Patent Document

CROSS-REFERENCE TO RELATED PATENT APPLICATIONS 
     This application is a continuation of copending U.S. Utility application entitled, “Home Communications Systems,” having Ser. No. 12/056,812, filed Mar. 27, 2008 and herein incorporated by reference, which is a continuation of U.S. utility application entitled, “Systems and Methods for Operating a Peripheral Record/Playback Device in a Networked Multimedia System,” having Ser. No. 10/437,556, filed May 14, 2003, now U.S. Pat. No. 7,360,235 and herein incorporated by reference, which claims priority to U.S. provisional application Ser. No. 60/418,402 filed on Oct. 15, 2002 and which is a continuation-in-part of U.S. patent application Ser. No. 10/342,670 filed Jan. 15, 2003, which claims priority to U.S. provisional application Ser. No. 60/416,155 filed Oct. 4, 2002, and which is a continuation-in-part of U.S. patent application Ser. No. 10/403,485 filed Mar. 31, 2003, which claims priority to U.S. provisional application Ser. No. 60/416,155 filed Oct. 4, 2002. Furthermore, the present application incorporates by reference in its entirety herein copending U.S. patent applications having Ser. Nos. 10/263,160; 10/263,449; and 10/263,270, which were filed on Oct. 2, 2002 and are assigned to a common assignee, the disclosures and teachings of which are hereby incorporated by reference. 
    
    
     FIELD OF THE INVENTION 
     This invention relates in general to broadband communications systems, and more particularly, to the field and functionality of a networked multimedia system having a plurality of receiving terminals and a networked peripheral device that is suitable for use in the broadband communications system. 
     DESCRIPTION OF THE RELATED ART 
     Broadband communications systems, such as satellite and cable television systems, are now capable of providing many services in addition to analog broadcast video. In implementing enhanced programming, the set-top terminal (STT), otherwise known as the set-top box, has become an important computing device for accessing various video services. In addition to supporting traditional analog broadcast video functionality, many STTs now also provide other functionality, such as, for example, an interactive program guide (IPG), video-on-demand (VOD), subscription video-on-demand (SVOD) and functionality traditionally associated with a conventional computer, such as e-mail. Recently new functionality has been added to conventional STTs—namely the ability to record an incoming video stream in digitized form onto a mass storage device, such as a hard disk drive, and play back that recorded video as desired by the user. This functionality has become known as a digital video recorder (DVR) or personal video recorder (PVR) and is viewed as a superior alternative to conventional video tape recorders for capture and subsequent playback of programming content. 
     An STT is typically connected to a communications network (e.g., a cable or satellite television network) and includes hardware and software necessary to provide various services and functionality. Preferably, some of the software executed by an STT is downloaded and/or updated via the communications network. Each STT also typically includes a processor, communication components, and memory, and is connected to a television or other display device. While many conventional STTs are stand-alone devices that are externally connected to a television, an STT and/or its functionality may be integrated into a television or other device, as will be appreciated by those of ordinary skill in the art. 
     An STT is typically connected to a television set and located at the home of the cable or satellite system subscriber. Since the STT is located at a subscriber&#39;s premises, it typically may be used by two or more users (e.g., household members). Television has become so prevalent in the United States, however, that the typical household may have two or more television sets, each television set requiring its own STT player if the subscriber wishes to have access to enhanced functionality. Additionally, each television set requires its own video cassette recorder (VCR) or digital video disc (DVD) player. However, the STTs and other peripheral devices can be expensive and users may not be willing to purchase additional devices. This is particularly true of STTs incorporating PVR functionality since such devices require not only the addition of a hard disk drive but also additional processing components and software. 
     Therefore, there exists a need for systems and methods for addressing these and/or other problems associated with STTs and peripheral devices. Specifically, there exists a need for systems and methods that allow multiple users operating discrete STTs within a networked premises or other local area to operate a central unit such as a VCR, DVD player, or other device having recording and playback functions. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       The invention can be better understood with reference to the following drawings. The components in the drawings are not necessarily drawn to scale, emphasis instead being placed upon clearly illustrating the principles of the invention. In the drawings, like reference numerals designate corresponding parts throughout the several views. 
