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Bio & Medicine

Bio & Medicine

Researchers discover that a protein nanoparticle vaccination with adjuvant enhances the immunological response to influenza.

According to a new study that was published by researchers from the Institute for Biomedical Sciences at Georgia State University, a novel type of protein nanoparticle vaccine formulation that contained influenza proteins as well as an adjuvant to boost immune responses has provided complete protection against influenza viral challenges. A promising influenza vaccine candidate that makes use of adjuvants—substances that enhance the immune system's response to a vaccine—to improve its effectiveness against viral infections is the subject of research that was recently published in the journal Small. Using influenza nucleoprotein as the core and NA1-M2e or NA2-M2e surface proteins as
Bio & Medicine

Innovative method for early identification of Parkinson’s disease and chronic wasting condition

A new diagnostic method has been developed by researchers at the University of Minnesota Twin Cities that will make it possible to detect neurodegenerative diseases more quickly and with greater precision. Various diseases that affect humans, such as Alzheimer's and Parkinson's, and similar diseases that affect animals, such as chronic wasting disease (CWD), may be treated and mitigated earlier as a result of the method. Nano Letters has published their latest study. "Our goal is ultimately to expand the technology for a broad spectrum of neurodegenerative diseases, with Alzheimer's and Parkinson's being the two main targets," stated Sang-Hyun Oh, senior
Bio & Medicine

Researchers break through the barrier to stem cell delivery, opening the door for regenerative medicine.

A new report distributed in Nano Letters has presented another technique for conveying particles into undifferentiated cells, which are famously hard to enter. The revelation will make it simpler to direct and upgrade the cycles involved with regenerative medication. Regenerative medicine exploits the way that our body's foundational microorganisms can change into numerous other cell types that are crucial for the recovery of tissue and organs, like heart or nerve cells. Each kind of cell has specific properties and capabilities, so bridging the capability of immature microorganism improvement implies that regenerative medication offers probably the most encouraging medicines for some
Bio & Medicine

Researchers find that different species have comparable molecular responses to nanoparticles.

The Finnish Hub for Development and Validation of Integrated Approaches (FHAIVE) at Tampere University has discovered a novel, multispecies-specific response mechanism to nanoparticle exposure. Doctoral student Giusy del Giudice has discovered an ancestral epigenetic defense mechanism that explains how different species, from humans to simpler creatures, adapt over time to this kind of exposure by analyzing a large collection of datasets regarding the molecular response to nanomaterials. The paper "An Ancestral Molecular Response to Nanomaterial Particulates," which was recently published in Nature Nanotechnology, presents the findings of the research that was led by Professor Dario Greco of the Faculty of
Bio & Medicine

Early cancer diagnosis could be provided by a simple paper test.

A new nanoparticle sensor developed by engineers at MIT has the potential to enable a straightforward urine test for the early detection of cancer. The sensors, which can recognize various malignant proteins, could likewise be utilized to recognize the kind of growth or the way things are responding to treatment. When the nanoparticles come into contact with a tumor, they are designed to release brief DNA sequences that are excreted in the urine. These DNA "barcodes" can be analyzed to reveal specific characteristics of a patient's tumor. The specialists planned their test with the goal that it very well may
Bio & Medicine

Engineers create electroconductive hydrogel for biomedical purposes.

Tissue repair, drug delivery, medical implants, and a wide range of other applications call for synthetic hydrogels. In bioelectronic devices for cardiac or neural interfaces, such as neural prosthetics, cardiac patches, and electronic skin, hydrogels with electrically conductive components can be utilized. A new type of electroconductive hydrogel with outstanding mechanical strength and manufacturability has recently been developed by a team led by Dr. Lizhi Xu of the Department of Mechanical Engineering in the Faculty of Engineering at the University of Hong Kong (HKU). This opens up possibilities for the engineering of various bioelectronic devices. In an article titled "Hybrid
Bio & Medicine

A new technique for isolating and studying a single protein provides the path for a better knowledge of disease processes.

Researchers have developed new innovations that have made it conceivable to confine and concentrate on how a solitary protein — multiple times more slender than a human hair — acts and changes after some time. The research, which the team at Nottingham Trent University claims is the first of its kind, enables them to observe how a protein behaves in its natural environment and has the potential to improve our comprehension of disease-associated proteins and the ways in which they may respond to specific treatments. The study makes use of a very high concentration of light that, when transmitted through
Bio & Medicine

DNA microcapsules: Increasing the capacity of data storage in the future

Although it is in the near future, the idea of storing data in DNA sounds like something out of a science fiction novel. Within five to ten years, Professor Tom de Greef anticipates that the first DNA data center will be operational. A hard drive will not store data as zeros and ones but rather as the base pairs of DNA: CG and AT. Such a server farm would appear as a lab, commonly more modest than the ones today. De Greef already sees everything. In one piece of the structure, new records will be encoded through DNA combinations. Large
Bio & Medicine

The researchers created genetically encoded DNA origami for in vivo targeted and precise gene therapy.

Nucleic acid molecules have been developed as gene therapeutic drugs because they can carry genetic information. Nucleic acid is able to precisely self-assemble into nanostructures of specific sizes and shapes by using complementary base pairing to encode functional genes. However, gene therapy has rarely utilized these DNA nanostructures' inherent properties (encoding genes). Ding Baoquan's team at the National Center for Nanoscience and Technology (NCNST) of the Chinese Academy of Sciences (CAS) created a genetically encoded DNA origami for precise and targeted gene therapy in vivo in a study that was published in the Journal of the American Chemical Society. "Efficient
Bio & Medicine

Researchers have developed an ovarian cancer nanodrug that is based on RNA.

Ovarian cancer kills more women than any other cancer of the female reproductive system, ranking fifth in women's cancer deaths. For the first time, researchers at Tel Aviv University used the protein CKAP5 (cytoskeleton-associated protein) as a therapeutic target for RNA-based nanodrugs in a study. The researchers targeted cells in the tissues of ovarian cancer with lipid nanoparticles containing RNA for silencing CKAP5, causing the cells to collapse and achieving an 80 percent survival rate in animal models after identifying a genetically unstable mutation that was resistant to both chemotherapy and immunotherapy. "Through the precise delivery of an RNA drug,