Abstract: A system for controlling smartphones of drivers of moving automobiles including a plurality of smartphones, each smartphone including a GPS unit to record speed and location of smartphone, a driver control application to control access to phone services and social media applications, a low frequency receiver to receive low frequency radio frequency identification, an LF RFID, signal from key fob located within moving automobile, and a computing unit to measure a received signal strength indicator, RSSI, of LF RFID signal, a transmitter to transmit the speed, location, LF RFID signal, and RSSI to a centralized monitor. The centralized monitor includes a computing circuitry to receive the speed, location, LF RFID signal, and RSSI of each smartphone, generate clusters of speeds and locations of smartphones, analyze clusters to determine smartphones located within a particular moving automobile, determine smartphone of driver, and transmit a control signal to the smartphone of the driver.

Abstract: A system for controlling smartphones of drivers of moving automobiles including a plurality of smartphones, each smartphone including a GPS unit to record speed and location of smartphone, a driver control application to control access to phone services and social media applications, a low frequency receiver to receive low frequency radio frequency identification, an LF RFID, signal from key fob located within moving automobile, and a computing unit to measure a received signal strength indicator, RSSI, of LF RFID signal, a transmitter to transmit the speed, location, LF RFID signal, and RSSI to a centralized monitor. The centralized monitor includes a computing circuitry to receive the speed, location, LF RFID signal, and RSSI of each smartphone, generate clusters of speeds and locations of smartphones, analyze clusters to determine smartphones located within a particular moving automobile, determine smartphone of driver, and transmit a control signal to the smartphone of the driver.

Abstract: Systems and methods are described for authenticating a user accessing a user account. A behavior event associated with a current user using the user account during a session is obtained. The behavior event comprises of keystroke events and mouse events. The obtained behavior event of the current user is compared with a behavior profile of a registered user associated with the user account. The behavior profile comprises keystroke events and mouse events associated with the registered user. The current user is authenticated during the session, when the current user is determined to be the same as the registered user based on the comparison.

Abstract: Systems and methods are described for authenticating a user accessing a user account. A behavior event associated with a current user using the user account during a session is obtained. The behavior event comprises of keystroke events and mouse events. The obtained behavior event of the current user is compared with a behavior profile of a registered user associated with the user account. The behavior profile comprises keystroke events and mouse events associated with the registered user. The current user is authenticated during the session, when the current user is determined to be the same as the registered user based on the comparison.

Abstract: A system for controlling smartphones of drivers of moving automobiles including a plurality of smartphones, each smartphone including a GPS unit to record speed and location of smartphone, a driver control application to control access to phone services and social media applications, a low frequency receiver to receive low frequency radio frequency identification, an LF RFID, signal from key fob located within moving automobile, and a computing unit to measure a received signal strength indicator, RSSI, of LF RFID signal, a transmitter to transmit the speed, location, LF RFID signal, and RSSI to a centralized monitor. The centralized monitor includes a computing circuitry to receive the speed, location, LF RFID signal, and RSSI of each smartphone, generate clusters of speeds and locations of smartphones, analyze clusters to determine smartphones located within a particular moving automobile, determine smartphone of driver, and transmit a control signal to the smartphone of the driver.

Abstract: A system for controlling smartphones of drivers of moving automobiles including a plurality of smartphones, each smartphone including a GPS unit to record speed and location of smartphone, a driver control application to control access to phone services and social media applications, a low frequency receiver to receive low frequency radio frequency identification, an LF RFID, signal from key fob located within moving automobile, and a computing unit to measure a received signal strength indicator, RSSI, of LF RFID signal, a transmitter to transmit the speed, location, LF RFID signal, and RSSI to a centralized monitor. The centralized monitor includes a computing circuitry to receive the speed, location, LF RFID signal, and RSSI of each smartphone, generate clusters of speeds and locations of smartphones, analyze clusters to determine smartphones located within a particular moving automobile, determine smartphone of driver, and transmit a control signal to the smartphone of the driver.

Abstract: A system and methods for authenticating an electronic signature using a biometric fingerprint includes registering a subscriber to the service. The subscriber asks document signers enter their fingerprint(s) by a fingerprint reader. The fingerprint data is applied to a fingerprint matcher which generates a gallery pair table of fingerprint minutiae for each signer. A secret user ID or operation number is generated. A sharing module splits the fingerprint information into N shares and generates a threshold number S. The secret is applied to the sharing module and N shares of the secret are generated. The N shares of fingerprint data are each combined with one share the secret to form N combined shares. The N combined shares are each stored in different cloud storage locations. Retrieval of the secret to authenticate the signers requires S signers to enter their fingerprints and S combined shares to be downloaded from the clouds.

