A method of delivery of medical data via a trusted end-to-end communication link. The method comprises obtaining a measurement of a parameter of a human being by a first sensor, obtaining a biometric from the human being by a second sensor, receiving input from the first and second sensors by a secure application executing in a trusted security zone of a processor, whereby access to the input from the first and second sensors by applications executing in a normal partition of the processor is blocked, wherein the input from the first and second sensors comprises the measurement of the parameter and the biometric, and transmitting a message based on the input from the first and second sensors via a trusted end-to-end communication link to a medical data server, wherein an application that receives the message executes in a trusted security zone of the server.

End-to-End Trusted Communications Infrastructure

The various embodiments herein provide a system and method for a parking zone mapping, storing and alerting a user for a legal parking to avoid parking violations. The system comprises a location identifier, an accelerometer, a unified database, a data processing module and a display apparatus. The unified database resides in a central server. The unified database is synchronized with the location identifier. The data processing module is connected to the location identifier and the unified database through a communication medium. The data processing module is further connected to the accelerometer. The display apparatus is connected to the data processing module.

Method and system for legal parking

A mobile access terminal providing access to data in a secure element of the mobile access terminal is provided. The mobile access terminal comprises the secure element; a web browser; a near field communications system; an over-the-air proxy; an application programming interface layer; and a web server residing on a secure storage area of the mobile access terminal, wherein the web browser is provided with exclusive access to the web server.

Web server bypass of backend process on near field communications and secure element chips

A mobile communication device. The device comprises a cellular radio transceiver, a processor, and a memory integral with the device, wherein the memory is apportioned into a plurality of partitions. The device further comprises a first wireless communication identity stored in a first partition of the memory and a second wireless communication identity stored in a second partition of the memory, wherein the second wireless communication identity is different from the first wireless communication identity. The device further comprises an application stored in the memory that, when executed by the processor, detects a triggering event and in response to the triggering event selects one of the wireless communication identities to be an active communication identity of the device, wherein a wireless communication identity comprises a network access identity and a list of wireless communication systems to which the device is authorized to attach.

Mobile communication device profound identity brokering framework

With an enormous range of applications, Internet of Things (IoT) has magnetized industries and academicians from everywhere. IoT facilitates operations through ubiquitous connectivity by providing Internet access to all the devices with computing capabilities. With the evolution of wireless infrastructure, the focus from simple IoT has been shifted to smart, connected and mobile IoT (M-IoT) devices and platforms, which can enable low-complexity, low-cost and efficient computing through sensors, machines, and even crowdsourcing. All these devices can be grouped under a common term of M-IoT. Even though the positive impact on applications has been tremendous, security, privacy and trust are still the major concerns for such networks and an insufficient enforcement of these requirements introduces non-negligible threats to M-IoT devices and platforms. Thus, it is important to understand the range of solutions which are available for providing a secure, privacy-compliant, and trustworthy mechanism for M-IoT. There is no direct survey available, which focuses on security, privacy, trust, secure protocols, physical layer security and handover protections in M-IoT. This paper covers such requisites and presents comparisons of state-the-art solutions for IoT which are applicable to security, privacy, and trust in smart and connected M-IoT networks. Apart from these, various challenges, applications, advantages, technologies, standards, open issues, and roadmap for security, privacy and trust are also discussed in this paper.

Security, Privacy and Trust for Smart Mobile-Internet of Things (M-IoT): A Survey

A secure component of a telecommunication device is described herein. The secure component is configured to determine that a threshold amount of time has passed since reception of a heartbeat communication from a remote telecommunication server. In response to determining that the threshold amount of time has passed, the secure component performs at least one of preventing access to one or more services of the telecommunication device or deleting user data from the telecommunication device.

Telecommunication device utilization based on heartbeat communication

A system and method for establishing a dynamic wireless communication network with a plurality of autonomous aerial vehicles, such as drones. The drones can dynamically change the size and availability of the communication network, and work with an existing communication network, such as cellular telecommunications or internet protocol networks. The drones can therefore create and maintain a robust network in response to a variety of needs, such as emergency response areas or large sporting events. Further, the drones can establish communication hotspots for mobile devices, and can alternately be configured to create a data pipeline.

Dynamic wireless communications network with a plurality of aerial drones

Updated radio protocol data may be propagated in a peer-to-peer (P2P) distribution scheme so that peer devices that are incompatible with a particular radio protocol may be dynamically re-configured to communicate with other devices using the particular radio protocol. A remote server(s) may push updated radio protocol data to a hub device, which thereafter disseminates the radio protocol data to other peer devices. These peer devices can forward the data to downstream peer devices, and so on, without further intervention by the remote server(s) that initiated the distribution. The transfer of radio protocol data over P2P connections may occur using a broadcasting technique where, prior to the transfer, a device in possession of the radio protocol data broadcasts an indication to nearby peer devices, which can receive the broadcast and indicate to the broadcaster whether they are ready to receive the radio protocol data.

Peer-to-peer distribution of radio protocol data for software defined radio (SDR) updates

This disclosure describes an in-motion proximity guidance system that may alert a mobile device user of a likelihood that a projected pathway of an in-motion mobile device will intersect with a projected pathway of another in-motion mobile device or a location of a stationary object. The in-motion proximity guidance may further trigger visual and/or audible alerts to indicate an imminent collision. These alerts may be emitted from the in-motion mobile devices or stationary sensor devices physically coupled to stationary objects. Further, the in-motion proximity guidance system may transmit a corrective action to a collision avoidance system of a vehicle that is communicatively coupled to a mobile device in order to reduce a likelihood of an imminent collision. The in-motion proximity guidance system may also interact with a smart traffic light system, such that a sequence of traffic light indications may be altered to avoid an imminent collision between vehicles.

Mobile device in-motion proximity guidance system

System and method of geo-fencing. A user equipment (UE) defines a geo-fence for an asset by tracking location coordinates of the UE with at least one sensor element, as the UE is moved around a perimeter of an area. The location coordinates of the geo-fence are transferred to a location aware device (LAD) attached to the asset. Upon determining, by the at least one sensor, that the LAD crossed the geo-fence, a notification is sent to a warning server operative to trigger a warning message to one or more recipients.

Eric W. Yocam

Papers

Telecommunication device utilization based on heartbeat communication

Dynamic wireless communications network with a plurality of aerial drones

Peer-to-peer distribution of radio protocol data for software defined radio (SDR) updates

Mobile device in-motion proximity guidance system

Establishing geo-fences and related alarms