Saife, Inc.

T-central, Inc.

Cummings Engineering Consultants, Inc.

Saife Technologies Incorporated

James Chester Jones

Ty B Lindteigen

Darren Lynn Cummings

Dipen Patel

David W Kravitz

Russell S Dietz

Josselyn L Boudett

Donald Houston Graham, Iii

Anthony Payne

Jamie Lynn Juarez

John Michael Curtis

Method for authenticating a first and a second electronic devices associated through a communication line includes: creating a unique ID, by a third electronic device; transmitting the unique ID to the first electronic device; signing the transmitted unique ID by the first electronic device; transmitting the signed unique ID to the second electronic device, by the first electronic device; signing the transmitted signed unique ID by the second electronic device; transmitting the unique ID signed by the first and second electronic devices to the third electronic device; verifying and accepting the unique ID signed by the first device and the second device, by the third device; issuing a certificate for a secure communication line between the first electronic device and the second electronic device; and transmitting the certificate to the first electronic device and the second electronic device.

Using PKI for security and authentication of control devices and their data

This invention includes a solution to enable a digital authentication solution comprising a network. Next, a first device is coupled to the network. The first device may include an authentication key generator that is able to generate both public and private keys in electronic formats. Next, the first device is coupled to a certificate authority gateway. The certificate authority gateway includes devices capable of converting the electronically formatted public key to a non-electronic format, and vice versa. Next, the certificate authority gateway is coupled to a certificate authority server. The certificate authority server includes devices capable of converting the electronically formatted public key to a non-electronic format, and vice versa. The certificate authority server is also contained in a secure area such as a locked room, or a safe. The secure area includes features that allow the non-electronically formatted public key to be passed across the boundary of the secure area. Finally, a second device is coupled to the network.

Certificate authority server protection

The invention includes methods for authenticating access between devices when the devices are within a geospatial boundary comprising the first step of keeping track of the physical position of the devices using both low and, or high fidelity geospatial positioning techniques. Next, a first device determines whether any nearby mobile devices have entered the geospatial boundary. Next, the first device determines if any of the mobile devices are peers eligible for cryptographic authentication. After the first device authenticates that the other device within the geospatial boundary is a trusted peer, the devices may perform various data and, or dynamic policy operations.

Geospatial cryptagraphy

A comprehensive solution for providing secure mobile communication is provided. The system includes techniques for authentication and control of communication end-points; chain of trust to ensure devices are certified as authentic; contact list management; peer-to-peer encrypted voice, email, and texting communication; and a technique for bypassing an IP PBX to ensure high levels of security. The system is able to support use of commodity mobile communication devices (e.g., smart phones, laptops) over public carrier networks.

Secure communication system for mobile devices

This invention includes a system and method to enable a device to determine the presence information of another device over a secure communication network. First, the device and a presence server establish a secure connection. Next, while the initial secure connection with the presence server is established, the device generates a randomly created token and provides it to the presence server. The token is used as a shared-secret by the device and the presence server to secure future presence communications over a non-secure connection. Next, without the need to again enter a password or establish a secure connection with the presence server, the device uses the shared-secret to sign, encrypt and convey presence information to the presence server over an arbitrary connection. Finally, the presence server may share the first device's presence information with another device.

Secure non-geospatially derived device presence information

The invention includes methods for cryptographically authenticating access between devices when the devices are within a geospatial boundary comprising the first step of keeping track of the physical position of the devices using both low and, or high fidelity geospatial positioning techniques. Next, a first device determines whether any nearby mobile devices have entered the geospatial boundary. Next, the first device determines if any of the mobile devices are peers eligible for cryptographic authentication. After the first device authenticates that the other device within the geospatial boundary is a trusted peer, the devices may perform various data and, or dynamic policy operations.

Geospatial cryptography

Secure communications system for mobile devices

A method for establishing communication via a VoIP network bypasses the IP PBX component conventionally used to obtain address information. Instead of obtaining the IP address from a location register of the IP PBX, the method involves use of a server configured to assign and provide to the caller's communication device a unique address (IP address/port) of a proxy. The caller then sends a Short Message Service (SMS) text message to the callee with the assigned address of the proxy. Thereafter, the caller and the callee connect at the assigned address of the proxy, thereby forming a communication path. Preferably, the devices operated by the parties are conventional smart phones. According to the preferred embodiment of the present invention, the method further comprises the steps of: determining whether to encrypt the communication; and encrypting the communication, if it is determined that the communication is to be encrypted. Preferably, the Station-to-Station (STS) protocol is used to encrypt the data packets.

Growing community of inventors

Chandler, AZ, United States of America

James Chester Jones