         FIG. 1  is a simplified block diagram depicting a non-limiting example of a conventional broadband communications system. 
         FIG. 2  is a block diagram illustrating one preferred embodiment of a networked multimedia system (NMS) that is suitable for use in the broadband communications system of  FIG. 1 . 
         FIG. 3  is a simplified diagram of one preferred embodiment of a remote set-top terminal (STT) device that is suitable for use in the NMS of  FIG. 2 . 
         FIG. 4  depicts a networked system, such as shown in  FIG. 2 , including a networked peripheral device that can be operated from any of the receiving devices. 
         FIG. 5  illustrates a block diagram of the interaction between the primary STT and the peripheral device of  FIG. 4 . 
         FIG. 6  is an example of a networked peripheral device (NPD) listing that includes, for example, manufacturers and models for a variety of consumer electronics (e.g., VCR, DVD player, MP3 player, etc.). 
         FIG. 7  is an example of an interactive program guide including a channel for the networked peripheral device (NPD) menu (i.e., Toshiba DVD menu). 
         FIG. 8  illustrates an example of the NPD screen that the user may use from any of the receiving devices in order to control the networked peripheral device. 
     
    
    
     DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS 
     Preferred embodiments of the invention can be understood in the context of a broadband communications system and a local network system. Note, however, that the invention may be embodied in many different forms and should not be construed as limited to the embodiments set forth herein. For example, transmitted broadband signals may include at least one of video/audio, telephony, data, and Internet Protocol (IP) signals, to name but a few. Additionally, receiving devices (i.e., a primary device and a plurality of remote devices) included in a local network system receiving the transmitted broadband signals may include a set-top terminal (STT), a television, a computer, a personal digital assistant (PDA), or other device. Furthermore, a networked peripheral device is explained in the context of a VCR or DVD player, but it is envisioned that the peripheral device can be an advanced record/playback device, such as a digital camcorder or an MP3 player. All examples given herein, therefore, are intended to be non-limiting and are provided in order to help clarify the description of the invention. 
     The present invention is directed towards a networked multimedia system including a networked peripheral device, such as a record/playback device, that can be shared among a plurality of receiving devices. Briefly, the peripheral device is preferably connected to the primary device and, advantageously, operated from any receiving device in the network. It will be appreciated, however, that the peripheral device can also be connected to any of the remote devices and shared among all receiving devices in the network. Accordingly, a user only needs to purchase one main peripheral device that can be operated from each receiving device in the network as if the peripheral device is collocated with each receiving device. 
     A networked multimedia system (NMS) is described in copending U.S. patent application Ser. No. 10/342,670, filed Jan. 15, 2003, the disclosure and teachings of which are hereby incorporated by reference. As taught therein, the NMS is typically located within a subscriber&#39;s premises. It will be appreciated, however, that the NMS can also be used in a multi-unit dwelling, business, school, hotel, or hospital, among others. Advantageously, the NMS allows a plurality of receiving devices in the premises to be locally networked (i.e., home-networked). One of the receiving devices typically acts as the server or primary device (i.e., the primary set-top terminal (STT)). The primary STT receives and forwards upon request broadband multimedia presentations (e.g., analog or digital television channels (i.e., audio/video signals), IP signals, video-on-demand (VOD) signals, administrative signals, etc.) throughout the local network to the plurality of remote devices (i.e., client devices). Furthermore, the remote devices may each request of and seamlessly receive from the primary STT resident presentations (e.g., a stored or recorded presentation, or the interactive program guide) and/or request access to a peripheral device (e.g., a VCR or DVD player) that may be connected to the primary STT or, alternatively, to any one of the remote devices, for example. Additionally, the remote devices may independently receive presentations from and send upstream signals to the communications network. Accordingly, the remote devices may be simplified, less-costly versions of the primary STT but are capable of utilizing, via the NMS, some or all of the advanced hardware and software features, such as memory, a mass storage device, software applications, or infrastructure for transmitting signals to coupled devices and the headend, that are available in the primary STT. 
