➀ ETH Zurich researchers demonstrated a near-pure quantum state (92% quantum purity) in a nanoparticle tower at room temperature without cryogenic cooling;

➁ The experiment achieved suppression of classical motion, observing quantum fluctuations in an object containing hundreds of millions of atoms—a record in scale and purity for room-temperature systems;

➂ Potential applications include ultra-sensitive quantum sensors for dark matter detection, miniaturized medical imaging devices, and navigation systems independent of GPS satellites.

➀ Researchers developed **PPBC LNPs**, multifunctional nanoparticles integrating photodynamic therapy (PDT), photothermal therapy (PTT), and real-time imaging to combat treatment-resistant bladder cancer;

➁ The nanoparticles demonstrated strong anti-cancer effects by inducing cell death and suppressing autophagy (a resistance mechanism) while enabling high-resolution imaging via photoacoustic and fluorescence modalities;

➂ In vivo trials showed tumor reduction with no toxicity, and scalable microfluidic synthesis supports potential clinical translation for precision medicine.

➀ Loughborough University physicists created a platinum violin measuring 35 microns long using nanotechnology to demonstrate their new nanolithography system's capabilities;

➁ The process involved thermal scanning probe lithography with a NanoFrazor machine, depositing platinum on a resist-coated chip to form the microscopic structure;

➂ The system supports research into advanced materials for next-gen computing, including energy-efficient data storage and processing methods.

➀ The study introduces a biomimetic nanovaccine (AECM@PC7A) that combines IFN-γ-treated tumor cell membranes with a synthetic adjuvant (PC7A) to enhance neoantigen presentation and activate the STING pathway, addressing limitations of conventional cancer vaccines;

➁ In preclinical models, the vaccine triggered robust T-cell responses, reduced tumor growth and metastasis, and demonstrated synergy with immune checkpoint inhibitors, leading to prolonged survival and immune memory;

➂ The platform offers a scalable approach for personalized immunotherapy by leveraging tumor-specific neoantigens and simplified manufacturing processes, showing promise for clinical translation.

➀ Atum Works claims its nanoscale 3D printing method can replace current production flows and reduce chip fabrication costs by 90%;

➁ The method uses a nanoscale 3D printer to fabricate multi-material 3D structures with a 100 nm resolution at wafer scale;

➂ While not suitable for high-performance processors, the technology may be beneficial for packaging, photonics, sensors, and non-logic elements.

➀ A recent study introduces a self-aligned gate architecture for carbon nanotube (CNT) phototransistors designed for shortwave infrared (SWIR) detection.

➁ The devices demonstrate high responsivity and detectivity while maintaining a simplified fabrication process.

➂ The self-aligned gate structure allows for complete coverage of the CNT channel, improving optical and electrical coupling.

➀ This research investigates how metallic thin films, specifically cobalt layers used in hard disk drives (HDDs), can be modified to improve performance and reliability through plasma-assisted surface modification techniques.

➁ The study uses molecular dynamics (MD) simulations and experimental validation to demonstrate how different inert gas ions affect asperity size and surface texture.

➂ The findings suggest that heavier inert gas ions are more effective at reducing asperity size, with Xenon (Xe) providing the most pronounced smoothing effect.

➀ Researchers from the University of Connecticut and Eascra Biotech are producing innovative nanomaterials in space to improve treatments for osteoarthritis and cancer.

➁ Janus base nanomaterials (JBNs) are developed to regenerate cartilage and could be used in precision cancer treatment.

➂ The ISS National Lab is used to test the production of JBNs in space, where gravity-driven forces are reduced, leading to better uniformity and patient outcomes.

➀ IHP and Nagoya University have been collaborating on research in the fields of SiGe epitaxy, nanotechnology, and advanced semiconductor and optoelectronic devices.

➁ The partnership aims to develop new epitaxy techniques and optimize semiconductor interfaces for miniaturization of electronic devices.

➂ The collaboration includes academic exchanges and a visiting professorship to strengthen academic ties.

➀ IHP, in collaboration with the University of Nagoya, is engaged in research on SiGe epitaxy, nanotechnology, and advanced semiconductor and optoelectronic devices.

➁ The partnership aims to optimize semiconductor interfaces through new epitaxial techniques and methods to enable the miniaturization of electronic devices.

➂ The research focuses on SiGe epitaxy processes, properties of silicon-germanium nanowires and nanoparticles for energy-efficient transistors and lasers, and luminescence properties of Si and Ge nanostructures.

