Claims Analysis
Total Claims: 15
Claim 1
Independent Claim
108 words
A method of fabricating an integrated circuit microwave interconnect on a substrate, said method comprising the steps of: (a) forming a trench in the surface of said substrate; (b) disposing a first layer of metal over at least the inner surface of said trench; (c) disposing a first layer of dielectric material in said trench over said first metal layer; and (d) disposing a second layer of metal over said first layer of dielectric material, said second metal layer adjoining said first metal layer on both sides of said first layer of dielectric material to form a surrounding metal layer which surrounds said first layer of dielectric material.
Claim 2
Independent Claim
108 words
A method of fabricating an integrated circuit microwave interconnect on a substrate, said method comprising the steps of: (a) forming a trench in the surface of said substrate; (b) disposing a first layer of metal over at least the inner surface of said trench; (c) disposing a first layer of dielectric material in said trench over said first metal layer; and (d) disposing a second layer of metal over said first layer of dielectric material, said second metal layer adjoining said first metal layer on both sides of said first layer of dielectric material to form a surrounding metal layer which surrounds said first layer of dielectric material.
Claim 3
Dependent Claim
59 words
The method of fabricating an integrated circuit microwave interconnect of claim 1, comprising the further steps of: (j) forming a first opening in said first surrounding metal layer; (k) forming a second patterned region in communication with said first patterned region by way of said opening; and, (l) surrounding said second patterned region with a second surrounding metal layer.
Claim 4
Dependent Claim
58 words
The method of fabricating an integrated circuit microwave interconnect of claim 2, wherein step (k) comprises the steps of: (m) disposing a second layer of dielectric material in said first opening and over at least a portion of said first surrounding metal layer; and, (n) patterning said second layer of dielectric material to form said second patterned region.
Claim 5
Dependent Claim
29 words
The method of fabricating an integrated circuit microwave interconnect of claim 1, comprising the further step of removing said first patterned region from within said first surrounding metal layer.
Claim 6
Dependent Claim
66 words
The method of fabricating an integrated circuit microwave interconnect of claim 4, comprising the further steps of: (o) forming a second opening in at least one of said first and second surrounding metal layers; and (p) removing at least one of said first and second patterned regions from within at least one of said first and second surrounding metal layers by way of said second opening.
Claim 7
Dependent Claim
34 words
The method of fabricating an integrated circuit microwave interconnect of claim 1, comprising the further steps of: (q) forming a plurality of said microwave interconnect; and (r) coupling said microwave interconnects to each other.
Claim 8
Dependent Claim
32 words
The method of fabricating an integrated circuit microwave interconnect of claim 6, wherein step (r) comprises the step of coupling said microwave interconnects to each other to form a microwave directional coupler.
Claim 9
Dependent Claim
31 words
The method of fabricating an integrated circuit microwave interconnect of claim 6, wherein step (r) comprises the step of coupling said microwave interconnects to each other to form a magic tee.
Claim 10
Dependent Claim
31 words
The method of fabricating an integrated circuit microwave interconnect of claim 6, wherein step (r) comprises the step of coupling said microwave interconnects to each other to form a microwave circulator.
Claim 11
Dependent Claim
118 words
The method of fabricating an integrated circuit microwave interconnect of claim 1, comprising the further steps of: (s) forming at least two microwave interconnect branches, at least one of said microwave interconnect branches having variable energy propagation characteristics for receiving energy and transmitting said energy in accordance with said variable energy propagation characteristics; (t) coupling said microwave interconnect branches to said microwave interconnect to permit energy applied to said microwave interconnect to be received and transmitted by said microwave connect branches; (u) forming energy source means adapted to apply further energy to said interconnect branch having said variable energy propagation characteristics to provide differing energy propagation characteristics between said microwave interconnect branches in accordance with said further energy.
Claim 12
Dependent Claim
58 words
A method of fabricating an integrated circuit microwave interconnect on a substrate in accordance with claim 1 wherein step (c) comprises the steps of: (i) disposing said first layer of said dielectric material in said trench over said first metal layer; and (ii) removing said dielectric material from the field leaving said dielectric material only in said trench.
Claim 13
Dependent Claim
98 words
A method of fabricating an integrated circuit microwave interconnect on a substrate in accordance with claim 1 wherein said substrate comprises a metal substrate, said method comprising the steps of: (a) forming said trench in the surface of said metal substrate; (b) disposing said first layer of dielectric material in said trench; and (c) disposing said layer of metal over said first layer of dielectric material, said second metal layer adjoining said metal substrate on both sides of said first layer of dielectric material to form a surrounding metal structure which surrounds said first layer of dielectric material.
Claim 14
Independent Claim
214 words
A method of fabricating an integrated circuit microwave interconnect on a substrate, said method comprising the steps of: (a) providing a first layer of metal on a surface of said substrate; (b) disposing a first layer of dielectric material over said first layer of metal; (c) patterning said first layer of dielectric material to form a first patterned region; (d) disposing a second layer of metal over said first patterned region, said second metal layer adjoining said first metal layer on both sides of first patterned region to form a surrounding metal layer which surrounds said first patterned region; (e) removing said first patterned region from within said first surrounding metal layer; (f) forming at least two microwave interconnect branches, at least one of said microwave interconnect branches having variable energy propagation characteristics for receiving energy and transmitting said energy in accordance with said variable energy propagation characteristics; (g) coupling said microwave interconnect branches to said microwave interconnect to permit energy applied to said microwave interconnect to be received and transmitted by said microwave interconnect branches; and (h) forming energy source means adapted to apply further energy to said interconnect branch having said variable energy propagation characteristics to provide differing energy propagation characteristics between said microwave interconnect branches in accordance with said further energy.
Claim 15
Independent Claim
214 words
A method of fabricating an integrated circuit microwave interconnect on a substrate, said method comprising the steps of: (a) providing a first layer of metal on a surface of said substrate; (b) disposing a first layer of dielectric material over said first layer of metal; (c) patterning said first layer of dielectric material to form a first patterned region; (d) disposing a second layer of metal over said first patterned region, said second metal layer adjoining said first metal layer on both sides of first patterned region to form a surrounding metal layer which surrounds said first patterned region; (e) removing said first patterned region from within said first surrounding metal layer; (f) forming at least two microwave interconnect branches, at least one of said microwave interconnect branches having variable energy propagation characteristics for receiving energy and transmitting said energy in accordance with said variable energy propagation characteristics; (g) coupling said microwave interconnect branches to said microwave interconnect to permit energy applied to said microwave interconnect to be received and transmitted by said microwave interconnect branches; and (h) forming energy source means adapted to apply further energy to said interconnect branch having said variable energy propagation characteristics to provide differing energy propagation characteristics between said microwave interconnect branches in accordance with said further energy.