Nexrf Corporation

Loyalty Iot, Inc.

Edge Medical Properties, LLC

Other

Nevrf Corporation

Michael Anthony Kerr

David James Stewart

Jesus P Espinoza

Robert A Luciano, Jr

Lawrence W Luciano

Jebb A Dykstra

The system and method include a wireless client device, a cloud component, a gateway component, a geofence, and a proof of geofence (PoG) protocol. The PoG protocol continuously generating a PoG contract when the authenticated wireless client device is within the geofence. The PoG contract includes generating, by the gateway component, a PoG certificate that includes a mobile device public key, and a hash of a previous PoG contract. Also, the PoG contract requires the wireless client device to separately generate the PoG certificate within a time period with one or more mobile device sensors that includes a gateway component public key and the hash of the previous PoG contract. Additionally, the PoG contract records one or more signatures when the wireless client device generates the PoG certificate. A PoG ledger is then updated with each PoG contract.

Proof of geofence

A proximity based authentication system and method is described. The system includes a gateway, a cloud component, and a mobile device. The gateway is associated with a particular location and is communicatively coupled to a cloud component. The gateway includes a gateway short-range wireless radio capable of establishing a short-range wireless communication channel. The mobile device is also communicatively coupled the cloud component and includes a mobile device short-range wireless radio that communicates with the gateway using the short-range wireless communication channel when the mobile device is in proximity of the gateway. The mobile device receives a gateway key over the short-range wireless communication channel. The mobile device then communicates the gateway key to a cloud component database. The cloud component authenticates the particular location of the mobile device when the cloud component receives the gateway key from the mobile device.

Proximity based authentication system and method

An indoor mapping system utilizing beacons is described. The system includes a premises map, a beacon disposed within the premises, a plurality of measured signal strengths, and a wireless device. The beacon location is layered on the map, and the measured signal strengths are captured from the beacon. The wireless device includes an indoor positioning module, and the wireless device receives a beacon signal when it is within a broadcast range of the beacon. The wireless device determines a signal strength of the received beacon signal. The indoor positioning module associates the measured signal strengths with their corresponding beacon location. The beacon location is further associated with a plurality of calculated signal strengths that are generated from the measured signal strengths. The indoor positioning module determines that the wireless device is at a location by comparing the received beacon identifiers and signal strengths with the calculated signal strengths.

Location positioning engine system and method

A network based hyperlocal authentication system and method is described. A wireless client device requests a key from a remote network component. The remote network component generates and transmits the key to the gateway. The gateway then transmits the key to the client device application with a gateway short-range transceiver. The wireless client device receives the key from the gateway and then requests and receives a cryptographic material from the remote network component. The wireless client device communicates with the remote network component with the key, received from the gateway, and the cryptographic material, received from the network component.

Network based hyperlocal authentication

A system and method that authenticates and secures communications between a wireless client device and a remote network component. The system includes a gateway component that establishes a secure communications channel with the remote network component. A client device application, corresponding to the wireless client device, receives local authentication credentials from the gateway component. The client device application uses the local authentication credentials to authenticate to the remote network component. The client device application then requests an exclusive local key from the remote network component, which transmits the exclusive local key to the gateway component, which then transmits the exclusive local key to the client device application. The client device application, having the exclusive local key, requests and receives cryptographic material from the remote network component. The client device application secures communications to the remote network component with a shared secret that includes the exclusive local key received from the gateway component and the cryptographic material received from the network component.

Network based hyperlocal authentication with a gateway component

A network based hyperlocal authentication system and method is described. After establishing communications between a gateway and a remote network component, and after establishing communications between a wireless client device and the remote network component, the wireless client device requests an exclusive local key from the remote network component. The remote network component generates and transmits the exclusive local key to the gateway. The gateway then transmits the exclusive local key to the client device application with a gateway short range gateway transceiver. The wireless client device receives the exclusive local key from the gateway and then requests and receives a cryptographic material from the remote network component. The wireless client device communicates with the remote network component with the exclusive local key, received from the gateway, and the cryptographic material, received from the network component.

A system for delivering targeted content to a wireless handset is described. The system comprises a beacon and a wireless handset communicatively coupled to a network. The wireless handset receives a signal from the beacon. A user profile associated with the wireless handset comprises at least one user attribute. The system further comprises a content administration interface configured to store an association between a content item and a user attribute. The system further comprises a content delivery module configured to filter stored content items to retrieve content items associated with a user attribute. The content delivery module transmits at least one retrieved content item to the wireless handset via the network. A handset content interface displays the at least one transmitted content item on the wireless handset.

