Abstract: A spacecraft computing system, including: a first processor configured to process data from a payload and a first spacecraft system; a second processor configured to process data from a second spacecraft system; an interface connected to the second processor configured to interface with a third spacecraft system, wherein the second processor is configured to monitor the first processor and to initiate the recovery of the first processor when the first processor experiences a fault, wherein the first processor's processing capacity is greater the second processor's processing capacity, and wherein the second processor is more reliable than the first processor.

Abstract: A method for managing vulnerability data may include: (1) ingesting, by a data ingestion engine, vulnerability data from a plurality of sources; (2) normalizing, by a data normalizer module, the vulnerability data into a plurality of data records; (3) generating, by a data processing module, a dynamic risk score for each data record; (4) storing, by a risk record register, a risk record for each data record, wherein the risk record may include the dynamic risk score, a priority level, an identifier for a software application, and a software dependency; (5) selecting, by a control policy selection engine, a control policy based on one of the dynamic risk scores; (6) implementing, by the risk record register, the selected control policy; (7) monitoring, by the risk record register, implementation of the control policy; and (8) updating, by the risk record register, the control policy selection engine based on the monitoring.

Abstract: A method for managing vulnerability data may include: (1) ingesting, by a data ingestion engine, vulnerability data from a plurality of sources; (2) normalizing, by a data normalizer module, the vulnerability data into a plurality of data records; (3) generating, by a data processing module, a dynamic risk score for each data record; (4) storing, by a risk record register, a risk record for each data record, wherein the risk record may include the dynamic risk score, a priority level, an identifier for a software application, and a software dependency; (5) selecting, by a control policy selection engine, a control policy based on one of the dynamic risk scores; (6) implementing, by the risk record register, the selected control policy; (7) monitoring, by the risk record register, implementation of the control policy; and (8) updating, by the risk record register, the control policy selection engine based on the monitoring.

Abstract: A method for managing vulnerability data may include: (1) ingesting, by a data ingestion engine, vulnerability data from a plurality of sources; (2) normalizing, by a data normalizer module, the vulnerability data into a plurality of data records; (3) generating, by a data processing module, a dynamic risk score for each data record; (4) storing, by a risk record register, a risk record for each data record, wherein the risk record may include the dynamic risk score, a priority level, an identifier for a software application, and a software dependency; (5) selecting, by a control policy selection engine, a control policy based on one of the dynamic risk scores; (6) implementing, by the risk record register, the selected control policy; (7) monitoring, by the risk record register, implementation of the control policy; and (8) updating, by the risk record register, the control policy selection engine based on the monitoring.

Abstract: A wirelessly operable cooking appliance for cooking food products includes a wireless communication device. A computing device, such as a smartphone, can wirelessly communicate with the cooking appliance to control and monitor the cooking appliance.

Abstract: A wirelessly operable cooking appliance for cooking food products includes a wireless communication device. A computing device, such as a smartphone, can wirelessly communicate with the cooking appliance to control and monitor the cooking appliance.

Abstract: A method for managing vulnerability data may include: (1) ingesting, by a data ingestion engine, vulnerability data from a plurality of sources; (2) normalizing, by a data normalizer module, the vulnerability data into a plurality of data records; (3) generating, by a data processing module, a dynamic risk score for each data record; (4) storing, by a risk record register, a risk record for each data record, wherein the risk record may include the dynamic risk score, a priority level, an identifier for a software application, and a software dependency; (5) selecting, by a control policy selection engine, a control policy based on one of the dynamic risk scores; (6) implementing, by the risk record register, the selected control policy; (7) monitoring, by the risk record register, implementation of the control policy; and (8) updating, by the risk record register, the control policy selection engine based on the monitoring.

Abstract: A wirelessly operable cooking appliance for cooking food products includes a wireless communication device. A computing device, such as a smartphone, can wirelessly communicate with the cooking appliance to control and monitor the cooking appliance.

Abstract: A transferable value or rights system where the value or rights can be passed from entity to entity as required and is protected by a validation database that enables validation of the current state of both pockets and unspent tokens or coins.

