Printed circuit board with recessed region
A printed circuit board ( 18 ) for electrically connecting to an optical subassembly ( 16 ) includes a board base ( 230 ), a conductive trace ( 232 ), and a board conductor ( 234 ). The optical subassembly ( 16 ) includes at least one component pad ( 346 ). The board base ( 230 ) is made of a substantially nonconductive material. Further, the board base ( 230 ) defines a recessed region ( 238 ) that is sized and shaped to receive a portion of the optical subassembly ( 16 ). The conductive trace ( 232 ) is secured to the board base ( 230 ). The board conductor ( 234 ) is positioned near the receiver region ( 238 ). Further, the board conductor ( 234 ) is positioned near the component pad ( 346 ) when the optical subassembly ( 16 ) is positioned in the receiver region ( 238 ). Moreover, the board conductor ( 234 ) is electrically connected to the conductive trace ( 232 ).
1. A printed circuit board for electrically connecting to an electrical component, the electrical component including at least one conductive component pad, the printed circuit board comprising:
a board base that is made of a substantially nonconductive material, the board base defining a recessed region that is sized and shaped to receive a portion of the electrical component;
a conductive trace that is secured to the board base; and
a board conductor secured to the board base near the recessed region, the board conductor being positioned near the component pad when the electrical component is positioned in the recessed region, the board conductor being electrically connected to the conductive trace; wherein the board conductor includes a barrel and solder that electrically and directly connects the barrel to the component pad.
2. The printed circuit board of claim 1 wherein the board conductor extends through the board base into a bottom wall of the recessed region.
3. The printed circuit board of claim 1 wherein the barrel is tubular shaped and the solder is at least partly positioned within the barrel.
4. The printed circuit board of claim 1 wherein the board base includes a substantially nonconductive first layer and a substantially nonconductive second layer that is stacked on the first layer.
5. The printed circuit board of claim 4 wherein the recessed region is defined by an aperture that extends through the second layer.
6. The printed circuit board of claim 1 wherein the board conductor extends through a side wall of the receiver region.
7. The printed circuit board of claim 1 further comprising an attacher for mechanically attaching the electronic component to the board base.
8. The printed circuit board of claim 1 wherein the recessed region defines a plurality of walls that inhibit movement of the electrical component relative to the printed circuit board along at least one axis.
9. The printed circuit board of claim 1 further comprising a board component that is electrically connected to conductive trace.
10. A combination including an optical subassembly and the printed circuit board of claim 1 retaining the optical subassembly.
11. A precision apparatus including an analyzer and the combination of claim 10 .
12. A combination for use in a precision apparatus, the combination comprising:
an optical subassembly that includes at least one conductive component pad; and
a printed circuit board that retains the optical subassembly, the printed circuit board comprising (i) a board base that is made of a substantially nonconductive material, the board base defining a recessed region that is sized and shaped to receive a portion of the optical subassembly; (ii) a conductive trace that is secured to the board base; and (iii) a board conductor positioned near the recessed region, the board conductor being positioned near the component pad when the optical subassembly is positioned in the recessed region, the board conductor being fixedly and electrically connected to the conductive trace, the board conductor extending through the board base into the recessed region; wherein the board conductor includes a barrel and solder that electrically and directly connects the barrel to the component pad.
13. The combination of claim 12 wherein the barrel is tubular shared and the solder is at least partly positioned within the barrel.
14. The combination of claim 12 wherein the board base includes a substantially nonconductive first layer and a substantially nonconductive second layer that is stacked on the first layer.
15. The combination of claim 14 wherein the recessed region is defined by an aperture that extends through the second layer.
16. The combination of claim 15 wherein the second layer is at least approximately 10 percent thicker than the first layer.
17. The combination of claim 12 wherein the recessed region defines a plurality of walls that inhibit movement of the optical subassembly relative to the printed circuit board along at least one axis.
18. A precision apparatus including an analyzer and the combination of claim 12 .
19. A method for electrically connecting an electrical component in a precision apparatus, the method comprising the steps of:
providing a printed circuit board that retains the electrical component, the printed circuit board comprising (i) a board base that is made of a substantially nonconductive material, the board base defining a recessed region that is sized and shaped to receive a portion of the electrical component; (ii) a conductive trace that is secured to the board base; and (iii) a board conductor positioned near the recessed region, the board conductor being positioned near the component pad when the electrical component is positioned in the recessed region, the board conductor including a barrel that extends through the base board into the recessed region; and
fixedly securing the barrel to a conductive component pad of the electrical component with solder.
20. The method of claim 19 wherein the step of providing a printed circuit board includes providing a board base that includes a substantially nonconductive first layer and a substantially nonconductive second layer that is stacked on the first layer, and wherein the recessed region is defined by an aperture that extends through the second layer.