Targeted content delivery

A system and method for managing a vehicle cloud service are disclosed. The system utilizes a cloud management module that transmits vehicle access invitations to end users according to an authentication performed by a third-party cloud service. The third-party cloud service authenticates end users requesting vehicle access through an identifying message transmitted by the end user's wireless mobile client device. The identifying message includes identifying information, such as a user profile having a plurality of user preferences and at least one user credential indicating the end user has a valid driving license. A synchronization module synchronizes directory services for one or more cloud services including the vehicle cloud service.

System and method for managing an autonomous licensing entity

A system for determining the location of a wireless device is described, the system includes a map, a fixed beacon, a fixed sensor and a server component. The server component receives a beacon identifier and a beacon signal strength from a wireless device. A sensor is located on the map. The fixed sensor receives the beacon identifier and the sensor captures a measured sensor beacon signal strength. The sensor is communicatively coupled to the server component. The server component receives the beacon identifier and the measured sensor beacon signal strength from the fixed sensor. The server component uses the beacon identifier and the beacon signal strength communicated by the wireless device and the sensor beacon signal strength and the beacon identifier received by the sensor to determine the location of the wireless device.

A Network Based Hyperlocal Authentication (NBHA) system and method for anonymous contact tracing is described. The NBHA system and method operates as a background process, which is passwordless and continuously authenticates and performs cryptographic operations to secure communications between a wireless client device and a remote network component. A gateway includes a short-range wireless transmitter that transmits authentication credentials to the wireless client device having a short-range wireless receiver. The wireless client device uses the authentication credentials to authenticate to the remote network component. The network component then generates an exclusive local key for the wireless client device that is transmitted by the gateway. The client device application then requests cryptographic material from the remote network component. The client device application encrypts and decrypts communications to the network component with the cryptographic material and the exclusive local key. The wireless client device encrypts contact tracing data with the shared secret.

Anonymous contact tracing with network based hyperlocal authentication

A system, apparatus, and method for communicating Bluetooth keys is described. The system and method utilize a gateway apparatus that is communicates coupled to a cloud component over a first network channel, and communicates a gateway key over a local wireless Bluetooth channel. The gateway includes a processor, a memory, a fixed location, and a local broadcast range associated with an area surrounding the fixed location. The cloud component registers the gateway and a mobile wireless device having a processor and memory. When the mobile wireless device is within the local broadcast range of the gateway, the mobile wireless receives the gateway key over the local wireless channel. Upon receiving the gateway key, the mobile wireless device communicates a device key over the local wireless channel to the gateway. The gateway then communicates the received device key along the first network channel to the cloud component, and the mobile wireless device communicates the received gateway key over a second network channel to the cloud component. The cloud component then records the received gateway key with an associated receipt time and the received device key with an associated receipt time in a database.

Multi-channel communication of data files

A system for adjusting a relevance weight value for a content item is described. The system comprises a content delivery module configured to deliver a plurality of content items to a device via a network. The content items are displayed on the device. A content storage module is configured to store a relevance weight value and a location in association with each content item. A location detection module is configured to determine a location of the wireless device. A user provides a feedback input for a content item. The relevance weight value associated with the location and the content item is adjusted according to the feedback input provided.

Content relevance weighting system

A system and method for generating a mobile autonomous dynamic graphical user interface is described. An illustrative system comprises a location-capable component, a user preference module, a server, a means for generating a display menu, and a wireless formatting engine. The location-capable component determines a location for a wireless device. The user preference module includes a variety of user preferences. The server selects targeted content based on the user preferences and the location of the wireless device. The selected content includes at least one user selectable menu button. A display menu is generated that includes the user selectable button. The wireless formatting engine formats the display menu and selected content for the wireless device.

Mobile autonomous dynamic graphical user interface

A system for adjusting a relevance weight value for a content item is described. The system comprises a content delivery module configured to deliver a plurality of content items to a device via a network. The content items are displayed on the device. A user provides a feedback input that is a positive review or a negative review for a content item. The feedback input is transmitted to a relevance weight adjustment module that subtracts a first point value from the relevance weight value associated with a first set of users when a negative review is received for the content item and adds a first point value to the relevance weight value associated with a first set of users when a positive review is received for the content item.

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Reno, NV, United States of America

Michael Anthony Kerr