Claims Analysis
Total Claims: 37
Claim 1
Independent Claim
222 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises a first coating capable of transmitting at least two wavelength bands of interest in combination with at least a second coating capable of reflecting or absorbing one or more wavelength bands of radiant energy transmitted by said first coating, wherein at least one of said first and second coatings comprises a dielectric material and wherein said optical thin film filter further comprises a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest wherein said first coating is applied to one surface of said substrate; a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating; and, a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the wavelength band transmitted by said first photolithographic patterned coating, said second photolithographic patterned coating reflecting all other wavelength bands; wherein said first and second photolithographic patterned coatings are provided on a second surface of said substrate, opposite to said first coating, in discrete, abutting and non-overlapping regions.
Claim 2
Dependent Claim
222 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises a first coating capable of transmitting at least two wavelength bands of interest in combination with at least a second coating capable of reflecting or absorbing one or more wavelength bands of radiant energy transmitted by said first coating, wherein at least one of said first and second coatings comprises a dielectric material and wherein said optical thin film filter further comprises a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest wherein said first coating is applied to one surface of said substrate; a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating; and, a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the wavelength band transmitted by said first photolithographic patterned coating, said second photolithographic patterned coating reflecting all other wavelength bands; wherein said first and second photolithographic patterned coatings are provided on a second surface of said substrate, opposite to said first coating, in discrete, abutting and non-overlapping regions.
Claim 3
Dependent Claim
34 words
The optical thin film filter of claim 1 wherein said first and second photolithographic patterned coatings are formed of a plurality of high and low index of refraction dielectric materials, arranged in multiple layers.
Claim 4
Dependent Claim
56 words
The optical thin film filter of claim 2 wherein said first and second photolithographic patterned coatings are characterized by additional optical impedance matching layers, closest to said substrate surface, which will match the index of refraction of the lower layers of said first and second photolithographic patterned coatings to the index of refraction of said substrate.
Claim 5
Dependent Claim
66 words
The optical thin film filter of claim 2 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers, furthest from said substrate surface, which will match the index of refraction of the upper layers of said first and second photolithographic patterned coatings to the index of refraction of the atmosphere in which the optical thin film filter is to be used.
Claim 6
Dependent Claim
23 words
The optical thin film filter of claim 1 wherein the photolithographic patterns of the first and second photolithographic patterned coatings are parallel stripes.
Claim 7
Dependent Claim
34 words
The optical thin film filter of claim 1 wherein said first photolithographic patterned coating acts as a short wavelength reflective coating, and said second photolithographic patterned coating acts as a long wavelength reflective coating.
Claim 8
Dependent Claim
195 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting two or more wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating; and, d. a second photolithographic patterned least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the wavelength band transmitted by said first photolithographic patterned coating, said second photolithographic patterned coating reflecting all other wavelength bands; whereby said first and second photolithographic patterned coatings are provided on the same surface of the substrate as said first coating, in discrete abutting and non-overlapping regions, and wherein said first coating (b) is provided directly on top of the first and second photolithographic patterned coatings.
Claim 9
Dependent Claim
195 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting two or more wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating; and, d. a second photolithographic patterned least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the wavelength band transmitted by said first photolithographic patterned coating, said second photolithographic patterned coating reflecting all other wavelength bands; whereby said first and second photolithographic patterned coatings are provided on the same surface of the substrate as said first coating, in discrete abutting and non-overlapping regions, and wherein said first coating (b) is provided directly on top of the first and second photolithographic patterned coatings.
Claim 10
Dependent Claim
34 words
The optical thin film filter of claim 7 wherein the first and second photolithographic patterned coatings are formed of a plurality of high and low index of refraction dielectric materials, arranged in multiple layers.
Claim 11
Dependent Claim
55 words
The optical thin film filter of claim 8 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers, closest to said substrate surface, which will match the index of refraction of the lower layers of said first and second photolithographic patterned coatings to the index of refraction of said substrate.
Claim 12
Dependent Claim
56 words
The optical thin film filter of claim 8 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers, furthest from said substrate surface, which will match the index of refraction of the upper layers of said first and second photolithographic patterned coatings to the index of refraction of said first coating.