     An Example of a Broadband Communications System 
       FIG. 1  is a simplified block diagram depicting a non-limiting example of a conventional broadband communications system  100 . In this example, the communications system  100  includes a headend  110  that is coupled to a local network (LN)  101  via a communications network (CN)  130 . The CN  130  may be any network that is suitable for carrying, preferably downstream and upstream, broadband multimedia signals, such as audio/video signals, IP signals, telephony signals, or data signals to name but a few. The CN  130  may be, for example, a hybrid fiber/coax (HFC) network, a fiber-to-the-home (FTTH) network, a satellite network, or a fixed wireless network (e.g., MMDS), among others. 
     The headend  110  may include one or more server devices (not shown) for providing broadband signals, such as video, audio, and/or data signals, to the STT  105  via the CN  130 . The headend  110  and the STT  105  cooperate to provide a user with a variety of services. The services may include, for example, analog or digital broadcast television services and channels, video-on-demand (VOD) services, and/or pay-per-view (PPV) services, among others. Each broadcast television channel typically provides a sequence of television presentations corresponding to a television station (e.g., ABC, NBC, CBS, or FNN, to name a few) and is typically identified by a channel number (e.g., channel  2 , channel  3 , channel  4 , etc.) that is available to a user at all times. Additionally, PPV services are typically transmitted to the STT  105  at all times, but can only be viewed on the STT  105  as provisioned. On the other hand, the STT  105  typically requests a VOD service and, in response, the headend  110  transmits the presentation downstream to the STT  105 . 
     The LN  101  includes a set-top terminal (STT)  105  that provides the broadband signals to remote devices  140 - 1  and  140 - 2 , and, optionally, to additional remote devices including, for example, remote device  140 - 3 . The STT  105  may be coupled to the remote devices either directly or via one or more other devices. It will be appreciated that the STT  105  may be a stand-alone unit or may be integrated into another device, such as, for example, a television or a computer. Additionally, the remote devices may be located in different rooms than where the STT  105  is located. Further information regarding the LN  101  is provided in copending U.S. patent application Ser. Nos. 10/263,160; 10/263,270; and 10/263,449, which were filed on Oct. 2, 2002, the disclosure and teachings of which are hereby incorporated in their entirety by reference. 
     A Preferred Embodiment of the Networked Multimedia System (NMS) Including a Networked Peripheral Device 
       FIG. 2  is a block diagram illustrating one preferred embodiment of the NMS  200  that is suitable for use in the broadband communications system of  FIG. 1 . The NMS  200  includes a primary STT  205 , a splitter/isolator module (SIM)  210 , and a plurality of remote devices  215 - n . Briefly, the SIM  210  receives downstream broadband signals from, for example, a headend or satellite and subsequently provides the downstream signals to the primary STT  205  or to both the primary STT  205  and any one or all of the plurality of remote devices  215 - n  depending on the implementation. Upon command from at least one of the remote devices  215 - n , the primary STT  205  may also forward selected real-time downstream signals and/or stored content signals to the requesting remote device(s)  215 - n  via the SIM  210 . More specifically, the plurality of remote devices  215 - n  communicates with the primary STT  205  by sending reverse control/command signals via coaxial cable  220 ,  221 - n  requesting, for example, stored presentations, real-time signals, or an interactive guide. It will be appreciated that other wired mediums, such as telephone lines or data cables, may be used so long as the transport format accommodates the desired transmission medium. Advantageously, in accordance with the present invention, the plurality of remote devices  215 - n  have access to all of the primary STT&#39;s hardware and software functionality, along with receiving downstream signals directly from the headend via the SIM  210 . In this manner, the remote devices  215 - n  may have limited resources, such as not including a storage device or a connected record/playback device, thereby decreasing the overall costs to the service provider and the subscriber while offering advanced services to all of the remote devices that are networked to the primary STT  205 . 
