Analyzing Nanotechnology Patents – Latest Nanotechnology Patent Examples (2023)

Nanotechnology is a technology that transforms materials and systems at the nanometer level (1-100 nanometers). It creates new generations of materials and devices by manipulating material atoms by in novel ways.

The field of nanotechnology is a growing business with many companies working in this area. The field of nanotechnology has been around for more than a decade now and is having a profound impact on our daily lives. Many patents have been filed to protect nanoparticles and products made from nanotechnology.

According to the US Patent Office, there were many new companies that entered the nanotechnology industry this year.

Nanotech Advances In 2023

The Nanotechnology Research Foundation says there are many exciting developments in the future for nanotechnology. These innovations include bioengineering, wearable sensor, chemical/biological weapon, high-precision 3D printer, and integrated circuits that can be measured in nanometers.

Bioengineering applications

Biomedical engineering bridges the gap between medicine and technology. This involves designing devices and materials that can diagnose and treat diseases and allow patients to recover from them.

One of the most recent applications is nanotechnology. This involves the creation and use of nanoscale materials and devices. These nanoscale materials are useful in treating malfunctioning biological systems.

The future of medical treatment and diagnosis could be transformed by nanotechnology, a revolutionary new technology. It is an enabling technology that allows for the creation of new devices and provides high-sensitivity diagnostics.

Researchers can use nanotechnology to develop more effective and targeted therapeutics. A nanomedicine, for example, can be created that targets cancer cells and helps with diseases. Phase II clinical trials are currently underway to evaluate the effectiveness of these new nanomedicines.

The pharmaceutical industry has used nanotechnology-based solutions. They can also be used to analyze water and manage data.

There are many challenges when using nanomaterials in biomedical research. Before clinical trials can begin, there are many issues to be resolved. It is crucial to understand the effects of drugs on immune and inflammatory responses.

The limitations of antiviral drugs are not possible with nanomaterials. Long-term antiviral treatment can have toxic side effects. Scientists and entrepreneurs need to work together in order to develop nanomedicine-based innovation.

Integrated circuits that have features that can be measured in nanometers

An integrated circuit (IC), is a microchip that contains many transistors and other components. These components are manufactured on a silicon semiconductor substrate. Many devices use ICs. Examples of ICs include toasters, microwave ovens, and toasters as well as computers.

A nanometer is a measurement device that can be used for measuring the size of microscopic items, such as transistors. It can also be used to measure integrated circuits. This allows manufacturers to use measurement technology to manage their manufacturing processes.

A random access memory chip (RAM) is one of the most common types of integrated circuits. Depending on the type of IC, RAM chips can vary in size. One RAM chip may contain more than a thousand transistors. Microprocessors, analog ICs, and digital ICs are all common ICs.

The size of chips has increased tremendously since the 1960s. Computer chips today have thousands of times more capacity and speed than chips in the 1970s. The number of transistors also has increased dramatically.

Dual in-line packages (DIP), and leadless chip carriers are common packaging options for integrated circuits. They were previously packaged in flat ceramic packs. The packaging of these products changed dramatically in the 1980s, and 1990s. Dual in-line packaging became the norm and plastic was introduced into commercial circuits.

A photolithography process is used to fabricate many layers of material in an integrated circuit. Each layer is patterned by photons at a higher frequency. Each layer eventually becomes thinner than the device’s width.

High-precision 3D printing technique

EPFL researchers have developed a high-precision 3D printing process that produces tiny objects with unmatched precision. This method is promising for biomedical applications, particularly for tissue engineering and soft organs.

The technique is based on electric-field-driven micro-scale 3D printing. This allows for the creation of structures up to micrometers high and soft objects using UV-curable liquid copolymer ink with the appropriate viscoelastic characteristics.

The process also has high selectivity and sensitivity. This method also allows for the creation of customized drug delivery platforms.

Although the process is still very young, many industries including medicine have expressed interest in it. These include pharmaceuticals, medical equipment, and diagnostics as well as biomedicine.

The process can also be used to prepare microstructures that are suitable for flexible electronics and sensor chips. This process requires highly controlled conditions and the addition of additives.

The process can also create a variety of nanoparticles such as gold and silver that have high conductivity and chemical stability. They can also be used in medical applications, such as photonics.

