Concept

Pinhole camera

Related lectures (16)

Covers the basics of a pinhole camera and the impact of changing parameters on image quality.

Introduces raytracing for generating realistic digital images of 3D scenes.

Covers pinhole cameras, degrees of freedom, Phong lighting, and barycentric coordinates with sample exam questions.

Covers radiometry, vignetting, sensor arrays, sensing, and sensors in camera imaging.

Introduces camera calibration basics, including parameters estimation, pinhole model limitations, lens imaging, depth of field, and lens distortions.

Explores the principles and applications of confocal microscopy, emphasizing the elimination of out-of-focus fluorescence for superior images.

Covers the basics of quantitative imaging for civil engineers, including pixel definition, sensor workings, noise sources, and image formation.

Explains the principles of image formation, covering light projection, digitization, and the pinhole camera model.

Introduces the basics of image formation, covering analog and digital images, camera geometry, coordinate systems, and camera calibration.

Explores Scanning Transmission Electron Microscopy (STEM) principles, detectors, contrast mechanisms, and applications in high-resolution imaging.

Explores the basics of Transmission Electron Microscopy, covering user interface, camera settings, sensitivity adjustments, and vacuum supervision.

Explores camera resolution in space exploration, covering aperture, diffraction limit, pixel size, and megapixels.

Covers the components and technologies used in electron microscopy, including detectors, lenses, aberrations, and specimen holders.

Explores the history and techniques of computer vision, covering image formation, transformation, dynamic perspectives, and 3D estimation cues.

Covers digital image correlation, similarity criteria, iterative approaches, and practical applications in 2D and 3D correlation.

Explores spherical and chromatic aberrations, their types, corrections, and effects on imaging quality.