Precision Signal Power with Wave Oscillator Innovation

Introduction

In modern electronics and telecommunications, precision in signal generation and processing is crucial for developing cutting-edge devices. From telecommunications to radar systems, the ability to create and manage high-precision oscillations can make or break a product’s performance. Our patented differential constructive wave oscillator device introduces an innovative approach that not only enhances signal accuracy but also offers improved power efficiency and reliability. This technology is ideal for manufacturers and developers looking to push the boundaries of signal processing, semiconductor performance, and next-gen communication systems.

Why Precision Matters in Signal Processing

In industries where signal processing and oscillation are fundamental to device performance—such as telecommunications, radar systems, and wireless communication—precise waveform generation is key. However, traditional oscillator designs often face limitations, including power inefficiencies, signal drift, and susceptibility to noise interference. These factors can degrade the quality of the transmitted or processed signal, limiting the performance of the final product.

To stay competitive, companies need innovative solutions that offer not only precise signal control but also power efficiency and enhanced stability across various operating conditions. A system that minimizes energy waste while ensuring consistent signal performance is critical to the development of high-end products across industries.

How Wave Oscillator Innovation Transforms Performance

Our differential constructive wave oscillator device offers a breakthrough in signal generation and processing. Using a novel approach, this oscillator provides precise control over signal phase and frequency while minimizing power consumption. By leveraging differential constructive wave dynamics, the system ensures highly accurate signal generation, reducing the likelihood of noise interference or signal drift.

This oscillator device is versatile, making it applicable to a range of industries, including telecommunications, radar, and other electronic systems that require robust signal generation. Its low power consumption makes it ideal for modern applications that prioritize energy efficiency without compromising performance. Whether it’s for developing next-gen smartphones, precision radars, or wireless communication systems, this technology enhances signal integrity, improves device efficiency, and optimizes overall system performance.

Key Benefits

Enhanced Signal Precision: Provides superior control over waveform generation, reducing noise and interference.
Energy Efficiency: Optimizes power usage, making it suitable for modern, energy-conscious devices.
Broad Applications: Ideal for telecommunications, radar systems, and wireless communication technologies.
Reliable Performance: Ensures consistent signal generation, improving device performance and longevity.

Power Your Technology with Wave Oscillator Innovation

Licensing this wave oscillator technology offers manufacturers and developers a powerful tool for improving signal processing and energy efficiency. From telecommunications to advanced electronics, this device is poised to shape the future of signal generation and precision technology.

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Abstract
Claims

A differential constructive wave oscillator device including a single, continuous differential transmission line that is arranged into first and second parallel traces in the form of a Mobius loop. The continuous transmission line includes first and second crossover points, each of which provides for a point of inflection between the first and second traces. In each stage of the device, both the first and second traces of the transmission line carry the forward traveling wave signal from a differential input port to a differential output port. Each phase includes a differential delay section that provides for a phase shift between a signal on the first trace and a signal on the second trace. Each phase additionally includes a differential feedback amplifier that amplifies the forward traveling wave signal at the differential output port, generates a differential feedback signal, and routes the differential feedback signal to the differential input port.

What is claimed is:

1. A device comprising:

a differential transmission line configured to carry a forward traveling wave signal from a differential input port to a differential output port; and

a differential feedback amplifier that is configured to amplify the forward traveling wave signal at the differential output port, generate a differential feedback signal, and route the differential feedback signal to the differential input port;

wherein the differential transmission line is a single, continuous path arranged into first and second parallel traces and comprising first and second crossover points; and

wherein each of the first and second crossover points provides for a point of inflection between the first and second parallel traces of the differential transmission line.

2. The device of claim 1 further comprising a differential delay section that provides for a phase shift between a signal on the first trace and a signal on the second trace.

3. The device of claim 1 wherein the differential feedback amplifier is configured to attenuate a backward traveling wave signal.

4. The device of claim 1 wherein the differential feedback amplifier comprises two single ended amplifiers.

5. A device comprising:

a single, continuous differential transmission line arranged into first and second parallel traces and comprising first and second crossover points, wherein each of the first and second crossover points provides for a point of inflection between the first and second parallel traces of the differential transmission line;

a plurality of stages, each stage comprising:

the first trace carrying a forward traveling wave signal from a differential input port to a differential output port; and

the second trace carrying the forward traveling wave signal from the differential input port to the differential output port;

a differential delay section that provides for a phase shift between a signal on the first trace and a signal on the second trace; and

6. The device of claim 5 wherein the differential feedback amplifier is configured to attenuate a backward traveling wave signal.

7. The device of claim 5 wherein the differential feedback amplifier comprises two single ended amplifiers.

8. A method comprising:

receiving, at a differential output port along a differential transmission line providing a direct path from a differential input port, a signal comprising a forward traveling wave;

amplifying the signal received at the differential output port;

generating a differential feedback signal; and

routing the differential feedback signal to the differential input port;

wherein the differential transmission line is a single, continuous path arranged into first and second parallel traces and comprising first and second crossover points; and

wherein each of the first and second crossover points provides for a point of inflection between the first and second parallel traces of the differential transmission line.

9. The method of claim 8 further comprising the step of delaying the signal to provide for a phase shift between a signal on the first trace and a signal on the second trace of the differential transmission line.

Title

Differential constructive wave oscillator device

Inventor(s)

Numan S. Dogan, Goker Ariyak

Assignee(s)

North Carolina A&T State University

Patent #

20190273468

Patent Date

September 5, 2019