       FIG. 2  also illustrates a simplified, non-limiting block diagram of selected components of the primary STT  205  in accordance with one preferred embodiment of the present invention. In other embodiments, a primary STT  205  may include only some of the components shown in  FIG. 2 , in addition to other components that are not shown. Importantly, however, the primary STT  205  includes a processor  230 , a tuner system  235 , a storage device  240 , a modulator  245 , and a remote device communications receiver  250 . In operation, downstream signals (i.e., signals typically ranging from 45 MHz to 850 MHz) are transmitted via the SIM  210  to a low pass filter in diplex filter  255 , which provides the downstream signals to the tuner system  235 . A plurality of tuners (not shown) included in the tuner system  235  are used to tune to frequency ranges that include content signals indicative of presentations, such as an analog or digital television channel, a PPV event, a VOD presentation, etc. For example, a VOD presentation may, in response to a user request, be received from the headend in the frequency range around 755 MHz, which corresponds to a particular television channel, such as channel  210 . The user, therefore, selects the television channel  210  and, in response, a tuner in the tuner system  235  tunes to the frequency range around 755 MHz and extracts the received VOD presentation&#39;s content signals. Depending upon the implementation, the tuned VOD presentation is then provided to a viewing display  225  for viewing, the storage device  240  for storing, and/or the modulator  245  for modulating and subsequent transmission to the plurality of remote devices  215 - n . Additionally, the user may wish to record the presentation using a peripheral device, such as a VCR. 
     In the event that a remote device  215 - n , upon user input, requests a presentation from the primary STT  205 , a reverse command signal is transmitted from the remote device  215 - n  to the primary STT  205  via the SIM  210 . The remote device command receiver  250  receives and demodulates the command signal according to its transmission method, such as frequency-shift keying (FSK) or on-off keying (OOK) transmission. The processor  230  subsequently receives the demodulated command signals indicative of the requested action (e.g., requesting a presentation) and in accordance therewith instructs the tuner  235  to tune to, for example, a channel carrying a real-time downstream signal, or the processor may retrieve a stored presentation from the storage device  240 . The presentation&#39;s content signals are then provided to the modulator  245 , which modulates the selected presentation prior to forwarding to the SIM  210 . A preferred embodiment of the present invention uses a quadrature amplitude modulation (QAM) modulator, which may be used for effectively transmitting signals over coaxial cable in a cable television environment. Other embodiments may include a quadrature phase-shift keying (QPSK) modulator in a satellite environment, an 8VSB (8-vestigial sideband) modulator in a digital terrestrial environment in the U.S., and a COFDM (coded orthogonal frequency division multiplexing) modulator in a digital terrestrial environment in Europe, or alternatively an analog modulator. 
     The modulated presentation is up-converted to a predetermined higher frequency, which is preferably greater than the highest frequency used in the communications network  130  ( FIG. 1 ), with, for example, a UHF converter  260 . In other words, the selected presentation is up-converted to a high frequency channel, such as channel  134 , which may have a frequency range from 852 MHz to 858 MHz. It will be appreciated that other frequency ranges can be used, however, so long as the predetermined frequency is within the range that is tunable by the plurality of remote devices  215 - n . In this example, the service provider would provide downstream signals in the range from 45 MHz to approximately 840 MHz. Accordingly, the up-converted signals at around 855 MHz would not interfere with the downstream signals that are concurrently provided via the common coax  220 ,  221 - n  to the primary STT  205  and the remote devices  215 - n . The up-converted presentation is subsequently provided to the SIM  210  via a high pass filter in the diplex filter  255 . 
