Medtronic Minimed, Inc.

Medallion Therapeutics, Inc.

Alfred E. Mann Foundation for Scientific Research

Medical Research Group, Inc.

Daniel H Villegas

Ronald J Lebel

Philip T Weiss

Timothy J Starkweather

Varaz Shahmirian

Scott Robert Gibson

Brian Michael Shelton

David Choy

John T Armstrong

John D Richert

Paul Milton Meadows

Joseph Wayne Vandegriff

Timothy John Payne

Scott L Conway

Sam W Bowman, Iv

Stephen D Das

Robert C Dennard

Jose P Bernardo

John Charles Gord

Peter Carl Lord

William Andrew Brandt

Pedrum Minaie

Colin A Chong

Cary D Talbot

Wayne A Morgan

Jon Douglas Newbill

Sam W Bowman Iv

Henry C Sanders

Greg Bowden

David Y Choy

Sam W Bowman

Sam W Iv Bowman

A programming device for an implantable drug pump includes a display device, a communication device, and a controller. The communication device is adapted to facilitate a communication link between the programming device and an implantable drug pump. The controller adapted to receive bolus data stored on the implantable drug pump when the communications link has been established, to process the bolus data, and to control the display device to generate a visual representation of numbers of bolus attempts for multiple periodic time intervals.

Programming and bolus monitoring device for an implantable drug pump

Implantable infusion devices configured to improve fill and evacuation procedures.

Implantable infusion devices and associated methods

Remote controls including a first button, a second button, transmission means, associated with the housing, for transmitting a signal to the ambulatory infusion device, and a controller associated with the housing and adapted to prevent signal transmission by the transmission means unless the second button has been actuated, to allow signal transmission by the transmission means in response to actuation of the second button, and to control the transmission means to transmit a signal in response to the first button being pressed concurrently with actuation of the second button or during a predetermined period after actuation of the second button.

Remote controls configured to prevent unintended signal transmission and ambulatory medical systems including the same

A drug delivery safety system includes a programmer with a display and a communications device adapted to communicate with an ambulatory medical device. The programmer has access to a database of information, and is adapted to receive and process the information and a user input and to control the display to provide a graphical user interface that prompts a user of the programmer to provide an additional user input when the user input requests a drug delivery protocol for the ambulatory medical device that is not already stored in the database as a clinician-approved drug delivery protocol.

Drug delivery safety system

A modular, multifunction dock system is disclosed. The dock system includes a dock housing with a dock receiver to interface with a data port for both a recorder and a transmitter. The dock system further includes a logic board that is contained within the dock housing. The logic board couples a memory and a processor to the dock receiver to enable dock functionality with both the recorder and the transmitter. Further included with the dock system is a coupling port to provide access through the dock housing to a socket coupled to the logic board and an input/output port to enable power and data transmission from the logic board to a data processor. The dock housing includes a mating arm that moves between a retracted and extended position. The mating arm fits within the coupling port and is terminated by a plug that couples with the socket. The dock system further includes a light emitting element on the exterior of the dock housing that is coupled to the logic board to provide visual feedback regarding the status of either the recorder or the transmitter when either are coupled to the dock receiver.

Modular docking station

A method for assigning a remote control to an ambulatory medical device includes generating and transmitting user inputs from a remote control to an ambulatory medical device, and receiving and processing the user inputs to determine whether the user inputs represent a sequence authorizing an assignment of the remote control to the ambulatory medical device.

Method, apparatus and system for assigning remote control device to ambulatory medical device

Implantable infusion devices configured to improve fill and evacuation procedures. Such implantable infusion devices may, for example, include palpable landmarks that allow the clinician to locate a fill port through tactile examination. Needle detection methods are also disclosed.

Implantable infusion devices with palpable landmarks and methods of needle detection

A communication device (CD) exchanges messages with an implantable infusion pump via telemetry such that commands are supplied thereto and operational information is obtained therefrom. The CD is controlled, at least in part, by a processor IC according to a software program operating therein and provides feedback to a user via a visual display, an audio alarm, and a vibrational alarm, and allows input from the user via a touch sensitive keypad. Certain input functions are restricted by password. The visual display includes an icon and fixed element display region and a bitmap display region. The fixed element display region includes time and date displays, battery and drug level displays that decrement, and a moving delivery state display. Various screens allow operational or log information to be displayed and/or user entry of commands. Program features when disabled are removed from a series of screen options that can be scrolled through.

Ambulatory medical apparatus with hand held communication device

Remote controls, including a communication device, a button or other communication device actuator and a movable structure that allows actuation of the actuator in one position and prevents actuation of the actuator in another position to prevent inadvertent signal transmission.

Remote controls and ambulatory medical systems including the same

A method of preventing inadvertent signal transmission sent from a remote control for controlling the operation of an implantable infusion device. The method includes maintaining the remote control in a locked state prior to a user intentionally unlocking the remote control in order to generate transmission of a signal from the remote control to the implantable infusion device. The unlocking of the remote control can include moving a button control element, unlocking a button lock, pressing a button other than the signal generation button, pressing the signal generation button in a specific sequence or shaking the remote control.

An implanted medical device (e.g. infusion pump) and handheld communication device communicate with one another via telemetry wherein transmitted messages have enhanced numbers of and/or regularity of bit transitions to minimize the risk of synchronization loss between transmitted bits of data and received bits of data. Bit transitions for portions of messages may be enhanced by applying a pseudo-randomization scheme to those portions of messages that are transmitted in a way that allows the receiver to extract the original data from the received randomized data. Preferred randomization techniques modify (i.e. randomize) the data using a CRC value that is being accumulated while simultaneously causing the modified data to modify subsequent accumulation of the CRC itself. Upon reception, the reversal of data randomization occurs so that the intended message is appropriately received.

Method and apparatus for communicating between an ambulatory medical device and a control device via telemetry using randomized data

An implanted medical device (e.g. infusion pump) and an external device communicate with one another via telemetry messages that are receivable only during windows or listening periods. Each listening period is open for a prescribed period of time and is spaced from successive listening periods by an interval. The prescribed period of time is typically kept small to minimize power consumption. To increase likelihood of successful communication, the window may be forced to an open state, by use of an attention signal, in anticipation of an incoming message. To further minimize power consumption, it is desirable to minimize use of extended attention signals, which is accomplished by the transmitter maintaining an estimate of listening period start times and attempting to send messages only during listening periods. In the communication device, the estimate is updated as a result of information obtained with the reception of each message from the medical device.

Ambulatory medical apparatus and method using a telemetry system with predefined reception listening

Ambulatory medical apparatus and method using a telemetry system with predefined reception listening periods

Growing community of inventors

Granada Hills, CA, United States of America

Daniel H Villegas