LCR means:
L= Inductance
C= Capacitance
R= Resistance
When you combine all of the above aspects into one circuit, it gives you what is termed a "complex impedance". Most people confuse "resistance" as having the same meaning as "impedance", but they are quite different. One can only have what is considered a "pure" resistance if it is free of ( or extremely low in ) capacitance and / or inductance. When you add those two to a circuit, it is no longer "simple resistance", hence the term "complex impedance" to show that you have multiple aspects at work simultaneously.
What Bybee is trying to say is that his "filters" do not work like "common" filters using "common" parts.
As to Psychic's comments about power cords having a sonic signature and not wanting to confuse this with how it is filtering the system, they are one and the same. Due to the specific electrical characteristics of how the power cord mates with a specific component, the result is the "sonic signature". This "sonic signature" is a direct result of "filtering" or the "complex impedances" that take place when mating components / cords together. As such, you really CAN'T separate the "filter action" of a power cord no matter what you do. It will always show various amounts of inductance, capacitance and resistance, which are all the variables that it takes to make up a "filter". Whether or not these factors are "beneficial" to a specific system or high enough in value to be noticeable would strictly be a matter of personal preference that one could only find out by trial and error.
As such, i would rather have a power cord do as much filtering as possible than to have to go through current limiting devices that eat up more rack or floor space. The only problem with this is that such a power cord would be pretty darn "thick", making it less practical. With that in mind, both consumers and engineers have to pick and choose which methods that they prefer and where they are willing to draw the line / make sacrifices in terms of total performance and cost. Sean
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L= Inductance
C= Capacitance
R= Resistance
When you combine all of the above aspects into one circuit, it gives you what is termed a "complex impedance". Most people confuse "resistance" as having the same meaning as "impedance", but they are quite different. One can only have what is considered a "pure" resistance if it is free of ( or extremely low in ) capacitance and / or inductance. When you add those two to a circuit, it is no longer "simple resistance", hence the term "complex impedance" to show that you have multiple aspects at work simultaneously.
What Bybee is trying to say is that his "filters" do not work like "common" filters using "common" parts.
As to Psychic's comments about power cords having a sonic signature and not wanting to confuse this with how it is filtering the system, they are one and the same. Due to the specific electrical characteristics of how the power cord mates with a specific component, the result is the "sonic signature". This "sonic signature" is a direct result of "filtering" or the "complex impedances" that take place when mating components / cords together. As such, you really CAN'T separate the "filter action" of a power cord no matter what you do. It will always show various amounts of inductance, capacitance and resistance, which are all the variables that it takes to make up a "filter". Whether or not these factors are "beneficial" to a specific system or high enough in value to be noticeable would strictly be a matter of personal preference that one could only find out by trial and error.
As such, i would rather have a power cord do as much filtering as possible than to have to go through current limiting devices that eat up more rack or floor space. The only problem with this is that such a power cord would be pretty darn "thick", making it less practical. With that in mind, both consumers and engineers have to pick and choose which methods that they prefer and where they are willing to draw the line / make sacrifices in terms of total performance and cost. Sean
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