View source for Texas instruments incorporated (20240113716). DETERMINISTIC JITTER COMPENSATION SCHEME FOR DTC TIMING PATH simplified abstract

=DETERMINISTIC JITTER COMPENSATION SCHEME FOR DTC TIMING PATH=


==Organization Name==

[[:Category:texas instruments incorporated|texas instruments incorporated]]


[[Category:texas instruments incorporated]]

==Inventor(s)==

[[:Category:Yogesh Darwhekar of Bangalore (IN)|Yogesh Darwhekar of Bangalore (IN)]][[Category:Yogesh Darwhekar of Bangalore (IN)]]

[[:Category:Abhrarup BARMAN Roy of Bangalore (IN)|Abhrarup BARMAN Roy of Bangalore (IN)]][[Category:Abhrarup BARMAN Roy of Bangalore (IN)]]

[[:Category:Subhashish Mukherjee of Bangalore (IN)|Subhashish Mukherjee of Bangalore (IN)]][[Category:Subhashish Mukherjee of Bangalore (IN)]]

[[:Category:Peeyoosh Mirajkar of Bangalore (IN)|Peeyoosh Mirajkar of Bangalore (IN)]][[Category:Peeyoosh Mirajkar of Bangalore (IN)]]

==DETERMINISTIC JITTER COMPENSATION SCHEME FOR DTC TIMING PATH - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240113716 titled 'DETERMINISTIC JITTER COMPENSATION SCHEME FOR DTC TIMING PATH

==Simplified Explanation==

The system described in the abstract includes an n divider, a load balancing circuit, and a switch connected to the output of a low dropout regulator. The load balancing circuit sinks a load balancing current during certain phases of the n divider, and the switch connects the load balancing circuit to the output of the regulator during those phases.

* The system includes an n divider connected to the output of a low dropout regulator.
* A load balancing circuit is coupled to the n divider and sinks a load balancing current during specific phases.
* A switch is connected to the load balancing circuit and the output of the regulator, activating during the phases when the load balancing current is needed.

== Potential Applications ==
This technology could be applied in:
* Power management systems
* Battery charging circuits
* Voltage regulation systems

== Problems Solved ==
This technology helps in:
* Improving load balancing in power systems
* Enhancing the efficiency of voltage regulation
* Optimizing battery charging processes

== Benefits ==
The benefits of this technology include:
* Increased system stability
* Enhanced power distribution
* Improved overall performance

== Potential Commercial Applications ==
A potential commercial application for this technology could be in:
* Consumer electronics
* Automotive industry
* Renewable energy systems

== Possible Prior Art ==
One possible prior art for this technology could be:
* Load balancing circuits in power management systems

=== Unanswered Questions ===

=== How does this technology compare to traditional load balancing methods? ===
This article does not provide a direct comparison between this technology and traditional load balancing methods. 

=== What are the specific phases during which the load balancing current is sunk? ===
The article does not specify the exact phases during which the load balancing current is sunk.


==Original Abstract Submitted==

in an example, a system includes an n divider coupled to an output of a low dropout regulator. the system also includes a load balancing circuit coupled to the n divider and configured to sink a load balancing current at the output of the low dropout regulator during one or more phases of the n divider. the system includes a switch coupled to the load balancing circuit and configured to connect the load balancing circuit to the output of the low dropout regulator during the one or more phases of the n divider.



[[Category:H03K21/08]]
[[Category:H03K17/687]]