Voltage divider circuit
US-2015214836-A1 · Jul 30, 2015 · US
US9413342B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-9413342-B2 |
| Application number | US-201414484129-A |
| Country | US |
| Kind code | B2 |
| Filing date | Sep 11, 2014 |
| Priority date | Sep 11, 2014 |
| Publication date | Aug 9, 2016 |
| Grant date | Aug 9, 2016 |
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A resistive divider circuit for differential signaling is disclosed. The resistive divider includes a first branch and a second branch and each branch has an input, a first resistive component comprised of a number of unit resistors, a second resistive component comprised of a number of unit resistors, and an output connected between the first resistive component and the second resistive component, the output forming a differential mode output. The first resistive component and the second resistive component are comprised of an equal number of unit resistors.
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What is claimed is: 1. A resistive divider circuit for differential signaling, the resistive divider circuit comprising: a first branch; and a second branch; wherein each branch comprises: an input; a first resistive component comprised of a number of unit resistors; a second resistive component comprised of a number of unit resistors; and an output connected between the first resistive component and the second resistive component, the output forming a differential mode output; wherein the number of unit resistors of the first resistive component is equal to the number of unit resistors of the second resistive component; and wherein a lowpass filter is connected to the resistive divider circuit at a point on the resistive divider circuit where the highest impedance exists. 2. The resistive divider circuit of claim 1 , wherein unit resistors of the first resistive component are fabricated with dimensions similar to each other and similar to unit resistors of the second resistive component. 3. The resistive divider circuit of claim 1 , wherein at least some of the unit resistors of the first resistive component are connected in series and at least some of the unit resistors of second resistive component are connected in parallel. 4. The resistive divider circuit of claim 1 , wherein the resistive divider further includes a common mode branch comprising: a first common mode resistive component connected to the first branch and to the second branch; a second common mode resistive component; and a common mode output connected between the first common mode resistive component and the second common mode resistive component. 5. The resistive divider circuit of claim 4 , wherein the first common mode resistive component exhibits equal resistance to the first resistive component of the first branch and the first resistive component of the second branch, and the second common mode resistive component has less resistance than the second resistive component of the first branch and the second resistive component of the second branch. 6. The resistive divider circuit of claim 4 , wherein the first common mode resistive component exhibits equal resistance to the first resistive component of the first branch and the first resistive component of the second branch, and the second common mode resistive component has half the resistance of the second resistive component of the first branch and the second resistive component of the second branch. 7. The resistive divider circuit of claim 4 , wherein the resistive divider circuit is connected to a switched capacitor system, wherein the switched capacitor system is configured to remove a common mode output signal from the common mode output of the resistive divider. 8. The resistive divider circuit of claim 2 , wherein the plurality of unit resistors of the first resistive component are symmetrically positioned around a gravitational center formed by the plurality of unit resistors of the first resistive component, and the plurality of unit resistors of the second resistive component are symmetrically positioned around a gravitational center formed by the plurality of unit resistors of the second resistive component. 9. The resistive divider circuit of claim 1 further comprising: a metal shield; and a capacitor; wherein the metal shield is located over the first and second branch of the resistive divider and under the capacitor. 10. A resistive divider circuit for differential signaling, the resistive divider circuit comprising: a first branch; and a second branch; wherein each branch comprises: an input; a first resistive component comprised of a number of unit resistors; a second resistive component comprised of a number of unit resistors; and an output connected between the first resistive component and the second resistive component, the output forming a differential mode output; wherein the first resistive component and the second resistive component occupy a similar area on a substrate; and wherein a lowpass filter is connected to the resistive divider circuit at a point on the resistive divider circuit where the highest impedance exists. 11. The resistive divider circuit of claim 10 , wherein the first resistive component and the second resistive component occupy a similar area on the substrate when the number of unit resistors of the first resistive component is equal to the number of unit resistors of the second resistive component. 12. The resistive divider circuit of claim 10 , wherein the resistive divider further includes a common mode branch comprising: a first common mode resistive component connected to the first branch and to the second branch; a second common mode resistive component; and a common mode output connected between the first common mode resistive component and the second common mode resistive component. 13. The resistive divider circuit of claim 12 , wherein the resistive divider circuit is connected to a switched capacitor system, wherein the switched capacitor system is configured to remove a common mode output signal from the common mode output of the resistive divider. 14. The resistive divider circuit of claim 10 further comprising: a metal shield; and a capacitor; wherein the metal shield is located over the first and second branch of the resistive divider and under the capacitor. 15. A resistive divider circuit for differential signaling, the resistive divider circuit comprising: a first branch; and a second branch; wherein each branch comprises: an input; a first resistive component comprising a number of unit resistors; a second resistive component comprising a number of unit resistors; and an output connected between the first resistive component and the second resistive component, the output forming a differential mode output; wherein corresponding unit resistors in the first resistive components of the first and second branch are located adjacent to each other in a first part of a rectangular row and corresponding unit resistors in the second resistive components of the first and second branch are located adjacent to each other in a second part of the rectangular row; and wherein a lowpass filter is connected to the resistive divider circuit at a point on the resistive divider circuit where the highest impedance exists. 16. The resistive divider circuit of claim 15 , wherein the number of unit resistors of the first resistive component is equal to the number of unit resistors of the second resistive component. 17. The resistive divider of claim 15 , wherein the resistive divider further includes a common mode branch comprising: a first common mode resistive component connected to the first branch and the second branch; a second common mode resistive component; and a common mode output connected between the first common mode resistive component and the second common mode resistive component.
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