     Furthermore,  FIG. 2  illustrates a block diagram of a SIM  210  that comprises passive splitter/isolation components in accordance with the present invention. More specifically, a band reject filter (BRF)  265  rejects the frequencies (e.g., from 852 MHz to 858 MHz) of the selected NMS presentation, thereby not allowing the presentation to leave the NMS  200  and enter the communications network  130 . It will be appreciated, therefore, that the NMS presentation is reflected off the BRF  265  and routed to a splitter  270  for transmission to the plurality of remote devices  215 - n . A high pass filter (HPF)  275  is included to ensure that the reverse command signals provided by the plurality of remote devices  215 - n  are reflected and routed to the primary STT  205  and similarly not transmitted to the communications network  130 . It will be appreciated that, if there are significant internal power losses, an amplifier (not shown) can also be included to amplify the downstream signals as necessary. 
       FIG. 3  is a simplified diagram of one preferred embodiment of a remote STT device  215 - n  that is suitable for use in the NMS of  FIG. 2 . It will be appreciated that the remote device  215 - n  may be identical to the primary STT  205  and just share the storage device contents and connected peripherals of the primary STT  205 . Alternatively, the remote devices  215 - n  may be a simplified or conventional version of the primary STT  205 . A processor  305  and a tuner system  310 , which may be a simplified processor and only one tuner, may be included to extract channels from the received downstream broadband signals. Additionally, decryptors and decoders (not shown) may be included to decode encoded signals for proper processing and display. The remote devices  215 - n  may also include a user input receiver  315 , such as an IR receiver or an RF receiver, that receives signals from a remote control  320 , such as an IR remote control or an RF remote control, but is not required. 
     The reverse command signals, which typically originate from user input commands (e.g., tuned channels, NMS functions such as access to peripheral devices, IPG display, etc.), are transmitted via the coaxial cable  221 - n  that are routed between the remote devices  215 - n  and the SIM  210 . It will be appreciated that though the coaxial cables  221 - n  are shown as separate cables, a common coaxial cable can be used tying the remote devices  215 - n  together so long as the processor  305  of each networked remote device  215 - n  is configured to understand and reject other remote device&#39;s reverse command signals. A preferred embodiment of the present invention processes and transmits the reverse command signals that are indicative of user input commands using frequency shift keying (FSK) and utilizes existing components that are typically included in a conventional remote set-top terminal. More specifically, a QPSK modulator (not shown) is typically included in the upstream transmitter  325  for modulating conventional upstream signals, which are signals typically ranging from 5 MHz to 40 MHz, for transmission to the headend and, in accordance with the present invention, for modulating the reverse command signals, which are signals typically at a frequency around 2.5 MHz, that are routed throughout the NMS  200 . Accordingly, the QPSK modulator has an adjustable tuning frequency that modulates the reverse command signals and the upstream signals to a different frequency. In this manner, the reverse command signals do not interfere with conventionally transmitted upstream signals that may be provided by the remote devices  215 - n . According to the preferred embodiment, the remote device command receiver  250  includes an FSK demodulator for demodulation. It will be appreciated, however, that the reverse command signals may alternatively be transmitted using, for example, on-off keying (OOK) or any other serial data transmissions, and the command receiver  250  can include any demodulator that is in accordance with the reverse command signal transmission used. After demodulation, the command receiver  250  sends signals indicative of the reverse command signal, such as, for example, requesting a recorded programs list, to the processor  230  for processing accordingly. 
