Echostar Technologies L.l.c.

Dish Technologies L.l.c.

Nagrastar LLC

Dish Network L.l.c.

Echostar Technologies International Corporation

Echostar Technologies Corporation

Echostar Corporation

Nagrastar, L.l.c.

Other

Disk Network L.l.c.

Nagravision S.a.

William Michael Beals

David A Kummer

Henry Gregg Martch

Hervé Goupil

Nicolas Fischer

Benjamin Brian Ellis

Gregory Duval

Steven Michael Casagrande

Michael T Dugan

John Hamrick

Jerome A LaPalme

Charlie William Zetterower

Alistair Ian Chatwin

David Innes

Daniel L Rudolph

Mark Gomez

Charles W Ergen

Adam C Morzos

Kenneth Robert Hodge

Gopi K Manne

Max Stephen Gratton

Jeffrey McSchooler

John T Kennedy

Jerome Perrine

Mark W Jackson

Keith Gerhards

Leslie Ann Harper

Dan J Minnick

John D Hamrick, Jr

Jean-Luc Bussy

Matthew Paul Zenthoefer

Anthony George Dower, Iii

Daniel Golaz

Sébastien Erard

Philippe Mazeau

Jean Keomany

Joshua Alan Gatewood

John William Linebarger, Jr

Dave Kummer

Robert Jackson

Maurice Gerard Van Riek

Karam J Saab

Nicodemus Henry Nepper, Jr

Jan Johnson

David Kummer

Benjamin Brain Ellis

Jerome A Lapalme

A virus scanning router may manages a local network, including routing network traffic between devices on the network and routing network traffic being sent to and from such devices via an external communication system. The virus scanning router remotely scans for viruses the files stored on one or more such devices on the network. The virus scanning router may be a device trusted by the other devices on local network to facilitate the virus scanning router reading and scanning one or more files stored on such devices for viruses. The virus scanning router also takes corrective actions such as isolating the infected device or isolating an affected network zone to which the remote device belongs.

Systems and methods for a virus scanning router

A nonvolatile memory is coupled to a processor in a set top box. On the timing sequence set within the system, set top box data is transferred from the processor to the nonvolatile memory. Set top box system data includes user data and set top box specific data. The current data is maintained in the nonvolatile memory. The system data can be transferred to second memory by a wireless connection even when the set top box is not coupled to a power supply. The system data can then be provided from the second memory to any selected device, computer or location, such as another set top box, a diagnostic tool, a repair facility or other selected location.

Non-volatile memory system and method for storing and transferring set top box system data

Embodiments are directed towards remotely generating encoding metadata at a remote content distributor for use by a local user computing device. The remote content distributor receives and encodes content. During or after the encoding process, the remote content distributor generates encoding metadata that indicates how the content was encoded by the remote content distributor. The remote content distributor provides the encoding metadata to the user computer device. The user computing device receives the content and the encoding metadata and encodes the content based on the encoding metadata. The user computing device can then provide the encoded content to another computing device for decoding and presentation to a user.

Remotely generated encoding metadata for local content encoding

The present invention concerns a method for processing messages intended to allow the access to conditional access content and to a security module arranged for implementing this method. The method comprises the steps of receiving by a security module comprising at least one decryption module, a plurality of messages, these messages belonging to at least two different categories; assigning a different priority level to messages from each different category, one of said priority level being defined as high and another priority level, lower that the high priority level, being defined as the standard priority level; associating a value to the messages to which the standard priority level has been assigned; assigning at least one threshold value for the value associated with messages having a standard priority level; and comparing between the threshold value for a determined message and the value associated with said message. If no value associated with said message having standard priority level exceeds the corresponding threshold value, processing the messages according to their priority level, a message to which the high priority level has been assigned being processed before a message to which a lower priority level has been assigned, and change of the value associated with the messages having a standard priority level according to said predefined rule. If the value associated with one of said messages having a standard priority level exceeds the threshold value for the corresponding message, processing one of the messages having a standard priority level before processing a message having a higher priority level, and change of the value associated with the messages having a standard priority level according to said predefined rule.

