Systems and methods for performing an intraocular procedure for treating an eye condition

1. A method for performing intraocular procedures for treating eye conditions, said method comprising:

connecting a first probe of a plurality of excimer laser probes to an excimer laser source, wherein:

the excimer laser source is configured to generate laser energy to be provided to each of the plurality of excimer laser probes, and the plurality of excimer laser probes are single use and disposable, such that the plurality of excimer laser probes are each coupleable, one at a time, to said excimer laser source;

receiving, by a processor in communication with the excimer laser source after the first probe is connected to the excimer laser source, first data from a first readable device or first label of the first probe read automatically by a reader in communication with the processor, wherein the data is indicative of at least a first diameter of a first fiber optic core of the first probe;

determining, by the processor, a first laser energy output level to transmit to the first probe;

receiving, by the processor, a first signal indicative of a user control of the excimer laser source;

transmitting, by the processor in response to receiving the first signal, a second signal indicative of the first laser energy output level to the excimer laser source, wherein the second signal is configured to cause the first probe to emit first energy from the excimer laser source at the first laser energy output level;

disconnecting the first probe from the excimer laser source;

connecting a second probe of the plurality of excimer laser probes to the excimer laser source after the first probe is disconnected;

receiving, by the processor after the second probe is connected to the excimer laser source, second data from a second readable device or second label of the second probe read automatically by the reader, wherein second data is indicative of at least a second diameter of a second fiber optic core of the second probe;

determining, by the processor, a second laser energy output level to transmit to the second probe; receiving, by the processor, a third signal indicative of the user control of the excimer laser source; and

transmitting, by the processor in response to receiving the third signal, a fourth signal indicative of the second laser energy output level to the excimer laser source, wherein the fourth signal is configured to cause the second probe to emit second energy from the excimer laser source at the second laser enemy output level.

2. The method of claim 1 , further comprising correlating, by the processor, the first data with calibration data stored in a database, wherein the determining of the first laser energy output level is based on the correlating of the first data with the calibration data.

3. The method of claim 2 , wherein the database is a local database.

4. The method of claim 2 , wherein the database is a remote database.

5. The method of claim 1 , wherein while the first probe emits the first energy from the excimer laser source at the first laser energy output level, the method further comprises performing a laser trabeculostomy on an eye of a patient.

6. A method comprising, upon each instance of connecting one of a plurality of excimer laser probes to an excimer laser source:

receiving by a processor in communication with the excimer laser source, data from a readable device or label of the one of the plurality of excimer laser probes, wherein:

the data is read automatically by a reader in communication with the processor;

the data is indicative of at least a diameter of a fiber optic core of the one of the plurality of excimer laser probes;

the excimer laser source is configured to generate laser energy to be provided to each of the plurality of excimer laser probes; and

each of the plurality of excimer laser probes are single use and disposable, such that the plurality of excimer laser probes are each coupleable, one at a time, to the excimer laser source;

determining, by the processor and based on the data, a laser energy output level to transmit to the one of the plurality of excimer laser probes connected to the excimer laser source; and

transmitting, by the processor in response to receiving a first signal indicative of a user control of the excimer laser source, a second signal indicative of the laser energy output level to the excimer laser source, wherein the second signal is configured to cause the one of the plurality of excimer laser probes to emit energy from the excimer laser source at the laser energy output level.

7. The method of claim 6 , further comprising, upon each instance of connecting the one of the plurality of excimer laser probes to the excimer laser source, correlating, by the processor, the data with calibration data stored in a local or remote database, wherein the determining of the laser energy output level is based on the correlating of the data with the calibration data.

8. The method of claim 7 , wherein the calibration data comprises a range of possible diameters of the plurality of excimer laser probes and a range of corresponding laser energy output levels for each of the range of possible diameters.

9. The method of claim 7 , wherein the calibration data comprises a plurality of sets of values, wherein each set of values comprises a desired laser energy output level and a corresponding diameter of the fiber optic core.

10. The method of claim 6 , wherein while the one of the plurality of excimer laser probes emits the energy from the excimer laser source, the method further comprises performing a laser trabeculostomy on an eye of a patient.

11. The method of claim 6 , wherein while the one of the plurality of excimer laser probes emits the energy from the excimer laser source, the method further comprises automatically adjusting, by the processor, the laser energy output level to maintain a desired laser energy output level.

12. The method of claim 6 , wherein the data is received at the processor from the one of the plurality of excimer laser probes coupled to the excimer laser source prior to providing an operator with control over the excimer laser source.

13. The method of claim 6 , wherein the data is received automatically by the reader upon connection of the one of the plurality of excimer laser probes to the excimer laser source.

14. The method of claim 6 , wherein the one of the plurality of excimer laser probes connects to the excimer laser source by attaching a connection assembly of the one of the plurality of excimer laser probes to a connection port of the excimer laser source.

15. The method of claim 6 , wherein while the one of the plurality of excimer laser probes is connected to the excimer laser source, the fiber optic core of the one of the plurality of excimer laser probes is optically connected to the excimer laser source.

16. The method of claim 6 , wherein the determining of the laser energy output level by the processor further comprises transmitting, by the processor to a remote server on which a calibration database is stored, the data indicative of at least the diameter of the fiber optic core of the one of the plurality of excimer laser probes.

17. The method of claim 16 , wherein the data is first data, and further wherein the determining of the laser energy output level by the processor further comprises receiving, at the processor after the transmitting of the data to the remote server, second data indicative of the laser energy output level from the remote server.

18. The method of claim 17 , wherein the laser energy output level is determined by the processor based on the second data indicative of the laser energy output level from the remote server.

19. A system comprising:

a calibration database;

an excimer laser source;

a plurality of excimer laser probes;

a reader; and

a processor in communication with the calibration database and the reader, wherein the processor is configured to, upon each instance of one of the plurality of excimer laser probes connecting to excimer laser source:

receive data from a readable device or label of the one of the plurality of excimer laser probes, wherein:

the data is read automatically by the reader;

the data is indicative of at least a diameter of a fiber optic core of the one of the plurality of excimer laser probes;

the excimer laser source is configured to generate laser energy to be provided to each of the plurality of excimer laser probes; and

each of the plurality of excimer laser probes are single use and disposable, such that the plurality of excimer laser probes are each coupleable, one at a time, to the excimer laser source;

determine, based on the data, a laser energy output level to transmit to the one of the plurality of excimer laser probes connected to the excimer laser source; and

transmit, in response to receiving a first signal indicative of a user control of the excimer laser source, a second signal indicative of the laser energy output level to the excimer laser source, wherein the second signal is configured to cause the one of the plurality of excimer laser probes to emit energy from the excimer laser source at the laser energy output level.

20. The system of claim 19 , wherein the calibration database is stored locally on a memory connected to the processor or the calibration database is stored remotely on a remote server in communication with the processor over a network.