Abstract: A system and methods for authenticating an electronic signature using a biometric fingerprint includes registering a subscriber to the service. The subscriber asks document signers enter their fingerprint(s) by a fingerprint reader. The fingerprint data is applied to a fingerprint matcher which generates a gallery pair table of fingerprint minutiae for each signer. A secret user ID or operation number is generated. A sharing module splits the fingerprint information into N shares and generates a threshold number S. The secret is applied to the sharing module and N shares of the secret are generated. The N shares of fingerprint data are each combined with one share the secret to form N combined shares. The N combined shares are each stored in different cloud storage locations. Retrieval of the secret to authenticate the signers requires S signers to enter their fingerprints and S combined shares to be downloaded from the clouds.

Abstract: Systems and methods are described for authenticating a user accessing a user account. A behavior event associated with a current user using the user account during a session is obtained. The behavior event comprises of keystroke events and mouse events. The obtained behavior event of the current user is compared with a behavior profile of a registered user associated with the user account. The behavior profile comprises keystroke events and mouse events associated with the registered user. The current user is authenticated during the session, when the current user is determined to be the same as the registered user based on the comparison.

Abstract: A system and methods for authenticating an electronic signature using a biometric fingerprint includes registering a subscriber to the service. The subscriber asks document signers enter their fingerprint(s) by a fingerprint reader. The fingerprint data is applied to a fingerprint matcher which generates a gallery pair table of fingerprint minutiae for each signer. A secret user ID or operation number is generated. A sharing module splits the fingerprint information into N shares and generates a threshold number S. The secret is applied to the sharing module and N shares of the secret are generated. The N shares of fingerprint data are each combined with one share the secret to form N combined shares. The N combined shares are each stored in different cloud storage locations. Retrieval of the secret to authenticate the signers requires S signers to enter their fingerprints and S combined shares to be downloaded from the clouds.

Abstract: A system and methods for authenticating an electronic signature using a biometric fingerprint includes registering a subscriber to the service. The subscriber asks document signers enter their fingerprint(s) by a fingerprint reader. The fingerprint data is applied to a fingerprint matcher which generates a gallery pair table of fingerprint minutiae for each signer. A secret user ID or operation number is generated. A sharing module splits the fingerprint information into N shares and generates a threshold number S. The secret is applied to the sharing module and N shares of the secret are generated. The N shares of fingerprint data are each combined with one share the secret to form N combined shares. The N combined shares are each stored in different cloud storage locations. Retrieval of the secret to authenticate the signers requires S signers to enter their fingerprints and S combined shares to be downloaded from the clouds.

Abstract: A system and methods for authenticating an electronic signature using a biometric fingerprint includes registering a subscriber to the service. The subscriber asks document signers enter their fingerprint(s) by a fingerprint reader. The fingerprint data is applied to a fingerprint matcher which generates a gallery pair table of fingerprint minutiae for each signer. A secret user ID or operation number is generated. A sharing module splits the fingerprint information into N shares and generates a threshold number S. The secret is applied to the sharing module and N shares of the secret are generated. The N shares of fingerprint data are each combined with one share the secret to form N combined shares. The N combined shares are each stored in different cloud storage locations. Retrieval of the secret to authenticate the signers requires S signers to enter their fingerprints and S combined shares to be downloaded from the clouds.

Abstract: A system and methods for authenticating an electronic signature using a biometric fingerprint includes registering a subscriber to the service. The subscriber asks document signers enter their fingerprint(s) by a fingerprint reader. The fingerprint data is applied to a fingerprint matcher which generates a gallery pair table of fingerprint minutiae for each signer. A secret user ID or operation number is generated. A sharing module splits the fingerprint information into N shares and generates a threshold number S. The secret is applied to the sharing module and N shares of the secret are generated. The N shares of fingerprint data are each combined with one share the secret to form N combined shares. The N combined shares are each stored in different cloud storage locations. Retrieval of the secret to authenticate the signers requires S signers to enter their fingerprints and S combined shares to be downloaded from the clouds.