocols send only one copy of the sequence of media through any given network connection, ie along the path between two network routers. Many of these routing protocols can require special hardware transmit power. These connections are one-way multicasts that closely reflect the functionality of more air television viewers to lose their reading skills in demand. Some of these capabilities include vision loss and fastforwarding rewind a media file. Servers for media transmission communications solutions that combine unicast and multicast to reduce both the bandwidth requirements and provide users with most of the demand for functionality in a pure unicast. [1] IP Multicast, the most prominent of multicast protocols must be implemented in all nodes between the server and client including network routers. Since 2005, most Internet routers however, are not compatible with IP Multicast, and many firewalls block it. [Citation needed] IP Multicast is most practical for organizations that run their own networks, such as universities and businesses. Since buy their own routers and run their own network links, they can decide if the cost and effort to support IP Multicast is justified by the savings resulting bandwidth. Peer-to-peer (P2P) protocols arrange for media to be sent customers who already have customers who do not. This prevents the server and network connections from becoming a bottleneck. However, it raises technical, performance, quality, business and legal issues. A theme for streaming media is that some firewalls block UDP-based to provide additional security to their owners. These blocks are in place because UDP is stateless and making it difficult for a firewall to determine whether to allow the connection. [2] broad streaming media deployment increases the scale and quality of service. Testing service deployments is a significant problem. Vendors offer equipment to test services streaming through a number of domains of inquiry, including scalability, quality of service, quality of experience, and protocol compliance. [Citation needed] [Edit] Cost issues While the Internet will fundamentally change many industries, the fact is that large amounts of streaming data (like video) over IP is still expensive. (CDN content distribution networks) are companies that provide the infrastructure (servers and pipes) required to deliver data reliably worldwide. As in other industries, the cost (usually a price per gigabyte) is a function of quantity. In late 2007, a rather small commitment of 750 GB month costs about $ 1.50/GB whereas a commitment of 100,000 GB per month cost of $ 0.30 per GB (USD). [Edit] Social and legal Some stations use streaming streaming systems that interfere with the ability to record streams for later playback, either inadvertently, through poor choice of streaming protocols, or deliberately. Some of these broadcasters out the interference in their media because they believe it is in your favor to control their intellectual property or necessary for compliance with licensing requirements by content providers. The concern for some broadcasters is that these copies of broadcast material will result in lost sales. If users have the ability and the right to record streams has become an important issue in the application of law to cyberspace. By for some, there is no way to prevent a user from recording a media stream that has been delivered to your computer. Bruce Schneier once said: "The digital files can not be made uncopyable, nor that the water can be done, but not wet. "[3] To date, efforts to prevent copying streaming media has been limited to that is inconvenient, illegal, or both. One method of interfering with recording streaming media is DRM (Digital Rights Management) technologies. DRM protection does not prevent a user of the recording of the streamed bits but the DRM gives us greater control of the reproductions or plays the recorded file to a provider of streaming media requiring a key to unlock or decrypt the content. Using unpublished data formats is another form of transmission providers of the media to protect their media. This security method can be reverse engineered, and encrypted streams must be decrypted with a key that is in the consumer's computer, so these measures are security through obscurity, at best. Efforts to make it illegal to record a sequence may be based on copyright, patents, agreements license, or national law that implements the anti-circumvention provisions of the WIPO Treaty on the Law. [Edit] Schneier, Bruce (May 15, 2001). The Futility of Digital Copy Prevention Crypto-Gram Newsletter. Schneier, Bruce (August 2000). The fallacy of the Journal of Trusted Client Software Information Security. also in The fallacy of trusted client software. Schneier, Bruce (October 15, 2001). SSSCA Crypto-Gram Newsletter. ^ Chapter 8: multicasts. Propeller Administration Server. Retrieved on 2008-01-09. ^ Kostenbader Phil. Standards in desktop firewall policies. SecurityFocus. Retrieved on 2008-01-09. ^ Bruce Schneier. Futility Digital Copy Prevention. Retrieved on 2008-01-09. [Edit] streamingmedia.com - Streaming Media Industry News [edit] See also this list may require cleanup to meet Wikipedia's quality standards. Please help improve this list. It may be less accurate, unverified or indiscriminate. Audio contribution over IP Centre for Democracy and Technology The comparison of transmission systems multimedia content distribution network destructuring Electronic Frontier Radio Internet Foundation (Audio) IPTV Internet radio device from the list of codecs websites list of streaming media systems P2PTV quality current recorder service Voice over IP support (video) Video Conferencing Video Web TV commercial clip video on demand share [Video Streaming edit] Media communication technologies Accordent Technologies Adobe Flash Ampache Clipstream FORscene Matroska FreeCast Microsoft Windows Media Icecast Ogg / Vorbis QuickTime Orb Philips Media Manager RealNetworks RealPlayer Winamp SHOUTcast ReelTime.com Slingbox Unreal Media Server SlimServer [edit] Stream and transport protocols HTTP MMS RTP RTCP RTMP RealNetworks RDT UDP RTSP [edit] Media container formats Main article: container format and audio format file containers mounted audio and video tracks in a file or data stream. The Common examples are AVI, Ogg, QuickTime, RealMedia, ISO MP4 and Matroska Media Container. Note that old containers, like AVI, are not well suited for transmission. [Edit Streaming] content providers Break.com Dailymotion Google Video Metacafe Interoute GodTube Netflix Imeem Joost Pandora Reeltime.com Picsearch Soundpedia Sevenload Stage6 YouTube Zattoo Veoh [edit] Streaming Media Delivery by Akamai Technologies Provider Networks Limelight Networks EdgeCast Highwinds Retrieved from "http://en.wikipedia.org/wiki/Streaming_media"

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