referring now to fig1 , there is illustrated a block diagram of an exemplary system 100 for providing media 105 in accordance with an embodiment of the present invention . the system 100 comprises a monitor 105 , and a portable media player 110 . the monitor 105 receives and presents media on a screen and speakers . additionally , the monitor 105 encodes the media 130 to a particular format that is suitable for storage in the portable media player 110 . the media 130 can be video and / or audio data and can be received as analog media 130 a received over radio waves . alternatively , the media 130 b can comprise media received over a network 125 , such as analog signals 130 b over an analog cable network . additionally , the media can be compressed to reduce bandwidth . the compressed data 130 c can be received by a set top box 115 . the set top box 115 can include circuitry for decompressing the data , thereby resulting in decompressed data 130 d . additional circuitry can be included to prepare the decompressed data for display by scaling and rasterizing . alternatively , the compressed data 130 c can be decompressed by circuitry integrated into the monitor 105 . additionally , the monitor 105 can receive media as either analog signals or decompressed data 130 d from a dvd / vcr player 120 . in certain embodiments of the present invention , the monitor may receive uncompressed video and audio via a digital interface , such as dvi or hdmi , or a wireless interface . the monitor 105 receives the analog signals 130 a or the decompressed data 130 d and encodes the analog signals 130 a or the decompressed data 130 d . where the monitor 105 receives compressed data 130 c , internal circuitry transcodes the compressed data 130 c , thereby resulting in compressed data in a format suitable for a different device . this transcode may involve decompressing compressed data 130 c . additionally , the monitor 105 may include circuitry for preparing the decompressed data for display by scaling and rasterizing the decompressed data . accordingly , the term “ decompressed data ” will now be understood to include , for example , reconstructed data from compressed data , uncompressed data , analog signals , uncompressed digital signals , scaled data , rasterized data , and data that is not compressed using lossy compression . the term “ decompressed video data ” will now be understood to include , for example , reconstructed video data from compressed video data , uncompressed video data , analog video signals , digital video signals , scaled video data , rasterized video data , and video data that is not compressed using lossy compression . the term “ video data ” shall be understood to cover any video in any form . the monitor 105 presents the decompressed data . where the decompressed data is decompressed video data , the monitor 105 presents the decompressed video data on a screen . where the decompressed data is audio data , the monitor 105 presents the audio data using speakers . additionally , the monitor 105 includes circuitry integrated therein to encode the decompressed data into a format , encoded data 140 , suitable for use by a personal media player 110 , or to transcode compressed data 130 c into a format suitable for use by a personal media player 100 . the portable media player 110 presents media on an integrated screen and / or via speakers and is generally designed to be routinely transported or carried on the person . the portable media player 115 can comprise , for example , an ipod ™, a cell phone , a personal digital assistant ( pda ), or a palm top . since the portable media player 115 is generally designed to be routinely transported or carried on the person , the portable media player 115 can use a particular compression format for storing the media played by the portable media player to reduce the amount of memory needed to store the media . additionally , portable media players 115 often have specific requirements for compressed formats in order to simplify the processes of decoding and presenting video . their small size , low cost and battery power may motivate this requirement . in certain embodiments of the present invention , the portable media player 115 can be connected to the monitor 105 . the monitor 105 , upon detecting the connection between the monitor 105 and portable media player 115 , can transfer the encoded data 140 to the portable media player 115 . alternatively the monitor may create an encoded or transcoded stream for the pmp after the pmp is connected , and transfer the stream without first storing it in a memory . alternatively , the monitor 105 and the portable media player 115 can be equipped to detect a condition wherein the portable media player 115 is within local radio proximity of the monitor 105 , and transfer the encoded data 140 to the portable media player 115 over a radio interface . referring now to fig2 , there is illustrated a block diagram of an exemplary monitor 200 in accordance with an embodiment of the present invention . the monitor 200 comprises input ( s ) 205 , a screen 210 , a encoder 215 , and an interface 225 . the input ( s ) 205 receives decompressed video data . the screen 210 displays the decompressed video data . the encoder 215 encodes the decompressed video data . the interface 225 is operable to transfer the encoded video data to another portable media player . it is noted that the input ( s ) 205 can either be externally accessible or internally integrated . for example , in certain embodiments of the present invention , the monitor 200 receives compressed data . additional circuitry in the monitor 200 can decompress the compressed data , thereby resulting in the decompressed data . in certain embodiments of the present invention , the monitor 200 can include circuitry for further preparing the decompressed video data for display by scaling and rasterizing the decompressed data . the encoder 215 encodes