The IHP - Leibniz-Institut für innovative Mikroelektronik has been closely collaborating with the University of Nagoya, Japan, for many years. The partnership involves research collaboration in the fields of Silicon-Germanium Epitaxy (SiGe), Nanotechnology, and advanced semiconductor and optoelectronic devices.

The partners are developing new epitaxy techniques and methods to optimize semiconductor interfaces, enabling the miniaturization of electronic devices. One key element is the investigation of SiGe epitaxy processes using the IHP technology platform. The properties of Silicon-Germanium nanowires and nanoparticles are being studied for use in energy-efficient transistors and lasers on silicon. Other research topics include the luminescence properties of Si and Ge nanostructures and innovative solutions for sub-10nm technologies.

Prof. Dr. Andreas Mai, Head of the Technology Department at IHP, says, 'We are very excited about this collaboration as it allows us to benefit from the unique resources and experiences of both parties. The future of microelectronics and silicon photonics is being advanced through such international partnerships.' Dr. Yuji Yamamoto, Project Leader at IHP, adds, 'Our research on SiGe nanostructure epitaxy enables the development of energy-efficient transistors and light sources that can revolutionize quantum electronics and optoelectronics.'

➀ Researchers from Oregon State University have developed a method to deliver anti-inflammatory drugs across the blood-brain barrier;

➁ This may enable new treatments for diseases such as cancer cachexia, multiple sclerosis, Parkinson’s disease, and Alzheimer's disease;

➂ The delivery system uses specially designed nanoparticles and has been successful in a mouse model.

➀ Researchers have developed a novel caffeine sensor using zinc-doped tin oxide nanoparticles as an electrocatalyst.

➁ The sensor exhibits exceptional sensitivity and selectivity, with potential applications in food safety, healthcare, and environmental monitoring.

➂ The sensor is based on Zn-SnO₂ nanoparticles, which are coated onto a gold electrode and show high sensitivity and selectivity in detecting caffeine.

➀ This study presents a new microrobotic platform designed to improve the precision and versatility of nanoparticle manipulation using light.

➁ The microrobots are constructed with a rigid, transparent disk-shaped body and plasmonic antennas, with a plasmonic nano-tweezer at the core for nanoparticle trapping.

➂ The platform demonstrates high precision in trapping, transporting, and releasing nanoparticles, with potential applications in targeted drug delivery and quantum sensing.

➀ An international research team has developed a novel electrochemical catalyst for sustainable hydrogen production;

➁ The catalyst, based on a Ru nanocluster with a core-shell structure, shows high performance and stability with minimal use of precious metals;

➂ It outperforms platinum catalysts in hydrogen evolution reaction efficiency and has potential for commercial applications.

➀ Researchers from the University of Queensland are developing novel nanoparticles to enhance the effectiveness of immunotherapies for treating triple-negative breast cancer (TNBC);

➁ TNBC is an aggressive form of breast cancer with high mortality rates;

➂ The nanoparticles are designed to boost the immune response of TNBC patients to treatments, potentially leading to improved efficacy of immunotherapy.

➀ The study investigates the potential of iron-doped boron nitride nanoparticles (Fe-BNNPs) as nanocarriers for Anastrozole, an aromatase inhibitor used in breast cancer treatment.

➁ DFT analysis reveals strong binding affinity between Anastrozole and Fe-BNNPs, with optimized release mechanisms and targeted therapy potential.

➂ The research suggests that Fe-BNNPs could enhance therapeutic efficiency by improving drug stability and minimizing side effects.

➀ Researchers at the University of Turku have made a breakthrough in nanotechnology by refining single-wall carbon nanotubes (SWCNTs) for highly accurate sensor applications.

➁ The study focuses on separating nanotubes based on chirality, allowing precise control over their properties for optimized sensor performance.

➂ This advancement could revolutionize medical diagnostics by enabling the detection of biological markers at extremely low concentrations, with potential applications in hormone level monitoring and disease detection.

➀ ATLANT 3D announced a $15M Series A+ funding round led by West Hill Capital;

➁ The company's atomic-scale manufacturing technology enables precise development of advanced materials and devices for optics, photonics, microelectronics, quantum computing, sensors, and space applications;

➂ ATLANT 3D has successfully launched NANOFABRICATORTM LITE and has established partnerships with over 50 industrial and research organizations.

➀ The study introduces a new 3D printing approach for calcium phosphate structures using bone prenucleation clusters (PNCs).

➁ Researchers synthesized PNCs with an average size of 5 nm to enhance printing precision.

➂ The 2PP process was optimized for high-resolution printing, and structures as small as 300 nm were successfully printed.