       FIG. 4  depicts a networked system  400  including a networked peripheral device  405  that can be operated from any of the receiving devices  410 ,  215 - n  in accordance with the present invention. Preferably, along with the primary device  410 , the remote devices  215 - n  access and operate the peripheral device&#39;s functionality and subsequently receive the media presentation from the peripheral device via the primary device  410  and the network  400 . More specifically, upon user input, the remote devices  215 - n  send reverse command signals indicative of control operations, such as selecting a disc that may be included in a high disc capacity DVD player and play, pause, stop, fast-forward, and rewind commands that may operate the peripheral device  405 . Additionally, a user may send reverse command signals requesting the peripheral device  405  to record a selected downstream signal that is received at the primary device  410 . Alternatively, a user may manually turn on and play the media presentation signals in the peripheral device  405 . The primary device  410  can then broadcast the media presentation signals to the plurality of remote devices  215 - n . Each remote device  215 - n  simply tunes to the modulated channel and begins receiving and presenting the media presentation signals to a connected viewing display (not shown). Notably, however, except for the physical act of inserting a media presentation, such as a cassette or a disc, into the peripheral device  405 , all other commands can be performed by each of the remote devices  215 - n . In other words, the remote devices  215 - n  operate the peripheral device  405  as if it were directly connected to each remote device  215 - n . Furthermore, the remote devices  215 - n  that are not communicating with or receiving signals from the peripheral device  405  can concurrently receive content signals from the communications network  130  or modulated signals from the primary device  410 . 
       FIG. 5  illustrates a block diagram of the interaction between the primary device  410  and the peripheral device  405 . It will be appreciated that the peripheral device cables, such as power cables, audio/video cables, etc., may be connected to the primary device  410  and the viewing display  225  in a known manner. In the preferred embodiment, an infrared (IR) cable  505  is connected via an IR connector to an IR port  510  on the primary device  410 . On the opposite end of the cable  505 , an IR emitter  515  is located in close proximity to an IR sensor  520 , which is located on the outside of the peripheral device  405 . It will be appreciated that the IR sensor  520  is typically included on any consumer electronics device that can be operated by a remote control. Accordingly, IR signals that are indicative of control functions (e.g., play, pause, fast-forward, rewind, record, etc.) are transmitted from the primary device  410  to the peripheral device  405 . 
       FIG. 6  is an example of a networked peripheral device (NPD) listing  600  that includes, for example, manufacturers and models for a variety of consumer electronics (e.g., VCR, DVD player, MP3 player, camcorder, etc.). Prior to control of the peripheral device  405 , a user selects the coupled peripheral device  405  from the list  600  that is stored in the primary device  410 . Once selected, the processor  230  is updated to include the peripheral device&#39;s specifications in order to transmit appropriate commands. A preferred embodiment is to access the peripheral device listing  600  by, for example, selecting a “Settings” button on the remote control or a “Settings” menu on the interactive program guide (IPG). The manufacturer and model of the peripheral device  405  is selected from the list  600  of stored models and then saved for future access by the processor  230 . By way of example, the user can implement the arrows  610  via the remote control until the correct manufacturer is highlighted. In this case, the user can then select, for example, a Toshiba DVD player  615 . 
       FIG. 7  is an example of an interactive program guide  700  including a channel for the networked peripheral device (NPD) screen (e.g., Toshiba DVD screen)  715 . Notably, the interactive program guide  700  can be updated via the processor  230  to include the selected manufacturer of the peripheral device  405  that can subsequently be accessed by all remote devices  215 - n . By way of example, in accordance with the present invention, the primary device  410  receives reverse command signals from one or a plurality of remote devices  215 - n  indicating a request for the IPG  700 . From the IPG  700 , a user can subsequently select the NPD screen  715  that may display operating commands for the device  405 , among other listings associated with the particular peripheral device  405 . For example, the screen may also include the title(s) of the cassette or disc, if programmed into the processor  230 , that is currently installed or playing in the peripheral device  405 . 