Claim 13
Dependent Claim
19 words
The optical thin film filter of claim 7 wherein said photolithographic patterns of said patterned coatings are parallel stripes.
Claim 14
Dependent Claim
34 words
The optical thin film filter of claim 7 wherein said first photolithographic patterned coating acts as a short wavelength reflective coating, and said second photolithographic patterned coating acts as a long wavelength reflective coating.
Claim 15
Dependent Claim
198 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting at least two wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating, and capable of modifying its transmission band; and, d. a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the band transmitted by said first photolithographic patterned coating while reflecting all other wavelength bands, said second photolithographic patterned coating also capable of modifying its transmission band, whereby said first and second photolithographic patterned coatings are provided on a second surface of said substrate, opposite to said first coating, in discrete, abutting and non-overlapping regions.
Claim 16
Dependent Claim
198 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting at least two wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating, and capable of modifying its transmission band; and, d. a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the band transmitted by said first photolithographic patterned coating while reflecting all other wavelength bands, said second photolithographic patterned coating also capable of modifying its transmission band, whereby said first and second photolithographic patterned coatings are provided on a second surface of said substrate, opposite to said first coating, in discrete, abutting and non-overlapping regions.
Claim 17
Dependent Claim
34 words
The optical thin film filter of claim 13 wherein said first and second photolithographic patterned coatings are formed of a plurality of high and low index of refraction dielectric materials, arranged in multiple layers.
Claim 18
Dependent Claim
58 words
The optical thin film filter of claim 14 wherein said first and second photolithographic patterned coatings are characterized by additional optical impedance matching layers, closest to the surface of said substrate, which will match the index of refraction of the lower layers of said first and second photolithographic patterned coatings to the index of refraction of said substrate.
Claim 19
Dependent Claim
68 words
The optical thin film filter of claim 14 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers, furthest from the surface of said substrate, which will match the index of refraction of the upper layers of said first and second photolithographic patterned coatings to the index of refraction of the atmosphere in which the optical thin film filter is to be used.
Claim 20
Dependent Claim
18 words
The optical thin film filter of claim 13 wherein said photolithographic patterns of said coatings are parallel stripes.
Claim 21
Dependent Claim
34 words
The optical thin film filter of claim 13 wherein said first photolithographic patterned coating acts as a short wavelength reflective coating, and said second photolithographic patterned coating acts as a long wavelength reflective coating.
Claim 22
Dependent Claim
216 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting at least two wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating, and capable of modifying its transmission band; and, d. a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the wavelength band transmitted by said first photolithographic patterned coating while reflecting all other wavelength bands, said second lithographic patterned coating also capable of modifying its transmission band; whereby said first and second photolithographic patterned coatings are provided on the same surface of the substrate as said first coating, in discrete abutting and non-overlapping regions, and wherein said first coating is provided directly on top of the first and second photolithographic patterned coatings.
Claim 23
Dependent Claim
216 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting at least two wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating, and capable of modifying its transmission band; and, d. a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one wavelength band different than the wavelength band transmitted by said first photolithographic patterned coating while reflecting all other wavelength bands, said second lithographic patterned coating also capable of modifying its transmission band; whereby said first and second photolithographic patterned coatings are provided on the same surface of the substrate as said first coating, in discrete abutting and non-overlapping regions, and wherein said first coating is provided directly on top of the first and second photolithographic patterned coatings.
Claim 24
Dependent Claim
34 words
The optical thin film filter of claim 19 wherein said first and second photolithographic patterned coatings are formed of a plurality of high and low index of refraction dielectric materials, arranged in multiple layers.
Claim 25
Dependent Claim
55 words
The optical thin film filter of claim 20 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers, closest to said substrate surface, which will match the index of refraction of the lower layers of said first and second photolithographic patterned coatings to the index of refraction of said substrate.
Claim 26
Dependent Claim
56 words
The optical thin film filter of claim 20 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers, furthest from said substrate surface, which will match the index of refraction of the upper layers of said first and second photolithographic patterned coatings to the index of refraction of said first coating.
Claim 27
Dependent Claim
19 words
The optical thin film filter of claim 19 wherein said photolithographic patterns of said patterned coatings are parallel stripes.
