Lipid nanoparticles that engineer CAR T cells in vivo could unlock access for millions of autoimmune patients

2025-06-24 - 2025-06

Capstan Therapeutics scientists demonstrate that lipid nanoparticles can engineer CAR T cells within the body without laboratory cell manufacturing and ex vivo expansion. The method using targeted lipid nanoparticles (tLNPs) is designed to deliver messenger RNA specifically to CD8+ T cells.CAR T therapy has revolutionized the treatment of B-cell cancers, with lasting remissions in lupus, myositis, and leukemia and other B-cell–driven autoimmune disorders. The method requires the use of a patient's own T cells, reengineering those T cells in a lab, growing the population of the modified cells and placing them back in the patient.

Nanoparticles are threatening the stability of plant cells

2025-06-21 - 2025-06

Nanoparticles – microscopic specks released by cars, factories, forest fires, and volcanoes – float through every ecosystem on Earth.

Scientists are also designing these particles to precisely deliver fertilizers to crop roots, target pests with pesticides, or serve as tiny sensors that detect plant stress.But new research, led by the University of California, Riverside, shows that once those particles enter a plant cell, they can change in unexpected ways and interfere with the plant’s ability to photosynthesize.

The researchers uncovered a chain reaction: inside the cell, nanoparticles pick up a greasy coating and then cling to RuBisCO, the enzyme that jump-starts photosynthesis. The result is a dramatic slowdown in the plant’s carbon-dioxide intake.

The discovery does not condemn the promise of agricultural nanotechnology, but it does force scientists to rethink how particles are designed.

Nanoparticles attach to polymers like toy blocks via simple mechanical collisions

2025-06-20 - 2025-06

Dr. Seunggun Yu and his team at KERI's Insulation Materials Research Center have developed "Hybrid Supraparticle Synthesis Technology" that can attach inorganic nanoparticles to the surface of polymer microparticles through simple mechanical collisions. The work is published in the journal Advanced Materials.

Gene-editing nanoparticle system targets multiple organs simultaneously

2025-06-19 - 2025-06

A gene-editing delivery system developed by UT Southwestern Medical Center researchers simultaneously targeted the liver and lungs of a preclinical model of a rare genetic disease known as alpha-1 antitrypsin deficiency (AATD), significantly improving symptoms for months after a single treatment, a new study shows. The findings, published in Nature Biotechnology, could lead to new therapies for a variety of genetic diseases that affect multiple organs.

Innovative Photodetector Using Diamond Nanowire Structure

2025-06-18 - 2025-06

A new study in Nano-Micro Letters by scientists from the University of Science and Technology of China and the Shenyang National Laboratory for Materials Science reports a major leap in photodetector technology.

The team developed a novel approach using single-crystal diamond nanowires (DNWs) embedded with platinum (Pt) nanoparticles, resulting in photodetectors that combine high performance with exceptional thermal stability.

Easily Attach Nanoparticles Like Toy Blocks for Industrial Use!

2025-06-17 - 2025-06

The ‘Hybrid Supraparticle Synthesis Technology’ that combines functional inorganic nanoparticles with polymer microparticles is being widely applied across various industries, including battery electrode materials, catalyst systems, pharmaceuticals and biotechnology, semiconductor packaging, and insulating materials for electrical equipment. In this process, materials are primarily combined through wet chemical processes, which pose several issues, including complex multi-step procedures and additional costs, environmental problems due to the use of solvents, and limitations in surface functionalization technologies required to induce chemical bonding between different materials.

Inspired by the craters formed on the Moon due to asteroid collisions, Dr. Seunggun Yu introduced a method of physically and mechanically colliding particles. In this process, inorganic nanoparticles were individually attached to the surface of polymer microparticles, forming a core-shell structure where the nanoparticles envelop the polymer microparticles like a shell.

Nanopriming Seeds for Stress-Resistant Crops: A New Development in AgriTech

2025-06-16 - 2025-06

To address this, scientists and agritech developers are exploring nanotechnology to improve seed resilience. One emerging method, nanopriming, offers a novel approach to enhancing crop performance under stress. Nanopriming is a seed treatment that promotes germination and early plant growth. It involves coating seeds with solutions containing nanoparticles, such as silver, copper, silicon, or zinc. These are applied before sowing

Smart nanoparticles launch genetic attack on lung cancer and cystic fibrosis

2025-06-13 - 2025-06

A scientific team has unlocked a new way to treat serious lung conditions by using specially designed nanoparticles to deliver genetic therapies straight to lung cells. This innovation could transform care for patients with cystic fibrosis or lung cancer. With a powerful combination of gene editing and RNA delivery, the system has already shown promise in animal trials. The streamlined approach not only enhances precision but also avoids harmful side effects, making it a bold leap forward in respiratory medicine.

Cobalt Nanoparticle-Decorated Carbon Materials: Catalysts for a Sustainable Future

2025-06-12 - 2025-06

These materials offer improved reaction kinetics, strong durability, and efficient catalytic performance in energy and environmental applications. They support the development of sustainable technologies.These composites consist of cobalt nanoparticles dispersed or anchored onto carbon-based supports such as graphene, carbon nanotubes, or porous carbon. The carbon matrix provides high surface area, mechanical stability, and electrical conductivity, while the cobalt nanoparticles act as active catalytic sites.

This combination boosts catalytic efficiency. It enhances electron transfer, improves access for reactants, and increases the number of active sites. As a result, these materials are highly effective in electrochemical and environmental catalytic processes.