The new method also allows the encapsulation and storage of stem cells. It could eventually lead to a new method for tissue engineering.

This technique can be used to accelerate the development of bioengineering. Because it can create complex spatial structures for cell proliferation and differentiation,

Photothermal porous polymer

Many advances in photothermal porous plastic nanotech have been made over the years. Many of these advances are related to oil spillage cleanup. They heat crude oil without the use of electric energy.

A suitable material architecture is necessary to improve the photothermal efficiency of NPs. The ability to reduce reflection and transmission of absorbed light is one of the most important aspects. Encapsulation of a targeting drug ligand can also have an impact on the surface of NPs.

A CuS-PEII-ICGFA nanocomposite was created to improve the photothermal performance. This NP was created to increase specificity and stability.

CuS NP has an extremely high molar coefficient of extinction. Long-term laser irradiation can cause damage to normal tissues. CuS NPs are required for biomedical applications that require long irradiation. They must also be high in photothermal efficiency.

PEI is an important anchoring group polymer. It improves the quality of sulfide surfaces and also increases photothermal efficiency. The binding of ICG is strong, too.

It is also possible to see the fluorescence emission absorption from the NC. In the final NC, there is a peak at 800nm. The NC’s storage stability over 30 days is another indicator of the stability of ICG-free.

Photothermal devices are often made from carbon materials. These materials are highly light-absorbent and have excellent chemical stability. They also have many conjugated structures, which reduce the energy gap.

Wearable sensors

Wearable nanotech sensors offer a promising platform for monitoring human activity. These sensors have the potential to bridge gaps between healthcare providers and users and improve patient care. In the near future, these devices will also be an integral part of society.

Wearable sensors face many challenges despite the potential for many applications. The main concerns are privacy, selectivity, and accuracy.

However, there is a greater focus in the industry on the development and commercialization of new applications. Wearable biosensors are used to monitor physiological parameters like blood pressure and heartbeat. Chemical sensors can also be used to measure stress levels and brain activity.

The field of wearable tech has also been interested in electrochemical sensors and colorimetric sensors. Each device has its advantages and disadvantages.

These devices, like any other sensor, have limitations in terms of accuracy, sensitivity, and selectivity. They must also be lightweight, flexible, durable, and able to withstand extreme temperatures.

Wearable sensors are a great way to improve health care. However, the market is still young for them. Companies are still trying to figure out the best wearables. The possibilities are limitless.

One solution is to create large-scale, stretchable, and flexible nanomaterials. For wearable sensors, nanocrystals are a promising building block. Nanocrystals are able to be used in wearable applications due to their solution-processable and tunable properties.

Chemical/Biological Weapons

The United States is trying to reduce the danger posed by nanotechnology. Recent concerns have focused on the possibility of nanotechnology combining with other emerging technologies.

Nanotechnology holds the potential to make new chemical and biological weapons. Nanotechnology can also be used to bypass medical countermeasures. The international community must monitor and predict future threats to global systems.

Some countries are already testing and developing biotechnology-based biological and chemical weapons. Some states are only just beginning to use small amounts of chemical agents. These developments could alter the nature of war and the international community must be ready for the future of nanotechnology.

There are many ways to reduce the risk of nanotechnology misuse. First, a strategy vision must be developed that includes multidisciplinary approaches. The second step is to evaluate the effectiveness of the existing nonproliferation mechanism.

It is possible to use nanotechnology to make highly toxic CBW compounds. Nanotechnology can also be used for improving the delivery and regulation of these agents. There are many ways that nanotechnology can be used to solve problems, but there are still uncertainties.

Transnationality is one of the biggest challenges in combating this technology. This could reduce effectiveness of existing countermeasures. To minimize this risk, the United States must adopt a multidisciplinary, globalized approach to nanotechnology research in order to reduce it.

The Emergence of Nanotechnology Innovation and Patenting

Many fields are using nanotechnology, which is a technique that manipulates atoms to create tiny structures like nanowires or nanoparticles.

Nanotechnology is an exciting field with many new opportunities and challenges. You can stay ahead of the curve by staying up to date with the latest developments in nanotechnology patents, and their applications.