Claim 28
Dependent Claim
34 words
The optical thin film filter of claim 19 wherein said first photolithographic patterned coating acts as a short wavelength reflective coating, and said second photolithographic patterned coating acts as a long wavelength reflective coating.
Claim 29
Dependent Claim
242 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting at least two wavelength bands of interest and reflecting or absorbing all other out of band wavelengths, said first coating acting as a wide band transmitting coating with short wavelength and long wavelength edges of said transmission band being one edge of two distinct and different colors; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating, said first photolithographic coating providing the second transmission edge for one color; and, d. a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one band different than the wavelength band transmitted by said first photolithographic patterned coating, said second photolithographic patterned coating reflecting all other bands, said second photolithographic coating providing the second transmission edge for the second color bracketed by the first coating; whereby said first and second photolithographic patterned coatings are provided on a second surface of said substrate, opposite to said first coating, in discrete, abutting and non-overlapping regions.
Claim 30
Dependent Claim
242 words
An optical thin film filter for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a first coating on one surface of said substrate, said first coating capable of transmitting at least two wavelength bands of interest and reflecting or absorbing all other out of band wavelengths, said first coating acting as a wide band transmitting coating with short wavelength and long wavelength edges of said transmission band being one edge of two distinct and different colors; c. a first photolithographic patterned coating capable of reflecting all but one wavelength band of radiant energy transmitted by said first coating, said first photolithographic coating providing the second transmission edge for one color; and, d. a second photolithographic patterned coating which is capable of transmitting at least one wavelength band transmitted by said first coating and capable of transmitting at least one band different than the wavelength band transmitted by said first photolithographic patterned coating, said second photolithographic patterned coating reflecting all other bands, said second photolithographic coating providing the second transmission edge for the second color bracketed by the first coating; whereby said first and second photolithographic patterned coatings are provided on a second surface of said substrate, opposite to said first coating, in discrete, abutting and non-overlapping regions.
Claim 31
Dependent Claim
34 words
The optical thin film filter of claim 25 wherein said first and second photolithographic patterned coatings are formed of a plurality of high and low index of refraction dielectric materials, arranged in multiple layers.
Claim 32
Dependent Claim
41 words
The optical thin film filter of claim 26 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers wherein the layers closest to the surface of said substrate match the index of refraction of said substrate.
Claim 33
Dependent Claim
52 words
The optical thin film filter of claim 26 wherein said first and second photolithographic coatings are characterized by additional optical impedance matching layers wherein the layers furthest from the surface of said substrate match the index of refraction of the atmosphere in which the optical thin film filter is to be used.
Claim 34
Dependent Claim
19 words
The optical thin film filter of claim 25 wherein said photolithographic patterns of said patterned coatings are parallel stripes.
Claim 35
Dependent Claim
34 words
The optical thin film filter of claim 25 wherein said first photolithographic patterned coating acts as a short wavelength reflective coating, and said second photolithographic patterned coating acts as a long wavelength reflective coating.
Claim 36
Dependent Claim
155 words
An optical filter system for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a multispectral coating on one surface of said substrate, said multispectral coating capable of transmitting two or more wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; and, c. two or more switch coatings, which provide suitable transmission of one wavelength band of interest, which wavelength band is different than that transmitted by the other switch coatings, while blocking the transmission of all other wavelength bands, said switch coatings fabricated from patterned dyed materials, wherein said switch coatings may be coated upon the multispectral coating-receiving substrate, or upon a second substrate wherein at least one of said coatings comprises a dielectric material.
Claim 37
Dependent Claim
155 words
An optical filter system for the spatial and spectral separation of two or more transmitting bands of radiant energy which comprises: a. a substrate having at least one surface for receiving coatings and which is substantially transparent to said radiant energy at the wavelength bands of interest; b. a multispectral coating on one surface of said substrate, said multispectral coating capable of transmitting two or more wavelength bands of interest and reflecting or absorbing all other out of band wavelengths; and, c. two or more switch coatings, which provide suitable transmission of one wavelength band of interest, which wavelength band is different than that transmitted by the other switch coatings, while blocking the transmission of all other wavelength bands, said switch coatings fabricated from patterned dyed materials, wherein said switch coatings may be coated upon the multispectral coating-receiving substrate, or upon a second substrate wherein at least one of said coatings comprises a dielectric material.