Provided are a system and method for managing clinical trial data using a blockchain network scheme which allow hospitals, a contract research organization (CRO) group, and a blockchain network admin entity to share clinical trial data resulting from a clinical trial in real time on the basis of a blockchain network but forbid a hospital from accessing data generated from a plurality of other clinical hospitals in one clinical trial, encode and encrypt recorded information such that interpretation is not possible even through direct blockchain network access, and thereby ensure the integrity of clinical trial result data and enhance anonymity and security thereof.

The present invention provides systems and methods for supporting encrypted communications with a medical device, such as an implantable device, through a relay device to a remote server, and may employ cloud computing technologies. An implantable medical device is generally constrained to employ a low power transceiver, which supports short distance digital communications. A relay device, such as a smartphone or WiFi access point, acts as a conduit for the communications to the internet or other network, which need not be private or secure. The medical device supports encrypted secure communications, such as a virtual private network technology. The medical device negotiates a secure channel through a smartphone or router, for example, which provides application support for the communication, but may be isolated from the content.

A data aggregation and process automation (DAPA) system is disclosed. The DAPA system includes an authentication module, a monitoring module, an intelligent automation module, and a transformation module. The authentication module is configured to initiate authenticated communication with a plurality of servers, and includes an authentication storage having a plurality of authentication credentials and routing information. The monitoring module is configured to monitor a first server for a first change event and monitor a second server for a second change event. The first change event results in the receipt of a first data object and the second change event results in the receipt of a second data object. The intelligent automation module is configured to identify the second server, request a service, and submit an update data object to the first server. The transformation module is configured to transform data objects from one format into another.

A system and method for homomorphic encryption in a healthcare network environment is provided and includes receiving digital data over the healthcare network at a data custodian server in a plurality of formats from various data sources, encrypting the data according to a homomorphic encryption scheme, receiving a query at the data custodian server from a data consumer device concerning a portion of the encrypted data, initiating a secure homomorphic work session between the data custodian server and the data consumer device, generating a homomorphic work space associated with the homomorphic work session, compiling, by the data custodian server, a results set satisfying the query, loading the results set into the homomorphic work space, and building an application programming interface (API) compatible with the results set, the API facilitating encrypted analysis on the results set in the homomorphic work space.

A powered balancing mobility device that can provide the user the ability to safely navigate expected environments of daily living including the ability to maneuver in confined spaces and to climb curbs, stairs, and other obstacles, and to travel safely and comfortably in vehicles. The mobility device can provide elevated, balanced travel.

A diabetes management system includes a handheld medical device, a mobile computing device, and a diabetes management application. The handheld medical device is configured to determine, in response to a port receiving a test strip, whether an auto-send feature is enabled on the handheld medical device, determine whether the handheld medical device is paired with a mobile computing device, and selectively instruct a wireless transceiver to establish a wireless connection and communicate a glucose measurement and identifying information to the mobile computing device. The mobile computing device is configured to execute the diabetes management application. The diabetes management application is configured to process a plurality of glucose measurements and identifying information associated with each of a plurality of glucose measurements.

Methods are provided for minting and distributing quantities of cryptographically generated data based on the quality of received biological datasets. Computer readable media, computing apparatuses, and systems are also provided.

In one example, a first wireless device transmits one or more electronic keys, and a second wireless device receives and stores the electronic key(s) in a memory. A server or a user device uploads, receives or synchronizes the electronic key(s) from the second wireless device. In another example, one or more electronic keys are transmitted using a first wireless device, the electronic key(s) are received and stored in a memory of a second wireless device, and the electronic key(s) or other data are transmitted, uploaded or synchronized to a server or a user device. In another example, a device comprises: a wireless transceiver; a memory; and a processor communicably coupled to the wireless transceiver and the memory, wherein the processor receives one or more electronic keys from one or more wireless devices, and stores the electronic key(s) in the memory.

Systems and methods are provided for tracking the provenance of genetic material using blockchain-based technologies. Immutable records of transactions associated with the genetic material are generated. These records can be utilized to create an audit trail for the genetic material.

Systems, apparatus, methods and computer-readable storage media facilitating management of operation of an implantable medical device (“IMD”) using a number of communication modes are provided. An IMD is configured to operate in a disabled mode wherein radio frequency (RF) telemetry communication is disabled, or operate in a first advertising mode using the RF telemetry communication. The IMD receives a clinician session request from a clinician device via an induction telemetry protocol while operating in the disabled mode or the first advertising mode, and transitions to operating from the disabled mode or the first advertising mode to operating in a second advertising mode based on receiving the clinician session request. From the second advertising mode, the IMD can establish a clinician telemetry session with the clinician device using the RF telemetry communication and a unique security mechanism facilitated by an identifier for the clinician device included in the clinician session request.