Abstract: An ambulatory medical device and a method of communication between medical devices are disclosed. In one embodiment, the medical device includes a module for communication with at least a second medical device wherein the module for communication is adapted to be activated by a value of a physiological parameter of an animal. In one embodiment, the method of the present invention involves a first medical device and at least a second medical device wherein the communication between said medical devices is activated by a value of a physiological parameter of an animal.

Abstract: An ambulatory medical device and a method of communication between medical devices are disclosed. In one embodiment, the medical device includes a module for communication with at least a second medical device wherein the module for communication is adapted to be activated by a value of a physiological parameter of an animal. In one embodiment, the method of the present invention involves a first medical device and at least a second medical device wherein the communication between said medical devices is activated by a value of a physiological parameter of an animal.

Abstract: A patient information collecting system may include a patient interface device, a patient notification device, an input device for entering patient information, and an information collecting unit having a processor programmed to activate the patient notification device at a specified time prior to occurrence of each of a plurality of scheduled events followed, for each such activation, by presenting instructions via the patient interface device to input to the information collecting unit, via the input device, information specified by the presented instructions and resulting from execution of a corresponding one of the plurality of scheduled events, the plurality of scheduled events including at least two of a scheduled patient glucose measuring event, a scheduled delivery of a diabetes therapy related drug to the patient, a scheduled meal or snack to be consumed by the patient and a scheduled physical activity to be undertaken by the patient.

Abstract: A handheld diabetes management device for managing blood glucose test data and continuous glucose monitoring data includes a port configured to receive a test strip, a wireless transceiver, a communications processor, and a user interface processor. The communications processor communicates with the wireless transceiver to periodically collect glucose measurement data from a continuous glucose monitoring device and to store the glucose measurement data in a first data storage module. The communications processor is operable to consume electrical power at a first rate. The user interface processor communicates with the communication processor to receive the glucose measurement data and operable to display the glucose measurement data on the device. The communications processor operates asynchronously from operation of the user interface processor to collect the glucose measurement data and the user interface processor operates to consume electrical power at a second rate that is higher than the first rate.

Abstract: A method for diabetes care, the method (which also may be referred to as, involve or incorporate at least one of a tool, device or program) allowing for the characterization of the relevance of errors of parameters affecting glucose concentration on a postprandial glucose concentration outcome for a person with diabetes mellitusm, wherein the method involves at least one of sensing, determining, calculating, predicting, describing and communicating the effects of potential errors of parameters affecting glucose concentration on postprandial glucose concentration values within a clinically relevant glucose range.

Abstract: The analyte concentration, such as glucose, in a human or animal body is measured with an implantable sensor that generates measurement signals. The measurement signals are compressed through statistical techniques to produced compressed measurement data that can is easier to process and communicate. A base station carries the implantable sensor along with a signal processor, memory, and a transmitter. A display device is also disclosed that can receive the compressed measurement data from the base station for further processing and display.

Abstract: The analyte concentration, such as glucose, in a human or animal body is measured with an implantable sensor that generates measurement signals. The measurement signals are compressed through statistical techniques to produced compressed measurement data that can is easier to process and communicate. A base station carries the implantable sensor along with a signal processor, memory, and a transmitter. A display device is also disclosed that can receive the compressed measurement data from the base station for further processing and display.

Abstract: A handheld diabetes management device for managing blood glucose test data and continuous glucose monitoring data includes a port configured to receive a test strip, a wireless transceiver, a communications processor, and a user interface processor. The communications processor communicates with the wireless transceiver to periodically collect glucose measurement data from a continuous glucose monitoring device and to store the glucose measurement data in a first data storage module. The communications processor is operable to consume electrical power at a first rate. The user interface processor communicates with the communication processor to receive the glucose measurement data and operable to display the glucose measurement data on the device. The communications processor operates asynchronously from operation of the user interface processor to collect the glucose measurement data and the user interface processor operates to consume electrical power at a second rate that is higher than the first rate.

Abstract: A handheld diabetes management device for managing blood glucose test data and continuous glucose monitoring data includes a port configured to receive a test strip, a wireless transceiver, a communications processor, and a user interface processor. The communications processor communicates with the wireless transceiver to periodically collect glucose measurement data from a continuous glucose monitoring device and to store the glucose measurement data in a first data storage module. The communications processor is operable to consume electrical power at a first rate. The user interface processor communicates with the communication processor to receive the glucose measurement data and operable to display the glucose measurement data on the device. The communications processor operates asynchronously from operation of the user interface processor to collect the glucose measurement data and the user interface processor operates to consume electrical power at a second rate that is higher than the first rate.