Manganese-coordinated lipid nanoparticles boost VZV vaccine-induced T cell responses

2025-06-11 - 2025-06

Manganese-coordinated lipid nanoparticles boost VZV vaccine-induced T cell responses

2025-06-10 - 2025-06

Announcing a new article publication for Zoonoses journal. Because varicella zoster virus (VZV) infections are continually increasing, vaccine efficacy must be enhanced. To date, the inefficient in vivo utilization of antigens and adjuvants has limited vaccine-induced immune protection against VZV infection. Therefore, improving the antigen and adjuvant utilization efficiency is crucial to enhance VZV vaccine performance.

To achieve favorable VZV antigen and adjuvant utilization efficiency, a co-delivery system was constructed based on manganese-coordinated lipid nanoparticles (Mn-LNPs). Palmitic acid was coordinated with manganese through hydrothermal synthesis. Furthermore, 1.6 molar palmitic acid-Mn was added to four commercial lipid nanoparticle components (SM-102:DSPC:CHO-HP:DSG-PEG2000 in a 50:10:37.5:2.5 molar ratio) to encapsulate VZV glycoprotein E (gE) antigen and CpG adjuvant by using a microfluidic chip. Mn-LNP size and morphology were characterised through transmission electron microscopy and quantified the manganese on palmitic acid-Mn through X-ray photoelectron spectroscopy. The performance of the Mn-LNP co-delivery system in enhancing VZV vaccine-induced immune responses was evaluated in a mouse model.

Nanotechnology in Cancer Treatment Market Positioned for Transformational Growth by 2029

2025-06-07 - 2025-06

Boston, June 05, 2025 (GLOBE NEWSWIRE) -- As cancer prevalence continues to rise globally, nanotechnology in cancer treatment is emerging as a transformative force in oncology. Leveraging nanoscale drug delivery systems and precision-targeting techniques, companies such as AstraZeneca, F. Hoffmann-La Roche Ltd., and Bristol-Myers Squibb are developing next-generation solutions to enhance therapeutic effectiveness while minimizing harm to healthy cells.

According to the report, growing cancer prevalence, rising government funding, and increased pharmaceutical R&D spending are reshaping innovation strategies across the oncology landscape. The global market is projected to grow at a CAGR of 17.4% from 2024 to 2029. As North America continues to lead market expansion and new nanomedicine applications evolve globally, stakeholders must navigate regulatory complexity, manufacturing scalability, and long-term safety considerations to harness the full potential of this technology.

Nanoworx announces nanomedicine development and optimization services!

2025-06-02 - 2025-06

academic and industry partners. Based in Eindhoven, Netherlands, Nanoworx leverages state-of-the-art equipment and deep expertise to advance the design, optimization, and scaling of nanoparticle-based solutions.

The company offers four core services tailored to client needs:

Nanoparticle design and prototyping
Nanomedicine high-throughput library construction and screening
Nanomedicine production at scale
In vitro assay testing
These services are fully customizable, supporting clients at any stage of nanomedicine development, from early exploration to advanced platform optimization.

Lipid nanoparticle drug system targets COVID-19 associated lung damage

2025-05-31 - 2025-05

A new drug delivery system developed by researchers at the University of Hawaii at Mnoa John A. Burns School of Medicine (JABSOM) and Sungkyunkwan University in South Korea may significantly reduce serious lung damage. The study was published in the Journal of Controlled Release.

The team designed tiny particles, called lipid nanoparticles (LNPs), to carry two drugs directly to immune cells in the lungs, called neutrophils. Using COVID-19 as a model, they showed that the LNPs only targeted these lung cells, didn't cause harm and reduced inflammation and early signs of scarring in mice.

Self-stirring nanoreactors enhance reaction efficiency for chemical synthesis

2025-05-30 - 2025-05

Recent technological advances have opened new possibilities for the efficient and sustainable synthesis of various valuable chemicals. Some of these advances rely on nanotechnologies, systems or techniques designed to design and study materials or devices at the nanometer scale.

20 years of excellent nanoscience celebrated at Kavli Day 2025

2025-05-28 - 2025-05

On 15 May 2025, the Kavli Institute of Nanoscience Delft celebrated its 20th anniversary at Diergaarde Blijdorp in Rotterdam. This special edition of the annual Kavli Day was hosted by the institute’s co-directors, Gijsje Koenderink and Mazhar Ali, and was dedicated to celebrating excellent nanoscience at the institute—honouring the achievements of the past twenty years while also looking forward to future advancements and continuing partnership between TU Delft and The Kavli Foundation.

Pioneering Innovations in Rubber Technology and Nanoscience by Jayadip Tejani

2025-05-26 - 2025-05

Being based in the United States, Jayadip has a Master of Industrial Chemistry and a Bachelor of Science from India's Bhavnagar University, with a strong academic background that is richly supported by his deep practical experience. His working career has been dominated by major contributions to rubber polymerization techniques, nanotechnology uses, and the adoption of artificial intelligence in manufacturing processes.

Directly transforming light energy into electricity or turning graphite from a pencil into a superconductive material for energy and heat—these are just some of the possibilities offered by nanoscience and nanotechnology.

2025-05-21 - 2025-05

Advancing the energy transition means finding solutions to a complex challenge: improving efficiency. This requires efforts at multiple levels—from technological innovation, major infrastructures, and global strategies to changes in our daily habits. But what if one of the keys lies at an invisible level At the nanometric scale, researchers are developing technologies capable of transforming how we produce and use energy: from perovskite solar cells and applications for obtaining green hydrogen, to batteries and supercapacitors that use graphene and advanced nanostructures.

Nanoparticle-cell interface enables electromagnetic wireless programming of mammalian transgene expression

2025-05-20 - 2025-05

Nanoparticle-cell interface enables electromagnetic wireless programming of mammalian transgene expression

2025-05-19 - 2025-05

Recent technological advances are fueling the development of cutting-edge technologies that can monitor and control physiological processes with high precision. These include devices that could control the expression of genes within living organisms, without requiring invasive surgeries or procedures.

