A sensor device for sensing a property of a biological material comprises: a biocompatible enclosure comprising a barrier having a first and a second surface; a sensor receptor element arranged at the first surface; a substrate arranged at the second surface carrying an electronic or photonic circuitry comprising a sensor transducer element for reading out signals from the sensor receptor element; and wherein at least one compartment of the biocompatible enclosure is configured to control transport of the biological material into the compartment or is configured to form a hermetical seal around the substrate.

Among others, the present invention provides devices each including a micro-filter, a shutter, a cell counter, a selector, a micro-surgical kit, a timer, and a data processing circuitry, wherein the micro-filter is capable of detecting or filtering circulating tumor cells.

Disclosed herein are devices, systems and methods for performing cell culture using animal-chip hybrids. A cell culture device may comprise a fluid channel portion having a first port at a first end and a second port at a second end, and a first compartment for culturing cells. A continuous or intermittent perfusion of blood from an animal subject may enter the cell culture device at the first port and exit the cell culture device at the second port.

Among others, the present invention provides devices each including a micro-filter, a shutter, a cell counter, a selector, a micro-surgical kit, a timer, and a data processing circuitry, wherein the micro-filter is capable of detecting or filtering circulating tumor cells.

Among others, the present invention provides apparatus for interacting with a biological subject to detect circulating tumor cells therein, comprising one device for sending a signal to the biological subject and optionally receiving a response to the signal from the biological entity.

The present disclosure relates to a dialysis device (1), more particularly a microdialysis device for the sampling of substances from the surface of a body organ. The device is particularly useful in the context of the monitoring of a moving organ, such as a beating heart, as the device comprises attachment means (2) allowing for a flexible and reliable attachment thereto. Furthermore, the microdialysis device provides for an efficient exchange of substances, such as metabolic substances, between the organ and the dialysis fluid through a semi-permeable material forming part of the device. There is also provided a method encompassing the device of the disclosure.

A monitoring system for an analyte in a bodily fluid of a patient comprises a housing, a sensor disposed within the housing, and a cannula. The sensor detects and reports the detection of an analyte. The sensor includes a sensor inlet and a sensor outlet. The cannula includes a cannula inlet and a cannula outlet, where the cannula inlet is fluidly coupled to the sensor inlet and the cannula outlet is fluidly coupled to the sensor outlet. The monitoring system can provide real-time monitoring of an intravenous analyte, where a fluid delivery unit can automatically administer a fluid in response to detection of a predetermined amount of the analyte.

Among others, the present invention provides apparatus for interacting with a biological subject to detect circulating tumor cells therein, comprising one device for sending a signal to the biological subject and optionally receiving a response to the signal from the biological entity.

Provided is a non-invasive blood measuring device comprising: a fixture which in part or in whole is buried in bone tissue of a patient; an abutment provided in a space inside the fixture; a sensing unit including biosensors for measuring a substance in the blood; a filter through which the substance in the blood to be measured is passed through; and an outcall unit.

Methods and systems include a long-term implantable ultra-filtrate monitoring system that uses micro-porous membranes to produce an ultra-filtrate of tissue interstitial fluid or blood plasma. The ultra-filtrate is transported through a sensor to detect a level of analyte in the ultra-filtrate. The long-term implantable fluid monitoring system thus includes a first porous catheter, a second porous catheter, a sensor configured to measure an amount of analyte in fluid, and a pump configured to move fluid through the first porous catheter to the sensor and from the sensor through the second porous catheter.