Claims Analysis
Total Claims: 27
Claim 1
Independent Claim
147 words
An optoelectronic package comprising: a) a substrate having an array of one or more sources or detectors, the sources or detectors adapted, respectively, to generate or receive a light signal; b) an optical coupler aligned with the array such that a gap is formed between the optical coupler and the array of one or more sources or detectors, wherein the light signal passes through the gap between optical coupler and the array of one or more sources or detectors during operation; and c) an optically transparent substrate encapsulant in contact with the substrate that substantially fills the gap between optical coupler and the array of one or more sources, wherein the encapsulant both passivates the sources or detectors and prevents interfering accumulations of matter from forming in the gap without degradation of the light signal, wherein the optically transparent comprises difunctional acrylated epoxy resin prior to curing.
Claim 2
Dependent Claim
147 words
An optoelectronic package comprising: a) a substrate having an array of one or more sources or detectors, the sources or detectors adapted, respectively, to generate or receive a light signal; b) an optical coupler aligned with the array such that a gap is formed between the optical coupler and the array of one or more sources or detectors, wherein the light signal passes through the gap between optical coupler and the array of one or more sources or detectors during operation; and c) an optically transparent substrate encapsulant in contact with the substrate that substantially fills the gap between optical coupler and the array of one or more sources, wherein the encapsulant both passivates the sources or detectors and prevents interfering accumulations of matter from forming in the gap without degradation of the light signal, wherein the optically transparent comprises difunctional acrylated epoxy resin prior to curing.
Claim 3
Dependent Claim
26 words
The device of claim 1 , wherein the encapsulant exhibits optical transparency to light having a wavelength of about 850 nanometers with substantially no Mie scattering.
Claim 4
Dependent Claim
15 words
The device of claim 1 , wherein the sources comprise vertical cavity surface emitting lasers.
Claim 5
Dependent Claim
15 words
The device of claim 1 , wherein the gap is greater than about 50 micrometers.
Claim 6
Dependent Claim
13 words
The device of claim 4 , wherein the gap is about 100 micrometers.
Claim 7
Dependent Claim
28 words
The device of claim 1 , further comprising wire bonds from the substrate to a cable header, wherein the encapsulant further seals the wire bonds from abrasive wear.
Claim 8
Dependent Claim
57 words
An encapsulant for an optoelectronic source comprising, prior to curing, a functionalized resin and an effective amount of a curing initiator, wherein the functionalized resin comprises difunctional acrylated epoxy resin, wherein, after curing, the encapsulant exhibits optical transparency to light having a wavelength of about 850 nanometers with substantially no Mie scattering and passivates the optoelectronic source.
Claim 9
Dependent Claim
57 words
An encapsulant for an optoelectronic source comprising, prior to curing, a functionalized resin and an effective amount of a curing initiator, wherein the functionalized resin comprises difunctional acrylated epoxy resin, wherein, after curing, the encapsulant exhibits optical transparency to light having a wavelength of about 850 nanometers with substantially no Mie scattering and passivates the optoelectronic source.
Claim 10
Dependent Claim
15 words
The encapsulant of claim 7 , wherein the encapsulant exhibits psuedoplastic flow prior to curing.
Claim 11
Dependent Claim
23 words
The encapsulant of claim 7 , wherein the functionalized resin exhibits a viscosity of greater than about 0.7×10 6 centipoise prior to curing.
Claim 12
Dependent Claim
14 words
The encapsulant of claim 9 , wherein the viscosity comprises about 1.2×10 6 centipoise.
Claim 13
Dependent Claim
13 words
The encapsulant of claim 7 , wherein the initiator comprises a photo initiator.
Claim 14
Dependent Claim
47 words
The encapsulant of claim 7 , wherein, after curing, the encapsulant exhibits thermal stability up to about 215° C., adheres to gold or other metal layers suitable for tape automated bonding, and exhibits a moisture permeation rate of less than about 7 (gram×milliinches)/(24 hours×100 inches 2 ).
Claim 15
Independent Claim
157 words
A method of manufacturing an optical subassembly comprising the steps of: affixing a non-passivated die to a die carrier, the die having an array of one or more sources or detectors, the sources or detectors adapted, respectively, to generate or receive a light signal; aligning an optical coupler with the array such that a gap is formed between the optical coupler and the array of one or more sources or detectors, wherein the light signal passes through the gap between optical coupler and the array of one or more sources or detectors during operation; dispensing an encapsulant on at least the array, wherein the encapsulant substantially fills the gap between the optical coupler and the array of one or more sources and prevents interfering accumulations of matter from forming in the gap, wherein the encapsulant comprises difunctional acrylated epoxy resin; and curing the encapsulant, wherein the cured encapsulant exhibits optical transparency and passivates the sources or detectors.
Claim 16
Independent Claim
157 words
A method of manufacturing an optical subassembly comprising the steps of: affixing a non-passivated die to a die carrier, the die having an array of one or more sources or detectors, the sources or detectors adapted, respectively, to generate or receive a light signal; aligning an optical coupler with the array such that a gap is formed between the optical coupler and the array of one or more sources or detectors, wherein the light signal passes through the gap between optical coupler and the array of one or more sources or detectors during operation; dispensing an encapsulant on at least the array, wherein the encapsulant substantially fills the gap between the optical coupler and the array of one or more sources and prevents interfering accumulations of matter from forming in the gap, wherein the encapsulant comprises difunctional acrylated epoxy resin; and curing the encapsulant, wherein the cured encapsulant exhibits optical transparency and passivates the sources or detectors.