Researchers at ETH Zurich recently introduced a new method that enables the electromagnetic programming of the wireless expression regulation (EMPOWER) of transgenes in mammals, via the interfacing of nanoparticles and cells.

Nanoparticles Boost Ultrasound Cancer Therapy

2025-05-16 - 2025-05

The study explores how to make high-intensity focused ultrasound (HIFU) less harmful to healthy tissue.

Oregon Health & Science University was the first institution in Oregon to offer prostate cancer therapy using a robotic-assisted HIFU system. Researchers at the OHSU Knight Cancer Institute’s Cancer Early Detection Advanced Research Center (CEDAR) set out to develop a targeted form of ultrasound known as mechanical tumor ablation.

This technique uses energy to destroy solid tumors without surgery. However, it faces two main challenges: it typically requires high energy levels, which can produce heat and damage surrounding healthy tissue, and even when tumors are broken apart, some cancer cells may survive and cause the cancer to return.

Lipid Nanoparticles Industry worth $350.5 million by 2029, with a CAGR of 11.9% As Revealed In New Report

2025-05-14 - 2025-05

he report "Lipid Nanoparticles Market by Product (Ionizable lipids, Phospholipids, Kits, Reagents), LNP Type (SLNs, NLCs), Molecule (siRNA, mRNA), Application, Service Type (Formulation Development, Manufacturing) - Global Forecast to 2029", is projected to reach USD 350.5 million by 2029 from USD 271.8 million in 2024, at a CAGR of 5.2% during the forecast period of 2024 to 2029. The lipid nanoparticles Services Market is projected to reach USD 238.1 million by 2029 from USD 135.5 million in 2024, at a CAGR of 11.9% during the forecast period of 2024 to 2029. Some factors contributing to the growth of the global market include increasing use of lipid nanoparticles in ant-cancer therapies, increasing use of lipid-nanoparticles in RNA-based therapies. Despite this, unfavorable regulatory scenario for lipid nanoparticles are expected to hinder market growth.

Who coined the term

2025-05-13 - 2025-05

The term "nanotechnology" was coined by Professor Norio Taniguchi in 1974 at the Tokyo Science University. He introduced it in a scientific paper presented at the International Conference on Production Engineering, defining it as "the processing of separation, consolidation, and deformation of materials by one atom or one molecule."

His work primarily focused on ultra-precision machining, particularly in semiconductor fabrication, where control at the atomic level was starting to become feasible.

At the time, Taniguchi's "nanotechnology" was a practical, engineering-oriented concept far from the futuristic visions that would follow. It wasn't until the 1980s that the term began to take on broader meaning. K. Eric Drexler, an MIT-trained engineer, dramatically expanded the concept in his 1986 book Engines of Creation.

Seaborough and Luminus Devices Announce Partnership to Bring the World’s First LEDs with Nano-Engineered Eu3+-Based Phosphor to Market

2025-05-09 - 2025-05

Seaborough B.V. (Seaborough), a pioneer in nanoscience and luminescent technology, and Luminus Devices, an established innovator in advanced lighting technologies, announce a partnership which aims to bring the world’s first LED with nano-engineered Eu3+-based phosphor to market on a commercial scale.

This new partnership gives Luminus Devices early access to Seaborough’s unique phosphor technology, EuroLED™, which will unlock high quality, more sustainable, warm white LED lighting applications. By testing the patented phosphor technology in Luminus Devices’ LED packages, Seaborough will accelerate the development of its EuroLED™ technology. Both parties expect their collaboration will enable the scale up and global launch of the first LED lighting applications produced with EuroLED™.

Seaborough’s EuroLED™ technology is a patented nano-engineered Eu3+-based phosphor solution for warm white LEDs, which emits unique narrow-band red light. With this, EuroLED™ provides 10% to 20% more lumens per watt than existing phosphors in the CRI 80-90 range, making it a significantly more sustainable solution. In addition, EuroLED™ is processed without hydrofluoric acid and without oxygen restrictions.

COVID-19 Could Be Treated with Fungus-Derived Silver Nanoparticles

2025-05-08 - 2025-05

A team of Brazilian researchers, led by Roberto do Nascimento Silva, PhD, a professor at Ribeirão Preto Medical School, University of SAo Paulo, has shown that silver nanoparticles synthesized by the fungus Trichoderma reesei have been shown to inhibit SARS-CoV-2 infection and reduce lung inflammation in animal models. This finding, published in Current Research in Biotechnology, provides a potential pathway to developing antiviral treatments such as a nasal spray to treat COVID-19 and potentially other viral diseases.

“Using computer analysis, we found that the silver nanoparticles produced in our laboratory bind to the spike protein, a kind of key that the SARS-CoV-2 virus uses to enter the host cells and replicate. In this way, they inhibit the entry of the virus into the cell by 50%,” said Silva, the study’s senior author.

Silver nanoparticles produced by fungus could be used to prevent and treat COVID-19

2025-05-07 - 2025-05

Silver nanoparticles produced by the fungus Trichoderma reesei could become important allies in the prevention and treatment of COVID-19. Tests carried out on hamsters showed that they not only inhibited the infection but also reduced the viral load in the lungs, easing inflammation in the rodents.

The study, supported by FAPESP, paves the way for the development of nasal sprays and other products to combat several viral diseases, such as HIV/AIDS, shingles and influenza.

