Abstract: A device such as a disposable cartridge has an RFID tag (30) having an antenna (10), and a fluidic element (20, 160), the antenna having a shape to at least partly enclose an area, at least a part of the fluidic element being located in this area. By having such a structure, the device can be made more compact or the antenna can be made larger, and hence the costs for a given performance can be reduced, or the storage space for a given number of devices can be reduced.

Abstract: The invention relates to a method and a device for the detection of magnetic particles (1) in a sample chamber (112). After introduction of the sample into said sample chamber (112), the magnetic particles (1) are first retained within the sample chamber (112) and kept away from the sensing surface (111) by an appropriate magnetic field (B) to allow for an incubation of the sample with reagents. A reference measurement may be made during this incubation period (TI), preferably at the end thereof. After incubation, the magnetic particles (1) are allowed to contact the sensing surface (111) where a target measurement can be conducted.

Abstract: A sensor system (100) includes a reader (150) with a sensor unit (155, 156) and an accommodation Space (151) for an exchangeable cartridge (110). The cartridge (110) is held in the accommodation space (151) by at least one contact element (111) which has an increased thermal resistance and/or a contact area of reduced size. Thus a more homogenous temperature distribution can be achieved within the cartridge (110), reducing distortions which might adversely affect optical measurements.

Abstract: A system includes a docking station and a handheld device. The docking station has four walls and a bathtub shape following the contours of the handheld device tightly. The inner part of the four walls is curved so that the handheld device is guided during docking.

Abstract: The invention relates to a method and a device for the detection of magnetic particles (1) in a sample chamber (112). After introduction of the sample into said sample chamber (112), the magnetic particles (1) are first retained within the sample chamber (112) and kept away from the sensing surface (111) by an appropriate magnetic field (B) to allow for an incubation of the sample with reagents. A reference measurement may be made during this incubation period (TI), preferably at the end thereof. After incubation, the magnetic particles (1) are allowed to contact the sensing surface (111) where a target measurement can be conducted.

Abstract: A system for providing sensory feedback includes a garment (106) that is configured to flexibly and snuggly fit over a portion of a subject. The garment includes one or more sensors (104) disposed therein to monitor activity of the subject or monitor points of interest of the subject. An interpretation module (115) is coupled with the sensors to receive sensor signals and interpret the sensor signals to determine if conditions are met to provide feedback signals to the garment. A feedback modality (108) is incorporated into the garment and is responsive to the feedback signals such that the feedback modality emits energy from the garment to provide sensory information to assist a physician during a procedure.

Abstract: The invention relates to a sensor system (100) comprising a reader (150) with a sensor unit (155, 156) and an accommodation Space (151) for an exchangeable cartridge (110). The cartridge (110) is held in said accommodation space (151) by at least one contact element (111) which has an increased thermal resistance and/or a contact area of reduced size. Thus a more homogenous temperature distribution can be achieved within the cartridge (110), reducing distortions which might adversely affect optical measurements.

Abstract: A device such as a disposable cartridge has an RFID tag (30) having an antenna (10), and a fluidic element (20, 160), the antenna having a shape to at least partly enclose an area, at least a part of the fluidic element being located in this area. By having such a structure, the device can be made more compact or the antenna can be made larger, and hence the costs for a given performance can be reduced, or the storage space for a given number of devices can be reduced.

Abstract: The system of the invention comprises a docking station (1) and a handheld device (3). The docking station (1) has a bathtub shape following the contours of the handheld device (3) tightly and comprises four walls (5, 7, 9, 11). The inner part of the four walls (5, 7, 9, 11) is curved so that the handheld device (3) is guided during docking.