Thermal insulation and temperature control of components
A device may include a temperature controlled chamber. The temperature controlled chamber may be coupled to a plurality of strengthening coated capillary tubes. The strengthening coated capillary tubes may support the temperature controlled chamber and provide thermal insulation to the temperature controlled chamber.
1. A method of manufacturing an electronic device, comprising:
attaching a plurality of capillary tubes to a substrate;
electrically coupling the capillary tubes to electronic components attached to the substrate;
enclosing the electronic components in a temperature controlled chamber wherein enclosing the electronic components in the temperature controlled chamber comprises hermetically sealing the temperature controlled chamber;
attaching the plurality of capillary tubes to a second substrate; and
packaging the plurality of capillary tubes, the substrate, and the temperature controlled chamber in a vacuum chamber.
2. The method of claim 1 , further comprising coating the temperature controlled chamber in a low emissive material.
3. A method of manufacturing an electronic device, comprising:
attaching a plurality of capillary tubes to a substrate;
electrically coupling the capillary tubes to electronic components attached to the substrate;
enclosing the electronic components in a temperature controlled chamber;
attaching the plurality of capillary tubes to a second substrate, wherein attaching the plurality of capillary tubes to the substrate comprises attaching the fibers to the substrate using epoxy; and
packaging the plurality of capillary tubes, the substrate, and the temperature controlled chamber in a vacuum chamber.
4. A method of manufacturing an electronic device, comprising:
attaching a plurality of capillary tubes to a substrate;
electrically coupling the capillary tubes to electronic components attached to the substrate;
enclosing the electronic components in a temperature controlled chamber;
attaching the plurality of capillary tubes to a second substrate;
packaging the plurality of capillary tubes, the substrate, and the temperature controlled chamber in a vacuum chamber; and
providing a second set of capillary tubes to support the plurality of capillary tubes attached to the substrate.
5. The method of claim 1 , further comprising providing an outer shell to house the temperature controlled chamber.
6. An oven-controlled crystal oscillator comprising:
a temperature controlled chamber disposed within a vacuum packaged assembly;
a crystal oscillator disposed within the temperature controlled chamber, wherein the temperature controlled chamber is a solid material housing the crystal oscillator and a temperature sensor; and
a plurality of capillary tubes electrically coupled to the crystal oscillator, the plurality of capillary tubes having a hollow core and a polymer coating, wherein:
a first end of each of the plurality of capillary tubes is coupled to the temperature controlled chamber; and
a second end of each of the plurality of capillary tubes is coupled to a support structure.
7. The oven-controlled crystal oscillator of claim 6 , further comprising an outer shell having a low pressure chamber to house the temperature controlled chamber and the plurality of capillary tubes.
8. The oven-controlled crystal oscillator of claim 6 , further comprising: a second plurality of capillary tubes having a hollow core and a polymer coating, wherein the second plurality of capillary tubes is not coupled to the temperature controlled chamber.
9. The oven-controlled crystal oscillator of claim 8 , wherein the plurality of capillary tubes and the second plurality of capillary tubes form a mesh to support the temperature controlled chamber.
10. The oven-controlled crystal oscillator of claim 6 , wherein the plurality of capillary tubes is electrically coupled to the crystal oscillator through an electrically conductive layer of the plurality of capillary tubes.
11. An oven-controlled crystal oscillator comprising:
a temperature controlled chamber disposed within a vacuum packaged assembly;
a crystal oscillator disposed within the temperature controlled chamber; and
a plurality of capillary tubes electrically coupled to the crystal oscillator, the plurality of capillary tubes having a hollow core and a polymer coating, wherein:
a first end of each of the plurality of capillary tubes is coupled to the temperature controlled chamber; and
a second end of each of the plurality of capillary tubes is coupled to a support structure; and
an external structure operatively coupled with the temperature controlled chamber.