Silver nanoparticles have been of interest to the pharmaceutical industry due to their high affinity for proteins. Depending on their shape and size, they attract and adhere to these molecules, inhibiting the progression of disease.

nanomedicine

2025-05-06 - 2025-05

Kingdom, Germany, and Japan. In terms of the volume of nanomedicine research, these countries are joined by China, France, India, Brazil, Russia, and India.

Working at the molecular-size scale, nanomedicine is animated with promises of the seamless integration of biology and technology, the eradication of disease through personalized medicine, targeted drug delivery, regenerative medicine, as well as nanomachinery that can substitute portions of cells. Although many of these visions may not come to fruition, some nanomedicine applications have become reality, with the potential to radically transform the practice of medicine, as well as current understandings of the health, disease, and biology—issues that are of vital importance for contemporary societies. The field’s global market share totalled some $78 billion dollars in 2012, driven by technological advancements. By the end of the decade, the market is expected to grow to nearly $200 billion.

Nanotechnology Clothing Market Insights, Technology Advancements and Forecast 2025 - 2032 | Columbia Sportswear Company, Nanotex, Toray Industries

2025-05-03 - 2025-05

The Latest research study released by Worldwide Market Reports on the Nanotechnology Clothing Market with 150+ pages of analysis on business strategy taken up by key and emerging industry players delivers know-how of the current market development, landscape, technologies, drivers, opportunities, market viewpoint, and status. Understanding the segments helps in identifying the importance of different factors that aid market growth.

The market study report offers comprehensive insights into the entire market landscape, offering strategies for business expansion aimed at boosting revenue. This report entails a systematic collection of vital market data regarding target customers, providing a thorough assessment of the potential success of your product or service before market launch. This research report plays a crucial role in this process, conducting extensive analysis and delivering pertinent information to key stakeholders. This global report also covers detailed updates on COVID-19 and its major consequences on human health and businesses. It also allows checking whether the target market is a good fit for your enterprise as the growth of the enterprise completely relies on the target market.

Scientists Have Used Nanotechnology To “Tattoo” Tardigrades

2025-05-02 - 2025-05

If you haven’t heard of a tardigrade before, prepare to be amazed. These clumsy, eight-legged creatures, nicknamed water bears, are about half a millimeter long and can survive practically anything: freezing temperatures, near starvation, high pressure, radiation exposure, outer space, and more.

In a new study published in the journal Nano Letters, researchers leveraged the tardigrade’s near-indestructibility to test a new microfabrication technique. They successfully applied tiny, biocompatible “tattoos” onto the animals, demonstrating the method’s potential for building microscopic devices that interact with living organisms.

“Through this technology, we’re not just creating micro-tattoos on tardigrades — we’re extending this capability to various living organisms, including bacteria,” explains Ding Zhao, a co-author of the paper.

Healthcare Nanotechnology Market Report: Insights, Analysis & Opportunities to 2032

2025-04-30 - 2025-04

Healthcare Nanotechnology Market Report 2025-2032 | Coherent Market Insights

According to the latest research from Coherent Market Insights, the Healthcare Nanotechnology Market is projected to experience significant growth between 2025 and 2032. This market intelligence report offers in-depth analysis based on thorough research, highlighting current trends, financial performance, and historical data evaluation.

The company profiles within the report are derived from the current performance of the Healthcare Nanotechnology Market, considering key factors such as drivers, trends, and challenges, as well as global market share, size, and revenue forecasts for comprehensive insights. To provide a clear understanding, the report examines leading companies, types, applications, and the factors contributing to a positive future outlook.

The Healthcare Nanotechnology market report includes detailed charts, tables, and data analysis, with clear objectives aimed at potential stakeholders. It offers a comprehensive study of the market, providing valuable insights to support strong growth in the future. This report is designed for stakeholders, market participants, investors, researchers, and professionals associated with the business.

Designing Potent Nanomedicines with Atomic Precision

2025-04-29 - 2025-04

Historically, pharmaceutical drugs are carefully designed at the atomic level to ensure effectiveness and safety, as seen with ibuprofen. Now, researchers at Northwestern University and Mass General Brigham suggest applying this same precision to nanomedicines, which currently lack uniform structure. By tailoring nanomedicines more precisely, scientists aim to create more consistent and potent treatments for major diseases. The study was published in the journal Nature Reviews Bioengineering.

No two particles are alike in today's nanomedicines, such as mRNA vaccines. To guarantee that all of the nanomedicines in the same batch are identical, and the strongest versions researchers are coming up with new ways to precisely customize their structures.

With this degree of control, scientists can precisely regulate how nanomedicines interact with the human body. Strong vaccines or even treatments for cancer, infectious diseases, neurodegenerative diseases, and autoimmune disorders are being developed as a result of these novel designs.

Nanoparticle shield makes luminescent molecules more durable for high-tech applications

2025-04-28 - 2025-04

They are tiny but glow intensively: special light-emitting molecules used in environmental analysis, medical diagnostics, and energy research. However, their luminescence intensity can be significantly reduced by oxygen in the air. Researchers at the Bundesanstalt für Materialforschung und -prüfung (BAM) have now developed a "nano-protective shield": embedded in nanoscale silica particles, molecules with initially oxygen-sensitive emission remain significantly more stable and luminescent – a major advancement for future-oriented technologies.

Many modern technologies use light-emitting molecules, so called luminophores. They are utilized, for example, as contrast agents for medical imaging or in solar cells. Particularly promising are compounds such as chromium(III) complexes, also known as "molecular rubies", developed by Prof. Katja Heinze from Johannes Gutenberg University in Mainz. "These molecules can emit light for more than a millisecond. This is ideal for many high-tech applications," explains Ute Resch-Genger from BAM, who leads the DFG project NILE-CHROME 2.0 with Katja Heinze. "But at the same time, they are very sensitive to oxygen and can lose their luminescence."
An interdisciplinary research team has now found a simple solution to protect the sensitive molecules from oxygen. Building on the silica expertise of BAM researcher Isabella Tavernaro, the scientists embedded the luminophores in tiny silica nanoparticles. Nanoparticles made of silicon dioxide (SiO), the main component of quartz glass, are chemically stable and biologically compatible. By encapsulating the molecules, these specially prepared silica nanoparticles form a shield against external influences, preserving their luminescence.

