Grad Student Sharing My Researchhttp://www2.warwick.ac.uk/fac/soc/sociology/rsw/undergrad/cetl/ejournal/issues/volume2issue1/snyder
This video is made as a primer for Condensed Matter students and is showing the potential energy fields of different Bravais Lattices. It was made using the Coulomb's law to compute a cube of data. The dataset is then sent to a ray tracer which produces the images in the video. The background colors show the potential energy contours of different charge configurations. The colors red green blue are used in an alternating sequence for adjacent contours.
This video was made to test out a relativistic version of Direct Coulomb Summation and is intended to be displaying fields of different moving charge configurations. Coulomb’s Law is well defined and also that inverse square fields propagate at the speed of light is well known. Hence why not put both into the same equation. In general, the video uses Coulomb's law to compute an observational cube of data. The dataset is then sent to a ray tracer which produces the images in the video. The back...
Trying a new technique to do some EM plotting. Going to redo this video (to get better tracking) but this is my Intermediate result. Should have a better one in a few months.
This video is made as a primer for EM101 students and is showing the fields of different magnet configurations. It was made using the Magnetic Coulomb's law to compute a cube of data. The dataset is then sent to a ray tracer which produces the images in the video. The background colors show the potential energy contours of different pole configurations. The colors red green blue are used in an alternating sequence for adjacent contours; highlighting the structure of the magnetic fields. Using ...
This video is made as a primer for EM101 students and is showing the fields of different magnet configurations. It was made using the Magnetic Coulomb's law to compute a cube of data. The dataset is then sent to a ray tracer which produces the images in the video. The background colors show the potential energy contours of different pole configurations. The colors red green blue are used in an alternating sequence for adjacent contours; highlighting the structure of the magnetic fields. Using ...
This video is made as a primer for EM101 students. It shows the potential energy contours of different charge configurations. The colors red green blue are used in an alternating pattern for adjacent contours; highlighting the structure of the EM fields.
This short video mainly demonstrates my polar to cartesian video transform. It is named after one of my professors who teaches classical mechanics. The source video (left hand side) is of the fields of a large ring magnet and I'm using a small magnet to perturb the field. The transformed video (right hand side) maps inward as down and outward as up. All Rights Reserved, M. Snyder 12/30/2009
Magnetic Warp (Pretty Pictures) - This investigation describes and demonstrates a novel technique for the visualization of magnetic fields. Two ferrofluid Hele-Shaw cells have been constructed to facilitate the imaging of magnetic field lines. We deduce that magnetically induced photonic band gap arrays similar to electrostatic liquid crystal operation are responsible for the photographed images and seek to mathematically prove the images are of dipole nature. This is the Pretty Pictures Versi...
This investigation describes and demonstrates a novel technique for the visualization of magnetic fields. Two ferrofluid Hele-Shaw cells have been constructed to facilitate the imaging of magnetic field lines. We deduce that magnetically induced photonic band gap arrays similar to electrostatic liquid crystal operation are responsible for the photographed images and seek to mathematically prove the images are of dipole nature. This is the down the rabbit hole version. All Rights Reserved M. Sn...
This investigation describes and demonstrates a novel technique for the visualization of magnetic fields. Two ferrofluid Hele-Shaw cells have been constructed to facilitate the imaging of magnetic field lines. We deduce that magnetically induced photonic band gap arrays similar to electrostatic liquid crystal operation are responsible for the photographed images and seek to mathematically prove the images are of exact dipole nature. This is the ring magnet circles version. All Rights Reserved ...