The existence of nanotechnology is known as far back as 1789, when Friedrich Zollner, a German scientist, discovered nanospheres. These nanospheres are used in everyday products such as sunscreen and clothing. Over the past 25 years, information about nanotechnology was published. Most of this information is free to the general public.

Nanotechnology manipulates matter at an atomic level. This is in contrast to traditional nanotechnology which works at the microscopic level. Nanomaterials are being used in medicine and food. Many research and development projects focus on this area.

There are more tech startups looking to innovate and obtain patents in nanotechnology. It is important to keep up to date with all the latest examples of nanotechnology patent examples.

Patents and Nanotechnology

This study provides information about patents in this important new field of technology. A recent increase in patents has been caused by the commercialization of nanotechnology, and its application into consumer products. The release of US patents on Nanotechnology is increasing at an ever faster rate, particularly in the last five years.

The majority of patents for nanotechnology that have been granted in the US are related to medical and food applications. New technologies are being created that address other areas, such as electronics, optics, and materials.

Technology has advanced to create nanomaterials. Researchers and businesses are now trying to find solutions to the problem of how to use them on surfaces, scaffolds, pores, and other places.

Problems in Nanotechnology Patenting

The patent laws provide all the necessary information to help a person understand the correct procedures.

WIPO While inventions in nanotechnology appear to be eligible for patent protection subject to satisfying the relevant conditions, there are still a few issues that need to be considered.

  • One problem that is shared with many other emerging technologies is the fact that the granted claims can be too broad. This is due, at least in part, to a dearth of prior art. Patent holders could then lock up vast areas of technology. There is also the risk of patents being overlapping in this setting.
  • Concerning the conditions of patentability, it may be asked if the reproduction of a product or structure on an atomic scale would satisfy the requirements for novelty or, even more important, an inventive step.
  • A related issue to the above is whether patent rights granted for a product without specification of its size could be infringed or used as a basis for requesting royalties from their inventor.

There are many important things to remember when considering patents for nanotechnology.

  1. Patentability requires novelty and non-obviousness. This means that an invention must be not obvious to someone with ordinary skills in the field. It also means that it cannot be described in the prior art.
  2. Claiming: Nanotechnology patent applications should contain claims that clearly and narrowly describe the invention. However, they should also be broad enough to encompass the entire scope of the invention.
  3. Prior art search: To ensure that the technology is new and not obvious, it’s essential to do a thorough search of prior art.
  4. Description of technology: To make it easier for the patent office to comprehend the invention and its novelty, the patent application must be written in a clear and concise fashion.
  5. Technical Expertise: To navigate the complex world of patenting nanotechnology, it is important to speak with a patent agent or attorney who is knowledgeable in the technical aspects of nanotechnology.
  6. Compliance: It is important that technology complies to all applicable regulations and standards, such as those set by FDA and EPA as well as international laws and guidelines.
  7. Alice Test: As I have previously explained, it is important to think about the Alice test and its impact on patentability.
  8. Industrial application: The patent office will consider the industrial application of the invention when reviewing the patent application.


Our team of professionals in nanotechnology includes experts trained in advanced sciences that underlie nanotech, such as optoelectronics and materials science, biotechnology, optoelectronics and semiconductor devices, and fabrication methods. Our team comprises engineers and scientists with extensive industry experience in nanotech. They can help you protect and commercialize your inventions and monetize them.

Our long history includes representing IP needs in nascent industries such as biotechnology, bioinformatics, and software. Emerging nanotech companies and institutions share many IP issues. Technology transfer, patent interferences, and licenses are just a few of the IP-related legal issues.

A lot of the nanotech industry’s success is dependent on the transfer to private sector university-funded inventions. These transfers are dominated by the Bayh Dole Act. Our IP professionals have decades-long experience in licensing and university/industry relations. They can assist with licensing innovative nanotech patents and portfolios from universities, as well as negotiate intra-industry agreements.

We have been representing clients in the nanotechnology industry in areas including:

  • Biosensors
  • Microfluidics
  • Nanocomputing
  • Nanoelectronics
  • Nanomaterials
  • Quantum dots
  • Semiconductors

The nanotechnology team provides a complete range of IP services including patent preparation and prosecution; litigation; portfolio strategy and development; technology transfer agreements (and licenses); patent office litigation (including interfering); and strategic counseling.