New Nanotech Speeds Up Foodborne Pathogen Detection in Under Four Hours

2025-04-25 - 2025-04

A new study introduces glycan-coated magnetic nanoparticles (gMNPs) as a faster, more efficient tool for detecting harmful pathogens in food.

Published in Food Quality and Safety, the research responds to an urgent need for quicker pathogen detection methods, crucial for minimizing health risks and the economic impact of foodborne contamination.

Traditional techniques typically require lengthy microbial growth and enrichment steps to reach detectable bacterial levels, which can delay timely intervention. This study presents gMNPs as a promising solution, capable of rapidly isolating pathogens from food samples and streamlining the overall detection process to support faster public health responses.

Nanoparticle treatment combined with radiation therapy significantly improves glioblastoma survival in mice

2025-04-24 - 2025-04

Glioblastoma multiforme is an aggressive brain tumor that mainly affects adults. Approximately 30,000 people in the U.S. are diagnosed with GBM every year and patients have a 5-year survival rate of 7%. Current treatments include surgery, radiation therapy and chemotherapy with temozolomide. Unfortunately, none of these methods can cure GBM
Treatment options for GBM have their limitations," said Maria Castro, professor of neurosurgery and a member of the Rogel Cancer Center.

"Although surgery can help improve survival, surgeons often have to remove the normal tissue that surrounds the tumor to prevent it from spreading. On the other hand, using drugs to target the cancer is also challenging because GBM cells are heterogeneous. If you try and target a particular pathway, the cancer cells can use other pathways and repopulate the tumor."

Additionally, anti-cancer drugs cannot easily cross the blood-brain barrier, which protects the brain from substances in the blood, according to Anna Schwendeman, professor of pharmaceutical sciences.

Nanotech’s role in packaging

2025-04-23 - 2025-04

Nanotechnology has been making waves across multiple industries, revolutionising the way we design products, enhance materials, and improve functionality. One of the most exciting and promising applications of nanotechnology is in the field of packaging.

As global demand for sustainable, efficient, and high-performance packaging solutions grows, nanotechnology presents a unique opportunity to enhance packaging materials, improve product protection, and even contribute to environmental sustainability.

This article explores the crucial role nanotechnology is playing in packaging, from increasing the durability of materials to reducing waste and enabling smarter, more intelligent packaging solutions.

DNA Nanotechnology Market Poised to Reach US$ 21.23 Billion by 2032, Growing at a CAGR of 25.2%, Says Coherent Market Insights

2025-04-19 - 2025-04

The global DNA nanotechnology market was valued at US$ 4.4 Bn in 2025 and is expected to reach US$ 21.23 Bn by 2032, growing at a compound annual growth rate (CAGR) of 25.2% from 2025 to 2032.

Latest Report, titled “DNA Nanotechnology Market” Trends, Share, Size, Growth, Opportunity and Forecast 2025-2032, by Coherent Market Insights offers a comprehensive analysis of the industry, which comprises insights on the market analysis. The report also includes competitor and regional analysis, and contemporary advancements in the market.

The report features a comprehensive table of contents, figures, tables, and charts, as well as insightful analysis. The DNA Nanotechnology market has been expanding significantly in recent years, driven by various key factors like increased demand for its products, expanding customer base, and technological advancements. This report provides a comprehensive analysis of the DNA Nanotechnology market, including market size, trends, drivers and constraints, competitive aspects, and prospects for future growth.The report sheds light on the competitive landscape, segmentation, geographical expansion, revenue, production, and consumption growth of the DNA Nanotechnology market. The DNA Nanotechnology Market Size, Growth Analysis, Industry Trend, and Forecast provides details of the factors influencing the business scope. This report provides future products, joint ventures, marketing strategy, developments, mergers and acquisitions, marketing, promotions, revenue, import, export, CAGR values, the industry as a whole, and the particular competitors faced are also studied in the large-scale market.

Golden eyes: How gold nanoparticles may one day help to restore people's vision

2025-04-17 - 2025-04

A new study by Brown University researchers suggests that gold nanoparticles—microscopic bits of gold thousands of times thinner than a human hair—might one day be used to help restore vision in people with macular degeneration and other retinal disorders.

In a study published in the journal ACS Nano, the research team showed that nanoparticles injected into the retina can successfully stimulate the visual system and restore vision in mice with retinal disorders. The findings suggest that a new type of visual prosthesis system in which nanoparticles, used in combination with a small laser device worn in a pair of glasses or goggles, might one day help people with retinal disorders to see again.

"This is a new type of retinal prosthesis that has the potential to restore vision lost to retinal degeneration without requiring any kind of complicated surgery or genetic modification," said Jiarui Nie, a postdoctoral researcher at the National Institutes of Health who led the research while completing her Ph.D. at Brown. "We believe this technique could potentially transform treatment paradigms for retinal degenerative conditions."

