Abstract: In order to improve MRI workflow, a recommender system is provided that comprises an input unit, a processing unit, and an output unit. The input unit is configured to receive data comprising information about a plurality of pre-tests provided to a patient and associated pre-test results. The plurality of pre-tests is performed prior to an MRI scan session. The plurality of pre-tests comprises a cognitive test, a sensorimotor test, or a combination thereof. The processing unit is configured to generate, based on the received data, a cognitive profile of the patient indicative of an individual's pattern of relative strengths and difficulties across several cognitive domains. The processing unit is further configured to determine, based on the cognitive profile of the patient, a task implementation for the MRI scan session. The processing unit is further configured to provide, via the output unit, a recommendation of the determined task implementation for the MRI scan session.

Abstract: In order to enable more accurate calibration of brain, there is provided a system for creating a hemodynamic brain atlas for calibration of brain hemodynamics. The system comprises a non-invasive transcranial neurostimulation device, a non-invasive neuromonitoring device, and a computing device. The non-invasive transcranial neurostimulation device is configured to induce neuronal activity to evoke a hemodynamic response in a target region of interest (ROI) of a brain of a human subject. The non-invasive neuromonitoring device is configured to monitor the evoked hemodynamic response in the target ROI. The computing device configured to determine a set of parameters representing a hemodynamic response function, HRF, of the evoked hemodynamic response in the target ROI, and to associate the set of parameters of the HRF with the target ROI to form the hemodynamic brain atlas.

Abstract: The present invention relates to attention bias modification treatment. In order to improve the treatment effect, an ABM system is proposed with a neural brain response monitoring device, such as functional magnetic resonance imaging (fMRI), magnetoencephalography (MEG), and/or electroencephalography (EEG), to provide real-time information regarding neural brain responses in order to personalize and optimize the ABM treatment.

Abstract: It is proposed to obtain information about a stress or anxiety level of a subject within a predetermined time period before, during and/or after a capture time of a fMRI scan image. Using this information, embodiments may provide additional/supplementary information that may aid, assist or otherwise improve interpretation of the fMRI scan image.

Abstract: The present invention relates to an apparatus for task determination during brain activity analysis. The apparatus comprises an input unit (20), a processing unit (30), and an output unit (40). The input unit is configured to provide the processing unit with measurement data of the brain of a patient performing a task during brain activity analysis. The processing unit is configured to determine a measure of brain activity based on the measurement data of the brain.

Abstract: A coupler (10) having a first line (1) and a second line (2) also comprises a resonant structure (3) including a capacitor (5) and an inductor (4). The coupler (10) thus delivers a coupling signal S31 that is substantially frequency independent over a frequency domain above the resonance frequency of the resonant structure (3). Also, the signal S31 has a high degree of directivity. The coupler (10) can be provided as part of an integrated electronic component, such as a multilayer substrate, a thin-film module or an IC. It can be applied in an electronic device (100) between a power amplifier (101) and an antenna (103). The coupling signal S31 will thus be provided to a controlling circuit (102).

Abstract: The invention relates to a substrate which is made from paper and is provided with at least one integrated circuit which is produced from a semiconductive organic polymer. A semiconductive organic polymer of this nature, when used as the base material for the integrated circuit, leads to the possibility of directly producing the substrate in the required thickness, to the need for support layers and/or protective layers being eliminated, and to the possibility of reducing the cost price of the substrate compared to substrates which comprise an integrated circuit of the silicon type.

Abstract: Method for driving an array of micro-electro mechanical system (MEMS) devices, said array providing a plurality of logical or memory states at it output, wherein the MEMS devices are given a characteristic hysteresis curve differing from one MEMS device to another MEMS device, and wherein a single control voltage applied to all the MEMS devices while the various states of the array are to be obtained by varying the single control voltage.

Abstract: The invention relates to a substrate which is made from paper and is provided with at least one integrated circuit which is produced from a semiconductive organic polymer. A semiconductive organic polymer of this nature, when used as the base material for the integrated circuit, leads to the possibility of directly producing the substrate in the required thickness, to the need for support layers and/or protective layers being eliminated, and to the possibility of reducing the cost price of the substrate compared to substrates which comprise an integrated circuit of the silicon type.

Abstract: The invention relates to a substrate which is made from paper and is provided with at least one integrated circuit which is produced from a semiconductive organic polymer. A semiconductive organic polymer of this nature, when used as the base material for the integrated circuit, leads to the possibility of directly producing the substrate in the required thickness, to the need for support layers and/or protective layers being eliminated, and to the possibility of reducing the cost price of the substrate compared to substrates which comprise an integrated circuit of the silicon type.

Abstract: The present invention provides a method of photochemically producing a vertical interconnect between a first and a second thin-film microelectronic device in an vertical interconnect area which comprises an overlap of a stack of a first electrically conducting area, optionally an organic electrically semiconducting area, an organic electrically insulating area comprising adapted photoresist material and a second organic electrically conducting area, wherein the organic electrically insulating area is removed within the overlapping area and substituted by an electrically conducting area which is extended from at least said first or said second electrically conducting area. The method is useful in the manufacture of electronic devices, preferably integrated circuits, consisting substantially of organic materials.

Abstract: Display device in which switching elements (5) are realized in an organic semiconductor layer. Mutual insulation of the elements and pixels is obtained either electrically by applying depletion via voltages to a guard line (4) or physically by making parts of the organic semiconductor layer insulating.

Abstract: An identification transponder comprising an identification code generator (10) embodied as an integrated circuit predominantly comprising organic materials. The integrated circuit may be provided on an anti-theft sticker (5) accommodating an LC resonant circuit (3, 4).