Internal resonator water cooled ion laser

Claim 2

An integrated resonator tube-magnet-laser tube apparatus for an ion laser, comprising: a resonator tube; a magnet concentrically mounted in a spaced relationship within the resonator tube and defining between the magnet and resonator an outer coolant flow channel; a plasma tube concentrically mounted in a spaced relationship within the magnet and defining between the magnet and plasma tube an inner coolant flow channel.

Claim 3

Apparatus of claim 1 further including a chamber formed in one end of said apparatus between the resonator tube, plasma tube and magnet, the chamber communicating with both the inner and outer channels to interconnect the channels to provide a continuous flow path between the channels.

Claim 4

Apparatus of claim 2 further including inlet means operatively connected to the outer channel and outlet means operatively connected to the inner channel, each at the opposite end from the chamber, for producing a flow path from the inlet means, along the outer channel, through the chamber, and back along the inner channel to the outlet means.

Claim 5

Apparatus of claim 1 further including flow diverter means mounted within the outer channel to provide a helical flow path around the circumference of the outer channel from one end to the other.

Claim 6

Apparatus of claim 4 further including flow diverter means mounted within the inner channel to provide a helical flow path around the circumference of the inner channel from one end to the other.

Claim 7

Apparatus of claim 5 wherein the flow diverter means is a spiral wire wound around the magnet and contacting the resonator tube.

Claim 8

Apparatus of claim 1 wherein the magnet is an electromagnet formed of a magnet winding on a bobbin and enclosed by an outer magnet cover with a flange sealing the end, the bobbin forming one wall of the inner channel, the cover forming one wall of the outer channel.

Claim 9

In an ion laser having an optical resonator supporting a pair of spaced aligned mirrors, defining an optical cavity, a plasma tube containing a gain medium positioned within the resonator, excitation means for exciting the gain medium to form a plasma to produce lasing action, and an electromagnet surrounding the plasma tube to magnetically compress the plasma, the improvement comprising: a resonator tube; a magnet concentrically mounted in a spaced relationship within the resonator tube and defining between the magnet and resonator tube an outer coolant flow channel; a plasma tube concentrically mounted in a spaced relationship with the magnet and defining between the magnet and plasma tube an inner coolant flow channel.

Claim 10

In an ion laser having an optical resonator supporting a pair of spaced aligned mirrors, defining an optical cavity, a plasma tube containing a gain medium positioned within the resonator, excitation means for exciting the gain medium to form a plasma to produce lasing action, and an electromagnet surrounding the plasma tube to magnetically compress the plasma, the improvement comprising: a resonator tube; a magnet concentrically mounted in a spaced relationship within the resonator tube and defining between the magnet and resonator tube an outer coolant flow channel; a plasma tube concentrically mounted in a spaced relationship with the magnet and defining between the magnet and plasma tube an inner coolant flow channel.

Claim 11

Apparatus of claim 8 further including a chamber formed in one end of said apparatus between the resonator tube, plasma tube and magnet, the chamber communicating with both the inner and outer channels to interconnect the channels to provide a continuous flow path between the channels.

Claim 12

Apparatus of claim 9 further including inlet means operatively connected to the outer channel and outlet means operatively connected to the inner channel, each at the opposite end from the chamber, for producing a flow path from the inlet means, along the outer channel, through the chamber, and back along the inner channel to the outlet means.

Claim 13

Apparatus of claim 8 further including flow diverter means mounted within the outer channel to provide a helical flow path around the circumference of the outer channel from one end to the other.

Claim 14

Apparatus of claim 11 further including flow diverter means mounted within the inner channel to provide a helical flow path around the circumference of the inner channel from one end to the other.

Claim 15

Apparatus of claim 11 wherein the flow diverter means is a spiral wire wound around the magnet and contacting the resonator tube.

Claim 16

Apparatus of claim 8 wherein the magnet is an electromagnet formed of a magnet winding on a bobbin and enclosed by an outer magnet cover with a flange sealing the end, the bobbin forming one wall of the inner channel, the cover forming one wall of the outer channel.

Claim 17

Method for forming an integrated resonator-plasma tube-electromagnet structure, comprising: mounting a plasma tube in a concentric spaced relationship within a resonator tube; mounting an electromagnet in a concentric spaced relationship between the plasma tube and resonator tube to form an outer channel between the electromagnet and resonantor tube and an inner channel between the plasma tube and the electromagnet and forming a helical passageway through the outer channel.

Claim 18

Method for forming an integrated resonator-plasma tube-electromagnet structure, comprising: mounting a plasma tube in a concentric spaced relationship within a resonator tube; mounting an electromagnet in a concentric spaced relationship between the plasma tube and resonator tube to form an outer channel between the electromagnet and resonantor tube and an inner channel between the plasma tube and the electromagnet and forming a helical passageway through the outer channel.

Claim 19

Method of claim 15 further including connecting the inner and outer channels together at one end of the integrated resonator-plasma tube-electromagnet structure and further including connecting an inlet means to the outer channel and connecting an outlet means to the inner channel, each at the opposite end of the structure from the end where the channels are connected, for flowing a coolant along the outer channel, to the inner channel, and back through the inner channel.

Claim 20

Method of claim 15 further including a flowing a coolant through the inner and outer channels.