Material modification assembly and method for use in the modification of material substrates
A material modification assembly comprises an energy source for generating light beams to modify a substrate. A computing device generates pattern script(s) based on at least one parameter of the modification. The computing device also generates process script(s) including a type of pulse scripts to be used with the light beams and are based on at least one parameter of the interaction between the energy source and the substrate. The computing device combines the pattern script(s) with the process script(s) and generates command signals based on the combination. The computing device transmits the command signals to one or more additional devices of the material modification assembly to facilitate modifying the light beams for the modification to the substrate such that the modification includes a pattern on at least a surface of the substrate having dimensions and includes two or more discrete material alterations or changes spatially overlapped within the pattern.
1. A material modification assembly comprising:
an energy source configured to generate a plurality of light beams for a modification to a material substrate: and
a computing device coupled to said energy source, wherein said computing device configured to:
generate at least one pattern script for the modification to the material substrate, wherein the at least one pattern script is based on at least one parameter of the modification;
generate at least one process script that includes a type of a plurality of pulse scripts to be used in conjunction with the plurality of light beams generated by said energy source for the modification to the material substrate, wherein the plurality of pulse, scripts are based on at least one parameter of the interaction between said energy source and the material substrate;
combine the at least one pattern script with the at least one process script such that the at least one pattern script and the at least one process script are interleaved, thereby generating a master control code, wherein the at least one pattern script and the at least one process script are linked, in an a line-by-line arrangement such that, when the material substrate undergoes the modification, a plurality of patterns are defined on at least a surface of the material substrate and the plurality of patterns are one of discretely spaced or separated;
generate a plurality of command signals that are based on the master control code; and
transmit the plurality of command signals to one or more additional component devices of said material modification assembly that are coupled to said computing device to enable the one or more component devices to facilitate modifying the plurality of light least one pattern of the plurality of patterns has dimensions and includes two or more discrete material alterations or changes spatially overlapped within the at least one pattern.
2. A material modification assembly in accordance with claim 1 , further comprising a motion control system coupled to said computing device, wherein said motion control system is configured to receive at least one of the plurality of command signals and to generate at least one output that provides instructions for the type of the plurality of pulse scripts to use for the modification to the material substrate based on the at least one command signal.
3. A material modification assembly in accordance with claim 2 , wherein said motion control system is further configured to translate a sample portion of the material substrate into a three-dimensional coordinate system.
4. A material modification assembly in accordance with claim 2 , further comprising a waveform generator coupled to said motion control system, wherein said waveform generator is configured to generate the plurality of pulse scripts based on the at least one output such that the plurality of pulse scripts are enabled to be used with the plurality of light beams generated by said energy source for the modification to the material substrate.
5. A material modification assembly in accordance with claim 4 , further comprising an amplifier coupled to said waveform generator, wherein said amplifier is configured to amplify the plurality of pulse scripts.
6. A material modification assembly in accordance with claim 5 , further comprising one or more modulating devices coupled to said amplifier, wherein said one or more modulating devices are configured to combine the plurality of amplified pulse scripts with the plurality of light beams generated by said energy source.
7. A material modification assembly in accordance with claim 1 , further comprising a detection device coupled to said computing device and positioned proximate to the material substrate, wherein said detection device is configured to:
detect at least one parameter of the modification to the material substrate in real-time; and
transmit a signal to said computing device representative of the detected at least one parameter of the modification to enable said computing device to generate an updated at least one pattern script and an updated at least one process script that are based on the detected at least one parameter.
8. A method for use in a modification of a material substrate, said method comprising:
coupling an energy source to a computing device;
generating at least one pattern script for a modification to a material substrate, via the computing device, wherein the at least one pattern script is based on at least one parameter of the modification;
generating at least one process script that includes a type of a plurality of pulse scripts to be used in conjunction with a plurality of light beams generated by the energy source for the modification to the material substrate, via the computing device, wherein the plurality of pulse scripts are based on at least one parameter of the interaction between the energy source and the material substrate;
combining the at least one pattern script with the at least one process script, via the computing device, thereby generating a master control code, such that the at least one pattern script and the at least one process script are interleaved, wherein the at least one pattern script and the at least one process script are linked, in a line-by-line arrangement such that, when the material substrate undergoes the modification, a plurality of patterns are defined on at least a surface of the material substrate and the plurality of patterns are one of discretely spaced or separated;
generating a plurality of command signals that are based on the master control code, via the computing device; and
transmitting the plurality of command signals to one or more additional component devices that are coupled to the computing device to enable the one or more component devices to facilitate modifying the plurality of light beams being generated by the energy source for the modification to the material substrate such that at least one pattern of the plurality of patterns has dimensions and includes two or more discrete material alterations or changes spatially overlapped within the at least one pattern.