Abstract: A wirelessly operable cooking appliance for cooking food products includes a wireless communication device. A computing device, such as a smartphone, can wirelessly communicate with the cooking appliance to control and monitor the cooking appliance.

Abstract: A transferable value or rights token where the value or rights can be passed from entity to entity as required in a secure fashion. The value or rights passed in the tokens is held by the users in pockets directed by means of a controller device. The tokens are anonymous but the users need to be authenticated in order to gain access to their pockets. The tokens can be stored off-line and passed between users as required at which point the final receiver can go on-line to load or verify the token.

Abstract: A wirelessly operable slow cooker for cooking food products includes a wireless communication device. A computing device, such as a smartphone, can wirelessly communicate with the slow cooker to control and monitor the slow cooker.

Abstract: A cloud based system includes a data network, a cloud host and a data center. A context database stores respective contexts of multiple virtual stores. A log database records transfers of content into and out of each virtual store. At least a portion of the context and log databases is encrypted by the data center. A transfer application executes on the cloud host and responds to a transfer request to transfer content from a virtual store by: retrieving the context of the virtual store from the context database; and forwarding the transfer request and context to the data center. The transfer application also responds to a load request to load content to a virtual store by: retrieving the context of the virtual store, and a log of transfers affecting the virtual store from the log database; and forwarding the load request, context and log to the data center.

Abstract: A keep-alive system and method for cloud-based database systems. A plurality of fields of the database are monitored to track a predetermined pattern of changes with respect to time. A departure from the predetermined pattern of change indicates an unexpected action of the database such as, for example, a roll-back of the state of the database.

Abstract: A wirelessly operable cooking appliance for cooking food products includes a wireless communication device. A computing device, such as a smartphone, can wirelessly communicate with the cooking appliance to control and monitor the cooking appliance.

Abstract: A method of detecting unauthorized activity in an electronic message transfer system comprising a plurality of devices, each device being configured to generate and receive cryptographically secured transfer messages for exchanging content with other devices in the system. In each device, audit information is accumulated in a memory of the device. The device periodically forwards at least part of its accumulated audit information to a secure server.

Abstract: An electronic content storage and exchange system includes an interface configured to send and receive messages; a database and a controller. The database includes a plurality of records, each record representing a respective virtual storage media and including at least: a respective unique identifier assigned to the virtual storage media; a respective Private key and certificate assigned to the virtual storage media; a current content value, and a log of content transfers. The controller executes transfer-in and transfer-out processes in respect of each of the virtual storage media. The transfer-in process includes steps of: receiving a content transfer message including at least a message content to be transferred and the respective identifier assigned to a recipient virtual storage media; accessing the record representing the recipient virtual storage media; and storing the message content in the current content of the recipient virtual storage media.

Abstract: A secure asset storage and transfer system. A first display displays a first bar code encoding a request message including an asset value amount to be transferred. A first camera-equipped device is configured for: reading the first bar code, decoding the first bar code to recover the request message; generating a value transfer message for transferring asset value amount to be transferred from a storage medium associated with the camera-equipped device; encoding the value transfer message to generate a corresponding second bar code; and displaying the second bar code on a second display. A second camera-equipped device is configured for reading the second bar code, and decoding the second bar code to recover the value transfer message.

Abstract: An electronic content exchange system includes a communications medium and at least two storage media. Each storage media includes an interface configured to send and receive messages, a memory storing a current content, a respective unique identifier, and a log of content transfers; and a controller. The controller receives a content transfer message including at least a message content to be transferred, and executes a Transfer-in process to increase the current content by the message content to be transferred and record information of the transfer in the log. The controller receives, via the interface, a content transfer request message including at least a message content to be transferred, and executes a Transfer-out process to generate and send a content transfer message including the message content to be transferred, decreasing the current content by the message content to be transferred; and recording information of the transfer in the log.

Abstract: A security domain control method includes defining a sequential series of security domains; designating one of the security domains as a current domain; generating a plurality of security tokens under the current security domain, each security token being configured to enable a party to exchange cryptographically secured messages with another party that is holding any one of: a token generated under the current security domain; a token generated under at least one next security domain in the series; and a token generated under at least one previous security domain in the series; and subsequently designating a next one of the security domains in the series as a current domain.