Claims Analysis
Total Claims: 12
Claim 1
Independent Claim
137 words
An array of Q-switched microlasers, comprising: an array of individually addressable diode lasers adapted to produce an array of generally parallel output light beams; an array of microlenses positioned in the array of generally parallel output light beams to provide collimation of the output beams; a crystal functioning as a laser gain medium, positioned to receive the generally parallel output light beams from the diode lasers, such that the light beams operate to provide optical pumping of the laser gain material of the crystal; an array of individually addressable electroabsorptive modulators formed in resonant cavities that are defined in part by the laser gain medium; and means for selectively electrically biasing the electroabsorptive modulators periodically to provide a Q-switching function in which relatively higher power output peaks are obtained from selected elements of the microlaser laser array.
Claim 2
Dependent Claim
137 words
An array of Q-switched microlasers, comprising: an array of individually addressable diode lasers adapted to produce an array of generally parallel output light beams; an array of microlenses positioned in the array of generally parallel output light beams to provide collimation of the output beams; a crystal functioning as a laser gain medium, positioned to receive the generally parallel output light beams from the diode lasers, such that the light beams operate to provide optical pumping of the laser gain material of the crystal; an array of individually addressable electroabsorptive modulators formed in resonant cavities that are defined in part by the laser gain medium; and means for selectively electrically biasing the electroabsorptive modulators periodically to provide a Q-switching function in which relatively higher power output peaks are obtained from selected elements of the microlaser laser array.
Claim 3
Dependent Claim
62 words
An array of Q-switched microlasers as defined in claim 1, wherein: the array of individually addressable diode lasers is formed in a composite semiconductor layer that includes an active layer and a pair of integral reflective surfaces for each member of the array, to produce an emitted light beam for each member of the array generally perpendicular to the composite semiconductor layer.
Claim 4
Dependent Claim
55 words
An array of Q-switched microlasers as defined in claim 1, wherein: the array of electroabsorptive modulators includes a single semiconductor quantum well stack and multiple biasing electrodes positioned at positions adjacent to respective light beams output from the laser gain medium, to provide individually addressable Q-switching of the light beams emitted from the microlaser array.
Claim 5
Dependent Claim
42 words
An array of Q-switched microlasers as defined in claim 3, wherein: the crystal functioning as a gain medium and the array of electroabsorptive modulators incorporate reflective surfaces that define a laser cavity encompassing both the laser gain medium and the electroabsorptive modulators.
Claim 6
Dependent Claim
23 words
An array of Q-switched microlasers as defined in claim 1, and further comprising: a frequency doubling crystal formed adjacent to the electroabsorptive modulators.
Claim 7
Dependent Claim
28 words
An array of Q-switched microlasers as defined in claim 1, and further comprising: an optical parametric oscillator for conversion of light emitted from the array to longer wavelengths.
Claim 8
Independent Claim
131 words
A method of generating an array of laser beams of relatively high power and beam quality, comprising the steps of: generating an array of generally parallel light beams from an array of semiconductor diode lasers; collimating each of the generally parallel light beams in the array; optically pumping an array of solid-state lasers by introducing the array of generally parallel light beams into a laser crystal gain medium that in part defines a laser cavity for each of an array of solid state lasers; emitting an array of amplified laser light beams from the gain medium; and selectively Q-switching the solid-state lasers to provide pulsed output beams of relatively high peak powers, wherein the Q-switching function is performed by controlling an electroabsorptive modulator element associated with each of the output beams.
Claim 9
Independent Claim
131 words
A method of generating an array of laser beams of relatively high power and beam quality, comprising the steps of: generating an array of generally parallel light beams from an array of semiconductor diode lasers; collimating each of the generally parallel light beams in the array; optically pumping an array of solid-state lasers by introducing the array of generally parallel light beams into a laser crystal gain medium that in part defines a laser cavity for each of an array of solid state lasers; emitting an array of amplified laser light beams from the gain medium; and selectively Q-switching the solid-state lasers to provide pulsed output beams of relatively high peak powers, wherein the Q-switching function is performed by controlling an electroabsorptive modulator element associated with each of the output beams.
Claim 10
Dependent Claim
47 words
A method as defined in claim 7, wherein: the step of selectively Q-switching the solid-state lasers includes selectively biasing the electroabsorptive modulator elements to effect switching between a transparent state in which lasing is permitted to take place and an absorptive state in which lasing is suppressed.
Claim 11
Dependent Claim
27 words
A method as defined in claim 8, and further comprising: doubling the output frequency of light beams emitted in the emitting step, using a frequency multiplier crystal.
Claim 12
Dependent Claim
27 words
A method as defined in claim 8, and further comprising: converting the light beams emitted in the emitting step to longer wavelengths, using an optical parametric oscillator.