Electronics covers a wide range of technologies, from radio communications to microprocessors. The most common technologies used in electronic devices are semiconductors, solid-state devices and optoelectronics.
Electronics Patents: The Industry at Present
Some examples include:
- Electronic circuit board
- Wireless communication device
- Electronic component (e.g., transistor)
Electronics patents may even have software patent features and you may also need to protect algorithms within the patent.
An “electronics patent” protects the design of an electronic device or system that uses electricity as an energy source. An electronic patent can protect the physical structure of a device, the way it works, or both.
For example, an electronics patent may protect one or more circuits that perform a specific function, such as processing data or transmitting information between devices.
With increasing innovation in the sector, there is a huge growth in the latest electronics patent examples that are being published by the USPTO, but the process of patenting technology, including electronics is still the same.
In this article, we have analyzed quite several of the latest electronics patents.
Electronics Patents in the Semiconductor Industry
Innovations in semiconductor technology and their applications have long been supported by patent protection.
Moore’s Law will continue to be the norm for CMOS transistor density scales over the next eight to ten years. This will be possible mainly thanks to advances in EUV patterning, and the introduction of new device architectures that will allow logic standard cell scaling.
Growth in Semiconductor Electronics Patents
Moore’s Law can’t be continued without innovation in front-end-of-line (FEOL) device architecture. FinFET devices have become the dominant transistor architecture. Transistor density will follow the Gordon Moore-designed path with the above-mentioned innovations.
Two-dimensional materials like tungsten disulfide, (WS2), in the channel promise performance improvement because they allow for more aggressive gate length scaling that Si or SiGe. 2D-based devices have multiple sheets that are stacked and connected from one side.
Semi-damascene metallization modules will simultaneously increase resistance and capacitance even in the tightest pitch metal layers. Semi-damascene allows us to increase the aspect ratio (to lower resistance), and use airgaps (to control the capacitance rise) between the lines.
The future system will rely on increasing numbers of heterogeneous integrations leveraging 3D and 2.5D connectivity to address the memory wall, increase functionality in form-factor constrained systems, or improve yields for large chip systems. One example of this is high-bandwidth memories (HBM), which are stacked dynamic random access (DRAM), that connect directly to a CPU or GPU through a short interposer.
3D partitioning on-chip memory at lower levels in the cache hierarchy could be beneficial. What happens to the system level when static random access memory is (SRAM), replaced by magnetic RAM (MRAM)? The traditional layout would have the CPU located next to the caches in an arranged configuration.
The Present State of Semiconductor Chip Innovation: Electronics Patent Analysis
Future chips move the caches from one chip to another, which was stacked using 3D wafer bonding techniques. The signals between caches and the CPU travel much shorter distances so a decrease in latency and speed can be expected. A high-density wafer-to-wafer stacking technology is necessary in order to enable partitioning at deeper levels of the cache hierarchy.
Wafer-to-wafer hybrid bonds were demonstrated at 700nm interconnect pitch. We believe that bonding technology advances will allow interconnects of 500nm pitch in the near future.
Heterogeneous integration is enabled by 3D integration technologies such as die-to-die or die-to-Si-interposer stacking using Sn microbumps or die-to-silicon using hybrid Cu bonding. Because SoCs are becoming more heterogeneous, different functions (logic, memory and I/O interfaces as well as analog) can be performed on different chips.
This is because not all SoCs use the same CMOS technology. To optimize design cost and yield, it may be more beneficial to use different process technology for different sub-systems. This evolution could also address the need for greater chip diversity and customization.
NAND storage will scale incrementally without any disruptive architectural changes over the next few years. The most advanced NAND products today have 128 layers of storage capacity. Wafer-to-wafer bonding could allow for additional layers of 3D scaling.
Advances in electronics are going to continue to improve in the coming years. This includes everything from Smart grids to the Internet of Things (IoT) to Digital twins and power electronics. These technologies will transform the world in a variety of ways, but you’ll need to keep up with all of the changes if you want to stay ahead of the game.
Internet of Things
The Internet of Things (IoT) is a technology that connects billions of physical objects. It allows for the exchange of information among the devices, so that people can manage and control their homes and other properties.
While IoT isn’t new, it has seen significant growth in popularity. In fact, the number of connected devices is expected to triple over the next three years.
In addition to providing connectivity, IoT can increase an organization’s ability to run more efficiently. As a result, the quality of services and decision-making can be improved. Furthermore, IoT can help an organization better understand its customers. This information can then be used to make more informed business decisions.
As an example, a health monitoring system can monitor vital signs and send data to a doctor online. It can also be used to monitor the progress of a patient’s treatment.
Another example is a smart meter that can monitor energy consumption. This device can help the user to reduce the amount of energy they consume.
Similarly, an IoT device can help a pharmacist to track the temperature of a medicine bottle. These are just a few examples of the many uses for IoT.
