Stackable molecular spectroscopy cell
A stackable molecular spectroscopy cell includes a hollow body, a first cap affixed to a first surface of the hollow body, covering a first opening in the hollow body, and a second cap affixed to a second surface of the hollow body, covering a second opening in the hollow body, and forming a sealed cavity within the hollow body. The sealed cavity contains a dipolar gas having a pressure of less than 0.5 mbar. The stackable molecular spectroscopy cell also includes a metal layer covering an inner surface of the hollow body and an inner surface of the first and second caps, including a first aperture in the metal layer covering the inner surface of the first cap and a second aperture in the metal layer covering the inner surface of the second cap.
1 . A device comprising:
a first stackable molecular spectroscopy cell comprising:
a hollow body;
a first cap affixed to a first surface of the hollow body, covering a first opening in the hollow body;
a second cap affixed to a second surface of the hollow body, covering a second opening in the hollow body, and forming a sealed cavity within the hollow body;
a dipolar gas having a pressure of less than 0.5 mbar within the sealed cavity; and
a metal layer covering an inner surface of the hollow body and an inner surface of the first and second caps;
a first aperture formed in the metal layer covering the inner surface of the first cap; and
a second aperture formed in the metal layer covering the inner surface of the second cap;
a second stackable molecular spectroscopy cell comprising:
a first aperture; and
a second aperture;
wherein the first aperture of the first stackable molecular spectroscopy cell is aligned with the second aperture of the second stackable molecular spectroscopy cell; and
the second aperture of the first stackable molecular spectroscopy cell is aligned with the first aperture of the second stackable molecular spectroscopy cell;
wherein the first aperture of the first stackable molecular spectroscopy cell is a first iris coupling electromagnetic field and electromagnetic band gap structures with a first transmitter;
wherein the second aperture of the first stackable molecular spectroscopy cell is a second iris coupling electromagnetic field and electromagnetic band gap structures with a first receiver;
wherein the first aperture of the second stackable molecular spectroscopy cell is a third iris coupling electromagnetic field and electromagnetic band gap structures with a second transmitter;
wherein the second aperture of the first stackable molecular spectroscopy cell is a fourth iris coupling electromagnetic field and electromagnetic band gap structures with a second receiver;
wherein the alignment of the first stackable molecular spectroscopy cell and the second stackable molecular spectroscopy cell allows electromagnetic fields to travel unimpeded between the first and second stacked molecular spectroscopy cells.
2 . The device of claim 1 , wherein the hollow body is a truncated hollow cylinder.
3 . The device of claim 1 , wherein the hollow body is formed by etching a silicon substrate.
4 . The device of claim 1 , wherein the metal layer comprises gold.
5 . The device of claim 1 , wherein the first and second caps comprise glass.
6 . The device of claim 1 , wherein the first and second apertures are etched into the metal layer.
7 . The device of claim 1 , wherein the first and second apertures are matched in size and shape.
8 . The device of claim 6 , wherein the first aperture is a first distance from a first side of the hollow body, and the second aperture is the first distance from a second side of the hollow body opposite to the first side of the hollow body.
9 . A device comprising:
first and second stackable molecular spectroscopy cells, each of the first and second stackable molecular spectroscopy cells comprising:
a respective hollow body;
a respective first cap affixed to a first surface of the hollow body, covering a first opening in the hollow body;
a respective second cap affixed to a second surface of the hollow body, covering a second opening in the hollow body and forming a sealed cavity within the hollow body;
a respective dipolar gas having a pressure of less than 0.5 mbar within the sealed cavity; and
a respective metal layer covering an inner surface of the hollow body and an inner surface of the first and second caps, including a first aperture in the metal layer covering the inner surface of the first cap and a second aperture in the metal layer covering the inner surface of the second cap;
wherein the second stackable molecular spectroscopy cell is placed adjacent to the first stackable molecular spectroscopy cell such that a first aperture in the second stackable molecular spectroscopy cell is placed in alignment with a second aperture in the first stackable molecular spectroscopy cell;
wherein the first aperture of the first stackable molecular spectroscopy cell is a first iris coupling electromagnetic field and electromagnetic band gap structures with a first transmitter;
wherein the second aperture of the first stackable molecular spectroscopy cell is a second iris coupling electromagnetic field and electromagnetic band gap structures with a first receiver;
wherein the first aperture of the second stackable molecular spectroscopy cell is a third iris coupling electromagnetic field and electromagnetic band gap structures with a second transmitter;
wherein the second aperture of the first stackable molecular spectroscopy cell is a fourth iris coupling electromagnetic field and electromagnetic band gap structures with a second receiver;
wherein the alignment of the first stackable molecular spectroscopy cell and the second stackable molecular spectroscopy cell allows electromagnetic fields to travel unimpeded between the first and second stacked molecular spectroscopy cells.
10 . The device of claim 9 , wherein the hollow body is a truncated hollow cylinder.
11 . The device of claim 9 , wherein the hollow body is formed by etching a silicon substrate.
12 . The device of claim 9 , wherein the metal layer comprises gold.
13 . The device of claim 9 , wherein the first and second caps comprise glass.
14 . The device of claim 9 , wherein the first and second apertures are etched into the metal layer.
15 . The device of claim 9 , wherein the first and second apertures are matched in size and shape.
16 . The device of claim 15 , wherein the first aperture is a first distance from a first side of the hollow body, and the second aperture is the first distance from a second side of the hollow body opposite to the first side of the hollow body.