Claims Analysis
Total Claims: 13
Claim 1
Independent Claim
238 words
A lighting system utilizing stimulated atomic emission, comprising: a laser producing photons of a predetermined modulated frequency; a sealed bulb which contains a predetermined inner gaseous environment, and a predetermined frequency modulated fluorescent photon interaction coating source on the inner walls; and a fiber-optic waveguide coupled to said laser and extending through said gaseous environment contained within said sealed bulb; said waveguide being clad with a material with more density than that of the waveguide core; where it is coupled to said laser and extending to said sealed bulb and unclad as it extends through said gaseous environment contained within said sealed bulb, and further said waveguide has an intragally formed reflective end section for provisions of feedback of frequency modulated photon through the waveguide core at the output end, said predetermined frequency modulated photon being pumped through said waveguide by said laser thereby producing counter travelling photons within the waveguide thereby increasing the intensity of photon emission within the waveguide, thereby enhancing the probability of photon collision at a variety of incident angles as to cause photons to be emitted from the portion of unclad waveguide within said sealed bulb, therefore stimulating the inner gaseous environment to a spontaineous emission which in turn stimulates a frequency modulated fluorescent photon interaction coating source on the inner diameter of the sealed bulb thereby producing cold light without electrical stimulation to start a photon emission, therefore eliminating direct electrical stimulation.
Claim 2
Dependent Claim
238 words
A lighting system utilizing stimulated atomic emission, comprising: a laser producing photons of a predetermined modulated frequency; a sealed bulb which contains a predetermined inner gaseous environment, and a predetermined frequency modulated fluorescent photon interaction coating source on the inner walls; and a fiber-optic waveguide coupled to said laser and extending through said gaseous environment contained within said sealed bulb; said waveguide being clad with a material with more density than that of the waveguide core; where it is coupled to said laser and extending to said sealed bulb and unclad as it extends through said gaseous environment contained within said sealed bulb, and further said waveguide has an intragally formed reflective end section for provisions of feedback of frequency modulated photon through the waveguide core at the output end, said predetermined frequency modulated photon being pumped through said waveguide by said laser thereby producing counter travelling photons within the waveguide thereby increasing the intensity of photon emission within the waveguide, thereby enhancing the probability of photon collision at a variety of incident angles as to cause photons to be emitted from the portion of unclad waveguide within said sealed bulb, therefore stimulating the inner gaseous environment to a spontaineous emission which in turn stimulates a frequency modulated fluorescent photon interaction coating source on the inner diameter of the sealed bulb thereby producing cold light without electrical stimulation to start a photon emission, therefore eliminating direct electrical stimulation.
Claim 3
Dependent Claim
29 words
A lighting system of claim 1 in which said fiber-optic waveguide is unclad where it extends through sealed bulb and clad where it extends from laser to sealed bulb.
Claim 4
Dependent Claim
34 words
A lighting system of claim 2 in which said fiber-optic waveguide has an intragally formed reflective end section for provisions of feedback of frequency modulated photon through the waveguide core at the output end.
Claim 5
Dependent Claim
17 words
A lighting system of claim 3 in which a laser produces photons of a predetermined modulated frequency.
Claim 6
Dependent Claim
21 words
A lighting system of claim 4 in which said frequency modulated photons are pumped through said fiber-optic waveguide by a laser.
Claim 7
Dependent Claim
21 words
A lighting system of claim 5 in which said fiber-optic waveguide travels through said sealed bulb containing an inner gaseous environment.
Claim 8
Dependent Claim
18 words
A lighting system of claim 6 in which said gaseous environment comprises a frequency modulated photon interaction source.
Claim 9
Dependent Claim
30 words
A lighting system of claim 7 in which said frequency modulated fluorescent photon interaction coating source is altered in its visible light spectrum output by manipulation of applied modulated frequency.
Claim 10
Dependent Claim
30 words
A lighting system of claim 8 in which said frequency modulated fluorescent photon interaction coating source is altered in its visible light spectrum output by manipulation of gaseous environment composition.
Claim 11
Dependent Claim
31 words
A lighting system of claim 9 in which said frequency modulated florescent photon interaction coating source is altered in its visible light spectrum output by the manipulation of photon source wattage.
Claim 12
Dependent Claim
26 words
A lighting system of claim 10 in which said frequency modulated fluorescent photon interaction coating source is stimulated by the spontaineous emission of the gaseous environment.
Claim 13
Dependent Claim
21 words
A lighting system of claim 11 in which said spontaineous emission is created by frequency modulated photon interaction within gaseous environment.