Dispersion hardening using amorphous nanoparticles deployed via additive manufacturing

2025-04-16 - 2025-04

Nanoparticles or precipitates are long used to block dislocations to strengthen metals. However, this strengthening mechanism unavoidably adds stress concentrations at the obstacles, instigating crack initiation that hampers ductility. Here, we demonstrate a strategy that replaces the traditional crystalline dispersions with dense amorphous nanoparticles, which is made possible via laser powder bed fusion. Porosity-free copper-based nanocomposites are demonstrated as a prototype, consisting of densely and uniformly distributed amorphousboron–carbide nanoparticles (~47nm in average diameter, up to 12% volume fraction) via an in situ nanofragmentation and melt-quench process. The amorphous nanoparticles act as dislocation sinks, thereby alleviating local stress concentration. They also self-harden along with tensile deformation, promoting strain hardening and therefore homogeneous plastic flow.

Nanoparticles Market to Witness Remarkable Growth with Abraxis Biosciences, Inc., Novartis International AG, Gilead Sciences

2025-04-15 - 2025-04

Latest Qualitative Research Report on the Nanoparticles Market 2025, published by Coherent Market Insights, provides valuable insights into both regional and global markets projected to grow in value from 2025 to 2032. The comprehensive research explores into the evolving Market's dynamics, value chain analysis, prominent investment areas, competitive landscape, drivers and constraints, regional outlook, and key market segments. It's also provides the industry overview with growth analysis and historical & futuristic cost, Statistics, revenue, demand and supply data (as applicable). Additionally, the report highlights effective strategies and opportunities within the market, providing essential guidance for industry professionals, policymakers, stakeholders, investors, and newcomers. This will help them identify key strategies, explore market size opportunities, and gain a competitive advantage in the Nanoparticles Market.

The primary aim of the report is to provide readers with a comprehensive analysis of the market, enabling them to develop effective business growth strategies, evaluate the competitive landscape, assess their current market position, and make informed business decisions related to the Nanoparticles Market. The report offers key projections on critical factors such as market size, production, revenue, consumption, CAGR, gross margin, and pricing. It is based on the most reliable primary and secondary research methods and resources available. Additionally, the report encompasses a variety of research studies, including analyses of market dynamics, pricing, production and consumption, company profiles, and manufacturing costs.

Gold Nanoparticles Market Forecast to Hit USD 22.27 Billion by 2034 with 10.87% CAGR Surge

2025-04-14 - 2025-04

Gold Nanoparticles Market
The global gold nanoparticles market size was valued at USD 7.99 billion in 2024. It is projected to reach USD 22.27 billion by 2034, growing at a CAGR of 10.87% from 2025 to 2034.

Market Explanation
Gold nanoparticles (AuNPs) are compact gold particles with a diameter ranging from 1 to 100 nm. Once diffused in water, AuNPs are commonly referred to as colloidal gold. Spherical AuNPs exhibit notable properties such as size and shape-connected optoelectronic attributes, a high surface-to-volume ratio, outstanding biocompatibility, and low toxicity. Key physical attributes of AuNPs include surface plasmon resonance (SPR) and the capacity to smother fluorescence.

In electronics, gold nanoparticles are utilized as conductors, from printable ink to electronic chips. Nanoscale gold nanoparticles are employed to connect conductors, resistors, and other components within electronic chips. In photodynamic therapy, near-IR absorbing gold nanoparticles generate heat when activated by light at wavelengths from 700 to 800 nm. It helps these nanoparticles to eliminate tumors effectively.

How Everyday Plastics Quietly Turn Into DNA-Damaging Nanoparticles

2025-04-11 - 2025-04

The world is saturated with trillions of microscopic and nanoscopic plastic particles, some smaller than a virus, making them small enough to interfere with cellular function and even alter DNA. Researchers have found these particles in nearly every environment they’ve studied, from Antarctic snow to human blood.

In a new study, scientists have mapped out the molecular mechanisms behind the widespread formation of these tiny plastic fragments. Since plastic first entered the market 75 years ago, its use has become nearly universal—and so has the presence of nanoplastics.

The same properties that make plastic durable and flexible also make it susceptible to breaking down into nanoscale pieces. This breakdown is especially common in the 75-80% of plastics classified as semicrystalline polymers. The research was led by Sanat Kumar, Michael Bykhovsky, and Charo Gonzalez-Bykhovsky, professors of Chemical Engineering at Columbia Engineering.

If you look at a piece of plastic through a powerful microscope, you’ll see alternating layers of hard material and soft material. In the hard layers, plastic molecules are rigidly organized in strong crystal structures. In the soft layers, the molecules lack structure and form a soft, amorphous mass.

Smoltek Hydrogen Has Been Recognized in Chemical Engineering – Nanofiber Technology Shows Dramatically Increased Catalytic Activity

2025-04-10 - 2025-04

This press release is an English version of the previously published Swedish version, which has interpretive precedence.

Smoltek Nanotech Holding AB (publ) (“Smoltek” or the “Company”) announces that its subsidiary Smoltek Hydrogen was recently featured in the internationally renowned industry journal Chemical Engineering. In the article, the company's nanofiber technology is highlighted as a solution with the potential to increase the catalytic activity in electrolyzers and which at the same time uses 95% less iridium with maintained activity - a breakthrough with great relevance for green hydrogen production and other sustainable energy applications.

Smoltek Hydrogen is proud to have been recognized by the well-known American trade journal Chemical Engineering, which in its April issue published an extensive article about the company's unique technology for greatly reducing the amount of iridium in PEM electrolyzers.

“The fact that Chemical Engineering is noticing us and contacting us for an interview confirms that we are addressing a very critical problem to produce fossil-free hydrogen, namely the shortage and cost of iridium. It also proves that our solution is unique and significant for future energy solutions”, says Ellinor Ehrnberg, CEO of Smoltek Hydrogen.

Chemical Engineering is one of the world's most respected publications in chemical and energy engineering. It reaches decision-makers, engineers and developers working on future energy solutions, including electrolyzers for the production of green hydrogen.