Some of the key applications for IoT include health, consumer electronics, and military. Although there are some concerns about privacy, IoT offers a lot of benefits.
For instance, wearable devices can provide more accurate and real-time information about a person’s workouts or activities. They can also be used to monitor the flow of blood and oxygen, as well as the movement of a person’s hands.
Another example is a sensor that can detect changes in a building, infrastructure, or workflow. By monitoring this information, an organization can reduce its energy costs.
The electronics industry is positioning itself for the dawn of a new era: the smart grid. This new power distribution system will provide consumers and businesses with real-time energy information, while improving efficiency and reliability. It will also enable consumers to control their energy bills.
Smart grid technologies are gaining popularity, with the cumulative market for these innovations predicted to reach $400 billion by 2020. A number of companies are involved in the research and development of these technologies. Some of these technologies include on-load tap chargers, advanced protective relays, smart meters and smart substations.
Smart grids are designed to reduce carbon emissions, improve power quality, and minimize outages. They will also equip the electric grid with additional capacity, which is especially important for meeting peak demands.
Smart grids also incorporate technology for self-healing. These features will allow utilities to automatically detect and resolve problems.
The benefits of these technologies are not only immediate but long-lasting. In fact, the United States Department of Energy has referred to the initiative as a ‘unprecedented opportunity’ to advance the efficient use of electricity.
The ‘Internet of Things’ is playing a huge role in advancing the smart grid. With IoT sensors, utilities can unlock a wide range of new energy management possibilities.
Smart grids are more reliable and resilient than traditional power distribution systems. They also integrate a variety of information technologies to communicate with each other and with their customers.
As the need for green energy grows, the demand for a smarter grid will grow. Utilities can use data to help them determine the best time to turn on and off power supplies. They can also make predictions with the help of Artificial Intelligence.
Digital twins have emerged as a powerful technology that connects physical assets with digital information. These capabilities are empowering companies to optimize operations and ensure system performance. This technology is being employed in various industries, including engineering, manufacturing, architecture, and construction.
Various analytics platforms are providing real-time visibility into the performance of digital twins. These platforms can be deployed on-premises or in the cloud.
The benefits of a sophisticated digital twin include improved root cause tracking and fewer false negatives. In addition, advanced analytics technologies such as machine learning and artificial intelligence solutions can also automate the performance of a digital twin.
In addition, digital twins can be used to predict future performance. This allows organizations to plan for potential issues and make better decisions.
Companies are using digital twins to improve operations and customer service. They can also be used to reduce operational costs. To determine if a solution is right for your business, take a look at the features it offers, its pricing, and user reviews.
If you want to find out more about how you can implement a digital twin in your organization, check out Beamo, which enables you to create a digital twin in minutes. You can then access and navigate your virtual facilities with ease.
There are many other tools and technologies in the digital twin space. While this is a great technology, it does not mean it will be easy to implement. Many of these systems rely on rules-based approaches and outdated code.
Sophisticated digital twins use evolving asset data and environment data to help make more informed decisions. These models also offer more true positives, such as a reduction in the number of prototype variations.
With the advancing technology, the smartwatches are getting more and more popular. These devices can provide information about your health and fitness in real time. They can also alert you to any problems that may have happened.
These devices are designed to be worn and used in conjunction with your smartphone. A number of watches are available with built-in GPS. This means they can track your movements and check your weather. Another feature you can get with these wearables is the ability to set timers and use voice commands.
Choosing the right smartwatch can be a confusing process. The first step is to find out what type of features it offers. For instance, some models can track a variety of health metrics, such as heart rate, blood oxygen, stress levels, and sleep. Some will even monitor exercise sessions.
The best smartwatches will also have cellular connectivity. This means that they can receive texts, call notifications, and app alerts without needing your phone. Several models are also waterproof, meaning you can swim or take a shower without worry.
Smartwatches with LTE can be purchased for a premium price. Some are able to send text messages, post to social media, and make payments. All-day battery life is another important feature to look for.
Most of the top-tier watches offer GPS tracking and notifications, so you can keep track of your steps. Many of the models also let you store music from various streaming services. If you’re looking for a watch that will allow you to pay without your wallet, you might consider the Samsung Galaxy Watch.
The Garmin Vivoactive HR has long had a number of convenient features. One of them is an action button that can be customized to launch apps or take splits.
Power electronics are an electrical device that can convert electric power from one source to another. They are used in several industries such as consumer electronics, automobiles, clean energy, and railways. These technologies are also used in renewable resources, like wind and solar power.
The market for power electronics is expected to grow at a CAGR of 3.1% between 2022 and 2028. In addition, the global power electronics market is projected to reach a value of USD 34010 million by 2021.
During CES 2023, several major power electronics players will unveil their latest innovations. Some of the products that will be shown include smart power storage, intelligent edge systems, and 5G/6G infrastructure. Also, Power Electronics will showcase DC fast charging technology for electric vehicles.