the decompressed data into a format that is suitable for the portable media player 115 . the encoder 215 can encode the decompressed data either before or after scaling and rasterizing . in certain embodiments of the present invention , the encoder 215 can compress the decompressed data using a variety of compression techniques , including but not limited to , motion compensation , and entropy coding . the interface 225 is operable to transfer the data to the personal media player 110 . in certain embodiments of the present invention , the interface 225 can be connectable to the personal media player 110 , and upon detecting the connection to the personal media player 110 , the interface can transfer the data to the personal media player 110 . in certain embodiments of the present invention the interface 225 can comprise a universal serial bus port . in certain embodiments of the present invention , the interface 225 can transfer the data to the personal media player 110 over a wireless interface . when the interface 225 detects that the personal media player 110 is in proximity to the monitor 105 , the interface 225 can transmit the data to the personal media player 110 using radio signals . in certain embodiments of the present invention , memory between the encoder 215 and the interface 225 can store or buffer the data prior to transfer to the personal media player 110 . after the encoder 215 encodes the data , the encoder data can be written to the memory . the memory holds the stored data for transfer to the personal media player 110 . the memory may be solid state memory or memory with moving parts , such as a hard disk drive . in certain embodiments of the present invention , the data can be transcoded from a first compression format to a second format , with or without decompressing the data . accordingly , the term “ encoding ” shall be understood to include both coding uncompressed data , as well as transcoding compressed data , with or without first decoding . accordingly , the term “ encoder ” shall be understood to mean a circuit that performs transcoding of compressed data and / or a circuit that performs coding of uncompressed data . referring now to fig3 , there is illustrated a block diagram of an exemplary monitor 300 in accordance with an embodiment of the present invention . the monitor 300 comprises input ( s ) 305 , a decompression engine 307 , a display engine 309 , a screen 310 , an encoder 315 , and an interface 325 . the input ( s ) 305 receives compressed video data . the decompression engine 307 decompresses the compressed video data , thereby resulting in decompressed video data . the display engine 309 prepares the decompressed video data for display on the screen 310 by scaling and rasterizing the decompressed data . the screen 310 displays the decompressed video data . the encoder 315 encodes the decompressed video data . in certain embodiments of the present invention , the encoder 315 can encode the video data after the display engine 309 scales and rasterizes the data . alternatively , the encoder 315 can encode the decompressed video data prior to scaling and rasterization . alternatively , the encoder transcodes the compressed video data from a first compression format to a second compression format , resulting in compressed data in a format that is suitable for a separate device such as a portable media player . in certain embodiments of the present invention , the encoder 315 can comprise a compression engine 330 for compressing the decompressed video data . the compression engine 330 can compress the data using a variety of compression standards such as mpeg - 2 , h . 264 or vc - 1 . the interface 325 is operable to transfer the encoded decompressed video data to the portable media player . in certain embodiments of the present invention , memory between the encoder 315 and the interface 325 can store or buffer the data prior to transfer to the personal media player 110 . after the encoder 315 encodes the data , the encoded data can be written to the memory . the memory holds the stored data for transfer to the personal media player 110 . referring now to fig4 , there is illustrated a block diagram of an exemplary monitor 105 operable to transfer video data over a wireless interface in accordance with an embodiment of the present invention . the monitor 400 comprises input ( s ) 405 , a screen 410 , a encoder 415 , and an interface 425 . the input ( s ) 405 receives decompressed video data . the screen 410 displays the decompressed video data . the encoder 415 encodes the decompressed video data . the interface 425 is operable to transfer the encoded video data to a portable media player over a wireless connection . the interface 425 comprises a transceiver 440 . the receiver 445 can be operable to detect the presence of the portable media player 125 in the proximity of the monitor 105 . in certain embodiments , when the portable media player 125 is brought into the proximity of the monitor 105 , the transceiver 445 receives a signal indicating that the portable media player 125 is in proximity . in certain embodiments of the present invention , the monitor 105 can be a node in a wireless local area network . when the portable media player 125 comes into the coverage area of the wireless local area network , the wireless local area network can send a signal to the monitor 105 indicating that the portable media player 125 is in the network . alternatively , the portable media player 125 can send a signal directly to the monitor 105 . the signal is received by the transceiver 445 . responsive thereto , the transceiver 445 transmits the data from the memory 420 to the portable media player 125 . in certain embodiments of the present invention , memory between the encoder 415 and the interface 425 can store or buffer the data prior to transfer to the personal media player 110 . after the encoder 415 encodes the data , the encoded data can