Processing method for control messages and security module to carry out said method

Smart card interface

Various embodiments provide a dual purpose press-bar and heat sink for an integrated circuit card (ICC) reader. The dual purpose press-bar and heat sink provides two functions. First, the dual purpose press-bar and heat sink conducts and dissipates internal heat generated by a high data transfer ICC inserted in to the ICC reader. Second, the dual purpose press-bar and heat sink ensures that contact pads of the high data transfer ICC create reliable electrical connections with ICC contacts of the ICC reader. As such, the dual purpose press-bar and heat sink simultaneously dissipates heat from a high data transfer ICC and ensures that a high data transfer ICC maintains proper electrical connections with ICC contacts of an ICC reader.

Dual purpose press-bar and heat sink for high data transfer integrated circuit card reader

Described herein are systems and methods for hardware enforcement of hardware functionality in a television receiver. An activation message containing an activation code for a specific hardware component within the television receiver can be transmitted from a television service provider system to a television receiver having an associated smart card. The smart card can decrypt the activation message, security check the activation message, confirm the activation message is intended for the television receiver, encrypt the activation message with a local key, and transmit the activation message to a security processor on the television receiver. The security processor can decrypt the activation message, security check the activation message to ensure it is from the smart card and has not been tampered with, and enable the hardware component within the television receiver based on the activation code within the activation message.

Securely paired delivery of activation codes between removable and integrated security processors

Described herein are systems and methods for hardware enforcement of hardware functionality in a client television receiver. An activation message containing an activation code for a specific hardware component within the client television receiver can be transmitted from a television service provider system to a host television receiver having an associated smart card. The smart card can decrypt the activation message, identify the client television receiver as the destination of the activation message, security check the activation message, encrypt the activation message with a local key, and transmit the activation message to a security processor on the client television receiver. The security processor can decrypt the activation message, security check the activation message to ensure it is from the smart card and has not been tampered with, and enable the hardware component within the client television receiver based on the activation code within the activation message.

Secure activation of client receiver by host receiver smart card

The disclosure is directed to a network gateway device ('gateway') that provides various network management features, including a device zoning feature in which client computing devices ('client devices') connected to the gateway are assigned to different device zones. The client devices connected to the gateway form a local area network (LAN) of the gateway, and can access an external network, e.g., Internet, using the gateway. Each of the device zones has a specific set of network access privileges. Different device zones can have different network access privileges and can provide device isolation in the LAN at different degrees.

Device zoning in a network gateway device

Embodiments are directed toward locally generating a replacement spot beam signal to be combined with other orbital television signals, where the replacement spot beam signal is generated from locally received over-the-air television signals. Over-the-air television signals are received at a user's premises via an over-the-air antenna and orbital signals are received at the user's premises via a satellite antenna. The orbital signals include a spot beam signal and other orbital signals. The spot beam signal is specifically generated for the geographical area associated with the over-the-air television signals. One or more available local channels are extracted from the over-the-air television signals and are converted into the replacement spot beam signal that is a satellite-compatible signal. The replacement spot beam, instead of the original spot beam signal, is then combined with the other orbital signals and provided to a content receiver.

Locally generated spot beam replacement

Non-multimedia information may be produced from devices such as alarms, appliances, automobiles, building systems, weather stations, home automation systems, and the like. A method and devices communicate non-multimedia content via a standardized network architecture. Non-multimedia data is received from a remote device with a standardized network aliasing device. The standardized network aliasing device is able to communicate on a network that conforms, for example, to a Digital Living Network Alliance (DLNA) protocol. The non-multimedia data is formatted with the standardized network aliasing device into a standardized-format file. The standardized-format file conforms to a selected media class. The standardized-format file is exposed on the network that conforms to the DLNA protocol and communicated to a remote DLNA-enabled device that is also coupled to the network that conforms to the DLNA protocol.

Delivery of non-multimedia content via a standardized network architecture

Described herein are systems and methods for securing transmission of content from a smart card in a host television receiver to a client television receiver. The smart card can receive the encrypted content stream from the television service provider, decrypt the content stream with the global network key, identify the client television receiver as the destination of the content stream, generate a unique key specific to the content stream, encrypt the unique key with a local key known to the client television receiver, encrypt the content stream with the unique key, and transmit the encrypted content stream along with the encrypted unique key to the client television receiver. The client television receiver can then receive the encrypted content stream and the encrypted unique key, decrypt the unique key, decrypt the content stream with the unique key, and transmit the content stream to a display device of the client television receiver.

Strong authentication of client set-top boxes

Growing community of inventors

Englewood, CO, United States of America

William Michael Beals