Compact undulator system and methods
An undulator with a compact construction is provided that reduces weight, complexity and cost. The compact undulator system and methods provides mechanical integrity without compromising magnetic field quality.
1. An undulator system, comprising:
a rectangular box-shape frame formed by aluminum plates, the rectangular box-shape frame including an inside surface and an outside surface;
a plurality of miniature linear bearings, wherein each of the miniature linear bearings is positioned within the inside surface of the rectangular box-shape frame;
opposing magnet arrays, wherein each magnet array is fastened to one or more miniature linear bearings, wherein one magnet array is moveable along an axis horizontal to the rectangular box-shape frame and the other magnet array is fixed to the rectangular box-shape frame, each magnet array further comprises:
a base plate, wherein the base plate is fastened to the one or more miniature linear bearings;
a plurality of copper holders, wherein each copper holder of the plurality is secured to the base plate; and
a plurality of permanent magnet blocks, wherein each permanent magnet block is soldered to each copper holder forming a gap between the opposing magnet arrays.
2. The undulator system of claim 1 further comprising a plurality of cooling elements, wherein the plurality of cooling elements are attached to the rectangular box-shape frame and each base plate of the magnet array in order to control temperature of the magnet arrays.
3. The undulator system of claim 1 further comprising a driving mechanism positioned near the exterior surface of the rectangular box-shape frame, the driving mechanism used to move one magnet array of the opposing magnet arrays in order to control magnetic field strength of the undulator.
4. An undulator system, comprising:
a rectangular box-shape frame, the rectangular box-shape frame including an inside surface and an outside surface;
a plurality of miniature linear bearings, wherein each of the miniature linear bearings is positioned within the inside surface of the rectangular box-shape frame;
opposing base plates, wherein each base plate is fastened to one or more miniature linear bearings of the plurality and the one or more miniature linear bearings provide movement of only one magnet array along an axis horizontal to the rectangular box-shape frame;
a plurality of holders, wherein each holder is secured to each of the opposing base plates;
a plurality of opposing magnet blocks, wherein each magnet block is soldered to each holder of the plurality of holders such that a gap is formed between the opposing magnet blocks;
a plurality of cooling elements, wherein the plurality of cooling elements is attached to the rectangular box-shape frame and each base plate of the magnet array in order to control temperature within the rectangular box-shape frame; and
a driving mechanism positioned near the exterior surface of the rectangular box-shape frame, the driving mechanism used to move only one base plate of the opposing base plates in order to control magnetic field strength of the opposing magnet blocks.
5. The undulator system according to claim 4 , wherein each holder is made from a copper material.
6. The undulator system according to claim 4 , wherein each magnet block is a neodymium magnet.
7. The undulator system according to claim 4 , wherein
driving mechanism further comprises:
a rod component connected to one base plate of the opposing base plates;
a tube component, wherein the rod component is positioned within the tube component; and
one or more connecting components that attach the tube component to the rectangular box-shape frame, wherein manipulation of the rod component moves one base plate of the opposing base plates.