Abstract: A system is provided for collecting patient information for diabetes management. The system may comprise a patient interface device, a patient notification device, an input device for entering patient information, and an information collecting unit. The information collecting unit may include a processor electrically coupled to a memory having stored therein at least one algorithm executable by the processor to activate the patient notification device followed by presenting instructions to the patient via the patient interface device to collect specified information from the patient via the input device.

Abstract: The analyte concentration, such as glucose, in a human or animal body is measured with an implantable sensor that generates measurement signals. The measurement signals are compressed through statistical techniques to produced compressed measurement data that can is easier to process and communicate. A base station carries the implantable sensor along with a signal processor, memory, and a transmitter. A display device is also disclosed that can receive the compressed measurement data from the base station for further processing and display.

Abstract: A handheld diabetes management device for managing blood glucose test data and continuous glucose monitoring data includes a port configured to receive a test strip, a wireless transceiver, a communications processor, and a user interface processor. The communications processor communicates with the wireless transceiver to periodically collect glucose measurement data from a continuous glucose monitoring device and to store the glucose measurement data in a first data storage module. The communications processor is operable to consume electrical power at a first rate. The user interface processor communicates with the communication processor to receive the glucose measurement data and operable to display the glucose measurement data on the device. The communications processor operates asynchronously from operation of the user interface processor to collect the glucose measurement data and the user interface processor operates to consume electrical power at a second rate that is higher than the first rate.

Abstract: The analyte concentration, such as glucose, in a human or animal body is measured with an implantable sensor that generates measurement signals. The measurement signals are compressed through statistical techniques to produced compressed measurement data that can is easier to process and communicate. A base station carries the implantable sensor along with a signal processor, memory, and a transmitter. A display device is also disclosed that can receive the compressed measurement data from the base station for further processing and display.

Abstract: A system is provided for collecting patient information from which diabetes therapy may be determined. The system may comprise a patient interface device, a patient notification device, an input device for entering patient information, and an information collecting unit. The information collecting unit may include a processor electrically coupled to a memory having stored therein at least one algorithm executable by the processor to activate the patient notification device followed by presenting instructions to the patient via the patient interface device for collecting specified information from the patient via the input device.

Abstract: A method for diabetes care, the method (which also may be referred to as, involve or incorporate at least one of a tool, device or program) allowing for the characterization of the relevance of errors of parameters affecting glucose concentration on a postprandial glucose concentration outcome for a person with diabetes mellitusm, wherein the method involves at least one of sensing, determining, calculating, predicting, describing and communicating the effects of potential errors of parameters affecting glucose concentration on postprandial glucose concentration values within a clinically relevant glucose range.

Abstract: A method for diabetes care, the method (which also may be referred to as, involve or incorporate at least one of a tool, device or program) allowing for the characterization of the relevance of errors of parameters affecting glucose concentration on a postprandial glucose concentration outcome for a person with diabetes mellitusm, wherein the method involves at least one of sensing, determining, calculating, predicting, describing and communicating the effects of potential errors of parameters affecting glucose concentration on postprandial glucose concentration values within a clinically relevant glucose range.

Abstract: The analyte concentration, such as glucose, in a human or animal body is measured with an implantable sensor that generates measurement signals. The measurement signals are compressed through statistical techniques to produced compressed measurement data that can is easier to process and communicate. A base station carries the implantable sensor along with a signal processor, memory, and a transmitter. A display device is also disclosed that can receive the compressed measurement data from the base station for further processing and display.

Abstract: A method for diabetes care, the method (which also may be referred to as, involve or incorporate at least one of a tool, device or program) allowing for the characterization of the relevance of errors of parameters affecting glucose concentration on a postprandial glucose concentration outcome for a person with diabetes mellitusm, wherein the method involves at least one of sensing, determining, calculating, predicting, describing and communicating the effects of potential errors of parameters affecting glucose concentration on postprandial glucose concentration values within a clinically relevant glucose range.

Abstract: A system is provided for collecting patient information from which diabetes therapy may be determined. The system may comprise a patient interface device, a patient notification device, an input device for entering patient information, and an information collecting unit. The information collecting unit may include a processor electrically coupled to a memory having stored therein at least one algorithm executable by the processor to activate the patient notification device followed by presenting instructions to the patient via the patient interface device for collecting specified information from the patient via the input device.

Abstract: A medical appliance for use on and/or in the body of a user including a transmission unit and an activation switch connected to the transmission unit for activating the transmission unit when an activation signal is received by the activation switch. The invention encompasses systems and processes for transmitting data between a medical appliance and an external appliance, wherein, in some embodiments, the external appliance activates the medical appliance prior to data transmission when the latter is in an idle state.