Abstract: A transmission apparatus for the transmission of brain parameter sensor data includes, a receiving unit with an antenna, which can be wirelessly connected to a transmitting unit of a brain parameter sensor for data transmission, a data processing device which is in signaling connection to the receiving unit, a high frequency source for generating a data transmission carrier frequency, wherein the high frequency source is integrated in a housing of the data processing device. The result is a transmission apparatus which is designed for use in a domestic patient environment.

Abstract: A patient data sensor device has an implantable patient data sensor and an implantable data transmission mechanism, which is in signal connection with the patient data sensor. The data transmission mechanism has an antenna for telemetric data transmission to an external data collection unit. In addition, the data transmission mechanism has a carrier plate for electronic components. The latter are covered on the carrier plate, at least to one side, by a cover. The antenna is configured in an edge region of the carrier plate and running around the latter and around the electronic components. The result is a patient data sensor device which is more tolerable for the patient.

Abstract: A transmission apparatus for the transmission of brain parameter sensor data includes, a receiving unit with an antenna, which can be wirelessly connected to a transmitting unit of a brain parameter sensor for data transmission, a data processing device which is in signaling connection to the receiving unit, a high frequency source for generating a data transmission carrier frequency, wherein the high frequency source is integrated in a housing of the data processing device. The result is a transmission apparatus which is designed for use in a domestic patient environment.

Abstract: During the transmission of sensor data of an implantable sensor with a measurement data recorder, an energy storage unit and a transmitter unit to an external data processing unit with a transmitter/receiver unit, a high-frequency energy carrier signal is firstly emitted from an energy supply unit. At least a part of the energy contained in the high-frequency energy carrier signal is stored in the energy storage unit of the implantable sensor. After the ending of the emission of the high-frequency energy carrier signal, a sensor measurement is carried out using the measurement data recorder of the implantable sensor. The measured sensor data are transmitted from the transmitter unit of the implantable sensor to the transmitter/receiver unit of the external data processing unit. The result is a transmission method, in which interference from the HF feed is avoided, with a compact design.

Abstract: During the transmission of sensor data of an implantable sensor with a measurement data recorder, an energy storage unit and a transmitter unit to an external data processing unit with a transmitter/receiver unit, a high-frequency energy carrier signal is firstly emitted from an energy supply unit. At least a part of the energy contained in the high-frequency energy carrier signal is stored in the energy storage unit of the implantable sensor. After the ending of the emission of the high-frequency energy carrier signal, a sensor measurement is carried out using the measurement data recorder of the implantable sensor. The measured sensor data are transmitted from the transmitter unit of the implantable sensor to the transmitter/receiver unit of the external data processing unit. The result is a transmission method, in which interference from the HF feed is avoided, with a compact design.

Abstract: During the transmission of sensor data of an implantable sensor with a measurement data recorder, an energy storage unit and a transmitter unit to an external data processing unit with a transmitter/receiver unit, a high-frequency energy carrier signal is firstly emitted from an energy supply unit. At least a part of the energy contained in the high-frequency energy carrier signal is stored in the energy storage unit of the implantable sensor. After the ending of the emission of the high-frequency energy carrier signal, a sensor measurement is carried out using the measurement data recorder of the implantable sensor. The measured sensor data are transmitted from the transmitter unit of the implantable sensor to the transmitter/receiver unit of the external data processing unit. The result is a transmission method, in which interference from the HF feed is avoided, with a compact design.

Abstract: A patient data sensor device has an implantable patient data sensor and an implantable data transmission mechanism, which is in signal connection with the patient data sensor. The data transmission mechanism has an antenna for telemetric data transmission to an external data collection unit. In addition, the data transmission mechanism has a carrier plate for electronic components. The latter are covered on the carrier plate, at least to one side, by a cover. The antenna is configured in an edge region of the carrier plate and running around the latter and around the electronic components. The result is a patient data sensor device which is more tolerable for the patient.

Abstract: The invention relates to an implantable device in modular-system design for measuring brain parameters. It consists of an electronics unit and a sensor unit integrated therein. The electronics unit with the essential components transmitter, receiver, power supply and control unit is sealed solidly and tightly, it is reusable after its sterilization. The sensor unit comprises at least one single lumen catheter and the sensors arranged therein for pressure and/or temperature measurement.