be written to the memory . the memory holds the stored data for transfer to the personal media player 110 . in certain embodiments of the present invention , decompression engine ( s ) decompress compressed audio and video data . transcoding can include compression and the encoder ( s ) can comprise an audio encoder for compressing the audio data and a video encoder for compressing the video data . referring now to fig5 , there is illustrated a block diagram of an exemplary monitor in accordance with an embodiment of the present invention . the monitor 500 comprises input ( s ) 505 , an audio decoder 506 , a video decompression engine 507 , a display engine 509 , a screen 510 , a video encoder 515 , an audio encoder 518 , a memory 520 , and an interface 525 . the input ( s ) 505 receives compressed video and audio data . the video decompression engine 507 decompresses the compressed video data , thereby resulting in decompressed video data . the display engine 509 prepares the decompressed video data for display on the screen 510 by scaling and rasterizing the decompressed data . the screen 510 displays the decompressed video data . the audio decoder 506 decompresses the compressed audio data and provides the decompressed audio data for output . the audio encoder 518 compresses the decompressed audio data and writes the compressed audio data to the memory 520 . the video encoder 515 encodes the decompressed video data . in certain embodiments of the present invention , the video encoder 515 can encode the video data after the display engine 509 scales and rasterizes the data . alternatively , the encoder 515 can encode the decompressed video data prior to scaling and rasterization . it is noted that the audio encoder 506 and the video encoder 515 do not necessarily compress according to the same standard utilized for the data at the input . a multiplexer 530 multiplexes the audio and video data during transfer . in certain embodiments of the present invention , the multiplexer 530 can comprise a transport processor . in certain embodiments of the present invention , video and audio encoders encode ( i . e . transcode ) compressed audio and video data that are compressed in accordance with a standard suitable for the monitor into another compression standard that is suitable for the portable media player . for example , the video encoder could transcode video data compressed in accordance with advanced video coding ( also known as mpeg - 4 , part 10 , and h . 264 ) to mpeg - 2 . referring now to fig6 , there is illustrated a block diagram of an exemplary monitor in accordance with an embodiment of the present invention . the monitor comprises input ( s ) 605 , an audio decoder 606 , a video decompression engine 607 , a display engine 609 , a screen 610 , a video transcoder 615 , an audio transcoder 618 , a memory 620 , and an interface 625 . the input ( s ) 605 receives compressed video and audio data . the video decompression engine 607 decompresses the compressed video data , thereby resulting in decompressed video data . the display engine 609 prepares the decompressed video data for display on the screen 610 by scaling and rasterizing the decompressed data . the screen 610 displays the decompressed video data . the audio decompression engine 606 decompresses the compressed audio data and provides the decompressed audio data for output . the audio transcoder 518 transcodes the compressed audio data into a format suitable for the portable media player and writes the transcoded audio data to the memory 520 . the video encoder 515 transcodes the compressed video data to a format suitable for the portable media player . a multiplexer 630 multiplexes the audio and video data during transfer . in certain embodiments of the present invention , the multiplexer 630 can comprise a transport processor . referring now to fig7 , there is illustrated a flow diagram for transferring data to a portable media player in accordance with an embodiment of the present invention . at 705 , the monitor 105 receives decompressed video and audio data . at 710 and 712 , the decompressed video and audio data are presented and encoded . the decompression and presentation of the video and audio data generally can be contemporaneous with respect to each other . at 715 , the memory stores the encoded data . at 720 , the monitor detects that the portable media player 110 is connected , either electrically , or wirelessly , to the monitor 105 . upon detection , the monitor 625 transfers the data to the portable media player . the systems as described herein may be implemented as a board level product , as a single chip , application specific integrated circuit ( asic ), or with varying levels of the systems integrated with other portions of the system as separate components . the degree of integration of the decoder and encoder system will primarily be determined by the speed and cost considerations . because of the sophisticated nature of modern processors , it is possible to utilize a commercially available processor , which may be implemented external to an asic implementation . alternatively , if the processor is available as an asic core or logic block , then the commercially available processor can be implemented as part of an asic device wherein various operations are implemented in firmware . while the invention has been described with reference to certain embodiments , it will be understood by those skilled in the art that various changes may be made and equivalents may be substituted without departing from the scope of the invention . in addition , many modifications may be made to adapt particular situation or material to the teachings of the invention without departing from its scope . therefore , it is intended that the invention not be limited to the particular embodiment ( s ) disclosed , but that the invention will include all embodiments falling within the scope of the appended claims .