9. A method in accordance with claim 8 , wherein transmitting the plurality of command signals comprises transmitting at least one of the plurality of command signals to a motion control system that is coupled to the computing device.
10. A method in accordance with claim 9 , further comprising translating a sample portion of the material substrate into a three-dimensional coordinate system, via the motion control system.
11. A method in accordance with claim 9 , further comprising generating at least one output that provides instructions for the type of the plurality of pulse scripts to use for the modification to the material substrate based on the at least one command signal, via the motion control system.
12. A method in accordance with claim 11 , further comprising:
transmitting the at least one output to a waveform generator that is coupled to the motion control system; and
generating the plurality of pulse scripts based on the output such that the plurality of pulse scripts are enabled to be used with the plurality of light beams generated by the energy source for the modification to the material substrate.
13. A method in accordance with claim 12 , further comprising:
transmitting the plurality of pulse scripts to an amplifier that is coupled to a waveform generator; and
amplifying the plurality of pulse scripts via the amplifier.
14. A method in accordance with claim 13 , further comprising:
transmitting the amplified pulse scripts to one or more modulating devices coupled to the amplifier; and
combining the plurality of amplified pulse scripts with the plurality of light beams generated by the energy source.
15. A method in accordance with claim 8 , further comprising:
detecting at least one parameter of the modification to the material substrate in real-time via a detection device that is coupled to the computing device and positioned proximate to the material substrate;
transmitting a signal representative of the detected at least one parameter of the modification to the computing device; and
generating an updated at least one pattern script and an updated at least one process script that are based on the detected at least one parameter, via the computing device.
16. A system comprising:
a material substrate;
a material modification assembly positioned proximate to said material substrate, said material modification assembly comprising:
an energy source positioned proximate to said material substrate, wherein said energy source is configured to generate a plurality of light beams for a modification to said material substrate; and
a computing device coupled to said energy source, wherein said computing device configured to:
generate at least one pattern script, for the modification to said material substrate, wherein the at least one pattern script is based on at least one parameter of the modification;
generate at least one process script that includes a type of a plurality of pulse scripts to he used in conjunction with the plurality of light beams generated by said energy source for the modification to said material substrate, wherein the plurality of pulse scripts are based on at least one parameter of the interaction between said energy source and said material substrate:
combine the at least one pattern script with the at least one process script such that the at least one pattern script and the at least one process script are interleaved, thereby generating a master control code, wherein the at least one pattern script and the at least one process script are linked, in a line-by-line arrangement such that, when the material substrate undergoes the modification, a plurality of patterns are defined on at least a surface of the material substrate and the plurality of patterns are one of discretely spaced or separated;
generate a plurality of command signals that are based on the master control code; and
transmit the plurality of command signals to one or more additional component devices of said material modification assembly that are coupled to said computing device to enable the one or more component devices to facilitate modifying the plurality of light beams being generated by said energy source for the modification to said material substrate such that at least one pattern of the plurality of patterns has dimensions and includes two or more discrete material alterations or changes spatially overlapped within the at least one pattern.
17. A system in accordance with claim 16 , wherein said material modification assembly further comprises a motion control system coupled to said computing device, wherein said motion control system is configured to receive at least one of the plurality of command signals and to generate at least one output that provides instructions for the type of the plurality of pulse scripts to use for the modification to said material substrate based on the at least one command signal.
18. A system in accordance with claim 17 , wherein said motion control system is further configured to translate a sample portion of said material substrate into a three-dimensional coordinate system.
19. A system in accordance with claim 17 , wherein said material modification assembly further comprises a waveform generator coupled to said motion control system, wherein said waveform generator is configured to generate the plurality of pulse scripts based on the at least one output such that the plurality of pulse scripts are enabled to be used with the plurality of light beams generated by said energy source for the modification to said material substrate.
20. A system in accordance with claim 19 , wherein said material modification assembly further comprises an amplifier coupled to said waveform generator, wherein said amplifier is configured to amplify the plurality of pulse scripts.
21. A system in accordance with claim 20 , wherein said material modification assembly further comprises one or more modulating devices coupled to said amplifier, wherein said one or more modulating devices are configured to combine the plurality of amplified pulse scripts with the plurality of light beams generated by said energy source.
22. A system in accordance with claim 16 , wherein said material modification assembly further comprises a detection device coupled to said computing device and positioned proximate to said material substrate, wherein said detection device is configured to:
detect at least one parameter of the modification to said material substrate in real-time; and transmit a signal to said computing device representative of the detected at least one parameter of the modification to enable said computing device to generate an updated at least one pattern script and an updated at least one process script that are based on the detected at least one parameter.