       FIG. 8  illustrates an example of the NPD screen  800  that the user may use from any of the receiving devices  410 ,  215 - n  in order to control the networked peripheral device  405 . From the NPD screen  800 , the user may select a disc in the case where there are numerous discs in a DVD player, for example, and choose to play the selected presentation. Furthermore, additional operating options on the screen may include play, pause, fast-forward, stop, etc. Alternatively, the remote control may include buttons representing play, stop, record, etc. In this case, the remote device  215 - n  can be programmed to accept these operations directly from the remote control and send reverse command signals accordingly. The remote device  215 - n  sends the selected reverse command signal that is indicative of the operating command to the primary device  410 . Subsequently, the remote device command receiver  250  ( FIG. 4 ) and the processor  230  process the signals according to the selection. An appropriate IR signal is then provided from the processor  230  via the IR port  510  to the sensor  520 . Further information regarding a multi-room interactive program guide can be found in co-pending U.S. patent application attorney docket A-8621, filed on Mar. 31, 2003, the disclosure and teachings of which are hereby included by reference. 
     Referring again to  FIG. 5 , a peripheral processor  525  receives the IR signals indicating the requested command signals and provides operating signals accordingly. A media presentation device  530  receives the operating signals and, for example, reads and transmits the media presentation signals that have been recorded onto a media presentation (e.g., a cassette, disc, or hard-drive). If the media presentation signals have been digitally compressed and stored on, for example, a disc, the digitally compressed signals are typically provided to an MPEG decoder  535 . More specifically, in accordance with certain copyrights that have been obtained by, for example, movie producers, the media presentation signals must be decoded to an analog or NTSC (National Television Standards Committee) signal. In this manner, an MPEG decoder  535  decodes the media presentation and provides the analog signals via an output port  540  of the peripheral device  405  to an input port  545  of the primary device  410 . Furthermore, when an analog signal is received from the peripheral device  405 , an analog to digital converter (ADC) digitizes the analog signal and an encoder  550  (e.g., an MPEG (Moving Pictures Experts Group encoder) subsequently encodes, or digitally compresses, the analog signal for transmission throughout the network system  400 . 
     It is envisioned that the peripheral device  405  can provide signals in any format. For example, the primary device  410  may receive signals in an analog video format (including standard definition and high definition), uncompressed digital video (including DVI, and HDMI), and compressed digital video (MPEG-2 or DV (digital video)), for example. The primary device  410  distinguishes the signal format by the connector that connects the peripheral device  405  with the primary device  410 . By way of example, analog signals use a baseband or high-definition input port (e.g., connector  545 ). A DVI (digital video interface) connector  555  carries uncompressed digital video. Furthermore, a Firewire connector (IEEE 1394)  560  conveys compressed digital video (in either MPEG-2 or DV format). The primary device  410  can, therefore, use the connector type information to determine whether the incoming video needs to be digitized and/or compressed. Additionally, the processor  230  has access to the Firewire connector  360  and understands that the incoming signals are compressed digital signals. Once the signals are available in compressed digital format, the signals are transmitted to the modulator  245  for modulation or the storage device  240  for storage. 
     Subsequently, the modulator  240  modulates the media presentation signals and the UHF converter  260  converts the signals to a higher frequency. The signals are then provided to the SIM  210  for routing to the remote device  215 - n . Additionally, the user may wish to store the media presentation signals on the storage device  240 . Accordingly, the reverse command signals are processed and the processor  230  instructs the media presentation signals to be routed to the storage device  240 . Further information regarding the storage device  240  and routing stored media presentation signals to any one or more remote devices  215 - n  is detailed in copending U.S. patent application Ser. No. 10/342,670 filed on Jan. 15, 2003. 
     Accordingly, systems and methods have been provided that allow remote devices in a network operate a networked peripheral device. In other words, a user need only purchase one peripheral device that can be used from any device in the network. It should be emphasized that the above-described embodiments of the invention are merely possible examples, among others, of the implementations, setting forth a clear understanding of the principles of the invention. Many variations and modifications may be made to the above-described embodiments of the invention without departing substantially from the principles of the invention. All such modifications and variations are intended to be included herein within the scope of the disclosure and invention and protected by the following claims. In addition, the scope of the invention includes embodying the functionality of the preferred embodiments of the invention in logic embodied in hardware and/or software-configured mediums.

Technology Category: h