The article, titled ”Nanofibers dramatically increase catalytic activity for ultra-low-iridium electrolysis,” describes how Smoltek Hydrogen’s proprietary porous transport electrode (PTE) enables up to a 95 percent reduction in iridium content, without compromising the performance of the electrolyzer cell. Smoltek Hydrogen's solution means that iridium is deposited directly onto an electrically conductive material (the porous transport layer), instead of onto a plastic membrane, which requires only a a very thin layer of iridium. In addition, Smoltek's proprietary carbon nanofibers enable an up to thirty-fold increase in catalytic surface area – an innovation that no other player on the market can match.

The Role of Nanotechnology in Plant Genome Editing

2025-04-09 - 2025-04

However, traditional gene delivery methods, such as Agrobacterium-mediated transformation and gene guns, are often slow, inefficient, and can damage plant tissues. These highlight the need for more precise and adaptable systems to deliver gene-editing tools like CRISPR/Cas9, RNA, and DNA.1,2

Nanotechnology offers a promising alternative. Nanoparticle-based delivery can enhance efficiency, bypass species-specific barriers, and work across a wider range of crops.

But how exactly does nanotechnology enable more effective genome editing, and what are the practical implications

How Nanotechnology is Used in Genome Editing
Several types of nanoparticles have been used to deliver gene-editing tools.

Gold nanoparticles (AuNPs) are widely used due to their biocompatibility and ease of functionalization. AuNPs can bind to nucleic acids, protect them from degradation, and facilitate their delivery into plant cells. They have been successfully used for small interfering RNA (siRNA) delivery, achieving high gene knockdown efficiency in various plant species.3,4

Carbon nanotubes (CNTs)—both single-walled and multi-walled—are another promising nanocarrier. They are small, strong, and can penetrate plant cell walls.

Functionalized CNTs have been used to deliver DNA plasmids into plant cells, enabling transient gene expression. They can also electrostatically adsorb small RNA molecules, providing stability and enhancing cellular uptake while reducing off-target effects.5

Lipid-based nanoparticles (LNPs) are particularly effective for CRISPR/Cas9 delivery due to their high payload capacity, self-assembly properties, and ability to encapsulate ribonucleoprotein (RNPs).

Liposomes, a type of LNP, can be engineered with cationic lipids to facilitate the adsorption of negatively charged genetic material, such as sgRNA and Cas9 mRNA. This approach enhances genome-editing efficiency while minimizing toxicity and immune responses in plant cells.

Improving rapid tests: DNA nanotechnology boosts sensitivity of test strips

2025-04-08 - 2025-04

Since the COVID-19 pandemic, pretty much everybody is familiar with this technology: paper-based rapid test strips, also called lateral flow immunoassays (LFIAs). They enable easy detection of biomarkers that indicate the presence of specific pathogens or states of health.
Now a research group led by Heini Ijäs, Maximilian J. Urban, and Tim Liedl from LMU Munich has managed to significantly improve such tests using a cutting-edge nanotechnology called DNA origami.

In DNA origami, DNA is folded—akin to the Japanese art of paper folding—to create nanoscale structures of virtually any shape. In this case, the researchers engineered a nanoscale amplifier substantially boosting the sensitivity of LFIAs.

Nanotechnology startup Vimano raises Rs 25 crore from Ankur Capital

2025-04-07 - 2025-04

Nanotechnology startup Vimano will use the fresh capital to develop low-cost membranes that can improve the performance of clean energy systems, including batteries for energy storage and devices. Vimano claims its membrane platform addresses key bottlenecks in the energy transition—especially the high cost of green hydrogen production and the lack of affordable long-duration energy storage (LDES).

Nanotechnology Clothing Market Growth 2025: Innovations in Smart Textiles, Sustainable Fabrics, and Wearable Tech Trends

2025-04-04 - 2025-04

Nanotechnology Clothing Market: Key Trends and Growth Prospects in 2025

The nanotechnology clothing market is undergoing a rapid transformation in 2025, driven by groundbreaking advancements in material science, sustainability initiatives, and the growing demand for functional and smart textiles. With innovations that enhance fabric properties, integrate wearable technology, and improve sustainability, the industry is set for significant expansion. This article explores key market projections, emerging trends, and technological breakthroughs shaping the nanotechnology clothing market in 2025.

Market Growth and Projections
The Nanotechnology Clothing Market is Valued USD 5.20 billion in 2019 and projected to reach USD 18.45 billion by 2027, growing at a CAGR of 25.5% During the Forecast period of 2024-2032.

Long-term industry estimates predict substantial growth driven by increasing adoption across various sectors, including sportswear, healthcare, military, and fashion.

Factors contributing to this expansion include innovations in self-cleaning fabrics, moisture-wicking textiles, and smart wearable applications.

Squeezing tissue with ultrasound for drug delivery

2025-04-03 - 2025-04

Conventional methods of ultrasound-driven drug transport use heat or cavitation. In contrast, the squeezing interstitial fluid via transfer of ultrasound momentum (SIF-TUM) method is purely mechanical. SIF-TUM uses ultrasound to compress tissue and generate an interstitial fluid stream. When the ultrasound is turned off, the tissue recovers and the stream backflows, creating a fluid motion that can be used to transport drugs and other nanoparticles.

Whereas previous studies investigated this technique theoretically, Ren et al. experimentally demonstrated SIF-TUM, employing the technique to mechanically drive interstitial fluid and transport nanoparticles in ex vivo animal tissues.

They found that the velocity of the transported nanoparticles depends more on the properties of the tissue than on the ultrasound strength. For example, nanoparticles moved about 8.75 times faster in porcine muscle than in chicken breast. This is due to the structural differences of these types of tissue and highlights the potential use of SIF-TUM for controlled drug distribution in dense tissues, such as tumors.