Another highlight will be the demonstration of advanced driver assistance systems (ADAS) for electric vehicles. Additionally, Power Electronics will present a complete line of DC fast chargers for the EV market. Lastly, the company will also showcase the latest technologies in AC charging and AC power systems.
The market for power electronics has been segmented into three main categories. Each category includes a forecast and revenue by application, and by type of product. This report provides a comprehensive overview of the industry. It identifies important trends and opportunities for the future. Moreover, it helps the industry players to get a strong position in the global power electronics market.
Electronics Patents in the AI and IoT Industry
Artificial intelligence and IoT are growing semiconductor technologies. The semiconductor industry has seen a surge in innovation due to IoT and AI. Future markets will be dominated by manufacturers who are able to meet both the IoT and AI requirements for semiconductor chips.
Additionally, 5G networks are being implemented in tandem with the increasing demand for high-performance computing devices. This new market offers huge opportunities for semiconductor manufacturers, provided that innovation is able to keep pace with consumer demand.
The future is also bright for hardware-assisted AI systems that allow computers to “think” as well as “learn” through artificial intelligence with large neuron networks that require low power consumption, so semiconductor technology must adapt to these new considerations. Instead of prioritizing speed or power, semiconductor producers must focus on efficiency.
Our IP professionals are able to offer counsel and assist clients in a wide range of electronic sectors. They draw on years of experience, thought leadership, advanced educational training, and decades of practical business and engineering knowledge to develop the necessary skills to help clients achieve business goals in a variety of electronics sectors, including:
- Digital and analog circuits
- Computer architecture and computer systems
- Coding, cryptography and compression
- Data storage
- Electronic design automation
- Flexible electronics
- Architecture and applications for graphics processing units
- Integrated circuits
- Applications and e-commerce via the Internet
- Lighting — Plasma and solid-state
- Systems, memory circuits and technologies
- MEMS Manufacturing and applications
- Mobile communication and computing
- Materials engineering, nanotechnologies and quantum-effect devices
- Communications and networking
- Optoelectronics & photonics
- Near-field and RF communications
- Semiconductor structures, processes, devices, lithography, and manufacturing equipment
- 3-D printing
Offensive and defensive patenting are two different strategies that can be used when it comes to electronic inventions.
Offensive patenting involves proactively seeking patents on new technologies and innovations in order to prevent competitors from using them. This strategy is often used by companies that are developing new electronic technologies and want to establish a dominant position in the market. By obtaining patents on key technologies, companies can prevent competitors from using those technologies without paying licensing fees, which can provide a significant revenue stream.
Defensive patenting, on the other hand, involves obtaining patents as a defensive measure to protect against potential infringement lawsuits from competitors. This strategy is often used by companies that have already established a strong position in the market and want to protect their existing technology from being copied by others. By obtaining patents on existing technologies, companies can create a “patent thicket” that makes it difficult for competitors to enter the market without risking a lawsuit.
A combination of offensive and defensive patenting can be a more effective strategy for electronic companies. By obtaining patents on new technologies, companies can establish a dominant position in the market, while also protecting their existing technologies from being copied by competitors. Additionally, licensing and cross-licensing agreements with other companies can be a way to monetize the patents and also to reduce the risk of patent litigation. It is important to note that in the electronic field, IP protection strategies should be aligned with the overall business strategy and the company’s mission. Also, it is important to keep in mind that the electronic field is highly competitive and that any new technology should be able to compete with existing products in the market.
patenting considerations for electronics
When it comes to patenting electronic inventions, there are several key considerations that need to be taken into account. These include:
- Novelty and non-obviousness: To be patentable, an invention must be novel and non-obvious. This means that the invention must be different from anything that has been previously disclosed or made available to the public. In the electronic field, where technology is constantly evolving, it can be challenging to prove that an invention is novel and non-obvious.
- Claim scope: When drafting patent claims, it is important to ensure that they accurately capture the scope of the invention without being overly broad. In the electronic field, where technologies can be complex, it can be challenging to draft claims that are specific enough to be granted, but not so broad as to be invalidated later on.
- Prior art: It is important to conduct a thorough prior art search to identify any existing patents or other disclosures that may be relevant to the invention. This can help ensure that the invention is truly novel and non-obvious, and can also help identify potential obstacles to patentability.
- Infringement: It is important to consider the potential for infringement when patenting electronic inventions. This may involve identifying potential competitors and assessing the likelihood of infringement, as well as identifying potential licensing opportunities.
- International protection: Many electronic inventions have global applications, so it is important to consider obtaining patents in multiple countries to protect the invention in those markets.
- Alignment with business strategy: The patenting strategy should be aligned with the overall business strategy and the company’s mission, in order to maximize the value of the patents for the company.
- Compliance with regulations: In the electronic field, there are many regulations that should be taken into account when patenting an invention, such as data privacy, cybersecurity, and other standards.