Animas Corporation

Lifescan Scotland Limited

Lifescan Corporation

Manfred Ebner

Ulrich Kraft

David K Hohl

Krzysztof Z Brukalo

Steven Getz

David Pohlman

Carl M Brewer

Mark DeStefano

Sieghard Hasenzahl

Katherine D Crothall

Joseph McCluskey

James Christol

Thomas Jetter

John Quinlan

Barbara A Montgomery

Joachim Binz

Mario Esser

Charles Hendrixson

Stephan Muller-Pathle

Joseph Mccluskey

Matthias Stiene

Stephan MÜLLER-Pathle

Matthias Steine

A disease management system, methods, and devices are shown and described. In one embodiment, the system includes an infusion pump and a remote controller with the ability to be paired to each other and to confirm the authenticity of instructions sent to the infusion device from the remote controller. A method to verify a wireless connection between an infusion pump and a remote controller is shown and described herein. In addition, a method of operating a diabetes management system is provided in which the system includes an infusion pump and at least a remote controller.

Methods for secure communication and pairing of a medical infusion device and a remote controller for such medical device

A disease management system, methods, and devices are shown and described. In one embodiment, the system includes an infusion pump and a remote controller with the ability to be paired to each other. A method to verify a wireless connection between an infusion pump and a remote controller is shown and described herein. In a further embodiment, a method to verify a wireless connection between an infusion pump and a remote controller is provided. In addition, a method of operating a diabetes management system is provided in which the system includes an infusion pump and at least a remote controller.

Methods to pair a medical device and at least a remote controller for such medical device

Systems and methods to pair a medical device and a remote controller for such medical device

The present invention relates to a method for wireless transmission of data between components of a blood glucose system (, I) including a master controller (') having a receiver () and a transmitter (), and at least one slave device () having a receiver () and a transmitter (). The slave device () is normally operated in a power saving mode and its receiver () is only activated intermittently at a receiver activation frequency for a predetermined listening period. The controller () transmits a communication initiation data frame to the slave device () via a preamble signal transmitted for a preamble period. Upon receipt of the communication initiation data frame, the slave device () is switched to a communication mode in which it transmits a response to the controller (), and the slave device () is switched from the communication mode to the power saving mode.

Method for transmitting data in a blood glucose system and corresponding blood glucose system

A data management system and method for storing data records of at least two different category types in a first non-volatile memory section, which may be flash memory, divided into sequentially arranged memory locations. The data records, each including its category type and a time stamp, are sequentially stored into memory locations indicated by a cyclic write pointer stored in a second nonvolatile memory section. A new node associated with a data record is added to a linked list stored in a volatile memory section for a determined category type, such that there is a separate linked list for each category type. The data management system may be included in a glucose meter of a blood glucose system, and use of the second nonvolatile memory section and the volatile memory sections allows data records stored in the first nonvolatile memory section to be displayed by category type and by time stamp more quickly.

Data management system and method using nonvolatile and volatile memories and linked lists to sequentially store data records of different category types

A method for wireless transmission of data between a master controller (') having a receiver () and a transmitter (), and at least one slave device () having a receiver () and a transmitter (), and to a corresponding blood glucose system (). The slave device () is normally operated in a power saving mode in which its receiver () is only activated intermittently at a receiver activation frequency for a predetermined listening period. The controller () transmits a communication initiation data frame to the slave device () by means of a signal comprising a preamble signal transmitted for a preamble period. Upon receipt of the communication initiation data frame, the slave device () is switched to a communication mode in which it transmits a response to the controller (), and the slave device () is switched from the communication mode to the power saving mode.

Method of operating a medical device and at least a remote controller for such medical device

The invention relates to a method for wireless transmission of data between components of a blood glucose system including a master controller (i.e., 'master') and a slave device (i.e., 'slave'). The master and slave each have a receiver and transmitter. The method comprises operating the slave normally in a power saving mode, activating the transmitter of the master for a transmission period and subsequently activating the receiver of the master for a response period. When the slave receives a preamble signal during a listening period the slave receiver is activated until a portion of a transmitted data frame from the master is received, switched into a communication mode to transmit a response to the master and switched from the communication mode to the power saving mode. In the power saving mode the activation frequency of the slave receiver and the transmission of the data frame are controlled to save power.

A system and method of processing a test current for an analyte measurement in a fluid using a test strip and a test meter are disclosed. The method comprises sampling the test current at a pre-determined sampling rate to acquire a plurality of A/D conversions. The method also comprises filtering out at least a highest magnitude A/D conversion and a lowest magnitude A/D conversion leaving a plurality of accepted A/D conversions. Further, the method comprises calculating an average or a summation of the plurality of accepted A/D conversions and converting the average or the summation into a glucose concentration.

System and method of processing a current sample for calculating a glucose concentration

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Oberursel, Germany

Manfred Ebner