Device for capturing image data, comprising: - a detection beam path, along which detection radiation of at least one microscope is guided or is guidable; - and a means for splitting the detection radiation between a first detection path and a second detection path; - a first detector in the first detection path and a second detector in the second detection path, with a microlens array (5, 8) being disposed upstream of at least one of the detectors (4, 7); o the first detector having a first spatial resolution in the form of an image resolution and the second detector having a second spatial resolution and the first spatial resolution being higher than the second spatial resolution, the image resolution being determined by a spatial resolution of the captured image data, and o the first detector having a first temporal resolution in the form of a detection rate and the second detector having a second temporal resolution, the first temporal resolution being lower than the second temporal resolution, and the detection rate of the relevant detector (4, 7) being determined by the number of images recorded per second, characterized in that - an evaluation unit is present for evaluating the captured image data from the first and second detectors (4, 7), - the evaluation unit being configured such that the image data from both detectors (4, 7) are evaluated and a three-dimensionally resolved resultant image is created from these evaluated image data by virtue of the image data from both detectors (4, 7) being combined with one another by calculation; and either i) a pinhole is present in an intermediate image plane and optically upstream of the first detector in the first detection path such that the detection radiation is captured confocally by means of the first detector, and this causes the first detector to have a higher spatial resolution than the second detector, and a microlens array is disposed upstream of the second detector; or ii) a microlens array is disposed upstream of both the first detector and the second detector. - a detection beam path, along which detection radiation of at least one microscope is guided or is guidable; - and a means for splitting the detection radiation between a first detection path and a second detection path; - a first detector in the first detection path and a second detector in the second detection path, with a microlens array (5, 8) being disposed upstream of at least one of the detectors (4, 7); o the first detector having a first spatial resolution in the form of an image resolution and the second detector having a second spatial resolution and the first spatial resolution being higher than the second spatial resolution, the image resolution being determined by a spatial resolution of the captured image data, and o the first detector having a first temporal resolution in the form of a detection rate and the second detector having a second temporal resolution, the first temporal resolution being lower than the second temporal resolution, and the detection rate of the relevant detector (4, 7) being determined by the number of images recorded per second, characterized in that o the first detector having a first spatial resolution in the form of an image resolution and the second detector having a second spatial resolution and the first spatial resolution being higher than the second spatial resolution, the image resolution being determined by a spatial resolution of the captured image data, and o the first detector having a first temporal resolution in the form of a detection rate and the second detector having a second temporal resolution, the first temporal resolution being lower than the second temporal resolution, and the detection rate of the relevant detector (4, 7) being determined by the number of images recorded per second, - an evaluation unit is present for evaluating the captured image data from the first and second detectors (4, 7), - the evaluation unit being configured such that the image data from both detectors (4, 7) are evaluated and a three-dimensionally resolved resultant image is created from these evaluated image data by virtue of the image data from both detectors (4, 7) being combined with one another by calculation; and either i) a pinhole is present in an intermediate image plane and optically upstream of the first detector in the first detection path such that the detection radiation is captured confocally by means of the first detector, and this causes the first detector to have a higher spatial resolution than the second detector, and a microlens array is disposed upstream of the second detector; or ii) a microlens array is disposed upstream of both the first detector and the second detector. - the evaluation unit being configured such that the image data from both detectors (4, 7) are evaluated and a three-dimensionally resolved resultant image is created from these evaluated image data by virtue of the image data from both detectors (4, 7) being combined with one another by calculation; i) a pinhole is present in an intermediate image plane and optically upstream of the first detector in the first detection path such that the detection radiation is captured confocally by means of the first detector, and this causes the first detector to have a higher spatial resolution than the second detector, and a microlens array is disposed upstream of the second detector; or ii) a microlens array is disposed upstream of both the first detector and the second detector.