Claims Analysis
Total Claims: 10
Claim 1
Independent Claim
101 words
A sampler circuit comprising: a means for providing a signal from a local oscillator; a means for generating shock waves coupled to said means for providing a local oscillator signal; said means for generating shock waves including a nonlinear transmission line spanned by a plurality of varactors; and a means for sampling an input signal coupled to said means for generating shock waves, said means for sampling including: a pair of sampling capacitors coupled to a pair of sampling diodes and an IF output network that includes a positive terminal and a grounded terminal which together produce an IF sampled output.
Claim 2
Dependent Claim
101 words
A sampler circuit comprising: a means for providing a signal from a local oscillator; a means for generating shock waves coupled to said means for providing a local oscillator signal; said means for generating shock waves including a nonlinear transmission line spanned by a plurality of varactors; and a means for sampling an input signal coupled to said means for generating shock waves, said means for sampling including: a pair of sampling capacitors coupled to a pair of sampling diodes and an IF output network that includes a positive terminal and a grounded terminal which together produce an IF sampled output.
Claim 3
Dependent Claim
26 words
A sampler circuit as in claim 1, further comprising: a clamping means coupled to said means for generating shock waves; said clamping means including a varactor.
Claim 4
Dependent Claim
21 words
A sampler circuit as in claim 2 further comprising: a means for inserting a signal delay coupled to said clamping means.
Claim 5
Dependent Claim
21 words
A sampler circuit as in claim 1 wherein the varactors in said means for generating shock waves are each hyperabrupt varactors.
Claim 6
Dependent Claim
15 words
A sampler circuit as in claim 1 wherein the hyperabrupt varactors are Schottky hyperabrupt diodes.
Claim 7
Dependent Claim
19 words
A sampler as claimed in claim 2, in which said nonlinear shock wave generator section varactors are hyperabrupt varactors.
Claim 8
Dependent Claim
18 words
A sampler as claimed in claim 2 which includes a pulse generator in place of said local oscillator.
Claim 9
Dependent Claim
417 words
A sampler circuit comprising: a local oscillator stage including a source resistor in series with a balanced transformer and a local oscillator; a shock wave generator stage coupled to said local oscillator stage, said shock wave generator stage including: a two-conductor, balanced, edge-sharpening, nonlinear transmission line spanned by a plurality of uniformly distributed nonlinear shock wave generator section varactors which are spaced apart on said transmission line at a preselected distance and which are each connected to said transmission line in the same polarity; a clamping diode stage coupled to said shock wave generator stage, said clamping diode stage including: a transmission line spanned by a clamping diode stage nonlinear varactor coupled in the same polarity as said shock wave generator section varactors; said clamping diode stage nonlinear varactor further having a smaller zero-bias capacitance and a larger series resistance than said shock wave generator stage varactors; a delay stage coupled to said clamping diode stage, said delay stage including: an unloaded transmission line having a predetermined impedance designed to damp a reflected signal propagating toward said local oscillator stage along said unloaded transmission line; and a sampling stage coupled to said delay stage, said sampling stage including: a transmission line including a first group of nodes [a], [b], [d], and [e]; said transmission line terminating in a resistive short; a pair of RF input termination resistors connected in series between said nodes [a] and [b] and defining a node [c] between them; a first sampling capacitor, a first sampling diode, a second sampling diode aligned in the same polarity as said first sampling diode, and a second sampling capacitor connected in series between said nodes [d] and [e] and defining a second group of nodes [f], [g], and [h] between them; a pair of RF input terminals [i] and [j], said terminal [i] being connected to said node [g] between said first and second sampling diodes, said terminal [j] being grounded; an IF output coupling network coupled within said sampling diode stage at nodes [f] and [h]; said IF coupling network including, in series: a first IF output coupling resistor connected to said node [f], a node [k], a first IF output coupling capacitor, an IF terminal [l], a second IF coupling capacitor, a node [m], a second IF output coupling resistor connected to said node [h]; and said IF output network further including a third IF output coupling resistor and a grounded terminal [n], which, together with said terminal [l], produces an IF sampled output.
Claim 10
Dependent Claim
417 words
A sampler circuit comprising: a local oscillator stage including a source resistor in series with a balanced transformer and a local oscillator; a shock wave generator stage coupled to said local oscillator stage, said shock wave generator stage including: a two-conductor, balanced, edge-sharpening, nonlinear transmission line spanned by a plurality of uniformly distributed nonlinear shock wave generator section varactors which are spaced apart on said transmission line at a preselected distance and which are each connected to said transmission line in the same polarity; a clamping diode stage coupled to said shock wave generator stage, said clamping diode stage including: a transmission line spanned by a clamping diode stage nonlinear varactor coupled in the same polarity as said shock wave generator section varactors; said clamping diode stage nonlinear varactor further having a smaller zero-bias capacitance and a larger series resistance than said shock wave generator stage varactors; a delay stage coupled to said clamping diode stage, said delay stage including: an unloaded transmission line having a predetermined impedance designed to damp a reflected signal propagating toward said local oscillator stage along said unloaded transmission line; and a sampling stage coupled to said delay stage, said sampling stage including: a transmission line including a first group of nodes [a], [b], [d], and [e]; said transmission line terminating in a resistive short; a pair of RF input termination resistors connected in series between said nodes [a] and [b] and defining a node [c] between them; a first sampling capacitor, a first sampling diode, a second sampling diode aligned in the same polarity as said first sampling diode, and a second sampling capacitor connected in series between said nodes [d] and [e] and defining a second group of nodes [f], [g], and [h] between them; a pair of RF input terminals [i] and [j], said terminal [i] being connected to said node [g] between said first and second sampling diodes, said terminal [j] being grounded; an IF output coupling network coupled within said sampling diode stage at nodes [f] and [h]; said IF coupling network including, in series: a first IF output coupling resistor connected to said node [f], a node [k], a first IF output coupling capacitor, an IF terminal [l], a second IF coupling capacitor, a node [m], a second IF output coupling resistor connected to said node [h]; and said IF output network further including a third IF output coupling resistor and a grounded terminal [n], which, together with said terminal [l], produces an IF sampled output.