Claim 17
Dependent Claim
27 words
The method of claim 13 , wherein the cured encapsulant exhibits optical transparency to light having a wavelength of about 850 nanometers with substantially no Mie scattering.
Claim 18
Dependent Claim
34 words
The method of claim 13 , wherein, prior to curing, the encapsulant comprises a functionalized resin, exhibiting a viscosity of greater than about 0.7×10 6 centipoise, and an effective amount of a curing initiator.
Claim 19
Dependent Claim
18 words
The method of claim 13 , wherein the step of curing comprises exposing the encapsulant to ultraviolet radiation.
Claim 20
Dependent Claim
37 words
The method of claim 13 , wherein the step of dispensing comprises further dispensing the encapsulant on wire bonds from the die to a cable header, wherein the encapsulant further seals the wire bonds from abrasive wear.
Claim 21
Dependent Claim
15 words
The method of claim 13 , wherein the gap is greater than about 50 micrometers.
Claim 22
Dependent Claim
124 words
An optoelectronic package comprising: a) a die having an array of one or more vertical cavity surface emitting lasers; b) an optical coupler aligned with the array, wherein a gap is formed between the die and the optical coupler and wherein laser signals pass through the gap during operation; c) an optically transparent substrate encapsulant in contact with the die, the encapsulant exhibiting substantially no Mie scattering and substantially filling the gap between the die and optical coupler, wherein the optically transparent substrate encapsulant comprises difunctional acrylated epoxy resin prior to curing; and d) wire bonds from the die to a cable header, wherein the encapsulant both seals the lasers and wire bonds and prevents interfering accumulations of matter from forming in the gap.
Claim 23
Dependent Claim
124 words
An optoelectronic package comprising: a) a die having an array of one or more vertical cavity surface emitting lasers; b) an optical coupler aligned with the array, wherein a gap is formed between the die and the optical coupler and wherein laser signals pass through the gap during operation; c) an optically transparent substrate encapsulant in contact with the die, the encapsulant exhibiting substantially no Mie scattering and substantially filling the gap between the die and optical coupler, wherein the optically transparent substrate encapsulant comprises difunctional acrylated epoxy resin prior to curing; and d) wire bonds from the die to a cable header, wherein the encapsulant both seals the lasers and wire bonds and prevents interfering accumulations of matter from forming in the gap.
Claim 24
Dependent Claim
77 words
An encapsulant for an optoelectronic source consisting essentially of, prior to curing, a difunctional acrylated epoxy resin and an effective amount of a curing photo initiator, wherein, prior to curing, the functionalized resin exhibits a viscosity of greater than about 0.7×10 6 centipoise and the encapsulant exhibits pseudoplastic flow and wherein, after curing, the encapsulant exhibits optical transparency to light having a wavelength of about 850 nanometers with substantially no Mie scattering and passivates the optoelectronic source.
Claim 25
Dependent Claim
77 words
An encapsulant for an optoelectronic source consisting essentially of, prior to curing, a difunctional acrylated epoxy resin and an effective amount of a curing photo initiator, wherein, prior to curing, the functionalized resin exhibits a viscosity of greater than about 0.7×10 6 centipoise and the encapsulant exhibits pseudoplastic flow and wherein, after curing, the encapsulant exhibits optical transparency to light having a wavelength of about 850 nanometers with substantially no Mie scattering and passivates the optoelectronic source.
Claim 26
Independent Claim
138 words
A method of manufacturing an optical subassembly comprising the steps of: affixing a non-passivated die to a die carrier, the die having an array of one or more vertical cavity surface emitting lasers; forming wire bonds from the die to a cable header; dispensing an encapsulant at least on the array and wire bonds, wherein the encapsulant comprises difunctional acrylated epoxy resin; aligning an optical coupler with the array, wherein a gap is formed between the die and the optical coupler and wherein laser signals pass through the gap during operation; curing the encapsulant by exposure to ultraviolet radiation, wherein the cured encapsulant exhibits optical transparency with substantially no Mie scattering, seals the lasers and wire bonds, substantially fills the gap between the die and optical coupler, and prevents interfering accumulations of matter from forming in the gap.
Claim 27
Independent Claim
138 words
A method of manufacturing an optical subassembly comprising the steps of: affixing a non-passivated die to a die carrier, the die having an array of one or more vertical cavity surface emitting lasers; forming wire bonds from the die to a cable header; dispensing an encapsulant at least on the array and wire bonds, wherein the encapsulant comprises difunctional acrylated epoxy resin; aligning an optical coupler with the array, wherein a gap is formed between the die and the optical coupler and wherein laser signals pass through the gap during operation; curing the encapsulant by exposure to ultraviolet radiation, wherein the cured encapsulant exhibits optical transparency with substantially no Mie scattering, seals the lasers and wire bonds, substantially fills the gap between the die and optical coupler, and prevents interfering accumulations of matter from forming in the gap.