Abstract: A memory module including a memory array of storage transistors and a control circuit where the control circuit includes a memory interface for providing high bandwidth access to the memory array on serial data lanes. In some embodiments, the control circuit of a memory module includes multiple transceivers for connecting to serial data lanes. In one embodiment, the memory interface of a memory module configures some transceivers for host connection or for upstream connection to an upstream memory module and configures other transceivers for downstream connection to a downstream memory module. In other embodiments, a multi-module memory device is formed using multiple memory modules connected in a cascade configuration or in a star configuration to provide high bandwidth memory access to all memory locations of the multiple memory modules using the given number of serial data lanes of the host connection.

Abstract: A memory module including a memory array of storage transistors and a control circuit where the control circuit includes a memory interface for providing high bandwidth access to the memory array on serial data lanes. In some embodiments, the control circuit of a memory module includes multiple transceivers for connecting to serial data lanes. In one embodiment, the memory interface of a memory module configures some transceivers for host connection or for upstream connection to an upstream memory module and configures other transceivers for downstream connection to a downstream memory module. In other embodiments, a multi-module memory device is formed using multiple memory modules connected in a cascade configuration or in a star configuration to provide high bandwidth memory access to all memory locations of the multiple memory modules using the given number of serial data lanes of the host connection.

Abstract: Disclosed herein are mobile devices that are configured to send data to a memory station and to be charged by that same memory station. The mobile device receives a trigger signal from the memory station responsive to the beginning of a charge cycle, the trigger signal indicating to the mobile device to initiate the backup process. The disclosed systems and methods include starting a backup application on the mobile device responsive to the trigger signal. The trigger signal is generated and transmitted wirelessly by the memory station responsive to the memory station detecting the beginning of a charging cycle. In this way, the mobile device can automatically execute a backup program or application without user intervention.

Abstract: To authorize a transaction between a host and a server, a token is operationally connected to the host. The host receives an identification credential of a user. The identification credential is verified by the token and/or by the server. If the token detects a prescribed human action, the token generates token authentication data and the host sends the token authentication data to the server. Upon receiving the authentication data, the server authenticates the transaction. A device for authenticating a transaction includes a device interface for interacting with a host, a connector for reversibly operationally connecting the device to the host, and a controller that authenticates the transaction only once, contingent on detecting a prescribed anonymous human action. One such human action is providing one or more inputs at the host's user interface synchronously with outputs at the device's user interface.

Abstract: Disclosed herein are mobile devices that are configured to send data to a memory station and to be charged by that same memory station. The mobile device receives a trigger signal from the memory station responsive to the beginning of a charge cycle, the trigger signal indicating to the mobile device to initiate the backup process. The disclosed systems and methods include starting a backup application on the mobile device responsive to the trigger signal. The trigger signal is generated and transmitted wirelessly by the memory station responsive to the memory station detecting the beginning of a charging cycle. In this way, the mobile device can automatically execute a backup program or application without user intervention.

Abstract: Disclosed herein are memory stations that are configured to charge a mobile device, to receive data for storage from the mobile device, and to transmit a trigger signal to the mobile device responsive to the beginning of a charge cycle to initiate the backup process. The disclosed systems and methods include starting a backup application on a mobile device responsive to a trigger signal. The trigger signal is generated and transmitted wirelessly by a memory station responsive to the memory station detecting the beginning of a charging cycle. In this way, the mobile device can automatically execute a backup program or application without user intervention. The disclosed memory stations and related methods beneficially enable seamless data backup while charging a mobile device. This can be accomplished with no user intervention.

Abstract: Disclosed herein are memory stations that are configured to charge a mobile device, to receive data for storage from the mobile device, and to transmit a trigger signal to the mobile device responsive to the beginning of a charge cycle to initiate the backup process. The disclosed systems and methods include starting a backup application on a mobile device responsive to a trigger signal. The trigger signal is generated and transmitted wirelessly by a memory station responsive to the memory station detecting the beginning of a charging cycle. In this way, the mobile device can automatically execute a backup program or application without user intervention. The disclosed memory stations and related methods beneficially enable seamless data backup while charging a mobile device. This can be accomplished with no user intervention.

Abstract: A portable device may perform a method that includes detecting that the portable device is coupled to a host device via a host interface of the portable device. The method includes generating a visual indication at a visual indicator of the portable device. The visual indication is indicative of a data transfer capacity of the host interface.

Abstract: A wireless charging device includes a wireless transmitter with an electromagnetic emitting portion. The wireless charging device also includes a seat having a surface and at least one protrusion from the surface. The seat accommodates at least one wireless power receiving device. The seat has an active area that contains the electromagnetic emitting portion. The at least one protrusion is configured as a guide for two sides of the at least one wireless power receiving device for placement over the active area. The placement of the at least one wireless power receiving device over the active area enables transferring of power to the at least one wireless power receiving device.