“This non-thermal, non-invasive approach could overcome major limitations in nanomedicine, such as poor penetration in tumors,” said author Baohong Yuan. “By experimentally confirming SIF-TUM, we bridge theory with real-world applications, paving the way for safer, more efficient drug delivery and imaging strategies that are adaptable to different tissue types.”

Supercomputer Modeling Reveals Critical Shape Changes in Nanoparticle Seed Formation

2025-04-02 - 2025-04

Researchers from Pennsylvania State University have developed a new method for effectively modeling seed particles composed of 100–200 atoms using a supercomputer. They found that the temperature and solvent composition had unexpected effects on the shapes of these microscopic particles. Interestingly, adding or removing just one atom can sometimes lead to a significant change in the particle's shape.

Radioactive gold nanoparticles could track drug distribution in the body

2025-04-01 - 2025-04

Gold nanoparticles are promising vehicles for targeted delivery of cancer drugs, offering biocompatibility plus a tendency to accumulate in tumours. To fully exploit their potential, it’s essential to be able to track the movement of these nanoparticles in the body. To date, however, methods for directly visualizing their pharmacokinetics have not yet been established. Aiming to address this shortfall, researchers in Japan are using neutron-activated gold radioisotopes to image nanoparticle distribution in vivo.

The team, headed up by Nanase Koshikawa and Jun Kataoka from Waseda University, are investigating the use of radioactive gold nanoparticles based on 198Au, which they create by irradiating stable gold (197Au) with low-energy neutrons. The radioisotope 198Au has a half-life of 2.7 days and emits 412 keV gamma rays, enabling a technique known as activation imaging.

“Our motivation was to visualize gold nanoparticles without labelling them with tracers,” explains Koshikawa. “Radioactivation allows gold nanoparticles themselves to become detectable from outside the body. We used neutron activation because it does not change the atomic number, ensuring the chemical properties of gold nanoparticles remain unchanged.”

What is Nanotechnology. A Simple Guide to Tiny Tech for Indians

2025-03-31 - 2025-03

magine a world where diseases are treated at the molecular level, electronics become smaller yet more powerful, and environmental pollution is cleaned using nano-sized materials. For India, with its rapidly growing tech sector and healthcare challenges, this isn’t science fiction but the transformative power of nanotechnology.

Nanotechnology involves the study and manipulation of nanomaterials, operating at a remarkably small scale—a nanometer is just a billionth of a metre. At this size, materials behave in unique ways, and understanding these properties is leading to groundbreaking advancements in medicine, electronics, energy, and manufacturing sectors that are vital to India’s development.

India bets of nano tech to power AI and supercomputing

2025-03-28 - 2025-03

India is expanding its nanoelectronics ecosystem to boost AI, supercomputing, and semiconductor manufacturing. MeitY’s initiatives aim to strengthen domestic chip production, enhance research, and position India as a global semiconductor leader
There are 20 billion transistors in one smartphone, and these are smaller than the size of a human hair. This advancement is leading to supercomputing, quantum computing, and, importantly, artificial intelligence, enabling us to do more computing with less time and energy consumption, Abhishek Singh, Additional Secretary, MeitY (ministry of electronics and information technology), pointed out. He was speaking on the revolution that Nanotechnology has brought into our lives and how the whole world of technology is shrinking at India's first Nano Electronics Roadshow at IISc (Indian Institute of Science) in Bengaluru.

RNA interference and nanomedicine join forces to fight dangerous fungal infections

2025-03-27 - 2025-03

Fungal infections are on the rise globally. According to a study by the Manchester Fungal Infection Group, in 2022, approximately 6.5 million people were infected by a pathogenic fungus, and about 3.8 million died as a result—nearly twice as many as in 2012. Even with medications, known as antifungals, the mortality rate for invasive infections caused by the mold Aspergillus fumigatus is as high as 85%. As resistant fungal strains increase, treatment becomes more difficult, and new therapies are urgently needed.
The study, published in the journal Nanoscale and highlighted on the back cover, demonstrates that this RNAi approach shuts down vital fungal genes, thereby inhibiting pathogen growth—a groundbreaking step in the development of new antifungal therapies.

Nanotechnology Revolutionizes Breast Cancer Treatment

2025-03-26 - 2025-03

Nanotechnology in Breast Cancer Treatment: Australian scientists have achieved a major breakthrough in nanotechnology for the treatment of triple-negative breast cancer (TNBC), one of the most aggressive forms of breast cancer. The iron-based nanoparticles developed by researchers can help make conventional treatments more effective.
TNBC differs from other types of breast cancer because it lacks the proteins that most conventional treatments target. For this reason, it is more challenging to treat.
These nano-adjuvants, developed by scientists at the Australian Institute for Bioengineering and Nanotechnology (AIBN), enhance the body’s immune system, increasing its ability to fight cancer.

Nanotechnology breakthrough may boost treatment for aggressive breast cancer: Study

2025-03-24 - 2025-03

Researchers in Australia are developing next-generation nanoparticles to enhance current treatments for triple-negative breast cancer (TNBC), one of the most aggressive and deadly forms of the disease.

The researchers are designing innovative iron-based nanoparticles, or “nano-adjuvants,” which are small enough to fit thousands on a single strand of hair, to strengthen the body’s immune response against TNBC, according to the University of Queensland’s Australian Institute for Bioengineering and Nanotechnology (AIBN) on Monday, Xinhua news agency reported.

Unlike other breast cancers, TNBC lacks the proteins targeted by some conventional treatments, making effective therapy a significant challenge, according to Prof. Yu Chengzhong from the AIBN.

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