Abstract: A portable device may perform a method that includes detecting that the portable device is coupled to a host device via a host interface of the portable device. The method includes generating a visual indication at a visual indicator of the portable device. The visual indication is indicative of a data transfer capacity of the host interface.

Abstract: Methods, apparatus, systems and devices for facilitating transfer of a remote session from a first user terminal to a second user terminal are disclosed herein. According to one example, the transferred remote session is a telephone call session. According to another example, the transferred remote session is a session of a rights-enabled remote on-demand service—for example, a service where on demand media content is remotely provided or an interactive game service. In some embodiments, data indicative of usage rights for the remote service is transferred from the first to the second user terminal. In some embodiments, in order to transfer the session between the first terminal and second terminal, the user terminals are brought in proximity or into contact, and data indicative of the session is sent via a short-range communications channel, for example a short-range contact or ‘wired’ channel, or a short-range wireless link, for example, a Bluetooth or infrared link.

Abstract: A method performed in a wireless power transfer receiver includes determining whether a power transfer rate of the wireless power transfer receiver is at or above a threshold. The method further includes, in response to the power transfer rate being at or above the threshold, alternating between a power receiving mode and a non-power receiving mode in the wireless power transfer receiver. The wireless power transfer receiver being in the non-power receiving mode increases an amount of transmitted power that is available to be received by one or more other wireless power transfer receivers.

Abstract: A wireless charging device includes a wireless transmitter with an electromagnetic emitting portion. The wireless charging device also includes a seat having a surface and at least one protrusion from the surface. The seat accommodates at least one wireless power receiving device. The seat has an active area that contains the electromagnetic emitting portion. The at least one protrusion is configured as a guide for two sides of the at least one wireless power receiving device for placement over the active area. The placement of the at least one wireless power receiving device over the active area enables transferring of power to the at least one wireless power receiving device.

Abstract: A portable storage device including a microprocessor and a secure user data area, the microprocessor operable to perform on-the-fly encryption/decryption of secure data stored on the storage device under a user password, the microprocessor also operable to exclude access to the secure user data area unless the user password is provided.

Abstract: A storage device, host device, and method are provided for using a common digital rights management (DRM) module to enforce an association between content and a user interface application. In one embodiment, a storage device is provided with a DRM module that receives a request from a user interface application to play back content protected by DRM. The DRM module determines if the user interface application is authorized to play back the content and also if rights associated with the content are valid. If the DRM module determines both that the user interface application is authorized to play back the content and that the rights associated with the content are valid, the DRM module provides the content to a playback module for playback. In another embodiment, the DRM module is located in the host device. Other embodiments are possible, and each can be used alone or in combination.

Abstract: A data storage device that can be reversibly associated with one or more of a plurality of hosts. A “trusted” host on which the device is mounted is allowed access to a secure data area of the device automatically, without the user having to enter a password. Ways in which a host is designated as “trusted” include storing the host's ID in a trusted host list of the device, storing a representation of the host's ID that was encrypted using a trust key of the device in a cookie in the host, or storing a storage password of the device in a password list of the host. Alternatively, an untrusted host is allowed access to the secure data area if a user enters a correct user password.

Abstract: A method includes exchanging information between a local web-server of a local storage device and a remote web-server through a network. The exchange of the information is initiated autonomously by the local storage device upon a determination by the local web server that the information is not stored at the local storage device.

Abstract: A data-processing system includes a storage device for running a local web-server residing in the storage device; a host device for connecting to the storage device; and an exchanging mechanism, residing in the host device, for exchanging information autonomously between the local web-server and a remote web-server connected to the host device. Preferably, the local web-server serves a host application, upon a host-application request for information when the local web-server cannot obtain the information, by retrieving the information autonomously from the remote web-server via an LWSA. Preferably, the exchanging mechanism exchanges data packets between the local web-server and the remote web-server. Preferably, the storage device initiates the exchanging of the information upon indication of available bandwidth for network communication.

Abstract: A portable storage device including a microprocessor and a secure user data area, the microprocessor operable to perform on-the-fly encryption/decryption of secure data stored on the storage device under a user password, the microprocessor also operable to exclude access to the secure user data area unless the user password is provided.

Abstract: A method performed in a wireless power transfer receiver includes determining whether a power transfer rate of the wireless power transfer receiver is at or above a threshold. The method further includes, in response to the power transfer rate being at or above the threshold, alternating between a power receiving mode and a non-power receiving mode in the wireless power transfer receiver. The wireless power transfer receiver being in the non-power receiving mode increases an amount of transmitted power that is available to be received by one or more other wireless power transfer receivers.